code stringlengths 1 2.01M | repo_name stringlengths 3 62 | path stringlengths 1 267 | language stringclasses 231 values | license stringclasses 13 values | size int64 1 2.01M |
|---|---|---|---|---|---|
using System;
using System.Collections.Generic;
using System.Linq;
using System.Text;
using Microsoft.WindowsAzure.StorageClient;
using Microsoft.WindowsAzure;
using System.Data.Services.Client;
namespace SyncLibrary
{
public class CaptureTableService : TableServiceContext
{
public IQueryable<CaptureEntry> Captures {
get {
return CreateQuery<CaptureEntry>("captures");
}
}
public CaptureTableService(string baseAddress, StorageCredentials credentials)
: base(baseAddress, credentials) {
base.IgnoreResourceNotFoundException = true;
/*
foreach (var c in Captures)
{
DeleteObject(c);
}
SaveChanges();
*/
}
public string addCaptureEntry(string url)
{
string guid = Guid.NewGuid().ToString();
CaptureEntry e = new CaptureEntry { id = guid, url = url, done = false };
e.WorkerId = string.Empty;
e.StartTime = DateTime.Now;
e.EndTime = DateTime.Now;
e.blobUri = string.Empty;
this.AddObject("captures", e);
this.SaveChanges();
return guid;
}
public string startProcessingCapture(string taskId, string wid)
{
CaptureEntry captureEntry = (from capture in Captures where capture.id == taskId select capture).First();
captureEntry.StartTime = DateTime.Now;
captureEntry.EndTime = DateTime.Now;
captureEntry.done = false;
captureEntry.WorkerId = wid;
captureEntry.blobUri = string.Empty;
this.UpdateObject(captureEntry);
this.SaveChanges();
return captureEntry.url;
}
public void finishProcessingCapture(string taskId, CloudBlob blobRef)
{
CaptureEntry captureEntry = (from capture in Captures
where capture.id == taskId select capture).First();
// Remark: need only the relative uri when internally downloading from blob,
// didnt find a way to retrieve it. If it makes problems when in the Cloud, might need to change here
captureEntry.blobUri = blobRef.Uri.Segments[blobRef.Uri.Segments.Length - 1];
captureEntry.EndTime = DateTime.Now;
captureEntry.done = true;
this.UpdateObject(captureEntry);
this.SaveChanges();
}
public IEnumerable<CaptureEntry> getAllCapturesByUrl(string url)
{
IEnumerable<CaptureEntry> entries = from capture in
Captures
where capture.url == url &&
!capture.blobUri.Equals(string.Empty)
select capture;
return entries;
}
public int capturesCount()
{
try
{
IEnumerable<CaptureEntry> captures = (from capture in Captures where capture.done == true select capture);
return captures.Count();
}
catch (DataServiceQueryException)
{
return 0;
}
}
public int pendingCount()
{
try
{
IEnumerable<CaptureEntry> captures = (from capture in Captures where capture.done == false select capture);
return captures.Count();
}
catch (DataServiceQueryException)
{
return 0;
}
}
public IEnumerable<WorkerStat> getWorkersStats()
{
List<CaptureEntry> list = (from c in Captures select c).ToList();
var qry = from c in list
where c.done == true
group c by c.WorkerId into wgrp
select new WorkerStat
{
wid = wgrp.Key,
imgCount = wgrp.Count(),
avgProcTime = new TimeSpan((long)wgrp.Average(z => z.EndTime.Ticks - z.StartTime.Ticks)).TotalSeconds
};
return qry;
}
public static CaptureTableService initCaptureTable(CloudStorageAccount account)
{
CloudTableClient.CreateTablesFromModel(typeof(CaptureTableService),
account.TableEndpoint.AbsoluteUri, account.Credentials);
return new CaptureTableService(account.TableEndpoint.ToString(), account.Credentials);
}
}
}
| 049011-cloud-2011 | trunk/hw2_cloud/SyncLibrary/CaptureTableService.cs | C# | asf20 | 4,866 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Text;
namespace SyncLibrary
{
public class CaptureError : Exception
{
public CaptureError(string p) : base(p) { }
}
}
| 049011-cloud-2011 | trunk/hw2_cloud/SyncLibrary/CaptureError.cs | C# | asf20 | 234 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Text;
using Microsoft.WindowsAzure.StorageClient;
using Microsoft.WindowsAzure;
namespace SyncLibrary
{
[Serializable]
public class CaptureEntry : Microsoft.WindowsAzure.StorageClient.TableServiceEntity
{
public string id { get; set; } //The id of the capture request
public string url { get; set; } //File URI on the storage
public DateTime StartTime { get; set; } //Start proc time by the last worker who picked this task
public DateTime EndTime { get; set; } //End proc time
public string WorkerId { get; set; } //Responsible worker id
public string blobUri { get; set; } //More File info created by OS
public Boolean done { get; set; } //done proc?
public CaptureEntry()
{
PartitionKey = "c";
RowKey = string.Format("{0:10}_{1}", DateTime.MaxValue.Ticks - DateTime.Now.Ticks, Guid.NewGuid());
}
override public string ToString()
{
return string.Format("id: {0}, url: {1}", id, url);
}
};
}
| 049011-cloud-2011 | trunk/hw2_cloud/SyncLibrary/CaptureEntry.cs | C# | asf20 | 1,191 |
<%@ Application Codebehind="Global.asax.cs" Inherits="SyncWebsite.Global" Language="C#" %>
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Global.asax | ASP.NET | asf20 | 95 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Web;
using System.Web.UI;
using System.Web.UI.WebControls;
namespace SyncWebsite
{
public partial class SiteMaster : System.Web.UI.MasterPage
{
protected void Page_Load(object sender, EventArgs e)
{
}
protected void Login1_Authenticate(object sender, AuthenticateEventArgs e)
{
}
}
}
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Site.Master.cs | C# | asf20 | 453 |
using System.Reflection;
using System.Runtime.CompilerServices;
using System.Runtime.InteropServices;
// General Information about an assembly is controlled through the following
// set of attributes. Change these attribute values to modify the information
// associated with an assembly.
[assembly: AssemblyTitle("SyncWebsite")]
[assembly: AssemblyDescription("")]
[assembly: AssemblyConfiguration("")]
[assembly: AssemblyCompany("Microsoft")]
[assembly: AssemblyProduct("SyncWebsite")]
[assembly: AssemblyCopyright("Copyright © Microsoft 2011")]
[assembly: AssemblyTrademark("")]
[assembly: AssemblyCulture("")]
// Setting ComVisible to false makes the types in this assembly not visible
// to COM components. If you need to access a type in this assembly from
// COM, set the ComVisible attribute to true on that type.
[assembly: ComVisible(false)]
// The following GUID is for the ID of the typelib if this project is exposed to COM
[assembly: Guid("2eb97769-7a04-463e-957b-160534f625bc")]
// Version information for an assembly consists of the following four values:
//
// Major Version
// Minor Version
// Build Number
// Revision
//
// You can specify all the values or you can default the Revision and Build Numbers
// by using the '*' as shown below:
[assembly: AssemblyVersion("1.0.0.0")]
[assembly: AssemblyFileVersion("1.0.0.0")]
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Properties/AssemblyInfo.cs | C# | asf20 | 1,411 |
<%@ Page Title="About Us" Language="C#" MasterPageFile="~/Site.master" AutoEventWireup="true"
CodeBehind="About.aspx.cs" Inherits="SyncWebsite.About" %>
<asp:Content ID="BodyContent" runat="server" ContentPlaceHolderID="MainContent">
<h2>
About
</h2>
<p>
Oshrit Feder & Assaf Israel <br />
Directory syncronizer using cloud storage.
</p>
</asp:Content>
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/About.aspx | ASP.NET | asf20 | 415 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Web;
using System.Web.UI;
using System.Web.UI.WebControls;
using Microsoft.WindowsAzure.StorageClient;
using System.Data.Services.Client;
using Microsoft.WindowsAzure;
using Microsoft.WindowsAzure.ServiceRuntime;
using SyncLibrary;
namespace SyncWebsite
{
public partial class LogsPage : System.Web.UI.Page
{
private static SyncLoggerService context;
protected void Page_Load(object sender, EventArgs e)
{
bool loggedIn = (GetSessionObject("LoggedIn") == null ? false : (bool)GetSessionObject("LoggedIn"));
if (!loggedIn)
{
StoreInSession("goBackToURL", Request.RawUrl); //The URL to get back to after password is verified
Response.Redirect("~/Password.aspx");
return;
}
try
{
if (!IsPostBack)
{
/*
* Intialize only once
*/
var machineName = System.Environment.MachineName.ToLower();
var account = CloudStorageAccount.FromConfigurationSetting("DataConnectionString");
context = new SyncLoggerService(machineName, account.TableEndpoint.ToString(), account.Credentials);
}
this.LogView.DataSource = context.Logs; //Refresh at every read
this.LogView.DataBind();
}
catch (DataServiceRequestException ex)
{
Console.WriteLine("Unable to connect to the table storage server. Please check that the service is running.<br>"
+ ex.Message);
}
}
protected string GetSessionString(string keyName)
{
if (Request.RequestContext.HttpContext.Session[keyName] != null)
{
return Request.RequestContext.HttpContext.Session[keyName].ToString();
}
return string.Empty;
}
protected object GetSessionObject(string keyName)
{
return Request.RequestContext.HttpContext.Session[keyName];
}
private void StoreInSession(string keyName, object value)
{
Request.RequestContext.HttpContext.Session.Add(keyName, value);
}
}
} | 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/LogsPage.aspx.cs | C# | asf20 | 2,496 |
<%@ Page Title="Files" Language="C#" MasterPageFile="~/Site.master" AutoEventWireup="true"
CodeBehind="StoragePage.aspx.cs" Inherits="SyncWebsite.WebForm1" %>
<asp:Content ID="BodyContent" runat="server" ContentPlaceHolderID="MainContent">
List of synced files stored in the cloud: <br /><br />
<div>
<asp:GridView ID="FilesView" runat="server" AutoGenerateColumns="False"
CellPadding="4" ForeColor="#333333" GridLines="None">
<AlternatingRowStyle BackColor="White" ForeColor="#284775" />
<Columns>
<asp:BoundField DataField="ContainerName" HeaderText="Container" />
<asp:BoundField DataField="NameWithLink" HeaderText="File Name"
HtmlEncode="False" />
<asp:BoundField DataField="Modified" HeaderText="Last Modified" />
</Columns>
<EditRowStyle BackColor="#999999" />
<FooterStyle BackColor="#5D7B9D" Font-Bold="True" ForeColor="White" />
<HeaderStyle BackColor="#5D7B9D" Font-Bold="True" ForeColor="White" />
<PagerStyle BackColor="#284775" ForeColor="White" HorizontalAlign="Center" />
<RowStyle BackColor="#F7F6F3" ForeColor="#333333" />
<SelectedRowStyle BackColor="#E2DED6" Font-Bold="True" ForeColor="#333333" />
<SortedAscendingCellStyle BackColor="#E9E7E2" />
<SortedAscendingHeaderStyle BackColor="#506C8C" />
<SortedDescendingCellStyle BackColor="#FFFDF8" />
<SortedDescendingHeaderStyle BackColor="#6F8DAE" />
</asp:GridView>
</div>
</asp:Content> | 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/StoragePage.aspx | ASP.NET | asf20 | 1,675 |
<%@ Page Title="" Language="C#" MasterPageFile="~/Site.Master" AutoEventWireup="true" CodeBehind="Password.aspx.cs" Inherits="SyncWebsite.Password" %>
<asp:Content ID="Content1" ContentPlaceHolderID="HeadContent" runat="server">
</asp:Content>
<asp:Content ID="Content2" ContentPlaceHolderID="MainContent" runat="server">
<p>
You're about to enter to a secure page.</p>
Please enter the password:
<asp:TextBox ID="PasswordText" runat="server"
ontextchanged="TextBox1_TextChanged" TextMode="Password"></asp:TextBox>
<asp:Button ID="PasswordSubmit" runat="server"
onclientclick="CheckPassword" Text="Submit" onclick="CheckPassword"></asp:Button>
<p>
<asp:Label ID="statusLabel" runat="server"></asp:Label>
</p>
</asp:Content>
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Password.aspx | ASP.NET | asf20 | 830 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Web;
using System.Web.Security;
using System.Web.SessionState;
using Microsoft.WindowsAzure;
using Microsoft.WindowsAzure.ServiceRuntime;
namespace SyncWebsite
{
public class Global : System.Web.HttpApplication
{
void Application_Start(object sender, EventArgs e)
{
CloudStorageAccount.SetConfigurationSettingPublisher((configName, configSetter) =>
{
// Provide the configSetter with the initial value
configSetter(RoleEnvironment.GetConfigurationSettingValue(configName));
});
}
void Application_End(object sender, EventArgs e)
{
// Code that runs on application shutdown
}
void Application_Error(object sender, EventArgs e)
{
// Code that runs when an unhandled error occurs
}
void Session_Start(object sender, EventArgs e)
{
// Code that runs when a new session is started
}
void Session_End(object sender, EventArgs e)
{
// Code that runs when a session ends.
// Note: The Session_End event is raised only when the sessionstate mode
// is set to InProc in the Web.config file. If session mode is set to StateServer
// or SQLServer, the event is not raised.
}
}
}
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Global.asax.cs | C# | asf20 | 1,502 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Web;
using System.Web.UI;
using System.Web.UI.WebControls;
using System.Drawing;
using Microsoft.WindowsAzure;
using Microsoft.WindowsAzure.ServiceRuntime;
namespace SyncWebsite
{
public partial class Password : System.Web.UI.Page
{
private static string passwd;
protected void Page_Load(object sender, EventArgs e)
{
passwd = RoleEnvironment.GetConfigurationSettingValue("SuperSecretPassword");
if (GetSessionObject("LoggedIn") != null && (bool)GetSessionObject("LoggedIn") == true)
{
statusLabel.Text = "You're already logged in";
statusLabel.ForeColor = Color.Green;
//StoreInSession("warning", "You're already logged in");
}
}
protected void TextBox1_TextChanged(object sender, EventArgs e)
{
}
protected void CheckPassword(object sender, EventArgs e)
{
if (PasswordText.Text == passwd)
{
StoreInSession("LoggedIn", true);
string nextURL = GetSessionString("goBackToURL");
if (nextURL != string.Empty)
{
Response.Redirect(nextURL);
return;
}
refresh();
return;
}
statusLabel.Text = "Incorrect password";
statusLabel.ForeColor = Color.Red;
//StoreInSession("warning", "Incorrect password");
//refresh();
}
protected string GetSessionString(string keyName)
{
if (Request.RequestContext.HttpContext.Session[keyName] != null)
{
return Request.RequestContext.HttpContext.Session[keyName].ToString();
}
return string.Empty;
}
protected object GetSessionObject(string keyName)
{
return Request.RequestContext.HttpContext.Session[keyName];
}
private void refresh()
{
Response.Redirect(Request.RawUrl);
}
private void StoreInSession(string keyName, object value)
{
Request.RequestContext.HttpContext.Session.Add(keyName, value);
}
}
} | 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Password.aspx.cs | C# | asf20 | 2,420 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Web;
using System.Web.UI;
using System.Web.UI.WebControls;
using Microsoft.WindowsAzure;
using SyncLibrary;
using Microsoft.WindowsAzure.StorageClient;
namespace SyncWebsite
{
public partial class WebForm1 : System.Web.UI.Page
{
private static IEnumerable<CloudBlobContainer> containers;
protected void Page_Load(object sender, EventArgs e)
{
bool loggedIn = (GetSessionObject("LoggedIn") == null ? false : (bool)GetSessionObject("LoggedIn"));
if (!loggedIn)
{
StoreInSession("goBackToURL", Request.RawUrl);
Response.Redirect("~/Password.aspx");
return;
}
var account = CloudStorageAccount.FromConfigurationSetting("DataConnectionString");
if (!IsPostBack)
{
containers = SyncFileBrowser.getBlobContainers(account); //Need to initialize only once
}
/*
* Refresh results
*/
List<FileEntry> files = new List<FileEntry>();
foreach (CloudBlobContainer container in containers)
{
files.AddRange(SyncFileBrowser.getCloudFiles(container));
}
this.FilesView.DataSource = files;
this.FilesView.DataBind();
}
protected string GetSessionString(string keyName)
{
if (Request.RequestContext.HttpContext.Session[keyName] != null)
{
return Request.RequestContext.HttpContext.Session[keyName].ToString();
}
return string.Empty;
}
protected object GetSessionObject(string keyName)
{
return Request.RequestContext.HttpContext.Session[keyName];
}
private void StoreInSession(string keyName, object value)
{
Request.RequestContext.HttpContext.Session.Add(keyName, value);
}
}
} | 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/StoragePage.aspx.cs | C# | asf20 | 2,102 |
using System;
using System.Collections.Generic;
using System.Linq;
using Microsoft.WindowsAzure;
using Microsoft.WindowsAzure.Diagnostics;
using Microsoft.WindowsAzure.ServiceRuntime;
namespace SyncWebsite
{
public class WebRole : RoleEntryPoint
{
public override bool OnStart()
{
// DiagnosticMonitor.Start("DiagnosticsConnectionString");
RoleEnvironment.Changing += RoleEnvironmentChanging;
// This code sets up a handler to update CloudStorageAccount instances when their corresponding
// configuration settings change in the service configuration file.
CloudStorageAccount.SetConfigurationSettingPublisher((configName, configSetter) =>
{
// Provide the configSetter with the initial value
configSetter(RoleEnvironment.GetConfigurationSettingValue(configName));
RoleEnvironment.Changed += (anotherSender, arg) =>
{
if (arg.Changes.OfType<RoleEnvironmentConfigurationSettingChange>()
.Any((change) => (change.ConfigurationSettingName == configName)))
{
// The corresponding configuration setting has changed, propagate the value
if (!configSetter(RoleEnvironment.GetConfigurationSettingValue(configName)))
{
// In this case, the change to the storage account credentials in the
// service configuration is significant enough that the role needs to be
// recycled in order to use the latest settings. (for example, the
// endpoint has changed)
RoleEnvironment.RequestRecycle();
}
}
};
});
return base.OnStart();
}
private void RoleEnvironmentChanging(object sender, RoleEnvironmentChangingEventArgs e)
{
// If a configuration setting is changing
if (e.Changes.Any(change => change is RoleEnvironmentConfigurationSettingChange))
{
// Set e.Cancel to true to restart this role instance
e.Cancel = true;
}
}
}
}
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/WebRole.cs | C# | asf20 | 2,409 |
<%@ Page Title="Change Password" Language="C#" MasterPageFile="~/Site.master" AutoEventWireup="true"
CodeBehind="ChangePasswordSuccess.aspx.cs" Inherits="SyncWebsite.Account.ChangePasswordSuccess" %>
<asp:Content ID="HeaderContent" runat="server" ContentPlaceHolderID="HeadContent">
</asp:Content>
<asp:Content ID="BodyContent" runat="server" ContentPlaceHolderID="MainContent">
<h2>
Change Password
</h2>
<p>
Your password has been changed successfully.
</p>
</asp:Content>
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Account/ChangePasswordSuccess.aspx | ASP.NET | asf20 | 528 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Web;
using System.Web.UI;
using System.Web.UI.WebControls;
namespace SyncWebsite.Account
{
public partial class ChangePassword : System.Web.UI.Page
{
protected void Page_Load(object sender, EventArgs e)
{
}
}
}
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Account/ChangePassword.aspx.cs | C# | asf20 | 349 |
<%@ Page Title="Register" Language="C#" MasterPageFile="~/Site.master" AutoEventWireup="true"
CodeBehind="Register.aspx.cs" Inherits="SyncWebsite.Account.Register" %>
<asp:Content ID="HeaderContent" runat="server" ContentPlaceHolderID="HeadContent">
</asp:Content>
<asp:Content ID="BodyContent" runat="server" ContentPlaceHolderID="MainContent">
<asp:CreateUserWizard ID="RegisterUser" runat="server" EnableViewState="false" OnCreatedUser="RegisterUser_CreatedUser">
<LayoutTemplate>
<asp:PlaceHolder ID="wizardStepPlaceholder" runat="server"></asp:PlaceHolder>
<asp:PlaceHolder ID="navigationPlaceholder" runat="server"></asp:PlaceHolder>
</LayoutTemplate>
<WizardSteps>
<asp:CreateUserWizardStep ID="RegisterUserWizardStep" runat="server">
<ContentTemplate>
<h2>
Create a New Account
</h2>
<p>
Use the form below to create a new account.
</p>
<p>
Passwords are required to be a minimum of <%= Membership.MinRequiredPasswordLength %> characters in length.
</p>
<span class="failureNotification">
<asp:Literal ID="ErrorMessage" runat="server"></asp:Literal>
</span>
<asp:ValidationSummary ID="RegisterUserValidationSummary" runat="server" CssClass="failureNotification"
ValidationGroup="RegisterUserValidationGroup"/>
<div class="accountInfo">
<fieldset class="register">
<legend>Account Information</legend>
<p>
<asp:Label ID="UserNameLabel" runat="server" AssociatedControlID="UserName">User Name:</asp:Label>
<asp:TextBox ID="UserName" runat="server" CssClass="textEntry"></asp:TextBox>
<asp:RequiredFieldValidator ID="UserNameRequired" runat="server" ControlToValidate="UserName"
CssClass="failureNotification" ErrorMessage="User Name is required." ToolTip="User Name is required."
ValidationGroup="RegisterUserValidationGroup">*</asp:RequiredFieldValidator>
</p>
<p>
<asp:Label ID="EmailLabel" runat="server" AssociatedControlID="Email">E-mail:</asp:Label>
<asp:TextBox ID="Email" runat="server" CssClass="textEntry"></asp:TextBox>
<asp:RequiredFieldValidator ID="EmailRequired" runat="server" ControlToValidate="Email"
CssClass="failureNotification" ErrorMessage="E-mail is required." ToolTip="E-mail is required."
ValidationGroup="RegisterUserValidationGroup">*</asp:RequiredFieldValidator>
</p>
<p>
<asp:Label ID="PasswordLabel" runat="server" AssociatedControlID="Password">Password:</asp:Label>
<asp:TextBox ID="Password" runat="server" CssClass="passwordEntry" TextMode="Password"></asp:TextBox>
<asp:RequiredFieldValidator ID="PasswordRequired" runat="server" ControlToValidate="Password"
CssClass="failureNotification" ErrorMessage="Password is required." ToolTip="Password is required."
ValidationGroup="RegisterUserValidationGroup">*</asp:RequiredFieldValidator>
</p>
<p>
<asp:Label ID="ConfirmPasswordLabel" runat="server" AssociatedControlID="ConfirmPassword">Confirm Password:</asp:Label>
<asp:TextBox ID="ConfirmPassword" runat="server" CssClass="passwordEntry" TextMode="Password"></asp:TextBox>
<asp:RequiredFieldValidator ControlToValidate="ConfirmPassword" CssClass="failureNotification" Display="Dynamic"
ErrorMessage="Confirm Password is required." ID="ConfirmPasswordRequired" runat="server"
ToolTip="Confirm Password is required." ValidationGroup="RegisterUserValidationGroup">*</asp:RequiredFieldValidator>
<asp:CompareValidator ID="PasswordCompare" runat="server" ControlToCompare="Password" ControlToValidate="ConfirmPassword"
CssClass="failureNotification" Display="Dynamic" ErrorMessage="The Password and Confirmation Password must match."
ValidationGroup="RegisterUserValidationGroup">*</asp:CompareValidator>
</p>
</fieldset>
<p class="submitButton">
<asp:Button ID="CreateUserButton" runat="server" CommandName="MoveNext" Text="Create User"
ValidationGroup="RegisterUserValidationGroup"/>
</p>
</div>
</ContentTemplate>
<CustomNavigationTemplate>
</CustomNavigationTemplate>
</asp:CreateUserWizardStep>
</WizardSteps>
</asp:CreateUserWizard>
</asp:Content>
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Account/Register.aspx | ASP.NET | asf20 | 5,674 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Web;
using System.Web.UI;
using System.Web.UI.WebControls;
namespace SyncWebsite.Account
{
public partial class ChangePasswordSuccess : System.Web.UI.Page
{
protected void Page_Load(object sender, EventArgs e)
{
}
}
}
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Account/ChangePasswordSuccess.aspx.cs | C# | asf20 | 356 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Web;
using System.Web.Security;
using System.Web.UI;
using System.Web.UI.WebControls;
namespace SyncWebsite.Account
{
public partial class Register : System.Web.UI.Page
{
protected void Page_Load(object sender, EventArgs e)
{
RegisterUser.ContinueDestinationPageUrl = Request.QueryString["ReturnUrl"];
}
protected void RegisterUser_CreatedUser(object sender, EventArgs e)
{
FormsAuthentication.SetAuthCookie(RegisterUser.UserName, false /* createPersistentCookie */);
string continueUrl = RegisterUser.ContinueDestinationPageUrl;
if (String.IsNullOrEmpty(continueUrl))
{
continueUrl = "~/";
}
Response.Redirect(continueUrl);
}
}
}
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Account/Register.aspx.cs | C# | asf20 | 911 |
<%@ Page Title="Change Password" Language="C#" MasterPageFile="~/Site.master" AutoEventWireup="true"
CodeBehind="ChangePassword.aspx.cs" Inherits="SyncWebsite.Account.ChangePassword" %>
<asp:Content ID="HeaderContent" runat="server" ContentPlaceHolderID="HeadContent">
</asp:Content>
<asp:Content ID="BodyContent" runat="server" ContentPlaceHolderID="MainContent">
<h2>
Change Password
</h2>
<p>
Use the form below to change your password.
</p>
<p>
New passwords are required to be a minimum of <%= Membership.MinRequiredPasswordLength %> characters in length.
</p>
<asp:ChangePassword ID="ChangeUserPassword" runat="server" CancelDestinationPageUrl="~/" EnableViewState="false" RenderOuterTable="false"
SuccessPageUrl="ChangePasswordSuccess.aspx">
<ChangePasswordTemplate>
<span class="failureNotification">
<asp:Literal ID="FailureText" runat="server"></asp:Literal>
</span>
<asp:ValidationSummary ID="ChangeUserPasswordValidationSummary" runat="server" CssClass="failureNotification"
ValidationGroup="ChangeUserPasswordValidationGroup"/>
<div class="accountInfo">
<fieldset class="changePassword">
<legend>Account Information</legend>
<p>
<asp:Label ID="CurrentPasswordLabel" runat="server" AssociatedControlID="CurrentPassword">Old Password:</asp:Label>
<asp:TextBox ID="CurrentPassword" runat="server" CssClass="passwordEntry" TextMode="Password"></asp:TextBox>
<asp:RequiredFieldValidator ID="CurrentPasswordRequired" runat="server" ControlToValidate="CurrentPassword"
CssClass="failureNotification" ErrorMessage="Password is required." ToolTip="Old Password is required."
ValidationGroup="ChangeUserPasswordValidationGroup">*</asp:RequiredFieldValidator>
</p>
<p>
<asp:Label ID="NewPasswordLabel" runat="server" AssociatedControlID="NewPassword">New Password:</asp:Label>
<asp:TextBox ID="NewPassword" runat="server" CssClass="passwordEntry" TextMode="Password"></asp:TextBox>
<asp:RequiredFieldValidator ID="NewPasswordRequired" runat="server" ControlToValidate="NewPassword"
CssClass="failureNotification" ErrorMessage="New Password is required." ToolTip="New Password is required."
ValidationGroup="ChangeUserPasswordValidationGroup">*</asp:RequiredFieldValidator>
</p>
<p>
<asp:Label ID="ConfirmNewPasswordLabel" runat="server" AssociatedControlID="ConfirmNewPassword">Confirm New Password:</asp:Label>
<asp:TextBox ID="ConfirmNewPassword" runat="server" CssClass="passwordEntry" TextMode="Password"></asp:TextBox>
<asp:RequiredFieldValidator ID="ConfirmNewPasswordRequired" runat="server" ControlToValidate="ConfirmNewPassword"
CssClass="failureNotification" Display="Dynamic" ErrorMessage="Confirm New Password is required."
ToolTip="Confirm New Password is required." ValidationGroup="ChangeUserPasswordValidationGroup">*</asp:RequiredFieldValidator>
<asp:CompareValidator ID="NewPasswordCompare" runat="server" ControlToCompare="NewPassword" ControlToValidate="ConfirmNewPassword"
CssClass="failureNotification" Display="Dynamic" ErrorMessage="The Confirm New Password must match the New Password entry."
ValidationGroup="ChangeUserPasswordValidationGroup">*</asp:CompareValidator>
</p>
</fieldset>
<p class="submitButton">
<asp:Button ID="CancelPushButton" runat="server" CausesValidation="False" CommandName="Cancel" Text="Cancel"/>
<asp:Button ID="ChangePasswordPushButton" runat="server" CommandName="ChangePassword" Text="Change Password"
ValidationGroup="ChangeUserPasswordValidationGroup"/>
</p>
</div>
</ChangePasswordTemplate>
</asp:ChangePassword>
</asp:Content>
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Account/ChangePassword.aspx | ASP.NET | asf20 | 4,480 |
<%@ Page Title="Log In" Language="C#" MasterPageFile="~/Site.master" AutoEventWireup="true"
CodeBehind="Login.aspx.cs" Inherits="SyncWebsite.Account.Login" %>
<asp:Content ID="HeaderContent" runat="server" ContentPlaceHolderID="HeadContent">
</asp:Content>
<asp:Content ID="BodyContent" runat="server" ContentPlaceHolderID="MainContent">
<h2>
Log In
</h2>
<p>
Please enter your username and password.
<asp:HyperLink ID="RegisterHyperLink" runat="server" EnableViewState="false">Register</asp:HyperLink> if you don't have an account.
</p>
<asp:Login ID="LoginUser" runat="server" EnableViewState="false" RenderOuterTable="false">
<LayoutTemplate>
<span class="failureNotification">
<asp:Literal ID="FailureText" runat="server"></asp:Literal>
</span>
<asp:ValidationSummary ID="LoginUserValidationSummary" runat="server" CssClass="failureNotification"
ValidationGroup="LoginUserValidationGroup"/>
<div class="accountInfo">
<fieldset class="login">
<legend>Account Information</legend>
<p>
<asp:Label ID="UserNameLabel" runat="server" AssociatedControlID="UserName">Username:</asp:Label>
<asp:TextBox ID="UserName" runat="server" CssClass="textEntry"></asp:TextBox>
<asp:RequiredFieldValidator ID="UserNameRequired" runat="server" ControlToValidate="UserName"
CssClass="failureNotification" ErrorMessage="User Name is required." ToolTip="User Name is required."
ValidationGroup="LoginUserValidationGroup">*</asp:RequiredFieldValidator>
</p>
<p>
<asp:Label ID="PasswordLabel" runat="server" AssociatedControlID="Password">Password:</asp:Label>
<asp:TextBox ID="Password" runat="server" CssClass="passwordEntry" TextMode="Password"></asp:TextBox>
<asp:RequiredFieldValidator ID="PasswordRequired" runat="server" ControlToValidate="Password"
CssClass="failureNotification" ErrorMessage="Password is required." ToolTip="Password is required."
ValidationGroup="LoginUserValidationGroup">*</asp:RequiredFieldValidator>
</p>
<p>
<asp:CheckBox ID="RememberMe" runat="server"/>
<asp:Label ID="RememberMeLabel" runat="server" AssociatedControlID="RememberMe" CssClass="inline">Keep me logged in</asp:Label>
</p>
</fieldset>
<p class="submitButton">
<asp:Button ID="LoginButton" runat="server" CommandName="Login" Text="Log In" ValidationGroup="LoginUserValidationGroup"/>
</p>
</div>
</LayoutTemplate>
</asp:Login>
</asp:Content>
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Account/Login.aspx | ASP.NET | asf20 | 3,068 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Web;
using System.Web.UI;
using System.Web.UI.WebControls;
namespace SyncWebsite.Account
{
public partial class Login : System.Web.UI.Page
{
protected void Page_Load(object sender, EventArgs e)
{
RegisterHyperLink.NavigateUrl = "Register.aspx?ReturnUrl=" + HttpUtility.UrlEncode(Request.QueryString["ReturnUrl"]);
}
}
}
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Account/Login.aspx.cs | C# | asf20 | 469 |
<%@ Page Title="" Language="C#" MasterPageFile="~/Site.Master" AutoEventWireup="true" CodeBehind="LogsPage.aspx.cs" Inherits="SyncWebsite.LogsPage" %>
<asp:Content ID="Content1" ContentPlaceHolderID="HeadContent" runat="server">
</asp:Content>
<asp:Content ID="Content2" ContentPlaceHolderID="MainContent" runat="server">
Log Entries:
<br />
<br />
<div>
<asp:GridView ID="LogView" runat="server" CellPadding="4" ForeColor="#333333" AutoGenerateColumns="False"
BorderStyle="Solid">
<AlternatingRowStyle BackColor="White" />
<Columns>
<asp:BoundField DataField="ComputerName" HeaderText="Computer Name" />
<asp:BoundField DataField="FileName" HeaderText="File Name" />
<asp:BoundField DataField="Operation" HeaderText="Operation Type" />
</Columns>
<EditRowStyle BackColor="#2461BF" />
<FooterStyle BackColor="#507CD1" Font-Bold="True" ForeColor="White" />
<HeaderStyle BackColor="#507CD1" Font-Bold="True" ForeColor="White" />
<PagerStyle BackColor="#2461BF" ForeColor="White" HorizontalAlign="Center" />
<RowStyle BackColor="#EFF3FB" />
<SelectedRowStyle BackColor="#D1DDF1" Font-Bold="True" ForeColor="#333333" />
<SortedAscendingCellStyle BackColor="#F5F7FB" />
<SortedAscendingHeaderStyle BackColor="#6D95E1" />
<SortedDescendingCellStyle BackColor="#E9EBEF" />
<SortedDescendingHeaderStyle BackColor="#4870BE" />
</asp:GridView>
</div>
</asp:Content>
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/LogsPage.aspx | ASP.NET | asf20 | 1,640 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Web;
using System.Web.UI;
using System.Web.UI.WebControls;
namespace SyncWebsite
{
public partial class _Default : System.Web.UI.Page
{
protected void Page_Load(object sender, EventArgs e)
{
}
}
}
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Default.aspx.cs | C# | asf20 | 335 |
<%@ Page Title="Home Page" Language="C#" MasterPageFile="~/Site.master" AutoEventWireup="true"
CodeBehind="Default.aspx.cs" Inherits="SyncWebsite._Default" %>
<asp:Content ID="BodyContent" runat="server" ContentPlaceHolderID="MainContent">
<h2>
Welcome to Oshrit's and Assaf's directory syncronizer
</h2>
<br />
Use the menu above
</asp:Content>
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Default.aspx | ASP.NET | asf20 | 385 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Web;
using System.Web.UI;
using System.Web.UI.WebControls;
namespace SyncWebsite
{
public partial class About : System.Web.UI.Page
{
protected void Page_Load(object sender, EventArgs e)
{
}
}
}
| 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/About.aspx.cs | C# | asf20 | 332 |
/* DEFAULTS
----------------------------------------------------------*/
body
{
background: #b6b7bc;
font-size: .80em;
font-family: "Helvetica Neue", "Lucida Grande", "Segoe UI", Arial, Helvetica, Verdana, sans-serif;
margin: 0px;
padding: 0px;
color: #696969;
}
a:link, a:visited
{
color: #034af3;
}
a:hover
{
color: #1d60ff;
text-decoration: none;
}
a:active
{
color: #034af3;
}
p
{
margin-bottom: 10px;
line-height: 1.6em;
}
/* HEADINGS
----------------------------------------------------------*/
h1, h2, h3, h4, h5, h6
{
font-size: 1.5em;
color: #666666;
font-variant: small-caps;
text-transform: none;
font-weight: 200;
margin-bottom: 0px;
}
h1
{
font-size: 1.6em;
padding-bottom: 0px;
margin-bottom: 0px;
}
h2
{
font-size: 1.5em;
font-weight: 600;
}
h3
{
font-size: 1.2em;
}
h4
{
font-size: 1.1em;
}
h5, h6
{
font-size: 1em;
}
/* this rule styles <h1> and <h2> tags that are the
first child of the left and right table columns */
.rightColumn > h1, .rightColumn > h2, .leftColumn > h1, .leftColumn > h2
{
margin-top: 0px;
}
/* PRIMARY LAYOUT ELEMENTS
----------------------------------------------------------*/
.page
{
width: 960px;
background-color: #fff;
margin: 20px auto 0px auto;
border: 1px solid #496077;
}
.header
{
position: relative;
margin: 0px;
padding: 0px;
background: #4b6c9e;
width: 100%;
}
.header h1
{
font-weight: 700;
margin: 0px;
padding: 0px 0px 0px 20px;
color: #f9f9f9;
border: none;
line-height: 2em;
font-size: 2em;
}
.main
{
padding: 0px 12px;
margin: 12px 8px 8px 8px;
min-height: 420px;
}
.leftCol
{
padding: 6px 0px;
margin: 12px 8px 8px 8px;
width: 200px;
min-height: 200px;
}
.footer
{
color: #4e5766;
padding: 8px 0px 0px 0px;
margin: 0px auto;
text-align: center;
line-height: normal;
}
/* TAB MENU
----------------------------------------------------------*/
div.hideSkiplink
{
background-color:#3a4f63;
width:100%;
}
div.menu
{
padding: 4px 0px 4px 8px;
}
div.menu ul
{
list-style: none;
margin: 0px;
padding: 0px;
width: auto;
}
div.menu ul li a, div.menu ul li a:visited
{
background-color: #465c71;
border: 1px #4e667d solid;
color: #dde4ec;
display: block;
line-height: 1.35em;
padding: 4px 20px;
text-decoration: none;
white-space: nowrap;
}
div.menu ul li a:hover
{
background-color: #bfcbd6;
color: #465c71;
text-decoration: none;
}
div.menu ul li a:active
{
background-color: #465c71;
color: #cfdbe6;
text-decoration: none;
}
/* FORM ELEMENTS
----------------------------------------------------------*/
fieldset
{
margin: 1em 0px;
padding: 1em;
border: 1px solid #ccc;
}
fieldset p
{
margin: 2px 12px 10px 10px;
}
fieldset.login label, fieldset.register label, fieldset.changePassword label
{
display: block;
}
fieldset label.inline
{
display: inline;
}
legend
{
font-size: 1.1em;
font-weight: 600;
padding: 2px 4px 8px 4px;
}
input.textEntry
{
width: 320px;
border: 1px solid #ccc;
}
input.passwordEntry
{
width: 320px;
border: 1px solid #ccc;
}
div.accountInfo
{
width: 42%;
}
/* MISC
----------------------------------------------------------*/
.clear
{
clear: both;
}
.title
{
display: block;
float: left;
text-align: left;
width: auto;
}
.loginDisplay
{
font-size: 1.1em;
display: block;
text-align: right;
padding: 10px;
color: White;
}
.loginDisplay a:link
{
color: white;
}
.loginDisplay a:visited
{
color: white;
}
.loginDisplay a:hover
{
color: white;
}
.failureNotification
{
font-size: 1.2em;
color: Red;
}
.bold
{
font-weight: bold;
}
.submitButton
{
text-align: right;
padding-right: 10px;
} | 049011-cloud-2011 | trunk/hw2_cloud/SyncWebsite/Styles/Site.css | CSS | asf20 | 4,258 |
using System.Reflection;
using System.Runtime.CompilerServices;
using System.Runtime.InteropServices;
// General Information about an assembly is controlled through the following
// set of attributes. Change these attribute values to modify the information
// associated with an assembly.
[assembly: AssemblyTitle("SyncApp")]
[assembly: AssemblyDescription("")]
[assembly: AssemblyConfiguration("")]
[assembly: AssemblyCompany("Microsoft")]
[assembly: AssemblyProduct("SyncApp")]
[assembly: AssemblyCopyright("Copyright © Microsoft 2011")]
[assembly: AssemblyTrademark("")]
[assembly: AssemblyCulture("")]
// Setting ComVisible to false makes the types in this assembly not visible
// to COM components. If you need to access a type in this assembly from
// COM, set the ComVisible attribute to true on that type.
[assembly: ComVisible(false)]
// The following GUID is for the ID of the typelib if this project is exposed to COM
[assembly: Guid("620f7c8b-d37d-42eb-9f86-457f76195e97")]
// Version information for an assembly consists of the following four values:
//
// Major Version
// Minor Version
// Build Number
// Revision
//
// You can specify all the values or you can default the Build and Revision Numbers
// by using the '*' as shown below:
// [assembly: AssemblyVersion("1.0.*")]
[assembly: AssemblyVersion("1.0.0.0")]
[assembly: AssemblyFileVersion("1.0.0.0")]
| 049011-cloud-2011 | trunk/hw2_cloud/SyncApp/Properties/AssemblyInfo.cs | C# | asf20 | 1,444 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Text;
using System.IO;
using System.Configuration;
using System.Threading;
using System.Data.Services.Client;
using System.Globalization;
using Microsoft.WindowsAzure;
using Microsoft.WindowsAzure.ServiceRuntime;
using Microsoft.WindowsAzure.StorageClient;
using SyncLibrary;
namespace SyncApp
{
class Program
{
private static CloudBlobContainer _BlobContainer = null;
private static SyncLoggerService _LogService = null;
private static string monitoredFolderPath;
private static int SLEEP_TIME = 1000;
static void Main(string[] args)
{
monitoredFolderPath = ConfigurationManager.AppSettings["MonitoredFolderPath"];
if (!checkValidFolder(monitoredFolderPath))
{
Console.Error.WriteLine("Illegal folder path: " + monitoredFolderPath);
}
init();
//deleteAll();
sync();
Console.ReadKey();
}
private static void deleteAll()
{
SyncFileBrowser.deleteAll(CloudStorageAccount.Parse(ConfigurationManager.AppSettings["DataConnectionString"]));
}
private static void sync()
{
DirectoryInfo di = new DirectoryInfo(monitoredFolderPath);
while (true)
{
di.Refresh();
List<FileEntry> cloudFiles = SyncFileBrowser.getCloudFiles(_BlobContainer);
List<FileEntry> localFiles = getLocalFiles(di);
syncLocalRemoteFiles(localFiles, cloudFiles);
Thread.Sleep(SLEEP_TIME);
}
}
/* private static void printLog()
{
Console.WriteLine("Log:");
foreach (var entry in _LogService.Logs) {
Console.WriteLine(entry);
}
}
*/
private static Dictionary<string, FileEntry> getFilesDicFromList(List<FileEntry> fileList)
{
Dictionary<string, FileEntry> filesDic = new Dictionary<string, FileEntry>();
foreach (var file in fileList)
{
filesDic.Add(file.CloudFileName, file);
}
return filesDic;
}
private static void syncLocalRemoteFiles(List<FileEntry> localFiles, List<FileEntry> remoteFiles)
{
// Create a hash from the local, to contain in O(n)
Dictionary<string, FileEntry> localFilesDic = getFilesDicFromList(localFiles);
Dictionary<string, FileEntry> remoteFilesDic = getFilesDicFromList(remoteFiles);
List<FileEntry> addFilesList = new List<FileEntry>();
List<FileEntry> deleteFilesList = new List<FileEntry>();
// Files to add / update
foreach (var localFile in localFiles)
{
FileEntry remoteFile;
if (remoteFilesDic.TryGetValue(localFile.CloudFileName, out remoteFile))
{
// if file had changed - update it
DateTime localTime = DateTime.Parse(localFile.Modified.ToString());
if (remoteFile.Modified >= localTime)
{
continue;
}
deleteFilesList.Add(remoteFile);
}
addFilesList.Add(localFile);
}
// Files to remove
foreach (var remoteFile in remoteFiles)
{
if (!localFilesDic.ContainsKey(remoteFile.CloudFileName))
{
deleteFilesList.Add(remoteFile);
}
}
// delete the removed files
foreach (var delFile in deleteFilesList)
deleteRemoteFile(delFile);
// upload the new files
foreach (var newFile in addFilesList)
addFile(newFile);
}
private static List<FileEntry> getLocalFiles(DirectoryInfo localDir)
{
var filesList = new List<FileEntry>();
FileInfo[] localFiles = localDir.GetFiles();
foreach (var file in localFiles)
{
filesList.Add(new FileEntry()
{
FileUri = null,
CloudFileName = file.FullName,
Modified = file.LastWriteTime,
FileInfo = file,
ContainerName = _BlobContainer.Name,
});
}
return filesList;
}
private static bool checkValidFolder(string folderPath)
{
DirectoryInfo di = new DirectoryInfo(folderPath);
return di.Exists;
}
private static void init()
{
string machineName = System.Environment.MachineName.ToLower();
// Setup the connection to Windows Azure Storage
var storageAccount = CloudStorageAccount.Parse(ConfigurationManager.AppSettings["DataConnectionString"]);
_BlobContainer = SyncFileBrowser.initBlob(storageAccount, machineName);
_LogService = SyncFileBrowser.initTable(storageAccount, machineName);
}
private static void deleteRemoteFile(FileEntry entry)
{
/*
* Delete Blob
*/
Console.WriteLine("Deleting file: " + entry.CloudFileName);
var blob = _BlobContainer.GetBlobReference(entry.FileUri.ToString());
blob.DeleteIfExists();
/*
* Log delete operation
*/
try
{
_LogService.LogEntry(entry.CloudFileName, OperationType.FILE_DELETE);
}
catch (DataServiceRequestException ex)
{
Console.WriteLine("Unable to connect to the table storage server. Please check that the service is running.\n"
+ ex.Message);
}
}
protected static void addFile(FileEntry entry)
{
Console.WriteLine("Adding file: " + entry.CloudFileName + " Modified at: " + customDateString(entry.Modified));
// Create the Blob and upload the file
var blob = _BlobContainer.GetBlobReference(Guid.NewGuid().ToString() + entry.FileInfo.Name);
blob.UploadFromStream(entry.FileInfo.OpenRead());
// Set the metadata into the blob
blob.Metadata["FileName"] = entry.CloudFileName;
blob.Metadata["Modified"] = customDateString(entry.Modified);
blob.SetMetadata();
/*
* Log add operation
*/
try
{
_LogService.LogEntry(entry.CloudFileName, OperationType.FILE_CREATE);
}
catch (DataServiceRequestException ex)
{
Console.WriteLine("Unable to connect to the table storage server. Please check that the service is running.\n"
+ ex.Message);
}
}
private static string customDateString(DateTime dateTime)
{
return string.Format("{0:" + new CultureInfo("he-IL").DateTimeFormat.ShortDatePattern +
" " + new CultureInfo("he-IL").DateTimeFormat.LongTimePattern + "}", dateTime);
}
}
}
| 049011-cloud-2011 | trunk/hw2_cloud/SyncApp/Program.cs | C# | asf20 | 7,766 |
/* This file contains the routines that draws the VCS markers. */
#include "gks.h"
#include "gksshort.h"
#include <math.h>
#include "vcs_marker.h"
/* Get the VCS Marker attribute settings */
extern struct vcs_marker Vma_tab;
extern FILE *fperr;/* input, output, and error for scripts */
vgpm (npts, pe)
int npts;
Gpoint *pe;
{
int i, j, k,k1,n, mtype;
int opwk, *pwk;
float x, y, s,tempx,tempy,startx,starty;
float PI_V=3.14159265358979323846;
float add_angle, angle1, angle2;//,myx[30],myy[30];
Gpoint xseg[30000],xseg1[30000],xseg2[30000], xseg3[30000],xseg4[30000],xseg5[30000],xseg6[30000],plus1[2], star1[3], cros1[2];
Gpoint plus2[2], star2[3], cros2[2];
Gpoint star3[3];
Gintlist wsid;
float x1,y1,xcent,ycent,p,r;
/* Get the open workstation *
opwk=0;
wsid.number = 0;
wsid.integers = NULL;
gqopwk(&wsid);
for (i=0,pwk=wsid.integers;i<wsid.number;i++,pwk++) {
if (*pwk != 7) {opwk=*pwk; break;}
}
if (opwk == 0) {
err_warn(0,fperr,"Error - no workstations open.\n");
}
if (wsid.number > 0 && wsid.integers != NULL)
free((char *)wsid.integers);*/
/* Save the line attributes */
/* Set the line attribute settings */
gsplci(Vma_tab.colour); /* set line color */
gsln(1); /* set line type */
gslwsc(1.); /* set line width */
/* Set the fill color attribute settings */
gsfaci(Vma_tab.color);
/* Set the fill area type and interior style */
mtype = Vma_tab.type;
if ((Vma_tab.type >= 12) && (Vma_tab.type<18)) {
gsfais(GSOLID);
mtype -= 6;
}
/* Draw the marker */
s = Vma_tab.size/1000;
switch (mtype) {
case GMK_POINT:
gsfais(GSOLID);
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0;
while (angle2 <= (2*PI_V) ) {
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
xseg[j+1].x = x + s*cos(angle2);
xseg[j+1].y = y + s*sin(angle2);
++j;
angle1 += add_angle;
angle2 += add_angle;
}
gfa(48, xseg);
/*gflush(opwk, GNCLASS, 0);*/
pe++;
}
break;
case GMK_PLUS:
plus1[0].x = -s;
plus1[0].y = 0;
plus1[1].x = s;
plus1[1].y = 0;
plus2[0].x = 0;
plus2[0].y = s;
plus2[1].x = 0;
plus2[1].y = -s;
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
xseg[0].x = x + plus1[0].x;
xseg[0].y = y + plus1[0].y;
xseg[1].x = x + plus1[1].x;
xseg[1].y = y + plus1[1].y;
gpl(2, xseg);
xseg[0].x = x + plus2[0].x;
xseg[0].y = y + plus2[0].y;
xseg[1].x = x + plus2[1].x;
xseg[1].y = y + plus2[1].y;
gpl(2, xseg);
/*gflush(opwk, GNCLASS, 0);*/
pe++;
}
break;
case GMK_STAR:
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
xseg[0].x = x + star1[0].x;
xseg[0].y = y + star1[0].y;
xseg[1].x = x + star1[1].x;
xseg[1].y = y + star1[1].y;
gpl(2, xseg);
xseg[0].x = x + star2[0].x;
xseg[0].y = y + star2[0].y;
xseg[1].x = x + star2[1].x;
xseg[1].y = y + star2[1].y;
gpl(2, xseg);
xseg[0].x = x + star3[0].x;
xseg[0].y = y + star3[0].y;
xseg[1].x = x + star3[1].x;
xseg[1].y = y + star3[1].y;
gpl(2, xseg);
/*gflush(opwk, GNCLASS, 0);*/
pe++;
}
break;
case GMK_O:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0;
while (angle2 <= (2*PI_V+add_angle) ) {
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
xseg[j+1].x = x + s*cos(angle2);
xseg[j+1].y = y + s*sin(angle2);
++j;
angle1 += add_angle;
angle2 += add_angle;
}
gpl(49, xseg);
pe++;
}
break;
case GMK_X:
cros1[0].x = 0.5 * s;
cros1[0].y = 0.866 * s;
cros1[1].x = -0.5 * s;
cros1[1].y = -0.866 * s;
cros2[0].x = 0.5 * s;
cros2[0].y = -0.866 * s;
cros2[1].x = -0.5 * s;
cros2[1].y = 0.866 * s;
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
xseg[0].x = x + cros1[0].x;
xseg[0].y = y + cros1[0].y;
xseg[1].x = x + cros1[1].x;
xseg[1].y = y + cros1[1].y;
gpl(2, xseg);
xseg[0].x = x + cros2[0].x;
xseg[0].y = y + cros2[0].y;
xseg[1].x = x + cros2[1].x;
xseg[1].y = y + cros2[1].y;
gpl(2, xseg);
pe++;
}
break;
case GMK_DIAMOND:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = PI_V/2;
angle1 = 0; angle2 = add_angle;
j = 0;
while (angle2 <= (2*PI_V + add_angle) ) {
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
xseg[j+1].x = x + s*cos(angle2);
xseg[j+1].y = y + s*sin(angle2);
++j;
angle1 += add_angle;
angle2 += add_angle;
}
if (Vma_tab.type<12) gpl(5,xseg);
else gfa(4, xseg);
pe++;
}
break;
case GMK_TRIANGLEUP:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = (2 * PI_V / 3);
angle1 = (7 * PI_V / 6); angle2 = PI_V / 2;
j = 0;
while (j < 4 ) {
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
xseg[j+1].x = x + s*cos(angle2);
xseg[j+1].y = y + s*sin(angle2);
++j;
angle1 += add_angle;
angle2 += add_angle;
}
if (Vma_tab.type<12) gpl(4,xseg);
else gfa(3, xseg);
pe++;
}
break;
case GMK_TRIANGLEDOWN:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = (2 * PI_V / 3);
angle1 = (PI_V / 6); angle2 = (5 * PI_V / 6);
j = 0;
while (j < 4 ) {
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
xseg[j+1].x = x + s*cos(angle2);
xseg[j+1].y = y + s*sin(angle2);
++j;
angle1 += add_angle;
angle2 += add_angle;
}
if (Vma_tab.type<12) gpl(4,xseg);
else gfa(3, xseg);
pe++;
}
break;
case GMK_TRIANGLELEFT:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = (2 * PI_V / 3);
angle1 = (5 * PI_V / 3); angle2 = (PI_V / 3);
j = 0;
while (j < 4 ) {
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
xseg[j+1].x = x + s*cos(angle2);
xseg[j+1].y = y + s*sin(angle2);
++j;
angle1 += add_angle;
angle2 += add_angle;
}
if (Vma_tab.type<12) gpl(4,xseg);
else gfa(3, xseg);
pe++;
}
break;
case GMK_TRIANGLERIGHT:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = (2 * PI_V / 3);
angle1 = (2 * PI_V / 3); angle2 = (4 * PI_V / 3);
j = 0;
while (j < 4 ) {
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
xseg[j+1].x = x + s*cos(angle2);
xseg[j+1].y = y + s*sin(angle2);
++j;
angle1 += add_angle;
angle2 += add_angle;
}
if (Vma_tab.type<12) gpl(4,xseg);
else gfa(3, xseg);
pe++;
}
break;
case GMK_SQUARE:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = (PI_V / 2);
angle1 = (PI_V / 4); angle2 = (3 * PI_V / 4);
j = 0;
while (j < 5 ) {
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
xseg[j+1].x = x + s*cos(angle2);
xseg[j+1].y = y + s*sin(angle2);
++j;
angle1 += add_angle;
angle2 += add_angle;
}
if (Vma_tab.type<12) gpl(5,xseg);
else gfa(4, xseg);
pe++;
}
break;
case GMK_HURRICANE: /* hurricane */
gsfais(GSOLID);
for (i=0;i<npts;i++) {
x = pe->x;
y = pe->y;
add_angle = PI_V/180;
angle1 = 0;
j = 0;
while (angle1 <= (2*PI_V) ) {
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
++j;
angle1 += add_angle;
}
angle1 = 2*PI_V+add_angle;
while (angle1 >= 0 ) {
xseg[j].x = x + s*.58*cos(angle1);
xseg[j].y = y + s*.58*sin(angle1);
++j;
angle1 -= add_angle;
}
gfa(j, xseg);
j=0;
angle1 = .6*PI_V;
angle2 = .88*PI_V;
while (angle1 <= angle2 ) {
xseg[j].x = x + 2*s + s*2*cos(angle1);
xseg[j].y = y + s*2*sin(angle1);
++j;
angle1 += add_angle;
}
angle1 = .79*PI_V;
angle2 = .6*PI_V;
while (angle1 >= angle2 ) {
xseg[j].x = x + 2.25*s + s*4*cos(angle1);
xseg[j].y = y - 2*s + s*4*sin(angle1);
++j;
angle1 -= add_angle;
}
gfa(j-1,xseg);
j=0;
angle1 = 1.6*PI_V;
angle2 = 1.9*PI_V;
while (angle1 <= angle2 ) {
xseg[j].x = x - 2*s + s*2*cos(angle1);
xseg[j].y = y + s*2*sin(angle1);
++j;
angle1 += add_angle;
}
angle1 = 1.8*PI_V;
angle2 = 1.6*PI_V;
while (angle1 >= angle2 ) {
xseg[j].x = x - 2.27*s + s*4*cos(angle1);
xseg[j].y = y + 2*s + s*4*sin(angle1);
++j;
angle1 -= add_angle;
}
gfa(j-1,xseg);
pe++;
}
break;
case GMK_w00:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size/1000;
n = 20; add_angle = PI_V/n ;
for(k = 0; k <= 2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gpl(41, xseg);
pe++;
}
break;
case GMK_w01:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
n=20;
add_angle = PI_V/n;
angle1 = 0;
j = 0,k = 0;
s = Vma_tab.size/1000;
for(k = 0; k <= 2*n; k++){
angle1= k*add_angle;
if(k==31){
xseg[j].x = tempx;
xseg[j].y = tempy-(Vma_tab.size*0.001);
j++;
xseg[j].x = tempx;
xseg[j].y = tempy;
j++;
}
tempx = xseg[j].x = x + s*cos(angle1);
tempy = xseg[j].y = y + s*sin(angle1);
j++;
}
gpl(43,xseg);
pe++;
}
break;
case GMK_w02:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
n=20;
add_angle = PI_V/n;
angle1 = 0;
j = 0,k = 0;
s = Vma_tab.size/1000;
for(k = 0; k <= 2*n; k++){
angle1 = k*add_angle;
tempx = xseg[j].x = x + s*cos(angle1);
tempy = xseg[j].y = y + s*sin(angle1);
j++;
if(k==0 || k==20){
if(k==0){
xseg[j].x = tempx + (Vma_tab.size*0.001); }
if(k==20) {
xseg[j].x = tempx- (Vma_tab.size*0.001); }
xseg[j].y = tempy;
j++;
xseg[j].x = tempx;
xseg[j].y = tempy;
j++;
}
}
gpl(45,xseg);
pe++;
}
break;
case GMK_w03:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
n=20;
add_angle = PI_V/n;
angle1 = 0;
j = 0,k = 0;
s = Vma_tab.size/1000;
for(k = 0; k <= 2*n; k++){
angle1 = k*add_angle;
tempx = xseg[j].x = x + s*cos(angle1);
tempy = xseg[j].y = y + s*sin(angle1);
j++;
if(k==10 ){
xseg[j].x = tempx;
xseg[j].y = tempy + (Vma_tab.size*0.001);
j++;
xseg[j].x = tempx;
xseg[j].y = tempy;
j++;
}
}
gpl(43,xseg);
pe++;
}
break;
case GMK_w04:
for (i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0,k=0;
s = Vma_tab.size/1000;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
xseg[j].x = x;
xseg[j].y = y-(Vma_tab.size*0.001);
j++;
for (k = 0; k <= 17; k+= 1){
xseg[j].x = x + k*Vma_tab.size*0.0001;
xseg[j].y = y + 1*sin(k)*Vma_tab.size*0.0001;
j++;
}
gpl(19,xseg);
pe++;
}
break;
case GMK_w05:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = PI_V/24;
angle1 = 0;
j = 0,k = 0;
s = Vma_tab.size/1000;
// for w05
for ( k=0; k <= 6; k += 1){
xseg[j].x = x + k*Vma_tab.size*0.0001;
xseg[j].y = y + (sin(k))*Vma_tab.size*0.0001;
j++;
}
for (k = 6; k >= 0; k -= 1){
xseg[j].x = x + k*Vma_tab.size*0.0001;
xseg[j].y = y + (1*sin(-1*k))*Vma_tab.size*0.0001;
j++;
}
gpl(14,xseg);
pe++;
}
break;
//w06
case GMK_w06:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = PI_V/24;
angle1 = 0;
j = 0,k=0;
s = Vma_tab.size/1000;
n=20;
add_angle=PI_V/n ;
for( k = 0; k < n + (n/2); k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
y = y - Vma_tab.size*0.002;
add_angle = PI_V/n ;
for( k = n/2; k >-(n); k--) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gpl(60,xseg);
pe++;
}
break;
// w07
case GMK_w07:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0,k=0;
s = Vma_tab.size/1000;
// code for "S" in symbol w07
n=20;
add_angle=PI_V/n ;
for( k = 0; k <n + (n/2); k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
y = y - Vma_tab.size*0.002;
add_angle = PI_V/n ;
for( k = n/2; k >-(n); k--){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gpl(60,xseg);
// code for "|" i.e cross vertical arrow in symbol w07
x = pe->x;
y = pe->y;
j = 0;
tempx = xseg1[j].x = x;
tempy = xseg1[j].y = y + Vma_tab.size*0.002;
j++;
// code for up arrow
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
xseg1[j].x = tempx;
xseg1[j].y = tempy;
j++;
xseg1[j].x = xseg1[j-1].x + Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
//code for vetical line
xseg1[j].x = tempx;
xseg1[j].y = tempy;
j++;
xseg1[j].x = tempx;
xseg1[j].y = tempy - (Vma_tab.size*0.006);
j++;
gpl(6,xseg1);
pe++;
}
break;
case GMK_w08:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0,k = 0;
s = Vma_tab.size/1000;
//w08
// code for first ring
n = 20;
add_angle=PI_V/n ;
for(k = n/2; k < (2*n)-2; k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
if(k== (2*n-(n/2))){
tempx = xseg[j].x;
tempy = xseg[j].y;
}
j++;
}
gpl(28,xseg);
//code for second ring
n = 20;
x = tempx;
y = tempy;
j = 0;
for(k = 3; k<(2*n-(n/8)); k++){
angle2 = k*add_angle;
xseg1[j].x = x + s*cos(angle2);
xseg1[j].y = y + s*sin(angle2);
if ( k== (2*n-(n/2))){
startx = xseg1[j].x;
starty = xseg1[j].y;
}
j++;
}
gpl(35,xseg1);
//code for third ring
n = 20;
x = startx;
y = starty;
j = 0;
for(k = 3; k<(2*n-(n/4)); k++) {
angle2 = k*add_angle;
xseg2[j].x = x + s*cos(angle2);
xseg2[j].y = y + s*sin(angle2);
j++;
}
gpl(32,xseg2);
pe++;
}
break;
case GMK_w09:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0,k = 0;
//w09
//code for "S"
n = 20;
add_angle = PI_V/n ;
for(k = 0; k<n+(n/2); k++) {
angle1 = k*add_angle;
xseg[j].x =x + s*cos(angle1);
xseg[j].y =y + s*sin(angle1);
j++;
}
tempx = xseg[j-1].x;
tempy = xseg[j-1].y;
y = y - Vma_tab.size*0.002;
add_angle = PI_V/n ;
for( k = n/2; k >-(n); k--) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gpl(60,xseg);
//code for horizontal right hand arrow mark
{
x = pe->x;
y = pe->y;
j = 0;
startx = xseg1[j].x = tempx - Vma_tab.size*0.002;
starty = xseg1[j].y = tempy;
j++;
xseg1[j].x = tempx + Vma_tab.size*0.002;
xseg1[j].y = tempy;
j++;
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
xseg1[j].x = xseg1[j-2].x;
xseg1[j].y = xseg1[j-2].y;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-3].y + Vma_tab.size*0.0006;
j++;
gpl(5,xseg1);
}
//code for right bracket in w09
{
x = tempx;
y = tempy;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0;
//code for right down bracket
for (k = 0; k < 8; k++) {
xseg[j].x = x + Vma_tab.size*0.0025*cos(angle1);
xseg[j].y = y - Vma_tab.size*0.0025*sin(angle1);
++j;
angle1 += add_angle;
}
gpl(8, xseg);
//code for right up bracket
angle1 = 0;
j=0;
for (k = 0; k < 8; k++) {
xseg2[j].x = x + Vma_tab.size*0.0025*cos(angle1);
xseg2[j].y = y + Vma_tab.size*0.0025*sin(angle1);
++j;
angle1 += add_angle;
}
gpl(8, xseg2);
}
//code for left bracket in w09
{
x = tempx;
y = tempy ;
j = 0;
n = 20;
add_angle = (PI_V/n) ;
angle2 = 0;
//code for left down bracket
for(k = 0; k < 7; k++) {
xseg3[j].x = x - Vma_tab.size*0.0025*cos(angle2);
xseg3[j].y = y + Vma_tab.size*0.0025*sin(angle2);
++j;
angle2 += add_angle;
}
gpl(7,xseg3);
//code for left down bracket
j = 0;
angle2 = 0;
add_angle = (PI_V/n) ;
for(k = 0; k < 7; k++) {
xseg4[j].x = x - Vma_tab.size*0.0025*cos(angle2);
xseg4[j].y = y - Vma_tab.size*0.0025*sin(angle2);
++j;
angle2 += add_angle;
}
gpl(7,xseg4);
}
pe++;
}
break;
case GMK_w10:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0, k = 0;
s = Vma_tab.size/1000;
//w10
{
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y - Vma_tab.size*0.0005;
j++;
xseg[j].x = x + Vma_tab.size*0.0025;
xseg[j].y = tempy;
j++;
gpl(2,xseg);
}
{
k=0;
xseg1[k].x = x;
xseg1[k].y = y;
k++;
xseg1[k].x = x + Vma_tab.size*0.0025;
xseg1[k].y = y;
k++;
gpl(2,xseg1);
}
pe++;
}
break;
case GMK_w11:
for (i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0,k=0;
s = Vma_tab.size/1000;
//w11
// code for upper first part of line
{
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y - Vma_tab.size*0.0005;
j++;
xseg[j].x = x + Vma_tab.size*0.0010;
xseg[j].y = tempy;
j++;
gpl(2,xseg);
}
//code for upper second part of line
{
k = 0;
tempx = xseg1[k].x = x + Vma_tab.size*0.0015 ;
tempy = xseg1[k].y = y - Vma_tab.size*0.0005;
k++;
xseg1[k].x = tempx + Vma_tab.size*0.0010;
xseg1[k].y = tempy;
k++;
gpl(2,xseg1);
}
//code for lower first part of line
{
j = 0;
xseg2[j].x = x;
tempy = xseg2[j].y = y;
j++;
xseg2[j].x = x + Vma_tab.size*0.0010;
xseg2[j].y = tempy;
j++;
gpl(2,xseg2);
}
//code for lower second part of line
{
k = 0;
tempx = xseg3[k].x = x + Vma_tab.size*0.0015;
xseg3[k].y = y;
k++;
xseg3[k].x = tempx + Vma_tab.size*0.0010;
xseg3[k].y = y;
k++;
gpl(2,xseg3);
}
pe++;
}
break;
case GMK_w12:
for (i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0,k=0;
s = Vma_tab.size/1000;
//w12
// code for upper first part of line
{
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y + Vma_tab.size*0.0005;
j++;
xseg[j].x = x + Vma_tab.size*0.0010;
xseg[j].y = tempy;
j++;
gpl(2,xseg);
}
//code for upper second part of line
{
k = 0;
tempx = xseg1[k].x = x + Vma_tab.size*0.0015 ;
tempy = xseg1[k].y = y + Vma_tab.size*0.0005;
k++;
xseg1[k].x = tempx + Vma_tab.size*0.0010;
xseg1[k].y = tempy;
k++;
gpl(2,xseg1);
}
//code for lower line
{
j = 0;
xseg2[j].x = x;
tempy = xseg2[j].y = y;
j++;
xseg2[j].x = x + 2*Vma_tab.size*0.0010 + Vma_tab.size*0.0005;
xseg2[j].y = tempy;
j++;
gpl(2,xseg2);
}
pe++;
}
break;
//w13
case GMK_w13:
for (i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0,k = 0;
s = Vma_tab.size/1000;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
// code for left down line
xseg[j].x = x - Vma_tab.size*0.0010;
xseg[j].y = y - Vma_tab.size*0.0010;
j++;
// code for right down line
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
// code for arrow
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
xseg[j].x = xseg[j-1].x;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0003;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x-Vma_tab.size*0.0004;
xseg[j].y = xseg[j-3].y;
j++;
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
gpl(8,xseg);
pe++;
}
break;
//w14
case GMK_w14:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size/1000;
n=20;
add_angle=PI_V/n ;
// start of solid circle
gsfais(GSOLID);
for( k = 0; k <= 2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
if( k == 10) {
tempx = xseg[j].x;
tempy = xseg[j].y + 0.01;
}
}
gfa(41, xseg);
// end of solid circle
//code for right bracket in w09
add_angle = PI_V/n;
angle1 = 0; angle2 = 0;
j = 0;
for ( k = 0; k < 12; k++) {
angle2 += add_angle;
if ( k >= 4) {
xseg1[j].x = x - Vma_tab.size*0.0015*cos(angle2);
xseg1[j].y = y - Vma_tab.size*0.0015*sin(angle2);
j++;
}
}
gpl(8, xseg1);
angle2 = 0;
j=0;
for ( k = 0; k < 8; k++) {
angle2 += add_angle;
if ( k >= 4){
xseg2[j].x = x +Vma_tab.size*0.0015*cos(angle2);
xseg2[j].y = y - Vma_tab.size*0.0015*sin(angle2);
j++;
}
}
gpl(4, xseg2);
pe++;
}
break;
//w15
case GMK_w15:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n=20;
add_angle=PI_V/n ;
// start of solid circle
gsfais(GSOLID);
for( k = 0; k <= 2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
if(k == 10) {
tempx = xseg[j].x;
tempy = xseg[j].y + 0.01;
}
}
gfa(41, xseg);
//right side open bracket
add_angle = PI_V/n;
angle1 = 0;
angle2 = 0;
j = 0;
x=x+Vma_tab.size*0.0025;
for ( k = 0; k <(n+5); k++) {
angle2 += add_angle;
if ( k >= 15) {
xseg1[j].x = x + Vma_tab.size*0.0015*cos(angle2);
xseg1[j].y = y + Vma_tab.size*0.0015*sin(angle2);
j++;
}
}
gpl(10, xseg1);
//left side open bracket
angle2 = 0;
j = 0;
x = x - Vma_tab.size*0.0050;
for ( k = 0; k <n-5; k++) {
angle2 += add_angle;
if ( k >= 5){
xseg2[j].x = x + Vma_tab.size*0.0015*sin(angle2);
xseg2[j].y = y + Vma_tab.size*0.0015*cos(angle2);
j++;
}
}
gpl(10, xseg2);
pe++;
}
break;
//w16
case GMK_w16:
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n=20;
add_angle=PI_V/n ;
// start of solid circle
gsfais(GSOLID);
for( k = 0; k<=2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
if( k== 10) {
tempx = xseg[j].x;
tempy = xseg[j].y + 0.01;
}
}
gfa(41, xseg);
//right side open bracket
add_angle = PI_V/n;
angle1 = 0; angle2 = 0;
j = 0;
for ( k = 0; k <n-5; k++) {
angle2 += add_angle;
if ( k >= 5) {
xseg2[j].x = x + Vma_tab.size*0.0015*sin(angle2);
xseg2[j].y = y + Vma_tab.size*0.0015*cos(angle2);
j++;
}
}
gpl(10, xseg2);
//left side open bracket
angle2 = 0;
j = 0;
for ( k = 0; k <(n+5); k++) {
angle2 += add_angle;
if ( k >= 15) {
xseg1[j].x = x + Vma_tab.size*0.0015*cos(angle2);
xseg1[j].y = y + Vma_tab.size*0.0015*sin(angle2);
j++;
}
}
gpl(10, xseg1);
pe++;
}
break;
//w17
case GMK_w17:
// its part of w13 and other few lines
for ( i = 0; i < npts; i++) {
startx = x = pe->x;
starty = y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0,k = 0;
s = Vma_tab.size/1000;
//code for w13
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
// code for left down line
tempx = xseg[j].x = x - Vma_tab.size*0.0010;
tempy = xseg[j].y = y - Vma_tab.size*0.0010;
j++;
// code for right down line
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
// code for arrow
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
xseg[j].x = xseg[j-1].x;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0003;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x - Vma_tab.size*0.0004;
xseg[j].y = xseg[j-3].y;
j++;
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
gpl(8,xseg);
// code for top horizontal line
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.0024;
xseg1[j].y = y;
j++;
// code for vertical line
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.002;
j++;
gpl(4,xseg1);
//right side close bracket
x = tempx + Vma_tab.size*0.0015;
y = tempy; //x,y adjustment to draw bracket
n = 20;
add_angle = PI_V/n;
angle1 = 0; angle2 = 0;
j = 0;
for ( k = 0; k < n-4; k++) {
angle2 += add_angle;
if ( k >= 3) {
xseg2[j].x = x + Vma_tab.size*0.0015*sin(angle2);
xseg2[j].y = y + Vma_tab.size*0.0015*cos(angle2);
j++;
}
}
gpl(13, xseg2);
//left side open bracket
angle2 = 0;
j = 0;
x = tempx - Vma_tab.size*0.0015;
y = tempy; //x,y adjustment to draw bracket
for ( k = 0; k <(n+6); k++) {
angle2 += add_angle;
if ( k >= 13) {
xseg1[j].x = x +Vma_tab.size*0.0015*cos(angle2);
xseg1[j].y = y + Vma_tab.size*0.0015*sin(angle2);
j++;
}
}
gpl(13, xseg1);
pe++;
}
break;
//w18
case GMK_w18:
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
j = 0,k = 0;
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.001;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.0015;
j++;
xseg[j].x = x;
xseg[j].y = y; j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.0015;
j++;
xseg[j].x = x ;
xseg[j].y = y + Vma_tab.size*0.001;
j++;
gpl(5, xseg);
pe++;
}
break;
//w19
case GMK_w19:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
j = 0,k = 0;
s = Vma_tab.size/1000;
// code for left square open bracket
xseg[j].x = x;
xseg[j].y = y;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.001;
j++;
tempx = xseg[j].x = x + Vma_tab.size*0.001;
tempy = xseg[j].y = y + Vma_tab.size*0.005;
j++;
xseg[j].x = tempx - Vma_tab.size*0.001;
xseg[j].y = tempy + Vma_tab.size*0.001;
j++;
gpl(4, xseg);
x = x + Vma_tab.size*0.004; // gap between two vetical lines
j = 0;
// code for right square open bracket
xseg1[j].x = x;
xseg1[j].y=y;
j++;
xseg1[j].x = x - Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.001;
j++;
startx = xseg1[j].x = x - Vma_tab.size*0.001;
starty = xseg1[j].y = y + Vma_tab.size*0.005;
j++;
xseg1[j].x = startx + Vma_tab.size*0.001;
xseg1[j].y = starty + Vma_tab.size*0.001;
j++;
gpl(4, xseg1);
pe++;
}
break;
//w20
case GMK_w20:
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n=20;
add_angle=PI_V/n ;
// start of solid circle
gsfais(GSOLID);
for( k = 0; k <=2*n; k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)) {
tempx=x;
tempy=y;
}
}
gfa(41, xseg);
//start of solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size/3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--) {
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size/1500;
for( k =-(n/2); k < n/4; k++) {
angle1 = k*add_angle;
xseg1[j].x = x + Vma_tab.size/1500*cos(angle1);
xseg1[j].y = y + Vma_tab.size/2500*sin(angle1);
j++;
}
gfa(35, xseg1);
// code for right side line
y = tempy - Vma_tab.size*0.0015;
x = tempx + Vma_tab.size*0.0005;
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
xseg1[j].x = x ;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
gpl(4, xseg1);
pe++;
}
break;
//w21
case GMK_w21:
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0,k = 0;
s = Vma_tab.size/2000;
y = y + Vma_tab.size*0.001; // setting centered circle position
// start of solid circle
gsfais(GSOLID);
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
if( k == 10) {
tempx = xseg[j].x;
tempy = xseg[j].y + 0.01;
}
}
gfa(41, xseg);
// end of solid circle
// code for right side line
y = y - Vma_tab.size*0.0015;
x = x + Vma_tab.size*0.0005;
j = 0;
xseg1[j].x = x ;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
xseg1[j].x = x;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
gpl(4, xseg1);
pe++;
}
break;
//w22
case GMK_w22:
// start of star
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
j = 0,k = 0;
y = y + Vma_tab.size*0.001; // setting centered star position
xseg[0].x = x + star1[0].x;
xseg[0].y = y + star1[0].y;
xseg[1].x = x + star1[1].x;
xseg[1].y = y + star1[1].y;
gpl(2, xseg);
xseg[0].x = x + star2[0].x;
xseg[0].y = y + star2[0].y;
xseg[1].x = x + star2[1].x;
xseg[1].y = y + star2[1].y;
gpl(2, xseg);
xseg[0].x = x + star3[0].x;
xseg[0].y = y + star3[0].y;
xseg[1].x = x + star3[1].x;
xseg[1].y = y + star3[1].y;
gpl(2, xseg);
// end of star
// code for right side line
y = y - Vma_tab.size*0.0015;
x = x + Vma_tab.size*0.001;
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
xseg1[j].x = x;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
gpl(4, xseg1);
pe++;
}
break;
//w23
case GMK_w23:
// start of star
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
j = 0,k=0;
y=y+Vma_tab.size*0.001; // setting star position
xseg[0].x = x + star1[0].x;
xseg[0].y = y + star1[0].y;
xseg[1].x = x + star1[1].x;
xseg[1].y = y + star1[1].y;
gpl(2, xseg);
xseg[0].x = x + star2[0].x;
xseg[0].y = y + star2[0].y;
xseg[1].x = x + star2[1].x;
xseg[1].y = y + star2[1].y;
gpl(2, xseg);
xseg[0].x = x + star3[0].x;
xseg[0].y = y + star3[0].y;
xseg[1].x = x + star3[1].x;
xseg[1].y = y + star3[1].y;
gpl(2, xseg);
// end of star
// start of solid circle
y = y + Vma_tab.size*0.003; // setting circle position
gsfais(GSOLID);
s = Vma_tab.size/1500;
n=20;
add_angle=PI_V/n ;
for( k=0; k <=2*n; k++) {
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
if( k == 10) {
tempx = xseg2[j].x;
tempy = xseg2[j].y + 0.01;
}
}
gfa(41, xseg2);
// end of solid circle
// code for right side line
y = y - Vma_tab.size*0.0045;
x = x + Vma_tab.size*0.001;
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y ;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.006;
j++;
xseg1[j].x = x;
xseg1[j].y = y + Vma_tab.size*0.006;
j++;
gpl(4, xseg1);
pe++;
}
break;
//w24
case GMK_w24:
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0,k = 0;
s = Vma_tab.size/1000;
n=20;
add_angle=PI_V/n ;
for( k = 0; k <n + (n/2); k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*sin(angle1);
xseg[j].y = y + s*cos(angle1);
j++;
}
x = x - Vma_tab.size*0.002;
y = y;
add_angle = PI_V/n ;
for( k = n/2; k >-(n); k--) {
angle1= k*add_angle;
xseg[j].x = x + s*sin(angle1);
xseg[j].y = y + s*cos(angle1);
j++;
}
gpl(60,xseg);
// code for right side line
x = x + Vma_tab.size*0.003;
y = y - Vma_tab.size*0.0015;
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
xseg1[j].x = x;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
gpl(4, xseg1);
pe++;
}
break;
//w25
case GMK_w25:
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0,k = 0;
s = Vma_tab.size/1000;
// code for invert triangle
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.001;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.001;
j++;
xseg[j].x = x;
xseg[j].y = y;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.001;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y +Vma_tab.size*0.001;
j++;
gpl(5, xseg);
y = y + Vma_tab.size*0.003; // setting circle position
gsfais(GSOLID);
n=20;
j = 0;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
if(k == 10) {
tempx = xseg2[j].x;
tempy = xseg2[j].y + 0.01;
}
}
gfa(41, xseg2);
// end of solid circle
// code for right side line
y = y - Vma_tab.size*0.004;
x = x + Vma_tab.size*0.001;
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.006;
j++;
xseg1[j].x = x;
xseg1[j].y = y + Vma_tab.size*0.006;
j++;
gpl(4, xseg1);
pe++;
}
break;
//w26
case GMK_w26:
// star initialization
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
j = 0,k = 0;
s = Vma_tab.size/1000;
// code for invert triangle
xseg2[j].x = x;
xseg2[j].y = y + Vma_tab.size*0.001;
j++;
xseg2[j].x = x - Vma_tab.size*0.001;
xseg2[j].y = y + Vma_tab.size*0.001;
j++;
xseg2[j].x = x;
xseg2[j].y = y;
j++;
xseg2[j].x = x + Vma_tab.size*0.001;
xseg2[j].y = y + Vma_tab.size*0.001;
j++;
xseg2[j].x = x - Vma_tab.size*0.001;
xseg2[j].y = y + Vma_tab.size*0.001;
j++;
gpl(5, xseg2);
y = y + Vma_tab.size*0.002; // setting star position
// start of star
j = 0,k = 0;
y = y + Vma_tab.size*0.001; // setting star position
xseg[0].x = x + star1[0].x;
xseg[0].y = y + star1[0].y;
xseg[1].x = x + star1[1].x;
xseg[1].y = y + star1[1].y;
gpl(2, xseg);
xseg[0].x = x + star2[0].x;
xseg[0].y = y + star2[0].y;
xseg[1].x = x + star2[1].x;
xseg[1].y = y + star2[1].y;
gpl(2, xseg);
xseg[0].x = x + star3[0].x;
xseg[0].y = y + star3[0].y;
xseg[1].x = x + star3[1].x;
xseg[1].y = y + star3[1].y;
gpl(2, xseg);
// end of star
// code for right side line
y = y - Vma_tab.size*0.004;
x = x + Vma_tab.size*0.001;
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.006;
j++;
xseg1[j].x = x;
xseg1[j].y = y + Vma_tab.size*0.006;
j++;
gpl(4, xseg1);
pe++;
}
break;
//w27
case GMK_w27:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0,k = 0;
s = Vma_tab.size/1000;
// code for invert triangle
xseg2[j].x = x;
xseg2[j].y = y + Vma_tab.size*0.001;
j++;
xseg2[j].x = x - Vma_tab.size*0.001;
xseg2[j].y = y + Vma_tab.size*0.001;
j++;
xseg2[j].x = x ;
xseg2[j].y = y;
j++;
xseg2[j].x = x + Vma_tab.size*0.001;
xseg2[j].y = y + Vma_tab.size*0.001;
j++;
xseg2[j].x = x - Vma_tab.size*0.001;
xseg2[j].y = y + Vma_tab.size*0.001;
j++;
gpl(5, xseg2);
y = y + Vma_tab.size*0.002; // setting regular triangle [top] position
j=0;
xseg[j].x = x;
xseg[j].y = y;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y;
j++;
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.001;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y;
j++;
xseg[j].x = x;
xseg[j].y = y;
j++;
gpl(5, xseg);
// code for right side line
y = y - Vma_tab.size*0.003;
x = x + Vma_tab.size*0.0012;
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.005;
j++;
xseg1[j].x = x;
xseg1[j].y = y + Vma_tab.size*0.005;
j++;
gpl(4, xseg1);
pe++;
}
break;
//w28
case GMK_w28:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
j = 0,k = 0;
s = Vma_tab.size/1000;
// first horizontal line
{
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y - Vma_tab.size*0.001;
j++;
xseg[j].x = x + Vma_tab.size*0.004;
xseg[j].y = tempy;
j++;
gpl(2,xseg);
}
// second horizontal line
{
j = 0;
xseg2[j].x = x;
tempy = xseg2[j].y = y;
j++;
xseg2[j].x = x + Vma_tab.size*0.004;
xseg2[j].y = tempy;
j++;
gpl(2,xseg2);
}
// third horizontal line
{
j = 0;
xseg3[j].x = x;
tempy = xseg3[j].y = y + Vma_tab.size*0.001;
j++;
xseg3[j].x = x + Vma_tab.size*0.004;
xseg3[j].y = tempy;
j++;
gpl(2,xseg3);
}
// code for right side line
y = y - Vma_tab.size*0.0015;
x = x + Vma_tab.size*0.004;
j = 0;
xseg1[j].x = x ;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
xseg1[j].x = x ;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
gpl(4, xseg1);
pe++;
}
break;
//w29
case GMK_w29:
// code of w17
// its part of w13 and other few lines
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
j = 0,k = 0;
s = Vma_tab.size/1000;
//code for w13
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
// code for left down line
tempx = xseg[j].x = x - Vma_tab.size*0.0010;
tempy = xseg[j].y = y - Vma_tab.size*0.0010;
j++;
// code for right down line
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
// code for arrow
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
xseg[j].x = xseg[j-1].x;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0003;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x - Vma_tab.size*0.0004;
xseg[j].y = xseg[j-3].y;
j++;
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
gpl(8,xseg);
// code for top horizontal line
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.0024;
xseg1[j].y = y;
j++;
// code for vertical line
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.002;
j++;
gpl(4,xseg1);
// code for right side line
y = y - Vma_tab.size*0.0025;
x = x + Vma_tab.size*0.0005;
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
xseg1[j].x = x ;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
gpl(4, xseg1);
pe++;
}
break;
//w30
case GMK_w30:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
angle1 = 0;
j = 0,k = 0;
// code of w09
//code for "S"
n = 20;
add_angle = PI_V/n ;
for( k = 0;k <n+(n/2); k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
tempx = xseg[j-1].x;
tempy = xseg[j-1].y;
y = y - Vma_tab.size*0.002;
add_angle = PI_V/n ;
for( k = n/2; k >-(n); k--) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gpl(60,xseg);
//code for horizontal right hand arrow mark
{
x = pe->x;
y = pe->y;
j = 0;
startx = xseg1[j].x = tempx - Vma_tab.size*0.002;
starty = xseg1[j].y = tempy;
j++;
xseg1[j].x = tempx + Vma_tab.size*0.002;
xseg1[j].y = tempy;
j++;
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
xseg1[j].x = xseg1[j-2].x;
xseg1[j].y = xseg1[j-2].y;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-3].y + Vma_tab.size*0.0006;
j++;
gpl(5,xseg1);
}
// code for right side line
y = y - Vma_tab.size*0.002;
x = x + Vma_tab.size*0.001;
j = 0;
xseg2[j].x = x + Vma_tab.size*0.003;
xseg2[j].y = y - Vma_tab.size*0.001;
j++;
xseg2[j].x = x + Vma_tab.size*0.003;
xseg2[j].y = y + Vma_tab.size*0.003;
j++;
gpl(2, xseg2);
pe++;
}
break;
//w31
case GMK_w31:
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0, k = 0;
// code of w09
//code for "S"
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <n+(n/2); k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
tempx = xseg[j-1].x;
tempy = xseg[j-1].y;
y = y - Vma_tab.size*0.002;
add_angle = PI_V/n ;
for( k = n/2;k >-(n); k--) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gpl(60,xseg);
//code for horizontal right hand arrow mark
{
x = pe->x;
y = pe->y;
j = 0;
startx = xseg1[j].x = tempx - Vma_tab.size*0.002;
starty = xseg1[j].y = tempy;
j++;
xseg1[j].x = tempx + Vma_tab.size*0.002;
xseg1[j].y = tempy;
j++;
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
xseg1[j].x = xseg1[j-2].x;
xseg1[j].y = xseg1[j-2].y;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-3].y + Vma_tab.size*0.0006;
j++;
gpl(5,xseg1);
}
pe++;
}
break;
//w32
case GMK_w32:
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0, k = 0;
// code of w09
//code for "S"
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <n+(n/2); k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
tempx = xseg[j-1].x;
tempy = xseg[j-1].y;
y = y - Vma_tab.size*0.002;
add_angle = PI_V/n ;
for( k =n/2; k >-(n); k--) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gpl(60,xseg);
//code for horizontal right hand arrow mark
{
x = pe->x;
y = pe->y;
j = 0;
startx = xseg1[j].x = tempx - Vma_tab.size*0.002;
starty = xseg1[j].y = tempy;
j++;
xseg1[j].x = tempx + Vma_tab.size*0.002;
xseg1[j].y = tempy;
j++;
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
xseg1[j].x = xseg1[j-2].x;
xseg1[j].y = xseg1[j-2].y;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-3].y + Vma_tab.size*0.0006;
j++;
gpl(5,xseg1);
}
// code for right side line
y = y - Vma_tab.size*0.002;
j = 0;
xseg2[j].x = x - Vma_tab.size*0.003;
xseg2[j].y = y - Vma_tab.size*0.001;
j++;
xseg2[j].x = x - Vma_tab.size*0.003;
xseg2[j].y = y + Vma_tab.size*0.003;
j++;
gpl(2, xseg2);
pe++;
}
break;
//w33
case GMK_w33:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
angle1 = 0;
j = 0, k = 0;
// code of w09
//code for "S"
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <n+(n/2); k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
tempx = xseg[j-1].x;
tempy = xseg[j-1].y;
y = y - Vma_tab.size*0.002;
add_angle = PI_V/n ;
for( k = n/2; k >-(n); k--) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gpl(60,xseg);
//code for horizontal right hand arrow mark
{
x = pe->x;
y = pe->y;
j = 0;
startx = xseg1[j].x = tempx - Vma_tab.size*0.002;
starty = xseg1[j].y = tempy - Vma_tab.size*0.0002;
j++;
xseg1[j].x = tempx + Vma_tab.size*0.002;
xseg1[j].y = tempy - Vma_tab.size*0.0002;
j++;
k = 0;
xseg2[k].x = tempx - Vma_tab.size*0.002;
xseg2[k].y = tempy + Vma_tab.size*0.0002;
k++;
xseg2[k].x = tempx + Vma_tab.size*0.002;
xseg2[k].y = tempy + Vma_tab.size*0.0002;
k++;
gpl(2,xseg2);
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
xseg1[j].x = xseg1[j-2].x + Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-2].y + Vma_tab.size*0.0003;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-3].y +Vma_tab.size*0.0008;
j++;
xseg1[j].x = xseg2[k-1].x;
xseg1[j].y = xseg2[k-1].y;
j++;
gpl(6,xseg1);
}
// code for right side line
y = y - Vma_tab.size*0.002;
j = 0;
xseg2[j].x = x + Vma_tab.size*0.0035;
xseg2[j].y = y - Vma_tab.size*0.001;
j++;
xseg2[j].x = x + Vma_tab.size*0.0035;
xseg2[j].y = y + Vma_tab.size*0.003;
j++;
gpl(2, xseg2);
pe++;
}
break;
//w34
case GMK_w34:
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0, k = 0;
// code of w09
//code for "S"
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <n+(n/2); k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
tempx = xseg[j-1].x;
tempy = xseg[j-1].y;
y = y - Vma_tab.size*0.002;
add_angle = PI_V/n ;
for( k = n/2; k >-(n); k--) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gpl(60,xseg);
//code for horizontal right hand arrow mark
{
x = pe->x;
y = pe->y;
j = 0;
startx = xseg1[j].x = tempx - Vma_tab.size*0.002;
starty = xseg1[j].y = tempy - Vma_tab.size*0.0002;
j++;
xseg1[j].x = tempx + Vma_tab.size*0.002;
xseg1[j].y = tempy - Vma_tab.size*0.0002;
j++;
k = 0;
xseg2[k].x = tempx - Vma_tab.size*0.002;
xseg2[k].y = tempy + Vma_tab.size*0.0002;
k++;
xseg2[k].x = tempx + Vma_tab.size*0.002;
xseg2[k].y = tempy + Vma_tab.size*0.0002;
k++;
gpl(2,xseg2);
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
xseg1[j].x = xseg1[j-2].x + Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-2].y + Vma_tab.size*0.0003;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-3].y + Vma_tab.size*0.0008;
j++;
xseg1[j].x = xseg2[k-1].x;
xseg1[j].y = xseg2[k-1].y;
j++;
gpl(6,xseg1);
}
pe++;
}
break;
//w35
case GMK_w35:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
angle1 = 0;
j = 0, k = 0;
// code of w09
//code for "S"
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <n+(n/2); k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
tempx = xseg[j-1].x;
tempy = xseg[j-1].y;
y = y - Vma_tab.size*0.002;
add_angle = PI_V/n ;
for( k = n/2; k >-(n); k--) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gpl(60,xseg);
//code for horizontal right hand arrow mark
{
x = pe->x;
y = pe->y;
j = 0;
startx = xseg1[j].x = tempx - Vma_tab.size*0.002;
starty = xseg1[j].y = tempy - Vma_tab.size*0.0002;
j++;
xseg1[j].x = tempx + Vma_tab.size*0.002;
xseg1[j].y = tempy - Vma_tab.size*0.0002;
j++;
k = 0;
xseg2[k].x = tempx - Vma_tab.size*0.002;
xseg2[k].y = tempy + Vma_tab.size*0.0002;
k++;
xseg2[k].x = tempx + Vma_tab.size*0.002;
xseg2[k].y = tempy + Vma_tab.size*0.0002;
k++;
gpl(2,xseg2);
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
xseg1[j].x = xseg1[j-2].x + Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-2].y + Vma_tab.size*0.0003;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-3].y + Vma_tab.size*0.0008;
j++;
xseg1[j].x = xseg2[k-1].x;
xseg1[j].y = xseg2[k-1].y;
j++;
gpl(6,xseg1);
}
// code for left side line
y = y - Vma_tab.size*0.002;
j = 0;
xseg2[j].x = x - Vma_tab.size*0.003;
xseg2[j].y = y - Vma_tab.size*0.001;
j++;
xseg2[j].x = x - Vma_tab.size*0.003;
xseg2[j].y = y + Vma_tab.size*0.003;
j++;
gpl(2, xseg2);
pe++;
}
break;
//w36
case GMK_w36:
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
j = 0, k = 0;
//code for horizontal right hand arrow mark
{
startx = xseg1[j].x = x - Vma_tab.size*0.002;
starty = xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.002;
xseg1[j].y = y;
j++;
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
xseg1[j].x = xseg1[j-2].x;
xseg1[j].y = xseg1[j-2].y;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-3].y + Vma_tab.size*0.0006;
j++;
gpl(5,xseg1);
}
//code for vertical down hand arrow mark
{ j = 0;
xseg[j].x = x ;
starty = xseg[j].y = y + Vma_tab.size*0.0015;
j++;
xseg[j].x = x ;
xseg[j].y = y - Vma_tab.size*0.0015;
j++;
xseg[j].x = xseg[j-1].x - Vma_tab.size*0.0006;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0006;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x + Vma_tab.size*0.0006;
xseg[j].y = xseg[j-3].y + Vma_tab.size*0.0006;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
gpl(6,xseg);
}
pe++;
}
break;
//w37
case GMK_w37:
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
j = 0, k = 0;
//code for horizontal right hand arrow mark
{
x = pe->x;
y = pe->y;
j = 0;
startx = xseg1[j].x = x - Vma_tab.size*0.002;
starty = xseg1[j].y = y - Vma_tab.size*0.0002;
j++;
xseg1[j].x = x + Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.0002;
j++;
k = 0;
xseg2[k].x = x - Vma_tab.size*0.002;
xseg2[k].y = y + Vma_tab.size*0.0002;
k++;
xseg2[k].x = x + Vma_tab.size*0.002;
xseg2[k].y = y + Vma_tab.size*0.0002;
k++;
gpl(2,xseg2);
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
xseg1[j].x = xseg1[j-2].x + Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-2].y + Vma_tab.size*0.0003;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-3].y + Vma_tab.size*0.0008;
j++;
xseg1[j].x = xseg2[k-1].x;
xseg1[j].y = xseg2[k-1].y;
j++;
gpl(6,xseg1);
}
//code for vertical down hand arrow mark
{ j = 0;
xseg[j].x = x ;
starty = xseg[j].y = y + Vma_tab.size*0.0015;
j++;
xseg[j].x = x ;
xseg[j].y = y - Vma_tab.size*0.002;
j++;
xseg[j].x = xseg[j-1].x - Vma_tab.size*0.0006;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0006;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x + Vma_tab.size*0.0006;
xseg[j].y = xseg[j-3].y + Vma_tab.size*0.0006;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
gpl(6,xseg);
}
pe++;
}
break;
//w38
case GMK_w38:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0,k = 0;
//code for horizontal right hand arrow mark
{
startx = xseg1[j].x = x - Vma_tab.size*0.002;
starty = xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.002;
xseg1[j].y = y ;
j++;
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
xseg1[j].x = xseg1[j-2].x;
xseg1[j].y = xseg1[j-2].y;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-3].y + Vma_tab.size*0.0006;
j++;
gpl(5,xseg1);
}
//code for vertical up hand arrow mark
{ j = 0;
xseg[j].x = x;
starty = xseg[j].y = y - Vma_tab.size*0.0015;
j++;
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.0015;
j++;
xseg[j].x = xseg[j-1].x - Vma_tab.size*0.0006;
xseg[j].y = xseg[j-1].y - Vma_tab.size*0.0006;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x + Vma_tab.size*0.0006;
xseg[j].y = xseg[j-3].y - Vma_tab.size*0.0006;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
gpl(6,xseg);
}
pe++;
}
break;
//w39
case GMK_w39:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0, k = 0;
//code for horizontal right hand arrow mark
{
x = pe->x;
y = pe->y;
j = 0;
startx = xseg1[j].x = x - Vma_tab.size*0.002;
starty = xseg1[j].y = y - Vma_tab.size*0.0002;
j++;
xseg1[j].x = x + Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.0002;
j++;
k = 0;
xseg2[k].x = x - Vma_tab.size*0.002;
xseg2[k].y = y + Vma_tab.size*0.0002;
k++;
xseg2[k].x = x + Vma_tab.size*0.002;
xseg2[k].y = y + Vma_tab.size*0.0002;
k++;
gpl(2,xseg2);
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
xseg1[j].x = xseg1[j-2].x + Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-2].y + Vma_tab.size*0.0003;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-3].y + Vma_tab.size*0.0008;
j++;
xseg1[j].x = xseg2[k-1].x;
xseg1[j].y = xseg2[k-1].y;
j++;
gpl(6,xseg1);
}
//code for vertical up hand arrow mark
{ j = 0;
xseg[j].x = x;
starty = xseg[j].y = y - Vma_tab.size*0.0015;
j++;
xseg[j].x = x ;
xseg[j].y = y + Vma_tab.size*0.0015;
j++;
xseg[j].x = xseg[j-1].x - Vma_tab.size*0.0006;
xseg[j].y = xseg[j-1].y - Vma_tab.size*0.0006;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x + Vma_tab.size*0.0006;
xseg[j].y = xseg[j-3].y - Vma_tab.size*0.0006;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
gpl(6,xseg);
}
pe++;
}
break;
//w40
case GMK_w40:
for ( i = 0; i < npts; i++) {
startx = x = pe->x;
starty = y = pe->y;
j = 0,k = 0;
s = Vma_tab.size/1000;
//first line
{
j = 0;
xseg5[j].x = x;
tempy = xseg5[j].y = y - Vma_tab.size*0.0005;
j++;
xseg5[j].x = x + Vma_tab.size*0.0025;
xseg5[j].y = tempy;
j++;
gpl(2,xseg5);
}
//second line
{
k = 0;
xseg1[k].x = x;
xseg1[k].y = y;
k++;
xseg1[k].x = x + Vma_tab.size*0.0025;
xseg1[k].y = y;
k++;
gpl(2,xseg1);
}
//third line
{
k = 0;
xseg6[k].x = x;
xseg6[k].y = y + Vma_tab.size*0.0005;
k++;
xseg6[k].x = x + Vma_tab.size*0.0025;
xseg6[k].y = y + Vma_tab.size*0.0005;
k++;
gpl(2,xseg6);
}
//code for right bracket in w09
{
x = x + Vma_tab.size*0.0025;
add_angle = PI_V/24;
angle1 = 0;
j = 0;
//code for right down bracket
for ( k = 0; k <8; k++) {
xseg[j].x = x + Vma_tab.size*0.001*cos(angle1);
xseg[j].y = y - Vma_tab.size*0.001*sin(angle1);
++j;
angle1 += add_angle;
}
gpl(8, xseg);
//code for right up bracket
angle1 = 0;
j = 0;
for ( k = 0; k <8; k++) {
xseg2[j].x = x +Vma_tab.size*0.001*cos(angle1);
xseg2[j].y = y + Vma_tab.size*0.001*sin(angle1);
++j;
angle1 += add_angle;
}
gpl(8, xseg2);
}
//code for left bracket in w09
{
x = x - Vma_tab.size*0.0025;
j = 0;
n = 20;
add_angle = (PI_V/n) ;
angle2 = 0;
//code for left down bracket
for( k = 0; k <7; k++){
xseg3[j].x = x - Vma_tab.size*0.001*cos(angle2);
xseg3[j].y = y + Vma_tab.size*0.001*sin(angle2);
++j;
angle2 += add_angle;
}
gpl(7,xseg3);
//code for left down bracket
j = 0; angle2 = 0;
add_angle = (PI_V/n) ;
for( k = 0; k <7; k++){
xseg4[j].x = x - Vma_tab.size*0.001*cos(angle2);
xseg4[j].y = y - Vma_tab.size*0.001*sin(angle2);
++j;
angle2 += add_angle;
}
gpl(7,xseg4);
}
pe++;
}
break;
//w41
case GMK_w41:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0,k = 0;
s = Vma_tab.size/1000;
//first line - first half
{
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y + Vma_tab.size*0.0005;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = tempy;
j++;
gpl(2,xseg);
}
//first line - second half
{
j = 0;
tempx = xseg3[j].x = x + Vma_tab.size*0.0015;
tempy = xseg3[j].y = y + Vma_tab.size*0.0005;
j++;
xseg3[j].x = tempx + Vma_tab.size*0.001;
xseg3[j].y = tempy;
j++;
gpl(2,xseg3);
}
//middle line
{
k = 0;
xseg1[k].x = x;
xseg1[k].y = y;
k++;
xseg1[k].x = x + Vma_tab.size*0.0025;
xseg1[k].y = y;
k++;
gpl(2,xseg1);
}
// third line - first half
{
k = 0;
xseg2[k].x = x;
xseg2[k].y = y - Vma_tab.size*0.0005;
k++;
xseg2[k].x = x + Vma_tab.size*0.001;
xseg2[k].y = y - Vma_tab.size*0.0005;
k++;
gpl(2,xseg2);
}
// third line - second half
{
k = 0;
tempx = xseg4[k].x = x + Vma_tab.size*0.0015;
xseg4[k].y = y - Vma_tab.size*0.0005;
k++;
xseg4[k].x = tempx + Vma_tab.size*0.001;
xseg4[k].y = y - Vma_tab.size*0.0005;
k++;
gpl(2,xseg4);
}
pe++;
}
break;
//w42
case GMK_w42:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0,k = 0;
s = Vma_tab.size/1000;
//first line - first half
{
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y + Vma_tab.size*0.0005;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = tempy;
j++;
gpl(2,xseg);
}
//first line - second half
{
j = 0;
tempx = xseg3[j].x = x + Vma_tab.size*0.0015;
tempy = xseg3[j].y = y+ Vma_tab.size*0.0005;
j++;
xseg3[j].x = tempx + Vma_tab.size*0.001;
xseg3[j].y = tempy;
j++;
gpl(2,xseg3);
}
//middle line
{
k = 0;
xseg1[k].x = x;
xseg1[k].y = y;
k++;
xseg1[k].x = x +Vma_tab.size*0.0025;
xseg1[k].y = y;
k++;
gpl(2,xseg1);
}
// third line
{
k = 0;
xseg2[k].x = x;
xseg2[k].y = y -Vma_tab.size*0.0005;
k++;
xseg2[k].x = x +Vma_tab.size*0.0025;
xseg2[k].y = y - Vma_tab.size*0.0005;
k++;
gpl(2,xseg2);
}
// code for right side line
j = 0;
xseg4[j].x = x + Vma_tab.size*0.003;
xseg4[j].y = y -Vma_tab.size*0.0008;
j++;
xseg4[j].x = x + Vma_tab.size*0.003;
xseg4[j].y = y + Vma_tab.size*0.0008;
j++;
gpl(2, xseg4);
pe++;
}
break;
//w43
case GMK_w43:
for (i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0,k = 0;
s = Vma_tab.size/1000;
//first line
{
j = 0;
xseg5[j].x = x;
tempy = xseg5[j].y = y - Vma_tab.size*0.0005;
j++;
xseg5[j].x = x + Vma_tab.size*0.0025;
xseg5[j].y = tempy;
j++;
gpl(2,xseg5);
}
//second line
{
k = 0;
xseg1[k].x = x;
xseg1[k].y = y;
k++;
xseg1[k].x = x + Vma_tab.size*0.0025;
xseg1[k].y = y;
k++;
gpl(2,xseg1);
}
//third line
{
k = 0;
xseg6[k].x = x;
xseg6[k].y = y + Vma_tab.size*0.0005;
k++;
xseg6[k].x = x + Vma_tab.size*0.0025;
xseg6[k].y = y + Vma_tab.size*0.0005;
k++;
gpl(2,xseg6);
}
// code for right side line
j = 0;
xseg4[j].x = x + Vma_tab.size*0.003;
xseg4[j].y = y - Vma_tab.size*0.0008;
j++;
xseg4[j].x = x + Vma_tab.size*0.003;
xseg4[j].y = y + Vma_tab.size*0.0008;
j++;
gpl(2, xseg4);
pe++;
}
break;
//w44
case GMK_w44:
for (i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0,k = 0;
s = Vma_tab.size/1000;
//first line - first half
{
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y + Vma_tab.size*0.0005;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = tempy;
j++;
gpl(2,xseg);
}
//first line - second half
{
j = 0;
tempx = xseg3[j].x = x + Vma_tab.size*0.0015;
tempy = xseg3[j].y = y + Vma_tab.size*0.0005;
j++;
xseg3[j].x = tempx + Vma_tab.size*0.001;
xseg3[j].y = tempy;
j++;
gpl(2,xseg3);
}
//middle line
{
k = 0;
xseg1[k].x = x;
xseg1[k].y = y;
k++;
xseg1[k].x = x + Vma_tab.size*0.0025;
xseg1[k].y = y;
k++;
gpl(2,xseg1);
}
// third line
{
k = 0;
xseg2[k].x = x;
xseg2[k].y = y - Vma_tab.size*0.0005;
k++;
xseg2[k].x = x + Vma_tab.size*0.0025;
xseg2[k].y = y - Vma_tab.size*0.0005;
k++;
gpl(2,xseg2);
}
pe++;
}
break;
//w45
case GMK_w45:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0,k = 0;
s = Vma_tab.size/1000;
//first line
{
j = 0;
xseg5[j].x = x;
tempy = xseg5[j].y = y - Vma_tab.size*0.0005;
j++;
xseg5[j].x = x + Vma_tab.size*0.0025;
xseg5[j].y = tempy;
j++;
gpl(2,xseg5);
}
//second line
{
k = 0;
xseg1[k].x = x;
xseg1[k].y = y;
k++;
xseg1[k].x = x + Vma_tab.size*0.0025;
xseg1[k].y = y;
k++;
gpl(2,xseg1);
}
//third line
{
k = 0;
xseg6[k].x = x;
xseg6[k].y = y + Vma_tab.size*0.0005;
k++;
xseg6[k].x = x + Vma_tab.size*0.0025;
xseg6[k].y = y + Vma_tab.size*0.0005;
k++;
gpl(2,xseg6);
}
pe++;
}
break;
//w46
case GMK_w46:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0,k = 0;
s = Vma_tab.size/1000;
//first line - first half
{
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y + Vma_tab.size*0.0005;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = tempy;
j++;
gpl(2,xseg);
}
//first line - second half
{
j = 0;
tempx = xseg3[j].x = x + Vma_tab.size*0.0015;
tempy = xseg3[j].y = y + Vma_tab.size*0.0005;
j++;
xseg3[j].x = tempx + Vma_tab.size*0.001;
xseg3[j].y = tempy;
j++;
gpl(2,xseg3);
}
//middle line
{
k = 0;
xseg1[k].x = x;
xseg1[k].y = y;
k++;
xseg1[k].x = x + Vma_tab.size*0.0025;
xseg1[k].y = y;
k++;
gpl(2,xseg1);
}
// third line
{
k = 0;
xseg2[k].x = x;
xseg2[k].y = y - Vma_tab.size*0.0005;
k++;
xseg2[k].x = x + Vma_tab.size*0.0025;
xseg2[k].y = y - Vma_tab.size*0.0005;
k++;
gpl(2,xseg2);
}
// code for left side line
j = 0;
xseg4[j].x = x - Vma_tab.size*0.0005;
xseg4[j].y = y - Vma_tab.size*0.0008;
j++;
xseg4[j].x = x - Vma_tab.size*0.0005;
xseg4[j].y = y + Vma_tab.size*0.0008;
j++;
gpl(2, xseg4);
pe++;
}
break;
//w47
case GMK_w47:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0,k = 0;
s = Vma_tab.size/1000;
//first line
{
j = 0;
xseg5[j].x = x;
tempy = xseg5[j].y = y - Vma_tab.size*0.0005;
j++;
xseg5[j].x = x + Vma_tab.size*0.0025;
xseg5[j].y = tempy;
j++;
gpl(2,xseg5);
}
//second line
{
k = 0;
xseg1[k].x = x;
xseg1[k].y = y;
k++;
xseg1[k].x = x + Vma_tab.size*0.0025;
xseg1[k].y = y;
k++;
gpl(2,xseg1);
}
//third line
{
k = 0;
xseg6[k].x = x;
xseg6[k].y = y + Vma_tab.size*0.0005;
k++;
xseg6[k].x = x + Vma_tab.size*0.0025;
xseg6[k].y = y + Vma_tab.size*0.0005;
k++;
gpl(2,xseg6);
}
// code for left side line
j = 0;
xseg4[j].x = x - Vma_tab.size*0.0005;
xseg4[j].y = y - Vma_tab.size*0.0008;
j++;
xseg4[j].x = x - Vma_tab.size*0.0005;
xseg4[j].y = y + Vma_tab.size*0.0008;
j++;
gpl(2, xseg4);
pe++;
}
break;
//w48
case GMK_w48:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0, k = 0;
s = Vma_tab.size/1000;
//first base horizontal line
{
j = 0;
xseg5[j].x = x;
tempy = xseg5[j].y = y - Vma_tab.size*0.0007;
j++;
xseg5[j].x = x + Vma_tab.size*0.0028;
xseg5[j].y = tempy;
j++;
gpl(2,xseg5);
}
// solid invert triangle
{
gsfais(GSOLID);
k = 0;
xseg2[k].x = x + Vma_tab.size*0.0015;
xseg2[k].y = tempy;
k++;
xseg2[k].x = x + Vma_tab.size*0.001;
xseg2[k].y = y;
k++;
xseg2[k].x = x + Vma_tab.size*0.002;
xseg2[k].y = y;
k++;
xseg2[k].x = x + Vma_tab.size*0.0015;
xseg2[k].y = tempy;
k++;
gfa(4,xseg2);
}
//second line
{
k = 0;
xseg1[k].x = x;
xseg1[k].y = y;
k++;
xseg1[k].x = x + Vma_tab.size*0.0028;
xseg1[k].y = y;
k++;
gpl(2,xseg1);
}
//connection between second and third line
{
//left line
xseg2[0].x = x + Vma_tab.size*0.001;
xseg2[0].y = y;
xseg2[1].x = x + Vma_tab.size*0.0005;
xseg2[1].y = y + Vma_tab.size*0.0008;
xseg2[2].x = x;
xseg2[2].y = y + Vma_tab.size*0.0008;
gpl(3,xseg2);
//right line
xseg4[0].x = x + Vma_tab.size*0.002;
xseg4[0].y = y;
xseg4[1].x = x + Vma_tab.size*0.0024;
xseg4[1].y = y + Vma_tab.size*0.0008;
xseg4[2].x = x + Vma_tab.size*0.0029;
xseg4[2].y = y + Vma_tab.size*0.0008;
gpl(3,xseg4);
}
pe++;
}
break;
//w49
case GMK_w49:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0,k=0;
s = Vma_tab.size/1000;
//first base horizontal line
{
j = 0;
xseg5[j].x = x;
tempy = xseg5[j].y = y - Vma_tab.size*0.0007;
j++;
xseg5[j].x = x + Vma_tab.size*0.0028;
xseg5[j].y = tempy;
j++;
gpl(2,xseg5);
}
// solid invert triangle
{
gsfais(GSOLID);
k = 0;
xseg2[k].x = x + Vma_tab.size*0.0015;
xseg2[k].y = tempy;
k++;
xseg2[k].x = x + Vma_tab.size*0.001;
xseg2[k].y = y;
k++;
xseg2[k].x = x + Vma_tab.size*0.002;
xseg2[k].y = y;
k++;
xseg2[k].x = x + Vma_tab.size*0.0015;
xseg2[k].y = tempy;
k++;
gfa(4,xseg2);
}
//second line
{
k = 0;
xseg1[k].x = x;
xseg1[k].y = y;
k++;
xseg1[k].x = x + Vma_tab.size*0.0028;
xseg1[k].y = y;
k++;
gpl(2,xseg1);
}
//connection between second and third line
{
//left line
xseg2[0].x = x + Vma_tab.size*0.001;
xseg2[0].y = y;
xseg2[1].x = x + Vma_tab.size*0.0005;
xseg2[1].y = y + Vma_tab.size*0.0008;
gpl(2,xseg2);
//right line
xseg4[0].x = x + Vma_tab.size*0.002;
xseg4[0].y = y;
xseg4[1].x = x + Vma_tab.size*0.0024;
xseg4[1].y = y + Vma_tab.size*0.0008;
gpl(2,xseg4);
}
//third line
{
k = 0;
xseg6[k].x = x;
xseg6[k].y = y + Vma_tab.size*0.0008;
k++;
xseg6[k].x = x + Vma_tab.size*0.0028;
xseg6[k].y = y + Vma_tab.size*0.0008;
k++;
gpl(2,xseg6);
}
pe++;
}
break;
//w50
case GMK_w50:
// start of solid circle
gsfais(GSOLID);
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
if ( k == n+(n/2)) {
tempx = x;
tempy = y;
}
}
gfa(41, xseg);
//start of solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size/3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for( k = -(n/2); k <n/4; k++){
angle1 = k*add_angle;
xseg1[j].x = x + Vma_tab.size / 1500*cos(angle1);
xseg1[j].y = y + Vma_tab.size / 2500*sin(angle1);
j++;
}
gfa(35, xseg1);
pe++;
}
break;
//w51
case GMK_w51:
// start of solid left circle
gsfais(GSOLID);
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <= 2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)){
tempx = x;
tempy = y;
}
}
gfa(41, xseg);
//start of left solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for( k = -(n/2); k <n/4; k++) {
angle1 = k*add_angle;
xseg[j].x = x + Vma_tab.size / 1500*cos(angle1);
xseg[j].y = y + Vma_tab.size / 2500*sin(angle1);
j++;
}
gfa(35, xseg);
// start of solid right circle
x = x + Vma_tab.size*0.0015;
y = tempy;//position of right circle
angle1 = 0;
j = 0;
s = Vma_tab.size/1800;
n =20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++) {
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)){
tempx = x;
tempy = y;
}
}
gfa(41, xseg1);
//start of right solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--) {
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for( k = -(n/2); k <n/4; k++) {
angle1 = k*add_angle;
xseg1[j].x = x + Vma_tab.size / 1500*cos(angle1);
xseg1[j].y = y + Vma_tab.size / 2500*sin(angle1);
j++;
}
gfa(35, xseg1);
pe++;
}
break;
//w52
case GMK_w52:
// start of solid left circle
gsfais(GSOLID);
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n =20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)) {
tempx = x;
tempy = y;
}
}
gfa(41, xseg);
//start of left solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size/1500;
for( k = -(n/2); k <n/4; k++) {
angle1 = k*add_angle;
xseg[j].x = x + Vma_tab.size / 1500*cos(angle1);
xseg[j].y = y + Vma_tab.size / 2500*sin(angle1);
j++;
}
gfa(35, xseg);
// start of solid right circle
y = tempy + Vma_tab.size*0.0018;//position of right circle
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)) {
tempx = x;
tempy = y;
}
}
gfa(41, xseg1);
//start of right solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--) {
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for( k = -(n/2); k <n/4; k++){
angle1 = k*add_angle;
xseg1[j].x = x + Vma_tab.size / 1500*cos(angle1);
xseg1[j].y = y + Vma_tab.size / 2500*sin(angle1);
j++;
}
gfa(35, xseg1);
pe++;
}
break;
//w53
case GMK_w53:
// start of solid left circle
gsfais(GSOLID);
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size/1800;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
if(k == n+(n/2)) {
tempx = x ;
tempy = y ;
}
}
gfa(41, xseg);
//start of left solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k > -(n/2); k--) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for( k =-(n/2); k < n/4; k++) {
angle1 = k*add_angle;
xseg[j].x = x + Vma_tab.size / 1500*cos(angle1);
xseg[j].y = y + Vma_tab.size / 2500*sin(angle1);
j++;
}
gfa(35, xseg);
// start of solid right circle
x = x + Vma_tab.size*0.0015;
y = tempy;//position of right circle
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n =20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++) {
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)) {
tempx = x;
tempy = y;
}
}
gfa(41, xseg1);
//start of right solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--) {
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for( k = -(n/2); k <n/4; k++) {
angle1 = k*add_angle;
xseg1[j].x = x + Vma_tab.size / 1500*cos(angle1);
xseg1[j].y = y + Vma_tab.size / 2500*sin(angle1);
j++;
}
gfa(35, xseg1);
// start of solid top circle
x = tempx - Vma_tab.size*0.0008;//position of top circle
y = tempy + Vma_tab.size*0.0015;
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n = 20;
add_angle = PI_V/n ;
for( k = 0 ; k <=2*n; k++) {
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
if(k == n+(n/2)){
tempx = x;
tempy = y;
}
}
gfa(41, xseg2);
//start of top solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--) {
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for( k = -(n/2); k <n/4; k++){
angle1 = k*add_angle;
xseg2[j].x = x + Vma_tab.size / 1500*cos(angle1);
xseg2[j].y = y + Vma_tab.size / 2500*sin(angle1);
j++;
}
gfa(35, xseg2);
pe++;
}
break;
//w54
case GMK_w54:
// start of solid first circle
gsfais(GSOLID);
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
y = y - Vma_tab.size*0.0018; //position of first circle
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)){
tempx = x;
tempy = y;
}
}
gfa(41, xseg);
//start of first solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size/1500;
for( k =-(n/2); k <n/4; k++) {
angle1 = k*add_angle;
xseg[j].x = x + Vma_tab.size / 1500*cos(angle1);
xseg[j].y = y + Vma_tab.size / 2500*sin(angle1);
j++;
}
gfa(35, xseg);
// start of solid middle circle
y = pe->y;//position of middle circle
angle1 = 0;
j = 0;
s = Vma_tab.size/1800;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++) {
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)){
tempx = x;
tempy = y;
}
}
gfa(41, xseg1);
//start of middle solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for(k = -(n/2); k <n/4; k++){
angle1 = k*add_angle;
xseg1[j].x = x + Vma_tab.size / 1500*cos(angle1);
xseg1[j].y = y + Vma_tab.size / 2500*sin(angle1);
j++;
}
gfa(35, xseg1);
// start of solid last circle
y = tempy + Vma_tab.size*0.0018;//position of last circle
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)){
tempx = x;
tempy = y;
}
}
gfa(41, xseg2);
//start of last solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size/1500;
for( k = -(n/2); k < n/4; k++){
angle1 = k*add_angle;
xseg2[j].x = x + Vma_tab.size/1500*cos(angle1);
xseg2[j].y = y + Vma_tab.size/2500*sin(angle1);
j++;
}
gfa(35, xseg2);
pe++;
}
break;
//w55
case GMK_w55:
// start of solid left circle
gsfais(GSOLID);
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size/1800;
n = 20;
add_angle = PI_V/n ;
for( k = 0 ; k <=2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)) {
tempx = x;
tempy = y;
}
}
gfa(41, xseg);
//start of left solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--) {
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for( k = -(n/2); k <n/4; k++) {
angle1 = k*add_angle;
xseg[j].x = x + Vma_tab.size / 1500*cos(angle1);
xseg[j].y = y + Vma_tab.size / 2500*sin(angle1);
j++;
}
gfa(35, xseg);
// start of solid right circle
x = tempx + Vma_tab.size*0.0015;
y = tempy;//position of right circle
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <= 2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
if(k == n+(n/2)){
tempx = x;
tempy = y;
}
}
gfa(41, xseg1);
//start of right solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--) {
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for( k =-(n/2); k <n/4; k++) {
angle1 = k*add_angle;
xseg1[j].x = x + Vma_tab.size/1500*cos(angle1);
xseg1[j].y = y + Vma_tab.size/2500*sin(angle1);
j++;
}
gfa(35, xseg1);
// start of solid top circle
x = tempx - Vma_tab.size*0.0008;//position of top circle
y = tempy + Vma_tab.size*0.0015;
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n=20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)) {
tempx = x;
tempy = y;
}
}
gfa(41, xseg2);
//start of top solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--) {
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for( k =-(n/2); k <n/4; k++){
angle1 = k*add_angle;
xseg2[j].x = x + Vma_tab.size/1500*cos(angle1);
xseg2[j].y = y + Vma_tab.size/2500*sin(angle1);
j++;
}
gfa(35, xseg2);
// start of solid bottom circle
x = tempx;//position of bottom circle
y = tempy - Vma_tab.size*0.003;
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle=PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg3[j].x = x + s*cos(angle1);
xseg3[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)) {
tempx = x;
tempy = y;
}
}
gfa(41, xseg3);
//start of bottom solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n /2; k >-(n/2); k--){
angle1 = k*add_angle;
xseg3[j].x = x + s*cos(angle1);
xseg3[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for( k =-(n/2); k <n/4; k++){
angle1 = k*add_angle;
xseg3[j].x = x + Vma_tab.size/1500*cos(angle1);
xseg3[j].y = y + Vma_tab.size/2500*sin(angle1);
j++;
}
gfa(35, xseg3);
pe++;
}
break;
//w56
case GMK_w56:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
angle1 = 0;
j = 0,k = 0;
s = Vma_tab.size/1000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k < n+(n/2); k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*sin(angle1);
xseg[j].y = y + s*cos(angle1);
j++;
}
x = x - Vma_tab.size*0.002;
y = y;
add_angle = PI_V/n ;
for( k = n/2; k >-(n); k--){
angle1 = k*add_angle;
xseg[j].x = x + s*sin(angle1);
xseg[j].y = y + s*cos(angle1);
j++;
}
gpl(60,xseg);
//solid circle
angle1 = 0;
j = 0;
s = Vma_tab.size/2200;
n=20;
add_angle=PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)){
tempx = x;
tempy = y;
}
}
gfa(41, xseg1);
//start of first solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for( k =-(n/2); k < n/4; k++){
angle1 = k*add_angle;
xseg1[j].x = x + Vma_tab.size/1500*cos(angle1);
xseg1[j].y = y + Vma_tab.size/2500*sin(angle1);
j++;
}
gfa(35, xseg1);
pe++;
}
break;
//w57
case GMK_w57:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0;
angle2 = add_angle;
j = 0,k = 0;
s = Vma_tab.size/1000;
n = 20;
add_angle = PI_V/n ;
for( k = 0;k < n+(n/2); k++) {
angle1 = k*add_angle;
xseg[j].x = x + s*sin(angle1);
xseg[j].y = y + s*cos(angle1);
j++;
}
x = x - Vma_tab.size*0.002;
y = y;
add_angle = PI_V/n ;
for( k = n/2; k >-(n); k--){
angle1 = k*add_angle;
xseg[j].x = x + s*sin(angle1);
xseg[j].y = y + s*cos(angle1);
j++;
}
gpl(60,xseg);
//solid left circle
angle1 = 0;
j = 0;
s = Vma_tab.size/2200;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)){
tempx = x;
tempy = y;
}
}
gfa(41, xseg1);
//start of left solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size / 1500;
for( k =-(n/2); k <n/4; k++){
angle1 = k*add_angle;
xseg1[j].x = x + Vma_tab.size/1500*cos(angle1);
xseg1[j].y = y + Vma_tab.size/2500*sin(angle1);
j++;
}
gfa(35, xseg1);
// solid second circle
x = x + Vma_tab.size*0.002;
y = tempy;//position of second circle
angle1 = 0;
j = 0;
s = Vma_tab.size / 2200;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)){
tempx = x;
tempy = y;
}
}
gfa(41, xseg2);
//start of left solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size/1500;
for( k = -(n/2); k < n/4; k++){
angle1 = k*add_angle;
xseg2[j].x = x + Vma_tab.size/1500*cos(angle1);
xseg2[j].y = y + Vma_tab.size/2500*sin(angle1);
j++;
}
gfa(35, xseg2);
pe++;
}
break;
//w58
case GMK_w58:
// start of solid bottom circle
gsfais(GSOLID);
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
// start of solid top circle
y = y + Vma_tab.size*0.0015;//position of top circle
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
// start comma
//solid circle
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n = 20;
add_angle = PI_V/n ;
x = pe->x;
y = pe->y;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
if(k == n+(n/2)){
tempx = x;
tempy = y;
}
}
gfa(41, xseg1);
//start of first solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size/1500;
for( k =-(n/2); k <n/4; k++){
angle1 = k*add_angle;
xseg1[j].x = x + Vma_tab.size/1500*cos(angle1);
xseg1[j].y = y + Vma_tab.size/2500*sin(angle1);
j++;
}
gfa(35, xseg1);
pe++;
}
break;
//w59
case GMK_w59:
gsfais(GSOLID);
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
// start top comma
//solid circle
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n =20;
add_angle = PI_V/n ;
y = y + Vma_tab.size*0.0035;//position of top comma;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)){
tempx = x;
tempy = y;
}
}
gfa(41, xseg1);
//start of first solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k = n/2; k >-(n/2); k--){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size/1500;
for( k =-(n/2); k <n/4; k++){
angle1 = k*add_angle;
xseg1[j].x = x + Vma_tab.size/1500*cos(angle1);
xseg1[j].y = y + Vma_tab.size/2500*sin(angle1);
j++;
}
gfa(35, xseg1);
// start of solid middle circle
y = pe->y;
y = y + Vma_tab.size*0.0015;//position of middle circle
angle1 = 0;
j = 0;
s = Vma_tab.size / 1800;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
// start bottom comma
//solid circle
angle1 = 0;
j = 0;
s = Vma_tab.size/1800;
n = 20;
add_angle = PI_V/n ;
x = pe->x;
y = pe->y;
for( k = 0 ; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
if( k == n+(n/2)){
tempx = x;
tempy = y;
}
}
gfa(41, xseg1);
//start of first solid comma symbol
x = tempx - Vma_tab.size*0.0001;
y = tempy - Vma_tab.size*0.0005;
s = Vma_tab.size / 3000;
j = 0;
gsfais(GSOLID);
for( k =n/2; k >-(n/2); k--){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
s = Vma_tab.size/1500;
for( k =-(n/2); k <n/4; k++){
angle1 = k*add_angle;
xseg1[j].x = x + Vma_tab.size/1500*cos(angle1);
xseg1[j].y = y + Vma_tab.size/2500*sin(angle1);
j++;
}
gfa(35, xseg1);
pe++;
}
break;
//w60
case GMK_w60:
// start of solid circle
gsfais(GSOLID);
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg);
pe++;
}
break;
//w61
case GMK_w61:
// start of solid left circle
gsfais(GSOLID);
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg);
// start of solid right circle
x = x + Vma_tab.size*0.0015;//position of right circle
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
pe++;
}
break;
//w62
case GMK_w62:
// start of solid bottom circle
gsfais(GSOLID);
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0 ; k <=2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg);
// start of solid top circle
y = y + Vma_tab.size*0.0015;//position of top circle
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++) {
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
pe++;
}
break;
//w63
case GMK_w63:
// start of solid left circle
gsfais(GSOLID);
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size / 2000;
n=20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg);
// start of solid right circle
x = x + Vma_tab.size*0.0015;//position of right circle
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
// start of solid top circle
x = x - Vma_tab.size*0.0008;//position of top circle
y = y + Vma_tab.size*0.001;
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg2);
pe++;
}
break;
//w65
case GMK_w65:
// start of solid left circle
gsfais(GSOLID);
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg);
// start of solid right circle
x = x + Vma_tab.size*0.0015;//position of right circle
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
// start of solid top circle
x = x - Vma_tab.size*0.0008;//position of top circle
y = y + Vma_tab.size*0.001;
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg2);
// start of solid bottom circle
//position of bottom circle
y = y - Vma_tab.size*0.002;
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <= 2*n; k++){
angle1 = k*add_angle;
xseg3[j].x = x + s*cos(angle1);
xseg3[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg3);
pe++;
}
break;
//w64
case GMK_w64:
// start of solid first circle
gsfais(GSOLID);
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
y=y- Vma_tab.size*0.0012; //position of first circle
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n=20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg);
// start of solid middle circle
y = pe->y;//position of middle circle
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
// start of solid last circle
y = y + Vma_tab.size*0.0012;//position of last circle
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg2);
pe++;
}
break;
//w66
case GMK_w66:
for (i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0;
j = 0,k=0;
s = Vma_tab.size/1000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <n+(n/2); k++){
angle1 = k*add_angle;
xseg[j].x = x + s*sin(angle1);
xseg[j].y = y + s*cos(angle1);
j++;
}
x = x - Vma_tab.size*0.002;
y = y;
add_angle = PI_V/n ;
for( k = n/2; k >-(n); k--){
angle1 = k*add_angle;
xseg[j].x = x + s*sin(angle1);
xseg[j].y = y + s*cos(angle1);
j++;
}
gpl(60,xseg);
//solid circle
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
pe++;
}
break;
//w67
case GMK_w67:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0;
j = 0,k=0;
s = Vma_tab.size/1000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <n+(n/2); k++){
angle1 = k*add_angle;
xseg[j].x = x + s*sin(angle1);
xseg[j].y = y + s*cos(angle1);
j++;
}
x = x - Vma_tab.size*0.002;
y = y;
add_angle = PI_V/n ;
for( k = n/2; k >-(n); k--){
angle1 = k*add_angle;
xseg[j].x = x + s*sin(angle1);
xseg[j].y = y + s*cos(angle1);
j++;
}
gpl(60,xseg);
//solid left circle
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
// solid second circle
x = x + Vma_tab.size*0.002;//position of second circle
angle1 = 0;
j = 0;
s = Vma_tab.size/2000;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg2);
pe++;
}
break;
//w68
case GMK_w68:
// star initialization
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
// start of solid bottom circle
gsfais(GSOLID);
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
// start of star
j = 0,k = 0;
xseg[0].x = x + star1[0].x;
xseg[0].y = y + star1[0].y;
xseg[1].x = x + star1[1].x;
xseg[1].y = y + star1[1].y;
gpl(2, xseg);
xseg[0].x = x + star2[0].x;
xseg[0].y = y + star2[0].y;
xseg[1].x = x + star2[1].x;
xseg[1].y = y + star2[1].y;
gpl(2, xseg);
xseg[0].x = x + star3[0].x;
xseg[0].y = y + star3[0].y;
xseg[1].x = x + star3[1].x;
xseg[1].y = y + star3[1].y;
gpl(2, xseg);
// end of star
// start of solid top circle
y = y+ Vma_tab.size*0.0022;//position of top circle
angle1 = 0;
j = 0;
s = Vma_tab.size/1500;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
pe++;
}
break;
//w69
case GMK_w69:
// star initialization
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
// start of solid bottom circle
gsfais(GSOLID);
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
// start of bottom star
j = 0,k = 0;
xseg[0].x = x + star1[0].x;
xseg[0].y = y + star1[0].y;
xseg[1].x = x + star1[1].x;
xseg[1].y = y + star1[1].y;
gpl(2, xseg);
xseg[0].x = x + star2[0].x;
xseg[0].y = y + star2[0].y;
xseg[1].x = x + star2[1].x;
xseg[1].y = y + star2[1].y;
gpl(2, xseg);
xseg[0].x = x + star3[0].x;
xseg[0].y = y + star3[0].y;
xseg[1].x = x + star3[1].x;
xseg[1].y = y + star3[1].y;
gpl(2, xseg);
// end of bottom star
// start of solid middle circle
y = y + Vma_tab.size*0.0022;//position of top circle
angle1 = 0;
j = 0;
s = Vma_tab.size/1500;
n = 20;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
// start of top star
y = y + Vma_tab.size*0.0022;//position of top star
j = 0,k = 0;
xseg2[0].x = x + star1[0].x;
xseg2[0].y = y + star1[0].y;
xseg2[1].x = x + star1[1].x;
xseg2[1].y = y + star1[1].y;
gpl(2, xseg2);
xseg2[0].x = x + star2[0].x;
xseg2[0].y = y + star2[0].y;
xseg2[1].x = x + star2[1].x;
xseg2[1].y = y + star2[1].y;
gpl(2, xseg2);
xseg2[0].x = x + star3[0].x;
xseg2[0].y = y + star3[0].y;
xseg2[1].x = x + star3[1].x;
xseg2[1].y = y + star3[1].y;
gpl(2, xseg2);
// end of top star
pe++;
}
break;
//w70
case GMK_w70:
// star initialization
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
// start of solid bottom circle
gsfais(GSOLID);
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
// start of star
j = 0, k = 0;
xseg[0].x = x + star1[0].x;
xseg[0].y = y + star1[0].y;
xseg[1].x = x + star1[1].x;
xseg[1].y = y + star1[1].y;
gpl(2, xseg);
xseg[0].x = x + star2[0].x;
xseg[0].y = y + star2[0].y;
xseg[1].x = x + star2[1].x;
xseg[1].y = y + star2[1].y;
gpl(2, xseg);
xseg[0].x = x + star3[0].x;
xseg[0].y = y + star3[0].y;
xseg[1].x = x + star3[1].x;
xseg[1].y = y + star3[1].y;
gpl(2, xseg);
// end of star
pe++;
}
break;
//w71
case GMK_w71:
// star initialization
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
gsfais(GSOLID);
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
// start of left star
j = 0, k = 0;
xseg[0].x = x + star1[0].x;
xseg[0].y = y + star1[0].y;
xseg[1].x = x + star1[1].x;
xseg[1].y = y + star1[1].y;
gpl(2, xseg);
xseg[0].x = x + star2[0].x;
xseg[0].y = y + star2[0].y;
xseg[1].x = x + star2[1].x;
xseg[1].y = y + star2[1].y;
gpl(2, xseg);
xseg[0].x = x + star3[0].x;
xseg[0].y = y + star3[0].y;
xseg[1].x = x + star3[1].x;
xseg[1].y = y + star3[1].y;
gpl(2, xseg);
// end of left star
// start of right star
x = x + Vma_tab.size*0.0025;//position of right star
j = 0, k = 0;
xseg2[0].x = x + star1[0].x;
xseg2[0].y = y + star1[0].y;
xseg2[1].x = x + star1[1].x;
xseg2[1].y = y + star1[1].y;
gpl(2, xseg2);
xseg2[0].x = x + star2[0].x;
xseg2[0].y = y + star2[0].y;
xseg2[1].x = x + star2[1].x;
xseg2[1].y = y + star2[1].y;
gpl(2, xseg2);
xseg2[0].x = x + star3[0].x;
xseg2[0].y = y + star3[0].y;
xseg2[1].x = x + star3[1].x;
xseg2[1].y = y + star3[1].y;
gpl(2, xseg2);
// end of right star
pe++;
}
break;
//w72
case GMK_w72:
// star initialization
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
gsfais(GSOLID);
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
// start of bottom star
j = 0, k = 0;
xseg[0].x = x + star1[0].x;
xseg[0].y = y + star1[0].y;
xseg[1].x = x + star1[1].x;
xseg[1].y = y + star1[1].y;
gpl(2, xseg);
xseg[0].x = x + star2[0].x;
xseg[0].y = y + star2[0].y;
xseg[1].x = x + star2[1].x;
xseg[1].y = y + star2[1].y;
gpl(2, xseg);
xseg[0].x = x + star3[0].x;
xseg[0].y = y + star3[0].y;
xseg[1].x = x + star3[1].x;
xseg[1].y = y + star3[1].y;
gpl(2, xseg);
// end of bottom star
// start of top star
y = y + Vma_tab.size*0.002;//position of right star
j = 0, k = 0;
xseg2[0].x = x + star1[0].x;
xseg2[0].y = y + star1[0].y;
xseg2[1].x = x + star1[1].x;
xseg2[1].y = y + star1[1].y;
gpl(2, xseg2);
xseg2[0].x = x + star2[0].x;
xseg2[0].y = y + star2[0].y;
xseg2[1].x = x + star2[1].x;
xseg2[1].y = y + star2[1].y;
gpl(2, xseg2);
xseg2[0].x = x + star3[0].x;
xseg2[0].y = y + star3[0].y;
xseg2[1].x = x + star3[1].x;
xseg2[1].y = y + star3[1].y;
gpl(2, xseg2);
// end of top star
pe++;
}
break;
//w73
case GMK_w73:
// star initialization
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
gsfais(GSOLID);
for (i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
// start of left star
j = 0, k = 0;
xseg[0].x = x + star1[0].x;
xseg[0].y = y + star1[0].y;
xseg[1].x = x + star1[1].x;
xseg[1].y = y + star1[1].y;
gpl(2, xseg);
xseg[0].x = x + star2[0].x;
xseg[0].y = y + star2[0].y;
xseg[1].x = x + star2[1].x;
xseg[1].y = y + star2[1].y;
gpl(2, xseg);
xseg[0].x = x + star3[0].x;
xseg[0].y = y + star3[0].y;
xseg[1].x = x + star3[1].x;
xseg[1].y = y + star3[1].y;
gpl(2, xseg);
// end of left star
// start of right star
x = x + Vma_tab.size*0.0025;//position of right star
j = 0, k = 0;
xseg2[0].x = x + star1[0].x;
xseg2[0].y = y + star1[0].y;
xseg2[1].x = x + star1[1].x;
xseg2[1].y = y + star1[1].y;
gpl(2, xseg2);
xseg2[0].x = x + star2[0].x;
xseg2[0].y = y + star2[0].y;
xseg2[1].x = x + star2[1].x;
xseg2[1].y = y + star2[1].y;
gpl(2, xseg2);
xseg2[0].x = x + star3[0].x;
xseg2[0].y = y + star3[0].y;
xseg2[1].x = x + star3[1].x;
xseg2[1].y = y + star3[1].y;
gpl(2, xseg2);
// end of right star
// start of top star
x = x - Vma_tab.size*0.0012;
y = y + Vma_tab.size*0.0025;//position of top star
j = 0, k = 0;
xseg3[0].x = x + star1[0].x;
xseg3[0].y = y + star1[0].y;
xseg3[1].x = x + star1[1].x;
xseg3[1].y = y + star1[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star2[0].x;
xseg3[0].y = y + star2[0].y;
xseg3[1].x = x + star2[1].x;
xseg3[1].y = y + star2[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star3[0].x;
xseg3[0].y = y + star3[0].y;
xseg3[1].x = x + star3[1].x;
xseg3[1].y = y + star3[1].y;
gpl(2, xseg3);
// end of top star
pe++;
}
break;
//w74
case GMK_w74:
// star initialization
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
gsfais(GSOLID);
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
// start of bottom star
j = 0, k = 0;
xseg[0].x = x + star1[0].x;
xseg[0].y = y + star1[0].y;
xseg[1].x = x + star1[1].x;
xseg[1].y = y + star1[1].y;
gpl(2, xseg);
xseg[0].x = x + star2[0].x;
xseg[0].y = y + star2[0].y;
xseg[1].x = x + star2[1].x;
xseg[1].y = y + star2[1].y;
gpl(2, xseg);
xseg[0].x = x + star3[0].x;
xseg[0].y = y + star3[0].y;
xseg[1].x = x + star3[1].x;
xseg[1].y = y + star3[1].y;
gpl(2, xseg);
// end of bottom star
// start of middle star
y = y + Vma_tab.size*0.002;//position of middle star
j = 0, k = 0;
xseg2[0].x = x + star1[0].x;
xseg2[0].y = y + star1[0].y;
xseg2[1].x = x + star1[1].x;
xseg2[1].y = y + star1[1].y;
gpl(2, xseg2);
xseg2[0].x = x + star2[0].x;
xseg2[0].y = y + star2[0].y;
xseg2[1].x = x + star2[1].x;
xseg2[1].y = y + star2[1].y;
gpl(2, xseg2);
xseg2[0].x = x + star3[0].x;
xseg2[0].y = y + star3[0].y;
xseg2[1].x = x + star3[1].x;
xseg2[1].y = y + star3[1].y;
gpl(2, xseg2);
// end of middle star
// start of top star
y = y + Vma_tab.size*0.002;//position of top star
j = 0, k = 0;
xseg3[0].x = x + star1[0].x;
xseg3[0].y = y + star1[0].y;
xseg3[1].x = x + star1[1].x;
xseg3[1].y = y + star1[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star2[0].x;
xseg3[0].y = y + star2[0].y;
xseg3[1].x = x + star2[1].x;
xseg3[1].y = y + star2[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star3[0].x;
xseg3[0].y = y + star3[0].y;
xseg3[1].x = x + star3[1].x;
xseg3[1].y = y + star3[1].y;
gpl(2, xseg3);
// end of top star
pe++;
}
break;
//w75
case GMK_w75:
// star initialization
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
gsfais(GSOLID);
for ( i = 0; i < npts; i++) {
x = pe->x;
y = pe->y;
// start of left star
j = 0, k = 0;
xseg[0].x = x + star1[0].x;
xseg[0].y = y + star1[0].y;
xseg[1].x = x + star1[1].x;
xseg[1].y = y + star1[1].y;
gpl(2, xseg);
xseg[0].x = x + star2[0].x;
xseg[0].y = y + star2[0].y;
xseg[1].x = x + star2[1].x;
xseg[1].y = y + star2[1].y;
gpl(2, xseg);
xseg[0].x = x + star3[0].x;
xseg[0].y = y + star3[0].y;
xseg[1].x = x + star3[1].x;
xseg[1].y = y + star3[1].y;
gpl(2, xseg);
// end of left star
// start of right star
x = x + Vma_tab.size*0.0025;//position of right star
j = 0, k = 0;
xseg2[0].x = x + star1[0].x;
xseg2[0].y = y + star1[0].y;
xseg2[1].x = x + star1[1].x;
xseg2[1].y = y + star1[1].y;
gpl(2, xseg2);
xseg2[0].x = x + star2[0].x;
xseg2[0].y = y + star2[0].y;
xseg2[1].x = x + star2[1].x;
xseg2[1].y = y + star2[1].y;
gpl(2, xseg2);
xseg2[0].x = x + star3[0].x;
xseg2[0].y = y + star3[0].y;
xseg2[1].x = x + star3[1].x;
xseg2[1].y = y + star3[1].y;
gpl(2, xseg2);
// end of right star
// start of top star
x = x - Vma_tab.size*0.0012;
y = y + Vma_tab.size*0.0025;//position of top star
j = 0, k = 0;
xseg3[0].x = x + star1[0].x;
xseg3[0].y = y + star1[0].y;
xseg3[1].x = x + star1[1].x;
xseg3[1].y = y + star1[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star2[0].x;
xseg3[0].y = y + star2[0].y;
xseg3[1].x = x + star2[1].x;
xseg3[1].y = y + star2[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star3[0].x;
xseg3[0].y = y + star3[0].y;
xseg3[1].x = x + star3[1].x;
xseg3[1].y = y + star3[1].y;
gpl(2, xseg3);
// end of top star
// start of bottom star
y = y - Vma_tab.size*0.005;//position of bottom star
j = 0, k = 0;
xseg4[0].x = x + star1[0].x;
xseg4[0].y = y + star1[0].y;
xseg4[1].x = x + star1[1].x;
xseg4[1].y = y + star1[1].y;
gpl(2, xseg4);
xseg4[0].x = x + star2[0].x;
xseg4[0].y = y + star2[0].y;
xseg4[1].x = x + star2[1].x;
xseg4[1].y = y + star2[1].y;
gpl(2, xseg4);
xseg4[0].x = x + star3[0].x;
xseg4[0].y = y + star3[0].y;
xseg4[1].x = x + star3[1].x;
xseg4[1].y = y + star3[1].y;
gpl(2, xseg4);
// end of bottom star
pe++;
}
break;
//w76
case GMK_w76:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0, k = 0;
//code for horizontal line right hand arrow mark
{
startx = xseg1[j].x = x - Vma_tab.size*0.002;
starty = xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.002;
xseg1[j].y = y ;
j++;
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0006;
j++;
xseg1[j].x = xseg1[j-2].x;
xseg1[j].y = xseg1[j-2].y;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-3].y + Vma_tab.size*0.0006;
j++;
gpl(5,xseg1);
//left side arrow mark
j = 0;
xseg[j].x = startx;
xseg[j].y = starty;
j++;
xseg[j].x = xseg[j-1].x + Vma_tab.size*0.0006;
xseg[j].y = xseg[j-1].y - Vma_tab.size*0.0006;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x + Vma_tab.size*0.0006;
xseg[j].y = xseg[j-3].y + Vma_tab.size*0.0006;
j++;
gpl(4,xseg);
}
pe++;
}
break;
//w77
case GMK_w77:
for (i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0, k = 0;
s = Vma_tab.size/1000;
// setting regular triangle position
j = 0;
xseg[j].x = x;
xseg[j].y = y;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y;
j++;
xseg[j].x = x ;
xseg[j].y = y + Vma_tab.size*0.001;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y;
j++;
xseg[j].x = x;
xseg[j].y = y;
j++;
gpl(5, xseg);
// horizontal line
j = 0;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y + Vma_tab.size*0.0005;
j++;
xseg1[j].x = x + Vma_tab.size*0.002;
xseg1[j].y = y + Vma_tab.size*0.0005;
j++;
gpl(2, xseg1);
pe++;
}
break;
//w78
case GMK_w78:
for (i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0, k = 0;
//code for cross mark
//right cross line
xseg2[j].x = x;
xseg2[j].y = y;
j++;
xseg2[j].x = x + Vma_tab.size*0.002;
xseg2[j].y = y + Vma_tab.size*0.002;
j++;
gpl(2,xseg2);
//left cross line
j = 0;
xseg3[j].x = x;
xseg3[j].y = y + Vma_tab.size*0.002;
j++;
xseg3[j].x = x + Vma_tab.size*0.002;
xseg3[j].y = y;
j++;
gpl(2,xseg3);
//code for horizontal line right hand arrow mark
{
j = 0;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y + Vma_tab.size*0.001;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.001;
j++;
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0002;
j++;
xseg1[j].x = xseg1[j-2].x;
xseg1[j].y = xseg1[j-2].y;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0006;
xseg1[j].y = xseg1[j-3].y + Vma_tab.size*0.0002;
j++;
gpl(5,xseg1);
//left side arrow mark
j = 0;
xseg[j].x = x + Vma_tab.size*0.004;
xseg[j].y = y + Vma_tab.size*0.001 ;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.001;
j++;
xseg[j].x = xseg[j-1].x + Vma_tab.size*0.0006;
xseg[j].y = xseg[j-1].y - Vma_tab.size*0.0002;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x + Vma_tab.size*0.0006;
xseg[j].y = xseg[j-3].y + Vma_tab.size*0.0002;
j++;
gpl(5,xseg);
}
pe++;
}
break;
//w79
case GMK_w79:
gsfais(GSOLID);
for (i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0;
j = 0,k=0;
s = Vma_tab.size/1000;
// start of solid circle
x = x;
y = y + Vma_tab.size*0.0004;
angle1 = 0;
j = 0;
s = Vma_tab.size/8000;//set size of circle
n = 20;
add_angle = PI_V/n ;
for( k = 0 ; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
// setting regular triangle position
j = 0;
y = pe->y;
xseg[j].x = x;
xseg[j].y = y;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y;
j++;
xseg[j].x = x ;
xseg[j].y = y + Vma_tab.size*0.001;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y;
j++;
xseg[j].x = x;
xseg[j].y = y;
j++;
gpl(5, xseg);
pe++;
}
break;
//w80
case GMK_w80:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0,k = 0;
// code for invert triangle
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x ;
xseg[j].y = y;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
gpl(5, xseg);
y = y + Vma_tab.size*0.003; // setting circle position
gsfais(GSOLID);
n = 20;
j = 0;
s = Vma_tab.size/2000;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg2);
// end of solid circle
pe++;
}
break;
//w82
case GMK_w82:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0;
j = 0, k = 0;
// code for invert triangle
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x;
xseg[j].y = y;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
gpl(5, xseg);
y = y + Vma_tab.size*0.0028; // setting circle position
gsfais(GSOLID);
n = 20;
j = 0;
s = Vma_tab.size/2000;
add_angle=PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg2);
// end of solid circle
// top most circle
y = y + Vma_tab.size*0.0012; // setting top most circle position
gsfais(GSOLID);
n = 20;
j = 0;
s = Vma_tab.size/2000;
add_angle=PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
// end of solid circle
pe++;
}
break;
//w81
case GMK_w81:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0;
j = 0, k = 0;
// code for invert triangle
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x ;
xseg[j].y = y;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
gpl(5, xseg);
// code for horizontal line inside triangle
j = 0;
xseg1[j].x = x - Vma_tab.size*0.0007;
xseg1[j].y = y + Vma_tab.size*0.0014;
j++;
xseg1[j].x = x + Vma_tab.size*0.0007;
xseg1[j].y = y + Vma_tab.size*0.0014;
j++;
gpl(2, xseg1);
y = y + Vma_tab.size*0.003; // setting circle position
gsfais(GSOLID);
n = 20;
j = 0;
s = Vma_tab.size/2000;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg2);
// end of solid circle
pe++;
}
break;
//w83
case GMK_w83:
// star initialization
s = Vma_tab.size/2000;//size of star
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0;
j = 0, k = 0;
// code for invert triangle
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x;
xseg[j].y = y;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
gpl(5, xseg);
// start of top star
y = y + Vma_tab.size*0.0028;//setting star position
j = 0, k = 0;
xseg3[0].x = x + star1[0].x;
xseg3[0].y = y + star1[0].y;
xseg3[1].x = x + star1[1].x;
xseg3[1].y = y + star1[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star2[0].x;
xseg3[0].y = y + star2[0].y;
xseg3[1].x = x + star2[1].x;
xseg3[1].y = y + star2[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star3[0].x;
xseg3[0].y = y + star3[0].y;
xseg3[1].x = x + star3[1].x;
xseg3[1].y = y + star3[1].y;
gpl(2, xseg3);
// end of top star
// top most circle
y = y+ Vma_tab.size*0.0012; // setting top most circle position
gsfais(GSOLID);
n = 20;
j = 0;
s = Vma_tab.size/2000;
add_angle = PI_V/n ;
for( k =0 ; k <=2*n; k++){
angle1 = k*add_angle;
xseg1[j].x = x + s*cos(angle1);
xseg1[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg1);
// end of solid circle
pe++;
}
break;
//w84
case GMK_w84:
// star initialization
s = Vma_tab.size/2000;//size of star
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0;
j = 0, k = 0;
// code for invert triangle
xseg[j].x = x ;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x ;
xseg[j].y = y ;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
gpl(5, xseg);
// code for horizontal line inside triangle
j = 0;
xseg1[j].x = x - Vma_tab.size*0.0007;
xseg1[j].y = y+ Vma_tab.size*0.0014;
j++;
xseg1[j].x = x + Vma_tab.size*0.0007;
xseg1[j].y = y +Vma_tab.size*0.0014;
j++;
gpl(2, xseg1);
// start of top star
y = y + Vma_tab.size*0.0028;//setting star position
j = 0, k = 0;
xseg3[0].x = x + star1[0].x;
xseg3[0].y = y + star1[0].y;
xseg3[1].x = x + star1[1].x;
xseg3[1].y = y + star1[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star2[0].x;
xseg3[0].y = y + star2[0].y;
xseg3[1].x = x + star2[1].x;
xseg3[1].y = y + star2[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star3[0].x;
xseg3[0].y = y + star3[0].y;
xseg3[1].x = x + star3[1].x;
xseg3[1].y = y + star3[1].y;
gpl(2, xseg3);
// end of top star
// top most circle
y = y + Vma_tab.size*0.0012; // setting top most circle position
gsfais(GSOLID);
n = 20;
j = 0;
s = Vma_tab.size/2000;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg2);
// end of solid circle
pe++;
}
break;
//w85
case GMK_w85:
// star initialization
s = Vma_tab.size/2000;//size of star
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0, k = 0;
// code for invert triangle
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x ;
xseg[j].y = y ;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
gpl(5, xseg);
// start of top star
y = y + Vma_tab.size*0.0028;//setting star position
j = 0, k = 0;
xseg3[0].x = x + star1[0].x;
xseg3[0].y = y + star1[0].y;
xseg3[1].x = x + star1[1].x;
xseg3[1].y = y + star1[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star2[0].x;
xseg3[0].y = y + star2[0].y;
xseg3[1].x = x + star2[1].x;
xseg3[1].y = y + star2[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star3[0].x;
xseg3[0].y = y + star3[0].y;
xseg3[1].x = x + star3[1].x;
xseg3[1].y = y + star3[1].y;
gpl(2, xseg3);
// end of top star
pe++;
}
break;
//w86
case GMK_w86:
// star initialization
s = Vma_tab.size/2000;//size of star
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0, k = 0;
// code for invert triangle
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x ;
xseg[j].y = y ;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
gpl(5, xseg);
// code for horizontal line inside triangle
j = 0;
xseg1[j].x = x - Vma_tab.size*0.0007;
xseg1[j].y = y + Vma_tab.size*0.0014;
j++;
xseg1[j].x = x + Vma_tab.size*0.0007;
xseg1[j].y = y + Vma_tab.size*0.0014;
j++;
gpl(2, xseg1);
// start of top star
y = y + Vma_tab.size*0.0028;//setting star position
j = 0, k = 0;
xseg3[0].x = x + star1[0].x;
xseg3[0].y = y + star1[0].y;
xseg3[1].x = x + star1[1].x;
xseg3[1].y = y + star1[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star2[0].x;
xseg3[0].y = y + star2[0].y;
xseg3[1].x = x + star2[1].x;
xseg3[1].y = y + star2[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star3[0].x;
xseg3[0].y = y + star3[0].y;
xseg3[1].x = x + star3[1].x;
xseg3[1].y = y + star3[1].y;
gpl(2, xseg3);
// end of top star
pe++;
}
break;
//w87
case GMK_w87:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0, k = 0;
s = Vma_tab.size/1000;
// code for invert triangle
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x ;
xseg[j].y = y;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
gpl(5, xseg);
y = y + Vma_tab.size*0.0025; // setting regular triangle [top] position
j = 0;
xseg2[j].x = x;
xseg2[j].y = y;
j++;
xseg2[j].x = x - Vma_tab.size*0.001;
xseg2[j].y = y;
j++;
xseg2[j].x = x;
xseg2[j].y = y + Vma_tab.size*0.001;
j++;
xseg2[j].x = x + Vma_tab.size*0.001;
xseg2[j].y = y ;
j++;
xseg2[j].x = x;
xseg2[j].y = y;
j++;
gpl(5, xseg2);
pe++;
}
break;
//w88
case GMK_w88:
for (i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0, k = 0;
s = Vma_tab.size/1000;
// code for invert triangle
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x;
xseg[j].y = y;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
gpl(5, xseg);
// code for horizontal line inside triangle
j = 0;
xseg1[j].x = x - Vma_tab.size*0.0007;
xseg1[j].y = y + Vma_tab.size*0.0014;
j++;
xseg1[j].x = x + Vma_tab.size*0.0007;
xseg1[j].y = y + Vma_tab.size*0.0014;
j++;
gpl(2, xseg1);
y = y + Vma_tab.size*0.0025; // setting regular triangle [top] position
j = 0;
xseg2[j].x = x;
xseg2[j].y = y;
j++;
xseg2[j].x = x - Vma_tab.size*0.001;
xseg2[j].y = y;
j++;
xseg2[j].x = x;
xseg2[j].y = y + Vma_tab.size*0.001;
j++;
xseg2[j].x = x + Vma_tab.size*0.001;
xseg2[j].y = y;
j++;
xseg2[j].x = x;
xseg2[j].y = y;
j++;
gpl(5, xseg2);
pe++;
}
break;
//w89
case GMK_w89:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0, k = 0;
s = Vma_tab.size/1000;
// code for invert triangle
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x;
xseg[j].y = y;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
gpl(5, xseg);
gsfais(GSOLID);
y = y + Vma_tab.size*0.0025; // setting regular triangle [top] position
j = 0;
xseg2[j].x = x;
xseg2[j].y = y;
j++;
xseg2[j].x = x - Vma_tab.size*0.001;
xseg2[j].y = y;
j++;
xseg2[j].x = x;
xseg2[j].y = y + Vma_tab.size*0.001;
j++;
xseg2[j].x = x + Vma_tab.size*0.001;
xseg2[j].y = y;
j++;
xseg2[j].x = x;
xseg2[j].y = y;
j++;
gfa(5, xseg2);
pe++;
}
break;
//w90
case GMK_w90:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0, k = 0;
s = Vma_tab.size/1000;
// code for invert triangle
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x;
xseg[j].y = y;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
gpl(5, xseg);
// code for horizontal line inside triangle
j = 0;
xseg1[j].x = x - Vma_tab.size*0.0007;
xseg1[j].y = y + Vma_tab.size*0.0014;
j++;
xseg1[j].x = x + Vma_tab.size*0.0007;
xseg1[j].y = y + Vma_tab.size*0.0014;
j++;
gpl(2, xseg1);
gsfais(GSOLID);
y = y + Vma_tab.size*0.0025; // setting regular triangle [top] position
j = 0;
xseg2[j].x = x;
xseg2[j].y = y;
j++;
xseg2[j].x = x - Vma_tab.size*0.001;
xseg2[j].y = y;
j++;
xseg2[j].x = x;
xseg2[j].y = y + Vma_tab.size*0.001;
j++;
xseg2[j].x = x + Vma_tab.size*0.001;
xseg2[j].y = y;
j++;
xseg2[j].x = x;
xseg2[j].y = y;
j++;
gfa(5, xseg2);
pe++;
}
break;
//w91
case GMK_w91:
// code of w17
// its part of w13 and other few lines
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0;
j = 0, k = 0;
s = Vma_tab.size/1000;
//code for w13
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
// code for left down line
tempx = xseg[j].x = x - Vma_tab.size*0.0010;
tempy = xseg[j].y = y - Vma_tab.size*0.0010;
j++;
// code for right down line
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
// code for arrow
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
xseg[j].x = xseg[j-1].x;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0003;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x - Vma_tab.size*0.0004;
xseg[j].y = xseg[j-3].y;
j++;
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
gpl(8,xseg);
// code for top horizontal line
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.0024;
xseg1[j].y = y;
j++;
// code for vertical line
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.002;
j++;
gpl(4,xseg1);
// code for right side line
y = y - Vma_tab.size*0.0025;
x = x + Vma_tab.size*0.0005;
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
xseg1[j].x = x;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
gpl(4, xseg1);
//code for solid circle
x = x + Vma_tab.size*0.002;
y = y + Vma_tab.size*0.0015; // setting circle position
gsfais(GSOLID);
n = 20;
j =0 ;
s = Vma_tab.size/2000;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg2);
pe++;
}
break;
//w92
case GMK_w92:
// code of w17
// its part of w13 and other few lines
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0;
j = 0, k = 0;
s = Vma_tab.size/1000;
//code for w13
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
// code for left down line
tempx = xseg[j].x = x - Vma_tab.size*0.0010;
tempy = xseg[j].y = y - Vma_tab.size*0.0010;
j++;
// code for right down line
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
// code for arrow
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
xseg[j].x = xseg[j-1].x;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0003;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x - Vma_tab.size*0.0004;
xseg[j].y = xseg[j-3].y;
j++;
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
gpl(8,xseg);
// code for top horizontal line
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.0024;
xseg1[j].y = y;
j++;
// code for vertical line
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.002;
j++;
gpl(4,xseg1);
// code for right side line
y = y - Vma_tab.size*0.0025;
x = x + Vma_tab.size*0.0005;
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
xseg1[j].x = x;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
gpl(4, xseg1);
//code for solid top circle
x = x + Vma_tab.size*0.002;
y = y+ Vma_tab.size*0.0022; // setting top circle position
gsfais(GSOLID);
n = 20;
j = 0;
s = Vma_tab.size/2000;
add_angle=PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg2);
//end code for solid top circle
//code for solid bottom circle
y = y - Vma_tab.size*0.0012; // setting bottom circle position
gsfais(GSOLID);
n = 20;
j = 0;
s = Vma_tab.size/2000;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg3[j].x = x + s*cos(angle1);
xseg3[j].y = y+ s*sin(angle1);
j++;
}
gfa(41, xseg3);
//end for solid bottom circle
pe++;
}
break;
//w93
case GMK_w93:
// star initialization
s = Vma_tab.size/2000;//size of star
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
// code of w17
// its part of w13 and other few lines
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0, k = 0;
s = Vma_tab.size/1000;
//code for w13
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
// code for left down line
tempx = xseg[j].x = x - Vma_tab.size*0.0010;
tempy = xseg[j].y = y - Vma_tab.size*0.0010;
j++;
// code for right down line
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
// code for arrow
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
xseg[j].x = xseg[j-1].x;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0003;j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x - Vma_tab.size*0.0004;
xseg[j].y = xseg[j-3].y;
j++;
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
gpl(8,xseg);
// code for top horizontal line
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.0024;
xseg1[j].y = y;
j++;
// code for vertical line
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.002;
j++;
gpl(4,xseg1);
// code for right side line
y = y - Vma_tab.size*0.0025;
x = x + Vma_tab.size*0.0005;
j = 0 ;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
xseg1[j].x = x;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
gpl(4, xseg1);
// start of top star
x = x + Vma_tab.size*0.002;//setting star position
y = y + Vma_tab.size*0.0022;
j = 0, k = 0;
xseg3[0].x = x + star1[0].x;
xseg3[0].y = y + star1[0].y;
xseg3[1].x = x + star1[1].x;
xseg3[1].y = y + star1[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star2[0].x;
xseg3[0].y = y + star2[0].y;
xseg3[1].x = x + star2[1].x;
xseg3[1].y = y + star2[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star3[0].x;
xseg3[0].y = y + star3[0].y;
xseg3[1].x = x + star3[1].x;
xseg3[1].y = y + star3[1].y;
gpl(2, xseg3);
// end of top star
// code for cross line
xseg2[0].x = x + Vma_tab.size*0.0015;
xseg2[0].y = y;
xseg2[1].x = x - Vma_tab.size*0.0005;
xseg2[1].y = y - Vma_tab.size*0.001;
gpl(2, xseg2);
// code for triangle
x = x + Vma_tab.size*0.0005;
y = y - Vma_tab.size*0.002; // setting regular triangle [top] position
j = 0;
xseg4[j].x = x;
xseg4[j].y = y;
j++;
xseg4[j].x = x - Vma_tab.size*0.0008;
xseg4[j].y = y;
j++;
xseg4[j].x = x;
xseg4[j].y = y + Vma_tab.size*0.0008;
j++;
xseg4[j].x = x + Vma_tab.size*0.0008;
xseg4[j].y = y;
j++;
xseg4[j].x = x;
xseg4[j].y = y;
j++;
gpl(5, xseg4);
pe++;
}
break;
//w94
case GMK_w94:
// star initialization
s = Vma_tab.size/2000;//size of star
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
// code of w17
// its part of w13 and other few lines
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0, k = 0;
s = Vma_tab.size/1000;
//code for w13
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
// code for left down line
tempx = xseg[j].x = x - Vma_tab.size*0.0010;
tempy = xseg[j].y = y - Vma_tab.size*0.0010;
j++;
// code for right down line
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
// code for arrow
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
xseg[j].x = xseg[j-1].x;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0003;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x - Vma_tab.size*0.0004;
xseg[j].y = xseg[j-3].y;
j++;
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
gpl(8,xseg);
// code for top horizontal line
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.0024;
xseg1[j].y = y;
j++;
// code for vertical line
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.002;
j++;
gpl(4,xseg1);
// code for right side line
y = y- Vma_tab.size*0.0025;
x = x + Vma_tab.size*0.0005;
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y;
j++;
xseg1[j].x = x + Vma_tab.size*0.001;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
xseg1[j].x = x;
xseg1[j].y = y + Vma_tab.size*0.003;
j++;
gpl(4, xseg1);
// start of top star
x = x + Vma_tab.size*0.002;//setting star position
y = y + Vma_tab.size*0.0032;
j = 0, k = 0;
xseg3[0].x = x + star1[0].x;
xseg3[0].y = y + star1[0].y;
xseg3[1].x = x + star1[1].x;
xseg3[1].y = y + star1[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star2[0].x;
xseg3[0].y = y + star2[0].y;
xseg3[1].x = x + star2[1].x;
xseg3[1].y = y + star2[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star3[0].x;
xseg3[0].y = y + star3[0].y;
xseg3[1].x = x + star3[1].x;
xseg3[1].y = y + star3[1].y;
gpl(2, xseg3);
// end of top star
// start of bottom star
//setting bottom position
y = y - Vma_tab.size*0.001;
j = 0, k = 0;
xseg3[0].x = x + star1[0].x;
xseg3[0].y = y + star1[0].y;
xseg3[1].x = x + star1[1].x;
xseg3[1].y = y + star1[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star2[0].x;
xseg3[0].y = y + star2[0].y;
xseg3[1].x = x + star2[1].x;
xseg3[1].y = y + star2[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star3[0].x;
xseg3[0].y = y + star3[0].y;
xseg3[1].x = x + star3[1].x;
xseg3[1].y = y + star3[1].y;
gpl(2, xseg3);
// end of bottom star
// code for cross line
xseg2[0].x = x + Vma_tab.size*0.0015;
xseg2[0].y = y;
xseg2[1].x = x - Vma_tab.size*0.0005;
xseg2[1].y = y - Vma_tab.size*0.001;
gpl(2, xseg2);
// code for top triangle
x = x + Vma_tab.size*0.0005;
y = y - Vma_tab.size*0.0015; // setting regular triangle [top] position
j = 0;
xseg4[j].x = x;
xseg4[j].y = y;
j++;
xseg4[j].x = x - Vma_tab.size*0.0005;
xseg4[j].y = y;
j++;
xseg4[j].x = x;
xseg4[j].y = y + Vma_tab.size*0.0008;
j++;
xseg4[j].x = x + Vma_tab.size*0.0008;
xseg4[j].y = y;
j++;
xseg4[j].x = x;
xseg4[j].y = y;
j++;
gpl(5, xseg4);
// code for bottom triangle
y = y - Vma_tab.size*0.001; // setting regular triangle [bottom] position
j = 0;
xseg4[j].x = x;
xseg4[j].y = y;
j++;
xseg4[j].x = x - Vma_tab.size*0.0008;
xseg4[j].y = y;
j++;
xseg4[j].x = x ;
xseg4[j].y = y + Vma_tab.size*0.0008;
j++;
xseg4[j].x = x + Vma_tab.size*0.0008;
xseg4[j].y = y ;
j++;
xseg4[j].x = x;
xseg4[j].y = y;
j++;
gpl(5, xseg4);
pe++;
}
break;
//w95
case GMK_w95:
// star initialization
s = Vma_tab.size/2000;//size of star
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
// code of w17
// its part of w13 and other few lines
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0,k = 0;
s = Vma_tab.size/1000;
//code for w13
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
// code for left down line
tempx = xseg[j].x = x - Vma_tab.size*0.0010;
tempy = xseg[j].y = y - Vma_tab.size*0.0010;
j++;
// code for right down line
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
// code for arrow
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
xseg[j].x = xseg[j-1].x;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0003;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x - Vma_tab.size*0.0004;
xseg[j].y = xseg[j-3].y;
j++;
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
gpl(8,xseg);
// code for top horizontal line
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.0024;
xseg1[j].y = y;
j++;
// code for vertical line
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.002;
j++;
gpl(4,xseg1);
//code for solid circle
x = x - Vma_tab.size*0.002;
y = y + Vma_tab.size*0.0008; // setting circle position
gsfais(GSOLID);
n = 20;
j = 0;
s = Vma_tab.size/2000;
add_angle=PI_V/n ;
for( k = 0 ; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg2);
// code for cross line
xseg3[0].x = x + Vma_tab.size*0.0014;
xseg3[0].y = y + Vma_tab.size*0.0005;
xseg3[1].x = x + Vma_tab.size*0.0004;
xseg3[1].y = y - Vma_tab.size*0.0005;
gpl(2, xseg3);
// start of star
x = x + Vma_tab.size*0.002;
j = 0, k = 0;
xseg3[0].x = x + star1[0].x;
xseg3[0].y = y + star1[0].y;
xseg3[1].x = x + star1[1].x;
xseg3[1].y = y + star1[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star2[0].x;
xseg3[0].y = y + star2[0].y;
xseg3[1].x = x + star2[1].x;
xseg3[1].y = y + star2[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star3[0].x;
xseg3[0].y = y + star3[0].y;
xseg3[1].x = x + star3[1].x;
xseg3[1].y = y + star3[1].y;
gpl(2, xseg3);
// end of bottom star
pe++;
}
break;
//w96
case GMK_w96:
// code of w17
// its part of w13 and other few lines
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
j = 0, k = 0;
s = Vma_tab.size/1000;
//code for w13
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
// code for left down line
tempx = xseg[j].x = x - Vma_tab.size*0.0010;
tempy = xseg[j].y = y - Vma_tab.size*0.0010;
j++;
// code for right down line
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
// code for arrow
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y- Vma_tab.size*0.0020;
j++;
xseg[j].x = xseg[j-1].x;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0003;
j++;
xseg[j].x=xseg[j-2].x;
xseg[j].y=xseg[j-2].y;j++;
xseg[j].x=xseg[j-3].x-Vma_tab.size*0.0004;
xseg[j].y=xseg[j-3].y;
j++;
xseg[j].x=x+Vma_tab.size*0.0001;
xseg[j].y=y-Vma_tab.size*0.0020;
j++;
gpl(8,xseg);
// code for top horizontal line
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.0024;
xseg1[j].y = y;
j++;
// code for vertical line
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.002;
j++;
gpl(4,xseg1);
// code for triangle
x = x - Vma_tab.size*0.0012;
y = y + Vma_tab.size*0.0008; // setting regular triangle [top] position
j = 0;
xseg4[j].x = x;
xseg4[j].y = y;
j++;
xseg4[j].x = x - Vma_tab.size*0.0005;
xseg4[j].y = y;
j++;
xseg4[j].x = x;
xseg4[j].y = y + Vma_tab.size*0.0005;
j++;
xseg4[j].x = x + Vma_tab.size*0.0005;
xseg4[j].y = y;
j++;
xseg4[j].x = x;
xseg4[j].y = y;
j++;
gpl(5, xseg4);
pe++;
}
break;
//w97
case GMK_w97:
// star initialization
s = Vma_tab.size/2000;//size of star
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
// code of w17
// its part of w13 and other few lines
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0,k=0;
s = Vma_tab.size/1000;
//code for w13
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
// code for left down line
tempx = xseg[j].x = x - Vma_tab.size*0.0010;
tempy = xseg[j].y = y - Vma_tab.size*0.0010;
j++;
// code for right down line
xseg[j].x = x;
xseg[j].y = y - Vma_tab.size*0.0015;
j++;
// code for again pending left down line
tempx = xseg[j].x = x - Vma_tab.size*0.001;
tempy = xseg[j].y = y - Vma_tab.size*0.0020;
j++;
// code for arrow
xseg[j].x = xseg[j-1].x + Vma_tab.size*0.0001;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0003;
j++;
gpl(5,xseg);
xseg[0].x = tempx;
xseg[0].y = tempy;
j++;
xseg[1].x = tempx + Vma_tab.size*0.0004;
xseg[1].y = tempy;
Vma_tab.size*0.0001;
j++;
gpl(2,xseg);
// code for top horizontal line
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.0024;
xseg1[j].y = y;
j++;
// code for vertical line
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.002;
j++;
gpl(4,xseg1);
//code for solid circle
x = x - Vma_tab.size*0.002;
y = y + Vma_tab.size*0.0008; // setting circle position
gsfais(GSOLID);
n = 20;
j = 0;
s = Vma_tab.size/2000;
add_angle = PI_V/n ;
for( k = 0; k <=2*n; k++){
angle1 = k*add_angle;
xseg2[j].x = x + s*cos(angle1);
xseg2[j].y = y + s*sin(angle1);
j++;
}
gfa(41, xseg2);
// code for cross line
xseg3[0].x = x + Vma_tab.size*0.0014;
xseg3[0].y = y + Vma_tab.size*0.0005;
xseg3[1].x = x + Vma_tab.size*0.0004;
xseg3[1].y = y - Vma_tab.size*0.0005;
gpl(2, xseg3);
// start of star
x = x + Vma_tab.size*0.002;
j = 0, k = 0;
xseg3[0].x = x + star1[0].x;
xseg3[0].y = y + star1[0].y;
xseg3[1].x = x + star1[1].x;
xseg3[1].y = y + star1[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star2[0].x;
xseg3[0].y = y + star2[0].y;
xseg3[1].x = x + star2[1].x;
xseg3[1].y = y + star2[1].y;
gpl(2, xseg3);
xseg3[0].x = x + star3[0].x;
xseg3[0].y = y + star3[0].y;
xseg3[1].x = x + star3[1].x;
xseg3[1].y = y + star3[1].y;
gpl(2, xseg3);
// end of bottom star
pe++;
}
break;
//w98
case GMK_w98:
// star initialization
s = Vma_tab.size/2000;//size of star
star1[0].x = -s;
star1[0].y = 0;
star1[1].x = s;
star1[1].y = 0;
star2[0].x = s * 0.5;
star2[0].y = s * 0.866;
star2[1].x = -s * 0.5;
star2[1].y = -s * 0.866;
star3[0].x = s * 0.5;
star3[0].y = -s * 0.866;
star3[1].x = -s * 0.5;
star3[1].y = s * 0.866;
// code of w17
// its part of w13 and other few lines
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0, k = 0;
//code for w13
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
// code for left down line
tempx = xseg[j].x = x - Vma_tab.size*0.0010;
tempy = xseg[j].y = y - Vma_tab.size*0.0010;
j++;
// code for right down line
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
// code for arrow
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
xseg[j].x = xseg[j-1].x;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0003;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x - Vma_tab.size*0.0004;
xseg[j].y = xseg[j-3].y;
j++;
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
gpl(8,xseg);
// code for top horizontal line
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.0024;
xseg1[j].y = y;
j++;
// code for vertical line
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.002;
j++;
gpl(4,xseg1);
// code for w31
x = x - Vma_tab.size*0.0012;
y = y + Vma_tab.size*0.002; // setting S position
// code of w09
//code for "S"
n = 20;
s = Vma_tab.size/2000;j=0;
add_angle = PI_V/n ;
for( k = 0; k <n+(n/2); k++){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
tempx = xseg[j-1].x;
tempy = xseg[j-1].y;
y = y - Vma_tab.size*0.001;
add_angle = PI_V/n ;
for( k = n/2; k >-(n); k--){
angle1 = k*add_angle;
xseg[j].x = x + s*cos(angle1);
xseg[j].y = y + s*sin(angle1);
j++;
}
gpl(60,xseg);
//code for horizontal right hand arrow mark
{
// x = pe->x;
y = y + Vma_tab.size*0.0025;
j = 0;
startx = xseg1[j].x = tempx - Vma_tab.size*0.001;
starty = xseg1[j].y = tempy;
j++;
xseg1[j].x = tempx + Vma_tab.size*0.001;
xseg1[j].y = tempy;
j++;
xseg1[j].x = xseg1[j-1].x - Vma_tab.size*0.0003;
xseg1[j].y = xseg1[j-1].y - Vma_tab.size*0.0003;
j++;
xseg1[j].x = xseg1[j-2].x;
xseg1[j].y = xseg1[j-2].y;
j++;
xseg1[j].x = xseg1[j-3].x - Vma_tab.size*0.0003;
xseg1[j].y = xseg1[j-3].y + Vma_tab.size*0.0003;
j++;
gpl(5,xseg1);
}
pe++;
}
break;
//w99
case GMK_w99:
// code of w17
// its part of w13 and other few lines
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0, k = 0;
s = Vma_tab.size/1000;
//code for w13
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
// code for left down line
tempx = xseg[j].x = x - Vma_tab.size*0.0010;
tempy = xseg[j].y = y - Vma_tab.size*0.0010;
j++;
// code for right down line
xseg[j].x = x;
xseg[j].y = y - Vma_tab.size*0.0015;
j++;
// code for again pending left down line
tempx = xseg[j].x = x - Vma_tab.size*0.001;
tempy = xseg[j].y = y - Vma_tab.size*0.0020;
j++;
// code for arrow
xseg[j].x = xseg[j-1].x + Vma_tab.size*0.0001;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0003;
j++;
gpl(5,xseg);
xseg[0].x = tempx;
xseg[0].y = tempy;
j++;
xseg[1].x =tempx +Vma_tab.size*0.0004;
xseg[1].y =tempy;Vma_tab.size*0.0001;
j++;
gpl(2,xseg);
// code for top horizontal line
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.0024;
xseg1[j].y = y;
j++;
// code for vertical line
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.002;
j++;
gpl(4,xseg1);
// code for triangle
x = x - Vma_tab.size*0.0012;
y = y + Vma_tab.size*0.0008; // setting regular triangle [top] position
j = 0;
xseg4[j].x = x;
xseg4[j].y = y;
j++;
xseg4[j].x = x - Vma_tab.size*0.0005;
xseg4[j].y = y;
j++;
xseg4[j].x = x;
xseg4[j].y = y + Vma_tab.size*0.0005;
j++;
xseg4[j].x = x + Vma_tab.size*0.0005;
xseg4[j].y = y;
j++;
xseg4[j].x = x;
xseg4[j].y = y;
j++;
gpl(5, xseg4);
pe++;
}
break;
//w200
case GMK_w200:
// its part of w13 and other few lines
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0,k = 0;
s = Vma_tab.size/1000;
//code for w13
j = 0;
xseg[j].x = x;
tempy = xseg[j].y = y;
j++;
// code for left down line
tempx = xseg[j].x = x - Vma_tab.size*0.0010;
tempy = xseg[j].y = y - Vma_tab.size*0.0010;
j++;
// code for right down line
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
// code for arrow
xseg[j].x = x + Vma_tab.size*0.0001;
xseg[j].y = y - Vma_tab.size*0.0020;
j++;
xseg[j].x = xseg[j-1].x;
xseg[j].y = xseg[j-1].y + Vma_tab.size*0.0003;
j++;
xseg[j].x = xseg[j-2].x;
xseg[j].y = xseg[j-2].y;
j++;
xseg[j].x = xseg[j-3].x - Vma_tab.size*0.0004;
xseg[j].y = xseg[j-3].y;
j++;
xseg[j].x=x+Vma_tab.size*0.0001;
xseg[j].y=y-Vma_tab.size*0.0020;
j++;
gpl(8,xseg);
// code for top horizontal line
j = 0;
xseg1[j].x = x;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.0024;
xseg1[j].y = y;
j++;
// code for vertical line
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y;
j++;
xseg1[j].x = x - Vma_tab.size*0.002;
xseg1[j].y = y - Vma_tab.size*0.002;
j++;
gpl(4,xseg1);
pe++;
}
break;
//w201
case GMK_w201:
for ( i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0, k = 0;
s = Vma_tab.size/1000;
// code for invert triangle
xseg[j].x = x;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y +Vma_tab.size*0.002;
j++;
xseg[j].x = x;
xseg[j].y = y;
j++;
xseg[j].x = x + Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
xseg[j].x = x - Vma_tab.size*0.001;
xseg[j].y = y + Vma_tab.size*0.002;
j++;
gpl(5, xseg);
pe++;
}
break;
//w202
case GMK_w202:
// slash
for (i = 0; i < npts; i++) {
startx= x = pe->x;
starty= y = pe->y;
add_angle = PI_V/24;
angle1 = 0; angle2 = add_angle;
j = 0, k = 0;
s = Vma_tab.size/1000;
j = 0;
xseg[0].x = x + Vma_tab.size*0.0005;
xseg[0].y = y + Vma_tab.size*0.001;
xseg[1].x = x - Vma_tab.size*0.0005;
xseg[1].y = y - Vma_tab.size*0.001;
gpl(2, xseg);
pe++;
}
break;
case GMK_NONE:
break;
default:
break;
}
/* Set the Line attributes back */
}
| 103-weather-symbol-markers-in-cdat | trunk/CDAT-New-Markers/Source/markers.c | C | gpl2 | 169,694 |
# Adapted for numpy/ma/cdms2 by convertcdms.py
import _vcs
import vcs,cdtime,queries
import numpy
class PPE(Exception):
def __init__ (self, parameter,type):
self.parameter=parameter
self.type=type
def __str__(self):
return 'Projection Parameter Error: Parameter "'+self.parameter+'" is not settable for projection type:'+str(self.type)
## def checkPythonOnly(name):
## if name in []:
## return 1
## else:
## return 0
def color2vcs(col):
if isinstance(col,str):
r,g,b=vcs.colors.str2rgb(col)
if r is None :
r,g,b=[0,0,0] # black by default
# Now calls the function that matches the closest color in the the colormap
color=matchVcsColor(r/2.55,g/2.55,b/2.55)
else:
color = col
return color
def matchVcsColor(r,g,b):
rmsmin=100000000.
color=None
for i in range(256):
r2,g2,b2=_vcs.getcolorcell(i)
rms=numpy.sqrt((r2-r)**2+(g2-g)**2+(b2-b)**2)
if rms<rmsmin :
rmsmin=rms
color=i
return color
def checkElements(self,name,value,function):
if not isinstance(value,list):
raise ValueError,'Error type for %s, you must pass a list' % name
for i in range(len(value)):
try:
value[i] = function(self,name,value[i])
except Exception,err:
raise ValueError, '%s failed while checking validity of element: %s\nError message was: %s' % (name, repr(value[i]),err)
return value
def checkContType(self,name,value):
checkName(self,name,value)
checkInt(self,name,value,minvalue=0)
return value
def checkLine(self,name,value):
checkName(self,name,value)
if not isinstance(value,(str,vcs.line.Tl)):
raise ValueError, name+' must be an line primitive or the name of an exiting one.'
if isinstance(value,str):
if not value in _vcs.listelements('line'):
raise ValueError, name+' is not an existing line primitive'
value=self.x.getline(value)
return value
## def checkIsoline(self,name,value):
## checkName(self,name,value)
## if not isinstance(value,(str,vcs.isoline.Gi)):
## raise ValueError, name+' must be an isoline graphic method or the name of an exiting one.'
## if isinstance(value,str):
## if not value in self.x.listelements('isoline'):
## raise ValueError, name+' is not an existing isoline graphic method'
## value=self.x.getisoline(value)
## return value
## def checkIsofill(self,name,value):
## checkName(self,name,value)
## if not isinstance(value,(str,vcs.isofill.Gfi)):
## raise ValueError, name+' must be an isofill graphic method or the name of an exiting one.'
## if isinstance(value,str):
## if not value in self.x.listelements('isofill'):
## raise ValueError, name+' is not an existing isofill graphic method'
## value=self.x.getisofill(value)
## return value
def isNumber(value,min=None,max=None):
""" Checks if value is a Number, optionaly can check if min<value<max
"""
try:
value=value.tolist() # converts MA/MV/numpy
except:
pass
if not isinstance(value,(int,long,float,numpy.floating)):
return False
if min is not None and value<min:
return -1
if max is not None and value>max:
return -2
return True
def checkNumber(self,name,value,minvalue=None,maxvalue=None):
checkName(self,name,value)
try:
value=value.tolist() # converts MA/MV/numpy
except:
pass
n=isNumber(value,min=minvalue,max=maxvalue)
if n is False:
raise ValueError, name+' must be a number'
if n==-1:
raise ValueError, name+' values must be at least '+str(minvalue)
if n==-2:
raise ValueError, name+' values must be at most '+str(maxvalue)
return value
def checkInt(self,name,value,minvalue=None,maxvalue=None):
checkName(self,name,value)
n=checkNumber(self,name,value,minvalue=minvalue,maxvalue=maxvalue)
if not isinstance(n,int):
raise ValueError, name+' must be an integer'
return n
def checkListOfNumbers(self,name,value,minvalue=None,maxvalue=None,minelements=None,maxelements=None,ints=False):
checkName(self,name,value)
if not isinstance(value,(list,tuple)):
raise ValueError, name+' must be a list or tuple'
n=len(value)
if minelements is not None and n<minelements:
raise ValueError, name+' must have at least '+str(minelements)+' elements'
if maxelements is not None and n>maxelements:
raise ValueError, name+' must have at most '+str(maxelements)+' elements'
for v in value:
if ints:
checkInt(self,name,v,minvalue=minvalue,maxvalue=maxvalue)
else:
checkNumber(self,name,v,minvalue=minvalue,maxvalue=maxvalue)
return list(value)
def checkFont(self,name,value):
if (value == None):
pass
elif isNumber(value,min=1):
value=int(value)
# try to see if font exists
nm = _vcs.getfontname(value)
elif isinstance(value,str):
value = _vcs.getfontnumber(value)
else:
nms = _vcs.listelements("font")
raise ValueError, 'Error for attribute %s: The font attribute values must be a valid font number or a valid font name. valid names are: %s' % (name,', '.join(nms))
return value
def checkMarker(self,name,value):
checkName(self,name,value)
if ((value in (None, 'dot', 'plus', 'star', 'circle', 'cross', 'diamond', 'triangle_up', 'triangle_down', 'triangle_down', 'triangle_left', 'triangle_right', 'square', 'diamond_fill','triangle_up_fill','triangle_down_fill','triangle_left_fill','triangle_right_fill','square_fill','hurricane','w00','w01','w02','w03','w04','w05','w06','w07',
'w08','w09','w10','w11','w12','w13','w14','w15','w16','w17','w18','w19','w20','w21','w22','w23','w24','w25','w26','w27','w28','w29','w30','w31','w32','w33','w34','w35','w36',
'w37','w38','w39','w40','w41','w42','w43','w44','w45','w46','w47','w48','w49','w50','w51','w52','w53','w54','w55','w56','w57','w58','w59','w60','w61','w62','w63','w64','w65',
'w66','w67','w68','w69','w70','w71','w72','w73','w74','w75','w76','w77','w78','w79','w80','w81','w82','w83','w84','w85','w86','w87','w88','w89','w90','w91','w92','w93','w94',
'w95','w96','w97','w98','w99','w200','w201','w202', 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14 ,15, 16, 17, 18, 100, 101, 102, 103, 104, 105, 106, 107, 108, 109, 110, 111, 112, 113, 114,115, 116, 117, 118, 119, 120, 121, 122, 123, 124, 125, 126, 127, 128, 129, 130, 131, 132, 133, 134, 135, 136, 137, 138, 139, 140, 141, 142, 143, 144, 145, 146, 147, 148, 149,150, 151, 152, 153, 154, 155, 156, 157, 158, 159, 160, 161, 162, 163, 164, 165, 166, 167, 168, 169, 170, 171, 172, 173, 174, 175, 176, 177, 178, 179, 180, 181, 182, 183, 184, 185, 186, 187, 188, 189, 190, 191, 192, 193, 194, 195, 196, 197, 198, 199, 200, 201, 202 )) or (queries.ismarker(value)==1)):
if value in (None, 0):
value=None
elif value in ('dot', 1):
value='dot'
elif value in ('plus', 2):
value='plus'
elif value in ('star', 3):
value='star'
elif value in ('circlet', 4):
value='circle'
elif value in ('cross', 5):
value='cross'
elif value in ('diamond', 6):
value='diamond'
elif value in ('triangle_up', 7):
value='triangle_up'
elif value in ('triangle_down', 8):
value='triangle_down'
elif value in ('triangle_left', 9):
value='triangle_left'
elif value in ('triangle_right', 10):
value='triangle_right'
elif value in ('square', 11):
value='square'
elif value in ('diamond_fill', 12):
value='diamond_fill'
elif value in ('triangle_up_fill', 13):
value='triangle_up_fill'
elif value in ('triangle_down_fill', 14):
value='triangle_down_fill'
elif value in ('triangle_left_fill', 15):
value='triangle_left_fill'
elif value in ('triangle_right_fill', 16):
value='triangle_right_fill'
elif value in ('square_fill', 17):
value='square_fill'
elif value in ('hurricane', 18):
value='hurricane'
elif value in ('w00', 100):
value='w00'
elif value in ('w01', 101):
value='w01'
elif value in ('w02', 102):
value='w02'
elif value in ('w03', 103):
value='w03'
elif value in ('w04', 104):
value='w04'
elif value in ('w05', 105):
value='w05'
elif value in ('w06', 106):
value='w06'
elif value in ('w07', 107):
value='w07'
elif value in ('w08', 108):
value='w08'
elif value in ('w09', 109):
value='w09'
elif value in ('w10', 110):
value='w10'
elif value in ('w11', 111):
value='w11'
elif value in ('w12', 112):
value='w12'
elif value in ('w13', 113):
value='w13'
elif value in ('w14', 114):
value='w14'
elif value in ('w15', 115):
value='w15'
elif value in ('w16', 116):
value='w16'
elif value in ('w17', 117):
value='w17'
elif value in ('w18', 118):
value='w18'
elif value in ('w19', 119):
value='w19'
elif value in ('w20', 120):
value='w20'
elif value in ('w21', 121):
value='w21'
elif value in ('w22', 122):
value='w22'
elif value in ('w23', 123):
value='w23'
elif value in ('w24', 124):
value='w24'
elif value in ('w25', 125):
value='w25'
elif value in ('w26', 126):
value='w26'
elif value in ('w27', 127):
value='w27'
elif value in ('w28', 128):
value='w28'
elif value in ('w29', 129):
value='w29'
elif value in ('w30', 130):
value='w30'
elif value in ('w31', 131):
value='w31'
elif value in ('w32', 132):
value='w32'
elif value in ('w33', 133):
value='w33'
elif value in ('w34', 134):
value='w34'
elif value in ('w35', 135):
value='w35'
elif value in ('w36', 136):
value='w36'
elif value in ('w37', 137):
value='w37'
elif value in ('w38', 138):
value='w38'
elif value in ('w39', 139):
value='w39'
elif value in ('w40', 140):
value='w40'
elif value in ('w41', 141):
value='w41'
elif value in ('w42', 142):
value='w42'
elif value in ('w43', 143):
value='w43'
elif value in ('w44', 144):
value='w44'
elif value in ('w45', 145):
value='w45'
elif value in ('w46', 146):
value='w46'
elif value in ('w47', 147):
value='w47'
elif value in ('w48', 148):
value='w48'
elif value in ('w49', 149):
value='w49'
elif value in ('w50', 150):
value='w50'
elif value in ('w51', 151):
value='w51'
elif value in ('w52', 152):
value='w52'
elif value in ('w53', 153):
value='w53'
elif value in ('w54', 154):
value='w54'
elif value in ('w55', 155):
value='w55'
elif value in ('w56', 156):
value='w56'
elif value in ('w57', 157):
value='w57'
elif value in ('w58', 158):
value='w58'
elif value in ('w59', 159):
value='w59'
elif value in ('w60', 160):
value='w60'
elif value in ('w61', 161):
value='w61'
elif value in ('w62', 162):
value='w62'
elif value in ('w63', 163):
value='w63'
elif value in ('w64', 164):
value='w64'
elif value in ('w65', 165):
value='w65'
elif value in ('w66', 166):
value='w66'
elif value in ('w67', 167):
value='w67'
elif value in ('w68', 168):
value='w68'
elif value in ('w69', 169):
value='w69'
elif value in ('w70', 170):
value='w70'
elif value in ('w71', 171):
value='w71'
elif value in ('w72', 172):
value='w72'
elif value in ('w73', 173):
value='w73'
elif value in ('w74', 174):
value='w74'
elif value in ('w75', 175):
value='w75'
elif value in ('w76', 176):
value='w76'
elif value in ('w77', 177):
value='w77'
elif value in ('w78', 178):
value='w78'
elif value in ('w79', 179):
value='w79'
elif value in ('w80', 180):
value='w80'
elif value in ('w81', 181):
value='w81'
elif value in ('w82', 182):
value='w82'
elif value in ('w83', 183):
value='w83'
elif value in ('w84', 184):
value='w84'
elif value in ('w85', 185):
value='w85'
elif value in ('w86', 186):
value='w86'
elif value in ('w87', 187):
value='w87'
elif value in ('w88', 188):
value='w88'
elif value in ('w89', 189):
value='w89'
elif value in ('w90', 190):
value='w90'
elif value in ('w91', 191):
value='w91'
elif value in ('w92', 192):
value='w92'
elif value in ('w93', 193):
value='w93'
elif value in ('w94', 194):
value='w94'
elif value in ('w95', 195):
value='w95'
elif value in ('w96', 196):
value='w96'
elif value in ('w97', 197):
value='w97'
elif value in ('w98', 198):
value='w98'
elif value in ('w99', 199):
value='w99'
elif value in ('w200',200):
value='w200'
elif value in ('w201', 201):
value='w201'
elif value in ('w202', 202):
value='w202'
elif (queries.ismarker(value)==1):
value=value.name
else:
error=""" value can either be (None, "dot", "plus", "star", "circle", "cross", "diamond", "triangle_up", "triangle_down", "triangle_left", "triangle_right","square","diamond_fill","triangle_up_fill","triangle_down_fill","triangle_left_fill","triangle_right_fill","square_fill","hurricane","w00","w01","w02","w03",
"w04","w05","w06","w07","w08","w09","w10","w11","w12","w13","w14","w15","w16","w17","w18","w19","w20","w21","w22","w23","w24","w25","w26","w27","w28","w29","w30","w31","w32",
"w33","w34","w35","w36","w37","w38","w39","w40","w41","w42","w43","w44","w45","w46","w47","w48","w49","w50","w51","w52","w53","w54","w55","w56","w57","w58","w59","w60","w61",
"w62","w63","w64","w65","w66","w67","w68","w69","w70","w71","w72","w73","w74","w75","w76","w77","w78","w79","w80","w81","w82","w83","w84","w85","w86","w87","w88","w89","w90",
"w91","w92","w93","w94","w95","w96","w97","w98","w99","w200","w201","w202") or (0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14 ,15, 16, 17, 18, 100, 101, 102, 103, 104, 105, 106, 107, 108, 109, 110, 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121, 122, 123, 124, 125, 126, 127, 128, 129, 130, 131, 132, 133, 134, 135, 136, 137, 138, 139, 140, 141, 142, 143, 144, 145, 146, 147, 148, 149, 150, 151, 152, 153, 154, 155, 156, 157, 158, 159, 160, 161, 162, 163, 164, 165, 166, 167, 168, 169, 170, 171, 172, 173, 174, 175, 176, 177, 178, 179, 180, 181, 182, 183, 184, 185, 186, 187, 188, 189, 190, 191, 192, 193, 194, 195, 196, 197, 198, 199, 200, 201, 202 ) or a marker object."""
raise ValueError, 'The '+ name + error
return value
def checkMarkersList(self,name,value):
checkName(self,name,value)
if isinstance(value,int):
value=list(value)
value=checkListTuple(self,name,value)
hvalue = []
for v in value:
hvalue.append(checkMarker(self,name,v))
return hvalue
def checkListElements(self,name,value,function):
checkName(self,name,value)
if not isinstance(value,(list,tuple)):
raise ValueError, "Attribute %s must be a list" % name
for v in value:
try:
v = function(self,name,v)
except Exception,err:
raise ValueError, "element %s of attribute %s list failed type compliance\n error was: %s" % (repr(v),name,err)
return value
def isListorTuple(value):
if isinstance(value,(list,tuple)):
return 1
return 0
def checkName(self, name, value):
if hasattr(self,'name'):
if (self.name == '__removed_from_VCS__'):
raise ValueError, 'This instance has been removed from VCS.'
if (self.name == 'default'):
raise ValueError, 'You cannot modify the default'
def checkname(self,name,value):
checkName(self,name,value)
if isinstance(value,str):
if value!='__removed_from_VCS__':
self.rename(self.name, value)
return value
else:
self._name=value
return None
else:
raise ValueError, 'The name attribute must be a string.'
def checkString(self,name,value):
checkName(self,name,value)
if isinstance(value,str):
return value
else:
raise ValueError, 'The '+name+' attribute must be a string.'
def checkCallable(self,name,value):
checkName(self,name,value)
if callable(value):
return value
else:
raise ValueError, 'The '+name+' attribute must be callable.'
## def checkFillAreaStyle(self,name,value):
## checkName(self,name,value)
## if not isinstance(value,str):
## raise ValueError,'The fillarea attribute must be a string'
## if not value.lower() in ['solid','hatch','pattern']:
## raise ValueError, 'The fillarea attribute must be either solid, hatch, or pattern.'
## return value
def checkFillAreaStyle(self,name,value):
checkName(self,name,value)
if ((value in ('solid', 'hatch', 'pattern', 'hallow', 0, 1, 2, 3)) or
(queries.isfillarea(value)==1)):
if value in ('solid', 0):
value='solid'
elif value in ('hatch', 1):
value='hatch'
elif value in ('pattern', 2):
value='pattern'
elif value in ('hallow', 3):
value='hallow'
elif (queries.isfillarea(value)==1):
value=value.name
else:
raise ValueError, 'The '+name+' attribute must be either solid, hatch, or pattern.'
return value
def checkAxisConvert(self,name,value):
checkName(self,name,value)
if isinstance(value,str) and (value.lower() in ('linear', 'log10', 'ln','exp','area_wt')):
return value.lower()
else:
raise ValueError, 'The '+name+' attribute must be either: linear, log10, ln, exp, or area_wt'
def checkBoxfillType(self,name,value):
checkName(self,name,value)
if isinstance(value,str) and (value.lower() in ('linear', 'log10', 'custom')):
return value.lower()
else:
raise ValueError, 'The '+name+' attribute must be either: linear, log10 or custom'
def checkIntFloat(self,name,value):
try:
value=value.tolist() # converts MA/MV/numpy
except:
pass
if isinstance(value,(int,float,numpy.floating)):
return float(value)
else:
raise ValueError, 'The '+name+' attribute must be either an integer or a float value.'
## def checkInt(self,name,value):
## checkName(self,name,value)
## if isinstance(value,int):
## return value
## else:
## raise ValueError, 'The '+name+' attribute must be either an integer or a float value.'
def checkOnOff(self,name,value,return_string=0):
checkName(self,name,value)
if value is None:
value = 0
elif isinstance(value,str):
if value.lower() in ['on','1','y','yes']:
value = 1
elif value.lower() in ['off','0','n','no']:
value = 0
else:
raise ValueError, "The "+name+" attribute must be either 1/0, 'on'/'off', 'y'/'n' or 'yes'/'no'"
elif isNumber(value):
if value==0. or value==1.:
value = int(value)
else:
raise ValueError, "The "+name+" attribute must be either 1/0, 'on'/'off', 'y'/'n' or 'yes'/'no'"
else:
raise ValueError, "The "+name+" attribute must be either 1/0, 'on'/'off', 'y'/'n' or 'yes'/'no'"
if return_string:
if value:
return 'y'
else:
return 'n'
elif return_string!=0:
if value:
return 'on'
else:
return 'off'
else:
return value
def checkYesNo(self,name,value):
checkName(self,name,value)
if value is None:
value = 'n'
elif isinstance(value,str):
if value.lower() in ['on','1','y','yes']:
value = 'y'
elif value.lower() in ['off','0','n','no']:
value = 'n'
else:
raise ValueError, "The "+name+" attribute must be either 1/0, 'on'/'off', 'y'/'n' or 'yes'/'no'"
elif isNumber(value):
if value==0.:
value='n'
elif value==1.:
value = 'y'
else:
raise ValueError, "The "+name+" attribute must be either 1/0, 'on'/'off', 'y'/'n' or 'yes'/'no'"
else:
raise ValueError, "The "+name+" attribute must be either 1/0, 'on'/'off', 'y'/'n' or 'yes'/'no'"
return value
def checkWrap(self,name,value):
checkName(self,name,value)
if isinstance(value,tuple) : value=list(value)
if value is None: value = [0,0]
if isinstance(value,list):
return value
else:
raise ValueError, 'The '+name+' attribute must be either None or a list.'
def checkListTuple(self,name,value):
checkName(self,name,value)
if isinstance(value,list) or isinstance(value,tuple):
return list(value)
else:
raise ValueError, 'The '+name+' attribute must be either a list or a tuple.'
def checkColor(self,name,value):
checkName(self,name,value)
if isinstance(value,str):
value = color2vcs(value)
if isinstance(value,int) and value in range(0,256):
return value
else:
raise ValueError, 'The '+name+' attribute must be an integer value within the range 0 to 255.'
def checkColorList(self,name,value):
checkName(self,name,value)
value=checkListTuple(self,name,value)
for v in value:checkColor(self,name+'_list_value',v)
return value
def checkIsolineLevels(self,name,value):
checkName(self,name,value)
value=checkListTuple(self,name,value)
hvalue=[]
for v in value:
if isinstance(v,(list,tuple)):
if (len(v) == 2):
hvalue.append(list(v))
else:
for j in range(len(v)):
hvalue.append([v[j],0])
elif isNumber(v):
hvalue.append([float(v),0])
return hvalue
def checkIndex(self,name,value):
checkName(self,name,value)
if ((value not in range(1,21)) and
(queries.isfillarea(value)==0)):
raise ValueError, 'The '+name+' values must be in the range 1 to 18 or provide one or more fillarea objects.'
elif (queries.isfillarea(value)==1):
value=value.name
return value
def checkIndicesList(self,name,value):
checkName(self,name,value)
value=checkListTuple(self,name,value)
hvalue=[]
for v in value:
v=checkIndex(self,name,v)
hvalue.append(v)
return hvalue
def checkVectorType(self,name,value):
checkName(self,name,value)
if value in ('arrows', 0):
hvalue = 'arrows'
elif value in ('barbs', 1):
hvalue = 'barbs'
elif value in ('solidarrows', 2):
hvalue = 'solidarrows'
else:
raise ValueError, 'The '+name+' can either be ("arrows", "barbs", "solidarrows") or (0, 1, 2).'
return hvalue
def checkVectorAlignment(self,name,value):
checkName(self,name,value)
if value in ('head', 0):
hvalue = 'head'
elif value in ('center', 1):
hvalue = 'center'
elif value in ('tail', 2):
hvalue = 'tail'
else:
raise ValueError, 'The '+name+' can either be ("head", "center", "tail") or (0, 1, 2).'
return hvalue
def checkLineType(self,name,value):
checkName(self,name,value)
if value in ('solid', 0):
hvalue = 'solid'
elif value in ('dash', 1):
hvalue = 'dash'
elif value in ('dot', 2):
hvalue = 'dot'
elif value in ('dash-dot', 3):
hvalue = 'dash-dot'
elif value in ('long-dash', 4):
hvalue = 'long-dash'
elif (queries.isline(value)==1):
hvalue = value.name
else:
raise ValueError, 'The '+name+' can either be ("solid", "dash", "dot", "dash-dot", "long-dash"), (0, 1, 2, 3, 4), or a line object.'
return hvalue
def checkLinesList(self,name,value):
checkName(self,name,value)
if isinstance(value,int):
value=list(value)
value=checkListTuple(self,name,value)
hvalue = []
for v in value:
hvalue.append(checkLineType(self,name,v))
return hvalue
def checkTextTable(self,name,value):
checkName(self,name,value)
if isinstance(value,str):
if not value in self.parent.parent.listelements("texttable"):
raise "Error : not a valid texttable"
elif not isinstance(value,vcs.texttable.Tt):
raise "Error you must pass a texttable objector a texttable name"
else:
return value.name
return value
def checkTextOrientation(self,name,value):
checkName(self,name,value)
if isinstance(value,str):
if not value in self.parent.parent.listelements("textorientation"):
raise "Error : not a valid textorientation"
elif not isinstance(value,vcs.textorientation.To):
raise "Error you must pass a textorientation objector a textorientation name"
else:
return value.name
return value
def checkTextsList(self,name,value):
checkName(self,name,value)
if isinstance(value,int):
value=list(value)
value=checkListTuple(self,name,value)
hvalue = []
for v in value:
if v in range(1,10):
hvalue.append(v)
elif ((queries.istexttable(v)==1) and
(queries.istextorientation(v)==0)):
name='__Tt__.'+ v.name
hvalue.append(name)
elif ((queries.istexttable(v)==0) and
(queries.istextorientation(v)==1)):
name='__To__.'+ v.name
hvalue.append(name)
elif (queries.istextcombined(v)==1):
name=v.Tt_name + '__' + v.To_name
hvalue.append(name)
return hvalue
def checkLegend(self,name,value):
checkName(self,name,value)
if isinstance(value,dict):
return value
elif isNumber(value):
try:
value= value.tolist()
except:
pass
return {value:repr(value)}
elif isinstance(value,(list,tuple)):
ret={}
for v in value:
ret[v]=repr(v)
return ret
elif value is None:
return None
else:
raise ValueError, 'The '+name+' attribute should be a dictionary !'
## def checkListTupleDictionaryNone(self,name,value):
## checkName(self,name,value)
## if isinstance(value,int) or isinstance(value,float) \
## or isinstance(value,list) or isinstance(value,tuple) or isinstance(value,dict):
## if isinstance(value,int) or isinstance(value,float):
## value=list((value,))
## elif isinstance(value,list) or isinstance(value,tuple):
## value=list(value)
## if isinstance(value,list):
## d={}
## for i in range(len(value)):
## d[value[i]]=repr(value[i])
## else:
## d=value
## return d
## elif value is None:
## return value
## else:
## raise ValueError, 'The '+name+' attribute must be a List, Tuple, Dictionary, or None'
def checkExt(self,name,value):
checkName(self,name,value)
if isinstance(value,str):
if (value in ('n', 'y')):
if ( ((value == 'n') and (getattr(self,'_'+name) == 'n')) or
((value == 'y') and (getattr(self,'_'+name) == 'y')) ): # do nothing
return
else:
return 1
else:
raise ValueError, 'The ext_1 attribute must be either n or y.'
else:
raise ValueError, 'The '+name+' attribute must be a string'
def checkProjection(self,name,value):
checkName(self,name,value)
if isinstance(value,vcs.projection.Proj):
value=value.name
if isinstance(value,str):
if (_vcs.checkProj(value)):
return value
else:
raise ValueError, 'The '+value+' projection does not exist'
def checkStringDictionary(self,name,value):
checkName(self,name,value)
if isinstance(value,str) or isinstance(value,dict):
return value
else:
raise ValueError, 'The '+name+' attribute must be either a string or a dictionary'
def deg2DMS(val):
""" converts degrees to DDDMMMSSS.ss format"""
ival=int(val)
out=float(ival)
ftmp=val-out
out=out*1000000.
itmp=int(ftmp*60.)
out=out+float(itmp)*1000.
ftmp=ftmp-float(itmp)/60.
itmp=ftmp*3600.
out=out+float(itmp)
ftmp=ftmp-float(itmp)/3600.
out=out+ftmp
return out
def DMS2deg(val):
"""converts DDDMMMSSS to degrees"""
if val>1.e19:
return val
ival=int(val)
s=str(ival).zfill(9)
deg=float(s[:3])
mn=float(s[3:6])
sec=float(s[6:9])
r=val-ival
## print deg,mn,sec,r
return deg+mn/60.+sec/3600.+r/3600.
def checkProjParameters(self,name,value):
if not (isinstance(value,list) or isinstance(value,tuple)):
raise ValueError, "Error Projection Parameters must be a list or tuple"
if not(len(value))==15:
raise ValueError, "Error Projection Parameters must be of length 15 (see doc)"
for i in range(2,6):
if abs(value[i])<10000:
if (not(i==3 and (self.type in [9,15,20,22,30]))
and
(not(i==4 and (self.type==20 or (self.type==22 and value[12]==1) or self.type==30)))
):
## print i,value[i]
value[i]=deg2DMS(value[i])
for i in range(8,12):
if self.type in [20,30] and abs(value[i])<10000 :
## print i,value[i]
value[i]=deg2DMS(value[i])
return value
def checkCalendar(self,name,value):
checkName(self,name,value)
if not isinstance(value,(int,long)):
raise ValueError,'cdtime calendar value must be an integer'
if not value in [cdtime.Calendar360,cdtime.ClimCalendar,cdtime.ClimLeapCalendar,cdtime.DefaultCalendar,
cdtime.GregorianCalendar,cdtime.JulianCalendar,cdtime.MixedCalendar,cdtime.NoLeapCalendar,
cdtime.StandardCalendar]:
raise ValueError,str(value)+' is not a valid cdtime calendar value'
return value
def checkTimeUnits(self,name,value):
checkName(self,name,value)
if not isinstance(value,str):
raise ValueError, 'time units must be a string'
a=cdtime.reltime(1,'days since 1900')
try:
a.torel(value)
except:
raise ValueError, value+' is invalid time units'
sp=value.split('since')[1]
b=cdtime.s2c(sp)
if b==cdtime.comptime(0,1):
raise ValueError, sp+' is invalid date'
return value
def checkDatawc(self,name,value):
checkName(self,name,value)
if isNumber(value):
value = float(value), 0
elif isinstance(value,str):
t=cdtime.s2c(value)
if t!=cdtime.comptime(0,1):
t=t.torel(self.datawc_timeunits,self.datawc_calendar)
value = float(t.value), 1
else:
raise ValueError, 'The '+name+' attribute must be either an integer or a float value or a date/time.'
elif type(value) in [type(cdtime.comptime(1900)),type(cdtime.reltime(0,'days since 1900'))]:
value = value.torel(self.datawc_timeunits,self.datawc_calendar).value, 1
else:
raise ValueError, 'The '+name+' attribute must be either an integer or a float value or a date/time.'
return value
def checkInStringsListInt(self,name,value,values):
""" checks the line type"""
checkName(self,name,value)
val=[]
str1=name + ' can either be ('
str2=' or ('
i=0
for v in values:
if not v=='': # skips the invalid/non-contiguous values
str2=str2+str(i)+', '
if isinstance(v,list) or isinstance(v,tuple):
str1=str1+"'"+v[0]+"', "
for v2 in v:
val.append(v2)
else:
val.append(v)
str1=str1+"'"+v+"', "
i=i+1
err=str1[:-2]+')'+str2[:-2]+')'
if isinstance(value,str):
value=value.lower()
if not value in val:
raise ValueError, err
i=0
for v in values:
if isinstance(v,list) or isinstance(v,tuple):
if value in v:
return i
elif value==v:
return i
i=i+1
elif isNumber(value) and int(value)==value:
if not int(value) in range(len(values)):
raise ValueError, err
else:
return int(value)
else:
raise ValueError, err
def checkProjType(self,name,value):
"""set the projection type """
checkName(self,name,value)
if isinstance(value,str):
value=value.lower()
if value in ['utm','state plane']:
raise ValueError, "Projection Type: "+value+" not supported yet"
if -3<=value<0:
return value
if self._type==-3 and (value=='polar' or value==6 or value=="polar (non gctp)"):
return -3
if self._type==-1 and (value=='robinson' or value=='robinson (non gctp)' or value==21):
return -1
if self._type==-2 and (value=='mollweide' or value=='mollweide (non gctp)' or value==25):
return -2
checkedvalue= checkInStringsListInt(self,name,value,
["linear",
"utm",
"state plane",
["albers equal area","albers"],
["lambert","lambert conformal c","lambert conformal conic"],
"mercator",
["polar","polar stereographic"],
"polyconic",
["equid conic a","equid conic","equid conic b"],
"transverse mercator",
"stereographic",
"lambert azimuthal",
"azimuthal",
"gnomonic",
"orthographic",
["gen. vert. near per","gen vert near per",],
"sinusoidal",
"equirectangular",
["miller","miller cylindrical"],
"van der grinten",
["hotin","hotin oblique", "hotin oblique merc","hotin oblique merc a","hotin oblique merc b", "hotin oblique mercator","hotin oblique mercator a","hotin oblique mercator b",],
"robinson",
["space oblique","space oblique merc","space oblique merc a","space oblique merc b",],
["alaska","alaska conformal"],
["interrupted goode","goode"],
"mollweide",
["interrupted mollweide","interrupt mollweide",],
"hammer",
["wagner iv","wagner 4","wagner4"],
["wagner vii","wagner 7","wagner7"],
["oblated","oblated equal area"],
]
)
self._type=checkedvalue
p=self.parameters
if self._type in [3,4]:
self.smajor=p[0]
self.sminor=p[1]
self.standardparallel1=DMS2deg(p[2])
self.standardparallel2=DMS2deg(p[3])
self.centralmeridian=DMS2deg(p[4])
self.originlatitude=DMS2deg(p[5])
self.falseeasting=p[6]
self.falsenorthing=p[7]
elif self._type==5:
self.smajor=p[0]
self.sminor=p[1]
self.centralmeridian=DMS2deg(p[4])
self.truescale=DMS2deg(p[5])
self.falseeasting=p[6]
self.falsenorthing=p[7]
elif self._type==6:
self.smajor=p[0]
self.sminor=p[1]
self.centerlongitude=DMS2deg(p[4])
self.truescale=DMS2deg(p[5])
self.falseeasting=p[6]
self.falsenorthing=p[7]
elif self._type==7:
self.smajor=p[0]
self.sminor=p[1]
self.centralmeridian=DMS2deg(p[4])
self.originlatitude=DMS2deg(p[5])
self.falseeasting=p[6]
self.falsenorthing=p[7]
elif self._type==8:
self.smajor=p[0]
self.sminor=p[1]
self.centralmeridian=DMS2deg(p[4])
self.originlatitude=DMS2deg(p[5])
self.falseeasting=p[6]
self.falsenorthing=p[7]
if (p[8]==0 or p[8]>9.9E19):
self.subtype=0
self.standardparallel=DMS2deg(p[2])
else:
self.subtype=1
self.standardparallel1=DMS2deg(p[2])
self.standardparallel2=DMS2deg(p[3])
elif self._type==9:
self.smajor=p[0]
self.sminor=p[1]
self.factor=p[2]
self.centralmeridian=DMS2deg(p[4])
self.originlatitude=DMS2deg(p[5])
self.falseeasting=p[6]
self.falsenorthing=p[7]
elif self._type in [10,11,12,13,14]:
self.sphere=p[0]
self.centerlongitude=DMS2deg(p[4])
self.centerlatitude=DMS2deg(p[5])
self.falseeasting=p[6]
self.falsenorthing=p[7]
elif self._type==15:
self.sphere=p[0]
self.height=p[2]
self.centerlongitude=DMS2deg(p[4])
self.centerlatitude=DMS2deg(p[5])
self.falseeasting=p[6]
self.falsenorthing=p[7]
elif self._type in [16,18,21,25,27,28,29]:
self.sphere=p[0]
self.centralmeridian=DMS2deg(p[4])
self.falseeasting=p[6]
self.falsenorthing=p[7]
elif self._type==17:
self.sphere=p[0]
self.centralmeridian=DMS2deg(p[4])
self.truescale=DMS2deg(p[5])
self.falseeasting=p[6]
self.falsenorthing=p[7]
elif self._type==19:
self.sphere=p[0]
self.centralmeridian=DMS2deg(p[4])
self.originlatitude=DMS2deg(p[5])
self.falseeasting=p[6]
self.falsenorthing=p[7]
elif self._type==20:
self.smajor=p[0]
self.sminor=p[1]
self.factor=p[2]
self.originlatitude=DMS2deg(p[5])
self.falseeasting=p[6]
self.falsenorthing=p[7]
if (p[12]==0 or p[12]>9.9E19):
self.subtype=0
self.longitude1=DMS2deg(p[8])
self.latitude1=DMS2deg(p[9])
self.longitude2=DMS2deg(p[10])
self.latitude2=DMS2deg(p[11])
else:
self.subtype=1
self.azimuthalangle=DMS2deg(p[3])
self.azimuthallongitude=DMS2deg(p[4])
elif self._type==22:
self.smajor=p[0]
self.sminor=p[1]
self.falseeasting=p[6]
self.falsenorthing=p[7]
if (p[12]==0 or p[12]>9.9E19):
self.subtype=0
self.orbitinclination=DMS2deg(p[3])
self.orbitlongitude=DMS2deg(p[4])
self.satelliterevolutionperiod=p[8]
self.landsatcompensationratio=p[9]
self.pathflag=p[10]
else:
self.subtype=1
self.satellite=p[2]
self.path=p[3]
elif self._type==23:
self.smajor=p[0]
self.sminor=p[1]
self.falseeasting=p[6]
self.falsenorthing=p[7]
elif self._type in [24,26]:
self.sphere=p[0]
elif self._type==30:
self.sphere=p[0]
self.shapem=p[2]
self.shapen=p[3]
self.centerlongitude=DMS2deg(p[4])
self.centerlatitude=DMS2deg(p[5])
self.falseeasting=p[6]
self.falsenorthing=p[7]
return checkedvalue
def getProjType(self):
"""get the projection type """
dic={0:"linear",
1:"utm",
2:"state plane",
3:"albers equal area",
4:"lambert conformal c",
5:"mercator",
6:"polar stereographic",
7:"polyconic",
8:"equid conic",
9:"transverse mercator",
10:"stereographic",
11:"lambert azimuthal",
12:"azimutal",
13:"gnomonic",
14:"orthographic",
15:"gen. vert. near per",
16:"sinusoidal",
17:"equirectangular",
18:"miller cylindrical",
19:"van der grinten",
20:"hotin oblique merc",
21:"robinson",
22:"space oblique merc",
23:"alaska conformal",
24:"interrupted goode",
25:"mollweide",
26:"interrupt mollweide",
27:"hammer",
28:"wagner iv",
29:"wagner vii",
30:"oblated equal area",
}
value=self._type
if 0<=value<=30:
return dic[value]
elif value==-1:
return "robinson (non gctp)"
elif value==-2:
return "mollweide (non gctp)"
elif value==-3:
return "polar (non gctp)"
def setProjParameter(self,name,value):
""" Set an individual paramater for a projection """
checkName(self,name,value)
param=self.parameters
ok={
'smajor':[[3,4,5,6,7,8,9,20,22,23],0,[]],
'sminor':[[3,4,5,6,7,8,9,20,22,23],1,[]],
'sphere':[[10,11,12,13,14,15,16,17,18,19,21,24,25,26,27,28,29,30],0,[]],
'centralmeridian':[[3,4,5,7,8,9,16,17,18,19,21,25,27,28,29],4,[]],
'centerlongitude':[[6,10,11,12,13,14,15,30],4,[]],
'standardparallel1':[[3,4,8],2,[]],
'standardparallel2':[[3,4,8],3,[]],
'originlatitude':[[3,4,7,8,9,19,20],5,[]],
'falseeasting':[[3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,25,27,28,29,30],6,[]],
'falsenorthing':[[3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,25,27,28,29,30],7,[]],
'truescale':[[5,6,17,],5,[]],
'standardparallel':[[8,],2,[]],
'factor':[[9,20,],2,[]],
'centerlatitude':[[10,11,12,13,14,15,30],5,[]],
'height':[[15,],2,[]],
'azimuthalangle':[[20,],3,[]],
'azimuthallongitude':[[20,],4,[]],
'orbitinclination':[[22,],3,[]],
'orbitlongitude':[[22,],4,[]],
'satelliterevolutionperiod':[[22,],8,[]],
'landsatcompensationratio':[[22,],9,[]],
'pathflag':[[22,],10,[]],
'path':[[22,],3,[]],
'satellite':[[22,],2,[]],
'shapem':[[30,],2,[]],
'shapen':[[30,],3,[]],
'subtype':[[8,20,22,],12,[]],
'longitude1':[[20,],8,[]],
'latitude1':[[20,],9,[]],
'longitude2':[[20,],10,[]],
'latitude2':[[20,],11,[]],
'angle':[[30,],8,[]],
}
for nm in ok.keys():
vals=ok[nm]
oktypes=vals[0]
position=vals[1]
nms=vals[2]
nms.insert(0,nm)
if name in nms:
if not self._type in oktypes:
raise PPE(name,self._type)
param[position]=value
## Subtype is parameter 8 not 12 for projection type 8
if nm=='subtype' and self._type==8:
param[position]=1.e20
param[8]=value
## Now raise error when wrong subtype
if nm in ['longitude1','longitude2','latitude1','latitude2',
'satelliterevolutionperiod','landsatcompensationratio',
'pathflag','orbitinclination'] and self.parameters[12]==1:
raise PPE(name,str(self.type)+' subtype 1')
if nm in ['azimuthalangle','azimuthallongitude','satellite','path',] and (self.parameters[12]==0. or self.parameters[12]==1.e20):
raise PPE(name,str(self.type)+' subtype 0')
if nm=='standardparallel' and self.parameters[8]==1:
raise PPE(name,str(self.type)+' subtype 1')
if nm in ['standardparallel1','standardparallel2'] and (self.parameters[8]==0 or self.parameters[8]==1.e20) and self.type==8:
raise PPE(name,str(self.type)+' subtype 0')
self.parameters=param
return value
raise PPE(name,'Unknow error...')
| 103-weather-symbol-markers-in-cdat | trunk/CDAT-New-Markers/Source/VCS_validation_functions.py | Python | gpl2 | 46,622 |
/*
###############################################################################
# #
# Module: vcsmodule.c #
# #
# Copyright: "See file Legal.htm for copyright information." #
# #
# Authors: PCMDI Software Team #
# Lawrence Livermore NationalLaboratory: #
# support@pcmdi.llnl.gov #
# #
# Description: Visualization Control System (VCS) Python extension and #
# embeded routines. (Also see Canvas.py for the Python API.) #
# #
# Version: 5.0 #
# #
###############################################################################
*/
#include "Python.h"
#include "numpy/arrayobject.h"
#include "cdunif.h"
#include "slabapi.h"
#include "xgks.h" /* include gks routines */
#include "gksshort.h"
#include "ttffonts.h"
#include "array.h"
#include "display.h"
#include "picture.h"
#include <string.h>
#include "workstations.h"
#include "graph.h"
#include "color.h"
#include "list.h"
#include <X11/Xlib.h>
#include <X11/Xlibint.h>
#include <X11/cursorfont.h>
#include <X11/keysym.h>
#include <unistd.h> /* Includes math functions (e.g., sin, cos, etc.). */
#include <math.h>
/* #include "clui_output.h" */
#include "vcs_canvas.h"
#include "color_editor.h"
#include "project.h"
#include "cdms.h"
#include <cairo.h>
#include <cairo-ft.h>
#define PyInit_VCS init_vcs
#define MAX_NAME 1024
#define heartbeat(s, t) ;
/*
#undef heartbeat
#define heartbeat(s, t) PySys_WriteStdout(s##"\n", t);
*/
static PyObject *PyVCS_Error;
static PyObject *VCS_Error; /*DUBOIS*/
/* Set the global start and end index for the hyperslab */
extern int index_s[], index_e[];
int vcs_open_ct=0;
int canvas_workstation_id=8;
/* XGKS initialization */
Display *display=NULL,*display2=NULL; /* display reference */
int screen; /* screen index we're running on */
XVisualInfo vinfo; /* for finding desired visual */
Visual *visual; /* hopefully we get one we want */
GC gc; /* graphics context */
extern Colormap n_cmap; /* virtual normal colormap */
int not_using_gui; /* FLAG to determine if GUI is used */
int vcs_gui=0; /* FLAG to determine if VCS GUI is used */
int namecount=1; /* Used for unique plot names */
int X_QUE_COUNT = 0; /* Checks to see if the X que is free for business */
int BLOCK_X_SERVER = 0; /* Stop the X main loop from serving X events */
/* Global Python theads variables and macros. Used primarily for the template editor update. */
PyThreadState * mainThreadState = NULL;
PyInterpreterState * mainInterpreterState;
PyThreadState * myThreadState;
/*
PyEval_InitThreads(); \
mainThreadState = PyThreadState_Get(); \
PyEval_ReleaseLock(); \
*/
/*PyThreadState_Delete(myThreadState); \*/
#define PY_INIT_THREADS { \
Py_Initialize(); \
mainThreadState = PyThreadState_Get(); \
}
#define PY_ENTER_THREADS { \
PyEval_AcquireLock(); \
mainInterpreterState = mainThreadState->interp; \
myThreadState = PyThreadState_New(mainInterpreterState); \
PyEval_ReleaseLock(); \
}
#define PY_LEAVE_THREADS { \
PyEval_AcquireLock(); \
PyThreadState_Swap(NULL); \
PyThreadState_Clear(myThreadState); \
PyEval_ReleaseLock(); \
}
#define PY_GRAB_THREAD { \
PyEval_AcquireLock(); \
myThreadState = PyThreadState_New(mainThreadState->interp); \
PyEval_ReleaseLock(); \
PyEval_AcquireLock(); \
PyThreadState_Swap(myThreadState); \
}
#define PY_RELEASE_THREAD { \
PyEval_ReleaseLock(); \
PyEval_AcquireLock(); \
PyThreadState_Swap(NULL); \
PyThreadState_Clear(myThreadState); \
PyThreadState_Delete(myThreadState); \
PyEval_ReleaseLock(); \
}
/* Catch all the warning messages and do nothing. */
extern Gconid_X_drawable connect_id; /* VCS canvas drawable id */
extern struct workstations Wkst[]; /* VCS XGKS canvas workstations IDs */
extern char *repstr(char *s2,char *s1);
extern float *repflt(float *f2,float *f1);
extern int *repint(int *i2,int *i1);
extern void pyoutput(char *buf, int bell);
extern void pyoutput2(char *buf, int bell);
extern void cairogqtxx();
/* Structure for VCS Canvas displays */
typedef struct canvas_display_list { /* Store the display names */
char *display_name; /* Display name */
struct canvas_display_list *next; /* Pointer to the next structure */
} canvas_display_list;
/* Structure for VCS graphics methods used to set min and max attributes */
typedef struct graphics_method_list { /* Store the graphics methods names */
char *g_type; /* Graphics type */
char *g_name; /* Graphics method name */
struct graphics_method_list *next; /* Pointer to the next structure */
} graphics_method_list;
/* Structure for VCS canvas objects */
typedef struct { /* File */
PyObject_HEAD
int wkst_id; /* Canvas identification number */
int canvas_id; /* VCS Canvas ID number */
int orientation; /* Orientation flag */
int virgin; /* VCS Canvas initially opened */
int virgin_animation; /* Canvas animate initially opened */
Gconid_X_drawable connect_id; /* VCS canvas drawable ID */
char *template_name; /* Template attribute name */
char *graphics_name; /* Graphics method attribute name */
char graphics_type[20]; /* Type of graphics method */
double vcs_min; /* VCS plot minimum value */
double vcs_max; /* VCS plot maximum value */
int vcs_ext1; /* Show on plot the underflow arrow */
int vcs_ext2; /* Show on plot the overflow arrow */
int vcs_gui; /* Tell if old VCS (2.7) GUI is used */
int stopxmainloop; /* X server flag, stop X main loop */
int havexmainloop; /* X server flag, doing X main loop */
int number_of_frames; /* Number of animation frames */
int frame_count; /* Position number of animation frame */
int savecontinents; /* Hold the continents type for resize */
char *background; /* Indicating plot generation in backgroud mode */
int gui; /* Indicate if the VCS Canvas is in GUI mode */
double orig_ratio; /* indicates ratio at creation time A4/us letter other, etc... */
XID gui_drawable; /* X window drawable from the Tk interface */
struct graphics_method_list *glist; /* List of graphics methods names */
struct canvas_display_list *dlist; /* List of display names */
} PyVCScanvas_Object;
staticforward PyTypeObject PyVCScanvas_Type;
/* Structure to keep track of VCScanvas_Objects.
* This is needed for animation on the specified
* canvas.
*/
struct vcscanvas_list {
PyVCScanvas_Object *self; /* Hold the canvas information */
PyObject *slab; /* Hold slab information */
PyObject *slab2; /* Hold slab information */
Gconid_X_drawable connect_id; /* VCS canvas drawable ID */
char template[50]; /* Hold the VCS template */
char graphics[50]; /* Hold the VCS graphics */
char type[50]; /* Hold the VCS type */
char d_name[MAX_NAME]; /* Hold the display name */
struct vcscanvas_list *next;
};
typedef struct vcscanvas_list VCSCANVASLIST;
typedef VCSCANVASLIST *VCSCANVASLIST_LINK;
VCSCANVASLIST_LINK head_canvas_list=NULL;
/* Struct for FONTS */
extern struct table_FT_VCS_FONTS TTFFONTS;
/* Check for the type of screen Visual that the X server can support.
* In order for VCS to work, the X server must support the PseudoColor
* class for 8 bpp mode and DirectColor class for 24 bpp or 32 bpp mode.
* If either of these two visuals are not supported then the vcs module
* will error exit.
*/
static char *visual_class[] = {
"StaticGray",
"GrayScale",
"StaticColor",
"PseudoColor",
"TrueColor",
"DirectColor"
};
/* Begin section added by Jenny */
enum etypes {pe_text, pe_form,
pe_x_tic, pe_y_tic,
pe_x_lab, pe_y_lab,
pe_box, pe_line,
pe_leg, pe_dsp, pe_none,
display_tab};
union types
{
struct pe_text *pet;
struct pe_form *pef;
struct pe_x_tic *pext;
struct pe_y_tic *peyt;
struct pe_x_lab *pexl;
struct pe_y_lab *peyl;
struct pe_box *peb;
struct pe_line *pel;
struct pe_leg *peleg;
struct pe_dsp *pedsp;
struct display_tab *pd;
};
struct item_list
{
enum etypes type;
union types data;
char attr_name[MAX_NAME];
char display_name[MAX_NAME];
struct p_tab *ptab;
struct Gextent extent;
int x_reversed;
int y_reversed;
char string[nmax_char];
int sub_primitive;
struct item_list *next;
};
struct data_point
{
double x;
double y;
double value;
double value2;
int x_index;
int y_index;
int color;
};
float BUFFER=.005;
int data_selected=0;
int template_select_all_flg=0;/* select all template objs = 1, unselect = 2, None = 0 */
enum screen_mode_types {TEDITOR, DATA, ZOOM, GMEDITOR};
enum screen_mode_types SCREEN_MODE = DATA;
enum screen_mode_types CHK_MODE = DATA;
float cnorm(),nnorm();
struct item_list *select_item();
void append_to_list();
void delete_list();
void draw_selection_box();
void draw_reshape_dots();
void remove_from_list();
void update_extent();
void set_cursor();
void redraw_without_lines();
void redraw_overlapping();
void get_text_fields();
void zero_priority();
static PyObject *PyVCS_updateVCSsegments();
static PyObject *PyVCS_backing_store();
void resize_or_move();
void verify_extent();
void PyVCS_select_all_in_range();
struct item_list *hold_selected_items=NULL;
/* void print_extent(extent) */
/* Gextent extent; */
/* { */
/* printf("Lower left and right: (%f,%f) (%f,%f)\n",extent.ll.x,extent.ll.y,extent.lr.x, extent.lr.y); */
/* printf("Upper left and right: (%f,%f) (%f,%f)\n",extent.ul.x,extent.ul.y,extent.ur.x, extent.ur.y); */
/* } */
int within(point,extent)
Gpoint point;
Gextent extent;
{
//extern int isInsidePolygon();
float x,y;
float xs[5],ys[5];
float tol = 1.e-4;
extern int isInsidePolygon(float X, float Y, int n,float *XS,float *YS);
x = point.x;
y = point.y;
xs[0]=extent.ll.x-tol;
xs[1]=extent.lr.x+tol;
xs[2]=extent.ur.x+tol;
xs[3]=extent.ul.x-tol;
xs[4]=xs[0];
ys[0]=extent.ll.y-tol;
ys[1]=extent.lr.y-tol;
ys[2]=extent.ur.y+tol;
ys[3]=extent.ul.y+tol;
ys[4]=ys[0];
if (isInsidePolygon(x,y,4,xs,ys)) return 1;
/* /\* Check comparison to see if within the tolerance of 0.00001. This is as good as 0. *\/ */
/* if ( fabs(point.x - extent.ll.x) <= (float)1e-4 ) cpoint.x = extent.ll.x; */
/* if ( fabs(point.x - extent.ur.x) <= (float)1e-4 ) cpoint.x = extent.ur.x; */
/* if ( fabs(point.y - extent.ll.y) <= (float)1e-4 ) cpoint.y = extent.ll.y; */
/* if ( fabs(point.y - extent.ur.y) <= (float)1e-4 ) cpoint.y = extent.ur.y; */
/* if ((extent.ll.x <= cpoint.x && cpoint.x <= extent.ur.x) || (extent.ur.x <= cpoint.x && cpoint.x <= extent.ll.x)) */
/* if ((extent.ll.y <= cpoint.y && cpoint.y <= extent.ur.y) || (extent.ur.y <= cpoint.y && cpoint.y <= extent.ll.y)) */
/* return 1; */
return 0;
}
int within_buffer(point,extent,buffer)
Gpoint point;
Gextent extent;
float buffer;
{
Gextent bigextent;
bigextent=extent;
bigextent.ll.x-=buffer;
bigextent.ul.x-=buffer;
bigextent.lr.x+=buffer;
bigextent.ur.x+=buffer;
bigextent.ll.y-=buffer;
bigextent.lr.y-=buffer;
bigextent.ur.y+=buffer;
bigextent.ul.y+=buffer;
return within(point,bigextent);
}
/* End section added by Jenny */
/* Since Python doesn't have an X11 mainloop, we must process all the events
* before we move on.
*/
void process_cdat_events() {
XEvent report;
int event_loop;
if (connect_id.display == NULL) return;
/* Flush, sync, and update the request buffer before returning to
* Python
XFlush( connect_id.display );
XSync( connect_id.display, FALSE );
*/
/*
event_loop = XPending(connect_id.display);
while (event_loop != 0) {
XNextEvent(connect_id.display, &report);
*
* Below is a comment to DNW:
*
* Handle_VCS_X_Events is not yet implemented, but
* will be needed to select values back from the canvas.
* I am reseving this code for the future, when I come
* back to add events that will be executed as a result
* of selecting portions of the VCS Canvas.
*
event_loop = XPending(connect_id.display);
printf(" event_loop = %d\n", event_loop);
}
*/
return;
}
/* This function sets the correct VCS Canvas and XGKS workstation ID */
void setup_canvas_globals(self)
PyVCScanvas_Object *self;
{
/* Set the correct drawable (that is, VCS Canvas) */
connect_id = self->connect_id;
/* Set the proper XGKS workstation ID */
Wkst[0].id = self->wkst_id;
}
/* Called when Python is exited or the object name is reused. Deallocates
* the VCS Canvas Object.
*/
static void
PyVCScanvas_Dealloc(self)
PyVCScanvas_Object *self;
{
canvas_display_list *dptr, *tdptr;
static PyVCScanvas_Object *save_self=NULL;
PyObject * PyVCS_clear();
extern void remove_vcs_connection_information();
extern int shutdown();
extern int animating();
extern void view_all_animation_panels();
extern void animate_quit_cb();
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
if (self == NULL) /* Must have been called from animation. */
self = save_self;
if (self == NULL) /* Already garbage collected! */
return;
/* Free all resouces associated with the animation popup window.
* That is, destroy the animation object window and all of its
* popup descendants and widgets. Then free all resources associated
* with the animation popup window and its descendants.
*/
/*DNW if (self->connect_id.animate_popup != 0) {
*View all animation panels before the VCS objects are destroyed*
view_all_animation_panels(self->connect_id.animate_popup);
if (!animating(self->connect_id.animate_popup )) {
animate_quit_cb(self->connect_id.animate_popup, NULL,NULL);
XtDestroyWidget(self->connect_id.animate_popup);
} else {
save_self = self; * Save, I'll be right back! *
return ; * can not garbage collect at this time *
* must stop animation process first *
}
}
DNW*/
/* Make sure everything is clear in the VCS Canvas *
PyVCS_clear(self,NULL);*/
/* Shut down the xgks workstation *
if ((self->vcs_gui != 1) && (self->connect_id.drawable != 0)) {
XDestroyWindow(self->connect_id.display,self->connect_id.drawable);
self->connect_id.drawable = (XID) NULL;
shutdown(self->connect_id, self->wkst_id);
XFree( &self->connect_id.drawable );
} */
/* Free the template and graphics method names */
if (self->template_name != NULL)
free((char *) self->template_name);
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
/* Free the VCS display list and display names used in the
* VCS picture description forms.
*/
if (self->dlist != NULL) {
dptr=self->dlist;
while (dptr != NULL) {
if (dptr->display_name != NULL)
free((char *) dptr->display_name);
tdptr = dptr;
dptr = dptr->next;
free((char *) tdptr);
}
}
/* Free all resouces associated with the VCS Canvas popup window.
* That is, destroy the VCS Canvas object window and all of its
* popup descendants and widgets. Then free all resources associated
* with the VCS Canvas popup window and its descendants.
*/
if ((self->vcs_gui != 1) && (self->connect_id.drawable != 0)) {
self->connect_id.drawable = (XID) NULL;
shutdown(self->connect_id, self->wkst_id);
}
/* Free the connection information used in the VCS library */
if (self->vcs_gui != 1)
remove_vcs_connection_information(self->connect_id,self->wkst_id);
/* Keep track of how many VCS Canvases that are opened. There can
* only be (at most) 8 opened at any given time. Decrement the
* vcs open counter.
--vcs_open_ct;
*/
--canvas_workstation_id;
/* Disconnect the X server */
XCloseDisplay( self->connect_id.display );
/* deactivate and close the workstation */
gdacwk( self->wkst_id );
gclwk( self->wkst_id );
/* pyoutput("The VCS Canvas has been garbage collected!", 1);*/
if (self->vcs_gui == 1) /* Check for VCS canvas */
pyoutput("\nYou have just garbage collected the main VCS Canvas. \nTo reuse the main VCS Canvas from CDAT, you must restart VCS.\n", 1);
/* Delete VCS Canvas object */
PyObject_Del(self);
}
/*- support: visuals -------------------------------------------------------*/
/*
* gc_create()
* Construct a graphics context.
*/
void gc_create(/* ARGS UNUSED */)
{
XGCValues values;
gc = XCreateGC(connect_id.display, connect_id.drawable, 0L, &values);
}
/*
* visual_find - find the visual we need. Currently, VCS can handle 8-bit PseudoColor, 8-bit StaticColor,
* 16-bit TrueColor, 24-bit TrueColor, and 32-bit TrueColor visual classes and depth. Use
* 'xdpyinfo' to check the display's color class, visual, and depth.
*/
int visual_find(/* ARGS UNUSED */)
{
XVisualInfo visual_info;
int default_depth;
default_depth = DefaultDepth(display, screen);
if (default_depth == 8) {
if (XMatchVisualInfo(display,screen,default_depth,
PseudoColor,&visual_info) == 0) {
PySys_WriteStdout("Failure: VCS cannot find the PseudoColor visual class for 8 bpp mode. \n");
exit(1);
}
} else if (default_depth == 16) {
if (XMatchVisualInfo(display,screen,default_depth,
TrueColor,&visual_info) == 0) {
PySys_WriteStdout("Failure: VCS cannot find the TrueColor visual class for 16 bpp mode. \n");
exit(1);
}
} else if (default_depth == 24) {
if (XMatchVisualInfo(display,screen,default_depth,
TrueColor,&visual_info) == 0) {
PySys_WriteStdout("Failure: VCS cannot find the TrueColor visual class for 24 bpp mode. \n");
exit(1);
}
} else if (default_depth == 32) {
if (XMatchVisualInfo(display,screen,default_depth,
TrueColor,&visual_info) == 0) {
PySys_WriteStdout("Failure: VCS cannot find the TrueColor visual class for 32 bpp mode. \n");
exit(1);
}
} else {
PySys_WriteStdout("Failure: VCS could not fine 8-bit PseudoColor or 16-, 24-, or -32 bit TrueColor visual classes.\n Please set your X server's 'Color Depth' to 8-bit PseudoColor, 8-bit StaticColor, 16-bit\n TrueColor, 24-bit TrueColor, or 32-bit TrueColor mode. To check your display's visual\n class and depth, type: 'xdpyinfo' at the prompt.\n");
exit(1);
}
if (XMatchVisualInfo(display,screen,visual_info.depth,visual_info.class,&vinfo) == 0) {
PySys_WriteStdout("Failure: Can not find visual class. \n");
}
visual = vinfo.visual;
/* Return the visual depth of the display */
return visual_info.depth;
}
/*
* normal_cmap_create()
* Create a virtual normal colormap.
*/
void normal_cmap_create(/* ARGS UNUSED */)
{
n_cmap = XCreateColormap(
display, RootWindow(display, screen), visual, AllocNone
);
}
/*
* normal_cmap_emulate_default2()
* Copy default colormap entries over to new
* custom normal colormap.
*
* This does not gaurantee a fix for colormap flashing but may help to
* reduce it.
*
*/
void normal_cmap_emulate_default2(/* ARGS UNUSED */)
{
Status stat; /* return value */
Colormap n_cmap_def; /* normal default colormap */
unsigned long pmask[1]; /* array for plane masks */
unsigned long *index; /* malloc'ed array for color indices */
XColor *color; /* malloc'ed array for color replication */
int ncolors; /* number of colors to copy */
int i; /* index */
/*
* For the purpose of 16-bit, 24-bit, and 32-bit True Color visuals, use the
* static default screen colormap. Therefore the below is not needed. For 8-bit
* pseudo color and eventually 24-bit direct color, we want a dynamic color map
* where we can read and write into each color cell. For now only the 8-bit
* color map is intented for the below. I'm not sure if we will ever expand to
* direct color.
*/
if (visual->class == PseudoColor) { /* maintain the 8-bit pseudo color functionality */
/* get default colormap and determine how many colors to copy */
n_cmap_def = DefaultColormap(display, screen);
ncolors = DisplayCells(display, screen);
if (ncolors > NUM_COLORS) {
ncolors = NUM_COLORS; /*limit how many default colors we copy*/
}
/*
* allocate a bunch of read/write colors cells. since this colormap
* was just created these colors should end up being the lower colors.
*/
index = (unsigned long *) Xmalloc(ncolors*sizeof(index[0]));
color = (XColor *) Xmalloc(ncolors*sizeof(XColor));
stat = XAllocColorCells(display,n_cmap,True,pmask,0,index,ncolors);
if (! stat) {
PySys_WriteStdout("Failure: Default color allocation failed. \n");
exit((int) 1);
}
/* map out the color entries we will query for */
for (i=0; i<ncolors; i++)
color[i].pixel = index[i];
/* transfer colors using query/store */
XQueryColors(display, n_cmap_def, color, ncolors);
XStoreColors(display, n_cmap , color, ncolors);
/* cleanup */
XFree((char *) index);
XFree((char *) color);
}
}
/* Initialize VCS Canvas object. */
static PyObject *
PyVCS_init(self, args)
PyObject *self;
PyObject *args;
{
PyVCScanvas_Object *vcscanvas;
char *vcs_script;
Gintlist wsid;
int ctid=0, *pid;
int winfo_id, gui;
int i, argc = 3, ier, ierv, tmp = -99;
static int first_time=1;
int initialize_X();
PyObject* pytmp=NULL ;
double size;
/* In VCS, the workstation ID 2 represents the CGM ouput.
* Therefore, start the count at workstation count at 3.
static int canvas_workstation_id=8;
*/
char buf[MAX_NAME];
/* Initialize X11 if VCS was imported without the GUI front-end */
/* if (app_context == NULL) {
if (initialize_X() == 0) {
PyErr_SetString(PyExc_TypeError, "The DISPLAY environment is not properly set.\n");
return NULL;
}
}*/
/* Set the workstation id to wiss. The avoids confussion until the VCS Canvas
* is opened.
*/
Wkst[0].id = 1;
if (initialize_X() == 0) {
PyErr_SetString(PyExc_TypeError, "The DISPLAY environment is not properly set.\n");
return NULL;
}
/* Initialize the VCS canvas as a new Python object */
vcscanvas = PyObject_NEW(PyVCScanvas_Object, &PyVCScanvas_Type);
/* Set the VCS initialization flag to 0 (not initialized) *
wsid.number = 0;
wsid.integers = NULL;
gqopwk(&wsid);
for (i=0,pid=wsid.integers;i<wsid.number;pid++,i++) {
++ctid;
printf("the wrkstation id = %d\n", *pid);
}
if (wsid.number > 0 && wsid.integers != NULL)
free((char *)wsid.integers);
if (ctid == 1) canvas_workstation_id = 8;
*/
vcscanvas->wkst_id = canvas_workstation_id;
++canvas_workstation_id;
/* In VCS, the workstation ID 7 represents the Workstation
* Independences Storage Segment (WISS). Therefore, do not use
* this ID number. Skip over it and continue the sequential
* count.
if (canvas_workstation_id == 6)
++canvas_workstation_id;
*/
/* Initialize the VCS Canvas to 0. It has not been displayed yet. */
vcscanvas->virgin = 0;
/* Initialize the VCS Canvas animation to 1. The canvas has not
* yet done an animation.
*/
vcscanvas->virgin_animation = 1;
/* Set the orientation flag to landscape=0 */
vcscanvas->orientation = 0;
/* Initialize the canvas counter */
vcscanvas->vcs_min = 1e20; vcscanvas->vcs_max = -1e20;
vcscanvas->vcs_ext1 = 0, vcscanvas->vcs_ext2 = 0;
if ((vcscanvas->template_name =
(char *) malloc((strlen("default")+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the template name.");
return NULL;
}/* else {
strcpy(vcscanvas->template_name, "default");
sprintf(buf, "'Template' is currently set to P_%s.",
vcscanvas->template_name);
pyoutput(buf, 1);
}*/
if ((vcscanvas->graphics_name =
(char *) malloc((strlen("default")+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the graphics name.");
return NULL;
}/* else {
strcpy(vcscanvas->graphics_name, "default");
strcpy(vcscanvas->graphics_type, "Boxfill");
sprintf(buf,"Graphics method 'Boxfill' is currently set to Gfb_%s.", vcscanvas->graphics_name);
pyoutput(buf, 0);
}*/
/* Initialize to NULL */
vcscanvas->connect_id.display = connect_id.display;
vcscanvas->connect_id.drawable = (XID) NULL;
vcscanvas->gui = 0;
if(PyArg_ParseTuple(args,"|id", &winfo_id, &size)) {
if ( winfo_id != -99) {
vcscanvas->gui = 1;
/*connect_id.drawable = (XID) winfo_id;*/
/*vcscanvas->connect_id.drawable = (XID) winfo_id;*/
vcscanvas->gui_drawable = (XID) winfo_id; /* must set the drawable in PyVCS_open */
}
}
vcscanvas->connect_id.canvas_popup = 0;
vcscanvas->connect_id.canvas_drawable = 0;
vcscanvas->connect_id.animate_popup = 0;
vcscanvas->connect_id.canvas_pixmap = (Pixmap)NULL; /*used as the backing store*/
vcscanvas->connect_id.app_context = 0;
vcscanvas->connect_id.app_shell = 0;
vcscanvas->connect_id.cf_io_text = 0;
vcscanvas->connect_id.n_cmap = connect_id.n_cmap;
vcscanvas->connect_id.visual = NULL;
vcscanvas->dlist = NULL;
vcscanvas->glist = NULL;
vcscanvas->stopxmainloop = 0;
vcscanvas->havexmainloop = 0;
vcscanvas->number_of_frames = 0;
vcscanvas->frame_count = 0;
vcscanvas->savecontinents = -999;
vcscanvas->background = NULL;
vcscanvas->canvas_id = vcscanvas->wkst_id - 7; /* canvas is closeed */
vcscanvas->orig_ratio = size;
/* printf("INIT 1: canvas_pixmap %d = %d\n", vcscanvas->canvas_id, vcscanvas->connect_id.canvas_pixmap);*/
++vcs_open_ct; /* Increment the VCS open counter */
vcscanvas->canvas_id = vcs_open_ct;
/* Set the VCS GUI flag */
if (vcs_gui == 0)
vcscanvas->vcs_gui = 0;
else
vcscanvas->vcs_gui = vcs_gui++;
/* return the VCS canvas object to python */
return (PyObject *)vcscanvas;
}
/* Open VCS Canvas object. This routine really just manages the
* VCS canvas. It will popup the VCS Canvas for viewing.
*/
static PyObject *
PyVCS_open(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int ier, c, tmp = -99;
struct color_table *pctab;
extern struct color_table C_tab;
extern char active_colors[]; /*colormap name*/
extern int procCanvas();
extern int clearCanvas();
extern Pixmap create_pixmap();
extern void vcs_canvas_open_cb();
extern void store_vcs_connection_information();
extern struct orientation Page;
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
if (self->orientation == 0 ) /* Set the page orientation before plotting */
strcpy(Page.page_orient,"landscape");
else
strcpy(Page.page_orient,"portrait");
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* Get how many VCS Canvases are open. If there are more than
* 8 canvases, then do not open another and tell the user that
* there can only be a maximum of 8 VCS canvases open at
* any given time. The user must close an already existing
* VCS Canvas.
*/
/* if (vcs_open_ct > 8) {
pyoutput("Error - There can be a maximum 8 VCS Canvases.\n CDAT cannot exceed this number. Please try reusing one\n of the existing VCS Canvases.",1);
--vcs_open_ct; * Decrement the VCS open counter back to 8 *
*Py_INCREF ((PyObject *)Py_None);
return Py_None;*
}*/
/* Set the proper VCS Canvas */
Wkst[0].id = self->wkst_id;
if (self->virgin==0) {
if (self->vcs_gui != 1)
if (self->gui == 1) self->connect_id.drawable = self->gui_drawable; /* set to the Tk drawable */
ier = procCanvas("open", &self->connect_id, self->canvas_id, self->orig_ratio,self->gui, &tmp); /* Open the VCS Canvas */
/*self->connect_id = connect_id; * Set the connect_id */
store_vcs_connection_information(self->connect_id, Wkst[0].id);
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
} else {
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
if (self->vcs_gui != 1) /* Popup VCS canvas */
vcs_canvas_open_cb(self->connect_id);
}
/* The VCS Canvas has been opened and displayed on the screen */
self->virgin = 1;
/* This is needed when an open canvas is open for the first time */
if (self->connect_id.canvas_pixmap != (Pixmap) NULL) {
XFreePixmap(self->connect_id.display, self->connect_id.canvas_pixmap);
self->connect_id.canvas_pixmap = (Pixmap) NULL;
}
/* set the keyboard focus to the VCS Canvas *
if (self->connect_id.drawable != 0 )
XSetInputFocus( self->connect_id.display, self->connect_id.drawable,
RevertToParent, (Time) CurrentTime);
XFlush( self->connect_id.display );
XSync( self->connect_id.display, False);*/
if (visual->class == PseudoColor) { /* Only do this for 8-bit PseudoColor */
for(pctab=&C_tab;pctab != NULL && (c=strcmp(pctab->name,active_colors))!=0;
pctab=pctab->next);
setXcolormap(pctab);
}
/* This causes the plot to clear each time plot is called, since plot calls PyVCS_open
keep an eye on this to make sure it was not needed for something else.
XClearWindow(self->connect_id.display,self->connect_id.drawable);
*/
/* Return NULL Python Object */
Py_INCREF ((PyObject *)Py_None);
return Py_None;
}
/* Tell the X server (i.e., the x main loop) that
* all left button commands will be for the Data
* Display.
*/
static PyObject *
PyVCS_screen_data_flag(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
SCREEN_MODE = DATA;
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/* Tell the X server (i.e., the x main loop) that
* all left button commands will be for the Template
* Editor.
*/
static PyObject *
PyVCS_screen_template_flag(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
SCREEN_MODE = TEDITOR;
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/* Tell the X server (i.e., the x main loop) that
* all button commands will be for the GraphicMethod
* Editor.
*/
static PyObject *
PyVCS_screen_gm_flag(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
SCREEN_MODE = GMEDITOR;
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/* Tell the X server (i.e., the x main loop) that
* it is already in DATA mode so don't update the
* VCS Canvas.
*/
static PyObject *
PyVCS_checkmode_data_flag(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
CHK_MODE = DATA;
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
static PyObject *
PyVCS_screen_mode(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
/* Return (screen mode) Python object */
if (SCREEN_MODE == TEDITOR)
return Py_BuildValue("s", "TEDITOR");
else if (SCREEN_MODE == DATA)
return Py_BuildValue("s", "DATA");
else if (SCREEN_MODE == GMEDITOR)
return Py_BuildValue("s", "GMEDITOR");
}
enum etypes template_type( name )
char * name;
{
int i;
char *template_text_names[] = {"file", "function", "logicalmask", "transformation", "source", "dataname", "title", "units", "crdate", "crtime", "comment1", "comment2", "comment3", "comment4", "xname", "yname", "zname", "tname", "xunits", "yunits", "zunits", "tunits"};
char *template_format_names[] = {"xvalue", "yvalue", "zvalue", "tvalue", "mean", "min", "max"};
char *template_xtickmarks_names[] = {"xtic1", "xtic2", "xmintic1", "xmintic2"};
char *template_ytickmarks_names[] = {"ytic1", "ytic2", "ymintic1", "ymintic2"};
char *template_xlabels_names[] = {"xlabel1", "xlabel2"};
char *template_ylabels_names[] = {"ylabel1", "ylabel2"};
char *template_boxes_names[] = {"box1", "box2", "box3", "box4"};
char *template_lines_names[] = {"line1", "line2", "line3", "line4"};
for (i = 0; i < 22; i++) { if (cmpncs(template_text_names[i], name) == 0) return pe_text; }
for (i = 0; i < 7; i++) { if (cmpncs(template_format_names[i], name) == 0) return pe_form; }
for (i = 0; i < 4; i++) { if (cmpncs(template_xtickmarks_names[i], name) == 0) return pe_x_tic; }
for (i = 0; i < 4; i++) { if (cmpncs(template_ytickmarks_names[i], name) == 0) return pe_y_tic; }
for (i = 0; i < 2; i++) { if (cmpncs(template_xlabels_names[i], name) == 0) return pe_x_lab; }
for (i = 0; i < 2; i++) { if (cmpncs(template_ylabels_names[i], name) == 0) return pe_y_lab; }
for (i = 0; i < 4; i++) { if (cmpncs(template_boxes_names[i], name) == 0) return pe_box; }
for (i = 0; i < 4; i++) { if (cmpncs(template_lines_names[i], name) == 0) return pe_line; }
if (cmpncs("legend", name) == 0) return pe_leg;
if (cmpncs("data", name) == 0) return pe_dsp;
return pe_none;
}
/* This function will highlight the picture template object that is
* toggled on from the Template Editor GUI.
*/
PyObject *
PyVCS_select_one(PyVCScanvas_Object *self, PyObject *args)
{
struct item_list *item=NULL;
char *TEMPLATE_NAME=NULL,*ATTR_NAME=NULL;
float X1,X2,Y1,Y2;
Gpoint pointA;
enum etypes search_type;
extern float plnorm();
if(PyArg_ParseTuple(args,"|ssffff", &TEMPLATE_NAME,&ATTR_NAME,&X1,&X2,&Y1,&Y2)) {
if (TEMPLATE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide a template name.");
Py_INCREF ((PyObject *)Py_None); return Py_None;
}
}
if ((X1 == -999) && (X2 == -999))
pointA.x = 0.5;
else if (X2 == -999)
pointA.x = plnorm( 0, X1 );
else
pointA.x = plnorm( 0, (X1 + (X2-X1)*0.5) );
if ((Y1 == -999) && (Y2 == -999))
pointA.y = 0.5;
else if (Y2 == -999)
pointA.y = plnorm( 1, Y1);
else
pointA.y = plnorm( 1, (Y1 + (Y2-Y1)*0.5) );
search_type = template_type( ATTR_NAME );
item = select_item(self, pointA, TEMPLATE_NAME, ATTR_NAME, search_type);
if (item != NULL) {
append_to_list(item,&hold_selected_items);
draw_selected(hold_selected_items,0);
PyVCS_backing_store(self, args);
}
/* Return NULL Python Object */
Py_INCREF ((PyObject *)Py_None);
return Py_None;
}
/* This function will unhighlight the picture template object that is
* toggled off from the Template Editor GUI.
*/
PyObject *
PyVCS_unselect_one(PyVCScanvas_Object *self, PyObject *args)
{
PyObject *update_args;
struct item_list *item=NULL;
char *TEMPLATE_NAME=NULL,*ATTR_NAME=NULL;
float X1,X2,Y1,Y2;
Gpoint pointA;
enum etypes search_type;
extern float plnorm();
if(PyArg_ParseTuple(args,"|ssffff", &TEMPLATE_NAME,&ATTR_NAME,&X1,&X2,&Y1,&Y2)) {
if (TEMPLATE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide a template name.");
Py_INCREF ((PyObject *)Py_None); return Py_None;
}
}
/* Update segemate arguments for PyVCS_updateVCSsegments. Sets the mode argument to 1 */
update_args = PyTuple_New(1);
PyTuple_SetItem(update_args, 0, Py_BuildValue("i", 1)); /* Set the 1st and only argv to 1 */
if ((X1 == -999) && (X2 == -999))
pointA.x = 0.5;
else if (X2 == -999)
pointA.x = plnorm( 0, X1 );
else
pointA.x = plnorm( 0, (X1 + (X2-X1)*0.5) );
if ((Y1 == -999) && (Y2 == -999))
pointA.y = 0.5;
else if (Y2 == -999)
pointA.y = plnorm( 1, Y1);
else
pointA.y = plnorm( 1, (Y1 + (Y2-Y1)*0.5) );
search_type = template_type( ATTR_NAME );
item = select_item(self, pointA, TEMPLATE_NAME, ATTR_NAME, search_type);
if (item != NULL) {
remove_from_list(item,&hold_selected_items);
draw_selected(hold_selected_items,0);
PyVCS_backing_store(self, args);
delete_list(&item);
}
/* Return NULL Python Object */
Py_INCREF ((PyObject *)Py_None);
return Py_None;
}
/* This function will highlight all the picture template objects
* that have a priority greater than one.
*/
PyObject *
PyVCS_select_all(PyVCScanvas_Object *self, PyObject *args)
{
PyObject *update_args;
Gpoint pointA, pointB;
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
template_select_all_flg = 1; /* if set to 1, then select all */
if ( (self->connect_id.display != NULL) && (self->connect_id.drawable != 0) )
XRaiseWindow(self->connect_id.display, self->connect_id.drawable);
/* Update segemate arguments for PyVCS_updateVCSsegments. Sets the mode argument to 1 */
update_args = PyTuple_New(1);
PyTuple_SetItem(update_args, 0, Py_BuildValue("i", 1)); /* Set the 1st and only argv to 1 */
PyVCS_updateVCSsegments(self, update_args);
delete_list(&hold_selected_items);
/* select all the template objects on the page */
pointA.x = 0.0; pointA.y = 0.0;
pointB.x = 1.0; pointB.y = 1.0;
PyVCS_select_all_in_range(self, &hold_selected_items, pointA, pointB);
draw_selected(hold_selected_items,0);
PyVCS_backing_store(self, args);
/* Return NULL Python Object */
Py_INCREF ((PyObject *)Py_None);
return Py_None;
}
PyObject *
PyVCS_unselect_all(PyVCScanvas_Object *self, PyObject *args)
{
PyObject *update_args;
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
template_select_all_flg = 2; /* if set to 2, then unselect all */
if ( (self->connect_id.display != NULL) && (self->connect_id.drawable != 0) )
XRaiseWindow(self->connect_id.display, self->connect_id.drawable);
/* Update segemate arguments for PyVCS_updateVCSsegments. Sets the mode argument to 1 */
update_args = PyTuple_New(1);
PyTuple_SetItem(update_args, 0, Py_BuildValue("i", 1)); /* Set the 1st and only argv to 1 */
/*delete_list(&hold_selected_items);*/
PyVCS_updateVCSsegments(self, args);
delete_list(&hold_selected_items);
PyVCS_backing_store(self, args);
/* Return NULL Python Object */
Py_INCREF ((PyObject *)Py_None);
return Py_None;
}
int
update_gui_canvas_counter( self )
PyVCScanvas_Object *self;
{
PyObject *mdict = NULL, *main = NULL, *dkeys=NULL,*dvalues=NULL, *dstring=NULL;
PyObject *dlist=NULL, *dvalue=NULL, *dnum=NULL;
PyObject* tattribute=NULL;
PyObject* result=NULL;
PyObject* testattribute;
char *test_str=NULL;
int i, dsize;
int canvas_num=0;
/*PY_ENTER_THREADS
PY_GRAB_THREAD*/
main = PyImport_ImportModule("__main__");
mdict = PyModule_GetDict( main ); /* borrowed ref */
dsize = PyDict_Size( mdict );
dkeys = PyDict_Keys( mdict);
dvalues = PyDict_Values( mdict );
/*printf( "frame count: %i\n",self->frame_count); */
for (i = 0; i < dsize; i++) {
dlist = PyList_GetItem(dkeys, i); /* borrowed ref */
dvalue=PyList_GetItem(dvalues, i); /* borrowed ref */
if (PyString_Check(dlist)) { /* get the canvas object */
dnum = PyObject_CallMethod(dvalue, "canvasid", (char*)0);
canvas_num = (int) PyInt_AsLong (dnum);
if (canvas_num == self->canvas_id) {
tattribute = PyObject_GetAttrString(dvalue, "canvas_gui");
result = PyObject_CallMethod(tattribute, "update_animation", "i", self->frame_count);
}
}
}
Py_XDECREF( main );
Py_XDECREF( dkeys );
Py_XDECREF( dvalues );
Py_XDECREF( dnum );
Py_XDECREF( tattribute );
Py_XDECREF( result );
/* PY_RELEASE_THREAD
PY_LEAVE_THREADS*/
return 1;
}
int
update_end_of_animation( self )
PyVCScanvas_Object *self;
{
PyObject *mdict = NULL, *main = NULL, *dkeys=NULL,*dvalues=NULL, *dstring=NULL;
PyObject *dlist=NULL, *dvalue=NULL, *dnum=NULL;
PyObject* tattribute=NULL;
PyObject* result=NULL;
PyObject* testattribute;
char *test_str=NULL;
int i, dsize;
int canvas_num=0;
/* PY_ENTER_THREADS */
/* PY_GRAB_THREAD */
main = PyImport_ImportModule("__main__");
mdict = PyModule_GetDict( main ); /* borrowed ref */
dsize = PyDict_Size( mdict );
dkeys = PyDict_Keys( mdict);
dvalues = PyDict_Values( mdict );
/*printf( "frame count: %i\n",self->frame_count); */
for (i = 0; i < dsize; i++) {
dlist = PyList_GetItem(dkeys, i); /* borrowed ref */
dvalue=PyList_GetItem(dvalues, i); /* borrowed ref */
if (PyString_Check(dlist)) { /* get the canvas object */
dnum = PyObject_CallMethod(dvalue, "canvasid", (char*)0);
canvas_num = (int) PyInt_AsLong (dnum);
if (canvas_num == self->canvas_id) {
tattribute = PyObject_GetAttrString(dvalue, "canvas_gui");
result = PyObject_CallMethod(tattribute, "update_end_of_animation_creation", (char *)0);
}
}
}
Py_XDECREF( main );
Py_XDECREF( dkeys );
Py_XDECREF( dvalues );
Py_XDECREF( dnum );
Py_XDECREF( tattribute );
Py_XDECREF( result );
/* PY_RELEASE_THREAD */
/* PY_LEAVE_THREADS */
return 1;
}
/* Charles Doutriaux 11/21/2006
* Returns the "VCS Canvas Python Object */
PyObject *
getPyCanvas( self )
PyVCScanvas_Object *self;
{
PyObject *mdict = NULL, *main = NULL, *dkeys=NULL,*dvalues=NULL, *canvas=NULL;
PyObject *dlist=NULL, *dvalue=NULL, *dnum=NULL;
int i, dsize;
int canvas_num=0;
main = PyImport_ImportModule("__main__");
mdict = PyModule_GetDict( main ); /* borrowed ref */
dsize = PyDict_Size( mdict );
dkeys = PyDict_Keys( mdict);
dvalues = PyDict_Values( mdict );
for (i = 0; i < dsize; i++) {
dlist = PyList_GetItem(dkeys, i); /* borrowed ref */
dvalue=PyList_GetItem(dvalues, i); /* borrowed ref */
if (PyString_Check(dlist)) { /* get the canvas object */
dnum = PyObject_CallMethod(dvalue, "canvasid", (char*)0);
canvas_num = (int) PyInt_AsLong (dnum);
if (canvas_num == self->canvas_id) {
canvas = PyList_GetItem(dvalues, i); /* borrowed ref */
}
}
}
Py_XDECREF( main );
Py_XDECREF( dkeys );
Py_XDECREF( dvalues );
Py_XDECREF( dnum );
return canvas;
}
/* This is an embedded Python function call. It is the Python command
* that updates the Template Editor's entry windows with the changed
* values. In the vcs/Lib directory, see the Canvas.py and
* gui_template_edit.py files to get a look at how the template
* editor is threaded.
*/
int
update_template_gui( self )
PyVCScanvas_Object *self;
{
PyObject *mdict = NULL, *main = NULL, *dkeys=NULL,*dvalues=NULL, *dstring=NULL;
PyObject *dlist=NULL, *dvalue=NULL, *dnum=NULL;
PyObject* tattribute=NULL;
PyObject* result=NULL;
PyObject* testattribute;
char *test_str=NULL;
int i, dsize;
int canvas_num=0;
PY_ENTER_THREADS
PY_GRAB_THREAD
main = PyImport_ImportModule("__main__");
mdict = PyModule_GetDict( main ); /* borrowed ref */
dsize = PyDict_Size( mdict );
dkeys = PyDict_Keys( mdict);
dvalues = PyDict_Values( mdict );
for (i = 0; i < dsize; i++) {
dlist = PyList_GetItem(dkeys, i); /* borrowed ref */
dvalue=PyList_GetItem(dvalues, i); /* borrowed ref */
if (PyString_Check(dlist)) { /* get the canvas object */
dnum = PyObject_CallMethod(dvalue, "canvasid", (char*)0);
canvas_num = (int) PyInt_AsLong (dnum);
if (canvas_num == self->canvas_id) {
tattribute = PyObject_GetAttrString(dvalue, "canvas_template_editor");
/* Ok here is the code to make sure we have the same template editing */
result = PyObject_CallMethod(tattribute, "refresh_data", (char *)0);
}
}
}
Py_XDECREF( main );
Py_XDECREF( dkeys );
Py_XDECREF( dvalues );
Py_XDECREF( dnum );
Py_XDECREF( tattribute );
Py_XDECREF( result );
PY_RELEASE_THREAD
PY_LEAVE_THREADS
return 1;
}
/* This is an embedded Python function call. It is the Python command
* that updates the Template Editor's entry windows with the changed
* values. In the vcs/Lib directory, see the Canvas.py and
* gui_template_edit.py files to get a look at how the template
* editor is threaded.
int draw_selected(selected_items,shadow)
struct item_list *selected_items;
int shadow;
{
struct item_list *current = selected_items;
Gpoint pts[5];
while (current != NULL)
{
draw_selection_box(current->extent,shadow);
if (current->type == display_tab)
{
draw_reshape_dots(current);
}
current = current->next;
}
}
*/
int
update_template_toggle_color( self, selected_items )
PyVCScanvas_Object *self;
struct item_list *selected_items;
{
PyObject *mdict = NULL, *main = NULL, *dkeys=NULL,*dvalues=NULL, *dstring=NULL;
PyObject *dlist=NULL, *dvalue=NULL, *dnum=NULL;
PyObject* tattribute=NULL;
PyObject* result=NULL;
int i, j, dsize;
int canvas_num=0;
struct item_list *current = selected_items;
char *tname;
char *template_attr_names[] = {"file", "function", "logicalmask", "transformation", "source", "dataname", "title", "units", "crdate", "crtime", "comment1", "comment2", "comment3", "comment4", "xname", "yname", "zname", "tname", "xunits", "yunits", "zunits", "tunits", "xvalue", "yvalue", "zvalue", "tvalue", "mean", "min", "max", "xtic1", "xtic2", "xmintic1", "xmintic2", "ytic1", "ytic2", "ymintic1", "ymintic2", "xlabel1", "xlabel2", "ylabel1", "ylabel2", "box1", "box2", "box3", "box4", "line1", "line2", "line3", "line4", "legend", "data"};
PY_ENTER_THREADS
PY_GRAB_THREAD
main = PyImport_ImportModule("__main__");
mdict = PyModule_GetDict( main ); /* borrowed ref */
dsize = PyDict_Size( mdict );
dkeys = PyDict_Keys( mdict);
dvalues = PyDict_Values( mdict );
for (i = 0; i < dsize; i++) {
dlist = PyList_GetItem(dkeys, i); /* borrowed ref */
dvalue=PyList_GetItem(dvalues, i); /* borrowed ref */
if (PyString_Check(dlist)) { /* get the canvas object */
dnum = PyObject_CallMethod(dvalue, "canvasid", (char*)0);
canvas_num = (int) PyInt_AsLong (dnum);
if (canvas_num == self->canvas_id) {
tattribute = PyObject_GetAttrString(dvalue, "canvas_template_editor");
for (j = 0; j < 51; j++) {
result = PyObject_CallMethod(tattribute, "refresh_toggle", "si", template_attr_names[j], 0);
Py_XDECREF( result );
}
while (current != NULL) {
{
result = PyObject_CallMethod(tattribute, "refresh_toggle", "si", current->attr_name, 1);
Py_XDECREF( result );
}
current = current->next;
}
}
}
}
Py_XDECREF( main );
Py_XDECREF( dkeys );
Py_XDECREF( dvalues );
Py_XDECREF( dnum );
Py_XDECREF( tattribute );
PY_RELEASE_THREAD
PY_LEAVE_THREADS
return 1;
}
/* Following is for updating canvas editor when switching templates */
int
switch_templates( self, selected_items )
PyVCScanvas_Object *self;
struct item_list *selected_items;
{
PyObject *mdict = NULL, *main = NULL, *dkeys=NULL,*dvalues=NULL, *dstring=NULL;
PyObject *dlist=NULL, *dvalue=NULL, *dnum=NULL;
PyObject* tattribute=NULL;
PyObject* result=NULL;
PyObject* result2=NULL;
PyObject* result3=NULL;
PyObject* result4=NULL;
PyObject* dialog=NULL;
PyObject* py_template=NULL;
PyObject* titlef=NULL;
PyObject* pargs=NULL;
PyObject* ptype=NULL;
PyObject* pvalue=NULL;
PyObject* pstack=NULL;
PyObject* testattribute;
char *test_str=NULL;
int i, j, dsize,switched=0,save;
int canvas_num=0;
struct item_list *current = selected_items;
char *tname;
char *tname_tmp;
char *ask_from_vcs;
char *tname_orig;
extern struct p_tab Pic_tab;
struct p_tab *ptab;
extern struct display_tab D_tab;
struct display_tab *dtab;
PY_ENTER_THREADS
PY_GRAB_THREAD
main = PyImport_ImportModule("__main__");
mdict = PyModule_GetDict( main ); /* borrowed ref */
dsize = PyDict_Size( mdict );
dkeys = PyDict_Keys( mdict);
dvalues = PyDict_Values( mdict );
for (i = 0; i < dsize; i++) {
dlist = PyList_GetItem(dkeys, i); /* borrowed ref */
dvalue=PyList_GetItem(dvalues, i); /* borrowed ref */
if (PyString_Check(dlist)) { /* get the canvas object */
dnum = PyObject_CallMethod(dvalue, "canvasid", (char*)0);
canvas_num = (int) PyInt_AsLong (dnum);
if (canvas_num == self->canvas_id) {
tattribute = PyObject_GetAttrString(dvalue, "canvas_template_editor");
result = PyObject_CallMethod(tattribute, "refresh_self_canvas", (char*)0); /* ok no idea why but nothing works w/o this... */
Py_XDECREF( result );
while (current != NULL) {
result = PyObject_GetAttrString(tattribute,"new_template_name");
tname = PyString_AsString(result);
Py_XDECREF( result );
result = PyObject_GetAttrString(tattribute,"template_name");
tname_tmp = PyString_AsString(result);
Py_XDECREF( result );
if (strcmp(current->ptab->name,tname)!=0) {
switched =1;
result = PyObject_GetAttrString(tattribute,"template_orig_name");
tname_orig = PyString_AsString(result);
Py_XDECREF( result );
break;
}
current = current->next;
}
}
}
if (switched==1) break;
}
if (switched==1)
{
result = PyObject_CallMethod(tattribute, "ask_save_from_vcs", (char*)0); /* ok no idea why but nothing works w/o this... */
ask_from_vcs = PyString_AsString(result);
save = 0;
if (strcmp(ask_from_vcs,"Save")==0) save = 1;
Py_XDECREF( result );
result=NULL;
if (save==1)
{
/* create a copy that will become the new orig */
/* printf("creating a new template from: %s\n",tname); */
result = PyObject_CallMethodObjArgs(dvalue,Py_BuildValue("s","createtemplate"),Py_None,Py_BuildValue("s",tname),NULL);
/* get the original */
/* printf("ok now get the original one (%s)\n",tname_orig); */
result2 = PyObject_CallMethod(dvalue,"gettemplate","s",tname_orig);
/* removes it */
/* printf("and i remove it\n"); */
result3 = PyObject_CallMethod(dvalue,"removeobject","O",result2);
Py_XDECREF( result2 ); /* No need to keep python object */
Py_XDECREF( result3 ); /* No need to keep python object */
/* rename the temp one to this guy's name */
/* printf("now i rename the one i just created to: %s\n",tname_orig); */
PyObject_SetAttrString(result,"name",Py_BuildValue("s",tname_orig));
Py_XDECREF( result ); /* No need to keep python object */
/* Here we need to loop thru displays and set the right template for */
/* printf("and i'm coptying %s into tname_tmp (%s)\n",tname,tname_tmp); */
strcpy(tname_tmp,tname);
/* printf("which result in tname_tmp to be: %s\n",tname_tmp); */
/* the template we were editing earlier */
}
dtab = &D_tab;
while (dtab != NULL)
{
/* printf("Exploring display %s with template: %s\n",dtab->name,dtab->p_name); */
// if ((dtab->wkst_id == self->wkst_id) && (dtab->a[0][0] != '\0'))
/* printf("ok looking at display: %s, templates: %s, %s\n",dtab->name,dtab->p_name,dtab->p_orig_name); */
if ((dtab->wkst_id == self->wkst_id))
{
if (strcmp(tname,dtab->p_name) == 0)
{
/* printf(" it is a match with the old template: %s, %s, %s, %s, %s\n",tname,dtab->p_name,dtab->p_orig_name,tname_orig,tname_tmp); */
strcpy(dtab->p_name,tname_tmp); /* has been replaced to orig if save */
/* printf("replacing this display template with: %s (but not orig)\n",tname_tmp); */
break;
}
}
dtab=dtab->next;
}
/* Create a copy that we will not keep as python */
result2=Py_BuildValue("s",current->ptab->name);
result = PyObject_CallMethodObjArgs(dvalue,Py_BuildValue("s","createtemplate"),Py_None,result2,NULL);
result3 = PyObject_GetAttrString(result,"name");
tname_tmp = PyString_AsString(result3);
Py_XDECREF(result);
/* get the python object to attach it to canvas editor */
py_template = PyObject_CallMethod(dvalue,"gettemplate","s",current->ptab->name);
PyObject_SetAttrString(tattribute,"new_template",py_template);
PyObject_SetAttrString(tattribute,"new_template_name",result2);
Py_XDECREF(result2);
PyObject_SetAttrString(tattribute,"template_name",result3);
Py_XDECREF(result3);
/* save original name for resetting items later */
dtab = &D_tab;
while (dtab != NULL)
{
if ((dtab->wkst_id == self->wkst_id))
{
if (strcmp(current->ptab->name,dtab->p_name) == 0)
{
result3 = Py_BuildValue("s",dtab->p_orig_name);
PyObject_SetAttrString(tattribute,"template_orig_name",result3);
Py_XDECREF(result3);
/* reset editor text */
dialog = PyObject_GetAttrString(tattribute,"dialog"); /* retrieve dialog tedtor to update name */
result4 = PyObject_CallMethod(dialog,"title","s",dtab->p_orig_name);
Py_XDECREF( result4 );
Py_XDECREF( dialog );
break;
}
}
dtab=dtab->next;
}
/* and finaslly let's refresh data for this guy! */
result = PyObject_CallMethod(tattribute, "refresh_data", (char*)0);
Py_XDECREF(result);
/* The following is done no matter what */
/* think of sometihng to let know we accidentally click on another template */
/* i guess simply delete hold_selected and set item to NULL but outside of this loop */
}
Py_XDECREF( main );
Py_XDECREF( dkeys );
Py_XDECREF( dvalues );
Py_XDECREF( dnum );
Py_XDECREF( tattribute );
PY_RELEASE_THREAD
PY_LEAVE_THREADS
return switched;
}
/* This is an embedded Python function call. It is the Python command
* that returns the current Template Editor's name. This is needed to
* to determine which template editor to modify.
*/
char *
return_template_name( self )
PyVCScanvas_Object *self;
{
PyObject *mdict = NULL, *main = NULL, *dkeys=NULL,*dvalues=NULL, *dstring=NULL;
PyObject *dlist=NULL, *dvalue=NULL, *dnum=NULL;
PyObject *tattribute=NULL, *template_attr=NULL;
char *template_str=NULL;
int i, dsize;
int canvas_num=0;
PY_ENTER_THREADS
PY_GRAB_THREAD
main = PyImport_ImportModule("__main__");
mdict = PyModule_GetDict( main ); /* borrowed ref */
dsize = PyDict_Size( mdict );
dkeys = PyDict_Keys( mdict);
dvalues = PyDict_Values( mdict );
for (i = 0; i < dsize; i++) {
dlist = PyList_GetItem(dkeys, i); /* borrowed ref */
dvalue=PyList_GetItem(dvalues, i); /* borrowed ref */
if (PyString_Check(dlist)) { /* get the canvas object */
dnum = PyObject_CallMethod(dvalue, "canvasid", (char*)0);
canvas_num = (int) PyInt_AsLong (dnum);
if (canvas_num == self->canvas_id) {
tattribute = PyObject_GetAttrString(dvalue, "canvas_template_editor");
/*template_attr = PyObject_GetAttrString(tattribute, "template_name");*/
template_attr = PyObject_GetAttrString(tattribute, "new_template_name");
template_str = PyString_AsString(template_attr);
}
}
}
Py_XDECREF( main );
Py_XDECREF( dkeys );
Py_XDECREF( dvalues );
Py_XDECREF( dnum );
Py_XDECREF( tattribute );
Py_XDECREF( template_attr );
PY_RELEASE_THREAD
PY_LEAVE_THREADS
return template_str;
}
/* Tell the X server (i.e., the x main loop) that
* all commands in the X queue will be discarded.
* We don't need them anyway. At least, I think we don't.
*/
static PyObject *
PyVCS_Xsync_discard(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
if (self->connect_id.display != NULL) {
XFlush( self->connect_id.display );
XSync( self->connect_id.display, TRUE);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/* Tell the X server (i.e., the x main loop) that
* a VCS Command is requested and it needs to wait
* or stop processing until the command is completed.
*/
static PyObject *
PyVCS_BLOCK_X_SERVER(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
/* Note: No need to call the X routine:
* XLockDisplay( connect_id.display );
* because the flag below will block the
* X display for me.
*/
BLOCK_X_SERVER += 1;
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/* Tell if VCS Canvas is threaded.
*/
static PyObject *
PyVCS_THREADED(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
/* Return Python Object */
return Py_BuildValue("i", self->havexmainloop);
}
/* Tell the X server (i.e., the X main loop) that
* the VCS command is finished.
*/
static PyObject *
PyVCS_UNBLOCK_X_SERVER(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
/* Note: No need to call the X routine:
* XUnlockDisplay( connect_id.display );
* because the flag below will unblock the
* X display for me.
*/
BLOCK_X_SERVER -= 1;
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/* Return the number of X queued events, That is, if the
* X server is in the middle of something then wait until
* it is finished before processing the VCS command.
*/
static PyObject *
PyVCS_Xpending(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int return_value = 0;
if (X_QUE_COUNT > 0)
return_value = 1;
return Py_BuildValue("i", return_value);
}
/* Stop the X main loop */
static PyObject *
PyVCS_stopxmainloop(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
self->stopxmainloop = 1;
self->havexmainloop = 0;
X_QUE_COUNT = 0;
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/* Figures out where the right button has been released and launch corresponding action */
/* Thread ??? */
int launch_py_user_action(self,window,event,info,ipoint)
PyVCScanvas_Object *self;
Window window;
XEvent event;
struct data_point info;
int ipoint[2];
{
Window parent;
int x,y,w,h,bw,dpth;
int line;
PyObject *canvas, *funcs, *func, *args, *kargs, *kval;
XGetGeometry(self->connect_id.display,window,&parent,&x,&y,&w,&h,&bw,&dpth) ;
if ((x<event.xbutton.x) && (event.xbutton.x<x+w) && (y<event.xbutton.y) && (event.xbutton.y<y+h))
{
PY_ENTER_THREADS;
PY_GRAB_THREAD;
canvas = getPyCanvas( self );
kargs = PyDict_New();
if (info.x!=-999.)
{
kval = Py_BuildValue("d",info.x);
}
else
{
Py_INCREF(Py_None);
kval = Py_None;
}
PyDict_SetItemString(kargs,"datawc_x",kval);
Py_DECREF(kval);
if (info.y!=-999.)
{
kval = Py_BuildValue("d",info.y);
}
else
{
Py_INCREF(Py_None);
kval = Py_None;
}
PyDict_SetItemString(kargs,"datawc_y",kval);
Py_DECREF(kval);
if (info.value!=-999.)
{
kval = Py_BuildValue("d",info.value);
}
else
{
Py_INCREF(Py_None);
kval = Py_None;
}
PyDict_SetItemString(kargs,"value",kval);
Py_DECREF(kval);
if (info.value2!=-999.)
{
kval = Py_BuildValue("d",info.value2);
}
else
{
Py_INCREF(Py_None);
kval = Py_None;
}
PyDict_SetItemString(kargs,"value2",kval);
Py_DECREF(kval);
if (info.x_index!=-999)
{
kval = Py_BuildValue("i",info.x_index);
}
else
{
Py_INCREF(Py_None);
kval = Py_None;
}
PyDict_SetItemString(kargs,"index_x",kval);
Py_DECREF(kval);
if (info.y_index!=-999)
{
kval = Py_BuildValue("i",info.y_index);
}
else
{
Py_INCREF(Py_None);
kval = Py_None;
}
PyDict_SetItemString(kargs,"index_y",kval);
Py_DECREF(kval);
if (info.color!=-999.)
{
kval = Py_BuildValue("i",info.color);
}
else
{
Py_INCREF(Py_None);
kval = Py_None;
}
PyDict_SetItemString(kargs,"color",kval);
Py_DECREF(kval);
kval = Py_BuildValue("i",ipoint[0]);
PyDict_SetItemString(kargs,"XW_x",kval);
Py_DECREF(kval);
kval = Py_BuildValue("i",ipoint[1]);
PyDict_SetItemString(kargs,"XW_y",kval);
Py_DECREF(kval);
PyDict_SetItemString(kargs,"canvas",canvas);
funcs = PyObject_GetAttrString(canvas,"user_actions_names");
if (PyList_Check(funcs))
{
line = (event.xbutton.y-y)*PyList_Size(funcs)/h;
}
else line=1;
Py_DECREF(funcs);
/* Set the line number as argument */
args = Py_BuildValue("()",line);
/* following is for direct call of func */
funcs = PyObject_GetAttrString(canvas,"user_actions"); /* decref ? */
if (PyList_Check(funcs))
{
func = PyList_GetItem(funcs,line);
if (PyCallable_Check(func))
{
PY_RELEASE_THREAD;
PY_LEAVE_THREADS;
PY_ENTER_THREADS;
PY_GRAB_THREAD;
kval = PyEval_CallObjectWithKeywords(func,args,kargs);
Py_DECREF(kargs);
Py_DECREF(args);
Py_XDECREF(kval);
PY_RELEASE_THREAD;
PY_LEAVE_THREADS;
}
else
{
PY_RELEASE_THREAD
PY_LEAVE_THREADS
return 1;
}
}
else {
PY_RELEASE_THREAD
PY_LEAVE_THREADS
return 1;
}
}
return 0;
}
/*
* Handle the VCS Canvas X events. This function must be threaded to
* update all X commands that occur in the VCS Canvas. For example,
* when the VCS Canvas is brought to the front (i.e., exposed), then
* the Canvas will be redrawn showing the previously hidden area. Therefore,
* handling its own backing store.
*/
void item_type(item)
struct item_list *item;
{
if (item== NULL) return;
printf("item type: ");
switch(item->type){
case(pe_text):
printf("pe_text\n");
break;
case(pe_form):
printf("pe_form\n");
break;
case(pe_x_tic):
printf("pe_xtic\n");
break;
case(pe_y_tic):
printf("pe_y_tic\n");
break;
case(pe_x_lab):
printf("pe_x_lab\n");
break;
case(pe_y_lab):
printf("pe_y_lab\n");
break;
case(pe_box):
printf("pe_box\n");
break;
case(pe_line):
printf("pe_line\n");
break;
case(pe_leg):
printf("pe_leg\n");
break;
case(pe_dsp):
printf("pe_dsp\n");
break;
case(pe_none):
printf("pe_none\n");
break;
case(display_tab):
printf("display_tab\n");
break;
default:
printf("well something else believe it or not!\n");
break;
}
if (item->next != NULL) {
printf("and next is: \n");
item_type(item->next);
}
}
static PyObject *
PyVCS_startxmainloop(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
Window data_window=(Window)NULL;
Window data_window_right=(Window)NULL;
int x,y, hold_continents;
int screen_num;
int border_width = 4;
unsigned int width, height;
XEvent event;
XWindowAttributes xwa;
extern struct p_tab *getP();
int bufsize = 10;
char buffer[10];
KeySym keysym;
XComposeStatus compose;
struct data_point info;
struct item_list *item=NULL;
static GC gc; /* graphics context */
int waiting=0,control = 0, resize_flg=0;
time_t orgtime;
struct p_tab *ptab;
extern struct p_tab Pic_tab;
struct display_tab *dtab;
extern struct display_tab D_tab;
struct a_tab *atab;
extern struct a_tab A_tab;
extern int update_ind;
extern int vcs_canvas_update();
Cursor cursor[20];
int orientation_flg=0;/* if orientation, stop resize */
int *segment[4];
int i, ipointA[2];
int action=-1,just_moved = 0;
char type[10];
extern struct orientation Page;
extern int change_orientation();
Gpoint pxy, selection[5], pointA, pointB, temppoint;
Gextent extent;
Window rroot_win;
unsigned int rwidth,rheight,rborder,rdepth;
int rxpos,rypos;
PyObject * PyVCS_close();
PyObject * PyVCS_clear();
PyObject * PyVCS_showbg();
Window display_info();
Window display_menu();
PyObject *update_args;
extern float plnorm();
extern struct default_continents Dc;
void display_resize_plot();
int undisplay_resize_plot();
/* PyVCScanvas_Object *resize_self; /\* store resized canvas id *\/ */
int did_switch_templates;
cursor[0] = XCreateFontCursor(self->connect_id.display,XC_fleur);
cursor[1] = XCreateFontCursor(self->connect_id.display,XC_top_left_corner);
cursor[2] = XCreateFontCursor(self->connect_id.display,XC_top_right_corner);
cursor[3] = XCreateFontCursor(self->connect_id.display,XC_bottom_right_corner);
cursor[4] = XCreateFontCursor(self->connect_id.display,XC_bottom_left_corner);
cursor[5] = XCreateFontCursor(self->connect_id.display,XC_top_side);
cursor[6] = XCreateFontCursor(self->connect_id.display,XC_right_side);
cursor[7] = XCreateFontCursor(self->connect_id.display,XC_bottom_side);
cursor[8] = XCreateFontCursor(self->connect_id.display,XC_left_side);
cursor[9] = XCreateFontCursor(self->connect_id.display,XC_sizing);
cursor[10] = XCreateFontCursor(self->connect_id.display,XC_pencil);
if (self->connect_id.display == NULL) {
/* Return NULL Python Object, Program is in background mode! */
Py_INCREF(Py_None);
return Py_None;
}
/* If the VCS Canvas is not open, then return. */
if (self->connect_id.drawable == 0) {
PyErr_SetString(PyExc_TypeError, "Must first open VCS (i.e., x.open()).");
return NULL;
}
if (self->havexmainloop == 1) {
/* Return NULL Python Object, X main loop is already running! */
Py_INCREF(Py_None);
return Py_None;
} else {
self->stopxmainloop = 0;
self->havexmainloop = 1;
}
/* Update segemate arguments for PyVCS_updateVCSsegments. Sets the mode argument to 1 */
update_args = PyTuple_New(1);
PyTuple_SetItem(update_args, 0, Py_BuildValue("i", 1)); /* Set the 1st and only argv to 1 */
XGetGeometry(self->connect_id.display,self->connect_id.drawable,
&rroot_win,
&rxpos, &rypos,
&rwidth, &rheight,
&rborder, &rdepth);
/* XSelectInput(self->connect_id.display,self->connect_id.drawable, ButtonPressMask | ButtonReleaseMask | EnterWindowMask | LeaveWindowMask | FocusChangeMask | ExposureMask | PointerMotionMask ); */
/* Catch all X calls, start the X main loop.*/
/* Py_BEGIN_ALLOW_THREADS
{ PyThreadState *_save_x_main;
_save_x_main = PyEval_SaveThread();*/
/* Begin Python Threads to allow for the calling of Python from C */
Py_BEGIN_ALLOW_THREADS
/* PY_ENTER_THREADS */
while (!self->stopxmainloop) {
X_QUE_COUNT = XQLength(self->connect_id.display);
XNextEvent(self->connect_id.display, &event);
/* Clean up the SCREEN_MODE selection mode before moving onto the DATA MODE */
if (CHK_MODE != SCREEN_MODE) {
CHK_MODE = SCREEN_MODE;
if (SCREEN_MODE == DATA) {
delete_list(&hold_selected_items);
PyVCS_updateVCSsegments(self, update_args);
PyVCS_backing_store(self, args);
}
}
if (BLOCK_X_SERVER == 0) {
/*if ((XPending(self->connect_id.display)>0) && (BLOCK_X_SERVER == 0)) {
XNextEvent(self->connect_id.display, &event);*/
if (BLOCK_X_SERVER == 0) {
/* Handle the Template events */
if (template_select_all_flg == 1) {
template_select_all_flg = 0;
action=1;
} else if (template_select_all_flg == 2) {
hold_selected_items = NULL;
delete_list(&hold_selected_items);
template_select_all_flg = 0;
action=-1;
}
/* Handle the X events */
switch (event.type) {
case ButtonPress:
/* Set up the VCS Canvas id and XGKS workstation */
connect_id = self->connect_id;
/* Record initial mouse click position */
pointA.x = cnorm(self, 0,(float)event.xbutton.x);
pointA.y = cnorm(self, 1,(float)event.xbutton.y);
temppoint.x = cnorm(self, 0,(float)event.xbutton.x);
temppoint.y = cnorm(self, 1,(float)event.xbutton.y);
ipointA[0] = event.xbutton.x;
ipointA[1] = event.xbutton.y;
/* If just_moved is still equal to 0 when we release the
* mouse then we did not move */
just_moved = 0;
/* Since we can't seem to detect when the shift key is
* being pressed on ButtonRelease, set variable here */
if (event.xbutton.state == ShiftMask) {
control = 1;
action = -1;
} else
control = 0;
/* Show the coordinate and data display window */
/* button 1 is left click */
/* button 3 is right click */
/* button 2 is left and right click */
/* button 4 is scroll up button*/
/* button 5 is scroll down button */
if ((event.xbutton.button == 1) || ((event.xbutton.button==3) && (SCREEN_MODE == DATA))) {
item = select_item(self, pointA, NULL, NULL, pe_none);
/* Initialize info struct */
info.x=-999.;
info.y=-999.;
info.x_index=-999;
info.y_index=-999;
info.value=-999.;
info.value2=-999.;
info.color=-999;
if ((item != NULL) && (item->type == pe_dsp)) {
if (item != NULL) {
extent.ll.x = plnorm(0,item->data.pedsp->x1);
extent.ll.y = plnorm(1,item->data.pedsp->y1);
extent.lr.x = plnorm(0,item->data.pedsp->x2);
extent.lr.y = plnorm(1,item->data.pedsp->y1);
extent.ur.x = plnorm(0,item->data.pedsp->x2);
extent.ur.y = plnorm(1,item->data.pedsp->y2);
extent.ul.x = plnorm(0,item->data.pedsp->x1);
extent.ul.y = plnorm(1,item->data.pedsp->y2);
}
if (within(pointA,extent)) {
if ((item != NULL) && (SCREEN_MODE == DATA)) {
waiting = 1; /* Tell the expose event to wait until data window is done */
get_data_coords(self, pointA, item, &info);
if (event.xbutton.button == 1)
data_window = display_info(self, pointA, info);
}
}
}
}
if ((event.xbutton.button == 3 ) && ( SCREEN_MODE== DATA)) {
data_window_right = display_menu(self, pointA);
}
/* else if (event.xbutton.button == 1) { * Initial ZOOM values (x1, y1) * */
/* item = select_item(self, pointA, NULL, NULL, pe_none); */
/* get_data_coords(self, pointA, item, &info); */
/* } */
break;
case ButtonRelease:
/* Record new mouse click position */
pointB.x = cnorm(self, 0,(float)event.xbutton.x);
pointB.y = cnorm(self, 1,(float)event.xbutton.y);
/* Did the user click on a template object? */
item = select_item(self, pointA, NULL, NULL, pe_none);
if (SCREEN_MODE==GMEDITOR){
if (item!=NULL) {
delete_list(&hold_selected_items);
append_to_list(item,&hold_selected_items);
PyVCS_updateVCSsegments(self, update_args);
draw_selection_box(item->extent,248);
PyVCS_backing_store(self, args);
}
}
if (SCREEN_MODE == TEDITOR)
{
verify_extent(&hold_selected_items);
/* printf("ButtonRelease 3 : just_moved = %d; action = %d \n", just_moved, action); */
/* Check to see if we are supposed to update the template
* and canvas because we did a move or resize */
if (action >= 0)
{
if ((control == 0) && (just_moved == 0)) {
delete_list(&hold_selected_items);
append_to_list(item,&hold_selected_items);
update_template_toggle_color(self, hold_selected_items);
}
resize_or_move(self, pointA, pointB, action, &hold_selected_items, 0);
PyVCS_updateVCSsegments(self, update_args);
draw_selected(hold_selected_items,0);
PyVCS_backing_store(self, args);
update_template_gui(self);
/*action = -1; DNW - Don't change the action to -1 on a release */
}
else
{
set_cursor(self, pointB, cursor, &action, item);
if (pointA.x != pointB.x || pointA.y != pointB.y)
{
/* DNW - For Zooming later
delete_list(&hold_selected_items);
select_all_in_range(self,pointA,pointB,&hold_selected_items);
printf("Got here 1\n");
* PyVCS_updateVCSsegments(self, update_args);*
printf("Got here 2\n");
draw_selected(hold_selected_items,0);
printf("Got here 3\n");
PyVCS_backing_store(self, args);
printf("Supposedly updated canvas\n");
*/
}
else
{
if (item != NULL)
{
/* Multiple selection mode */
if (control)
{
/* If we clicked on the data, delete all
* other selected objects since we only
* want to select or unselect the data */
if (item->next != NULL)
delete_list(&item->next->next);
/* If item is already in list, delete
* the item and unselect it on the VCS
* canvas */
if (in_list(item,&hold_selected_items))
{
remove_from_list(item,&hold_selected_items);
PyVCS_updateVCSsegments(self, update_args);
draw_selected(hold_selected_items,0);
PyVCS_backing_store(self, args);
update_template_toggle_color(self, hold_selected_items);
delete_list(&item);
}
/* If the item is not already in the list,
* add it and draw a box around it */
else
{
append_to_list(item,&hold_selected_items);
draw_selected(hold_selected_items,0);
PyVCS_backing_store(self, args);
update_template_toggle_color(self, hold_selected_items);
}
}
/* Single selection mode
* In single selection mode, delete all
* previously selected objects and redraw
* just the one that was selected */
else
{
delete_list(&hold_selected_items);
append_to_list(item,&hold_selected_items);
PyVCS_updateVCSsegments(self, update_args);
draw_selected(hold_selected_items,0);
PyVCS_backing_store(self, args);
did_switch_templates = switch_templates(self, hold_selected_items);
if (did_switch_templates) {
PyVCS_updateVCSsegments(self, update_args);
draw_selected(hold_selected_items,0);
PyVCS_backing_store(self, args);
}
update_template_toggle_color(self, hold_selected_items);
}
}
/* We did not select an object */
else
{
if (hold_selected_items != NULL)
{
delete_list(&hold_selected_items);
PyVCS_updateVCSsegments(self, update_args);
PyVCS_backing_store(self, args);
update_template_toggle_color(self, hold_selected_items);
}
}
}
}
}
/* We are in data selection mode so we need to figure
* out what the x and y coordinates are in addition
* to the value at that point and the color used in
* the colormap */
else
{
if (SCREEN_MODE == DATA) {
if (event.xbutton.button==3)
{
/* Ok we released button 3 we need to call python action linked to it */
/* And this before we destroy the window 'cause later wil use it to determine action selected */
launch_py_user_action(self,data_window_right,event,info,ipointA);
/* Destroy the data and coordinate window */
if (data_window_right != (Window)NULL) {
XDestroyWindow(self->connect_id.display, data_window_right);
data_window_right = (Window)NULL;
waiting = 0; /* Tell expose event to do its updating when necessary */
if (self->connect_id.canvas_pixmap != (Pixmap)NULL) {
gc = DefaultGC(self->connect_id.display,
DefaultScreen(self->connect_id.display));
XGetWindowAttributes(self->connect_id.display,
self->connect_id.drawable, &xwa);
XCopyArea(self->connect_id.display,
self->connect_id.canvas_pixmap,
self->connect_id.drawable,
gc, 0,0, xwa.width, xwa.height, 0, 0);
}
}
}
if (event.xbutton.button==1)
{
/* Destroy the data and coordinate window */
if (data_window != (Window)NULL) {
XDestroyWindow(self->connect_id.display, data_window);
data_window = (Window)NULL;
waiting = 0; /* Tell expose event to do its updating when necessary */
if (self->connect_id.canvas_pixmap != (Pixmap)NULL) {
gc = DefaultGC(self->connect_id.display,
DefaultScreen(self->connect_id.display));
XGetWindowAttributes(self->connect_id.display,
self->connect_id.drawable, &xwa);
XCopyArea(self->connect_id.display,
self->connect_id.canvas_pixmap,
self->connect_id.drawable,
gc, 0,0, xwa.width, xwa.height, 0, 0);
}
}
}
}
/* We are in data zoom mode so we need to figure
* out what the x and y coordinates are, then redraw
* the plot.
*/
else
if (SCREEN_MODE == ZOOM)
SCREEN_MODE = DATA;
}
break;
case CirculateNotify:
case ConfigureNotify:
/* This is needed for animation to grab the correct window screen. If raise window is not here, then */
/* animations will flash if the canvas was resized prior to animating. */
if ( (self->gui == 1) && (self->connect_id.display != NULL) && (self->connect_id.drawable != 0) )
XRaiseWindow(self->connect_id.display, self->connect_id.drawable);
/* To get the "Display content in resizing windows" to work, I had
to remove the below two lines and add the next four. With this
addition the other way will not work. The way I have it now is
the default since Linux RedHat 8.x won't allow you to change the
settings.
*/
if (event.xany.send_event != 0) /* Only do resize events */
break;
/* Set up the VCS Canvas id and XGKS workstation */
connect_id = self->connect_id;
/* Doing the portrait/landscape check */
XGetWindowAttributes(connect_id.display, connect_id.drawable, &xwa);
if (xwa.width>xwa.height) {
strcpy(Page.page_orient,"landscape");
self->orientation=0;
}
else {
strcpy(Page.page_orient,"portrait");
self->orientation=1;
}
/* Use the continents type of the original plot*/
hold_continents = Dc.selected;
Dc.selected = self->savecontinents; /* Set to saved Continent's flag */
/* resize_flg = 1; */
/*PyVCS_clear(self,NULL);*/
/* Discard all events on the input queue. Including those that
were on the queue before XSync() was called. Without this
call, the VCS Canvas window will flash for a considerably
long time after the initial resize event. This is because
the user has the "Display content in resizing windows"
turned on in the windowing enviornment. This works whether
the "Display content" is toggled on or off.*/
XSync(self->connect_id.display,TRUE);
/* Debug printf("Resize the window! send_event = %d\n", event.xany.send_event);
* if the orientation command was called, then don't do a resize *
if (orientation_flg==1) {
orientation_flg=0;
return;
}*/
/* Reset the canvas to landscape or portrait */
if (strcmp(Page.page_orient,"landscape") == 0)
{
strcpy(type,"portrait");
change_orientation(type,&self->connect_id, 2);
}
else if (strcmp(Page.page_orient,"portrait") == 0)
{
strcpy(type,"landscape");
change_orientation(type,&self->connect_id, 1);
}
/* Reset the canvas flag settings back */
if (strcmp(Page.page_orient,"landscape") == 0)
strcpy(Page.page_orient, "portrait");
else if (strcmp(Page.page_orient,"portrait") == 0)
strcpy(Page.page_orient, "landscape");
/* DNW-9/29/04 draw_selected(hold_selected_items,0);
PyVCS_backing_store(self, args);
DNW-9/29/04 */
/* Set up the magnification table, used for animation */
setup_the_magnify_table();
/* resize_self = self; /\* Store resize connection id *\/ */
display_resize_plot( self, undisplay_resize_plot( self ) );
Dc.selected = hold_continents; /* Restore continent's flag */
/* resize_flg=0; */
/* Display background graphics segments */
/* DNW-9/29/04 if (self->background != NULL)
PyVCS_showbg(self, args);
DNW-9/29/04 */
break;
case CreateNotify:
case ClientMessage:
case DestroyNotify:
/* Debug printf("I have Destroyed the VCS Canvas!\n");*/
/*
* Close the VCS Canvas, and leave the X main loop thread.
* We are done!
*/
PyVCS_close(self, args);
self->stopxmainloop = 1;
self->havexmainloop = 0;
break;
case EnterNotify:
case LeaveNotify:
case FocusIn:
/*printf("I have just focus in canvas number %d\n", self->canvas_id);
break;*/
case FocusOut:
/*printf("I have just focus out canvas number %d\n", self->canvas_id);
break;*/
case Expose:
/* Debug printf("I have Exposed the VCS Canvas!\n");*/
/* Get the graphics contents. */
if (waiting == 0) { /* wait only if displaying the data and coordinate window */
if (self->connect_id.canvas_pixmap != (Pixmap)NULL) {
gc = DefaultGC(self->connect_id.display,
DefaultScreen(self->connect_id.display));
XGetWindowAttributes(self->connect_id.display,
self->connect_id.drawable, &xwa);
XCopyArea(self->connect_id.display,
self->connect_id.canvas_pixmap,
self->connect_id.drawable,
gc, 0,0, xwa.width, xwa.height, 0, 0);
}
}
break;
case GraphicsExpose:
case GravityNotify:
case KeyPress:
/* If Delete or Backspace was pressed, change the
* priority of all selected objects to 0 and replot.
* This simulates getting rid of the object on the
* plot. */
XLookupString((XKeyEvent *)&event,buffer,bufsize,&keysym,&compose);
if (keysym == XK_BackSpace || keysym == XK_Delete) {
zero_priority(&hold_selected_items);
delete_list(&hold_selected_items);
PyVCS_updateVCSsegments(self, update_args);
PyVCS_backing_store(self, args);
update_template_gui( self );
} else if (keysym == XK_Right) {
just_moved = 1;
action = 0;
pointB=pointA;
pointB.x = cnorm(self, 0,(float)(ipointA[0]+3));
resize_or_move(self, pointA, pointB, action, &hold_selected_items, 1);
PyVCS_updateVCSsegments(self, update_args);
update_extent(pointA, pointB, action, &hold_selected_items);
draw_selected(hold_selected_items,0);
PyVCS_backing_store(self, args);
update_template_gui(self);
} else if (keysym == XK_Left) {
just_moved = 1;
action = 0;
pointB=pointA;
pointB.x = cnorm(self, 0,(float)(ipointA[0]-3));
resize_or_move(self, pointA, pointB, action, &hold_selected_items, 2);
PyVCS_updateVCSsegments(self, update_args);
update_extent(pointA, pointB, action, &hold_selected_items);
draw_selected(hold_selected_items,0);
PyVCS_backing_store(self, args);
update_template_gui(self);
} else if (keysym == XK_Up) {
just_moved = 1;
action = 0;
pointB=pointA;
pointB.y = cnorm(self, 1,(float)(ipointA[1]-3));
resize_or_move(self, pointA, pointB, action, &hold_selected_items, 3);
PyVCS_updateVCSsegments(self, update_args);
update_extent(pointA, pointB, action, &hold_selected_items);
draw_selected(hold_selected_items,0);
PyVCS_backing_store(self, args);
update_template_gui(self);
} else if (keysym == XK_Down) {
just_moved = 1;
action = 0;
pointB=pointA;
pointB.y = cnorm(self, 1,(float)(ipointA[1]+3));
resize_or_move(self, pointA, pointB, action, &hold_selected_items, 4);
PyVCS_updateVCSsegments(self, update_args);
update_extent(pointA, pointB, action, &hold_selected_items);
draw_selected(hold_selected_items,0);
PyVCS_backing_store(self, args);
update_template_gui(self);
}
break;
case KeyRelease:
break;
case MapNotify:
case MotionNotify:
if (SCREEN_MODE == TEDITOR)
{
/* Record the current location of the mouse */
pxy.x = cnorm(self, 0,(float)event.xmotion.x);
pxy.y = cnorm(self, 1,(float)event.xmotion.y);
/* If the left mouse button is being pressed,
* change the just_moved flag to 1 and we're not
* moving an object, do a backing_store of the image */
/* 272 is a hack for the SuSE platform only. Can be removed in the future. */
if ((event.xmotion.state == Button1Mask) || (event.xmotion.state == 272))
{
just_moved = 1;
if (self->connect_id.canvas_pixmap != (Pixmap)NULL) {
gc = DefaultGC(self->connect_id.display,
DefaultScreen(self->connect_id.display));
XGetWindowAttributes(self->connect_id.display,
self->connect_id.drawable, &xwa);
XCopyArea(self->connect_id.display,
self->connect_id.canvas_pixmap,
self->connect_id.drawable,
gc, 0,0, xwa.width, xwa.height, 0, 0);
}
/* Selecting a range with lasso */
if (action == -1)
{
/* DNW - Don't lasso at this time. Do later! This will be used for selecting multiple objects
selection[0].x = selection[3].x = selection[4].x = temppoint.x;
selection[1].x = selection[2].x = pxy.x;
selection[0].y = selection[1].y = selection[4].y = temppoint.y;
selection[2].y = selection[3].y = pxy.y;
gsplci(241);
gsln(2);
gpl(5,selection); */
}
else
{ /* Moving or resizing objects, draw shadow */
update_extent(temppoint, pxy, action, &hold_selected_items);
temppoint.x = pxy.x;
temppoint.y = pxy.y;
if (action>100) draw_selected(hold_selected_items,1);
else draw_selected(hold_selected_items,2);
}
}
else {
/* DNW -DEBUG printf("MotionNotify: just_moved = %d; action = %d; pxy.x = %f, pxy.y = %f \n", just_moved, action, pxy.x, pxy.y);*/
set_cursor(self, pxy, cursor, &action, hold_selected_items);
}
}
break;
case NoExpose:
case ReparentNotify:
case UnmapNotify:
/* if (resize_flg == 1) { */
/* printf("Do the REPLOT! canvas id = %d\n", resize_self->canvas_id); */
/* display_resize_plot( resize_self ); */
/* resize_flg = 0; */
/* } */
default:
/*Debug printf(stderr,"VCS got unexpected event type %d.\n", event.type);*/
break; /* ignore all other X events */
} /* switch */
} /* BLOCK */
} /* if */
} /* end while */
/*Py_END_ALLOW_THREADS
PyEval_RestoreThread(_save_x_main); }*/
Py_END_ALLOW_THREADS
/* PY_LEAVE_THREADS */
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
dtab=&D_tab;
while (dtab != NULL) {
if (dtab->off == 0) dtab->off = 1;
dtab = dtab->next;
}
*/
int undisplay_resize_plot(self)
PyVCScanvas_Object *self;
{
char *display_name;
extern int update_ind;
extern int vcs_canvas_update();
struct display_tab *pd;
extern struct display_tab D_tab;
extern char * return_display_name();
int off;
display_name=return_display_name(self->connect_id);
while (display_name!=NULL) {
for (pd=&D_tab;pd != NULL;pd=pd->next) {
if (strcmp(display_name,pd->name)==0) {
off = pd->off;
if (pd->off == 0) pd->off = 1;
}
}
display_name=return_display_name(self->connect_id);
}
/* Update the display if needed */
update_ind = 1;
vcs_canvas_update(0);
/* Remove the backing store pixmap */
if ( (self->connect_id.display != NULL) && (self->connect_id.drawable != 0) ) {
XClearWindow(self->connect_id.display, self->connect_id.drawable);
XFlush( self->connect_id.display );
XSync( self->connect_id.display, FALSE );
}
if (self->connect_id.canvas_pixmap != (Pixmap) NULL) {
XFreePixmap(self->connect_id.display, self->connect_id.canvas_pixmap);
self->connect_id.canvas_pixmap = (Pixmap) NULL;
}
return off;
}
/*
dtab=&D_tab;
while (dtab != NULL) {
if (dtab->off == 1) {
dtab->off = 0;
for (pi=&dtab->F_seg[0]; pi <= &dtab->dsp_seg[3]; pi+=4) {
if (*pi > 0)
gdsg(*pi);
*pi=0;
*(pi+1)=0;
*(pi+2)=0;
*(pi+3)=1;
}
}
dtab = dtab->next;
}
*/
void display_resize_plot(self,off)
PyVCScanvas_Object *self;
int off;
{
int *pi;
char *display_name;
extern int update_ind;
extern int vcs_canvas_update();
struct display_tab *pd;
extern struct display_tab D_tab;
extern Pixmap copy_pixmap();
extern char * return_display_name();
display_name=return_display_name(self->connect_id);
while (display_name!=NULL) {
for (pd=&D_tab;pd != NULL;pd=pd->next) {
if (strcmp(display_name,pd->name)==0) {
if ((pd->off == 1) && (off!=1)) {
pd->off = 0;
for (pi=&pd->F_seg[0]; pi <= &pd->dsp_seg[3]; pi+=4) {
if (*pi > 0)
gdsg(*pi);
*pi=0;
*(pi+1)=0;
*(pi+2)=0;
*(pi+3)=1;
}
}
}
}
display_name=return_display_name(self->connect_id);
}
/* Update the display if needed */
update_ind = 1;
vcs_canvas_update(1);
/* Copy the current VCS canvas to the pixmap (i.e., backing_store) */
if (self->connect_id.canvas_pixmap != (Pixmap) NULL) {
XFreePixmap(connect_id.display, self->connect_id.canvas_pixmap);
self->connect_id.canvas_pixmap = (Pixmap) NULL;
}
self->connect_id.canvas_pixmap = copy_pixmap(self->connect_id, self->canvas_id);
}
/* Return the canvas ID number. This identifies the canvas and this
* ID number is shown at the top of the Canvas and animation frame.
*/
static PyObject *
PyVCS_canvas_id(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
/* Return canvas id number */
return Py_BuildValue("i", self->canvas_id);
}
/* Set the window information ID to the VCS Canvas. This will attach
* the two together.
*/
static PyObject *
PyVCS_connect_gui_and_canvas(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int winfo_id;
if(PyArg_ParseTuple(args,"|i", &winfo_id)) {
if ( winfo_id != -99) {
self->connect_id.drawable = (XID) winfo_id;
}
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Open the VCS Canvas for animation, if the canvas is not already open.*/
void open_canavas_for_animation()
{
PyVCS_open(NULL, NULL);
}
/* Close a VCS Canvas. This routine does not deallocate the
* VCS Canvas object. It will only unmanage and pop down the
* VCS Canvas.
*/
PyObject *
PyVCS_close(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
struct display_tab *dtab;
extern struct display_tab D_tab;
graphics_method_list *gptr, *tgptr;
canvas_display_list *cdptr, *tcdptr;
int i,gnarray,ier, tmp = -99;
char a_name[6][17];
int graphics_num_of_arrays();
extern void remove_vcs_connection_information();
extern int removeA();
extern int removeGfb_name();
extern int clear_display();
extern int shutdown();
extern void vcs_canvas_quit_cb();
extern void dispatch_the_next_event();
/* Keep track of how many VCS Canvases that are opened. There can
* only be (at most) 8 opened at any given time. Decrement the
* vcs open counter.
*/
--vcs_open_ct;
if (vcs_open_ct < 0) vcs_open_ct = 0;
/* If the VCS Canvas is not open, then return. */
if (self->connect_id.drawable == 0) {
PyErr_SetString(PyExc_TypeError, "Must first open VCS (i.e., x.open()).");
PyVCS_UNBLOCK_X_SERVER(self, args); /* Restart the X main loop! */
return NULL;
}
/* Set up the VCS Canvas and XGKS workstation */
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
setup_canvas_globals(self);
/* Popdown VCS canvas and free the connection information used for animation */
if (self->vcs_gui != 1) {
vcs_canvas_quit_cb(self->connect_id);
remove_vcs_connection_information(self->connect_id,self->wkst_id);
}
/* Remove the display from the VCS picture form and
* remove all the data from the VCS data table
*/
cdptr = self->dlist;
while (cdptr != NULL) {
dtab=&D_tab;
while ((dtab != NULL) &&
(strcmp(dtab->name, cdptr->display_name) != 0))
dtab = dtab->next;
if (dtab == NULL) break;/* must have been removed from animation */
gnarray = graphics_num_of_arrays(dtab->type);
for (i=0; i<gnarray; i++)
strcpy(a_name[i], dtab->a[i]);
clear_display(cdptr->display_name);
for (i=0; i<gnarray; i++)
removeA(a_name[i]);
tcdptr = cdptr;
cdptr = cdptr->next;
free((char *) tcdptr->display_name);
free((char *) tcdptr);
}
self->dlist = NULL;
dispatch_the_next_event();
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Remove the temporary graphics methods used to create set
* minimum and maximum plots.
*/
gptr = self->glist;
while (gptr != NULL) {
tgptr = gptr;
gptr = gptr->next;
if (strcmp(tgptr->g_type, "Boxfill") == 0)
removeGfb_name(tgptr->g_name);
free((char *) tgptr->g_type);
free((char *) tgptr->g_name);
free((char *) tgptr);
}
self->glist = NULL;
/* Remove the backing store pixmap */
if (self->connect_id.canvas_pixmap != (Pixmap) NULL) {
XFreePixmap(self->connect_id.display, self->connect_id.canvas_pixmap);
self->connect_id.canvas_pixmap = (Pixmap) NULL;
}
/* Free all resouces associated with the VCS Canvas popup window.
* That is, destroy the VCS Canvas object window and all of its
* popup descendants and widgets. Then free all resources associated
* with the VCS Canvas popup window and its descendants.
*/
/* Shut down the xgks workstation */
if ((self->vcs_gui != 1) && (self->connect_id.drawable != 0)) {
self->connect_id.drawable = (XID) NULL;
shutdown(self->connect_id, self->wkst_id);
}
/* Set the flag to 0, meaning the VCS canvas has been created,
* but is closed.
*/
self->virgin = 0;
/* deactivate and close the workstation */
gdacwk( self->wkst_id );
gclwk( self->wkst_id );
setup_canvas_globals(self);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/*
* This function is used mainly for the updating of the static color visuals (i.e., TrueColor).
* But can be used to update or redraw the VCS Canvas. It will go through the entire picture
* template and set the flag to redraw every segment on the plot (or in some cases multiple
* plots).
*/
static PyObject *
PyVCS_updateVCSsegments(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int MODE, hold_continents;
static int in_process = 0;
canvas_display_list *cdptr;
struct display_tab *dtab;
extern struct display_tab D_tab;
struct a_attr *pa;
struct a_tab *ptab;
extern struct a_tab A_tab;
extern int update_ind;
extern int vcs_canvas_update();
extern Pixmap copy_pixmap();
extern struct default_continents Dc;
/* If visual class is PseudoColor, then return because the colormap
* is changed dynamically.
*/
if (visual->class == PseudoColor) {
Py_INCREF (Py_None);
return Py_None;
}
/* Indicate that the data segment has been changed by the color table. */
cdptr = self->dlist;
while (cdptr != NULL) {
dtab=&D_tab;
while ((dtab != NULL) &&
(strcmp(dtab->name, cdptr->display_name) != 0))
dtab = dtab->next;
if (dtab != NULL) {
dtab->F_seg[3]=1; /* update the file segment */
dtab->f_seg[3]=1; /* update the function segment */
dtab->lmask_seg[3]=1; /* update the logical mask segment */
dtab->trnf_seg[3]=1; /* update the tranformation segment */
dtab->s_seg[3]=1; /* update the source segment */
dtab->n_seg[3]=1; /* update the name segment */
dtab->ti_seg[3]=1; /* update the title segment */
dtab->u_seg[3]=1; /* update the units segment */
dtab->crd_seg[3]=1; /* update the date segment */
dtab->crt_seg[3]=1; /* update the time segment */
dtab->com1_seg[3]=1; /* update the command 1segment */
dtab->com2_seg[3]=1; /* update the command 2 segment */
dtab->com3_seg[3]=1; /* update the command 3 segment */
dtab->com4_seg[3]=1; /* update the command 4 segment */
dtab->xn_seg[3]=1; /* update the x name segment */
dtab->yn_seg[3]=1; /* update the y name segment */
dtab->zn_seg[3]=1; /* update the z name segment */
dtab->tn_seg[3]=1; /* update the t name segment */
dtab->xu_seg[3]=1; /* update the x unit segment */
dtab->yu_seg[3]=1; /* update the y unit segment */
dtab->zu_seg[3]=1; /* update the z unit segment */
dtab->tu_seg[3]=1; /* update the t unit segment */
dtab->xv_seg[3]=1; /* update the x coordinate segment */
dtab->yv_seg[3]=1; /* update the y coordinate segment */
dtab->zv_seg[3]=1; /* update the z coordinate segment */
dtab->tv_seg[3]=1; /* update the t coordinate segment */
dtab->mean_seg[3]=1; /* update the mean segment */
dtab->max_seg[3]=1; /* update the maximum segment */
dtab->min_seg[3]=1; /* update the minimum segment */
dtab->xt1_seg[3]=1; /* update the left major ticks segment */
dtab->xt2_seg[3]=1; /* update the right major ticks segment */
dtab->xmta_seg[3]=1; /* update the left minor ticks segment */
dtab->xmtb_seg[3]=1; /* update the right minor ticks segment */
dtab->yt1_seg[3]=1; /* update the bottom major ticks segment */
dtab->yt2_seg[3]=1; /* update the top major ticks segment */
dtab->ymta_seg[3]=1; /* update the bottom minor ticks segment */
dtab->ymtb_seg[3]=1; /* update the top minor ticks segment */
dtab->xl1_seg[3]=1; /* update the left line segment */
dtab->xl2_seg[3]=1; /* update the right line segment */
dtab->yl1_seg[3]=1; /* update the bottom line segment */
dtab->yl2_seg[3]=1; /* update the top line segment */
dtab->b1_seg[3]=1; /* update the box 1 segment */
dtab->b2_seg[3]=1; /* update the box 2 segment */
dtab->b3_seg[3]=1; /* update the box 3 segment */
dtab->b4_seg[3]=1; /* update the box 4 segment */
dtab->l1_seg[3]=1; /* update the line 1 segment */
dtab->l2_seg[3]=1; /* update the line 2 segment */
dtab->l3_seg[3]=1; /* update the line 3 segment */
dtab->l4_seg[3]=1; /* update the line 4 segment */
dtab->leg_seg[3]=1; /* update the legend segment */
dtab->dsp_seg[3]=1; /* update the display segment */
}
cdptr = cdptr->next;
}
if ((args !=NULL) && PyArg_ParseTuple(args,"|i", &MODE)) {
if ( (MODE) && (in_process == 0) ) {
/* Determine if the Continents need to be displayed or not. */
ptab=&A_tab;
pa=ptab->pA_attr;
hold_continents = Dc.selected;
if (pa != NULL) { /* If pa is NULL then do nothing. Check needed for the Mac. */
while ((ptab != NULL) && (strcmp(ptab->name, dtab->name+4) != 0))
ptab=ptab->next;
if (ptab != NULL) { /* If ptab is NULL, then do nothing. Check needed for the Mac. */
/* Py_INCREF (Py_None); */
/* return Py_None; */
pa=ptab->pA_attr;
hold_continents = Dc.selected;
if ( (pa != NULL) && ( (!doexist("longitude",pa->XN[0])) || (!doexist("latitude",pa->XN[1])) ) )
Dc.selected = 0; /* When doing template editing always do the simplest continents for speed. When done editing the original template will be redrawn. */
}
}
/* Update the display if needed */
in_process = 1; /* set the flag to stop this function from processing from another part of the code. This is a threads issue */
update_ind = MODE;
vcs_canvas_update(0);
in_process = 0;
Dc.selected = hold_continents; /* Restore Continent's flag */
/* Copy the current VCS canvas to the pixmap (i.e., backing_store) */
if (self->connect_id.canvas_pixmap != (Pixmap) NULL) {
XFreePixmap(self->connect_id.display, self->connect_id.canvas_pixmap);
self->connect_id.canvas_pixmap = (Pixmap) NULL;
}
self->connect_id.canvas_pixmap = copy_pixmap(self->connect_id, self->canvas_id);
}
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Change the VCS Canvas orientation to either Portrait or Landscape. */
static PyObject *
PyVCS_orientation(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int ier, hold_continents;
void display_resize_plot();
int undisplay_resize_plot();
extern struct default_continents Dc;
extern void set_up_canvas();
extern int change_orientation();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* If the VCS Canvas is not open, then return. */
if (self->connect_id.drawable == 0) {
PyErr_SetString(PyExc_TypeError, "Must first open VCS (i.e., x.open()).");
return NULL;
}
if (self->vcs_gui == 1) { /* Check for VCS canvas */
PyErr_SetString(PyExc_TypeError, "Can not change page orientation for main VCS Canvas.");
return NULL;
}
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/* Use the continents type of the original plot*/
hold_continents = Dc.selected;
if ( (self->connect_id.display != NULL) && (self->connect_id.drawable != 0) )
XRaiseWindow(self->connect_id.display, self->connect_id.drawable);
/* Change the VCS Canvas orientation and set object flags */
if (self->orientation == 0) {
self->orientation = 1;
set_up_canvas(self->connect_id, "portrait");
ier = change_orientation("portrait", &self->connect_id, 3);
} else {
self->orientation = 0;
set_up_canvas(self->connect_id, "landscape");
ier = change_orientation("landscape", &self->connect_id, 3);
}
/* Set up the magnification table, used for animation */
setup_the_magnify_table();
display_resize_plot( self,undisplay_resize_plot( self ) );
Dc.selected = hold_continents; /* Restore continent's flag */
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/* Set up the VCS Canvas geometry by giving the canvas width, height,
* x-position, and y-position.
*/
static PyObject *
PyVCS_geometry(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
PyObject *obj;
int ier, first=1, i, argc, y, screen_num;
int width, height, xpos, ypos;
char buf[1024];
extern void reset_canvas_geometry();
extern void return_canvas_geometry();
if (self->vcs_gui == 1) { /* Check for VCS canvas */
PyErr_SetString(PyExc_TypeError, "Can not change geometry for main VCS Canvas.");
return NULL;
}
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* If the VCS Canvas is not open, then do nothing */
if (self->connect_id.drawable == 0) {
PyErr_SetString(PyExc_TypeError, "Must have VCS Canvas opened before setting the geometry.");
return NULL;
}
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
screen_num = DefaultScreen(self->connect_id.display);
height=y=DisplayHeight(self->connect_id.display,screen_num);
width=DisplayWidth(self->connect_id.display,screen_num);
if (self->orientation == 0) {
/* width=0.60*width; */
/* height=0.76*width; */
height = 0.568359375 * height;
width = 1.319587628866 * width;
} else if (self->orientation == 1) {
/* width=0.48*width; */
/* height=width/0.76; */
height=0.7880859375 * height;
width=0.76084262701363 * width;
}
xpos = 2;
ypos = y-height-30;
/* Parse the input argument string */
if (args == NULL) { /* check for no input */
return_canvas_geometry(self->connect_id,
&width, &height, &xpos, &ypos);
sprintf(buf, "Info - No arguments given. Using %dx%d+%d+%d as the canvas geometry.", width, height, xpos, ypos);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
} else if (!PyTuple_Check (args)) { /* check to see if it's Tuple */
PyErr_SetString(PyExc_TypeError, "Arguments are incorrect.");
return NULL;
} else { /* get the geometry */
argc = PyTuple_Size (args); /* get the number of arguments */
if (argc == 0) { /* check for no input */
return_canvas_geometry(self->connect_id,
&width, &height, &xpos, &ypos);
sprintf(buf, "Info - No arguments given. Using %dx%d+%d+%d as the canvas geometry.", width, height, xpos, ypos);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
for (i = 0; i < argc; i++) {
obj = PyTuple_GetItem (args, i); /* get argument */
if(PyInt_Check(obj)) { /*check integer*/
if (i == 0)
width = (int) PyInt_AsLong(obj);
else if (i == 1)
height = (int) PyInt_AsLong(obj);
else if (i == 2)
xpos = (int) PyInt_AsLong(obj);
else if (i == 3)
ypos = (int) PyInt_AsLong(obj);
} else {
if (i == 0)
sprintf(buf, "Error - Incorrect argument. Using %d as the canvas width.", width);
else if (i == 1)
sprintf(buf, "Error - Incorrect argument. Using %d as the canvas height.", height);
else if (i == 2)
sprintf(buf, "Error - Incorrect argument. Using %d for the canvas x-position.", xpos);
else if (i == 3)
sprintf(buf, "Error - Incorrect argument. Using %d for the canvas y-position.", ypos);
pyoutput(buf, 1);
}
++first;
}
}
reset_canvas_geometry(self->connect_id,
width, height, xpos, ypos);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Return the current VCS Canvas window attributes.
*/
static PyObject *
PyVCS_canvasinfo(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
XWindowAttributes xwa;
int screen_x, screen_y; /* these variables will eventually hold the translated window coordinates */
Window child_win; /* this variable is needed by the XTranslateCoordinates function below */
Window parent_win; /* variable will store the ID of the parent window of our window */
Window root_win; /* variable will store the ID of the root window of the screen */
Window* child_windows; /* variable will store an array of IDs of the child windows of our window */
unsigned int num_child_windows; /* variable will store the number of child windows of our window */
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* If the VCS Canvas is not open, then do nothing */
if (self->connect_id.drawable == 0) {
PyErr_SetString(PyExc_TypeError, "Must have VCS Canvas opened before querying window information.");
return NULL;
}
/* query the window's attributes */
XGetWindowAttributes(self->connect_id.display,
self->connect_id.drawable, &xwa);
/* Make the query for the above values. */
XQueryTree(self->connect_id.display, self->connect_id.drawable,
&root_win,
&parent_win,
&child_windows, &num_child_windows);
/* We need to free the list of child IDs, as it was dynamically allocated */
/* by the XQueryTree function. */
XFree(child_windows);
/* next, we make the coordinates translation, from the coordinates system */
/* of the parent window, to the coordinates system of the root window, */
/* which happens to be the same as that of the screen, since the root */
/* window always spans the entire screen size. */
/* the 'x' and 'y' values are those previously returned by the */
/* XGetWindowAttributes function. */
XTranslateCoordinates(self->connect_id.display, parent_win, root_win,
xwa.x, xwa.y, &screen_x, &screen_y,
&child_win);
return Py_BuildValue("{s:i, s:i, s:i, s:i, s:i s:i}", "width",xwa.width, "height",xwa.height, "depth",xwa.depth, "mapstate",xwa.map_state, "x",screen_x, "y",screen_y);
}
/* List the primary attributes set names for: template, graphics methods,
* or data. This routine will also list the secondary attribute set names
* for: colormap, fill area, format, line, marker,list, text, or text
* orientation.
*/
static PyObject *
PyVCS_show(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int ier;
char *element=NULL;
extern int python_list_element();
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
if(PyArg_ParseTuple(args, "|s", &element)) {
if ((element == NULL) || (element[0] == '\0')) {
PyErr_SetString(PyExc_TypeError, "No primary or secondary element given.");
return NULL;
} else {
ier = python_list_element(element);
}
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
*
* At start-up, VCS reads a script file named initial.attributes that
* defines the initial appearance of the VCS Interface. Although not
* required to run VCS, this initial.attributes file contains many
* predefined settings to aid the beginning user of VCS. The path to
* the file must be:
*
* /$HOME/PCMDI_GRAPHICS/initial.attributes
*
* The contents of the initial.attributes file can be customized by
* the user.
*/
static PyObject *
PyVCS_saveinitialfile(self, args)
PyObject *self;
PyObject *args;
{
int mode=0777, ffd, wfd;
char *base_dir, dirbase[1024], buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
extern int replace_init();
FILE *fp;
/*
* Find a base directory.
*/
if ((base_dir=getenv("PCMDI_GRAPHICS_DIR")) == NULL) {
if ((base_dir=getenv("HOME")) == NULL || strlen(base_dir) ==0)
strcpy(dirbase,"./PCMDI_GRAPHICS");
else {
strcpy(dirbase,base_dir);
strcat(dirbase,"/PCMDI_GRAPHICS");
}
} else
strcpy(dirbase,base_dir);
base_dir=dirbase;
if (mkdir(base_dir,mode) != 0 && errno != EEXIST)
{
PyErr_SetString(PyExc_ValueError, "Error - you don't have a base directory.\nThe environment variable PCMDI_GRAPHICS_DIR\nor HOME needs to be set!");
return NULL;
}
/*
* Get the PCMDI directory and set replacement name
*/
strcpy(replace_name, base_dir);
strcat(replace_name, "/initial.attributes");
strcpy(initial_script, replace_name);
strcat (replace_name, "%");
/* Set up the move command */
sprintf(mv_command, "/bin/mv %s %s", initial_script, replace_name);
/* check directory for access */
ffd = access(initial_script, F_OK);
wfd = access(initial_script, W_OK);
if ((ffd == 0) && (wfd == 0)) { /* The file exist! */
/* Move the existing file to a new file */
if ((system (mv_command)) != 0) {
PyErr_SetString(PyExc_ValueError, "Error - In replacing initial.attributes script file.");
return NULL;
}
}
/* Create the new initial.attributes script file */
if ((fp=fopen(initial_script,"w")) == NULL) {
sprintf(buf, "Error - cannot create file (%s) -\n initial.attributes script file was not created.",initial_script);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
replace_init (fp);
sprintf(buf, "The old script file\n%s\n has been moved to \n%s.\n",
initial_script, replace_name);
}
fclose(fp);
return Py_BuildValue("s", buf);
}
/*
* The VCS scripting capability serves many purposes. It allows one to save the
* system state for replay in a later session; to save primary and secondary
* element attributes for use in later visual presentations; to save a sequence
* of interactive operations for replay; or to recover from a system failure.
*/
static PyObject *
PyVCS_scriptstate(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL;
char *base_dir, dirbase[1024], buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
extern int replace_init();
FILE *fp;
if(PyArg_ParseTuple(args,"|s", &SCRIPT_NAME)) {
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,"w")) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
dump (fp);
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Map the VCS Canvas window on top of all its siblings.
*/
static PyObject *
PyVCS_canvasraised(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
extern void dispatch_the_next_event();
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/* Make sure there is no other window in front of the VCS Canvas */
if ((self->connect_id.display != NULL) &&
(self->connect_id.drawable != 0)) {
XMapRaised(self->connect_id.display, self->connect_id.drawable);
XFlush( connect_id.display );
XSync( connect_id.display, FALSE );
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Returns 1 if a VCS Canvas is displayed on the screen. Returns a 0 if no VCS Canvas
* is displayed on the screen.
*/
static PyObject *
PyVCS_iscanvasdisplayed(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
if (self->connect_id.drawable == 0)
return Py_BuildValue("i", 0);
else
return Py_BuildValue("i", 1);
}
#include "pyembed.h"
#include <stdarg.h>
int
Convert_Result(PyObject *presult, char *resFormat, void *resTarget)
{
if (presult == NULL) /* error when run? */
return -1;
if (resTarget == NULL) { /* NULL: ignore result */
Py_DECREF(presult); /* procedures return None */
return 0;
}
if (! PyArg_Parse(presult, resFormat, resTarget)) { /* convert Python->C */
Py_DECREF(presult); /* may not be a tuple */
return -1; /* error in convert? */
}
if (strcmp(resFormat, "O") != 0) /* free object unless passed-out */
Py_DECREF(presult);
return 0; /* 0=success, -1=failure */
}
/*
* Get or fetch a data member (attribute) from a known object by name.
* This function can take all the common Python/C data conversion
* types: { "s" = char * : "i" = int : "l" = long :
* "c" = char : "f" = float : "d" = double:
* "O" = PyObject * .
*
*/
int
Get_Member(PyObject *pobject, char *attrname,
char *resfmt, void *cresult) /* convert to c/c++ */
{
PyObject *pmemb; /* "pobject.attrname" */
if (!Py_IsInitialized())
Py_Initialize();
pmemb = PyObject_GetAttrString(pobject, attrname); /* incref'd */
return Convert_Result(pmemb, resfmt, cresult); /* do getargs, decref */
}
/*
* Assign a data member (attribute) of a known object by name.
* This function can take all the common Python/C data conversion
* types: { "s" = char * : "i" = int : "l" = long :
* "c" = char : "f" = float : "d" = double:
* "O" = PyObject * .
*
*/
/* Commented out by C.Doutriaux on 07/28, doesn't seem to be used anywhere...*/
/* int */
/* Set_Member(PyObject *pobject, char *attrname, */
/* char *argfmt, ... /\* arg, arg... *\/ ) /\* convert to python *\/ */
/* { */
/* int result; */
/* PyObject *pval; */
/* va_list argslist; /\* "pobject.attrname = v" *\/ */
/* va_start(argslist, argfmt); */
/* if (!Py_IsInitialized()) */
/* Py_Initialize(); /\* init if first time *\/ */
/* pval = Py_VaBuildValue(argfmt, argslist); /\* input: C->Python *\/ */
/* if (pval == NULL) */
/* return -1; */
/* result = PyObject_SetAttrString(pobject, attrname, pval); /\* setattr *\/ */
/* Py_DECREF(pval); */
/* return result; */
/* } */
/*
* Return the VCS display plot (Dp) class member value.
*/
static PyObject *
PyVCS_getDpmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int i;
char *Dp_name, *member=NULL, buf[1024];
PyObject *DP=NULL, *MEMBER=NULL, *listptr=NULL;
struct display_tab *dtab;
extern struct display_tab D_tab;
if(PyArg_ParseTuple(args,"|OO",&DP, &MEMBER)) {
if (DP == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(DP,"name", "s", &Dp_name);
dtab=&D_tab;
while ((dtab != NULL) && (strcmp(dtab->name, Dp_name) != 0))
dtab = dtab->next;
if (dtab == NULL) {
sprintf(buf,"Cannot find display plot object Dp_%s.",Dp_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "off") == 0) {
return Py_BuildValue("i", dtab->off);
} else if (cmpncs(member, "priority") == 0) {
return Py_BuildValue("i", dtab->pri);
} else if (cmpncs(member, "continents") == 0) {
return Py_BuildValue("i", dtab->continents);
} else if (cmpncs(member, "template") == 0) {
return Py_BuildValue("s", dtab->p_name);
} else if (cmpncs(member, "g_type") == 0) {
return Py_BuildValue("s", dtab->type);
} else if (cmpncs(member, "g_name") == 0) {
return Py_BuildValue("s", dtab->g_name);
} else if (cmpncs(member, "_template_origin") == 0) {
return Py_BuildValue("s", dtab->p_orig_name);
} else if (cmpncs(member, "array") == 0) {
listptr = PyList_New(dtab->na);
for (i=0; i<dtab->na; i++)
PyList_SetItem(listptr, i, Py_BuildValue("s", dtab->a[i]));
return listptr;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing display plot object and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the line object's attribute will
* be changed.
*/
static PyObject *
PyVCS_setDpmember(PyObject *self, PyObject *args)
{
int i, ier, *pi, MODE, value_int;
float value_float;
char *Dp_name, *member=NULL, buf[1024];
PyObject *DP=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *l_array=NULL,*b_list=NULL;
struct display_tab *dtab=NULL;
struct a_tab *ptab=NULL;
extern struct display_tab D_tab;
extern struct a_tab A_tab;
extern int update_ind;
/*extern int chk_mov_Dp();*/
void put_slab_in_VCS_data_struct();
extern int vcs_canvas_update();
PyObject *cuslab_name_obj;
char *cuslab_name;
if(PyArg_ParseTuple(args,"|OOOi", &DP, &MEMBER, &VALUE, &MODE)) {
if (DP == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
cuslab_name_obj = NULL; /*avoid compiler warning */
Get_Member(DP,"name", "s", &Dp_name);
heartbeat("dpgetmember start %s", Dp_name);
dtab=&D_tab;
while ((dtab != NULL) && (strcmp(dtab->name, Dp_name) != 0))
dtab = dtab->next;
if (dtab == NULL) {
sprintf(buf,"Cannot find display plot object Dp_%s.",Dp_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
/*
* Set the appropriate display plot object attribute.
*/
heartbeat("dpgetmember member %s", member);
if (cmpncs(member, "off") == 0) {
dtab->off = (int) PyInt_AsLong(VALUE);
} else if (cmpncs(member, "priority") == 0) {
dtab->pri = (int) PyInt_AsLong(VALUE);
} else if (cmpncs(member, "continents") == 0) {
dtab->continents = (int) PyInt_AsLong(VALUE);
} else if (cmpncs(member, "template") == 0) {
strcpy(dtab->p_name,PyString_AsString(VALUE));
} else if (cmpncs(member, "g_type") == 0) {
strcpy(dtab->type,PyString_AsString(VALUE));
} else if (cmpncs(member, "g_name") == 0) {
strcpy(dtab->g_name,PyString_AsString(VALUE));
} else if (cmpncs(member, "_template_origin") == 0) {
strcpy(dtab->p_orig_name,PyString_AsString(VALUE));
} else if (cmpncs(member, "array") == 0) {
b_list=PyList_New(PySequence_Size(VALUE));
/* return new Python list *//*size wrong?? I changed it DUBOIS */
if(PyErr_Occurred()) return NULL;
for (i=0; i<PyList_Size(VALUE); i++) {
cuslab_name_obj = NULL;
l_array=PyList_GetItem(VALUE, i);
if (PyErr_Occurred()) goto err;
if (PyString_Check(l_array)) { /* get the slab name */
strcpy(dtab->a[i], PyString_AsString(l_array));
PyList_SetItem(b_list, i, Py_BuildValue("s", dtab->a[i]));
if(PyErr_Occurred()) goto err;
} else if (slabCheck(l_array)) {
cuslab_name = slabAttribute(l_array, "cuslab_name", "cuslab_name_error");
if(PyErr_Occurred()) goto err;
ptab=&A_tab;
while ((ptab != NULL) && (strcmp(ptab->name, cuslab_name) != 0)) {
ptab = ptab->next;
}
if (ptab != NULL) { /* get slab that already exist */
strcpy(dtab->a[i], cuslab_name);
PyList_SetItem(b_list, i, Py_BuildValue("s",dtab->a[i]));
} else { /* create a new slab name */
sprintf(buf, "plot_%d", namecount);
++namecount; /* for unique plot name */
cuslab_name = (char *)malloc(strlen(buf)+1);
strcpy(cuslab_name, buf);
heartbeat("dpsetmember about to call put_slab %s", cuslab_name);
cuslab_name_obj = PyString_FromString(cuslab_name);
put_slab_in_VCS_data_struct(l_array, dtab->type, cuslab_name_obj, 0, 1);
heartbeat("dpsetmember back from call put_slab %s", cuslab_name);
if (PyErr_Occurred()) {
goto err;
} else {
strcpy(dtab->a[i], cuslab_name);
PyList_SetItem(b_list, i, Py_BuildValue("s",dtab->a[i]));
}
}
} else {
sprintf(buf,"Data object cannot be used in VCS.");
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
Py_XDECREF(cuslab_name_obj);
}
}
heartbeat("dpgetmember progress report %s", Dp_name)
if (strcmp(member,"_template_origin")!=0){
for (pi=&dtab->F_seg[0]; pi <= &dtab->dsp_seg[3]; pi+=4) {
if (*pi > 0)
gdsg(*pi);
if (!dtab->off) {
*pi=0;
*(pi+1)=0;
*(pi+2)=0;
*(pi+3)=1;
}
}
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
}
if (b_list == NULL) {
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
} else
return b_list; /* Return array list of names */
err:
Py_XDECREF(cuslab_name_obj);
return NULL;
}
/*
* Rename an existing display plot object method.
*/
static PyObject *
PyVCS_renameDp(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *DP_OLD_NAME=NULL, *DP_NEW_NAME=NULL;
char buf[1024];
struct display_tab *dtab;
extern struct display_tab D_tab;
if(PyArg_ParseTuple(args,"|ss", &DP_OLD_NAME, &DP_NEW_NAME)) {
if ((DP_OLD_NAME == NULL) || (DP_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new display object name.");
return NULL;
}
}
dtab=&D_tab;
while ((dtab != NULL) && (strcmp(dtab->name, DP_OLD_NAME) != 0))
dtab = dtab->next;
if (dtab == NULL) {
sprintf(buf,"Cannot find display plot object Dp_%s.",DP_OLD_NAME);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
strcpy(dtab->name, DP_NEW_NAME);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the number of display plots that are on the VCS Canvas
*/
static PyObject *
PyVCS_return_display_ON_num(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int on=0;
struct display_tab *dtab;
extern struct display_tab D_tab;
dtab=&D_tab;
while (dtab != NULL) {
if (dtab->off == 0) on += 1;
dtab = dtab->next;
}
return Py_BuildValue("i", on);
}
/*
* Return the VCS Canvas display plot (Dp) list as a Python dictionary.
*/
static PyObject *
PyVCS_return_display_names(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int i=0, list_size=0;
PyObject *listptr=NULL;
struct display_tab *dtab;
extern struct display_tab D_tab;
dtab=&D_tab;
while (dtab != NULL) { list_size += 1; dtab = dtab->next; }
listptr = PyList_New( list_size );
dtab=&D_tab;
while (dtab != NULL) {
PyList_SetItem(listptr, i, Py_BuildValue("s",dtab->name));
dtab = dtab->next;
++i;
}
return listptr;
}
/*
* Remove the VCS Canvas display plot (Dp) element from the list.
*/
static PyObject *
PyVCS_remove_display_name(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
VCSCANVASLIST_LINK tvptr,vptr;
canvas_display_list *cdptr, *tcdptr, *hcdptr;
char *REMOVE_NAME=NULL;
int i, gnarray;
int graphics_num_of_arrays();
char a_name[6][17];
PyObject * PyVCS_clear();
struct display_tab *dtab, *cdtab;
extern struct display_tab D_tab;
extern int removeA();
extern int copy_disp();
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide a display name.");
return NULL;
}
}
if (self->connect_id.canvas_drawable != 0)
setup_canvas_globals(self);
/* Remove the display from the VCS picture form and
* remove all the data from the VCS data table
*/
hcdptr = cdptr = self->dlist;
while ((cdptr != NULL) && (strcmp(cdptr->display_name, REMOVE_NAME) != 0)) {
tcdptr = cdptr;
cdptr = cdptr->next;
}
if (cdptr != NULL) {
cdtab=dtab=&D_tab;
while ((dtab != NULL) && (strcmp(dtab->name, REMOVE_NAME) != 0)) {
cdtab = dtab;
dtab = dtab->next;
}
if (dtab != NULL) { /* remove display name */
gnarray = graphics_num_of_arrays(dtab->type);
for (i=0; i<gnarray; i++)
strcpy(a_name[i], dtab->a[i]);
remove_display_name(self->connect_id, REMOVE_NAME); /*remove display name*/
for (i=0; i<gnarray; i++) /*from VCS Canvas info*/
removeA(a_name[i]);
if (cdptr == hcdptr)
self->dlist = cdptr->next;
else
tcdptr->next = cdptr->next;
free((char *) cdptr->display_name);
free((char *) cdptr);
/* Remove the display names and structure from memory. */
if (dtab == &D_tab) {
copy_disp(dtab->next, &D_tab);
/* Make sure everything is clear in the VCS Canvas */
if ((dtab->next == NULL) && (D_tab.name[0] == '\0')) PyVCS_clear(self,NULL);
} else {
cdtab->next = dtab->next;
free((char *) dtab);
}
}
}
/* Remove the canvas link list information used for animation */
tvptr=vptr=head_canvas_list;
while ((vptr != NULL) && (vptr->connect_id.drawable !=
self->connect_id.drawable)) {
tvptr = vptr;
vptr = vptr->next;
}
if ((tvptr != NULL) && (vptr != NULL)) {
while (vptr != NULL) {
if (cmpncs(vptr->d_name, REMOVE_NAME) == 0) {
if (vptr == head_canvas_list)
head_canvas_list = vptr->next;
else
tvptr->next = vptr->next;
if (vptr->slab != NULL) Py_DECREF(vptr->slab);
if (vptr->slab2 != NULL) Py_DECREF(vptr->slab2);
free((char *) vptr);
break;
}
tvptr = vptr;
vptr = vptr->next;
}
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the VCS template orientation (Po) member value.
*/
static PyObject *
PyVCS_getPomember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int attribute=0;
char *Pt_name, buf[1024];
PyObject *PT=NULL, *MEMBER=NULL, *ATTRIBUTE;
struct p_tab *pttab;
extern struct p_tab Pic_tab;
if(PyArg_ParseTuple(args,"|OO",&PT, &ATTRIBUTE)) {
if (PT == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct template object type.");
return NULL;
}
}
Get_Member(PT,"name", "s", &Pt_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pt_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pt_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
/* Return int Python Object */
return Py_BuildValue("i",pttab->orientation_flg);
}
/*
* Return the VCS template text (Pt) member value.
*/
static PyObject *
PyVCS_getPtmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Pt_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PT=NULL, *MEMBER=NULL, *ATTRIBUTE;
struct p_tab *pttab;
extern struct p_tab Pic_tab;
extern float gnorm();
if(PyArg_ParseTuple(args,"|OOO",&PT, &MEMBER, &ATTRIBUTE)) {
if (PT == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct template object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PT,"name", "s", &Pt_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pt_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pt_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "file") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->F.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->F.x=gnorm(0,pttab->F.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->F.y=gnorm(1,pttab->F.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->F.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->F.to);
} else if (cmpncs(member, "function") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->f.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->f.x=gnorm(0,pttab->f.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->f.y=gnorm(1,pttab->f.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->f.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->f.to);
} else if (cmpncs(member, "logicalmask") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->lmask.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->lmask.x=gnorm(0,pttab->lmask.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->lmask.y=gnorm(1,pttab->lmask.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->lmask.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->lmask.to);
} else if (cmpncs(member, "transformation") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->trnf.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->trnf.x=gnorm(0,pttab->trnf.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->trnf.y=gnorm(1,pttab->trnf.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->trnf.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->trnf.to);
} else if (cmpncs(member, "source") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->s.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->s.x=gnorm(0,pttab->s.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->s.y=gnorm(1,pttab->s.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->s.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->s.to);
} else if (cmpncs(member, "dataname") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->n.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->n.x=gnorm(0,pttab->n.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->n.y=gnorm(1,pttab->n.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->n.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->n.to);
} else if (cmpncs(member, "title") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->ti.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->ti.x=gnorm(0,pttab->ti.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->ti.y=gnorm(1,pttab->ti.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->ti.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->ti.to);
} else if (cmpncs(member, "units") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->u.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->u.x=gnorm(0,pttab->u.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->u.y=gnorm(1,pttab->u.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->u.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->u.to);
} else if (cmpncs(member, "crdate") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->crd.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->crd.x=gnorm(0,pttab->crd.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->crd.y=gnorm(1,pttab->crd.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->crd.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->crd.to);
} else if (cmpncs(member, "crtime") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->crt.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->crt.x=gnorm(0,pttab->crt.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->crt.y=gnorm(1,pttab->crt.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->crt.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->crt.to);
} else if (cmpncs(member, "comment1") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->com1.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->com1.x=gnorm(0,pttab->com1.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->com1.y=gnorm(1,pttab->com1.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->com1.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->com1.to);
} else if (cmpncs(member, "comment2") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->com2.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->com2.x=gnorm(0,pttab->com2.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->com2.y=gnorm(1,pttab->com2.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->com2.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->com2.to);
} else if (cmpncs(member, "comment3") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->com3.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->com3.x=gnorm(0,pttab->com3.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->com3.y=gnorm(1,pttab->com3.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->com3.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->com3.to);
} else if (cmpncs(member, "comment4") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->com4.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->com4.x=gnorm(0,pttab->com4.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->com4.y=gnorm(1,pttab->com4.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->com4.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->com4.to);
} else if (cmpncs(member, "xname") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->xn.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->xn.x=gnorm(0,pttab->xn.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->xn.y=gnorm(1,pttab->xn.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->xn.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->xn.to);
} else if (cmpncs(member, "yname") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->yn.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->yn.x=gnorm(0,pttab->yn.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->yn.y=gnorm(1,pttab->yn.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->yn.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->yn.to);
} else if (cmpncs(member, "zname") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->zn.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->zn.x=gnorm(0,pttab->zn.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->zn.y=gnorm(1,pttab->zn.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->zn.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->zn.to);
} else if (cmpncs(member, "tname") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->tn.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->tn.x=gnorm(0,pttab->tn.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->tn.y=gnorm(1,pttab->tn.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->tn.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->tn.to);
} else if (cmpncs(member, "xunits") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->xu.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->xu.x=gnorm(0,pttab->xu.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->xu.y=gnorm(1,pttab->xu.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->xu.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->xu.to);
} else if (cmpncs(member, "yunits") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->yu.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->yu.x=gnorm(0,pttab->yu.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->yu.y=gnorm(1,pttab->yu.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->yu.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->yu.to);
} else if (cmpncs(member, "zunits") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->zu.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->zu.x=gnorm(0,pttab->zu.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->zu.y=gnorm(1,pttab->zu.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->zu.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->zu.to);
} else if (cmpncs(member, "tunits") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->tu.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->tu.x=gnorm(0,pttab->tu.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->tu.y=gnorm(1,pttab->tu.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->tu.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->tu.to);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the VCS template form (Pf) member value.
*/
static PyObject *
PyVCS_getPfmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Pf_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PF=NULL, *MEMBER=NULL, *ATTRIBUTE;
struct p_tab *pttab;
extern struct p_tab Pic_tab;
extern float gnorm();
if(PyArg_ParseTuple(args,"|OOO",&PF, &MEMBER, &ATTRIBUTE)) {
if (PF == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct template object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PF,"name", "s", &Pf_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pf_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pf_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "xvalue") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->xv.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->xv.x=gnorm(0,pttab->xv.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->xv.y=gnorm(1,pttab->xv.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "format") == 0)
return Py_BuildValue("s",pttab->xv.fmt);
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->xv.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->xv.to);
} else if (cmpncs(member, "yvalue") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->yv.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->yv.x=gnorm(0,pttab->yv.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->yv.y=gnorm(1,pttab->yv.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "format") == 0)
return Py_BuildValue("s",pttab->yv.fmt);
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->yv.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->yv.to);
} else if (cmpncs(member, "zvalue") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->zv.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->zv.x=gnorm(0,pttab->zv.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->zv.y=gnorm(1,pttab->zv.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "format") == 0)
return Py_BuildValue("s",pttab->zv.fmt);
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->zv.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->zv.to);
} else if (cmpncs(member, "tvalue") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->tv.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->tv.x=gnorm(0,pttab->tv.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->tv.y=gnorm(1,pttab->tv.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "format") == 0)
return Py_BuildValue("s",pttab->tv.fmt);
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->tv.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->tv.to);
} else if (cmpncs(member, "mean") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->mean.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->mean.x=gnorm(0,pttab->mean.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->mean.y=gnorm(1,pttab->mean.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "format") == 0)
return Py_BuildValue("s",pttab->mean.fmt);
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->mean.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->mean.to);
} else if (cmpncs(member, "min") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->min.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->min.x=gnorm(0,pttab->min.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->min.y=gnorm(1,pttab->min.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "format") == 0)
return Py_BuildValue("s",pttab->min.fmt);
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->min.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->min.to);
} else if (cmpncs(member, "max") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->max.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->max.x=gnorm(0,pttab->max.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->max.y=gnorm(1,pttab->max.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "format") == 0)
return Py_BuildValue("s",pttab->max.fmt);
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->max.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->max.to);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the VCS template X - Tick Marks (Pxt) member value.
*/
static PyObject *
PyVCS_getPxtmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Pxt_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PXT=NULL, *MEMBER=NULL, *ATTRIBUTE;
struct p_tab *pttab;
extern struct p_tab Pic_tab;
extern float gnorm();
if(PyArg_ParseTuple(args,"|OOO",&PXT, &MEMBER, &ATTRIBUTE)) {
if (PXT == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct template object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PXT,"name", "s", &Pxt_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pxt_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pxt_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "xtic1") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->xt1.p);
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->xt1.y1=gnorm(1,pttab->xt1.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->xt1.y2=gnorm(1,pttab->xt1.y2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->xt1.ln);
} else if (cmpncs(member, "xtic2") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->xt2.p);
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->xt2.y1=gnorm(1,pttab->xt2.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->xt2.y2=gnorm(1,pttab->xt2.y2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->xt2.ln);
} else if (cmpncs(member, "xmintic1") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->xmta.p);
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->xmta.y1=gnorm(1,pttab->xmta.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->xmta.y2=gnorm(1,pttab->xmta.y2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->xmta.ln);
} else if (cmpncs(member, "xmintic2") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->xmtb.p);
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->xmtb.y1=gnorm(1,pttab->xmtb.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->xmtb.y2=gnorm(1,pttab->xmtb.y2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->xmtb.ln);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the VCS template Y - Tick Marks (Pyt) member value.
*/
static PyObject *
PyVCS_getPytmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Pyt_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PYT=NULL, *MEMBER=NULL, *ATTRIBUTE;
struct p_tab *pttab;
extern struct p_tab Pic_tab;
extern float gnorm();
if(PyArg_ParseTuple(args,"|OOO",&PYT, &MEMBER, &ATTRIBUTE)) {
if (PYT == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct template object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PYT,"name", "s", &Pyt_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pyt_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pyt_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "ytic1") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->yt1.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->yt1.x1=gnorm(0,pttab->yt1.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->yt1.x2=gnorm(0,pttab->yt1.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->yt1.ln);
} else if (cmpncs(member, "ytic2") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->yt2.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->yt2.x1=gnorm(0,pttab->yt2.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->yt2.x2=gnorm(0,pttab->yt2.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->yt2.ln);
} else if (cmpncs(member, "ymintic1") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->ymta.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->ymta.x1=gnorm(0,pttab->ymta.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->ymta.x2=gnorm(0,pttab->ymta.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->ymta.ln);
} else if (cmpncs(member, "ymintic2") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->ymtb.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->ymtb.x1=gnorm(0,pttab->ymtb.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->ymtb.x2=gnorm(0,pttab->ymtb.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->ymtb.ln);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the VCS template X - Labels (Pxl) member value.
*/
static PyObject *
PyVCS_getPxlmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Pxl_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PXL=NULL, *MEMBER=NULL, *ATTRIBUTE;
struct p_tab *pttab;
extern struct p_tab Pic_tab;
extern float gnorm();
if(PyArg_ParseTuple(args,"|OOO",&PXL, &MEMBER, &ATTRIBUTE)) {
if (PXL == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct template object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PXL,"name", "s", &Pxl_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pxl_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pxl_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "xlabel1") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->xl1.p);
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->xl1.y=gnorm(1,pttab->xl1.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->xl1.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->xl1.to);
} else if (cmpncs(member, "xlabel2") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->xl2.p);
else if (cmpncs(attribute, "y") == 0)
return Py_BuildValue("f",pttab->xl2.y=gnorm(1,pttab->xl2.y,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->xl2.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->xl2.to);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the VCS template Y - Labels (Pyl) member value.
*/
static PyObject *
PyVCS_getPylmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Pyl_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PYL=NULL, *MEMBER=NULL, *ATTRIBUTE;
struct p_tab *pttab;
extern struct p_tab Pic_tab;
extern float gnorm();
if(PyArg_ParseTuple(args,"|OOO",&PYL, &MEMBER, &ATTRIBUTE)) {
if (PYL == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct template object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PYL,"name", "s", &Pyl_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pyl_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pyl_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "ylabel1") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->yl1.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->yl1.x=gnorm(0,pttab->yl1.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->yl1.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->yl1.to);
} else if (cmpncs(member, "ylabel2") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->yl2.p);
else if (cmpncs(attribute, "x") == 0)
return Py_BuildValue("f",pttab->yl2.x=gnorm(0,pttab->yl2.x,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->yl2.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->yl2.to);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the VCS template Boxes and - Lines (Pbl) member value.
*/
static PyObject *
PyVCS_getPblmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Pbl_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PBL=NULL, *MEMBER=NULL, *ATTRIBUTE;
struct p_tab *pttab;
extern struct p_tab Pic_tab;
extern float gnorm();
if(PyArg_ParseTuple(args,"|OOO",&PBL, &MEMBER, &ATTRIBUTE)) {
if (PBL == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct template object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PBL,"name", "s", &Pbl_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pbl_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pbl_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "box1") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->b1.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->b1.x1=gnorm(0,pttab->b1.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->b1.y1=gnorm(1,pttab->b1.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->b1.x2=gnorm(0,pttab->b1.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->b1.y2=gnorm(1,pttab->b1.y2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->b1.ln);
} else if (cmpncs(member, "box2") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->b2.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->b2.x1=gnorm(0,pttab->b2.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->b2.y1=gnorm(1,pttab->b2.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->b2.x2=gnorm(0,pttab->b2.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->b2.y2=gnorm(1,pttab->b2.y2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->b2.ln);
} else if (cmpncs(member, "box3") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->b3.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->b3.x1=gnorm(0,pttab->b3.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->b3.y1=gnorm(1,pttab->b3.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->b3.x2=gnorm(0,pttab->b3.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->b3.y2=gnorm(1,pttab->b3.y2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->b3.ln);
} else if (cmpncs(member, "box4") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->b4.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->b4.x1=gnorm(0,pttab->b4.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->b4.y1=gnorm(1,pttab->b4.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->b4.x2=gnorm(0,pttab->b4.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->b4.y2=gnorm(1,pttab->b4.y2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->b4.ln);
} else if (cmpncs(member, "line1") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->l1.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->l1.x1=gnorm(0,pttab->l1.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->l1.y1=gnorm(1,pttab->l1.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->l1.x2=gnorm(0,pttab->l1.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->l1.y2=gnorm(1,pttab->l1.y2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->l1.ln);
} else if (cmpncs(member, "line2") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->l2.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->l2.x1=gnorm(0,pttab->l2.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->l2.y1=gnorm(1,pttab->l2.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->l2.x2=gnorm(0,pttab->l2.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->l2.y2=gnorm(1,pttab->l2.y2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->l2.ln);
} else if (cmpncs(member, "line3") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->l3.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->l3.x1=gnorm(0,pttab->l3.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->l3.y1=gnorm(1,pttab->l3.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->l3.x2=gnorm(0,pttab->l3.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->l3.y2=gnorm(1,pttab->l3.y2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->l3.ln);
} else if (cmpncs(member, "line4") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->l4.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->l4.x1=gnorm(0,pttab->l4.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->l4.y1=gnorm(1,pttab->l4.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->l4.x2=gnorm(0,pttab->l4.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->l4.y2=gnorm(1,pttab->l4.y2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->l4.ln);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the VCS template Legend Space (Pls) member value.
*/
static PyObject *
PyVCS_getPlsmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Pls_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PLS=NULL, *MEMBER=NULL, *ATTRIBUTE;
struct p_tab *pttab;
extern struct p_tab Pic_tab;
extern float gnorm();
if(PyArg_ParseTuple(args,"|OOO",&PLS, &MEMBER, &ATTRIBUTE)) {
if (PLS == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct template object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PLS,"name", "s", &Pls_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pls_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pls_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "legend") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->leg.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->leg.x1 = gnorm(0,pttab->leg.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->leg.y1 = gnorm(1,pttab->leg.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->leg.x2 = gnorm(0,pttab->leg.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->leg.y2 = gnorm(1,pttab->leg.y2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "texttable") == 0)
return Py_BuildValue("s",pttab->leg.tb);
else if (cmpncs(attribute, "textorientation") == 0)
return Py_BuildValue("s",pttab->leg.to);
else if (cmpncs(attribute, "line") == 0)
return Py_BuildValue("s",pttab->leg.ln);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the VCS template Display Space (Pds) member value.
*/
static PyObject *
PyVCS_getPdsmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Pds_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PDS=NULL, *MEMBER=NULL, *ATTRIBUTE;
struct p_tab *pttab;
extern struct p_tab Pic_tab;
extern float gnorm();
if(PyArg_ParseTuple(args,"|OOO",&PDS, &MEMBER, &ATTRIBUTE)) {
if (PDS == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct template object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PDS,"name", "s", &Pds_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pds_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pds_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "data") == 0) {
if (cmpncs(attribute, "priority") == 0)
return Py_BuildValue("i",pttab->dsp.p);
else if (cmpncs(attribute, "x1") == 0)
return Py_BuildValue("f",pttab->dsp.x1 = gnorm(0,pttab->dsp.x1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y1") == 0)
return Py_BuildValue("f",pttab->dsp.y1 = gnorm(1,pttab->dsp.y1,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "x2") == 0)
return Py_BuildValue("f",pttab->dsp.x2 = gnorm(0,pttab->dsp.x2,pttab->normalized_flg,pttab->orientation_flg));
else if (cmpncs(attribute, "y2") == 0)
return Py_BuildValue("f",pttab->dsp.y2 = gnorm(1,pttab->dsp.y2,pttab->normalized_flg,pttab->orientation_flg));
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Set the template normalization flag to 1.
*/
static PyObject *
PyVCS_set_normalized_flag(self, args)
PyObject *self;
PyObject *args;
{
char *P_NAME=NULL;
struct p_tab *ptab;
extern struct p_tab Pic_tab;
if(PyArg_ParseTuple(args,"|s", &P_NAME)) {
if (P_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide template method name.");
return NULL;
}
}
for (ptab = &Pic_tab; ptab != NULL; ptab = ptab->next)
if (strcmp(ptab->name,P_NAME) == 0) break;
ptab->normalized_flg = 1;
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the template normalization flag (i.e., 0 - not normalized or 1 -normalized).
*/
static PyObject *
PyVCS_return_normalized_flag(self, args)
PyObject *self;
PyObject *args;
{
char *P_NAME=NULL;
struct p_tab *ptab;
extern struct p_tab Pic_tab;
if(PyArg_ParseTuple(args,"|s", &P_NAME)) {
if (P_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide template method name.");
return NULL;
}
}
for (ptab = &Pic_tab; ptab != NULL; ptab = ptab->next)
if (strcmp(ptab->name,P_NAME) == 0) break;
/* Return the normalized flag value as a Python Object */
return Py_BuildValue("i", ptab->normalized_flg);
}
/*
* Find the existing template orientation and set its members.
*/
static PyObject *
PyVCS_setPomember(self, args)
PyObject *self;
PyObject *args;
{
int MODE;
char *Pt_name, buf[1024];
PyObject *PT=NULL, *VALUE=NULL;
struct p_tab *pttab, *get_ptab=NULL;
extern struct p_tab Pic_tab;
extern struct p_tab *getP();
extern int chk_mov_P();
if(PyArg_ParseTuple(args,"|Oi", &PT, &VALUE)) {
if (PT == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(PT,"name", "s", &Pt_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pt_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pt_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
get_ptab = getP(pttab->name);
get_ptab->orientation_flg = (int) VALUE;
chk_mov_P(get_ptab,1);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing template text method and set its members.
*/
static PyObject *
PyVCS_setPtmember(self, args)
PyObject *self;
PyObject *args;
{
int MODE;
char *Pt_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PT=NULL, *MEMBER=NULL, *ATTRIBUTE=NULL, *VALUE=NULL;
struct p_tab *pttab, *get_ptab=NULL;
extern struct p_tab Pic_tab;
extern struct p_tab *getP();
extern int update_ind;
extern int vcs_canvas_update();
extern int chk_mov_P();
if(PyArg_ParseTuple(args,"|OOOOi",&PT,&MEMBER,&ATTRIBUTE,&VALUE,&MODE)) {
if (PT == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PT,"name", "s", &Pt_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pt_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pt_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
/*
* Set the template attribute. But first
* get the template structure.
*/
get_ptab = getP(pttab->name);
if (cmpncs(member, "file") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->F.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->F.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->F.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->F.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->F.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "function") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->f.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->f.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->f.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->f.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->f.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "logicalmask") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->lmask.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->lmask.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->lmask.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->lmask.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->lmask.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "transformation") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->trnf.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->trnf.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->trnf.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->trnf.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->trnf.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "source") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->s.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->s.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->s.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->s.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->s.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "dataname") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->n.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->n.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->n.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->n.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->n.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "title") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->ti.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->ti.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->ti.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->ti.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->ti.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "units") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->u.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->u.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->u.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->u.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->u.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "crdate") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->crd.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->crd.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->crd.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->crd.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->crd.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "crtime") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->crt.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->crt.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->crt.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->crt.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->crt.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "comment1") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->com1.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->com1.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->com1.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->com1.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->com1.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "comment2") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->com2.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->com2.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->com2.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->com2.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->com2.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "comment3") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->com3.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->com3.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->com3.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->com3.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->com3.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "comment4") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->com4.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->com4.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->com4.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->com4.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->com4.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "xname") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->xn.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->xn.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->xn.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->xn.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->xn.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "yname") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->yn.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->yn.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->yn.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->yn.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->yn.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "zname") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->zn.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->zn.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->zn.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->zn.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->zn.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "tname") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->tn.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->tn.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->tn.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->tn.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->tn.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "xunits") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->xu.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->xu.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->xu.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->xu.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->xu.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "yunits") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->yu.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->yu.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->yu.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->yu.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->yu.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "zunits") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->zu.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->zu.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->zu.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->zu.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->zu.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "tunits") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->tu.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->tu.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->tu.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->tu.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->tu.to, PyString_AsString(VALUE));
}
chk_mov_P(get_ptab,1);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing template format method and set its members.
*/
static PyObject *
PyVCS_setPfmember(self, args)
PyObject *self;
PyObject *args;
{
int MODE;
char *Pf_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PF=NULL, *MEMBER=NULL, *ATTRIBUTE=NULL, *VALUE=NULL;
struct p_tab *pttab, *get_ptab=NULL;
extern struct p_tab Pic_tab;
extern struct p_tab *getP();
extern int update_ind;
extern int vcs_canvas_update();
extern int chk_mov_P();
if(PyArg_ParseTuple(args,"|OOOOi",&PF,&MEMBER,&ATTRIBUTE,&VALUE,&MODE)) {
if (PF == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PF,"name", "s", &Pf_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pf_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pf_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
/*
* Set the template attribute. But first
* get the template structure.
*/
get_ptab = getP(pttab->name);
if (cmpncs(member, "xvalue") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->xv.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->xv.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->xv.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "format") == 0)
strcpy(get_ptab->xv.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->xv.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->xv.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "yvalue") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->yv.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->yv.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->yv.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "format") == 0)
strcpy(get_ptab->yv.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->yv.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->yv.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "zvalue") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->zv.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->zv.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->zv.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "format") == 0)
strcpy(get_ptab->zv.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->zv.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->zv.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "tvalue") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->tv.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->tv.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->tv.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "format") == 0)
strcpy(get_ptab->tv.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->tv.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->tv.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "mean") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->mean.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->mean.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->mean.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "format") == 0)
strcpy(get_ptab->mean.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->mean.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->mean.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "min") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->min.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->min.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->min.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "format") == 0)
strcpy(get_ptab->min.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->min.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->min.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "max") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->max.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->max.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->max.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "format") == 0)
strcpy(get_ptab->max.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->max.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->max.to, PyString_AsString(VALUE));
}
chk_mov_P(get_ptab,1);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing template X - tick marks method and set its members.
*/
static PyObject *
PyVCS_setPxtmember(self, args)
PyObject *self;
PyObject *args;
{
int MODE;
char *Pxt_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PXT=NULL, *MEMBER=NULL, *ATTRIBUTE=NULL, *VALUE=NULL;
struct p_tab *pttab, *get_ptab=NULL;
extern struct p_tab Pic_tab;
extern struct p_tab *getP();
extern int update_ind;
extern int vcs_canvas_update();
extern int chk_mov_P();
if(PyArg_ParseTuple(args,"|OOOOi",&PXT,&MEMBER,&ATTRIBUTE,&VALUE,&MODE)) {
if (PXT == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PXT,"name", "s", &Pxt_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pxt_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pxt_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
/*
* Set the template attribute. But first
* get the template structure.
*/
get_ptab = getP(pttab->name);
if (cmpncs(member, "xtic1") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->xt1.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->xt1.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->xt1.y2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->xt1.ln, PyString_AsString(VALUE));
} else if (cmpncs(member, "xtic2") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->xt2.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->xt2.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->xt2.y2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->xt2.ln, PyString_AsString(VALUE));
} else if (cmpncs(member, "xmintic1") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->xmta.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->xmta.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->xmta.y2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->xmta.ln, PyString_AsString(VALUE));
} else if (cmpncs(member, "xmintic2") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->xmtb.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->xmtb.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->xmtb.y2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->xmtb.ln, PyString_AsString(VALUE));
}
chk_mov_P(get_ptab,1);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing template Y - tick marks method and set its members.
*/
static PyObject *
PyVCS_setPytmember(self, args)
PyObject *self;
PyObject *args;
{
int MODE;
char *Pyt_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PYT=NULL, *MEMBER=NULL, *ATTRIBUTE=NULL, *VALUE=NULL;
struct p_tab *pttab, *get_ptab=NULL;
extern struct p_tab Pic_tab;
extern struct p_tab *getP();
extern int update_ind;
extern int vcs_canvas_update();
extern int chk_mov_P();
if(PyArg_ParseTuple(args,"|OOOOi",&PYT,&MEMBER,&ATTRIBUTE,&VALUE,&MODE)) {
if (PYT == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PYT,"name", "s", &Pyt_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pyt_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pyt_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
/*
* Set the template attribute. But first
* get the template structure.
*/
get_ptab = getP(pttab->name);
if (cmpncs(member, "ytic1") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->yt1.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->yt1.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->yt1.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->yt1.ln, PyString_AsString(VALUE));
} else if (cmpncs(member, "ytic2") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->yt2.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->yt2.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->yt2.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->yt2.ln, PyString_AsString(VALUE));
} else if (cmpncs(member, "ymintic1") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->ymta.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->ymta.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->ymta.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->ymta.ln, PyString_AsString(VALUE));
} else if (cmpncs(member, "ymintic2") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->ymtb.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->ymtb.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->ymtb.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->ymtb.ln, PyString_AsString(VALUE));
}
chk_mov_P(get_ptab,1);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing template X - labels method and set its members.
*/
static PyObject *
PyVCS_setPxlmember(self, args)
PyObject *self;
PyObject *args;
{
int MODE;
char *Pxl_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PXL=NULL, *MEMBER=NULL, *ATTRIBUTE=NULL, *VALUE=NULL;
struct p_tab *pttab, *get_ptab=NULL;
extern struct p_tab Pic_tab;
extern struct p_tab *getP();
extern int update_ind;
extern int vcs_canvas_update();
extern int chk_mov_P();
if(PyArg_ParseTuple(args,"|OOOOi",&PXL,&MEMBER,&ATTRIBUTE,&VALUE,&MODE)) {
if (PXL == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PXL,"name", "s", &Pxl_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pxl_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pxl_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
/*
* Set the template attribute. But first
* get the template structure.
*/
get_ptab = getP(pttab->name);
if (cmpncs(member, "xlabel1") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->xl1.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->xl1.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->xl1.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->xl1.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "xlabel2") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->xl2.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "y") == 0)
get_ptab->xl2.y = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->xl2.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->xl2.to, PyString_AsString(VALUE));
}
chk_mov_P(get_ptab,1);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing template Y - labels method and set its members.
*/
static PyObject *
PyVCS_setPylmember(self, args)
PyObject *self;
PyObject *args;
{
int MODE;
char *Pyl_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PYL=NULL, *MEMBER=NULL, *ATTRIBUTE=NULL, *VALUE=NULL;
struct p_tab *pttab, *get_ptab=NULL;
extern struct p_tab Pic_tab;
extern struct p_tab *getP();
extern int update_ind;
extern int vcs_canvas_update();
extern int chk_mov_P();
if(PyArg_ParseTuple(args,"|OOOOi",&PYL,&MEMBER,&ATTRIBUTE,&VALUE,&MODE)) {
if (PYL == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PYL,"name", "s", &Pyl_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pyl_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pyl_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
/*
* Set the template attribute. But first
* get the template structure.
*/
get_ptab = getP(pttab->name);
if (cmpncs(member, "ylabel1") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->yl1.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->yl1.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->yl1.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->yl1.to, PyString_AsString(VALUE));
} else if (cmpncs(member, "ylabel2") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->yl2.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x") == 0)
get_ptab->yl2.x = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->yl2.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->yl2.to, PyString_AsString(VALUE));
}
chk_mov_P(get_ptab,1);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing template boxes and lines method and set its members.
*/
static PyObject *
PyVCS_setPblmember(self, args)
PyObject *self;
PyObject *args;
{
int MODE;
char *Pbl_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PBL=NULL, *MEMBER=NULL, *ATTRIBUTE=NULL, *VALUE=NULL;
struct p_tab *pttab, *get_ptab=NULL;
extern struct p_tab Pic_tab;
extern struct p_tab *getP();
extern int update_ind;
extern int vcs_canvas_update();
extern int chk_mov_P();
if(PyArg_ParseTuple(args,"|OOOOi",&PBL,&MEMBER,&ATTRIBUTE,&VALUE,&MODE)) {
if (PBL == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PBL,"name", "s", &Pbl_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pbl_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pbl_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
/*
* Set the template attribute. But first
* get the template structure.
*/
get_ptab = getP(pttab->name);
if (cmpncs(member, "box1") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->b1.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->b1.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->b1.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->b1.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->b1.y2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->b1.ln, PyString_AsString(VALUE));
} else if (cmpncs(member, "box2") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->b2.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->b2.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->b2.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->b2.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->b2.y2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->b2.ln, PyString_AsString(VALUE));
} else if (cmpncs(member, "box3") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->b3.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->b3.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->b3.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->b3.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->b3.y2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->b3.ln, PyString_AsString(VALUE));
} else if (cmpncs(member, "box4") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->b4.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->b4.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->b4.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->b4.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->b4.y2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->b4.ln, PyString_AsString(VALUE));
} else if (cmpncs(member, "line1") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->l1.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->l1.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->l1.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->l1.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->l1.y2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->l1.ln, PyString_AsString(VALUE));
} else if (cmpncs(member, "line2") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->l2.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->l2.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->l2.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->l2.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->l2.y2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->l2.ln, PyString_AsString(VALUE));
} else if (cmpncs(member, "line3") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->l3.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->l3.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->l3.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->l3.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->l3.y2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->l3.ln, PyString_AsString(VALUE));
} else if (cmpncs(member, "line4") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->l4.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->l4.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->l4.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->l4.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->l4.y2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->l4.ln, PyString_AsString(VALUE));
}
chk_mov_P(get_ptab,1);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing template legend space method and set its members.
*/
static PyObject *
PyVCS_setPlsmember(self, args)
PyObject *self;
PyObject *args;
{
int MODE;
char *Pls_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PLS=NULL, *MEMBER=NULL, *ATTRIBUTE=NULL, *VALUE=NULL;
struct p_tab *pttab, *get_ptab=NULL;
extern struct p_tab Pic_tab;
extern struct p_tab *getP();
extern int update_ind;
extern int vcs_canvas_update();
extern int chk_mov_P();
if(PyArg_ParseTuple(args,"|OOOOi",&PLS,&MEMBER,&ATTRIBUTE,&VALUE,&MODE)) {
if (PLS == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PLS,"name", "s", &Pls_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pls_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pls_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
/*
* Set the template attribute. But first
* get the template structure.
*/
get_ptab = getP(pttab->name);
if (cmpncs(member, "legend") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->leg.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->leg.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->leg.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->leg.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->leg.y2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "line") == 0)
strcpy(get_ptab->leg.ln, PyString_AsString(VALUE));
else if (cmpncs(attribute, "texttable") == 0)
strcpy(get_ptab->leg.tb, PyString_AsString(VALUE));
else if (cmpncs(attribute, "textorientation") == 0)
strcpy(get_ptab->leg.to, PyString_AsString(VALUE));
}
chk_mov_P(get_ptab,1);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing template data space method and set its members.
*/
static PyObject *
PyVCS_setPdsmember(self, args)
PyObject *self;
PyObject *args;
{
int MODE;
char *Pds_name, *member=NULL, *attribute=NULL, buf[1024];
PyObject *PDS=NULL, *MEMBER=NULL, *ATTRIBUTE=NULL, *VALUE=NULL;
struct p_tab *pttab, *get_ptab=NULL;
extern struct p_tab Pic_tab;
extern struct p_tab *getP();
extern int update_ind;
extern int vcs_canvas_update();
extern int chk_mov_P();
if(PyArg_ParseTuple(args,"|OOOOi",&PDS,&MEMBER,&ATTRIBUTE,&VALUE,&MODE)) {
if (PDS == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
if (ATTRIBUTE != NULL) {
attribute = PyString_AsString(ATTRIBUTE);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply an attribute name.");
return NULL;
}
}
Get_Member(PDS,"name", "s", &Pds_name);
pttab=&Pic_tab;
while ((pttab != NULL) &&
(strcmp(pttab->name, Pds_name) != 0))
pttab = pttab->next;
if (pttab == NULL) {
sprintf(buf,"Cannot find template method P_%s.",Pds_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
/*
* Set the template attribute. But first
* get the template structure.
*/
get_ptab = getP(pttab->name);
if (cmpncs(member, "data") == 0) {
if (cmpncs(attribute, "priority") == 0)
get_ptab->dsp.p = (int) PyInt_AsLong(VALUE);
else if (cmpncs(attribute, "x1") == 0)
get_ptab->dsp.x1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y1") == 0)
get_ptab->dsp.y1 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "x2") == 0)
get_ptab->dsp.x2 = (float) PyFloat_AsDouble(VALUE);
else if (cmpncs(attribute, "y2") == 0)
get_ptab->dsp.y2 = (float) PyFloat_AsDouble(VALUE);
}
chk_mov_P(get_ptab,1);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Copy the values from the temporary template to the
* real template (ie. copy .ASD001 to ASD)
*/
static PyObject *
PyVCS_syncP(self,args)
PyObject *self;
PyObject *args;
{
int ierr;
char *P_SRC=NULL, *P_NAME=NULL;
char copy_name[1024];
extern struct p_tab Pic_tab;
struct p_tab *ptab,*gtab;
extern int copyP_attr();
if(PyArg_ParseTuple(args,"|ss", &P_SRC, &P_NAME))
{
if (P_SRC == NULL)
{
PyErr_SetString(PyExc_TypeError, "Must provide source template method name.");
return NULL;
}
if (P_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", P_NAME);
if (strcmp(P_NAME,"default") == 0)
{
PyErr_SetString(PyExc_ValueError,"Cannot change default template.");
return NULL;
}
}
for (ptab = &Pic_tab; ptab != NULL; ptab = ptab->next)
if (strcmp(ptab->name,P_SRC) == 0) break;
for (gtab = &Pic_tab; gtab != NULL; gtab = gtab->next)
if (strcmp(gtab->name,P_NAME) == 0) break;
copyP_attr(gtab,ptab);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new template method by copying from an existing
* template method. If no source copy name argument is given,
* then the default template method will be used to replicate
* the new template method.
*/
static PyObject *
PyVCS_copyP(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *P_SRC=NULL, *P_NAME=NULL;
char copy_name[1024];
extern int copy_P_name();
if(PyArg_ParseTuple(args,"|ss", &P_SRC, &P_NAME)) {
if (P_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source template method name.");
return NULL;
}
if (P_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", P_NAME);
}
ierr = copy_P_name(P_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating template method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Get a Python dictionary object and convert its key values to VCS's
* data values. Then convert the dictionary's values to the to VCS's
* string values. Return the new VCS list name.
*/
char *
return_vcs_list(VALUE, member)
PyObject *VALUE;
char *member;
{
int i,j,ct=1,list_name_found=1;
char *list_name, *value_str, buf[1024];
struct l_val *tval, *hval=NULL, *pval;
struct l_tab *ptab;
PyObject *itempk,*itempv,*pkeys,*pvalues;
extern struct l_tab L_tab[2];
extern int chk_mov_L();
i = PyDict_Size(VALUE);
pkeys = PyDict_Keys(VALUE);
pvalues = PyDict_Values(VALUE);
for (j = 0; j < i; j++) {
/* malloc the VCS list structure */
if ((tval=(struct l_val *) malloc(sizeof(*tval))) == NULL) {
PyErr_SetString(PyExc_MemoryError, "Error - can't allocate memory for new VCS list!");
return NULL;
}
/* Set the data value for the list */
itempk=PyList_GetItem(pkeys, j);
if (PyInt_Check(itempk)) {
tval->data = (float) PyInt_AsLong(itempk);
} else if (PyFloat_Check(itempk)) {
tval->data = (float) PyFloat_AsDouble(itempk);
} else {
PyErr_SetString(PyExc_IndexError, "Invalid dictionary key value.");
return NULL;
}
/* Set the string value for the list */
itempv=PyList_GetItem(pvalues, j);
if (PyString_Check(itempv))
value_str = PyString_AsString(itempv);
else {
PyErr_SetString(PyExc_IndexError, "Invalid dictionary string value.");
return NULL;
}
tval->str = (char *) malloc(strlen(value_str) * sizeof(char) + 1);
strcpy(tval->str, value_str);
/* Set the next list pointer to NIL */
tval->next = NULL;
/* Put the structure into the link list */
if (hval != NULL) {
pval->next = tval;
pval = tval;
} else
hval = pval = tval;
}
/* create a unique name for the new VCS list */
list_name = (char *) malloc(strlen(member)+1);
strcpy(list_name, member);
while (list_name_found) {
list_name_found=0;
ptab=&L_tab[0];
while (ptab != NULL) {
if (cmpncs(ptab->name,list_name) == 0) {
list_name_found = 1;
free((char *) list_name);
sprintf(buf,"%s_%d",member, ct++);
list_name = (char *) malloc(strlen(buf)+1);
strcpy(list_name, buf);
break;
} else
ptab=ptab->next;
}
}
/* Create new list entry */
if ((ptab=(struct l_tab *) malloc(sizeof(L_tab))) == NULL) {
PyErr_SetString(PyExc_MemoryError, "Error - can't allocate memory for new VCS list!");
return NULL;
}
strcpy(ptab->name, list_name);
free((char *) list_name);
ptab->count = i;
ptab->val = hval;
ptab->next = NULL;
/* Put the new VCS list into the list table */
chk_mov_L(ptab);
/* Set value_str */
return (ptab->name);
}
/*
* Creates a vcs internal list from an existing dictionary
*/
static PyObject *
PyVCS_dictionarytovcslist(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *name=NULL;
PyObject *Pydic=NULL;
if(PyArg_ParseTuple(args,"|Os",&Pydic, &name)) {
if (Pydic == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
}
if (PyDict_Check(Pydic)!=1)
{
PyErr_SetString(PyExc_TypeError, "Not correct object type, should be a dictionary.");
return NULL;
}
name = return_vcs_list(Pydic,name);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the VCS list names as a Python list.
*/
PyObject *
PyVCS_list_to_PyDict(char * list_name)
{
int i;
PyObject *dictptr=NULL;
struct l_tab *ptab;
struct l_val *pv, *npv, *ppv, *hpv=NULL;
extern struct l_tab L_tab[2];
for (ptab=&L_tab[0]; ptab != NULL; ptab=ptab->next) {
if (cmpnbl(list_name,ptab->name) == 0) {
/* No need to sort since Python won't keep the order anyway....
* Sort the VCS list from smallest value to largest *
for (i=0, pv=ptab->val; i<ptab->count; i++, pv = pv->next) {
if ((npv=(struct l_val *)malloc(sizeof(struct l_val)))==NULL) {
PyErr_SetString(PyExc_TypeError, "Error - out of memory for getting List values./n");
return NULL;
}
if ((npv->str=(char *)malloc(strlen(pv->str)+1))==NULL) {
PyErr_SetString(PyExc_TypeError, "Error - out of memory for getting List values./n");
return NULL;
}
npv->data=pv->data;
strcpy(npv->str,pv->str);
npv->next=NULL;
if (hpv == NULL)
hpv = ppv = npv;
else {
for (ppv=hpv; ppv != NULL; ppv=ppv->next) {
if ((hpv->data >= npv->data)) {
npv->next = hpv;
hpv = npv;
break;
} else if ((ppv->next != NULL) && (ppv->next->data >= npv->data)) {
npv->next = ppv->next;
ppv->next = npv;
break;
} else if (ppv->next == NULL) {
ppv->next = npv;
break;
}
}
}
}
*/
/* Create the Python Dictionary */
dictptr = PyDict_New( );
for (i=0, pv=ptab->val; i<ptab->count; i++, pv = pv->next)
PyDict_SetItem(dictptr, Py_BuildValue("f",pv->data), Py_BuildValue("s",pv->str));
/* Remove the created link list *
pv = hpv;
while (pv != NULL) {
npv = pv;
pv = pv->next;
free((char *) npv->str);
free((char *) npv);
}
*/
}
}
/* Return the Python Dictionary of VCS List values */
return dictptr;
}
/*
* Return the VCS boxfill (Gfb) graphics method member value.
*/
static PyObject *
PyVCS_getGfbmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Gfb_name, *member=NULL, buf[1024];
int i=0, ct=0;
PyObject *GFB=NULL, *MEMBER=NULL, *tup, *lp;
struct gfb_tab *gfbtab;
struct fill_range *pfiso=NULL;
extern struct gfb_tab Gfb_tab;
if(PyArg_ParseTuple(args,"|OO",&GFB, &MEMBER)) {
if (GFB == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(GFB,"name", "s", &Gfb_name);
gfbtab=&Gfb_tab;
while ((gfbtab != NULL) &&
(strcmp(gfbtab->name, Gfb_name) != 0))
gfbtab = gfbtab->next;
if (gfbtab == NULL) {
sprintf(buf,"Cannot find boxfill graphics method Gfb_%s.",Gfb_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0) {
return Py_BuildValue("s", gfbtab->pGfb_attr->proj);
} else if (cmpncs(member, "xticlabels1") == 0) {
return Py_BuildValue("s", gfbtab->pGfb_attr->xtl1);
} else if (cmpncs(member, "xticlabels2") == 0) {
return Py_BuildValue("s", gfbtab->pGfb_attr->xtl2);
} else if (cmpncs(member, "xmtics1") == 0) {
return Py_BuildValue("s", gfbtab->pGfb_attr->xmt1);
} else if (cmpncs(member, "xmtics2") == 0) {
return Py_BuildValue("s", gfbtab->pGfb_attr->xmt2);
} else if (cmpncs(member, "yticlabels1") == 0) {
return Py_BuildValue("s", gfbtab->pGfb_attr->ytl1);
} else if (cmpncs(member, "yticlabels2") == 0) {
return Py_BuildValue("s", gfbtab->pGfb_attr->ytl2);
} else if (cmpncs(member, "ymtics1") == 0) {
return Py_BuildValue("s", gfbtab->pGfb_attr->ymt1);
} else if (cmpncs(member, "ymtics2") == 0) {
return Py_BuildValue("s", gfbtab->pGfb_attr->ymt2);
} else if (cmpncs(member, "datawc_y1") == 0) {
return Py_BuildValue("f",gfbtab->pGfb_attr->dsp[1]);
} else if (cmpncs(member, "datawc_y2") == 0) {
return Py_BuildValue("f",gfbtab->pGfb_attr->dsp[3]);
} else if (cmpncs(member, "datawc_x1") == 0) {
return Py_BuildValue("f",gfbtab->pGfb_attr->dsp[0]);
} else if (cmpncs(member, "datawc_x2") == 0) {
return Py_BuildValue("f",gfbtab->pGfb_attr->dsp[2]);
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
return Py_BuildValue("i",gfbtab->pGfb_attr->idsp[1]);
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
return Py_BuildValue("i",gfbtab->pGfb_attr->idsp[3]);
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
return Py_BuildValue("i",gfbtab->pGfb_attr->idsp[0]);
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
return Py_BuildValue("i",gfbtab->pGfb_attr->idsp[2]);
} else if (cmpncs(member, "datawc_calendar") == 0) {
return Py_BuildValue("i",gfbtab->pGfb_attr->calendar);
} else if (cmpncs(member, "datawc_timeunits") == 0) {
return Py_BuildValue("s",gfbtab->pGfb_attr->timeunits);
} else if ((cmpncs(member, "xaxisconvert") == 0) &&
((cmpncs(gfbtab->pGfb_attr->xat,"\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "xaxisconvert") == 0) {
return Py_BuildValue("s", gfbtab->pGfb_attr->xat);
} else if ((cmpncs(member, "yaxisconvert") == 0) &&
((cmpncs(gfbtab->pGfb_attr->yat,"\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "yaxisconvert") == 0) {
return Py_BuildValue("s", gfbtab->pGfb_attr->yat);
} else if (cmpncs(member, "level_1") == 0) {
return Py_BuildValue("f", gfbtab->pGfb_attr->lev1);
} else if (cmpncs(member, "level_2") == 0) {
return Py_BuildValue("f", gfbtab->pGfb_attr->lev2);
} else if (cmpncs(member, "color_1") == 0) {
return Py_BuildValue("i", (int)gfbtab->pGfb_attr->color_1);
} else if (cmpncs(member, "color_2") == 0) {
return Py_BuildValue("i", gfbtab->pGfb_attr->color_2);
} else if (cmpncs(member, "boxfill_type") == 0) {
if (gfbtab->pGfb_attr->boxfill_type == 0)
return Py_BuildValue("s", "linear");
/* else if (gfbtab->pGfb_attr->boxfill_type == 1)
return Py_BuildValue("s", "list");*/
else if (gfbtab->pGfb_attr->boxfill_type == 2)
return Py_BuildValue("s", "log10");
else if (gfbtab->pGfb_attr->boxfill_type == 3)
return Py_BuildValue("s", "custom");
else
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "legend") == 0) {
if ((gfbtab->pGfb_attr->legend == NULL) || (cmpnbl(gfbtab->pGfb_attr->legend, "") == 0))
return Py_BuildValue("");
else
return PyVCS_list_to_PyDict(gfbtab->pGfb_attr->legend);
} else if (cmpncs(member, "ext_1") == 0) {
if (gfbtab->pGfb_attr->ext_1 == 110)
return Py_BuildValue("s", "n");
else if (gfbtab->pGfb_attr->ext_1 == 121)
return Py_BuildValue("s", "y");
} else if (cmpncs(member, "ext_2") == 0) {
if (gfbtab->pGfb_attr->ext_2 == 110)
return Py_BuildValue("s", "n");
else if (gfbtab->pGfb_attr->ext_2 == 121)
return Py_BuildValue("s", "y");
} else if (cmpncs(member, "missing") == 0) {
return Py_BuildValue("i", gfbtab->pGfb_attr->missing);
} else if (cmpncs(member, "levels") == 0) {
/* Get the box fill area structure */
pfiso = gfbtab->pGfb_attr->line;
while (pfiso != NULL) {
pfiso = pfiso->next;
ct++;
}
pfiso = gfbtab->pGfb_attr->line;
tup = PyTuple_New(ct);
while (pfiso != NULL) {
lp = Py_BuildValue("[d,d]", pfiso->lev1, pfiso->lev2);
PyTuple_SetItem(tup, i, lp);
pfiso = pfiso->next;
i++;
}
return tup;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new boxfill graphics method by copying from an existing
* boxfill graphics method. If no source copy name argument is given,
* then the default boxfill graphics method will be used to replicate
* the new boxfill graphics method.
*/
static PyObject *
PyVCS_copyGfb(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GFB_SRC=NULL, *GFB_NAME=NULL;
char copy_name[1024];
extern int copy_Gfb_name();
if(PyArg_ParseTuple(args,"|ss", &GFB_SRC, &GFB_NAME)) {
if (GFB_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source boxfill graphics method name.");
return NULL;
}
if (GFB_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", GFB_NAME);
}
ierr = copy_Gfb_name(GFB_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating boxfill graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing template method.
*/
static PyObject *
PyVCS_renameP(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *P_OLD_NAME=NULL, *P_NEW_NAME=NULL;
extern int renameP_name();
if(PyArg_ParseTuple(args,"|ss", &P_OLD_NAME, &P_NEW_NAME)) {
if ((P_OLD_NAME == NULL) || (P_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new template method name.");
return NULL;
}
}
ierr = renameP_name(P_OLD_NAME, P_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming template method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing template method.
*/
static PyObject *
PyVCS_removeP(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide a template name.");
return NULL;
}
}
/* Return Python String Object */
if (removeP_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed template object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The template object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Script out an existing template object.
*/
static PyObject *
PyVCS_scriptP(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *P_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_template();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &P_NAME, &SCRIPT_NAME, &MODE)) {
if (P_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the template name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_template(fp, P_NAME) == 0) {
sprintf(buf, "Error - Cannot save template script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Rename an existing boxfill graphics method.
*/
static PyObject *
PyVCS_renameGfb(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GFB_OLD_NAME=NULL, *GFB_NEW_NAME=NULL;
extern int renameGfb_name();
if(PyArg_ParseTuple(args,"|ss", &GFB_OLD_NAME, &GFB_NEW_NAME)) {
if ((GFB_OLD_NAME == NULL) || (GFB_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new boxfill graphics method name.");
return NULL;
}
}
ierr = renameGfb_name(GFB_OLD_NAME, GFB_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming boxfill graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing boxfill graphics method.
*/
static PyObject *
PyVCS_removeGfb(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the boxfill file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeGfb_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed boxfill object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The boxfill object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing boxfill graphics method.
*/
static PyObject *
PyVCS_scriptGfb(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *GFB_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_boxfill();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &GFB_NAME, &SCRIPT_NAME, &MODE)) {
if (GFB_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the boxfill name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_boxfill(fp, GFB_NAME) == 0) {
sprintf(buf, "Error - Cannot save boxfill script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Find the existing boxfill graphics method and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the graphics method's attribute will
* be changed.
*/
static PyObject *
PyVCS_setGfbmember(self, args)
PyObject *self;
PyObject *args;
{
int i,j=0,n,ct=0,sct=0,color_index,style_index;
int MODE, value_int;
long value_long;
float value_float;
double value_double;
char *Tf_name;
char buf[1024], *style;
char *Gfb_name, *str=NULL, *member=NULL;
char *value_str=NULL;
PyObject *GFB=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *listit,*tup, *sindices;
PyObject *itempk, *itempv, *pkeys, *pvalues;
struct gfb_tab *get_gfbtab=NULL;
/*static PyObject * PyVCS_backing_store(); Mac OS X 10.4 build didn't like this */
extern int update_ind;
struct fill_range *pfiso, *next_pfiso, *pfiso_new, *tpfiso;
struct gfb_tab *gfbtab;
extern struct gfb_tab Gfb_tab;
extern struct gfb_tab *getGfb();
extern int chk_mov_Gfb();
extern int vcs_canvas_update();
char * return_new_fillarea_attribute();
if(PyArg_ParseTuple(args,"|OOOi", &GFB, &MEMBER, &VALUE, &MODE)) {
if (GFB == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(GFB,"name", "s", &Gfb_name);
gfbtab=&Gfb_tab;
while ((gfbtab != NULL) &&
(strcmp(gfbtab->name, Gfb_name) != 0))
gfbtab = gfbtab->next;
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
/* sprintf(buf, "print 'member = %s'", member);
PyRun_SimpleString(buf);*/
}
if (VALUE != NULL) {
if (PyString_Check(VALUE)) { /*check string*/
value_str = PyString_AsString(VALUE);
/* sprintf(buf, "print 'value = %s'", value_str);
PyRun_SimpleString(buf);*/
} else if (PyInt_Check(VALUE)) { /*check for int*/
value_int = (int) PyInt_AsLong(VALUE);
/* sprintf(buf, "print 'value = %d'", value_int);
PyRun_SimpleString(buf);*/
} else if (PyFloat_Check(VALUE)) { /*check for float*/
value_float = (float) PyFloat_AsDouble(VALUE);
/* sprintf(buf, "print 'value = %g'", value_float);
PyRun_SimpleString(buf);*/
} else if (PyLong_Check(VALUE)) { /* check for long*/
value_long = PyLong_AsLong(VALUE);
/* sprintf(buf, "print 'value = %g'", value_long);
PyRun_SimpleString(buf);*/
} else if (PyFloat_Check(VALUE)) { /*check for double*/
value_double = PyFloat_AsDouble(VALUE);
/* sprintf(buf, "print 'value = %g'", value_double);
PyRun_SimpleString(buf);*/
} else if (PyDict_Check(VALUE)) { /*check for dictionary*/
value_str = return_vcs_list(VALUE, member);
}
}
/*
* Set the appropriate boxfill attribute. But first
* get the boxfill structure.
*/
get_gfbtab = getGfb(gfbtab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_gfbtab->pGfb_attr->proj, value_str);
} else if (cmpncs(member, "xticlabels1") == 0) {
strcpy(get_gfbtab->pGfb_attr->xtl1, value_str);
} else if (cmpncs(member, "xticlabels2") == 0) {
strcpy(get_gfbtab->pGfb_attr->xtl2, value_str);
} else if (cmpncs(member, "xmtics1") == 0) {
strcpy(get_gfbtab->pGfb_attr->xmt1, value_str);
} else if (cmpncs(member, "xmtics2") == 0) {
strcpy(get_gfbtab->pGfb_attr->xmt2, value_str);
} else if (cmpncs(member, "yticlabels1") == 0) {
strcpy(get_gfbtab->pGfb_attr->ytl1, value_str);
} else if (cmpncs(member, "yticlabels2") == 0) {
strcpy(get_gfbtab->pGfb_attr->ytl2, value_str);
} else if (cmpncs(member, "ymtics1") == 0) {
strcpy(get_gfbtab->pGfb_attr->ymt1, value_str);
} else if (cmpncs(member, "ymtics2") == 0) {
strcpy(get_gfbtab->pGfb_attr->ymt2, value_str);
} else if (cmpncs(member, "datawc_x1") == 0) {
get_gfbtab->pGfb_attr->dsp[0] = value_float;
} else if (cmpncs(member, "datawc_y1") == 0) {
get_gfbtab->pGfb_attr->dsp[1] = value_float;
} else if (cmpncs(member, "datawc_x2") == 0) {
get_gfbtab->pGfb_attr->dsp[2] = value_float;
} else if (cmpncs(member, "datawc_y2") == 0) {
get_gfbtab->pGfb_attr->dsp[3] = value_float;
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
get_gfbtab->pGfb_attr->idsp[0] = value_int;
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
get_gfbtab->pGfb_attr->idsp[1] = value_int;
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
get_gfbtab->pGfb_attr->idsp[2] = value_int;
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
get_gfbtab->pGfb_attr->idsp[3] = value_int;
} else if (cmpncs(member, "datawc_calendar") == 0) {
get_gfbtab->pGfb_attr->calendar = value_int;
} else if (cmpncs(member, "datawc_timeunits") == 0) {
strcpy(get_gfbtab->pGfb_attr->timeunits, value_str);
} else if (cmpncs(member, "xaxisconvert") == 0) {
strcpy(get_gfbtab->pGfb_attr->xat, value_str);
} else if (cmpncs(member, "yaxisconvert") == 0) {
strcpy(get_gfbtab->pGfb_attr->yat, value_str);
} else if (cmpncs(member, "level_1") == 0) {
get_gfbtab->pGfb_attr->lev1 = value_float;
} else if (cmpncs(member, "level_2") == 0) {
get_gfbtab->pGfb_attr->lev2 = value_float;
} else if (cmpncs(member, "color_1") == 0) {
get_gfbtab->pGfb_attr->color_1 = value_int;
} else if (cmpncs(member, "color_2") == 0) {
get_gfbtab->pGfb_attr->color_2 = value_int;
} else if (cmpncs(member, "boxfill_type") == 0) {
if (cmpncs(value_str, "linear") == 0)
get_gfbtab->pGfb_attr->boxfill_type = 0;
/* else if (cmpncs(value_str, "list") == 0)
get_gfbtab->pGfb_attr->boxfill_type = 1;*/
else if (cmpncs(value_str, "log10") == 0)
get_gfbtab->pGfb_attr->boxfill_type = 2;
else if (cmpncs(value_str, "custom") == 0)
get_gfbtab->pGfb_attr->boxfill_type = 3;
} else if (cmpncs(member, "legend") == 0) {
if (value_str != NULL) {
if (get_gfbtab->pGfb_attr->legend != NULL) {
free((char *) get_gfbtab->pGfb_attr->legend);
get_gfbtab->pGfb_attr->legend = NULL;
}
get_gfbtab->pGfb_attr->legend = (char *)malloc(strlen(value_str)*sizeof(char)+1);
strcpy(get_gfbtab->pGfb_attr->legend, value_str);
} else {
if (get_gfbtab->pGfb_attr->legend != NULL) {
free((char *) get_gfbtab->pGfb_attr->legend);
get_gfbtab->pGfb_attr->legend = NULL;
}
}
} else if (cmpncs(member, "ext_1") == 0) {
get_gfbtab->pGfb_attr->ext_1 = value_int;
} else if (cmpncs(member, "ext_2") == 0) {
get_gfbtab->pGfb_attr->ext_2 = value_int;
} else if (cmpncs(member, "missing") == 0) {
get_gfbtab->pGfb_attr->missing = value_int;
} else if (cmpncs(member, "levels") == 0) {
/* get the style values */
Get_Member(GFB,"fillareastyle", "s", &style);
/* get the style index values */
Get_Member(GFB,"fillareaindices", "O", &sindices);
/* get the color values */
Get_Member(GFB,"fillareacolors", "O", &listit);
/* Free the current fill_range link list */
pfiso = next_pfiso = get_gfbtab->pGfb_attr->line;
while (pfiso != NULL) {
next_pfiso = pfiso->next;
free ((char *) pfiso);
pfiso = next_pfiso;
}
get_gfbtab->pGfb_attr->line = tpfiso = NULL;
if (PyTuple_Check(VALUE)) { /*check for tuple*/
/* Create the new fill_range link list */
for (i=0; i<PyTuple_Size(VALUE); i++) {
tup = PyTuple_GetItem(VALUE, i);
if (PyList_Check(tup)) { /* check for list */
for (j=0; j<(PyList_Size(tup)-1); j++) {
/* malloc the new iso struct */
if ((pfiso_new = (struct fill_range *)malloc(
sizeof(struct fill_range)))==NULL) {
sprintf(buf,"No memory for new isofill id(%d).\n",i);
PyErr_SetString(PyExc_MemoryError, buf);
return NULL;
}
strcpy(pfiso_new->fill_name, "default");
if ((sindices==Py_None) || (sct>=PyList_Size(sindices))) {
if ((listit == Py_None) || (ct >= PyList_Size(listit)))
color_index = 16+ct;
else
color_index = (int) PyInt_AsLong(PyList_GetItem(listit,ct));
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfb_name, ct, style, 0, color_index));
} else if ((PyInt_Check(PyList_GetItem(sindices,sct))) ||
(PyFloat_Check(PyList_GetItem(sindices,sct)))) {
style_index = (int) PyInt_AsLong(PyList_GetItem(sindices,sct));
if ((listit == Py_None) || (ct >= PyList_Size(listit)))
color_index = 16+ct;
else
color_index = (int) PyInt_AsLong(PyList_GetItem(listit,ct));
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfb_name, ct, style, style_index, color_index));
} else { /* must be a fillarea object */
Tf_name = PyString_AsString(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, Tf_name);
}
pfiso_new->id = sct+1;
pfiso_new->lev1 = (float) PyFloat_AsDouble(PyList_GetItem(tup,j));
pfiso_new->lev2 = (float) PyFloat_AsDouble(PyList_GetItem(tup,j+1));
ct++;sct++;
pfiso_new->next = NULL;
/* Add to the new fill range link list */
if (tpfiso == NULL)
get_gfbtab->pGfb_attr->line = tpfiso = pfiso_new;
else {
tpfiso->next = pfiso_new;
tpfiso = pfiso_new;
}
}
} else {
if ((PyInt_Check(tup)) || (PyFloat_Check(tup))) {
/* malloc the new iso struct */
if ((pfiso_new = (struct fill_range *)malloc(
sizeof(struct fill_range)))==NULL) {
sprintf(buf,"No memory for new isofill id(%d).\n",i);
PyErr_SetString(PyExc_MemoryError, buf);
return NULL;
}
strcpy(pfiso_new->fill_name, "default");
if ((listit == Py_None) || (ct >= PyList_Size(listit)))
color_index = 16+ct;
else
color_index = (int) PyInt_AsLong(PyList_GetItem(listit,ct));
if ((sindices==Py_None) || (sct>=PyList_Size(sindices))) {
style_index = sct;
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfb_name, i, style, style_index, color_index));
} else if (PyInt_Check(PyList_GetItem(sindices,sct))) {
style_index = (int) PyInt_AsLong(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfb_name, i, style, style_index, color_index));
} else { /* must be a fillarea object */
Tf_name = PyString_AsString(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, Tf_name);
}
pfiso_new->id = sct+1;
pfiso_new->lev1 = (float) PyFloat_AsDouble(tup);
tup = PyTuple_GetItem(VALUE, i+1);
pfiso_new->lev2 = (float) PyFloat_AsDouble(tup);
ct++;sct++;
pfiso_new->next = NULL;
/* Add to the new fill range link list */
if (tpfiso == NULL)
get_gfbtab->pGfb_attr->line = tpfiso = pfiso_new;
else {
tpfiso->next = pfiso_new;
tpfiso = pfiso_new;
}
if (i == (PyTuple_Size(VALUE)-2)) break;
} else {
PyErr_SetString(PyExc_ValueError, "Must be either integer or float values.");
return NULL;
}
}
}
} else if (PyList_Check(VALUE)) { /* check for list */
/* Create the new fill_range link list */
for (j=0; j<(PyList_Size(VALUE)-1); j++) {
/* malloc the new iso struct */
if ((pfiso_new = (struct fill_range *)malloc(
sizeof(struct fill_range)))==NULL) {
sprintf(buf,"No memory for new boxfill id(%d).\n",j);
PyErr_SetString(PyExc_MemoryError, buf);
return NULL;
}
if ((listit == Py_None) || (ct >= PyList_Size(listit)))
color_index = 16+ct;
else
color_index = (int) PyInt_AsLong(PyList_GetItem(listit,ct));
if ((sindices==Py_None) || (sct>=PyList_Size(sindices))) {
style_index = sct;
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfb_name, j, style, style_index, color_index));
} else if (PyInt_Check(PyList_GetItem(sindices,sct))) {
style_index = (int) PyInt_AsLong(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfb_name, j, style, style_index, color_index));
} else { /* must be a fillarea object */
Tf_name = PyString_AsString(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, Tf_name);
}
pfiso_new->id = j;
pfiso_new->lev1 = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,j));
pfiso_new->lev2 = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,j+1));
ct++; sct++;
pfiso_new->next = NULL;
/* Add to the new fill range link list */
if (tpfiso == NULL)
get_gfbtab->pGfb_attr->line = tpfiso = pfiso_new;
else {
tpfiso->next = pfiso_new;
tpfiso = pfiso_new;
}
}
}
}
chk_mov_Gfb(get_gfbtab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/*
* Call the Set_Member function to assign the data
* member of the known object by name. This function
* can take all the common Python/C data conversion
* types: { "s" = char * : "i" = int : "l" = long :
* "c" = char : "f" = float : "d" = double:
* "O" = PyObject * .
*
* But in this case below, I am sending only the PyObject
* down. No need to convert to C then back to PyObject.
if (member!=NULL)
Set_Member(GFB, member, "O", VALUE);
*/
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the VCS isofill (Gfi) graphics method member value.
*/
static PyObject *
PyVCS_getGfimember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Gfi_name, *member=NULL, buf[1024];
int i=0, ct=0;
PyObject *GFI=NULL, *MEMBER=NULL, *tup, *lp;
struct gfi_tab *gfitab;
struct fill_range *pfiso=NULL;
extern struct gfi_tab Gfi_tab;
extern struct table_fill Tf_tab;
struct table_fill *ftab;
if(PyArg_ParseTuple(args,"|OO",&GFI, &MEMBER)) {
if (GFI == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(GFI,"name", "s", &Gfi_name);
gfitab=&Gfi_tab;
while ((gfitab != NULL) &&
(strcmp(gfitab->name, Gfi_name) != 0))
gfitab = gfitab->next;
if (gfitab == NULL) {
sprintf(buf,"Cannot find isofill graphics method Gfi_%s.",Gfi_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0) {
return Py_BuildValue("s", gfitab->pGfi_attr->proj);
} else if (cmpncs(member, "xticlabels1") == 0) {
return Py_BuildValue("s", gfitab->pGfi_attr->xtl1);
} else if (cmpncs(member, "xticlabels2") == 0) {
return Py_BuildValue("s", gfitab->pGfi_attr->xtl2);
} else if (cmpncs(member, "xmtics1") == 0) {
return Py_BuildValue("s", gfitab->pGfi_attr->xmt1);
} else if (cmpncs(member, "xmtics2") == 0) {
return Py_BuildValue("s", gfitab->pGfi_attr->xmt2);
} else if (cmpncs(member, "yticlabels1") == 0) {
return Py_BuildValue("s", gfitab->pGfi_attr->ytl1);
} else if (cmpncs(member, "yticlabels2") == 0) {
return Py_BuildValue("s", gfitab->pGfi_attr->ytl2);
} else if (cmpncs(member, "ymtics1") == 0) {
return Py_BuildValue("s", gfitab->pGfi_attr->ymt1);
} else if (cmpncs(member, "ymtics2") == 0) {
return Py_BuildValue("s", gfitab->pGfi_attr->ymt2);
} else if (cmpncs(member, "datawc_y1") == 0) {
return Py_BuildValue("f",gfitab->pGfi_attr->dsp[1]);
} else if (cmpncs(member, "datawc_y2") == 0) {
return Py_BuildValue("f",gfitab->pGfi_attr->dsp[3]);
} else if (cmpncs(member, "datawc_x1") == 0) {
return Py_BuildValue("f",gfitab->pGfi_attr->dsp[0]);
} else if (cmpncs(member, "datawc_x2") == 0) {
return Py_BuildValue("f",gfitab->pGfi_attr->dsp[2]);
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
return Py_BuildValue("i",gfitab->pGfi_attr->idsp[1]);
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
return Py_BuildValue("i",gfitab->pGfi_attr->idsp[3]);
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
return Py_BuildValue("i",gfitab->pGfi_attr->idsp[0]);
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
return Py_BuildValue("i",gfitab->pGfi_attr->idsp[2]);
} else if (cmpncs(member, "datawc_calendar") == 0) {
return Py_BuildValue("i",gfitab->pGfi_attr->calendar);
} else if (cmpncs(member, "datawc_timeunits") == 0) {
return Py_BuildValue("s",gfitab->pGfi_attr->timeunits);
} else if ((cmpncs(member, "xaxisconvert") == 0) &&
((cmpncs(gfitab->pGfi_attr->xat,"\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "xaxisconvert") == 0) {
return Py_BuildValue("s", gfitab->pGfi_attr->xat);
} else if ((cmpncs(member, "yaxisconvert") == 0) &&
((cmpncs(gfitab->pGfi_attr->yat, "\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "yaxisconvert") == 0) {
return Py_BuildValue("s", gfitab->pGfi_attr->yat);
} else if (cmpncs(member, "missing") == 0) {
return Py_BuildValue("f", gfitab->pGfi_attr->missing);
} else if (cmpncs(member, "levels") == 0) {
/* Get the fill isoline structure */
pfiso = gfitab->pGfi_attr->line;
while (pfiso != NULL) {
pfiso = pfiso->next;
ct++;
}
pfiso = gfitab->pGfi_attr->line;
tup = PyTuple_New(ct);
while (pfiso != NULL) {
lp = Py_BuildValue("[d,d]", pfiso->lev1, pfiso->lev2);
PyTuple_SetItem(tup, i, lp);
pfiso = pfiso->next;
i++;
}
return tup;
} else if (cmpncs(member, "fillareacolors") == 0) {
/* Get the fill isoline structure */
pfiso = gfitab->pGfi_attr->line;
while (pfiso != NULL) {
pfiso = pfiso->next;
ct++;
}
pfiso = gfitab->pGfi_attr->line;
tup = PyList_New(ct);
while (pfiso != NULL) {
for (ftab=&Tf_tab; ftab!=NULL && cmpnbl(pfiso->fill_name,ftab->name)!=0;
ftab=ftab->next);
lp = Py_BuildValue("i", ftab->faci[0]);
PyList_SetItem(tup, i, lp);
pfiso = pfiso->next;
i++;
}
return tup;
/* } else if (cmpncs(member, "fillareaindices") == 0) { Not used at the moment maybe later when
* Get the fill isoline structure * Hatch cgm output is fixed.
pfiso = gfitab->pGfi_attr->line;
while (pfiso != NULL) {
pfiso = pfiso->next;
ct++;
}
pfiso = gfitab->pGfi_attr->line;
tup = PyList_New(ct);
while (pfiso != NULL) {
for (ftab=&Tf_tab; ftab!=NULL && cmpnbl(pfiso->fill_name,ftab->name)!=0;
ftab=ftab->next);
lp = Py_BuildValue("i", ftab->fasi[0]);
PyList_SetItem(tup, i, lp);
pfiso = pfiso->next;
i++;
}
return tup; */
} else if (cmpncs(member, "legend") == 0) {
if ((gfitab->pGfi_attr->legend == NULL) || (cmpnbl(gfitab->pGfi_attr->legend, "") == 0))
return Py_BuildValue("");
else
return PyVCS_list_to_PyDict(gfitab->pGfi_attr->legend);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/* Create and return the name of the new fillarea attribute */
char * return_new_fillarea_attribute(Gfi_name,id, style, style_index, color_index)
char *Gfi_name;
int id;
char *style;
int style_index;
int color_index;
{
int j,ct=0;
char buf[1024], *fill_name;
Gflfac hat_table;
Gintlist pat_table;
struct table_fill *pf,*p1;
extern struct table_fill Tf_tab;
extern int chk_mov_Tf();
/* first does the little magic on style_index to remove indices 17 and 19 and convert them to 18 and 20 */
if (style_index == 18)
style_index = 20;
else if (style_index==17)
style_index = 18;
/*
* Set new attributes for Tf.
* Create a new fillarea structure and copy to it.
*/
if((pf=(struct table_fill *)malloc(sizeof(struct table_fill)))==NULL) {
PyErr_SetString(PyExc_MemoryError, "No memory for new fillarea attribute.");
return NULL;
}
/* Set the style index of the hatch or pattern */
/* nullify the set of attributes */
pf->priority = 1;
for (j=0; j < 4; j++) {
if (j == 0 || j == 2) {
pf->fvp[j]=0.0;
pf->fwc[j]=0.0;
} else {
pf->fvp[j]=1.0;
pf->fwc[j]=1.0;
}
}
strcpy(pf->proj,"default");
pf->fx = NULL;
pf->fy = NULL;
pf->x=0.0;
pf->y=0.0;
pf->w=0.1;
pf->h=0.1;
pf->fais = NULL; pf->fais_size = 0;
pf->fasi = NULL; pf->fasi_size = 0;
pf->faci = NULL; pf->faci_size = 0;
/* Set the fillarea's name */
/*sprintf(buf,"%s_%d", Gfi_name, id);*/
for (p1=&Tf_tab;p1 != NULL;p1=p1->next)
ct++;
sprintf(buf,"GEN_%d", ct);
strcpy(pf->name,buf);
/* Set the interior style to solid */
if (cmpncs(style, "solid") == 0) {
if (pf->fais!=NULL) { free((char *) pf->fais); pf->fais=NULL; }
if (pf->fasi!=NULL) { free((char *) pf->fasi); pf->fasi=NULL; }
if((pf->fais=(int *) malloc(sizeof(int)))==NULL) {
PyErr_SetString(VCS_Error,"Error - memory for fill values not found.");
return NULL;
}
if ((pf->fasi = (int *) malloc( sizeof(int)))== NULL) {
PyErr_SetString(VCS_Error,"Error - memory for fill values not found.");
return NULL;
}
pf->fais[0] = 1; pf->fais_size = 1;
pf->fasi[0] = 1; pf->fasi_size = 1;
} else if (cmpncs(style, "pattern") == 0) {
if (pf->fais!=NULL) { free((char *) pf->fais); pf->fais=NULL; }
if (pf->fasi!=NULL) { free((char *) pf->fasi); pf->fasi=NULL; }
if ((pf->fais = (int *) malloc( sizeof(int)))== NULL) {
PyErr_SetString(VCS_Error,"Error - memory for fill values not found.");
return NULL;
}
if ((pf->fasi = (int *) malloc( sizeof(int)))== NULL) {
PyErr_SetString(VCS_Error,"Error - memory for fill values not found.");
return NULL;
}
pf->fais[0] = 2; pf->fais_size = 1;
/* Below was to difficult. I changed the code in xgks */
/* gqepai(104, &pat_table); * Inquire the list of pattern indices *
pf->fasi[0] = pat_table.integers[style_index-1]; *Set pattern style*/
pf->fasi[0] = style_index;
pf->fasi_size = 1;
/*pf->fasi=style_index;*/
} else if (cmpncs(style, "hatch") == 0) {
if (pf->fais!=NULL) { free((char *) pf->fais); pf->fais=NULL; }
if (pf->fasi!=NULL) { free((char *) pf->fasi); pf->fasi=NULL; }
if ((pf->fais = (int *) malloc( sizeof(int)))== NULL) {
PyErr_SetString(VCS_Error,"Error - memory for fill values not found.");
return NULL;
}
if ((pf->fasi = (int *) malloc( sizeof(int)))== NULL) {
PyErr_SetString(VCS_Error,"Error - memory for fill values not found.");
return NULL;
}
pf->fais[0] = 3;pf->fais_size = 1;
/* Below was to difficult. I changed the code in xgks */
/* gqfaf("CANVAS", &hat_table); * Inquire the fill area facilities *
pf->fasi[0]=hat_table.hatches.integers[style_index-1];*Set hatch style*/
pf->fasi[0]= style_index;
pf->fasi_size = 1;
}
/* Set the color index used for the fillarea */
if (pf->faci!=NULL) { free((char *) pf->faci); pf->faci=NULL; }
if ((pf->faci = (int *) malloc( sizeof(int)) )== NULL) {
PyErr_SetString(VCS_Error,"Error - memory for fill values not found.");
return NULL;
}
pf->faci[0] = color_index; pf->faci_size = 1;
/* Set the new structure in the list */
chk_mov_Tf (pf);
return pf->name;
}
/*
* Find the existing isofill graphics method and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the graphics method's attribute will
* be changed.
*/
static PyObject *
PyVCS_setGfimember(self, args)
PyObject *self;
PyObject *args;
{
int i,j=0,n,ct=0,sct=0,color_index,style_index;
int MODE, value_int;
long value_long;
float value_float;
double value_double;
char *Tf_name;
char buf[1024], *style;
char *Gfi_name, *str=NULL, *member=NULL;
char *value_str=NULL;
PyObject *GFI=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *listit,*tup, *sindices;
struct gfi_tab *get_gfitab=NULL;
extern int update_ind;
struct fill_range *pfiso, *next_pfiso, *pfiso_new, *tpfiso;
struct gfi_tab *gfitab;
extern struct gfi_tab Gfi_tab;
extern struct gfi_tab *getGfi();
extern int chk_mov_Gfi();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOi", &GFI, &MEMBER, &VALUE, &MODE)) {
if (GFI == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(GFI,"name", "s", &Gfi_name);
gfitab=&Gfi_tab;
while ((gfitab != NULL) &&
(strcmp(gfitab->name, Gfi_name) != 0))
gfitab = gfitab->next;
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
/* sprintf(buf, "print 'member = %s'", member);
PyRun_SimpleString(buf);*/
}
if (VALUE != NULL) {
if (PyString_Check(VALUE)) { /*check string*/
value_str = PyString_AsString(VALUE);
} else if (PyInt_Check(VALUE)) { /*check for int*/
value_int = (int) PyInt_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for float*/
value_float = (float) PyFloat_AsDouble(VALUE);
} else if (PyLong_Check(VALUE)) { /* check for long*/
value_long = PyLong_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for double*/
value_double = PyFloat_AsDouble(VALUE);
} else if (PyDict_Check(VALUE)) { /*check for dictionary*/
value_str = return_vcs_list(VALUE, member);
}
}
/*
* Set the appropriate isofill attribute. But first
* get the isofill structure.
*/
get_gfitab = getGfi(gfitab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_gfitab->pGfi_attr->proj, value_str);
} else if (cmpncs(member, "xticlabels1") == 0) {
strcpy(get_gfitab->pGfi_attr->xtl1, value_str);
} else if (cmpncs(member, "xticlabels2") == 0) {
strcpy(get_gfitab->pGfi_attr->xtl2, value_str);
} else if (cmpncs(member, "xmtics1") == 0) {
strcpy(get_gfitab->pGfi_attr->xmt1, value_str);
} else if (cmpncs(member, "xmtics2") == 0) {
strcpy(get_gfitab->pGfi_attr->xmt2, value_str);
} else if (cmpncs(member, "yticlabels1") == 0) {
strcpy(get_gfitab->pGfi_attr->ytl1, value_str);
} else if (cmpncs(member, "yticlabels2") == 0) {
strcpy(get_gfitab->pGfi_attr->ytl2, value_str);
} else if (cmpncs(member, "ymtics1") == 0) {
strcpy(get_gfitab->pGfi_attr->ymt1, value_str);
} else if (cmpncs(member, "ymtics2") == 0) {
strcpy(get_gfitab->pGfi_attr->ymt2, value_str);
} else if (cmpncs(member, "datawc_x1") == 0) {
get_gfitab->pGfi_attr->dsp[0] = value_float;
} else if (cmpncs(member, "datawc_y1") == 0) {
get_gfitab->pGfi_attr->dsp[1] = value_float;
} else if (cmpncs(member, "datawc_x2") == 0) {
get_gfitab->pGfi_attr->dsp[2] = value_float;
} else if (cmpncs(member, "datawc_y2") == 0) {
get_gfitab->pGfi_attr->dsp[3] = value_float;
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
get_gfitab->pGfi_attr->idsp[0] = value_int;
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
get_gfitab->pGfi_attr->idsp[1] = value_int;
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
get_gfitab->pGfi_attr->idsp[2] = value_int;
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
get_gfitab->pGfi_attr->idsp[3] = value_int;
} else if (cmpncs(member, "datawc_calendar") == 0) {
get_gfitab->pGfi_attr->calendar = value_int;
} else if (cmpncs(member, "datawc_timeunits") == 0) {
strcpy(get_gfitab->pGfi_attr->timeunits, value_str);
} else if (cmpncs(member, "xaxisconvert") == 0) {
strcpy(get_gfitab->pGfi_attr->xat, value_str);
} else if (cmpncs(member, "yaxisconvert") == 0) {
strcpy(get_gfitab->pGfi_attr->yat, value_str);
} else if (cmpncs(member, "missing") == 0) {
get_gfitab->pGfi_attr->missing = value_int;
} else if (cmpncs(member, "legend") == 0) {
if (value_str != NULL) {
if (get_gfitab->pGfi_attr->legend != NULL) {
free((char *) get_gfitab->pGfi_attr->legend);
get_gfitab->pGfi_attr->legend = NULL;
}
get_gfitab->pGfi_attr->legend = (char *)malloc(strlen(value_str)*sizeof(char)+1);
strcpy(get_gfitab->pGfi_attr->legend, value_str);
} else {
if (get_gfitab->pGfi_attr->legend != NULL) {
free((char *) get_gfitab->pGfi_attr->legend);
get_gfitab->pGfi_attr->legend = NULL;
}
}
} else if (cmpncs(member, "levels") == 0) {
/* get the style values */
Get_Member(GFI,"fillareastyle", "s", &style);
/* get the style index values */
Get_Member(GFI,"fillareaindices", "O", &sindices);
/* get the color values */
Get_Member(GFI,"fillareacolors", "O", &listit);
/* Free the current fill_range link list */
pfiso = next_pfiso = get_gfitab->pGfi_attr->line;
while (pfiso != NULL) {
next_pfiso = pfiso->next;
free ((char *) pfiso);
pfiso = next_pfiso;
}
get_gfitab->pGfi_attr->line = tpfiso = NULL;
if (PyTuple_Check(VALUE)) { /*check for tuple*/
/* Create the new fill_range link list */
for (i=0; i<PyTuple_Size(VALUE); i++) {
tup = PyTuple_GetItem(VALUE, i);
if (PyList_Check(tup)) { /* check for list */
for (j=0; j<(PyList_Size(tup)-1); j++) {
/* malloc the new iso struct */
if ((pfiso_new = (struct fill_range *)malloc(
sizeof(struct fill_range)))==NULL) {
sprintf(buf,"No memory for new isofill id(%d).\n",i);
PyErr_SetString(PyExc_MemoryError, buf);
return NULL;
}
strcpy(pfiso_new->fill_name, "default");
if ((sindices==Py_None) || (sct>=PyList_Size(sindices))) {
if ((listit == Py_None) || (ct >= PyList_Size(listit)))
color_index = 16+ct;
else
color_index = (int) PyInt_AsLong(PyList_GetItem(listit,ct));
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfi_name, ct, style, 0, color_index));
} else if ((PyInt_Check(PyList_GetItem(sindices,sct))) ||
(PyFloat_Check(PyList_GetItem(sindices,sct)))) {
style_index = (int) PyInt_AsLong(PyList_GetItem(sindices,sct));
if ((listit == Py_None) || (ct >= PyList_Size(listit)))
color_index = 16+ct;
else
color_index = (int) PyInt_AsLong(PyList_GetItem(listit,ct));
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfi_name, ct, style, style_index, color_index));
} else { /* must be a fillarea object */
Tf_name = PyString_AsString(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, Tf_name);
}
pfiso_new->id = sct+1;
pfiso_new->lev1 = (float) PyFloat_AsDouble(PyList_GetItem(tup,j));
pfiso_new->lev2 = (float) PyFloat_AsDouble(PyList_GetItem(tup,j+1));
ct++;sct++;
pfiso_new->next = NULL;
/* Add to the new fill range link list */
if (tpfiso == NULL)
get_gfitab->pGfi_attr->line = tpfiso = pfiso_new;
else {
tpfiso->next = pfiso_new;
tpfiso = pfiso_new;
}
}
} else {
if ((PyInt_Check(tup)) || (PyFloat_Check(tup))) {
/* malloc the new iso struct */
if ((pfiso_new = (struct fill_range *)malloc(
sizeof(struct fill_range)))==NULL) {
sprintf(buf,"No memory for new isofill id(%d).\n",i);
PyErr_SetString(PyExc_MemoryError, buf);
return NULL;
}
strcpy(pfiso_new->fill_name, "default");
if ((listit == Py_None) || (ct >= PyList_Size(listit)))
color_index = 16+ct;
else
color_index = (int) PyInt_AsLong(PyList_GetItem(listit,ct));
if ((sindices==Py_None) || (sct>=PyList_Size(sindices))) {
style_index = sct;
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfi_name, i, style, style_index, color_index));
} else if (PyInt_Check(PyList_GetItem(sindices,sct))) {
style_index = (int) PyInt_AsLong(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfi_name, i, style, style_index, color_index));
} else { /* must be a fillarea object */
Tf_name = PyString_AsString(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, Tf_name);
}
pfiso_new->id = sct+1;
pfiso_new->lev1 = (float) PyFloat_AsDouble(tup);
tup = PyTuple_GetItem(VALUE, i+1);
pfiso_new->lev2 = (float) PyFloat_AsDouble(tup);
ct++;sct++;
pfiso_new->next = NULL;
/* Add to the new fill range link list */
if (tpfiso == NULL)
get_gfitab->pGfi_attr->line = tpfiso = pfiso_new;
else {
tpfiso->next = pfiso_new;
tpfiso = pfiso_new;
}
if (i == (PyTuple_Size(VALUE)-2)) break;
} else {
PyErr_SetString(PyExc_ValueError, "Must be either integer or float values.");
return NULL;
}
}
}
} else if (PyList_Check(VALUE)) { /* check for list */
/* Create the new fill_range link list */
for (j=0; j<(PyList_Size(VALUE)-1); j++) {
/* malloc the new iso struct */
if ((pfiso_new = (struct fill_range *)malloc(
sizeof(struct fill_range)))==NULL) {
sprintf(buf,"No memory for new isofill id(%d).\n",j);
PyErr_SetString(PyExc_MemoryError, buf);
return NULL;
}
if ((listit == Py_None) || (ct >= PyList_Size(listit)))
color_index = 16+ct;
else
color_index = (int) PyInt_AsLong(PyList_GetItem(listit,ct));
if ((sindices==Py_None) || (sct>=PyList_Size(sindices))) {
style_index = sct;
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfi_name, j, style, style_index, color_index));
} else if (PyInt_Check(PyList_GetItem(sindices,sct))) {
style_index = (int) PyInt_AsLong(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfi_name, j, style, style_index, color_index));
} else { /* must be a fillarea object */
Tf_name = PyString_AsString(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, Tf_name);
}
pfiso_new->id = j;
pfiso_new->lev1 = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,j));
pfiso_new->lev2 = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,j+1));
ct++; sct++;
pfiso_new->next = NULL;
/* Add to the new fill range link list */
if (tpfiso == NULL)
get_gfitab->pGfi_attr->line = tpfiso = pfiso_new;
else {
tpfiso->next = pfiso_new;
tpfiso = pfiso_new;
}
}
}
}
chk_mov_Gfi(get_gfitab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/*
* Call the Set_Member function to assign the data
* member of the known object by name. This function
* can take all the common Python/C data conversion
* types: { "s" = char * : "i" = int : "l" = long :
* "c" = char : "f" = float : "d" = double:
* "O" = PyObject * .
*
* But in this case below, I am sending only the PyObject
* down. No need to convert to C then back to PyObject.
if (member!=NULL)
Set_Member(GFI, member, "O", VALUE);
*/
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new isofill graphics method by copying from an existing
* isofill graphics method. If no source copy name argument is given,
* then the default isofill graphics method will be used to replicate
* the new isofill graphics method.
*/
static PyObject *
PyVCS_copyGfi(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GFI_SRC=NULL, *GFI_NAME=NULL;
char copy_name[1024];
extern int copy_Gfi_name();
if(PyArg_ParseTuple(args,"|ss", &GFI_SRC, &GFI_NAME)) {
if (GFI_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source isofill graphics method name.");
return NULL;
}
if (GFI_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", GFI_NAME);
}
ierr = copy_Gfi_name(GFI_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating isofill graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing isofill graphics method.
*/
static PyObject *
PyVCS_renameGfi(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GFI_OLD_NAME=NULL, *GFI_NEW_NAME=NULL;
extern int renameGfi_name();
if(PyArg_ParseTuple(args,"|ss", &GFI_OLD_NAME, &GFI_NEW_NAME)) {
if ((GFI_OLD_NAME == NULL) || (GFI_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new isofill graphics method name.");
return NULL;
}
}
ierr = renameGfi_name(GFI_OLD_NAME, GFI_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming isofill graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing isofill graphics method.
*/
static PyObject *
PyVCS_removeGfi(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
/* Return NULL Python Object or Python String Object */
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the isofill file name.");
return NULL;
}
}
if (removeGfi_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed isofill object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The isofill object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing isofill graphics method.
*/
static PyObject *
PyVCS_scriptGfi(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *GFI_NAME=NULL,*MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_isofill();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &GFI_NAME, &SCRIPT_NAME, &MODE)) {
if (GFI_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the isofill name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_isofill(fp, GFI_NAME) == 0) {
sprintf(buf, "Error - Cannot save isofill script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS isoline (Gi) graphics method member value.
*/
static PyObject *
PyVCS_getGimember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Gi_name, *member=NULL, buf[1024];
int i=0, ct=0;
PyObject *GI=NULL, *MEMBER=NULL, *tup, *lp;
struct gi_tab *gitab;
struct iso *piso=NULL;
extern struct gi_tab Gi_tab;
struct table_line *ltab;
extern struct table_line Tl_tab;
if(PyArg_ParseTuple(args,"|OO",&GI, &MEMBER)) {
if (GI == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(GI,"name", "s", &Gi_name);
gitab=&Gi_tab;
while ((gitab != NULL) &&
(strcmp(gitab->name, Gi_name) != 0))
gitab = gitab->next;
if (gitab == NULL) {
sprintf(buf,"Cannot find isofill graphics method Gi_%s.",Gi_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0) {
return Py_BuildValue("s", gitab->pGi_attr->proj);
} else if (cmpncs(member, "xticlabels1") == 0) {
return Py_BuildValue("s", gitab->pGi_attr->xtl1);
} else if (cmpncs(member, "xticlabels2") == 0) {
return Py_BuildValue("s", gitab->pGi_attr->xtl2);
} else if (cmpncs(member, "xmtics1") == 0) {
return Py_BuildValue("s", gitab->pGi_attr->xmt1);
} else if (cmpncs(member, "xmtics2") == 0) {
return Py_BuildValue("s", gitab->pGi_attr->xmt2);
} else if (cmpncs(member, "yticlabels1") == 0) {
return Py_BuildValue("s", gitab->pGi_attr->ytl1);
} else if (cmpncs(member, "yticlabels2") == 0) {
return Py_BuildValue("s", gitab->pGi_attr->ytl2);
} else if (cmpncs(member, "ymtics1") == 0) {
return Py_BuildValue("s", gitab->pGi_attr->ymt1);
} else if (cmpncs(member, "ymtics2") == 0) {
return Py_BuildValue("s", gitab->pGi_attr->ymt2);
} else if (cmpncs(member, "datawc_y1") == 0) {
return Py_BuildValue("f",gitab->pGi_attr->dsp[1]);
} else if (cmpncs(member, "datawc_y2") == 0) {
return Py_BuildValue("f",gitab->pGi_attr->dsp[3]);
} else if (cmpncs(member, "datawc_x1") == 0) {
return Py_BuildValue("f",gitab->pGi_attr->dsp[0]);
} else if (cmpncs(member, "datawc_x2") == 0) {
return Py_BuildValue("f",gitab->pGi_attr->dsp[2]);
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
return Py_BuildValue("i",gitab->pGi_attr->idsp[0]);
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
return Py_BuildValue("i",gitab->pGi_attr->idsp[1]);
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
return Py_BuildValue("i",gitab->pGi_attr->idsp[2]);
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
return Py_BuildValue("i",gitab->pGi_attr->idsp[3]);
} else if (cmpncs(member, "datawc_calendar") == 0) {
return Py_BuildValue("i",gitab->pGi_attr->calendar);
} else if (cmpncs(member, "datawc_timeunits") == 0) {
return Py_BuildValue("s",gitab->pGi_attr->timeunits);
} else if ((cmpncs(member, "xaxisconvert") == 0) &&
((cmpncs(gitab->pGi_attr->xat,"\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "xaxisconvert") == 0) {
return Py_BuildValue("s", gitab->pGi_attr->xat);
} else if ((cmpncs(member, "yaxisconvert") == 0) &&
((cmpncs(gitab->pGi_attr->yat, "\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "yaxisconvert") == 0) {
return Py_BuildValue("s", gitab->pGi_attr->yat);
} else if (cmpncs(member, "label") == 0) {
if (gitab->pGi_attr->labels == 121)
return Py_BuildValue("s", "y");
else if (gitab->pGi_attr->labels == 110)
return Py_BuildValue("s", "n");
} else if (cmpncs(member, "level") == 0) {
/* Get the isoline structure */
piso = gitab->pGi_attr->line;
while (piso != NULL) {
piso = piso->next;
ct++;
}
piso = gitab->pGi_attr->line;
tup = PyList_New(ct);
while (piso != NULL) {
lp = Py_BuildValue("[d,d]", piso->lev,piso->incr);
PyList_SetItem(tup, i, lp);
piso = piso->next;
i++;
}
return tup;
} else if (cmpncs(member, "linecolors") == 0) {
/* Get the isoline structure */
piso = gitab->pGi_attr->line;
while (piso != NULL) {
piso = piso->next;
ct++;
}
piso = gitab->pGi_attr->line;
tup = PyList_New(ct);
while (piso != NULL) {
for (ltab=&Tl_tab; ltab!=NULL && cmpnbl(piso->lb,ltab->name)!=0;
ltab=ltab->next);
lp = Py_BuildValue("i", ltab->lci[0]);
PyList_SetItem(tup, i, lp);
piso = piso->next;
i++;
}
return tup;
} else if (cmpncs(member, "line") == 0) {
/* Get the isoline structure */
piso = gitab->pGi_attr->line;
while (piso != NULL) {
piso = piso->next;
ct++;
}
piso = gitab->pGi_attr->line;
tup = PyList_New(ct);
while (piso != NULL) {
for (ltab=&Tl_tab; ltab!=NULL && cmpnbl(piso->lb,ltab->name)!=0;
ltab=ltab->next);
if (ltab->ltyp[0] == 1)
lp = Py_BuildValue("s", "solid");
else if (ltab->ltyp[0] == 2)
lp = Py_BuildValue("s", "dash");
else if (ltab->ltyp[0] == 3)
lp = Py_BuildValue("s", "dot");
else if (ltab->ltyp[0] == 4)
lp = Py_BuildValue("s", "dash-dot");
else if (ltab->ltyp[0] == -3)
lp = Py_BuildValue("s", "long-dash");
PyList_SetItem(tup, i, lp);
piso = piso->next;
i++;
}
return tup;
} else if (cmpncs(member, "linewidths") == 0) {
/* Get the isoline structure */
piso = gitab->pGi_attr->line;
while (piso != NULL) {
piso = piso->next;
ct++;
}
piso = gitab->pGi_attr->line;
tup = PyList_New(ct);
while (piso != NULL) {
for (ltab=&Tl_tab; ltab!=NULL && cmpnbl(piso->lb,ltab->name)!=0;
ltab=ltab->next);
lp = Py_BuildValue("f", ltab->lwsf[0]);
PyList_SetItem(tup, i, lp);
piso = piso->next;
i++;
}
return tup;
} else if (cmpncs(member, "clockwise") == 0) {
/* Get the isoline structure */
piso = gitab->pGi_attr->line;
while (piso != NULL) {
piso = piso->next;
ct++;
}
piso = gitab->pGi_attr->line;
tup = PyList_New(ct);
while (piso != NULL) {
lp = Py_BuildValue("i", piso->cw);
PyList_SetItem(tup, i, lp);
piso = piso->next;
i++;
}
return tup;
} else if (cmpncs(member, "scale") == 0) {
/* Get the isoline structure */
piso = gitab->pGi_attr->line;
while (piso != NULL) {
piso = piso->next;
ct++;
}
piso = gitab->pGi_attr->line;
tup = PyList_New(ct);
while (piso != NULL) {
lp = Py_BuildValue("f", piso->ls);
PyList_SetItem(tup, i, lp);
piso = piso->next;
i++;
}
return tup;
} else if (cmpncs(member, "angle") == 0) {
/* Get the isoline structure */
piso = gitab->pGi_attr->line;
while (piso != NULL) {
piso = piso->next;
ct++;
}
piso = gitab->pGi_attr->line;
tup = PyList_New(ct);
while (piso != NULL) {
lp = Py_BuildValue("f", piso->angle);
PyList_SetItem(tup, i, lp);
piso = piso->next;
i++;
}
return tup;
} else if (cmpncs(member, "spacing") == 0) {
/* Get the isoline structure */
piso = gitab->pGi_attr->line;
while (piso != NULL) {
piso = piso->next;
ct++;
}
piso = gitab->pGi_attr->line;
tup = PyList_New(ct);
while (piso != NULL) {
lp = Py_BuildValue("f", piso->spc);
PyList_SetItem(tup, i, lp);
piso = piso->next;
i++;
}
return tup;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the VCS meshfill (Gfm) graphics method member value.
*/
static PyObject *
PyVCS_getGfmmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Gfm_name, *member=NULL, buf[1024];
int i=0, ct=0;
PyObject *GFM=NULL, *MEMBER=NULL, *tup, *lp;
struct gfm_tab *gfmtab;
struct fill_range *pfiso=NULL;
extern struct gfm_tab Gfm_tab;
if(PyArg_ParseTuple(args,"|OO",&GFM, &MEMBER)) {
if (GFM == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(GFM,"name", "s", &Gfm_name);
gfmtab=&Gfm_tab;
while ((gfmtab != NULL) &&
(strcmp(gfmtab->name, Gfm_name) != 0))
gfmtab = gfmtab->next;
if (gfmtab == NULL) {
sprintf(buf,"Cannot find meshfill graphics method Gfm_%s.",Gfm_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0) {
return Py_BuildValue("s", gfmtab->pGfm_attr->proj);
} else if (cmpncs(member, "xticlabels1") == 0) {
return Py_BuildValue("s", gfmtab->pGfm_attr->xtl1);
} else if (cmpncs(member, "xticlabels2") == 0) {
return Py_BuildValue("s", gfmtab->pGfm_attr->xtl2);
} else if (cmpncs(member, "xmtics1") == 0) {
return Py_BuildValue("s", gfmtab->pGfm_attr->xmt1);
} else if (cmpncs(member, "xmtics2") == 0) {
return Py_BuildValue("s", gfmtab->pGfm_attr->xmt2);
} else if (cmpncs(member, "yticlabels1") == 0) {
return Py_BuildValue("s", gfmtab->pGfm_attr->ytl1);
} else if (cmpncs(member, "yticlabels2") == 0) {
return Py_BuildValue("s", gfmtab->pGfm_attr->ytl2);
} else if (cmpncs(member, "ymtics1") == 0) {
return Py_BuildValue("s", gfmtab->pGfm_attr->ymt1);
} else if (cmpncs(member, "ymtics2") == 0) {
return Py_BuildValue("s", gfmtab->pGfm_attr->ymt2);
} else if (cmpncs(member, "datawc_y1") == 0) {
return Py_BuildValue("f",gfmtab->pGfm_attr->dsp[1]);
} else if (cmpncs(member, "datawc_y2") == 0) {
return Py_BuildValue("f",gfmtab->pGfm_attr->dsp[3]);
} else if (cmpncs(member, "datawc_x1") == 0) {
return Py_BuildValue("f",gfmtab->pGfm_attr->dsp[0]);
} else if (cmpncs(member, "datawc_x2") == 0) {
return Py_BuildValue("f",gfmtab->pGfm_attr->dsp[2]);
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
return Py_BuildValue("i",gfmtab->pGfm_attr->idsp[1]);
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
return Py_BuildValue("i",gfmtab->pGfm_attr->idsp[3]);
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
return Py_BuildValue("i",gfmtab->pGfm_attr->idsp[0]);
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
return Py_BuildValue("i",gfmtab->pGfm_attr->idsp[2]);
} else if (cmpncs(member, "datawc_calendar") == 0) {
return Py_BuildValue("i",gfmtab->pGfm_attr->calendar);
} else if (cmpncs(member, "datawc_timeunits") == 0) {
return Py_BuildValue("s",gfmtab->pGfm_attr->timeunits);
} else if ((cmpncs(member, "xaxisconvert") == 0) &&
((cmpncs(gfmtab->pGfm_attr->xat,"\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "xaxisconvert") == 0) {
return Py_BuildValue("s", gfmtab->pGfm_attr->xat);
} else if ((cmpncs(member, "yaxisconvert") == 0) &&
((cmpncs(gfmtab->pGfm_attr->yat, "\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "yaxisconvert") == 0) {
return Py_BuildValue("s", gfmtab->pGfm_attr->yat);
} else if (cmpncs(member, "missing") == 0) {
return Py_BuildValue("i", gfmtab->pGfm_attr->missing);
} else if (cmpncs(member, "mesh") == 0) {
return Py_BuildValue("i", gfmtab->pGfm_attr->mesh);
} else if (cmpncs(member, "wrap") == 0) {
return Py_BuildValue("[f,f]", gfmtab->pGfm_attr->ywrap,gfmtab->pGfm_attr->xwrap);
} else if (cmpncs(member, "levels") == 0) {
/* Get the fill isoline structure */
ct=0;
pfiso = gfmtab->pGfm_attr->line;
while (pfiso != NULL) {
pfiso = pfiso->next;
ct++;
}
pfiso = gfmtab->pGfm_attr->line;
tup = PyTuple_New(ct);
i=0;
while (pfiso != NULL) {
lp = Py_BuildValue("[d,d]", pfiso->lev1, pfiso->lev2);
PyTuple_SetItem(tup, i, lp);
pfiso = pfiso->next;
i++;
}
return tup;
} else if (cmpncs(member, "legend") == 0) {
if ((gfmtab->pGfm_attr->legend == NULL) || (cmpnbl(gfmtab->pGfm_attr->legend, "") == 0))
{
return Py_BuildValue("");
}
else
{
return PyVCS_list_to_PyDict(gfmtab->pGfm_attr->legend);
}
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/* Create and return the name of the new fillarea attribute */
/* char * return_new_fillarea_attribute2(Gfm_name,id, style, style_index, color_index) */
/* char *Gfm_name; */
/* int id; */
/* char *style; */
/* int style_index; */
/* int color_index; */
/* { */
/* int j,ct=0; */
/* char buf[1024], *fill_name; */
/* Gflfac hat_table; */
/* Gintlist pat_table; */
/* struct table_fill *pf,*p1; */
/* extern struct table_fill Tf_tab; */
/* extern int chk_mov_Tf(); */
/* /\* */
/* * Set new attributes for Tf. */
/* * Create a new fillarea structure and copy to it. */
/* *\/ */
/* if((pf=(struct table_fill *)malloc(sizeof(struct table_fill)))==NULL) { */
/* PyErr_SetString(PyExc_MemoryError, "No memory for new fillarea attribute."); */
/* return NULL; */
/* } */
/* /\* Set the style index of the hatch or pattern *\/ */
/* /\* nullify the set of attributes *\/ */
/* pf->priority = 1; */
/* for (j=0; j < 4; j++) { */
/* if (j == 0 || j == 2) { */
/* pf->fvp[j]=0.0; */
/* pf->fwc[j]=0.0; */
/* } else { */
/* pf->fvp[j]=1.0; */
/* pf->fwc[j]=1.0; */
/* } */
/* } */
/* pf->fx = NULL; */
/* pf->fy = NULL; */
/* pf->x=0.0; */
/* pf->y=0.0; */
/* pf->w=0.1; */
/* pf->h=0.1; */
/* pf->fais = NULL; pf->fais_size = 0; */
/* pf->fasi = NULL; pf->fasi_size = 0; */
/* pf->faci = NULL; pf->faci_size = 0; */
/* /\* Set the fillarea's name *\/ */
/* /\*sprintf(buf,"%s_%d", Gfm_name, id);*\/ */
/* for (p1=&Tf_tab;p1 != NULL;p1=p1->next) */
/* ct++; */
/* sprintf(buf,"GEN_%d", ct); */
/* fill_name = (char *) malloc(strlen(buf)*sizeof(char)+1); */
/* strcpy(pf->name,buf); */
/* strcpy(fill_name,buf); */
/* /\* Set the interior style to solid *\/ */
/* if (cmpncs(style, "solid") == 0) { */
/* if (pf->fais!=NULL) { free((char *) pf->fais); pf->fais=NULL; } */
/* if (pf->fasi!=NULL) { free((char *) pf->fasi); pf->fasi=NULL; } */
/* if((pf->fais=(int *) malloc(sizeof(int)))==NULL) { */
/* PyErr_SetString(VCS_Error,"Error - memory for fill values not found."); */
/* return NULL; */
/* } */
/* if ((pf->fasi = (int *) malloc( sizeof(int)))== NULL) { */
/* PyErr_SetString(VCS_Error,"Error - memory for fill values not found."); */
/* return NULL; */
/* } */
/* pf->fais[0] = 1; pf->fais_size = 1; */
/* pf->fasi[0] = 1; pf->fasi_size = 1; */
/* } else if (cmpncs(style, "pattern") == 0) { */
/* if (pf->fais!=NULL) { free((char *) pf->fais); pf->fais=NULL; } */
/* if (pf->fasi!=NULL) { free((char *) pf->fasi); pf->fasi=NULL; } */
/* if ((pf->fais = (int *) malloc( sizeof(int)))== NULL) { */
/* PyErr_SetString(VCS_Error,"Error - memory for fill values not found."); */
/* return NULL; */
/* } */
/* if ((pf->fasi = (int *) malloc( sizeof(int)))== NULL) { */
/* PyErr_SetString(VCS_Error,"Error - memory for fill values not found."); */
/* return NULL; */
/* } */
/* pf->fais[0] = 2; pf->fais_size = 1; */
/* /\* Below was to difficult. I changed the code in xgks *\/ */
/* /\* gqepai(104, &pat_table); * Inquire the list of pattern indices * */
/* pf->fasi[0] = pat_table.integers[style_index-1]; *Set pattern style*\/ */
/* pf->fasi[0] = style_index; */
/* pf->fasi_size = 1; */
/* /\*pf->fasi=style_index;*\/ */
/* } else if (cmpncs(style, "hatch") == 0) { */
/* if (pf->fais!=NULL) { free((char *) pf->fais); pf->fais=NULL; } */
/* if (pf->fasi!=NULL) { free((char *) pf->fasi); pf->fasi=NULL; } */
/* if ((pf->fais = (int *) malloc( sizeof(int)))== NULL) { */
/* PyErr_SetString(VCS_Error,"Error - memory for fill values not found."); */
/* return NULL; */
/* } */
/* if ((pf->fasi = (int *) malloc( sizeof(int)))== NULL) { */
/* PyErr_SetString(VCS_Error,"Error - memory for fill values not found."); */
/* return NULL; */
/* } */
/* pf->fais[0] = 3;pf->fais_size = 1; */
/* /\* Below was to difficult. I changed the code in xgks *\/ */
/* /\* gqfaf("CANVAS", &hat_table); * Inquire the fill area facilities * */
/* pf->fasi[0]=hat_table.hatches.integers[style_index-1];*Set hatch style*\/ */
/* pf->fasi[0]= style_index; */
/* pf->fasi_size = 1; */
/* } */
/* /\* Set the color index used for the fillarea *\/ */
/* if (pf->faci!=NULL) { free((char *) pf->faci); pf->faci=NULL; } */
/* if ((pf->faci = (int *) malloc( sizeof(int)) )== NULL) { */
/* PyErr_SetString(VCS_Error,"Error - memory for fill values not found."); */
/* return NULL; */
/* } */
/* pf->faci[0] = color_index; pf->faci_size = 1; */
/* /\* Set the new structure in the list *\/ */
/* chk_mov_Tf (pf); */
/* return fill_name; */
/* } */
/*
* Find the existing isofill graphics method and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the graphics method's attribute will
* be changed.
*/
static PyObject *
PyVCS_setGfmmember(self, args)
PyObject *self;
PyObject *args;
{
int i,j=0,n,ct=0,sct=0,color_index,style_index;
int MODE, value_int;
long value_long;
float value_float;
double value_double;
char *Tf_name;
char buf[1024], *style;
char *Gfm_name, *str=NULL, *member=NULL;
char *value_str=NULL;
PyObject *GFM=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *listit,*tup, *sindices, *wrap;
struct gfm_tab *get_gfmtab=NULL;
extern int update_ind;
struct fill_range *pfiso, *next_pfiso, *pfiso_new, *tpfiso;
struct gfm_tab *gfmtab;
extern struct gfm_tab Gfm_tab;
extern struct gfm_tab *getGfm();
extern int chk_mov_Gfm();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOi", &GFM, &MEMBER, &VALUE, &MODE)) {
if (GFM == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(GFM,"name", "s", &Gfm_name);
gfmtab=&Gfm_tab;
while ((gfmtab != NULL) &&
(strcmp(gfmtab->name, Gfm_name) != 0))
gfmtab = gfmtab->next;
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
/* sprintf(buf, "print 'member = %s'", member);
PyRun_SimpleString(buf);*/
}
if (VALUE != NULL) {
if (PyString_Check(VALUE)) { /*check string*/
value_str = PyString_AsString(VALUE);
} else if (PyInt_Check(VALUE)) { /*check for int*/
value_int = (int) PyInt_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for float*/
value_float = (float) PyFloat_AsDouble(VALUE);
} else if (PyLong_Check(VALUE)) { /* check for long*/
value_long = PyLong_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for double*/
value_double = PyFloat_AsDouble(VALUE);
} else if (PyDict_Check(VALUE)) { /*check for dictionary*/
value_str = return_vcs_list(VALUE, member);
}
}
/*
* Set the appropriate meshfill attribute. But first
* get the meshfill structure.
*/
get_gfmtab = getGfm(gfmtab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_gfmtab->pGfm_attr->proj, value_str);
} else if (cmpncs(member, "xticlabels1") == 0) {
strcpy(get_gfmtab->pGfm_attr->xtl1, value_str);
} else if (cmpncs(member, "xticlabels2") == 0) {
strcpy(get_gfmtab->pGfm_attr->xtl2, value_str);
} else if (cmpncs(member, "xmtics1") == 0) {
strcpy(get_gfmtab->pGfm_attr->xmt1, value_str);
} else if (cmpncs(member, "xmtics2") == 0) {
strcpy(get_gfmtab->pGfm_attr->xmt2, value_str);
} else if (cmpncs(member, "yticlabels1") == 0) {
strcpy(get_gfmtab->pGfm_attr->ytl1, value_str);
} else if (cmpncs(member, "yticlabels2") == 0) {
strcpy(get_gfmtab->pGfm_attr->ytl2, value_str);
} else if (cmpncs(member, "ymtics1") == 0) {
strcpy(get_gfmtab->pGfm_attr->ymt1, value_str);
} else if (cmpncs(member, "ymtics2") == 0) {
strcpy(get_gfmtab->pGfm_attr->ymt2, value_str);
} else if (cmpncs(member, "datawc_x1") == 0) {
get_gfmtab->pGfm_attr->dsp[0] = value_float;
} else if (cmpncs(member, "datawc_y1") == 0) {
get_gfmtab->pGfm_attr->dsp[1] = value_float;
} else if (cmpncs(member, "datawc_x2") == 0) {
get_gfmtab->pGfm_attr->dsp[2] = value_float;
} else if (cmpncs(member, "datawc_y2") == 0) {
get_gfmtab->pGfm_attr->dsp[3] = value_float;
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
get_gfmtab->pGfm_attr->idsp[0] = value_int;
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
get_gfmtab->pGfm_attr->idsp[1] = value_int;
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
get_gfmtab->pGfm_attr->idsp[2] = value_int;
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
get_gfmtab->pGfm_attr->idsp[3] = value_int;
} else if (cmpncs(member, "datawc_calendar") == 0) {
get_gfmtab->pGfm_attr->calendar = value_int;
} else if (cmpncs(member, "datawc_timeunits") == 0) {
strcpy(get_gfmtab->pGfm_attr->timeunits, value_str);
} else if (cmpncs(member, "xaxisconvert") == 0) {
strcpy(get_gfmtab->pGfm_attr->xat, value_str);
} else if (cmpncs(member, "yaxisconvert") == 0) {
strcpy(get_gfmtab->pGfm_attr->yat, value_str);
} else if (cmpncs(member, "missing") == 0) {
get_gfmtab->pGfm_attr->missing = value_int;
} else if (cmpncs(member, "mesh") == 0) {
get_gfmtab->pGfm_attr->mesh = value_int;
} else if (cmpncs(member, "legend") == 0) {
if (value_str != NULL) {
if (get_gfmtab->pGfm_attr->legend != NULL) {
free((char *) get_gfmtab->pGfm_attr->legend);
get_gfmtab->pGfm_attr->legend = NULL;
}
get_gfmtab->pGfm_attr->legend = (char *)malloc(strlen(value_str)*sizeof(char)+1);
strcpy(get_gfmtab->pGfm_attr->legend, value_str);
} else {
if (get_gfmtab->pGfm_attr->legend != NULL) {
free((char *) get_gfmtab->pGfm_attr->legend);
get_gfmtab->pGfm_attr->legend = NULL;
}
}
} else if (cmpncs(member, "wrap") == 0 ){
if ((VALUE==NULL) || (VALUE == Py_None )) {
get_gfmtab->pGfm_attr->xwrap=0. ;
get_gfmtab->pGfm_attr->ywrap=0.;
}
else {
wrap=PyList_GetItem(VALUE,0);
if (wrap==Py_None) {
get_gfmtab->pGfm_attr->ywrap=0.;
}
else {
get_gfmtab->pGfm_attr->ywrap=(float)PyFloat_AsDouble(wrap);
}
wrap=PyList_GetItem(VALUE,1);
if (wrap==Py_None) {
get_gfmtab->pGfm_attr->xwrap=0.;
}
else {
get_gfmtab->pGfm_attr->xwrap=(float)PyFloat_AsDouble(wrap);
}
}
} else if (cmpncs(member, "levels") == 0) {
/* get the style values */
Get_Member(GFM,"fillareastyle", "s", &style);
/* get the style index values */
Get_Member(GFM,"fillareaindices", "O", &sindices);
/* get the color values */
Get_Member(GFM,"fillareacolors", "O", &listit);
/* Free the current fill_range link list */
pfiso = next_pfiso = get_gfmtab->pGfm_attr->line;
while (pfiso != NULL) {
next_pfiso = pfiso->next;
free ((char *) pfiso);
pfiso = next_pfiso;
}
get_gfmtab->pGfm_attr->line = tpfiso = NULL;
if (PyTuple_Check(VALUE)) { /*check for tuple*/
/* Create the new fill_range link list */
for (i=0; i<PyTuple_Size(VALUE); i++) {
tup = PyTuple_GetItem(VALUE, i);
if (PyList_Check(tup)) { /* check for list */
for (j=0; j<(PyList_Size(tup)-1); j++) {
/* malloc the new iso struct */
if ((pfiso_new = (struct fill_range *)malloc(
sizeof(struct fill_range)))==NULL) {
sprintf(buf,"No memory for new isofill id(%d).\n",i);
PyErr_SetString(PyExc_MemoryError, buf);
return NULL;
}
strcpy(pfiso_new->fill_name, "default");
if ((sindices==Py_None) || (sct>=PyList_Size(sindices))) {
if ((listit == Py_None) || (ct >= PyList_Size(listit)))
color_index = 16+ct;
else
color_index = (int) PyInt_AsLong(PyList_GetItem(listit,ct));
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfm_name, ct, style, 0, color_index));
} else if ((PyInt_Check(PyList_GetItem(sindices,sct))) ||
(PyFloat_Check(PyList_GetItem(sindices,sct)))) {
style_index = (int) PyInt_AsLong(PyList_GetItem(sindices,sct));
if ((listit == Py_None) || (ct >= PyList_Size(listit)))
color_index = 16+ct;
else
color_index = (int) PyInt_AsLong(PyList_GetItem(listit,ct));
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfm_name, ct, style, style_index, color_index));
} else { /* must be a fillarea object */
Tf_name = PyString_AsString(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, Tf_name);
}
pfiso_new->id = sct+1;
pfiso_new->lev1 = (float) PyFloat_AsDouble(PyList_GetItem(tup,j));
pfiso_new->lev2 = (float) PyFloat_AsDouble(PyList_GetItem(tup,j+1));
ct++;sct++;
pfiso_new->next = NULL;
/* Add to the new fill range link list */
if (tpfiso == NULL)
get_gfmtab->pGfm_attr->line = tpfiso = pfiso_new;
else {
tpfiso->next = pfiso_new;
tpfiso = pfiso_new;
}
}
} else {
if ((PyInt_Check(tup)) || (PyFloat_Check(tup))) {
/* malloc the new iso struct */
if ((pfiso_new = (struct fill_range *)malloc(
sizeof(struct fill_range)))==NULL) {
sprintf(buf,"No memory for new isofill id(%d).\n",i);
PyErr_SetString(PyExc_MemoryError, buf);
return NULL;
}
strcpy(pfiso_new->fill_name, "default");
if ((listit == Py_None) || (ct >= PyList_Size(listit)))
color_index = 16+ct;
else
color_index = (int) PyInt_AsLong(PyList_GetItem(listit,ct));
if ((sindices==Py_None) || (sct>=PyList_Size(sindices))) {
style_index = sct;
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfm_name, i, style, style_index, color_index));
} else if (PyInt_Check(PyList_GetItem(sindices,sct))) {
style_index = (int) PyInt_AsLong(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfm_name, i, style, style_index, color_index));
} else { /* must be a fillarea object */
Tf_name = PyString_AsString(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, Tf_name);
}
pfiso_new->id = sct+1;
pfiso_new->lev1 = (float) PyFloat_AsDouble(tup);
tup = PyTuple_GetItem(VALUE, i+1);
pfiso_new->lev2 = (float) PyFloat_AsDouble(tup);
ct++;sct++;
pfiso_new->next = NULL;
/* Add to the new fill range link list */
if (tpfiso == NULL)
get_gfmtab->pGfm_attr->line = tpfiso = pfiso_new;
else {
tpfiso->next = pfiso_new;
tpfiso = pfiso_new;
}
if (i == (PyTuple_Size(VALUE)-2)) break;
} else {
PyErr_SetString(PyExc_ValueError, "Must be either integer or float values.");
return NULL;
}
}
}
} else if (PyList_Check(VALUE)) { /* check for list */
/* Create the new fill_range link list */
for (j=0; j<(PyList_Size(VALUE)-1); j++) {
/* malloc the new iso struct */
if ((pfiso_new = (struct fill_range *)malloc(
sizeof(struct fill_range)))==NULL) {
sprintf(buf,"No memory for new isofill id(%d).\n",j);
PyErr_SetString(PyExc_MemoryError, buf);
return NULL;
}
if ((listit == Py_None) || (ct >= PyList_Size(listit)))
color_index = 16+ct;
else
color_index = (int) PyInt_AsLong(PyList_GetItem(listit,ct));
if ((sindices==Py_None) || (sct>=PyList_Size(sindices))) {
style_index = sct;
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfm_name, j, style, style_index, color_index));
} else if (PyInt_Check(PyList_GetItem(sindices,sct))) {
style_index = (int) PyInt_AsLong(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, return_new_fillarea_attribute(Gfm_name, j, style, style_index, color_index));
} else { /* must be a fillarea object */
Tf_name = PyString_AsString(PyList_GetItem(sindices,sct));
strcpy(pfiso_new->fill_name, Tf_name);
}
pfiso_new->id = j;
pfiso_new->lev1 = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,j));
pfiso_new->lev2 = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,j+1));
ct++; sct++;
pfiso_new->next = NULL;
/* Add to the new fill range link list */
if (tpfiso == NULL)
get_gfmtab->pGfm_attr->line = tpfiso = pfiso_new;
else {
tpfiso->next = pfiso_new;
tpfiso = pfiso_new;
}
}
}
}
chk_mov_Gfm(get_gfmtab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/*
* Call the Set_Member function to assign the data
* member of the known object by name. This function
* can take all the common Python/C data conversion
* types: { "s" = char * : "i" = int : "l" = long :
* "c" = char : "f" = float : "d" = double:
* "O" = PyObject * .
*
* But in this case below, I am sending only the PyObject
* down. No need to convert to C then back to PyObject.
if (member!=NULL)
Set_Member(GFM, member, "O", VALUE);
*/
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new isofill graphics method by copying from an existing
* isofill graphics method. If no source copy name argument is given,
* then the default isofill graphics method will be used to replicate
* the new isofill graphics method.
*/
static PyObject *
PyVCS_copyGfm(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GFM_SRC=NULL, *GFM_NAME=NULL;
char copy_name[1024];
extern int copy_Gfm_name();
if(PyArg_ParseTuple(args,"|ss", &GFM_SRC, &GFM_NAME)) {
if (GFM_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source isofill graphics method name.");
return NULL;
}
if (GFM_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", GFM_NAME);
}
ierr = copy_Gfm_name(GFM_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating isofill graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing isofill graphics method.
*/
static PyObject *
PyVCS_renameGfm(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GFM_OLD_NAME=NULL, *GFM_NEW_NAME=NULL;
extern int renameGfm_name();
if(PyArg_ParseTuple(args,"|ss", &GFM_OLD_NAME, &GFM_NEW_NAME)) {
if ((GFM_OLD_NAME == NULL) || (GFM_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new isofill graphics method name.");
return NULL;
}
}
ierr = renameGfm_name(GFM_OLD_NAME, GFM_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming isofill graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing meshfill graphics method.
*/
static PyObject *
PyVCS_removeGfm(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the meshfill file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeGfm_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed meshfill object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The meshfill object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing meshfill graphics method.
*/
static PyObject *
PyVCS_scriptGfm(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *GFM_NAME=NULL,*MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_isofill();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &GFM_NAME, &SCRIPT_NAME, &MODE)) {
if (GFM_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the meshfill name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_meshfill(fp, GFM_NAME) == 0) {
sprintf(buf, "Error - Cannot save isofill script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/* Check if projection exist */
static PyObject *
PyVCS_checkProj(self,args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Proj_name;
struct projection_attr *pj;
extern struct projection_attr p_PRJ_list;
if(PyArg_ParseTuple(args,"|s",&Proj_name)) {
if (Proj_name == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
}
pj=&p_PRJ_list;
while ((pj != NULL) &&
(strcmp(pj->name, Proj_name) != 0)){
pj = pj->next;}
if (pj == NULL)
{
/* does not exist return 0 */
return Py_BuildValue("i",0);
}
else
{
/* does exist */
return Py_BuildValue("i",1);
}
}
/*
* Return the VCS projection (Proj) member value.
*/
static PyObject *
PyVCS_getProjmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Proj_name, *member=NULL, buf[1024];
int i=0;
PyObject *PROJ=NULL, *MEMBER=NULL, *tup, *lp;
struct projection_attr *projtab;
extern struct projection_attr p_PRJ_list;
if(PyArg_ParseTuple(args,"|OO",&PROJ, &MEMBER)) {
if (PROJ == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(PROJ,"name", "s", &Proj_name);
projtab=&p_PRJ_list;
while ((projtab != NULL) &&
(strcmp(projtab->name, Proj_name) != 0))
projtab = projtab->next;
if (projtab == NULL) {
sprintf(buf,"Cannot find projection %s.",Proj_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "type") == 0) {
return Py_BuildValue("i", projtab->proj_type);
} else if (cmpncs(member, "parameters") == 0) {
tup = PyList_New(15);
for (i=0;i<15;i++)
{
lp = Py_BuildValue("f",projtab->parm[i]);
PyList_SetItem(tup, i, lp);
}
return tup;
/* return Py_BuildValue("[f,f,f,f,f,f,f,f,f,f,f,f,f,f,f]", projtab->parm); */
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing projection and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the graphics method's attribute will
* be changed.
*/
static PyObject *
PyVCS_setProjmember(self, args)
PyObject *self;
PyObject *args;
{
int i,j=0,n,ct=0,sct=0,color_index,style_index;
int MODE, value_int;
long value_long;
float value_float;
double value_double;
char *Tf_name;
char buf[1024], *style;
char *Proj_name, *str=NULL, *member=NULL;
char *value_str=NULL;
PyObject *PROJ=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *listit,*tup, *sindices, *wrap;
extern int update_ind;
struct projection_attr *projtab;
extern struct projection_attr p_PRJ_list;
extern int chk_mov_Proj();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOi", &PROJ, &MEMBER, &VALUE, &MODE)) {
if (PROJ == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(PROJ,"name", "s", &Proj_name);
projtab=&p_PRJ_list;
while ((projtab != NULL) &&
(strcmp(projtab->name, Proj_name) != 0))
projtab = projtab->next;
/* projtab=(struct projection_attr *)getProj(Proj_name); */
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
}
/* Set the projection attributes */
if (cmpncs(member, "type") == 0) {
if (PyInt_Check(VALUE))
{
projtab->proj_type=(int)PyInt_AsLong(VALUE);
}
else if (PyLong_Check(VALUE))
{
projtab->proj_type=(int)PyLong_AsLong(VALUE);
}
}
else if (cmpncs(member, "parameters") == 0) {
if (PyList_Check(VALUE))
{
for (i=0;i<15;i++){
projtab->parm[i]=PyFloat_AsDouble(PyNumber_Float(PyList_GetItem(VALUE,i)));
}
}
else if (PyTuple_Check(VALUE))
{
for (i=0;i<15;i++){
projtab->parm[i]=PyFloat_AsDouble(PyNumber_Float(PyTuple_GetItem(VALUE,i)));
}
}
}
/* chk_mov_Proj(projtab); */
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new projection by copying from an existing one
* If no source copy name argument is given, then the default projection will be
* used to replicate theprojection
*/
static PyObject *
PyVCS_copyProj(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *PROJ_SRC=NULL, *PROJ_NAME=NULL;
char copy_name[1024];
extern int copy_Proj_name();
if(PyArg_ParseTuple(args,"|ss", &PROJ_SRC, &PROJ_NAME)) {
if (PROJ_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source projection.");
return NULL;
}
if (PROJ_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", PROJ_NAME);
}
ierr = copy_Proj_name(PROJ_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating projection.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing isofill graphics method.
*/
static PyObject *
PyVCS_renameProj(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *PROJ_OLD_NAME=NULL, *PROJ_NEW_NAME=NULL;
extern int renameProj_name();
if(PyArg_ParseTuple(args,"|ss", &PROJ_OLD_NAME, &PROJ_NEW_NAME)) {
if ((PROJ_OLD_NAME == NULL) || (PROJ_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new projection.");
return NULL;
}
}
ierr = renameProj_name(PROJ_OLD_NAME, PROJ_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming projection.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing isofill graphics method.
*/
static PyObject *
PyVCS_removeProj(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the projection name.");
return NULL;
}
}
/* Return Python String Object */
if (removeProj_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed projection object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The projection object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing meshfill graphics method.
*/
static PyObject *
PyVCS_scriptProj(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *GFM_NAME=NULL,*MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &GFM_NAME, &SCRIPT_NAME, &MODE)) {
if (GFM_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the projection name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_projection(fp, GFM_NAME) == 0) {
sprintf(buf, "Error - Cannot save projection script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/* Create and return the name of the new line attribute */
char * return_new_line_attribute(Gi_name,id, line_index, color_index, line_width)
char *Gi_name;
int id;
int line_index;
int color_index;
float line_width;
{
int j,ct=0;
char buf[1024], *line_name;
struct table_line *pl,*p1;
extern struct table_line Tl_tab;
extern int chk_mov_Tl();
/*
* Set new attributes for Tl.
* Create a new line structure and copy to it.
*/
if((pl=(struct table_line *)malloc(sizeof(struct table_line)))==NULL) {
PyErr_SetString(PyExc_MemoryError, "No memory for new line attribute.");
return NULL;
}
/* nullify the set of attributes */
pl->priority = 1;
for (j=0; j < 4; j++) {
if (j == 0 || j == 2) {
pl->lvp[j]=0.0;
pl->lwc[j]=0.0;
} else {
pl->lvp[j]=1.0;
pl->lwc[j]=1.0;
}
}
pl->lx = NULL;
pl->ly = NULL;
pl->ltyp = NULL; pl->ltyp_size = 0;
pl->lwsf = NULL; pl->lwsf_size = 0;
pl->lci = NULL; pl->lci_size = 0;
/* Create and set the new line name */
/*sprintf(buf,"%s_%d", Gi_name, id);*/
for (p1=&Tl_tab;p1 != NULL;p1=p1->next)
ct++;
sprintf(buf,"GEN_%d", ct);
line_name = (char *) malloc(strlen(buf)*sizeof(char)+1);
strcpy(pl->name,buf);
strcpy(line_name,buf);
/* Set the line type */
if((pl->ltyp=(int *) malloc(sizeof(int)))==NULL) {
PyErr_SetString(VCS_Error,"Error - memory for line values not found.");
return NULL;
}
pl->ltyp[0] = line_index; pl->ltyp_size = 1;
/* Set the linewidth scale factor */
if((pl->lwsf=(float *) malloc(sizeof(float)))==NULL) {
PyErr_SetString(VCS_Error,"Error - memory for line values not found.");
return NULL;
}
pl->lwsf[0] = line_width; pl->lwsf_size = 1;
/* Get the color index used for the line */
if((pl->lci=(int *) malloc(sizeof(int)))==NULL) {
PyErr_SetString(VCS_Error,"Error - memory for line values not found.");
return NULL;
}
pl->lci[0] = color_index; pl->lci_size = 1;
pl->next = NULL;
/* Set the new structure in the list */
chk_mov_Tl (pl);
return line_name;
}
/* Create and return the name of the new marker attribute */
char * return_new_marker_attribute(Gi_name,id, marker_index, color_index, size_index)
char *Gi_name;
int id;
int marker_index;
int color_index;
int size_index;
{
int j,ct=0;
char buf[1024], *marker_name;
struct table_mark *pm,*p1;
extern struct table_mark Tm_tab;
extern int chk_mov_Tm();
/*
* Set new attributes for Tm.
* Create a new marker structure and copy to it.
*/
if((pm=(struct table_mark *)malloc(sizeof(struct table_mark)))==NULL) {
PyErr_SetString(PyExc_MemoryError, "No memory for new marker attribute.");
return NULL;
}
/* nullify the set of attributes */
pm->priority = 1;
for (j=0; j < 4; j++) {
if (j == 0 || j == 2) {
pm->mvp[j]=0.0;
pm->mwc[j]=0.0;
} else {
pm->mvp[j]=1.0;
pm->mwc[j]=1.0;
}
}
pm->mx = NULL;
pm->my = NULL;
pm->mtyp = NULL; pm->mtyp_size = 0;
pm->msize = NULL; pm->msize_size = 0;
pm->mci = NULL; pm->mci_size = 0;
/* Create and set the new marker name */
/*sprintf(buf,"%s_%d", Gi_name, id);*/
for (p1=&Tm_tab;p1 != NULL;p1=p1->next)
ct++;
sprintf(buf,"GEN_%d", ct);
marker_name = (char *) malloc(strlen(buf)*sizeof(char)+1);
strcpy(pm->name,buf);
strcpy(marker_name,buf);
/* Set the marker type */
if((pm->mtyp=(int *) malloc(sizeof(int)))==NULL) {
PyErr_SetString(VCS_Error,"Error - memory for marker values not found.");
return NULL;
}
pm->mtyp[0] = marker_index;pm->mtyp_size = 1;
/* Set the markerwidth scale factor */
if((pm->msize=(float *) malloc(sizeof(float)))==NULL) {
PyErr_SetString(VCS_Error,"Error - memory for marker values not found.");
return NULL;
}
pm->msize[0] = size_index; pm->msize_size = 1;
/* Get the color index used for the marker */
if((pm->mci=(int *) malloc(sizeof(int)))==NULL) {
PyErr_SetString(VCS_Error,"Error - memory for marker values not found.");
return NULL;
}
pm->mci[0] = color_index; pm->mci_size = 1;
pm->next = NULL;
/* Set the new structure in the list */
chk_mov_Tm (pm);
return marker_name;
}
/* Create and return the name of the new text attribute */
char * return_new_text_attribute(Gi_name,id, font_index, color_index)
char *Gi_name;
int id;
int font_index;
int color_index;
{
int ct=0;
char buf[1024], *text_name;
struct table_text *pt,*p1;
extern struct table_text Tt_tab;
extern int chk_mov_Tt();
extern int update_ind;
/*
* Set new attributes for Tt.
* Create a new line structure and copy to it.
*/
if((pt=(struct table_text *)malloc(sizeof(struct table_text)))==NULL) {
PyErr_SetString(PyExc_MemoryError, "No memory for new text attribute.");
return NULL;
}
/* Create and set the new text name */
/*sprintf(buf,"%s_%d", Gi_name, id);*/
for (p1=&Tt_tab;p1 != NULL;p1=p1->next)
ct++;
sprintf(buf,"GEN_%d", ct);
text_name = (char *) malloc(strlen(buf)*sizeof(char)+1);
strcpy(pt->name,buf);
strcpy(text_name,buf);
/* Set the text font type */
pt->txfont = font_index;
/* Set the text precision */
pt->txpr = 2;
/* Set the text expansion */
pt->txexp = 1.0;
/* Set the text spacing */
pt->txsp = 0.2;
/* Set the text colour index */
pt->txci = color_index;
/* Set the text fillin colour index */
pt->txfci = 240;
pt->next=NULL;
/* Set the new structure in the list */
chk_mov_Tt (pt);
vcs_canvas_update(0);
return text_name;
}
/*
* Find the existing isoline graphics method and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the graphics method's attribute will
* be changed.
*/
static PyObject *
PyVCS_setGimember(self, args)
PyObject *self;
PyObject *args;
{
int i,j=0,n,ct=0,lct=1,color_index=0,line_index,lst_size=0;
int MODE, value_int, font_index=1, text_color_index=0;
long value_long;
float value_float,width_val=1.0;
double value_double;
char buf[1024], *Tf_name=NULL, *tptr;
char *Gi_name, *Tl_name=NULL, *str=NULL, *member=NULL;
char *value_str=NULL;
PyObject *GI=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *itempk,*itempv,*pkeys,*pvalues;
PyObject *listit,*tup, *lindices, *listtt, *listitc, *listlw;
PyObject *listitclock, *listitscale, *listitangle, *listitspacing;
int line_clock;
float line_scale, line_angle, line_spacing;
struct gi_tab *get_gitab=NULL;
extern int update_ind;
struct iso *piso, *next_piso, *piso_new, *tpiso;
struct gi_tab *gitab;
extern struct gi_tab Gi_tab;
extern struct gi_tab *getGi();
extern int chk_mov_Gi();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOi", &GI, &MEMBER, &VALUE, &MODE)) {
if (GI == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(GI,"name", "s", &Gi_name);
gitab=&Gi_tab;
while ((gitab != NULL) &&
(strcmp(gitab->name, Gi_name) != 0))
gitab = gitab->next;
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
if (VALUE != NULL) {
if (PyString_Check(VALUE)) { /*check string*/
value_str = PyString_AsString(VALUE);
} else if (PyInt_Check(VALUE)) { /*check for int*/
value_int = (int) PyInt_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for float*/
value_float = (float) PyFloat_AsDouble(VALUE);
} else if (PyLong_Check(VALUE)) { /* check for long*/
value_long = PyLong_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for double*/
value_double = PyFloat_AsDouble(VALUE);
} else if (PyDict_Check(VALUE)) { /*check for dictionary*/
value_str = return_vcs_list(VALUE, member);
}
}
/*
* Set the appropriate isoline attribute. But first
* get the isoline structure.
*/
get_gitab = getGi(gitab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_gitab->pGi_attr->proj, value_str);
} else if (cmpncs(member, "xticlabels1") == 0) {
strcpy(get_gitab->pGi_attr->xtl1, value_str);
} else if (cmpncs(member, "xticlabels2") == 0) {
strcpy(get_gitab->pGi_attr->xtl2, value_str);
} else if (cmpncs(member, "xmtics1") == 0) {
strcpy(get_gitab->pGi_attr->xmt1, value_str);
} else if (cmpncs(member, "xmtics2") == 0) {
strcpy(get_gitab->pGi_attr->xmt2, value_str);
} else if (cmpncs(member, "yticlabels1") == 0) {
strcpy(get_gitab->pGi_attr->ytl1, value_str);
} else if (cmpncs(member, "yticlabels2") == 0) {
strcpy(get_gitab->pGi_attr->ytl2, value_str);
} else if (cmpncs(member, "ymtics1") == 0) {
strcpy(get_gitab->pGi_attr->ymt1, value_str);
} else if (cmpncs(member, "ymtics2") == 0) {
strcpy(get_gitab->pGi_attr->ymt2, value_str);
} else if (cmpncs(member, "datawc_x1") == 0) {
get_gitab->pGi_attr->dsp[0] = value_float;
} else if (cmpncs(member, "datawc_y1") == 0) {
get_gitab->pGi_attr->dsp[1] = value_float;
} else if (cmpncs(member, "datawc_x2") == 0) {
get_gitab->pGi_attr->dsp[2] = value_float;
} else if (cmpncs(member, "datawc_y2") == 0) {
get_gitab->pGi_attr->dsp[3] = value_float;
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
get_gitab->pGi_attr->idsp[0] = value_int;
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
get_gitab->pGi_attr->idsp[1] = value_int;
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
get_gitab->pGi_attr->idsp[2] = value_int;
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
get_gitab->pGi_attr->idsp[3] = value_int;
} else if (cmpncs(member, "datawc_calendar") == 0) {
get_gitab->pGi_attr->calendar = value_int;
} else if (cmpncs(member, "datawc_timeunits") == 0) {
strcpy(get_gitab->pGi_attr->timeunits, value_str);
} else if (cmpncs(member, "xaxisconvert") == 0) {
strcpy(get_gitab->pGi_attr->xat, value_str);
} else if (cmpncs(member, "yaxisconvert") == 0) {
strcpy(get_gitab->pGi_attr->yat, value_str);
} else if (cmpncs(member, "label") == 0) {
if (cmpncs(value_str, "y") == 0)
get_gitab->pGi_attr->labels = 121;
else
get_gitab->pGi_attr->labels = 110;
} else if (cmpncs(member, "level") == 0) {
/* get the line type values */
Get_Member(GI,"line", "O", &lindices);
/* get the line color values */
Get_Member(GI,"linecolors", "O", &listit);
/* get the line width values */
Get_Member(GI,"linewidths", "O", &listlw);
/* get the text values */
Get_Member(GI,"text", "O", &listtt);
/* get the text color values */
Get_Member(GI,"textcolors", "O", &listitc);
/* get the clockwise values */
Get_Member(GI,"clockwise", "O", &listitclock);
/* get the length scale values */
Get_Member(GI,"scale", "O", &listitscale);
/* get the angle values */
Get_Member(GI,"angle", "O", &listitangle);
/* get the spacing values */
Get_Member(GI,"spacing", "O", &listitspacing);
/* Free the current isoline range link list */
piso = next_piso = get_gitab->pGi_attr->line;
while (piso != NULL) {
next_piso = piso->next;
free ((char *) piso);
piso = next_piso;
}
get_gitab->pGi_attr->line = tpiso = NULL;
if (PyList_Check(VALUE)) { /* check for list */
/* Create the new isoline range link list */
lst_size = PyList_Size(VALUE);
for (j=0; j<lst_size; j++) {
/* malloc the new iso struct */
if ((piso_new = (struct iso *)malloc(
sizeof(struct iso)))==NULL) {
sprintf(buf,"No memory for new isoline id(%d).\n",j);
PyErr_SetString(PyExc_MemoryError, buf);
return NULL;
}
if ((lindices==Py_None) || (lct>PyList_Size(lindices))) {
line_index = 1;
} else {
if (cmpncs("solid", PyString_AsString(PyList_GetItem(lindices,ct)))==0)
line_index = 1;
else if (cmpncs("dash", PyString_AsString(PyList_GetItem(lindices,ct)))==0)
line_index = 2;
else if (cmpncs("dot", PyString_AsString(PyList_GetItem(lindices,ct)))==0)
line_index = 3;
else if (cmpncs("dash-dot", PyString_AsString(PyList_GetItem(lindices,ct)))==0)
line_index = 4;
else if (cmpncs("long-dash", PyString_AsString(PyList_GetItem(lindices,ct)))==0)
line_index = -3;
else {
Tl_name = PyString_AsString(PyList_GetItem(lindices,ct));
if (Tl_name == NULL)
line_index = (int) PyInt_AsLong(PyList_GetItem(lindices,ct));
else
line_index = 999;
}
}
if ((listit == Py_None) || (ct >= PyList_Size(listit)))
color_index = 241; /*color_index = 16+ct;*/
else
color_index = (int) PyInt_AsLong(PyList_GetItem(listit,ct));
if ((listlw == Py_None) || (ct >= PyList_Size(listlw)))
{ width_val = 1.0;
}
else {
width_val = (float) PyFloat_AsDouble(PyList_GetItem(listlw,ct));
}
if ((listtt == Py_None) || (ct >= PyList_Size(listtt)))
font_index = 1;
else if (PyString_Check(PyList_GetItem(listtt,ct))) {
Tf_name = PyString_AsString(PyList_GetItem(listtt,ct));
font_index = 999;
}else
font_index = (float) PyInt_AsLong(PyList_GetItem(listtt,ct));
if ((listitc == Py_None) || (ct >= PyList_Size(listitc)))
text_color_index = 241;
else
text_color_index = (int) PyInt_AsLong(PyList_GetItem(listitc,ct));
if ((listitclock == Py_None) || (ct >= PyList_Size(listitclock)))
line_clock = 0; /*color_index = 16+ct;*/
else
line_clock = (int) PyInt_AsLong(PyList_GetItem(listitclock,ct));
if ((listitscale == Py_None) || (ct >= PyList_Size(listitscale)))
line_scale = 1.; /*color_index = 16+ct;*/
else
line_scale = (float) PyFloat_AsDouble(PyList_GetItem(listitscale,ct));
if ((listitangle == Py_None) || (ct >= PyList_Size(listitangle)))
line_angle = 35.; /*color_index = 16+ct;*/
else {
line_angle = (float) PyFloat_AsDouble(PyList_GetItem(listitangle,ct));
}
if ((listitspacing == Py_None) || (ct >= PyList_Size(listitspacing)))
line_spacing = 1.; /*color_index = 16+ct;*/
else
line_spacing = (float) PyFloat_AsDouble(PyList_GetItem(listitspacing,ct));
tup=PyList_GetItem(VALUE,j);
piso_new->id = j;
piso_new->p = 1;
piso_new->lev = (float) PyFloat_AsDouble(PyList_GetItem(tup,0));
piso_new->incr = (float) PyFloat_AsDouble(PyList_GetItem(tup,1));
piso_new->hici = 0;
piso_new->cw=line_clock;
piso_new->ls=line_scale;
piso_new->angle=line_angle;
piso_new->spc=line_spacing;
strcpy(piso_new->lab, "*");
if ((lindices==Py_None) && (listit == Py_None) && (listlw == Py_None)) {
strcpy(piso_new->lb,"default");
}
else {
if (line_index != 999) {
if ((listit == Py_None) && (listlw == Py_None))
strcpy(piso_new->lb, return_new_line_attribute(Gi_name, ct, line_index, 241, 1.0));
else
strcpy(piso_new->lb, return_new_line_attribute(Gi_name, ct, line_index, color_index,width_val));
} else {
strcpy(piso_new->lb, Tl_name);
}
}
if (font_index != 999) {
if (listtt == Py_None)
strcpy(piso_new->tb,"default");
else {
strcpy(piso_new->tb, return_new_text_attribute(Gi_name,ct,font_index,text_color_index));
}
strcpy(piso_new->to,"default");/* Use 'default' text orientation */
} else { /* must be a text object */
if (strncmp(Tf_name,"__Tt__.",7) == 0) {
strcpy(piso_new->tb, Tf_name+7);
strcpy(piso_new->to,"default");
} else if (strncmp(Tf_name,"__To__.",7) == 0) {
strcpy(piso_new->to, Tf_name+7);
strcpy(piso_new->tb,"default");
} else { /* must be text combined */
tptr = strstr(Tf_name, "__");
strncpy(piso_new->tb, Tf_name,(strlen(Tf_name)-strlen(tptr)));
piso_new->tb[(strlen(Tf_name)-strlen(tptr))] = '\0';
strcpy(piso_new->to, tptr+2);
}
}
ct++;lct++;
piso_new->next = NULL;
/* Add to the new fill range link list */
if (tpiso == NULL)
get_gitab->pGi_attr->line = tpiso = piso_new;
else {
tpiso->next = piso_new;
tpiso = piso_new;
}
}
}
}
chk_mov_Gi(get_gitab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new isoline graphics method by copying from an existing
* isoline graphics method. If no source copy name argument is given,
* then the default isoline graphics method will be used to replicate
* the new isoline graphics method.
*/
static PyObject *
PyVCS_copyGi(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GI_SRC=NULL, *GI_NAME=NULL;
char copy_name[1024];
extern int copy_Gi_name();
if(PyArg_ParseTuple(args,"|ss", &GI_SRC, &GI_NAME)) {
if (GI_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source isoline graphics method name.");
return NULL;
}
if (GI_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", GI_NAME);
}
ierr = copy_Gi_name(GI_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating isoline graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing isoline graphics method.
*/
static PyObject *
PyVCS_renameGi(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GI_OLD_NAME=NULL, *GI_NEW_NAME=NULL;
extern int renameGi_name();
if(PyArg_ParseTuple(args,"|ss", &GI_OLD_NAME, &GI_NEW_NAME)) {
if ((GI_OLD_NAME == NULL) || (GI_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new isoline graphics method name.");
return NULL;
}
}
ierr = renameGi_name(GI_OLD_NAME, GI_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming isoline graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing isoline graphics method.
*/
static PyObject *
PyVCS_removeGi(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the isoline file name.");
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if (removeGi_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed isoline object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The isoline object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing isoline graphics method.
*/
static PyObject *
PyVCS_scriptGi(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *GI_NAME=NULL,*MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_isoline();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &GI_NAME, &SCRIPT_NAME, &MODE)) {
if (GI_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the isoline name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_isoline(fp, GI_NAME) == 0) {
sprintf(buf, "Error - Cannot save isoline script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS outline (Go) graphics method member value.
*/
static PyObject *
PyVCS_getGomember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Go_name, *member=NULL, buf[1024];
int i=0, ct=0;
PyObject *GO=NULL, *MEMBER=NULL, *tup, *lp;
struct go_tab *gotab;
extern struct go_tab Go_tab;
struct go_attr *pgo;
if(PyArg_ParseTuple(args,"|OO",&GO, &MEMBER)) {
if (GO == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(GO,"name", "s", &Go_name);
gotab=&Go_tab;
while ((gotab != NULL) &&
(strcmp(gotab->name, Go_name) != 0))
gotab = gotab->next;
if (gotab == NULL) {
sprintf(buf,"Cannot find isofill graphics method Go_%s.",Go_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0) {
return Py_BuildValue("s", gotab->pGo_attr->proj);
} else if (cmpncs(member, "xticlabels1") == 0) {
return Py_BuildValue("s", gotab->pGo_attr->xtl1);
} else if (cmpncs(member, "xticlabels2") == 0) {
return Py_BuildValue("s", gotab->pGo_attr->xtl2);
} else if (cmpncs(member, "xmtics1") == 0) {
return Py_BuildValue("s", gotab->pGo_attr->xmt1);
} else if (cmpncs(member, "xmtics2") == 0) {
return Py_BuildValue("s", gotab->pGo_attr->xmt2);
} else if (cmpncs(member, "yticlabels1") == 0) {
return Py_BuildValue("s", gotab->pGo_attr->ytl1);
} else if (cmpncs(member, "yticlabels2") == 0) {
return Py_BuildValue("s", gotab->pGo_attr->ytl2);
} else if (cmpncs(member, "ymtics1") == 0) {
return Py_BuildValue("s", gotab->pGo_attr->ymt1);
} else if (cmpncs(member, "ymtics2") == 0) {
return Py_BuildValue("s", gotab->pGo_attr->ymt2);
} else if (cmpncs(member, "datawc_y1") == 0) {
return Py_BuildValue("f",gotab->pGo_attr->dsp[1]);
} else if (cmpncs(member, "datawc_y2") == 0) {
return Py_BuildValue("f",gotab->pGo_attr->dsp[3]);
} else if (cmpncs(member, "datawc_x1") == 0) {
return Py_BuildValue("f",gotab->pGo_attr->dsp[0]);
} else if (cmpncs(member, "datawc_x2") == 0) {
return Py_BuildValue("f",gotab->pGo_attr->dsp[2]);
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
return Py_BuildValue("i",gotab->pGo_attr->idsp[1]);
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
return Py_BuildValue("i",gotab->pGo_attr->idsp[3]);
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
return Py_BuildValue("i",gotab->pGo_attr->idsp[0]);
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
return Py_BuildValue("i",gotab->pGo_attr->idsp[2]);
} else if (cmpncs(member, "datawc_calendar") == 0) {
return Py_BuildValue("i",gotab->pGo_attr->calendar);
} else if (cmpncs(member, "datawc_timeunits") == 0) {
return Py_BuildValue("s",gotab->pGo_attr->timeunits);
} else if ((cmpncs(member, "xaxisconvert") == 0) &&
((cmpncs(gotab->pGo_attr->xat,"\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "xaxisconvert") == 0) {
return Py_BuildValue("s", gotab->pGo_attr->xat);
} else if ((cmpncs(member, "yaxisconvert") == 0) &&
((cmpncs(gotab->pGo_attr->yat, "\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "yaxisconvert") == 0) {
return Py_BuildValue("s", gotab->pGo_attr->yat);
} else if (cmpncs(member, "outline") == 0) {
/* Get the outline structure */
pgo = gotab->pGo_attr;
tup = PyList_New(0);
for (i=0; i<pgo->n; i++) {
lp = Py_BuildValue("i", pgo->out[i]);
PyList_Append(tup, lp);
}
return tup;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing outline graphics method and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the graphics method's attribute will
* be changed.
*/
static PyObject *
PyVCS_setGomember(self, args)
PyObject *self;
PyObject *args;
{
int i,j=0,n,ct=0,lct=1,color_index=0,line_index;
int MODE, value_int, font_index=1, text_color_index=0;
long value_long;
float value_float, width_index=1.0;
double value_double;
char buf[1024];
char *Go_name, *str=NULL, *member=NULL;
char *value_str=NULL, *Tl_name=NULL;
PyObject *GO=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *itempk,*itempv,*pkeys,*pvalues;
PyObject *listit,*tup, *line_obj, *listtt, *color_obj, *width_obj;
struct go_tab *get_gotab=NULL;
extern int update_ind;
struct go_attr *pgo;
struct go_tab *gotab;
extern struct go_tab Go_tab;
extern struct go_tab *getGo();
extern int chk_mov_Go();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOi", &GO, &MEMBER, &VALUE, &MODE)) {
if (GO == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(GO,"name", "s", &Go_name);
gotab=&Go_tab;
while ((gotab != NULL) &&
(strcmp(gotab->name, Go_name) != 0))
gotab = gotab->next;
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
if (VALUE != NULL) {
if (PyString_Check(VALUE)) { /*check string*/
value_str = PyString_AsString(VALUE);
} else if (PyInt_Check(VALUE)) { /*check for int*/
value_int = (int) PyInt_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for float*/
value_float = (float) PyFloat_AsDouble(VALUE);
} else if (PyLong_Check(VALUE)) { /* check for long*/
value_long = PyLong_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for double*/
value_double = PyFloat_AsDouble(VALUE);
} else if (PyDict_Check(VALUE)) { /*check for dictionary*/
value_str = return_vcs_list(VALUE, member);
}
}
/*
* Set the appropriate outline attribute. But first
* get the outline structure.
*/
get_gotab = getGo(gotab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_gotab->pGo_attr->proj, value_str);
} else if (cmpncs(member, "xticlabels1") == 0) {
strcpy(get_gotab->pGo_attr->xtl1, value_str);
} else if (cmpncs(member, "xticlabels2") == 0) {
strcpy(get_gotab->pGo_attr->xtl2, value_str);
} else if (cmpncs(member, "xmtics1") == 0) {
strcpy(get_gotab->pGo_attr->xmt1, value_str);
} else if (cmpncs(member, "xmtics2") == 0) {
strcpy(get_gotab->pGo_attr->xmt2, value_str);
} else if (cmpncs(member, "yticlabels1") == 0) {
strcpy(get_gotab->pGo_attr->ytl1, value_str);
} else if (cmpncs(member, "yticlabels2") == 0) {
strcpy(get_gotab->pGo_attr->ytl2, value_str);
} else if (cmpncs(member, "ymtics1") == 0) {
strcpy(get_gotab->pGo_attr->ymt1, value_str);
} else if (cmpncs(member, "ymtics2") == 0) {
strcpy(get_gotab->pGo_attr->ymt2, value_str);
} else if (cmpncs(member, "datawc_x1") == 0) {
get_gotab->pGo_attr->dsp[0] = value_float;
} else if (cmpncs(member, "datawc_y1") == 0) {
get_gotab->pGo_attr->dsp[1] = value_float;
} else if (cmpncs(member, "datawc_x2") == 0) {
get_gotab->pGo_attr->dsp[2] = value_float;
} else if (cmpncs(member, "datawc_y2") == 0) {
get_gotab->pGo_attr->dsp[3] = value_float;
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
get_gotab->pGo_attr->idsp[0] = value_int;
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
get_gotab->pGo_attr->idsp[1] = value_int;
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
get_gotab->pGo_attr->idsp[2] = value_int;
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
get_gotab->pGo_attr->idsp[3] = value_int;
} else if (cmpncs(member, "datawc_calendar") == 0) {
get_gotab->pGo_attr->calendar = value_int;
} else if (cmpncs(member, "datawc_timeunits") == 0) {
strcpy(get_gotab->pGo_attr->timeunits, value_str);
} else if (cmpncs(member, "xaxisconvert") == 0) {
strcpy(get_gotab->pGo_attr->xat, value_str);
} else if (cmpncs(member, "yaxisconvert") == 0) {
strcpy(get_gotab->pGo_attr->yat, value_str);
} else if (cmpncs(member, "outline") == 0) {
/* get the line values */
Get_Member(GO,"line", "O", &line_obj);
/* get the color values */
Get_Member(GO,"linecolor", "O", &color_obj);
/* get the color values */
Get_Member(GO,"linewidth", "O", &width_obj);
/* Get the outline structure */
pgo = get_gotab->pGo_attr;
/* Clear all outline values */
for (j=0; j < pgo->n; j++)
pgo->out[j] = 0;
if (line_obj==Py_None)
line_index = 1; /* default to solid line */
else {
if (cmpncs("solid", PyString_AsString(line_obj))==0)
line_index = 1;
else if (cmpncs("dash", PyString_AsString(line_obj))==0)
line_index = 2;
else if (cmpncs("dot", PyString_AsString(line_obj))==0)
line_index = 3;
else if (cmpncs("dash-dot", PyString_AsString(line_obj))==0)
line_index = 4;
else if (cmpncs("long-dash", PyString_AsString(line_obj))==0)
line_index = -3;
else { /* Must be a line object */
Tl_name = PyString_AsString(line_obj);
line_index = 999;
}
}
if (color_obj == Py_None)
color_index = 241; /* set color to default black color*/
else
color_index = (int) PyInt_AsLong(color_obj);
if (width_obj == Py_None)
width_index = 1.0; /* set width to default size 1.0*/
else
width_index = (float) PyFloat_AsDouble(width_obj);
if (line_index != 999) {
if ((line_obj==Py_None) && (color_obj == Py_None) && (width_obj == Py_None))
strcpy(pgo->lb,"default");
else
strcpy(pgo->lb,return_new_line_attribute(Go_name, 0, line_index, color_index, width_index));
} else /* must be a line object */
strcpy(pgo->lb, Tl_name);
if (PyList_Check(VALUE)) { /* check for list */
/* Set the outline values */
for (j=0; j<PyList_Size(VALUE); j++)
pgo->out[j] = (int) PyInt_AsLong(PyList_GetItem(VALUE,j));
pgo->n = j;
}
}
chk_mov_Go(get_gotab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new outline graphics method by copying from an existing
* outline graphics method. If no source copy name argument is given,
* then the default outline graphics method will be used to replicate
* the new outline graphics method.
*/
static PyObject *
PyVCS_copyGo(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GO_SRC=NULL, *GO_NAME=NULL;
char copy_name[1024];
extern int copy_Go_name();
if(PyArg_ParseTuple(args,"|ss", &GO_SRC, &GO_NAME)) {
if (GO_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source outline graphics method name.");
return NULL;
}
if (GO_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", GO_NAME);
}
ierr = copy_Go_name(GO_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating outline graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing outline graphics method.
*/
static PyObject *
PyVCS_renameGo(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GO_OLD_NAME=NULL, *GO_NEW_NAME=NULL;
extern int renameGo_name();
if(PyArg_ParseTuple(args,"|ss", &GO_OLD_NAME, &GO_NEW_NAME)) {
if ((GO_OLD_NAME == NULL) || (GO_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new outline graphics method name.");
return NULL;
}
}
ierr = renameGo_name(GO_OLD_NAME, GO_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming outline graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing outline graphics method.
*/
static PyObject *
PyVCS_removeGo(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the outline file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeGo_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed outline object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The outline object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing outline graphics method.
*/
static PyObject *
PyVCS_scriptGo(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *GO_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_outline();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &GO_NAME, &SCRIPT_NAME, &MODE)) {
if (GO_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the outline name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_outline(fp, GO_NAME) == 0) {
sprintf(buf, "Error - Cannot save outline script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS outfill (Gfo) graphics method member value.
*/
static PyObject *
PyVCS_getGfomember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Gfo_name, *member=NULL, buf[1024];
int i=0, ct=0;
PyObject *GFO=NULL, *MEMBER=NULL, *tup, *lp;
struct gfo_tab *gfotab;
extern struct gfo_tab Gfo_tab;
struct gfo_attr *pgfo;
if(PyArg_ParseTuple(args,"|OO",&GFO, &MEMBER)) {
if (GFO == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(GFO,"name", "s", &Gfo_name);
gfotab=&Gfo_tab;
while ((gfotab != NULL) &&
(strcmp(gfotab->name, Gfo_name) != 0))
gfotab = gfotab->next;
if (gfotab == NULL) {
sprintf(buf,"Cannot find isofill graphics method Gfo_%s.",Gfo_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0) {
return Py_BuildValue("s", gfotab->pGfo_attr->proj);
} else if (cmpncs(member, "xticlabels1") == 0) {
return Py_BuildValue("s", gfotab->pGfo_attr->xtl1);
} else if (cmpncs(member, "xticlabels2") == 0) {
return Py_BuildValue("s", gfotab->pGfo_attr->xtl2);
} else if (cmpncs(member, "xmtics1") == 0) {
return Py_BuildValue("s", gfotab->pGfo_attr->xmt1);
} else if (cmpncs(member, "xmtics2") == 0) {
return Py_BuildValue("s", gfotab->pGfo_attr->xmt2);
} else if (cmpncs(member, "yticlabels1") == 0) {
return Py_BuildValue("s", gfotab->pGfo_attr->ytl1);
} else if (cmpncs(member, "yticlabels2") == 0) {
return Py_BuildValue("s", gfotab->pGfo_attr->ytl2);
} else if (cmpncs(member, "ymtics1") == 0) {
return Py_BuildValue("s", gfotab->pGfo_attr->ymt1);
} else if (cmpncs(member, "ymtics2") == 0) {
return Py_BuildValue("s", gfotab->pGfo_attr->ymt2);
} else if (cmpncs(member, "datawc_y1") == 0) {
return Py_BuildValue("f",gfotab->pGfo_attr->dsp[1]);
} else if (cmpncs(member, "datawc_y2") == 0) {
return Py_BuildValue("f",gfotab->pGfo_attr->dsp[3]);
} else if (cmpncs(member, "datawc_x1") == 0) {
return Py_BuildValue("f",gfotab->pGfo_attr->dsp[0]);
} else if (cmpncs(member, "datawc_x2") == 0) {
return Py_BuildValue("f",gfotab->pGfo_attr->dsp[2]);
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
return Py_BuildValue("i",gfotab->pGfo_attr->idsp[1]);
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
return Py_BuildValue("i",gfotab->pGfo_attr->idsp[3]);
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
return Py_BuildValue("i",gfotab->pGfo_attr->idsp[0]);
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
return Py_BuildValue("i",gfotab->pGfo_attr->idsp[2]);
} else if (cmpncs(member, "datawc_calendar") == 0) {
return Py_BuildValue("i",gfotab->pGfo_attr->calendar);
} else if (cmpncs(member, "datawc_timeunits") == 0) {
return Py_BuildValue("s",gfotab->pGfo_attr->timeunits);
} else if ((cmpncs(member, "xaxisconvert") == 0) &&
((cmpncs(gfotab->pGfo_attr->xat,"\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "xaxisconvert") == 0) {
return Py_BuildValue("s", gfotab->pGfo_attr->xat);
} else if ((cmpncs(member, "yaxisconvert") == 0) &&
((cmpncs(gfotab->pGfo_attr->yat, "\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "yaxisconvert") == 0) {
return Py_BuildValue("s", gfotab->pGfo_attr->yat);
} else if (cmpncs(member, "outfill") == 0) {
/* Get the outfill structure */
pgfo = gfotab->pGfo_attr;
tup = PyList_New(0);
for (i=0; i<pgfo->n; i++) {
lp = Py_BuildValue("i", pgfo->out[i]);
PyList_Append(tup, lp);
}
return tup;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing outfill graphics method and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the graphics method's attribute will
* be changed.
*/
static PyObject *
PyVCS_setGfomember(self, args)
PyObject *self;
PyObject *args;
{
int i,j=0,n,ct=0,lct=1,color_index=0;
int MODE, value_int, style_index=1, text_color_index=0;
long value_long;
float value_float;
double value_double;
char buf[1024], *style;
char *Gfo_name, *str=NULL, *member=NULL;
char *value_str=NULL;
PyObject *GFO=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *itempk,*itempv,*pkeys,*pvalues, *index_obj;
PyObject *listit,*tup, *listtt, *color_obj;
struct gfo_tab *get_gfotab=NULL;
extern int update_ind;
struct gfo_attr *pgfo;
struct gfo_tab *gfotab;
extern struct gfo_tab Gfo_tab;
extern struct gfo_tab *getGfo();
extern int chk_mov_Gfo();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOi", &GFO, &MEMBER, &VALUE, &MODE)) {
if (GFO == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(GFO,"name", "s", &Gfo_name);
gfotab=&Gfo_tab;
while ((gfotab != NULL) &&
(strcmp(gfotab->name, Gfo_name) != 0))
gfotab = gfotab->next;
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
if (VALUE != NULL) {
if (PyString_Check(VALUE)) { /*check string*/
value_str = PyString_AsString(VALUE);
} else if (PyInt_Check(VALUE)) { /*check for int*/
value_int = (int) PyInt_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for float*/
value_float = (float) PyFloat_AsDouble(VALUE);
} else if (PyLong_Check(VALUE)) { /* check for long*/
value_long = PyLong_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for double*/
value_double = PyFloat_AsDouble(VALUE);
} else if (PyDict_Check(VALUE)) { /*check for dictionary*/
value_str = return_vcs_list(VALUE, member);
}
}
/*
* Set the appropriate outfill attribute. But first
* get the outfill structure.
*/
get_gfotab = getGfo(gfotab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_gfotab->pGfo_attr->proj, value_str);
} else if (cmpncs(member, "xticlabels1") == 0) {
strcpy(get_gfotab->pGfo_attr->xtl1, value_str);
} else if (cmpncs(member, "xticlabels2") == 0) {
strcpy(get_gfotab->pGfo_attr->xtl2, value_str);
} else if (cmpncs(member, "xmtics1") == 0) {
strcpy(get_gfotab->pGfo_attr->xmt1, value_str);
} else if (cmpncs(member, "xmtics2") == 0) {
strcpy(get_gfotab->pGfo_attr->xmt2, value_str);
} else if (cmpncs(member, "yticlabels1") == 0) {
strcpy(get_gfotab->pGfo_attr->ytl1, value_str);
} else if (cmpncs(member, "yticlabels2") == 0) {
strcpy(get_gfotab->pGfo_attr->ytl2, value_str);
} else if (cmpncs(member, "ymtics1") == 0) {
strcpy(get_gfotab->pGfo_attr->ymt1, value_str);
} else if (cmpncs(member, "ymtics2") == 0) {
strcpy(get_gfotab->pGfo_attr->ymt2, value_str);
} else if (cmpncs(member, "datawc_x1") == 0) {
get_gfotab->pGfo_attr->dsp[0] = value_float;
} else if (cmpncs(member, "datawc_y1") == 0) {
get_gfotab->pGfo_attr->dsp[1] = value_float;
} else if (cmpncs(member, "datawc_x2") == 0) {
get_gfotab->pGfo_attr->dsp[2] = value_float;
} else if (cmpncs(member, "datawc_y2") == 0) {
get_gfotab->pGfo_attr->dsp[3] = value_float;
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
get_gfotab->pGfo_attr->idsp[0] = value_int;
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
get_gfotab->pGfo_attr->idsp[1] = value_int;
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
get_gfotab->pGfo_attr->idsp[2] = value_int;
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
get_gfotab->pGfo_attr->idsp[3] = value_int;
} else if (cmpncs(member, "datawc_calendar") == 0) {
get_gfotab->pGfo_attr->calendar = value_int;
} else if (cmpncs(member, "datawc_timeunits") == 0) {
strcpy(get_gfotab->pGfo_attr->timeunits, value_str);
} else if (cmpncs(member, "xaxisconvert") == 0) {
strcpy(get_gfotab->pGfo_attr->xat, value_str);
} else if (cmpncs(member, "yaxisconvert") == 0) {
strcpy(get_gfotab->pGfo_attr->yat, value_str);
} else if (cmpncs(member, "outfill") == 0) {
/* get the line values */
Get_Member(GFO,"fillareastyle", "s", &style);
/* get the color values */
Get_Member(GFO,"fillareacolor", "O", &color_obj);
/* get the color values */
Get_Member(GFO,"fillareaindex", "O", &index_obj);
/* Get the outfill structure */
pgfo = get_gfotab->pGfo_attr;
/* Clear all outfill values */
for (j=0; j < pgfo->n; j++)
pgfo->out[j] = 0;
if (color_obj == Py_None)
color_index = 241; /* set color to default black color*/
else
color_index = (int) PyInt_AsLong(color_obj);
if (index_obj == Py_None)
style_index = 1; /* set index to default 1 */
else
style_index = (int) PyInt_AsLong(index_obj);
if ((strcmp(style,"solid") == 0) || (strcmp(style,"hatch") == 0) ||
(strcmp(style,"pattern") == 0)) {
if ((index_obj == Py_None) && (color_obj == Py_None))
strcpy(pgfo->f,"default");
else
strcpy(pgfo->f,return_new_fillarea_attribute(Gfo_name, 0, style, style_index, color_index));
} else /* Must be a fillarea */
strcpy(pgfo->f,style);
if (PyList_Check(VALUE)) { /* check for list */
/* Set the outfill values */
for (j=0; j<PyList_Size(VALUE); j++)
pgfo->out[j] = (int) PyInt_AsLong(PyList_GetItem(VALUE,j));
pgfo->n = j;
}
}
chk_mov_Gfo(get_gfotab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new outfill graphics method by copying from an existing
* outfill graphics method. If no source copy name argument is given,
* then the default outfill graphics method will be used to replicate
* the new outfill graphics method.
*/
static PyObject *
PyVCS_copyGfo(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GFO_SRC=NULL, *GFO_NAME=NULL;
char copy_name[1024];
extern int copy_Gfo_name();
if(PyArg_ParseTuple(args,"|ss", &GFO_SRC, &GFO_NAME)) {
if (GFO_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source outfill graphics method name.");
return NULL;
}
if (GFO_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", GFO_NAME);
}
ierr = copy_Gfo_name(GFO_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating outfill graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing outfill graphics method.
*/
static PyObject *
PyVCS_renameGfo(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GFO_OLD_NAME=NULL, *GFO_NEW_NAME=NULL;
extern int renameGfo_name();
if(PyArg_ParseTuple(args,"|ss", &GFO_OLD_NAME, &GFO_NEW_NAME)) {
if ((GFO_OLD_NAME == NULL) || (GFO_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new outfill graphics method name.");
return NULL;
}
}
ierr = renameGfo_name(GFO_OLD_NAME, GFO_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming outfill graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing outfill graphics method.
*/
static PyObject *
PyVCS_removeGfo(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
/* Return NULL Python Object or Python String Object */
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the outfill file name.");
return NULL;
}
}
if (removeGfo_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed outfill object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The outfill object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing outfill graphics method.
*/
static PyObject *
PyVCS_scriptGfo(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *GFO_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_outfill();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &GFO_NAME, &SCRIPT_NAME, &MODE)) {
if (GFO_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the outfill name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_outfill(fp, GFO_NAME) == 0) {
sprintf(buf, "Error - Cannot save outfill script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS Xyvsy (GXy) graphics method member value.
*/
static PyObject *
PyVCS_getGXymember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *GXy_name, *member=NULL, buf[1024];
int i=0, ct=0;
PyObject *GXY=NULL, *MEMBER=NULL, *tup, *lp;
struct gXy_tab *gXytab;
extern struct gXy_tab GXy_tab;
struct gXy_attr *pgXy;
if(PyArg_ParseTuple(args,"|OO",&GXY, &MEMBER)) {
if (GXY == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(GXY,"name", "s", &GXy_name);
gXytab=&GXy_tab;
while ((gXytab != NULL) &&
(strcmp(gXytab->name, GXy_name) != 0))
gXytab = gXytab->next;
if (gXytab == NULL) {
sprintf(buf,"Cannot find Xyvsy graphics method GXy_%s.",GXy_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0) {
return Py_BuildValue("s", gXytab->pGXy_attr->proj);
} else if (cmpncs(member, "xticlabels1") == 0) {
return Py_BuildValue("s", gXytab->pGXy_attr->xtl1);
} else if (cmpncs(member, "xticlabels2") == 0) {
return Py_BuildValue("s", gXytab->pGXy_attr->xtl2);
} else if (cmpncs(member, "xmtics1") == 0) {
return Py_BuildValue("s", gXytab->pGXy_attr->xmt1);
} else if (cmpncs(member, "xmtics2") == 0) {
return Py_BuildValue("s", gXytab->pGXy_attr->xmt2);
} else if (cmpncs(member, "yticlabels1") == 0) {
return Py_BuildValue("s", gXytab->pGXy_attr->ytl1);
} else if (cmpncs(member, "yticlabels2") == 0) {
return Py_BuildValue("s", gXytab->pGXy_attr->ytl2);
} else if (cmpncs(member, "ymtics1") == 0) {
return Py_BuildValue("s", gXytab->pGXy_attr->ymt1);
} else if (cmpncs(member, "ymtics2") == 0) {
return Py_BuildValue("s", gXytab->pGXy_attr->ymt2);
} else if (cmpncs(member, "datawc_y1") == 0) {
return Py_BuildValue("f",gXytab->pGXy_attr->dsp[1]);
} else if (cmpncs(member, "datawc_y2") == 0) {
return Py_BuildValue("f",gXytab->pGXy_attr->dsp[3]);
} else if (cmpncs(member, "datawc_x1") == 0) {
return Py_BuildValue("f",gXytab->pGXy_attr->dsp[0]);
} else if (cmpncs(member, "datawc_x2") == 0) {
return Py_BuildValue("f",gXytab->pGXy_attr->dsp[2]);
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
return Py_BuildValue("i",gXytab->pGXy_attr->idsp[1]);
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
return Py_BuildValue("i",gXytab->pGXy_attr->idsp[3]);
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
return Py_BuildValue("i",gXytab->pGXy_attr->idsp[0]);
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
return Py_BuildValue("i",gXytab->pGXy_attr->idsp[2]);
} else if (cmpncs(member, "datawc_calendar") == 0) {
return Py_BuildValue("i",gXytab->pGXy_attr->calendar);
} else if (cmpncs(member, "datawc_timeunits") == 0) {
return Py_BuildValue("s",gXytab->pGXy_attr->timeunits);
} else if ((cmpncs(member, "xaxisconvert") == 0) &&
((cmpncs(gXytab->pGXy_attr->xat,"\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "xaxisconvert") == 0) {
return Py_BuildValue("s", gXytab->pGXy_attr->xat);
} else if ((cmpncs(member, "yaxisconvert") == 0) &&
((cmpncs(gXytab->pGXy_attr->yat, "\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "yaxisconvert") == 0) {
return Py_BuildValue("s", gXytab->pGXy_attr->yat);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing Xyvsy graphics method and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the graphics method's attribute will
* be changed.
*/
static PyObject *
PyVCS_setGXymember(self, args)
PyObject *self;
PyObject *args;
{
int i,j=0,n,ct=0,lct=1,line_index,lcolor_index=0;
int MODE, value_int, marker_index, mcolor_index=0;
int msize_index=0;
long value_long;
float value_float, lwidth_index=1.0;
double value_double;
char buf[1024], *style;
char *GXy_name, *str=NULL, *member=NULL;
char *value_str=NULL, *Tl_name=NULL, *Tm_name=NULL;
PyObject *GXY=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *itempk,*itempv,*pkeys,*pvalues, *line_obj;
PyObject *marker_obj, *mcolor_obj, *lcolor_obj, *lwidth_obj, *msize_obj;
struct gXy_tab *get_gXytab=NULL;
extern int update_ind;
struct gXy_attr *pgXy;
struct gXy_tab *gXytab;
extern struct gXy_tab GXy_tab;
extern struct gXy_tab *getGXy();
extern int chk_mov_GXy();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOi", &GXY, &MEMBER, &VALUE, &MODE)) {
if (GXY == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(GXY,"name", "s", &GXy_name);
gXytab=&GXy_tab;
while ((gXytab != NULL) &&
(strcmp(gXytab->name, GXy_name) != 0))
gXytab = gXytab->next;
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
if (VALUE != NULL) {
if (PyString_Check(VALUE)) { /*check string*/
value_str = PyString_AsString(VALUE);
} else if (PyInt_Check(VALUE)) { /*check for int*/
value_int = (int) PyInt_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for float*/
value_float = (float) PyFloat_AsDouble(VALUE);
} else if (PyLong_Check(VALUE)) { /* check for long*/
value_long = PyLong_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for double*/
value_double = PyFloat_AsDouble(VALUE);
} else if (PyDict_Check(VALUE)) { /*check for dictionary*/
value_str = return_vcs_list(VALUE, member);
}
}
/*
* Set the appropriate Xyvsy attribute. But first
* get the Xyvsy structure.
*/
get_gXytab = getGXy(gXytab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_gXytab->pGXy_attr->proj, value_str);
} else if (cmpncs(member, "xticlabels1") == 0) {
strcpy(get_gXytab->pGXy_attr->xtl1, value_str);
} else if (cmpncs(member, "xticlabels2") == 0) {
strcpy(get_gXytab->pGXy_attr->xtl2, value_str);
} else if (cmpncs(member, "xmtics1") == 0) {
strcpy(get_gXytab->pGXy_attr->xmt1, value_str);
} else if (cmpncs(member, "xmtics2") == 0) {
strcpy(get_gXytab->pGXy_attr->xmt2, value_str);
} else if (cmpncs(member, "yticlabels1") == 0) {
strcpy(get_gXytab->pGXy_attr->ytl1, value_str);
} else if (cmpncs(member, "yticlabels2") == 0) {
strcpy(get_gXytab->pGXy_attr->ytl2, value_str);
} else if (cmpncs(member, "ymtics1") == 0) {
strcpy(get_gXytab->pGXy_attr->ymt1, value_str);
} else if (cmpncs(member, "ymtics2") == 0) {
strcpy(get_gXytab->pGXy_attr->ymt2, value_str);
} else if (cmpncs(member, "datawc_x1") == 0) {
get_gXytab->pGXy_attr->dsp[0] = value_float;
} else if (cmpncs(member, "datawc_y1") == 0) {
get_gXytab->pGXy_attr->dsp[1] = value_float;
} else if (cmpncs(member, "datawc_x2") == 0) {
get_gXytab->pGXy_attr->dsp[2] = value_float;
} else if (cmpncs(member, "datawc_y2") == 0) {
get_gXytab->pGXy_attr->dsp[3] = value_float;
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
get_gXytab->pGXy_attr->idsp[0] = value_int;
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
get_gXytab->pGXy_attr->idsp[1] = value_int;
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
get_gXytab->pGXy_attr->idsp[2] = value_int;
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
get_gXytab->pGXy_attr->idsp[3] = value_int;
} else if (cmpncs(member, "datawc_calendar") == 0) {
get_gXytab->pGXy_attr->calendar = value_int;
} else if (cmpncs(member, "datawc_timeunits") == 0) {
strcpy(get_gXytab->pGXy_attr->timeunits, value_str);
} else if (cmpncs(member, "xaxisconvert") == 0) {
strcpy(get_gXytab->pGXy_attr->xat, value_str);
} else if (cmpncs(member, "yaxisconvert") == 0) {
strcpy(get_gXytab->pGXy_attr->yat, value_str);
} else if ((cmpncs(member, "line") == 0) || (cmpncs(member, "linecolor") == 0) ||
(cmpncs(member, "linewidth") == 0) ||
(cmpncs(member, "marker") == 0) || (cmpncs(member, "markercolor") == 0) ||
(cmpncs(member, "markersize") == 0)) {
/* get the line values */
Get_Member(GXY,"line", "O", &line_obj);
/* get the line color values */
Get_Member(GXY,"linecolor", "O", &lcolor_obj);
/* get the line width values */
Get_Member(GXY,"linewidth", "O", &lwidth_obj);
/* get the marker values */
Get_Member(GXY,"marker", "O", &marker_obj);
/* get the marker color values */
Get_Member(GXY,"markercolor", "O", &mcolor_obj);
/* get the marker size values */
Get_Member(GXY,"markersize", "O", &msize_obj);
/* Get the Xyvsy structure */
pgXy = get_gXytab->pGXy_attr;
if (line_obj==Py_None)
line_index = 1; /* default to solid line */
else {
if (cmpncs("solid", PyString_AsString(line_obj))==0)
line_index = 1;
else if (cmpncs("dash", PyString_AsString(line_obj))==0)
line_index = 2;
else if (cmpncs("dot", PyString_AsString(line_obj))==0)
line_index = 3;
else if (cmpncs("dash-dot", PyString_AsString(line_obj))==0)
line_index = 4;
else if (cmpncs("long-dash", PyString_AsString(line_obj))==0)
line_index = -3;
else {
Tl_name = PyString_AsString(line_obj);
line_index = 999;
}
}
if (line_index != 999) {
if (lcolor_obj == Py_None)
lcolor_index = 241; /* set color to default black color*/
else
lcolor_index = (int) PyInt_AsLong(lcolor_obj);
if (lwidth_obj == Py_None)
lwidth_index = 1.0; /* set width to default size of 1.0*/
else
lwidth_index = (float) PyFloat_AsDouble(lwidth_obj);
if ((line_obj==Py_None) && (lcolor_obj == Py_None) && (lwidth_obj == Py_None))
strcpy(pgXy->lb,"default");
else
strcpy(pgXy->lb,return_new_line_attribute(GXy_name,0,line_index,lcolor_index,lwidth_index));
} else /* must be a line object */
strcpy(pgXy->lb, Tl_name);
if (marker_obj==Py_None)
marker_index = 0; /* default to no markers */
else {
if (cmpncs("dot", PyString_AsString(marker_obj))==0)
marker_index = 1;
else if (cmpncs("plus", PyString_AsString(marker_obj))==0)
marker_index = 2;
else if (cmpncs("star", PyString_AsString(marker_obj))==0)
marker_index = 3;
else if (cmpncs("circle", PyString_AsString(marker_obj))==0)
marker_index = 4;
else if (cmpncs("cross", PyString_AsString(marker_obj))==0)
marker_index = 5;
else if (cmpncs("diamond", PyString_AsString(marker_obj))==0)
marker_index = 6;
else if (cmpncs("triangle_up", PyString_AsString(marker_obj))==0)
marker_index = 7;
else if (cmpncs("triangle_down", PyString_AsString(marker_obj))==0)
marker_index = 8;
else if (cmpncs("triangle_left", PyString_AsString(marker_obj))==0)
marker_index = 9;
else if (cmpncs("triangle_right", PyString_AsString(marker_obj))==0)
marker_index = 10;
else if (cmpncs("square", PyString_AsString(marker_obj))==0)
marker_index = 11;
else if (cmpncs("diamond_fill", PyString_AsString(marker_obj))==0)
marker_index = 12;
else if (cmpncs("triangle_up_fill", PyString_AsString(marker_obj))==0)
marker_index = 13;
else if (cmpncs("triangle_down_fill", PyString_AsString(marker_obj))==0)
marker_index = 14;
else if (cmpncs("triangle_left_fill", PyString_AsString(marker_obj))==0)
marker_index = 15;
else if (cmpncs("triangle_right_fill", PyString_AsString(marker_obj))==0)
marker_index = 16;
else if (cmpncs("square_fill", PyString_AsString(marker_obj))==0)
marker_index = 17;
else if (cmpncs("hurricane", PyString_AsString(marker_obj))==0)
marker_index = 18;
else if (cmpncs("w00", PyString_AsString(marker_obj))==0)
marker_index = 100;
else if (cmpncs("w01", PyString_AsString(marker_obj))==0)
marker_index = 101;
else if (cmpncs("w02", PyString_AsString(marker_obj))==0)
marker_index = 102;
else if (cmpncs("w03", PyString_AsString(marker_obj))==0)
marker_index = 103;
else if (cmpncs("w04", PyString_AsString(marker_obj))==0)
marker_index = 104;
else if (cmpncs("w05", PyString_AsString(marker_obj))==0)
marker_index = 105;
else if (cmpncs("w06", PyString_AsString(marker_obj))==0)
marker_index = 106;
else if (cmpncs("w07", PyString_AsString(marker_obj))==0)
marker_index = 107;
else if (cmpncs("w08", PyString_AsString(marker_obj))==0)
marker_index = 108;
else if (cmpncs("w09", PyString_AsString(marker_obj))==0)
marker_index = 109;
else if (cmpncs("w10", PyString_AsString(marker_obj))==0)
marker_index = 110;
else if (cmpncs("w11", PyString_AsString(marker_obj))==0)
marker_index = 111;
else if (cmpncs("w12", PyString_AsString(marker_obj))==0)
marker_index = 112;
else if (cmpncs("w13", PyString_AsString(marker_obj))==0)
marker_index = 113;
else if (cmpncs("w14", PyString_AsString(marker_obj))==0)
marker_index = 114;
else if (cmpncs("w15", PyString_AsString(marker_obj))==0)
marker_index = 115;
else if (cmpncs("w16", PyString_AsString(marker_obj))==0)
marker_index = 116;
else if (cmpncs("w17", PyString_AsString(marker_obj))==0)
marker_index = 117;
else if (cmpncs("w18", PyString_AsString(marker_obj))==0)
marker_index = 118;
else if (cmpncs("w19", PyString_AsString(marker_obj))==0)
marker_index = 119;
else if (cmpncs("w20", PyString_AsString(marker_obj))==0)
marker_index = 120;
else if (cmpncs("w21", PyString_AsString(marker_obj))==0)
marker_index = 121;
else if (cmpncs("w22", PyString_AsString(marker_obj))==0)
marker_index = 122;
else if (cmpncs("w23", PyString_AsString(marker_obj))==0)
marker_index = 123;
else if (cmpncs("w24", PyString_AsString(marker_obj))==0)
marker_index = 124;
else if (cmpncs("w25", PyString_AsString(marker_obj))==0)
marker_index = 125;
else if (cmpncs("w26", PyString_AsString(marker_obj))==0)
marker_index = 126;
else if (cmpncs("w27", PyString_AsString(marker_obj))==0)
marker_index = 127;
else if (cmpncs("w28", PyString_AsString(marker_obj))==0)
marker_index = 128;
else if (cmpncs("w29", PyString_AsString(marker_obj))==0)
marker_index = 129;
else if (cmpncs("w30", PyString_AsString(marker_obj))==0)
marker_index = 130;
else if (cmpncs("w31", PyString_AsString(marker_obj))==0)
marker_index = 131;
else if (cmpncs("w32", PyString_AsString(marker_obj))==0)
marker_index = 132;
else if (cmpncs("w33", PyString_AsString(marker_obj))==0)
marker_index = 133;
else if (cmpncs("w34", PyString_AsString(marker_obj))==0)
marker_index = 134;
else if (cmpncs("w35", PyString_AsString(marker_obj))==0)
marker_index = 135;
else if (cmpncs("w36", PyString_AsString(marker_obj))==0)
marker_index = 136;
else if (cmpncs("w37", PyString_AsString(marker_obj))==0)
marker_index = 137;
else if (cmpncs("w38", PyString_AsString(marker_obj))==0)
marker_index = 138;
else if (cmpncs("w39", PyString_AsString(marker_obj))==0)
marker_index = 139;
else if (cmpncs("w40", PyString_AsString(marker_obj))==0)
marker_index = 140;
else if (cmpncs("w41", PyString_AsString(marker_obj))==0)
marker_index = 141;
else if (cmpncs("w42", PyString_AsString(marker_obj))==0)
marker_index = 142;
else if (cmpncs("w43", PyString_AsString(marker_obj))==0)
marker_index = 143;
else if (cmpncs("w44", PyString_AsString(marker_obj))==0)
marker_index = 144;
else if (cmpncs("w45", PyString_AsString(marker_obj))==0)
marker_index = 145;
else if (cmpncs("w46", PyString_AsString(marker_obj))==0)
marker_index = 146;
else if (cmpncs("w47", PyString_AsString(marker_obj))==0)
marker_index = 147;
else if (cmpncs("w48", PyString_AsString(marker_obj))==0)
marker_index = 148;
else if (cmpncs("w49", PyString_AsString(marker_obj))==0)
marker_index = 149;
else if (cmpncs("w50", PyString_AsString(marker_obj))==0)
marker_index = 150;
else if (cmpncs("w51", PyString_AsString(marker_obj))==0)
marker_index = 151;
else if (cmpncs("w52", PyString_AsString(marker_obj))==0)
marker_index = 152;
else if (cmpncs("w53", PyString_AsString(marker_obj))==0)
marker_index = 153;
else if (cmpncs("w54", PyString_AsString(marker_obj))==0)
marker_index = 154;
else if (cmpncs("w55", PyString_AsString(marker_obj))==0)
marker_index = 155;
else if (cmpncs("w56", PyString_AsString(marker_obj))==0)
marker_index = 156;
else if (cmpncs("w57", PyString_AsString(marker_obj))==0)
marker_index = 157;
else if (cmpncs("w58", PyString_AsString(marker_obj))==0)
marker_index = 158;
else if (cmpncs("w59", PyString_AsString(marker_obj))==0)
marker_index = 159;
else if (cmpncs("w60", PyString_AsString(marker_obj))==0)
marker_index = 160;
else if (cmpncs("w61", PyString_AsString(marker_obj))==0)
marker_index = 161;
else if (cmpncs("w62", PyString_AsString(marker_obj))==0)
marker_index = 162;
else if (cmpncs("w63", PyString_AsString(marker_obj))==0)
marker_index = 163;
else if (cmpncs("w64", PyString_AsString(marker_obj))==0)
marker_index = 164;
else if (cmpncs("w65", PyString_AsString(marker_obj))==0)
marker_index = 165;
else if (cmpncs("w66", PyString_AsString(marker_obj))==0)
marker_index = 166;
else if (cmpncs("w67", PyString_AsString(marker_obj))==0)
marker_index = 167;
else if (cmpncs("w68", PyString_AsString(marker_obj))==0)
marker_index = 168;
else if (cmpncs("w69", PyString_AsString(marker_obj))==0)
marker_index = 169;
else if (cmpncs("w70", PyString_AsString(marker_obj))==0)
marker_index = 170;
else if (cmpncs("w71", PyString_AsString(marker_obj))==0)
marker_index = 171;
else if (cmpncs("w72", PyString_AsString(marker_obj))==0)
marker_index = 172;
else if (cmpncs("w73", PyString_AsString(marker_obj))==0)
marker_index = 173;
else if (cmpncs("w74", PyString_AsString(marker_obj))==0)
marker_index = 174;
else if (cmpncs("w75", PyString_AsString(marker_obj))==0)
marker_index = 175;
else if (cmpncs("w76", PyString_AsString(marker_obj))==0)
marker_index = 176;
else if (cmpncs("w77", PyString_AsString(marker_obj))==0)
marker_index = 177;
else if (cmpncs("w78", PyString_AsString(marker_obj))==0)
marker_index = 178;
else if (cmpncs("w79", PyString_AsString(marker_obj))==0)
marker_index = 179;
else if (cmpncs("w80", PyString_AsString(marker_obj))==0)
marker_index = 180;
else if (cmpncs("w81", PyString_AsString(marker_obj))==0)
marker_index = 181;
else if (cmpncs("w82", PyString_AsString(marker_obj))==0)
marker_index = 182;
else if (cmpncs("w83", PyString_AsString(marker_obj))==0)
marker_index = 183;
else if (cmpncs("w84", PyString_AsString(marker_obj))==0)
marker_index = 184;
else if (cmpncs("w85", PyString_AsString(marker_obj))==0)
marker_index = 185;
else if (cmpncs("w86", PyString_AsString(marker_obj))==0)
marker_index = 186;
else if (cmpncs("w87", PyString_AsString(marker_obj))==0)
marker_index = 187;
else if (cmpncs("w88", PyString_AsString(marker_obj))==0)
marker_index = 188;
else if (cmpncs("w89", PyString_AsString(marker_obj))==0)
marker_index = 189;
else if (cmpncs("w90", PyString_AsString(marker_obj))==0)
marker_index = 190;
else if (cmpncs("w91", PyString_AsString(marker_obj))==0)
marker_index = 191;
else if (cmpncs("w92", PyString_AsString(marker_obj))==0)
marker_index = 192;
else if (cmpncs("w93", PyString_AsString(marker_obj))==0)
marker_index = 193;
else if (cmpncs("w94", PyString_AsString(marker_obj))==0)
marker_index = 194;
else if (cmpncs("w95", PyString_AsString(marker_obj))==0)
marker_index = 195;
else if (cmpncs("w96", PyString_AsString(marker_obj))==0)
marker_index = 196;
else if (cmpncs("w97", PyString_AsString(marker_obj))==0)
marker_index = 197;
else if (cmpncs("w98", PyString_AsString(marker_obj))==0)
marker_index = 198;
else if (cmpncs("w99", PyString_AsString(marker_obj))==0)
marker_index = 199;
else if (cmpncs("w200", PyString_AsString(marker_obj))==0)
marker_index = 200;
else if (cmpncs("w201", PyString_AsString(marker_obj))==0)
marker_index = 201;
else if (cmpncs("w202", PyString_AsString(marker_obj))==0)
marker_index = 202;
else {
Tm_name = PyString_AsString(marker_obj);
marker_index = 999;
}
}
if (marker_index != 999) {
if (mcolor_obj == Py_None)
mcolor_index = 241; /* set color to default black color*/
else
mcolor_index = (int) PyInt_AsLong(mcolor_obj);
if (msize_obj == Py_None)
msize_index = 7; /* set marker size to default size of 7*/
else
msize_index = (int) PyInt_AsLong(msize_obj);
if ((marker_obj==Py_None) && (mcolor_obj == Py_None) && (msize_obj == Py_None))
strcpy(pgXy->mb,"\0");
else
strcpy(pgXy->mb,return_new_marker_attribute(GXy_name, 0, marker_index, mcolor_index, msize_index));
} else /* must be a marker object */
strcpy(pgXy->mb, Tm_name);
}
chk_mov_GXy(get_gXytab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new Xyvsy graphics method by copying from an existing
* Xyvsy graphics method. If no source copy name argument is given,
* then the default Xyvsy graphics method will be used to replicate
* the new Xyvsy graphics method.
*/
static PyObject *
PyVCS_copyGXy(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GXY_SRC=NULL, *GXY_NAME=NULL;
char copy_name[1024];
extern int copy_GXy_name();
if(PyArg_ParseTuple(args,"|ss", &GXY_SRC, &GXY_NAME)) {
if (GXY_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source Xyvsy graphics method name.");
return NULL;
}
if (GXY_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", GXY_NAME);
}
ierr = copy_GXy_name(GXY_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating Xyvsy graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing Xyvsy graphics method.
*/
static PyObject *
PyVCS_renameGXy(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GXY_OLD_NAME=NULL, *GXY_NEW_NAME=NULL;
extern int renameGXy_name();
if(PyArg_ParseTuple(args,"|ss", &GXY_OLD_NAME, &GXY_NEW_NAME)) {
if ((GXY_OLD_NAME == NULL) || (GXY_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new Xyvsy graphics method name.");
return NULL;
}
}
ierr = renameGXy_name(GXY_OLD_NAME, GXY_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming Xyvsy graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing Xyvsy graphics method.
*/
static PyObject *
PyVCS_removeGXy(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the Xyvsy file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeGXy_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed Xyvsy object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The Xyvsy object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing Xyvsy graphics method.
*/
static PyObject *
PyVCS_scriptGXy(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *GXY_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_xyvsy();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &GXY_NAME, &SCRIPT_NAME, &MODE)) {
if (GXY_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the Xyvsy name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_xyvsy(fp, GXY_NAME) == 0) {
sprintf(buf, "Error - Cannot save Xyvsy script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS Yxvsx (GYx) graphics method member value.
*/
static PyObject *
PyVCS_getGYxmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *GYx_name, *member=NULL, buf[1024];
int i=0, ct=0;
PyObject *GYX=NULL, *MEMBER=NULL, *tup, *lp;
struct gYx_tab *gYxtab;
extern struct gYx_tab GYx_tab;
struct gYx_attr *pgYx;
if(PyArg_ParseTuple(args,"|OO",&GYX, &MEMBER)) {
if (GYX == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(GYX,"name", "s", &GYx_name);
gYxtab=&GYx_tab;
while ((gYxtab != NULL) &&
(strcmp(gYxtab->name, GYx_name) != 0))
gYxtab = gYxtab->next;
if (gYxtab == NULL) {
sprintf(buf,"Cannot find Yxvsx graphics method GYx_%s.",GYx_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0) {
return Py_BuildValue("s", gYxtab->pGYx_attr->proj);
} else if (cmpncs(member, "xticlabels1") == 0) {
return Py_BuildValue("s", gYxtab->pGYx_attr->xtl1);
} else if (cmpncs(member, "xticlabels2") == 0) {
return Py_BuildValue("s", gYxtab->pGYx_attr->xtl2);
} else if (cmpncs(member, "xmtics1") == 0) {
return Py_BuildValue("s", gYxtab->pGYx_attr->xmt1);
} else if (cmpncs(member, "xmtics2") == 0) {
return Py_BuildValue("s", gYxtab->pGYx_attr->xmt2);
} else if (cmpncs(member, "yticlabels1") == 0) {
return Py_BuildValue("s", gYxtab->pGYx_attr->ytl1);
} else if (cmpncs(member, "yticlabels2") == 0) {
return Py_BuildValue("s", gYxtab->pGYx_attr->ytl2);
} else if (cmpncs(member, "ymtics1") == 0) {
return Py_BuildValue("s", gYxtab->pGYx_attr->ymt1);
} else if (cmpncs(member, "ymtics2") == 0) {
return Py_BuildValue("s", gYxtab->pGYx_attr->ymt2);
} else if (cmpncs(member, "datawc_y1") == 0) {
return Py_BuildValue("f",gYxtab->pGYx_attr->dsp[1]);
} else if (cmpncs(member, "datawc_y2") == 0) {
return Py_BuildValue("f",gYxtab->pGYx_attr->dsp[3]);
} else if (cmpncs(member, "datawc_x1") == 0) {
return Py_BuildValue("f",gYxtab->pGYx_attr->dsp[0]);
} else if (cmpncs(member, "datawc_x2") == 0) {
return Py_BuildValue("f",gYxtab->pGYx_attr->dsp[2]);
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
return Py_BuildValue("i",gYxtab->pGYx_attr->idsp[1]);
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
return Py_BuildValue("i",gYxtab->pGYx_attr->idsp[3]);
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
return Py_BuildValue("i",gYxtab->pGYx_attr->idsp[0]);
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
return Py_BuildValue("i",gYxtab->pGYx_attr->idsp[2]);
} else if (cmpncs(member, "datawc_calendar") == 0) {
return Py_BuildValue("i",gYxtab->pGYx_attr->calendar);
} else if (cmpncs(member, "datawc_timeunits") == 0) {
return Py_BuildValue("s",gYxtab->pGYx_attr->timeunits);
} else if ((cmpncs(member, "xaxisconvert") == 0) &&
((cmpncs(gYxtab->pGYx_attr->xat,"\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "xaxisconvert") == 0) {
return Py_BuildValue("s", gYxtab->pGYx_attr->xat);
} else if ((cmpncs(member, "yaxisconvert") == 0) &&
((cmpncs(gYxtab->pGYx_attr->yat,"\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "yaxisconvert") == 0) {
return Py_BuildValue("s", gYxtab->pGYx_attr->yat);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing Yxvsx graphics method and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the graphics method's attribute will
* be changed.
*/
static PyObject *
PyVCS_setGYxmember(self, args)
PyObject *self;
PyObject *args;
{
int i,j=0,n,ct=0,lct=1,line_index,lcolor_index=0;
int MODE, value_int, marker_index, mcolor_index=0;
int msize_index=0;
long value_long;
float value_float, lwidth_index=1.0;
double value_double;
char buf[1024], *style;
char *GYx_name, *str=NULL, *member=NULL;
char *value_str=NULL, *Tl_name=NULL, *Tm_name=NULL;
PyObject *GYX=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *itempk,*itempv,*pkeys,*pvalues, *line_obj;
PyObject *marker_obj, *mcolor_obj, *lcolor_obj, *lwidth_obj, *msize_obj;
struct gYx_tab *get_gYxtab=NULL;
extern int update_ind;
struct gYx_attr *pgYx;
struct gYx_tab *gYxtab;
extern struct gYx_tab GYx_tab;
extern struct gYx_tab *getGYx();
extern int chk_mov_GYx();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOi", &GYX, &MEMBER, &VALUE, &MODE)) {
if (GYX == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(GYX,"name", "s", &GYx_name);
gYxtab=&GYx_tab;
while ((gYxtab != NULL) &&
(strcmp(gYxtab->name, GYx_name) != 0))
gYxtab = gYxtab->next;
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
if (VALUE != NULL) {
if (PyString_Check(VALUE)) { /*check string*/
value_str = PyString_AsString(VALUE);
} else if (PyInt_Check(VALUE)) { /*check for int*/
value_int = (int) PyInt_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for float*/
value_float = (float) PyFloat_AsDouble(VALUE);
} else if (PyLong_Check(VALUE)) { /* check for long*/
value_long = PyLong_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for double*/
value_double = PyFloat_AsDouble(VALUE);
} else if (PyDict_Check(VALUE)) { /*check for dictionary*/
value_str = return_vcs_list(VALUE, member);
}
}
/*
* Set the appropriate Yxvsx attribute. But first
* get the Yxvsx structure.
*/
get_gYxtab = getGYx(gYxtab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_gYxtab->pGYx_attr->proj, value_str);
} else if (cmpncs(member, "xticlabels1") == 0) {
strcpy(get_gYxtab->pGYx_attr->xtl1, value_str);
} else if (cmpncs(member, "xticlabels2") == 0) {
strcpy(get_gYxtab->pGYx_attr->xtl2, value_str);
} else if (cmpncs(member, "xmtics1") == 0) {
strcpy(get_gYxtab->pGYx_attr->xmt1, value_str);
} else if (cmpncs(member, "xmtics2") == 0) {
strcpy(get_gYxtab->pGYx_attr->xmt2, value_str);
} else if (cmpncs(member, "yticlabels1") == 0) {
strcpy(get_gYxtab->pGYx_attr->ytl1, value_str);
} else if (cmpncs(member, "yticlabels2") == 0) {
strcpy(get_gYxtab->pGYx_attr->ytl2, value_str);
} else if (cmpncs(member, "ymtics1") == 0) {
strcpy(get_gYxtab->pGYx_attr->ymt1, value_str);
} else if (cmpncs(member, "ymtics2") == 0) {
strcpy(get_gYxtab->pGYx_attr->ymt2, value_str);
} else if (cmpncs(member, "datawc_x1") == 0) {
get_gYxtab->pGYx_attr->dsp[0] = value_float;
} else if (cmpncs(member, "datawc_y1") == 0) {
get_gYxtab->pGYx_attr->dsp[1] = value_float;
} else if (cmpncs(member, "datawc_x2") == 0) {
get_gYxtab->pGYx_attr->dsp[2] = value_float;
} else if (cmpncs(member, "datawc_y2") == 0) {
get_gYxtab->pGYx_attr->dsp[3] = value_float;
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
get_gYxtab->pGYx_attr->idsp[0] = value_int;
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
get_gYxtab->pGYx_attr->idsp[1] = value_int;
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
get_gYxtab->pGYx_attr->idsp[2] = value_int;
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
get_gYxtab->pGYx_attr->idsp[3] = value_int;
} else if (cmpncs(member, "datawc_calendar") == 0) {
get_gYxtab->pGYx_attr->calendar = value_int;
} else if (cmpncs(member, "datawc_timeunits") == 0) {
strcpy(get_gYxtab->pGYx_attr->timeunits, value_str);
} else if (cmpncs(member, "xaxisconvert") == 0) {
strcpy(get_gYxtab->pGYx_attr->xat, value_str);
} else if (cmpncs(member, "yaxisconvert") == 0) {
strcpy(get_gYxtab->pGYx_attr->yat, value_str);
} else if ((cmpncs(member, "line") == 0) || (cmpncs(member, "linecolor") == 0) ||
(cmpncs(member, "linewidth") == 0) ||
(cmpncs(member, "marker") == 0) || (cmpncs(member, "markercolor") == 0) ||
(cmpncs(member, "markersize") == 0)) {
/* get the line values */
Get_Member(GYX,"line", "O", &line_obj);
/* get the line color values */
Get_Member(GYX,"linecolor", "O", &lcolor_obj);
/* get the line width values */
Get_Member(GYX,"linewidth", "O", &lwidth_obj);
/* get the marker values */
Get_Member(GYX,"marker", "O", &marker_obj);
/* get the marker color values */
Get_Member(GYX,"markercolor", "O", &mcolor_obj);
/* get the marker size values */
Get_Member(GYX,"markersize", "O", &msize_obj);
/* Get the Yxvsx structure */
pgYx = get_gYxtab->pGYx_attr;
if (line_obj==Py_None)
line_index = 1; /* default to solid line */
else {
if (cmpncs("solid", PyString_AsString(line_obj))==0)
line_index = 1;
else if (cmpncs("dash", PyString_AsString(line_obj))==0)
line_index = 2;
else if (cmpncs("dot", PyString_AsString(line_obj))==0)
line_index = 3;
else if (cmpncs("dash-dot", PyString_AsString(line_obj))==0)
line_index = 4;
else if (cmpncs("long-dash", PyString_AsString(line_obj))==0)
line_index = -3;
else {
Tl_name = PyString_AsString(line_obj);
line_index = 999;
}
}
if (line_index != 999) {
if (lcolor_obj == Py_None)
lcolor_index = 241; /* set color to default black color*/
else
lcolor_index = (int) PyInt_AsLong(lcolor_obj);
if (lwidth_obj == Py_None)
lwidth_index = 1.0; /* set width to default size 1.0*/
else
lwidth_index = (float) PyFloat_AsDouble(lwidth_obj);
if ((line_obj==Py_None) && (lcolor_obj == Py_None) && (lwidth_obj == Py_None))
strcpy(pgYx->lb,"default");
else
strcpy(pgYx->lb,return_new_line_attribute(GYx_name,0,line_index,lcolor_index,lwidth_index));
} else /* must be a line object */
strcpy(pgYx->lb, Tl_name);
if (marker_obj==Py_None)
marker_index = 0; /* default to no markers */
else {
if (cmpncs("dot", PyString_AsString(marker_obj))==0)
marker_index = 1;
else if (cmpncs("plus", PyString_AsString(marker_obj))==0)
marker_index = 2;
else if (cmpncs("star", PyString_AsString(marker_obj))==0)
marker_index = 3;
else if (cmpncs("circle", PyString_AsString(marker_obj))==0)
marker_index = 4;
else if (cmpncs("cross", PyString_AsString(marker_obj))==0)
marker_index = 5;
else if (cmpncs("diamond", PyString_AsString(marker_obj))==0)
marker_index = 6;
else if (cmpncs("triangle_up", PyString_AsString(marker_obj))==0)
marker_index = 7;
else if (cmpncs("triangle_down", PyString_AsString(marker_obj))==0)
marker_index = 8;
else if (cmpncs("triangle_left", PyString_AsString(marker_obj))==0)
marker_index = 9;
else if (cmpncs("triangle_right", PyString_AsString(marker_obj))==0)
marker_index = 10;
else if (cmpncs("square", PyString_AsString(marker_obj))==0)
marker_index = 11;
else if (cmpncs("diamond_fill", PyString_AsString(marker_obj))==0)
marker_index = 12;
else if (cmpncs("triangle_up_fill", PyString_AsString(marker_obj))==0)
marker_index = 13;
else if (cmpncs("triangle_down_fill", PyString_AsString(marker_obj))==0)
marker_index = 14;
else if (cmpncs("triangle_left_fill", PyString_AsString(marker_obj))==0)
marker_index = 15;
else if (cmpncs("triangle_right_fill", PyString_AsString(marker_obj))==0)
marker_index = 16;
else if (cmpncs("square_fill", PyString_AsString(marker_obj))==0)
marker_index = 17;
else if (cmpncs("hurricane", PyString_AsString(marker_obj))==0)
marker_index = 18;
else if (cmpncs("w00", PyString_AsString(marker_obj))==0)
marker_index = 100;
else if (cmpncs("w01", PyString_AsString(marker_obj))==0)
marker_index = 101;
else if (cmpncs("w02", PyString_AsString(marker_obj))==0)
marker_index = 102;
else if (cmpncs("w03", PyString_AsString(marker_obj))==0)
marker_index = 103;
else if (cmpncs("w04", PyString_AsString(marker_obj))==0)
marker_index = 104;
else if (cmpncs("w05", PyString_AsString(marker_obj))==0)
marker_index = 105;
else if (cmpncs("w06", PyString_AsString(marker_obj))==0)
marker_index = 106;
else if (cmpncs("w07", PyString_AsString(marker_obj))==0)
marker_index = 107;
else if (cmpncs("w08", PyString_AsString(marker_obj))==0)
marker_index = 108;
else if (cmpncs("w09", PyString_AsString(marker_obj))==0)
marker_index = 109;
else if (cmpncs("w10", PyString_AsString(marker_obj))==0)
marker_index = 110;
else if (cmpncs("w11", PyString_AsString(marker_obj))==0)
marker_index = 111;
else if (cmpncs("w12", PyString_AsString(marker_obj))==0)
marker_index = 112;
else if (cmpncs("w13", PyString_AsString(marker_obj))==0)
marker_index = 113;
else if (cmpncs("w14", PyString_AsString(marker_obj))==0)
marker_index = 114;
else if (cmpncs("w15", PyString_AsString(marker_obj))==0)
marker_index = 115;
else if (cmpncs("w16", PyString_AsString(marker_obj))==0)
marker_index = 116;
else if (cmpncs("w17", PyString_AsString(marker_obj))==0)
marker_index = 117;
else if (cmpncs("w18", PyString_AsString(marker_obj))==0)
marker_index = 118;
else if (cmpncs("w19", PyString_AsString(marker_obj))==0)
marker_index = 119;
else if (cmpncs("w20", PyString_AsString(marker_obj))==0)
marker_index = 120;
else if (cmpncs("w21", PyString_AsString(marker_obj))==0)
marker_index = 121;
else if (cmpncs("w22", PyString_AsString(marker_obj))==0)
marker_index = 122;
else if (cmpncs("w23", PyString_AsString(marker_obj))==0)
marker_index = 123;
else if (cmpncs("w24", PyString_AsString(marker_obj))==0)
marker_index = 124;
else if (cmpncs("w25", PyString_AsString(marker_obj))==0)
marker_index = 125;
else if (cmpncs("w26", PyString_AsString(marker_obj))==0)
marker_index = 126;
else if (cmpncs("w27", PyString_AsString(marker_obj))==0)
marker_index = 127;
else if (cmpncs("w28", PyString_AsString(marker_obj))==0)
marker_index = 128;
else if (cmpncs("w29", PyString_AsString(marker_obj))==0)
marker_index = 129;
else if (cmpncs("w30", PyString_AsString(marker_obj))==0)
marker_index = 130;
else if (cmpncs("w31", PyString_AsString(marker_obj))==0)
marker_index = 131;
else if (cmpncs("w32", PyString_AsString(marker_obj))==0)
marker_index = 132;
else if (cmpncs("w33", PyString_AsString(marker_obj))==0)
marker_index = 133;
else if (cmpncs("w34", PyString_AsString(marker_obj))==0)
marker_index = 134;
else if (cmpncs("w35", PyString_AsString(marker_obj))==0)
marker_index = 135;
else if (cmpncs("w36", PyString_AsString(marker_obj))==0)
marker_index = 136;
else if (cmpncs("w37", PyString_AsString(marker_obj))==0)
marker_index = 137;
else if (cmpncs("w38", PyString_AsString(marker_obj))==0)
marker_index = 138;
else if (cmpncs("w39", PyString_AsString(marker_obj))==0)
marker_index = 139;
else if (cmpncs("w40", PyString_AsString(marker_obj))==0)
marker_index = 140;
else if (cmpncs("w41", PyString_AsString(marker_obj))==0)
marker_index = 141;
else if (cmpncs("w42", PyString_AsString(marker_obj))==0)
marker_index = 142;
else if (cmpncs("w43", PyString_AsString(marker_obj))==0)
marker_index = 143;
else if (cmpncs("w44", PyString_AsString(marker_obj))==0)
marker_index = 144;
else if (cmpncs("w45", PyString_AsString(marker_obj))==0)
marker_index = 145;
else if (cmpncs("w46", PyString_AsString(marker_obj))==0)
marker_index = 146;
else if (cmpncs("w47", PyString_AsString(marker_obj))==0)
marker_index = 147;
else if (cmpncs("w48", PyString_AsString(marker_obj))==0)
marker_index = 148;
else if (cmpncs("w49", PyString_AsString(marker_obj))==0)
marker_index = 149;
else if (cmpncs("w50", PyString_AsString(marker_obj))==0)
marker_index = 150;
else if (cmpncs("w51", PyString_AsString(marker_obj))==0)
marker_index = 151;
else if (cmpncs("w52", PyString_AsString(marker_obj))==0)
marker_index = 152;
else if (cmpncs("w53", PyString_AsString(marker_obj))==0)
marker_index = 153;
else if (cmpncs("w54", PyString_AsString(marker_obj))==0)
marker_index = 154;
else if (cmpncs("w55", PyString_AsString(marker_obj))==0)
marker_index = 155;
else if (cmpncs("w56", PyString_AsString(marker_obj))==0)
marker_index = 156;
else if (cmpncs("w57", PyString_AsString(marker_obj))==0)
marker_index = 157;
else if (cmpncs("w58", PyString_AsString(marker_obj))==0)
marker_index = 158;
else if (cmpncs("w59", PyString_AsString(marker_obj))==0)
marker_index = 159;
else if (cmpncs("w60", PyString_AsString(marker_obj))==0)
marker_index = 160;
else if (cmpncs("w61", PyString_AsString(marker_obj))==0)
marker_index = 161;
else if (cmpncs("w62", PyString_AsString(marker_obj))==0)
marker_index = 162;
else if (cmpncs("w63", PyString_AsString(marker_obj))==0)
marker_index = 163;
else if (cmpncs("w64", PyString_AsString(marker_obj))==0)
marker_index = 164;
else if (cmpncs("w65", PyString_AsString(marker_obj))==0)
marker_index = 165;
else if (cmpncs("w66", PyString_AsString(marker_obj))==0)
marker_index = 166;
else if (cmpncs("w67", PyString_AsString(marker_obj))==0)
marker_index = 167;
else if (cmpncs("w68", PyString_AsString(marker_obj))==0)
marker_index = 168;
else if (cmpncs("w69", PyString_AsString(marker_obj))==0)
marker_index = 169;
else if (cmpncs("w70", PyString_AsString(marker_obj))==0)
marker_index = 170;
else if (cmpncs("w71", PyString_AsString(marker_obj))==0)
marker_index = 171;
else if (cmpncs("w72", PyString_AsString(marker_obj))==0)
marker_index = 172;
else if (cmpncs("w73", PyString_AsString(marker_obj))==0)
marker_index = 173;
else if (cmpncs("w74", PyString_AsString(marker_obj))==0)
marker_index = 174;
else if (cmpncs("w75", PyString_AsString(marker_obj))==0)
marker_index = 175;
else if (cmpncs("w76", PyString_AsString(marker_obj))==0)
marker_index = 176;
else if (cmpncs("w77", PyString_AsString(marker_obj))==0)
marker_index = 177;
else if (cmpncs("w78", PyString_AsString(marker_obj))==0)
marker_index = 178;
else if (cmpncs("w79", PyString_AsString(marker_obj))==0)
marker_index = 179;
else if (cmpncs("w80", PyString_AsString(marker_obj))==0)
marker_index = 180;
else if (cmpncs("w81", PyString_AsString(marker_obj))==0)
marker_index = 181;
else if (cmpncs("w82", PyString_AsString(marker_obj))==0)
marker_index = 182;
else if (cmpncs("w83", PyString_AsString(marker_obj))==0)
marker_index = 183;
else if (cmpncs("w84", PyString_AsString(marker_obj))==0)
marker_index = 184;
else if (cmpncs("w85", PyString_AsString(marker_obj))==0)
marker_index = 185;
else if (cmpncs("w86", PyString_AsString(marker_obj))==0)
marker_index = 186;
else if (cmpncs("w87", PyString_AsString(marker_obj))==0)
marker_index = 187;
else if (cmpncs("w88", PyString_AsString(marker_obj))==0)
marker_index = 188;
else if (cmpncs("w89", PyString_AsString(marker_obj))==0)
marker_index = 189;
else if (cmpncs("w90", PyString_AsString(marker_obj))==0)
marker_index = 190;
else if (cmpncs("w91", PyString_AsString(marker_obj))==0)
marker_index = 191;
else if (cmpncs("w92", PyString_AsString(marker_obj))==0)
marker_index = 192;
else if (cmpncs("w93", PyString_AsString(marker_obj))==0)
marker_index = 193;
else if (cmpncs("w94", PyString_AsString(marker_obj))==0)
marker_index = 194;
else if (cmpncs("w95", PyString_AsString(marker_obj))==0)
marker_index = 195;
else if (cmpncs("w96", PyString_AsString(marker_obj))==0)
marker_index = 196;
else if (cmpncs("w97", PyString_AsString(marker_obj))==0)
marker_index = 197;
else if (cmpncs("w98", PyString_AsString(marker_obj))==0)
marker_index = 198;
else if (cmpncs("w99", PyString_AsString(marker_obj))==0)
marker_index = 199;
else if (cmpncs("w200", PyString_AsString(marker_obj))==0)
marker_index = 200;
else if (cmpncs("w201", PyString_AsString(marker_obj))==0)
marker_index = 201;
else if (cmpncs("w202", PyString_AsString(marker_obj))==0)
marker_index = 202;
else {
Tm_name = PyString_AsString(marker_obj);
marker_index = 999;
}
}
if (marker_index != 999) {
if (mcolor_obj == Py_None)
mcolor_index = 241; /* set color to default black color*/
else
mcolor_index = (int) PyInt_AsLong(mcolor_obj);
if (msize_obj == Py_None)
msize_index = 7; /* set marker size to default size of 7*/
else
msize_index = (int) PyInt_AsLong(msize_obj);
if ((marker_obj==Py_None) && (mcolor_obj == Py_None) && (msize_obj == Py_None))
strcpy(pgYx->mb,"\0");
else
strcpy(pgYx->mb,return_new_marker_attribute(GYx_name, 0, marker_index, mcolor_index, msize_index));
} else /* must be a marker object */
strcpy(pgYx->mb, Tm_name);
}
chk_mov_GYx(get_gYxtab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new Yxvsx graphics method by copying from an existing
* Yxvsx graphics method. If no source copy name argument is given,
* then the default Yxvsx graphics method will be used to replicate
* the new Yxvsx graphics method.
*/
static PyObject *
PyVCS_copyGYx(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GYX_SRC=NULL, *GYX_NAME=NULL;
char copy_name[1024];
extern int copy_GYx_name();
if(PyArg_ParseTuple(args,"|ss", &GYX_SRC, &GYX_NAME)) {
if (GYX_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source Yxvsx graphics method name.");
return NULL;
}
if (GYX_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", GYX_NAME);
}
ierr = copy_GYx_name(GYX_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating Yxvsx graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing Yxvsx graphics method.
*/
static PyObject *
PyVCS_renameGYx(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GYX_OLD_NAME=NULL, *GYX_NEW_NAME=NULL;
extern int renameGYx_name();
if(PyArg_ParseTuple(args,"|ss", &GYX_OLD_NAME, &GYX_NEW_NAME)) {
if ((GYX_OLD_NAME == NULL) || (GYX_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new Yxvsx graphics method name.");
return NULL;
}
}
ierr = renameGYx_name(GYX_OLD_NAME, GYX_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming Yxvsx graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing Yxvsx graphics method.
*/
static PyObject *
PyVCS_removeGYx(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the Yxvsx file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeGYx_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed Yxvsx object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The Yxvsx object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing Yxvsx graphics method.
*/
static PyObject *
PyVCS_scriptGYx(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *GYX_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_yxvsx();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &GYX_NAME, &SCRIPT_NAME, &MODE)) {
if (GYX_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the Yxvsx name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_yxvsx(fp, GYX_NAME) == 0) {
sprintf(buf, "Error - Cannot save Yxvsx script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS (GXY) graphics method member value.
*/
static PyObject *
PyVCS_getGXYmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *GXY_name, *member=NULL, buf[1024];
int i=0, ct=0;
PyObject *GXY=NULL, *MEMBER=NULL, *tup, *lp;
struct gXY_tab *gXYtab;
extern struct gXY_tab GXY_tab;
struct gXY_attr *pgXY;
if(PyArg_ParseTuple(args,"|OO",&GXY, &MEMBER)) {
if (GXY == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(GXY,"name", "s", &GXY_name);
gXYtab=&GXY_tab;
while ((gXYtab != NULL) &&
(strcmp(gXYtab->name, GXY_name) != 0))
gXYtab = gXYtab->next;
if (gXYtab == NULL) {
sprintf(buf,"Cannot find XvsY graphics method GXY_%s.",GXY_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0) {
return Py_BuildValue("s", gXYtab->pGXY_attr->proj);
} else if (cmpncs(member, "xticlabels1") == 0) {
return Py_BuildValue("s", gXYtab->pGXY_attr->xtl1);
} else if (cmpncs(member, "xticlabels2") == 0) {
return Py_BuildValue("s", gXYtab->pGXY_attr->xtl2);
} else if (cmpncs(member, "xmtics1") == 0) {
return Py_BuildValue("s", gXYtab->pGXY_attr->xmt1);
} else if (cmpncs(member, "xmtics2") == 0) {
return Py_BuildValue("s", gXYtab->pGXY_attr->xmt2);
} else if (cmpncs(member, "yticlabels1") == 0) {
return Py_BuildValue("s", gXYtab->pGXY_attr->ytl1);
} else if (cmpncs(member, "yticlabels2") == 0) {
return Py_BuildValue("s", gXYtab->pGXY_attr->ytl2);
} else if (cmpncs(member, "ymtics1") == 0) {
return Py_BuildValue("s", gXYtab->pGXY_attr->ymt1);
} else if (cmpncs(member, "ymtics2") == 0) {
return Py_BuildValue("s", gXYtab->pGXY_attr->ymt2);
} else if (cmpncs(member, "datawc_y1") == 0) {
return Py_BuildValue("f",gXYtab->pGXY_attr->dsp[1]);
} else if (cmpncs(member, "datawc_y2") == 0) {
return Py_BuildValue("f",gXYtab->pGXY_attr->dsp[3]);
} else if (cmpncs(member, "datawc_x1") == 0) {
return Py_BuildValue("f",gXYtab->pGXY_attr->dsp[0]);
} else if (cmpncs(member, "datawc_x2") == 0) {
return Py_BuildValue("f",gXYtab->pGXY_attr->dsp[2]);
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
return Py_BuildValue("i",gXYtab->pGXY_attr->idsp[1]);
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
return Py_BuildValue("i",gXYtab->pGXY_attr->idsp[3]);
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
return Py_BuildValue("i",gXYtab->pGXY_attr->idsp[0]);
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
return Py_BuildValue("i",gXYtab->pGXY_attr->idsp[2]);
} else if (cmpncs(member, "datawc_calendar") == 0) {
return Py_BuildValue("i",gXYtab->pGXY_attr->calendar);
} else if (cmpncs(member, "datawc_timeunits") == 0) {
return Py_BuildValue("s",gXYtab->pGXY_attr->timeunits);
} else if ((cmpncs(member, "xaxisconvert") == 0) &&
((cmpncs(gXYtab->pGXY_attr->xat,"\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "xaxisconvert") == 0) {
return Py_BuildValue("s", gXYtab->pGXY_attr->xat);
} else if ((cmpncs(member, "yaxisconvert") == 0) &&
((cmpncs(gXYtab->pGXY_attr->yat, "\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "yaxisconvert") == 0) {
return Py_BuildValue("s", gXYtab->pGXY_attr->yat);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing XvsY graphics method and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the graphics method's attribute will
* be changed.
*/
static PyObject *
PyVCS_setGXYmember(self, args)
PyObject *self;
PyObject *args;
{
int i,j=0,n,ct=0,lct=1,line_index,lcolor_index=0;
int MODE, value_int, marker_index, mcolor_index=0;
int msize_index=0;
long value_long;
float value_float, lwidth_index=1.0;
double value_double;
char buf[1024], *style;
char *GXY_name, *str=NULL, *member=NULL;
char *value_str=NULL, *Tl_name=NULL, *Tm_name=NULL;
PyObject *GXY=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *itempk,*itempv,*pkeys,*pvalues, *line_obj;
PyObject *marker_obj, *mcolor_obj, *lcolor_obj, *lwidth_obj, *msize_obj;
struct gXY_tab *get_gXYtab=NULL;
extern int update_ind;
struct gXY_attr *pgXY;
struct gXY_tab *gXYtab;
extern struct gXY_tab GXY_tab;
extern struct gXY_tab *getGXY();
extern int chk_mov_GXY();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOi", &GXY, &MEMBER, &VALUE, &MODE)) {
if (GXY == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(GXY,"name", "s", &GXY_name);
gXYtab=&GXY_tab;
while ((gXYtab != NULL) &&
(strcmp(gXYtab->name, GXY_name) != 0))
gXYtab = gXYtab->next;
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
if (VALUE != NULL) {
if (PyString_Check(VALUE)) { /*check string*/
value_str = PyString_AsString(VALUE);
} else if (PyInt_Check(VALUE)) { /*check for int*/
value_int = (int) PyInt_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for float*/
value_float = (float) PyFloat_AsDouble(VALUE);
} else if (PyLong_Check(VALUE)) { /* check for long*/
value_long = PyLong_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for double*/
value_double = PyFloat_AsDouble(VALUE);
} else if (PyDict_Check(VALUE)) { /*check for dictionary*/
value_str = return_vcs_list(VALUE, member);
}
}
/*
* Set the appropriate XvsY attribute. But first
* get the XvsY structure.
*/
get_gXYtab = getGXY(gXYtab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_gXYtab->pGXY_attr->proj, value_str);
} else if (cmpncs(member, "xticlabels1") == 0) {
strcpy(get_gXYtab->pGXY_attr->xtl1, value_str);
} else if (cmpncs(member, "xticlabels2") == 0) {
strcpy(get_gXYtab->pGXY_attr->xtl2, value_str);
} else if (cmpncs(member, "xmtics1") == 0) {
strcpy(get_gXYtab->pGXY_attr->xmt1, value_str);
} else if (cmpncs(member, "xmtics2") == 0) {
strcpy(get_gXYtab->pGXY_attr->xmt2, value_str);
} else if (cmpncs(member, "yticlabels1") == 0) {
strcpy(get_gXYtab->pGXY_attr->ytl1, value_str);
} else if (cmpncs(member, "yticlabels2") == 0) {
strcpy(get_gXYtab->pGXY_attr->ytl2, value_str);
} else if (cmpncs(member, "ymtics1") == 0) {
strcpy(get_gXYtab->pGXY_attr->ymt1, value_str);
} else if (cmpncs(member, "ymtics2") == 0) {
strcpy(get_gXYtab->pGXY_attr->ymt2, value_str);
} else if (cmpncs(member, "datawc_x1") == 0) {
get_gXYtab->pGXY_attr->dsp[0] = value_float;
} else if (cmpncs(member, "datawc_y1") == 0) {
get_gXYtab->pGXY_attr->dsp[1] = value_float;
} else if (cmpncs(member, "datawc_x2") == 0) {
get_gXYtab->pGXY_attr->dsp[2] = value_float;
} else if (cmpncs(member, "datawc_y2") == 0) {
get_gXYtab->pGXY_attr->dsp[3] = value_float;
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
get_gXYtab->pGXY_attr->idsp[0] = value_int;
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
get_gXYtab->pGXY_attr->idsp[1] = value_int;
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
get_gXYtab->pGXY_attr->idsp[2] = value_int;
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
get_gXYtab->pGXY_attr->idsp[3] = value_int;
} else if (cmpncs(member, "datawc_calendar") == 0) {
get_gXYtab->pGXY_attr->calendar = value_int;
} else if (cmpncs(member, "datawc_timeunits") == 0) {
strcpy(get_gXYtab->pGXY_attr->timeunits, value_str);
} else if (cmpncs(member, "xaxisconvert") == 0) {
strcpy(get_gXYtab->pGXY_attr->xat, value_str);
} else if (cmpncs(member, "yaxisconvert") == 0) {
strcpy(get_gXYtab->pGXY_attr->yat, value_str);
} else if ((cmpncs(member, "line") == 0) || (cmpncs(member, "linecolor") == 0) ||
(cmpncs(member, "linewidth") == 0) ||
(cmpncs(member, "marker") == 0) || (cmpncs(member, "markercolor") == 0) ||
(cmpncs(member, "markersize") == 0)) {
/* get the line values */
Get_Member(GXY,"line", "O", &line_obj);
/* get the line color values */
Get_Member(GXY,"linecolor", "O", &lcolor_obj);
/* get the line width values */
Get_Member(GXY,"linewidth", "O", &lwidth_obj);
/* get the marker values */
Get_Member(GXY,"marker", "O", &marker_obj);
/* get the marker color values */
Get_Member(GXY,"markercolor", "O", &mcolor_obj);
/* get the marker size values */
Get_Member(GXY,"markersize", "O", &msize_obj);
/* Get the XvsY structure */
pgXY = get_gXYtab->pGXY_attr;
if (line_obj==Py_None)
line_index = 1; /* default to solid line */
else {
if (cmpncs("solid", PyString_AsString(line_obj))==0)
line_index = 1;
else if (cmpncs("dash", PyString_AsString(line_obj))==0)
line_index = 2;
else if (cmpncs("dot", PyString_AsString(line_obj))==0)
line_index = 3;
else if (cmpncs("dash-dot", PyString_AsString(line_obj))==0)
line_index = 4;
else if (cmpncs("long-dash", PyString_AsString(line_obj))==0)
line_index = -3;
else {
Tl_name = PyString_AsString(line_obj);
line_index = 999;
}
}
if (line_index != 999) {
if (lcolor_obj == Py_None)
lcolor_index = 241; /* set color to default black color*/
else
lcolor_index = (int) PyInt_AsLong(lcolor_obj);
if (lwidth_obj == Py_None)
lwidth_index = 1.0; /* set width to default size 1.0*/
else
lwidth_index = (float) PyFloat_AsDouble(lwidth_obj);
if ((line_obj==Py_None) && (lcolor_obj == Py_None) && (lwidth_obj == Py_None))
strcpy(pgXY->lb,"default");
else
strcpy(pgXY->lb,return_new_line_attribute(GXY_name,0,line_index,lcolor_index,lwidth_index));
} else /* must be a line object */
strcpy(pgXY->lb, Tl_name);
if (marker_obj==Py_None)
marker_index = 0; /* default to no markers */
else {
if (cmpncs("dot", PyString_AsString(marker_obj))==0)
marker_index = 1;
else if (cmpncs("plus", PyString_AsString(marker_obj))==0)
marker_index = 2;
else if (cmpncs("star", PyString_AsString(marker_obj))==0)
marker_index = 3;
else if (cmpncs("circle", PyString_AsString(marker_obj))==0)
marker_index = 4;
else if (cmpncs("cross", PyString_AsString(marker_obj))==0)
marker_index = 5;
else if (cmpncs("diamond", PyString_AsString(marker_obj))==0)
marker_index = 6;
else if (cmpncs("triangle_up", PyString_AsString(marker_obj))==0)
marker_index = 7;
else if (cmpncs("triangle_down", PyString_AsString(marker_obj))==0)
marker_index = 8;
else if (cmpncs("triangle_left", PyString_AsString(marker_obj))==0)
marker_index = 9;
else if (cmpncs("triangle_right", PyString_AsString(marker_obj))==0)
marker_index = 10;
else if (cmpncs("square", PyString_AsString(marker_obj))==0)
marker_index = 11;
else if (cmpncs("diamond_fill", PyString_AsString(marker_obj))==0)
marker_index = 12;
else if (cmpncs("triangle_up_fill", PyString_AsString(marker_obj))==0)
marker_index = 13;
else if (cmpncs("triangle_down_fill", PyString_AsString(marker_obj))==0)
marker_index = 14;
else if (cmpncs("triangle_left_fill", PyString_AsString(marker_obj))==0)
marker_index = 15;
else if (cmpncs("triangle_right_fill", PyString_AsString(marker_obj))==0)
marker_index = 16;
else if (cmpncs("square_fill", PyString_AsString(marker_obj))==0)
marker_index = 17;
else if (cmpncs("hurricane", PyString_AsString(marker_obj))==0)
marker_index = 18;
else if (cmpncs("w00", PyString_AsString(marker_obj))==0)
marker_index = 100;
else if (cmpncs("w01", PyString_AsString(marker_obj))==0)
marker_index = 101;
else if (cmpncs("w02", PyString_AsString(marker_obj))==0)
marker_index = 102;
else if (cmpncs("w03", PyString_AsString(marker_obj))==0)
marker_index = 103;
else if (cmpncs("w04", PyString_AsString(marker_obj))==0)
marker_index = 104;
else if (cmpncs("w05", PyString_AsString(marker_obj))==0)
marker_index = 105;
else if (cmpncs("w06", PyString_AsString(marker_obj))==0)
marker_index = 106;
else if (cmpncs("w07", PyString_AsString(marker_obj))==0)
marker_index = 107;
else if (cmpncs("w08", PyString_AsString(marker_obj))==0)
marker_index = 108;
else if (cmpncs("w09", PyString_AsString(marker_obj))==0)
marker_index = 109;
else if (cmpncs("w10", PyString_AsString(marker_obj))==0)
marker_index = 110;
else if (cmpncs("w11", PyString_AsString(marker_obj))==0)
marker_index = 111;
else if (cmpncs("w12", PyString_AsString(marker_obj))==0)
marker_index = 112;
else if (cmpncs("w13", PyString_AsString(marker_obj))==0)
marker_index = 113;
else if (cmpncs("w14", PyString_AsString(marker_obj))==0)
marker_index = 114;
else if (cmpncs("w15", PyString_AsString(marker_obj))==0)
marker_index = 115;
else if (cmpncs("w16", PyString_AsString(marker_obj))==0)
marker_index = 116;
else if (cmpncs("w17", PyString_AsString(marker_obj))==0)
marker_index = 117;
else if (cmpncs("w18", PyString_AsString(marker_obj))==0)
marker_index = 118;
else if (cmpncs("w19", PyString_AsString(marker_obj))==0)
marker_index = 119;
else if (cmpncs("w20", PyString_AsString(marker_obj))==0)
marker_index = 120;
else if (cmpncs("w21", PyString_AsString(marker_obj))==0)
marker_index = 121;
else if (cmpncs("w22", PyString_AsString(marker_obj))==0)
marker_index = 122;
else if (cmpncs("w23", PyString_AsString(marker_obj))==0)
marker_index = 123;
else if (cmpncs("w24", PyString_AsString(marker_obj))==0)
marker_index = 124;
else if (cmpncs("w25", PyString_AsString(marker_obj))==0)
marker_index = 125;
else if (cmpncs("w26", PyString_AsString(marker_obj))==0)
marker_index = 126;
else if (cmpncs("w27", PyString_AsString(marker_obj))==0)
marker_index = 127;
else if (cmpncs("w28", PyString_AsString(marker_obj))==0)
marker_index = 128;
else if (cmpncs("w29", PyString_AsString(marker_obj))==0)
marker_index = 129;
else if (cmpncs("w30", PyString_AsString(marker_obj))==0)
marker_index = 130;
else if (cmpncs("w31", PyString_AsString(marker_obj))==0)
marker_index = 131;
else if (cmpncs("w32", PyString_AsString(marker_obj))==0)
marker_index = 132;
else if (cmpncs("w33", PyString_AsString(marker_obj))==0)
marker_index = 133;
else if (cmpncs("w34", PyString_AsString(marker_obj))==0)
marker_index = 134;
else if (cmpncs("w35", PyString_AsString(marker_obj))==0)
marker_index = 135;
else if (cmpncs("w36", PyString_AsString(marker_obj))==0)
marker_index = 136;
else if (cmpncs("w37", PyString_AsString(marker_obj))==0)
marker_index = 137;
else if (cmpncs("w38", PyString_AsString(marker_obj))==0)
marker_index = 138;
else if (cmpncs("w39", PyString_AsString(marker_obj))==0)
marker_index = 139;
else if (cmpncs("w40", PyString_AsString(marker_obj))==0)
marker_index = 140;
else if (cmpncs("w41", PyString_AsString(marker_obj))==0)
marker_index = 141;
else if (cmpncs("w42", PyString_AsString(marker_obj))==0)
marker_index = 142;
else if (cmpncs("w43", PyString_AsString(marker_obj))==0)
marker_index = 143;
else if (cmpncs("w44", PyString_AsString(marker_obj))==0)
marker_index = 144;
else if (cmpncs("w45", PyString_AsString(marker_obj))==0)
marker_index = 145;
else if (cmpncs("w46", PyString_AsString(marker_obj))==0)
marker_index = 146;
else if (cmpncs("w47", PyString_AsString(marker_obj))==0)
marker_index = 147;
else if (cmpncs("w48", PyString_AsString(marker_obj))==0)
marker_index = 148;
else if (cmpncs("w49", PyString_AsString(marker_obj))==0)
marker_index = 149;
else if (cmpncs("w50", PyString_AsString(marker_obj))==0)
marker_index = 150;
else if (cmpncs("w51", PyString_AsString(marker_obj))==0)
marker_index = 151;
else if (cmpncs("w52", PyString_AsString(marker_obj))==0)
marker_index = 152;
else if (cmpncs("w53", PyString_AsString(marker_obj))==0)
marker_index = 153;
else if (cmpncs("w54", PyString_AsString(marker_obj))==0)
marker_index = 154;
else if (cmpncs("w55", PyString_AsString(marker_obj))==0)
marker_index = 155;
else if (cmpncs("w56", PyString_AsString(marker_obj))==0)
marker_index = 156;
else if (cmpncs("w57", PyString_AsString(marker_obj))==0)
marker_index = 157;
else if (cmpncs("w58", PyString_AsString(marker_obj))==0)
marker_index = 158;
else if (cmpncs("w59", PyString_AsString(marker_obj))==0)
marker_index = 159;
else if (cmpncs("w60", PyString_AsString(marker_obj))==0)
marker_index = 160;
else if (cmpncs("w61", PyString_AsString(marker_obj))==0)
marker_index = 161;
else if (cmpncs("w62", PyString_AsString(marker_obj))==0)
marker_index = 162;
else if (cmpncs("w63", PyString_AsString(marker_obj))==0)
marker_index = 163;
else if (cmpncs("w64", PyString_AsString(marker_obj))==0)
marker_index = 164;
else if (cmpncs("w65", PyString_AsString(marker_obj))==0)
marker_index = 165;
else if (cmpncs("w66", PyString_AsString(marker_obj))==0)
marker_index = 166;
else if (cmpncs("w67", PyString_AsString(marker_obj))==0)
marker_index = 167;
else if (cmpncs("w68", PyString_AsString(marker_obj))==0)
marker_index = 168;
else if (cmpncs("w69", PyString_AsString(marker_obj))==0)
marker_index = 169;
else if (cmpncs("w70", PyString_AsString(marker_obj))==0)
marker_index = 170;
else if (cmpncs("w71", PyString_AsString(marker_obj))==0)
marker_index = 171;
else if (cmpncs("w72", PyString_AsString(marker_obj))==0)
marker_index = 172;
else if (cmpncs("w73", PyString_AsString(marker_obj))==0)
marker_index = 173;
else if (cmpncs("w74", PyString_AsString(marker_obj))==0)
marker_index = 174;
else if (cmpncs("w75", PyString_AsString(marker_obj))==0)
marker_index = 175;
else if (cmpncs("w76", PyString_AsString(marker_obj))==0)
marker_index = 176;
else if (cmpncs("w77", PyString_AsString(marker_obj))==0)
marker_index = 177;
else if (cmpncs("w78", PyString_AsString(marker_obj))==0)
marker_index = 178;
else if (cmpncs("w79", PyString_AsString(marker_obj))==0)
marker_index = 179;
else if (cmpncs("w80", PyString_AsString(marker_obj))==0)
marker_index = 180;
else if (cmpncs("w81", PyString_AsString(marker_obj))==0)
marker_index = 181;
else if (cmpncs("w82", PyString_AsString(marker_obj))==0)
marker_index = 182;
else if (cmpncs("w83", PyString_AsString(marker_obj))==0)
marker_index = 183;
else if (cmpncs("w84", PyString_AsString(marker_obj))==0)
marker_index = 184;
else if (cmpncs("w85", PyString_AsString(marker_obj))==0)
marker_index = 185;
else if (cmpncs("w86", PyString_AsString(marker_obj))==0)
marker_index = 186;
else if (cmpncs("w87", PyString_AsString(marker_obj))==0)
marker_index = 187;
else if (cmpncs("w88", PyString_AsString(marker_obj))==0)
marker_index = 188;
else if (cmpncs("w89", PyString_AsString(marker_obj))==0)
marker_index = 189;
else if (cmpncs("w90", PyString_AsString(marker_obj))==0)
marker_index = 190;
else if (cmpncs("w91", PyString_AsString(marker_obj))==0)
marker_index = 191;
else if (cmpncs("w92", PyString_AsString(marker_obj))==0)
marker_index = 192;
else if (cmpncs("w93", PyString_AsString(marker_obj))==0)
marker_index = 193;
else if (cmpncs("w94", PyString_AsString(marker_obj))==0)
marker_index = 194;
else if (cmpncs("w95", PyString_AsString(marker_obj))==0)
marker_index = 195;
else if (cmpncs("w96", PyString_AsString(marker_obj))==0)
marker_index = 196;
else if (cmpncs("w97", PyString_AsString(marker_obj))==0)
marker_index = 197;
else if (cmpncs("w98", PyString_AsString(marker_obj))==0)
marker_index = 198;
else if (cmpncs("w99", PyString_AsString(marker_obj))==0)
marker_index = 199;
else if (cmpncs("w200", PyString_AsString(marker_obj))==0)
marker_index = 200;
else if (cmpncs("w201", PyString_AsString(marker_obj))==0)
marker_index = 201;
else if (cmpncs("w202", PyString_AsString(marker_obj))==0)
marker_index = 202;
else {
Tm_name = PyString_AsString(marker_obj);
marker_index = 999;
}
}
if (marker_index != 999) {
if (mcolor_obj == Py_None)
mcolor_index = 241; /* set color to default black color*/
else
mcolor_index = (int) PyInt_AsLong(mcolor_obj);
if (msize_obj == Py_None)
msize_index = 7; /* set marker size to default size of 7*/
else
msize_index = (int) PyInt_AsLong(msize_obj);
if ((marker_obj==Py_None) && (mcolor_obj == Py_None) && (msize_obj == Py_None))
strcpy(pgXY->mb,"\0");
else
strcpy(pgXY->mb,return_new_marker_attribute(GXY_name, 0, marker_index, mcolor_index, msize_index));
} else /* must be a marker object */
strcpy(pgXY->mb, Tm_name);
}
chk_mov_GXY(get_gXYtab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new XvsY graphics method by copying from an existing
* XvsY graphics method. If no source copy name argument is given,
* then the default XvsY graphics method will be used to replicate
* the new XvsY graphics method.
*/
static PyObject *
PyVCS_copyGXY(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GXY_SRC=NULL, *GXY_NAME=NULL;
char copy_name[1024];
extern int copy_GXY_name();
if(PyArg_ParseTuple(args,"|ss", &GXY_SRC, &GXY_NAME)) {
if (GXY_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source XvsY graphics method name.");
return NULL;
}
if (GXY_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", GXY_NAME);
}
ierr = copy_GXY_name(GXY_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating XvsY graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing XvsY graphics method.
*/
static PyObject *
PyVCS_renameGXY(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GXY_OLD_NAME=NULL, *GXY_NEW_NAME=NULL;
extern int renameGXY_name();
if(PyArg_ParseTuple(args,"|ss", &GXY_OLD_NAME, &GXY_NEW_NAME)) {
if ((GXY_OLD_NAME == NULL) || (GXY_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new XvsY graphics method name.");
return NULL;
}
}
ierr = renameGXY_name(GXY_OLD_NAME, GXY_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming XvsY graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing XvsY graphics method.
*/
static PyObject *
PyVCS_removeGXY(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the XvsY file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeGXY_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed XvsY object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The XvsY object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing XvsY graphics method.
*/
static PyObject *
PyVCS_scriptGXY(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *GXY_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_xvsy();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &GXY_NAME, &SCRIPT_NAME, &MODE)) {
if (GXY_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the XvsY name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_xvsy(fp, GXY_NAME) == 0) {
sprintf(buf, "Error - Cannot save XvsY script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS (Gv) graphics method member value.
*/
static PyObject *
PyVCS_getGvmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Gv_name, *member=NULL, buf[1024];
int i=0, ct=0;
PyObject *GV=NULL, *MEMBER=NULL, *tup, *lp;
struct gv_tab *gvtab;
extern struct gv_tab Gv_tab;
struct gv_attr *pgv;
if(PyArg_ParseTuple(args,"|OO",&GV, &MEMBER)) {
if (GV == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(GV,"name", "s", &Gv_name);
gvtab=&Gv_tab;
while ((gvtab != NULL) &&
(strcmp(gvtab->name, Gv_name) != 0))
gvtab = gvtab->next;
if (gvtab == NULL) {
sprintf(buf,"Cannot find vector graphics method Gv_%s.",Gv_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0) {
return Py_BuildValue("s", gvtab->pGv_attr->proj);
} else if (cmpncs(member, "xticlabels1") == 0) {
return Py_BuildValue("s", gvtab->pGv_attr->xtl1);
} else if (cmpncs(member, "xticlabels2") == 0) {
return Py_BuildValue("s", gvtab->pGv_attr->xtl2);
} else if (cmpncs(member, "xmtics1") == 0) {
return Py_BuildValue("s", gvtab->pGv_attr->xmt1);
} else if (cmpncs(member, "xmtics2") == 0) {
return Py_BuildValue("s", gvtab->pGv_attr->xmt2);
} else if (cmpncs(member, "yticlabels1") == 0) {
return Py_BuildValue("s", gvtab->pGv_attr->ytl1);
} else if (cmpncs(member, "yticlabels2") == 0) {
return Py_BuildValue("s", gvtab->pGv_attr->ytl2);
} else if (cmpncs(member, "ymtics1") == 0) {
return Py_BuildValue("s", gvtab->pGv_attr->ymt1);
} else if (cmpncs(member, "ymtics2") == 0) {
return Py_BuildValue("s", gvtab->pGv_attr->ymt2);
} else if (cmpncs(member, "datawc_y1") == 0) {
return Py_BuildValue("f",gvtab->pGv_attr->dsp[1]);
} else if (cmpncs(member, "datawc_y2") == 0) {
return Py_BuildValue("f",gvtab->pGv_attr->dsp[3]);
} else if (cmpncs(member, "datawc_x1") == 0) {
return Py_BuildValue("f",gvtab->pGv_attr->dsp[0]);
} else if (cmpncs(member, "datawc_x2") == 0) {
return Py_BuildValue("f",gvtab->pGv_attr->dsp[2]);
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
return Py_BuildValue("i",gvtab->pGv_attr->idsp[1]);
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
return Py_BuildValue("i",gvtab->pGv_attr->idsp[3]);
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
return Py_BuildValue("i",gvtab->pGv_attr->idsp[0]);
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
return Py_BuildValue("i",gvtab->pGv_attr->idsp[2]);
} else if (cmpncs(member, "datawc_calendar") == 0) {
return Py_BuildValue("i",gvtab->pGv_attr->calendar);
} else if (cmpncs(member, "datawc_timeunits") == 0) {
return Py_BuildValue("s",gvtab->pGv_attr->timeunits);
} else if ((cmpncs(member, "xaxisconvert") == 0) &&
((cmpncs(gvtab->pGv_attr->xat,"\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "xaxisconvert") == 0) {
return Py_BuildValue("s", gvtab->pGv_attr->xat);
} else if ((cmpncs(member, "yaxisconvert") == 0) &&
((cmpncs(gvtab->pGv_attr->yat, "\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "yaxisconvert") == 0) {
return Py_BuildValue("s", gvtab->pGv_attr->yat);
} else if (cmpncs(member, "scale") == 0) {
return Py_BuildValue("f", gvtab->pGv_attr->vsf);
} else if (cmpncs(member, "alignment") == 0) {
if (gvtab->pGv_attr->vpos == 99)
return Py_BuildValue("s", "center");
else if (gvtab->pGv_attr->vpos == 104)
return Py_BuildValue("s", "head");
else if (gvtab->pGv_attr->vpos == 116)
return Py_BuildValue("s", "tail");
} else if (cmpncs(member, "type") == 0) {
if (gvtab->pGv_attr->vtype == 1)
return Py_BuildValue("s", "barbs");
else if (gvtab->pGv_attr->vtype == 2)
return Py_BuildValue("s", "arrows");
else if (gvtab->pGv_attr->vtype == 3)
return Py_BuildValue("s", "solidarrows");
} else if (cmpncs(member, "reference") == 0) {
return Py_BuildValue("f", gvtab->pGv_attr->vlen);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing vector graphics method and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the graphics method's attribute will
* be changed.
*/
static PyObject *
PyVCS_setGvmember(self, args)
PyObject *self;
PyObject *args;
{
int i,j=0,n,ct=0,lct=1,line_index,color_index=0;
int MODE, value_int, marker_index, mcolor_index=0;
int msize_index=0;
long value_long;
float value_float, width_index=1.0;
double value_double;
char buf[1024], *style;
char *Gv_name, *str=NULL, *member=NULL;
char *value_str=NULL, *Tl_name=NULL;
PyObject *GV=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *itempk,*itempv,*pkeys,*pvalues, *line_obj;
PyObject *marker_obj, *mcolor_obj, *color_obj, *width_obj,*msize_obj;
struct gv_tab *get_gvtab=NULL;
extern int update_ind;
struct gv_attr *pgv;
struct gv_tab *gvtab;
extern struct gv_tab Gv_tab;
extern struct gv_tab *getGv();
extern int chk_mov_Gv();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOi", &GV, &MEMBER, &VALUE, &MODE)) {
if (GV == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(GV,"name", "s", &Gv_name);
gvtab=&Gv_tab;
while ((gvtab != NULL) &&
(strcmp(gvtab->name, Gv_name) != 0))
gvtab = gvtab->next;
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
if (VALUE != NULL) {
if (PyString_Check(VALUE)) { /*check string*/
value_str = PyString_AsString(VALUE);
} else if (PyInt_Check(VALUE)) { /*check for int*/
value_int = (int) PyInt_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for float*/
value_float = (float) PyFloat_AsDouble(VALUE);
} else if (PyLong_Check(VALUE)) { /* check for long*/
value_long = PyLong_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for double*/
value_double = PyFloat_AsDouble(VALUE);
} else if (PyDict_Check(VALUE)) { /*check for dictionary*/
value_str = return_vcs_list(VALUE, member);
}
}
/*
* Set the appropriate vector attribute. But first
* get the vector structure.
*/
get_gvtab = getGv(gvtab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_gvtab->pGv_attr->proj, value_str);
} else if (cmpncs(member, "xticlabels1") == 0) {
strcpy(get_gvtab->pGv_attr->xtl1, value_str);
} else if (cmpncs(member, "xticlabels2") == 0) {
strcpy(get_gvtab->pGv_attr->xtl2, value_str);
} else if (cmpncs(member, "xmtics1") == 0) {
strcpy(get_gvtab->pGv_attr->xmt1, value_str);
} else if (cmpncs(member, "xmtics2") == 0) {
strcpy(get_gvtab->pGv_attr->xmt2, value_str);
} else if (cmpncs(member, "yticlabels1") == 0) {
strcpy(get_gvtab->pGv_attr->ytl1, value_str);
} else if (cmpncs(member, "yticlabels2") == 0) {
strcpy(get_gvtab->pGv_attr->ytl2, value_str);
} else if (cmpncs(member, "ymtics1") == 0) {
strcpy(get_gvtab->pGv_attr->ymt1, value_str);
} else if (cmpncs(member, "ymtics2") == 0) {
strcpy(get_gvtab->pGv_attr->ymt2, value_str);
} else if (cmpncs(member, "datawc_x1") == 0) {
get_gvtab->pGv_attr->dsp[0] = value_float;
} else if (cmpncs(member, "datawc_y1") == 0) {
get_gvtab->pGv_attr->dsp[1] = value_float;
} else if (cmpncs(member, "datawc_x2") == 0) {
get_gvtab->pGv_attr->dsp[2] = value_float;
} else if (cmpncs(member, "datawc_y2") == 0) {
get_gvtab->pGv_attr->dsp[3] = value_float;
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
get_gvtab->pGv_attr->idsp[0] = value_int;
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
get_gvtab->pGv_attr->idsp[1] = value_int;
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
get_gvtab->pGv_attr->idsp[2] = value_int;
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
get_gvtab->pGv_attr->idsp[3] = value_int;
} else if (cmpncs(member, "datawc_calendar") == 0) {
get_gvtab->pGv_attr->calendar = value_int;
} else if (cmpncs(member, "datawc_timeunits") == 0) {
strcpy(get_gvtab->pGv_attr->timeunits, value_str);
} else if (cmpncs(member, "xaxisconvert") == 0) {
strcpy(get_gvtab->pGv_attr->xat, value_str);
} else if (cmpncs(member, "yaxisconvert") == 0) {
strcpy(get_gvtab->pGv_attr->yat, value_str);
} else if ((cmpncs(member, "line") == 0) || (cmpncs(member, "linecolor") == 0) ||
(cmpncs(member, "linewidth") == 0)) {
/* get the line values */
Get_Member(GV,"line", "O", &line_obj);
/* get the line color values */
Get_Member(GV,"linecolor", "O", &color_obj);
/* get the line width values */
Get_Member(GV,"linewidth", "O", &width_obj);
/* Get the vector structure */
pgv = get_gvtab->pGv_attr;
if (line_obj==Py_None)
line_index = 1; /* default to solid line */
else {
if (cmpncs("solid", PyString_AsString(line_obj))==0)
line_index = 1;
else if (cmpncs("dash", PyString_AsString(line_obj))==0)
line_index = 2;
else if (cmpncs("dot", PyString_AsString(line_obj))==0)
line_index = 3;
else if (cmpncs("dash-dot", PyString_AsString(line_obj))==0)
line_index = 4;
else if (cmpncs("long-dash", PyString_AsString(line_obj))==0)
line_index = -3;
else {
Tl_name = PyString_AsString(line_obj);
line_index = 999;
}
}
if (line_index != 999) {
if (color_obj == Py_None)
color_index = 241; /* set color to default black color*/
else
color_index = (int) PyInt_AsLong(color_obj);
if (width_obj == Py_None)
width_index = 1.0; /* set width to default size 1.0*/
else
width_index = (float) PyFloat_AsDouble(width_obj);
if ((line_obj==Py_None) && (color_obj == Py_None) && (width_obj == Py_None))
strcpy(pgv->lb,"default");
else
strcpy(pgv->lb,return_new_line_attribute(Gv_name,0,line_index,color_index,width_index));
} else /* must be a line object */
strcpy(pgv->lb, Tl_name);
} else if (cmpncs(member, "scale") == 0) {
get_gvtab->pGv_attr->vsf = value_float;
} else if (cmpncs(member, "alignment") == 0) {
if (cmpncs(value_str, "head") == 0)
get_gvtab->pGv_attr->vpos = 104;
else if (cmpncs(value_str, "center") == 0)
get_gvtab->pGv_attr->vpos = 99;
else if (cmpncs(value_str, "tail") == 0)
get_gvtab->pGv_attr->vpos = 116;
} else if (cmpncs(member, "type") == 0) {
if (cmpncs(value_str, "barbs") == 0)
get_gvtab->pGv_attr->vtype = 1;
else if (cmpncs(value_str, "arrows") == 0)
get_gvtab->pGv_attr->vtype = 2;
else if (cmpncs(value_str, "solidarrows") == 0)
get_gvtab->pGv_attr->vtype = 3;
} else if (cmpncs(member, "reference") == 0) {
get_gvtab->pGv_attr->vlen = value_float;
}
chk_mov_Gv(get_gvtab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new vector graphics method by copying from an existing
* vector graphics method. If no source copy name argument is given,
* then the default vector graphics method will be used to replicate
* the new vector graphics method.
*/
static PyObject *
PyVCS_copyGv(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GV_SRC=NULL, *GV_NAME=NULL;
char copy_name[1024];
extern int copy_Gv_name();
if(PyArg_ParseTuple(args,"|ss", &GV_SRC, &GV_NAME)) {
if (GV_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source vector graphics method name.");
return NULL;
}
if (GV_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", GV_NAME);
}
ierr = copy_Gv_name(GV_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating vector graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing vector graphics method.
*/
static PyObject *
PyVCS_renameGv(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GV_OLD_NAME=NULL, *GV_NEW_NAME=NULL;
extern int renameGv_name();
if(PyArg_ParseTuple(args,"|ss", &GV_OLD_NAME, &GV_NEW_NAME)) {
if ((GV_OLD_NAME == NULL) || (GV_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new vector graphics method name.");
return NULL;
}
}
ierr = renameGv_name(GV_OLD_NAME, GV_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming vector graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing vector graphics method.
*/
static PyObject *
PyVCS_removeGv(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the vector file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeGv_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed vector object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The vector object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing vector graphics method.
*/
static PyObject *
PyVCS_scriptGv(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *GV_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_vector();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &GV_NAME, &SCRIPT_NAME, &MODE)) {
if (GV_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the vector name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_vector(fp, GV_NAME) == 0) {
sprintf(buf, "Error - Cannot save vector script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS (GSp) graphics method member value.
*/
static PyObject *
PyVCS_getGSpmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *GSp_name, *member=NULL, buf[1024];
int i=0, ct=0;
PyObject *GSP=NULL, *MEMBER=NULL, *tup, *lp;
struct gSp_tab *gSptab;
extern struct gSp_tab GSp_tab;
struct gSp_attr *pgSp;
if(PyArg_ParseTuple(args,"|OO",&GSP, &MEMBER)) {
if (GSP == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(GSP,"name", "s", &GSp_name);
gSptab=&GSp_tab;
while ((gSptab != NULL) &&
(strcmp(gSptab->name, GSp_name) != 0))
gSptab = gSptab->next;
if (gSptab == NULL) {
sprintf(buf,"Cannot find isofill graphics method GSp_%s.",GSp_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0) {
return Py_BuildValue("s", gSptab->pGSp_attr->proj);
} else if (cmpncs(member, "xticlabels1") == 0) {
return Py_BuildValue("s", gSptab->pGSp_attr->xtl1);
} else if (cmpncs(member, "xticlabels2") == 0) {
return Py_BuildValue("s", gSptab->pGSp_attr->xtl2);
} else if (cmpncs(member, "xmtics1") == 0) {
return Py_BuildValue("s", gSptab->pGSp_attr->xmt1);
} else if (cmpncs(member, "xmtics2") == 0) {
return Py_BuildValue("s", gSptab->pGSp_attr->xmt2);
} else if (cmpncs(member, "yticlabels1") == 0) {
return Py_BuildValue("s", gSptab->pGSp_attr->ytl1);
} else if (cmpncs(member, "yticlabels2") == 0) {
return Py_BuildValue("s", gSptab->pGSp_attr->ytl2);
} else if (cmpncs(member, "ymtics1") == 0) {
return Py_BuildValue("s", gSptab->pGSp_attr->ymt1);
} else if (cmpncs(member, "ymtics2") == 0) {
return Py_BuildValue("s", gSptab->pGSp_attr->ymt2);
} else if (cmpncs(member, "datawc_y1") == 0) {
return Py_BuildValue("f",gSptab->pGSp_attr->dsp[1]);
} else if (cmpncs(member, "datawc_y2") == 0) {
return Py_BuildValue("f",gSptab->pGSp_attr->dsp[3]);
} else if (cmpncs(member, "datawc_x1") == 0) {
return Py_BuildValue("f",gSptab->pGSp_attr->dsp[0]);
} else if (cmpncs(member, "datawc_x2") == 0) {
return Py_BuildValue("f",gSptab->pGSp_attr->dsp[2]);
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
return Py_BuildValue("i",gSptab->pGSp_attr->idsp[1]);
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
return Py_BuildValue("i",gSptab->pGSp_attr->idsp[3]);
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
return Py_BuildValue("i",gSptab->pGSp_attr->idsp[0]);
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
return Py_BuildValue("i",gSptab->pGSp_attr->idsp[2]);
} else if (cmpncs(member, "datawc_calendar") == 0) {
return Py_BuildValue("i",gSptab->pGSp_attr->calendar);
} else if (cmpncs(member, "datawc_timeunits") == 0) {
return Py_BuildValue("s",gSptab->pGSp_attr->timeunits);
} else if ((cmpncs(member, "xaxisconvert") == 0) &&
((cmpncs(gSptab->pGSp_attr->xat,"\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "xaxisconvert") == 0) {
return Py_BuildValue("s", gSptab->pGSp_attr->xat);
} else if ((cmpncs(member, "yaxisconvert") == 0) &&
((cmpncs(gSptab->pGSp_attr->yat, "\0") == 0))) {
return Py_BuildValue("s", "linear");
} else if (cmpncs(member, "yaxisconvert") == 0) {
return Py_BuildValue("s", gSptab->pGSp_attr->yat);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing scatter graphics method and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the graphics method's attribute will
* be changed.
*/
static PyObject *
PyVCS_setGSpmember(self, args)
PyObject *self;
PyObject *args;
{
int i,j=0,n,ct=0,lct=1,line_index,lcolor_index=0;
int MODE, value_int, marker_index, mcolor_index=0;
int msize_index=0;
long value_long;
float value_float;
double value_double;
char buf[1024], *style;
char *GSp_name, *str=NULL, *member=NULL;
char *value_str=NULL, *Tm_name=NULL;
PyObject *GSP=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *itempk,*itempv,*pkeys,*pvalues;
PyObject *marker_obj, *mcolor_obj, *msize_obj;
struct gSp_tab *get_gSptab=NULL;
extern int update_ind;
struct gSp_attr *pgSp;
struct gSp_tab *gSptab;
extern struct gSp_tab GSp_tab;
extern struct gSp_tab *getGSp();
extern int chk_mov_GSp();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOi", &GSP, &MEMBER, &VALUE, &MODE)) {
if (GSP == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(GSP,"name", "s", &GSp_name);
gSptab=&GSp_tab;
while ((gSptab != NULL) &&
(strcmp(gSptab->name, GSp_name) != 0))
gSptab = gSptab->next;
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
if (VALUE != NULL) {
if (PyString_Check(VALUE)) { /*check string*/
value_str = PyString_AsString(VALUE);
} else if (PyInt_Check(VALUE)) { /*check for int*/
value_int = (int) PyInt_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for float*/
value_float = (float) PyFloat_AsDouble(VALUE);
} else if (PyLong_Check(VALUE)) { /* check for long*/
value_long = PyLong_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for double*/
value_double = PyFloat_AsDouble(VALUE);
} else if (PyDict_Check(VALUE)) { /*check for dictionary*/
value_str = return_vcs_list(VALUE, member);
}
}
/*
* Set the appropriate scatter attribute. But first
* get the scatter structure.
*/
get_gSptab = getGSp(gSptab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_gSptab->pGSp_attr->proj, value_str);
} else if (cmpncs(member, "xticlabels1") == 0) {
strcpy(get_gSptab->pGSp_attr->xtl1, value_str);
} else if (cmpncs(member, "xticlabels2") == 0) {
strcpy(get_gSptab->pGSp_attr->xtl2, value_str);
} else if (cmpncs(member, "xmtics1") == 0) {
strcpy(get_gSptab->pGSp_attr->xmt1, value_str);
} else if (cmpncs(member, "xmtics2") == 0) {
strcpy(get_gSptab->pGSp_attr->xmt2, value_str);
} else if (cmpncs(member, "yticlabels1") == 0) {
strcpy(get_gSptab->pGSp_attr->ytl1, value_str);
} else if (cmpncs(member, "yticlabels2") == 0) {
strcpy(get_gSptab->pGSp_attr->ytl2, value_str);
} else if (cmpncs(member, "ymtics1") == 0) {
strcpy(get_gSptab->pGSp_attr->ymt1, value_str);
} else if (cmpncs(member, "ymtics2") == 0) {
strcpy(get_gSptab->pGSp_attr->ymt2, value_str);
} else if (cmpncs(member, "datawc_x1") == 0) {
get_gSptab->pGSp_attr->dsp[0] = value_float;
} else if (cmpncs(member, "datawc_y1") == 0) {
get_gSptab->pGSp_attr->dsp[1] = value_float;
} else if (cmpncs(member, "datawc_x2") == 0) {
get_gSptab->pGSp_attr->dsp[2] = value_float;
} else if (cmpncs(member, "datawc_y2") == 0) {
get_gSptab->pGSp_attr->dsp[3] = value_float;
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
get_gSptab->pGSp_attr->idsp[0] = value_int;
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
get_gSptab->pGSp_attr->idsp[1] = value_int;
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
get_gSptab->pGSp_attr->idsp[2] = value_int;
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
get_gSptab->pGSp_attr->idsp[3] = value_int;
} else if (cmpncs(member, "datawc_calendar") == 0) {
get_gSptab->pGSp_attr->calendar = value_int;
} else if (cmpncs(member, "datawc_timeunits") == 0) {
strcpy(get_gSptab->pGSp_attr->timeunits, value_str);
} else if (cmpncs(member, "xaxisconvert") == 0) {
strcpy(get_gSptab->pGSp_attr->xat, value_str);
} else if (cmpncs(member, "yaxisconvert") == 0) {
strcpy(get_gSptab->pGSp_attr->yat, value_str);
} else if ((cmpncs(member, "marker") == 0) ||
(cmpncs(member, "markercolor") == 0) ||
(cmpncs(member, "markersize") == 0)) {
/* get the marker values */
Get_Member(GSP,"marker", "O", &marker_obj);
/* get the marker color values */
Get_Member(GSP,"markercolor", "O", &mcolor_obj);
/* get the marker size values */
Get_Member(GSP,"markersize", "O", &msize_obj);
/* Get the scatter structure */
pgSp = get_gSptab->pGSp_attr;
if (marker_obj==Py_None)
marker_index = 0; /* default to no markers */
else {
if (cmpncs("dot", PyString_AsString(marker_obj))==0)
marker_index = 1;
else if (cmpncs("plus", PyString_AsString(marker_obj))==0)
marker_index = 2;
else if (cmpncs("star", PyString_AsString(marker_obj))==0)
marker_index = 3;
else if (cmpncs("circle", PyString_AsString(marker_obj))==0)
marker_index = 4;
else if (cmpncs("cross", PyString_AsString(marker_obj))==0)
marker_index = 5;
else if (cmpncs("diamond", PyString_AsString(marker_obj))==0)
marker_index = 6;
else if (cmpncs("triangle_up", PyString_AsString(marker_obj))==0)
marker_index = 7;
else if (cmpncs("triangle_down", PyString_AsString(marker_obj))==0)
marker_index = 8;
else if (cmpncs("triangle_left", PyString_AsString(marker_obj))==0)
marker_index = 9;
else if (cmpncs("triangle_right", PyString_AsString(marker_obj))==0)
marker_index = 10;
else if (cmpncs("square", PyString_AsString(marker_obj))==0)
marker_index = 11;
else if (cmpncs("diamond_fill", PyString_AsString(marker_obj))==0)
marker_index = 12;
else if (cmpncs("triangle_up_fill", PyString_AsString(marker_obj))==0)
marker_index = 13;
else if (cmpncs("triangle_down_fill", PyString_AsString(marker_obj))==0)
marker_index = 14;
else if (cmpncs("triangle_left_fill", PyString_AsString(marker_obj))==0)
marker_index = 15;
else if (cmpncs("triangle_right_fill", PyString_AsString(marker_obj))==0)
marker_index = 16;
else if (cmpncs("square_fill", PyString_AsString(marker_obj))==0)
marker_index = 17;
else if (cmpncs("hurricane", PyString_AsString(marker_obj))==0)
marker_index = 18;
else if (cmpncs("w00", PyString_AsString(marker_obj))==0)
marker_index = 100;
else if (cmpncs("w01", PyString_AsString(marker_obj))==0)
marker_index = 101;
else if (cmpncs("w02", PyString_AsString(marker_obj))==0)
marker_index = 102;
else if (cmpncs("w03", PyString_AsString(marker_obj))==0)
marker_index = 103;
else if (cmpncs("w04", PyString_AsString(marker_obj))==0)
marker_index = 104;
else if (cmpncs("w05", PyString_AsString(marker_obj))==0)
marker_index = 105;
else if (cmpncs("w06", PyString_AsString(marker_obj))==0)
marker_index = 106;
else if (cmpncs("w07", PyString_AsString(marker_obj))==0)
marker_index = 107;
else if (cmpncs("w08", PyString_AsString(marker_obj))==0)
marker_index = 108;
else if (cmpncs("w09", PyString_AsString(marker_obj))==0)
marker_index = 109;
else if (cmpncs("w10", PyString_AsString(marker_obj))==0)
marker_index = 110;
else if (cmpncs("w11", PyString_AsString(marker_obj))==0)
marker_index = 111;
else if (cmpncs("w12", PyString_AsString(marker_obj))==0)
marker_index = 112;
else if (cmpncs("w13", PyString_AsString(marker_obj))==0)
marker_index = 113;
else if (cmpncs("w14", PyString_AsString(marker_obj))==0)
marker_index = 114;
else if (cmpncs("w15", PyString_AsString(marker_obj))==0)
marker_index = 115;
else if (cmpncs("w16", PyString_AsString(marker_obj))==0)
marker_index = 116;
else if (cmpncs("w17", PyString_AsString(marker_obj))==0)
marker_index = 117;
else if (cmpncs("w18", PyString_AsString(marker_obj))==0)
marker_index = 118;
else if (cmpncs("w19", PyString_AsString(marker_obj))==0)
marker_index = 119;
else if (cmpncs("w20", PyString_AsString(marker_obj))==0)
marker_index = 120;
else if (cmpncs("w21", PyString_AsString(marker_obj))==0)
marker_index = 121;
else if (cmpncs("w22", PyString_AsString(marker_obj))==0)
marker_index = 122;
else if (cmpncs("w23", PyString_AsString(marker_obj))==0)
marker_index = 123;
else if (cmpncs("w24", PyString_AsString(marker_obj))==0)
marker_index = 124;
else if (cmpncs("w25", PyString_AsString(marker_obj))==0)
marker_index = 125;
else if (cmpncs("w26", PyString_AsString(marker_obj))==0)
marker_index = 126;
else if (cmpncs("w27", PyString_AsString(marker_obj))==0)
marker_index = 127;
else if (cmpncs("w28", PyString_AsString(marker_obj))==0)
marker_index = 128;
else if (cmpncs("w29", PyString_AsString(marker_obj))==0)
marker_index = 129;
else if (cmpncs("w30", PyString_AsString(marker_obj))==0)
marker_index = 130;
else if (cmpncs("w31", PyString_AsString(marker_obj))==0)
marker_index = 131;
else if (cmpncs("w32", PyString_AsString(marker_obj))==0)
marker_index = 132;
else if (cmpncs("w33", PyString_AsString(marker_obj))==0)
marker_index = 133;
else if (cmpncs("w34", PyString_AsString(marker_obj))==0)
marker_index = 134;
else if (cmpncs("w35", PyString_AsString(marker_obj))==0)
marker_index = 135;
else if (cmpncs("w36", PyString_AsString(marker_obj))==0)
marker_index = 136;
else if (cmpncs("w37", PyString_AsString(marker_obj))==0)
marker_index = 137;
else if (cmpncs("w38", PyString_AsString(marker_obj))==0)
marker_index = 138;
else if (cmpncs("w39", PyString_AsString(marker_obj))==0)
marker_index = 139;
else if (cmpncs("w40", PyString_AsString(marker_obj))==0)
marker_index = 140;
else if (cmpncs("w41", PyString_AsString(marker_obj))==0)
marker_index = 141;
else if (cmpncs("w42", PyString_AsString(marker_obj))==0)
marker_index = 142;
else if (cmpncs("w43", PyString_AsString(marker_obj))==0)
marker_index = 143;
else if (cmpncs("w44", PyString_AsString(marker_obj))==0)
marker_index = 144;
else if (cmpncs("w45", PyString_AsString(marker_obj))==0)
marker_index = 145;
else if (cmpncs("w46", PyString_AsString(marker_obj))==0)
marker_index = 146;
else if (cmpncs("w47", PyString_AsString(marker_obj))==0)
marker_index = 147;
else if (cmpncs("w48", PyString_AsString(marker_obj))==0)
marker_index = 148;
else if (cmpncs("w49", PyString_AsString(marker_obj))==0)
marker_index = 149;
else if (cmpncs("w50", PyString_AsString(marker_obj))==0)
marker_index = 150;
else if (cmpncs("w51", PyString_AsString(marker_obj))==0)
marker_index = 151;
else if (cmpncs("w52", PyString_AsString(marker_obj))==0)
marker_index = 152;
else if (cmpncs("w53", PyString_AsString(marker_obj))==0)
marker_index = 153;
else if (cmpncs("w54", PyString_AsString(marker_obj))==0)
marker_index = 154;
else if (cmpncs("w55", PyString_AsString(marker_obj))==0)
marker_index = 155;
else if (cmpncs("w56", PyString_AsString(marker_obj))==0)
marker_index = 156;
else if (cmpncs("w57", PyString_AsString(marker_obj))==0)
marker_index = 157;
else if (cmpncs("w58", PyString_AsString(marker_obj))==0)
marker_index = 158;
else if (cmpncs("w59", PyString_AsString(marker_obj))==0)
marker_index = 159;
else if (cmpncs("w60", PyString_AsString(marker_obj))==0)
marker_index = 160;
else if (cmpncs("w61", PyString_AsString(marker_obj))==0)
marker_index = 161;
else if (cmpncs("w62", PyString_AsString(marker_obj))==0)
marker_index = 162;
else if (cmpncs("w63", PyString_AsString(marker_obj))==0)
marker_index = 163;
else if (cmpncs("w64", PyString_AsString(marker_obj))==0)
marker_index = 164;
else if (cmpncs("w65", PyString_AsString(marker_obj))==0)
marker_index = 165;
else if (cmpncs("w66", PyString_AsString(marker_obj))==0)
marker_index = 166;
else if (cmpncs("w67", PyString_AsString(marker_obj))==0)
marker_index = 167;
else if (cmpncs("w68", PyString_AsString(marker_obj))==0)
marker_index = 168;
else if (cmpncs("w69", PyString_AsString(marker_obj))==0)
marker_index = 169;
else if (cmpncs("w70", PyString_AsString(marker_obj))==0)
marker_index = 170;
else if (cmpncs("w71", PyString_AsString(marker_obj))==0)
marker_index = 171;
else if (cmpncs("w72", PyString_AsString(marker_obj))==0)
marker_index = 172;
else if (cmpncs("w73", PyString_AsString(marker_obj))==0)
marker_index = 173;
else if (cmpncs("w74", PyString_AsString(marker_obj))==0)
marker_index = 174;
else if (cmpncs("w75", PyString_AsString(marker_obj))==0)
marker_index = 175;
else if (cmpncs("w76", PyString_AsString(marker_obj))==0)
marker_index = 176;
else if (cmpncs("w77", PyString_AsString(marker_obj))==0)
marker_index = 177;
else if (cmpncs("w78", PyString_AsString(marker_obj))==0)
marker_index = 178;
else if (cmpncs("w79", PyString_AsString(marker_obj))==0)
marker_index = 179;
else if (cmpncs("w80", PyString_AsString(marker_obj))==0)
marker_index = 180;
else if (cmpncs("w81", PyString_AsString(marker_obj))==0)
marker_index = 181;
else if (cmpncs("w82", PyString_AsString(marker_obj))==0)
marker_index = 182;
else if (cmpncs("w83", PyString_AsString(marker_obj))==0)
marker_index = 183;
else if (cmpncs("w84", PyString_AsString(marker_obj))==0)
marker_index = 184;
else if (cmpncs("w85", PyString_AsString(marker_obj))==0)
marker_index = 185;
else if (cmpncs("w86", PyString_AsString(marker_obj))==0)
marker_index = 186;
else if (cmpncs("w87", PyString_AsString(marker_obj))==0)
marker_index = 187;
else if (cmpncs("w88", PyString_AsString(marker_obj))==0)
marker_index = 188;
else if (cmpncs("w89", PyString_AsString(marker_obj))==0)
marker_index = 189;
else if (cmpncs("w90", PyString_AsString(marker_obj))==0)
marker_index = 190;
else if (cmpncs("w91", PyString_AsString(marker_obj))==0)
marker_index = 191;
else if (cmpncs("w92", PyString_AsString(marker_obj))==0)
marker_index = 192;
else if (cmpncs("w93", PyString_AsString(marker_obj))==0)
marker_index = 193;
else if (cmpncs("w94", PyString_AsString(marker_obj))==0)
marker_index = 194;
else if (cmpncs("w95", PyString_AsString(marker_obj))==0)
marker_index = 195;
else if (cmpncs("w96", PyString_AsString(marker_obj))==0)
marker_index = 196;
else if (cmpncs("w97", PyString_AsString(marker_obj))==0)
marker_index = 197;
else if (cmpncs("w98", PyString_AsString(marker_obj))==0)
marker_index = 198;
else if (cmpncs("w99", PyString_AsString(marker_obj))==0)
marker_index = 199;
else if (cmpncs("w200", PyString_AsString(marker_obj))==0)
marker_index = 200;
else if (cmpncs("w201", PyString_AsString(marker_obj))==0)
marker_index = 201;
else if (cmpncs("w202", PyString_AsString(marker_obj))==0)
marker_index = 202;
else {
Tm_name = PyString_AsString(marker_obj);
marker_index = 999;
}
}
if (marker_index != 999) {
if (mcolor_obj == Py_None)
mcolor_index = 241; /* set color to default black color*/
else
mcolor_index = (int) PyInt_AsLong(mcolor_obj);
if (msize_obj == Py_None)
msize_index = 7; /* set marker size to default size of 7*/
else
msize_index = (int) PyInt_AsLong(msize_obj);
if ((marker_obj==Py_None) && (mcolor_obj == Py_None) && (msize_obj == Py_None))
strcpy(pgSp->mb,"\0");
else
strcpy(pgSp->mb,return_new_marker_attribute(GSp_name, 0, marker_index, mcolor_index, msize_index));
} else /* must be a marker object */
strcpy(pgSp->mb, Tm_name);
}
chk_mov_GSp(get_gSptab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new scatter graphics method by copying from an existing
* scatter graphics method. If no source copy name argument is given,
* then the default scatter graphics method will be used to replicate
* the new scatter graphics method.
*/
static PyObject *
PyVCS_copyGSp(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GSP_SRC=NULL, *GSP_NAME=NULL;
char copy_name[1024];
extern int copy_GSp_name();
if(PyArg_ParseTuple(args,"|ss", &GSP_SRC, &GSP_NAME)) {
if (GSP_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source scatter graphics method name.");
return NULL;
}
if (GSP_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", GSP_NAME);
}
ierr = copy_GSp_name(GSP_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating scatter graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing scatter graphics method.
*/
static PyObject *
PyVCS_renameGSp(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GSP_OLD_NAME=NULL, *GSP_NEW_NAME=NULL;
extern int renameGSp_name();
if(PyArg_ParseTuple(args,"|ss", &GSP_OLD_NAME, &GSP_NEW_NAME)) {
if ((GSP_OLD_NAME == NULL) || (GSP_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new scatter graphics method name.");
return NULL;
}
}
ierr = renameGSp_name(GSP_OLD_NAME, GSP_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming scatter graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing scatter graphics method.
*/
static PyObject *
PyVCS_removeGSp(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the scatter file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeGSp_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed scatter object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The scatter object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing scatter graphics method.
*/
static PyObject *
PyVCS_scriptGSp(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *GSP_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_scatter();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &GSP_NAME, &SCRIPT_NAME, &MODE)) {
if (GSP_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the scatter name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_scatter(fp, GSP_NAME) == 0) {
sprintf(buf, "Error - Cannot save scatter script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS continents (Gcon) graphics method member value.
*/
static PyObject *
PyVCS_getGconmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Gcon_name, *member=NULL, buf[1024];
int i=0, ct=0;
PyObject *GCON=NULL, *MEMBER=NULL, *tup, *lp;
struct gcon_tab *gcontab;
extern struct gcon_tab Gcon_tab;
struct gcon_attr *pgcon;
if(PyArg_ParseTuple(args,"|OO",&GCON, &MEMBER)) {
if (GCON == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(GCON,"name", "s", &Gcon_name);
gcontab=&Gcon_tab;
while ((gcontab != NULL) &&
(strcmp(gcontab->name, Gcon_name) != 0))
gcontab = gcontab->next;
if (gcontab == NULL) {
sprintf(buf,"Cannot find isofill graphics method Gcon_%s.",Gcon_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0) {
return Py_BuildValue("s", gcontab->pGcon_attr->proj);
} else if (cmpncs(member, "xticlabels1") == 0) {
return Py_BuildValue("s", gcontab->pGcon_attr->xtl1);
} else if (cmpncs(member, "xticlabels2") == 0) {
return Py_BuildValue("s", gcontab->pGcon_attr->xtl2);
} else if (cmpncs(member, "xmtics1") == 0) {
return Py_BuildValue("s", gcontab->pGcon_attr->xmt1);
} else if (cmpncs(member, "xmtics2") == 0) {
return Py_BuildValue("s", gcontab->pGcon_attr->xmt2);
} else if (cmpncs(member, "yticlabels1") == 0) {
return Py_BuildValue("s", gcontab->pGcon_attr->ytl1);
} else if (cmpncs(member, "yticlabels2") == 0) {
return Py_BuildValue("s", gcontab->pGcon_attr->ytl2);
} else if (cmpncs(member, "ymtics1") == 0) {
return Py_BuildValue("s", gcontab->pGcon_attr->ymt1);
} else if (cmpncs(member, "ymtics2") == 0) {
return Py_BuildValue("s", gcontab->pGcon_attr->ymt2);
} else if (cmpncs(member, "datawc_y1") == 0) {
return Py_BuildValue("f",gcontab->pGcon_attr->dsp[1]);
} else if (cmpncs(member, "datawc_y2") == 0) {
return Py_BuildValue("f",gcontab->pGcon_attr->dsp[3]);
} else if (cmpncs(member, "datawc_x1") == 0) {
return Py_BuildValue("f",gcontab->pGcon_attr->dsp[0]);
} else if (cmpncs(member, "datawc_x2") == 0) {
return Py_BuildValue("f",gcontab->pGcon_attr->dsp[2]);
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
return Py_BuildValue("i",gcontab->pGcon_attr->idsp[1]);
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
return Py_BuildValue("i",gcontab->pGcon_attr->idsp[3]);
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
return Py_BuildValue("i",gcontab->pGcon_attr->idsp[0]);
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
return Py_BuildValue("i",gcontab->pGcon_attr->idsp[2]);
} else if (cmpncs(member, "datawc_calendar") == 0) {
return Py_BuildValue("i",gcontab->pGcon_attr->calendar);
} else if (cmpncs(member, "datawc_timeunits") == 0) {
return Py_BuildValue("s",gcontab->pGcon_attr->timeunits);
} else if (cmpncs(member, "type") == 0) {
return Py_BuildValue("i",gcontab->pGcon_attr->cont_type);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing continents graphics method and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the graphics method's attribute will
* be changed.
*/
static PyObject *
PyVCS_setGconmember(self, args)
PyObject *self;
PyObject *args;
{
int i,j=0,n,ct=0,lct=1,color_index=0,line_index;
int MODE, value_int, type_index=0, text_color_index=0;
long value_long;
float value_float, width_index=1.0;
double value_double;
char *Tl_name, buf[1024];
char *Gcon_name, *str=NULL, *member=NULL;
char *value_str=NULL;
PyObject *GCON=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *itempk,*itempv,*pkeys,*pvalues;
PyObject *listit,*type_obj, *line_obj, *listtt, *color_obj, *width_obj;
struct gcon_tab *get_gcontab=NULL;
extern int update_ind;
struct gcon_attr *pgcon;
struct gcon_tab *gcontab;
extern struct gcon_tab Gcon_tab;
extern struct gcon_tab *getGcon();
extern int chk_mov_Gcon();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOi", &GCON, &MEMBER, &VALUE, &MODE)) {
if (GCON == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(GCON,"name", "s", &Gcon_name);
gcontab=&Gcon_tab;
while ((gcontab != NULL) &&
(strcmp(gcontab->name, Gcon_name) != 0))
gcontab = gcontab->next;
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
if (VALUE != NULL) {
if (PyString_Check(VALUE)) { /*check string*/
value_str = PyString_AsString(VALUE);
} else if (PyInt_Check(VALUE)) { /*check for int*/
value_int = (int) PyInt_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for float*/
value_float = (float) PyFloat_AsDouble(VALUE);
} else if (PyLong_Check(VALUE)) { /* check for long*/
value_long = PyLong_AsLong(VALUE);
} else if (PyFloat_Check(VALUE)) { /*check for double*/
value_double = PyFloat_AsDouble(VALUE);
} else if (PyDict_Check(VALUE)) { /*check for dictionary*/
value_str = return_vcs_list(VALUE, member);
}
}
/*
* Set the appropriate continents attribute. But first
* get the continents structure.
*/
get_gcontab = getGcon(gcontab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_gcontab->pGcon_attr->proj, value_str);
} else if (cmpncs(member, "xticlabels1") == 0) {
strcpy(get_gcontab->pGcon_attr->xtl1, value_str);
} else if (cmpncs(member, "xticlabels2") == 0) {
strcpy(get_gcontab->pGcon_attr->xtl2, value_str);
} else if (cmpncs(member, "xmtics1") == 0) {
strcpy(get_gcontab->pGcon_attr->xmt1, value_str);
} else if (cmpncs(member, "xmtics2") == 0) {
strcpy(get_gcontab->pGcon_attr->xmt2, value_str);
} else if (cmpncs(member, "yticlabels1") == 0) {
strcpy(get_gcontab->pGcon_attr->ytl1, value_str);
} else if (cmpncs(member, "yticlabels2") == 0) {
strcpy(get_gcontab->pGcon_attr->ytl2, value_str);
} else if (cmpncs(member, "ymtics1") == 0) {
strcpy(get_gcontab->pGcon_attr->ymt1, value_str);
} else if (cmpncs(member, "ymtics2") == 0) {
strcpy(get_gcontab->pGcon_attr->ymt2, value_str);
} else if (cmpncs(member, "datawc_x1") == 0) {
get_gcontab->pGcon_attr->dsp[0] = value_float;
} else if (cmpncs(member, "datawc_y1") == 0) {
get_gcontab->pGcon_attr->dsp[1] = value_float;
} else if (cmpncs(member, "datawc_x2") == 0) {
get_gcontab->pGcon_attr->dsp[2] = value_float;
} else if (cmpncs(member, "datawc_y2") == 0) {
get_gcontab->pGcon_attr->dsp[3] = value_float;
} else if (cmpncs(member, "_tdatawc_x1") == 0) {
get_gcontab->pGcon_attr->idsp[0] = value_int;
} else if (cmpncs(member, "_tdatawc_y1") == 0) {
get_gcontab->pGcon_attr->idsp[1] = value_int;
} else if (cmpncs(member, "_tdatawc_x2") == 0) {
get_gcontab->pGcon_attr->idsp[2] = value_int;
} else if (cmpncs(member, "_tdatawc_y2") == 0) {
get_gcontab->pGcon_attr->idsp[3] = value_int;
} else if (cmpncs(member, "datawc_calendar") == 0) {
get_gcontab->pGcon_attr->calendar = value_int;
} else if (cmpncs(member, "datawc_timeunits") == 0) {
strcpy(get_gcontab->pGcon_attr->timeunits, value_str);
} else if ((cmpncs(member, "type") == 0) || (cmpncs(member, "line") == 0) ||
(cmpncs(member, "linecolor") == 0) || (cmpncs(member, "linewidth") == 0)) {
/* get the type value */
Get_Member(GCON,"type", "i", &type_index);
/* get the line values */
Get_Member(GCON,"line", "O", &line_obj);
/* get the color values */
Get_Member(GCON,"linecolor", "O", &color_obj);
/* get the width values */
Get_Member(GCON,"linewidth", "O", &width_obj);
/* Get the continents structure */
pgcon = get_gcontab->pGcon_attr;
if (line_obj==Py_None) { /* default to solid line */
if (color_obj == Py_None)
color_index = 241; /* set color to default black color*/
else
color_index = (int) PyInt_AsLong(color_obj);
if (width_obj == Py_None)
width_index = 1.0; /* set width to default size 1.0*/
else
width_index = (float) PyFloat_AsDouble(width_obj);
if ((line_obj==Py_None) && (color_obj == Py_None) && (width_obj == Py_None))
strcpy(pgcon->lb,"default");
else
strcpy(pgcon->lb,return_new_line_attribute(Gcon_name,0,1,color_index, width_index));
} else if (PyString_Check(line_obj)) {
if (cmpncs("solid", PyString_AsString(line_obj))==0)
line_index = 1;
else if (cmpncs("dash", PyString_AsString(line_obj))==0)
line_index = 2;
else if (cmpncs("dot", PyString_AsString(line_obj))==0)
line_index = 3;
else if (cmpncs("dash-dot", PyString_AsString(line_obj))==0)
line_index = 4;
else if (cmpncs("long-dash", PyString_AsString(line_obj))==0)
line_index = -3;
else {
Tl_name = PyString_AsString(line_obj);
line_index = 999;
}
if (line_index != 999) {
if (color_obj == Py_None)
color_index = 241; /* set color to default black color*/
else
color_index = (int) PyInt_AsLong(color_obj);
if (width_obj == Py_None)
width_index = 1.0; /* set width to default size 1.0*/
else
width_index = (float) PyFloat_AsDouble(width_obj);
if ((line_obj==Py_None) && (color_obj == Py_None) && (width_obj == Py_None))
strcpy(pgcon->lb,"default");
else
strcpy(pgcon->lb,return_new_line_attribute(Gcon_name, 0, line_index, color_index, width_index));
} else /* must be a line object */
strcpy(pgcon->lb, Tl_name);
}
pgcon->cont_type = (int) type_index;
}
chk_mov_Gcon(get_gcontab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new contintents graphics method by copying from an existing
* contintents graphics method. If no source copy name argument is given,
* then the default continents graphics method will be used to replicate
* the new continents graphics method.
*/
static PyObject *
PyVCS_copyGcon(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GCON_SRC=NULL, *GCON_NAME=NULL;
char copy_name[1024];
extern int copy_Gcon_name();
if(PyArg_ParseTuple(args,"|ss", &GCON_SRC, &GCON_NAME)) {
if (GCON_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source continents graphics method name.");
return NULL;
}
if (GCON_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", GCON_NAME);
}
ierr = copy_Gcon_name(GCON_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating continents graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing continents graphics method.
*/
static PyObject *
PyVCS_renameGcon(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *GCON_OLD_NAME=NULL, *GCON_NEW_NAME=NULL;
extern int renameGcon_name();
if(PyArg_ParseTuple(args,"|ss", &GCON_OLD_NAME, &GCON_NEW_NAME)) {
if ((GCON_OLD_NAME == NULL) || (GCON_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new continents graphics method name.");
return NULL;
}
}
ierr = renameGcon_name(GCON_OLD_NAME, GCON_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming continents graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing continents graphics method.
*/
static PyObject *
PyVCS_removeGcon(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the continents file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeGcon_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed continents object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The continents object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing continents graphics method.
*/
static PyObject *
PyVCS_scriptGcon(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *GCON_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_continents();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &GCON_NAME, &SCRIPT_NAME, &MODE)) {
if (GCON_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the continents name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_continents(fp, GCON_NAME) == 0) {
sprintf(buf, "Error - Cannot save continents script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS colormap (Cp) class member value.
*/
static PyObject *
PyVCS_getCpmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *Cp_name, buf[1024],*member=NULL;
int i,c,imember;
PyObject *CP=NULL, *MEMBER=NULL;
PyObject *listptr=NULL, *tupleptr=NULL, *dictptr=NULL;
struct color_table *Cptab;
extern struct c_val std_color[16];
extern struct color_table C_tab;
if(PyArg_ParseTuple(args,"|OO",&CP, &MEMBER)) {
if (CP == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
if (PyInt_Check(MEMBER)) /* check for int */
i = imember = (int)PyInt_AsLong(MEMBER);
else
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a index number.");
return NULL;
}
}
Get_Member(CP,"name", "s", &Cp_name);
for(Cptab=&C_tab;Cptab != NULL && (c=strcmp(Cptab->name,Cp_name))!=0;
Cptab=Cptab->next);
if (c != 0) {
sprintf(buf,"Cannot find colormap class object Cp_%s.",Cp_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (PyInt_Check(MEMBER)) { /* check for int */
if ((imember >= 0) && (imember < 240)) {
listptr = Py_BuildValue("[i,i,i]", (int )(Cptab->cval[i].red+0.5),
(int )(Cptab->cval[i].green+0.5),(int )(Cptab->cval[i].blue+0.5));
return listptr;
}
if ((imember >= 240) && (imember < 256)) {
tupleptr = Py_BuildValue("(i,i,i)", (int )(std_color[i-240].red+0.5),
(int )(std_color[i-240].green+0.5),(int )(std_color[i-240].blue+0.5));
return tupleptr;
}
}
if (cmpncs(member, "index") == 0) {
dictptr = PyDict_New();
if (strcmp(Cp_name, "default") != 0) {
for (i=0; i<240; i++) {
listptr = Py_BuildValue("[i,i,i]", (int )(Cptab->cval[i].red+0.5),
(int )(Cptab->cval[i].green+0.5),(int )(Cptab->cval[i].blue+0.5));
PyDict_SetItem(dictptr, Py_BuildValue("i",i), listptr);
}
} else {
for (i=0; i<240; i++) {
listptr = Py_BuildValue("(i,i,i)", (int )(Cptab->cval[i].red+0.5),
(int )(Cptab->cval[i].green+0.5),(int )(Cptab->cval[i].blue+0.5));
PyDict_SetItem(dictptr, Py_BuildValue("i",i), listptr);
}
}
for (i=240;i<256;i++) {
tupleptr = Py_BuildValue("(i,i,i)", (int )(std_color[i-240].red+0.5),
(int )(std_color[i-240].green+0.5),(int )(std_color[i-240].blue+0.5));
PyDict_SetItem(dictptr, Py_BuildValue("i",i), tupleptr);
}
return dictptr;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing colormap object and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the colormap object's attribute will
* be changed.
*/
static PyObject *
PyVCS_setCpmember(self, args)
PyObject *self;
PyObject *args;
{
int MODE, KEY, value_int,i,c;
float value_float;
char *Cp_name, *member=NULL, buf[1024];
PyObject *CP=NULL, *MEMBER=NULL, *VALUE=NULL;
PyVCScanvas_Object *CANVAS=NULL;
struct color_table *get_Cptab=NULL, *Cptab=NULL;
extern char active_colors[]; /*colormap name*/
extern struct color_table C_tab;
extern int update_ind;
extern int set_active_colors();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOiOi", &CANVAS, &CP, &MEMBER, &KEY, &VALUE, &MODE)) {
if (CP == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(CP,"name", "s", &Cp_name);
for(Cptab=&C_tab;Cptab != NULL && (c=strcmp(Cptab->name,Cp_name))!=0;
Cptab=Cptab->next);
if (c != 0) {
sprintf(buf,"Cannot find colormap class object Cp_%s.",Cp_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
/*
* Set the appropriate colormap attribute. But first
* get the colormap structure.
*/
for(get_Cptab=&C_tab;get_Cptab != NULL && (c=strcmp(get_Cptab->name,Cptab->name))!=0;
get_Cptab=get_Cptab->next);
if (cmpncs(member, "index") == 0) {
if (PyList_Check(VALUE)) { /* check for list */
get_Cptab->cval[KEY].red = (int) PyInt_AsLong(PyList_GetItem(VALUE, 0));
get_Cptab->cval[KEY].green = (int) PyInt_AsLong(PyList_GetItem(VALUE, 1));
get_Cptab->cval[KEY].blue = (int) PyInt_AsLong(PyList_GetItem(VALUE, 2));
} else {
sprintf(buf,"Invalid object type for Cp_%s.",Cp_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
}
/* DNW 10/11/04 - This slows down IaGraph substantially for the 2nd,
* 3rd, 4th, etc. plots. Keep an eye out for this
* commented out command below to see if it effects
* other parts of VCS.
*
set_active_colors(); DNW - This slows down IaGraphics substantially
for the second plot. */
if ((cmpncs(active_colors, Cp_name) == 0) && (MODE == 1)) {
PyVCS_updateVCSsegments(CANVAS, NULL);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new colormap object method by copying from an existing
* colormap object method. If no source copy name argument is given,
* then the default colormap object method will be used to replicate
* the new colormap object.
*/
static PyObject *
PyVCS_copyCp(self, args)
PyObject *self;
PyObject *args;
{
int ierr,c;
char *TC_SRC=NULL, *TC_NAME=NULL;
char copy_name[1024],buf[1024];
struct color_table *Cptab;
extern struct color_table C_tab;
extern int save_colors();
if(PyArg_ParseTuple(args,"|ss", &TC_SRC, &TC_NAME)) {
if (TC_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source colormap graphics method name.");
return NULL;
}
if (TC_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", TC_NAME);
}
for(Cptab=&C_tab;Cptab != NULL && (c=strcmp(Cptab->name,TC_SRC))!=0;
Cptab=Cptab->next);
if (c != 0) {
sprintf(buf,"Cannot find colormap class object Cp_%s.",TC_SRC);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
ierr = save_colors(copy_name, Cptab->cval);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating colormap graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing colormap secondary object.
*/
static PyObject *
PyVCS_renameCp(self, args)
PyObject *self;
PyObject *args;
{
int c,ierr;
char buf[1024];
char *CP_OLD_NAME=NULL, *CP_NEW_NAME=NULL;
struct color_table *Cptab;
extern struct color_table C_tab;
if(PyArg_ParseTuple(args,"|ss", &CP_OLD_NAME, &CP_NEW_NAME)) {
if ((CP_OLD_NAME == NULL) || (CP_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new colormap object name.");
return NULL;
}
}
for(Cptab=&C_tab;Cptab != NULL && (c=strcmp(Cptab->name,CP_OLD_NAME))!=0;
Cptab=Cptab->next);
if (c != 0) {
sprintf(buf,"Cannot find colormap class object Cp_%s.",CP_OLD_NAME);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (strlen(CP_OLD_NAME) > 16) {
sprintf(buf,"Colormap (Cp_%s) name cannot be longer than 16.",CP_OLD_NAME);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
strcpy(Cptab->name,CP_OLD_NAME);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing colormap secondary object.
*/
static PyObject *
PyVCS_removeCp(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
extern int removeC();
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the colormap file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeC(REMOVE_NAME) == 1) {
sprintf(buf,"Removed colormap object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The colormap object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing colormap object.
*/
static PyObject *
PyVCS_scriptCp(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *CP_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_colormap();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &CP_NAME, &SCRIPT_NAME, &MODE)) {
if (CP_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the colormap name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command colormap */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_colormap(fp, CP_NAME) == 0) {
sprintf(buf, "Error - Cannot save colormap script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS line (Tl) class member value.
*/
static PyObject *
PyVCS_getTlmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int i,j,npts;
char *Tl_name, *member=NULL, buf[1024];
PyObject *TL=NULL, *MEMBER=NULL;
PyObject *x=NULL, *y=NULL, **listptr, *vptr, *v;
struct table_line *Tltab;
struct array_segments *aptr;
extern struct table_line Tl_tab;
extern struct table_line *getTl();
if(PyArg_ParseTuple(args,"|OO",&TL, &MEMBER)) {
if (TL == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(TL,"name", "s", &Tl_name);
Tltab=getTl(Tl_name);
if (Tltab == NULL) {
sprintf(buf,"Cannot find line class object Tl_%s.",Tl_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0)
{
return Py_BuildValue("s", Tltab->proj);
}
else if (cmpncs(member, "type") == 0) {
if (Tltab->ltyp == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
npts = Tltab->ltyp_size;
v=PyList_New(npts);
for (i=0; i<npts; i++) {
if (Tltab->ltyp[i] == 1)
PyList_SetItem(v, i, Py_BuildValue("s", "solid"));
else if (Tltab->ltyp[i] == 2)
PyList_SetItem(v, i, Py_BuildValue("s", "dash"));
else if (Tltab->ltyp[i] == 3)
PyList_SetItem(v, i, Py_BuildValue("s", "dot"));
else if (Tltab->ltyp[i] == 4)
PyList_SetItem(v, i, Py_BuildValue("s", "dash-dot"));
else if (Tltab->ltyp[i] == -3)
PyList_SetItem(v, i, Py_BuildValue("s", "long-dash"));
}
return v;
} else if (cmpncs(member, "width") == 0) {
if (Tltab->lwsf == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
npts = Tltab->lwsf_size;
v=PyList_New(npts);
for (i=0; i<npts; i++)
PyList_SetItem(v, i, Py_BuildValue("d", *(Tltab->lwsf)));
return v;
} else if (cmpncs(member, "color") == 0) {
if (Tltab->lci == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
npts = Tltab->lci_size;
v=PyList_New(npts);
for (i=0; i<npts; i++)
PyList_SetItem(v, i, Py_BuildValue("i", *(Tltab->lci)));
return v;
} else if (cmpncs(member, "priority") == 0) {
return Py_BuildValue("i", Tltab->priority);
} else if (cmpncs(member, "viewport") == 0) {
return Py_BuildValue("[f,f,f,f]", Tltab->lvp[0], Tltab->lvp[1],
Tltab->lvp[2], Tltab->lvp[3]);
} else if (cmpncs(member, "worldcoordinate") == 0) {
return Py_BuildValue("[f,f,f,f]", Tltab->lwc[0], Tltab->lwc[1],
Tltab->lwc[2], Tltab->lwc[3]);
} else if (cmpncs(member, "x") == 0) {
if (Tltab->lx == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
x=PyList_New(Tltab->lx->nsegs);
listptr = (PyObject **) malloc(Tltab->lx->nsegs*sizeof(PyObject));
j = 0;
aptr = Tltab->lx->ps;
while (aptr != NULL) {
listptr[j]=PyList_New(aptr->npts);
for (i=0; i<(aptr->npts); i++) {
PyList_SetItem(listptr[j], i, Py_BuildValue("f", aptr->pts[i]));
}
PyList_SetItem(x, j, listptr[j]); ++j;
aptr = aptr->next;
}
return x;
} else if (cmpncs(member, "y") == 0) {
if (Tltab->ly == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
y=PyList_New(Tltab->ly->nsegs);
listptr = (PyObject **) malloc(Tltab->ly->nsegs*sizeof(PyObject));
j = 0;
aptr = Tltab->ly->ps;
while (aptr != NULL) {
listptr[j]=PyList_New(aptr->npts);
for (i=0; i<(aptr->npts); i++) {
PyList_SetItem(listptr[j], i, Py_BuildValue("f", aptr->pts[i]));
}
PyList_SetItem(y, j, listptr[j]); ++j;
aptr = aptr->next;
}
return y;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
int store_pts(struct array_segments **lptr, PyObject *VALUE)
{
int i;
struct array_segments *ptr;
/* Set up the array pointer */
if ((ptr = (struct array_segments *) malloc(sizeof(
struct array_segments))) == NULL) {
PyErr_SetString(VCS_Error, "Error - table entry memory for points not found.\n");
return 0;
}
if (PyList_Check(VALUE))
ptr->npts = PyList_Size(VALUE);
else
ptr->npts = PyTuple_Size(VALUE);
if ((ptr->pts = (float *) malloc( ptr->npts * sizeof(float))) == NULL) {
PyErr_SetString(VCS_Error, "Error - table entry memory for points not found.\n");
return 0;
}
ptr->next = NULL;
for (i = 0 ; i < ptr->npts; i++) {
if (PyList_Check(VALUE))
ptr->pts[i] = (float) PyFloat_AsDouble(PyList_GetItem(VALUE, i));
else
ptr->pts[i] = (float) PyFloat_AsDouble(PyTuple_GetItem(VALUE, i));
}
*lptr = ptr; /* return points */
return 1;
}
int store_cpts(struct char_segments **lptr, PyObject *VALUE)
{
int i;
struct char_segments *ptr;
/* Set up the char pointer */
if ((ptr = (struct char_segments *) malloc(sizeof(
struct char_segments))) == NULL) {
PyErr_SetString(VCS_Error, "Error - table entry memory for strings not found.\n");
return 0;
}
ptr->npts = PyString_Size(VALUE);
if ((ptr->cpts = (char *) malloc( ptr->npts * sizeof(char)+1)) == NULL) {
PyErr_SetString(VCS_Error, "Error - table entry memory for strings not found.\n");
return 0;
}
ptr->next = NULL;
strcpy( ptr->cpts, PyString_AsString(VALUE) );
*lptr = ptr; /* return strings */
return 1;
}
/*
* Find the existing line object and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the line object's attribute will
* be changed.
*/
static PyObject *
PyVCS_setTlmember(self, args)
PyObject *self;
PyObject *args;
{
int i,j,MODE,npts,value_int;
float value_float;
char *Tl_name, *member=NULL;
PyObject *TL=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *listptr=NULL,*tup;
struct array_segments *pts, *tpts;
struct table_line *get_Tltab=NULL;
extern struct table_line Tl_tab;
extern struct table_line *getTl();
struct table_line *Tltab;
extern int update_ind;
extern int chk_mov_Tl();
extern int vcs_canvas_update();
extern void free_points();
if(PyArg_ParseTuple(args,"|OOOi", &TL, &MEMBER, &VALUE, &MODE)) {
if (TL == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(TL,"name", "s", &Tl_name);
Tltab=getTl(Tl_name);
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
/*
* Set the appropriate line attribute. But first
* get the line structure.
*/
get_Tltab = getTl(Tltab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_Tltab->proj, PyString_AsString(VALUE));
}
else if (cmpncs(member, "type") == 0) {
if (get_Tltab->ltyp!=NULL) { free((char *) get_Tltab->ltyp); get_Tltab->ltyp=NULL; }
npts = 1;
if (PyList_Check(VALUE)) /* check for list */
npts = PyList_Size(VALUE);
get_Tltab->ltyp_size = npts;
if ((get_Tltab->ltyp = (int *) malloc(npts * sizeof(int))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for line type values not found.");
return NULL;
}
get_Tltab->ltyp[0] = 1; /* set to default solid fillarea */
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<npts; i++) {
if (cmpncs("solid", PyString_AsString(PyList_GetItem(VALUE,i))) == 0)
get_Tltab->ltyp[i] = 1;
else if (cmpncs("dash", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tltab->ltyp[i] = 2;
else if (cmpncs("dot", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tltab->ltyp[i] = 3;
else if (cmpncs("dash-dot", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tltab->ltyp[i] = 4;
else if (cmpncs("long-dash", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tltab->ltyp[i] = -3;
}
}
} else if (cmpncs(member, "color") == 0) {
if (get_Tltab->lci!=NULL) { free((char *) get_Tltab->lci); get_Tltab->lci=NULL; }
npts = 1;
if (PyList_Check(VALUE)) /* check for list */
npts = PyList_Size(VALUE);
get_Tltab->lci_size = npts;
if ((get_Tltab->lci = (int *) malloc(npts * sizeof(int))) == NULL) {
PyErr_SetString(VCS_Error,
"Error - table entry memory for color values not found.");
return NULL;
}
get_Tltab->lci[0] = 241; /* set to delult value */
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<npts; i++)
get_Tltab->lci[i] = (int) PyInt_AsLong(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "width") == 0) {
if (get_Tltab->lwsf!=NULL) { free((char *) get_Tltab->lwsf); get_Tltab->lwsf=NULL; }
npts = 1;
if (PyList_Check(VALUE)) /* check for list */
npts = PyList_Size(VALUE);
get_Tltab->lwsf_size = npts;
if ((get_Tltab->lwsf = (float *) malloc(npts * sizeof(float))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for line size values not found.");
return NULL;
}
get_Tltab->lwsf[0] = 1; /* set to delult value */
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<npts; i++)
get_Tltab->lwsf[i] = (int) PyInt_AsLong(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "priority") == 0) {
if (VALUE == Py_None)
get_Tltab->priority = 1;
else
get_Tltab->priority = (int) PyInt_AsLong(VALUE);
} else if (cmpncs(member, "viewport") == 0) {
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<PyList_Size(VALUE); i++)
get_Tltab->lvp[i] = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "worldcoordinate") == 0) {
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<PyList_Size(VALUE); i++)
get_Tltab->lwc[i] = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "x") == 0) {
free_points( &get_Tltab->lx );
if (PyList_Check(VALUE)) { /* check for list */
tup = PyList_GetItem(VALUE, 0);
/* Set up the pointer struct that will point the list of segments */
if ((get_Tltab->lx =
(struct points_struct *) malloc( sizeof(struct points_struct))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found.");
return NULL;
}
get_Tltab->lx->ps = NULL;
if ( (PyList_Check(tup)) || (PyTuple_Check(tup)) ) { /* check for list or tuple */
get_Tltab->lx->nsegs = PyList_Size(VALUE);
for (i = 0; i < get_Tltab->lx->nsegs; i++) {
/* if ((pts = (struct array_segments *) malloc(sizeof(
struct array_segments))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found.");
return NULL;
}*/
store_pts( &pts, PyList_GetItem(VALUE,i) );
if (get_Tltab->lx->ps == NULL) {
tpts = get_Tltab->lx->ps = pts;
} else {
tpts->next = pts;
tpts = pts;
}
}
} else if ((PyInt_Check(tup)) || (PyFloat_Check(tup))) {
get_Tltab->lx->nsegs = 1;
get_Tltab->lx->ps = NULL;
store_pts( &get_Tltab->lx->ps, VALUE );
} else {
PyErr_SetString(VCS_Error,"Error - Must be a Python List or Tuple.");
Py_INCREF(Py_None);
return Py_None;
}
}
} else if (cmpncs(member, "y") == 0) {
free_points( &get_Tltab->ly );
if (PyList_Check(VALUE)) { /* check for list */
tup = PyList_GetItem(VALUE, 0);
/* Set up the pointer struct that will point the list of segments */
if ((get_Tltab->ly =
(struct points_struct *) malloc( sizeof(struct points_struct))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found.");
return NULL;
}
get_Tltab->ly->ps = NULL;
if ( (PyList_Check(tup)) || (PyTuple_Check(tup)) ) { /* check for list or tuple */
get_Tltab->ly->nsegs = PyList_Size(VALUE);
for (i = 0; i < get_Tltab->ly->nsegs; i++) {
/* if ((pts = (struct array_segments *) malloc(sizeof(
struct array_segments))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found.");
return NULL;
}*/
store_pts( &pts, PyList_GetItem(VALUE,i) );
if (get_Tltab->ly->ps == NULL) {
tpts = get_Tltab->ly->ps = pts;
} else {
tpts->next = pts;
tpts = pts;
}
}
} else if ((PyInt_Check(tup)) || (PyFloat_Check(tup))) {
get_Tltab->ly->nsegs = 1;
get_Tltab->ly->ps = NULL;
store_pts( &get_Tltab->ly->ps, VALUE );
} else {
PyErr_SetString(VCS_Error,"Error - Must be a Python List or Tuple.");
Py_INCREF(Py_None);
return Py_None;
}
}
}
chk_mov_Tl(get_Tltab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new line object method by copying from an existing
* line object method. If no source copy name argument is given,
* then the default line object method will be used to replicate
* the new line object.
*/
static PyObject *
PyVCS_copyTl(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *TL_SRC=NULL, *TL_NAME=NULL;
char copy_name[1024];
extern int copy_Tl_name();
if(PyArg_ParseTuple(args,"|ss", &TL_SRC, &TL_NAME)) {
if (TL_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source line graphics method name.");
return NULL;
}
if (TL_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", TL_NAME);
}
ierr = copy_Tl_name(TL_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating line graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing line object method.
*/
static PyObject *
PyVCS_renameTl(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *TL_OLD_NAME=NULL, *TL_NEW_NAME=NULL;
extern int renameTl_name();
if(PyArg_ParseTuple(args,"|ss", &TL_OLD_NAME, &TL_NEW_NAME)) {
if ((TL_OLD_NAME == NULL) || (TL_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new line object name.");
return NULL;
}
}
ierr = renameTl_name(TL_OLD_NAME, TL_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming line graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing line graphics method.
*/
static PyObject *
PyVCS_removeTl(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the line file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeTl_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed line object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The line object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing line graphics method.
*/
static PyObject *
PyVCS_scriptTl(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
long loc;
char *SCRIPT_NAME=NULL, *TL_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_line();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &TL_NAME, &SCRIPT_NAME, &MODE)) {
if (TL_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the line name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command line */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (ftell(fp) != 0) fprintf (fp,"\n"); /* Start at the next line down */
if (dump_single_line(fp, TL_NAME) == 0) {
sprintf(buf, "Error - Cannot save line script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS marker (Tm) class member value.
*/
static PyObject *
PyVCS_getTmmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int i,j,npts;
char *Tm_name, *member=NULL, buf[1024];
PyObject *TM=NULL, *MEMBER=NULL;
PyObject *x=NULL, *y=NULL, **listptr, *v;
struct table_mark *Tmtab;
struct array_segments *aptr;
extern struct table_mark Tm_tab;
extern struct table_mark *getTm();
if(PyArg_ParseTuple(args,"|OO",&TM, &MEMBER)) {
if (TM == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(TM,"name", "s", &Tm_name);
Tmtab=getTm(Tm_name);
if (Tmtab == NULL) {
sprintf(buf,"Cannot find marker class object Tm_%s.",Tm_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0)
{
return Py_BuildValue("s", Tmtab->proj);
}
else if (cmpncs(member, "type") == 0) {
if (Tmtab->mtyp == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
npts = Tmtab->mtyp_size;
v=PyList_New(npts);
for (i=0; i<npts; i++) {
if (Tmtab->mtyp[i] == 1)
PyList_SetItem(v, i, Py_BuildValue("s", "dot"));
else if (Tmtab->mtyp[i] == 2)
PyList_SetItem(v, i, Py_BuildValue("s", "plus"));
else if (Tmtab->mtyp[i] == 3)
PyList_SetItem(v, i, Py_BuildValue("s", "star"));
else if (Tmtab->mtyp[i] == 4)
PyList_SetItem(v, i, Py_BuildValue("s", "circle"));
else if (Tmtab->mtyp[i] == 5)
PyList_SetItem(v, i, Py_BuildValue("s", "cross"));
else if (Tmtab->mtyp[i] == 6)
PyList_SetItem(v, i, Py_BuildValue("s", "diamond"));
else if (Tmtab->mtyp[i] == 7)
PyList_SetItem(v, i, Py_BuildValue("s", "triangle_up"));
else if (Tmtab->mtyp[i] == 8)
PyList_SetItem(v, i, Py_BuildValue("s", "triangle_down"));
else if (Tmtab->mtyp[i] == 9)
PyList_SetItem(v, i, Py_BuildValue("s", "triangle_left"));
else if (Tmtab->mtyp[i] == 10)
PyList_SetItem(v, i, Py_BuildValue("s", "triangle_right"));
else if (Tmtab->mtyp[i] == 11)
PyList_SetItem(v, i, Py_BuildValue("s", "square"));
else if (Tmtab->mtyp[i] == 12)
PyList_SetItem(v, i, Py_BuildValue("s", "diamond_fill"));
else if (Tmtab->mtyp[i] == 13)
PyList_SetItem(v, i, Py_BuildValue("s", "triangle_up_fill"));
else if (Tmtab->mtyp[i] == 14)
PyList_SetItem(v, i, Py_BuildValue("s", "triangle_down_fill"));
else if (Tmtab->mtyp[i] == 15)
PyList_SetItem(v, i, Py_BuildValue("s", "triangle_left_fill"));
else if (Tmtab->mtyp[i] == 16)
PyList_SetItem(v, i, Py_BuildValue("s", "triangle_right_fill"));
else if (Tmtab->mtyp[i] == 17)
PyList_SetItem(v, i, Py_BuildValue("s", "square_fill"));
else if (Tmtab->mtyp[i] == 18)
PyList_SetItem(v, i, Py_BuildValue("s", "hurricane"));
else if (Tmtab->mtyp[i] == 100)
PyList_SetItem(v, i, Py_BuildValue("s", "w00"));
else if (Tmtab->mtyp[i] == 101)
PyList_SetItem(v, i, Py_BuildValue("s", "w01"));
else if (Tmtab->mtyp[i] == 102)
PyList_SetItem(v, i, Py_BuildValue("s", "w02"));
else if (Tmtab->mtyp[i] == 103)
PyList_SetItem(v, i, Py_BuildValue("s", "w03"));
else if (Tmtab->mtyp[i] == 104)
PyList_SetItem(v, i, Py_BuildValue("s", "w04"));
else if (Tmtab->mtyp[i] == 105)
PyList_SetItem(v, i, Py_BuildValue("s", "w05"));
else if (Tmtab->mtyp[i] == 106)
PyList_SetItem(v, i, Py_BuildValue("s", "w06"));
else if (Tmtab->mtyp[i] == 107)
PyList_SetItem(v, i, Py_BuildValue("s", "w07"));
else if (Tmtab->mtyp[i] == 108)
PyList_SetItem(v, i, Py_BuildValue("s", "w08"));
else if (Tmtab->mtyp[i] == 109)
PyList_SetItem(v, i, Py_BuildValue("s", "w09"));
else if (Tmtab->mtyp[i] == 110)
PyList_SetItem(v, i, Py_BuildValue("s", "w10"));
else if (Tmtab->mtyp[i] == 111)
PyList_SetItem(v, i, Py_BuildValue("s", "w11"));
else if (Tmtab->mtyp[i] == 112)
PyList_SetItem(v, i, Py_BuildValue("s", "w12"));
else if (Tmtab->mtyp[i] == 113)
PyList_SetItem(v, i, Py_BuildValue("s", "w13"));
else if (Tmtab->mtyp[i] == 114)
PyList_SetItem(v, i, Py_BuildValue("s", "w14"));
else if (Tmtab->mtyp[i] == 115)
PyList_SetItem(v, i, Py_BuildValue("s", "w15"));
else if (Tmtab->mtyp[i] == 116)
PyList_SetItem(v, i, Py_BuildValue("s", "w16"));
else if (Tmtab->mtyp[i] == 117)
PyList_SetItem(v, i, Py_BuildValue("s", "w17"));
else if (Tmtab->mtyp[i] == 118)
PyList_SetItem(v, i, Py_BuildValue("s", "w18"));
else if (Tmtab->mtyp[i] == 119)
PyList_SetItem(v, i, Py_BuildValue("s", "w19"));
else if (Tmtab->mtyp[i] == 120)
PyList_SetItem(v, i, Py_BuildValue("s", "w20"));
else if (Tmtab->mtyp[i] == 121)
PyList_SetItem(v, i, Py_BuildValue("s", "w21"));
else if (Tmtab->mtyp[i] == 122)
PyList_SetItem(v, i, Py_BuildValue("s", "w22"));
else if (Tmtab->mtyp[i] == 123)
PyList_SetItem(v, i, Py_BuildValue("s", "w23"));
else if (Tmtab->mtyp[i] == 124)
PyList_SetItem(v, i, Py_BuildValue("s", "w24"));
else if (Tmtab->mtyp[i] == 125)
PyList_SetItem(v, i, Py_BuildValue("s", "w25"));
else if (Tmtab->mtyp[i] == 126)
PyList_SetItem(v, i, Py_BuildValue("s", "w26"));
else if (Tmtab->mtyp[i] == 127)
PyList_SetItem(v, i, Py_BuildValue("s", "w27"));
else if (Tmtab->mtyp[i] == 128)
PyList_SetItem(v, i, Py_BuildValue("s", "w28"));
else if (Tmtab->mtyp[i] == 129)
PyList_SetItem(v, i, Py_BuildValue("s", "w29"));
else if (Tmtab->mtyp[i] == 130)
PyList_SetItem(v, i, Py_BuildValue("s", "w30"));
else if (Tmtab->mtyp[i] == 131)
PyList_SetItem(v, i, Py_BuildValue("s", "w31"));
else if (Tmtab->mtyp[i] == 132)
PyList_SetItem(v, i, Py_BuildValue("s", "w32"));
else if (Tmtab->mtyp[i] == 133)
PyList_SetItem(v, i, Py_BuildValue("s", "w33"));
else if (Tmtab->mtyp[i] == 134)
PyList_SetItem(v, i, Py_BuildValue("s", "w34"));
else if (Tmtab->mtyp[i] == 135)
PyList_SetItem(v, i, Py_BuildValue("s", "w35"));
else if (Tmtab->mtyp[i] == 136)
PyList_SetItem(v, i, Py_BuildValue("s", "w36"));
else if (Tmtab->mtyp[i] == 137)
PyList_SetItem(v, i, Py_BuildValue("s", "w37"));
else if (Tmtab->mtyp[i] == 138)
PyList_SetItem(v, i, Py_BuildValue("s", "w38"));
else if (Tmtab->mtyp[i] == 139)
PyList_SetItem(v, i, Py_BuildValue("s", "w39"));
else if (Tmtab->mtyp[i] == 140)
PyList_SetItem(v, i, Py_BuildValue("s", "w40"));
else if (Tmtab->mtyp[i] == 141)
PyList_SetItem(v, i, Py_BuildValue("s", "w41"));
else if (Tmtab->mtyp[i] == 142)
PyList_SetItem(v, i, Py_BuildValue("s", "w42"));
else if (Tmtab->mtyp[i] == 143)
PyList_SetItem(v, i, Py_BuildValue("s", "w43"));
else if (Tmtab->mtyp[i] == 144)
PyList_SetItem(v, i, Py_BuildValue("s", "w44"));
else if (Tmtab->mtyp[i] == 145)
PyList_SetItem(v, i, Py_BuildValue("s", "w45"));
else if (Tmtab->mtyp[i] == 146)
PyList_SetItem(v, i, Py_BuildValue("s", "w46"));
else if (Tmtab->mtyp[i] == 147)
PyList_SetItem(v, i, Py_BuildValue("s", "w47"));
else if (Tmtab->mtyp[i] == 148)
PyList_SetItem(v, i, Py_BuildValue("s", "w48"));
else if (Tmtab->mtyp[i] == 149)
PyList_SetItem(v, i, Py_BuildValue("s", "w49"));
else if (Tmtab->mtyp[i] == 150)
PyList_SetItem(v, i, Py_BuildValue("s", "w50"));
else if (Tmtab->mtyp[i] == 151)
PyList_SetItem(v, i, Py_BuildValue("s", "w51"));
else if (Tmtab->mtyp[i] == 152)
PyList_SetItem(v, i, Py_BuildValue("s", "w52"));
else if (Tmtab->mtyp[i] == 153)
PyList_SetItem(v, i, Py_BuildValue("s", "w53"));
else if (Tmtab->mtyp[i] == 154)
PyList_SetItem(v, i, Py_BuildValue("s", "w54"));
else if (Tmtab->mtyp[i] == 155)
PyList_SetItem(v, i, Py_BuildValue("s", "w55"));
else if (Tmtab->mtyp[i] == 156)
PyList_SetItem(v, i, Py_BuildValue("s", "w56"));
else if (Tmtab->mtyp[i] == 157)
PyList_SetItem(v, i, Py_BuildValue("s", "w57"));
else if (Tmtab->mtyp[i] == 158)
PyList_SetItem(v, i, Py_BuildValue("s", "w58"));
else if (Tmtab->mtyp[i] == 159)
PyList_SetItem(v, i, Py_BuildValue("s", "w59"));
else if (Tmtab->mtyp[i] == 160)
PyList_SetItem(v, i, Py_BuildValue("s", "w60"));
else if (Tmtab->mtyp[i] == 161)
PyList_SetItem(v, i, Py_BuildValue("s", "w61"));
else if (Tmtab->mtyp[i] == 162)
PyList_SetItem(v, i, Py_BuildValue("s", "w62"));
else if (Tmtab->mtyp[i] == 163)
PyList_SetItem(v, i, Py_BuildValue("s", "w63"));
else if (Tmtab->mtyp[i] == 164)
PyList_SetItem(v, i, Py_BuildValue("s", "w64"));
else if (Tmtab->mtyp[i] == 165)
PyList_SetItem(v, i, Py_BuildValue("s", "w65"));
else if (Tmtab->mtyp[i] == 166)
PyList_SetItem(v, i, Py_BuildValue("s", "w66"));
else if (Tmtab->mtyp[i] == 167)
PyList_SetItem(v, i, Py_BuildValue("s", "w67"));
else if (Tmtab->mtyp[i] == 168)
PyList_SetItem(v, i, Py_BuildValue("s", "w68"));
else if (Tmtab->mtyp[i] == 169)
PyList_SetItem(v, i, Py_BuildValue("s", "w69"));
else if (Tmtab->mtyp[i] == 170)
PyList_SetItem(v, i, Py_BuildValue("s", "w70"));
else if (Tmtab->mtyp[i] == 171)
PyList_SetItem(v, i, Py_BuildValue("s", "w71"));
else if (Tmtab->mtyp[i] == 172)
PyList_SetItem(v, i, Py_BuildValue("s", "w72"));
else if (Tmtab->mtyp[i] == 173)
PyList_SetItem(v, i, Py_BuildValue("s", "w73"));
else if (Tmtab->mtyp[i] == 174)
PyList_SetItem(v, i, Py_BuildValue("s", "w74"));
else if (Tmtab->mtyp[i] == 175)
PyList_SetItem(v, i, Py_BuildValue("s", "w75"));
else if (Tmtab->mtyp[i] == 176)
PyList_SetItem(v, i, Py_BuildValue("s", "w76"));
else if (Tmtab->mtyp[i] == 177)
PyList_SetItem(v, i, Py_BuildValue("s", "w77"));
else if (Tmtab->mtyp[i] == 178)
PyList_SetItem(v, i, Py_BuildValue("s", "w78"));
else if (Tmtab->mtyp[i] == 179)
PyList_SetItem(v, i, Py_BuildValue("s", "w79"));
else if (Tmtab->mtyp[i] == 180)
PyList_SetItem(v, i, Py_BuildValue("s", "w80"));
else if (Tmtab->mtyp[i] == 181)
PyList_SetItem(v, i, Py_BuildValue("s", "w81"));
else if (Tmtab->mtyp[i] == 182)
PyList_SetItem(v, i, Py_BuildValue("s", "w82"));
else if (Tmtab->mtyp[i] == 183)
PyList_SetItem(v, i, Py_BuildValue("s", "w83"));
else if (Tmtab->mtyp[i] == 184)
PyList_SetItem(v, i, Py_BuildValue("s", "w84"));
else if (Tmtab->mtyp[i] == 185)
PyList_SetItem(v, i, Py_BuildValue("s", "w85"));
else if (Tmtab->mtyp[i] == 186)
PyList_SetItem(v, i, Py_BuildValue("s", "w86"));
else if (Tmtab->mtyp[i] == 187)
PyList_SetItem(v, i, Py_BuildValue("s", "w87"));
else if (Tmtab->mtyp[i] == 188)
PyList_SetItem(v, i, Py_BuildValue("s", "w88"));
else if (Tmtab->mtyp[i] == 189)
PyList_SetItem(v, i, Py_BuildValue("s", "w89"));
else if (Tmtab->mtyp[i] == 190)
PyList_SetItem(v, i, Py_BuildValue("s", "w90"));
else if (Tmtab->mtyp[i] == 191)
PyList_SetItem(v, i, Py_BuildValue("s", "w91"));
else if (Tmtab->mtyp[i] == 192)
PyList_SetItem(v, i, Py_BuildValue("s", "w92"));
else if (Tmtab->mtyp[i] == 193)
PyList_SetItem(v, i, Py_BuildValue("s", "w93"));
else if (Tmtab->mtyp[i] == 194)
PyList_SetItem(v, i, Py_BuildValue("s", "w94"));
else if (Tmtab->mtyp[i] == 195)
PyList_SetItem(v, i, Py_BuildValue("s", "w95"));
else if (Tmtab->mtyp[i] == 196)
PyList_SetItem(v, i, Py_BuildValue("s", "w96"));
else if (Tmtab->mtyp[i] == 197)
PyList_SetItem(v, i, Py_BuildValue("s", "w97"));
else if (Tmtab->mtyp[i] == 198)
PyList_SetItem(v, i, Py_BuildValue("s", "w98"));
else if (Tmtab->mtyp[i] == 199)
PyList_SetItem(v, i, Py_BuildValue("s", "w99"));
else if (Tmtab->mtyp[i] == 200)
PyList_SetItem(v, i, Py_BuildValue("s", "w200"));
else if (Tmtab->mtyp[i] == 201)
PyList_SetItem(v, i, Py_BuildValue("s", "w201"));
else if (Tmtab->mtyp[i] == 202)
PyList_SetItem(v, i, Py_BuildValue("s", "w202"));
}
return v;
} else if (cmpncs(member, "size") == 0) {
if (Tmtab->msize == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
npts = Tmtab->msize_size;
v=PyList_New(npts);
for (i=0; i<npts; i++)
PyList_SetItem(v, i, Py_BuildValue("d", *(Tmtab->msize)));
return v;
} else if (cmpncs(member, "color") == 0) {
if (Tmtab->mci == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
npts = Tmtab->mci_size;
v=PyList_New(npts);
for (i=0; i<npts; i++)
PyList_SetItem(v, i, Py_BuildValue("i", *(Tmtab->mci)));
return v;
} else if (cmpncs(member, "priority") == 0) {
return Py_BuildValue("i", Tmtab->priority);
} else if (cmpncs(member, "viewport") == 0) {
return Py_BuildValue("[f,f,f,f]", Tmtab->mvp[0], Tmtab->mvp[1],
Tmtab->mvp[2], Tmtab->mvp[3]);
} else if (cmpncs(member, "worldcoordinate") == 0) {
return Py_BuildValue("[f,f,f,f]", Tmtab->mwc[0], Tmtab->mwc[1],
Tmtab->mwc[2], Tmtab->mwc[3]);
} else if (cmpncs(member, "x") == 0) {
if (Tmtab->mx == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
x=PyList_New(Tmtab->mx->nsegs);
listptr = (PyObject **) malloc(Tmtab->mx->nsegs*sizeof(PyObject));
j = 0;
aptr = Tmtab->mx->ps;
while (aptr != NULL) {
listptr[j]=PyList_New(aptr->npts);
for (i=0; i<(aptr->npts); i++) {
PyList_SetItem(listptr[j], i, Py_BuildValue("f", aptr->pts[i]));
}
PyList_SetItem(x, j, listptr[j]); ++j;
aptr = aptr->next;
}
return x;
} else if (cmpncs(member, "y") == 0) {
if (Tmtab->my == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
y=PyList_New(Tmtab->my->nsegs);
listptr = (PyObject **) malloc(Tmtab->my->nsegs*sizeof(PyObject));
j = 0;
aptr = Tmtab->my->ps;
while (aptr != NULL) {
listptr[j]=PyList_New(aptr->npts);
for (i=0; i<(aptr->npts); i++) {
PyList_SetItem(listptr[j], i, Py_BuildValue("f", aptr->pts[i]));
}
PyList_SetItem(y, j, listptr[j]); ++j;
aptr = aptr->next;
}
return y;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing marker object and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the marker object's attribute will
* be changed.
*/
static PyObject *
PyVCS_setTmmember(self, args)
PyObject *self;
PyObject *args;
{
int i,j,MODE,npts,value_int;
float value_float;
char *Tm_name, *member=NULL;
PyObject *TM=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *tup;
struct array_segments *pts, *tpts;
struct table_mark *get_Tmtab=NULL;
extern struct table_mark Tm_tab;
extern struct table_mark *getTm();
struct table_mark *Tmtab;
extern int update_ind;
extern int chk_mov_Tm();
extern int vcs_canvas_update();
extern void free_points();
if(PyArg_ParseTuple(args,"|OOOi", &TM, &MEMBER, &VALUE, &MODE)) {
if (TM == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(TM,"name", "s", &Tm_name);
Tmtab=getTm(Tm_name);
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
/*
* Set the appropriate marker attribute. But first
* get the marker structure.
*/
get_Tmtab = getTm(Tmtab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_Tmtab->proj, PyString_AsString(VALUE));
}
else if (cmpncs(member, "type") == 0) {
if (get_Tmtab->mtyp!=NULL) { free((char *) get_Tmtab->mtyp); get_Tmtab->mtyp=NULL; }
npts = 1;
if (PyList_Check(VALUE)) /* check for list */
npts = PyList_Size(VALUE);
get_Tmtab->mtyp_size = npts;
if ((get_Tmtab->mtyp = (int *) malloc(npts * sizeof(int))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for marker values not found.");
return NULL;
}
get_Tmtab->mtyp[0] = 1; /* set to default dot marker */
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<npts; i++) {
if (cmpncs("dot", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 1;
else if (cmpncs("plus", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 2;
else if (cmpncs("star", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 3;
else if (cmpncs("circle", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 4;
else if (cmpncs("cross", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 5;
else if (cmpncs("diamond", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 6;
else if (cmpncs("triangle_up", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 7;
else if (cmpncs("triangle_down", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 8;
else if (cmpncs("triangle_left", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 9;
else if (cmpncs("triangle_right", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 10;
else if (cmpncs("square", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 11;
else if (cmpncs("diamond_fill", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 12;
else if (cmpncs("triangle_up_fill", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 13;
else if (cmpncs("triangle_down_fill", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 14;
else if (cmpncs("triangle_left_fill", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 15;
else if (cmpncs("triangle_right_fill", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 16;
else if (cmpncs("square_fill", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 17;
else if (cmpncs("hurricane", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 18;
else if (cmpncs("w00", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 100;
else if (cmpncs("w01", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 101;
else if (cmpncs("w02", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 102;
else if (cmpncs("w03", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 103;
else if (cmpncs("w04", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 104;
else if (cmpncs("w05", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 105;
else if (cmpncs("w06", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 106;
else if (cmpncs("w07", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 107;
else if (cmpncs("w08", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 108;
else if (cmpncs("w09", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 109;
else if (cmpncs("w10", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 110;
else if (cmpncs("w11", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 111;
else if (cmpncs("w12", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 112;
else if (cmpncs("w13", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 113;
else if (cmpncs("w14", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 114;
else if (cmpncs("w15", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 115;
else if (cmpncs("w16", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 116;
else if (cmpncs("w17", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 117;
else if (cmpncs("w18", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 118;
else if (cmpncs("w19", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 119;
else if (cmpncs("w20", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 120;
else if (cmpncs("w21", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 121;
else if (cmpncs("w22", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 122;
else if (cmpncs("w23", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 123;
else if (cmpncs("w24", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 124;
else if (cmpncs("w25", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 125;
else if (cmpncs("w26", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 126;
else if (cmpncs("w27", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 127;
else if (cmpncs("w28", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 128;
else if (cmpncs("w29", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 129;
else if (cmpncs("w30", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 130;
else if (cmpncs("w31", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 131;
else if (cmpncs("w32", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 132;
else if (cmpncs("w33", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 133;
else if (cmpncs("w34", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 134;
else if (cmpncs("w35", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 135;
else if (cmpncs("w36", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 136;
else if (cmpncs("w37", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 137;
else if (cmpncs("w38", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 138;
else if (cmpncs("w39", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 139;
else if (cmpncs("w40", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 140;
else if (cmpncs("w41", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 141;
else if (cmpncs("w42", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 142;
else if (cmpncs("w43", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 143;
else if (cmpncs("w44", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 144;
else if (cmpncs("w45", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 145;
else if (cmpncs("w46", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 146;
else if (cmpncs("w47", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 147;
else if (cmpncs("w48", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 148;
else if (cmpncs("w49", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 149;
else if (cmpncs("w50", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 150;
else if (cmpncs("w51", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 151;
else if (cmpncs("w52", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 152;
else if (cmpncs("w53", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 153;
else if (cmpncs("w54", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 154;
else if (cmpncs("w55", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 155;
else if (cmpncs("w56", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 156;
else if (cmpncs("w57", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 157;
else if (cmpncs("w58", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 158;
else if (cmpncs("w59", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 159;
else if (cmpncs("w60", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 160;
else if (cmpncs("w61", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 161;
else if (cmpncs("w62", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 162;
else if (cmpncs("w63", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 163;
else if (cmpncs("w64", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 164;
else if (cmpncs("w65", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 165;
else if (cmpncs("w66", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 166;
else if (cmpncs("w67", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 167;
else if (cmpncs("w68", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 168;
else if (cmpncs("w69", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 169;
else if (cmpncs("w70", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 170;
else if (cmpncs("w71", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 171;
else if (cmpncs("w72", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 172;
else if (cmpncs("w73", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 173;
else if (cmpncs("w74", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 174;
else if (cmpncs("w75", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 175;
else if (cmpncs("w76", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 176;
else if (cmpncs("w77", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 177;
else if (cmpncs("w78", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 178;
else if (cmpncs("w79", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 179;
else if (cmpncs("w80", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 180;
else if (cmpncs("w81", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 181;
else if (cmpncs("w82", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 182;
else if (cmpncs("w83", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 183;
else if (cmpncs("w84", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 184;
else if (cmpncs("w85", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 185;
else if (cmpncs("w86", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 186;
else if (cmpncs("w87", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 187;
else if (cmpncs("w88", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 188;
else if (cmpncs("w89", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 189;
else if (cmpncs("w90", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 190;
else if (cmpncs("w91", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 191;
else if (cmpncs("w92", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 192;
else if (cmpncs("w93", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 193;
else if (cmpncs("w94", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 194;
else if (cmpncs("w95", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 195;
else if (cmpncs("w96", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 196;
else if (cmpncs("w97", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 197;
else if (cmpncs("w98", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 198;
else if (cmpncs("w99", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 199;
else if (cmpncs("w200", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 200;
else if (cmpncs("w201", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 201;
else if (cmpncs("w202", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tmtab->mtyp[i] = 202;
}
}
} else if (cmpncs(member, "color") == 0) {
if (get_Tmtab->mci!=NULL) { free((char *) get_Tmtab->mci); get_Tmtab->mci=NULL; }
npts = 1;
if (PyList_Check(VALUE)) /* check for list */
npts = PyList_Size(VALUE);
get_Tmtab->mci_size = npts;
if ((get_Tmtab->mci = (int *) malloc(npts * sizeof(int))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for marker color values not found.");
return NULL;
}
get_Tmtab->mci[0] = 241; /* set to default value */
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<npts; i++)
get_Tmtab->mci[i] = (int) PyInt_AsLong(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "size") == 0) {
if (get_Tmtab->msize!=NULL) { free((char *) get_Tmtab->msize); get_Tmtab->msize=NULL; }
npts = 1;
if (PyList_Check(VALUE)) /* check for list */
npts = PyList_Size(VALUE);
get_Tmtab->msize_size = npts;
if ((get_Tmtab->msize = (float *) malloc(npts * sizeof(float))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for marker size values not found.");
return NULL;
}
get_Tmtab->msize[0] = 1; /* set to default value */
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<npts; i++)
get_Tmtab->msize[i] = (int) PyInt_AsLong(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "priority") == 0) {
if (VALUE == Py_None)
get_Tmtab->priority = 1;
else
get_Tmtab->priority = (int) PyInt_AsLong(VALUE);
} else if (cmpncs(member, "viewport") == 0) {
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<PyList_Size(VALUE); i++)
get_Tmtab->mvp[i] = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "worldcoordinate") == 0) {
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<PyList_Size(VALUE); i++)
get_Tmtab->mwc[i] = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "x") == 0) {
free_points( &get_Tmtab->mx );
if (PyList_Check(VALUE)) { /* check for list */
tup = PyList_GetItem(VALUE, 0);
/* Set up the pointer struct that will point the list of segments */
if ((get_Tmtab->mx =
(struct points_struct *) malloc( sizeof(struct points_struct))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found.");
return NULL;
}
get_Tmtab->mx->ps = NULL;
if ( (PyList_Check(tup)) || (PyTuple_Check(tup)) ) { /* check for list or tuple */
get_Tmtab->mx->nsegs = PyList_Size(VALUE);
for (i = 0; i < get_Tmtab->mx->nsegs; i++) {
/* if ((pts = (struct array_segments *) malloc(sizeof(
struct array_segments))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found. ");
return NULL;
}*/
store_pts( &pts, PyList_GetItem(VALUE,i) );
if (get_Tmtab->mx->ps == NULL) {
tpts = get_Tmtab->mx->ps = pts;
} else {
tpts->next = pts;
tpts = pts;
}
}
} else if ((PyInt_Check(tup)) || (PyFloat_Check(tup))) {
get_Tmtab->mx->nsegs = 1;
get_Tmtab->mx->ps = NULL;
store_pts( &get_Tmtab->mx->ps, VALUE );
} else {
PyErr_SetString(VCS_Error,"Error - Must be a Python List or Tuple.");
Py_INCREF(Py_None);
return Py_None;
}
}
} else if (cmpncs(member, "y") == 0) {
free_points( &get_Tmtab->my );
if (PyList_Check(VALUE)) { /* check for list */
tup = PyList_GetItem(VALUE, 0);
/* Set up the pointer struct that will point the list of segments */
if ((get_Tmtab->my =
(struct points_struct *) malloc( sizeof(struct points_struct))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found.");
return NULL;
}
get_Tmtab->my->ps = NULL;
if ( (PyList_Check(tup)) || (PyTuple_Check(tup)) ) { /* check for list or tuple */
get_Tmtab->my->nsegs = PyList_Size(VALUE);
for (i = 0; i < get_Tmtab->my->nsegs; i++) {
/* if ((pts = (struct array_segments *) malloc(sizeof(
struct array_segments))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found. ");
return NULL;
}*/
store_pts( &pts, PyList_GetItem(VALUE,i) );
if (get_Tmtab->my->ps == NULL) {
tpts = get_Tmtab->my->ps = pts;
} else {
tpts->next = pts;
tpts = pts;
}
}
} else if ((PyInt_Check(tup)) || (PyFloat_Check(tup))) {
get_Tmtab->my->nsegs = 1;
get_Tmtab->my->ps = NULL;
store_pts( &get_Tmtab->my->ps, VALUE );
} else {
PyErr_SetString(VCS_Error,"Error - Must be a Python List or Tuple.");
Py_INCREF(Py_None);
return Py_None;
}
}
}
chk_mov_Tm(get_Tmtab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new marker object method by copying from an existing
* marker object method. If no source copy name argument is given,
* then the default marker object method will be used to replicate
* the new marker object.
*/
static PyObject *
PyVCS_copyTm(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *TM_SRC=NULL, *TM_NAME=NULL;
char copy_name[1024];
extern int copy_Tm_name();
if(PyArg_ParseTuple(args,"|ss", &TM_SRC, &TM_NAME)) {
if (TM_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source marker graphics method name.");
return NULL;
}
if (TM_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", TM_NAME);
}
ierr = copy_Tm_name(TM_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating marker graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing marker object method.
*/
static PyObject *
PyVCS_renameTm(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *TM_OLD_NAME=NULL, *TM_NEW_NAME=NULL;
extern int renameTm_name();
if(PyArg_ParseTuple(args,"|ss", &TM_OLD_NAME, &TM_NEW_NAME)) {
if ((TM_OLD_NAME == NULL) || (TM_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new marker object name.");
return NULL;
}
}
ierr = renameTm_name(TM_OLD_NAME, TM_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming marker graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing marker graphics method.
*/
static PyObject *
PyVCS_removeTm(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the marker file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeTm_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed marker object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The marker object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing marker graphics method.
*/
static PyObject *
PyVCS_scriptTm(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *TM_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_marker();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &TM_NAME, &SCRIPT_NAME, &MODE)) {
if (TM_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the marker name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command marker */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_marker(fp, TM_NAME) == 0) {
sprintf(buf, "Error - Cannot save marker script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS fillarea (Tf) class member value.
*/
static PyObject *
PyVCS_getTfmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int i,j,npts;
char *Tf_name, *member=NULL, buf[1024];
PyObject *TF=NULL, *MEMBER=NULL;
PyObject *x=NULL, *y=NULL, **listptr, *v;
struct table_fill *Tftab;
struct array_segments *aptr;
extern struct table_fill Tf_tab;
extern struct table_fill *getTf();
if(PyArg_ParseTuple(args,"|OO",&TF, &MEMBER)) {
if (TF == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(TF,"name", "s", &Tf_name);
Tftab=getTf(Tf_name);
if (Tftab == NULL) {
sprintf(buf,"Cannot find fillarea class object Tf_%s.",Tf_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0)
{
return Py_BuildValue("s", Tftab->proj);
}
else if (cmpncs(member, "style") == 0) {
if (Tftab->fais == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
npts = Tftab->fais_size;
v=PyList_New(npts);
for (i=0; i<npts; i++) {
if (Tftab->fais[i] == 1)
PyList_SetItem(v, i, Py_BuildValue("s", "solid"));
else if (Tftab->fais[i] == 2)
PyList_SetItem(v, i, Py_BuildValue("s", "pattern"));
else if (Tftab->fais[i] == 3)
PyList_SetItem(v, i, Py_BuildValue("s", "hatch"));
}
return v;
} else if (cmpncs(member, "index") == 0) {
if (Tftab->fasi == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
npts = Tftab->fasi_size;
v=PyList_New(npts);
for (i=0; i<npts; i++)
PyList_SetItem(v, i, Py_BuildValue("i", Tftab->fasi[i]));
return v;
} else if (cmpncs(member, "color") == 0) {
if (Tftab->faci == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
npts = Tftab->faci_size;
v=PyList_New(npts);
for (i=0; i<npts; i++)
PyList_SetItem(v, i, Py_BuildValue("i", Tftab->faci[i]));
return v;
} else if (cmpncs(member, "priority") == 0) {
return Py_BuildValue("i", Tftab->priority);
} else if (cmpncs(member, "viewport") == 0) {
return Py_BuildValue("[f,f,f,f]", Tftab->fvp[0], Tftab->fvp[1],
Tftab->fvp[2], Tftab->fvp[3]);
} else if (cmpncs(member, "worldcoordinate") == 0) {
return Py_BuildValue("[f,f,f,f]", Tftab->fwc[0], Tftab->fwc[1],
Tftab->fwc[2], Tftab->fwc[3]);
} else if (cmpncs(member, "x") == 0) {
if (Tftab->fx == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
x=PyList_New(Tftab->fx->nsegs);
listptr = (PyObject **) malloc(Tftab->fx->nsegs*sizeof(PyObject));
j = 0;
aptr = Tftab->fx->ps;
while (aptr != NULL) {
listptr[j]=PyList_New(aptr->npts);
for (i=0; i<(aptr->npts); i++) {
PyList_SetItem(listptr[j], i, Py_BuildValue("f", aptr->pts[i]));
}
PyList_SetItem(x, j, listptr[j]); ++j;
aptr = aptr->next;
}
return x;
} else if (cmpncs(member, "y") == 0) {
if (Tftab->fy == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
y=PyList_New(Tftab->fy->nsegs);
listptr = (PyObject **) malloc(Tftab->fy->nsegs*sizeof(PyObject));
j = 0;
aptr = Tftab->fy->ps;
while (aptr != NULL) {
listptr[j]=PyList_New(aptr->npts);
for (i=0; i<(aptr->npts); i++) {
PyList_SetItem(listptr[j], i, Py_BuildValue("f", aptr->pts[i]));
}
PyList_SetItem(y, j, listptr[j]); ++j;
aptr = aptr->next;
}
return y;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing fillarea object and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the fillarea object's attribute will
* be changed.
*/
static PyObject *
PyVCS_setTfmember(self, args)
PyObject *self;
PyObject *args;
{
int i,j,MODE,npts,value_int;
float value_float;
char *Tf_name, *member=NULL;
PyObject *TF=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *tup;
struct array_segments *pts, *tpts;
struct table_fill *get_Tftab=NULL;
extern struct table_fill Tf_tab;
extern struct table_fill *getTf();
struct table_fill *Tftab;
extern int update_ind;
extern int chk_mov_Tf();
extern int vcs_canvas_update();
extern void free_points();
if(PyArg_ParseTuple(args,"|OOOi", &TF, &MEMBER, &VALUE, &MODE)) {
if (TF == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(TF,"name", "s", &Tf_name);
Tftab=getTf(Tf_name);
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
/*
* Set the appropriate fillarea attribute. But first
* get the fillarea structure.
*/
get_Tftab = getTf(Tftab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_Tftab->proj, PyString_AsString(VALUE));
}
else if (cmpncs(member, "style") == 0) {
if (get_Tftab->fais!=NULL) { free((char *) get_Tftab->fais); get_Tftab->fais=NULL; }
npts = 1;
if (PyList_Check(VALUE)) /* check for list */
npts = PyList_Size(VALUE);
get_Tftab->fais_size = npts;
if ((get_Tftab->fais = (int *) malloc(npts * sizeof(int))) == NULL) {
PyErr_SetString(VCS_Error,
"Error - table entry memory for color values not found.");
return NULL;
}
get_Tftab->fais[0] = 1; /* set to default solid fillarea */
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<npts; i++) {
if (cmpncs("solid", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tftab->fais[i] = 1;
else if (cmpncs("pattern", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tftab->fais[i] = 2;
else if (cmpncs("hatch", PyString_AsString(PyList_GetItem(VALUE,i)))==0)
get_Tftab->fais[i] = 3;
}
}
} else if (cmpncs(member, "color") == 0) {
if (get_Tftab->faci!=NULL) { free((char *) get_Tftab->faci); get_Tftab->faci=NULL; }
npts = 1;
if (PyList_Check(VALUE)) /* check for list */
npts = PyList_Size(VALUE);
get_Tftab->faci_size = npts;
if ((get_Tftab->faci = (int *) malloc(npts * sizeof(int))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for color values not found.");
return NULL;
}
get_Tftab->faci[0] = 241; /* set to default value */
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<npts; i++)
get_Tftab->faci[i] = (int) PyInt_AsLong(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "index") == 0) {
if (get_Tftab->fasi!=NULL) { free((char *) get_Tftab->fasi); get_Tftab->fasi=NULL; }
npts = 1;
if (PyList_Check(VALUE)) /* check for list */
npts = PyList_Size(VALUE);
get_Tftab->fasi_size = npts;
if ((get_Tftab->fasi = (int *) malloc(npts * sizeof(int))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for color values not found.");
return NULL;
}
get_Tftab->fasi[0] = 1; /* set to default value */
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<npts; i++)
get_Tftab->fasi[i] = (int) PyInt_AsLong(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "priority") == 0) {
if (VALUE == Py_None)
get_Tftab->priority = 1;
else
get_Tftab->priority = (int) PyInt_AsLong(VALUE);
} else if (cmpncs(member, "viewport") == 0) {
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<PyList_Size(VALUE); i++)
get_Tftab->fvp[i] = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "worldcoordinate") == 0) {
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<PyList_Size(VALUE); i++)
get_Tftab->fwc[i] = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "x") == 0) {
free_points( &get_Tftab->fx );
if (PyList_Check(VALUE)) { /* check for list */
tup = PyList_GetItem(VALUE, 0);
/* Set up the pointer struct that will point the list of segments */
if ((get_Tftab->fx =
(struct points_struct *) malloc( sizeof(struct points_struct))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found.");
return NULL;
}
get_Tftab->fx->ps = NULL;
if ( (PyList_Check(tup)) || (PyTuple_Check(tup)) ) { /* check for list or tuple */
get_Tftab->fx->nsegs = PyList_Size(VALUE);
for (i = 0; i < get_Tftab->fx->nsegs; i++) {
/* if ((pts = (struct array_segments *) malloc(sizeof(
struct array_segments))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found. ");
return NULL;
}*/
store_pts( &pts, PyList_GetItem(VALUE,i) );
if (get_Tftab->fx->ps == NULL) {
tpts = get_Tftab->fx->ps = pts;
} else {
tpts->next = pts;
tpts = pts;
}
}
} else if ((PyInt_Check(tup)) || (PyFloat_Check(tup))) {
get_Tftab->fx->nsegs = 1;
get_Tftab->fx->ps = NULL;
store_pts( &get_Tftab->fx->ps, VALUE );
} else {
PyErr_SetString(VCS_Error,"Error - Must be a Python List or Tuple.");
Py_INCREF(Py_None);
return Py_None;
}
}
} else if (cmpncs(member, "y") == 0) {
free_points( &get_Tftab->fy );
if (PyList_Check(VALUE)) { /* check for list */
tup = PyList_GetItem(VALUE, 0);
/* Set up the pointer struct that will point the list of segments */
if ((get_Tftab->fy =
(struct points_struct *) malloc( sizeof(struct points_struct))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found.");
return NULL;
}
get_Tftab->fy->ps = NULL;
if ( (PyList_Check(tup)) || (PyTuple_Check(tup)) ) { /* check for list or tuple */
get_Tftab->fy->nsegs = PyList_Size(VALUE);
for (i = 0; i < get_Tftab->fy->nsegs; i++) {
/* if ((pts = (struct array_segments *) malloc(sizeof(
struct array_segments))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found. ");
return NULL;
}*/
store_pts( &pts, PyList_GetItem(VALUE,i) );
if (get_Tftab->fy->ps == NULL) {
tpts = get_Tftab->fy->ps = pts;
} else {
tpts->next = pts;
tpts = pts;
}
}
} else if ((PyInt_Check(tup)) || (PyFloat_Check(tup))) {
get_Tftab->fy->nsegs = 1;
get_Tftab->fy->ps = NULL;
store_pts( &get_Tftab->fy->ps, VALUE );
} else {
PyErr_SetString(VCS_Error,"Error - Must be a Python List or Tuple.");
Py_INCREF(Py_None);
return Py_None;
}
}
}
chk_mov_Tf(get_Tftab);
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new fillarea object method by copying from an existing
* fillarea object method. If no source copy name argument is given,
* then the default fillarea object method will be used to replicate
* the new fillarea object.
*/
static PyObject *
PyVCS_copyTf(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *TF_SRC=NULL, *TF_NAME=NULL;
char copy_name[1024];
extern int copy_Tf_name();
if(PyArg_ParseTuple(args,"|ss", &TF_SRC, &TF_NAME)) {
if (TF_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source fillarea graphics method name.");
return NULL;
}
if (TF_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", TF_NAME);
}
ierr = copy_Tf_name(TF_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating fillarea graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing fillarea object method.
*/
static PyObject *
PyVCS_renameTf(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *TF_OLD_NAME=NULL, *TF_NEW_NAME=NULL;
extern int renameTf_name();
if(PyArg_ParseTuple(args,"|ss", &TF_OLD_NAME, &TF_NEW_NAME)) {
if ((TF_OLD_NAME == NULL) || (TF_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new fillarea object name.");
return NULL;
}
}
ierr = renameTf_name(TF_OLD_NAME, TF_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming fillarea graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing fillarea graphics method.
*/
static PyObject *
PyVCS_removeTf(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the fillarea file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeTf_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed fillarea object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The fillarea object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing fillarea graphics method.
*/
static PyObject *
PyVCS_scriptTf(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *TF_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_fillarea();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &TF_NAME, &SCRIPT_NAME, &MODE)) {
if (TF_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the fillarea name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command fillarea */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_fillarea(fp, TF_NAME) == 0) {
sprintf(buf, "Error - Cannot save fillarea script to output file - %s.",
SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS text table (Tt) class member value.
*/
static PyObject *
PyVCS_getTtmember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int i,j;
char *Tt_name, *member=NULL, buf[1024];
PyObject *TT=NULL, *MEMBER=NULL;
PyObject *s=NULL, *x=NULL, *y=NULL, **listptr;
struct table_text *Tttab;
struct char_segments *sptr;
struct array_segments *aptr;
extern struct table_text Tt_tab;
extern struct table_text *getTt();
if(PyArg_ParseTuple(args,"|OO",&TT, &MEMBER)) {
if (TT == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(TT,"name", "s", &Tt_name);
Tttab=getTt(Tt_name);
if (Tttab == NULL) {
sprintf(buf,"Cannot find text table class object Tt_%s.",Tt_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "projection") == 0)
{
return Py_BuildValue("s", Tttab->proj);
}
else if (cmpncs(member, "string") == 0) {
if (Tttab->ts == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
s=PyList_New(Tttab->ts->nsegs);
listptr = (PyObject **) malloc(Tttab->ts->nsegs*sizeof(PyObject));
j = 0;
sptr = Tttab->ts->ss;
while (sptr != NULL) {
listptr[j]=PyList_New(1);
PyList_SetItem(s, j, Py_BuildValue("s", sptr->cpts));
++j;
sptr = sptr->next;
}
return s;
}else if (cmpncs(member, "font") == 0) {
return Py_BuildValue("i", (int) Tttab->txfont);
} else if (cmpncs(member, "spacing") == 0) {
return Py_BuildValue("i", (int) (Tttab->txsp*10));
} else if (cmpncs(member, "expansion") == 0) {
return Py_BuildValue("i", (int) (Tttab->txexp*100));
} else if (cmpncs(member, "color") == 0) {
return Py_BuildValue("i", Tttab->txci);
} else if (cmpncs(member, "fillincolor") == 0) {
return Py_BuildValue("i", Tttab->txfci);
} else if (cmpncs(member, "priority") == 0) {
return Py_BuildValue("i", Tttab->priority);
} else if (cmpncs(member, "viewport") == 0) {
return Py_BuildValue("[f,f,f,f]", Tttab->tvp[0], Tttab->tvp[1],
Tttab->tvp[2], Tttab->tvp[3]);
} else if (cmpncs(member, "worldcoordinate") == 0) {
return Py_BuildValue("[f,f,f,f]", Tttab->twc[0], Tttab->twc[1],
Tttab->twc[2], Tttab->twc[3]);
} else if (cmpncs(member, "x") == 0) {
if (Tttab->tx == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
x=PyList_New(Tttab->tx->nsegs);
listptr = (PyObject **) malloc(Tttab->tx->nsegs*sizeof(PyObject));
j = 0;
aptr = Tttab->tx->ps;
while (aptr != NULL) {
listptr[j]=PyList_New(aptr->npts);
for (i=0; i<(aptr->npts); i++) {
PyList_SetItem(listptr[j], i, Py_BuildValue("f", aptr->pts[i]));
}
PyList_SetItem(x, j, listptr[j]); ++j;
aptr = aptr->next;
}
return x;
} else if (cmpncs(member, "y") == 0) {
if (Tttab->ty == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
y=PyList_New(Tttab->ty->nsegs);
listptr = (PyObject **) malloc(Tttab->ty->nsegs*sizeof(PyObject));
j = 0;
aptr = Tttab->ty->ps;
while (aptr != NULL) {
listptr[j]=PyList_New(aptr->npts);
for (i=0; i<(aptr->npts); i++) {
PyList_SetItem(listptr[j], i, Py_BuildValue("f", aptr->pts[i]));
}
PyList_SetItem(y, j, listptr[j]); ++j;
aptr = aptr->next;
}
return y;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing text table object and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the text table object's attribute will
* be changed.
*/
static PyObject *
PyVCS_setTtmember(self, args)
PyObject *self;
PyObject *args;
{
int i,j,MODE, value_int;
float value_float;
char *Tt_name, *member=NULL;
PyObject *TT=NULL, *MEMBER=NULL, *VALUE=NULL;
PyObject *tup;
struct array_segments *pts, *tpts;
struct char_segments *cpts, *ctpts;
struct table_text *get_Tttab=NULL;
extern struct table_text Tt_tab;
extern struct table_text *getTt();
struct table_text *Tttab;
extern int update_ind;
extern int chk_mov_Tt();
extern int vcs_canvas_update();
extern void free_points();
if(PyArg_ParseTuple(args,"|OOOi", &TT, &MEMBER, &VALUE, &MODE)) {
if (TT == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(TT,"name", "s", &Tt_name);
Tttab=getTt(Tt_name);
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
/*
* Set the appropriate text table attribute. But first
* get the text table structure.
*/
get_Tttab = getTt(Tttab->name);
if (cmpncs(member, "projection") == 0) {
strcpy(get_Tttab->proj, PyString_AsString(VALUE));
}
else if (cmpncs(member, "font") == 0) {
if (VALUE == Py_None)
get_Tttab->txfont = 1;
else
get_Tttab->txfont = (int) PyInt_AsLong(VALUE);
} else if (cmpncs(member, "spacing") == 0) {
if (VALUE == Py_None)
get_Tttab->txsp = .2;
else
get_Tttab->txsp = (float) (PyInt_AsLong(VALUE) / 10.0);
} else if (cmpncs(member, "expansion") == 0) {
if (VALUE == Py_None)
get_Tttab->txexp = 1.0;
else
get_Tttab->txexp = (float) (PyInt_AsLong(VALUE) / 100.0);
} else if (cmpncs(member, "color") == 0) {
if (VALUE == Py_None)
get_Tttab->txci = 241;
else{
get_Tttab->txci = (int) PyInt_AsLong(VALUE);
}
} else if (cmpncs(member, "fillincolor") == 0) {
if (VALUE == Py_None)
get_Tttab->txfci = 240;
else{
get_Tttab->txfci = (int) PyInt_AsLong(VALUE);
}
} else if (cmpncs(member, "priority") == 0) {
if (VALUE == Py_None)
get_Tttab->priority = 1;
else
get_Tttab->priority = (int) PyInt_AsLong(VALUE);
} else if (cmpncs(member, "viewport") == 0) {
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<PyList_Size(VALUE); i++)
get_Tttab->tvp[i] = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "worldcoordinate") == 0) {
if (PyList_Check(VALUE)) { /* check for list */
for (i=0; i<PyList_Size(VALUE); i++)
get_Tttab->twc[i] = (float) PyFloat_AsDouble(PyList_GetItem(VALUE,i));
}
} else if (cmpncs(member, "x") == 0) {
free_points( &get_Tttab->tx );
if (PyList_Check(VALUE)) { /* check for list */
tup = PyList_GetItem(VALUE, 0);
/* Set up the pointer struct that will point the list of segments */
if ((get_Tttab->tx =
(struct points_struct *) malloc( sizeof(struct points_struct))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found.");
return NULL;
}
get_Tttab->tx->ps = NULL;
if ( (PyList_Check(tup)) || (PyTuple_Check(tup)) ) { /* check for list or tuple */
get_Tttab->tx->nsegs = PyList_Size(VALUE);
for (i = 0; i < get_Tttab->tx->nsegs; i++) {
/* if ((pts = (struct array_segments *) malloc(sizeof(
struct array_segments))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found. ");
return NULL;
}*/
store_pts( &pts, PyList_GetItem(VALUE,i) );
if (get_Tttab->tx->ps == NULL) {
tpts = get_Tttab->tx->ps = pts;
} else {
tpts->next = pts;
tpts = pts;
}
}
} else if ((PyInt_Check(tup)) || (PyFloat_Check(tup))) {
get_Tttab->tx->nsegs = 1;
get_Tttab->tx->ps = NULL;
store_pts( &get_Tttab->tx->ps, VALUE );
} else {
PyErr_SetString(VCS_Error,"Error - Must be a Python List or Tuple.");
Py_INCREF(Py_None);
return Py_None;
}
}
} else if (cmpncs(member, "y") == 0) {
free_points( &get_Tttab->ty );
if (PyList_Check(VALUE)) { /* check for list */
tup = PyList_GetItem(VALUE, 0);
/* Set up the pointer struct that will point the list of segments */
if ((get_Tttab->ty =
(struct points_struct *) malloc( sizeof(struct points_struct))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found.");
return NULL;
}
get_Tttab->ty->ps = NULL;
if ( (PyList_Check(tup)) || (PyTuple_Check(tup)) ) { /* check for list or tuple */
get_Tttab->ty->nsegs = PyList_Size(VALUE);
for (i = 0; i < get_Tttab->ty->nsegs; i++) {
/* if ((pts = (struct array_segments *) malloc(sizeof(
struct array_segments))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for points not found. ");
return NULL;
}*/
store_pts( &pts, PyList_GetItem(VALUE,i) );
if (get_Tttab->ty->ps == NULL) {
tpts = get_Tttab->ty->ps = pts;
} else {
tpts->next = pts;
tpts = pts;
}
}
} else if ((PyInt_Check(tup)) || (PyFloat_Check(tup))) {
get_Tttab->ty->nsegs = 1;
get_Tttab->ty->ps = NULL;
store_pts( &get_Tttab->ty->ps, VALUE );
} else {
PyErr_SetString(VCS_Error,"Error - Must be a Python List or Tuple.");
Py_INCREF(Py_None);
return Py_None;
}
}
} else if (cmpncs(member, "string") == 0) {
free_strings( &get_Tttab->ts );
if (PyList_Check(VALUE)) { /* check for list */
tup = PyList_GetItem(VALUE, 0);
/* Set up the pointer struct that will point the list of segments */
if ((get_Tttab->ts =
(struct strings_struct *) malloc( sizeof(struct strings_struct))) == NULL) {
PyErr_SetString(VCS_Error,"Error - table entry memory for strings not found.");
return NULL;
}
get_Tttab->ts->ss = NULL;
if (PyString_Check(tup)) { /* check for string */
get_Tttab->ts->nsegs = PyList_Size(VALUE);
for (i = 0; i < get_Tttab->ts->nsegs; i++) {
store_cpts( &cpts, PyList_GetItem(VALUE,i) );
if (get_Tttab->ts->ss == NULL) {
ctpts = get_Tttab->ts->ss = cpts;
} else {
ctpts->next = cpts;
ctpts = cpts;
}
cpts = cpts->next;
}
/* } else if (PyString_Check(tup)) {
get_Tttab->ts->nsegs = 1;
get_Tttab->ts->ss = NULL;
store_cpts( &get_Tttab->ts->ss, VALUE );*/
} else {
PyErr_SetString(VCS_Error,"Error - Must be a Python List or Tuple.");
Py_INCREF(Py_None);
return Py_None;
}
}
}
/* Set the text precision (it will always equals 2)*/
get_Tttab->txpr = 2;
/* printf("Update_ind is before ch_tt: %s,%d, color:%d\n",get_Tttab->name,update_ind,get_Tttab->txci); */
chk_mov_Tt(get_Tttab);
/* printf("Update_ind is after ch_tt: %d\n",update_ind); */
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new text table object method by copying from an existing
* text table object method. If no source copy name argument is given,
* theet the default text table object method will be used to replicate
* the new text table object.
*/
static PyObject *
PyVCS_copyTt(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *TT_SRC=NULL, *TT_NAME=NULL;
char copy_name[1024];
extern int copy_Tt_name();
if(PyArg_ParseTuple(args,"|ss", &TT_SRC, &TT_NAME)) {
if (TT_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source text table graphics method name.");
return NULL;
}
if (TT_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", TT_NAME);
}
ierr = copy_Tt_name(TT_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating text table graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing text table object method.
*/
static PyObject *
PyVCS_renameTt(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *TT_OLD_NAME=NULL, *TT_NEW_NAME=NULL;
extern int renameTt_name();
if(PyArg_ParseTuple(args,"|ss", &TT_OLD_NAME, &TT_NEW_NAME)) {
if ((TT_OLD_NAME == NULL) || (TT_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new text table object name.");
return NULL;
}
}
ierr = renameTt_name(TT_OLD_NAME, TT_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming text table graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing text table graphics method.
*/
static PyObject *
PyVCS_removeTt(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the text table file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeTt_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed text table object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The text table object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing text table graphics method.
*/
static PyObject *
PyVCS_scriptTt(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *TT_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_textt();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &TT_NAME, &SCRIPT_NAME, &MODE)) {
if (TT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the text table name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command text table */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object */
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_textt(fp, TT_NAME) == 0) {
sprintf(buf, "Error - Cannot save text table script to output file - %s.",
SCRIPT_NAME);
fclose(fp);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Return the VCS text orientation (To) class member value.
*/
static PyObject *
PyVCS_getTomember(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *To_name, *member=NULL, buf[1024];
PyObject *TO=NULL, *MEMBER=NULL;
struct table_chorn *Totab;
extern struct table_chorn To_tab;
extern struct table_chorn *getTo();
if(PyArg_ParseTuple(args,"|OO",&TO, &MEMBER)) {
if (TO == NULL) {
PyErr_SetString(PyExc_TypeError, "Not correct object type.");
return NULL;
}
if (MEMBER != NULL) {
member = PyString_AsString(MEMBER);
} else {
PyErr_SetString(PyExc_TypeError, "Must supply a member name.");
return NULL;
}
}
Get_Member(TO,"name", "s", &To_name);
Totab=getTo(To_name);
if (Totab == NULL) {
sprintf(buf,"Cannot find text orientation class object To_%s.",To_name);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cmpncs(member, "height") == 0) {
return Py_BuildValue("i", (int) (Totab->chh*1000.0));
} else if (cmpncs(member, "angle") == 0) {
return Py_BuildValue("i", (int) Totab->chua);
} else if (cmpncs(member, "path") == 0) {
if (Totab->chpath == 114)
return Py_BuildValue("s", "right");
else if (Totab->chpath == 108)
return Py_BuildValue("s", "left");
else if (Totab->chpath == 117)
return Py_BuildValue("s", "up");
else if (Totab->chpath == 100)
return Py_BuildValue("s", "down");
} else if (cmpncs(member, "halign") == 0) {
if (Totab->chalh == 108)
return Py_BuildValue("s", "left");
else if (Totab->chalh == 99)
return Py_BuildValue("s", "center");
else if (Totab->chalh == 114)
return Py_BuildValue("s", "right");
} else if (cmpncs(member, "valign") == 0) {
if (Totab->chalv == 116)
return Py_BuildValue("s", "top");
else if (Totab->chalv == 99)
return Py_BuildValue("s", "cap");
else if (Totab->chalv == 104)
return Py_BuildValue("s", "half");
else if (Totab->chalv == 98)
return Py_BuildValue("s", "base");
else if (Totab->chalv == 115)
return Py_BuildValue("s", "bottom");
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Find the existing text orientation object and set its member.
* If the canvas mode is set to 1, then the plot will be redrawn
* accordingly. If the canvas mode is set to 0, then nothing will
* happen to the plot, but the text orientation object's attribute will
* be changed.
*/
static PyObject *
PyVCS_setTomember(self, args)
PyObject *self;
PyObject *args;
{
int MODE, value_int;
float value_float;
char *To_name, *member=NULL;
PyObject *TO=NULL, *MEMBER=NULL, *VALUE=NULL;
struct table_chorn *get_Totab=NULL;
extern struct table_chorn To_tab;
extern struct table_chorn *getTo();
struct table_chorn *Totab;
extern int update_ind;
extern int chk_mov_To();
extern int vcs_canvas_update();
if(PyArg_ParseTuple(args,"|OOOi", &TO, &MEMBER, &VALUE, &MODE)) {
if (TO == NULL) {
PyErr_SetString(PyExc_TypeError, "Not the correct object type.");
return NULL;
}
}
Get_Member(TO,"name", "s", &To_name);
Totab=getTo(To_name);
if (MEMBER != NULL)
member = PyString_AsString(MEMBER);
/*
* Set the appropriate text orientation attribute. But first
* get the text orientation structure.
*/
get_Totab = getTo(Totab->name);
if (cmpncs(member, "height") == 0) {
if (VALUE == Py_None)
get_Totab->chh = 0.015;
else
get_Totab->chh = (float) (PyFloat_AsDouble(VALUE) / 1000.0);
} else if (cmpncs(member, "angle") == 0) {
if (VALUE == Py_None)
get_Totab->chua = 0.015;
else
get_Totab->chua = (float) PyInt_AsLong(VALUE);
} else if (cmpncs(member, "path") == 0) {
if (VALUE==Py_None)
get_Totab->chpath = 114; /* default to right text path */
else {
if (cmpncs("right", PyString_AsString(VALUE))==0)
get_Totab->chpath = 114;
else if (cmpncs("left", PyString_AsString(VALUE))==0)
get_Totab->chpath = 108;
else if (cmpncs("up", PyString_AsString(VALUE))==0)
get_Totab->chpath = 117;
else if (cmpncs("down", PyString_AsString(VALUE))==0)
get_Totab->chpath = 100;
}
} else if (cmpncs(member, "halign") == 0) {
if (VALUE==Py_None)
get_Totab->chalh = 108; /* default to left horizontal alignment */
else {
if (cmpncs("left", PyString_AsString(VALUE))==0)
{
get_Totab->chalh = 108;
}
else if (cmpncs("center", PyString_AsString(VALUE))==0){
get_Totab->chalh = 99;
}
else if (cmpncs("right", PyString_AsString(VALUE))==0){
get_Totab->chalh = 114;
}
}
} else if (cmpncs(member, "valign") == 0) {
if (VALUE==Py_None)
get_Totab->chalv = 104; /* default to half vertical alignment */
else {
if (cmpncs("top", PyString_AsString(VALUE))==0)
get_Totab->chalv = 116;
else if (cmpncs("cap", PyString_AsString(VALUE))==0)
get_Totab->chalv = 99;
else if (cmpncs("half", PyString_AsString(VALUE))==0)
get_Totab->chalv = 104;
else if (cmpncs("base", PyString_AsString(VALUE))==0)
get_Totab->chalv = 98;
else if (cmpncs("bottom", PyString_AsString(VALUE))==0)
get_Totab->chalv = 115;
}
}
/* printf("before check To update_ind is: %s, %d\n",get_Totab->name,update_ind); */
chk_mov_To(get_Totab);
/* printf("after check To update_ind is: %d\n",update_ind); */
update_ind = MODE; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Create a new text orientation object method by copying from an existing
* text orientation object method. If no source copy name argument is given,
* then the default text orientation object method will be used to replicate
* the new text orientation object.
*/
static PyObject *
PyVCS_copyTo(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *TO_SRC=NULL, *TO_NAME=NULL;
char copy_name[1024];
extern int copy_To_name();
if(PyArg_ParseTuple(args,"|ss", &TO_SRC, &TO_NAME)) {
if (TO_SRC == NULL) {
PyErr_SetString(PyExc_TypeError, "Must provide source text orientation graphics method name.");
return NULL;
}
if (TO_NAME == NULL)
sprintf(copy_name, "%s", "default");
else
sprintf(copy_name, "%s", TO_NAME);
}
ierr = copy_To_name(TO_SRC, copy_name);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error creating text orientation graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Rename an existing text orientation object method.
*/
static PyObject *
PyVCS_renameTo(self, args)
PyObject *self;
PyObject *args;
{
int ierr;
char *TO_OLD_NAME=NULL, *TO_NEW_NAME=NULL;
extern int renameTo_name();
if(PyArg_ParseTuple(args,"|ss", &TO_OLD_NAME, &TO_NEW_NAME)) {
if ((TO_OLD_NAME == NULL) || (TO_NEW_NAME == NULL)) {
PyErr_SetString(PyExc_TypeError, "Must provide new text orientation object name.");
return NULL;
}
}
ierr = renameTo_name(TO_OLD_NAME, TO_NEW_NAME);
if (ierr==0) {
PyErr_SetString(PyExc_ValueError, "Error renaming text orientation graphics method.");
return NULL;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Remove an existing text orientation graphics method.
*/
static PyObject *
PyVCS_removeTo(self, args)
PyObject *self;
PyObject *args;
{
char *REMOVE_NAME=NULL, buf[1024];
if(PyArg_ParseTuple(args,"|s", &REMOVE_NAME)) {
if (REMOVE_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the text orientation file name.");
return NULL;
}
}
/* Return Python String Object */
if (removeTo_name(REMOVE_NAME) == 1) {
sprintf(buf,"Removed text orientation object (%s).", REMOVE_NAME);
return Py_BuildValue("s", buf);
} else {
sprintf(buf,"The text orientation object (%s) was not removed.", REMOVE_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Script out an existing text table graphics method.
*/
static PyObject *
PyVCS_scriptTo(self, args)
PyObject *self;
PyObject *args;
{
int ffd, wfd;
char *SCRIPT_NAME=NULL, *TO_NAME=NULL, *MODE=NULL, buf[1024];
char replace_name[1024], initial_script[1024], mv_command[1024];
char mode2[2];
extern int dump_single_texto();
FILE *fp;
if(PyArg_ParseTuple(args,"|sss", &TO_NAME, &SCRIPT_NAME, &MODE)) {
if (TO_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the text table name.");
return NULL;
}
if (SCRIPT_NAME == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide the script file name.");
return NULL;
}
}
if ((MODE == NULL) || (MODE[0] == '\0') || (MODE[0] == ' ')) {
strcpy(mode2,"a");
} else if (strcmp(MODE,"w") == 0) {
strcpy(mode2, "w");
} else {
strcpy(mode2, "a");
}
/* check for directory and file access */
ffd = access(SCRIPT_NAME, F_OK);
wfd = access(SCRIPT_NAME, W_OK);
if ((ffd == 0) && (wfd == 0) && (strcmp(mode2,"w") == 0)) { /* The file exist! */
/* Get the replacement name and command text table */
strcpy(replace_name, SCRIPT_NAME);
strcat (replace_name, "%");
sprintf(mv_command, "/bin/mv %s %s", SCRIPT_NAME, replace_name);
if ((system (mv_command)) != 0) {
sprintf(buf,"Error - In replacing %s script file.", SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
}
}
/* Return NULL Python Object or Python String Object*/
if ((fp=fopen(SCRIPT_NAME,mode2)) == NULL) {
sprintf(buf, "Error - opening file (%s) - script dump was not made.\n",SCRIPT_NAME);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else {
if (dump_single_texto(fp, TO_NAME) == 0) {
sprintf(buf, "Error - Cannot save text table script to output file - %s.",
SCRIPT_NAME);
fclose(fp);
PyErr_SetString(PyExc_ValueError, buf);
return NULL;
} else
fclose(fp);
sprintf(buf,"The script file was saved to (%s).", SCRIPT_NAME);
return Py_BuildValue("s", buf);
}
}
/*
* Update the VCS canvas by redrawing the plot. Redrawing
* occurs only if something new or different is displayed
* on the plot.
*/
static PyObject *
PyVCS_updatecanvas(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
extern int update_ind;
extern int vcs_canvas_update();
/*
* Make sure the Canvas is in front.
*/
if ( (self->connect_id.display != NULL) && (self->connect_id.drawable != 0))
XRaiseWindow(self->connect_id.display, self->connect_id.drawable);
update_ind = 1; /* Update the display if needed */
vcs_canvas_update(0);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Update the VCS canvas by redrawing the plot. Redrawing
* occurs only if something new or different is displayed
* on the plot. This function has a specical check for the
* continents.
*/
static PyObject *
PyVCS_updatecanvas_continents(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int hold_continents;
canvas_display_list *cdptr;
struct display_tab *dtab;
extern struct display_tab D_tab;
struct a_attr *pa;
struct a_tab *ptab;
extern struct a_tab A_tab;
extern int update_ind;
extern int vcs_canvas_update();
extern struct default_continents Dc;
/*
* Make sure the Canvas is in front.
*/
if ( (self->connect_id.display != NULL) && (self->connect_id.drawable != 0)
)
XRaiseWindow(self->connect_id.display, self->connect_id.drawable);
/* Determine if the Continents need to be displayed or not. */
hold_continents = Dc.selected;
cdptr = self->dlist;
while (cdptr != NULL) {
dtab=&D_tab;
while ((dtab != NULL) &&
(strcmp(dtab->name, cdptr->display_name) != 0))
dtab = dtab->next;
if (dtab != NULL) { /* must have been removed from animation */
ptab=&A_tab;
pa=ptab->pA_attr;
while ((ptab != NULL) && (strcmp(ptab->name, dtab->g_name) != 0)) {
ptab=ptab->next;
}
if ( (pa != NULL) && ((!doexist("longitude",pa->XN[0])) ||
(!doexist("latitude",pa->XN[1]))) )
Dc.selected = 0;
}
cdptr = cdptr->next;
}
/* Update the display if needed */
update_ind = 1;
vcs_canvas_update(0);
Dc.selected = hold_continents; /* Restore Continent's flag */
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/*
* Return the template names as a Python list.
*/
PyObject *
PyVCS_listtemplate(/* no args */)
{
int i,ct=0;
struct p_tab *ptab;
extern struct p_tab Pic_tab;
PyObject *listptr;
ptab=&Pic_tab;
while (ptab != NULL) {
/* Ignore template names that begin with a '.' -Jen =) */
if (ptab->name[0] != '.')
++ct;
ptab=ptab->next;
}
listptr = PyList_New(ct);
for(i=0,ptab=&Pic_tab;ptab != NULL; i++, ptab=ptab->next)
/* Ignore template names that begin with a '.' -Jen =) */
if (ptab->name[0] != '.')
PyList_SetItem(listptr, i, Py_BuildValue("s", ptab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the boxfill names as a Python list.
*/
PyObject *
PyVCS_listboxfill(/* no args */)
{
int i,ct=0;
struct gfb_tab *gfbtab;
extern struct gfb_tab Gfb_tab;
PyObject *listptr;
gfbtab=&Gfb_tab;
while (gfbtab != NULL) {
++ct;
gfbtab=gfbtab->next;
}
listptr = PyList_New(ct);
for(i=0,gfbtab=&Gfb_tab;gfbtab != NULL; i++, gfbtab=gfbtab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", gfbtab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the continents names as a Python list.
*/
PyObject *
PyVCS_listcontinents(/* no args */)
{
int i,ct=0;
struct gcon_tab *gcontab;
extern struct gcon_tab Gcon_tab;
PyObject *listptr;
gcontab=&Gcon_tab;
while (gcontab != NULL) {
++ct;
gcontab=gcontab->next;
}
listptr = PyList_New(ct);
for(i=0,gcontab=&Gcon_tab;gcontab != NULL; i++, gcontab=gcontab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", gcontab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the isofill names as a Python list.
*/
PyObject *
PyVCS_listisofill(/* no args */)
{
int i,ct=0;
struct gfi_tab *gfitab;
extern struct gfi_tab Gfi_tab;
PyObject *listptr;
gfitab=&Gfi_tab;
while (gfitab != NULL) {
++ct;
gfitab=gfitab->next;
}
listptr = PyList_New(ct);
for(i=0,gfitab=&Gfi_tab;gfitab != NULL; i++, gfitab=gfitab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", gfitab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the meshfill names as a Python list.
*/
PyObject *
PyVCS_listmeshfill(/* no args */)
{
int i,ct=0;
struct gfm_tab *gfmtab;
extern struct gfm_tab Gfm_tab;
PyObject *listptr;
gfmtab=&Gfm_tab;
while (gfmtab != NULL) {
++ct;
gfmtab=gfmtab->next;
}
listptr = PyList_New(ct);
for(i=0,gfmtab=&Gfm_tab;gfmtab != NULL; i++, gfmtab=gfmtab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", gfmtab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the projection names as a Python list.
*/
PyObject *
PyVCS_listprojection(/* no args */)
{
int i,ct=0;
struct projection_attr *pj;
extern struct projection_attr p_PRJ_list;
PyObject *listptr;
pj=&p_PRJ_list;
while (pj != NULL) {
++ct;
pj=pj->next;
}
listptr = PyList_New(ct);
for(i=0,pj=&p_PRJ_list;pj != NULL; i++, pj=pj->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", pj->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the isoline names as a Python list.
*/
PyObject *
PyVCS_listisoline(/* no args */)
{
int i,ct=0;
struct gi_tab *gitab;
extern struct gi_tab Gi_tab;
PyObject *listptr;
gitab=&Gi_tab;
while (gitab != NULL) {
++ct;
gitab=gitab->next;
}
listptr = PyList_New(ct);
for(i=0,gitab=&Gi_tab;gitab != NULL; i++, gitab=gitab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", gitab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the outfill names as a Python list.
*/
PyObject *
PyVCS_listoutfill(/* no args */)
{
int i,ct=0;
struct gfo_tab *gfotab;
extern struct gfo_tab Gfo_tab;
PyObject *listptr;
gfotab=&Gfo_tab;
while (gfotab != NULL) {
++ct;
gfotab=gfotab->next;
}
listptr = PyList_New(ct);
for(i=0,gfotab=&Gfo_tab;gfotab != NULL; i++, gfotab=gfotab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", gfotab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the outline names as a Python list.
*/
PyObject *
PyVCS_listoutline(/* no args */)
{
int i,ct=0;
struct go_tab *gotab;
extern struct go_tab Go_tab;
PyObject *listptr;
gotab=&Go_tab;
while (gotab != NULL) {
++ct;
gotab=gotab->next;
}
listptr = PyList_New(ct);
for(i=0,gotab=&Go_tab;gotab != NULL; i++, gotab=gotab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", gotab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the scatter names as a Python list.
*/
PyObject *
PyVCS_listscatter(/* no args */)
{
int i,ct=0;
struct gSp_tab *gSptab;
extern struct gSp_tab GSp_tab;
PyObject *listptr;
gSptab=&GSp_tab;
while (gSptab != NULL) {
++ct;
gSptab=gSptab->next;
}
listptr = PyList_New(ct);
for(i=0,gSptab=&GSp_tab;gSptab != NULL; i++, gSptab=gSptab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", gSptab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the vector names as a Python list.
*/
PyObject *
PyVCS_listvector(/* no args */)
{
int i,ct=0;
struct gv_tab *gvtab;
extern struct gv_tab Gv_tab;
PyObject *listptr;
gvtab=&Gv_tab;
while (gvtab != NULL) {
++ct;
gvtab=gvtab->next;
}
listptr = PyList_New(ct);
for(i=0,gvtab=&Gv_tab;gvtab != NULL; i++, gvtab=gvtab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", gvtab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the XvsY names as a Python list.
*/
PyObject *
PyVCS_listxvsy(/* no args */)
{
int i,ct=0;
struct gXY_tab *gXYtab;
extern struct gXY_tab GXY_tab;
PyObject *listptr;
gXYtab=&GXY_tab;
while (gXYtab != NULL) {
++ct;
gXYtab=gXYtab->next;
}
listptr = PyList_New(ct);
for(i=0,gXYtab=&GXY_tab;gXYtab != NULL; i++, gXYtab=gXYtab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", gXYtab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the Xyvsy names as a Python list.
*/
PyObject *
PyVCS_listxyvsy(/* no args */)
{
int i,ct=0;
struct gXy_tab *gXytab;
extern struct gXy_tab GXy_tab;
PyObject *listptr;
gXytab=&GXy_tab;
while (gXytab != NULL) {
++ct;
gXytab=gXytab->next;
}
listptr = PyList_New(ct);
for(i=0,gXytab=&GXy_tab;gXytab != NULL; i++, gXytab=gXytab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", gXytab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the Yxvsx names as a Python list.
*/
PyObject *
PyVCS_listyxvsx(/* no args */)
{
int i,ct=0;
struct gYx_tab *gYxtab;
extern struct gYx_tab GYx_tab;
PyObject *listptr;
gYxtab=&GYx_tab;
while (gYxtab != NULL) {
++ct;
gYxtab=gYxtab->next;
}
listptr = PyList_New(ct);
for(i=0,gYxtab=&GYx_tab;gYxtab != NULL; i++, gYxtab=gYxtab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", gYxtab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the line names as a Python list.
*/
PyObject *
PyVCS_listline(/* no args */)
{
int i,ct=0;
struct table_line *tltab;
extern struct table_line Tl_tab;
PyObject *listptr;
tltab=&Tl_tab;
while (tltab != NULL) {
++ct;
tltab=tltab->next;
}
listptr = PyList_New(ct);
for(i=0,tltab=&Tl_tab;tltab != NULL; i++, tltab=tltab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", tltab->name));
/* Return the list of line names */
return listptr;
}
/*
* Return the marker names as a Python list.
*/
PyObject *
PyVCS_listmarker(/* no args */)
{
int i,ct=0;
struct table_mark *tmtab;
extern struct table_mark Tm_tab;
PyObject *listptr;
tmtab=&Tm_tab;
while (tmtab != NULL) {
++ct;
tmtab=tmtab->next;
}
listptr = PyList_New(ct);
for(i=0,tmtab=&Tm_tab;tmtab != NULL; i++, tmtab=tmtab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", tmtab->name));
/* Return the list of marker names */
return listptr;
}
/*
* Return the fill area names as a Python list.
*/
PyObject *
PyVCS_listfillarea(/* no args */)
{
int i,ct=0;
struct table_fill *tftab;
extern struct table_fill Tf_tab;
PyObject *listptr;
tftab=&Tf_tab;
while (tftab != NULL) {
++ct;
tftab=tftab->next;
}
listptr = PyList_New(ct);
for(i=0,tftab=&Tf_tab;tftab != NULL; i++, tftab=tftab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", tftab->name));
/* Return the list of marker names */
return listptr;
}
/*
* Return the text table names as a Python list.
*/
PyObject *
PyVCS_listtexttable(/* no args */)
{
int i,ct=0;
struct table_text *tttab;
extern struct table_text Tt_tab;
PyObject *listptr;
tttab=&Tt_tab;
while (tttab != NULL) {
++ct;
tttab=tttab->next;
}
listptr = PyList_New(ct);
for(i=0,tttab=&Tt_tab;tttab != NULL; i++, tttab=tttab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", tttab->name));
/* Return the list of text table names */
return listptr;
}
/*
* Return the text orientation names as a Python list.
*/
PyObject *
PyVCS_listtextorientation(/* no args */)
{
int i,ct=0;
struct table_chorn *totab;
extern struct table_chorn To_tab;
PyObject *listptr;
totab=&To_tab;
while (totab != NULL) {
++ct;
totab=totab->next;
}
listptr = PyList_New(ct);
for(i=0,totab=&To_tab;totab != NULL; i++, totab=totab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", totab->name));
/* Return the list of text orientation names */
return listptr;
}
/*
* Return the text orientation names as a Python list.
*/
PyObject *
PyVCS_listfont(/* no args */)
{
int i,ct=0;
extern struct table_FT_VCS_FONTS TTFFONTS;
struct table_FT_VCS_FONTS *current_font;
PyObject *listptr;
current_font=&TTFFONTS;
while (current_font != NULL) {
++ct;
current_font=current_font->next;
}
listptr = PyList_New(ct);
for(i=0,current_font=&TTFFONTS;current_font != NULL; i++, current_font=current_font->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", current_font->name));
/* Return the list of text orientation names */
return listptr;
}
/*
* Return the color map names as a Python list.
*/
PyObject *
PyVCS_listcolormap(/* no args */)
{
int i,ct=0;
struct color_table *ctab;
extern struct color_table C_tab;
PyObject *listptr;
ctab=&C_tab;
while (ctab != NULL) {
++ct;
ctab=ctab->next;
}
listptr = PyList_New(ct);
for(i=0,ctab=&C_tab;ctab != NULL; i++, ctab=ctab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", ctab->name));
/* Return the list of text orientation names */
return listptr;
}
/*
* Return the format names as a Python list.
*/
PyObject *
PyVCS_listformat(/* no args */)
{
int i,ct=0;
struct table_form *thtab;
extern struct table_form Th_tab;
PyObject *listptr;
thtab=&Th_tab;
while (thtab != NULL) {
++ct;
thtab=thtab->next;
}
listptr = PyList_New(ct);
for(i=0,thtab=&Th_tab;thtab != NULL; i++, thtab=thtab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", thtab->name));
/* Return the list of text orientation names */
return listptr;
}
/*
* Return the VCS list names as a Python list.
*/
PyObject *
PyVCS_listlist(/* no args */)
{
int i,ct=0;
struct l_tab *ltab;
extern struct l_tab L_tab[2];
PyObject *listptr;
ltab=&L_tab[0];
while (ltab != NULL) {
++ct;
ltab=ltab->next;
}
listptr = PyList_New(ct);
for(i=0,ltab=&L_tab[0];ltab != NULL; i++, ltab=ltab->next)
PyList_SetItem(listptr, i, Py_BuildValue("s", ltab->name));
/* Return the list of text orientation names */
return listptr;
}
/* Return a Python list of VCS elements. That is, this function returns:
* template, data, boxfill, continent, isofill, isoline, outfill, outline,
* scatter vector, xvsy, xyvsy, yxvsy, colormap, line, text, marker,
* fillarea, format, and list.
*/
static PyObject *
PyVCS_listelements(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *element=NULL;
PyObject *listptr=NULL;
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
if(PyArg_ParseTuple(args, "|s", &element)) {
if ((element == NULL) || (element[0] == '\0')) {
/* Get the number of variable attributes */
listptr = PyList_New(24);
PyList_SetItem(listptr, 0, Py_BuildValue("s", "template"));
PyList_SetItem(listptr, 1, Py_BuildValue("s", "boxfill"));
PyList_SetItem(listptr, 2, Py_BuildValue("s", "continents"));
PyList_SetItem(listptr, 3, Py_BuildValue("s", "isofill"));
PyList_SetItem(listptr, 4, Py_BuildValue("s", "isoline"));
PyList_SetItem(listptr, 5, Py_BuildValue("s", "outfill"));
PyList_SetItem(listptr, 6, Py_BuildValue("s", "outline"));
PyList_SetItem(listptr, 7, Py_BuildValue("s", "scatter"));
PyList_SetItem(listptr, 8, Py_BuildValue("s", "taylordiagram"));
PyList_SetItem(listptr, 9, Py_BuildValue("s", "vector"));
PyList_SetItem(listptr, 10, Py_BuildValue("s", "xvsy"));
PyList_SetItem(listptr, 11, Py_BuildValue("s", "xyvsy"));
PyList_SetItem(listptr, 12, Py_BuildValue("s", "yxvsx"));
PyList_SetItem(listptr, 13, Py_BuildValue("s", "colormap"));
PyList_SetItem(listptr, 14, Py_BuildValue("s", "fillarea"));
PyList_SetItem(listptr, 15, Py_BuildValue("s", "format"));
PyList_SetItem(listptr, 16, Py_BuildValue("s", "line"));
PyList_SetItem(listptr, 17, Py_BuildValue("s", "list"));
PyList_SetItem(listptr, 18, Py_BuildValue("s", "marker"));
PyList_SetItem(listptr, 19, Py_BuildValue("s", "texttable"));
PyList_SetItem(listptr, 20, Py_BuildValue("s", "textorientation"));
PyList_SetItem(listptr, 21, Py_BuildValue("s", "meshfill"));
PyList_SetItem(listptr, 22, Py_BuildValue("s", "projection"));
PyList_SetItem(listptr, 23, Py_BuildValue("s", "font"));
} else if (cmpncs(element, "template") == 0)
listptr = PyVCS_listtemplate();
else if (cmpncs(element, "boxfill") == 0)
listptr = PyVCS_listboxfill();
else if (cmpncs(element, "continents") == 0)
listptr = PyVCS_listcontinents();
else if (cmpncs(element, "isofill") == 0)
listptr = PyVCS_listisofill();
else if (cmpncs(element, "meshfill") == 0)
listptr = PyVCS_listmeshfill();
else if (cmpncs(element, "projection") == 0)
listptr = PyVCS_listprojection();
else if (cmpncs(element, "isoline") == 0)
listptr = PyVCS_listisoline();
else if (cmpncs(element, "outfill") == 0)
listptr = PyVCS_listoutfill();
else if (cmpncs(element, "outline") == 0)
listptr = PyVCS_listoutline();
else if (cmpncs(element, "scatter") == 0)
listptr = PyVCS_listscatter();
else if (cmpncs(element, "vector") == 0)
listptr = PyVCS_listvector();
else if (cmpncs(element, "xyvsy") == 0)
listptr = PyVCS_listxyvsy();
else if (cmpncs(element, "yxvsx") == 0)
listptr = PyVCS_listyxvsx();
else if (cmpncs(element, "xvsy") == 0)
listptr = PyVCS_listxvsy();
else if (cmpncs(element, "line") == 0)
listptr = PyVCS_listline();
else if (cmpncs(element, "marker") == 0)
listptr = PyVCS_listmarker();
else if (cmpncs(element, "fillarea") == 0)
listptr = PyVCS_listfillarea();
else if (cmpncs(element, "texttable") == 0)
listptr = PyVCS_listtexttable();
else if (cmpncs(element, "textorientation") == 0)
listptr = PyVCS_listtextorientation();
else if (cmpncs(element, "font") == 0)
listptr = PyVCS_listfont();
else if (cmpncs(element, "colormap") == 0)
listptr = PyVCS_listcolormap();
else if (cmpncs(element, "format") == 0)
listptr = PyVCS_listformat();
else if (cmpncs(element, "list") == 0)
listptr = PyVCS_listlist();
}
/* Return the list of dimension attributes */
return listptr;
}
/* Set the default primary elements: template and graphics methods and
* the secondary element color. Keep in mind the template, determines
* the appearance of each segment; the graphic method specifies the display
* technique; and the data defines what is to be displayed. Note the data
* cannot be set. The colormap can be set here or by the colormap GUI.
*/
static PyObject *
PyVCS_set(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int ier;
char *ierr;
char *element=NULL, *name=NULL, buf[MAX_NAME];
extern char * python_colormap();
extern int python_display();
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
if(PyArg_ParseTuple(args, "|ss", &element, &name)) {
/* check for element */
if ((element == NULL) || (element[0] == '\0')) {
PyErr_SetString(PyExc_TypeError, "No primary element type given.");
return NULL;
}
/* check for element name */
if ((name == NULL) || (name[0] == '\0')) {
pyoutput("Warning - No element name given. Using 'default' name.", 1);
name = (char *) malloc(strlen("default")+1);
strcpy(name,"default");
}
/* Set the element and element name */
if (cmpncs(element, "Template") == 0) {
if (self->template_name != NULL)
free((char *) self->template_name);
if ((self->template_name =
(char *) malloc((strlen(name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the template name.");
return NULL;
} else {
strcpy(self->template_name, name);
sprintf(buf, "Default 'Template' now set to P_%s.", self->template_name);
pyoutput(buf,0);
}
} else if (cmpncs(element, "colormap") == 0) {
ierr = python_colormap(name); /* set the new VCS colormap */
Py_INCREF(Py_None);
return Py_None;
} else if (cmpncs(element, "Boxfill") == 0) {
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
if ((self->graphics_name =
(char *) malloc((strlen(name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the graphics name.");
return NULL;
} else {
strcpy(self->graphics_name, name);
strcpy(self->graphics_type, "Boxfill");
sprintf(buf, "Default graphics method 'Boxfill' now set to Gfb_%s", self->graphics_name);
pyoutput(buf,0);
}
} else if (cmpncs(element, "Meshfill") == 0) {
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
if ((self->graphics_name =
(char *) malloc((strlen(name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the graphics name.");
return NULL;
} else {
strcpy(self->graphics_name, name);
strcpy(self->graphics_type, "Meshfill");
sprintf(buf, "Default graphics method 'Meshfill' now set to Gfm_%s", self->graphics_name);
pyoutput(buf,0);
}
} else if (cmpncs(element, "Continent") == 0) {
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
if ((self->graphics_name =
(char *) malloc((strlen(name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the graphics name.");
return NULL;
} else {
strcpy(self->graphics_name, name);
strcpy(self->graphics_type, "Continents");
sprintf(buf, "Default graphics method 'Continent' now set to Gcon_%s", self->graphics_name);
pyoutput(buf,0);
}
} else if (cmpncs(element, "Isofill") == 0) {
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
if ((self->graphics_name =
(char *) malloc((strlen(name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the graphics name.");
return NULL;
} else {
strcpy(self->graphics_name, name);
strcpy(self->graphics_type, "Isofill");
sprintf(buf, "Default graphics method 'Isofill' now set to Gfi_%s", self->graphics_name);
pyoutput(buf,0);
}
} else if (cmpncs(element, "Isoline") == 0) {
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
if ((self->graphics_name =
(char *) malloc((strlen(name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the graphics name.");
return NULL;
} else {
strcpy(self->graphics_name, name);
strcpy(self->graphics_type, "Isoline");
sprintf(buf, "Default graphics method 'Isoline' now set to Gi_%s", self->graphics_name);
pyoutput(buf, 0);
}
} else if (cmpncs(element, "Outfill") == 0) {
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
if ((self->graphics_name =
(char *) malloc((strlen(name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the graphics name.");
return NULL;
} else {
strcpy(self->graphics_name, name);
strcpy(self->graphics_type, "Outfill");
sprintf(buf, "Default graphics method 'Outfill' now set to Gfo_%s", self->graphics_name);
pyoutput(buf, 0);
}
} else if (cmpncs(element, "Outline") == 0) {
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
if ((self->graphics_name =
(char *) malloc((strlen(name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the graphics name.");
return NULL;
} else {
strcpy(self->graphics_name, name);
strcpy(self->graphics_type, "Outline");
sprintf(buf,"Default graphics method 'Outline' now set to Go_%s", self->graphics_name);
pyoutput(buf, 0);
}
} else if (cmpncs(element, "Scatter") == 0) {
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
if ((self->graphics_name =
(char *) malloc((strlen(name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the graphics name.");
return NULL;
} else {
strcpy(self->graphics_name, name);
strcpy(self->graphics_type, "Scatter");
sprintf(buf, "Default graphics method 'Scatter' now set to GSp_%s", self->graphics_name);
pyoutput(buf, 0);
}
} else if (cmpncs(element, "Vector") == 0) {
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
if ((self->graphics_name =
(char *) malloc((strlen(name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the graphics name.");
return NULL;
} else {
strcpy(self->graphics_name, name);
strcpy(self->graphics_type, "Vector");
sprintf(buf, "Default graphics method 'Vector' now set to Gv_%s", self->graphics_name);
pyoutput(buf, 0);
}
} else if (cmpncs(element, "XvsY") == 0) {
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
if ((self->graphics_name =
(char *) malloc((strlen(name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the graphics name.");
return NULL;
} else {
strcpy(self->graphics_name, name);
strcpy(self->graphics_type, "XvsY");
sprintf(buf, "Default graphics method 'XvsY' now set to GXY_%s", self->graphics_name);
pyoutput(buf, 0);
}
} else if (cmpncs(element, "Xyvsy") == 0) {
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
if ((self->graphics_name =
(char *) malloc((strlen(name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the graphics name.");
return NULL;
} else {
strcpy(self->graphics_name, name);
strcpy(self->graphics_type, "Xyvsy");
sprintf(buf, "Default graphics method 'Xyvsy' now set to GXy_%s", self->graphics_name);
pyoutput(buf, 0);
}
} else if (cmpncs(element, "Yxvsx") == 0) {
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
if (self->graphics_name != NULL)
free((char *) self->graphics_name);
if ((self->graphics_name =
(char *) malloc((strlen(name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the graphics name.");
return NULL;
} else {
strcpy(self->graphics_name, name);
strcpy(self->graphics_type, "Yxvsx");
sprintf(buf, "Default graphics method 'Yxvsx' now set to GYx_%s", self->graphics_name);
pyoutput(buf, 0);
}
} else {
PyErr_SetString(PyExc_TypeError, "Incorrect primary element name. Element name must be \n 'template' or one of the graphics methods.");
return NULL;
}
/* Setup the VCS display to show the plot on the VCS Canvas. */
/* Update the display if necessary */
/* DNW have to work on the display link list
ier = python_display(self->a_name, self->template_name,
self->graphics_type, self->graphics_name,
self->display_name);
*/
}
/* Return null python object */
Py_INCREF(Py_None);
return Py_None;
}
/* Set the default plotting region for variables that have more
* dimension values than the graphics method. This will also be
* used for animating plots over the third and fourth dimensions.
*/
static PyObject *
PyVCS_plotregion(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int argc,i,j=0,k=0,skip,first,missing_end=0;
char buf[100], *str;
PyObject *obj;
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Parse the input argument string */
if (args == NULL) { /* check for no input */
PyErr_SetString(PyExc_TypeError, "No arguments given.");
return NULL;
} else if (!PyTuple_Check (args)) { /* check to see if it's Tuple */
PyErr_SetString(PyExc_TypeError, "Arguments are incorrect.");
return NULL;
} else {
sprintf(buf, "Error - Incorrect argument.\n");
argc = PyTuple_Size (args); /* get the number of arguments */
if (argc == 0) { /* check for no input */
PyErr_SetString(PyExc_TypeError, "No arguments given.");
return NULL;
}
first = 1;
for (i = 0; i < argc; i++) {
skip = 0;
obj = PyTuple_GetItem (args, i); /* get argument */
if(PyString_Check(obj)) { /*check for ':' or '*' wildcards*/
if (missing_end)
goto stop;
str = PyString_AsString(obj);
if ((strcmp(str, ":") == 0) || (strcmp(str, "*") == 0)) {
skip = 1;
++j;
++k;
} else {
PyErr_SetString(PyExc_TypeError, "Missing end value.");
return NULL;
}
}
if (!skip) {
if (first) {
first = 0;
missing_end = 1;
if(PyInt_Check(obj)) { /* check for integer */
index_s[j] = (int) PyInt_AsLong(obj);
} else if(PyFloat_Check(obj)) { /* check for float */
index_s[j] = (int) PyFloat_AsDouble(obj);
} else {
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
j++;
} else {
first = 1;
missing_end = 0;
if(PyInt_Check(obj)) { /* check for integer */
index_e[k] = (int) PyInt_AsLong(obj);
} else if(PyFloat_Check(obj)) { /* check for float */
index_e[k] = (int) PyFloat_AsDouble(obj);
} else {
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
k++;
}
}
}
}
stop: if (missing_end) {
index_s[(j-1)] = -1;
PyErr_SetString(PyExc_TypeError, "Missing end value.");
return NULL;
}
/* Return null python object */
Py_INCREF(Py_None);
return Py_None;
}
/* Set the plotting region to default values. */
static PyObject *
PyVCS_resetplotregion(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int i;
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Reset the default plot region */
for (i=0; i<CU_MAX_VAR_DIMS; i++) {
index_s[i] = -1;
index_e[i] = -1;
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
char *
get_background(template,type,graphics,background)
char * *template;
char * *type;
char * *graphics;
char * background;
{
char *rstr=NULL;
if ( (*template != NULL) && (strcmp(*template,"bg")==0) ) {
rstr = (char *) malloc(strlen(*template) + 1);
strcpy(rstr,*template);
*template = NULL;
} else if ( (*type != NULL) && (strcmp(*type,"bg")==0) ) {
rstr = (char *) malloc(strlen(*type) + 1);
strcpy(rstr,*type);
*type = NULL;
} else if ( (*graphics != NULL) && (strcmp(*graphics,"bg")==0) ) {
rstr = (char *) malloc(strlen(*graphics) + 1);
strcpy(rstr,*graphics);
*graphics = NULL;
} else if ( (background != NULL) && (strcmp(background,"bg")==0) ) {
rstr = (char *) malloc(strlen(background) + 1);
strcpy(rstr,background);
}
return rstr;
}
void get_min_max_from_data(int which_slab, float *min, float *max)
{
VCSCANVASLIST_LINK vptr=head_canvas_list;
int i, len=1;
int *idata;
float *fdata;
*min=1.e20;
*max=-1.e20;
/*
if (vptr->slab->descr->type == 102) {
if (which_slab == 0) {
if (vptr->slab == NULL) return;
for (i=0; i<vptr->slab->nd; i++)
len*=vptr->slab->dimensions[i];
fdata=(float *)vptr->slab->data;
for (i=0; i<len; i++) {
if (fdata[i] != (float) vptr->slab->missing) {
*min=(fdata[i] < *min)? fdata[i] : *min;
*max=(fdata[i] > *max)? fdata[i] : *max;
}
}
} else {
if (vptr->slab2 == NULL) return;
for (i=0; i<vptr->slab2->nd; i++)
len*=vptr->slab2->dimensions[i];
fdata=(float *)vptr->slab2->data;
for (i=0; i<len; i++) {
if (fdata[i] != (float) vptr->slab2->missing) {
*min=(fdata[i] < *min)? fdata[i] : *min;
*max=(fdata[i] > *max)? fdata[i] : *max;
}
}
}
} else {
if (which_slab == 0) {
if (vptr->slab == NULL) return;
for (i=0; i<vptr->slab->nd; i++)
len*=vptr->slab->dimensions[i];
idata=(int *)vptr->slab->data;
for (i=0; i<len; i++) {
if (idata[i] != (int) vptr->slab->missing) {
*min=(idata[i] < *min)? idata[i] : *min;
*max=(idata[i] > *max)? idata[i] : *max;
}
}
} else {
if (vptr->slab2 == NULL) return;
for (i=0; i<vptr->slab2->nd; i++)
len*=vptr->slab2->dimensions[i];
idata=(int *)vptr->slab2->data;
for (i=0; i<len; i++) {
if (idata[i] != (int) vptr->slab2->missing) {
*min=(idata[i] < *min)? idata[i] : *min;
*max=(idata[i] > *max)? idata[i] : *max;
}
}
}
}
*/
}
void set_animation_graphics_method(char *g_name)
{
static PyArrayObject *slab=NULL,*slab2=NULL;
VCSCANVASLIST_LINK vptr=head_canvas_list;
static char hold_g_name[100]; /* Hold animation graphics name */
if (strcmp(g_name,"") == 0) {
strcpy(vptr->graphics, hold_g_name);
/*
vptr->slab = slab;
vptr->slab2 = slab2;
*/
} else {
strcpy(hold_g_name, vptr->graphics);
strcpy(vptr->graphics, g_name);
/*
slab = vptr->slab;
slab2 = vptr->slab2;
*/
}
}
void free_animation_list()
{
VCSCANVASLIST_LINK tvptr,vptr;
/* Remove the canvas link list information used for animation */
tvptr=vptr=head_canvas_list;
while (tvptr != NULL) {
tvptr = vptr->next;
free((char *) vptr);
vptr = tvptr;
}
head_canvas_list = NULL;
}
/*
* Draw the data (or arrayobject) in the VCS Canvas. If no data is given,
* then an error is returned. The template and graphics method are optional.
* If the template or graphics method are not given, then the default
* settings will be used. See the PyVCS_set routine to set the template
* and graphics method.
*/
/*
* This routine expects slabs to be CDMS TransientVariable objects, floating point type.
*/
PyObject *
PyVCS_plot(PyVCScanvas_Object *self, PyObject *args)
{
PyObject *hold, *slab=NULL, *hold2, *slab2=NULL;
PyObject *cuslab_name;
PyThreadState *_save;
XWindowAttributes xwa;
VCSCANVASLIST_LINK tptr=NULL, vptr=head_canvas_list;
canvas_display_list *cdptr, *tcdptr;
char *template, *graphics, *type, *bgopt;
char template2[100], graphics2[100], type2[100];
/* static char template3[100], graphics3[100], type3[100]; */
char buf[MAX_NAME],d_name[MAX_NAME], a_name[6][17];
char s_name[2][MAX_NAME];
int i, ier, rank, rank2, *shape, *shape2;
int map_state=IsUnmapped,doing_animation = 0;
/* struct a_tab *ptab; */
/* static PyVCScanvas_Object *save_self=NULL; */
extern struct a_tab A_tab;
struct p_tab *ttab;
extern struct p_tab Pic_tab;
void put_slab_in_VCS_data_struct();
int slabRank(),slabShape();
int graphics_num_of_dims();
int set_plot_minmax();
extern int python_display();
extern void store_display_name();
extern void deactivate_all_other_wksts();
extern Pixmap copy_pixmap();
extern struct orientation Page;
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if self and args are NULL. If so, then
* the routine was called from animation. If called from animation,
* then use static values that were set for self and slab.
*/
if ((self == NULL) && (args == NULL)) {
/* The animation cannot remember previous data displayed on past
* VCS Canvases. The user must reload the plot image in order to
* animation on previous plots.
*/
doing_animation = 1;
_save = PyEval_SaveThread();
Py_BLOCK_THREADS
if (vptr == NULL) {
PyErr_SetString(VCS_Error, "The VCS animation cannot remember data displayed on a past canvas. You must redisplay the plot the canvas in order to animate it.");
return NULL;
}
an_loop:
/* Point to the correct structure */
while (connect_id.drawable != vptr->connect_id.drawable)
vptr = vptr->next;
if (vptr == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
self = vptr->self;
slab = vptr->slab;
slab2 = vptr->slab2;
strcpy(template2, vptr->template);
strcpy(graphics2, vptr->graphics);
strcpy(type2, vptr->type);
/* DUBOIS - is this right? this is what old code did in effect */
self->background = NULL;
} else {
/* Get slab and primary attributes. */
if(!PyArg_ParseTuple(args,"OOssss",
&hold, &hold2,&template,&type,&graphics,&bgopt)) {
return NULL;
}
if (strcmp(bgopt,"bg")==0) {
self->background = bgopt;
} else {
self->background = NULL;
}
if (hold == Py_None)
slab = NULL;
else
slab = hold;
if (hold2 == Py_None)
slab2 = NULL;
else
slab2 = hold2;
if ( ((slab == NULL) || (!slabCheck(slab))) &&
(cmpncs(type, "continents") != 0) &&
(cmpncs(type, "line") != 0) &&
(cmpncs(type, "marker") != 0) &&
(cmpncs(type, "fillarea") != 0) &&
(cmpncs(type, "text") != 0) ) {
PyErr_SetString(VCS_Error, "Array must be a CDMS TransientVariable.");
return NULL;
}
if (self == NULL) {
PyErr_SetString(VCS_Error, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
strcpy(template2, template);
ier = graphics_num_of_dims(type, 0,1);
if (ier == -1) {
pyoutput("Error - Unknown graphics method.", 1);
pyoutput(type, 1);
pyoutput("CDAT will use default graphics method boxfill.",1);
strcpy(type2, "boxfill");
} else {
strcpy(type2, type);
}
if (((cmpncs(type2, "Vector") == 0) || (cmpncs(type2, "Scatter") == 0) ||
(cmpncs(type2, "XvsY") == 0)) && ((slab2 == NULL) ||
(!slabCheck(slab2)))) {
PyErr_SetString(VCS_Error, "Array must be a CDMS TransientVariable for second input.");
return NULL;
}
strcpy(graphics2, graphics);
/* Create the canvas link list */
if((tptr=(VCSCANVASLIST_LINK)malloc(sizeof(VCSCANVASLIST)))==NULL){
PyErr_SetString(VCS_Error, "Can not create 'VCS Canvas Link List'!");
return NULL;
}
/* Save VCS Canvas info in structure. This is needed for
* animation.
*/
/* DUBOIS -- shouldn't there be some incref'ing here ? */
tptr->self = self;
tptr->slab = slab;
self->frame_count = 0; /* New data then new animation frame count */
if (slab != NULL) Py_INCREF(slab);
tptr->slab2 = slab2;
if (slab2 != NULL) Py_INCREF(slab2);
strcpy(tptr->template, template2);
strcpy(tptr->graphics, graphics2);
strcpy(tptr->type, type2);
tptr->next = NULL;
/* Link structure in list */
if (vptr == NULL)
head_canvas_list = tptr;
else {
while (vptr->next != NULL)
vptr = vptr->next;
vptr->next = tptr;
}
}
heartbeat("template name %s", template2);
heartbeat("graphics method %s", type2);
heartbeat("graphics option %s", graphics2);
/* Find a unique plot name in VCS data table. Always put new slab
* into the VCS data table. Only clear when the user selects the
* clear button.
*/
s_name[0][0] = '\0';
s_name[1][0] = '\0';
if (slab != NULL) { /* do the same for the second slab, if needed */
sprintf(s_name[0], "plot_%d", namecount);
heartbeat("Slab name set to %s", s_name[0]);
++namecount; /* for unique plot name */
cuslab_name = PyString_FromString(s_name[0]);
if(!cuslab_name) {
PyErr_SetString(PyExc_RuntimeError, "Cannot create slab name.");
return NULL;
}
/* DUBOIS -- we set an attribute in the input; necessary? */
if(PyObject_SetAttrString(slab, "cuslab_name", cuslab_name) == -1) {
PyErr_SetString(PyExc_RuntimeError, "Cannot set slab name.");
Py_DECREF(cuslab_name);
return NULL;
}
Py_DECREF(cuslab_name);
}
if (slab2 != NULL) { /* do the same for the second slab, if needed */
sprintf(s_name[1], "plot_%d", namecount);
heartbeat("Slab2 name set to %s", s_name[0]);
++namecount; /* for unique plot name */
cuslab_name = PyString_FromString(s_name[1]);
if(!cuslab_name) {
PyErr_SetString(PyExc_RuntimeError, "Cannot create slab2 name.");
return NULL;
}
if(PyObject_SetAttrString(slab2, "cuslab_name", cuslab_name) == -1) {
PyErr_SetString(PyExc_RuntimeError, "Cannot set slab2 name.");
Py_DECREF(cuslab_name);
return NULL;
}
Py_DECREF(cuslab_name);
}
/* Put the slab and its information into VCS's data table with
* a 'c' followed by it to indicate that it is a computed value.
* (e.g., psl (3D)c).
*/
if (slab != NULL) {
heartbeat("%s", "Putting slab 1");
slabCheck(slab); /* Temporary bug fix for animation. Without this command, no animation frames are produced. */
put_slab_in_VCS_data_struct(slab, type2, s_name[0], self->frame_count, doing_animation, 1);
if ((self == NULL) && (args == NULL) && (slab != NULL)) Py_DECREF(slab);
}
if (slab2 != NULL) { /* do the same for the second slab, if needed */
slabCheck(slab2);
heartbeat("%s", "Putting slab 2");
if (cmpncs(type2, "meshfill")==0) /* meshfill needs special care for dimensions agreement */
{
shape=(int *)slabShape(slab);
shape2=(int *)slabShape(slab2);
rank=slabRank(slab);
rank2=slabRank(slab2);
if (shape2[rank2-2]!=2)
{
PyErr_SetString(PyExc_RuntimeError, "slab2 2nd to last dimension must be of length 2");
return NULL;
}
for (i=0;i<rank2-2;i=i+1)
{
/* printf("rank, rank2, i, shape[i], shape2[i] %i, %i, %i, %i, %i\n",rank,rank2,i,shape2[rank2-i-3],shape[rank-i-1]); */
if (shape2[rank2-i-3]!=shape[rank-1])
{
PyErr_SetString(PyExc_RuntimeError, "slab and slab2 shapes not compatible ");
return NULL;
}
}
if (rank!=rank2-2)
{
/* mesh is not repeating itself for ever and ever after using a copy for extra dims !*/
put_slab_in_VCS_data_struct(slab2,type2, s_name[1], self->frame_count, doing_animation, 2);
}
else
{
put_slab_in_VCS_data_struct(slab2,type2, s_name[1], self->frame_count, doing_animation, 2);
}
}
else
{
put_slab_in_VCS_data_struct(slab2,type2, s_name[1], self->frame_count, doing_animation, 2);
}
if(PyErr_Occurred()) return NULL;
if ((self == NULL) && (args == NULL) && (slab2 != NULL)) Py_DECREF(slab2);
}
/* Check to see if the template name is in the template table.
* If not, then use the default setting.
*/
ttab=&Pic_tab;
while ((ttab != NULL)&&(strcmp(ttab->name,template2) != 0)) {
ttab=ttab->next;
}
if (ttab == NULL) {
if (self->template_name != NULL)
free((char *) self->template_name);
if ((self->template_name =
(char *) malloc((strlen("default")+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(VCS_Error, "No memory for the template name.");
return NULL;
} else {
strcpy(self->template_name, "default");
strcpy(template2, "default");
sprintf(buf,"'Template' is currently set to P_%s.\n", self->template_name);
/*pyoutput(buf,0);*/
}
}
/* Check to see if the graphics name is in the graphics table.
* If not, then use the default setting.
*/
heartbeat("VCS_plot progress report %s", s_name[0])
if (slab != NULL) {
/* Set the array names from the slab name. *
strncpy(self->a_name[0], s_name[0], 17);*/
/* Create a unique display name from the slab name */
sprintf(d_name, "dpy_%s", s_name[0]);
} else { /* must be a continents plot, so set d_name manually */
/* Create a unique display name from the slab name */
sprintf(d_name, "dpy_cont%d", namecount);
++namecount; /* for unique plot name */
}
/* Create a display name structure for linked list */
cdptr = (canvas_display_list *)malloc(sizeof(canvas_display_list));
if ((cdptr->display_name = (char *) malloc((
strlen(d_name)+1)*sizeof(char)+1)) == NULL) {
pyoutput("Error - No memory for the display name.", 1);
} else {
strcpy(cdptr->display_name, d_name);
}
if (doing_animation != 1)
strcpy(tptr->d_name, d_name); /* Store d_name in animation structure */
heartbeat("VCS_plot progress report d_name %s", d_name)
cdptr->next = NULL;
if (self->dlist == NULL)
self->dlist = cdptr;
else {
tcdptr = self->dlist;
while (tcdptr->next != NULL)
tcdptr = tcdptr->next;
tcdptr->next = cdptr;
}
heartbeat("VCS_plot progress report 2 d_name %s", d_name)
if ((self->connect_id.display != NULL) &&
(self->connect_id.drawable != 0)) {
XGetWindowAttributes(self->connect_id.display,
self->connect_id.drawable, &xwa);
map_state = xwa.map_state;
}
/* If the VCS Canvas is not open, then open it for the 1st time */
if (self->background == NULL) {
heartbeat("VCS_plot progress report 3 d_name %s", d_name)
if (self->connect_id.canvas_drawable == 0) {
heartbeat("VCS_plot progress report 4 d_name %s", d_name)
PyVCS_open(self, args);
heartbeat("VCS_plot progress report 5 d_name %s", d_name)
}
/* Make sure the VCS canvas is viewable. */
else if (map_state != IsViewable) {
heartbeat("VCS_plot progress report 6 d_name %s", d_name)
PyVCS_open(self, args);
heartbeat("VCS_plot progress report 7 d_name %s", d_name)
}
/* If the VCS canvas has been created but closed, then open it */
else if (self->virgin == 2) {
heartbeat("VCS_plot progress report 8 d_name %s", d_name)
PyVCS_open(self, args);
heartbeat("VCS_plot progress report 9 d_name %s", d_name)
}
heartbeat("VCS_plot progress report 10 d_name %s", d_name)
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/* Must have display name for the VCS Canvas needs. That is, it
* is needed for canvas resize and refresh.
*/
heartbeat("VCS_plot progress report before store d_name %s", d_name)
store_display_name(self->connect_id, d_name);
heartbeat("VCS_plot progress report after store d_name %s", d_name)
} else {
Wkst[0].id = 2; /* cgm workstation */
}
deactivate_all_other_wksts(Wkst[0].id);
/* Save the connection ID for the animation loop (malloc'ed above) */
if (tptr != NULL)
tptr->connect_id = connect_id;
/* Set the graphics method's minimum and maximum values and
* extensions.
set_plot_minmax(self, type2, graphics2, namecount);
*/
/* Setup the VCS display to show the plot on the VCS Canvas. */
if (slab != NULL)
strcpy(a_name[0], s_name[0]);
if (slab2 != NULL)
strcpy(a_name[1], s_name[1]);
heartbeat("before call python_display %s", d_name)
/* To ensure the full completion of the plot, we have to grab the pointer
and keyboard and give it to the VCS Canvas. *
*
* I need this commented out or the Template editor will
* seg fault on Linux 9.x platforms.
*
if ((self->connect_id.display != NULL) && (self->connect_id.drawable != 0)) {
XSync(self->connect_id.display,FALSE);
XGrabPointer(self->connect_id.display, self->connect_id.drawable, True, 0,
GrabModeSync, GrabModeAsync, None, None, (Time) CurrentTime);
XSync(self->connect_id.display,FALSE);
XGrabKeyboard(self->connect_id.display, self->connect_id.drawable, True,
GrabModeSync, GrabModeAsync, (Time) CurrentTime);
XSync(self->connect_id.display,FALSE);
}
*/
/* Display the plot on the VCS Canvas */
if (self->orientation == 0 ) /* Set the page orientation before plotting */
strcpy(Page.page_orient,"landscape");
else
strcpy(Page.page_orient,"portrait");
ier = python_display(a_name, template2, type2, graphics2, d_name);
if (self->connect_id.display != NULL) {
XSync(self->connect_id.display,FALSE);
XFlush(self->connect_id.display);
}
/* Okay! Release the pointer and keyboard *
if ((self->connect_id.display != NULL) && (self->connect_id.drawable != 0)) {
XSync(self->connect_id.display,FALSE);
XUngrabPointer(self->connect_id.display, (Time) CurrentTime);
XSync(self->connect_id.display,FALSE);
XUngrabKeyboard(self->connect_id.display, (Time) CurrentTime);
XSync(self->connect_id.display,FALSE);
}
*/
heartbeat("after call python_display %s", d_name)
/* copy the current VCS canvas to the pixmap (i.e., backing_store) */
if (self->background == NULL) {
if (self->connect_id.canvas_pixmap != (Pixmap) NULL) {
XFreePixmap(self->connect_id.display, self->connect_id.canvas_pixmap);
self->connect_id.canvas_pixmap = (Pixmap) NULL;
}
self->connect_id.canvas_pixmap = copy_pixmap(self->connect_id, self->canvas_id);
}
/*DEAN - 9/06/06 if ((doing_animation == 1) && (vptr->next == NULL)) {*/
if (doing_animation == 1) {
Py_UNBLOCK_THREADS
PyEval_RestoreThread(_save);
++self->frame_count;
} else if ((doing_animation == 1) && (vptr->next != NULL)) {
vptr = vptr->next;
goto an_loop;
}
if (self->connect_id.display != NULL) {
XSync(self->connect_id.display,FALSE);
XFlush(self->connect_id.display);
}
if ( (doing_animation == 1) && (self->gui == 1) )
update_gui_canvas_counter(self );
return Py_BuildValue("s",d_name);
}
static PyObject *
PyVCS_savecontinentstype(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int cont_type;
/* Save the continent's type for resize */
if(!PyArg_ParseTuple(args, "i", &cont_type)) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide a continents number 0 through 11.");
return NULL;
} else {
self->savecontinents = cont_type;
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Set the default continents. One has the option of using continental maps
* that are predefined or that are user-defined. Predefined continental maps
* are either internal to VCS or are specified by external files. User-defined
* continental maps are specified by additional external files that must be
* read as input.
*/
static PyObject *
PyVCS_setcontinentstype(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int cont_type;
extern struct default_continents Dc;
if(!PyArg_ParseTuple(args, "i", &cont_type)) {
PyErr_SetString(PyExc_TypeError, "Error - Must provide a continents number 0 through 11.");
return NULL;
} else {
if ((cont_type < 0) || (cont_type > 12)) cont_type = 1;
Dc.selected = cont_type; /* Change the setting of the continent's type */
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Get the default continents type.
*/
static PyObject *
PyVCS_getcontinentstype(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
extern struct default_continents Dc;
/* Return the continents type */
return Py_BuildValue("i",Dc.selected);
}
/* Set up the default VCS minimum and maximum values. That is, no matter
* what the data's minimum and maximum values are they will be set to
* the given value. If the underflow extension is set to 1, then the
* underflow arrow will be shown on the plot. If the overflow extension
* is set to 1, the overflow arrow will shown of on the plot.
* Must specify at least the minimum and maximum values.
*/
static PyObject *
PyVCS_setminmax(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
PyObject *obj;
int ier, i, argc, y;
char buf[1024];
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
self->vcs_min = 1e20; self->vcs_max = -1e20;
self->vcs_ext1 = 0, self->vcs_ext2 = 0;
/* Parse the input argument string */
if (args == NULL) { /* check for no input */
sprintf(buf, "Info - No arguments given. %d - VCS Canvas wil use\n minimum and maximum values obtained from the data.", self->canvas_id);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
} else if (!PyTuple_Check (args)) { /* check to see if it's Tuple */
PyErr_SetString(PyExc_TypeError, "Arguments are incorrect.");
return NULL;
} else { /* get the minimum, maximum, and extension values */
argc = PyTuple_Size (args); /* get the number of arguments */
if (argc == 0) { /* check for no input */
sprintf(buf, "Info - No arguments given. %d - VCS Canvas will use\n minimum and maximum values obtained from the data.", self->canvas_id);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
} else if (argc == 1) { /* check for only one input */
sprintf(buf, "Info - Not enough arguments given. %d - VCS Canvas will\n use minimum and maximum values obtained from the data.", self->canvas_id);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
for (i = 0; i < argc; i++) {
obj = PyTuple_GetItem (args, i); /* get argument */
if(PyInt_Check(obj)) { /* check for integer */
if (i == 0)
self->vcs_min = (double) PyInt_AsLong(obj);
else if (i == 1)
self->vcs_max = (double) PyInt_AsLong(obj);
else if (i == 2)
self->vcs_ext1 = (int) PyInt_AsLong(obj);
else if (i == 3)
self->vcs_ext2 = (int) PyInt_AsLong(obj);
} else if(PyFloat_Check(obj)) { /* check for float */
if (i == 0)
self->vcs_min = (double) PyFloat_AsDouble(obj);
else if (i == 1)
self->vcs_max = (double) PyFloat_AsDouble(obj);
else if (i == 2)
self->vcs_ext1 = (int) PyFloat_AsDouble(obj);
else if (i == 3)
self->vcs_ext2 = (int) PyFloat_AsDouble(obj);
} else {
if (i == 0)
sprintf(buf, "Error - Incorrect minimum argument. Using minimum value from data.");
else if (i == 1)
sprintf(buf, "Error - Incorrect maximum argument. Using maximum value from data.");
else if (i == 2)
sprintf(buf, "Error - Incorrect underflow argument. Will not display underflow arrow on plot.");
else if (i == 3)
sprintf(buf, "Error - Incorrect overflow argument. Will not display overflow arrow on plot.");
pyoutput(buf, 1);
}
}
}
if (self->vcs_min == 1e20)
sprintf(buf,
"Info - %d. - VCS Canvas default minimum value will be set by the data.", self->canvas_id);
else
sprintf(buf, "Info - %d. - VCS Canvas default minimum value is set to %g.", self->canvas_id, self->vcs_min);
pyoutput(buf, 1);
if (self->vcs_max == -1e20)
sprintf(buf,
"Info - %d. - VCS Canvas default maximum value will be set by the data.", self->canvas_id);
else
sprintf(buf, "Info - %d. - VCS Canvas default maximum value is set to %g.", self->canvas_id, self->vcs_max);
pyoutput(buf, 1);
if (self->vcs_ext1 == 0)
sprintf(buf,
"Info - %d. - VCS Canvas underflow extension is not set.", self->canvas_id);
else
sprintf(buf,
"Info - %d. - VCS Canvas underflow arrow will be displayed.", self->canvas_id);
pyoutput(buf, 1);
if (self->vcs_ext2 == 0)
sprintf(buf,
"Info - %d. - VCS Canvas overflow extension is not set.", self->canvas_id);
else
sprintf(buf,
"Info - %d. - VCS Canvas overflow arrow will be displayed.", self->canvas_id);
pyoutput(buf, 1);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* This routine will allow Python the ability to read in a VCS script.
* This is handy when working with the VCS interface and CDAT.
*/
static PyObject *
PyVCS_scriptrun(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *vcs_script=NULL;
char buf[1024];
int tmp = -99, ier;
extern int procRun();
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
if(PyArg_ParseTuple(args, "|s", &vcs_script)) {
if ((vcs_script == NULL) || (vcs_script[0] == '\0')) {
PyErr_SetString(PyExc_TypeError, "No VCS script name given.");
return NULL;
} else {
procRun(vcs_script, &tmp);
/* sprintf(buf, "Read VCS script %s.",vcs_script);
pyoutput(buf, 1);*/
}
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* In VCS it is necessary to clear all the graphics from a page. This
* routine will clear all the VCS displays on a page (i.e., the VCS
* Canvas).
*/
PyObject *
PyVCS_clear(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
VCSCANVASLIST_LINK tvptr,vptr;
struct display_tab *dtab;
extern struct display_tab D_tab;
canvas_display_list *cdptr, *tcdptr;
graphics_method_list *gptr, *tgptr;
int i, gnarray;
int graphics_num_of_arrays();
char a_name[6][17];
extern int clear_display();
extern Pixmap copy_pixmap();
extern int clearCanvas();
extern int removeGfb_name();
extern int removeA();
extern void dispatch_the_next_event();
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* DNW - June 1, 2000, this function re-sets the global connect_id which
causes a problem when "x=vcs.init()" is called back-to-back. Also
causes problems when "x.clear()" is called before "x.plot(s)". In
fact, "self" has its own connect_id, so removing the global set to
connect_id is okay. I'll keep watch!
Note: If this doesn't work for any reason, then set a placement holder
for connect_id and restore its value at the end of this routine.
August 17, 2000, put in the if check to test for canvas. If two canvases
were up, then VCS would become confused as to which canvas to clear.
Set up the VCS Canvas and XGKS workstation */
if (self->connect_id.canvas_drawable != 0)
setup_canvas_globals(self);
/* Remove the display from the VCS picture form and
* remove all the data from the VCS data table
*/
cdptr = self->dlist;
while (cdptr != NULL) {
dtab=&D_tab;
while ((dtab != NULL) &&
(strcmp(dtab->name, cdptr->display_name) != 0))
dtab = dtab->next;
if (dtab == NULL) break;/* must have been removed from animation */
gnarray = graphics_num_of_arrays(dtab->type);
for (i=0; i<gnarray; i++)
strcpy(a_name[i], dtab->a[i]);
clear_display(cdptr->display_name);
remove_display_name(self->connect_id, cdptr->display_name); /*remove display name*/
for (i=0; i<gnarray; i++) /*from VCS Canvas info*/
removeA(a_name[i]);
tcdptr = cdptr;
cdptr = cdptr->next;
free((char *) tcdptr->display_name);
free((char *) tcdptr);
}
self->dlist = NULL;
/* Remove the temporary graphics methods used to create set
* minimum and maximum plots.
*/
gptr = self->glist;
while (gptr != NULL) {
tgptr = gptr;
gptr = gptr->next;
if (strcmp(tgptr->g_type, "Boxfill") == 0)
removeGfb_name(tgptr->g_name);
free((char *) tgptr->g_type);
free((char *) tgptr->g_name);
free((char *) tgptr);
}
self->glist = NULL;
/* Remove the canvas link list information used for animation */
tvptr=vptr=head_canvas_list;
while ((vptr != NULL) && (vptr->connect_id.drawable !=
self->connect_id.drawable)) {
tvptr = vptr;
vptr = vptr->next;
}
if ((tvptr != NULL) && (vptr != NULL)) {
while (vptr != NULL) {
tvptr = vptr;
vptr = vptr->next;
if (tvptr->slab != NULL) Py_DECREF(tvptr->slab);
if (tvptr->slab2 != NULL) Py_DECREF(tvptr->slab2);
free((char *) tvptr);
}
head_canvas_list = NULL;
}
/*
* Make sure the VCS canvas is up and running
* before copying the blank canvas to the pixmap backingstore.
if (self->connect_id.drawable != 0) {
* clearCanvas(); * blank the VCS Canvas *
self->connect_id.canvas_pixmap = copy_pixmap(self->connect_id);
}
*/
/* Remove the backing store pixmap */
if ( (self->connect_id.display != NULL) && (self->connect_id.drawable != 0) )
XClearWindow(self->connect_id.display, self->connect_id.drawable);
if (self->connect_id.canvas_pixmap != (Pixmap) NULL) {
/*printf("CLEAR 1: canvas_pixmap %d = %d\n", self->canvas_id, self->connect_id.canvas_pixmap);*/
XFreePixmap(self->connect_id.display, self->connect_id.canvas_pixmap);
/*self->connect_id.canvas_pixmap=create_pixmap(self->connect_id);*/
self->connect_id.canvas_pixmap = (Pixmap) NULL;
/*printf("CLEAR 2: canvas_pixmap %d = %d\n", self->canvas_id, self->connect_id.canvas_pixmap);*/
}
dispatch_the_next_event();
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* In VCS it is necessary to clear all the graphics from a page. This
* routine will clear all the VCS displays that were created during the
* animation process.
*/
void animation_clear()
{
PyVCScanvas_Object *self;
VCSCANVASLIST_LINK tvptr,vptr;
int i, gnarray;
struct display_tab *dtab;
extern struct display_tab D_tab;
canvas_display_list *cdptr, *tcdptr;
int graphics_num_of_arrays();
char a_name[6][17];
char dname[MAX_NAME];
extern int clear_display();
extern int removeA();
/* Called from animation, use static values that were set for self.
*/
vptr=head_canvas_list;
while ((vptr != NULL) && (vptr->connect_id.drawable !=
connect_id.drawable)) {
vptr = vptr->next;
}
if (vptr == NULL) return ;
self = vptr->self;
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/* Remove the display from the VCS picture form and
* remove all the data from the VCS data table
*/
cdptr = self->dlist;
while (cdptr != NULL) {
dtab=&D_tab;
while ((dtab != NULL) &&
(strcmp(dtab->name, cdptr->display_name) != 0))
dtab = dtab->next;
if (dtab != NULL) { /* must have been removed from animation */
gnarray = graphics_num_of_arrays(dtab->type);
for (i=0; i<gnarray; i++)
strcpy(a_name[i], dtab->a[i]);
strcpy(dname, cdptr->display_name);
clear_display(dname);
remove_display_name(vptr->connect_id,cdptr->display_name); /*remove display name*/
for (i=0; i<gnarray; i++) /*from VCS Canvas info*/
removeA(a_name[i]);
}
tcdptr = cdptr;
cdptr = cdptr->next;
free((char *) tcdptr->display_name);
free((char *) tcdptr);
}
self->dlist = NULL;
}
/*
* It is necessary to change the colormap. This routine will change the
* VCS color map. The color map is the same as in VCS. Thus, the user does
* not have to learn something new.
*/
static PyObject *
PyVCS_setcolormap(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *ierr;
char *colormap_name=NULL;
extern char active_colors[]; /*colormap name*/
extern char * python_colormap();
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
if(!PyArg_ParseTuple(args, "s", &colormap_name)) {
PyErr_SetString(PyExc_TypeError, "Incorrect parameter value.");
return NULL;
/*if ((colormap_name == NULL) || (colormap_name[0] == '\0')) {
colormap_name = (char *) malloc(strlen(active_colors)+1);
strcpy(colormap_name,active_colors);
}*/
}
ierr = python_colormap(colormap_name); /* set the new VCS colormap */
if (ierr != NULL) {
PyErr_SetString(PyExc_TypeError, ierr);
return NULL;
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/*
* It is necessary to change the individual color cell in a colormap.
* This routine will not change the color cell of the default colormap.
*/
static PyObject *
PyVCS_setcolorcell(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *ierr;
int cell, r, g, b;
extern char * python_setcolorcell();
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
if(!PyArg_ParseTuple(args, "iiii", &cell, &r, &g, &b)) {
PyErr_SetString(PyExc_TypeError, "Error - Four integer values must be given (i.e., cell index, R, G, and B).");
return NULL;
} else {
if ((cell < 0) || (cell > 239)) {
PyErr_SetString(PyExc_ValueError, "Error - Cell index value must be in range 0 to 239.");
return NULL;
} else if ((r < 0) || (r > 100)) {
PyErr_SetString(PyExc_ValueError, "Error - Red (R) index value must be in range 0 to 100.");
return NULL;
} else if ((g < 0) || (g > 100)) {
PyErr_SetString(PyExc_ValueError, "Error - Green (G) index value must be in range 0 to 100.");
return NULL;
} else if ((b < 0) || (b > 100)) {
PyErr_SetString(PyExc_ValueError, "Error - Blue (B) index value must be in range 0 to 100.");
return NULL;
}
ierr=python_setcolorcell(cell, r, g, b); /* set the new index color cell */
if (ierr != NULL) {
PyErr_SetString(PyExc_TypeError, ierr);
return NULL;
}
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/*
* It is necessary to retrieve the individual color cell (i.e., RGB) in a colormap.
* This routine will return the color cell RGB value in a colormap.
*/
static PyObject *
PyVCS_getcolorcell(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int c, cell;
char buf[1024];
struct color_table *Cptab=NULL;
PyObject *listptr,*R,*G,*B;
extern struct c_val std_color[16];
extern struct color_table C_tab;
extern char active_colors[]; /*colormap name*/
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Return NULL Python Object or Python List */
if(!PyArg_ParseTuple(args, "i", &cell)) {
PyErr_SetString(PyExc_TypeError, "Error - Integer value must be given for the color cell.");
return NULL;
} else {
if ((cell < 0) || (cell > 255)) {
PyErr_SetString(PyExc_ValueError, "Error - Cell index value must be in range 0 to 255.");
return NULL;
}
for(Cptab=&C_tab;Cptab != NULL && (c=strcmp(Cptab->name,active_colors))!=0;
Cptab=Cptab->next);
if (c != 0) {
sprintf(buf,"Cannot find colormap class object Cp_%s.",active_colors);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if (cell < 240) {
R = Py_BuildValue("i", (int) (Cptab->cval[cell].red+0.5));
G = Py_BuildValue("i", (int) (Cptab->cval[cell].green+0.5));
B = Py_BuildValue("i", (int) (Cptab->cval[cell].blue+0.5));
} else {
R = Py_BuildValue("i", (int) (std_color[cell-240].red+0.5));
G = Py_BuildValue("i", (int) (std_color[cell-240].green+0.5));
B = Py_BuildValue("i", (int) (std_color[cell-240].blue+0.5));
}
listptr = PyList_New(3);
PyList_SetItem(listptr, 0, R);
PyList_SetItem(listptr, 1, G);
PyList_SetItem(listptr, 2, B);
return listptr;
}
}
/*
* It is necessary to retrieve the active colormap name.
* This routine will return the active colormap name.
*/
static PyObject *
PyVCS_getcolormapname(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int c, cell;
char buf[1024];
struct color_table *Cptab=NULL;
PyObject *listptr,*R,*G,*B;
extern struct color_table C_tab;
extern char active_colors[]; /*colormap name*/
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
for(Cptab=&C_tab;Cptab != NULL && (c=strcmp(Cptab->name,active_colors))!=0;
Cptab=Cptab->next);
if (c != 0) {
sprintf(buf,"Cannot find colormap class object Cp_%s.",active_colors);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
return Py_BuildValue("s", active_colors);
}
/* To save a graphics plot in CDAT the user can call CGM along with the
* name of the output. This routine will save the displayed image on the
* VCS canvas as a binary vector graphics that can be imported into
* MSWord or Framemaker. CGM files are an ISO standards output format.
*/
static PyObject *
PyVCS_cgm(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *cgm_name, *mode=NULL;
int app=0;
extern int python_cgm();
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/*
* Make sure the VCS canvas is up and running.
* If the VCS Canvas is not open, then return.
*/
if (self->connect_id.display == 0) {
PyErr_SetString(PyExc_TypeError, "VCS Canvas is not displayed.");
return NULL;
}
if (!PyArg_ParseTuple(args, "s|s", &cgm_name, &mode)) {
PyErr_SetString(PyExc_TypeError, "Must provide an output cgm name.");
return NULL;
}
if (strlen(cgm_name) == 0) { /* cgm_name not given */
PyErr_SetString(PyExc_TypeError, "Must provide an output cgm name.");
return NULL;
}
/* Set the cgm write mode to append (1), if mode is "a" or "A". */
if (mode != NULL) {
if (cmpncs(mode, "a") == 0)
app = 1;
}
python_cgm(cgm_name, app, self->connect_id, self->dlist); /* call to create cgm file */
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Charles' attempt at plugging in svg output
*/
static PyObject *
PyVCS_svg(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *ps_name, *mode=NULL;
int app=0;
int W,H;
extern int XW ;
extern int YW ;
int ier;
extern int trimbl();
extern int out_meta();
extern char meta_type[5];
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/*
* Make sure the VCS canvas is up and running.
* If the VCS Canvas is not open, then return.
*/
if (self->connect_id.display == 0) {
PyErr_SetString(PyExc_TypeError, "VCS Canvas is not displayed.");
return NULL;
}
if (!PyArg_ParseTuple(args, "sii", &ps_name, &W, &H)) {
PyErr_SetString(PyExc_TypeError, "Must provide an output ps name.");
return NULL;
}
if (strlen(ps_name) == 0) { /* cgm_name not given */
PyErr_SetString(PyExc_TypeError, "Must provide an output ps name.");
return NULL;
}
XW = W;
YW = H;
strcpy(meta_type,"svg");
trimbl(ps_name,256);
ier = out_meta(ps_name,app, self->connect_id, self->dlist); /* Append or replace svg file */
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Charles' attempt at plugging in png output
*/
static PyObject *
PyVCS_png(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *ps_name, *mode=NULL;
int app=0;
int W,H;
extern int XW ;
extern int YW ;
int ier;
extern int trimbl();
extern int out_meta();
extern char meta_type[5];
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/*
* Make sure the VCS canvas is up and running.
* If the VCS Canvas is not open, then return.
*/
if (self->connect_id.display == 0) {
PyErr_SetString(PyExc_TypeError, "VCS Canvas is not displayed.");
return NULL;
}
if (!PyArg_ParseTuple(args, "sii", &ps_name, &W, &H)) {
PyErr_SetString(PyExc_TypeError, "Must provide an output png name and width/height");
return NULL;
}
if (strlen(ps_name) == 0) { /* cgm_name not given */
PyErr_SetString(PyExc_TypeError, "Must provide an output png name.");
return NULL;
}
XW = W;
YW = H;
strcpy(meta_type,"png");
trimbl(ps_name,256);
ier = out_meta(ps_name,app, self->connect_id, self->dlist); /* Append or replace svg file */
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Charles' attempt at plugging in direct pdf output
*/
static PyObject *
PyVCS_pdf(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *ps_name, *mode=NULL;
int app=0;
int W,H;
extern int XW ;
extern int YW ;
int ier;
extern int trimbl();
extern int out_meta();
extern char meta_type[5];
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/*
* Make sure the VCS canvas is up and running.
* If the VCS Canvas is not open, then return.
*/
if (self->connect_id.display == 0) {
PyErr_SetString(PyExc_TypeError, "VCS Canvas is not displayed.");
return NULL;
}
if (!PyArg_ParseTuple(args, "sii", &ps_name, &W, &H)) {
PyErr_SetString(PyExc_TypeError, "Must provide an output pdf name and width/height");
return NULL;
}
if (strlen(ps_name) == 0) { /* cgm_name not given */
PyErr_SetString(PyExc_TypeError, "Must provide an output png name.");
return NULL;
}
XW = W;
YW = H;
strcpy(meta_type,"pdf");
trimbl(ps_name,256);
ier = out_meta(ps_name,app, self->connect_id, self->dlist); /* Append or replace svg file */
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Charles' attempt at plugging in postscript output
*/
static PyObject *
PyVCS_postscript(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *ps_name, *mode=NULL;
int app=0;
int W,H,T,B,L,R;
extern int XW ;
extern int YW ;
extern int MARGINL;
extern int MARGINT;
extern int MARGINR;
extern int MARGINB;
int ier;
extern int trimbl();
extern int out_meta();
extern char meta_type[5];
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/*
* Make sure the VCS canvas is up and running.
* If the VCS Canvas is not open, then return.
*/
if (self->connect_id.display == 0) {
PyErr_SetString(PyExc_TypeError, "VCS Canvas is not displayed.");
return NULL;
}
if (!PyArg_ParseTuple(args, "siiiiii", &ps_name, &W, &H, &R, &L, &T, &B)) {
PyErr_SetString(PyExc_TypeError, "Must provide an output ps name.");
return NULL;
}
if (strlen(ps_name) == 0) { /* cgm_name not given */
PyErr_SetString(PyExc_TypeError, "Must provide an output ps name.");
return NULL;
}
XW = W;
YW = H;
MARGINL = L;
MARGINR = R;
MARGINT = T;
MARGINB = B;
/* printf("in ps vcs i got %i,%i,%i,%i,%i,%i\n",W,H,L,R,T,B); */
strcpy(meta_type,"ps");
trimbl(ps_name,256);
ier = out_meta(ps_name,app, self->connect_id, self->dlist); /* Append or replace svg file */
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* In some cases, the user may want to save the plot out as an raster
* file. This routine allows the user to save the VCS canvas output as
* a SUN raster file. This file can be converted to other formats with
* the aid of xv and other such image tools found freely on the web.
*/
static PyObject *
PyVCS_raster(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *raster_name=NULL, *mode=NULL;
int app=1;
extern int python_raster();
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/*
* Make sure the VCS canvas is up and running.
* If the VCS Canvas is not open, then return.
*/
if (self->connect_id.drawable == 0) {
PyErr_SetString(PyExc_TypeError, "VCS Canvas is not displayed.");
return NULL;
}
if (!PyArg_ParseTuple(args, "s|s", &raster_name, &mode)) {
PyErr_SetString(PyExc_TypeError, "Must provide an output raster name.");
return NULL;
}
if (strlen(raster_name) == 0) { /* raster_name not given */
PyErr_SetString(PyExc_TypeError, "Must provide an output raster name.");
return NULL;
}
/* Set the raster write mode to replace (0), if mode is "r" or "R". */
if (mode != NULL) {
if (cmpncs(mode, "r") == 0)
app = 0;
}
python_raster(raster_name, app); /* call to create raster file */
/* Return null python object */
Py_INCREF (Py_None);
return Py_None;
}
/*
* This routine allows the user to save the VCS canvas in one of the many
* GhostScript (gs) file types (also known as devices). To view other
* GhostScript devices, issue the command "gs --help" at the terminal
* prompt. Device names include: bmp256, epswrite, jpeg, jpeggray,
* pdfwrite, png256, png16m, sgirgb, tiffpack, and tifflzw. By default
* the device = 'png256'.
*/
static PyObject *
PyVCS_gs(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *file_name=NULL, *device=NULL;
char *orientation=NULL, *resolution=NULL;
char extn[4]={".gs"}, command_str[2048], buf[2048];
char ps_name[]="/tmp/temp_postscript_file.ps";
FILE * pfp;
PyObject *newargs;
PyObject * PyVCS_postscript();
char *gstr=NULL, gif_geom[12]={"72x72"};
int orientation_num=0, merge_num=0,ffd;
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/*
* Make sure the VCS canvas is up and running.
* If the VCS Canvas is not open, then return.
*/
if (self->connect_id.display == 0) {
PyErr_SetString(PyExc_TypeError, "VCS Canvas is not displayed.");
return NULL;
}
if (!PyArg_ParseTuple(args, "s|sss", &file_name, &device, &orientation, &resolution)) {
PyErr_SetString(PyExc_TypeError, "Must provide an output GhostScript file name.");
return NULL;
}
/* Create postscript file, but first create the proper arg list */
/* Removed by C. Doutriaux not needed anymore with new postscript */
/* if (orientation == NULL) */
/* newargs = PyTuple_New(1); */
/* else { */
/* newargs = PyTuple_New(2); */
/* PyTuple_SetItem(newargs, 1, PyString_FromString("r")); /\* get 2nd argument *\/ */
/* /\* PyTuple_SetItem(newargs, 2, PyTuple_GetItem (args, 2)); /\\* get 3rd argument *\\/ *\/ */
/* } */
newargs = PyTuple_New(7);
PyTuple_SetItem(newargs, 0, PyString_FromString(ps_name)); /* get 1st argument */
PyTuple_SetItem(newargs, 1, PyInt_FromLong(612)); /* get 1st argument */
PyTuple_SetItem(newargs, 2, PyInt_FromLong(792)); /* get 1st argument */
PyTuple_SetItem(newargs, 3, PyInt_FromLong(0)); /* get 1st argument */
PyTuple_SetItem(newargs, 4, PyInt_FromLong(0)); /* get 1st argument */
PyTuple_SetItem(newargs, 5, PyInt_FromLong(0)); /* get 1st argument */
PyTuple_SetItem(newargs, 6, PyInt_FromLong(0)); /* get 1st argument */
PyVCS_postscript(self, newargs); /* create postscript file */
/* create the gs command */
sprintf(command_str, "gs -r%s -q -dBATCH -dNOPAUSE -sDEVICE=%s -sOutputFile=%s %s\n", resolution, device, file_name, ps_name);
/* use the popen call to create the gp image */
if ((pfp=popen(command_str,"w")) == NULL)
PyErr_SetString(PyExc_ValueError, "Error - Could not create GIF file.");
else
pclose(pfp);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/*
* In some cases, the user may want to save the file out as a raster or
* a Encapsulated PostScript file. The routine allows the user to save
* the VCS Canvas output as a GIF raster file or an Encapsulated PostScript
* file. These files can be converted to other formats with the aid of xv
* and other such imaging tools found freely on the web.
*/
static PyObject *
PyVCS_gif_or_eps(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char buf[2048], *file_type=NULL, *gp_name=NULL, *merge=NULL;
char *orientation=NULL, *sptr=NULL;
char *gstr=NULL, gif_geom[12]={"72x72"};
char extn[5]={".eps"}, command_str[2048], gp2_name[2048],crap[2048];
char ps_name[]="/tmp/temp_postscript_file.ps";
FILE * pfp;
int orientation_num=0, merge_num=0,ffd;
PyObject *newargs;
PyObject * PyVCS_postscript();
/*extern int python_gif();*/
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/*
* Make sure the VCS canvas is up and running.
* If the VCS Canvas is not open, then return.
*/
if (self->connect_id.display == 0) {
PyErr_SetString(PyExc_TypeError, "VCS Canvas is not displayed.");
return NULL;
}
if (!PyArg_ParseTuple(args, "ss|sss", &file_type, &gp_name, &merge, &orientation, &gstr)) {
PyErr_SetString(PyExc_TypeError, "Must provide an output GIF name.");
return NULL;
}
if (strcmp(file_type, "gif") == 0) /* get file_type */
strcpy(extn,".gif");
else /* must be eps and cannot merge files yet. */
merge_num = 0;
if (strlen(gp_name) == 0) { /* gp_name not given */
PyErr_SetString(PyExc_TypeError, "Must provide an output GIF name.");
return NULL;
}
/* Set the merge flag to 1 if the user wants to append an existing file */
if (merge != NULL) {
if (cmpncs(merge, "A") == 0)
merge_num = 1;
}
/* Set the orientation to portrait. Landscape is the default setting.
* If orientation is "p" or "P", the set to portrait. Anything else
* will set the orientation to Landscape.
*/
if (orientation != NULL) {
if (cmpncs(orientation, "P") == 0)
orientation_num = 1;
}
/* commented out by C. Doutriaux */
/* Not needed anymore with new postscript direct output */
/* call to create postscript file, but first create the proper arg list */
/* if (orientation == NULL) */
/* newargs = PyTuple_New(1); */
/* else { */
/* newargs = PyTuple_New(2); */
/* PyTuple_SetItem(newargs, 1, PyString_FromString("r")); /\* get 2nd argument *\/ */
/* PyTuple_SetItem(newargs, 2, PyTuple_GetItem (args, 3)); /\* get 3rd argument *\/ */
/* } */
newargs = PyTuple_New(7);
PyTuple_SetItem(newargs, 0, PyString_FromString(ps_name)); /* get 1st argument */
PyTuple_SetItem(newargs, 1, PyInt_FromLong(612)); /* get 1st argument */
PyTuple_SetItem(newargs, 2, PyInt_FromLong(792)); /* get 1st argument */
PyTuple_SetItem(newargs, 3, PyInt_FromLong(0)); /* get 1st argument */
PyTuple_SetItem(newargs, 4, PyInt_FromLong(0)); /* get 1st argument */
PyTuple_SetItem(newargs, 5, PyInt_FromLong(0)); /* get 1st argument */
PyTuple_SetItem(newargs, 6, PyInt_FromLong(0)); /* get 1st argument */
PyVCS_postscript(self, newargs);
/* Set the geometry for the gif output only */
if (gstr != NULL)
strcpy( gif_geom, gstr );
sptr = strstr(gp_name, extn);
if (sptr == NULL)
sprintf(buf, "%s%s",gp_name, extn);
else if ((sptr != NULL) && (strcmp(sptr,extn) == 0) )
sprintf(buf, "%s",gp_name);
else
sprintf(buf, "%s%s",gp_name,extn);
strcpy(gp2_name, buf);
if (merge_num == 1) {
ffd = access(buf, F_OK); /* check to see if file exist */
if (ffd != 0) /* The file does not exist! */
merge_num = 0; /* no need to merge if nothing is there */
else
sprintf(buf, "%sa",buf); /* generate the merge file name */
}
/* create the gif command */
if (strcmp(file_type, "gif") == 0) {
if (orientation_num == 0) /* Landscape */
sprintf(command_str, "gs -r%s -q -dBATCH -sDEVICE=ppmraw -sOutputFile=- %s | pnmflip -cw | ppmquant 256 | ppmtogif > %s", gif_geom, ps_name, buf);
else /* Portrait */
sprintf(command_str, "gs -r%s -q -dBATCH -sDEVICE=ppmraw -sOutputFile=- %s | ppmquant 256 | ppmtogif > %s", gif_geom, ps_name, buf);
} else {
/* if (orientation_num == 0) /\* Landscape *\/ */
/* sprintf(command_str, "gs -r%s -q -dBATCH -sDEVICE=ppmraw -sOutputFile=- %s | pnmflip -cw | pnmtops > %s", gif_geom, ps_name, buf); */
/* else /\* Portrait *\/ */
/* sprintf(command_str, "gs -r%s -q -dBATCH -sDEVICE=ppmraw -sOutputFile=- %s | pnmtops > %s", gif_geom, ps_name, buf); */
sprintf(command_str, "ps2epsi %s %s", ps_name, buf);
}
/* This code below, contains the crop portion of the executable.
if (orientation_num == 0) * Landscape *
sprintf(command_str, "gs -r72x72 -q -dBATCH -sDEVICE=ppmraw -sOutputFile=- %s | pnmflip -cw | pnmcrop | pnmtops > %s", ps_name, buf);
else * Portrait *
sprintf(command_str, "gs -r72x72 -q -dBATCH -sDEVICE=ppmraw -sOutputFile=- %s | pnmcrop | pnmtops > %s", ps_name, buf);
*/
/* use the popen call to create the gp image */
if ((pfp=popen(command_str,"w")) == NULL)
PyErr_SetString(PyExc_ValueError, "Error - Could not create GIF file.");
else
{
/* printf("Scanning!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!\n"); */
/* fscanf(pfp,crap); */
/* printf("Closing!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!\n"); */
pclose(pfp);
}
/* Merge gp file */
if (merge_num == 1) {
/*sprintf(command_str, "gifmerge -192,192,192 -notransp -l0 -50 %s %s > %sm", gp2_name, buf, gp2_name);*/
sprintf(command_str, "gifsicle -m -l --delay 15 %s %s > %sm", gp2_name, buf, gp2_name);
if ((pfp=popen(command_str,"w")) == NULL)
PyErr_SetString(PyExc_ValueError, "Error - Could not create GIF file.");
else
pclose(pfp);
/* Remove the old merged gp file from the directory */
sprintf(command_str,"/bin/rm -f %s", gp2_name);
system (command_str);
/* Move the temporaray merged file to the wanted gp name */
sprintf(command_str,"/bin/mv %sm %s", gp2_name, gp2_name);
system (command_str);
/* Remove the temporary merged file from the directory */
sprintf(command_str,"/bin/rm -f %s", buf);
system (command_str);
}
/* Remove the temporary postscript file from the directory */
sprintf(command_str,"/bin/rm -f %s", ps_name);
system (command_str);
sprintf(buf,"%s", gp2_name);
return Py_BuildValue("s", buf);
}
/* Postscript output is another form of vector graphics. It is larger than
* its CGM output counter part because it is stored out as ASCII. To save
* out a postscript file, CDAT (via VCS) will first create a cgm file in
* the user's PCMDI_GRAPHICS directory. Then it will use gplot to convert
* the cgm file to a postscript file in the location the user has
* chosen.
*/
PyObject *
PyVCS_postscript_old(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int ierr, val, orientation_num=0, append_flg=0, ffd, rfd, wfd;
char *append=NULL, *orientation=NULL, *home_dir;
char temp_cgm_file[1024], gplot_str[1024];
char temp_str[2048], command_str[2048], append_str[2048];
char *postscript_filename;
char postscript_file[1024], tpostscript_file[1024], post_extension[10];
extern int python_cgm();
extern int read_HARD_COPY();
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/*
* Make sure the VCS canvas is up and running.
* If the VCS Canvas is not open, then return.
*/
if (self->connect_id.display == 0) {
PyErr_SetString(PyExc_TypeError, "VCS Canvas is not displayed.");
return NULL;
}
if (!PyArg_ParseTuple(args, "s|ss", &postscript_filename, &append, &orientation)) {
PyErr_SetString(PyExc_TypeError, "Must provide an output postscript name.");
return NULL;
}
/* Set the append flag to 1 if the user wants to append an existing file */
if (append != NULL) {
if (cmpncs(append, "A") == 0)
append_flg = 1;
}
/* Set the orientation to portrait. Landscape is the default setting.
* If orientation is "p" or "P", the set to portrait. Anything else
* will set the orientation to Landscape.
*/
if (orientation != NULL) {
if (cmpncs(orientation, "P") == 0)
orientation_num = 1;
}
/* Get the postscript directory and filename */
if (postscript_filename[0] != '/') {
strcpy(postscript_file,"./");
strcat(postscript_file, postscript_filename);
} else
strcpy(postscript_file, postscript_filename);
val = strlen(postscript_file) - 3;
strcpy(post_extension, postscript_file + val);
if (strcmp(post_extension, ".ps") != 0)
strcat(postscript_file, ".ps");
/* Create the CGM file name in the user's PCMDI_GRAPHICS
* directory. If PCMDI_GRAPHICS has not been created, then
* use the user's home directory.
*/
home_dir = (char *) getenv("HOME");
if (home_dir == NULL) {
PyErr_SetString(PyExc_TypeError, "The user's home directory was not found!");
return NULL;
}
sprintf(temp_str, "%s/PCMDI_GRAPHICS", home_dir);
ffd = access(temp_str, F_OK); /* check to see if the */
rfd = access(temp_str, R_OK); /* HARD_COPY file exist */
wfd = access(temp_str, W_OK); /* HARD_COPY file exist */
if (ffd != 0) { /* The file does not exist! */
PyErr_SetString(PyExc_TypeError, "The PCMDI_GRAPHICS directory does not exist!");
return NULL;
}
if (rfd != 0) { /* The file cannot be read! */
PyErr_SetString(PyExc_TypeError, "The PCMDI_GRAPHICS directory can not be read!");
return NULL;
}
if (wfd != 0) { /* The file does not have write permission! */
PyErr_SetString(PyExc_TypeError, "The PCMDI_GRAPHICS directory does not have write permission!");
return NULL;
}
sprintf(temp_cgm_file, "%s/7eilfyraropmetCGM.cgm", temp_str);
python_cgm(temp_cgm_file, 0, self->connect_id, self->dlist); /* call to create cgm file */
/* Must open the HARD_COPY file to obtain the gplot information *
if ((ierr = read_HARD_COPY(gplot_str, orientation_num)) == 1) {
sprintf(temp_str,"/bin/rm -f %s", temp_cgm_file);
system (temp_str);
PyErr_SetString(PyExc_TypeError, "Could read HARD_COPY file.");
return NULL;
}
*/
if (orientation_num == 0) /*Get Landscape*/
strcpy(gplot_str,"gplot -dPSC -r90 -x-1.75 -D -X12.5 -Y10");
else /*Get Portrait*/
strcpy(gplot_str,"gplot -dPSC -D -X10 -Y12.5");
/* Must use system call to convert cgm file to postscript */
strcpy(command_str, gplot_str);
/* Add the CGM file name to the GPLOT command string */
strcat(command_str, " ");
strcat(command_str, temp_cgm_file);
strcat(command_str, " ");
if (append_flg == 1) {
sprintf(tpostscript_file, "%st", postscript_file);
strcat(command_str, tpostscript_file);
} else
strcat(command_str, postscript_file);
/* Convert the CGM file to Postscript and save in file */
if ((ierr = system (command_str)) == 0) {
sprintf(temp_str,"/bin/rm -f %s", temp_cgm_file);
system (temp_str);
sprintf(temp_str, "Error - Could not create postscript file (%s).", temp_cgm_file);
PyErr_SetString(PyExc_TypeError, temp_str);
return NULL;
}/* else {
sprintf(temp_str,"Saving - Postscript file (%s).",postscript_file);
pyoutput( temp_str, 1);
}*/
if (append_flg == 1) {
sprintf(append_str, "cat %s >> %s\n", tpostscript_file, postscript_file);
if ((ierr = system (append_str)) == 1) {
sprintf(append_str, "ierr = %d: cp %s %s", ierr, tpostscript_file, postscript_file);
system (append_str);
}
sprintf(append_str, "/bin/rm -f %s", tpostscript_file);
system (append_str);
}
/* Remove the temporaray CGM file in the user's PCMDI_GRAPHICS
* directory.
*/
sprintf(command_str,"/bin/rm -f %s", temp_cgm_file);
system (command_str);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* This function creates a temporary cgm file and then sends it to the
* specified printer. Once the printer received the information, then the
* temporary cgm file is deleted. The temporary cgm file is created in the
* user's PCMDI_GRAPHICS directory.
*/
static PyObject *
PyVCS_printer(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int ierr, val, orientation_num=0, ffd, rfd, wfd;
char *printer_name, *orientation=NULL;
char temp_cgm_file[1024], gplot_str[1024];
char temp_str[2048], command_str[2048];
char printer_type_str[1024];
char *printer_type, *home_dir;
char postscript_file[1024], post_extension[10];
extern int read_HARD_COPY();
int W,H,T,B,L,R;
extern int XW ;
extern int YW ;
extern int MARGINL;
extern int MARGINT;
extern int MARGINR;
extern int MARGINB;
int ier;
extern int trimbl();
extern int out_meta();
extern char meta_type[5];
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/*
* Make sure the VCS canvas is up and running.
* If the VCS Canvas is not open, then return.
*/
if (self->connect_id.drawable == 0) {
PyErr_SetString(PyExc_TypeError, "VCS Canvas is not displayed.");
return NULL;
}
if (!PyArg_ParseTuple(args, "siiiiii", &printer_name, &W, &H, &R, &L, &T, &B)) {
PyErr_SetString(PyExc_TypeError, "Must provide printer name.");
return NULL;
}
/* Get the correct UNIX printer command for ATT or BSD */
strcpy(printer_type_str, " | lp -d");
if ((printer_type=(char *)getenv((const char *)"PRINTER"))!=NULL)
strcpy(printer_type_str, " | lpr -P");
/* Set the orientation to portrait. Landscape is the default setting.
* If orientation is "p" or "P", the set to portrait. Anything else
* will set the orientation to Landscape.
*/
if (orientation != NULL) {
if (cmpncs(orientation, "P") == 0)
orientation_num = 1;
}
/* Create the CGM file name in the user's PCMDI_GRAPHICS
* directory. If PCMDI_GRAPHICS has not been created, then
* use the user's home directory.
*/
home_dir = (char *) getenv("HOME");
if (home_dir == NULL) {
PyErr_SetString(PyExc_TypeError, "The user's home directory was not found!");
return NULL;
}
sprintf(temp_str, "%s/PCMDI_GRAPHICS", home_dir);
ffd = access(temp_str, F_OK); /* check to see if the */
rfd = access(temp_str, R_OK); /* HARD_COPY file exist */
wfd = access(temp_str, W_OK); /* HARD_COPY file exist */
if (ffd != 0) { /* The file does not exist! */
PyErr_SetString(PyExc_TypeError, "The PCMDI_GRAPHICS directory does not exist!");
return NULL;
}
if (rfd != 0) { /* The file cannot be read! */
PyErr_SetString(PyExc_TypeError, "The PCMDI_GRAPHICS directory can not be read!");
return NULL;
}
if (wfd != 0) { /* The file does not have write permission! */
PyErr_SetString(PyExc_TypeError, "The PCMDI_GRAPHICS directory does not have write permission!");
return NULL;
}
sprintf(temp_cgm_file, "%s/7eilfyraropmetCGM.ps", temp_str);
/* python_cgm(temp_cgm_file, 0, self->connect_id, self->dlist); /\* call to create cgm file *\/ */
XW = W;
YW = H;
MARGINL = L;
MARGINR = R;
MARGINT = T;
MARGINB = B;
strcpy(meta_type,"ps");
trimbl(temp_cgm_file,256);
ier = out_meta(temp_cgm_file,0, self->connect_id, self->dlist); /* Append or replace svg file */
/* Must open the HARD_COPY file to obtain the gplot information *
if ((ierr = read_HARD_COPY(gplot_str, orientation_num)) == 1) {
sprintf(temp_str,"/bin/rm -f %s", temp_cgm_file);
system (temp_str);
PyErr_SetString(PyExc_TypeError, "Could read HARD_COPY file.");
return NULL;
}
*/
/* strcpy(gplot_str,"gplot -dPSC -D -X10 -Y12.5"); */
/* Must use system call to convert cgm file to postscript */
strcpy(command_str, "more");
/* Add the CGM file name to the GPLOT command string */
strcat(command_str, " ");
strcat(command_str, temp_cgm_file);
strcat(command_str, " 2> /dev/null");
strcat(command_str, printer_type_str);
strcat(command_str, printer_name);
/* Convert the CGM file to Postscript and save in file */
if ((ierr = system (command_str)) != 0) {
sprintf( temp_str, "Error - Could not send VCS Canvas plot(s) to (%s).", printer_name);
pyoutput( temp_str, 0);
}/* else {
sprintf( temp_str, "Printing - VCS Canvas plot(s) sent to printer (%s).", printer_name);
pyoutput( temp_str, 1);
}*/
/* Remove the temporaray CGM file in the user's PCMDI_GRAPHICS
* directory.
*/
sprintf(command_str,"/bin/rm -f %s", temp_cgm_file);
system (command_str);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/*
* This function displays graphics segments, which are currently stored
* in the frame buffer, on the VCS Canvas. That is, if the plot function
* was called with the option bg = 1 (i.e., background mode), then the
* plot is produced in the frame buffer and not visible to the user. In
* order to view the graphics segments, this function will copy the
* contents of the frame buffer to the VCS Canvas, where the graphics
* can be viewed by the user.
*/
int segCompareInt(const void *a, const void *b)
{
return (*(const int *)a) - (*(const int *)b);
}
PyObject *
PyVCS_showbg(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
canvas_display_list *cdptr;
int i, *psg, dct=0, *aseg;
Gintlist pseg;
struct display_tab *dtab;
extern struct display_tab D_tab;
extern Pixmap copy_pixmap();
/* If the VCS Canvas is not open, then open it! */
if (self->connect_id.canvas_drawable == 0)
PyVCS_open(self, args);
cdptr = self->dlist;
while (cdptr != NULL) {
dtab=&D_tab; /* Get the appropriate display */
while ((dtab != NULL) &&
(strcmp(dtab->name, cdptr->display_name) != 0))
dtab = dtab->next;
if (dtab == NULL) break;/* must have been removed from animation */
for (psg=&dtab->F_seg[0];psg != &dtab->dsp_seg[4];psg+=4)
if (*psg > 0) ++dct; /* Get the number of segments */
if ((aseg=(int *)malloc(dct*sizeof(int)))==NULL) { /* malloc the segment array */
PyErr_SetString(PyExc_TypeError, "Error - memory overflow in creating segment array.");
return NULL;
}
dct = 0; /* Store the segments in malloc'ed array */
for (psg=&dtab->F_seg[0];psg != &dtab->dsp_seg[4];psg+=4)
if (*psg > 0) { aseg[dct] = *psg; ++dct; }
qsort(aseg, dct, sizeof(int), segCompareInt); /* Sort the array in ascending order */
for (i = 0; i < dct; i++) { /* Show the segments on the plot */
gcsgwk(self->wkst_id, aseg[i]);
}
free((char *) aseg); /* Free the segment array */
cdptr = cdptr->next;
dct = 0;
}
/* Copy the current VCS canvas to the pixmap (i.e., backing_store) */
if (self->connect_id.canvas_pixmap != (Pixmap) NULL) {
XFreePixmap(self->connect_id.display, self->connect_id.canvas_pixmap);
self->connect_id.canvas_pixmap = (Pixmap) NULL;
}
self->connect_id.canvas_pixmap = copy_pixmap(self->connect_id, self->canvas_id);
/* Return null python object */
Py_INCREF (Py_None);
return Py_None;
}
/* This function creates backing store image that will be displayed when
* the VCS Canvas is brought to the front.
*/
static PyObject *
PyVCS_backing_store(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
extern Pixmap copy_pixmap();
if (self->connect_id.canvas_pixmap != (Pixmap) NULL) {
XFreePixmap(self->connect_id.display, self->connect_id.canvas_pixmap);
self->connect_id.canvas_pixmap = (Pixmap) NULL;
}
self->connect_id.canvas_pixmap = copy_pixmap(self->connect_id, self->canvas_id);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/*
* This function is no longer needed.
*
* This function turns the VCS Canvas updating (or refreshing) on and off.
*/
/* static PyObject * */
/* PyVCS_refreshcanvas(self, args) */
/* PyVCScanvas_Object *self; */
/* PyObject *args; */
/* { */
/* char temp_str[200]; */
/* int update_value; */
/* extern int user_defer_update; */
/* /\* Check to see if vcs has been initalized *\/ */
/* if (self == NULL) { */
/* PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init())."); */
/* return NULL; */
/* } */
/* if (self->vcs_gui != 0) { /\* Check for VCS canvas *\/ */
/* PyErr_SetString(PyExc_TypeError, "Use the 'Update' mechanism provided in VCS."); */
/* return NULL; */
/* } */
/* if (!PyArg_ParseTuple(args, "|i", &update_value)) { */
/* sprintf( temp_str, "Notice - The VCS Canvas is refreshing manually. \n Use the 'update' function to update the VCS Canvas."); */
/* pyoutput( temp_str, 1); */
/* user_defer_update = 1; */
/* } */
/* if (update_value == 0) { */
/* sprintf( temp_str, "Notice - The VCS Canvas is refreshing automatically."); */
/* pyoutput( temp_str, 1); */
/* user_defer_update = 0; */
/* } else { */
/* sprintf( temp_str, " Notice - The VCS Canvas is refreshing manually. \n Use the 'update' function to update the VCS Canvas."); */
/* pyoutput( temp_str, 1); */
/* user_defer_update = 1; */
/* } */
/* /\* Return NULL Python Object *\/ */
/* Py_INCREF (Py_None); */
/* return Py_None; */
/* } */
/* /\* */
/* * This function is obsolete. */
/* * */
/* * This function updates the VCS Canvas. */
/* *\/ */
/* static PyObject * */
/* PyVCS_flushcanvas(self, args) */
/* PyVCScanvas_Object *self; */
/* PyObject *args; */
/* { */
/* extern int user_defer_update; */
/* extern void call_guwk_update(); */
/* /\* Check to see if vcs has been initalized *\/ */
/* if (self == NULL) { */
/* PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init())."); */
/* return NULL; */
/* } */
/* if (self->vcs_gui != 0) { /\* Check for VCS canvas *\/ */
/* PyErr_SetString(PyExc_TypeError, "Use the 'Update' mechanism provided in VCS."); */
/* return NULL; */
/* } */
/* /\* Update the VCS Canvas manually *\/ */
/* if (user_defer_update == 1) */
/* call_guwk_update(self->wkst_id); */
/* /\* Return NULL Python Object *\/ */
/* Py_INCREF (Py_None); */
/* return Py_None; */
/* } */
/*
* This function flushes all recent and current X11 Events
*/
static PyObject *
PyVCS_flush(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
if (self->vcs_gui != 0) { /* Check for VCS canvas */
PyErr_SetString(PyExc_TypeError, "Use the 'Update' mechanism provided in VCS.");
return NULL;
}
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if ( (self->connect_id.display != NULL) && (self->connect_id.drawable != 0) )
XRaiseWindow(self->connect_id.display, self->connect_id.drawable);
if (not_using_gui)
process_cdat_events();
XSync(self->connect_id.display,FALSE);
XFlush(self->connect_id.display);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Plot annotation changes that manipulate text associated with data values
* into memory.
*/
static PyObject *
PyVCS_plot_annotation(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *attr_name=NULL, aname[MAX_PATH_LEN];
char *attr_str=NULL, astr[MAX_PATH_LEN];
char *array_str=NULL, arystr[MAX_PATH_LEN], buf[1024];
struct display_tab *dtab=NULL;
extern struct display_tab D_tab;
struct a_tab *ptab=NULL;
extern struct a_tab A_tab;
aname[0] = '\0';
astr[0] = '\0';
arystr[0] = '\0';
if ((args != NULL) && PyArg_ParseTuple(args,"|sss", &attr_name, &attr_str, &array_str)) {
if ((attr_name != NULL) && (attr_name[0] != '\0'))
strcpy(aname, attr_name);
if ((attr_str != NULL) && (attr_str[0] != '\0'))
strcpy(astr, attr_str);
if ((array_str != NULL) && (array_str[0] != '\0'))
strcpy(arystr, array_str);
}
ptab=&A_tab;
while ((ptab != NULL) && (strcmp(ptab->name, arystr) != 0)) {
ptab = ptab->next;
}
if (ptab == NULL) { /* get slab that already exist */
sprintf(buf,"Cannot find slab object A_%s.",arystr);
PyErr_SetString(PyExc_TypeError, buf);
return NULL;
}
if ( strcmp(attr_name, "file") == 0 ) {
ptab->pA_attr->f =repstr(ptab->pA_attr->f, attr_str);
ptab->pA_attr->F =repstr(ptab->pA_attr->F, attr_str);
} else if ( strcmp(attr_name, "source") == 0 ) {
ptab->pA_attr->s =repstr(ptab->pA_attr->s, attr_str);
ptab->pA_attr->S =repstr(ptab->pA_attr->S, attr_str);
} else if ( strcmp(attr_name, "dataname") == 0 ) {
ptab->pA_attr->n =repstr(ptab->pA_attr->n, attr_str);
ptab->pA_attr->N =repstr(ptab->pA_attr->N, attr_str);
} else if ( strcmp(attr_name, "title") == 0 ) {
ptab->pA_attr->ti =repstr(ptab->pA_attr->ti, attr_str);
ptab->pA_attr->TI =repstr(ptab->pA_attr->TI, attr_str);
} else if ( strcmp(attr_name, "units") == 0 ) {
ptab->pA_attr->u =repstr(ptab->pA_attr->u, attr_str);
ptab->pA_attr->U =repstr(ptab->pA_attr->U, attr_str);
} else if ( strcmp(attr_name, "xname") == 0 ) {
ptab->pA_attr->xn[0] =repstr(ptab->pA_attr->xn[0], attr_str);
ptab->pA_attr->XN[0] =repstr(ptab->pA_attr->XN[0], attr_str);
} else if ( strcmp(attr_name, "yname") == 0 ) {
ptab->pA_attr->xn[1] =repstr(ptab->pA_attr->xn[1], attr_str);
ptab->pA_attr->XN[1] =repstr(ptab->pA_attr->XN[1], attr_str);
} else if ( strcmp(attr_name, "zname") == 0 ) {
ptab->pA_attr->xn[2] =repstr(ptab->pA_attr->xn[2], attr_str);
ptab->pA_attr->XN[2] =repstr(ptab->pA_attr->XN[2], attr_str);
} else if ( strcmp(attr_name, "tname") == 0 ) {
ptab->pA_attr->xn[3] =repstr(ptab->pA_attr->xn[3], attr_str);
ptab->pA_attr->XN[3] =repstr(ptab->pA_attr->XN[3], attr_str);
} else if ( strcmp(attr_name, "crdate") == 0 ) {
ptab->pA_attr->crd =repstr(ptab->pA_attr->crd, attr_str);
ptab->pA_attr->CRD =repstr(ptab->pA_attr->CRD, attr_str);
} else if ( strcmp(attr_name, "crdtime") == 0 ) {
ptab->pA_attr->crt =repstr(ptab->pA_attr->crt, attr_str);
ptab->pA_attr->CRT =repstr(ptab->pA_attr->CRT, attr_str);
} else if ( strcmp(attr_name, "comment1") == 0 ) {
ptab->pA_attr->com1 =repstr(ptab->pA_attr->com1, attr_str);
} else if ( strcmp(attr_name, "comment2") == 0 ) {
ptab->pA_attr->com2 =repstr(ptab->pA_attr->com2, attr_str);
} else if ( strcmp(attr_name, "comment3") == 0 ) {
ptab->pA_attr->com3 =repstr(ptab->pA_attr->com3, attr_str);
} else if ( strcmp(attr_name, "comment4") == 0 ) {
ptab->pA_attr->com4 =repstr(ptab->pA_attr->com4, attr_str);
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Iniialize the animation, by generating the raster image and storing them
* into memory.
*/
static PyObject *
PyVCS_animate_init(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
VCSCANVASLIST_LINK vptr=head_canvas_list;
char *save_file=NULL, afile[MAX_PATH_LEN];
extern void update_vcs_connection_information();
extern int create_image_toggle_cb();
extern int animate_module();
/* Check for animation file name */
afile[0] = '\0';
if(PyArg_ParseTuple(args, "|s", &save_file)) {
if ((save_file != NULL) && (save_file[0] != '\0'))
strcpy(afile, save_file);
}
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
if (self->vcs_gui != 0) { /* Check for VCS canvas */
PyErr_SetString(PyExc_TypeError, "Use the 'Animation Control Panel' provided in VCS.");
return NULL;
}
/* Check for VCS canvas. If the VCS canvas does not exit, then
* return.
*/
if (self->connect_id.display == NULL) {
PyErr_SetString(PyExc_TypeError, "Error - Must have a VCS Canvas.\n");
return NULL;
}
if (vptr == NULL) { /* Check for data. Do nothing if not data. */
Py_INCREF (Py_None);
return Py_None;
}
/* Set up the VCS Canvas and XGKS workstation
*/
setup_canvas_globals(self);
animate_module(self->canvas_id);
self->connect_id.animate_popup = (int )self->canvas_id;
update_vcs_connection_information(self->connect_id, self->canvas_id);
self->virgin_animation = 0;
self->frame_count = 0;
self->number_of_frames = create_image_toggle_cb(self->canvas_id, afile, NULL);
if (self->gui == 1) {
update_end_of_animation( self );
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Load the animation from a raster file into memory.
*/
static PyObject *
PyVCS_animate_load(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *load_file=NULL, lfile[MAX_PATH_LEN];
extern void update_vcs_connection_information();
extern int load_from_disk();
extern int animate_module();
/* Check for animation file name */
lfile[0] = '\0';
if(PyArg_ParseTuple(args, "|s", &load_file)) {
if ((load_file != NULL) && (load_file[0] != '\0'))
strcpy(lfile, load_file);
}
if (lfile[0] == '\0') {
PyErr_SetString(PyExc_TypeError, "Error - Must specify a valid Raster file.\n");
return NULL;
}
/* Set up the VCS Canvas and XGKS workstation
*/
setup_canvas_globals(self);
animate_module(self->canvas_id);
self->connect_id.animate_popup = (int )self->canvas_id;
update_vcs_connection_information(self->connect_id, self->canvas_id);
self->virgin_animation = 0;
self->frame_count = 0;
self->number_of_frames = load_from_disk(self->canvas_id, lfile, NULL);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Return the animation information such as: template name, graphics method,
* and graphics type.
*/
static PyObject *
PyVCS_animate_info(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
VCSCANVASLIST_LINK vptr=head_canvas_list;
PyObject *tlistptr=NULL, *gmlistptr=NULL, *gnlistptr=NULL;
PyObject *dictptr=NULL;
int i, size=0;
while (vptr != NULL) { ++size; vptr = vptr->next; }
vptr=head_canvas_list;
dictptr = PyDict_New();
tlistptr=PyList_New(size);
gmlistptr=PyList_New(size);
gnlistptr=PyList_New(size);
for (i=0; i<size; i++) {
PyList_SetItem(tlistptr, i, Py_BuildValue("s", vptr->template));
PyList_SetItem(gmlistptr, i, Py_BuildValue("s", vptr->type));
PyList_SetItem(gnlistptr, i, Py_BuildValue("s", vptr->graphics));
vptr = vptr->next;
}
PyDict_SetItem(dictptr, Py_BuildValue("s","template"), tlistptr);
PyDict_SetItem(dictptr, Py_BuildValue("s","gtype"), gmlistptr);
PyDict_SetItem(dictptr, Py_BuildValue("s","gname"), gnlistptr);
return dictptr;
}
/* Return the number of animate frames stored in Memory */
static PyObject *
PyVCS_animate_number_of_frames(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
/* Return the number of animation frames */
return Py_BuildValue("i", self->number_of_frames);
}
/* Return the animate frame count */
static PyObject *
PyVCS_animate_frame_count(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
/* Return the number of animation frames */
return Py_BuildValue("i", self->frame_count);
}
/* Run the animation loop. */
static PyObject *
PyVCS_animate_run(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
extern void RunAnimation();
RunAnimation(self->canvas_id, NULL, NULL);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Stop the animation loop */
static PyObject *
PyVCS_animate_stop(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
extern void StopAnimation();
StopAnimation(self->canvas_id, NULL, NULL);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Stop the creating animation images */
static PyObject *
PyVCS_animate_stop_create(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
extern void StopAnimationCreate();
StopAnimationCreate(self->canvas_id, NULL, NULL);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Set the min and max values for the animation */
static PyObject *
PyVCS_animate_set_min_max(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
float min, max;
extern int set_animation_min_and_max();
extern float animation_min_max[3];
/* Set the animation min and max flag and values */
animation_min_max[0] = 2;
animation_min_max[1] = 1e20;
animation_min_max[2] = 1e20;
if ((args != NULL) && PyArg_ParseTuple(args,"|ff", &min, &max)) {
animation_min_max[1] = min;
animation_min_max[2] = max;
}
/* DNW - This call will change the graphics method. No longer needed
set_animation_min_and_max();
*/
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* When the animation is stopped, then the user can specify which
* animation frame to view
*/
static PyObject *
PyVCS_animate_frame(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int value=1;
extern void ScalePosition();
if ((args != NULL) && PyArg_ParseTuple(args,"|i", &value)) {
if (value > 0) {
ScalePosition(self->canvas_id, value, NULL);
}
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Pause the animation frame by an incremental amount */
static PyObject *
PyVCS_animate_pause(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int value=0;
extern void ScaleSpeed();
if ((args != NULL) && PyArg_ParseTuple(args,"|i", &value)) {
if ((value >= 0) && (value <= 100)) {
ScaleSpeed(self->canvas_id, value, NULL);
}
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Zoom in on the animation frames */
static PyObject *
PyVCS_animate_zoom(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int value=-99;
extern void ScaleZoom();
if ((args != NULL) && PyArg_ParseTuple(args,"|i", &value)) {
if ((value != -99) && (value > 0)) {
ScaleZoom(self->canvas_id, value, NULL);
}
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Pan, in the horizontal direction, a zoomed image or the animation */
static PyObject *
PyVCS_animate_horizontal(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int value=-999;
extern void ScaleHori();
if ((args != NULL) && PyArg_ParseTuple(args,"|i", &value)) {
if ((value > -101) && (value < 101)) {
ScaleHori(self->canvas_id, value, NULL);
}
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Pan, in the vertical direction, a zoomed image or the animation */
static PyObject *
PyVCS_animate_vertical(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int value=-999;
extern void ScaleVert();
if ((args != NULL) && PyArg_ParseTuple(args,"|i", &value)) {
if ((value > -101) && (value < 101)) {
ScaleVert(self->canvas_id, value, NULL);
}
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Set the animation direction, forward or backward */
static PyObject *
PyVCS_animate_direction(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int value=-999;
extern void animate_direction_cb();
if ((args != NULL) && PyArg_ParseTuple(args,"|i", &value)) {
if ((value > 0) && (value < 3)) {
animate_direction_cb(self->canvas_id, value);
}
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Set the animation mode to cycle or forth and back */
static PyObject *
PyVCS_animate_mode(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int value=-999;
extern void animate_mode_cb();
if ((args != NULL) && PyArg_ParseTuple(args,"|i", &value)) {
if ((value > 0) && (value < 4)) {
animate_mode_cb(self->canvas_id, value);
}
}
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Close out the animation session */
static PyObject *
PyVCS_animate_close(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int value=-999;
extern void animate_quit_cb();
animate_quit_cb(self->canvas_id, value);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/*
* Return 0 if the animation is complete or 1 if VCS is animation creating an animation.
*/
static PyObject *
PyVCS_creating_animation(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
extern int ReturnAnmationCreate_flg();
return Py_BuildValue("i", ReturnAnmationCreate_flg(self->canvas_id) );
}
/*
* This function is only used for the VCS Canvas GUI. It returns the slab dimension information.
*/
static PyObject *
PyVCS_return_dimension_information(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
PyObject *dim_name_listptr=NULL, *dim_size_listptr=NULL, *dim_units_listptr=NULL;
PyObject *dictptr=NULL;
canvas_display_list *cdptr;
int i, rank;
char a_name[6][17];
struct display_tab *dtab;
struct a_attr *pa;
struct a_tab *ptab=NULL;
extern struct a_tab A_tab;
extern struct display_tab D_tab;
/* Find the correct slab that is plotted */
cdptr = self->dlist;
while (cdptr != NULL) {
dtab=&D_tab;
while ((dtab != NULL) &&
(strcmp(dtab->name, cdptr->display_name) != 0))
dtab = dtab->next;
if (dtab != NULL) { /* we now have the correct display, now get the correct pointer to the slab */
strcpy(a_name[0], dtab->a[0]); /* get the first array */
ptab=&A_tab;
pa=ptab->pA_attr;
while ((ptab != NULL) && (strcmp(ptab->name, a_name[0]) != 0)) {
ptab=ptab->next;
}
}
cdptr = cdptr->next;
}
/* Create the Python Dictionary */
dictptr = PyDict_New( );
/* Now extract the dimension information */
rank = pa->ND;
dim_name_listptr = PyList_New( rank );
dim_size_listptr = PyList_New( rank );
dim_units_listptr = PyList_New( rank );
for (i=0; i<rank; i++) {
PyList_SetItem(dim_name_listptr, i, Py_BuildValue("s", pa->xn[i]));
PyList_SetItem(dim_size_listptr, i, Py_BuildValue("i", *pa->xs[i]));
PyList_SetItem(dim_units_listptr, i, Py_BuildValue("s", pa->xu[i]));
}
PyDict_SetItem(dictptr, Py_BuildValue("s","name"), dim_name_listptr);
PyDict_SetItem(dictptr, Py_BuildValue("s","size"), dim_size_listptr);
PyDict_SetItem(dictptr, Py_BuildValue("s","units"), dim_units_listptr);
return dictptr;
}
/*
* This function is only used for the VCS Canvas GUI. After the template editor (i.e., Edit Plot)
* has completed, the stored animation data information must be updated to match the edited slab changes.
*/
static PyObject *
PyVCS_update_animation_data(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
PyObject *slab=NULL, *dobj=NULL;
extern PyObject *slabSetDimensionKey(), *slabSetKey();
VCSCANVASLIST_LINK tptr=NULL, vptr=head_canvas_list;
canvas_display_list *cdptr;
int slabrank, isLongLat;
int slabRank();
char *dimname;
char *cuslab_name;
char a_name[6][17];
struct display_tab *dtab;
struct a_tab *ptab=NULL;
struct a_attr *pa;
extern struct a_tab A_tab;
extern struct display_tab D_tab;
/* Get the edited slab and its attributes from the "Edit Plot". */
if(!PyArg_ParseTuple(args,"O", &slab)) {
return NULL;
}
/* Find the modified slab */
cdptr = self->dlist;
while (cdptr != NULL) {
dtab=&D_tab;
while ((dtab != NULL) &&
(strcmp(dtab->name, cdptr->display_name) != 0))
dtab = dtab->next;
if (dtab != NULL) { /* we now have the correct display, now get the correct pointer to the slab */
strcpy(a_name[0], dtab->a[0]); /* get the first array */
ptab=&A_tab;
pa=ptab->pA_attr;
while ((ptab != NULL) && (strcmp(ptab->name, a_name[0]) != 0)) {
ptab=ptab->next;
}
}
cdptr = cdptr->next;
}
/* Now get the stored Animation slab that must be updated to reflect the changes */
while (connect_id.drawable != vptr->connect_id.drawable)
vptr = vptr->next;
if (vptr == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
/* Update the Animation slab with the modified Edit Plot changes */
slabrank = slabRank(vptr->slab);
dobj = slabSetKey (vptr->slab, "filename", pa->F); /* Set the Filename */
dobj = slabSetKey (vptr->slab, "source", pa->S); /* Set the Source */
dobj = slabSetKey (vptr->slab, "name", pa->N); /* Set the Name */
dobj = slabSetKey (vptr->slab, "title", pa->TI); /* Set the Title */
dobj = slabSetKey (vptr->slab, "units", pa->U); /* Set the Units */
dobj = slabSetKey (vptr->slab, "comment1", pa->com1); /* Set the Comment 1 */
dobj = slabSetKey (vptr->slab, "comment2", pa->com2); /* Set the Comment 2 */
dobj = slabSetKey (vptr->slab, "comment3", pa->com3); /* Set the Comment 3 */
dobj = slabSetKey (vptr->slab, "comment4", pa->com4); /* Set the Comment 4 */
dobj = slabSetDimensionKey (vptr->slab, slabrank-1, "name", pa->xn[0]); /* Set the Xname */
dobj = slabSetDimensionKey (vptr->slab, slabrank-2, "name", pa->xn[1]); /* Set the Yname */
dimname = slabDimensionName (vptr->slab, slabrank-1, &isLongLat);
/* Return NULL Python Object */
Py_INCREF (Py_None);
return Py_None;
}
/* Change the graphic method for a display name */
static PyObject *
PyVCS_change_display_graphic_method(self,args)
PyVCScanvas_Object *self;
PyObject *args;
{
void change_graphic_method();
char *dsply_name=NULL;
char *gtype_name=NULL;
char *gmthd_name=NULL;
if(PyArg_ParseTuple(args,"|sss", &dsply_name, >ype_name, &gmthd_name)!=1){
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
change_graphic_method(dsply_name,gtype_name,gmthd_name);
PyVCS_backing_store(self,args);
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/* Change the graphic method for a display name */
static PyObject *
PyVCS_get_selected_display_graphic_method(self,args)
PyVCScanvas_Object *self;
PyObject *args;
{
extern struct item_list *hold_selected_items;
if ( (SCREEN_MODE!=GMEDITOR) || (hold_selected_items==NULL)){
Py_INCREF(Py_None);
return Py_None;
}
/* Return NULL Python Object */
return Py_BuildValue("s",hold_selected_items->data.pd->name);
}
/* Change the VCS Canvas orientation to Landscape. */
static PyObject *
PyVCS_landscape(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int ier, hold_continents,clear_canvas=1;
int WIDTH, HEIGHT, XPOS, YPOS, CLEAR;
void display_resize_plot();
int undisplay_resize_plot();
extern struct orientation Page;
extern void set_up_canvas();
extern int clear_display();
extern int change_orientation();
extern struct default_continents Dc;
PyObject * PyVCS_clear();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* If the VCS Canvas is not open, then return. */
if (self->connect_id.drawable == 0) {
strcpy(Page.page_orient,"landscape");
self->orientation = 0;
Page.sw=1;
Py_INCREF(Py_None);
return Py_None;
/* PyErr_SetString(PyExc_TypeError, "Must first open VCS (i.e., x.open()).");
return NULL;*/
}
if(PyArg_ParseTuple(args,"|iiiii", &WIDTH, &HEIGHT, &XPOS, &YPOS, &CLEAR)) {
if ((CLEAR == 0)) clear_canvas = 0;
}
if (self->vcs_gui == 1) { /* Check for main VCS canvas */
PyErr_SetString(PyExc_TypeError, "Can not change page orientation for main VCS Canvas.");
return NULL;
}
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/* Check to clear VCS Canvas. Use the continents type of the original plot*/
if (clear_canvas == 1)
PyVCS_clear(self,NULL);
else
hold_continents = Dc.selected;
/* Change the VCS Canvas orientation and set object flag to Landscape */
self->orientation = 0;
set_up_canvas(self->connect_id, "landscape", WIDTH, HEIGHT, XPOS, YPOS);
XFlush( self->connect_id.display );
XSync( self->connect_id.display, FALSE );
if ( (self->connect_id.display != NULL) && (self->connect_id.drawable != 0) )
XRaiseWindow(self->connect_id.display, self->connect_id.drawable);
ier = change_orientation("landscape", &self->connect_id, 3);
/* Set up the magnification table, used for animation */
setup_the_magnify_table();
if (clear_canvas == 0) {
display_resize_plot( self, undisplay_resize_plot( self ) );
Dc.selected = hold_continents; /* Restore continent's flag */
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/* Change the VCS Canvas orientation to Portrait. */
static PyObject *
PyVCS_portrait(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int ier, hold_continents,clear_canvas=1;
int WIDTH, HEIGHT, XPOS, YPOS, CLEAR;
void display_resize_plot();
int undisplay_resize_plot();
extern struct orientation Page;
extern void set_up_canvas();
extern int clear_display();
extern int change_orientation();
extern struct default_continents Dc;
PyObject * PyVCS_clear();
/* Check to see if vcs has been initalized */
if (self == NULL) {
PyErr_SetString(PyExc_TypeError, "Must first initialize VCS (i.e., x=vcs.init()).");
return NULL;
}
/* If the VCS Canvas is not open, then return. */
if (self->connect_id.drawable == 0) {
strcpy(Page.page_orient,"portrait");
self->orientation = 1;
Page.sw=1;
Py_INCREF(Py_None);
return Py_None;
/*PyErr_SetString(PyExc_TypeError, "Must first open VCS (i.e., x.open()).");
return NULL;*/
}
if(PyArg_ParseTuple(args,"|iiiii", &WIDTH, &HEIGHT, &XPOS, &YPOS, &CLEAR)) {
if ((CLEAR == 0)) clear_canvas = 0;
}
if (self->vcs_gui == 1) { /* Check for main VCS canvas */
PyErr_SetString(PyExc_TypeError, "Can not change page orientation for main VCS Canvas.");
return NULL;
}
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
/* Set up the VCS Canvas and XGKS workstation */
setup_canvas_globals(self);
/* Check to clear VCS Canvas. Use the continents type of the original plot*/
if (clear_canvas == 1)
PyVCS_clear(self,NULL);
else
hold_continents = Dc.selected;
/* Change the VCS Canvas orientation and set object flag to Portrait. */
self->orientation = 1;
set_up_canvas(self->connect_id, "portrait", WIDTH, HEIGHT, XPOS, YPOS);
XFlush( self->connect_id.display );
XSync( self->connect_id.display, FALSE );
if ( (self->connect_id.display != NULL) && (self->connect_id.drawable != 0) )
XRaiseWindow(self->connect_id.display, self->connect_id.drawable);
ier = change_orientation("portrait", &self->connect_id, 3);
/* Set up the magnification table, used for animation */
setup_the_magnify_table();
if (clear_canvas == 0) {
display_resize_plot( self, undisplay_resize_plot( self ) );
Dc.selected = hold_continents; /* Restore continent's flag */
}
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
/* Return VCS's orientation. Will return either "landscape" or "portrait". */
static PyObject *
PyVCS_return_orientation(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
extern struct orientation Page;
return Py_BuildValue("s", Page.page_orient);
}
/* Update VCS's page orientation. */
static PyObject *
PyVCS_update_orientation(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char type[10];
extern struct orientation Page;
extern int change_orientation();
/* Reset the canvas to landscape or portrait */
if (strcmp(Page.page_orient,"landscape") == 0) {
strcpy(type,"portrait");
change_orientation(type,&self->connect_id, 2);
} else if (strcmp(Page.page_orient,"portrait") == 0) {
strcpy(type,"landscape");
change_orientation(type,&self->connect_id, 1);
}
/* Reset the canvas flag settings back */
if (strcmp(Page.page_orient,"landscape") == 0)
strcpy(Page.page_orient, "portrait");
else if (strcmp(Page.page_orient,"portrait") == 0)
strcpy(Page.page_orient, "landscape");
/* Set up the magnification table, used for animation */
setup_the_magnify_table();
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
static PyObject *
PyVCS_addFont(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *fname=NULL, *fpath;
int error;
extern int AddFont();
extern struct table_FT_VCS_FONTS TTFFONTS;
struct table_FT_VCS_FONTS *current_font;
/* If the GUI was not stated (i.e., cdatgui), then we need to
* process all the X events before we move on.
*/
if (not_using_gui)
process_cdat_events();
if(PyArg_ParseTuple(args, "|ss", &fpath, &fname)) {
error = AddFont(fpath,fname);
}
if (error!=0)
{
/* Return NULL Python Object */
Py_INCREF(Py_None);
return Py_None;
}
else
{
current_font=&TTFFONTS;
while (current_font->next != NULL)
{
current_font=current_font->next;
}
return Py_BuildValue("s", current_font->name);
}
}
extern FT_Face FT_FACE_FONTS[MAX_FONTS];
extern cairo_font_face_t *CAIRO_FONT_FACES[MAX_FONTS];
static PyObject *
PyVCS_switchFontNumbers(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int number1,number2;
FT_Face face;
cairo_font_face_t *cairo_face;
extern struct table_FT_VCS_FONTS TTFFONTS;
struct table_FT_VCS_FONTS *current_font,*current_font2;
if(PyArg_ParseTuple(args, "|ii", &number1,&number2)) {
current_font=&TTFFONTS;
while ((current_font != NULL) && (current_font->index!=number1))
{
current_font=current_font->next;
}
if (current_font==NULL) {
PyErr_SetString(VCS_Error, "VCS first font number not found!");
return NULL;
}
current_font2=&TTFFONTS;
while ((current_font2 != NULL) && (current_font2->index!=number2))
{
current_font2=current_font2->next;
}
if (current_font2==NULL) {
PyErr_SetString(VCS_Error, "VCS second font number not found!");
return NULL;
}
if ((current_font2->index==1) || (current_font->index==1))
{
PyErr_SetString(VCS_Error, "Cannot switch font 1");
return NULL;
}
current_font->index=number2;
current_font2->index=number1;
face = FT_FACE_FONTS[number1];
cairo_face = CAIRO_FONT_FACES[number1];
FT_FACE_FONTS[number1]=FT_FACE_FONTS[number2];
CAIRO_FONT_FACES[number1]=CAIRO_FONT_FACES[number2];
FT_FACE_FONTS[number2]=face;
CAIRO_FONT_FACES[number2]=cairo_face;
number1 = current_font->loaded;
current_font->loaded=current_font2->loaded;
current_font2->loaded=number1;
}
Py_INCREF(Py_None);
return Py_None;
}
static PyObject *
PyVCS_copyFontNumber1to2(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int number1,number2;
extern struct table_FT_VCS_FONTS TTFFONTS;
struct table_FT_VCS_FONTS *source_font,*target_font;
if(PyArg_ParseTuple(args, "|ii", &number1,&number2)) {
source_font=&TTFFONTS;
while ((source_font != NULL) && (source_font->index!=number1))
{
source_font=source_font->next;
}
if (source_font==NULL) {
PyErr_SetString(VCS_Error, "VCS source font number not found!");
return NULL;
}
target_font=&TTFFONTS;
while ((target_font != NULL) && (target_font->index!=number2))
{
target_font=target_font->next;
}
if (target_font==NULL) {
PyErr_SetString(VCS_Error, "VCS target font number not found!");
return NULL;
}
strcpy(target_font->path,source_font->path);
/* if (target_font->index!=1) */
{
strcpy(target_font->name,source_font->name);
FT_FACE_FONTS[target_font->index] = FT_FACE_FONTS[source_font->index];
CAIRO_FONT_FACES[target_font->index]=CAIRO_FONT_FACES[source_font->index];
target_font->loaded = source_font->loaded;
}
}
else
{
PyErr_SetString(VCS_Error, "Error you must pass 2 integers!");
}
Py_INCREF(Py_None);
return Py_None;
}
static PyObject *
PyVCS_getFontNumber(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
char *fname;
int number;
extern struct table_FT_VCS_FONTS TTFFONTS;
struct table_FT_VCS_FONTS *current_font;
if(PyArg_ParseTuple(args, "|s", &fname)) {
number = -1;
current_font=&TTFFONTS;
while ((current_font != NULL) && (strcmp(current_font->name,fname) != 0))
{
current_font=current_font->next;
}
if (current_font!=NULL) number=current_font->index;
}
return Py_BuildValue("i", number);
}
static PyObject *
PyVCS_getFontName(self, args)
PyVCScanvas_Object *self;
PyObject *args;
{
int number;
extern struct table_FT_VCS_FONTS TTFFONTS;
struct table_FT_VCS_FONTS *current_font;
if(PyArg_ParseTuple(args, "|i", &number)) {
current_font=&TTFFONTS;
while ((current_font != NULL) && (current_font->index!=number))
{
current_font=current_font->next;
}
if (current_font!=NULL) return Py_BuildValue("s", current_font->name);
}
/* we didn't find it returning null string */
return Py_BuildValue("s", "");
}
static PyObject *
PyVCS_gettextextent(self,args)
PyVCScanvas_Object *self;
PyObject *args;
{
PyObject *listout;
char *Tt_name,*To_name;
struct table_text *tttab;
struct table_chorn *pTo;
extern struct table_text Tt_tab;
extern struct table_chorn To_tab;
int counter,iprim,j;
struct points_struct *xptr=NULL, *yptr=NULL;
struct array_segments *xpts=NULL, *ypts=NULL;
struct char_segments *tx=NULL;
float x1,x2,x3,x4,y1,y2,y3,y4;
Gextent extent;
Gpoint pxy;
extern Gpoint proj_convert();
extern Gpoint invert_proj_convert();
void printextent();
if(PyArg_ParseTuple(args, "|ss", &Tt_name, &To_name)) {
for (tttab=&Tt_tab; tttab != NULL; tttab=tttab->next)
if (strcmp(tttab->name,Tt_name) == 0) break;
for (pTo=&To_tab; pTo != NULL; pTo=pTo->next)
if (strcmp(pTo->name,To_name) == 0) break;
if (tttab->ts == NULL) {
Py_INCREF(Py_None);
return Py_None;
}
set_viewport_and_worldcoordinate ( tttab->tvp, tttab->twc,tttab->proj );
set_text_attr(tttab,pTo);
xptr = tttab->tx; yptr = tttab->ty;
xpts = xptr->ps; ypts = yptr->ps;
tx = tttab->ts->ss;
listout = PyList_New(xpts->npts);
for (iprim=0;iprim<xptr->nsegs;iprim++){ /*loop thru all text drawns...*/
for (j=0;j<xpts->npts;j++) {
pxy.x=xpts->pts[j];
pxy.y=ypts->pts[j];
pxy=proj_convert(pxy);
extent.ll.x = extent.ul.x = 0.0;
extent.lr.x = extent.ur.x = 0.0;
extent.ll.y = extent.lr.y = 0.0;
extent.ul.y = extent.ur.y = 0.0;
cairogqtxx(self->wkst_id, pxy,tx->cpts, &extent);
pxy = invert_proj_convert(extent.ll);
x1 = pxy.x;
y1=pxy.y;
pxy = invert_proj_convert(extent.lr);
x2 = pxy.x;
y2=pxy.y;
pxy = invert_proj_convert(extent.ur);
x3 = pxy.x;
y3=pxy.y;
pxy = invert_proj_convert(extent.ul);
x4 = pxy.x;
y4=pxy.y;
tx=tx->next;
PyList_SetItem(listout, j, Py_BuildValue("[[d,d],[d,d],[d,d],[d,d]]", x1,y1,x2,y2,x3,y3,x4,y4));
}
xpts = xpts->next;
ypts = ypts->next;
}
return listout;
}
Py_INCREF(Py_None);
return Py_None;
}
static PyMethodDef PyVCScanvas_methods[] =
{
/* General functions */
{"init", PyVCS_init, 1},
{"open", (PyCFunction)PyVCS_open, 1},
{"canvasid", (PyCFunction)PyVCS_canvas_id, 1},
{"connect_gui_and_canvas", (PyCFunction)PyVCS_connect_gui_and_canvas, 1},
{"close", (PyCFunction)PyVCS_close, 1},
{"destroy", (PyCFunction)PyVCScanvas_Dealloc, 1},
{"page", (PyCFunction)PyVCS_orientation, 1},
{"geometry", (PyCFunction)PyVCS_geometry, 1},
{"canvasinfo", (PyCFunction)PyVCS_canvasinfo, 1},
{"show", (PyCFunction)PyVCS_show, 1},
{"listelements", (PyCFunction)PyVCS_listelements, 1},
{"set", (PyCFunction)PyVCS_set, 1},
{"grid", (PyCFunction)PyVCS_plotregion, 1},
{"resetgrid", (PyCFunction)PyVCS_resetplotregion, 1},
{"plot", (PyCFunction)PyVCS_plot, 1},
{"savecontinentstype", (PyCFunction)PyVCS_savecontinentstype, 1},
{"setcontinentstype", (PyCFunction)PyVCS_setcontinentstype, 1},
{"getcontinentstype", (PyCFunction)PyVCS_getcontinentstype, 1},
{"setminmax", (PyCFunction)PyVCS_setminmax, 1},
{"setcolormap", (PyCFunction)PyVCS_setcolormap, 1},
{"updateVCSsegments", (PyCFunction)PyVCS_updateVCSsegments, 1},
{"setcolorcell", (PyCFunction)PyVCS_setcolorcell, 1},
{"getcolorcell", (PyCFunction)PyVCS_getcolorcell, 1},
{"getcolormapname", (PyCFunction)PyVCS_getcolormapname, 1},
{"scriptrun", (PyCFunction)PyVCS_scriptrun, 1},
{"clear", (PyCFunction)PyVCS_clear, 1},
{"cgm", (PyCFunction)PyVCS_cgm, 1},
{"raster", (PyCFunction)PyVCS_raster, 1},
{"gs", (PyCFunction)PyVCS_gs, 1},
{"gif_or_eps", (PyCFunction)PyVCS_gif_or_eps, 1},
{"postscript_old", (PyCFunction)PyVCS_postscript_old, 1},
{"postscript", (PyCFunction)PyVCS_postscript, 1},
{"svg", (PyCFunction)PyVCS_svg, 1},
{"png", (PyCFunction)PyVCS_png, 1},
{"pdf", (PyCFunction)PyVCS_pdf, 1},
{"printer", (PyCFunction)PyVCS_printer, 1},
{"showbg", (PyCFunction)PyVCS_showbg, 1},
{"backing_store", (PyCFunction)PyVCS_backing_store, 1},
/*{"refreshcanvas", (PyCFunction)PyVCS_refreshcanvas, 1},*/
/*{"flushcanvas", (PyCFunction)PyVCS_flushcanvas, 1},*/
{"flush", (PyCFunction)PyVCS_flush, 1},
{"landscape", (PyCFunction)PyVCS_landscape, 1},
{"portrait", (PyCFunction)PyVCS_portrait, 1},
{"orientation", (PyCFunction)PyVCS_return_orientation, 1},
{"updateorientation", (PyCFunction)PyVCS_update_orientation, 1},
{"updatecanvas", (PyCFunction)PyVCS_updatecanvas, 1},
{"updatecanvas_continents", (PyCFunction)PyVCS_updatecanvas_continents, 1},
{"saveinitialfile", (PyCFunction)PyVCS_saveinitialfile,1},
{"scriptstate", (PyCFunction)PyVCS_scriptstate,1},
{"canvasraised", (PyCFunction)PyVCS_canvasraised,1},
{"iscanvasdisplayed", (PyCFunction)PyVCS_iscanvasdisplayed,1},
{"dictionarytovcslist",(PyCFunction)PyVCS_dictionarytovcslist,1},
/* X server functions */
{"startxmainloop", (PyCFunction)PyVCS_startxmainloop,1},
{"stopxmainloop", (PyCFunction)PyVCS_stopxmainloop,1},
{"THREADED", (PyCFunction)PyVCS_THREADED,1},
{"BLOCK_X_SERVER", (PyCFunction)PyVCS_BLOCK_X_SERVER,1},
{"UNBLOCK_X_SERVER", (PyCFunction)PyVCS_UNBLOCK_X_SERVER,1},
{"xpending", (PyCFunction)PyVCS_Xpending,1},
{"xsync_discard", (PyCFunction)PyVCS_Xsync_discard,1},
{"SCREEN_TEMPLATE_FLAG", (PyCFunction)PyVCS_screen_template_flag,1},
{"SCREEN_GM_FLAG", (PyCFunction)PyVCS_screen_gm_flag,1},
{"SCREEN_DATA_FLAG", (PyCFunction)PyVCS_screen_data_flag,1},
{"SCREEN_CHECKMODE_DATA_FLAG", (PyCFunction)PyVCS_checkmode_data_flag,1},
{"SCREEN_MODE", (PyCFunction)PyVCS_screen_mode,1},
/* Plot annotation functions */
{"plot_annotation", (PyCFunction)PyVCS_plot_annotation, 1},
/* Animation functions */
{"animate_init", (PyCFunction)PyVCS_animate_init, 1},
{"animate_load", (PyCFunction)PyVCS_animate_load, 1},
{"animate_info", (PyCFunction)PyVCS_animate_info, 1},
{"animate_number_of_frames", (PyCFunction)PyVCS_animate_number_of_frames, 1},
{"animate_frame_count", (PyCFunction)PyVCS_animate_frame_count, 1},
{"animate_run", (PyCFunction)PyVCS_animate_run, 1},
{"animate_stop", (PyCFunction)PyVCS_animate_stop, 1},
{"animate_stop_create", (PyCFunction)PyVCS_animate_stop_create, 1},
{"animate_set_min_max", (PyCFunction)PyVCS_animate_set_min_max, 1},
{"animate_frame", (PyCFunction)PyVCS_animate_frame, 1},
{"animate_pause", (PyCFunction)PyVCS_animate_pause, 1},
{"animate_zoom", (PyCFunction)PyVCS_animate_zoom, 1},
{"animate_horizontal", (PyCFunction)PyVCS_animate_horizontal, 1},
{"animate_vertical", (PyCFunction)PyVCS_animate_vertical, 1},
{"animate_direction", (PyCFunction)PyVCS_animate_direction, 1},
{"animate_mode", (PyCFunction)PyVCS_animate_mode, 1},
{"animate_close", (PyCFunction)PyVCS_animate_close, 1},
{"creating_animation", (PyCFunction)PyVCS_creating_animation, 1},
{"update_animation_data", (PyCFunction)PyVCS_update_animation_data, 1},
{"return_dimension_info", (PyCFunction)PyVCS_return_dimension_information, 1},
/* Display plot functions */
{"getDpmember", (PyCFunction)PyVCS_getDpmember, 1},
{"setDpmember", (PyCFunction)PyVCS_setDpmember, 1},
{"renameDp", (PyCFunction)PyVCS_renameDp, 1},
{"return_display_names", (PyCFunction)PyVCS_return_display_names, 1},
{"remove_display_name", (PyCFunction)PyVCS_remove_display_name, 1},
{"return_display_ON_num", (PyCFunction)PyVCS_return_display_ON_num, 1},
{"change_display_graphic_method",(PyCFunction)PyVCS_change_display_graphic_method,1},
{"get_selected_display",(PyCFunction)PyVCS_get_selected_display_graphic_method,1},
/* Template text functions */
{"getPomember", (PyCFunction)PyVCS_getPomember, 1},
{"getPtmember", (PyCFunction)PyVCS_getPtmember, 1},
{"getPfmember", (PyCFunction)PyVCS_getPfmember, 1},
{"getPxtmember", (PyCFunction)PyVCS_getPxtmember, 1},
{"getPytmember", (PyCFunction)PyVCS_getPytmember, 1},
{"getPxlmember", (PyCFunction)PyVCS_getPxlmember, 1},
{"getPylmember", (PyCFunction)PyVCS_getPylmember, 1},
{"getPblmember", (PyCFunction)PyVCS_getPblmember, 1},
{"getPlsmember", (PyCFunction)PyVCS_getPlsmember, 1},
{"getPdsmember", (PyCFunction)PyVCS_getPdsmember, 1},
{"setPomember", (PyCFunction)PyVCS_setPomember, 1},
{"setPtmember", (PyCFunction)PyVCS_setPtmember, 1},
{"setPfmember", (PyCFunction)PyVCS_setPfmember, 1},
{"setPxtmember", (PyCFunction)PyVCS_setPxtmember, 1},
{"setPytmember", (PyCFunction)PyVCS_setPytmember, 1},
{"setPxlmember", (PyCFunction)PyVCS_setPxlmember, 1},
{"setPylmember", (PyCFunction)PyVCS_setPylmember, 1},
{"setPblmember", (PyCFunction)PyVCS_setPblmember, 1},
{"setPlsmember", (PyCFunction)PyVCS_setPlsmember, 1},
{"setPdsmember", (PyCFunction)PyVCS_setPdsmember, 1},
{"copyP", (PyCFunction)PyVCS_copyP, 1},
{"renameP", (PyCFunction)PyVCS_renameP, 1},
{"removeP", (PyCFunction)PyVCS_removeP, 1},
{"scriptP", (PyCFunction)PyVCS_scriptP, 1},
{"syncP", (PyCFunction)PyVCS_syncP, 1},
{"_select_one", (PyCFunction)PyVCS_select_one, 1},
{"_unselect_one", (PyCFunction)PyVCS_unselect_one, 1},
{"_select_all", (PyCFunction)PyVCS_select_all, 1},
{"_unselect_all", (PyCFunction)PyVCS_unselect_all, 1},
{"_set_normalized_flag", (PyCFunction)PyVCS_set_normalized_flag, 1},
{"_return_normalized_flag", (PyCFunction)PyVCS_return_normalized_flag, 1},
/* Boxfill functions */
{"getGfbmember", (PyCFunction)PyVCS_getGfbmember, 1},
{"setGfbmember", (PyCFunction)PyVCS_setGfbmember, 1},
{"copyGfb", (PyCFunction)PyVCS_copyGfb, 1},
{"renameGfb", (PyCFunction)PyVCS_renameGfb, 1},
{"removeGfb", (PyCFunction)PyVCS_removeGfb, 1},
{"scriptGfb", (PyCFunction)PyVCS_scriptGfb, 1},
/* Isofill functions */
{"getGfimember", (PyCFunction)PyVCS_getGfimember, 1},
{"setGfimember", (PyCFunction)PyVCS_setGfimember, 1},
{"copyGfi", (PyCFunction)PyVCS_copyGfi, 1},
{"renameGfi", (PyCFunction)PyVCS_renameGfi, 1},
{"removeGfi", (PyCFunction)PyVCS_removeGfi, 1},
{"scriptGfi", (PyCFunction)PyVCS_scriptGfi, 1},
/* Isoline functions */
{"getGimember", (PyCFunction)PyVCS_getGimember, 1},
{"setGimember", (PyCFunction)PyVCS_setGimember, 1},
{"copyGi", (PyCFunction)PyVCS_copyGi, 1},
{"renameGi", (PyCFunction)PyVCS_renameGi, 1},
{"removeGi", (PyCFunction)PyVCS_removeGi, 1},
{"scriptGi", (PyCFunction)PyVCS_scriptGi, 1},
/* Outline functions */
{"getGomember", (PyCFunction)PyVCS_getGomember, 1},
{"setGomember", (PyCFunction)PyVCS_setGomember, 1},
{"copyGo", (PyCFunction)PyVCS_copyGo, 1},
{"renameGo", (PyCFunction)PyVCS_renameGo, 1},
{"removeGo", (PyCFunction)PyVCS_removeGo, 1},
{"scriptGo", (PyCFunction)PyVCS_scriptGo, 1},
/* Outfill functions */
{"getGfomember", (PyCFunction)PyVCS_getGfomember, 1},
{"setGfomember", (PyCFunction)PyVCS_setGfomember, 1},
{"copyGfo", (PyCFunction)PyVCS_copyGfo, 1},
{"renameGfo", (PyCFunction)PyVCS_renameGfo, 1},
{"removeGfo", (PyCFunction)PyVCS_removeGfo, 1},
{"scriptGfo", (PyCFunction)PyVCS_scriptGfo, 1},
/* Xyvsy functions */
{"getGXymember", (PyCFunction)PyVCS_getGXymember, 1},
{"setGXymember", (PyCFunction)PyVCS_setGXymember, 1},
{"copyGXy", (PyCFunction)PyVCS_copyGXy, 1},
{"renameGXy", (PyCFunction)PyVCS_renameGXy, 1},
{"removeGXy", (PyCFunction)PyVCS_removeGXy, 1},
{"scriptGXy", (PyCFunction)PyVCS_scriptGXy, 1},
/* Yxvsx functions */
{"getGYxmember", (PyCFunction)PyVCS_getGYxmember, 1},
{"setGYxmember", (PyCFunction)PyVCS_setGYxmember, 1},
{"copyGYx", (PyCFunction)PyVCS_copyGYx, 1},
{"renameGYx", (PyCFunction)PyVCS_renameGYx, 1},
{"removeGYx", (PyCFunction)PyVCS_removeGYx, 1},
{"scriptGYx", (PyCFunction)PyVCS_scriptGYx, 1},
/* XvsY functions */
{"getGXYmember", (PyCFunction)PyVCS_getGXYmember, 1},
{"setGXYmember", (PyCFunction)PyVCS_setGXYmember, 1},
{"copyGXY", (PyCFunction)PyVCS_copyGXY, 1},
{"renameGXY", (PyCFunction)PyVCS_renameGXY, 1},
{"removeGXY", (PyCFunction)PyVCS_removeGXY, 1},
{"scriptGXY", (PyCFunction)PyVCS_scriptGXY, 1},
/* Vector functions */
{"getGvmember", (PyCFunction)PyVCS_getGvmember, 1},
{"setGvmember", (PyCFunction)PyVCS_setGvmember, 1},
{"copyGv", (PyCFunction)PyVCS_copyGv, 1},
{"renameGv", (PyCFunction)PyVCS_renameGv, 1},
{"removeGv", (PyCFunction)PyVCS_removeGv, 1},
{"scriptGv", (PyCFunction)PyVCS_scriptGv, 1},
/* Scatter functions */
{"getGSpmember", (PyCFunction)PyVCS_getGSpmember, 1},
{"setGSpmember", (PyCFunction)PyVCS_setGSpmember, 1},
{"copyGSp", (PyCFunction)PyVCS_copyGSp, 1},
{"renameGSp", (PyCFunction)PyVCS_renameGSp, 1},
{"removeGSp", (PyCFunction)PyVCS_removeGSp, 1},
{"scriptGSp", (PyCFunction)PyVCS_scriptGSp, 1},
/* Continents functions */
{"getGconmember", (PyCFunction)PyVCS_getGconmember, 1},
{"setGconmember", (PyCFunction)PyVCS_setGconmember, 1},
{"copyGcon", (PyCFunction)PyVCS_copyGcon, 1},
{"renameGcon", (PyCFunction)PyVCS_renameGcon, 1},
{"removeGcon", (PyCFunction)PyVCS_removeGcon, 1},
{"scriptGcon", (PyCFunction)PyVCS_scriptGcon, 1},
/* Colormap functions */
{"getCpmember", (PyCFunction)PyVCS_getCpmember, 1},
{"setCpmember", (PyCFunction)PyVCS_setCpmember, 1},
{"copyCp", (PyCFunction)PyVCS_copyCp, 1},
{"renameCp", (PyCFunction)PyVCS_renameCp, 1},
{"removeCp", (PyCFunction)PyVCS_removeCp, 1},
{"scriptCp", (PyCFunction)PyVCS_scriptCp, 1},
/* Line functions */
{"getTlmember", (PyCFunction)PyVCS_getTlmember, 1},
{"setTlmember", (PyCFunction)PyVCS_setTlmember, 1},
{"copyTl", (PyCFunction)PyVCS_copyTl, 1},
{"renameTl", (PyCFunction)PyVCS_renameTl, 1},
{"removeTl", (PyCFunction)PyVCS_removeTl, 1},
{"scriptTl", (PyCFunction)PyVCS_scriptTl, 1},
/* Marker functions */
{"getTmmember", (PyCFunction)PyVCS_getTmmember, 1},
{"setTmmember", (PyCFunction)PyVCS_setTmmember, 1},
{"copyTm", (PyCFunction)PyVCS_copyTm, 1},
{"renameTm", (PyCFunction)PyVCS_renameTm, 1},
{"removeTm", (PyCFunction)PyVCS_removeTm, 1},
{"scriptTm", (PyCFunction)PyVCS_scriptTm, 1},
/* Fillarea functions */
{"getTfmember", (PyCFunction)PyVCS_getTfmember, 1},
{"setTfmember", (PyCFunction)PyVCS_setTfmember, 1},
{"copyTf", (PyCFunction)PyVCS_copyTf, 1},
{"renameTf", (PyCFunction)PyVCS_renameTf, 1},
{"removeTf", (PyCFunction)PyVCS_removeTf, 1},
{"scriptTf", (PyCFunction)PyVCS_scriptTf, 1},
/* Text Table functions */
{"getTtmember", (PyCFunction)PyVCS_getTtmember, 1},
{"setTtmember", (PyCFunction)PyVCS_setTtmember, 1},
{"copyTt", (PyCFunction)PyVCS_copyTt, 1},
{"renameTt", (PyCFunction)PyVCS_renameTt, 1},
{"removeTt", (PyCFunction)PyVCS_removeTt, 1},
{"scriptTt", (PyCFunction)PyVCS_scriptTt, 1},
/* Text Orientation functions */
{"getTomember", (PyCFunction)PyVCS_getTomember, 1},
{"setTomember", (PyCFunction)PyVCS_setTomember, 1},
{"copyTo", (PyCFunction)PyVCS_copyTo, 1},
{"renameTo", (PyCFunction)PyVCS_renameTo, 1},
{"removeTo", (PyCFunction)PyVCS_removeTo, 1},
{"scriptTo", (PyCFunction)PyVCS_scriptTo, 1},
/* Meshfill Functions */
{"getGfmmember", (PyCFunction)PyVCS_getGfmmember, 1},
{"setGfmmember", (PyCFunction)PyVCS_setGfmmember, 1},
{"copyGfm", (PyCFunction)PyVCS_copyGfm, 1},
{"renameGfm", (PyCFunction)PyVCS_renameGfm, 1},
{"removeGfm", (PyCFunction)PyVCS_removeGfm, 1},
{"scriptGfm", (PyCFunction)PyVCS_scriptGfm, 1},
/* Projection Functions */
{"getProjmember", (PyCFunction)PyVCS_getProjmember, 1},
{"setProjmember", (PyCFunction)PyVCS_setProjmember, 1},
{"copyProj", (PyCFunction)PyVCS_copyProj, 1},
{"renameProj", (PyCFunction)PyVCS_renameProj, 1},
{"removeProj", (PyCFunction)PyVCS_removeProj, 1},
{"checkProj", (PyCFunction)PyVCS_checkProj, 1},
{"scriptProj", (PyCFunction)PyVCS_scriptProj, 1},
/* Fonts functions */
{"addfont", (PyCFunction)PyVCS_addFont, 1},
{"getfontnumber", (PyCFunction)PyVCS_getFontNumber, 1},
{"getfontname", (PyCFunction)PyVCS_getFontName, 1},
{"switchfontnumbers", (PyCFunction)PyVCS_switchFontNumbers, 1},
{"copyfontto", (PyCFunction)PyVCS_copyFontNumber1to2, 1},
{"gettextextent", (PyCFunction)PyVCS_gettextextent, 1},
{0, 0} };
static PyObject *
PyVCScanvas_getattr(self, name)
PyVCScanvas_Object *self;
char *name;
{
PyObject *method;
method = Py_FindMethod(PyVCScanvas_methods, (PyObject *)self, name);
if (method != NULL)
return method;
PyErr_Clear();
PyErr_SetString(PyExc_AttributeError, name);
Py_INCREF (Py_None);
return Py_None;
}
static PyTypeObject PyVCScanvas_Type = {
PyObject_HEAD_INIT(NULL)
0, /* ob_size */
"VCS Canvas", /* tp_name */
sizeof(PyVCScanvas_Object), /* tp_basicsize */
0, /* tp_itemsize */
/* methods */
(destructor)PyVCScanvas_Dealloc, /* tp_dealloc */
0, /* tp_print */
(getattrfunc)PyVCScanvas_getattr, /* tp_getattr */
(setattrfunc)0, /* tp_setattr */
0, /* tp_compare */
(reprfunc) 0, /* tp_repr */
0, /* tp_as_number */
0, /* tp_as_sequence */
0, /* tp_as_mapping */
0, /* tp_hash */
};
void
PyInit_VCS()
{
PyObject *m, *d;
int i;
import_array();
VCS_Error = PyVCS_Error; /* DUBOIS */
/* Initialize type object headers */
PyVCScanvas_Type.ob_type = &PyType_Type;
m = Py_InitModule("_vcs", PyVCScanvas_methods);
d = PyModule_GetDict(m);
PyVCS_Error = Py_BuildValue("s", "vcs.error");
PyDict_SetItemString(d,"error", PyVCS_Error);
/* Initials the default plot region */
for (i=0; i<CU_MAX_VAR_DIMS; i++) {
index_s[i] = -1;
index_e[i] = -1;
}
}
/* These are versions of the ones in vcs itself (mmm and immm) but
they don't set the missing data mask, they use it.
Assume max number of dimensions is 4.
*/
int gimmmm(pdat,pmask,pdim,pw,nd,XC,xv,pmin,pmax,pmean)
int *pdat; /* Data array (integers). */
short *pmask; /* Data mask. */
int *pdim[]; /* Dimensions. */
float *pw[]; /* Weights to use for mean. */
int nd; /* Number of dimensions. */
float *XC[]; /* Cycle length. */
float *xv[]; /* Dimension values. */
float *pmin; /* Minimum data value. */
float *pmax; /* Maximum data value. */
float *pmean; /* Mean data value. */
{
int i,j,k,m,c;
int di,dj,dk,dm;
float *pwi,*pwj,*pwk,*pwm,one,data;
float pw3,pw2,pw1,pw0;
double weight,mean,w;
if (nd < 1) return 0;
weight=0.0;
mean=0.0;
one=1.0;
*pmean=0.0;
*pmin=1.e20;
*pmax=-1.e20;
di=dj=dk=dm=1;
if (nd > 0) di=*pdim[0];
if (nd > 1) dj=*pdim[1];
if (nd > 2) dk=*pdim[2];
if (nd > 3) dm=*pdim[3];
for (m=0,pwm=(nd>3)?pw[3]:&one;m < dm;m++,pwm++)
{
pw3=*pwm;
if (nd > 3 && *XC[3] > 0.0)
pw3=(fabs((double)(*(xv[3]+m)-*(xv[3]))) >=
(1.0-.01/dm)*fabs((double)*XC[3])) ? 0.0:*pwm;
for (k=0,pwk=(nd>2)?pw[2]:&one;k < dk;k++,pwk++)
{
pw2=*pwk;
if (nd > 2 && *XC[2] > 0.0)
pw2=(fabs((double)(*(xv[2]+k)-*(xv[2]))) >=
(1.0-.01/dk)*fabs((double)*XC[2])) ? 0.0:*pwk;
for (j=0,pwj=(nd>1)?pw[1]:&one;j < dj;j++,pwj++)
{
pw1=*pwj;
if (nd > 1 && *XC[1] > 0.0)
pw1=(fabs((double)(*(xv[1]+j)-*(xv[1]))) >=
(1.0-.01/dj)*fabs((double)*XC[1])) ? 0.0:*pwj;
for (i=0,pwi=(nd>0)?pw[0]:&one;i < di;i++,pwi++,pdat++,pmask++)
{
pw0=*pwi;
if (*XC[0] > 0.0)
pw0=(fabs((double)(*(xv[0]+i)-*(xv[0]))) >=
(1.0-.01/di)*fabs((double)*XC[0])) ? 0.0:*pwi;
data=*pdat;
if (*pmask)
{
w=pw0*pw1*pw2*pw3;
mean=mean+w*data;
weight=weight+w;
*pmin=(data < *pmin)? data : *pmin;
*pmax=(data > *pmax)? data : *pmax;
}
}
}
}
}
if (weight != 0.0)
{
*pmean=mean/weight;
c=1;
}
else
{
c=0;
}
return c;
}
/* Find the max, min, weighted mean, and set the mask
true if the value is valid (i.e. < 0.999e20).
Assume max number of dimensions is 4.
Assume float values of the data. */
int gmmmm(pdat,pmask,pdim,pw,nd,XC,xv,pmin,pmax,pmean)
float *pdat; /* Data array (float). */
short *pmask; /* Data mask. */
int *pdim[]; /* Dimensions. */
float *pw[]; /* Weights to use for mean. */
int nd; /* Number of dimensions. */
float *XC[]; /* Cycle length. */
float *xv[]; /* Dimension values. */
float *pmin; /* Minimum data value. */
float *pmax; /* Maximum data value. */
float *pmean; /* Mean data value. */
{
int i,j,k,m,c;
int di,dj,dk,dm;
float *pwi,*pwj,*pwk,*pwm,one;
float pw3,pw2,pw1,pw0;
double w,weight,mean;
if (nd < 1) return 0;
weight=0.0;
one=1.0;
mean=0.0;
*pmean=0.0;
*pmin=1.e20;
*pmax=-1.e20;
di=dj=dk=dm=1;
if (nd > 0) di=*pdim[0];
if (nd > 1) dj=*pdim[1];
if (nd > 2) dk=*pdim[2];
if (nd > 3) dm=*pdim[3];
for (m=0,pwm=(nd>3)?pw[3]:&one;m < dm;m++,pwm++)
{
pw3=*pwm;
if (nd > 3 && *XC[3] > 0.0)
pw3=(fabs((double)(*(xv[3]+m)-*(xv[3]))) >=
(1.0-.01/dm)*fabs((double)*XC[3])) ? 0.0:*pwm;
for (k=0,pwk=(nd>2)?pw[2]:&one;k < dk;k++,pwk++)
{
pw2=*pwk;
if (nd > 2 && *XC[2] > 0.0)
pw2=(fabs((double)(*(xv[2]+k)-*(xv[2]))) >=
(1.0-.01/dk)*fabs((double)*XC[2])) ? 0.0:*pwk;
for (j=0,pwj=(nd>1)?pw[1]:&one;j < dj;j++,pwj++)
{
pw1=*pwj;
if (nd > 1 && *XC[1] > 0.0)
pw1=(fabs((double)(*(xv[1]+j)-*(xv[1]))) >=
(1.0-.01/dj)*fabs((double)*XC[1])) ? 0.0:*pwj;
for (i=0,pwi=(nd>0)?pw[0]:&one;i < di;i++,pwi++,pdat++,pmask++)
{
pw0=*pwi;
if (*XC[0] > 0.0)
pw0=(fabs((double)(*(xv[0]+i)-*(xv[0]))) >=
(1.0-.01/di)*fabs((double)*XC[0])) ? 0.0:*pwi;
if (*pmask)
{
w=pw0*pw1*pw2*pw3;
mean=mean+w*(*pdat);
weight=weight+w;
*pmin=(*pdat < *pmin)? *pdat : *pmin;
*pmax=(*pdat > *pmax)? *pdat : *pmax;
}
}
}
}
}
if (weight != 0.0)
{
*pmean=mean/weight;
c=1;
}
else
{
c=0;
}
return c;
}
/* This function is for the interactive portion of this
* software. It will create an attribute set for the array
* definition, by looking in the array attribute table for the
* name, and making a table entry if it doesn't exist, or
* returning a zero if it does.
*
* If a new entry in the array table is made the script output
* file (if open) receives the attribute assignment.
*/
void
put_slab_in_VCS_data_struct(PyObject* slab, char* g_name, char* s_name, int position_ct, int animate_flg,int slab_number)
{
int ok_selection,itemp,tndim,isLongLat;
int actual_dimsize[CU_MAX_VAR_DIMS],*ip;
long i,j,k,nd,gndim,ier,nelems=1,hnelems=1,*lp;
short *sp;
long long *llp;
long double *ldp;
unsigned long long *ullp;
unsigned int *uip;
unsigned long *ulp;
unsigned short *usp;
unsigned char *ucp;
float ftemp, *fp;
double *dp;
char src[121],tit[81],uni[41],ty[9];
char cmt1[121],cmt2[121];
char cmt3[121],cmt4[121];
char date[20],time[20],buf[100], *cp;
int slabrank;
char slabtype;
char *slabfilename;
char *dimname;
char *dimunits;
PyArrayObject *slabdata;
PyObject *slabmask;
PyArrayObject *shortmask;
PyArrayObject *dimvalues;
float *dimarray;
PyArrayObject *bounds;
PyArrayObject *weights;
PyObject *weightsraw;
int dimiscircular, dimlen;
int start[CU_MAX_VAR_DIMS];
int end[CU_MAX_VAR_DIMS];
int tstart[CU_MAX_VAR_DIMS];
int tend[CU_MAX_VAR_DIMS];
CuType data_type;
struct a_tab *ptab;
struct a_attr *pa;
extern struct a_tab A_tab;
int graphics_num_of_dims();
void hyperslab_data();
extern int select_A();
char *varid;
slabrank = slabRank(slab);
if(PyErr_Occurred()) return;
heartbeat("slabrank=%d", slabrank);
slabtype = slabType(slab);
if(PyErr_Occurred()) return;
heartbeat("slabtype=%c", slabtype);
slabfilename = slabAttribute (slab, "filename", "");
strncpy(src,
slabAttribute (slab, "source", ""),
sizeof(src)/sizeof(char));
strncpy(tit,
slabAttribute (slab, "title", ""),
sizeof(tit)/sizeof(char));
strncpy(uni,
slabAttribute (slab, "units", ""),
sizeof(uni)/sizeof(char));
strncpy(ty,
slabAttribute (slab, "type", ""),
sizeof(ty)/sizeof(char));
slabDateAndTime( slab, position_ct );
strncpy(date,
slabAttribute (slab, "date", ""),
sizeof(date)/sizeof(char));
strncpy(time,
slabAttribute (slab, "time", ""),
sizeof(time)/sizeof(char));
if (animate_flg == 1)
sprintf(buf,"Frame %d\0", position_ct+1);
else
sprintf(buf,"");
strncpy(cmt1,
slabAttribute (slab, "comment1", buf),
sizeof(cmt1)/sizeof(char));
strncpy(cmt2,
slabAttribute (slab, "comment2", ""),
sizeof(cmt2)/sizeof(char));
strncpy(cmt3,
slabAttribute (slab, "comment3", ""),
sizeof(cmt3)/sizeof(char));
strncpy(cmt4,
slabAttribute (slab, "comment4", ""),
sizeof(cmt4)/sizeof(char));
heartbeat("filename=%s", slabfilename);
heartbeat("src=%s", src);
heartbeat("tit=%s", tit);
heartbeat("uni=%s", uni);
heartbeat("ty=%s", ty);
heartbeat("date=%s", date);
heartbeat("time=%s", time);
heartbeat("cmt1=%s", cmt1);
heartbeat("cmt2=%s", cmt2);
heartbeat("cmt3=%s", cmt3);
heartbeat("cmt4=%s", cmt4);
/* Create the VCS data structure from the slab structure by
* first passing down the appropriate name, source, title,
* units, and file name.
*/
ok_selection = select_A(s_name, NULL, NULL, NULL, NULL,
NULL, "CDAT");
if (ok_selection == 0) {
PyErr_SetString(VCS_Error, "vcs plot, select_A call failed.");
return;
}
/* Find the newly created VCS data structure. */
ptab=&A_tab;
while ((ptab != NULL) && (strcmp(ptab->name,s_name) != 0)) {
ptab=ptab->next;
}
if (ptab == NULL) {
PyErr_SetString(VCS_Error, "VCS data name not found!");
return;
}
ptab->FROM_CDAT = 1; /* array originated from CDAT */
pa=ptab->pA_attr;
pa->notok=0; /* Assume the definition is A-Okay */
/* Set the dimsizes in a list */
for (i=0; i<slabrank; ++i) {
if (pa->xi[i] == NULL &&
(pa->xi[i]=(int *)malloc(sizeof(int))) == NULL) {
PyErr_SetString(VCS_Error, "vcs: out of memory!");
return;
}
pa->xi[i][0] = 0;
if (pa->xj[i] == NULL &&
(pa->xj[i]=(int *)malloc(sizeof(int))) == NULL) {
PyErr_SetString(VCS_Error, "vcs: out of memory!");
return;
}
pa->xj[i][0] = 1;
if (pa->XS[i] == NULL &&
(pa->XS[i]=(int *)malloc(sizeof(int))) == NULL) {
PyErr_SetString(VCS_Error, "vcs: out of memory!");
return;
}
pa->XS[i][0] = actual_dimsize[i] = slabDimensionLength(slab, slabrank-1-i);
if (pa->XK[i] == NULL &&
(pa->XK[i]=(int *)malloc(2*sizeof(int))) == NULL) {
PyErr_SetString(VCS_Error, "vcs: out of memory!");
return;
}
pa->XK[i][0] = 0;
pa->XK[i][1] = 0;
}
heartbeat("%s", "Dimension sizes set");
/*
Find out how many dimensions the graphics method is expecting.
If there are more than needed go through hyperslab to extract
*/
/* set the attributes*/
varid = slabAttribute(slab, "name", "");
if (strcmp(varid, "")==0) varid = s_name;
pa->F =repstr(pa->F,slabfilename);
pa->S =repstr(pa->S, src);
pa->N =repstr(pa->N, varid);
pa->TI=repstr(pa->TI, tit);
pa->U =repstr(pa->U, uni);
pa->TY=repstr(pa->TY, ty);
pa->CRD=repstr(pa->CRD, date);
pa->CRT=repstr(pa->CRT, time);
pa->s =repstr(pa->s, src);
pa->n =repstr(pa->n, varid);
pa->ti=repstr(pa->ti, tit);
pa->u =repstr(pa->u, uni);
pa->ty=repstr(pa->ty, ty);
pa->crd=repstr(pa->crd, date);
pa->crt=repstr(pa->crt, time);
pa->af=repstr(pa->af,"CDAT");
pa->aS =repstr(pa->aS, src);
pa->com1 =repstr(pa->com1, cmt1);
pa->com2 =repstr(pa->com2, cmt2);
pa->com3 =repstr(pa->com3, cmt3);
pa->com4 =repstr(pa->com4, cmt4);
pa->aN =repstr(pa->aN, s_name);
pa->aTI=repstr(pa->aTI, tit);
pa->aU =repstr(pa->aU, uni);
pa->aTY=repstr(pa->aTY, ty);
pa->ND = slabrank;
heartbeat("%s", "Atributes set.");
gndim = graphics_num_of_dims(g_name, slabrank, slab_number);
if (gndim > slabrank) {
sprintf(buf,"Graphics method must have data with at least %d dimensions.", gndim);
PyErr_SetString(VCS_Error, buf);
return ;
}
if (gndim == slabrank)
{
heartbeat("%s", "Case of gndim == slabrank");
for (i=0; i<slabrank; ++i)
{
dimlen = slabDimensionLength (slab, slabrank-1-i);
heartbeat("dimension length is %d", dimlen);
if(PyErr_Occurred()) return;
start[i] = 0.;
end[i] = dimlen - 1;
hnelems = ((long) hnelems) * ((long) dimlen);
}
nelems = hnelems;
if ((pa->un.data=(float *)malloc(hnelems*sizeof(float)))==NULL)
{
PyErr_SetString(VCS_Error, "Not enough memory to store plot data.");
return;
}
if (pa->mask!=NULL)
{
free((char *) pa->mask);
pa->mask=NULL;
}
if ((pa->mask=(short *)malloc(nelems*sizeof(short))) == NULL)
{
PyErr_SetString(VCS_Error, "vcs: Not enough memory to store mask.");
return;
}
heartbeat("%s", "Starting mask.");
slabmask = slabMask(slab);
if(PyErr_Occurred()) return;
if(slabmask == Py_None)
{
heartbeat("%s", "No missing values in this array.");
for (j=0; j<nelems; j++)
{
pa->mask[j] = (short) 1;
}
Py_DECREF(slabmask);
}
else
{
heartbeat("%s", "There are missing values in this array.");
shortmask = (PyArrayObject*) PyArray_Cast ((PyArrayObject*) slabmask, PyArray_SHORT);
Py_DECREF(slabmask);
if(!shortmask)
{
PyErr_SetString(VCS_Error, "Could not convert mask to short.");
return;
}
for (j=0; j<nelems; j++)
{
pa->mask[j] = ((short) 1) - ((short*)((shortmask)->data))[j];
}
Py_DECREF(shortmask);
}
heartbeat("%s", "Ready to get data pointer");
slabdata = slabData(slab);
if(PyErr_Occurred()) return;
if (slabtype == '?')
{ /* convert to Int 8 */
cp = (short *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
pa->un.data[i] = (short) cp[i];
}
}
else if (slabtype == 'b')
{ /* convert to Int 8 */
cp = (char *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
pa->un.data[i] = (char) cp[i];
}
}
else if (slabtype == 'h')
{ /* convert to Int 16 */
sp = (short *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
pa->un.data[i] = (short) sp[i];
}
}
else if (slabtype == 'i')
{ /* convert to Int 32 */
ip = (int *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
pa->un.data[i] = (int) ip[i];
}
}
else if (slabtype == 'l')
{ /* convert to long = Int 64 */
lp = (long *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
if(pa->mask[i])
{
pa->un.data[i] = (long) lp[i];
}
else
{
pa->un.data[i] = (long) 1e20;
}
}
}
else if (slabtype == 'f')
{ /*convert to double Float 64*/
fp = (float *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
if(pa->mask[i])
{
pa->un.data[i] = (float) fp[i];
}
else
{
pa->un.data[i] = (float) 1.0e20;
}
}
}
/* other numpy types */
else if (slabtype == 'q')
{
llp = (long long *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
if(pa->mask[i])
{
pa->un.data[i] = (long long) llp[i];
}
else
{
pa->un.data[i] = (long long) 1e20;
}
}
}
else if (slabtype == 'B')
{
ucp = (unsigned char *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
pa->un.data[i] = (unsigned char) ucp[i];
}
}
else if (slabtype == 'H')
{
usp = (unsigned short *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
pa->un.data[i] = (unsigned short) usp[i];
}
}
else if (slabtype == 'I')
{
uip = (unsigned int *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
pa->un.data[i] = (unsigned int) uip[i];
}
}
else if (slabtype == 'L')
{
ulp = (unsigned long *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
if(pa->mask[i])
{
pa->un.data[i] = (unsigned long) ulp[i];
}
else
{
pa->un.data[i] = (unsigned long) 1e20;
}
}
}
else if (slabtype == 'Q')
{
ullp = (unsigned long long *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
if(pa->mask[i])
{
pa->un.data[i] = (unsigned long long) ullp[i];
}
else
{
pa->un.data[i] = (unsigned long long) 1e20;
}
}
}
else if (slabtype == 'g')
{
ldp = (long double *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
if(pa->mask[i])
{
pa->un.data[i] = ( long double) ldp[i];
}
else
{
pa->un.data[i] = ( long double) 1.e20;
}
}
}
else
{ /* convert to double */
dp = (double *) slabdata->data;
for (i=0; i<hnelems; ++i)
{
if(pa->mask[i])
{
pa->un.data[i] = (double) dp[i];
}
else
{
pa->un.data[i] = (double) 1.0e20;
}
}
}
Py_DECREF(slabdata);
heartbeat("%s", "Data delivered.");
}
else if (gndim < slabrank)
{
heartbeat("%s", "Case of gndim < slabrank");
/* Get the data type */
if (slabtype == 'c' )
{
data_type = CuChar;
strcpy(ty,"C*n");
}
else if (slabtype == '?') /* numpy masks */
{
data_type = '1';
strcpy(ty,"I*2");
}
else if (slabtype == 'b') /* used to be '1' for Numeric */
{
data_type = 'b';
strcpy(ty,"I*2");
}
else if (slabtype == 'h') /* used to be 's' for Numeric */
{
data_type = CuShort;
strcpy(ty,"I*2");
}
else if (slabtype == 'i')
{
data_type = CuInt;
strcpy(ty,"I*4");
}
else if (slabtype == 'f')
{
data_type = CuFloat;
strcpy(ty,"R*4");
}
else if (slabtype == 'd')
{
data_type = CuDouble;
strcpy(ty,"R*8");
}
else if (slabtype == 'l')
{
data_type = CuLong;
strcpy(ty,"I*8");
}
/* Other numpy types.... */
else
{
data_type = slabtype;
strcpy(ty,"NUMPY");
}
/* Set the start and end index for each dimension */
for (i=0; i<slabrank; i++)
{ /* Set the start and end indices */
/* printf("i,actualsize,indexe,indexs:%d,%d,%d,%d\n",i,actual_dimsize[i],index_e[slabrank - i - 1],index_s[slabrank - i - 1] ); */
if (index_e[slabrank - i - 1] != -1)
{
if (index_e[slabrank - i - 1] >= actual_dimsize[i])
{
end[i] = actual_dimsize[i] - 1;
}
else
{
end[i] = index_e[slabrank - i - 1];
}
}
else
{
end[i] = actual_dimsize[i] - 1;
}
if (index_s[slabrank - i - 1] != -1)
{
if (index_s[slabrank - i - 1] > end[i])
{
start[i] = end[i];
}
else
{
start[i] = index_s[slabrank - i - 1];
}
}
else
{
start[i] = 0;
}
heartbeat("start=%d\n",start[i]);
heartbeat("end=%d\n", end[i]);
/* printf("After: end, start: %d,%d\n",end[i],start[i]); */
}
tndim = 0;
for (i=0; i<slabrank; i++)
{ /* Get the number of dimensions */
/*if (index_s != index_e)*/
if (start[i] != end[i])
++tndim;
}
heartbeat("tndim = %d\n", tndim);
/* Make sure the graphics dimension needed */
if ((gndim != 0) && (tndim != gndim))
{
for (i=gndim; i<slabrank; i++)
{ /* are the same as the number */
end[i] = start[i]; /* of dimensions */
}
}
for(i=0; i<CU_MAX_VAR_DIMS; i++)
{
tstart[i] = start[i];
tend[i] = end[i];
}
/* Call the hyperslab_data and and retrieve the selected data */
slabmask = slabMask(slab);
heartbeat("slabmask at %x, hyperslab case.", slabmask);
if(PyErr_Occurred()) return;
slabdata = slabData(slab);
if(PyErr_Occurred())
{
Py_DECREF(slabmask);
return;
}
heartbeat("Data slab at %x, hpyerslab case.", slab);
heartbeat("Data pointer from slab at %x, hyperslab case.", slabdata->data);
heartbeat("%s", "Calling hyperslab.");
hyperslab_data(slabrank, actual_dimsize, tstart, tend,
data_type, slabmask, slabdata->data,
&hnelems, &pa->mask, &pa->un.data);
Py_DECREF(slabdata);
Py_DECREF(slabmask);
if(PyErr_Occurred()) return;
heartbeat("%s", "Hyperslab delivered.");
}
/* Set the dimension size, first and last values, etc. */
/* looks like nd is never initialize, i'll do it here */
nd=0;
for (i=0;i<4;++i) { pa->xn[i]=NULL;}
for(i=0; i < slabrank; ++i)
{
dimname = slabDimensionName (slab, slabrank-1-i, &isLongLat);
dimlen = slabDimensionLength (slab, slabrank-1-i);
if(PyErr_Occurred()) return;
heartbeat("Slab dimension name = %s", dimname);
dimunits = slabDimensionUnits (slab, slabrank-1-i);
if(PyErr_Occurred()) return;
heartbeat("Slab dimension units = %s", dimunits);
dimvalues = slabDimensionValues (slab, slabrank-1-i);
if(PyErr_Occurred()) return;
dimarray = (float*) dimvalues->data;
heartbeat("Slab dimension pointer is %x", dimarray);
heartbeat("Slab dimension value at 0 is %f", dimarray[0]);
heartbeat("Slab dimension value at last is %f", dimarray[dimlen-1]);
pa->xn[i] = repstr(pa->XN[i], dimname);
pa->aXN[i] = repstr(pa->aXN[i], dimname); /* question if needed */
if (isLongLat == 2)
{
pa->XN[i] = repstr(pa->XN[i], "longitude");
pa->aXN[i] = repstr(pa->aXN[i], "longitude"); /* question if needed */
}
else if (isLongLat == 1)
{
pa->XN[i] = repstr(pa->XN[i], "latitude");
pa->aXN[i] = repstr(pa->aXN[i], "latitude"); /* question if needed */
}
else
pa->XN[i] = repstr(pa->XN[i], dimname);
pa->XU[i] = repstr(pa->XU[i], dimunits);
pa->xu[i] = repstr(pa->xu[i], dimunits);
/* Free cycle, dimension, bounds, and weights */
if (pa->aXC[i]!=NULL)
{
free((char *) pa->aXC[i]);
pa->aXC[i]=NULL;
}
if (pa->XV[i]!=NULL)
{
free((char *) pa->XV[i]);
pa->XV[i]=NULL;
}
if (pa->XB[i]!=NULL)
{
free((char *) pa->XB[i]);
pa->XB[i]=NULL;
}
if (pa->XW[i]!=NULL)
{
free((char *) pa->XW[i]);
pa->XW[i]=NULL;
}
/* Get memory for cycle, dimension, bounds, and weights */
dimiscircular = slabDimensionIsCircular(slab, slabrank-1-i);
heartbeat("dimiscircular = %d", dimiscircular);
if(PyErr_Occurred()) return;
if (dimiscircular)
{
ftemp = (float) 360.0;
}
else
{
ftemp = (float) 0.0;
}
heartbeat("%s", "setting cycle");
pa->XC[i] = repflt(pa->XC[i], &ftemp);
if (dimiscircular)
{
if ((pa->aXF[i]=(char *)malloc(20)) == NULL)
{
PyErr_SetString(VCS_Error, "vcs: out of memory!");
return;
}
sprintf(pa->aXF[i],"%g", dimarray[0]);
if ((pa->aXL[i]=(char *)malloc(20)) == NULL)
{
PyErr_SetString(VCS_Error, "vcs: out of memory!");
return;
}
sprintf(pa->aXL[i],"%g", dimarray[dimlen-1]);
if ((pa->aXC[i]=(char *)malloc(20)) == NULL)
{
PyErr_SetString(VCS_Error, "vcs: out of memory!");
return;
}
sprintf(pa->aXC[i],"%f", ftemp);
}
pa->XF[i] = repflt(pa->XF[i], &(dimarray[0]));
pa->XL[i] = repflt(pa->XL[i], &(dimarray[dimlen-1]));
itemp = (int)(abs(end[i] - start[i])) + 1;
pa->xs[i] = repint(pa->xs[i], &itemp);
pa->xf[i] = repflt(pa->xf[i], &(dimarray[0]));
pa->xl[i] = repflt(pa->xl[i], &(dimarray[dimlen -1]));
if ((pa->XV[i]=(float *)malloc((pa->XS[i][0])*sizeof(float))) == NULL)
{
PyErr_SetString(VCS_Error, "vcs: out of memory!");
return;
}
if ((pa->xv[i]=(float *)malloc(itemp*sizeof(float))) == NULL)
{
PyErr_SetString(VCS_Error, "vcs: out of memory!");
return;
}
heartbeat("%s", "Ready to set dimension data");
for (k=0; k<(pa->XS[i][0]); k++)
pa->XV[i][k] = dimarray[k];
for (j=start[i],k=0; j<=end[i]; j++,k++)
pa->xv[i][k] = dimarray[j];
Py_DECREF(dimvalues);
heartbeat("%s", "Starting bounds.");
if ((pa->XB[i]=(float *)malloc(((pa->XS[i][0])+2)*sizeof(float))) == NULL)
{
PyErr_SetString(VCS_Error, "vcs: out of memory!");
return;
}
if ((pa->xb[i]=(float *)malloc((itemp+2)*sizeof(float)))==NULL)
{
PyErr_SetString(VCS_Error, "vcs: out of memory!");
return;
}
bounds = slabDimensionBounds(slab, slabrank-1-i);
if(PyErr_Occurred()) return;
/*slabDimensionBounds made it type 'f', not None */
for (k=0; k< pa->XS[i][0]+1; k++)
{
pa->XB[i][k] = ((float*)bounds->data)[k];
}
for (j=start[i],k=0; j<=end[i]+1; j++,k++)
{
pa->xb[i][k]= ((float*)bounds->data)[j];
}
Py_DECREF(bounds);
heartbeat("%s", "Starting weights.");
if ((pa->XW[i]=(float *)malloc((pa->XS[i][0])*sizeof(float))) == NULL)
{
PyErr_SetString(VCS_Error, "vcs: out of memory!");
return;
}
if ((pa->xw[i]=(float *)malloc(itemp*sizeof(float))) == NULL)
{
PyErr_SetString(VCS_Error, "vcs: out of memory!");
return;
}
weightsraw = slabDimensionWeights(slab, slabrank-1-i);
if(PyErr_Occurred()) return;
if (weightsraw == Py_None)
{ /* currently won't happen see cu */
for (k=0; k<pa->XS[i][0]; k++)
pa->XW[i][k]= (float) 1.0;
for (j=start[i],k=0; j<=(end[i]); j++,k++)
pa->xw[i][k]= (float) 1.0;
}
else
{
weights = (PyArrayObject*) weightsraw;
for (k=0; k<pa->XS[i][0]; k++)
pa->XW[i][k]= ((float*) weights->data)[k];
for (j=start[i],k=0; j<=(end[i]); j++,k++)
pa->xw[i][k]= ((float*) weights->data)[j];
}
Py_DECREF(weightsraw);
nelems = ((long) nelems) * ((long) *pa->xs[i]);
if ((*pa->xs[i]) > 1) nd=i+1;
}
/* Now check if we passed a single number and it's meshfill*/
if (nd==0) nd=1;
if ((cmpncs(g_name,"Outline") == 0) || (cmpncs(g_name,"Outfill") == 0))
{
if (cmpncs(pa->ty,"R*4") == 0)
{
for (i=0,fp=pa->un.data,ip=pa->un.idata; i < hnelems; ip++,fp++,i++)
*ip=*fp+0.5;
}
else
{
for (i=0,fp=pa->un.data,ip=pa->un.idata; i < hnelems; ip++,fp++,i++)
*ip=*fp;
}
ier=gimmmm(pa->un.idata,pa->mask,&pa->xs[0],&pa->xw[0],nd,
&pa->XC[0],&pa->xv[0],&pa->min,&pa->max,&pa->mean);
heartbeat("i min %e\n", pa->min);
heartbeat("i max %e\n", pa->max);
heartbeat("i mean %e\n", pa->mean);
}
else
{
ier=gmmmm(pa->un.data,pa->mask,&pa->xs[0],&pa->xw[0],nd,
&pa->XC[0],&pa->xv[0],&pa->min,&pa->max,&pa->mean);
}
heartbeat("min %e\n", pa->min);
heartbeat("max %e\n", pa->max);
heartbeat("mean %e\n", pa->mean);
heartbeat("%s", "Finished putting slab.");
}
int graphics_num_of_arrays(g_name)
char * g_name;
{
if (cmpncs(g_name,"Isoline") == 0)
return 1;
else if (cmpncs(g_name,"Outline") == 0)
return 1;
else if (cmpncs(g_name,"Continents") == 0)
return 0;
else if (cmpncs(g_name,"Isofill") == 0)
return 1;
else if (cmpncs(g_name,"Outfill") == 0)
return 1;
else if (cmpncs(g_name,"Boxfill") == 0)
return 1;
else if (cmpncs(g_name,"Vector") == 0)
return 2;
else if (cmpncs(g_name,"Xyvsy") == 0)
return 1;
else if (cmpncs(g_name,"Yxvsx") == 0)
return 1;
else if (cmpncs(g_name,"XvsY") == 0)
return 2;
else if (cmpncs(g_name,"Scatter") == 0)
return 2;
else if (cmpncs(g_name,"Meshfill") == 0)
return 2;
else
return 0;
}
int graphics_num_of_dims(g_name, slabrank, slab_number)
char * g_name;
int slabrank;
int slab_number;
{
if (cmpncs(g_name,"Isoline") == 0)
return 2;
else if (cmpncs(g_name,"Outline") == 0)
return 2;
else if ((cmpncs(g_name,"Continents") == 0) ||
(cmpncs(g_name,"line") == 0) ||
(cmpncs(g_name,"marker") == 0) ||
(cmpncs(g_name,"fillarea") == 0) ||
(cmpncs(g_name,"text") == 0))
return 0;
else if (cmpncs(g_name,"Isofill") == 0)
return 2;
else if (cmpncs(g_name,"Outfill") == 0)
return 2;
else if (cmpncs(g_name,"Boxfill") == 0)
return 2;
else if (cmpncs(g_name,"Meshfill") == 0)
{ if (slab_number==2) return 3;
else return 1;
}
else if (cmpncs(g_name,"Vector") == 0)
return 2;
else if (cmpncs(g_name,"Xyvsy") == 0)
return 1;
else if (cmpncs(g_name,"Yxvsx") == 0)
return 1;
else if (cmpncs(g_name,"XvsY") == 0)
return 1;
else if (cmpncs(g_name,"Scatter") == 0) {
if (slabrank == 1)
return 1;
else
return 2;
} else
return -1;
return 0;
}
#define MAX_DIMENSIONS 128
void
hyperslab_data(ndim, actual_dimsize, index_s, index_e,
data_type, slabmask, orig_data, nelems, mask_data, slab_data)
int ndim; /* Number of dimensions */
int actual_dimsize[]; /* Original (or actual) data size */
int index_s[]; /*increment dimension index*/
int index_e[]; /*store the end dimension index*/
CuType data_type; /* Data type as returned from cdunif */
void *orig_data; /* Original data block */
PyObject *slabmask; /* Original slab's mask object */
long *nelems; /* Return the number of data values */
void **slab_data; /* Return hyperslab data */
void **mask_data; /* Return hyperslab mask data */
{
int index_start[CU_MAX_VAR_DIMS];/*store the original index values*/
int dimsize[CU_MAX_VAR_DIMS]; /*subset dimension size*/
double index_v[CU_MAX_VAR_DIMS]; /*store index value*/
int index; /*computed index value*/
int i,j,k,m,data_ct; /*counters*/
char *c_data; /* character data pointer */
short *s_data; /* short data pointer */
unsigned char *uc_data; /* unsigned shortdata pointer */
int *i_data; /* integer data pointer */
float *f_data; /* float data pointer */
long *l_data; /* long data pointer */
/* double *d_data; /\* double data pointer *\/ */
/* void *v_data; /\* void data pointer *\/ */
char *oc_data;
short *os_data;
unsigned char *ouc_data;
int *oi_data;
float *of_data;
long *ol_data;
double *od_data;
short *mask;
long long *ll_data;
unsigned short *us_data;
unsigned int *ui_data;
unsigned long *ul_data;
unsigned long long *ull_data;
long double *ld_data;
long long *oll_data;
unsigned short *ous_data;
unsigned int *oui_data;
unsigned long *oul_data;
unsigned long long *oull_data;
long double *old_data;
PyArrayObject *shortmask;
short *slabmaskdata;
/* Initialize the parameters */
for (i=0; i<ndim; ++i)
index_start[i] = index_s[i];
for (i=0; i<ndim; ++i)
dimsize[i] = (abs(index_e[i] - index_s[i])) + 1;
/* Malloc memory for the new hyperslab data array and mask */
*nelems = 1;
for (i=0; i<ndim; ++i) {
*nelems = *nelems*dimsize[i];
}
if ((mask=(short *)malloc((*nelems)*sizeof(short))) == NULL) {
PyErr_SetString(VCS_Error, "vcs: Not enough memory to store mask.");
return;
}
for (i=0; i < *nelems; ++i) {
mask[i] = ((short) 1);
}
if (data_type == CuChar) {
oc_data=orig_data;
if((c_data=(char *)malloc(*nelems*cutypelen(data_type)))==(void*)0) {
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
} else if (data_type == 'b') {
ouc_data=orig_data;
if((uc_data=(unsigned char *)malloc(*nelems*sizeof(unsigned char)))==(void*)0) {
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
} else if (data_type == CuShort) {
os_data=orig_data;
if((s_data=(short*)malloc(*nelems*cutypelen(data_type)))==(void*)0) {
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
} else if (data_type == CuInt) {
oi_data=orig_data;
if((i_data=(int *)malloc(*nelems*cutypelen(data_type)))==(void*)0) {
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
} else if (data_type == CuFloat) {
of_data=orig_data;
if((f_data=(float *)malloc(*nelems*cutypelen(data_type)))==(void*)0) {
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
} else if (data_type == CuLong) {
ol_data=orig_data;
if((l_data=(long *)malloc(*nelems*cutypelen(data_type)))==(void*)0) {
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
} else if (data_type == CuDouble) {
od_data=orig_data;
if((f_data=(float *)malloc(*nelems*cutypelen(data_type)))==(void*)0){
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
/* Other numpy types */
} else if (data_type == 'q') {
oll_data=orig_data;
if((ll_data=(long long *)malloc(*nelems*sizeof(long long)))==(void*)0) {
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
} else if (data_type == 'B') {
ouc_data=orig_data;
if((uc_data=(unsigned char *)malloc(*nelems*sizeof(unsigned char)))==(void*)0) {
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
} else if (data_type == 'H') {
ous_data=orig_data;
if((us_data=(unsigned short *)malloc(*nelems*sizeof(unsigned short)))==(void*)0) {
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
} else if (data_type == 'I') {
oui_data=orig_data;
if((ui_data=(unsigned int *)malloc(*nelems*sizeof(unsigned int)))==(void*)0) {
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
} else if (data_type == 'L') {
oul_data=orig_data;
if((ul_data=(unsigned long *)malloc(*nelems*sizeof(unsigned long)))==(void*)0) {
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
} else if (data_type == 'Q') {
oull_data=orig_data;
if((ull_data=(unsigned long long *)malloc(*nelems*sizeof(unsigned long long)))==(void*)0) {
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
} else if (data_type == 'g') {
old_data=orig_data;
if((ld_data=( long double *)malloc(*nelems*sizeof( long double)))==(void*)0) {
PyErr_SetString(VCS_Error, "Unable to allocate data for hyperslab.");
return;
}
}
/* Get the beginning start values for calculating the index */
index_v[0] = 0;
for (i=1; i<ndim; ++i) {
index_v[i] = index_s[i];
for (j=1; j<=i; j++)
index_v[i] = index_v[i] * actual_dimsize[j-1];
}
/*
* Caluculate the index and copy the data into the new data buffer.
* Example: index = i + j*lon + k*lon*lat + l*lon*lat*lev + ...
* index = i + index_v[0] + index_v[1] + index_v[2] + ...
*
* where index_v[0] = j*lon
* index_v[1] = k*lon*lat
* index_v[2] = l*lon*lat*lev
*
*/
shortmask = NULL;
if (slabmask != Py_None) {
heartbeat("slabmask not None at %x", slabmask);
shortmask = (PyArrayObject*) PyArray_Cast ((PyArrayObject*) slabmask, PyArray_SHORT);
heartbeat("shortmask at %x", shortmask);
if(!shortmask) {
return;
}
slabmaskdata = (short*) shortmask->data;
heartbeat("slabmaskdata set at %x", slabmaskdata);
}
heartbeat("Setting data in hyperslab at %x.", orig_data);
data_ct = 0;
while (data_ct < *nelems) {
index = 0;
for (k=0; k<ndim; k++) {
index = index + index_v[k];
}
if (slabmask == Py_None) {
for (k=index_s[0]; k<=index_e[0]; k++) {
mask[data_ct + k - index_s[0]] = ((short) 1);
}
} else {
for (k=index_s[0]; k<=index_e[0]; k++) {
mask[data_ct + k - index_s[0]] = ((short) 1) - ((short*) slabmaskdata)[(k+index)];
}
}
for (k=index_s[0]; k<=index_e[0]; k++, data_ct++) {
if (data_type == CuChar) {
c_data[data_ct] = (char)oc_data[(k + index)];
} else if (data_type == 'b') {
uc_data[data_ct] = ouc_data[(k + index)];
} else if (data_type == CuShort) {
s_data[data_ct] = os_data[(k + index)];
} else if (data_type == CuInt) {
i_data[data_ct] = oi_data[(k + index)];
} else if (data_type == CuLong) {
if(mask[data_ct]) {
l_data[data_ct] = ol_data[(k + index)];
} else {
l_data[data_ct] = (long) 1e20;
}
} else if (data_type == CuFloat) {
if(mask[data_ct]) {
f_data[data_ct] = of_data[(k + index)];
} else {
f_data[data_ct] = (float) 1.0e20;
}
} else if (data_type == CuDouble) {
if(mask[data_ct]) {
f_data[data_ct] = (float) od_data[(k + index)];
} else {
f_data[data_ct] = (float) 1.0e20;
}
/* Other numpy types */
} else if (data_type == 'q') {
if(mask[data_ct]) {
ll_data[data_ct] = oll_data[(k + index)];
} else {
ll_data[data_ct] = (long long) 1e20;
}
} else if (data_type == 'B') {
uc_data[data_ct] = ouc_data[(k + index)];
} else if (data_type == 'H') {
us_data[data_ct] = ous_data[(k + index)];
} else if (data_type == 'I') {
ui_data[data_ct] = oui_data[(k + index)];
} else if (data_type == 'L') {
if(mask[data_ct]) {
ul_data[data_ct] = oul_data[(k + index)];
} else {
ul_data[data_ct] = (unsigned long) 1e20;
}
} else if (data_type == 'Q') {
if(mask[data_ct]) {
ull_data[data_ct] = oull_data[(k + index)];
} else {
ull_data[data_ct] = (unsigned long long) 1e20;
}
} else if (data_type == 'g') {
if(mask[data_ct]) {
ld_data[data_ct] = old_data[(k + index)];
} else {
ld_data[data_ct] = ( long double) 1e20;
}
}
}
/*
* Determine the new store index value that will be used to
* calculate the index
*/
for (m=1; m<ndim; m++) {
if (++index_s[m] <= index_e[m]) {
index_v[m] = index_s[m];
for (j=1; j<=m; j++)
index_v[m] = index_v[m] * actual_dimsize[j-1];
break;
} else {
index_s[m] = index_start[m];
index_v[m] = index_s[m];
for (j=1; j<=m; j++)
index_v[m] = index_v[m] * actual_dimsize[j-1];
}
}
}
/* Return back the subset data and mask*/
*mask_data = mask;
if (data_type == CuChar)
*slab_data = c_data;
else if (data_type == 'b') {
if((f_data=(float *)malloc(*nelems*cutypelen(CuFloat)))==(void*)0) {
PyErr_SetString(VCS_Error, "Error - Cannot Malloc array for data!");
return;
}
for (i=0; i<*nelems; i++)
{
f_data[i] = (float) uc_data[i];
}
free((unsigned char*) uc_data);
*slab_data = f_data;
} else if (data_type == CuShort) {
if((f_data=(float *)malloc(*nelems*cutypelen(CuFloat)))==(void*)0) {
PyErr_SetString(VCS_Error, "Error - Cannot Malloc array for data!");
return;
}
for (i=0; i<*nelems; i++)
{
f_data[i] = (float) s_data[i];
}
free((short *) s_data);
*slab_data = f_data;
} else if (data_type == CuInt) {
if((f_data=(float *)malloc(*nelems*cutypelen(CuFloat)))==(void*)0) {
PyErr_SetString (VCS_Error, "Error - Cannot Malloc array for data!");
return;
}
for (i=0; i<*nelems; i++)
f_data[i] = (float) i_data[i];
free((char *) i_data);
*slab_data = f_data;
} else if (data_type == CuFloat)
*slab_data = f_data;
else if (data_type == CuDouble)
*slab_data = f_data;
else if (data_type == CuLong) {
if((f_data=(float *)malloc(*nelems*cutypelen(CuFloat)))==(void*)0) {
PyErr_SetString(VCS_Error, "Error - Cannot Malloc array for data!");
return;
}
for (i=0; i<*nelems; i++)
f_data[i] = (float) l_data[i];
free((char *) l_data);
*slab_data = f_data;
}
/* Other numpy types */
else if (data_type == 'q') {
if((f_data=(float *)malloc(*nelems*cutypelen(CuFloat)))==(void*)0) {
PyErr_SetString(VCS_Error, "Error - Cannot Malloc array for data!");
return;
}
for (i=0; i<*nelems; i++)
f_data[i] = (float) ll_data[i];
free((long long *) ll_data);
*slab_data = f_data;
}
else if (data_type == 'B') {
if((f_data=(float *)malloc(*nelems*cutypelen(CuFloat)))==(void*)0) {
PyErr_SetString(VCS_Error, "Error - Cannot Malloc array for data!");
return;
}
for (i=0; i<*nelems; i++)
f_data[i] = (float) uc_data[i];
free((unsigned char *) uc_data);
*slab_data = f_data;
}
else if (data_type == 'H') {
if((f_data=(float *)malloc(*nelems*cutypelen(CuFloat)))==(void*)0) {
PyErr_SetString(VCS_Error, "Error - Cannot Malloc array for data!");
return;
}
for (i=0; i<*nelems; i++)
f_data[i] = (float) us_data[i];
free((unsigned short *) us_data);
*slab_data = f_data;
}
else if (data_type == 'I') {
if((f_data=(float *)malloc(*nelems*cutypelen(CuFloat)))==(void*)0) {
PyErr_SetString(VCS_Error, "Error - Cannot Malloc array for data!");
return;
}
for (i=0; i<*nelems; i++)
f_data[i] = (float) ui_data[i];
free((unsigned int *) ui_data);
*slab_data = f_data;
}
else if (data_type == 'L') {
if((f_data=(float *)malloc(*nelems*cutypelen(CuFloat)))==(void*)0) {
PyErr_SetString(VCS_Error, "Error - Cannot Malloc array for data!");
return;
}
for (i=0; i<*nelems; i++)
f_data[i] = (float) ul_data[i];
free((unsigned long *) ul_data);
*slab_data = f_data;
}
else if (data_type == 'Q') {
if((f_data=(float *)malloc(*nelems*cutypelen(CuFloat)))==(void*)0) {
PyErr_SetString(VCS_Error, "Error - Cannot Malloc array for data!");
return;
}
for (i=0; i<*nelems; i++)
f_data[i] = (float) ull_data[i];
free((unsigned long long *) ull_data);
*slab_data = f_data;
}
else if (data_type == 'g') {
if((f_data=(float *)malloc(*nelems*cutypelen(CuFloat)))==(void*)0) {
PyErr_SetString(VCS_Error, "Error - Cannot Malloc array for data!");
return;
}
for (i=0; i<*nelems; i++)
f_data[i] = (float) ld_data[i];
free(( long double *) ld_data);
*slab_data = f_data;
}
Py_XDECREF(shortmask);
return;
}
/* Set the minimum and maximum values for the graphics methods */
int set_plot_minmax(self, type, graphics, plot_ct)
PyVCScanvas_Object *self;
char *type;
char *graphics;
int plot_ct;
{
graphics_method_list *gptr, *tgptr;
int ierr;
char gname[24];
struct gfb_tab *gfbtab;
struct gXy_tab *gXytab;
struct gYx_tab *gYxtab;
struct gfb_attr *pgfb=NULL;
struct gXy_attr *pgXy=NULL;
struct gYx_attr *pgYx=NULL;
extern struct gfb_tab Gfb_tab;
extern struct gXy_tab GXy_tab;
extern struct gYx_tab GYx_tab;
extern int copy_Gfb_name();
extern int copy_GYx_name();
extern int copy_GXy_name();
/* Check to see if the minimum and maximum values need to be set. */
if ((self->vcs_min == 1e20) && (self->vcs_max == -1e20)) {
return (0);
}
/* Create a unique graphics method name (i.e., gname is
* pmetidmcpnead is deapcmditemp in reverse)
*/
sprintf(gname, "pmetidmcpnead%d", plot_ct);
/* Create a display name structure for linked list *
if ((gptr=(graphics_method_list *)malloc(
sizeof(graphics_method_list)) == NULL)) {
pyoutput("Error - No memory for new graphics type.", 1);
return (0);
} */
gptr=(graphics_method_list *)malloc(sizeof(graphics_method_list));
if ((gptr->g_type = (char *) malloc((
strlen(type)+1)*sizeof(char)+1)) == NULL) {
pyoutput("Error - No memory for the graphics type.", 1);
return (0);
} else
strcpy(gptr->g_type, type);
if ((gptr->g_name = (char *) malloc((
strlen(gname)+1)*sizeof(char)+1)) == NULL) {
pyoutput("Error - No memory for the graphics method name.", 1);
return (0);
} else
strcpy(gptr->g_name, gname);
gptr->next = NULL;
/* Put struct in graphics method link list */
if (self->glist == NULL)
self->glist = gptr;
else {
tgptr = self->glist;
while (tgptr->next != NULL)
tgptr = tgptr->next;
tgptr->next = gptr;
}
/* Set the minimum, maximum, and extensions for the boxfill graphics
* method. */
if (strcmp(type, "Boxfill") == 0) {
/* Copy the graphics method to new space */
ierr = copy_Gfb_name(graphics, gname);
if (!ierr) {
pyoutput("Error - Cannot create new boxfill graphics method for\n minimum and maximum values.", 1);
return (0);
}
/* Find the newly created graphics method */
gfbtab=&Gfb_tab;
while ((gfbtab != NULL) &&
(strcmp(gfbtab->name, gname) != 0))
gfbtab = gfbtab->next;
pgfb=gfbtab->pGfb_attr;
/* Set the minimum, maximum and underflow overflow values */
pgfb->lev1 = self->vcs_min;
pgfb->lev2 = self->vcs_max;
if (self->vcs_ext1 == 1)
pgfb->ext_1 = 121;
if (self->vcs_ext2 == 1)
pgfb->ext_2 = 121;
} else if (strcmp(type, "Xyvsy") == 0) {
/* Copy the graphics method to new space */
ierr = copy_GXy_name(graphics, gname);
if (!ierr) {
pyoutput("Error - Cannot create new Xyvsy graphics method for\n minimum and maximum values.", 1);
return (0);
}
/* Find the newly created graphics method */
gXytab=&GXy_tab;
while ((gXytab != NULL) &&
(strcmp(gXytab->name, gname) != 0))
gXytab = gXytab->next;
pgXy=gXytab->pGXy_attr;
/* Set the minimum and maximum */
pgXy->dsp[0]=self->vcs_min;
pgXy->dsp[2]=self->vcs_max;
} else if (strcmp(type, "Yxvsx") == 0) {
/* Copy the graphics method to new space */
ierr = copy_GYx_name(graphics, gname);
if (!ierr) {
pyoutput("Error - Cannot create new Yxvsx graphics method for\n minimum and maximum values.", 1);
return (0);
}
/* Find the newly created graphics method */
gYxtab=&GYx_tab;
while ((gYxtab != NULL) &&
(strcmp(gYxtab->name, gname) != 0))
gYxtab = gYxtab->next;
pgYx=gYxtab->pGYx_attr;
/* Set the minimum and maximum */
pgYx->dsp[1]=self->vcs_min;
pgYx->dsp[3]=self->vcs_max;
}
strcpy(graphics, gname);
return (1);
}
int my_X_error_handler( display, myerr )
Display *display;
XErrorEvent *myerr;
{
/* Only print when debugging....
char msg[80];
XGetErrorText(display, myerr->error_code, msg, 80);
fprintf(stderr, "Error code %s\n", msg);*/
return 1;
}
int initialize_X()
{
/* Arg xargs[15]; /\* name-value pairs *\/ */
int ier;
/* int ier, n, rargc=0; */
/* char *argv[3]; */
/* char *display_name = NULL; */
int VIS_DEPTH; /* returned from routine visual_find */
extern char active_colors[]; /*colormap name*/
extern char cmp_filename[MAX_LINE_STRING]; /*set color name*/
extern void normal_cmap_emulate_default();
/* long l; */
/* XSizeHints hints; */
not_using_gui = 0; /* called from cdatgui */
/* XGKS initialization - Initialize the VCS module */
/* if (connect_id.display == NULL) {*/
not_using_gui = 1; /* not called from cdatgui */
/* XGKS initialization - Open the X display */
/*XtToolkitInitialize();*/
/****************************************************************
* This is important! *
* Initializes Xlib's support for concurrent threads. *
* Without this function, Xlib will give the following error: *
* "Xlib: unexpected async reply" *
* *
* *
* If Tkinter is to be used, then somewhere before this call *
* to "XInitThreads()" you must call "Tkinter.Tk()". I called *
* "Tkinter.Tk()" in the "Canvas.py" file located in the *
* "def __init__" routine. *
* *
****************************************************************/
/* initialize Python Thread */
PY_INIT_THREADS
ier = XInitThreads();
if (ier == 0)
PySys_WriteStdout("Warning - Your system [does not] support threads. You will\neventually have an 'Xlib: unexpected async reply' .\n");
display = XOpenDisplay(NULL);
if (display == NULL)
display = XOpenDisplay(":0.0");
display->display_name = NULL;
/*
printf("*** Revision = %d\n", ProtocolRevision(display));
printf("*** Version = %d\n", ProtocolVersion(display));
printf("*** Server Vendor = %s\n", ServerVendor(display));
printf("*** Vendor Release = %d\n", VendorRelease(display));
printf("*** Connection Number = %d\n", ConnectionNumber(display));
*/
ier = vcs_main(0,NULL);/*Initialize the VCS module*/
VIS_DEPTH = visual_find();
normal_cmap_create();
normal_cmap_emulate_default2();
screen = DefaultScreen(display); /* Set to the default screen */
/*DNW 08/8/01 if (app_context == NULL) {
XtToolkitInitialize();
app_context = XtCreateApplicationContext();
}
display = (Display *)malloc(1000);
if ( (display = XtOpenDisplay(app_context,NULL,NULL,"CDAT/VCS", NULL, 0, &rargc,NULL)) == NULL ) {
display = (Display *)malloc(1000);
screen = 0; * Set to the default screen *
* Will need to setup a dummy display *
*return 0;*
} else
screen = DefaultScreen(display); * Set to the default screen *
ier = vcs_main(0,NULL);*Initialize the VCS module*
if (ier == 1) {
PyErr_SetString(PyExc_TypeError, "Error initializing VCS! The VCS Canvas object was not created.\n");
return 0;
}
* Setup graphics environment *
VIS_DEPTH = visual_find();
normal_cmap_create();
normal_cmap_emulate_default2();
* create application shell in custom visual w/ custom colormap *
n = 0;
XtSetArg (xargs[n], XmNdeleteResponse, XmDO_NOTHING); n++;
XtSetArg(xargs[n], XmNvisual, visual); n++;
XtSetArg(xargs[n], XmNdepth, VIS_DEPTH); n++;
XtSetArg(xargs[n], XmNcolormap, n_cmap); n++;
*XtSetArg (xargs[n], XmNbuttonFontList, font_list_menu); n++;
XtSetArg (xargs[n], XmNlabelFontList, font_list_menu); n++;
XtSetArg (xargs[n], XmNtextFontList, font_list_menu); n++;*
XtSetArg(xargs[n], XmNtitle,
"Climate Data Analysis Tool (CDAT)"); n++;
XtSetArg(xargs[n], XmNforeground, 1); n++;
XtSetArg(xargs[n], XmNbackground, 0); n++;
app_shell = XtAppCreateShell(
"CDAT", "XCmap", applicationShellWidgetClass, display, xargs, n);
DNW 08/8/01*/
/* The below information is necessary for the VCS Canvas.
* This information is used in the VCS modules, procCanvas.c
* and python_misc.c.
*/
connect_id.display = display; /* store display for VCS Canvas */
connect_id.drawable = (XID)NULL; /* VCS Canvas */
connect_id.app_context = 0;/* store application context */
connect_id.app_shell = 0; /* store first widget */
connect_id.n_cmap = n_cmap; /* store the color map */
connect_id.visual = visual; /* store the visual */
connect_id.canvas_pixmap = (Pixmap)NULL;/*used as the backing store*/
/* Create the graphics content */
/*gc_create( connect_id );*/
/* Turn off the warning messages. */
/*DNW 08/8/01 XtAppSetWarningHandler(app_context, (XtErrorHandler) catch_warnings);
DNW 08/8/01*/
/* Load the colormap */
strcpy(cmp_filename,active_colors); /* Set active colormap name */
if (visual->class == PseudoColor) /* Only do this for 8-bit PseudoColor */
load_color_table_proc(FALSE);
/* }*/
XSetErrorHandler( my_X_error_handler ); /* Redirect the X11 Errors */
return 1;
}
/*
* Convert screen x or y values between 0 and 1 or 0 and canvas ratio.
*/
float
cnorm(self, x_or_y, value)
PyVCScanvas_Object *self;
int x_or_y;
float value;
{
XWindowAttributes xwa;
extern struct orientation Page;
float canvas_ratio_l=0., canvas_ratio_p=0.;
/* Get the width and height of the VCS Canvas. */
XGetWindowAttributes(self->connect_id.display, self->connect_id.drawable, &xwa);
canvas_ratio_l = (float) xwa.height / (float) xwa.width;
canvas_ratio_p = (float) xwa.width / (float) xwa.height;
if (strcmp(Page.page_orient,"landscape") == 0) {
if (x_or_y == 0) {
return (value/xwa.width);
} else {
return ((1-(value/xwa.height))*canvas_ratio_l);
}
} else { /* must be portriat */
if (x_or_y == 1) {
return ((1 - (value/xwa.height)));
} else {
return ((value/xwa.width)*canvas_ratio_p);
}
}
}
/*
* Normalize the normialized screen x or y values between 0 and 1.
*/
float
nnorm(self, x_or_y, value)
PyVCScanvas_Object *self;
int x_or_y;
float value;
{
XWindowAttributes xwa;
extern struct orientation Page;
int orientation_flg = 0;
float canvas_ratio_l=0., canvas_ratio_p=0.;
extern float gnorm(); /* Needed to normalize x,y coordinates back to values between 0 and 1 */
/* Get the width and height of the VCS Canvas. */
/* Note: the values 0.758800507 and 0.760843 are also found in the gnorm function in python_misc.c */
XGetWindowAttributes(self->connect_id.display, self->connect_id.drawable, &xwa);
canvas_ratio_l = ((float) xwa.height / (float) xwa.width) / 0.758800507;
canvas_ratio_p = ((float) xwa.width / (float) xwa.height) / 0.760843;
if (strcmp(Page.page_orient,"landscape") != 0) orientation_flg = 1;
value = gnorm( x_or_y, value, 0, orientation_flg );
if (strcmp(Page.page_orient,"landscape") == 0) {
if (x_or_y == 0) {
return value;
} else {
return (value/canvas_ratio_l);
}
} else { /* must be portriat */
if (x_or_y == 1) {
return value;
} else {
return (value/canvas_ratio_p);
}
}
}
int draw_selected(selected_items,shadow)
struct item_list *selected_items;
int shadow;
{
struct item_list *current = selected_items;
while (current != NULL)
{
if (current->type == display_tab)
{
if (shadow!=1) draw_selection_box(current->extent,shadow);
if (shadow!=2) draw_reshape_dots(current,shadow);
}
else
{
draw_selection_box(current->extent,shadow);
}
current = current->next;
}
}
/* int unselect_item(extent) */
/* Gextent extent; */
/* { */
/* Gpoint pts[5]; */
/* /\* Box is drawn from lower left corner counter-clockwise *\/ */
/* pts[0].x = pts[3].x = pts[4].x = extent.ll.x; */
/* pts[1].x = pts[2].x = extent.lr.x; */
/* pts[0].y = pts[1].y = pts[4].y = extent.ll.y; */
/* pts[2].y = pts[3].y = extent.ul.y; */
/* gsfais(1); /\* Set fill area to be solid *\/ */
/* gsfaci(0); /\* Set fill color to be white *\/ */
/* gfa(4,pts); /\* Define fill area *\/ */
/* gsmk(1); /\* Select marker style (dot) *\/ */
/* gsmksc(3.5); /\* Select marker size *\/ */
/* gspmci(0); /\* Select marker color *\/ */
/* gpm(4,pts); /\* Draw markers *\/ */
/* } */
void rotate_anchors(pts,n,angle)
Gpoint *pts;
int n;
float angle;
{
float dx,dy,dxp,dyp;
int i;
for (i=1;i<n;i++) {
dxp = pts[i].x-pts[0].x;
dyp = pts[i].y-pts[0].y;
dx = dxp*cos(angle)-dyp*sin(angle);
dy = dxp*sin(angle)+dyp*cos(angle);
pts[i].x=pts[0].x+dx;
pts[i].y=pts[0].y+dy;
}
}
void marker(point, color, type, angle)
Gpoint point;
int color,type;
float angle;
{
Gpoint pts[5];
double buffer=.0035;
int i;
/* Box is drawn from lower left corner counter-clockwise */
pts[0].x = pts[3].x = pts[4].x = point.x-buffer;
pts[1].x = pts[2].x = point.x+buffer;
pts[0].y = pts[1].y = pts[4].y = point.y-buffer;
pts[2].y = pts[3].y = point.y+buffer;
gsfais(1); /* Set fill area style (1 = solid) */
gsfaci(color); /* Set fill area color */
if (type==0) pts[2]=pts[3]; /*makes it a triangle */
else if (type==1) pts[3]=pts[0]; /*makes it a triangle */
else if (type==2) {pts[0]=pts[1]; pts[4]=pts[1];} /*makes it a triangle */
else if (type==3) pts[1]=pts[2]; /*makes it a triangle */
else if ((type==4)||(type==5)) /*extent horizontal */
{
pts[0].x-=buffer/3.;
pts[1].x+=buffer/3.;
pts[2].x+=buffer/3.;
pts[3].x-=buffer/3.;
pts[4].x-=buffer/3.;
pts[0].y+=buffer/2.;
pts[1].y+=buffer/2;
pts[2].y-=buffer/2.;
pts[3].y-=buffer/2;
pts[4].y+=buffer/2;
}
else if ((type==6)||(type==7)) /*extent vertical */
{
pts[0].y-=buffer/3.;
pts[1].y-=buffer/3.;
pts[2].y+=buffer/3.;
pts[3].y+=buffer/3.;
pts[4].y-=buffer/3.;
pts[0].x+=buffer/2.;
pts[1].x-=buffer/2;
pts[2].x-=buffer/2.;
pts[3].x+=buffer/2;
pts[4].x+=buffer/2;
}
else if (type==8)
{
/* nothing to do it is a normal square!*/
}
else if (type==9) /*bigger square */
{
pts[0].x-=buffer/2.;
pts[0].y-=buffer/2.;
pts[1].x+=buffer/2.;
pts[1].y-=buffer/2.;
pts[2].x+=buffer/2.;
pts[2].y+=buffer/2.;
pts[3].x-=buffer/2.;
pts[3].y+=buffer/2.;
pts[4].x-=buffer/2.;
pts[4].y-=buffer/2.;
}
rotate_anchors(&pts,4,angle);
/* nothing to do it is a normal square!*/
if (color!=-1) /* -1 is empty box */
gfa(5,pts); /* Draw fill area */
gsplci(241); /* Set line color */
gpl(5,pts); /* Draw line */
}
void draw_reshape_dots(item,shadow)
struct item_list *item;
int shadow;
{
extern struct table_line Tl_tab;
struct table_line *tltab;
extern struct table_fill Tf_tab;
struct table_fill *tftab;
extern struct table_mark Tm_tab;
struct table_mark *tmtab;
struct points_struct *xptr=NULL, *yptr=NULL;
struct array_segments *xpts=NULL, *ypts=NULL;
int iprim,j,color,counter;
Gpoint pxy[1000]; /* limit of 1000 points ok ?*/
char proj[256];
extern Gpoint proj_convert();
counter = 0;
if (strcmp(item->data.pd->type,"fillarea")==0){
tftab = &Tf_tab;
while (tftab != NULL) {
if (cmpncs(item->data.pd->g_name, tftab->name) == 0) break;
tftab = tftab->next;
}
if (tftab->priority == 0) return; /* do nothing */
strcpy(proj,tftab->proj);
set_viewport_and_worldcoordinate ( tftab->fvp, tftab->fwc,proj );
xptr = tftab->fx; yptr = tftab->fy;
xpts = xptr->ps; ypts = yptr->ps;
for (iprim=0; iprim<xptr->nsegs; iprim++) {
for (j=0;j<xpts->npts;j++) {
pxy[counter].x=xpts->pts[j];
pxy[counter].y=ypts->pts[j];
pxy[counter]=proj_convert(pxy[counter]);
if ((int)tftab->faci[iprim]==244)
{color=243;}
else
{color=244;}
marker(pxy[counter],color,8);
counter++;
}
if (shadow==1)
{
pxy[counter]=pxy[0];
gsplci(241); /* Select line color (black = 241)*/
gsln(2); /* Select line type (dashed = 2)*/
gpl(counter+1,pxy); /* Draw box*/
}
xpts = xpts->next;
ypts = ypts->next;
counter=0;
}
}
if (strcmp(item->data.pd->type,"line")==0){
tltab = &Tl_tab;
while (tltab != NULL) {
if (cmpncs(item->data.pd->g_name, tltab->name) == 0) break;
tltab = tltab->next;
}
if (tltab->priority == 0) return; /* do nothing */
strcpy(proj,tltab->proj);
set_viewport_and_worldcoordinate ( tltab->lvp, tltab->lwc,proj );
xptr = tltab->lx; yptr = tltab->ly;
xpts = xptr->ps; ypts = yptr->ps;
for (iprim=0; iprim<xptr->nsegs; iprim++) {
for (j=0;j<xpts->npts;j++) {
pxy[counter].x=xpts->pts[j];
pxy[counter].y=ypts->pts[j];
pxy[counter]=proj_convert(pxy[counter]);
if ((int)tltab->lci[iprim]==244)
{color=243;}
else
{color=244;}
marker(pxy[counter],color,8);
counter++;
}
xpts = xpts->next;
ypts = ypts->next;
if (shadow==1)
{
gsplci(241); /* Select line color (black = 241)*/
gsln(2); /* Select line type (dashed = 2)*/
gpl(counter,pxy); /* Draw box*/
}
counter=0;
}
}
if (strcmp(item->data.pd->type,"marker")==0){
tmtab = &Tm_tab;
while (tmtab != NULL) {
if (cmpncs(item->data.pd->g_name, tmtab->name) == 0) break;
tmtab = tmtab->next;
}
if (tmtab->priority == 0) return; /* do nothing */
strcpy(proj,tmtab->proj);
set_viewport_and_worldcoordinate ( tmtab->mvp, tmtab->mwc,proj );
xptr = tmtab->mx; yptr = tmtab->my;
xpts = xptr->ps; ypts = yptr->ps;
for (iprim=0; iprim<xptr->nsegs; iprim++) {
for (j=0;j<xpts->npts;j++) {
pxy[counter].x=xpts->pts[j];
pxy[counter].y=ypts->pts[j];
pxy[counter]=proj_convert(pxy[counter]);
color=-1; /*means not filled */
marker(pxy[counter],color,9);
counter++;
}
xpts = xpts->next;
ypts = ypts->next;
if (shadow==1)
{
gsplci(241); /* Select line color (black = 241)*/
gsln(2); /* Select line type (dashed = 2)*/
gpl(counter,pxy); /* Draw box*/
}
counter=0;
}
}
}
void draw_selection_box(extentin,shadow)
Gextent extentin;
int shadow;
{
Gpoint pts[9];
int i;
int color=242;
float angle;
Gextent extent;
extern int rotateextent();
extent.ll.x=extentin.ll.x;
extent.lr.x=extentin.lr.x;
extent.ur.x=extentin.ur.x;
extent.ul.x=extentin.ul.x;
extent.ll.y=extentin.ll.y;
extent.lr.y=extentin.lr.y;
extent.ur.y=extentin.ur.y;
extent.ul.y=extentin.ul.y;
i=rotateextent(&extent);
/* extern void printextent(); */
/* printf("in draw box\n"); */
/* printextent(extent); */
/* Box is drawn from lower left corner counter-clockwise */
/* Points after that are middle points */
/* pts[0].x = pts[3].x = pts[4].x = pts[7].x = extent.ll.x; */
/* pts[1].x = pts[2].x = pts[8].x = extent.lr.x; */
/* pts[0].y = pts[1].y = pts[4].y = pts[6].y = extent.ll.y; */
/* pts[2].y = pts[3].y = pts[5].y = extent.ul.y; */
/* pts[5].x = pts[6].x = (extent.ll.x+extent.lr.x)/2.; */
/* pts[7].y = pts[8].y = (extent.ll.y+extent.ul.y)/2.; */
pts[0].x=extent.ll.x;/*LL corner*/
pts[1].x=extent.lr.x;/*LR corner*/
pts[2].x=extent.ur.x;/*UR corner*/
pts[3].x=extent.ul.x;/*UL corner*/
pts[4].x=extent.ll.x;/*LL corner*/
pts[5].x=(extent.ul.x+extent.ur.x)/2.; /* top side */
pts[6].x=(extent.ll.x+extent.lr.x)/2.; /* bottom side */
pts[7].x=(extent.ll.x+extent.ul.x)/2.; /* left side */
pts[8].x=(extent.lr.x+extent.ur.x)/2.; /* right side */
pts[0].y=extent.ll.y;/*LL corner*/
pts[1].y=extent.lr.y;/*LR corner*/
pts[2].y=extent.ur.y;/*UR corner*/
pts[3].y=extent.ul.y;/*UL corner*/
pts[4].y=extent.ll.y;/*LL corner*/
pts[5].y=(extent.ul.y+extent.ur.y)/2.; /* top side */
pts[6].y=(extent.ll.y+extent.lr.y)/2.; /* bottom side */
pts[7].y=(extent.ll.y+extent.ul.y)/2.; /* left side */
pts[8].y=(extent.lr.y+extent.ur.y)/2.; /* right side */
switch(shadow){
case(0):
if ((extent.lr.x-extent.ll.x)!=0) {
angle = atan((extent.lr.y-extent.ll.y)/(extent.lr.x-extent.ll.x));
}
else {angle=1.5712;}
marker(pts[0],color,0,angle); /*LL corner*/
marker(pts[1],color,1,angle); /*LR corner*/
marker(pts[2],color,2,angle); /*UR corner*/
marker(pts[3],color,3,angle); /*UL corner*/
marker(pts[5],color,4,angle); /* Top side*/
marker(pts[6],color,5,angle); /* Bottom side*/
marker(pts[7],color,6,angle); /* Left side*/
marker(pts[8],color,7,angle); /* Right side*/
break;
case(1):
gsplci(241); /* Select line color (black = 241)*/
gsln(2); /* Select line type (dashed = 2)*/
gpl(5,pts); /* Draw box*/
break;
case(2):
gsplci(241); /* Select line color (black = 241)*/
gsln(2); /* Select line type (dashed = 2)*/
gpl(5,pts); /* Draw box*/
break;
default:
gsplci(shadow); /*color */
gsln(2); /* style 2: dashed */
gslwsc(5.); /* width */
gpl(5,pts);
break;
}
/* Old code for drawing red dots in corners */
/* gsmk(1); /\* Select marker style (dot) *\/ */
/* gsmksc(3.5); /\* Select marker size *\/ */
/* gspmci(242); /\* Select marker color *\/ */
/* gpm(4,pts); /\* Draw markers *\/ */
}
/* Find and return the shortest distance to the border
* of the extent rectangle */
float distance(position, extent)
Gpoint position;
Gextent extent;
{
float a,b;
a = min(extent.ul.y-position.y,position.y-extent.ll.y);
b = min(extent.ur.x-position.x,position.x-extent.ul.x);
return min(a,b);
}
int in_range(position,extent)
Gpoint position;
Gextent extent;
{
if (position.x >= extent.ll.x && position.x <= extent.lr.x &&
position.y >= extent.ll.y && position.y <= extent.ul.y)
return 1;
else
return 0;
}
void set_cursor(self,position,cursor, action, selected_items)
PyVCScanvas_Object *self; /* Hold the canvas information */
struct Gpoint position;
Cursor cursor[];
int *action;
struct item_list *selected_items;
{
struct item_list *current=selected_items;
int i, found = 0, priority = 0;
Gextent extent[10];
Gextent cextent;
int j,iprim,counter;
extern int rotateextent();
int corner;
extern struct table_fill Tf_tab;
struct table_fill *tftab;
extern struct table_line Tl_tab;
struct table_line *tltab;
extern struct table_mark Tm_tab;
struct table_mark *tmtab;
struct points_struct *xptr=NULL, *yptr=NULL;
struct array_segments *xpts=NULL, *ypts=NULL;
char proj[256];
extern Gpoint proj_convert();
Gpoint pxy;
/* void printextent(); */
counter=0;
while (current != NULL)
{
cextent.ll.x=current->extent.ll.x;
cextent.lr.x=current->extent.lr.x;
cextent.ur.x=current->extent.ur.x;
cextent.ul.x=current->extent.ul.x;
cextent.ll.y=current->extent.ll.y;
cextent.lr.y=current->extent.lr.y;
cextent.ur.y=current->extent.ur.y;
cextent.ul.y=current->extent.ul.y;
corner=rotateextent(&cextent);
/* Inner region */
extent[0].ll.x = cextent.ll.x+BUFFER;
extent[0].lr.x = cextent.lr.x-BUFFER;
extent[0].ll.y = cextent.ll.y+BUFFER;
extent[0].ul.y = cextent.ul.y-BUFFER;
extent[0].ul.x = cextent.ul.x+BUFFER;
extent[0].ur.x = cextent.ur.x-BUFFER;
extent[0].lr.y = cextent.lr.y+BUFFER;
extent[0].ur.y = cextent.ur.y-BUFFER;
/* Upper left hand corner region */
extent[1].ll.x = extent[1].ul.x = cextent.ul.x-BUFFER;
extent[1].lr.x = extent[1].ur.x = cextent.ul.x+BUFFER;
extent[1].ll.y = extent[1].lr.y = cextent.ul.y-BUFFER;
extent[1].ul.y = extent[1].ur.y = cextent.ul.y+BUFFER;
/* Upper right hand corner region */
extent[2].ll.x = extent[2].ul.x = cextent.ur.x-BUFFER;
extent[2].lr.x = extent[2].ur.x = cextent.ur.x+BUFFER;
extent[2].ll.y = extent[2].lr.y = cextent.ur.y-BUFFER;
extent[2].ul.y = extent[2].ur.y = cextent.ur.y+BUFFER;
/* Lower right hand corner region */
extent[3].ll.x = extent[3].ul.x = cextent.lr.x-BUFFER;
extent[3].lr.x = extent[3].ur.x = cextent.lr.x+BUFFER;
extent[3].ll.y = extent[3].lr.y = cextent.lr.y-BUFFER;
extent[3].ul.y = extent[3].ur.y = cextent.lr.y+BUFFER;
/* Lower left hand corner region */
extent[4].ll.x = extent[4].ul.x = cextent.ll.x-BUFFER;
extent[4].lr.x = extent[4].ur.x = cextent.ll.x+BUFFER;
extent[4].ll.y = extent[4].lr.y = cextent.ll.y-BUFFER;
extent[4].ul.y = extent[4].ur.y = cextent.ll.y+BUFFER;
/* Top line region */
extent[5].ll.x = cextent.ul.x+BUFFER;
extent[5].lr.x = cextent.ur.x-BUFFER;
extent[5].ll.y = cextent.ul.y-BUFFER;
extent[5].ul.y = cextent.ul.y+BUFFER;
extent[5].ul.x = cextent.ul.x+BUFFER;
extent[5].ur.x = cextent.ur.x-BUFFER;
extent[5].lr.y = cextent.ur.y-BUFFER;
extent[5].ur.y = cextent.ur.y+BUFFER;
/* Right side line region */
extent[6].ll.x = cextent.lr.x-BUFFER;
extent[6].ll.y = cextent.lr.y-BUFFER;
extent[6].lr.x = cextent.lr.x+BUFFER;
extent[6].lr.y = cextent.lr.y-BUFFER;
extent[6].ul.x = cextent.ur.x-BUFFER;
extent[6].ul.y = cextent.ur.y-BUFFER;
extent[6].ur.x = cextent.ur.x+BUFFER;
extent[6].ur.y = cextent.ur.y-BUFFER;
/* Bottom line region */
extent[7].ll.x = cextent.ll.x+BUFFER;
extent[7].lr.x = cextent.lr.x-BUFFER;
extent[7].ll.y = cextent.ll.y-BUFFER;
extent[7].ul.y = cextent.ll.y+BUFFER;
extent[7].ul.x = cextent.ll.x+BUFFER;
extent[7].ur.x = cextent.lr.x-BUFFER;
extent[7].lr.y = cextent.lr.y-BUFFER;
extent[7].ur.y = cextent.lr.y+BUFFER;
/* Left side line region */
extent[8].ll.x = cextent.ll.x-BUFFER;
extent[8].ll.y = cextent.ll.y-BUFFER;
extent[8].lr.x = cextent.ll.x+BUFFER;
extent[8].lr.y = cextent.ll.y-BUFFER;
extent[8].ul.x = cextent.ul.x-BUFFER;
extent[8].ul.y = cextent.ul.y-BUFFER;
extent[8].ur.x = cextent.ul.x+BUFFER;
extent[8].ur.y = cextent.ul.y-BUFFER;
for (i = 1; i < 9; i++)
if (within(position,extent[i]))
{
found = priority = 1;
*action=i;
XDefineCursor(self->connect_id.display,self->connect_id.drawable,cursor[i]);
break;
}
if (current->type == display_tab)
{
if (strcmp(current->data.pd->type,"fillarea")==0)
{
tftab = &Tf_tab;
while (tftab != NULL) {
if (cmpncs(current->data.pd->g_name, tftab->name) == 0) break;
tftab = tftab->next;
}
if (tftab->priority == 0) break; /* do nothing */
strcpy(proj,tftab->proj);
set_viewport_and_worldcoordinate ( tftab->fvp, tftab->fwc,proj );
xptr = tftab->fx; yptr = tftab->fy;
}
if (strcmp(current->data.pd->type,"line")==0)
{
tltab = &Tl_tab;
while (tltab != NULL) {
if (cmpncs(current->data.pd->g_name, tltab->name) == 0) break;
tltab = tltab->next;
}
if (tltab->priority == 0) break; /* do nothing */
strcpy(proj,tltab->proj);
set_viewport_and_worldcoordinate ( tltab->lvp, tltab->lwc,proj );
xptr = tltab->lx; yptr = tltab->ly;
}
if (strcmp(current->data.pd->type,"marker")==0)
{
tmtab = &Tm_tab;
while (tmtab != NULL) {
if (cmpncs(current->data.pd->g_name, tmtab->name) == 0) break;
tmtab = tmtab->next;
}
if (tmtab->priority == 0) break; /* do nothing */
strcpy(proj,tmtab->proj);
set_viewport_and_worldcoordinate ( tmtab->mvp, tmtab->mwc,proj );
xptr = tmtab->mx; yptr = tmtab->my;
}
xpts = xptr->ps; ypts = yptr->ps;
counter=0;
for (iprim=0; iprim<xptr->nsegs; iprim++) {
for (j=0;j<xpts->npts;j++) {
counter+=1;
pxy.x=xpts->pts[j];
pxy.y=ypts->pts[j];
pxy=proj_convert(pxy);
/* printf("comparing %f, %f with point %i, %f,%f\n",position.x,position.y,counter,pxy.x,pxy.y); */
/* printextent(extent[4]); */
extent[9].ll.x = extent[9].ul.x = pxy.x-BUFFER;
extent[9].lr.x = extent[9].ur.x = pxy.x+BUFFER;
extent[9].ll.y = extent[9].lr.y = pxy.y-BUFFER;
extent[9].ul.y = extent[9].ur.y = pxy.y+BUFFER;
if (in_range(position,extent[9]))
{
found = priority = 1;
*action=100+counter;
XDefineCursor(self->connect_id.display,self->connect_id.drawable,cursor[10]);
break;
}
}
if (found==1) break;
xpts = xpts->next;
ypts = ypts->next;
}
if (found==1) break;
}
if (!priority && within(position,extent[0]))
{
found = 1;
*action=0;
XDefineCursor(self->connect_id.display,self->connect_id.drawable,cursor[0]);
break;
}
current = current->next;
}
if (!found)
{
XUndefineCursor(self->connect_id.display,self->connect_id.drawable);
*action = -1;
}
/* Uncomment the following code if you only want the user to only be able
* to move the template objects.
else
{
*action = 0;
XDefineCursor(self->connect_id.display,self->connect_id.drawable,cursor[0]);
}
*/
}
/* Check and see if the current item is already in the selected list */
void append_to_list(item,selected_items)
struct item_list *item, **selected_items;
{
struct item_list *current, *items;
items = item;
if (*selected_items == NULL) {
*selected_items = (struct item_list *)item;
} else
{
current = (struct item_list *)*selected_items;
/* Get to the end of the list */
while (current->next != NULL)
{
if (¤t->data == &item->data)
return;
current = current->next;
}
/* Add the objects that are not already in the list */
while (items != NULL)
{
/*if (!in_list(items,&selected_items))*/
if (!in_list(items,¤t))
{
current->next = items;
current = current->next;
}
items = items->next;
}
current->next = NULL;
}
}
/* Recursive part of function */
void delete_node(node)
struct item_list *node;
{
if (node->next != NULL)
{
delete_node(node->next);
}
free(node);
node=NULL;
}
void zero_priority(selected_items)
struct item_list **selected_items;
{
struct item_list *current = *selected_items;
while (current != NULL)
{
switch (current->type)
{
case (pe_text):
current->data.pet->p = 0;
break;
case (pe_form):
current->data.pef->p = 0;
break;
case (pe_x_tic):
current->data.pext->p = 0;
break;
case (pe_y_tic):
current->data.peyt->p = 0;
break;
case (pe_x_lab):
current->data.pexl->p = 0;
break;
case (pe_y_lab):
current->data.peyl->p = 0;
break;
case (pe_box):
current->data.peb->p = 0;
break;
case (pe_line):
current->data.pel->p = 0;
break;
case (pe_leg):
current->data.peleg->p = 0;
break;
case (pe_dsp):
current->data.pedsp->p = 0;
break;
}
current = current->next;
}
}
/* Delete list by freeing all elements */
void delete_list(selected_items)
struct item_list **selected_items;
{
if (*selected_items != NULL)
delete_node(*selected_items);
*selected_items = NULL;
}
/* Remove an item from list */
void remove_from_list(item,selected_items)
struct item_list *item, **selected_items;
{
struct item_list *current, *prev;
current = prev = (struct item_list *)*selected_items;
if (current == NULL) return;
/* Case 1: 1st element is to be removed */
if (current->data.pet == item->data.pet)
{
/* There is more than 1 element in list */
if (current->next != NULL)
*selected_items = current->next;
/* There is only 1 element in list */
else
*selected_items = NULL;
}
/* Case 2: Element to be removed is not the first element in the list */
else
while (current != NULL)
if (current->data.pet == item->data.pet) {
prev->next = current->next;
break;
}
else {
prev = current;
current = current->next;
}
free(current);
}
void update_corner(corner,dx,dy,angle,x_or_y)
Gpoint *corner;
float dx,dy,angle;
int x_or_y; /* 0 is x 1 is y */
{
float dxp,dyp;
dxp = dx*cos(angle)+dy*sin(angle);
dyp = -dx*sin(angle)+dy*cos(angle);
if (x_or_y==0) { /* x mvt */
corner->x+=dxp*cos(angle);
corner->y+=dxp*sin(angle);
}
else {
corner->x-=dyp*sin(angle);
corner->y+=dyp*cos(angle);
}
}
/* */
void update_extent(pointA, pointB, action, selected_items)
Gpoint pointA, pointB;
int action;
struct item_list **selected_items;
{
struct item_list *current = *selected_items;
float x_movement, y_movement;
int j,iprim,counter,allin;
extern struct table_fill Tf_tab;
struct table_fill *tftab;
extern struct table_line Tl_tab;
struct table_line *tltab;
extern struct table_mark Tm_tab;
struct table_mark *tmtab;
struct points_struct *xptr=NULL, *yptr=NULL;
struct array_segments *xpts=NULL, *ypts=NULL;
char proj[256];
extern Gpoint proj_convert();
extern Gpoint invert_proj_convert();
Gpoint pxy,pxy2;
Gextent cextent;
float angle;
int corner;
PY_ENTER_THREADS
PY_GRAB_THREAD
x_movement = pointB.x - pointA.x;
y_movement = pointB.y - pointA.y;
while (current != NULL)
{
cextent.ll.x=current->extent.ll.x;
cextent.lr.x=current->extent.lr.x;
cextent.ur.x=current->extent.ur.x;
cextent.ul.x=current->extent.ul.x;
cextent.ll.y=current->extent.ll.y;
cextent.lr.y=current->extent.lr.y;
cextent.ur.y=current->extent.ur.y;
cextent.ul.y=current->extent.ul.y;
corner=rotateextent(&cextent);
if ((cextent.lr.x-cextent.ll.x)!=0) {
angle = atan((cextent.lr.y-cextent.ll.y) /(cextent.lr.x-cextent.ll.x));
}
else {angle=1.5712;}
switch (action)
{
case (0): /* Move entire object */
cextent.ll.x += x_movement;
cextent.ul.x += x_movement;
cextent.lr.x += x_movement;
cextent.ur.x += x_movement;
cextent.ll.y += y_movement;
cextent.lr.y += y_movement;
cextent.ul.y += y_movement;
cextent.ur.y += y_movement;
break;
case (1): /* Resize from upper left hand corner */
cextent.ul.x += x_movement;
cextent.ul.y += y_movement;
update_corner(&(cextent.ur),x_movement,y_movement,angle,1);
update_corner(&(cextent.ll),x_movement,y_movement,angle,0);
break;
case (2): /* Resize from upper right hand corner */
cextent.ur.x += x_movement;
cextent.ur.y += y_movement;
update_corner(&(cextent.ul),x_movement,y_movement,angle,1);
update_corner(&(cextent.lr),x_movement,y_movement,angle,0);
break;
case (3): /* Resize from lower right hand corner */
cextent.lr.x += x_movement;
cextent.lr.y += y_movement;
update_corner(&(cextent.ll),x_movement,y_movement,angle,1);
update_corner(&(cextent.ur),x_movement,y_movement,angle,0);
break;
case (4): /* Resize from lower left hand corner */
cextent.ll.x += x_movement;
cextent.ll.y += y_movement;
update_corner(&(cextent.lr),x_movement,y_movement,angle,1);
update_corner(&(cextent.ul),x_movement,y_movement,angle,0);
break;
case (5): /* Resize from top */
update_corner(&(cextent.ur),x_movement,y_movement,angle,1);
update_corner(&(cextent.ul),x_movement,y_movement,angle,1);
break;
case (6): /* Resize from right */
update_corner(&(cextent.ur),x_movement,y_movement,angle,0);
update_corner(&(cextent.lr),x_movement,y_movement,angle,0);
break;
case (7): /* Resize from bottom */
update_corner(&(cextent.lr),x_movement,y_movement,angle,1);
update_corner(&(cextent.ll),x_movement,y_movement,angle,1);
break;
case (8): /* Resize from left */
update_corner(&(cextent.ul),x_movement,y_movement,angle,0);
update_corner(&(cextent.ll),x_movement,y_movement,angle,0);
break;
}
current->extent.ll.x=cextent.ll.x;
current->extent.lr.x=cextent.lr.x;
current->extent.ur.x=cextent.ur.x;
current->extent.ul.x=cextent.ul.x;
current->extent.ll.y=cextent.ll.y;
current->extent.lr.y=cextent.lr.y;
current->extent.ur.y=cextent.ur.y;
current->extent.ul.y=cextent.ul.y;
if (action>100) /* ok we are trying to modify a primitive */
{
if (strcmp(current->data.pd->type,"fillarea")==0)
{
tftab = &Tf_tab;
while (tftab != NULL) {
if (cmpncs(current->data.pd->g_name, tftab->name) == 0) break;
tftab = tftab->next;
}
if (tftab->priority == 0) break; /* do nothing */
strcpy(proj,tftab->proj);
set_viewport_and_worldcoordinate ( tftab->fvp, tftab->fwc,proj );
xptr = tftab->fx; yptr = tftab->fy;
}
if (strcmp(current->data.pd->type,"line")==0)
{
tltab = &Tl_tab;
while (tltab != NULL) {
if (cmpncs(current->data.pd->g_name, tltab->name) == 0) break;
tltab = tltab->next;
}
if (tltab->priority == 0) break; /* do nothing */
strcpy(proj,tltab->proj);
set_viewport_and_worldcoordinate ( tltab->lvp, tltab->lwc,proj );
xptr = tltab->lx; yptr = tltab->ly;
}
if (strcmp(current->data.pd->type,"marker")==0)
{
tmtab = &Tm_tab;
while (tmtab != NULL) {
if (cmpncs(current->data.pd->g_name, tmtab->name) == 0) break;
tmtab = tmtab->next;
}
if (tmtab->priority == 0) break; /* do nothing */
strcpy(proj,tmtab->proj);
set_viewport_and_worldcoordinate ( tmtab->mvp, tmtab->mwc,proj );
xptr = tmtab->mx; yptr = tmtab->my;
}
xpts = xptr->ps; ypts = yptr->ps;
counter=0;
pxy=pointB;
for (iprim=0; iprim<xptr->nsegs; iprim++) {
if (iprim==current->sub_primitive)
{ /* ok we are going to touch this shape, need to recompute the extent */
current->extent.ll.x=current->extent.ll.y=current->extent.lr.y=current->extent.ul.x=1.E20;
current->extent.ur.x=current->extent.ur.y=current->extent.lr.x=current->extent.ul.y=-1.E20;
for (j=0;j<xpts->npts;j++) {
counter+=1;
/* we only do this if we're dealing with the point we're dragging */
/* and if this extent is the matching subprimitive number */
if (counter==(action-100))
{ /* only change something if it is the right point! */
pxy2 = invert_proj_convert(pxy);
/*pxy=proj_convert(pxy); */
/* need to do unproj part! and then set back to pts */
if ((pxy2.x!=1.e20) || (pxy2.y!=1.e20))
{
xpts->pts[j]=pxy2.x;
ypts->pts[j]=pxy2.y;
}
pxy2=pointB;
}
else
{
pxy2.x=xpts->pts[j];
pxy2.y=ypts->pts[j];
pxy2=proj_convert(pxy2);
}
if (pxy2.x<current->extent.ll.x) current->extent.ll.x=pxy2.x;
if (pxy2.y<current->extent.ll.y) current->extent.ll.y=pxy2.y;
if (pxy2.x>current->extent.lr.x) current->extent.lr.x=pxy2.x;
if (pxy2.y<current->extent.lr.y) current->extent.lr.y=pxy2.y;
if (pxy2.x>current->extent.ur.x) current->extent.ur.x=pxy2.x;
if (pxy2.y>current->extent.ur.y) current->extent.ur.y=pxy2.y;
if (pxy2.x<current->extent.ul.x) current->extent.ul.x=pxy2.x;
if (pxy2.y>current->extent.ul.y) current->extent.ul.y=pxy2.y;
}
}
else
{ /* we need to increment counter */
counter+=xpts->npts;
}
/* ok since we touched it we need to recopmute the extent? */
xpts = xpts->next;
ypts = ypts->next;
}
}
current = current->next;
}
PY_RELEASE_THREAD
PY_LEAVE_THREADS
}
Gpoint change_font_size_editor_mode(current,dx,dy,action)
struct item_list *current ;
float dx,dy;
int action;
{
Gpoint point,points[2];
struct table_chorn *pTo,*myto;
extern struct table_chorn To_tab;
struct table_text *pTt;
extern struct table_text Tt_tab;
extern int chk_mov_To();
float new_size;
float dx0,dx1,dx2,dy0,dy1,dy2,tmp;
char to[VCS_MX_NM_LEN],tb[VCS_MX_NM_LEN];
Gextent extent;
int delta,cont,first_pass,myaction,prev_delta=0;
float increase;
point=current->extent.ul;
if (action<=0) return point;
switch (current->type)
{
case(pe_text):
strcpy(to,current->data.pet->to);
strcpy(tb,current->data.pet->tb);
break;
case(pe_form):
strcpy(to,current->data.pef->to);
strcpy(tb,current->data.pef->tb);
break;
}
/* printf("dealing with %s, %s\n",to,tb); */
/* look for table orientation */
for (pTo=&To_tab; pTo != NULL; pTo=pTo->next)
if (strcmp(pTo->name,to) == 0) break;
for (pTt=&Tt_tab; pTt != NULL; pTt=pTt->next)
if (strcmp(pTt->name,tb) == 0) break;
if (pTo==NULL)
{
return point ;
}
/* printf("ok we are altering: %s\n",current->attr_name); */
/* goes to the end */
myto = NULL;
myto = (struct table_chorn *)malloc(sizeof(struct table_chorn));
myto->chh = pTo->chh;
increase = pTo->chh/5.-pTo->chh/17.;
myto->chua = pTo->chua;
myto->chpath=pTo->chpath;
myto->chalh=pTo->chalh;
myto->chalv=pTo->chalv;
myto->next=NULL;
if (strncmp(to,"uniq_",5)!=0)
{
/* printf("ok creating a new name for this guy here\n"); */
while (pTo!=NULL)
{
sprintf(to,"uniq_%i",rand());
for (pTo=&To_tab; pTo != NULL; pTo=pTo->next)
if (strcmp(pTo->name,to) == 0) break;
}
}
strcpy(myto->name,to);
/* printf("object to name: %s\n",myto->name); */
switch (current->type)
{
case(pe_text):
strcpy(current->data.pet->to,myto->name);
break;
case(pe_form):
strcpy(current->data.pef->to,myto->name);
break;
}
/* printf("Action %i on object intialized to:\n",action); */
/* printf("height : %f\n",myto->chh); */
/* printf("angle : %f\n",myto->chua); */
/* printf("path : %c\n",myto->chpath); */
/* printf("horiz : %c\n",myto->chalh); */
/* printf("vert : %c\n",myto->chalv); */
points[0].x=0.;
points[0].y=0.;
points[1].x=dx;
points[1].y=dy;
rotate_anchors(&points,2,myto->chua/180.*3.14159);
dx=points[1].x;
dy=points[1].y;
points[0].x=0.;
points[0].y=0.;
points[1].x=current->extent.ur.x-current->extent.ll.x;;
points[1].y=current->extent.ur.y-current->extent.ll.y;
//rotate_anchors(&points,2,myto->chua/180.*3.14159);
dy0 = fabs(points[1].y);
if ((action==1) || (action==2) || (action==5)) {dy1 = dy0+dy;} /* moving from top dy = increase */
if ((action==3) || (action==4) || (action==7)) {dy1 = dy0-dy;} /* moving from bottom dy = increase */
dx0 = fabs(points[1].x);
if ((action==2) || (action==3) || (action==6)) {dx1 = dx0+dx;} /* moving from the right dx = increase */
if ((action==1) || (action==4) || (action==8)) {dx1 = dx0-dx;} /* moving from left dx = decrease */
myaction=action;
/* corrects if you did not select a corner */
switch (myaction)
{
case(5): /* drag from top */
myaction=2;
dx1=dx0;
break;
case(6): /* drag from right side */
myaction=2;
dy1=dy0;
break;
case(7): /* drag from bottom */
myaction=3;
dx1=dx0;
break;
case(8): /* drag from left side */
myaction=4;
dy1=dy0;
break;
}
if (dy1<0)
{ /* we went over in vertical direction */
/* printf("flipping vertical ---------------------- %i, %f\n",myaction,dy1); */
switch (myaction)
{
case(1):
myaction=4;
break;
case(2):
myaction=3;
break;
case(3):
myaction=2;
break;
case(4):
myaction=1;
break;
}
dy1=-dy1;
}
/* printf("after flipping vertical ---------------------- %i\n",myaction); */
if (dx1<0)
{ /* we went over in vertical direction */
/* printf("flipping horiz ---------------------- %i\n",myaction); */
switch (myaction)
{
case(1):
myaction=2;
break;
case(2):
myaction=1;
break;
case(3):
myaction=4;
break;
case(4):
myaction=3;
break;
}
dx1=-dx1;
}
/* printf("after flipping horiz ---------------------- %i\n",myaction); */
cont=1;
first_pass=1;
/* ok here we need to put code for angle */
/* indeed we want to take into account rotation! */
if ((-45>myto->chua) && (myto->chua>-135)){
tmp=dx0;
dx0=dy0;
dy0=dx0;
switch (myaction){
case(1): /*TL*/
myto->chalv='b';
myto->chalh='l';
break;
case(2): /*TR*/
myto->chalv='t';
myto->chalh='l';
break;
case(3):/*BR*/
myto->chalv='t';
myto->chalh='r';
break;
case(4):/*BL*/
myto->chalv='b';
myto->chalh='r';
break;
}
}
else if ((myto->chua<-135) || (myto->chua>135)){
switch (myaction){
case(1): /*TL*/
myto->chalv='t';
myto->chalh='l';
break;
case(2): /*TR*/
myto->chalv='t';
myto->chalh='r';
break;
case(3):/*BR*/
myto->chalv='b';
myto->chalh='r';
break;
case(4):/*BL*/
myto->chalv='b';
myto->chalh='l';
break;
}
}
else if ((myto->chua>45)){
tmp=dx0;
dx0=dy0;
dy0=dx0;
switch (myaction){
case(1): /*TL*/
myto->chalv='t';
myto->chalh='r';
break;
case(2): /*TR*/
myto->chalv='b';
myto->chalh='r';
break;
case(3):/*BR*/
myto->chalv='b';
myto->chalh='l';
break;
case(4):/*BL*/
myto->chalv='t';
myto->chalh='l';
break;
}
}
else {
switch (myaction){
case(1):
myto->chalv='b';
myto->chalh='r';
break;
case(2):
myto->chalv='b';
myto->chalh='l';
break;
case(3):
myto->chalv='t';
myto->chalh='l';
break;
case(4):
myto->chalv='t';
myto->chalh='r';
break;
}
}
switch (myaction) /* fixing on opposite corner of the one clicked */
{
case(3): /* top left */
point=current->extent.ul;
break;
case(4): /* top right */
point=current->extent.ur;
break;
case(1): /* bottom right */
point=current->extent.lr;
break;
case(2): /* bottom left */
point=current->extent.ll;
break;
}
/* printf("We had dy ,dx at: %f,%f\n",dy,dx); */
/* printf("We had dy0,dx0 at: %f,%f\n",dy0,dx0); */
/* printf("We had dy1,dx1 at: %f,%f\n",dy1,dx1); */
while (cont==1)
{
/* printf("first pass and cont:%i,%i\n",first_pass,cont); */
set_text_attr(pTt,myto);
cairogqtxx(cont,point,¤t->string,&extent);
points[1].x=extent.ur.x-extent.ll.x;;
points[1].y=extent.ur.y-extent.ll.y;
rotate_anchors(&points,2,myto->chua/180.*3.14159);
dy2 = fabs(points[1].y);
dx2 = fabs(points[1].x);
if (dy2==0)
{
/* printf("aborting dy2=0 string: %s\n",current->string); */
break;
}
if (dy2>dy0)
{
delta=-1;
}
else
{
delta=1;
}
if (prev_delta==0) prev_delta=delta; /*initialize*/
if (prev_delta!=delta) increase=.75*increase;
if (increase<.0001) increase=.0001;
/* printf("dx0, dy0 : %f, %f\n",dx0,dy0); */
/* printf("dx2, dy2 : %f, %f\n",dx2,dy2); */
/* printf("dx , dy, action : %f, %f, %i\n",dx,dy,action); */
if (first_pass==1) /* first we grow on ys to make fit perfectly */
{
if (fabs(dy2-dy0)>0.001) /* not quite there let's keep going */
{
myto->chh=myto->chh+increase*delta;
}
else
{
first_pass=0;
}
}
else /* ok the ys have been fit correctly now need to shrink xs to match as well */
{
if (dx2>dx0) /* well ys fit but not x didn't want to go so much */
{
myto->chh=myto->chh-increase;
}
else
{
cont=0; /* x and y now fit hurrah! */
}
if (myto->chh<0.001) cont=0; /* stop the loop it's shrinking! */
}
}
/* printf("We have dy2,dx2 at: %f,%f\n",dy2,dx2); */
chk_mov_To(myto);
current->extent=extent;
/* printf("alignement vh: %c,%c\n",myto->chalv,myto->chalh); */
return point;
}
void resize_or_move(self, pointA, pointB, action, selected_items, arrow_move)
PyVCScanvas_Object *self;
Gpoint pointA, pointB;
int action;
struct item_list **selected_items;
int arrow_move;
{
struct item_list *current = (struct item_list *)*selected_items;
float x_movement, y_movement,dx,dy;
float x_movement2, y_movement2;
Gpoint point;
int j,iprim,counter;
extern struct table_fill Tf_tab;
struct table_fill *tftab;
extern struct table_line Tl_tab;
struct table_line *tltab;
extern struct table_mark Tm_tab;
struct table_mark *tmtab;
struct points_struct *xptr=NULL, *yptr=NULL;
struct array_segments *xpts=NULL, *ypts=NULL;
char proj[256];
extern Gpoint proj_convert();
extern Gpoint invert_proj_convert();
Gpoint pxy;
int found;
Gextent myextent;
/* void printextent(); */
int within_buffer();
extern int update_ind;
PY_ENTER_THREADS
PY_GRAB_THREAD
x_movement = nnorm(self, 0, (pointB.x - pointA.x));
y_movement = nnorm(self, 1, (pointB.y - pointA.y));
x_movement2=pointB.x-pointA.x;
y_movement2=pointB.y-pointA.y;
while (current != NULL)
{
switch (current->type)
{
case (pe_text):
point = change_font_size_editor_mode(current,
x_movement,
y_movement,
action
);
if (action>0)
{
current->data.pet->x = nnorm(self,0,point.x);
current->data.pet->y = nnorm(self,1,point.y);
}
else
{
current->data.pet->x += x_movement;
current->data.pet->y += y_movement;
}
break;
case (pe_form):
point = change_font_size_editor_mode(current,
x_movement,
y_movement,
action
);
if (action>0)
{
current->data.pef->x = nnorm(self,0,point.x);
current->data.pef->y = nnorm(self,1,point.y);
}
else
{
current->data.pef->x += x_movement;
current->data.pef->y += y_movement;
}
break;
case (pe_x_tic):
current->data.pext->y1 += y_movement;
current->data.pext->y2 += y_movement;
break;
case (pe_y_tic):
current->data.peyt->x1 += x_movement;
current->data.peyt->x2 += x_movement;
break;
case (pe_x_lab):
current->data.pexl->y += y_movement;
break;
case (pe_y_lab):
current->data.peyl->x += x_movement;
break;
case (pe_box):
switch (action)
{
case (0): /* Move entire object as is */
if (current->data.peb->x1 < current->data.peb->x2) {
current->data.peb->x1 = nnorm(self, 0, current->extent.ll.x);
current->data.peb->x2 = nnorm(self, 0, current->extent.lr.x);
}
else {
current->data.peb->x2 = nnorm(self, 0, current->extent.ll.x);
current->data.peb->x1 = nnorm(self, 0, current->extent.lr.x);
}
if (current->data.peb->y1 < current->data.peb->y2) {
current->data.peb->y1 = nnorm(self, 1, current->extent.ll.y);
current->data.peb->y2 = nnorm(self, 1, current->extent.ul.y);
}
else {
current->data.peb->y2 = nnorm(self, 1, current->extent.ll.y);
current->data.peb->y1 = nnorm(self, 1, current->extent.ul.y);
}
break;
case (1): /* Resize from the top left corner */
if (current->data.peb->y1 < current->data.peb->y2) {
if (current->y_reversed == 0)
current->data.peb->y2 = nnorm(self, 1, current->extent.ul.y);
else
current->data.peb->y2 = nnorm(self, 1, current->extent.ll.y);
}
else {
if (current->y_reversed == 0)
current->data.peb->y1 = nnorm(self, 1, current->extent.ul.y);
else
current->data.peb->y1 = nnorm(self, 1, current->extent.ll.y);
}
if (current->data.peb->x1 < current->data.peb->x2) {
if (current->x_reversed == 0)
current->data.peb->x1 = nnorm(self, 0, current->extent.ll.x);
else
current->data.peb->x1 = nnorm(self, 0, current->extent.lr.x);
}
else {
if (current->x_reversed == 0)
current->data.peb->x2 = nnorm(self, 0, current->extent.ll.x);
else
current->data.peb->x2 = nnorm(self, 0, current->extent.lr.x);
}
break;
case (2): /* Resize from the top right corner */
if (current->data.peb->y1 < current->data.peb->y2) {
if (current->y_reversed == 0)
current->data.peb->y2 = nnorm(self, 1, current->extent.ul.y);
else
current->data.peb->y2 = nnorm(self, 1, current->extent.ll.y);
}
else {
if (current->y_reversed == 0)
current->data.peb->y1 = nnorm(self, 1, current->extent.ul.y);
else
current->data.peb->y1 = nnorm(self, 1, current->extent.ll.y);
}
if (current->data.peb->x1 < current->data.peb->x2) {
if (current->x_reversed == 0)
current->data.peb->x2 = nnorm(self, 0, current->extent.lr.x);
else
current->data.peb->x2 = nnorm(self, 0, current->extent.ll.x);
}
else {
if (current->x_reversed == 0)
current->data.peb->x1 = nnorm(self, 0, current->extent.lr.x);
else
current->data.peb->x1 = nnorm(self, 0, current->extent.ll.x);
}
break;
case (3): /* Resize from the bottom right corner */
if (current->data.peb->y1 < current->data.peb->y2) {
if (current->y_reversed == 0)
current->data.peb->y1 = nnorm(self, 1, current->extent.ll.y);
else
current->data.peb->y1 = nnorm(self, 1, current->extent.ul.y);
}
else {
if (current->y_reversed == 0)
current->data.peb->y2 = nnorm(self, 1, current->extent.ll.y);
else
current->data.peb->y2 = nnorm(self, 1, current->extent.ul.y);
}
if (current->data.peb->x1 < current->data.peb->x2) {
if (current->x_reversed == 0)
current->data.peb->x2 = nnorm(self, 0, current->extent.lr.x);
else
current->data.peb->x2 = nnorm(self, 0, current->extent.ll.x);
}
else {
if (current->x_reversed == 0)
current->data.peb->x1 = nnorm(self, 0, current->extent.lr.x);
else
current->data.peb->x1 = nnorm(self, 0, current->extent.ll.x);
}
break;
case (4): /* Resize from the bottom left corner */
if (current->data.peb->y1 < current->data.peb->y2) {
if (current->y_reversed == 0)
current->data.peb->y1 = nnorm(self, 1, current->extent.ll.y);
else
current->data.peb->y1 = nnorm(self, 1, current->extent.ul.y);
}
else {
if (current->y_reversed == 0)
current->data.peb->y2 = nnorm(self, 1, current->extent.ll.y);
else
current->data.peb->y2 = nnorm(self, 1, current->extent.ul.y);
}
if (current->data.peb->x1 < current->data.peb->x2) {
if (current->x_reversed == 0)
current->data.peb->x1 = nnorm(self, 0, current->extent.ll.x);
else
current->data.peb->x1 = nnorm(self, 0, current->extent.lr.x);
}
else {
if (current->x_reversed == 0)
current->data.peb->x2 = nnorm(self, 0, current->extent.ll.x);
else
current->data.peb->x2 = nnorm(self, 0, current->extent.lr.x);
}
break;
case (5): /* Resize from the top */
if (current->data.peb->y1 < current->data.peb->y2) {
if (current->y_reversed == 0)
current->data.peb->y2 = nnorm(self, 1, current->extent.ul.y);
else
current->data.peb->y2 = nnorm(self, 1, current->extent.ll.y);
}
else {
if (current->y_reversed == 0)
current->data.peb->y1 = nnorm(self, 1, current->extent.ul.y);
else
current->data.peb->y1 = nnorm(self, 1, current->extent.ll.y);
}
break;
case (6): /* Resize from the right */
if (current->data.peb->x1 < current->data.peb->x2) {
if (current->x_reversed == 0)
current->data.peb->x2 = nnorm(self, 0, current->extent.lr.x);
else
current->data.peb->x2 = nnorm(self, 0, current->extent.ll.x);
}
else {
if (current->x_reversed == 0)
current->data.peb->x1 = nnorm(self, 0, current->extent.lr.x);
else
current->data.peb->x1 = nnorm(self, 0, current->extent.ll.x);
}
break;
case (7): /* Resize from the bottom */
if (current->data.peb->y1 < current->data.peb->y2) {
if (current->y_reversed == 0)
current->data.peb->y1 = nnorm(self, 1, current->extent.ll.y);
else
current->data.peb->y1 = nnorm(self, 1, current->extent.ul.y);
}
else {
if (current->y_reversed == 0)
current->data.peb->y2 = nnorm(self, 1, current->extent.ll.y);
else
current->data.peb->y2 = nnorm(self, 1, current->extent.ul.y);
}
break;
case (8): /* Resize from the left */
if (current->data.peb->x1 < current->data.peb->x2) {
if (current->x_reversed == 0)
current->data.peb->x1 = nnorm(self, 0, current->extent.ll.x);
else
current->data.peb->x1 = nnorm(self, 0, current->extent.lr.x);
}
else {
if (current->x_reversed == 0)
current->data.peb->x2 = nnorm(self, 0, current->extent.ll.x);
else
current->data.peb->x2 = nnorm(self, 0, current->extent.lr.x);
}
break;
}
break;
case (pe_line):
switch (action)
{
case (0): /* Move entire object as is */
if (current->data.pel->x1 < current->data.pel->x2) {
current->data.pel->x1 = nnorm(self, 0, current->extent.ll.x);
current->data.pel->x2 = nnorm(self, 0, current->extent.lr.x);
}
else {
current->data.pel->x2 = nnorm(self, 0, current->extent.ll.x);
current->data.pel->x1 = nnorm(self, 0, current->extent.lr.x);
}
if (current->data.pel->y1 < current->data.pel->y2) {
current->data.pel->y1 = nnorm(self, 1, current->extent.ll.y);
current->data.pel->y2 = nnorm(self, 1, current->extent.ul.y);
}
else {
current->data.pel->y2 = nnorm(self, 1, current->extent.ll.y);
current->data.pel->y1 = nnorm(self, 1, current->extent.ul.y);
}
break;
case (1): /* Resize from the top left corner */
if (current->data.pel->y1 < current->data.pel->y2) {
if (current->y_reversed == 0)
current->data.pel->y2 = nnorm(self, 1, current->extent.ul.y);
else
current->data.pel->y2 = nnorm(self, 1, current->extent.ll.y);
}
else {
if (current->y_reversed == 0)
current->data.pel->y1 = nnorm(self, 1, current->extent.ul.y);
else
current->data.pel->y1 = nnorm(self, 1, current->extent.ll.y);
}
if (current->data.pel->x1 < current->data.pel->x2) {
if (current->x_reversed == 0)
current->data.pel->x1 = nnorm(self, 0, current->extent.ll.x);
else
current->data.pel->x1 = nnorm(self, 0, current->extent.lr.x);
}
else {
if (current->x_reversed == 0)
current->data.pel->x2 = nnorm(self, 0, current->extent.ll.x);
else
current->data.pel->x2 = nnorm(self, 0, current->extent.lr.x);
}
break;
case (2): /* Resize from the top right corner */
if (current->data.pel->y1 < current->data.pel->y2) {
if (current->y_reversed == 0)
current->data.pel->y2 = nnorm(self, 1, current->extent.ul.y);
else
current->data.pel->y2 = nnorm(self, 1, current->extent.ll.y);
}
else {
if (current->y_reversed == 0)
current->data.pel->y1 = nnorm(self, 1, current->extent.ul.y);
else
current->data.pel->y1 = nnorm(self, 1, current->extent.ll.y);
}
if (current->data.pel->x1 < current->data.pel->x2) {
if (current->x_reversed == 0)
current->data.pel->x2 = nnorm(self, 0, current->extent.lr.x);
else
current->data.pel->x2 = nnorm(self, 0, current->extent.ll.x);
}
else {
if (current->x_reversed == 0)
current->data.pel->x1 = nnorm(self, 0, current->extent.lr.x);
else
current->data.pel->x1 = nnorm(self, 0, current->extent.ll.x);
}
break;
case (3): /* Resize from the bottom right corner */
if (current->data.pel->y1 < current->data.pel->y2) {
if (current->y_reversed == 0)
current->data.pel->y1 = nnorm(self, 1, current->extent.ll.y);
else
current->data.pel->y1 = nnorm(self, 1, current->extent.ul.y);
}
else {
if (current->y_reversed == 0)
current->data.pel->y2 = nnorm(self, 1, current->extent.ll.y);
else
current->data.pel->y2 = nnorm(self, 1, current->extent.ul.y);
}
if (current->data.pel->x1 < current->data.pel->x2) {
if (current->x_reversed == 0)
current->data.pel->x2 = nnorm(self, 0, current->extent.lr.x);
else
current->data.pel->x2 = nnorm(self, 0, current->extent.ll.x);
}
else {
if (current->x_reversed == 0)
current->data.pel->x1 = nnorm(self, 0, current->extent.lr.x);
else
current->data.pel->x1 = nnorm(self, 0, current->extent.ll.x);
}
break;
case (4): /* Resize from the bottom left corner */
if (current->data.pel->y1 < current->data.pel->y2) {
if (current->y_reversed == 0)
current->data.pel->y1 = nnorm(self, 1, current->extent.ll.y);
else
current->data.pel->y1 = nnorm(self, 1, current->extent.ul.y);
}
else {
if (current->y_reversed == 0)
current->data.pel->y2 = nnorm(self, 1, current->extent.ll.y);
else
current->data.pel->y2 = nnorm(self, 1, current->extent.ul.y);
}
if (current->data.pel->x1 < current->data.pel->x2) {
if (current->x_reversed == 0)
current->data.pel->x1 = nnorm(self, 0, current->extent.ll.x);
else
current->data.pel->x1 = nnorm(self, 0, current->extent.lr.x);
}
else {
if (current->x_reversed == 0)
current->data.pel->x2 = nnorm(self, 0, current->extent.ll.x);
else
current->data.pel->x2 = nnorm(self, 0, current->extent.lr.x);
}
break;
case (5): /* Resize from the top */
if (current->data.pel->y1 < current->data.pel->y2) {
if (current->y_reversed == 0)
current->data.pel->y2 = nnorm(self, 1, current->extent.ul.y);
else
current->data.pel->y2 = nnorm(self, 1, current->extent.ll.y);
}
else {
if (current->y_reversed == 0)
current->data.pel->y1 = nnorm(self, 1, current->extent.ul.y);
else
current->data.pel->y1 = nnorm(self, 1, current->extent.ll.y);
}
break;
case (6): /* Resize from the right */
if (current->data.pel->x1 < current->data.pel->x2) {
if (current->x_reversed == 0)
current->data.pel->x2 = nnorm(self, 0, current->extent.lr.x);
else
current->data.pel->x2 = nnorm(self, 0, current->extent.ll.x);
}
else {
if (current->x_reversed == 0)
current->data.pel->x1 = nnorm(self, 0, current->extent.lr.x);
else
current->data.pel->x1 = nnorm(self, 0, current->extent.ll.x);
}
break;
case (7): /* Resize from the bottom */
if (current->data.pel->y1 < current->data.pel->y2) {
if (current->y_reversed == 0)
current->data.pel->y1 = nnorm(self, 1, current->extent.ll.y);
else
current->data.pel->y1 = nnorm(self, 1, current->extent.ul.y);
}
else {
if (current->y_reversed == 0)
current->data.pel->y2 = nnorm(self, 1, current->extent.ll.y);
else
current->data.pel->y2 = nnorm(self, 1, current->extent.ul.y);
}
break;
case (8): /* Resize from the left */
if (current->data.pel->x1 < current->data.pel->x2) {
if (current->x_reversed == 0)
current->data.pel->x1 = nnorm(self, 0, current->extent.ll.x);
else
current->data.pel->x1 = nnorm(self, 0, current->extent.lr.x);
}
else {
if (current->x_reversed == 0)
current->data.pel->x2 = nnorm(self, 0, current->extent.ll.x);
else
current->data.pel->x2 = nnorm(self, 0, current->extent.lr.x);
}
break;
}
break;
case (pe_leg):
switch (action)
{
case (0): /* Move entire object as is */
if (current->data.peleg->x1 < current->data.peleg->x2) {
current->data.peleg->x1 = nnorm(self, 0, current->extent.ll.x);
current->data.peleg->x2 = nnorm(self, 0, current->extent.lr.x);
}
else {
current->data.peleg->x2 = nnorm(self, 0, current->extent.ll.x);
current->data.peleg->x1 = nnorm(self, 0, current->extent.lr.x);
}
if (current->data.peleg->y1 < current->data.peleg->y2) {
current->data.peleg->y1 = nnorm(self, 1, current->extent.ll.y);
current->data.peleg->y2 = nnorm(self, 1, current->extent.ul.y);
}
else {
current->data.peleg->y2 = nnorm(self, 1, current->extent.ll.y);
current->data.peleg->y1 = nnorm(self, 1, current->extent.ul.y);
}
break;
case (1): /* Resize from the top left corner */
if (current->data.peleg->y1 < current->data.peleg->y2) {
if (current->y_reversed == 0)
current->data.peleg->y2 = nnorm(self, 1, current->extent.ul.y);
else
current->data.peleg->y2 = nnorm(self, 1, current->extent.ll.y);
}
else {
if (current->y_reversed == 0)
current->data.peleg->y1 = nnorm(self, 1, current->extent.ul.y);
else
current->data.peleg->y1 = nnorm(self, 1, current->extent.ll.y);
}
if (current->data.peleg->x1 < current->data.peleg->x2) {
if (current->x_reversed == 0)
current->data.peleg->x1 = nnorm(self, 0, current->extent.ll.x);
else
current->data.peleg->x1 = nnorm(self, 0, current->extent.lr.x);
}
else {
if (current->x_reversed == 0)
current->data.peleg->x2 = nnorm(self, 0, current->extent.ll.x);
else
current->data.peleg->x2 = nnorm(self, 0, current->extent.lr.x);
}
break;
case (2): /* Resize from the top right corner */
if (current->data.peleg->y1 < current->data.peleg->y2) {
if (current->y_reversed == 0)
current->data.peleg->y2 = nnorm(self, 1, current->extent.ul.y);
else
current->data.peleg->y2 = nnorm(self, 1, current->extent.ll.y);
}
else {
if (current->y_reversed == 0)
current->data.peleg->y1 = nnorm(self, 1, current->extent.ul.y);
else
current->data.peleg->y1 = nnorm(self, 1, current->extent.ll.y);
}
if (current->data.peleg->x1 < current->data.peleg->x2) {
if (current->x_reversed == 0)
current->data.peleg->x2 = nnorm(self, 0, current->extent.lr.x);
else
current->data.peleg->x2 = nnorm(self, 0, current->extent.ll.x);
}
else {
if (current->x_reversed == 0)
current->data.peleg->x1 = nnorm(self, 0, current->extent.lr.x);
else
current->data.peleg->x1 = nnorm(self, 0, current->extent.ll.x);
}
break;
case (3): /* Resize from the bottom right corner */
if (current->data.peleg->y1 < current->data.peleg->y2) {
if (current->y_reversed == 0)
current->data.peleg->y1 = nnorm(self, 1, current->extent.ll.y);
else
current->data.peleg->y1 = nnorm(self, 1, current->extent.ul.y);
}
else {
if (current->y_reversed == 0)
current->data.peleg->y2 = nnorm(self, 1, current->extent.ll.y);
else
current->data.peleg->y2 = nnorm(self, 1, current->extent.ul.y);
}
if (current->data.peleg->x1 < current->data.peleg->x2) {
if (current->x_reversed == 0)
current->data.peleg->x2 = nnorm(self, 0, current->extent.lr.x);
else
current->data.peleg->x2 = nnorm(self, 0, current->extent.ll.x);
}
else {
if (current->x_reversed == 0)
current->data.peleg->x1 = nnorm(self, 0, current->extent.lr.x);
else
current->data.peleg->x1 = nnorm(self, 0, current->extent.ll.x);
}
break;
case (4): /* Resize from the bottom left corner */
if (current->data.peleg->y1 < current->data.peleg->y2) {
if (current->y_reversed == 0)
current->data.peleg->y1 = nnorm(self, 1, current->extent.ll.y);
else
current->data.peleg->y1 = nnorm(self, 1, current->extent.ul.y);
}
else {
if (current->y_reversed == 0)
current->data.peleg->y2 = nnorm(self, 1, current->extent.ll.y);
else
current->data.peleg->y2 = nnorm(self, 1, current->extent.ul.y);
}
if (current->data.peleg->x1 < current->data.peleg->x2) {
if (current->x_reversed == 0)
current->data.peleg->x1 = nnorm(self, 0, current->extent.ll.x);
else
current->data.peleg->x1 = nnorm(self, 0, current->extent.lr.x);
}
else {
if (current->x_reversed == 0)
current->data.peleg->x2 = nnorm(self, 0, current->extent.ll.x);
else
current->data.peleg->x2 = nnorm(self, 0, current->extent.lr.x);
}
break;
case (5): /* Resize from the top */
if (current->data.peleg->y1 < current->data.peleg->y2) {
if (current->y_reversed == 0)
current->data.peleg->y2 = nnorm(self, 1, current->extent.ul.y);
else
current->data.peleg->y2 = nnorm(self, 1, current->extent.ll.y);
}
else {
if (current->y_reversed == 0)
current->data.peleg->y1 = nnorm(self, 1, current->extent.ul.y);
else
current->data.peleg->y1 = nnorm(self, 1, current->extent.ll.y);
}
break;
case (6): /* Resize from the right */
if (current->data.peleg->x1 < current->data.peleg->x2) {
if (current->x_reversed == 0)
current->data.peleg->x2 = nnorm(self, 0, current->extent.lr.x);
else
current->data.peleg->x2 = nnorm(self, 0, current->extent.ll.x);
}
else {
if (current->x_reversed == 0)
current->data.peleg->x1 = nnorm(self, 0, current->extent.lr.x);
else
current->data.peleg->x1 = nnorm(self, 0, current->extent.ll.x);
}
break;
case (7): /* Resize from the bottom */
if (current->data.peleg->y1 < current->data.peleg->y2) {
if (current->y_reversed == 0)
current->data.peleg->y1 = nnorm(self, 1, current->extent.ll.y);
else
current->data.peleg->y1 = nnorm(self, 1, current->extent.ul.y);
}
else {
if (current->y_reversed == 0)
current->data.peleg->y2 = nnorm(self, 1, current->extent.ll.y);
else
current->data.peleg->y2 = nnorm(self, 1, current->extent.ul.y);
}
break;
case (8): /* Resize from the left */
if (current->data.peleg->x1 < current->data.peleg->x2) {
if (current->x_reversed == 0)
current->data.peleg->x1 = nnorm(self, 0, current->extent.ll.x);
else
current->data.peleg->x1 = nnorm(self, 0, current->extent.lr.x);
}
else {
if (current->x_reversed == 0)
current->data.peleg->x2 = nnorm(self, 0, current->extent.ll.x);
else
current->data.peleg->x2 = nnorm(self, 0, current->extent.lr.x);
}
break;
}
break;
case (pe_dsp):
switch (action)
{
case (0): /* Move entire object as is */
if (current->data.pedsp->x1 < current->data.pedsp->x2) {
current->data.pedsp->x1 = nnorm(self, 0, current->extent.ll.x);
current->data.pedsp->x2 = nnorm(self, 0, current->extent.lr.x);
}
else {
current->data.pedsp->x2 = nnorm(self, 0, current->extent.ll.x);
current->data.pedsp->x1 = nnorm(self, 0, current->extent.lr.x);
}
if (current->data.pedsp->y1 < current->data.pedsp->y2) {
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ll.y);
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ul.y);
}
else {
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ll.y);
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ul.y);
}
break;
case (1): /* Resize from the top left corner */
if (current->data.pedsp->y1 < current->data.pedsp->y2) {
if (current->y_reversed == 0)
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ul.y);
else
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ll.y);
}
else {
if (current->y_reversed == 0)
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ul.y);
else
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ll.y);
}
if (current->data.pedsp->x1 < current->data.pedsp->x2) {
if (current->x_reversed == 0)
current->data.pedsp->x1 = nnorm(self, 0, current->extent.ll.x);
else
current->data.pedsp->x1 = nnorm(self, 0, current->extent.lr.x);
}
else {
if (current->x_reversed == 0)
current->data.pedsp->x2 = nnorm(self, 0, current->extent.ll.x);
else
current->data.pedsp->x2 = nnorm(self, 0, current->extent.lr.x);
}
break;
case (2): /* Resize from the top right corner */
if (current->data.pedsp->y1 < current->data.pedsp->y2) {
if (current->y_reversed == 0)
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ul.y);
else
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ll.y);
}
else {
if (current->y_reversed == 0)
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ul.y);
else
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ll.y);
}
if (current->data.pedsp->x1 < current->data.pedsp->x2) {
if (current->x_reversed == 0)
current->data.pedsp->x2 = nnorm(self, 0, current->extent.lr.x);
else
current->data.pedsp->x2 = nnorm(self, 0, current->extent.ll.x);
}
else {
if (current->x_reversed == 0)
current->data.pedsp->x1 = nnorm(self, 0, current->extent.lr.x);
else
current->data.pedsp->x1 = nnorm(self, 0, current->extent.ll.x);
}
break;
case (3): /* Resize from the bottom right corner */
if (current->data.pedsp->y1 < current->data.pedsp->y2) {
if (current->y_reversed == 0)
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ll.y);
else
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ul.y);
}
else {
if (current->y_reversed == 0)
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ll.y);
else
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ul.y);
}
if (current->data.pedsp->x1 < current->data.pedsp->x2) {
if (current->x_reversed == 0)
current->data.pedsp->x2 = nnorm(self, 0, current->extent.lr.x);
else
current->data.pedsp->x2 = nnorm(self, 0, current->extent.ll.x);
}
else {
if (current->x_reversed == 0)
current->data.pedsp->x1 = nnorm(self, 0, current->extent.lr.x);
else
current->data.pedsp->x1 = nnorm(self, 0, current->extent.ll.x);
}
break;
case (4): /* Resize from the bottom left corner */
if (current->data.pedsp->y1 < current->data.pedsp->y2) {
if (current->y_reversed == 0)
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ll.y);
else
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ul.y);
}
else {
if (current->y_reversed == 0)
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ll.y);
else
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ul.y);
}
if (current->data.pedsp->x1 < current->data.pedsp->x2) {
if (current->x_reversed == 0)
current->data.pedsp->x1 = nnorm(self, 0, current->extent.ll.x);
else
current->data.pedsp->x1 = nnorm(self, 0, current->extent.lr.x);
}
else {
if (current->x_reversed == 0)
current->data.pedsp->x2 = nnorm(self, 0, current->extent.ll.x);
else
current->data.pedsp->x2 = nnorm(self, 0, current->extent.lr.x);
}
break;
case (5): /* Resize from the top */
if (current->data.pedsp->y1 < current->data.pedsp->y2) {
if (current->y_reversed == 0)
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ul.y);
else
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ll.y);
}
else {
if (current->y_reversed == 0)
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ul.y);
else
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ll.y);
}
break;
case (6): /* Resize from the right */
if (current->data.pedsp->x1 < current->data.pedsp->x2) {
if (current->x_reversed == 0)
current->data.pedsp->x2 = nnorm(self, 0, current->extent.lr.x);
else
current->data.pedsp->x2 = nnorm(self, 0, current->extent.ll.x);
}
else {
if (current->x_reversed == 0)
current->data.pedsp->x1 = nnorm(self, 0, current->extent.lr.x);
else
current->data.pedsp->x1 = nnorm(self, 0, current->extent.ll.x);
}
break;
case (7): /* Resize from the bottom */
if (current->data.pedsp->y1 < current->data.pedsp->y2) {
if (current->y_reversed == 0)
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ll.y);
else
current->data.pedsp->y1 = nnorm(self, 1, current->extent.ul.y);
}
else {
if (current->y_reversed == 0)
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ll.y);
else
current->data.pedsp->y2 = nnorm(self, 1, current->extent.ul.y);
}
break;
case (8): /* Resize from the left */
if (current->data.pedsp->x1 < current->data.pedsp->x2) {
if (current->x_reversed == 0)
current->data.pedsp->x1 = nnorm(self, 0, current->extent.ll.x);
else
current->data.pedsp->x1 = nnorm(self, 0, current->extent.lr.x);
}
else {
if (current->x_reversed == 0)
current->data.pedsp->x2 = nnorm(self, 0, current->extent.ll.x);
else
current->data.pedsp->x2 = nnorm(self, 0, current->extent.lr.x);
}
break;
}
break;
}
if ((current->type==display_tab) && (action<100))
{ /* we have primitive and we are resizing it */
/* (reshaping done on update_extent) */
if (strcmp(current->data.pd->type,"fillarea")==0)
{
tftab = &Tf_tab;
while (tftab != NULL) {
if (cmpncs(current->data.pd->g_name, tftab->name) == 0) break;
tftab = tftab->next;
}
if (tftab->priority == 0) break; /* do nothing */
strcpy(proj,tftab->proj);
set_viewport_and_worldcoordinate ( tftab->fvp, tftab->fwc,proj );
xptr = tftab->fx; yptr = tftab->fy;
}
if (strcmp(current->data.pd->type,"line")==0)
{
tltab = &Tl_tab;
while (tltab != NULL) {
if (cmpncs(current->data.pd->g_name, tltab->name) == 0) break;
tltab = tltab->next;
}
if (tltab->priority == 0) break; /* do nothing */
strcpy(proj,tltab->proj);
set_viewport_and_worldcoordinate ( tltab->lvp, tltab->lwc,proj );
xptr = tltab->lx; yptr = tltab->ly;
}
if (strcmp(current->data.pd->type,"marker")==0)
{
tmtab = &Tm_tab;
while (tmtab != NULL) {
if (cmpncs(current->data.pd->g_name, tmtab->name) == 0) break;
tmtab = tmtab->next;
}
if (tmtab->priority == 0) break; /* do nothing */
strcpy(proj,tmtab->proj);
set_viewport_and_worldcoordinate ( tmtab->mvp, tmtab->mwc,proj );
xptr = tmtab->mx; yptr = tmtab->my;
}
dx=(current->extent.lr.x-current->extent.ll.x);
dy=(current->extent.ur.y-current->extent.lr.y);
xpts = xptr->ps; ypts = yptr->ps;
/* printf("coming in extent is:\n"); */
/* printextent(current->extent); */
/* printf("xmvt, ymvt are: %f,%f\n",x_movement,y_movement); */
myextent=current->extent;
/* printf("or : %f, %f\n",x_movement2,y_movement2); */
switch (action){
case (0):
myextent.ul.x-=x_movement2;
myextent.ll.x-=x_movement2;
myextent.ul.y-=y_movement2;
myextent.ur.y-=y_movement2;
myextent.ur.x-=x_movement2;
myextent.lr.x-=x_movement2;
myextent.ll.y-=y_movement2;
myextent.lr.y-=y_movement2;
break;
case (1): /* Resize from the top left corner */
myextent.ul.x-=x_movement2;
myextent.ll.x-=x_movement2;
myextent.ul.y-=y_movement2;
myextent.ur.y-=y_movement2;
break;
case (2): /* Resize from the top right corner */
myextent.ur.x-=x_movement2;
myextent.lr.x-=x_movement2;
myextent.ul.y-=y_movement2;
myextent.ur.y-=y_movement2;
break;
case (3): /* Resize from the bottom right corner */
myextent.ur.x-=x_movement2;
myextent.lr.x-=x_movement2;
myextent.ll.y-=y_movement2;
myextent.lr.y-=y_movement2;
break;
case (4): /* Resize from the bottom left corner */
myextent.ul.x-=x_movement2;
myextent.ll.x-=x_movement2;
myextent.ll.y-=y_movement2;
myextent.lr.y-=y_movement2;
break;
case (5): /* Resize from the top */
myextent.ul.y-=y_movement2;
myextent.ur.y-=y_movement2;
break;
case (6): /* Resize from the right */
myextent.ur.x-=x_movement2;
myextent.lr.x-=x_movement2;
break;
case (7): /* Resize from the bottom */
myextent.ll.y-=y_movement2;
myextent.lr.y-=y_movement2;
break;
case (8): /* Resize from the left */
myextent.ul.x-=x_movement2;
myextent.ll.x-=x_movement2;
break;
}
/* printf("computed original extent"); */
/* printextent(myextent); */
/* printextent(current->extent); */
for (iprim=0; iprim<xptr->nsegs; iprim++) {
/* found=0; */
/* for (j=0;j<xpts->npts;j++) { */
/* pxy.x=xpts->pts[j]; */
/* pxy.y=ypts->pts[j]; */
/* /\* goes to screen coordinates *\/ */
/* pxy=proj_convert(pxy); */
/* /\* printf("testing: %f,%f ",pxy.x,pxy.y); *\/ */
/* if (within_buffer(pxy,myextent,BUFFER)) { */
/* found++; */
/* /\* printf("good\n"); *\/ */
/* } */
/* /\* else printf("nope\n"); *\/ */
/* } */
/* printf("found: %i\n",found); */
if (iprim==current->sub_primitive)
{
/* ok we are resizing this shape? */
for (j=0;j<xpts->npts;j++) {
pxy.x=xpts->pts[j];
pxy.y=ypts->pts[j];
/* goes to screen coordinates */
pxy=proj_convert(pxy);
switch (action){
case (0):
pxy.x+=x_movement2;
pxy.y+=y_movement2;
break;
case (1): /* Resize from the top left corner */
pxy.x=current->extent.lr.x-(current->extent.lr.x-pxy.x)/(dx+x_movement2)*dx;
pxy.y=(pxy.y-current->extent.ll.y)/(dy-y_movement2)*dy+current->extent.ll.y;
break;
case (2): /* Resize from the top right corner */
pxy.x=(pxy.x-current->extent.ll.x)/(dx-x_movement2)*dx+current->extent.ll.x;
pxy.y=(pxy.y-current->extent.ll.y)/(dy-y_movement2)*dy+current->extent.ll.y;
break;
case (3): /* Resize from the bottom right corner */
pxy.x=(pxy.x-current->extent.ll.x)/(dx-x_movement2)*dx+current->extent.ll.x;
pxy.y=current->extent.ur.y-(current->extent.ur.y-pxy.y)/(dy+y_movement2)*dy;
break;
case (4): /* Resize from the bottom left corner */
pxy.x=current->extent.lr.x-(current->extent.lr.x-pxy.x)/(dx+x_movement2)*dx;
pxy.y=current->extent.ur.y-(current->extent.ur.y-pxy.y)/(dy+y_movement2)*dy;
break;
case (5): /* Resize from the top */
/* printf("before: y: %f, dy: %f, ymv: %f,ll: %f\n",pxy.y,dy,y_movement2,current->extent.ll.y); */
pxy.y=(pxy.y-current->extent.ll.y)/(dy-y_movement2)*dy+current->extent.ll.y;
/* printf("after : y: %f\n",pxy.y); */
break;
case (6): /* Resize from the right */
pxy.x=(pxy.x-current->extent.ll.x)/(dx-x_movement2)*dx+current->extent.ll.x;
break;
case (7): /* Resize from the bottom */
pxy.y=current->extent.ur.y-(current->extent.ur.y-pxy.y)/(dy+y_movement2)*dy;
break;
case (8): /* Resize from the left */
pxy.x=current->extent.lr.x-(current->extent.lr.x-pxy.x)/(dx+x_movement2)*dx;
break;
}
/* goes back to world coordiantes */
pxy=invert_proj_convert(pxy);
xpts->pts[j]=pxy.x;
ypts->pts[j]=pxy.y;
}
}
xpts = xpts->next;
ypts = ypts->next;
}
}
current = current->next;
}
update_ind =TRUE;
vcs_canvas_update(1);
PY_RELEASE_THREAD
PY_LEAVE_THREADS
}
/* Check and see if the current item is already in the selected list */
int in_list(item,selected_items)
struct item_list *item, **selected_items;
{
/*struct item_list *current = (struct item_list *)*selected_items;*/
struct item_list *current;
if (*selected_items == NULL) {
return 0;
}
current = (struct item_list *)*selected_items;
while (current != NULL)
{
if ((current->data).pet == (item->data).pet) {
return 1;
} else
current = current->next;
}
return 0;
}
void printextent(extent)
Gextent extent;
{
printf("LL: %f, %f:\n", extent.ll.x,extent.ll.y);
printf("LR: %f, %f:\n", extent.lr.x,extent.lr.y);
printf("UR: %f, %f:\n", extent.ur.x,extent.ur.y);
printf("UL: %f, %f:\n", extent.ul.x,extent.ul.y);
}
void printextentp(extent)
Gextent* extent;
{
printf("LL: %f, %f:\n", extent->ll.x,extent->ll.y);
printf("LR: %f, %f:\n", extent->lr.x,extent->lr.y);
printf("UR: %f, %f:\n", extent->ur.x,extent->ur.y);
printf("UL: %f, %f:\n", extent->ul.x,extent->ul.y);
}
void change_graphic_method(dname,gtype,gname)
char *dname;
char *gtype;
char *gname;
{
extern struct display_tab D_tab;
struct display_tab *dtab;
extern int update_ind;
extern int vcs_canvas_update();
dtab = &D_tab;
while (dtab != NULL){
if (strcmp(dtab->name,dname)==0){
/* we got the right display to update */
strcpy(dtab->type,gtype);
strcpy(dtab->g_name,gname);
dtab->dsp_seg[3]=1; /* tells it to redraw */
update_ind=1;
vcs_canvas_update(1);
}
dtab=dtab->next;
}
}
/* If user clicked on a template object, return an item_list
* pointer to that object */
struct item_list *select_item(self,point, gui_template_name, attr_name, search_only)
PyVCScanvas_Object *self;
Gpoint point;
char *gui_template_name;
char *attr_name;
enum etypes search_only;
{
int i, found = 0, priority=0,iprim;
float temp_closest,closest=100, fudge = 1.0e-5;
float val1, val2, value1, value2;
struct table_text *pTt;
struct table_chorn *pTo;
extern struct a_tab A_tab;
extern struct p_tab Pic_tab;
extern struct display_tab D_tab;
struct a_tab *atab;
struct p_tab *ptab;
struct display_tab *dtab;
extern struct table_text Tt_tab;
extern struct table_chorn To_tab;
extern struct table_fill Tf_tab;
struct table_fill *tftab;
extern struct table_line Tl_tab;
struct table_line *tltab;
extern struct table_mark Tm_tab;
struct table_mark *tmtab;
Gpoint pxy;
Gextent extent;
char shold[29][MAX_NAME], sname[29][MAX_NAME], fname[29][MAX_NAME];
char xtname[29][MAX_NAME], ytname[29][MAX_NAME], xlname[29][MAX_NAME];
char ylname[29][MAX_NAME], bname[29][MAX_NAME], lname[29][MAX_NAME];
struct pe_text *pet;
struct pe_form *pef;
struct pe_x_tic *pext;
struct pe_y_tic *peyt;
struct pe_x_lab *pexl;
struct pe_y_lab *peyl;
struct pe_box *peb;
struct pe_line *pel;
struct pe_leg *peleg;
struct pe_dsp *pedsp;
char proj[256];
extern Gpoint proj_convert();
struct item_list *items[51],*prim_items,*prim_item,*prim_item2;
struct item_list *selected=NULL, *temp_selected=NULL;
int counter=0,position=0, temp_position=0,gui_flg=0,j;
char * template_name = NULL;
char toname[1000], ttname[1000];
struct table_text *tttab;
struct table_chorn *totab;
extern float plnorm();
char *tpt,*tpo;
struct points_struct *xptr=NULL, *yptr=NULL;
struct array_segments *xpts=NULL, *ypts=NULL;
struct char_segments *tx=NULL;
/* void printextent(); */
if (SCREEN_MODE == TEDITOR) {
if (gui_template_name == NULL){
template_name = return_template_name( self );
/* if ((template_name = (char *) malloc(sizeof(char)+1)) == NULL) { */
/* PyErr_SetString(PyExc_TypeError, "No memory for the template name."); */
/* return NULL; */
/* } */
/* template_name = strcpy(template_name,"\0"); */
}
else {
if ((template_name = (char *) malloc((strlen(gui_template_name)+1)*sizeof(char)+1)) == NULL) {
PyErr_SetString(PyExc_TypeError, "No memory for the template name.");
return NULL;
}
strcpy(template_name, gui_template_name);
gui_flg = 1;
}
}
else if (SCREEN_MODE == GMEDITOR) {
dtab = &D_tab;
while (dtab != NULL) {
if ((dtab->wkst_id == self->wkst_id)){
for (ptab = &Pic_tab; ptab != NULL; ptab = ptab->next)
if (strcmp(ptab->name,dtab->p_name) == 0) break;
if (ptab!=NULL){
/* printf("comparing with template: %s\n",dtab->p_name); */
/* ok we got the template ofthat display */
/* we need to see if the point is with this extent */
value1 = plnorm(0, (ptab->dsp.x1 - (float) fmod(ptab->dsp.x1, fudge)));
value2 = plnorm(0, (ptab->dsp.x2 - (float) fmod(ptab->dsp.x2, fudge)));
extent.ll.x = extent.ul.x = value1;
extent.lr.x = extent.ur.x = value2;
value1 = plnorm(1, (ptab->dsp.y1 - (float) fmod(ptab->dsp.y1, fudge)));
value2 = plnorm(1, (ptab->dsp.y2 - (float) fmod(ptab->dsp.y2, fudge)));
extent.ll.y = extent.lr.y = value1;
extent.ur.y = extent.ul.y = value2;
if (within(point,extent)){
selected = (struct item_list *)malloc(sizeof(struct item_list));
selected->extent=extent;
selected->type = display_tab;
selected->data.pd = dtab;
strcpy(selected->attr_name,dtab->name);
strcpy(selected->display_name, dtab->name );
selected->next=NULL;
return selected;
}
}
}
dtab=dtab->next;
}
return selected;
}
/* printf("template name is: %s\n",template_name); */
/* dtab = &D_tab; */
/* while (dtab != NULL) */
/* {printf("Dtab->name: %s\n",dtab->name); */
/* dtab=dtab->next; */
/* } */
dtab = &D_tab;
while (dtab != NULL)
{
/* printf("Exploring display %s with template: %s\n",dtab->name,dtab->p_name); */
// if ((dtab->wkst_id == self->wkst_id) && (dtab->a[0][0] != '\0'))
if ((dtab->wkst_id == self->wkst_id))
{
for (ptab = &Pic_tab; ptab != NULL; ptab = ptab->next)
if (strcmp(ptab->name,dtab->p_name) == 0) break;
/* printf("exploring template: %s, which i compare to %s\n",dtab->p_name,template_name); */
if (strcmp(dtab->a[0],"\0")!=0)
{ /* Check for correct template */
/* printf("operator, i'm in!\n"); */
for (atab = &A_tab; atab != NULL; atab = atab->next){
/* printf("template_name: %s, dtab->p_name: %s, atab->name: %s, dtab->a[0]: %s ---\n",template_name, dtab->p_name, atab->name, dtab->a[0]); */
/* if (((SCREEN_MODE == DATA) || (strcmp(template_name,dtab->p_name) == 0)) && (strcmp(atab->name,dtab->a[0]) == 0)) break; */
if (strcmp(atab->name,dtab->a[0]) == 0){
break;
}
}
if (atab==NULL) break;
for (i=0; i < 51; i++)
items[i] = NULL;
temp_selected=NULL;
get_text_fields(shold,sname,fname,xtname,ytname,xlname,ylname,bname,lname,atab,ptab);
counter = 0;
/* Get extent of all text objects and see if the mouse
* click occured on or within those boundaries */
if ((search_only == pe_text) || (search_only == pe_none)) {
for (pet=&(ptab->F), i=0;i < 22;i++,pet++,counter++) {
if ( ((attr_name == NULL) || (strcmp(attr_name, sname[i]) == 0)) && (pet->p > 0)) {
for (pTt=&Tt_tab; pTt != NULL; pTt=pTt->next)
if (strcmp(pTt->name,pet->tb) == 0) break;
for (pTo=&To_tab; pTo != NULL; pTo=pTo->next)
if (strcmp(pTo->name,pet->to) == 0) break;
set_text_attr(pTt,pTo);
pxy.x = plnorm(0, (pet->x - (float) fmod(pet->x, fudge)));
pxy.y = plnorm(1, (pet->y - (float) fmod(pet->y, fudge)));
extent.ll.x = extent.ul.x = 0.0;
extent.lr.x = extent.ur.x = 0.0;
extent.ll.y = extent.lr.y = 0.0;
extent.ul.y = extent.ur.y = 0.0;
cairogqtxx(self->wkst_id, pxy, shold[i], &extent);
/* if (extent.ll.x == extent.lr.x) extent.lr.x = extent.ur.x; */
/* if (extent.ll.y == extent.ul.y) extent.ul.y = extent.ur.y; */
items[counter] = (struct item_list *)malloc(sizeof(struct item_list));
items[counter]->next = NULL;
strcpy( items[counter]->attr_name, sname[i] );
strcpy( items[counter]->display_name, dtab->name );
/* printf("setting type to pe_text\n"); */
items[counter]->type = pe_text;
items[counter]->data.pet = pet;
items[counter]->ptab = ptab;
items[counter]->extent.ll.x = extent.ll.x;
items[counter]->extent.lr.x = extent.lr.x;
items[counter]->extent.ll.y = extent.ll.y;
items[counter]->extent.ul.y = extent.ul.y;
items[counter]->extent.ul.x = extent.ul.x;
items[counter]->extent.ur.x = extent.ur.x;
items[counter]->extent.lr.y = extent.lr.y;
items[counter]->extent.ur.y = extent.ur.y;
strcpy(items[counter]->string,shold[i]);
if (within(point,items[counter]->extent))
{
temp_closest = distance(point,extent);
if (temp_closest < closest || pet->p > priority)
{
closest = temp_closest;
priority = pet->p;
temp_selected = items[counter];
temp_position = counter;
}
}
}
}
}
/* Get extent of all format objects and see if the mouse
* click occured on or within those boundaries */
if ((search_only == pe_form) || (search_only == pe_none)) {
for (pef=&(ptab->xv),i=22;i < 29;i++,pef++,counter++) {
if ( ((attr_name == NULL) || (strcmp(attr_name, fname[i-22]) == 0)) && (pef->p > 0)) {
for (pTt=&Tt_tab; pTt != NULL; pTt=pTt->next)
if (strcmp(pTt->name,pef->tb) == 0) break;
for (pTo=&To_tab; pTo != NULL; pTo=pTo->next)
if (strcmp(pTo->name,pef->to) == 0) break;
set_text_attr(pTt,pTo);
pxy.x = plnorm(0, (pef->x - (float) fmod(pef->x, fudge)));
pxy.y = plnorm(1, (pef->y - (float) fmod(pef->y, fudge)));
extent.ll.x = extent.ul.x = 0.0;
extent.lr.x = extent.ur.x = 0.0;
extent.ll.y = extent.lr.y = 0.0;
extent.ul.y = extent.ur.y = 0.0;
cairogqtxx(self->wkst_id, pxy, shold[i], &extent);
items[counter] = (struct item_list *)malloc(sizeof(struct item_list));
/* printf("setting type to pe_form\n"); */
items[counter]->type = pe_form;
items[counter]->data.pef = pef;
items[counter]->ptab = ptab;
items[counter]->next = NULL;
strcpy( items[counter]->attr_name, fname[i-22] );
strcpy( items[counter]->display_name, dtab->name );
items[counter]->extent.ll.x = items[counter]->extent.ul.x = extent.ll.x;
items[counter]->extent.lr.x = items[counter]->extent.ur.x = extent.lr.x;
items[counter]->extent.ll.y = items[counter]->extent.lr.y = extent.ll.y;
items[counter]->extent.ul.y = items[counter]->extent.ur.y = extent.ul.y;
strcpy(items[counter]->string,shold[i]);
if (within(point,extent))
{
temp_closest = distance(point,extent);
if (temp_closest < closest || pef->p > priority)
{
closest = temp_closest;
priority = pef->p;
temp_selected = items[counter];
temp_position = counter;
}
}
}
}
}
/* Get extent of all x-tic mark objects and see if the mouse
* click occured on or within those boundaries */
if ((search_only == pe_x_tic) || (search_only == pe_none)) {
for (pext=&(ptab->xt1),i=0;i < 4;i++,pext++,counter++) {
if ( ((attr_name == NULL) || (strcmp(attr_name, xtname[i]) == 0)) && (pext->p > 0)) {
extent.ll.x = extent.ul.x = ptab->dsp.x1;
extent.lr.x = extent.ur.x = ptab->dsp.x2;
extent.ll.y = extent.lr.y = plnorm(1,(pext->y1 - (float) fmod(pext->y1, fudge)));
extent.ul.y = extent.ur.y = plnorm(1,(pext->y2 - (float) fmod(pext->y2, fudge)));
items[counter] = (struct item_list *)malloc(sizeof(struct item_list));
/* printf("setting type to pe_x_tic\n"); */
items[counter]->type = pe_x_tic;
items[counter]->data.pext = pext;
items[counter]->ptab = ptab;
items[counter]->next = NULL;
strcpy( items[counter]->attr_name, xtname[i] );
strcpy( items[counter]->display_name, dtab->name );
items[counter]->extent.ll.x = items[counter]->extent.ul.x = extent.ll.x;
items[counter]->extent.lr.x = items[counter]->extent.ur.x = extent.lr.x;
items[counter]->extent.ll.y = items[counter]->extent.lr.y = extent.ll.y;
items[counter]->extent.ul.y = items[counter]->extent.ur.y = extent.ul.y;
if (within(point,items[counter]->extent))
{
temp_closest = distance(point,extent);
if (temp_closest < closest || pext->p > priority)
{
closest = temp_closest;
priority = pext->p;
temp_selected = items[counter];
temp_position = counter;
}
}
}
}
}
/* Get extent of all y-tic mark objects and see if the mouse
* click occured on or within those boundaries */
if ((search_only == pe_y_tic) || (search_only == pe_none)) {
for (peyt=&(ptab->yt1),i=0;i < 4;i++,peyt++,counter++) {
if ( ((attr_name == NULL) || (strcmp(attr_name, ytname[i]) == 0)) && (peyt->p > 0)) {
extent.ll.x = extent.ul.x = plnorm(0,(peyt->x1 - (float) fmod(peyt->x1, fudge)));
extent.lr.x = extent.ur.x = plnorm(0,(peyt->x2 - (float) fmod(peyt->x2, fudge)));
extent.ll.y = extent.lr.y = ptab->dsp.y1;
extent.ul.y = extent.ur.y = ptab->dsp.y2;
items[counter] = (struct item_list *)malloc(sizeof(struct item_list));
items[counter]->next = NULL;
strcpy( items[counter]->display_name, dtab->name );
strcpy( items[counter]->attr_name, ytname[i] );
/* printf("setting type to pe_y_tic\n"); */
items[counter]->type = pe_y_tic;
items[counter]->data.peyt = peyt;
items[counter]->ptab = ptab;
items[counter]->extent.ll.x = items[counter]->extent.ul.x = extent.ll.x;
items[counter]->extent.lr.x = items[counter]->extent.ur.x = extent.lr.x;
items[counter]->extent.ll.y = items[counter]->extent.lr.y = extent.ll.y;
items[counter]->extent.ul.y = items[counter]->extent.ur.y = extent.ul.y;
if (within(point,items[counter]->extent))
{
found = 1;
temp_closest = distance(point,extent);
if (temp_closest < closest || peyt->p > priority)
{
closest = temp_closest;
priority = peyt->p;
temp_selected = items[counter];
temp_position = counter;
}
}
}
}
}
/* Get extent of all x-label objects and see if the mouse
* click occured on or within those boundaries */
if ((search_only == pe_x_lab) || (search_only == pe_none)) {
for (pexl=&(ptab->xl1),i=0;i < 2;i++,pexl++,counter++) {
if ( ((attr_name == NULL) || (strcmp(attr_name, xlname[i]) == 0)) && (pexl->p > 0)) {
for (pTt=&Tt_tab; pTt != NULL; pTt=pTt->next)
if (strcmp(pTt->name,pexl->tb) == 0) break;
for (pTo=&To_tab; pTo != NULL; pTo=pTo->next)
if (strcmp(pTo->name,pexl->to) == 0) break;
set_text_attr(pTt,pTo);
pxy.x = ptab->dsp.x1;
pxy.y = plnorm(1, (pexl->y - (float) fmod(pexl->y, fudge)));
extent.ll.x = extent.ul.x = 0.0;
extent.lr.x = extent.ur.x = 0.0;
extent.ll.y = extent.lr.y = 0.0;
extent.ul.y = extent.ur.y = 0.0;
cairogqtxx(self->wkst_id, pxy, "120", &extent);
extent.lr.x = extent.ur.x = ptab->dsp.x2;
items[counter] = (struct item_list *)malloc(sizeof(struct item_list));
items[counter]->next = NULL;
strcpy( items[counter]->attr_name, xlname[i] );
strcpy( items[counter]->display_name, dtab->name );
/* printf("setting type to pe_x_lab\n"); */
items[counter]->type = pe_x_lab;
items[counter]->data.pexl = pexl;
items[counter]->ptab = ptab;
items[counter]->extent.ll.x = items[counter]->extent.ul.x = extent.ll.x;
items[counter]->extent.lr.x = items[counter]->extent.ur.x = extent.lr.x;
items[counter]->extent.ll.y = items[counter]->extent.lr.y = extent.ll.y;
items[counter]->extent.ul.y = items[counter]->extent.ur.y = extent.ul.y;
if (within(point,items[counter]->extent))
{
temp_closest = distance(point,extent);
if (temp_closest < closest || pexl->p > priority)
{
closest = temp_closest;
priority = pexl->p;
temp_selected = items[counter];
temp_position = counter;
}
}
}
}
}
/* Get extent of all y-label objects and see if the mouse
* click occured on or within those boundaries */
if ((search_only == pe_y_lab) || (search_only == pe_none)) {
for (peyl=&(ptab->yl1),i=0;i < 2;i++,peyl++,counter++) {
if ( ((attr_name == NULL) || (strcmp(attr_name, ylname[i]) == 0)) && (peyl->p > 0)) {
for (pTt=&Tt_tab; pTt != NULL; pTt=pTt->next)
if (strcmp(pTt->name,peyl->tb) == 0) break;
for (pTo=&To_tab; pTo != NULL; pTo=pTo->next)
if (strcmp(pTo->name,peyl->to) == 0) break;
set_text_attr(pTt,pTo);
pxy.x = plnorm(0, (peyl->x - (float) fmod(peyl->x, fudge)));
pxy.y = ptab->dsp.y1;
extent.ll.x = extent.ul.x = 0.0;
extent.lr.x = extent.ur.x = 0.0;
extent.ll.y = extent.lr.y = 0.0;
extent.ul.y = extent.ur.y = 0.0;
cairogqtxx(self->wkst_id, pxy, "120", &extent);
extent.ul.y = extent.ur.y = ptab->dsp.y2;
items[counter] = (struct item_list *)malloc(sizeof(struct item_list));
items[counter]->next = NULL;
strcpy( items[counter]->attr_name, ylname[i] );
strcpy( items[counter]->display_name, dtab->name );
/* printf("setting type to pe_ylab\n"); */
items[counter]->type = pe_y_lab;
items[counter]->data.peyl = peyl;
items[counter]->ptab = ptab;
items[counter]->extent.ll.x = items[counter]->extent.ul.x = extent.ll.x;
items[counter]->extent.lr.x = items[counter]->extent.ur.x = extent.lr.x;
items[counter]->extent.ll.y = items[counter]->extent.lr.y = extent.ll.y;
items[counter]->extent.ul.y = items[counter]->extent.ur.y = extent.ul.y;
if (within(point,extent))
{
found = 1;
temp_closest = distance(point,extent);
if (temp_closest < closest || peyl->p > priority)
{
closest = temp_closest;
priority = peyl->p;
temp_selected = items[counter];
temp_position = counter;
}
}
}
}
}
/* Get extent of all box objects and see if the mouse
* click occured on or within those boundaries */
if ((search_only == pe_box) || (search_only == pe_none)) {
for (peb=&(ptab->b1),i=0;i < 4;i++,peb++,counter++) {
if ( ((attr_name == NULL) || (strcmp(attr_name, bname[i]) == 0)) && (peb->p > 0)) {
items[counter] = (struct item_list *)malloc(sizeof(struct item_list));
items[counter]->x_reversed = items[counter]->y_reversed = 0;
value1 = plnorm(0, (peb->x1 - (float) fmod(peb->x1, fudge)));
value2 = plnorm(0, (peb->x2 - (float) fmod(peb->x2, fudge)));
if (peb->x1 < peb->x2) {
items[counter]->extent.ll.x = items[counter]->extent.ul.x = value1;
items[counter]->extent.lr.x = items[counter]->extent.ur.x = value2;
}
else {
items[counter]->extent.ll.x = items[counter]->extent.ul.x = value2;
items[counter]->extent.lr.x = items[counter]->extent.ur.x = value1;
}
value1 = plnorm(1, (peb->y1 - (float) fmod(peb->y1, fudge)));
value2 = plnorm(1, (peb->y2 - (float) fmod(peb->y2, fudge)));
if (peb->y1 < peb->y2) {
items[counter]->extent.ll.y = items[counter]->extent.lr.y = value1;
items[counter]->extent.ul.y = items[counter]->extent.ur.y = value2;
}
else {
items[counter]->extent.ll.y = items[counter]->extent.lr.y = value2;
items[counter]->extent.ul.y = items[counter]->extent.ur.y = value1;
}
items[counter]->next = NULL;
strcpy( items[counter]->attr_name, bname[i] );
strcpy( items[counter]->display_name, dtab->name );
/* printf("setting type to pe_box\n"); */
items[counter]->type = pe_box;
items[counter]->data.peb= peb;
items[counter]->ptab = ptab;
if (within(point,items[counter]->extent))
{
temp_closest = distance(point,items[counter]->extent);
if (temp_closest < closest || peb->p > priority)
{
closest = temp_closest;
priority = peb->p;
temp_selected = items[counter];
temp_position = counter;
}
}
}
}
}
/* Get extent of all line objects and see if the mouse
* click occured on or within those boundaries. Since in
* some cases it is impossible to actually click on the
* line value, I've added a slight buffer. */
if ((search_only == pe_line) || (search_only == pe_none)) {
for (pel=&(ptab->l1),i=0;i < 4;i++,pel++,counter++) {
if ( ((attr_name == NULL) || (strcmp(attr_name, lname[i]) == 0)) && (pel->p > 0)) {
items[counter] = (struct item_list *)malloc(sizeof(struct item_list));
items[counter]->x_reversed = items[counter]->y_reversed = 0;
if (pel->x1 < pel->x2) {
val1 = pel->x1-BUFFER; val2 = pel->x2+BUFFER;
value1 = plnorm(0, (val1 - (float) fmod(val1, fudge)));
value2 = plnorm(0, (val2 - (float) fmod(val2, fudge)));
items[counter]->extent.ll.x = items[counter]->extent.ul.x = value1;
items[counter]->extent.lr.x = items[counter]->extent.ur.x = value2;
}
else {
val1 = pel->x1+BUFFER; val2 = pel->x2-BUFFER;
value1 = plnorm(0, (val1 - (float) fmod(val1, fudge)));
value2 = plnorm(0, (val2 - (float) fmod(val2, fudge)));
items[counter]->extent.ll.x = items[counter]->extent.ul.x = value2;
items[counter]->extent.lr.x = items[counter]->extent.ur.x = value1;
}
if (pel->y1 < pel->y2) {
val1 = pel->y1-BUFFER; val2 = pel->y2+BUFFER;
value1 = plnorm(1, (val1 - (float) fmod(val1, fudge)));
value2 = plnorm(1, (val2 - (float) fmod(val2, fudge)));
items[counter]->extent.ll.y = items[counter]->extent.lr.y = value1;
items[counter]->extent.ul.y = items[counter]->extent.ur.y = value2;
}
else {
val1 = pel->y1+BUFFER; val2 = pel->y2-BUFFER;
value1 = plnorm(1, (val1 - (float) fmod(val1, fudge)));
value2 = plnorm(1, (val2 - (float) fmod(val2, fudge)));
items[counter]->extent.ll.y = items[counter]->extent.lr.y = value2;
items[counter]->extent.ul.y = items[counter]->extent.ur.y = value1;
}
items[counter]->next = NULL;
strcpy( items[counter]->attr_name, lname[i] );
strcpy( items[counter]->display_name, dtab->name );
/* printf("setting type to pe_line\n"); */
items[counter]->type = pe_line;
items[counter]->data.pel = pel;
items[counter]->ptab = ptab;
if (within(point,items[counter]->extent))
{
temp_closest = distance(point,items[counter]->extent);
if (temp_closest < closest || pel->p > priority)
{
closest = temp_closest;
priority = pel->p;
temp_selected = items[counter];
temp_position = counter;
}
}
}
}
}
/* Check and see if the legend was selected */
if ((search_only == pe_leg) || (search_only == pe_none)) {
peleg = &(ptab->leg);
if (peleg->p > 0) {
items[counter] = (struct item_list *)malloc(sizeof(struct item_list));
items[counter]->x_reversed = items[counter]->y_reversed = 0;
value1 = plnorm(0, (peleg->x1 - (float) fmod(peleg->x1, fudge)));
value2 = plnorm(0, (peleg->x2 - (float) fmod(peleg->x2, fudge)));
if (peleg->x1 < peleg->x2) {
items[counter]->extent.ll.x = items[counter]->extent.ul.x = value1;
items[counter]->extent.lr.x = items[counter]->extent.ur.x = value2;
}
else {
items[counter]->extent.ll.x = items[counter]->extent.ul.x = value2;
items[counter]->extent.lr.x = items[counter]->extent.ur.x = value1;
}
value1 = plnorm(1, (peleg->y1 - (float) fmod(peleg->y1, fudge)));
value2 = plnorm(1, (peleg->y2 - (float) fmod(peleg->y2, fudge)));
if (peleg->y1 < peleg->y2) {
items[counter]->extent.ll.y = items[counter]->extent.lr.y = value1;
items[counter]->extent.ul.y = items[counter]->extent.ur.y = value2;
}
else {
items[counter]->extent.ll.y = items[counter]->extent.lr.y = value2;
items[counter]->extent.ul.y = items[counter]->extent.ur.y = value1;
}
items[counter]->next = NULL;
strcpy( items[counter]->attr_name, "legend" );
strcpy( items[counter]->display_name, dtab->name );
/* printf("setting type to pe_leg\n"); */
items[counter]->type = pe_leg;
items[counter]->data.peleg = peleg;
items[counter]->ptab = ptab;
if (within(point,items[counter]->extent))
{
temp_closest = distance(point,items[counter]->extent);
if (temp_closest < closest || peleg->p > priority)
{
closest = temp_closest;
priority = peleg->p;
temp_selected = items[counter];
temp_position = counter;
}
}
}
counter++;
}
/* Check and see if the data was selected */
if ((search_only == pe_dsp) || (search_only == pe_none)) {
pedsp = &(ptab->dsp);
if (pedsp->p > 0) {
items[counter] = (struct item_list *)malloc(sizeof(struct item_list));
items[counter]->x_reversed = items[counter]->y_reversed = 0;
value1 = plnorm(0, (pedsp->x1 - (float) fmod(pedsp->x1, fudge)));
value2 = plnorm(0, (pedsp->x2 - (float) fmod(pedsp->x2, fudge)));
if (pedsp->x1 < pedsp->x2) {
items[counter]->extent.ll.x = items[counter]->extent.ul.x = value1;
items[counter]->extent.lr.x = items[counter]->extent.ur.x = value2;
}
else {
items[counter]->extent.ll.x = items[counter]->extent.ul.x = value2;
items[counter]->extent.lr.x = items[counter]->extent.ur.x = value1;
}
value1 = plnorm(1, (pedsp->y1 - (float) fmod(pedsp->y1, fudge)));
value2 = plnorm(1, (pedsp->y2 - (float) fmod(pedsp->y2, fudge)));
if (pedsp->y1 < pedsp->y2) {
items[counter]->extent.ll.y = items[counter]->extent.lr.y = value1;
items[counter]->extent.ul.y = items[counter]->extent.ur.y = value2;
}
else {
items[counter]->extent.ll.y = items[counter]->extent.lr.y = value2;
items[counter]->extent.ul.y = items[counter]->extent.ur.y = value1;
}
items[counter]->next = NULL;
strcpy( items[counter]->attr_name, "data" );
strcpy( items[counter]->display_name, dtab->name );
/* printf("setting type to pe_dsp\n"); */
items[counter]->type = pe_dsp;
items[counter]->data.pedsp = pedsp;
items[counter]->ptab = ptab;
if (within(point,items[counter]->extent))
{
temp_closest = distance(point,items[counter]->extent);
if (temp_closest <= closest || pedsp->p >= priority)
{
closest = temp_closest;
priority = pedsp->p;
temp_selected = items[counter];
temp_position = counter;
}
}
}
counter++;
}
/* If we found an object that is closer than the
* previously selected item, remove items from list */
if (selected != NULL && temp_selected != NULL)
delete_list(&selected);
if (selected == NULL && temp_selected != NULL) {
selected = temp_selected;
if ( (temp_selected->type == pe_dsp) && (search_only == pe_none) ) {
items[50] = NULL;
if (items[41] != NULL)
{
temp_selected->next = items[41];
items[41] = NULL;
temp_selected = temp_selected->next;
}
for (i = 14; i <= 17; i++)
{
if (items[i] != NULL)
{
temp_selected->next = items[i];
items[i] = NULL;
temp_selected = temp_selected->next;
}
}
for (i = 29; i <= 40; i++)
{
if (items[i] != NULL)
{
temp_selected->next = items[i];
items[i] = NULL;
temp_selected = temp_selected->next;
}
}
} else {
for (i = 0; i < 51; i++) {
if (&items[i]->data == &selected->data)
items[i] = NULL;
}
}
}
for (i = 0; i < 51; i++) {
if (items[i] != NULL) {
free(items[i]);
items[i] = NULL;
}
}
}
}
dtab = dtab->next;
/* Find the correct display for data. Break out of loop when found. */
if ((SCREEN_MODE == DATA) && (selected != NULL)) break;
}
temp_selected=NULL;
/* C. Doutriaux addition trying to catch primitives */
/* text ones in the first time */
if (SCREEN_MODE==TEDITOR)
{
dtab = &D_tab;
while (dtab != NULL) {
if (dtab->wkst_id == self->wkst_id) {
/* text object ? */
if (strcmp(dtab->type,"text")==0){
/* printf("in text\n"); */
/* the text table & orientation name and structs */
strcpy(ttname, dtab->g_name);
tpt = strtok(ttname, ":::");
strcpy(toname, dtab->g_name);
tpo = strstr(toname, ":::")+3;
tttab = &Tt_tab;
while (tttab != NULL) {
if (cmpncs(tpt, tttab->name) == 0) break;
tttab = tttab->next;
}
if (tttab->ts == NULL) break; /* do nothing */
if (tttab->priority == 0) break; /* do nothing */
strcpy(proj,tttab->proj);
set_viewport_and_worldcoordinate ( tttab->tvp, tttab->twc,proj );
totab = &To_tab;
while (totab != NULL) {
if (cmpncs(tpo, totab->name) == 0) break;
totab = totab->next;
}
set_text_attr(tttab,totab);
xptr = tttab->tx; yptr = tttab->ty;
xpts = xptr->ps; ypts = yptr->ps;
tx = tttab->ts->ss;
prim_items=NULL;
for (iprim=0;iprim<xptr->nsegs;iprim++){ /*loop thru all text drawns...*/
for (j=0;j<xpts->npts;j++) {
pxy.x=xpts->pts[j];
pxy.y=ypts->pts[j];
pxy=proj_convert(pxy);
extent.ll.x = extent.ul.x = 0.0;
extent.lr.x = extent.ur.x = 0.0;
extent.ll.y = extent.lr.y = 0.0;
extent.ul.y = extent.ur.y = 0.0;
cairogqtxx(self->wkst_id, pxy,tx->cpts, &extent);
if (extent.ll.x == extent.lr.x) extent.lr.x = extent.ur.x;
if (extent.ll.y == extent.ul.y) extent.ul.y = extent.ur.y;
prim_item = (struct item_list *)malloc(sizeof(struct item_list));
prim_item->sub_primitive=iprim;
prim_item->next = NULL;
strcpy( prim_item->attr_name, dtab->name );
/* printf("setting type to display_tab in text\n"); */
prim_item->type = display_tab;
prim_item->data.pd = dtab;
prim_item->ptab = NULL; /* no template here */
/* prim_item->extent.ll.x = prim_item->extent.ul.x = extent.ll.x; */
/* prim_item->extent.lr.x = prim_item->extent.ur.x = extent.lr.x; */
/* prim_item->extent.ll.y = prim_item->extent.lr.y = extent.ll.y; */
/* prim_item->extent.ul.y = prim_item->extent.ur.y = extent.ul.y; */
prim_item->extent.ll.x = extent.ll.x;
prim_item->extent.lr.x = extent.lr.x;
prim_item->extent.ll.y = extent.ll.y;
prim_item->extent.ul.y = extent.ul.y;
prim_item->extent.ul.x = extent.ul.x;
prim_item->extent.ur.x = extent.ur.x;
prim_item->extent.lr.y = extent.lr.y;
prim_item->extent.ur.y = extent.ur.y;
strcpy(prim_item->string,(unsigned char *)tx->cpts);
if (prim_items==NULL)
prim_items=prim_item;
else
{
prim_item2=prim_items;
while(prim_item2->next!=NULL) prim_item2=prim_item2->next;
prim_item2->next=prim_item;
}
tx=tx->next;
if (within(point,prim_item->extent)) {
temp_closest = distance(point,extent);
if (temp_closest < closest || tttab->priority > priority)
{
closest = temp_closest;
priority = tttab->priority;
temp_selected = prim_items;
}
}
}
xpts = xpts->next;
ypts = ypts->next;
}
}
if (strcmp(dtab->type,"fillarea")==0){
prim_items=NULL;
tftab = &Tf_tab;
while (tftab != NULL) {
if (cmpncs(dtab->g_name, tftab->name) == 0) break;
tftab = tftab->next;
}
if (tftab->priority == 0) break; /* do nothing */
strcpy(proj,tftab->proj);
set_viewport_and_worldcoordinate ( tftab->fvp, tftab->fwc,proj );
xptr = tftab->fx; yptr = tftab->fy;
xpts = xptr->ps; ypts = yptr->ps;
prim_items=NULL;
for (iprim=0; iprim<xptr->nsegs; iprim++) {
prim_item = (struct item_list *)malloc(sizeof(struct item_list));
prim_item->next = NULL;
prim_item->sub_primitive=iprim;
strcpy( prim_item->attr_name, dtab->name );
strcpy( prim_item->string, "\0" );
/* printf("setting type to display_tab in fillarea\n"); */
prim_item->type = display_tab;
prim_item->data.pd = dtab;
prim_item->ptab = NULL; /* no template here */
extent.ll.x=extent.ll.y=extent.lr.y=extent.ul.x=1.E20;
extent.ur.x=extent.ur.y=extent.lr.x=extent.ul.y=-1.E20;
for (j=0;j<xpts->npts;j++) {
pxy.x=xpts->pts[j];
pxy.y=ypts->pts[j];
pxy=proj_convert(pxy);
if (pxy.x<extent.ll.x) extent.ll.x=pxy.x;
if (pxy.y<extent.ll.y) extent.ll.y=pxy.y;
if (pxy.x>extent.lr.x) extent.lr.x=pxy.x;
if (pxy.y<extent.lr.y) extent.lr.y=pxy.y;
if (pxy.x>extent.ur.x) extent.ur.x=pxy.x;
if (pxy.y>extent.ur.y) extent.ur.y=pxy.y;
if (pxy.x<extent.ul.x) extent.ul.x=pxy.x;
if (pxy.y>extent.ul.y) extent.ul.y=pxy.y;
}
xpts = xpts->next;
ypts = ypts->next;
prim_item->extent.ll.x = prim_item->extent.ul.x = extent.ll.x;
prim_item->extent.lr.x = prim_item->extent.ur.x = extent.lr.x;
prim_item->extent.ll.y = prim_item->extent.lr.y = extent.ll.y;
prim_item->extent.ul.y = prim_item->extent.ur.y = extent.ul.y;
if (prim_items==NULL)
prim_items=prim_item;
else
{
prim_item2=prim_items;
while(prim_item2->next!=NULL) prim_item2=prim_item2->next;
prim_item2->next=prim_item;
}
if (within(point,prim_item->extent)) {
temp_closest = distance(point,extent);
if (temp_closest < closest || tftab->priority > priority)
{
closest = temp_closest;
priority = tftab->priority;
temp_selected = prim_items;
}
}
}
}
/*lines*/
if (strcmp(dtab->type,"line")==0){
prim_items=NULL;
tltab = &Tl_tab;
while (tltab != NULL) {
if (cmpncs(dtab->g_name, tltab->name) == 0) break;
tltab = tltab->next;
}
if (tltab->priority == 0) break; /* do nothing */
strcpy(proj,tltab->proj);
set_viewport_and_worldcoordinate ( tltab->lvp, tltab->lwc,proj );
xptr = tltab->lx; yptr = tltab->ly;
xpts = xptr->ps; ypts = yptr->ps;
prim_items=NULL;
for (iprim=0; iprim<xptr->nsegs; iprim++) {
prim_item = (struct item_list *)malloc(sizeof(struct item_list));
prim_item->next = NULL;
prim_item->sub_primitive=iprim;
strcpy( prim_item->attr_name, dtab->name );
/* printf("setting type to display_tab in line\n"); */
prim_item->type = display_tab;
prim_item->data.pd = dtab;
prim_item->ptab = NULL; /* no template here */
extent.ll.x=extent.ll.y=extent.lr.y=extent.ul.x=1.E20;
extent.ur.x=extent.ur.y=extent.lr.x=extent.ul.y=-1.E20;
for (j=0;j<xpts->npts;j++) {
pxy.x=xpts->pts[j];
pxy.y=ypts->pts[j];
pxy=proj_convert(pxy);
if (pxy.x<extent.ll.x) extent.ll.x=pxy.x;
if (pxy.y<extent.ll.y) extent.ll.y=pxy.y;
if (pxy.x>extent.lr.x) extent.lr.x=pxy.x;
if (pxy.y<extent.lr.y) extent.lr.y=pxy.y;
if (pxy.x>extent.ur.x) extent.ur.x=pxy.x;
if (pxy.y>extent.ur.y) extent.ur.y=pxy.y;
if (pxy.x<extent.ul.x) extent.ul.x=pxy.x;
if (pxy.y>extent.ul.y) extent.ul.y=pxy.y;
}
xpts = xpts->next;
ypts = ypts->next;
prim_item->extent.ll.x = prim_item->extent.ul.x = extent.ll.x;
prim_item->extent.lr.x = prim_item->extent.ur.x = extent.lr.x;
prim_item->extent.ll.y = prim_item->extent.lr.y = extent.ll.y;
prim_item->extent.ul.y = prim_item->extent.ur.y = extent.ul.y;
if (prim_items==NULL)
prim_items=prim_item;
else
{
prim_item2=prim_items;
while(prim_item2->next!=NULL) prim_item2=prim_item2->next;
prim_item2->next=prim_item;
}
if (within(point,prim_item->extent)) {
temp_closest = distance(point,extent);
if (temp_closest < closest || tltab->priority > priority)
{
closest = temp_closest;
priority = tltab->priority;
temp_selected = prim_items;
}
}
}
}
/*markers*/
if (strcmp(dtab->type,"marker")==0){
/* printf("in marker\n"); */
prim_items=NULL;
tmtab = &Tm_tab;
while (tmtab != NULL) {
if (cmpncs(dtab->g_name, tmtab->name) == 0) break;
tmtab = tmtab->next;
}
if (tmtab->priority == 0) break; /* do nothing */
strcpy(proj,tmtab->proj);
set_viewport_and_worldcoordinate ( tmtab->mvp, tmtab->mwc,proj );
xptr = tmtab->mx; yptr = tmtab->my;
xpts = xptr->ps; ypts = yptr->ps;
prim_items=NULL;
for (iprim=0; iprim<xptr->nsegs; iprim++) {
prim_item = (struct item_list *)malloc(sizeof(struct item_list));
prim_item->next = NULL;
prim_item->sub_primitive=iprim;
strcpy( prim_item->attr_name, dtab->name );
prim_item->type = display_tab;
prim_item->data.pd = dtab;
prim_item->ptab = NULL; /* no template here */
extent.ll.x=extent.ll.y=extent.lr.y=extent.ul.x=1.E20;
extent.ur.x=extent.ur.y=extent.lr.x=extent.ul.y=-1.E20;
for (j=0;j<xpts->npts;j++) {
pxy.x=xpts->pts[j];
pxy.y=ypts->pts[j];
pxy=proj_convert(pxy);
if (pxy.x<extent.ll.x) extent.ll.x=pxy.x;
if (pxy.y<extent.ll.y) extent.ll.y=pxy.y;
if (pxy.x>extent.lr.x) extent.lr.x=pxy.x;
if (pxy.y<extent.lr.y) extent.lr.y=pxy.y;
if (pxy.x>extent.ur.x) extent.ur.x=pxy.x;
if (pxy.y>extent.ur.y) extent.ur.y=pxy.y;
if (pxy.x<extent.ul.x) extent.ul.x=pxy.x;
if (pxy.y>extent.ul.y) extent.ul.y=pxy.y;
}
xpts = xpts->next;
ypts = ypts->next;
prim_item->extent.ll.x = prim_item->extent.ul.x = extent.ll.x;
prim_item->extent.lr.x = prim_item->extent.ur.x = extent.lr.x;
prim_item->extent.ll.y = prim_item->extent.lr.y = extent.ll.y;
prim_item->extent.ul.y = prim_item->extent.ur.y = extent.ul.y;
if (prim_items==NULL)
prim_items=prim_item;
else
{
prim_item2=prim_items;
while(prim_item2->next!=NULL) prim_item2=prim_item2->next;
prim_item2->next=prim_item;
}
if (within(point,prim_item->extent)) {
temp_closest = distance(point,extent);
if (temp_closest < closest || tmtab->priority > priority)
{
closest = temp_closest;
priority = tmtab->priority;
temp_selected = prim_items;
}
}
}
}
}
/* add code to clean unused prim_items */
dtab = dtab->next;
}
}
/* /\* If we found an object that is closer than the */
/* * previously selected item, remove items from list *\/ */
if (selected != NULL && temp_selected != NULL)
delete_list(&selected);
if (selected == NULL && temp_selected != NULL) {
selected = temp_selected;
}
if (gui_flg) {free((char *) template_name); template_name=NULL;}
return selected;
}
/* This function will select all the picture template objects on the
* VCS Canvas (provided that they have a priority greater than zero
* (0).
*/
void
PyVCS_select_all_in_range(self, hold_selected_items, pointA, pointB)
PyVCScanvas_Object *self;
struct item_list **hold_selected_items;
Gpoint pointA, pointB;
{
struct item_list *item;
int i, found = 0, priority=0;
float temp_closest,closest=100, fudge = 1.0e-5;
float val1, val2, value1, value2;
struct table_text *pTt;
struct table_chorn *pTo;
extern struct a_tab A_tab;
extern struct p_tab Pic_tab;
extern struct display_tab D_tab;
struct a_tab *atab;
struct p_tab *ptab, *temp_ptab;
struct display_tab *dtab;
extern struct table_text Tt_tab;
extern struct table_chorn To_tab;
Gpoint pxy;
Gextent outer_box,extent;
char shold[29][MAX_NAME], sname[29][MAX_NAME], fname[29][MAX_NAME];
char xtname[29][MAX_NAME], ytname[29][MAX_NAME], xlname[29][MAX_NAME];
char ylname[29][MAX_NAME], bname[29][MAX_NAME], lname[29][MAX_NAME];
char label[256];
struct pe_text *pet;
struct pe_form *pef;
struct pe_x_tic *pext;
struct pe_y_tic *peyt;
struct pe_x_lab *pexl;
struct pe_y_lab *peyl;
struct pe_box *peb;
struct pe_line *pel;
struct pe_leg *peleg;
struct pe_dsp *pedsp;
struct item_list *selected_items=NULL;
extern float plnorm();
verify_extent(&selected_items);
/* Setup coordinates of selected box vertices */
if (pointA.x < pointB.x)
{
if (pointA.y < pointB.y)
{
outer_box.ll.x = outer_box.ul.x = pointA.x;
outer_box.lr.x = outer_box.ur.x = pointB.x;
outer_box.ll.y = outer_box.lr.y = pointA.y;
outer_box.ul.y = outer_box.ur.y = pointB.y;
}
else
{
outer_box.ll.x = outer_box.ul.x = pointA.x;
outer_box.lr.x = outer_box.ur.x = pointB.x;
outer_box.ll.y = outer_box.lr.y = pointB.y;
outer_box.ul.y = outer_box.ur.y = pointA.y;
}
}
else
{
if (pointA.y < pointB.y)
{
outer_box.ll.x = outer_box.ul.x = pointB.x;
outer_box.lr.x = outer_box.ur.x = pointA.x;
outer_box.ll.y = outer_box.lr.y = pointA.y;
outer_box.ul.y = outer_box.ur.y = pointB.y;
}
else
{
outer_box.ll.x = outer_box.ul.x = pointB.x;
outer_box.lr.x = outer_box.ur.x = pointA.x;
outer_box.ll.y = outer_box.lr.y = pointB.y;
outer_box.ul.y = outer_box.ur.y = pointA.y;
}
}
dtab = &D_tab;
while (dtab != NULL)
{
if (dtab->wkst_id == self->wkst_id)
{
for (ptab = &Pic_tab; ptab != NULL; ptab = ptab->next)
if (strcmp(ptab->name,dtab->p_name) == 0) break;
for (atab = &A_tab; atab != NULL; atab = atab->next)
if (strcmp(atab->name,dtab->a[0]) == 0) break;
get_text_fields(shold,sname,fname,xtname,ytname,xlname,ylname,bname,lname,atab,ptab);
/* Get extent of all text objects and see if the mouse
* click occured on or within those boundaries */
for (pet=&(ptab->F), i=0;i < 22;i++,pet++)
{
if ( (i != 2) && (pet->p > 0) )
{
for (pTt=&Tt_tab; pTt != NULL; pTt=pTt->next)
if (strcmp(pTt->name,pet->tb) == 0) break;
for (pTo=&To_tab; pTo != NULL; pTo=pTo->next)
if (strcmp(pTo->name,pet->to) == 0) break;
set_text_attr(pTt,pTo);
pxy.x = plnorm(0, (pet->x - (float) fmod(pet->x, fudge)));
pxy.y = plnorm(1, (pet->y - (float) fmod(pet->y, fudge)));
extent.ll.x = extent.ul.x = 0.0;
extent.lr.x = extent.ur.x = 0.0;
extent.ll.y = extent.lr.y = 0.0;
extent.ul.y = extent.ur.y = 0.0;
cairogqtxx(self->wkst_id, pxy, shold[i], &extent);
if (extent.ll.x == extent.lr.x) extent.lr.x = extent.ur.x;
if (extent.ll.y == extent.ul.y) extent.ul.y = extent.ur.y;
if (contained_in(extent,outer_box))
{
found = 1;
item = (struct item_list *)malloc(sizeof(struct item_list));
item->x_reversed = item->y_reversed = 0;
item->next = NULL;
strcpy( item->attr_name, sname[i] );
priority = pet->p;
item->type = pe_text;
item->data.pet = pet;
item->extent.ll.x = extent.ll.x;
item->extent.lr.x = extent.lr.x;
item->extent.ll.y = extent.ll.y;
item->extent.ul.y = extent.ul.y;
item->extent.ul.x = extent.ul.x;
item->extent.ur.x = extent.ur.x;
item->extent.lr.y = extent.lr.y;
item->extent.ur.y = extent.ur.y;
strcpy(item->string,shold[i]);
if (in_list(item,&selected_items))
free(item);
else
append_to_list(item,&selected_items);
}
}
}
/* Get extent of all format objects and see if the mouse
* click occured on or within those boundaries */
for (pef=&(ptab->xv),i=22;i < 29;i++,pef++)
{
if (pef->p > 0)
{
for (pTt=&Tt_tab; pTt != NULL; pTt=pTt->next)
if (strcmp(pTt->name,pef->tb) == 0) break;
for (pTo=&To_tab; pTo != NULL; pTo=pTo->next)
if (strcmp(pTo->name,pef->to) == 0) break;
set_text_attr(pTt,pTo);
pxy.x = plnorm(0, (pef->x - (float) fmod(pef->x, fudge)));
pxy.y = plnorm(1, (pef->y - (float) fmod(pef->y, fudge)));
extent.ll.x = extent.ul.x = 0.0;
extent.lr.x = extent.ur.x = 0.0;
extent.ll.y = extent.lr.y = 0.0;
extent.ul.y = extent.ur.y = 0.0;
cairogqtxx(self->wkst_id, pxy, shold[i], &extent);
if (contained_in(extent,outer_box))
{
found = 1;
item = (struct item_list *)malloc(sizeof(struct item_list));
item->x_reversed = item->y_reversed = 0;
item->next = NULL;
strcpy( item->attr_name, fname[i-22] );
priority = pef->p;
item->type = pe_text;
item->data.pef = pef;
item->extent.ll.x = extent.ll.x;
item->extent.lr.x = extent.lr.x;
item->extent.ll.y = extent.ll.y;
item->extent.ul.y = extent.ul.y;
item->extent.ul.x = extent.ul.x;
item->extent.ur.x = extent.ur.x;
item->extent.lr.y = extent.lr.y;
item->extent.ur.y = extent.ur.y;
strcpy(item->string,shold[i]);
if (in_list(item,&selected_items))
free(item);
else
append_to_list(item,&selected_items);
}
}
}
/* Get extent of all x-tic mark objects and see if the mouse
* click occured on or within those boundaries */
for (pext=&(ptab->xt1),i=0;i < 4;i++,pext++)
{
if (pext->p > 0)
{
extent.ll.x = extent.ul.x = ptab->dsp.x1;
extent.lr.x = extent.ur.x = ptab->dsp.x2;
extent.ll.y = extent.lr.y = plnorm(1,(pext->y1 - (float) fmod(pext->y1, fudge)));
extent.ul.y = extent.ur.y = plnorm(1,(pext->y2 - (float) fmod(pext->y2, fudge)));
if (contained_in(extent,outer_box))
{
found = 1;
data_selected = 1;
item = (struct item_list *)malloc(sizeof(struct item_list));
item->x_reversed = item->y_reversed = 0;
item->next = NULL;
strcpy( item->attr_name, xtname[i] );
priority = pext->p;
item->type = pe_x_tic;
item->data.pext = pext;
item->extent.ll.x = item->extent.ul.x = extent.ll.x;
item->extent.lr.x = item->extent.ur.x = extent.lr.x;
item->extent.ll.y = item->extent.lr.y = extent.ll.y;
item->extent.ul.y = item->extent.ur.y = extent.ul.y;
if (in_list(item,&selected_items))
free(item);
else
append_to_list(item,&selected_items);
}
}
}
/* Get extent of all y-tic mark objects and see if the mouse
* click occured on or within those boundaries */
for (peyt=&(ptab->yt1),i=0;i < 4;i++,peyt++)
{
if (peyt->p > 0)
{
extent.ll.x = extent.ul.x = plnorm(0,(peyt->x1 - (float) fmod(peyt->x1, fudge)));
extent.lr.x = extent.ur.x = plnorm(0,(peyt->x2 - (float) fmod(peyt->x2, fudge)));
extent.ll.y = extent.lr.y = ptab->dsp.y1;
extent.ul.y = extent.ur.y = ptab->dsp.y2;
if (contained_in(extent,outer_box))
{
found = 1;
item = (struct item_list *)malloc(sizeof(struct item_list));
item->x_reversed = item->y_reversed = 0;
item->next = NULL;
strcpy( item->attr_name, ytname[i] );
priority = peyt->p;
item->type = pe_y_tic;
item->data.peyt = peyt;
item->extent.ll.x = item->extent.ul.x = extent.ll.x;
item->extent.lr.x = item->extent.ur.x = extent.lr.x;
item->extent.ll.y = item->extent.lr.y = extent.ll.y;
item->extent.ul.y = item->extent.ur.y = extent.ul.y;
if (in_list(item,&selected_items))
free(item);
else
append_to_list(item,&selected_items);
}
}
}
/* Get extent of all x-label objects and see if the mouse
* click occured on or within those boundaries */
for (pexl=&(ptab->xl1),i=0;i < 2;i++,pexl++)
{
if (pexl->p > 0)
{
for (pTt=&Tt_tab; pTt != NULL; pTt=pTt->next)
if (strcmp(pTt->name,pexl->tb) == 0) break;
for (pTo=&To_tab; pTo != NULL; pTo=pTo->next)
if (strcmp(pTo->name,pexl->to) == 0) break;
set_text_attr(pTt,pTo);
pxy.x = ptab->dsp.x1;
pxy.y = plnorm(1, (pexl->y - (float) fmod(pexl->y, fudge)));
extent.ll.x = extent.ul.x = 0.0;
extent.lr.x = extent.ur.x = 0.0;
extent.ll.y = extent.lr.y = 0.0;
extent.ul.y = extent.ur.y = 0.0;
cairogqtxx(self->wkst_id, pxy, "120", &extent);
extent.lr.x = extent.ur.x = ptab->dsp.x2;
if (contained_in(extent,outer_box))
{
found = 1;
item = (struct item_list *)malloc(sizeof(struct item_list));
item->x_reversed = item->y_reversed = 0;
item->next = NULL;
strcpy( item->attr_name, xlname[i] );
priority = pexl->p;
item->type = pe_x_lab;
item->data.pexl = pexl;
item->extent.ll.x = extent.ll.x;
item->extent.lr.x = extent.lr.x;
item->extent.ll.y = extent.ll.y;
item->extent.ul.y = extent.ul.y;
item->extent.ul.x = extent.ul.x;
item->extent.ur.x = extent.ur.x;
item->extent.lr.y = extent.lr.y;
item->extent.ur.y = extent.ur.y;
if (in_list(item,&selected_items))
free(item);
else
append_to_list(item,&selected_items);
}
}
}
/* Get extent of all y-label objects and see if the mouse
* click occured on or within those boundaries */
for (peyl=&(ptab->yl1),i=0;i < 2;i++,peyl++)
{
if (peyl->p > 0)
{
for (pTt=&Tt_tab; pTt != NULL; pTt=pTt->next)
if (strcmp(pTt->name,peyl->tb) == 0) break;
for (pTo=&To_tab; pTo != NULL; pTo=pTo->next)
if (strcmp(pTo->name,peyl->to) == 0) break;
set_text_attr(pTt,pTo);
pxy.x = plnorm(0, (peyl->x - (float) fmod(peyl->x, fudge)));
pxy.y = ptab->dsp.y1;
extent.ll.x = extent.ul.x = 0.0;
extent.lr.x = extent.ur.x = 0.0;
extent.ll.y = extent.lr.y = 0.0;
extent.ul.y = extent.ur.y = 0.0;
cairogqtxx(self->wkst_id, pxy, "120", &extent);
extent.ul.y = extent.ur.y = ptab->dsp.y2;
if (contained_in(extent,outer_box))
{
found = 1;
item = (struct item_list *)malloc(sizeof(struct item_list));
item->x_reversed = item->y_reversed = 0;
item->next = NULL;
strcpy( item->attr_name, ylname[i] );
priority = peyl->p;
item->type = pe_y_lab;
item->data.peyl = peyl;
item->extent.ll.x = extent.ll.x;
item->extent.lr.x = extent.lr.x;
item->extent.ll.y = extent.ll.y;
item->extent.ul.y = extent.ul.y;
item->extent.ul.x = extent.ul.x;
item->extent.ur.x = extent.ur.x;
item->extent.lr.y = extent.lr.y;
item->extent.ur.y = extent.ur.y;
if (in_list(item,&selected_items))
free(item);
else
append_to_list(item,&selected_items);
}
}
}
/* Get extent of all box objects and see if the mouse
* click occured on or within those boundaries */
for (peb=&(ptab->b1),i=0;i < 4;i++,peb++)
{
if (peb->p > 0)
{
item = (struct item_list *)malloc(sizeof(struct item_list));
item->x_reversed = item->y_reversed = 0;
value1 = plnorm(0, (peb->x1 - (float) fmod(peb->x1, fudge)));
value2 = plnorm(0, (peb->x2 - (float) fmod(peb->x2, fudge)));
if (peb->x1 < peb->x2) {
item->extent.ll.x = item->extent.ul.x = value1;
item->extent.lr.x = item->extent.ur.x = value2;
}
else {
item->extent.ll.x = item->extent.ul.x = value2;
item->extent.lr.x = item->extent.ur.x = value1;
}
value1 = plnorm(1, (peb->y1 - (float) fmod(peb->y1, fudge)));
value2 = plnorm(1, (peb->y2 - (float) fmod(peb->y2, fudge)));
if (peb->y1 < peb->y2) {
item->extent.ll.y = item->extent.lr.y = value1;
item->extent.ul.y = item->extent.ur.y = value2;
}
else {
item->extent.ll.y = item->extent.lr.y = value2;
item->extent.ul.y = item->extent.ur.y = value1;
}
if (contained_in(item->extent,outer_box))
{
found = 1;
item->next = NULL;
strcpy( item->attr_name, bname[i] );
priority = peb->p;
item->type = pe_box;
item->data.peb = peb;
if (in_list(item,&selected_items))
free(item);
else
append_to_list(item,&selected_items);
}
else
free(item);
}
}
/* Get extent of all line objects and see if the mouse
* click occured on or within those boundaries. Since in
* some cases it is impossible to actually click on the
* line value, I've added a slight buffer. */
for (pel=&(ptab->l1),i=0;i < 4;i++,pel++)
{
if (pel->p > 0)
{
item = (struct item_list *)malloc(sizeof(struct item_list));
item->x_reversed = item->y_reversed = 0;
if (pel->x1 < pel->x2) {
val1 = pel->x1-BUFFER; val2 = pel->x2+BUFFER;
value1 = plnorm(0, (val1 - (float) fmod(val1, fudge)));
value2 = plnorm(0, (val2 - (float) fmod(val2, fudge)));
item->extent.ll.x = item->extent.ul.x = value1;
item->extent.lr.x = item->extent.ur.x = value2;
}
else {
val1 = pel->x1+BUFFER; val2 = pel->x2-BUFFER;
value1 = plnorm(0, (val1 - (float) fmod(val1, fudge)));
value2 = plnorm(0, (val2 - (float) fmod(val2, fudge)));
item->extent.ll.x = item->extent.ul.x = value2;
item->extent.lr.x = item->extent.ur.x = value1;
}
if (pel->y1 < pel->y2) {
val1 = pel->y1-BUFFER; val2 = pel->y2+BUFFER;
value1 = plnorm(1, (val1 - (float) fmod(val1, fudge)));
value2 = plnorm(1, (val2 - (float) fmod(val2, fudge)));
item->extent.ll.y = item->extent.lr.y = value1;
item->extent.ul.y = item->extent.ur.y = value2;
}
else {
val1 = pel->y1+BUFFER; val2 = pel->y2-BUFFER;
value1 = plnorm(1, (val1 - (float) fmod(val1, fudge)));
value2 = plnorm(1, (val2 - (float) fmod(val2, fudge)));
item->extent.ll.y = item->extent.lr.y = value2;
item->extent.ul.y = item->extent.ur.y = value1;
}
if (contained_in(extent,outer_box))
{
found = 1;
item->next = NULL;
strcpy( item->attr_name, lname[i] );
priority = pel->p;
item->type = pe_line;
item->data.pel = pel;
if (in_list(item,&selected_items))
free(item);
else
append_to_list(item,&selected_items);
}
else
free(item);
}
}
/* Check and see if the legend was selected */
peleg = &(ptab->leg);
if (peleg->p > 0)
{
item = (struct item_list *)malloc(sizeof(struct item_list));
item->x_reversed = item->y_reversed = 0;
value1 = plnorm(0, (peleg->x1 - (float) fmod(peleg->x1, fudge)));
value2 = plnorm(0, (peleg->x2 - (float) fmod(peleg->x2, fudge)));
if (peleg->x1 < peleg->x2) {
item->extent.ll.x = item->extent.ul.x = value1;
item->extent.lr.x = item->extent.ur.x = value2;
}
else {
item->extent.ll.x = item->extent.ul.x = value2;
item->extent.lr.x = item->extent.ur.x = value1;
}
value1 = plnorm(1, (peleg->y1 - (float) fmod(peleg->y1, fudge)));
value2 = plnorm(1, (peleg->y2 - (float) fmod(peleg->y2, fudge)));
if (peleg->y1 < peleg->y2) {
item->extent.ll.y = item->extent.lr.y = value1;
item->extent.ul.y = item->extent.ur.y = value2;
}
else {
item->extent.ll.y = item->extent.lr.y = value2;
item->extent.ul.y = item->extent.ur.y = value1;
}
if (contained_in(item->extent,outer_box))
{
found = 1;
item->next = NULL;
strcpy( item->attr_name, "legend" );
priority = peleg->p;
item->type = pe_leg;
item->data.peleg = peleg;
if (in_list(item,&selected_items))
free(item);
else
append_to_list(item,&selected_items);
}
else
free(item);
}
/* Check and see if the data was selected */
pedsp = &(ptab->dsp);
if (pedsp->p > 0)
{
item = (struct item_list *)malloc(sizeof(struct item_list));
item->x_reversed = item->y_reversed = 0;
value1 = plnorm(0, (pedsp->x1 - (float) fmod(pedsp->x1, fudge)));
value2 = plnorm(0, (pedsp->x2 - (float) fmod(pedsp->x2, fudge)));
if (pedsp->x1 < pedsp->x2) {
item->extent.ll.x = item->extent.ul.x = value1;
item->extent.lr.x = item->extent.ur.x = value2;
}
else {
item->extent.ll.x = item->extent.ul.x = value2;
item->extent.lr.x = item->extent.ur.x = value1;
}
value1 = plnorm(1, (pedsp->y1 - (float) fmod(pedsp->y1, fudge)));
value2 = plnorm(1, (pedsp->y2 - (float) fmod(pedsp->y2, fudge)));
if (pedsp->y1 < pedsp->y2) {
item->extent.ll.y = item->extent.lr.y = value1;
item->extent.ul.y = item->extent.ur.y = value2;
}
else {
item->extent.ll.y = item->extent.lr.y = value2;
item->extent.ul.y = item->extent.ur.y = value1;
}
if (contained_in(extent,outer_box))
{
found = 1;
item->next = NULL;
strcpy( item->attr_name, "data" );
priority = pedsp->p;
item->type = pe_dsp;
item->data.pedsp = pedsp;
if (in_list(item,&selected_items))
free(item);
else
append_to_list(item,&selected_items);
}
else
free(item);
}
}
dtab = dtab->next;
}
draw_selected(selected_items,0);
*hold_selected_items = selected_items;
}
void swap(a,b)
float *a,*b;
{
float temp;
temp = *a;
*a = *b;
*b = temp;
}
void verify_extent(selected_items)
struct item_list **selected_items;
{
struct item_list *current = (struct item_list *)*selected_items;
while (current != NULL)
{
if (current->extent.ll.x > current->extent.lr.x)
{
current->x_reversed = 1;
swap(¤t->extent.ll.x, ¤t->extent.lr.x);
swap(¤t->extent.ul.x, ¤t->extent.ur.x);
}
else
current->x_reversed = 0;
if (current->extent.ll.y > current->extent.ul.y)
{
current->y_reversed = 1;
swap(¤t->extent.ll.y, ¤t->extent.ul.y);
swap(¤t->extent.lr.y, ¤t->extent.ur.y);
}
else
current->y_reversed = 0;
current = current->next;
}
}
void
get_text_fields(shold, sname, fname, xtname, ytname, xlname, ylname, bname, lname, atab, ptab)
char shold[29][MAX_NAME];
char sname[29][MAX_NAME];
char fname[29][MAX_NAME];
char xtname[29][MAX_NAME];
char ytname[29][MAX_NAME];
char xlname[29][MAX_NAME];
char ylname[29][MAX_NAME];
char bname[29][MAX_NAME];
char lname[29][MAX_NAME];
struct a_tab *atab;
struct p_tab *ptab;
{
int i = 0;
char month[13][10];
cdCompTime comptime;
struct a_attr *pA;
strcpy(month[1],"January");
strcpy(month[2],"February");
strcpy(month[3],"March");
strcpy(month[4],"April");
strcpy(month[5],"May");
strcpy(month[6],"June");
strcpy(month[7],"July");
strcpy(month[8],"August");
strcpy(month[9],"September");
strcpy(month[10],"October");
strcpy(month[11],"November");
strcpy(month[12],"December");
pA = atab->pA_attr;
/* Setup array shold to contain the labels of all text objects */
for (i=0; i<29; i++) strcpy(shold[i], " "); /* Initialize shold[] */
/* Text objects */
if (atab->pA_attr->F != NULL) strcpy(shold[0], atab->pA_attr->F);
if (atab->pA_attr->f != NULL) strcpy(shold[1], atab->pA_attr->f);
if (atab->pA_attr->lmask != NULL) strcpy(shold[2], atab->pA_attr->lmask);
if (atab->pA_attr->trnf != NULL) strcpy(shold[3], atab->pA_attr->trnf);
if (atab->pA_attr->s != NULL) strcpy(shold[4], atab->pA_attr->s);
if (atab->pA_attr->n != NULL) strcpy(shold[5], atab->pA_attr->n);
if (atab->pA_attr->ti != NULL) strcpy(shold[6], atab->pA_attr->ti);
if (atab->pA_attr->u != NULL) strcpy(shold[7], atab->pA_attr->u);
if (atab->pA_attr->crd != NULL) strcpy(shold[8], atab->pA_attr->crd);
if (atab->pA_attr->crt != NULL) strcpy(shold[9], atab->pA_attr->crt);
if (atab->pA_attr->com1 != NULL) strcpy(shold[10], atab->pA_attr->com1);
if (atab->pA_attr->com2 != NULL) strcpy(shold[11], atab->pA_attr->com2);
if (atab->pA_attr->com3 != NULL) strcpy(shold[12], atab->pA_attr->com3);
if (atab->pA_attr->com4 != NULL) strcpy(shold[13], atab->pA_attr->com4);
if (atab->pA_attr->xn[0] != NULL) strcpy(shold[14], atab->pA_attr->xn[0]);
if (atab->pA_attr->xn[1] != NULL) strcpy(shold[15], atab->pA_attr->xn[1]);
if (atab->pA_attr->xn[2] != NULL) strcpy(shold[16], atab->pA_attr->xn[2]);
if (atab->pA_attr->xn[3] != NULL) strcpy(shold[17], atab->pA_attr->xn[3]);
if (atab->pA_attr->xu[0] != NULL) strcpy(shold[18], atab->pA_attr->xu[0]);
if (atab->pA_attr->xu[1] != NULL) strcpy(shold[19], atab->pA_attr->xu[1]);
if (atab->pA_attr->xu[2] != NULL) strcpy(shold[20], atab->pA_attr->xu[2]);
if (atab->pA_attr->xu[3] != NULL) strcpy(shold[21], atab->pA_attr->xu[3]);
/* Format objects */
for (i = 0; i < 4; i++)
{
if ((pA->xs[i] != NULL) && ( cmpncs(pA->xs[i],"")!=0))
{
/* printf("xs %s\n",pA->xs[i]); */
/* printf("xvfmt %s\n",ptab->xv.fmt); */
if (cmpncs("time",pA->xn[i]) != 0)
format(pA->xn[i],pA->xu[i],*pA->xv[i],ptab->xv.fmt,shold[22+i]);
else
{
comptime.month = comptime.year = comptime.day = comptime.hour = 0;
cdRel2Comp(cd360, pA->xu[i], (double)*pA->xv[i] , &comptime);
if (comptime.month !=0)
sprintf(shold[22+i], "%s/%d", month[comptime.month], comptime.year);
else
format(pA->xn[i],pA->xu[i],*pA->xv[i],ptab->xv.fmt,shold[22+i]);
}
}
}
format("Mean",pA->u, pA->mean,ptab->mean.fmt,shold[26]);
format("Max",pA->u, pA->max,ptab->max.fmt,shold[27]);
format("Min",pA->u, pA->min,ptab->min.fmt,shold[28]);
/* Save the text attribute names */
strcpy(sname[0], "file");
strcpy(sname[1], "function");
strcpy(sname[2], "logicalmask");
strcpy(sname[3], "transformation");
strcpy(sname[4], "source");
strcpy(sname[5], "dataname");
strcpy(sname[6], "title");
strcpy(sname[7], "units");
strcpy(sname[8], "crdate");
strcpy(sname[9], "crtime");
strcpy(sname[10], "comment1");
strcpy(sname[11], "comment2");
strcpy(sname[12], "comment3");
strcpy(sname[13], "comment4");
strcpy(sname[14], "xname");
strcpy(sname[15], "yname");
strcpy(sname[16], "zname");
strcpy(sname[17], "tname");
strcpy(sname[18], "xunits");
strcpy(sname[19], "yunits");
strcpy(sname[20], "zunits");
strcpy(sname[21], "tunits");
/* Save the format attribute names */
strcpy(fname[0], "xvalue");
strcpy(fname[1], "yvalue");
strcpy(fname[2], "zvalue");
strcpy(fname[3], "tvalue");
strcpy(fname[4], "mean");
strcpy(fname[5], "max");
strcpy(fname[6], "min");
/* Save the X-Tick attribute names */
strcpy(xtname[0], "xtic1");
strcpy(xtname[1], "xtic2");
strcpy(xtname[2], "xmintic1");
strcpy(xtname[3], "xmintic2");
/* Save the Y-Tick attribute names */
strcpy(ytname[0], "ytic1");
strcpy(ytname[1], "ytic2");
strcpy(ytname[2], "ymintic1");
strcpy(ytname[3], "ymintic2");
/* Save the X-Label attribute names */
strcpy(xlname[0], "xlabel1");
strcpy(xlname[1], "xlabel2");
/* Save the Y-Label attribute names */
strcpy(ylname[0], "ylabel1");
strcpy(ylname[1], "ylabel2");
/* Save the Box attribute names */
strcpy(bname[0], "box1");
strcpy(bname[1], "box2");
strcpy(bname[2], "box3");
strcpy(bname[3], "box4");
/* Save the line attribute names */
strcpy(lname[0], "line1");
strcpy(lname[1], "line2");
strcpy(lname[2], "line3");
strcpy(lname[3], "line4");
}
int contained_in(extent,outer_box)
Gextent extent,outer_box;
{
if (within(extent.ll,outer_box))
if (within(extent.lr,outer_box))
if (within(extent.ur,outer_box))
if (within(extent.ul,outer_box))
return 1;
return 0;
}
struct fill_range *generate_auto_fill_range(float min,float max)
{
extern struct table_fill Tf_tab;
struct fill_range *p1,*pl1,*plg;
struct table_fill *pt,*ptt;
float dr,del,center;
int n,erret,k1,k2,i,tmp;
char tmpchar[256];
int nice15(float a,float b,float *dr,int *pw10,float *center);
extern FILE *fperr;
plg=NULL;
for (pt=&Tf_tab;
pt!=NULL&&strcmp(pt->name,"isof1")!=0;
pt=pt->next);
if (pt == NULL) pt=&Tf_tab;
ptt=pt;
if (nice15(max,min,&dr,&n,¢er) == 0)
{
PyErr_SetString(PyExc_TypeError, "Error - can not compute the meshfill ranges\n");
k1=k2=1;
del=max;
erret++;
}
else
{
del=dr*pow(10.0,(double) n);
k1=min/del;
if (k1*del > min) k1--;
k2=max/del;
if (k2*del < max) k2++;
while (k2-k1+1 < 7)
{
del=del*0.5;
k1=min/del;
if (k1*del > min) k1--;
k2=max/del;
if (k2*del < max) k2++;
}
while (k2-k1+1 > 15)
{
del=del*2.0;
k1=min/del;
if (k1*del > min) k1--;
k2=max/del;
if (k2*del < max) k2++;
}
while (k2-k1+1 < 15)
{
k1--;
if (k2-k1+1 < 15) k2++;
}
tmp=0;
for (i=k1;i <= k2;i++)
{
/* printf("k1,k2,i %d,%d,%d\n",k1,k2,i); */
if((p1=(struct fill_range *)
malloc(sizeof(struct fill_range))) == NULL)
{
err_warn(1,fperr,
"Error - no memory to compute meshfill ranges\n");
for (pl1=plg;pl1 != NULL;pl1=pl1->next)
free((char *)pl1);
plg=NULL;
erret++;
}
if (plg == NULL)
{
pl1=plg=p1;
pl1->lev1=i*del;
}
else
{
p1->lev1=pl1->lev2;
pl1->next=p1;
pl1=p1;
}
pl1->id=i-k1+1;
pl1->lev2=(i+1)*del;
sprintf(tmpchar,"AuTo_%d",tmp);
for (ptt=&Tf_tab;
ptt!=NULL&&strcmp(ptt->name,tmpchar)!=0;
ptt=ptt->next);
/* printf("Ok we're dealing with %s:\n",ptt->name); */
if (ptt->faci!=NULL) free(ptt->faci);
if (ptt->fais!=NULL) free(ptt->fais);
if (ptt->fasi!=NULL) free(ptt->fasi);
if ((ptt->faci=(int *) malloc(sizeof(int))) == NULL)
{
err_warn(1,fperr,
"Error - no memory to compute meshfill ranges (%s)\n");
for (pl1=plg;pl1 != NULL;pl1=pl1->next)
free((char *)pl1);
plg=NULL;
erret++;
}
if ((ptt->fasi=(int *) malloc(sizeof(int))) == NULL)
{
err_warn(1,fperr,
"Error - no memory to compute meshfill ranges (%s)\n");
for (pl1=plg;pl1 != NULL;pl1=pl1->next)
free((char *)pl1);
plg=NULL;
erret++;
}
if ((ptt->fais=(int *) malloc(sizeof(int))) == NULL)
{
err_warn(1,fperr,
"Error - no memory to compute meshfill ranges (%s)\n");
for (pl1=plg;pl1 != NULL;pl1=pl1->next)
free((char *)pl1);
plg=NULL;
erret++;
}
*ptt->faci=(int)((tmp)*(239.-16.)/14.+16);
*ptt->fasi=1;
*ptt->fais=1;
tmp=tmp+1;
/* printf("name of fill_table: %s, color %d\n",ptt->name,*ptt->faci);; */
strcpy(pl1->fill_name,ptt->name);
pl1->next=NULL;
}
}
return plg;
}
int find_color_from_fill_range(struct fill_range *line, float value,float min,float max,int missing)
{
struct table_fill *pf;
struct fill_range *po;
extern struct table_fill Tf_tab;
struct fill_range *pl,*plg;
float tmp,tmp2;
pl=plg=line;
if (pl == NULL || (pl->lev1 >= 0.99e20 && pl->lev2 >= 0.99e20 &&
pl->next == NULL) )
plg=generate_auto_fill_range(min,max);
if (value<1.E20)
{
for (po=plg; po!=NULL; po=po->next)
{
tmp=po->lev1;
tmp2=po->lev2;
/* printf("%s, %f, %f\n",po->fill_name,tmp,tmp2); */
if (tmp>.99E20 && tmp2>.99E20) tmp=-.99E20;
if ((tmp<=value) && (tmp2>=value))
{
/* Set up the fill area definitions. */
for (pf=&Tf_tab;pf!=NULL;pf=pf->next) {
/* printf("%s,%d,%d,%d,%s\n",pf->name,pf->faci[0],pf->fais[0],pf->fasi[0],po->fill_name); */
if (strcmp(pf->name,po->fill_name) == 0)
{
return pf->faci[0];
}
}
}
}
}
else
{
return missing;
}
return -999;
}
int locator(point,pP,dtab,info)
Gpoint point;
struct p_tab *pP;
struct display_tab *dtab;
struct data_point *info;
{
extern struct project_attr p_PRJ;
/* extern int set_projection(char *,struct pe_dsp, float *,float *); */
/* extern int gctp_conv(double, double,double *, double *,int); */
double xx,yy,tmp1,tmp2;
int ierr=1;
struct project_attr *pj;
/* Ok now figuring the actual location */
pj=&p_PRJ;
xx=(double)((point.x-pj->cX)/pj->sX);
yy=(double)((point.y-pj->cY)/pj->sY);
if (pj->proj_type>0)
{
ierr=gctp_conv(xx,yy,&tmp1,&tmp2,1);
info->x=tmp1;
info->y=tmp2;
/* if lat > 90 in abs , we must have clicked somewhere outside the world */
if (fabs(tmp2)>90.)
{
info->x=-999;
info->y=-999;
}
}
else if (pj->proj_type<0)
{
/* don't know how to inverse molleweide/polar/robinson from Dean */
info->x=-999;
info->y=-999;
}
else
{
info->x=xx;
info->y=yy;
}
/* printf("locator: %f,%f\n",info->x,info->y); */
return ierr;
}
typedef struct level_fill {int color; float l1,l2;} S_boxfill;
int get_data_coords(self,point,item,info)
PyVCScanvas_Object *self;
Gpoint point;
struct item_list *item;
struct data_point *info;
{
extern struct gfm_tab Gfm_tab;
extern struct gfi_tab Gfi_tab;
extern struct gfb_tab Gfb_tab;
extern struct gfo_tab Gfo_tab;
extern struct gi_tab Gi_tab;
extern struct go_tab Go_tab;
extern struct gSp_tab GSp_tab;
extern struct gv_tab Gv_tab;
extern struct gYx_tab GYx_tab;
extern struct gXy_tab GXy_tab;
extern struct gXY_tab GXY_tab;
extern struct p_tab Pic_tab;
extern struct display_tab D_tab;
extern struct a_tab A_tab;
extern float getArrayValueAsFloat(struct a_attr *,int);
extern int isInsidePolygon(float X, float Y, int n,float *XS,float *YS);
extern struct project_attr p_PRJ;
extern FILE *fperr;
extern struct table_fill Tf_tab;
struct display_tab *dtab=NULL;
struct a_tab *atab=NULL,*pb,*pB;
struct a_attr *pa;
struct a_attr *pa2;
struct p_tab *pP;
struct a_attr *pmesh,*pdata;
struct gfm_tab *pgfm;
struct gfm_attr *pGfm;
struct gfi_tab *pgfi;
struct gfi_attr *pGfi;
struct gfb_tab *pgfb;
struct gfb_attr *pGfb;
struct gfo_tab *pgfo;
struct gfo_attr *pGfo;
struct gi_tab *pgi;
struct gi_attr *pGi;
struct go_tab *pgo;
struct go_attr *pGo;
struct gSp_tab *pgSp;
struct gSp_attr *pGSp;
struct gv_tab *pgv;
struct gv_attr *pGv;
struct gXy_tab *pgXy;
struct gXy_attr *pGXy;
struct gYx_tab *pgYx;
struct gYx_attr *pGYx;
struct gXY_tab *pgXY;
struct gXY_attr *pGXY;
canvas_display_list *dptr;
float xs1, xs2, ys1, ys2;
float Xmin,Xmax,Ymin,Ymax;
float cvalue,ftmp,xoff,yoff;
float *meshX=NULL,*meshY=NULL;
float x,y,xwrap,ywrap,dsp[NDS];
int n1,n2,k1,j,iw,jw,ierr;
int i,k,l, xindex, yindex, size=1;
int nxwrap,nywrap,ncells;
int locator();
S_boxfill regis[256],save_regis[256];
int set_bfills(struct gfb_attr *pGfb,struct a_attr *pA, S_boxfill *regis,int *num);
float save_lev_1, save_lev_2;
int save_num_regis=0, save_color_1, save_color_2;
struct fill_range *pfiso;
int num_regis;
struct table_fill *ptb, *ftab;
extern void replace_boxfill_data_f( );
short *save_mask;
float *save_data;
float save_min, save_max, save_mean;
extern int mmmm();
struct pe_dsp pP_dsp;
extern float plnorm();
extern int set_projection();
/* int nicedf(float a,float b,float *dr,int *pw10,float *center); */
/* float dr,dx,x1,x2,center; */
/* int pw10; */
xs1=item->data.pedsp->x1;
xs2=item->data.pedsp->x2;
ys1=item->data.pedsp->y1;
ys2=item->data.pedsp->y2;
/* We used to initialize info object here but now it's done outside*/
/* info->x = -999; */
/* info->y = -999; */
/* info->value=-999; */
/* info->value2=-999; */
/* info->x_index = -999; */
/* info->y_index = -999; */
/* info->color=-999; */
xindex=-999;
yindex=-999;
if (self->dlist != NULL) {
dptr=self->dlist;
dtab=&D_tab;
while ((dtab != NULL) &&
(strcmp(dtab->p_name, item->ptab->name) != 0))
dtab = dtab->next;
if (dtab == NULL) return 0; /* did not find the correct display */
pP=&Pic_tab;
while (pP != NULL )
{
if (strcmp(pP->name,dtab->p_name) == 0) break;
pP=pP->next;
}
if (pP == NULL) return 0; /*did not find template */
atab=&A_tab;
while ((atab != NULL) && (strcmp(atab->name, dtab->a[0]) != 0)) {
atab = atab->next;
}
if (atab == NULL) return 0; /* did not find the correct slab array */
pa=atab->pA_attr;
/* Finds the second array if exists */
atab=&A_tab;
while ((atab != NULL) && (strcmp(atab->name, dtab->a[1]) != 0)) {
atab = atab->next;
}
pa2=NULL;
if (atab != NULL)
{
pa2=atab->pA_attr; /* did not find the second slab array */
}
/* Find the x and y coordinate value given the projection, coordinate min and max and the
* graphics method.
*/
dsp[0]=dtab->dsp_used[0];
dsp[1]=dtab->dsp_used[1];
dsp[2]=dtab->dsp_used[2];
dsp[3]=dtab->dsp_used[3];
pP_dsp.p = pP->dsp.p;
pP_dsp.x1 = plnorm(0, pP->dsp.x1); pP_dsp.x2 = plnorm(0, pP->dsp.x2);
pP_dsp.y1 = plnorm(1, pP->dsp.y1); pP_dsp.y2 = plnorm(1, pP->dsp.y2);
if (cmpncs(dtab->type,"boxfill") == 0) {
for (pgfb=&Gfb_tab; strcmp(dtab->g_name,pgfb->name) != 0; pgfb=pgfb->next) {}
pGfb=pgfb->pGfb_attr;
set_projection(pGfb->proj,pP_dsp,pGfb->dsp,dsp);
} else if (cmpncs(dtab->type,"isofill") == 0) {
for (pgfi=&Gfi_tab; strcmp(dtab->g_name,pgfi->name) != 0; pgfi=pgfi->next) {}
pGfi=pgfi->pGfi_attr;
set_projection(pGfi->proj,pP_dsp,pGfi->dsp,dsp);
} else if (cmpncs(dtab->type,"isoline") == 0) {
for (pgi=&Gi_tab; strcmp(dtab->g_name,pgi->name) != 0; pgi=pgi->next) {}
pGi=pgi->pGi_attr;
set_projection(pGi->proj,pP_dsp,pGi->dsp,dsp);
} else if (cmpncs(dtab->type,"outline") == 0) {
for (pgo=&Go_tab; strcmp(dtab->g_name,pgo->name) != 0; pgo=pgo->next) {}
pGo=pgo->pGo_attr;
set_projection(pGo->proj,pP_dsp,pGo->dsp,dsp);
} else if (cmpncs(dtab->type,"outfill") == 0) {
for (pgfo=&Gfo_tab; strcmp(dtab->g_name,pgfo->name) != 0; pgfo=pgfo->next) {}
pGfo=pgfo->pGfo_attr;
set_projection(pGfo->proj,pP_dsp,pGfo->dsp,dsp);
} else if (cmpncs(dtab->type,"meshfill") == 0) {
for (pgfm=&Gfm_tab; strcmp(dtab->g_name,pgfm->name) != 0; pgfm=pgfm->next) {}
pGfm=pgfm->pGfm_attr;
set_projection(pGfm->proj,pP_dsp,pGfm->dsp,dsp);
} else if (cmpncs(dtab->type,"vector") == 0) {
for (pgv=&Gv_tab; strcmp(dtab->g_name,pgv->name) != 0; pgv=pgv->next) {}
pGv=pgv->pGv_attr;
set_projection(pGv->proj,pP_dsp,pGv->dsp,dsp);
} else if (cmpncs(dtab->type,"xyvsy") == 0) {
for (pgXy=&GXy_tab; strcmp(dtab->g_name,pgXy->name) != 0; pgXy=pgXy->next) {}
pGXy=pgXy->pGXy_attr;
set_projection(pGXy->proj,pP_dsp,pGXy->dsp,dsp);
} else if (cmpncs(dtab->type,"yxvsx") == 0) {
for (pgYx=&GYx_tab; strcmp(dtab->g_name,pgYx->name) != 0; pgYx=pgYx->next) {}
pGYx=pgYx->pGYx_attr;
set_projection(pGYx->proj,pP_dsp,pGYx->dsp,dsp);
} else if (cmpncs(dtab->type,"xvsy") == 0) {
for (pgXY=&GXY_tab; strcmp(dtab->g_name,pgXY->name) != 0; pgXY=pgXY->next) {}
pGXY=pgXY->pGXY_attr;
set_projection(pGXY->proj,pP_dsp,pGXY->dsp,dsp);
} else if (cmpncs(dtab->type,"scatter") == 0) {
for (pgSp=&GSp_tab; strcmp(dtab->g_name,pgSp->name) != 0; pgSp=pgSp->next) {}
pGSp=pgSp->pGSp_attr;
set_projection(pGSp->proj,pP_dsp,pGSp->dsp,dsp);
}
else {
/* printf("type: %s is not pickable\n"); */
}
ierr=locator(point,pP,dtab,info);
/* Figuring out the projection used , call the locator, and figures out the index*/
if (cmpncs(dtab->type,"meshfill") == 0)
{
pgfm=&Gfm_tab;
while (pgfm != NULL)
{
if (strcmp(dtab->g_name,pgfm->name) == 0) break;
pgfm=pgfm->next;
}
pGfm=pgfm->pGfm_attr;
/* Find the mesh array. */
pB=&A_tab;
while (pB != NULL)
{
if (strlen(pB->name)>(size_t)0 && pB->pA_attr->notok==0
&& strcmp(pB->name,dtab->a[0]) == 0) break;
pB=pB->next;
}
pdata=pB->pA_attr;
pb=&A_tab;
while (pb != NULL)
{
if (strlen(pb->name)>(size_t)0 && pb->pA_attr->notok==0
&& strcmp(pb->name,dtab->a[1]) == 0) break;
pb=pb->next;
}
pmesh=pb->pA_attr;
n1=pdata->XS[0][0]; /* number of cell to plot */
n2=pmesh->XS[0][0]; /* number of vertices for each cell */
/* Malloc size for meshX/meshY*/
if ((meshX=(float *)malloc(sizeof(float)*n2)) == NULL) PyErr_SetString(PyExc_TypeError, "Error -no memory to store X mesh values\n");
if ((meshY=(float *)malloc(sizeof(float)*n2)) == NULL) PyErr_SetString(PyExc_TypeError, "Error -no memory to store Y mesh values\n");
/* Ok now figures out the index and value */
xwrap=pGfm->xwrap;
ywrap=pGfm->ywrap;
info->x_index=-999;
info->y_index=-999;
info->value=(float)-999.;
/* Now loop through the mesh */
for (i=0;i<n1;i++)
{
ftmp=(float)getArrayValueAsFloat(pmesh,i*pmesh->XS[0][0]*pmesh->XS[1][0]);
/* checks there's an actual mesh point there! */
if ( ftmp<1.E20 )
{
/* printf("in there !\n"); */
xoff=0.;
yoff=0.;
nxwrap=1;
nywrap=1;
ncells=0;
for (j=0;j<n2;j++)
{
k1=i*pmesh->XS[0][0]*pmesh->XS[1][0]+j;
y=(float)getArrayValueAsFloat(pmesh,k1);
if (y<1.E20) ncells=ncells+1;
}
if ((xwrap!=0.)||(ywrap!=0.))
{
Xmin= 1.E23;
Xmax= -1.E23;
Ymin= 1.E23;
Ymax= -1.E23;
/* first determine the max and min X and Y of the polygon (for wrapping) */
for (j=0;j<ncells;j++)
{
k1=i*pmesh->XS[0][0]*pmesh->XS[1][0]+j;
y=(float)getArrayValueAsFloat(pmesh,k1);
x=(float)getArrayValueAsFloat(pmesh,k1+pmesh->XS[0][0]);
if (x>Xmax && x<1.E20) Xmax=x;
if (x<Xmin && x<1.E20) Xmin=x;
if (y>Ymax && y<1.E20) Ymax=y;
if (y<Ymin && y<1.E20) Ymin=y;
}
/* Now set the x/y offset in order to be left/lower and X1/Y1 */
/* and count how many wrap to do in each direction */
/* printf("Xmin, Xmax, Ymin, Ymax : %f,%f,%f,%f, dsp_used 0,1,2,3: %f,%f,%f,%f\n",Xmin, Xmax, Ymin, Ymax,dtab->dsp_used[0],dtab->dsp_used[1],dtab->dsp_used[2],dtab->dsp_used[3]); */
if (xwrap!=0.)
{
while (Xmax>dtab->dsp_used[0]) { Xmin=Xmin-xwrap;Xmax=Xmax-xwrap;xoff=xoff-xwrap;}
while((Xmin+xwrap)<=dtab->dsp_used[2]) {Xmin=Xmin+xwrap;nxwrap=nxwrap+1;}
}
if (ywrap!=0.)
{
while (Ymax>dtab->dsp_used[1]) { Ymin=Ymin-ywrap;Ymax=Ymax-ywrap;yoff=yoff-ywrap;}
while((Ymin+ywrap)<=dtab->dsp_used[3]) {Ymin=Ymin+ywrap;nywrap=nywrap+1;}
}
}
/* printf("WRAPS ARE: %d,%d, %f, %f\n",nxwrap,nywrap, xoff, yoff); */
/* Now do the wraping thing */
for (iw=0;iw<nywrap;iw++) /*y wrap */
{
for (jw=0;jw<nxwrap;jw++)
{
for (j=0;j<ncells;j++)
{
/* construct the array of the corners */
k1=i*pmesh->XS[0][0]*pmesh->XS[1][0]+j;
meshY[j]=(float)getArrayValueAsFloat(pmesh,k1)+yoff;
meshX[j]=(float)getArrayValueAsFloat(pmesh,k1+pmesh->XS[0][0])+xoff;
}
/* Is it in the domain ? */
x=(float)(info->x);
y=(float)(info->y);
/* printf("%d:looking for %f,%f\n%f/%f------------%f/%f\n",i,x,y,meshX[0],meshY[0],meshX[1],meshY[1]); */
/* printf("%f/%f------------%f/%f\n",meshX[3],meshY[3],meshX[2],meshY[2]); */
/* printf("ncells:%d\n",ncells); */
k1=(int)isInsidePolygon(x,y,ncells,meshX,meshY);
if (k1==1)
{
info->x_index=i;
/* info->y_index=i;*/
info->value=(float)getArrayValueAsFloat(pa,i);
/* printf("Found it at: %i, ixwrap, iywrap are: %i, %i, value is: %f\n",i,iw,jw,info->value); */
}
xoff=xoff+xwrap;
}
yoff=yoff+ywrap;
}
}
}
if (meshX !=NULL) free(meshX);
if (meshY !=NULL) free(meshY);
}
else if ((cmpncs(dtab->type,"xvsy")==0) || (cmpncs(dtab->type,"scatter")==0) )
{
/* for (k=0; k<(pa2->xs[0][0]); k++) */
/* if ( ((info->y >= pa2->xb[0][k]) && (info->y <= pa2->xb[0][k+1])) || */
/* ((info->y <= pa2->xb[0][k]) && (info->y >= pa2->xb[0][k+1])) ) */
/* { */
/* for (i=0; i<(pa->xs[0][0]); i++) */
/* if ( ((info->x >= pa->xb[0][i]) && (info->x <= pa->xb[0][i+1])) || */
/* ((info->x <= pa->xb[0][i]) && (info->x >= pa->xb[0][i+1])) ) */
/* { */
/* info->y_index = yindex = k; */
/* info->x_index = xindex = i; */
/* break; */
/* } */
/* if (info->y_index!=-999) break; */
/* } */
}
else
{
for (i=0; i<pa->ND; ++i)
{
if ((i==0) && cmpncs(dtab->type,"xyvsy") != 0)
{
cvalue = info->x;
}
else if ((i == 1) || cmpncs(dtab->type,"xyvsy") == 0)
{
cvalue = info->y;
}
for (k=0; k<(pa->xs[i][0]); k++)
{
/* printf("k,pa->xb[i][k], value, pa->xb[i][k+1] : %d, %f, %f, %f\n",k,pa->xb[i][k], cvalue, pa->xb[i][k+1] ); */
if ( ((cvalue >= pa->xb[i][k]) && (cvalue <= pa->xb[i][k+1])) ||
((cvalue <= pa->xb[i][k]) && (cvalue >= pa->xb[i][k+1])) )
{
if ((i==0) && cmpncs(dtab->type,"xyvsy") != 0)
{
info->x_index = xindex = k;
}
else if ((i == 1) || cmpncs(dtab->type,"xyvsy") == 0)
{
info->y = cvalue;
info->y_index = yindex = k;
}
break;
}
}
}
}
}
if (cmpncs(dtab->type,"yxvsx") == 0)
{
info->y_index = -999;
info->value = pa->un.data[xindex];
}
else if (cmpncs(dtab->type,"xyvsy") == 0)
{
info->x_index = -999;
info->value = pa->un.data[yindex];
}
else if ((cmpncs(dtab->type,"xvsy") == 0) || (cmpncs(dtab->type,"scatter") == 0))
{
if ((info->x_index!=-999) && (info->y_index!=-999))
{
info->value = pa->un.data[xindex];
info->value2 = pa2->un.data[yindex];
}
}
else if (cmpncs(dtab->type,"vector")==0)
{
if ((xindex!=-999) && (yindex!=-999)) info->value = pa->un.data[xindex + (yindex*pa->xs[0][0])];
if ((xindex!=-999) && (yindex!=-999)) info->value2 = pa2->un.data[xindex + (yindex*pa->xs[0][0])];
}
else if (cmpncs(dtab->type,"meshfill") != 0)
{
if ((xindex!=-999) && (yindex!=-999))
{
if ((cmpncs(dtab->type,"outfill")==0) ||(cmpncs(dtab->type,"outline")==0))
info->value = (float)pa->un.idata[xindex + (yindex*pa->xs[0][0])];
else
info->value = (float)pa->un.data[xindex + (yindex*pa->xs[0][0])];
}
}
/* Color */
if (cmpncs(dtab->type,"meshfill") == 0)
{
info->color = find_color_from_fill_range(pGfm->line,info->value,pdata->min,pdata->max,pGfm->missing);
/* Now the part to figure out the color */
/* pj=&p_PRJ; */
/* xx=(double)((point.x-pj->cX)/pj->sX); */
/* yy=(double)((point.y-pj->cY)/pj->sY); */
/* point.x=(float)xx; */
/* point.y=(float)yy; */
/* test with XGKS */
/* printf("OK before query the loc is: %f,%f\n",point.x,point.y); */
/* n=ginqpixel(self->wkst_id,&point,&erret); */
/* printf("OK after query the colour/error are: %d,%d\n",n,erret); */
/* Now sets the levels if needed and assume reference at 0.0. */
}
else if (cmpncs(dtab->type,"boxfill") == 0)
{
/* printf("Color for boxfill....\n"); */
pgfb=&Gfb_tab;
while (pgfb != NULL)
{
if (strcmp(dtab->g_name,pgfb->name) == 0) break;
pgfb=pgfb->next;
}
pGfb=pgfb->pGfb_attr;
pB=&A_tab;
while (pa != NULL)
{
if (strlen(pB->name)>(size_t)0 && pB->pA_attr->notok==0
&& strcmp(pB->name,dtab->a[0]) == 0) break;
pB=pB->next;
}
pdata=pB->pA_attr;
i=1;
if (pGfb->boxfill_type == 3)
{ /* Compute the custom of the data */
save_lev_1 = pGfb->lev1;
save_lev_2 = pGfb->lev2;
pGfb->lev1 = pGfb->lev2 = 1.e+20;
if (pGfb->boxfill_type == 3) { /* Store originial color legend values for custom */
save_color_1 = pGfb->color_1;
save_color_2 = pGfb->color_2;
for (num_regis=0, pfiso=pGfb->line; pfiso!=NULL; num_regis++, pfiso=pfiso->next);
pGfb->color_1 = 16; /* Set the min color for the regis */
pGfb->color_2 = 16+num_regis-1; /* Set the max color for the regis */
}
set_bfills(pGfb,pdata,save_regis,&j);/* save the original legend color range */
if (j == 1)
set_bfills(pGfb,pdata,regis,&num_regis);/* save the original legend color range */
if (j != 0) { /* Don't change the colors for 'linear' */
for (i=0, pfiso=pGfb->line; pfiso!=NULL; i++, pfiso=pfiso->next) {
regis[i].l1 = pfiso->lev1; regis[i].l2 = pfiso->lev2;
for (ptb=ftab=&Tf_tab;
ftab!=NULL && cmpncs(pfiso->fill_name,ftab->name)!=0;
ptb=ftab,ftab=ftab->next);
regis[i].color = *ftab->faci;
}
}
}
else if (pGfb->boxfill_type == 2)
{ /* Compute the log10 of the data */
save_min = pa->min; save_max = pa->max, save_mean = pa->mean;
for (l = 0; l < pa->ND; l++) size *= *pa->xs[l];
if ((save_data=(float *)malloc(size*sizeof(float)))==NULL) {
err_warn(1,fperr, "Not enough memory to store plot data.\n");
return 0;
}
if ((save_mask=(short *)malloc(size*sizeof(short)))==NULL) {
err_warn(1,fperr, "Not enough memory to store plot data.\n");
return 0;
}
for (l=0; l<size; ++l) {
save_data[l] = pa->un.data[l];
save_mask[l] = pa->mask[l];
}
replace_boxfill_data_f(pa->un.data,pa->mask,&pa->xs[0],pa->ND,pa->min,pa->max,
pGfb->boxfill_type,pGfb->legend, pGfb->line,&num_regis);
mmmm(pa->un.data,pa->mask,&pa->xs[0],&pa->xw[0],2,
&pa->XC[0],&pa->xv[0],&pa->min,&pa->max,&pa->mean);
set_bfills(pGfb,pa,regis,&i);
pa->min = save_min; pa->max = save_max; pa->mean = save_mean;
free((char *) pa->un.data);
free((char *) pa->mask);
pa->un.data = save_data;
pa->mask = save_mask;
info->value = log10( info->value );
}
else
{
set_bfills(pGfb,pdata,regis,&i);
}
info->color=pGfb->missing;
for (j=0;j<i;j++)
{
/* printf("%f, %f, %f ---- %d\n",regis[j].l1,info->value,regis[j].l2,regis[j].color); */
if ((regis[j].l1<=info->value) && (regis[j].l2>=info->value))
{
info->color=regis[j].color;
}
}
if (pGfb->boxfill_type == 3) { /* Restore the originial color legend values for custom */
num_regis=save_num_regis;
pGfb->color_1 = save_color_1;
pGfb->color_2 = save_color_2;
for (k=0; k < save_num_regis; k++ ) {
regis[k].l1 = save_regis[k].l1;
regis[k].l2 = save_regis[k].l2;
}
}
/* Restore the originial levels values for log10 or custom */
if (pGfb->boxfill_type == 3) {
pGfb->lev1 = save_lev_1;
pGfb->lev2 = save_lev_2;
for (j=0; j < save_num_regis; j++ ) regis[j].color = save_regis[j].color;
}
if (num_regis == 0) set_bfills(pGfb,pdata,regis,&num_regis);
}
else if (cmpncs(dtab->type,"isofill") == 0)
{
/* If no isofill ranges specified then compute an interval
and assume reference at 0.0. */
pgfi=&Gfi_tab;
while (pgfi != NULL)
{
if (strcmp(dtab->g_name,pgfi->name) == 0) break;
pgfi=pgfi->next;
}
pGfi=pgfi->pGfi_attr;
pB=&A_tab;
while (pa != NULL)
{
if (strlen(pB->name)>(size_t)0 && pB->pA_attr->notok==0
&& strcmp(pB->name,dtab->a[0]) == 0) break;
pB=pB->next;
}
pdata=pB->pA_attr;
info->color = find_color_from_fill_range(pGfi->line,info->value,pdata->min,pdata->max,pGfi->missing);
}
};
/* structure for popup window text */
typedef struct window_text
{
char text[100];
struct window_text *next;
} window_text;
void draw_text(win, gc, display, screen_num, font_info, win_width, win_height, text)
Window win;
GC gc;
Display *display;
int screen_num;
XFontStruct *font_info;
unsigned int win_width, win_height;
struct window_text *text;
{
int len1, line;
int font_height;
int mult=3;
struct window_text *tmptxt;
/* int initial_y_offset, x_offset; */
line=0;
/* Need length for both XTextWidth and XDrawString */
for (tmptxt=text;tmptxt!=NULL;tmptxt=tmptxt->next)
{
len1 =strlen(tmptxt->text);
/* Output text, centered on each line */
font_height = font_info->ascent + font_info->descent;
/* Output text, on each line */
if (len1!=0)
{
line+=1;
XDrawString(display, win, gc, 8, (line*font_height), tmptxt->text, len1);
}
}
}
Window display_info(self,point,info)
PyVCScanvas_Object *self;
Gpoint point;
struct data_point info;
{
Display *dpy = self->connect_id.display;
Window wparent = self->connect_id.drawable, win;
XWindowAttributes xwa;
GC gc; /* graphics context */
XGCValues values;
XFontStruct *font_info;
int screen = DefaultScreen(dpy);
unsigned int win_width=110, win_height=5;
unsigned int xpos, ypos;
float canvas_ratio_l=0.0, canvas_ratio_p=0.0;
char *fontname = "9x15";
struct window_text text, *text2;
int len1,i;
int width1;
extern struct orientation Page;
/* Get the width and height of the VCS Canvas. */
XGetWindowAttributes(self->connect_id.display, self->connect_id.drawable, &xwa);
canvas_ratio_l = (float) xwa.height / (float) xwa.width;
canvas_ratio_p = (float) xwa.width / (float) xwa.height;
text2=&text;
for (i=0;i<6;i+=1)
{
if ((text2->next = (struct window_text *) malloc(sizeof(struct window_text))) ==NULL)
{
PyErr_SetString(PyExc_TypeError, "No memory for the text window string");
return (Window)NULL;
}
else
{
text2->next->next=NULL;
}
text2=text2->next;
};
text2=&text;
/* First Line of Text */
if (info.x_index != -999)
sprintf( text2->text, "X[%d]: %g\0", info.x_index, info.x);
else
{
if (info.x == -999)
sprintf( text2->text, "X : NaN\0");
else
sprintf( text2->text, "X : %g\0", info.x);
}
/* Second Line of Text */
text2 = text2->next;
if (info.y_index != -999)
sprintf( text2->text, "Y[%d]: %g\0", info.y_index, info.y);
else
{
if (info.y == -999)
sprintf( text2->text, "Y : NaN\0");
else
sprintf( text2->text, "Y : %g\0", info.y);
}
/* Third Line of Text */
text2 = text2->next;
if (((info.x_index == -999) || (info.y_index == -999)) && info.value == -999)
if (info.value2 == -999)
{
sprintf( text2->text, "\0");
}
else
{
sprintf( text2->text, "Data 1: N/A\0");
}
else
if (info.value>9.9E19)
{
if (info.value2 == -999)
{
sprintf( text2->text, "Data: Masked\0");
}
else
{
sprintf( text2->text, "Data 1: Masked\0");
}
info.color=-999;
}
else
{
if (info.value2 == -999)
{
sprintf( text2->text, "Data: %g\0", info.value);
}
else
{
sprintf( text2->text, "Data 1: %g\0", info.value);
}
}
/* Fourth and Fith Line of Text */
text2 = text2->next;
if (info.value2 != -999)
if (info.value2>9.9E19)
{
sprintf( text2->text, "Data 2: Masked\0");
}
else
{
sprintf( text2->text, "Data 2: %g\0", info.value2);
if (info.value<9.9E19)
{
sprintf(text2->next->text, "Vector: %g\0",sqrt(info.value2*info.value2+info.value*info.value));
}
else
{
sprintf(text2->next->text, "\0",sqrt(info.value2*info.value+info.value*info.value));
}
}
else
{
sprintf( text2->text, "\0");
sprintf( text2->next->text, "\0");
}
/* Sixth Line of Text */
text2=text2->next->next;
if (info.color!=-999)
{
sprintf( text2->text, "Color: %d\0", info.color);
}
else
{
sprintf( text2->text, "\0");
}
/* Access font */
if ((font_info = XLoadQueryFont(dpy,fontname)) == NULL) {
(void) fprintf( stderr, "Basic: Cannot open 9x15 font\n");
return (Window)NULL;
}
for (text2=&text;text2->next!=NULL;text2=text2->next)
{
/* Need length for both XTextWidth and XDrawString */
len1 = strlen(text2->text)-3;
if (len1!=-3)
{
win_height+=15;
width1 = XTextWidth(font_info, text2->text, len1);
if (width1>win_width) win_width=width1;
}
}
if (strcmp(Page.page_orient,"landscape") == 0) {
xpos = (int)( xwa.width * point.x);
ypos = (int)( xwa.height - (point.y * (xwa.height/canvas_ratio_l)) );
} else {
xpos = (int) (point.x * (xwa.width/canvas_ratio_p));
ypos = (int) (xwa.height - (xwa.height * point.y));
}
if ((xpos + win_width) >= xwa.width) xpos = xpos - win_width;
if ((ypos + win_height) >= xwa.height) ypos = ypos - win_height;
win = XCreateSimpleWindow(dpy, wparent, xpos, ypos, win_width, win_height, 1,
BlackPixel(dpy,screen), WhitePixel(dpy,screen));
gc = XCreateGC(dpy, win, 0L, &values);
XMapWindow(dpy, win);
draw_text(win, gc, dpy, screen, font_info, win_width, win_height, &text);
for (text2=text.next;text.next!=NULL;text2=text.next)
{
text.next=text2->next;
free((struct window_text *)text2);
}
return win;
}
Window display_menu(self,point)
PyVCScanvas_Object *self;
Gpoint point;
{
Display *dpy = self->connect_id.display;
Window wparent = self->connect_id.drawable, win;
XWindowAttributes xwa;
GC gc; /* graphics context */
XGCValues values;
XFontStruct *font_info;
int screen = DefaultScreen(dpy);
unsigned int win_width=110, win_height=5;
unsigned int xpos, ypos;
float canvas_ratio_l=0.0, canvas_ratio_p=0.0;
struct window_text text, *text2;
char *fontname = "9x15";
char *astring;
int len1,nactions,i;
int width1;
extern struct orientation Page;
PyObject *canvas, *user_act_nms, *user_action_name;
/* Get the width and height of the VCS Canvas. */
XGetWindowAttributes(self->connect_id.display, self->connect_id.drawable, &xwa);
canvas_ratio_l = (float) xwa.height / (float) xwa.width;
canvas_ratio_p = (float) xwa.width / (float) xwa.height;
PY_ENTER_THREADS
PY_GRAB_THREAD
canvas = getPyCanvas( self );
user_action_name = PyString_FromString("user_actions_names");
user_act_nms = PyObject_GetAttr(canvas,user_action_name);
Py_XDECREF(user_action_name);
/* Access font */
if ((font_info = XLoadQueryFont(dpy,fontname)) == NULL) {
(void) fprintf( stderr, "Basic: Cannot open 9x15 font\n");
return (Window)NULL;
}
text.next=NULL;
text2=&text;
if PyList_Check(user_act_nms)
{
nactions=PyList_Size(user_act_nms);
for (i=0;i<nactions;i+=1)
{
if (i!=nactions-1)
if ((text2->next = (struct window_text *) malloc(sizeof(struct window_text))) == NULL)
{
PyErr_SetString(PyExc_TypeError, "No memory for the text window string");
return (Window)NULL;
}
else
{
text2->next->next=NULL;
}
user_action_name = PyList_GetItem(user_act_nms,i);
if PyString_Check(user_action_name)
{
astring = PyString_AsString(user_action_name);
sprintf(text2->text,"%s\0",astring);
}
else
{
sprintf(text2->text,"Action %d\0",i);
}
len1 = strlen(text2->text)-3;
width1 = XTextWidth(font_info, text2->text, len1);
win_height+=15;
if (width1>win_width) win_width=width1;
text2=text2->next;
}
}
else
{
PyErr_SetString(PyExc_TypeError, "user_actions_names must be a list");
return (Window)NULL;
};
Py_XDECREF(user_act_nms);
if (strcmp(Page.page_orient,"landscape") == 0) {
xpos = (int)( xwa.width * point.x);
ypos = (int)( xwa.height - (point.y * (xwa.height/canvas_ratio_l)) );
} else {
xpos = (int) (point.x * (xwa.width/canvas_ratio_p));
ypos = (int) (xwa.height - (xwa.height * point.y));
}
if ((xpos + win_width) >= xwa.width) xpos = xpos - win_width;
if ((ypos + win_height) >= xwa.height) ypos = ypos - win_height;
win = XCreateSimpleWindow(dpy, wparent, xpos, ypos, win_width, win_height, 1,
BlackPixel(dpy,screen), WhitePixel(dpy,screen));
gc = XCreateGC(dpy, win, 0L, &values);
XMapWindow(dpy, win);
/* printf("before\n"); */
/* for (text2=&text;text2!=NULL;text2=text2->next) */
/* { */
/* printf("Would draw: %s\n",text2->text); */
/* } */
/* printf("after\n"); */
draw_text(win, gc, dpy, screen, font_info, win_width, win_height, &text);
for (text2=text.next;text.next!=NULL;text2=text.next)
{
text.next=text2->next;
free((struct window_text *)text2);
}
PY_RELEASE_THREAD
PY_LEAVE_THREADS
return win;
}
/* obsolete */
/* Window display_info_old(self,point,info) */
/* PyVCScanvas_Object *self; */
/* Gpoint point; */
/* struct data_point info; */
/* { */
/* Display *dpy = self->connect_id.display; */
/* Window wparent = self->connect_id.drawable, win; */
/* XWindowAttributes xwa; */
/* GC gc; /\* graphics context *\/ */
/* XGCValues values; */
/* XFontStruct *font_info; */
/* int screen = DefaultScreen(dpy); */
/* unsigned int win_width=110, win_height=50; */
/* unsigned int xpos, ypos; */
/* float canvas_ratio_l=0.0, canvas_ratio_p=0.0; */
/* char *fontname = "9x15"; */
/* char xstr[100]; */
/* char ystr[100]; */
/* char dstr[100]; */
/* /\* Get the width and height of the VCS Canvas. *\/ */
/* XGetWindowAttributes(self->connect_id.display, self->connect_id.drawable, &xwa); */
/* canvas_ratio_l = (float) xwa.height / (float) xwa.width; */
/* canvas_ratio_p = (float) xwa.width / (float) xwa.height; */
/* xpos = (int)( xwa.width * point.x); */
/* ypos = (int)(xwa.height - (point.y *(xwa.height/canvas_ratio_l)) ); */
/* if ((xpos + win_width) >= xwa.width) xpos = xpos - win_width; */
/* if ((ypos + win_height) >= xwa.height) ypos = ypos - win_height; */
/* win = XCreateSimpleWindow(dpy, wparent, xpos, ypos, win_width, win_height, 1, */
/* BlackPixel(dpy,screen), WhitePixel(dpy,screen)); */
/* gc = XCreateGC(dpy, win, 0L, &values); */
/* /\* Access font *\/ */
/* if ((font_info = XLoadQueryFont(dpy,fontname)) == NULL) { */
/* (void) fprintf( stderr, "Basic: Cannot open 9x15 font\n"); */
/* return (Window)NULL; */
/* } */
/* XMapWindow(dpy, win); */
/* if (info.x_index != -999) */
/* sprintf( xstr, "X[%d]: %g\0", info.x_index, info.x); */
/* else */
/* sprintf( xstr, "X[n/a]: NaN\0"); */
/* if (info.y_index != -999) */
/* sprintf( ystr, "Y[%d]: %g\0", info.y_index, info.y); */
/* else */
/* sprintf( ystr, "Y[n/a]: NaN\0"); */
/* if ((info.x_index == -999) && (info.x_index == -999)) */
/* sprintf( dstr, "Data: N/A\0"); */
/* else */
/* if (info.value>9.9E19) */
/* { */
/* sprintf( dstr, "Data: Missing\0"); */
/* } */
/* else */
/* { */
/* sprintf( dstr, "Data: %g\0", info.value); */
/* } */
/* draw_text(win, gc, dpy, screen, font_info, win_width, win_height, xstr,ystr,dstr); */
/* return win; */
/* } */
/***************************************************************************
END OF FILE
****************************************************************************/
| 103-weather-symbol-markers-in-cdat | trunk/CDAT-New-Markers/Source/vcsmodule.c | C | gpl2 | 1,147,666 |
/* Gmktype - additional VCS marker types */
/* The other Gmktype - marker types (listed below) are defined
in the gks.h file.
#define GMK_POINT 1
#define GMK_PLUS 2
#define GMK_STAR 3
#define GMK_O 4
#define GMK_X 5
*/
#define GMK_DIAMOND 6
#define GMK_TRIANGLEUP 7
#define GMK_TRIANGLEDOWN 8
#define GMK_TRIANGLELEFT 9
#define GMK_TRIANGLERIGHT 10
#define GMK_SQUARE 11
#define GMK_DIAMOND_FILL 12
#define GMK_TRIANGLEUP_FILL 13
#define GMK_TRIANGLEDOWN_FILL 14
#define GMK_TRIANGLELEFT_FILL 15
#define GMK_TRIANGLERIGHT_FILL 16
#define GMK_SQUARE_FILL 17
#define GMK_HURRICANE 18
#define GMK_NONE 19
#define GMK_w00 100
#define GMK_w01 101
#define GMK_w02 102
#define GMK_w03 103
#define GMK_w04 104
#define GMK_w05 105
#define GMK_w06 106
#define GMK_w07 107
#define GMK_w08 108
#define GMK_w09 109
#define GMK_w10 110
#define GMK_w11 111
#define GMK_w12 112
#define GMK_w13 113
#define GMK_w14 114
#define GMK_w15 115
#define GMK_w16 116
#define GMK_w17 117
#define GMK_w18 118
#define GMK_w19 119
#define GMK_w20 120
#define GMK_w21 121
#define GMK_w22 122
#define GMK_w23 123
#define GMK_w24 124
#define GMK_w25 125
#define GMK_w26 126
#define GMK_w27 127
#define GMK_w28 128
#define GMK_w29 129
#define GMK_w30 130
#define GMK_w31 131
#define GMK_w32 132
#define GMK_w33 133
#define GMK_w34 134
#define GMK_w35 135
#define GMK_w36 136
#define GMK_w37 137
#define GMK_w38 138
#define GMK_w39 139
#define GMK_w40 140
#define GMK_w41 141
#define GMK_w42 142
#define GMK_w43 143
#define GMK_w44 144
#define GMK_w45 145
#define GMK_w46 146
#define GMK_w47 147
#define GMK_w48 148
#define GMK_w49 149
#define GMK_w50 150
#define GMK_w51 151
#define GMK_w52 152
#define GMK_w53 153
#define GMK_w54 154
#define GMK_w55 155
#define GMK_w56 156
#define GMK_w57 157
#define GMK_w58 158
#define GMK_w59 159
#define GMK_w60 160
#define GMK_w61 161
#define GMK_w62 162
#define GMK_w63 163
#define GMK_w64 164
#define GMK_w65 165
#define GMK_w66 166
#define GMK_w67 167
#define GMK_w68 168
#define GMK_w69 169
#define GMK_w70 170
#define GMK_w71 171
#define GMK_w72 172
#define GMK_w73 173
#define GMK_w74 174
#define GMK_w75 175
#define GMK_w76 176
#define GMK_w77 177
#define GMK_w78 178
#define GMK_w79 179
#define GMK_w80 180
#define GMK_w81 181
#define GMK_w82 182
#define GMK_w83 183
#define GMK_w84 184
#define GMK_w85 185
#define GMK_w86 186
#define GMK_w87 187
#define GMK_w88 188
#define GMK_w89 189
#define GMK_w90 190
#define GMK_w91 191
#define GMK_w92 192
#define GMK_w93 193
#define GMK_w94 194
#define GMK_w95 195
#define GMK_w96 196
#define GMK_w97 197
#define GMK_w98 198
#define GMK_w99 199
#define GMK_w200 200
#define GMK_w201 201
#define GMK_w202 202
/* A structure for VCS marker attributes. */
/* Values are initialized in main. */
struct vcs_marker
{
int type; /* The marker type. */
float size; /* The size of the marker. */
int colour; /* The marker color. */
};
| 103-weather-symbol-markers-in-cdat | trunk/CDAT-New-Markers/Source/vcs_marker.h | C | gpl2 | 4,748 |
import vcs, cdms2, cdutil
import time,os, sys
# Open data file:
filepath = os.path.join(sys.prefix, 'sample_data/clt.nc')
cdmsfile = cdms2.open( filepath )
# Extract a 3 dimensional data set and get a subset of the time dimension
#data = cdmsfile('clt', longitude=(-180, 180), latitude = (-180., 180.))
data = cdmsfile('clt', longitude=(60, 100), latitude = (0., 40.)) # for india
# Initial VCS.
v = vcs.init()
# Now get the line 'continents' object.
lc = v.getline('continents')
# Change line attribute values
lc.color=30#light blue #244 # light blue #250 dark blue
lc.width=1
#lc.list()
cf_asd = v.getboxfill( 'ASD' )
cf_asd.datawc(1e20,1e20,1e20,1e20) # change to default region
#cf_asd.datawc(0,0,80,80)
cf_asd.level_1=1e20 # change to default minimum level
cf_asd.level_2=1e20 # change to default maximum level
cf_asd.color_1=240 # change 1st color index value
cf_asd.color_2=240 # change 2nd color index value
cf_asd.yticlabels1={0:'0',5:'5',10:'10',15:'15',20:'20',25:'25',30:'30',35:'35',40:'40'}
# our own template
# Assign the variable "t_asd" to the persistent 'ASD' template.
t_asd = v.gettemplate( 'ASD' )
t_asd.data.priority = 1
t_asd.legend.priority = 0
t_asd.max.priority = 0
t_asd.min.priority = 0
t_asd.mean.priority = 0
#t_asd.source.priority = 1
t_asd.title.priority = 0
t_asd.units.priority = 0
t_asd.crdate.priority = 0
t_asd.crtime.priority = 0
t_asd.dataname.priority = 0
t_asd.zunits.priority = 0
t_asd.tunits.priority = 0
t_asd.xname.priority = 0
t_asd.yname.priority = 0
t_asd.xvalue.priority = 0
t_asd.yvalue.priority = 0
t_asd.tvalue.priority = 0
t_asd.zvalue.priority = 0
t_asd.box1.priority = 0
t_asd.xlabel2.priority = 1
t_asd.xtic2.priority = 0
# set the right y-axis (second y axis) to be blank (priority=0)
t_asd.ylabel2.priority = 0
t_asd.ytic2.priority = 0
# set the top x-axis (secind y axis) to be blank
t_asd.xlabel1.priority = 0
t_asd.xtic1.priority = 0
# set the right y-axis (second y axis) to be blank (priority=0)
t_asd.ylabel1.priority = 1
#t_asd.ymintic1.priority = 1
t_asd.ytic1.priority = 0
t_asd.scalefont(0.1) # lat and long text font size
#t_asd.ylabel1.list()
v.plot( data, t_asd ,cf_asd,bg=0)
v.update()
arr=[]
t=[]
c=[]
s=[]
for i in range(0,31):
arr.append(0)
t.append(0)
c.append(0)
s.append(0)
# plotting marker
m=v.createmarker()
mytmpl=v.createtemplate()
m.viewport=[mytmpl.data.x1,mytmpl.data.x2,mytmpl.data.y1,mytmpl.data.y2] # this sets the area used for drawing
m.worldcoordinate=[60.,100.,0,40]
#use m.viewport and m.wordcoordinate to define you're area
t[0]=None
t[1]=113
c[0]=None
c[1]=85
s[0]=5
s[1]=5
s[2]=5
s[3]=5
s[4]=8
s[5]=5
s[6]=5
s[7]=5
s[8]=10
s[9]=12
s[10]=15
s[11]=15
s[12]=15
s[13]=25
s[14]=10
s[15]=10
s[16]=10
s[17]=8
s[18]=15
s[19]=15
s[20]=10
s[21]=5
s[22]=5
s[23]=5
s[24]=5
s[25]=5
s[26]=5
s[27]=5
s[28]=5
s[29]=10
s[30]=8
m.type=[130,131,132,133,134,135,136,137,138,139,140,141,142,143,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159]
m.color=[241,]
size=[]
for i in range(0,31):
size.append(s[i])
m.size=size
m.x=[[64],[66],[68],[70],[73],[76],[78],[81],[83],[86],[89],[92],[95],[64],[62],[64],[68],[70],[73],[75],[78],[82],[84],[86],[89],[92],[95],[97],[74],[79],]
m.y=[[35],[35],[35],[35],[35],[35],[35],[35],[35],[35],[35],[35],[35],[15],[10],[10],[10],[10],[10],[6],[12],[10],[10],[10],[10],[10],[10],[10],[25],[25],]
v.update()
v.plot(m,bg=0)
#v.svg("/home/arulalan/marker1",width=30,height=30,units="cm")
raw_input()
| 103-weather-symbol-markers-in-cdat | trunk/CDAT-New-Markers/Example Markers - Programs/marker2.py | Python | gpl2 | 3,513 |
import vcs, cdms2, cdutil
import time,os, sys
# Open data file:
filepath = os.path.join(sys.prefix, 'sample_data/clt.nc')
cdmsfile = cdms2.open( filepath )
# Extract a 3 dimensional data set and get a subset of the time dimension
#data = cdmsfile('clt', longitude=(-180, 180), latitude = (-180., 180.))
data = cdmsfile('clt', longitude=(60, 100), latitude = (0., 40.)) # for india
# Initial VCS.
v = vcs.init()
# Now get the line 'continents' object.
lc = v.getline('continents')
# Change line attribute values
lc.color=30#light blue #244 # light blue #250 dark blue
lc.width=1
#lc.list()
cf_asd = v.getboxfill( 'ASD' )
cf_asd.datawc(1e20,1e20,1e20,1e20) # change to default region
#cf_asd.datawc(0,0,80,80)
cf_asd.level_1=1e20 # change to default minimum level
cf_asd.level_2=1e20 # change to default maximum level
cf_asd.color_1=240 # change 1st color index value
cf_asd.color_2=240 # change 2nd color index value
cf_asd.yticlabels1={0:'0',5:'5',10:'10',15:'15',20:'20',25:'25',30:'30',35:'35',40:'40'}
# our own template
# Assign the variable "t_asd" to the persistent 'ASD' template.
t_asd = v.gettemplate( 'ASD' )
t_asd.data.priority = 1
t_asd.legend.priority = 0
t_asd.max.priority = 0
t_asd.min.priority = 0
t_asd.mean.priority = 0
#t_asd.source.priority = 1
t_asd.title.priority = 0
t_asd.units.priority = 0
t_asd.crdate.priority = 0
t_asd.crtime.priority = 0
t_asd.dataname.priority = 0
t_asd.zunits.priority = 0
t_asd.tunits.priority = 0
t_asd.xname.priority = 0
t_asd.yname.priority = 0
t_asd.xvalue.priority = 0
t_asd.yvalue.priority = 0
t_asd.tvalue.priority = 0
t_asd.zvalue.priority = 0
t_asd.box1.priority = 0
t_asd.xlabel2.priority = 1
t_asd.xtic2.priority = 0
# set the right y-axis (second y axis) to be blank (priority=0)
t_asd.ylabel2.priority = 0
t_asd.ytic2.priority = 0
# set the top x-axis (secind y axis) to be blank
t_asd.xlabel1.priority = 0
t_asd.xtic1.priority = 0
# set the right y-axis (second y axis) to be blank (priority=0)
t_asd.ylabel1.priority = 1
#t_asd.ymintic1.priority = 1
t_asd.ytic1.priority = 0
t_asd.scalefont(0.1) # lat and long text font size
#t_asd.ylabel1.list()
v.plot( data, t_asd ,cf_asd,bg=0)
v.update()
arr=[]
t=[]
c=[]
s=[]
for i in range(0,31):
arr.append(0)
t.append(0)
c.append(0)
s.append(0)
# plotting marker
m=v.createmarker()
mytmpl=v.createtemplate()
m.viewport=[mytmpl.data.x1,mytmpl.data.x2,mytmpl.data.y1,mytmpl.data.y2] # this sets the area used for drawing
m.worldcoordinate=[60.,100.,0,40]
#use m.viewport and m.wordcoordinate to define you're area
t[0]=None
t[1]=113
c[0]=None
c[1]=85
s[0]=10
s[1]=10
s[2]=10
s[3]=10
s[4]=25
s[5]=35
s[6]=10
s[7]=8
s[8]=10
s[9]=12
s[10]=15
s[11]=15
s[12]=15
s[13]=25
s[14]=10
s[15]=10
s[16]=10
s[17]=8
s[18]=10
s[19]=5
s[20]=15
s[21]=5
s[22]=5
s[23]=5
s[24]=5
s[25]=5
s[26]=5
s[27]=5
s[28]=5
s[29]=20
s[30]=5
m.type=[100,101,102,103,104,105,106,107,108,109,110,111,112,113,114,115,116,117,118,119,120,121,122,123,124,125,126,127,128,129]
m.color=[242,]
size=[]
for i in range(0,31):
size.append(s[i])
m.size=size
m.x=[[64],[66],[68],[70],[72],[75],[77],[81],[83],[86],[89],[92],[95],[98],[62],[66],[68],[72],[73],[75],[78],[82],[83],[86],[89],[92],[95],[97],[74],[79],]
m.y=[[35],[35],[35],[35],[35],[35],[35],[35],[35],[35],[35],[35],[35],[35],[10],[10],[10],[10],[10],[8],[12],[10],[10],[10],[10],[10],[10],[10],[25],[25],]
v.update()
v.plot(m,bg=0)
v.svg("/home/arulalan/marker",width=30,height=30,units="cm")
raw_input()
| 103-weather-symbol-markers-in-cdat | trunk/CDAT-New-Markers/Example Markers - Programs/marker1.py | Python | gpl2 | 3,517 |
import vcs, cdms2, cdutil
import time,os, sys
# Open data file:
filepath = os.path.join(sys.prefix, 'sample_data/clt.nc')
cdmsfile = cdms2.open( filepath )
# Extract a 3 dimensional data set and get a subset of the time dimension
#data = cdmsfile('clt', longitude=(-180, 180), latitude = (-180., 180.))
data = cdmsfile('clt', longitude=(60, 100), latitude = (0., 40.)) # for india
# Initial VCS.
v = vcs.init()
# Now get the line 'continents' object.
lc = v.getline('continents')
# Change line attribute values
lc.color=30#light blue #244 # light blue #250 dark blue
lc.width=1
#lc.list()
cf_asd = v.getboxfill( 'ASD' )
cf_asd.datawc(1e20,1e20,1e20,1e20) # change to default region
#cf_asd.datawc(0,0,80,80)
cf_asd.level_1=1e20 # change to default minimum level
cf_asd.level_2=1e20 # change to default maximum level
cf_asd.color_1=240 # change 1st color index value
cf_asd.color_2=240 # change 2nd color index value
cf_asd.yticlabels1={0:'0',5:'5',10:'10',15:'15',20:'20',25:'25',30:'30',35:'35',40:'40'}
# our own template
# Assign the variable "t_asd" to the persistent 'ASD' template.
t_asd = v.gettemplate( 'ASD' )
t_asd.data.priority = 1
t_asd.legend.priority = 0
t_asd.max.priority = 0
t_asd.min.priority = 0
t_asd.mean.priority = 0
#t_asd.source.priority = 1
t_asd.title.priority = 0
t_asd.units.priority = 0
t_asd.crdate.priority = 0
t_asd.crtime.priority = 0
t_asd.dataname.priority = 0
t_asd.zunits.priority = 0
t_asd.tunits.priority = 0
t_asd.xname.priority = 0
t_asd.yname.priority = 0
t_asd.xvalue.priority = 0
t_asd.yvalue.priority = 0
t_asd.tvalue.priority = 0
t_asd.zvalue.priority = 0
t_asd.box1.priority = 0
t_asd.xlabel2.priority = 1
t_asd.xtic2.priority = 0
# set the right y-axis (second y axis) to be blank (priority=0)
t_asd.ylabel2.priority = 0
t_asd.ytic2.priority = 0
# set the top x-axis (secind y axis) to be blank
t_asd.xlabel1.priority = 0
t_asd.xtic1.priority = 0
# set the right y-axis (second y axis) to be blank (priority=0)
t_asd.ylabel1.priority = 1
#t_asd.ymintic1.priority = 1
t_asd.ytic1.priority = 0
t_asd.scalefont(0.1) # lat and long text font size
#t_asd.ylabel1.list()
v.plot( data, t_asd ,cf_asd,bg=0)
v.update()
arr=[]
t=[]
c=[]
s=[]
for i in range(0,14):
arr.append(0)
t.append(0)
c.append(0)
s.append(0)
# plotting marker
m=v.createmarker()
mytmpl=v.createtemplate()
m.viewport=[mytmpl.data.x1,mytmpl.data.x2,mytmpl.data.y1,mytmpl.data.y2] # this sets the area used for drawing
m.worldcoordinate=[60.,100.,0,40]
#use m.viewport and m.wordcoordinate to define you're area
t[0]=None
t[1]=113
c[0]=None
c[1]=85
s[0]=10
s[1]=10
s[2]=10
s[3]=10
s[4]=10
s[5]=10
s[6]=10
s[7]=10
s[8]=10
s[9]=20
s[10]=20
s[11]=10
s[12]=20
s[13]=10
m.type=[190,191,192,193,194,195,196,197,198,199,200,201,202]
m.color=[241,241,241,241,241,241,241,241,241,241,242,242,242]
size=[]
for i in range(0,14):
size.append(s[i])
m.size=size
m.x=[[64],[68],[76],[70],[77],[65],[78],[81],[88],[86],[89],[92],[95]]#,[64],[62],[64],[68],[70],[73],[75],[78],[82],[84],[86],[89],[92],[95],[97],[74],[79],]
m.y=[[33],[35],[35],[15],[25],[18],[18],[35],[5],[35],[15],[35],[35]]#,[15],[10],[10],[10],[15],[10],[6],[12],[10],[10],[10],[10],[10],[10],[10],[25],[25],]
v.update()
v.plot(m,bg=0)
#v.svg("/home/arulalan/marker3",width=30,height=30,units="cm")
raw_input()7
| 103-weather-symbol-markers-in-cdat | trunk/CDAT-New-Markers/Example Markers - Programs/marker4.py | Python | gpl2 | 3,363 |
import vcs, cdms2, cdutil
import time,os, sys
# Open data file:
filepath = os.path.join(sys.prefix, 'sample_data/clt.nc')
cdmsfile = cdms2.open( filepath )
# Extract a 3 dimensional data set and get a subset of the time dimension
#data = cdmsfile('clt', longitude=(-180, 180), latitude = (-180., 180.))
data = cdmsfile('clt', longitude=(60, 100), latitude = (0., 40.)) # for india
# Initial VCS.
v = vcs.init()
# Now get the line 'continents' object.
lc = v.getline('continents')
# Change line attribute values
lc.color=30#light blue #244 # light blue #250 dark blue
lc.width=1
#lc.list()
cf_asd = v.getboxfill( 'ASD' )
cf_asd.datawc(1e20,1e20,1e20,1e20) # change to default region
#cf_asd.datawc(0,0,80,80)
cf_asd.level_1=1e20 # change to default minimum level
cf_asd.level_2=1e20 # change to default maximum level
cf_asd.color_1=240 # change 1st color index value
cf_asd.color_2=240 # change 2nd color index value
cf_asd.yticlabels1={0:'0',5:'5',10:'10',15:'15',20:'20',25:'25',30:'30',35:'35',40:'40'}
# our own template
# Assign the variable "t_asd" to the persistent 'ASD' template.
t_asd = v.gettemplate( 'ASD' )
t_asd.data.priority = 1
t_asd.legend.priority = 0
t_asd.max.priority = 0
t_asd.min.priority = 0
t_asd.mean.priority = 0
#t_asd.source.priority = 1
t_asd.title.priority = 0
t_asd.units.priority = 0
t_asd.crdate.priority = 0
t_asd.crtime.priority = 0
t_asd.dataname.priority = 0
t_asd.zunits.priority = 0
t_asd.tunits.priority = 0
t_asd.xname.priority = 0
t_asd.yname.priority = 0
t_asd.xvalue.priority = 0
t_asd.yvalue.priority = 0
t_asd.tvalue.priority = 0
t_asd.zvalue.priority = 0
t_asd.box1.priority = 0
t_asd.xlabel2.priority = 1
t_asd.xtic2.priority = 0
# set the right y-axis (second y axis) to be blank (priority=0)
t_asd.ylabel2.priority = 0
t_asd.ytic2.priority = 0
# set the top x-axis (secind y axis) to be blank
t_asd.xlabel1.priority = 0
t_asd.xtic1.priority = 0
# set the right y-axis (second y axis) to be blank (priority=0)
t_asd.ylabel1.priority = 1
#t_asd.ymintic1.priority = 1
t_asd.ytic1.priority = 0
t_asd.scalefont(0.1) # lat and long text font size
#t_asd.ylabel1.list()
v.plot( data, t_asd ,cf_asd,bg=0)
v.update()
arr=[]
t=[]
c=[]
s=[]
for i in range(0,31):
arr.append(0)
t.append(0)
c.append(0)
s.append(0)
# plotting marker
m=v.createmarker()
mytmpl=v.createtemplate()
m.viewport=[mytmpl.data.x1,mytmpl.data.x2,mytmpl.data.y1,mytmpl.data.y2] # this sets the area used for drawing
m.worldcoordinate=[60.,100.,0,40]
#use m.viewport and m.wordcoordinate to define you're area
t[0]=None
t[1]=113
c[0]=None
c[1]=85
s[0]=5
s[1]=5
s[2]=5
s[3]=5
s[4]=5
s[5]=5
s[6]=5
s[7]=5
s[8]=5
s[9]=5
s[10]=5
s[11]=5
s[12]=5
s[13]=8
s[14]=5
s[15]=5
s[16]=10
s[17]=12
s[18]=15
s[19]=15
s[20]=10
s[21]=8
s[22]=8
s[23]=8
s[24]=8
s[25]=8
s[26]=8
s[27]=8
s[28]=10
s[29]=10
s[30]=10
m.type=[160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,179,180,181,182,183,184,185,186,187,188,189]
m.color=[242,]
size=[]
for i in range(0,31):
size.append(s[i])
m.size=size
m.x=[[64],[66],[68],[70],[72],[76],[78],[81],[83],[86],[89],[92],[95],[64],[62],[64],[68],[70],[73],[75],[78],[82],[84],[86],[89],[92],[95],[97],[74],[79],]
m.y=[[35],[35],[35],[35],[35],[35],[35],[35],[35],[35],[35],[35],[35],[15],[10],[10],[10],[15],[10],[6],[12],[10],[10],[10],[10],[10],[10],[10],[25],[25],]
v.update()
v.plot(m,bg=0)
#v.svg("/home/arulalan/marker2",width=30,height=30,units="cm")
raw_input()7
| 103-weather-symbol-markers-in-cdat | trunk/CDAT-New-Markers/Example Markers - Programs/marker3.py | Python | gpl2 | 3,509 |
<!-------------------------------------------------- Header ---------------------------------------------->
<?php include 'header_page.php'; ?>
<!-------------------------------------------------- Content --------------------------------------------->
<?php
require_once('system/dbconnector.php');
$connection = new DBConnection();
$connection->connect();
$query = "SELECT * FROM contact_detail";
$result = mysql_query($query);
$contact_details = array();
if(!$result)
{
die("Invalid query: ".mysql_error());
}
else
{
$num_cols = mysql_num_fields($result);
while($row = mysql_fetch_row($result))
{
for($i = 0; $i < $num_cols;$i++)
{
$contact_details[$i] = $row[$i];
}
break;
}
}
$connection->disconnect();
?>
<!---------------------------- Kiểm Tra Chức Năng Quản Lý Subversion ----------------------------->
<?php
echo "Phạm Thế Anh Phú - 1259219 - Project Management Course - CS301";
?>
<!---------------------------- Kiểm Tra Chức Năng Quản Lý Subversion ----------------------------->
<!--------------------------------------- Start Javascript Part ----------------------------------->
<link rel="stylesheet" href="http://code.jquery.com/ui/1.10.1/themes/base/jquery-ui.css" />
<script src="http://code.jquery.com/jquery-1.9.1.js"></script>
<script src="http://code.jquery.com/ui/1.10.1/jquery-ui.js"></script>
<link rel="stylesheet" href="/resources/demos/style.css" />
<script type="text/javascript">
$(function()
{
$("#dialog-alert").dialog({
resizable: false,
height: 170,
model: true,
autoOpen: false,
buttons:
{
"Thoát": function()
{
$(this).dialog("close");
}
}
});
});
</script>
<script type="text/javascript">
$(function()
{
$("#dialog-confirm").dialog({
resizable: false,
height: 170,
model: true,
autoOpen: false,
buttons:
{
"Thoát": function()
{
$(this).dialog("close");
}
}
});
});
</script>
<div id="dialog-alert" title="Thông tin nhập vào không hợp lệ">
<p><span class="ui-icon ui-icon-alert" style="float: left; margin: 0 7px 20px 0;"></span>Một trong số thông tin quý khách nhập vào không hợp lệ hoặc bị bỏ trống, không thể tiến hành gửi.</p>
</div>
<div id="dialog-confirm" title="Gửi tin nhắn thành công">
<p><span class="ui-icon ui-icon-circle-check" style="float: left; margin: 0 7px 20px 0;"></span>Thông tin của quý khách và lời nhắn đã được gửi thành công. Chúng tôi sẽ hồi đáp sớm nhất có thể.</p>
</div>
<script type="text/javascript">
function clearAllTB()
{
document.getElementById('name').value = "";
document.getElementById('phone').value = "";
document.getElementById('email').value = "";
document.getElementById('content').value = "";
}
</script>
<!------------------------------------------- End Javascript Part ---------------------------------------->
<div id="templatemo_main_top"></div>
<div id="templatemo_main">
<div class="col_12 float_l">
<h4>Công Ty TNHH Bình Lợi</h4>
<h6><strong>Địa Chỉ Chính Thức</strong></h6>
<?php echo $contact_details[0]; ?><br />
<br />
<table border="0" cellpadding="0" cellspacing="0">
<tr>
<td><strong>Điện Thoại Bàn</strong></td><td> <?php echo $contact_details[1]; ?> <br /></td>
</tr>
<tr>
<td><strong>Số Di Động</strong></td><td> <?php echo $contact_details[2]; ?> <br /></td>
</tr>
<tr>
<td><strong>Số Fax</strong></td><td> <?php echo $contact_details[3]; ?> <br /></td>
</tr>
<tr>
<td><strong>Địa Chỉ Email</strong></td><td> <a href="mailto:<?php echo $contact_details[4]; ?>"><?php echo $contact_details[4]; ?></a> <br />
</td>
</tr>
</table>
<div class="cleaner h40"></div>
<h4>Vị Trí Trên Bản Đồ</h4>
<iframe width="450" height="300" frameborder="0" scrolling="no" marginheight="0" marginwidth="0" src="<?php echo $contact_details[5]; ?>"></iframe>
</div>
<div class="col_12 float_r">
<h4>Gửi Tin Nhắn Cho Công Ty</h4>
<p>Đây là mục gửi tin nhắn cho công ty qua website. Xin vui lòng nhập đầy đủ họ tên, email và số điện thoại và nội dung tin nhắn của quý khách.</p>
<div id="contact_form">
<form method="post" name="contact" action="contact.php">
<label for="author">Họ và tên:</label><input type="text" id="name" name="name" class="required input_field" value="<?php if(isset($_POST['name'])) { echo $_POST['name']; } ?>" />
<div class="cleaner h10"></div>
<label for="email">Địa chỉ email:</label> <input type="text" id="email" name="email" class="validate-email required input_field" value="<?php if(isset($_POST['email'])) { echo $_POST['email']; } ?>" />
<div class="cleaner h10"></div>
<label for="subject">Số điện thoại:</label> <input type="text" name="phone" id="phone" class="input_field" value="<?php if(isset($_POST['phone'])) { echo $_POST['phone']; } ?>"/>
<div class="cleaner h10"></div>
<label for="text">Nội dung:</label> <textarea id="content" name="content" rows="0" cols="0" class="required"><?php if(isset($_POST['content'])) { echo $_POST['content']; } ?></textarea>
<table align="right" border="0" cellpadding="0" cellspacing="0">
<tr>
<td> <input type="submit" value="Gửi Tin Nhắn" id="submit" name="submit" class="submit_btn float_l" /></td>
<td> <input type="reset" value="Xóa Trắng" id="reset" name="reset" class="submit_btn float_r" onclick="clearAllTB()" /></td>
</tr>
</table>
</form>
</div>
</div>
<div class="cleaner"></div>
</div> <!-- END of main -->
<!------------------------------------------------- Send Message ----------------------------------------->
<?php
if(isset($_POST['submit']))
{
if(isset($_POST['name']) && isset($_POST['phone']) && isset($_POST['email']) && isset($_POST['content']) && strlen(trim($_POST['name'])) > 0 && strlen(trim($_POST['email']))> 5 && strlen(trim($_POST['phone'])) >9 && is_numeric($_POST['phone']) && strlen(trim($_POST['content']))> 10)
{
$name = $_POST['name'];
$phone = $_POST['phone'];
$email = $_POST['email'];
$content = $_POST['content'];
require_once('system/dbconnector.php');
$connection = new DBConnection();
$connection->connect();
$query = "INSERT INTO message (CUSTOMER_NAME,EMAIL,CUSTOMER_PHONE,CONTENT) VALUES ('".$name."', '".$email."', '".$phone."', '".$content."')";
mysql_query($query);
$connection->disconnect();
echo '<script type="text/javascript">
$(function()
{
$("#dialog-confirm").dialog({
resizable: false,
height: 170,
model: true,
autoOpen: true,
buttons:
{
"Ok": function()
{
$(this).dialog("close");
}
},
show:
{
effect: "blind",
duration: 300
},
hide:
{
effect: "explode",
duration: 400
},
close: function(event, ui)
{
window.location.href = "index.php";
}
});
});
</script>';
}
else
{
echo '<script type="text/javascript">
$(function()
{
$("#dialog-alert").dialog({
resizable: false,
height: 170,
model: true,
autoOpen: true,
buttons:
{
"Thoát": function()
{
$(this).dialog("close");
}
},
show: {
effect: "blind",
duration: 300
},
hide: {
effect: "explode",
duration: 400
}
});
});
</script>';
}
}
?>
<!-------------------------------------------------- Footer ---------------------------------------------->
<?php include 'footer_page.php'; ?> | 1259219-project-management | trunk/contact.php | PHP | gpl3 | 8,658 |
<?php
$path = $_SERVER["PHP_SELF"];
$parts = explode('/', $path);
$page = $parts[count($parts) - 1];
$subparts = explode("?",$page);
$subpage = $subparts[0];
?>
<!DOCTYPE html PUBLIC "-//W3C//DTD XHTML 1.0 Transitional//EN" "http://www.w3.org/TR/xhtml1/DTD/xhtml1-transitional.dtd">
<html xmlns="http://www.w3.org/1999/xhtml">
<head>
<meta http-equiv="Content-Type" content="text/html; charset=utf-8" />
<title>Bình Lợi Corp |
<?php
if($page=="index.php")
echo "Home";
else if($page=="info.php")
echo "Info";
else if($page=="contact.php")
echo "Contact";
else if($page=="service_design.php")
echo "Design";
else if($page=="service_construction.php")
echo "Construction";
else if($page=="service_repair.php")
echo "Repair";
else if($page=="service_real_estate.php")
echo "Real Estate";
else if($page=="service_car_repair.php")
echo "Car";
else if($page=="work.php")
echo "Work";
else if ($subpage=="work_detail.php")
echo "Work";
else if ($page=="news.php")
echo "News";
else if ($subpage=="news_detail.php")
echo "News";
else if ($subpage=="news_real_estate.php")
echo "News";
else if ($subpage=="news_construction.php")
echo "News";
else if ($subpage=="news_car.php")
echo "News";
else if ($page=="login.php")
echo "Login";
?>
</title>
<meta name="keywords" content="work center, theme, piecemaker 3D image slider, 960, free templates, CSS, HTML" />
<meta name="description" content="Work Center Theme is a free CSS template by templatemo.com for everyone. Feel free to use it for any purpose." />
<link href="css/templatemo_style.css" rel="stylesheet" type="text/css" />
<script type="text/javascript" src="js/swfobject/swfobject.js"></script>
<script type="text/javascript">
var flashvars = {};
flashvars.cssSource = "css/piecemaker.css";
flashvars.xmlSource = "flash/piecemaker.xml";
var params = {};
params.play = "true";
params.menu = "false";
params.scale = "showall";
params.wmode = "transparent";
params.allowfullscreen = "true";
params.allowscriptaccess = "always";
params.allownetworking = "all";
swfobject.embedSWF('flash/piecemaker.swf', 'piecemaker', '960', '440', '10', null, flashvars,
params, null);
</script>
<script language="javascript" type="text/javascript">
function clearText(field)
{
if (field.defaultValue == field.value) field.value = '';
else if (field.value == '') field.value = field.defaultValue;
}
</script>
<link rel="stylesheet" type="text/css" href="css/ddsmoothmenu.css" />
<script type="text/javascript" src="js/jquery.min.js"></script>
<script type="text/javascript" src="js/ddsmoothmenu.js">
/***********************************************
* Smooth Navigational Menu- (c) Dynamic Drive DHTML code library (www.dynamicdrive.com)
* This notice MUST stay intact for legal use
* Visit Dynamic Drive at http://www.dynamicdrive.com/ for full source code
***********************************************/
</script>
<script type="text/javascript">
ddsmoothmenu.init({
mainmenuid: "templatemo_menu", //menu DIV id
orientation: 'h', //Horizontal or vertical menu: Set to "h" or "v"
classname: 'ddsmoothmenu', //class added to menu's outer DIV
//customtheme: ["#1c5a80", "#18374a"],
contentsource: "markup" //"markup" or ["container_id", "path_to_menu_file"]
})
</script>
</head>
<body>
<div id="templatemo_header_wrapper">
<div id="templatemo_header">
<div id="site_title"><img src="images/BLlogo.png" width="151" height="50" /></div>
<div id="templatemo_menu" class="ddsmoothmenu">
<ul>
<li><a href="index.php" <?php if($page=="index.php") echo 'class="selected"'; ?> > Trang Chủ</a></li>
<li><a href="info.php" <?php if($page=="info.php") echo 'class="selected"'; ?> >Thông Tin</a></li>
<li><a href="#" <?php if($page=="service.php" || $page=="service_design.php" || $page=="service_repair.php" || $page=="service_construction.php" || $page=="service_real_estate.php" || $page=="service_car_repair.php") echo 'class="selected"'; ?> >Dịch Vụ</a>
<ul>
<li><span class="top"></span><span class="bottom"></span></li>
<li><a href="service/service_design.php">Thiết Kế, Nội Thất</a></li>
<li><a href="service/service_construction.php">Thi Công Công Trình</a></li>
<li><a href="service/service_repair.php">Sửa Chữa, Nâng Cấp</a></li>
<li><a href="service/service_real_estate.php">Bất Động Sản</a></li>
<li><a href="service/service_car_repair.php">Xe Hơi</a></li>
</ul>
</li>
<li><a href="work.php" <?php if($page=="work.php" || $subpage=="work_detail.php") echo 'class="selected"'; ?> >Công Trình</a></li>
<li><a href="news.php" <?php if($page=="news.php" || $subpage=="news_detail.php" || $page=="news_real_estate.php" || $page=="news_construction.php" || $page=="news_car.php") echo 'class="selected"'; ?> >Tin Tức</a>
<ul>
<li><span class="top"></span><span class="bottom"></span></li>
<li><a href="news/news_real_estate.php">Bất Động Sản</a></li>
<li><a href="news/news_construction.php">Thi Công Công Trình</a></li>
<li><a href="news/news_car.php">Xe Hơi</a></li>
</ul>
</li>
<li><a href="contact.php" <?php if($page=="contact.php") echo 'class="selected"'; ?> >Liên Hệ</a></li>
<li><a href="#" <?php if($page=="login.php") echo 'class="selected"'; ?> >Nhân Viên</a>
<ul>
<li><span class="top"></span><span class="bottom"></span></li>
<li><a href="login.php">Đăng Nhập Dữ Liệu</a></li>
<li><a href="http://email.binhloi.net">Đăng Nhập Email</a></li>
</ul>
</li>
</ul>
<br style="clear: left" />
</div>
<!-- end of templatemo_menu --></div>
<!-- END of header -->
</div>
<!-------------------------------------------------- Header ----------------------------------------------> | 1259219-project-management | trunk/header_page.php | PHP | gpl3 | 6,459 |
<div id="templatemo_footer_wrapper">
<div id="templatemo_footer">
<div class="col col_14">
<h5>Các Kênh Thông Tin</h5>
<ul class="footer_list">
<li><a href="http://en.infotv.vn">Kinh Tế, Thị Trường</a></li>
<li><a href="http://http://batdongsan.com.vn">Thông Tin Bất Động Sản</a></li>
<li><a href="http://truyenhinhxaydung.vn">Xây Dựng, Vận Tãi</a></li>
<li><a href="http://autopro.com.vn/">Thông Tin Xe Ôtô</a></li>
<li><a href="http://tapchidesign.vn">Nội Thất, Thiết Kế</a></li>
</ul>
</div>
<div class="col col_14">
<h5>Website's Pages</h5>
<ul class="footer_list">
<li><a href="index.php">Trang Chủ</a></li>
<li><a href="info.php">Thông Tin Công Ty</a></li>
<li><a href="#">Các Dịch Vụ</a></li>
<li><a href="news.php">Thông Tin, Tin Tức</a></li>
<li><a href="contact.php">Liên Hệ</a></li>
</ul>
</div>
<div class="col col_14">
<h5>Liên Lạc Qua</h5>
<ul class="footer_list">
<li><a href="#" class="social facebook">info@binhloi.net</a></li>
<li><a href="#" class="social twitter">(+084) 3553 1075</a></li>
<li><a href="#" class="social feed">0903.033.883</a></li>
</ul>
</div>
<div class="col col_14 no_margin_right">
<h5>Bản Quyền Website</h5>
Copyright © 2013 <a href="#">Công ty TNHH Bình Lợi</a><br/>
Address: 429 Nơ Trang Long, Phường 13, Quận Bình Thạnh, TP. HCM<br /><br/>
Designed by <a href="mailto:phamtheanhphu@gmail.com" target="_parent">Phạm Thế Anh Phú</a><br/>
Phone: 0996873631<br/>
Email: <a href="mailto:phamtheanhphu@gmail.com">phamtheanhphu@gmail.com</a>
</div>
<div class="cleaner"></div>
</div>
</div> <!-- END of footer -->
</body>
</html> | 1259219-project-management | trunk/footer_page.php | Hack | gpl3 | 2,137 |
<?php
ob_start();
session_start();
if(isset($_SESSION['login_name']))
{
header('Location: admin/admin_site.php');
}
else
{
require_once('system/dbconnector.php');
$connetion = new DBConnection();
}
?>
<?php include 'header_page.php'; ?>
<!---------------------------------------------- Header ------------------------------------------------------->
<script type="text/javascript">
function clearAllTB()
{
document.getElementById('username').value = "";
document.getElementById('password').value = "";
}
</script>
<style>
/* tutorial */
input, textarea {
padding: 9px;
border: solid 1px #E5E5E5;
outline: 0;
font: normal 13px/100% Verdana, Tahoma, sans-serif;
width: 250px;
background: #FFFFFF url('bg_form.png') left top repeat-x;
background: -webkit-gradient(linear, left top, left 25, from(#FFFFFF), color-stop(4%, #EEEEEE), to(#FFFFFF));
background: -moz-linear-gradient(top, #FFFFFF, #EEEEEE 1px, #FFFFFF 25px);
box-shadow: rgba(0,0,0, 0.1) 0px 0px 8px;
-moz-box-shadow: rgba(0,0,0, 0.1) 0px 0px 8px;
-webkit-box-shadow: rgba(0,0,0, 0.1) 0px 0px 8px;
}
textarea {
width: 400px;
max-width: 400px;
height: 150px;
line-height: 150%;
}
input:hover, textarea:hover,
input:focus, textarea:focus {
border-color: #C9C9C9;
-webkit-box-shadow: rgba(0, 0, 0, 0.15) 0px 0px 8px;
}
.form label {
margin-left: 10px;
color: #999999;
}
.submit input {
width: auto;
padding: 9px 15px;
background: #617798;
border: 0;
font-size: 14px;
color: #FFFFFF;
-moz-border-radius: 5px;
-webkit-border-radius: 5px;
}
</style>
<!--[if lt IE 9]><script type="text/javascript" src="js/html5.js"></script><![endif]-->
<!--==============================content================================-->
<div id="templatemo_main_top"></div>
<div id="templatemo_main">
<div class="col_12 float_l">
<h4> Đăng Nhập Vào Hệ Thống Dành Cho Nhân Viên</h4>
<ul class="">
<li>Đây là mục đăng nhập dành cho quản trị viên websites, không dành cho khách ghé thăm. Nếu bạn không phải quản trị viên xin vui lòng trở lại các mục khác. <a href="index.php"><b><i>Trở về</i></b></a></li><br/>
<li>Đối với quản trị viên, khi muốn sử dụng các chức năng ở mục này. Phải đăng nhập với thông tin tên tài khoản và mật khẩu chính xác. Nếu sai hệ thống sẽ báo lỗi từ chối đăng nhập.
</li><br/>
<li>
Mật khẩu dùng để đăng nhập phải đủ độ phức tạp và phải bí mật tránh trường hợp bị đánh cắp mật khẩu hoặc tiết lộ cho người khác.
</li><br />
<li>
Khi bị mất hoặc quên mật khẩu đăng nhập phải liên hệ với Website Administrator để khôi phục lại mật khẩu đã mất.
</li><br/>
<li>
Đây là khu vực đăng nhập quản trị website với mức độ yêu cầu bảo mật cao nhất. Không đăng nhập tại các máy tính không rõ nguồn gốc để tránh bị đánh cắp tài khoản quản trị.
</li><br/>
<li>
Webiste này là tài sản thuộc quyền sở hữu của <b><a href="index.php">Công ty TNHH Bình Lợi</a></b> mọi hình thức lợi tấn công, xâm nhập vào hệ thống website không có sự chấp thuận của công ty điều là trái phép và vi phạm pháp luật.
</li><br/>
</ul>
<br /><br />
</div>
<div class="col_12 float_r">
<h4>Hình Thức Đăng Nhập</h4>
<p>Nhân viên hoặc quản trị viên phải nhập chính xác tên đăng nhập và mật khẩu vào các mục tương ứng nếu nhập sai hệ thống sẽ báo lỗi. Lưu ý nếu đăng nhập sai tren 10 lần tài khoản đăng nhập sẽ bị khóa vì lý do bảo mật.</p>
<div id="contact_form">
<br /><br /><br />
<form action="login.php" method="post">
<label for="username"><b>Tên Đăng Nhập </b></label>
<input type="text" id="username" name="username" value="<?php if(isset($_POST['username'])) { echo $_POST['username']; }?>"/><br/>
<label for="username"><b>Mật Khẩu</b></label>
<input type="password" id="password" name="password" value="<?php if(isset($_POST['password'])){echo $_POST['password']; }?>"/><br/><br/>
<span class="submit"><input name="refresh" type="button" value="Refresh" onclick="clearAllTB()"/> <input name="submit" type="submit" value="Đăng Nhập" id="submit" /></span><br/>
</form>
<br/>
<!----------------------------------------- Start PHP Code --------------------------------------------------->
<?php
if(isset($_POST['submit']))
{
if(empty($_POST['username']) || empty($_POST['password']))
{
if(empty($_POST['username']))
{
echo "<p>Tên đăng nhập không thể rỗng</p>";
echo "<script type='text/javascript'>
document.getElementById('username').focus();
</script>";
}
if(!empty($_POST['username']) && empty($_POST['password']))
{
echo "<p>Mật khẩu đăng nhập không thể rỗng</p>";
echo "<script type='text/javascript'>
document.getElementById('password').focus();
</script>";
}
}
else
{
$username = $_POST['username'];
$passwd = $_POST['password'];
$passwd = sha1($passwd);
$connetion->connect();
$query = "SELECT * FROM user AS U WHERE U.USER_NAME='".$username."' AND U.PASSWD='".$passwd."'";
$result = mysql_query($query);
$flag = false;
if(mysql_num_rows($result)==1)
{
$_SESSION['login_name'] = $username;
header('Location: admin/admin_site.php');
}
else
{
echo "<p>Tên hoặc mật khẩu không chính xác.</p>";
}
}
}
?>
<!----------------------------------------- End PHP Code ----------------------------------------------------->
</div>
</div>
<div class="cleaner"></div>
</div> <!-- END of main -->
<!---------------------------------------------- Footer ------------------------------------------------------->
<?php include 'footer_page.php'; ?>
| 1259219-project-management | trunk/login.php | PHP | gpl3 | 6,402 |
<!-------------------------------------------------- Header ---------------------------------------------->
<?php include 'header_page.php'; ?>
<!-------------------------------------------------- Content --------------------------------------------->
<?php
require_once('system/dbconnector.php');
$connection = new DBConnection();
?>
<div id="templatemo_main">
<div class="fp_box5">
<img src="images/applications.png" alt="Image 01" />
<h2><a href="service/service_design.php">Thiết Kế, Trang Trí</a></h2>
<p>Nhận thiết kế tất cả các hạng mục như nhà dân dụng, nhà xưởng, kho, khu công nghiệp...</p>
</div>
<div class="fp_box5">
<img src="images/desktop_aurora_borealis.png" alt="Image 02" />
<h2><a href="service/service_construction.php">Thi Công Công Trình</a></h2>
<p>Công ty TNHH Bình Lợi có kinh nghiệm trên 10 năm về thi công các hạng mục công trình.</p>
</div>
<div class="fp_box5">
<img src="images/invoice.png" alt="Image 03" />
<h2><a href="service/service_repair.php">Xây Dựng, Sữa Chữa</a></h2>
<p>Nhận thi công xây dựng nhà dân dụng cũng như trang trí nội thất. Sữa chữa, nâng cấp nhà ở.</p>
</div>
<div class="fp_box5">
<img src="images/preferences.png" alt="Image 04" />
<h2><a href="service/service_real_estate.php">Bất Động Sản</a></h2>
<p>Kinh doanh, mô giới và mua bán bất động sản. Hộ trợ thông tin, tư vấn mua bán về lĩnh vực nhà đất.</p>
</div>
<div class="fp_box5 no_margin_right">
<img src="images/presentation.png" alt="Image 05" />
<h2><a href="service/service_car_repair.php">Nhập, Sữa Chữa Ôtô</a></h2>
<p>Công ty TNHH Bình Lợi nhận đặt hàng nhập ô tô theo yêu cầu khách hàng, cũng như bảo trì, sữa chữa.</p>
</div>
<div class="cleaner h50"></div>
<div class="col col_13">
<h3>Các Lĩnh Vực Hiện Tại</h3>
<ul>
<?php
$connection->connect();
$query = "SELECT * FROM company_service";
$result = mysql_query($query);
$services = array();
if(!$result)
{
die("Invalid query: ".mysql_error());
}
else
{
$i = 0;
while($row = mysql_fetch_row($result))
{
$services[$i] = $row[1];
$i++;
}
}
foreach($services as $value)
{
echo '<li>'.$value.'</li>';
}
unset($services);
$connection->disconnect();
?>
</ul>
</div>
<div class="col col_23 no_margin_right">
<h3>Thông Tin Công Ty</h3>
<?php
$connection->connect();
$info = array();
$query = "SELECT * FROM company_info";
$result = mysql_query($query);
if(!$result)
{
die('Invalid query: '.mysql_error());
}
else
{
$num_cols = mysql_num_fields($result);
while($row = mysql_fetch_row($result))
{
for($i = 0; $i < $num_cols; $i++)
{
$info[$i] = $row[$i];
if($i == 4)
{
$unformatDate = strtotime($row[$i]);
$date = date("d/m/Y",$unformatDate);
$info[$i] = $date;
}
if($i==6)
{
$unformatDate = strtotime($row[6]);
$date = date("d/m/Y",$unformatDate);
$info[$i] = $date;
}
}
break;
}
$connection->disconnect();
}
?>
<div class="testimonial">
Tên giao dịch: <b><?php echo $info[0]; ?></b><br/>
Địa chỉ: <b><?php echo $info[1]; ?></b><br/>
Giám đốc/Đại diện pháp luật: <b><?php echo $info[2] ?></b><br />
Giấy phép kinh doanh: <b><?php echo $info[3]; ?></b> <br />
Ngày cấp: <b><?php echo $info[4] ?></b><br />
Mã số thuế: <b><?php echo $info[5]; ?></b><br />
Ngày hoạt động: <b><?php echo $info[6]; ?> </b>
</div>
<div class="testimonial">
<p> <?php echo $info[7]; ?></p>
<div class="cleaner"></div>
<cite>Phạm Thế Phương<a href="#"><span> - GĐ, Bình Lợi</span></a></cite></div>
</div>
<div class="cleaner h10"></div>
</div> <!-- END of main -->
<!-------------------------------------------------- Footer ---------------------------------------------->
<?php include 'footer_page.php'; ?>
| 1259219-project-management | trunk/info.php | PHP | gpl3 | 4,791 |
<!-------------------------------------------------- Header --------------------------------------------->
<?php include 'header_page.php'; ?>
<!-------------------------------------------------- Content -------------------------------------------->
<?php
require_once('system/dbconnector.php');
$connection = new DBConnection();
$connection->connect();
?>
<div id="templatemo_main_top"></div>
<div id="templatemo_main">
<div id="content" class="float_l">
<?php
$query = "SELECT * FROM news as N WHERE TYPE=1 AND DATE = (SELECT MAX(DATE) FROM news WHERE TYPE=1) LIMIT 1";
$result = mysql_query($query);
$row = mysql_fetch_row($result);
?>
<div class="post">
<h3>Thông Tin Bất Động Sản</h3>
<a href="news_detail.php?id=<?php echo $row[0]; ?>"><img src="images/news/<?php echo $row[7]; ?>" width="280" height="210"/></a>
<h2><?php echo $row[2]; ?></h2>
<p align="justify"><?php echo $row[3]; ?></p>
<a href="news_detail.php?id=<?php echo $row[0]; ?>" class="more">Xem thêm</a>
<div class="cleaner"></div>
<div class="meta">
<span class="admin">Bất Động Sản</span><span class="date"><?php $raw_date = strtotime($row[5]); $date = date('d/m/Y',$raw_date); echo $date; ?></span><span class="tag"><a href="#">Nguồn Tin: </a><a href="#"><?php echo $row[6]; ?></a></span><span class="comment"></span>
<div class="cleaner"></div>
</div>
<div class="cleaner"></div>
</div>
<?php
$query = "SELECT * FROM news as N WHERE TYPE=2 AND DATE = (SELECT MAX(DATE) FROM news WHERE TYPE=2) LIMIT 1";
$result = mysql_query($query);
$row = mysql_fetch_row($result);
?>
<div class="post">
<h3>Thông Tin Xây Dựng</h3>
<a href="news_detail.php?id=<?php echo $row[0]; ?>"><img src="images/news/<?php echo $row[7]; ?>" width="280" height="210"/></a>
<h2><?php echo $row[2]; ?></h2>
<p align="justify"><?php echo $row[3]; ?></p>
<a href="news_detail.php?id=<?php echo $row[0]; ?>" class="more">Xem thêm</a>
<div class="cleaner"></div>
<div class="meta">
<span class="admin">Xây Dựng, Thi Công</span><span class="date"><?php $raw_date = strtotime($row[5]); $date = date('d/m/Y',$raw_date); echo $date; ?></span><span class="tag"><a href="#">Nguồn Tin: </a><a href="#"><?php echo $row[6]; ?></a></span><span class="comment"></span>
<div class="cleaner"></div>
</div>
<div class="cleaner"></div>
</div>
<?php
$query = "SELECT * FROM news as N WHERE TYPE=3 AND DATE = (SELECT MAX(DATE) FROM news WHERE TYPE=3) LIMIT 1";
$result = mysql_query($query);
$row = mysql_fetch_row($result);
?>
<div class="post">
<h3>Thông Tin Xe Hơi</h3>
<a href="news_detail.php?id=<?php echo $row[0]; ?>"><img src="images/news/<?php echo $row[7]; ?>" width="280" height="210"/></a>
<h2><?php echo $row[2]; ?></h2>
<p align="justify"><?php echo $row[3]; ?></p>
<a href="news_detail.php?id=<?php echo $row[0]; ?>" class="more">Xem thêm</a>
<div class="cleaner"></div>
<div class="meta">
<span class="admin">Xe Ô tô</span><span class="date"><?php $raw_date = strtotime($row[5]); $date = date('d/m/Y',$raw_date); echo $date; ?></span><span class="tag"><a href="#">Nguồn Tin: </a><a href="http://<?php echo $row[6]; ?>"><?php echo $row[6]; ?></a></span><span class="comment"></span>
<div class="cleaner"></div>
</div>
<div class="cleaner"></div>
</div>
</div>
<div id="sidebar" class="float_r">
<h5>Danh mục thể loại</h5>
<ul class="templatemo_list">
<li><a href="news/news_real_estate.php">Bất Động Sản, Đầu Tư</a></li>
<li><a href="news/news_construction.php">Thi công công trình, xây dựng</a></li>
<li><a href="news/news_car.php">Xe hơi, máy móc</a></li>
</ul>
<div class="cleaner h20"></div>
<h5>Các tin đăng gần đây</h5>
<?php
$query = "SELECT * FROM news as N WHERE TYPE=1 AND DATE = (SELECT MAX(DATE) FROM news WHERE TYPE=1) LIMIT 1";
$result = mysql_query($query);
$row = mysql_fetch_row($result);
?>
<div class="rp_pp">
<a href="news_detail.php?id=<?php echo $row[0]; ?>"><?php echo $row[2]; ?></a>
<p><?php $raw_date = strtotime($row[5]); $date = date('d/m/Y',$raw_date); echo $date; ?> - <?php echo $row[6]; ?> - Bất Động Sản</p>
<div class="cleaner"></div>
</div>
<?php
$query = "SELECT * FROM news as N WHERE TYPE=2 AND DATE = (SELECT MAX(DATE) FROM news WHERE TYPE=2) LIMIT 1";
$result = mysql_query($query);
$row = mysql_fetch_row($result);
?>
<div class="rp_pp">
<a href="news_detail.php?id=<?php echo $row[0]; ?>"><?php echo $row[2]; ?></a>
<p><?php $raw_date = strtotime($row[5]); $date = date('d/m/Y',$raw_date); echo $date; ?> - <?php echo $row[6]; ?> - Thi Công, Xây Dựng</p>
<div class="cleaner"></div>
</div>
<?php
$query = "SELECT * FROM news as N WHERE TYPE=3 AND DATE = (SELECT MAX(DATE) FROM news WHERE TYPE=3) LIMIT 1";
$result = mysql_query($query);
$row = mysql_fetch_row($result);
?>
<div class="rp_pp">
<a href="news_detail.php?id=<?php echo $row[0]; ?>"><?php echo $row[2]; ?></a>
<p><?php $raw_date = strtotime($row[5]); $date = date('d/m/Y',$raw_date); echo $date; ?> - <?php echo $row[6]; ?> - Xơi Hơi, Máy Móc</p>
<div class="cleaner"></div>
</div>
<div class="cleaner h20"></div>
<h5>Danh Mục Đọc Nhiều Nhất</h5>
<?php
$query = "SELECT * FROM news WHERE TYPE=1 ORDER BY ID DESC LIMIT 2";
$result = mysql_query($query);
while($row = mysql_fetch_row($result))
{
$raw_date = strtotime($row[5]); $date = date('d/m/Y',$raw_date);
echo '<div class="rp_pp">
<a href="news_detail.php?id='.$row[0].'">'.$row[2].'</a>
<p>'.$date.' - '.$row[6].' - Bất Động Sản</p>
<div class="cleaner"></div>
</div>';
}
?>
<?php
$query = "SELECT * FROM news WHERE TYPE=2 ORDER BY ID DESC LIMIT 2";
$result = mysql_query($query);
while($row = mysql_fetch_row($result))
{
$raw_date = strtotime($row[5]); $date = date('d/m/Y',$raw_date);
echo '<div class="rp_pp">
<a href="news_detail.php?id='.$row[0].'">'.$row[2].'</a>
<p>'.$date.' - '.$row[6].' - Thi Công, Xây Dựng</p>
<div class="cleaner"></div>
</div>';
}
?>
<?php
$query = "SELECT * FROM news WHERE TYPE=3 ORDER BY ID DESC LIMIT 2";
$result = mysql_query($query);
while($row = mysql_fetch_row($result))
{
$raw_date = strtotime($row[5]); $date = date('d/m/Y',$raw_date);
echo '<div class="rp_pp">
<a href="news_detail.php?id='.$row[0].'">'.$row[2].'</a>
<p>'.$date.' - '.$row[6].' - Xe Hơi, Máy Móc</p>
<div class="cleaner"></div>
</div>';
}
?>
</div>
<div class="cleaner h40"></div>
</div>
<div class="cleaner"></div>
</div> <!-- END of main -->
<?php $connection->disconnect(); ?>
<!-------------------------------------------------- Footer --------------------------------------------->
<?php include 'footer_page.php'; ?> | 1259219-project-management | trunk/news.php | PHP | gpl3 | 7,515 |
<!-------------------------------------------------- Header ---------------------------------------------->
<?php include 'header_page.php'; ?>
<!-------------------------------------------------- Content --------------------------------------------->
<div id="templatemo_middle_wrapper">
<div id="templatemo_middle">
<div id="piecemaker">
<p> </p>
</div>
</div>
</div> <!-- END of slider -->
<div id="templatemo_main_top"></div>
<div id="templatemo_main">
<div class="fp_box5">
<img src="images/applications.png" alt="Image 01" />
<h2><a href="service/service_design.php">Thiết Kế, Trang Trí</a></h2>
<p>Nhận thiết kế tất cả các hạng mục như nhà dân dụng, nhà xưởng, kho, khu công nghiệp...</p>
</div>
<div class="fp_box5">
<img src="images/desktop_aurora_borealis.png" alt="Image 02" />
<h2><a href="service/service_construction.php">Thi Công Công Trình</a></h2>
<p>Công ty TNHH Bình Lợi có kinh nghiệm trên 10 năm về thi công các hạng mục công trình.</p>
</div>
<div class="fp_box5">
<img src="images/invoice.png" alt="Image 03" />
<h2><a href="service/service_repair.php">Xây Dựng, Sữa Chữa</a></h2>
<p>Nhận thi công xây dựng nhà dân dụng cũng như trang trí nội thất. Sữa chữa, nâng cấp nhà ở.</p>
</div>
<div class="fp_box5">
<img src="images/preferences.png" alt="Image 04" />
<h2><a href="service/service_real_estate.php">Bất Động Sản</a></h2>
<p>Kinh doanh, mô giới và mua bán bất động sản. Hộ trợ thông tin, tư vấn mua bán về lĩnh vực nhà đất.</p>
</div>
<div class="fp_box5 no_margin_right">
<img src="images/presentation.png" alt="Image 05" />
<h2><a href="service/service_car_repair.php">Nhập, Sữa Chữa Ôtô</a></h2>
<p>Công ty TNHH Bình Lợi nhận đặt hàng nhập ô tô theo yêu cầu khách hàng, cũng như bảo trì, sữa chữa.</p>
</div>
<div class="cleaner h50"></div>
<div class="col_12 float_l">
<h3>Giới Thiệu</h3>
<img src="images/banner-1.jpg" alt="BinhLoi Corp" class="float_l img_float_l" width="160" height="160"/>
<p align="justify"><em>"Sự tin tương và hài lòng của quý khách là phương châm hoạt động của chúng tôi."</em></p>
<p align="justify">Được thành lập vào 24/04/2002<a href="#" target="_parent"><strong> Công ty TNHH Bình Lợi</strong></a> là một thương hiệu uy tín trong ngành xây dựng và bất động sản. Với hơn 10 năm hoạt động trong lĩnh vực xây dựng, thi công các công trình lớn, khu công nghiệp, cơ sở hạ tầng... chúng tôi đã gây dựng Bình Lợi thành một thương hiệu vững mạnh và đạt được nhiều sự tín nhiệm của khách hàng. </p>
</div>
<div class="col_12 float_r">
<h3>Tầm Nhìn & Phát Triển</h3>
<img src="images/banner-2.jpg" alt="BinhLoi Corp" class="float_l img_float_l" width="160" height="160"/>
<p align="justify"><em>"Tại công ty Bình Lợi, chúng tôi không ngừng cải tiến, phát triển và hoàn thiện mình mỗi ngày."</em></p>
<p align="justify">Đội ngũ nhân viên và ban giám đốc Bình Lợi luôn luôn đặt hàng đầu tiêu chí là không bao giờ ngừng cải tiến và hoàn thiện hơn nữa các dịch vụ cho khách hàng. Năm 2010 <a href="#"><strong>Thương hiệu Ôtô Bình Lợi</strong></a> được thành lập, đánh dấu sự mở rộng của công ty sang lĩnh lực sữa chữa và nhập khẩu ô tô.</p>
</div>
<div class="cleaner"></div>
</div> <!-- END of main -->
<!-------------------------------------------------- Footer ---------------------------------------------->
<?php include 'footer_page.php'; ?>
| 1259219-project-management | trunk/index.php | PHP | gpl3 | 4,057 |
// Copyright (C) 2006 Google Inc.
//
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
/**
* @fileoverview
* some functions for browser-side pretty printing of code contained in html.
*
* <p>
* For a fairly comprehensive set of languages see the
* <a href="http://google-code-prettify.googlecode.com/svn/trunk/README.html#langs">README</a>
* file that came with this source. At a minimum, the lexer should work on a
* number of languages including C and friends, Java, Python, Bash, SQL, HTML,
* XML, CSS, Javascript, and Makefiles. It works passably on Ruby, PHP and Awk
* and a subset of Perl, but, because of commenting conventions, doesn't work on
* Smalltalk, Lisp-like, or CAML-like languages without an explicit lang class.
* <p>
* Usage: <ol>
* <li> include this source file in an html page via
* {@code <script type="text/javascript" src="/path/to/prettify.js"></script>}
* <li> define style rules. See the example page for examples.
* <li> mark the {@code <pre>} and {@code <code>} tags in your source with
* {@code class=prettyprint.}
* You can also use the (html deprecated) {@code <xmp>} tag, but the pretty
* printer needs to do more substantial DOM manipulations to support that, so
* some css styles may not be preserved.
* </ol>
* That's it. I wanted to keep the API as simple as possible, so there's no
* need to specify which language the code is in, but if you wish, you can add
* another class to the {@code <pre>} or {@code <code>} element to specify the
* language, as in {@code <pre class="prettyprint lang-java">}. Any class that
* starts with "lang-" followed by a file extension, specifies the file type.
* See the "lang-*.js" files in this directory for code that implements
* per-language file handlers.
* <p>
* Change log:<br>
* cbeust, 2006/08/22
* <blockquote>
* Java annotations (start with "@") are now captured as literals ("lit")
* </blockquote>
* @requires console
*/
// JSLint declarations
/*global console, document, navigator, setTimeout, window */
/**
* Split {@code prettyPrint} into multiple timeouts so as not to interfere with
* UI events.
* If set to {@code false}, {@code prettyPrint()} is synchronous.
*/
window['PR_SHOULD_USE_CONTINUATION'] = true;
(function () {
// Keyword lists for various languages.
// We use things that coerce to strings to make them compact when minified
// and to defeat aggressive optimizers that fold large string constants.
var FLOW_CONTROL_KEYWORDS = ["break,continue,do,else,for,if,return,while"];
var C_KEYWORDS = [FLOW_CONTROL_KEYWORDS,"auto,case,char,const,default," +
"double,enum,extern,float,goto,int,long,register,short,signed,sizeof," +
"static,struct,switch,typedef,union,unsigned,void,volatile"];
var COMMON_KEYWORDS = [C_KEYWORDS,"catch,class,delete,false,import," +
"new,operator,private,protected,public,this,throw,true,try,typeof"];
var CPP_KEYWORDS = [COMMON_KEYWORDS,"alignof,align_union,asm,axiom,bool," +
"concept,concept_map,const_cast,constexpr,decltype," +
"dynamic_cast,explicit,export,friend,inline,late_check," +
"mutable,namespace,nullptr,reinterpret_cast,static_assert,static_cast," +
"template,typeid,typename,using,virtual,where"];
var JAVA_KEYWORDS = [COMMON_KEYWORDS,
"abstract,boolean,byte,extends,final,finally,implements,import," +
"instanceof,null,native,package,strictfp,super,synchronized,throws," +
"transient"];
var CSHARP_KEYWORDS = [JAVA_KEYWORDS,
"as,base,by,checked,decimal,delegate,descending,dynamic,event," +
"fixed,foreach,from,group,implicit,in,interface,internal,into,is,lock," +
"object,out,override,orderby,params,partial,readonly,ref,sbyte,sealed," +
"stackalloc,string,select,uint,ulong,unchecked,unsafe,ushort,var"];
var COFFEE_KEYWORDS = "all,and,by,catch,class,else,extends,false,finally," +
"for,if,in,is,isnt,loop,new,no,not,null,of,off,on,or,return,super,then," +
"true,try,unless,until,when,while,yes";
var JSCRIPT_KEYWORDS = [COMMON_KEYWORDS,
"debugger,eval,export,function,get,null,set,undefined,var,with," +
"Infinity,NaN"];
var PERL_KEYWORDS = "caller,delete,die,do,dump,elsif,eval,exit,foreach,for," +
"goto,if,import,last,local,my,next,no,our,print,package,redo,require," +
"sub,undef,unless,until,use,wantarray,while,BEGIN,END";
var PYTHON_KEYWORDS = [FLOW_CONTROL_KEYWORDS, "and,as,assert,class,def,del," +
"elif,except,exec,finally,from,global,import,in,is,lambda," +
"nonlocal,not,or,pass,print,raise,try,with,yield," +
"False,True,None"];
var RUBY_KEYWORDS = [FLOW_CONTROL_KEYWORDS, "alias,and,begin,case,class," +
"def,defined,elsif,end,ensure,false,in,module,next,nil,not,or,redo," +
"rescue,retry,self,super,then,true,undef,unless,until,when,yield," +
"BEGIN,END"];
var SH_KEYWORDS = [FLOW_CONTROL_KEYWORDS, "case,done,elif,esac,eval,fi," +
"function,in,local,set,then,until"];
var ALL_KEYWORDS = [
CPP_KEYWORDS, CSHARP_KEYWORDS, JSCRIPT_KEYWORDS, PERL_KEYWORDS +
PYTHON_KEYWORDS, RUBY_KEYWORDS, SH_KEYWORDS];
var C_TYPES = /^(DIR|FILE|vector|(de|priority_)?queue|list|stack|(const_)?iterator|(multi)?(set|map)|bitset|u?(int|float)\d*)/;
// token style names. correspond to css classes
/**
* token style for a string literal
* @const
*/
var PR_STRING = 'str';
/**
* token style for a keyword
* @const
*/
var PR_KEYWORD = 'kwd';
/**
* token style for a comment
* @const
*/
var PR_COMMENT = 'com';
/**
* token style for a type
* @const
*/
var PR_TYPE = 'typ';
/**
* token style for a literal value. e.g. 1, null, true.
* @const
*/
var PR_LITERAL = 'lit';
/**
* token style for a punctuation string.
* @const
*/
var PR_PUNCTUATION = 'pun';
/**
* token style for a punctuation string.
* @const
*/
var PR_PLAIN = 'pln';
/**
* token style for an sgml tag.
* @const
*/
var PR_TAG = 'tag';
/**
* token style for a markup declaration such as a DOCTYPE.
* @const
*/
var PR_DECLARATION = 'dec';
/**
* token style for embedded source.
* @const
*/
var PR_SOURCE = 'src';
/**
* token style for an sgml attribute name.
* @const
*/
var PR_ATTRIB_NAME = 'atn';
/**
* token style for an sgml attribute value.
* @const
*/
var PR_ATTRIB_VALUE = 'atv';
/**
* A class that indicates a section of markup that is not code, e.g. to allow
* embedding of line numbers within code listings.
* @const
*/
var PR_NOCODE = 'nocode';
/**
* A set of tokens that can precede a regular expression literal in
* javascript
* http://web.archive.org/web/20070717142515/http://www.mozilla.org/js/language/js20/rationale/syntax.html
* has the full list, but I've removed ones that might be problematic when
* seen in languages that don't support regular expression literals.
*
* <p>Specifically, I've removed any keywords that can't precede a regexp
* literal in a syntactically legal javascript program, and I've removed the
* "in" keyword since it's not a keyword in many languages, and might be used
* as a count of inches.
*
* <p>The link above does not accurately describe EcmaScript rules since
* it fails to distinguish between (a=++/b/i) and (a++/b/i) but it works
* very well in practice.
*
* @private
* @const
*/
var REGEXP_PRECEDER_PATTERN = '(?:^^\\.?|[+-]|[!=]=?=?|\\#|%=?|&&?=?|\\(|\\*=?|[+\\-]=|->|\\/=?|::?|<<?=?|>>?>?=?|,|;|\\?|@|\\[|~|{|\\^\\^?=?|\\|\\|?=?|break|case|continue|delete|do|else|finally|instanceof|return|throw|try|typeof)\\s*';
// CAVEAT: this does not properly handle the case where a regular
// expression immediately follows another since a regular expression may
// have flags for case-sensitivity and the like. Having regexp tokens
// adjacent is not valid in any language I'm aware of, so I'm punting.
// TODO: maybe style special characters inside a regexp as punctuation.
/**
* Given a group of {@link RegExp}s, returns a {@code RegExp} that globally
* matches the union of the sets of strings matched by the input RegExp.
* Since it matches globally, if the input strings have a start-of-input
* anchor (/^.../), it is ignored for the purposes of unioning.
* @param {Array.<RegExp>} regexs non multiline, non-global regexs.
* @return {RegExp} a global regex.
*/
function combinePrefixPatterns(regexs) {
var capturedGroupIndex = 0;
var needToFoldCase = false;
var ignoreCase = false;
for (var i = 0, n = regexs.length; i < n; ++i) {
var regex = regexs[i];
if (regex.ignoreCase) {
ignoreCase = true;
} else if (/[a-z]/i.test(regex.source.replace(
/\\u[0-9a-f]{4}|\\x[0-9a-f]{2}|\\[^ux]/gi, ''))) {
needToFoldCase = true;
ignoreCase = false;
break;
}
}
var escapeCharToCodeUnit = {
'b': 8,
't': 9,
'n': 0xa,
'v': 0xb,
'f': 0xc,
'r': 0xd
};
function decodeEscape(charsetPart) {
var cc0 = charsetPart.charCodeAt(0);
if (cc0 !== 92 /* \\ */) {
return cc0;
}
var c1 = charsetPart.charAt(1);
cc0 = escapeCharToCodeUnit[c1];
if (cc0) {
return cc0;
} else if ('0' <= c1 && c1 <= '7') {
return parseInt(charsetPart.substring(1), 8);
} else if (c1 === 'u' || c1 === 'x') {
return parseInt(charsetPart.substring(2), 16);
} else {
return charsetPart.charCodeAt(1);
}
}
function encodeEscape(charCode) {
if (charCode < 0x20) {
return (charCode < 0x10 ? '\\x0' : '\\x') + charCode.toString(16);
}
var ch = String.fromCharCode(charCode);
return (ch === '\\' || ch === '-' || ch === ']' || ch === '^')
? "\\" + ch : ch;
}
function caseFoldCharset(charSet) {
var charsetParts = charSet.substring(1, charSet.length - 1).match(
new RegExp(
'\\\\u[0-9A-Fa-f]{4}'
+ '|\\\\x[0-9A-Fa-f]{2}'
+ '|\\\\[0-3][0-7]{0,2}'
+ '|\\\\[0-7]{1,2}'
+ '|\\\\[\\s\\S]'
+ '|-'
+ '|[^-\\\\]',
'g'));
var ranges = [];
var inverse = charsetParts[0] === '^';
var out = ['['];
if (inverse) { out.push('^'); }
for (var i = inverse ? 1 : 0, n = charsetParts.length; i < n; ++i) {
var p = charsetParts[i];
if (/\\[bdsw]/i.test(p)) { // Don't muck with named groups.
out.push(p);
} else {
var start = decodeEscape(p);
var end;
if (i + 2 < n && '-' === charsetParts[i + 1]) {
end = decodeEscape(charsetParts[i + 2]);
i += 2;
} else {
end = start;
}
ranges.push([start, end]);
// If the range might intersect letters, then expand it.
// This case handling is too simplistic.
// It does not deal with non-latin case folding.
// It works for latin source code identifiers though.
if (!(end < 65 || start > 122)) {
if (!(end < 65 || start > 90)) {
ranges.push([Math.max(65, start) | 32, Math.min(end, 90) | 32]);
}
if (!(end < 97 || start > 122)) {
ranges.push([Math.max(97, start) & ~32, Math.min(end, 122) & ~32]);
}
}
}
}
// [[1, 10], [3, 4], [8, 12], [14, 14], [16, 16], [17, 17]]
// -> [[1, 12], [14, 14], [16, 17]]
ranges.sort(function (a, b) { return (a[0] - b[0]) || (b[1] - a[1]); });
var consolidatedRanges = [];
var lastRange = [];
for (var i = 0; i < ranges.length; ++i) {
var range = ranges[i];
if (range[0] <= lastRange[1] + 1) {
lastRange[1] = Math.max(lastRange[1], range[1]);
} else {
consolidatedRanges.push(lastRange = range);
}
}
for (var i = 0; i < consolidatedRanges.length; ++i) {
var range = consolidatedRanges[i];
out.push(encodeEscape(range[0]));
if (range[1] > range[0]) {
if (range[1] + 1 > range[0]) { out.push('-'); }
out.push(encodeEscape(range[1]));
}
}
out.push(']');
return out.join('');
}
function allowAnywhereFoldCaseAndRenumberGroups(regex) {
// Split into character sets, escape sequences, punctuation strings
// like ('(', '(?:', ')', '^'), and runs of characters that do not
// include any of the above.
var parts = regex.source.match(
new RegExp(
'(?:'
+ '\\[(?:[^\\x5C\\x5D]|\\\\[\\s\\S])*\\]' // a character set
+ '|\\\\u[A-Fa-f0-9]{4}' // a unicode escape
+ '|\\\\x[A-Fa-f0-9]{2}' // a hex escape
+ '|\\\\[0-9]+' // a back-reference or octal escape
+ '|\\\\[^ux0-9]' // other escape sequence
+ '|\\(\\?[:!=]' // start of a non-capturing group
+ '|[\\(\\)\\^]' // start/end of a group, or line start
+ '|[^\\x5B\\x5C\\(\\)\\^]+' // run of other characters
+ ')',
'g'));
var n = parts.length;
// Maps captured group numbers to the number they will occupy in
// the output or to -1 if that has not been determined, or to
// undefined if they need not be capturing in the output.
var capturedGroups = [];
// Walk over and identify back references to build the capturedGroups
// mapping.
for (var i = 0, groupIndex = 0; i < n; ++i) {
var p = parts[i];
if (p === '(') {
// groups are 1-indexed, so max group index is count of '('
++groupIndex;
} else if ('\\' === p.charAt(0)) {
var decimalValue = +p.substring(1);
if (decimalValue) {
if (decimalValue <= groupIndex) {
capturedGroups[decimalValue] = -1;
} else {
// Replace with an unambiguous escape sequence so that
// an octal escape sequence does not turn into a backreference
// to a capturing group from an earlier regex.
parts[i] = encodeEscape(decimalValue);
}
}
}
}
// Renumber groups and reduce capturing groups to non-capturing groups
// where possible.
for (var i = 1; i < capturedGroups.length; ++i) {
if (-1 === capturedGroups[i]) {
capturedGroups[i] = ++capturedGroupIndex;
}
}
for (var i = 0, groupIndex = 0; i < n; ++i) {
var p = parts[i];
if (p === '(') {
++groupIndex;
if (!capturedGroups[groupIndex]) {
parts[i] = '(?:';
}
} else if ('\\' === p.charAt(0)) {
var decimalValue = +p.substring(1);
if (decimalValue && decimalValue <= groupIndex) {
parts[i] = '\\' + capturedGroups[groupIndex];
}
}
}
// Remove any prefix anchors so that the output will match anywhere.
// ^^ really does mean an anchored match though.
for (var i = 0, groupIndex = 0; i < n; ++i) {
if ('^' === parts[i] && '^' !== parts[i + 1]) { parts[i] = ''; }
}
// Expand letters to groups to handle mixing of case-sensitive and
// case-insensitive patterns if necessary.
if (regex.ignoreCase && needToFoldCase) {
for (var i = 0; i < n; ++i) {
var p = parts[i];
var ch0 = p.charAt(0);
if (p.length >= 2 && ch0 === '[') {
parts[i] = caseFoldCharset(p);
} else if (ch0 !== '\\') {
// TODO: handle letters in numeric escapes.
parts[i] = p.replace(
/[a-zA-Z]/g,
function (ch) {
var cc = ch.charCodeAt(0);
return '[' + String.fromCharCode(cc & ~32, cc | 32) + ']';
});
}
}
}
return parts.join('');
}
var rewritten = [];
for (var i = 0, n = regexs.length; i < n; ++i) {
var regex = regexs[i];
if (regex.global || regex.multiline) { throw new Error('' + regex); }
rewritten.push(
'(?:' + allowAnywhereFoldCaseAndRenumberGroups(regex) + ')');
}
return new RegExp(rewritten.join('|'), ignoreCase ? 'gi' : 'g');
}
/**
* Split markup into a string of source code and an array mapping ranges in
* that string to the text nodes in which they appear.
*
* <p>
* The HTML DOM structure:</p>
* <pre>
* (Element "p"
* (Element "b"
* (Text "print ")) ; #1
* (Text "'Hello '") ; #2
* (Element "br") ; #3
* (Text " + 'World';")) ; #4
* </pre>
* <p>
* corresponds to the HTML
* {@code <p><b>print </b>'Hello '<br> + 'World';</p>}.</p>
*
* <p>
* It will produce the output:</p>
* <pre>
* {
* sourceCode: "print 'Hello '\n + 'World';",
* // 1 2
* // 012345678901234 5678901234567
* spans: [0, #1, 6, #2, 14, #3, 15, #4]
* }
* </pre>
* <p>
* where #1 is a reference to the {@code "print "} text node above, and so
* on for the other text nodes.
* </p>
*
* <p>
* The {@code} spans array is an array of pairs. Even elements are the start
* indices of substrings, and odd elements are the text nodes (or BR elements)
* that contain the text for those substrings.
* Substrings continue until the next index or the end of the source.
* </p>
*
* @param {Node} node an HTML DOM subtree containing source-code.
* @return {Object} source code and the text nodes in which they occur.
*/
function extractSourceSpans(node) {
var nocode = /(?:^|\s)nocode(?:\s|$)/;
var chunks = [];
var length = 0;
var spans = [];
var k = 0;
var whitespace;
if (node.currentStyle) {
whitespace = node.currentStyle.whiteSpace;
} else if (window.getComputedStyle) {
whitespace = document.defaultView.getComputedStyle(node, null)
.getPropertyValue('white-space');
}
var isPreformatted = whitespace && 'pre' === whitespace.substring(0, 3);
function walk(node) {
switch (node.nodeType) {
case 1: // Element
if (nocode.test(node.className)) { return; }
for (var child = node.firstChild; child; child = child.nextSibling) {
walk(child);
}
var nodeName = node.nodeName;
if ('BR' === nodeName || 'LI' === nodeName) {
chunks[k] = '\n';
spans[k << 1] = length++;
spans[(k++ << 1) | 1] = node;
}
break;
case 3: case 4: // Text
var text = node.nodeValue;
if (text.length) {
if (!isPreformatted) {
text = text.replace(/[ \t\r\n]+/g, ' ');
} else {
text = text.replace(/\r\n?/g, '\n'); // Normalize newlines.
}
// TODO: handle tabs here?
chunks[k] = text;
spans[k << 1] = length;
length += text.length;
spans[(k++ << 1) | 1] = node;
}
break;
}
}
walk(node);
return {
sourceCode: chunks.join('').replace(/\n$/, ''),
spans: spans
};
}
/**
* Apply the given language handler to sourceCode and add the resulting
* decorations to out.
* @param {number} basePos the index of sourceCode within the chunk of source
* whose decorations are already present on out.
*/
function appendDecorations(basePos, sourceCode, langHandler, out) {
if (!sourceCode) { return; }
var job = {
sourceCode: sourceCode,
basePos: basePos
};
langHandler(job);
out.push.apply(out, job.decorations);
}
var notWs = /\S/;
/**
* Given an element, if it contains only one child element and any text nodes
* it contains contain only space characters, return the sole child element.
* Otherwise returns undefined.
* <p>
* This is meant to return the CODE element in {@code <pre><code ...>} when
* there is a single child element that contains all the non-space textual
* content, but not to return anything where there are multiple child elements
* as in {@code <pre><code>...</code><code>...</code></pre>} or when there
* is textual content.
*/
function childContentWrapper(element) {
var wrapper = undefined;
for (var c = element.firstChild; c; c = c.nextSibling) {
var type = c.nodeType;
wrapper = (type === 1) // Element Node
? (wrapper ? element : c)
: (type === 3) // Text Node
? (notWs.test(c.nodeValue) ? element : wrapper)
: wrapper;
}
return wrapper === element ? undefined : wrapper;
}
/** Given triples of [style, pattern, context] returns a lexing function,
* The lexing function interprets the patterns to find token boundaries and
* returns a decoration list of the form
* [index_0, style_0, index_1, style_1, ..., index_n, style_n]
* where index_n is an index into the sourceCode, and style_n is a style
* constant like PR_PLAIN. index_n-1 <= index_n, and style_n-1 applies to
* all characters in sourceCode[index_n-1:index_n].
*
* The stylePatterns is a list whose elements have the form
* [style : string, pattern : RegExp, DEPRECATED, shortcut : string].
*
* Style is a style constant like PR_PLAIN, or can be a string of the
* form 'lang-FOO', where FOO is a language extension describing the
* language of the portion of the token in $1 after pattern executes.
* E.g., if style is 'lang-lisp', and group 1 contains the text
* '(hello (world))', then that portion of the token will be passed to the
* registered lisp handler for formatting.
* The text before and after group 1 will be restyled using this decorator
* so decorators should take care that this doesn't result in infinite
* recursion. For example, the HTML lexer rule for SCRIPT elements looks
* something like ['lang-js', /<[s]cript>(.+?)<\/script>/]. This may match
* '<script>foo()<\/script>', which would cause the current decorator to
* be called with '<script>' which would not match the same rule since
* group 1 must not be empty, so it would be instead styled as PR_TAG by
* the generic tag rule. The handler registered for the 'js' extension would
* then be called with 'foo()', and finally, the current decorator would
* be called with '<\/script>' which would not match the original rule and
* so the generic tag rule would identify it as a tag.
*
* Pattern must only match prefixes, and if it matches a prefix, then that
* match is considered a token with the same style.
*
* Context is applied to the last non-whitespace, non-comment token
* recognized.
*
* Shortcut is an optional string of characters, any of which, if the first
* character, gurantee that this pattern and only this pattern matches.
*
* @param {Array} shortcutStylePatterns patterns that always start with
* a known character. Must have a shortcut string.
* @param {Array} fallthroughStylePatterns patterns that will be tried in
* order if the shortcut ones fail. May have shortcuts.
*
* @return {function (Object)} a
* function that takes source code and returns a list of decorations.
*/
function createSimpleLexer(shortcutStylePatterns, fallthroughStylePatterns) {
var shortcuts = {};
var tokenizer;
(function () {
var allPatterns = shortcutStylePatterns.concat(fallthroughStylePatterns);
var allRegexs = [];
var regexKeys = {};
for (var i = 0, n = allPatterns.length; i < n; ++i) {
var patternParts = allPatterns[i];
var shortcutChars = patternParts[3];
if (shortcutChars) {
for (var c = shortcutChars.length; --c >= 0;) {
shortcuts[shortcutChars.charAt(c)] = patternParts;
}
}
var regex = patternParts[1];
var k = '' + regex;
if (!regexKeys.hasOwnProperty(k)) {
allRegexs.push(regex);
regexKeys[k] = null;
}
}
allRegexs.push(/[\0-\uffff]/);
tokenizer = combinePrefixPatterns(allRegexs);
})();
var nPatterns = fallthroughStylePatterns.length;
/**
* Lexes job.sourceCode and produces an output array job.decorations of
* style classes preceded by the position at which they start in
* job.sourceCode in order.
*
* @param {Object} job an object like <pre>{
* sourceCode: {string} sourceText plain text,
* basePos: {int} position of job.sourceCode in the larger chunk of
* sourceCode.
* }</pre>
*/
var decorate = function (job) {
var sourceCode = job.sourceCode, basePos = job.basePos;
/** Even entries are positions in source in ascending order. Odd enties
* are style markers (e.g., PR_COMMENT) that run from that position until
* the end.
* @type {Array.<number|string>}
*/
var decorations = [basePos, PR_PLAIN];
var pos = 0; // index into sourceCode
var tokens = sourceCode.match(tokenizer) || [];
var styleCache = {};
for (var ti = 0, nTokens = tokens.length; ti < nTokens; ++ti) {
var token = tokens[ti];
var style = styleCache[token];
var match = void 0;
var isEmbedded;
if (typeof style === 'string') {
isEmbedded = false;
} else {
var patternParts = shortcuts[token.charAt(0)];
if (patternParts) {
match = token.match(patternParts[1]);
style = patternParts[0];
} else {
for (var i = 0; i < nPatterns; ++i) {
patternParts = fallthroughStylePatterns[i];
match = token.match(patternParts[1]);
if (match) {
style = patternParts[0];
break;
}
}
if (!match) { // make sure that we make progress
style = PR_PLAIN;
}
}
isEmbedded = style.length >= 5 && 'lang-' === style.substring(0, 5);
if (isEmbedded && !(match && typeof match[1] === 'string')) {
isEmbedded = false;
style = PR_SOURCE;
}
if (!isEmbedded) { styleCache[token] = style; }
}
var tokenStart = pos;
pos += token.length;
if (!isEmbedded) {
decorations.push(basePos + tokenStart, style);
} else { // Treat group 1 as an embedded block of source code.
var embeddedSource = match[1];
var embeddedSourceStart = token.indexOf(embeddedSource);
var embeddedSourceEnd = embeddedSourceStart + embeddedSource.length;
if (match[2]) {
// If embeddedSource can be blank, then it would match at the
// beginning which would cause us to infinitely recurse on the
// entire token, so we catch the right context in match[2].
embeddedSourceEnd = token.length - match[2].length;
embeddedSourceStart = embeddedSourceEnd - embeddedSource.length;
}
var lang = style.substring(5);
// Decorate the left of the embedded source
appendDecorations(
basePos + tokenStart,
token.substring(0, embeddedSourceStart),
decorate, decorations);
// Decorate the embedded source
appendDecorations(
basePos + tokenStart + embeddedSourceStart,
embeddedSource,
langHandlerForExtension(lang, embeddedSource),
decorations);
// Decorate the right of the embedded section
appendDecorations(
basePos + tokenStart + embeddedSourceEnd,
token.substring(embeddedSourceEnd),
decorate, decorations);
}
}
job.decorations = decorations;
};
return decorate;
}
/** returns a function that produces a list of decorations from source text.
*
* This code treats ", ', and ` as string delimiters, and \ as a string
* escape. It does not recognize perl's qq() style strings.
* It has no special handling for double delimiter escapes as in basic, or
* the tripled delimiters used in python, but should work on those regardless
* although in those cases a single string literal may be broken up into
* multiple adjacent string literals.
*
* It recognizes C, C++, and shell style comments.
*
* @param {Object} options a set of optional parameters.
* @return {function (Object)} a function that examines the source code
* in the input job and builds the decoration list.
*/
function sourceDecorator(options) {
var shortcutStylePatterns = [], fallthroughStylePatterns = [];
if (options['tripleQuotedStrings']) {
// '''multi-line-string''', 'single-line-string', and double-quoted
shortcutStylePatterns.push(
[PR_STRING, /^(?:\'\'\'(?:[^\'\\]|\\[\s\S]|\'{1,2}(?=[^\']))*(?:\'\'\'|$)|\"\"\"(?:[^\"\\]|\\[\s\S]|\"{1,2}(?=[^\"]))*(?:\"\"\"|$)|\'(?:[^\\\']|\\[\s\S])*(?:\'|$)|\"(?:[^\\\"]|\\[\s\S])*(?:\"|$))/,
null, '\'"']);
} else if (options['multiLineStrings']) {
// 'multi-line-string', "multi-line-string"
shortcutStylePatterns.push(
[PR_STRING, /^(?:\'(?:[^\\\']|\\[\s\S])*(?:\'|$)|\"(?:[^\\\"]|\\[\s\S])*(?:\"|$)|\`(?:[^\\\`]|\\[\s\S])*(?:\`|$))/,
null, '\'"`']);
} else {
// 'single-line-string', "single-line-string"
shortcutStylePatterns.push(
[PR_STRING,
/^(?:\'(?:[^\\\'\r\n]|\\.)*(?:\'|$)|\"(?:[^\\\"\r\n]|\\.)*(?:\"|$))/,
null, '"\'']);
}
if (options['verbatimStrings']) {
// verbatim-string-literal production from the C# grammar. See issue 93.
fallthroughStylePatterns.push(
[PR_STRING, /^@\"(?:[^\"]|\"\")*(?:\"|$)/, null]);
}
var hc = options['hashComments'];
if (hc) {
if (options['cStyleComments']) {
if (hc > 1) { // multiline hash comments
shortcutStylePatterns.push(
[PR_COMMENT, /^#(?:##(?:[^#]|#(?!##))*(?:###|$)|.*)/, null, '#']);
} else {
// Stop C preprocessor declarations at an unclosed open comment
shortcutStylePatterns.push(
[PR_COMMENT, /^#(?:(?:define|elif|else|endif|error|ifdef|include|ifndef|line|pragma|undef|warning)\b|[^\r\n]*)/,
null, '#']);
}
fallthroughStylePatterns.push(
[PR_STRING,
/^<(?:(?:(?:\.\.\/)*|\/?)(?:[\w-]+(?:\/[\w-]+)+)?[\w-]+\.h|[a-z]\w*)>/,
null]);
} else {
shortcutStylePatterns.push([PR_COMMENT, /^#[^\r\n]*/, null, '#']);
}
}
if (options['cStyleComments']) {
fallthroughStylePatterns.push([PR_COMMENT, /^\/\/[^\r\n]*/, null]);
fallthroughStylePatterns.push(
[PR_COMMENT, /^\/\*[\s\S]*?(?:\*\/|$)/, null]);
}
if (options['regexLiterals']) {
/**
* @const
*/
var REGEX_LITERAL = (
// A regular expression literal starts with a slash that is
// not followed by * or / so that it is not confused with
// comments.
'/(?=[^/*])'
// and then contains any number of raw characters,
+ '(?:[^/\\x5B\\x5C]'
// escape sequences (\x5C),
+ '|\\x5C[\\s\\S]'
// or non-nesting character sets (\x5B\x5D);
+ '|\\x5B(?:[^\\x5C\\x5D]|\\x5C[\\s\\S])*(?:\\x5D|$))+'
// finally closed by a /.
+ '/');
fallthroughStylePatterns.push(
['lang-regex',
new RegExp('^' + REGEXP_PRECEDER_PATTERN + '(' + REGEX_LITERAL + ')')
]);
}
var types = options['types'];
if (types) {
fallthroughStylePatterns.push([PR_TYPE, types]);
}
var keywords = ("" + options['keywords']).replace(/^ | $/g, '');
if (keywords.length) {
fallthroughStylePatterns.push(
[PR_KEYWORD,
new RegExp('^(?:' + keywords.replace(/[\s,]+/g, '|') + ')\\b'),
null]);
}
shortcutStylePatterns.push([PR_PLAIN, /^\s+/, null, ' \r\n\t\xA0']);
fallthroughStylePatterns.push(
// TODO(mikesamuel): recognize non-latin letters and numerals in idents
[PR_LITERAL, /^@[a-z_$][a-z_$@0-9]*/i, null],
[PR_TYPE, /^(?:[@_]?[A-Z]+[a-z][A-Za-z_$@0-9]*|\w+_t\b)/, null],
[PR_PLAIN, /^[a-z_$][a-z_$@0-9]*/i, null],
[PR_LITERAL,
new RegExp(
'^(?:'
// A hex number
+ '0x[a-f0-9]+'
// or an octal or decimal number,
+ '|(?:\\d(?:_\\d+)*\\d*(?:\\.\\d*)?|\\.\\d\\+)'
// possibly in scientific notation
+ '(?:e[+\\-]?\\d+)?'
+ ')'
// with an optional modifier like UL for unsigned long
+ '[a-z]*', 'i'),
null, '0123456789'],
// Don't treat escaped quotes in bash as starting strings. See issue 144.
[PR_PLAIN, /^\\[\s\S]?/, null],
[PR_PUNCTUATION, /^.[^\s\w\.$@\'\"\`\/\#\\]*/, null]);
return createSimpleLexer(shortcutStylePatterns, fallthroughStylePatterns);
}
var decorateSource = sourceDecorator({
'keywords': ALL_KEYWORDS,
'hashComments': true,
'cStyleComments': true,
'multiLineStrings': true,
'regexLiterals': true
});
/**
* Given a DOM subtree, wraps it in a list, and puts each line into its own
* list item.
*
* @param {Node} node modified in place. Its content is pulled into an
* HTMLOListElement, and each line is moved into a separate list item.
* This requires cloning elements, so the input might not have unique
* IDs after numbering.
*/
function numberLines(node, opt_startLineNum) {
var nocode = /(?:^|\s)nocode(?:\s|$)/;
var lineBreak = /\r\n?|\n/;
var document = node.ownerDocument;
var whitespace;
if (node.currentStyle) {
whitespace = node.currentStyle.whiteSpace;
} else if (window.getComputedStyle) {
whitespace = document.defaultView.getComputedStyle(node, null)
.getPropertyValue('white-space');
}
// If it's preformatted, then we need to split lines on line breaks
// in addition to <BR>s.
var isPreformatted = whitespace && 'pre' === whitespace.substring(0, 3);
var li = document.createElement('LI');
while (node.firstChild) {
li.appendChild(node.firstChild);
}
// An array of lines. We split below, so this is initialized to one
// un-split line.
var listItems = [li];
function walk(node) {
switch (node.nodeType) {
case 1: // Element
if (nocode.test(node.className)) { break; }
if ('BR' === node.nodeName) {
breakAfter(node);
// Discard the <BR> since it is now flush against a </LI>.
if (node.parentNode) {
node.parentNode.removeChild(node);
}
} else {
for (var child = node.firstChild; child; child = child.nextSibling) {
walk(child);
}
}
break;
case 3: case 4: // Text
if (isPreformatted) {
var text = node.nodeValue;
var match = text.match(lineBreak);
if (match) {
var firstLine = text.substring(0, match.index);
node.nodeValue = firstLine;
var tail = text.substring(match.index + match[0].length);
if (tail) {
var parent = node.parentNode;
parent.insertBefore(
document.createTextNode(tail), node.nextSibling);
}
breakAfter(node);
if (!firstLine) {
// Don't leave blank text nodes in the DOM.
node.parentNode.removeChild(node);
}
}
}
break;
}
}
// Split a line after the given node.
function breakAfter(lineEndNode) {
// If there's nothing to the right, then we can skip ending the line
// here, and move root-wards since splitting just before an end-tag
// would require us to create a bunch of empty copies.
while (!lineEndNode.nextSibling) {
lineEndNode = lineEndNode.parentNode;
if (!lineEndNode) { return; }
}
function breakLeftOf(limit, copy) {
// Clone shallowly if this node needs to be on both sides of the break.
var rightSide = copy ? limit.cloneNode(false) : limit;
var parent = limit.parentNode;
if (parent) {
// We clone the parent chain.
// This helps us resurrect important styling elements that cross lines.
// E.g. in <i>Foo<br>Bar</i>
// should be rewritten to <li><i>Foo</i></li><li><i>Bar</i></li>.
var parentClone = breakLeftOf(parent, 1);
// Move the clone and everything to the right of the original
// onto the cloned parent.
var next = limit.nextSibling;
parentClone.appendChild(rightSide);
for (var sibling = next; sibling; sibling = next) {
next = sibling.nextSibling;
parentClone.appendChild(sibling);
}
}
return rightSide;
}
var copiedListItem = breakLeftOf(lineEndNode.nextSibling, 0);
// Walk the parent chain until we reach an unattached LI.
for (var parent;
// Check nodeType since IE invents document fragments.
(parent = copiedListItem.parentNode) && parent.nodeType === 1;) {
copiedListItem = parent;
}
// Put it on the list of lines for later processing.
listItems.push(copiedListItem);
}
// Split lines while there are lines left to split.
for (var i = 0; // Number of lines that have been split so far.
i < listItems.length; // length updated by breakAfter calls.
++i) {
walk(listItems[i]);
}
// Make sure numeric indices show correctly.
if (opt_startLineNum === (opt_startLineNum|0)) {
listItems[0].setAttribute('value', opt_startLineNum);
}
var ol = document.createElement('OL');
ol.className = 'linenums';
var offset = Math.max(0, ((opt_startLineNum - 1 /* zero index */)) | 0) || 0;
for (var i = 0, n = listItems.length; i < n; ++i) {
li = listItems[i];
// Stick a class on the LIs so that stylesheets can
// color odd/even rows, or any other row pattern that
// is co-prime with 10.
li.className = 'L' + ((i + offset) % 10);
if (!li.firstChild) {
li.appendChild(document.createTextNode('\xA0'));
}
ol.appendChild(li);
}
node.appendChild(ol);
}
/**
* Breaks {@code job.sourceCode} around style boundaries in
* {@code job.decorations} and modifies {@code job.sourceNode} in place.
* @param {Object} job like <pre>{
* sourceCode: {string} source as plain text,
* spans: {Array.<number|Node>} alternating span start indices into source
* and the text node or element (e.g. {@code <BR>}) corresponding to that
* span.
* decorations: {Array.<number|string} an array of style classes preceded
* by the position at which they start in job.sourceCode in order
* }</pre>
* @private
*/
function recombineTagsAndDecorations(job) {
var isIE = /\bMSIE\b/.test(navigator.userAgent);
var newlineRe = /\n/g;
var source = job.sourceCode;
var sourceLength = source.length;
// Index into source after the last code-unit recombined.
var sourceIndex = 0;
var spans = job.spans;
var nSpans = spans.length;
// Index into spans after the last span which ends at or before sourceIndex.
var spanIndex = 0;
var decorations = job.decorations;
var nDecorations = decorations.length;
// Index into decorations after the last decoration which ends at or before
// sourceIndex.
var decorationIndex = 0;
// Remove all zero-length decorations.
decorations[nDecorations] = sourceLength;
var decPos, i;
for (i = decPos = 0; i < nDecorations;) {
if (decorations[i] !== decorations[i + 2]) {
decorations[decPos++] = decorations[i++];
decorations[decPos++] = decorations[i++];
} else {
i += 2;
}
}
nDecorations = decPos;
// Simplify decorations.
for (i = decPos = 0; i < nDecorations;) {
var startPos = decorations[i];
// Conflate all adjacent decorations that use the same style.
var startDec = decorations[i + 1];
var end = i + 2;
while (end + 2 <= nDecorations && decorations[end + 1] === startDec) {
end += 2;
}
decorations[decPos++] = startPos;
decorations[decPos++] = startDec;
i = end;
}
nDecorations = decorations.length = decPos;
var decoration = null;
while (spanIndex < nSpans) {
var spanStart = spans[spanIndex];
var spanEnd = spans[spanIndex + 2] || sourceLength;
var decEnd = decorations[decorationIndex + 2] || sourceLength;
var end = Math.min(spanEnd, decEnd);
var textNode = spans[spanIndex + 1];
var styledText;
if (textNode.nodeType !== 1 // Don't muck with <BR>s or <LI>s
// Don't introduce spans around empty text nodes.
&& (styledText = source.substring(sourceIndex, end))) {
// This may seem bizarre, and it is. Emitting LF on IE causes the
// code to display with spaces instead of line breaks.
// Emitting Windows standard issue linebreaks (CRLF) causes a blank
// space to appear at the beginning of every line but the first.
// Emitting an old Mac OS 9 line separator makes everything spiffy.
if (isIE) { styledText = styledText.replace(newlineRe, '\r'); }
textNode.nodeValue = styledText;
var document = textNode.ownerDocument;
var span = document.createElement('SPAN');
span.className = decorations[decorationIndex + 1];
var parentNode = textNode.parentNode;
parentNode.replaceChild(span, textNode);
span.appendChild(textNode);
if (sourceIndex < spanEnd) { // Split off a text node.
spans[spanIndex + 1] = textNode
// TODO: Possibly optimize by using '' if there's no flicker.
= document.createTextNode(source.substring(end, spanEnd));
parentNode.insertBefore(textNode, span.nextSibling);
}
}
sourceIndex = end;
if (sourceIndex >= spanEnd) {
spanIndex += 2;
}
if (sourceIndex >= decEnd) {
decorationIndex += 2;
}
}
}
/** Maps language-specific file extensions to handlers. */
var langHandlerRegistry = {};
/** Register a language handler for the given file extensions.
* @param {function (Object)} handler a function from source code to a list
* of decorations. Takes a single argument job which describes the
* state of the computation. The single parameter has the form
* {@code {
* sourceCode: {string} as plain text.
* decorations: {Array.<number|string>} an array of style classes
* preceded by the position at which they start in
* job.sourceCode in order.
* The language handler should assigned this field.
* basePos: {int} the position of source in the larger source chunk.
* All positions in the output decorations array are relative
* to the larger source chunk.
* } }
* @param {Array.<string>} fileExtensions
*/
function registerLangHandler(handler, fileExtensions) {
for (var i = fileExtensions.length; --i >= 0;) {
var ext = fileExtensions[i];
if (!langHandlerRegistry.hasOwnProperty(ext)) {
langHandlerRegistry[ext] = handler;
} else if (window['console']) {
console['warn']('cannot override language handler %s', ext);
}
}
}
function langHandlerForExtension(extension, source) {
if (!(extension && langHandlerRegistry.hasOwnProperty(extension))) {
// Treat it as markup if the first non whitespace character is a < and
// the last non-whitespace character is a >.
extension = /^\s*</.test(source)
? 'default-markup'
: 'default-code';
}
return langHandlerRegistry[extension];
}
registerLangHandler(decorateSource, ['default-code']);
registerLangHandler(
createSimpleLexer(
[],
[
[PR_PLAIN, /^[^<?]+/],
[PR_DECLARATION, /^<!\w[^>]*(?:>|$)/],
[PR_COMMENT, /^<\!--[\s\S]*?(?:-\->|$)/],
// Unescaped content in an unknown language
['lang-', /^<\?([\s\S]+?)(?:\?>|$)/],
['lang-', /^<%([\s\S]+?)(?:%>|$)/],
[PR_PUNCTUATION, /^(?:<[%?]|[%?]>)/],
['lang-', /^<xmp\b[^>]*>([\s\S]+?)<\/xmp\b[^>]*>/i],
// Unescaped content in javascript. (Or possibly vbscript).
['lang-js', /^<script\b[^>]*>([\s\S]*?)(<\/script\b[^>]*>)/i],
// Contains unescaped stylesheet content
['lang-css', /^<style\b[^>]*>([\s\S]*?)(<\/style\b[^>]*>)/i],
['lang-in.tag', /^(<\/?[a-z][^<>]*>)/i]
]),
['default-markup', 'htm', 'html', 'mxml', 'xhtml', 'xml', 'xsl']);
registerLangHandler(
createSimpleLexer(
[
[PR_PLAIN, /^[\s]+/, null, ' \t\r\n'],
[PR_ATTRIB_VALUE, /^(?:\"[^\"]*\"?|\'[^\']*\'?)/, null, '\"\'']
],
[
[PR_TAG, /^^<\/?[a-z](?:[\w.:-]*\w)?|\/?>$/i],
[PR_ATTRIB_NAME, /^(?!style[\s=]|on)[a-z](?:[\w:-]*\w)?/i],
['lang-uq.val', /^=\s*([^>\'\"\s]*(?:[^>\'\"\s\/]|\/(?=\s)))/],
[PR_PUNCTUATION, /^[=<>\/]+/],
['lang-js', /^on\w+\s*=\s*\"([^\"]+)\"/i],
['lang-js', /^on\w+\s*=\s*\'([^\']+)\'/i],
['lang-js', /^on\w+\s*=\s*([^\"\'>\s]+)/i],
['lang-css', /^style\s*=\s*\"([^\"]+)\"/i],
['lang-css', /^style\s*=\s*\'([^\']+)\'/i],
['lang-css', /^style\s*=\s*([^\"\'>\s]+)/i]
]),
['in.tag']);
registerLangHandler(
createSimpleLexer([], [[PR_ATTRIB_VALUE, /^[\s\S]+/]]), ['uq.val']);
registerLangHandler(sourceDecorator({
'keywords': CPP_KEYWORDS,
'hashComments': true,
'cStyleComments': true,
'types': C_TYPES
}), ['c', 'cc', 'cpp', 'cxx', 'cyc', 'm']);
registerLangHandler(sourceDecorator({
'keywords': 'null,true,false'
}), ['json']);
registerLangHandler(sourceDecorator({
'keywords': CSHARP_KEYWORDS,
'hashComments': true,
'cStyleComments': true,
'verbatimStrings': true,
'types': C_TYPES
}), ['cs']);
registerLangHandler(sourceDecorator({
'keywords': JAVA_KEYWORDS,
'cStyleComments': true
}), ['java']);
registerLangHandler(sourceDecorator({
'keywords': SH_KEYWORDS,
'hashComments': true,
'multiLineStrings': true
}), ['bsh', 'csh', 'sh']);
registerLangHandler(sourceDecorator({
'keywords': PYTHON_KEYWORDS,
'hashComments': true,
'multiLineStrings': true,
'tripleQuotedStrings': true
}), ['cv', 'py']);
registerLangHandler(sourceDecorator({
'keywords': PERL_KEYWORDS,
'hashComments': true,
'multiLineStrings': true,
'regexLiterals': true
}), ['perl', 'pl', 'pm']);
registerLangHandler(sourceDecorator({
'keywords': RUBY_KEYWORDS,
'hashComments': true,
'multiLineStrings': true,
'regexLiterals': true
}), ['rb']);
registerLangHandler(sourceDecorator({
'keywords': JSCRIPT_KEYWORDS,
'cStyleComments': true,
'regexLiterals': true
}), ['js']);
registerLangHandler(sourceDecorator({
'keywords': COFFEE_KEYWORDS,
'hashComments': 3, // ### style block comments
'cStyleComments': true,
'multilineStrings': true,
'tripleQuotedStrings': true,
'regexLiterals': true
}), ['coffee']);
registerLangHandler(createSimpleLexer([], [[PR_STRING, /^[\s\S]+/]]), ['regex']);
function applyDecorator(job) {
var opt_langExtension = job.langExtension;
try {
// Extract tags, and convert the source code to plain text.
var sourceAndSpans = extractSourceSpans(job.sourceNode);
/** Plain text. @type {string} */
var source = sourceAndSpans.sourceCode;
job.sourceCode = source;
job.spans = sourceAndSpans.spans;
job.basePos = 0;
// Apply the appropriate language handler
langHandlerForExtension(opt_langExtension, source)(job);
// Integrate the decorations and tags back into the source code,
// modifying the sourceNode in place.
recombineTagsAndDecorations(job);
} catch (e) {
if ('console' in window) {
console['log'](e && e['stack'] ? e['stack'] : e);
}
}
}
/**
* @param sourceCodeHtml {string} The HTML to pretty print.
* @param opt_langExtension {string} The language name to use.
* Typically, a filename extension like 'cpp' or 'java'.
* @param opt_numberLines {number|boolean} True to number lines,
* or the 1-indexed number of the first line in sourceCodeHtml.
*/
function prettyPrintOne(sourceCodeHtml, opt_langExtension, opt_numberLines) {
var container = document.createElement('PRE');
// This could cause images to load and onload listeners to fire.
// E.g. <img onerror="alert(1337)" src="nosuchimage.png">.
// We assume that the inner HTML is from a trusted source.
container.innerHTML = sourceCodeHtml;
if (opt_numberLines) {
numberLines(container, opt_numberLines);
}
var job = {
langExtension: opt_langExtension,
numberLines: opt_numberLines,
sourceNode: container
};
applyDecorator(job);
return container.innerHTML;
}
function prettyPrint(opt_whenDone) {
function byTagName(tn) { return document.getElementsByTagName(tn); }
// fetch a list of nodes to rewrite
var codeSegments = [byTagName('pre'), byTagName('code'), byTagName('xmp')];
var elements = [];
for (var i = 0; i < codeSegments.length; ++i) {
for (var j = 0, n = codeSegments[i].length; j < n; ++j) {
elements.push(codeSegments[i][j]);
}
}
codeSegments = null;
var clock = Date;
if (!clock['now']) {
clock = { 'now': function () { return +(new Date); } };
}
// The loop is broken into a series of continuations to make sure that we
// don't make the browser unresponsive when rewriting a large page.
var k = 0;
var prettyPrintingJob;
var langExtensionRe = /\blang(?:uage)?-([\w.]+)(?!\S)/;
var prettyPrintRe = /\bprettyprint\b/;
function doWork() {
var endTime = (window['PR_SHOULD_USE_CONTINUATION'] ?
clock['now']() + 250 /* ms */ :
Infinity);
for (; k < elements.length && clock['now']() < endTime; k++) {
var cs = elements[k];
var className = cs.className;
if (className.indexOf('prettyprint') >= 0) {
// If the classes includes a language extensions, use it.
// Language extensions can be specified like
// <pre class="prettyprint lang-cpp">
// the language extension "cpp" is used to find a language handler as
// passed to PR.registerLangHandler.
// HTML5 recommends that a language be specified using "language-"
// as the prefix instead. Google Code Prettify supports both.
// http://dev.w3.org/html5/spec-author-view/the-code-element.html
var langExtension = className.match(langExtensionRe);
// Support <pre class="prettyprint"><code class="language-c">
var wrapper;
if (!langExtension && (wrapper = childContentWrapper(cs))
&& "CODE" === wrapper.tagName) {
langExtension = wrapper.className.match(langExtensionRe);
}
if (langExtension) {
langExtension = langExtension[1];
}
// make sure this is not nested in an already prettified element
var nested = false;
for (var p = cs.parentNode; p; p = p.parentNode) {
if ((p.tagName === 'pre' || p.tagName === 'code' ||
p.tagName === 'xmp') &&
p.className && p.className.indexOf('prettyprint') >= 0) {
nested = true;
break;
}
}
if (!nested) {
// Look for a class like linenums or linenums:<n> where <n> is the
// 1-indexed number of the first line.
var lineNums = cs.className.match(/\blinenums\b(?::(\d+))?/);
lineNums = lineNums
? lineNums[1] && lineNums[1].length ? +lineNums[1] : true
: false;
if (lineNums) { numberLines(cs, lineNums); }
// do the pretty printing
prettyPrintingJob = {
langExtension: langExtension,
sourceNode: cs,
numberLines: lineNums
};
applyDecorator(prettyPrintingJob);
}
}
}
if (k < elements.length) {
// finish up in a continuation
setTimeout(doWork, 250);
} else if (opt_whenDone) {
opt_whenDone();
}
}
doWork();
}
/**
* Find all the {@code <pre>} and {@code <code>} tags in the DOM with
* {@code class=prettyprint} and prettify them.
*
* @param {Function?} opt_whenDone if specified, called when the last entry
* has been finished.
*/
window['prettyPrintOne'] = prettyPrintOne;
/**
* Pretty print a chunk of code.
*
* @param {string} sourceCodeHtml code as html
* @return {string} code as html, but prettier
*/
window['prettyPrint'] = prettyPrint;
/**
* Contains functions for creating and registering new language handlers.
* @type {Object}
*/
window['PR'] = {
'createSimpleLexer': createSimpleLexer,
'registerLangHandler': registerLangHandler,
'sourceDecorator': sourceDecorator,
'PR_ATTRIB_NAME': PR_ATTRIB_NAME,
'PR_ATTRIB_VALUE': PR_ATTRIB_VALUE,
'PR_COMMENT': PR_COMMENT,
'PR_DECLARATION': PR_DECLARATION,
'PR_KEYWORD': PR_KEYWORD,
'PR_LITERAL': PR_LITERAL,
'PR_NOCODE': PR_NOCODE,
'PR_PLAIN': PR_PLAIN,
'PR_PUNCTUATION': PR_PUNCTUATION,
'PR_SOURCE': PR_SOURCE,
'PR_STRING': PR_STRING,
'PR_TAG': PR_TAG,
'PR_TYPE': PR_TYPE
};
})();
| 0weibo | trunk/prettify.js | JavaScript | oos | 55,969 |
/* http://www.binarymoon.co.uk/2010/06/css-button-redux/ */
button {
color:#000;
text-decoration:none;
padding:8px;
border:1px solid #DDD;
text-align:center;
-moz-border-radius:5px;
-webkit-border-radius:5px;
-o-border-radius:5px;
border-radius:5px;
background:#FFFFFF;
background:-webkit-gradient(linear, 0% 0%, 0% 100%, from(#FFFFFF), to(#EEE));
background:-moz-linear-gradient(0% 90% 90deg, #EEE, #FFF);
-webkit-transition: all .4s ease-in-out;
-moz-transition: all .4s ease-in-out;
-o-transition: all .4s ease-in-out;
transition: all .4s ease-in-out;
}
button:hover {
color:#fff;
border-color:#3278BE;
background:#4195DD;
background:-webkit-gradient(linear, 0% 0%, 0% 100%, from(#4195DD), to(#003C82));
background:-moz-linear-gradient(0% 90% 90deg, #003C82, #4195DD);
}
button:active {
background:#4195DD;
background:-webkit-gradient(linear, 0% 0%, 0% 100%, from(#003C82), to(#4195DD));
background:-moz-linear-gradient(0% 90% 90deg, #4195DD, #003C82);
}
button.notransitions {
-webkit-transition: none;
-moz-transition: none;
-o-transition: none;
transition: none;
}
/* 改变按钮状态 */
.pressed_button {
color:white;
text-decoration:none;
padding:8px;
border:1px solid #DDD;
text-align:center;
-moz-border-radius:5px;
-webkit-border-radius:5px;
-o-border-radius:5px;
border-radius:5px;
border-color:#3278BE;
background:#4195DD;
}
.pressed_button2 {
color:yellow;
text-decoration:none;
padding:8px;
border:1px solid #DDD;
text-align:center;
-moz-border-radius:5px;
-webkit-border-radius:5px;
-o-border-radius:5px;
border-radius:5px;
border-color:#3278BE;
background:green;
}
body {
font-family: '微软雅黑';
background: -webkit-gradient(linear, left top, left bottom, from(#ccc), to(#fff));
}
| 0weibo | trunk/main.css | CSS | oos | 1,873 |
/* Pretty printing styles. Used with prettify.js. */
/* SPAN elements with the classes below are added by prettyprint. */
.pln { color: #000 } /* plain text */
@media screen {
.str { color: #080 } /* string content */
.kwd { color: #008 } /* a keyword */
.com { color: #800 } /* a comment */
.typ { color: #606 } /* a type name */
.lit { color: #066 } /* a literal value */
/* punctuation, lisp open bracket, lisp close bracket */
.pun, .opn, .clo { color: #660 }
.tag { color: #008 } /* a markup tag name */
.atn { color: #606 } /* a markup attribute name */
.atv { color: #080 } /* a markup attribute value */
.dec, .var { color: #606 } /* a declaration; a variable name */
.fun { color: red } /* a function name */
}
/* Use higher contrast and text-weight for printable form. */
@media print, projection {
.str { color: #060 }
.kwd { color: #006; font-weight: bold }
.com { color: #600; font-style: italic }
.typ { color: #404; font-weight: bold }
.lit { color: #044 }
.pun, .opn, .clo { color: #440 }
.tag { color: #006; font-weight: bold }
.atn { color: #404 }
.atv { color: #060 }
}
/* Put a border around prettyprinted code snippets. */
pre.prettyprint { padding: 2px; border: 1px solid #888 }
/* Specify class=linenums on a pre to get line numbering */
ol.linenums { margin-top: 0; margin-bottom: 0 } /* IE indents via margin-left */
li.L0,
li.L1,
li.L2,
li.L3,
li.L5,
li.L6,
li.L7,
li.L8 { list-style-type: none }
/* Alternate shading for lines */
li.L1,
li.L3,
li.L5,
li.L7,
li.L9 { background: #eee }
| 0weibo | trunk/prettify.css | CSS | oos | 1,570 |
<?php
if(!isset($_GET["ip"]) )
{
echo "<li><a href='#'>---查看配置文件---</a></li>";
$str = shell_exec("cat /home/yw/configMonitor/hosts2");
$str_array = explode("\n", $str);
foreach($str_array as $line)
{
if($line=="") continue;
$ip = $line;
echo "<li><a href='#' onclick='menu_next(3, \"app/catcfg/main.php?ip=".$ip."\")'>".$ip."</a></li>";
}
}
else
{
$ip = $_GET["ip"];
echo "<li><a href='#'>---".$ip."---</a></li>";
$str = shell_exec("ls /home/yw/configMonitor/".$ip);
$str_array = explode("\n", $str);
foreach($str_array as $line)
{
if($line=="") continue;
$filename = $line;
echo "<li><a href='#' onclick='menu_exe(\"cat /home/yw/configMonitor/".$ip.'/'.$filename."\");'>".$filename."</a></li>";
}
}
?>
| 0weibo | trunk/app/catcfg/main.php | PHP | oos | 740 |
ssh $1 "netstat -anpt | grep LIST | awk '{print \$7}' | awk -F / '{print \$1}' | sort -u | while read line; do sudo ls -l /proc/\$line/exe; done " | awk -F / '{print $NF}' | sort -u | egrep -v "cupsd|sshd|portmap|rpc.statd|sendmail|xinetd|python"
| 0weibo | trunk/app/netlisten/ssh_listen.sh | Shell | oos | 247 |
<?php
if(!isset($_GET["ip"]) )
{
echo "<li><a href='#'>---查看监听的服务---</a></li>";
$str = shell_exec("cat /home/yw/configMonitor/hosts2");
$str_array = explode("\n", $str);
foreach($str_array as $line)
{
if($line=="") continue;
$ip = $line;
echo "<li><a href='#' onclick='menu_next(3, \"app/netlisten/main.php?ip=".$ip."\")'>".$ip."</a></li>";
}
}
else
{
$ip = $_GET["ip"];
echo "<li><a href='#'>---".$ip."---</a></li>";
$str = shell_exec("sudo ./ssh_listen.sh $ip ");
$str_array = explode("\n", $str);
foreach($str_array as $line)
{
if($line=="") continue;
$service = $line;
#echo "<li><a href='#' onclick='menu_exe(\"ps aux | head -n 1;sudo ssh $ip ps aux | grep -v \\\.sh | grep -v grep | grep $service\");'>".$service."</a></li>";
echo "<li><a href='#' onclick='menu_exe(\"ps aux | head -n 1;sudo ssh $ip ps aux | grep -v grep | grep $service\");'>".$service."</a></li>";
}
}
?>
| 0weibo | trunk/app/netlisten/main.php | PHP | oos | 921 |
<?php
if(!isset($_GET["ip"]) )
{
echo "<li><a href='#'>---查看单个服务性能---</a></li>";
$str = shell_exec("cat /home/yw/configMonitor/hosts2");
$str_array = explode("\n", $str);
foreach($str_array as $line)
{
if($line=="") continue;
$ip = $line;
echo "<li><a href='#' onclick='menu_next(3, \"app/ps/main.php?ip=".$ip."\")'>".$ip."</a></li>";
}
}
else
{
$ip = $_GET["ip"];
echo "<li><a href='#'>---".$ip."---</a></li>";
$str = shell_exec("sudo ssh $ip ls /home/oracle/AlitalkSrv/bin");
$str_array = explode("\n", $str);
foreach($str_array as $line)
{
if($line=="") continue;
$service = $line;
echo "<li><a href='#' onclick='menu_exe(\"ps aux | head -n 1;sudo ssh $ip ps aux | grep -v \\\.sh | grep -v grep | grep $service\");'>".$service."</a></li>";
}
}
?>
| 0weibo | trunk/app/ps/main.php | PHP | oos | 791 |
<?php
# 连接数据库
$con = mysql_connect("r5033nklxxx.mysql.aliyun.com","r6982nklxxx","rb4c96d4d");
if (!$con)
{
die('Could not connect: ' . mysql_error());
}
# 读取数据
mysql_select_db("r6982nklxxx", $con);
$sql = "select CONTENT from wenzhang";
$ret = mysql_query($sql,$con);
while($row = mysql_fetch_array($ret))
{
# 对数据进行urldecode
$str = $row['CONTENT'];
$str = urldecode($str);
if($str=="") continue;
echo "<li><a href='#'>".$str."</a></li>";
}
?>
| 0weibo | trunk/app/news/main.php | PHP | oos | 477 |
<?php
if(!isset($_GET["ip"]) )
{
echo "<li><a href='#'>---查看最新log---</a></li>";
$str = shell_exec("cat /home/yw/configMonitor/hosts2");
$str_array = explode("\n", $str);
foreach($str_array as $line)
{
if($line=="") continue;
$ip = $line;
echo "<li><a href='#' onclick='menu_next(3, \"app/taillog/main.php?ip=".$ip."\")'>".$ip."</a></li>";
}
}
else
{
$ip = $_GET["ip"];
echo "<li><a href='#'>---".$ip."---</a></li>";
$str = shell_exec("sudo ssh $ip ls /home/oracle/AlitalkSrv/log/ | grep log$");
$str_array = explode("\n", $str);
foreach($str_array as $line)
{
if($line=="") continue;
$filename = $line;
echo "<li><a href='#' onclick='menu_exe(\"sudo ssh ".$ip.' tail -n 25 /home/oracle/AlitalkSrv/log/'.$filename."\");'>".$filename."</a></li>";
}
}
?>
| 0weibo | trunk/app/taillog/main.php | PHP | oos | 785 |
<?php
#$str = shell_exec($_GET["cmd"]);
#显示cssmenu/menu.html
include "cssmenu/menu.html";
?>
| 0weibo | trunk/plain_get.php | PHP | oos | 97 |
<div class="navbox">
<ul class="nav" id="menu_list1">
<li><a href="#" onclick="document.getElementById('mydiv').style.display='none';">返回</a></li>
<li><a href="#" onclick="menu_next(2, 'app/news/main.php');">查看最新文章</a></li>
<li><a href="#" onclick="menu_next(2, 'app/catcfg/main.php');">查看配置文件</a></li>
<li><a href="#" onclick="menu_next(2, 'app/ps/main.php');">查看单个服务性能</a></li>
<li><a href="#" onclick="menu_next(2, 'app/netlisten/main.php');">查看监听的服务</a></li>
<li><a href="#">To be continue</a></li>
</ul>
</div>
<div class="navbox">
<ul class="nav" id="menu_list2">
</ul>
</div>
<div class="navbox">
<ul class="nav" id="menu_list3">
</ul>
</div>
| 0weibo | trunk/cssmenu/menu.html | HTML | oos | 743 |
<html>
<head>
<title>LIGHTBOX EXAMPLE</title>
<style>
.black_overlay{
display: none;
position: absolute;
top: 0%;
left: 0%;
width: 100%;
height: 100%;
background-color: black;
z-index:1001;
-moz-opacity: 0.8;
opacity:.80;
filter: alpha(opacity=80);
}
.white_content {
display: none;
position: absolute;
top: 25%;
left: 25%;
width: 50%;
height: 50%;
padding: 16px;
border: 16px solid orange;
background-color: white;
z-index:1002;
overflow: auto;
}
</style>
</head>
<body>
<p>可以根据自己要求修改css样式
<button type="button" onclick = "document.getElementById('light').style.display='block';
document.getElementById('fade').style.display='block'" >点击这里打开窗口</button>
</p>
<div id="light" class="white_content">This is the lightbox content.
<button type="button" onclick = "document.getElementById('light').style.display='none';
document.getElementById('fade').style.display='none'" >Close</button>
</div>
<div id="fade" class="black_overlay">
</div>
</body>
</html>
| 0weibo | trunk/cssmenu/overlay.html | HTML | oos | 1,133 |
.black_overlay{
display: none;
position: absolute;
top: 0%;
left: 0%;
width: 100%;
height: 100%;
background: -webkit-gradient(linear, left top, left bottom, from(#ccc), to(#fff));
}
.navbox {
position: relative;
float: left;
}
ul.nav {
list-style: none;
display: block;
width: 200px;
position: relative;
top: 0px;
left: 30px;
padding: 0px 0 0px 0;
background: url(shad2.png) no-repeat;
-webkit-background-size: 50% 100%;
}
li {
margin: 5px 0 0 0;
}
ul.nav li a {
word-break:break-all; /* 强制换行 -yw */
-webkit-transition: all 0.3s ease-out;
background: #cbcbcb url(border.png) no-repeat;
color: #174867;
padding: 7px 15px 7px 15px;
-webkit-border-top-right-radius: 10px;
-webkit-border-bottom-right-radius: 10px;
width: 150px;
display: block;
text-decoration: none;
-webkit-box-shadow: 2px 2px 4px #888;
}
ul.nav li a:hover {
background: #ebebeb url(border.png) no-repeat;
color: #67a5cd;
padding: 7px 15px 7px 30px;
}
| 0weibo | trunk/cssmenu/menu.css | CSS | oos | 950 |
<?php
# 自动识别编码的函数
function my_encoding($data,$to) {
$encode_arr = array('UTF-8','ASCII','GBK','GB2312','BIG5','JIS','eucjp-win','sjis-win','EUC-JP');
$encoded = mb_detect_encoding($data,$encode_arr);
$data = mb_convert_encoding($data,$to,$encoded);
return $data;
}
#$str = shell_exec($_GET["cmd"]);
$str = $_GET["cmd"];
#存储到数据库
# 1 连接mysql
$con = mysql_connect("r5033nklxxx.mysql.aliyun.com","r6982nklxxx","rb4c96d4d");
if (!$con)
{
die('Could not connect: ' . mysql_error());
}
#mysql_select_db("r6982nklxxx", $con);
#$sql = "CREATE TABLE wenzhang
#(
# ID int NOT NULL AUTO_INCREMENT,
# NAME char(64) NOT NULL,
# CONTENT char(255) NOT NULL,
# PRIMARY KEY (ID)
#) ";
#$ret = mysql_query($sql,$con);
#echo $sql . "\n---";
#echo "----(" . $ret . ")----";
#mysql_close($con);
# 插入数据
mysql_select_db("r6982nklxxx", $con);
# 对数据进行urlencode
$str_encoded = urlencode($str);
echo $str_encoded;
$sql = "INSERT INTO wenzhang(NAME,CONTENT)
VALUES('yw','$str_encoded')";
$ret = mysql_query($sql,$con);
echo "----(" . $ret . ")----";
#输出给客户端
$str = my_encoding($str, 'UTF-8'); # 转换编码为UTF-8
echo htmlentities($str, ENT_COMPAT, "UTF-8");
?>
| 0weibo | trunk/demo_get.php | PHP | oos | 1,211 |
<html>
<head>
<meta http-equiv="Content-Type" content="text/html; charset=utf-8" />
<link href="prettify.css" type="text/css" rel="stylesheet" />
<link href="cssmenu/menu.css" type="text/css" rel="stylesheet" />
<link href="main.css" type="text/css" rel="stylesheet" />
<script type="text/javascript" src="prettify.js"></script>
<title>旺旺功能测试环境管理</title>
<script type="text/javascript">
g_cmd = "";
function loadXMLDoc(cmd)
{
variable=new XMLHttpRequest();
variable.onreadystatechange=function()
{
if (variable.readyState==4 && variable.status==200)
{
var rspText = variable.responseText;
if(rspText.length<=0 || rspText.length == "")
{
rspText = "----------返回结果为空----------";
}
if (window.navigator.appName == "Microsoft Internet Explorer")
document.getElementById("mycode").innerText=rspText;
else
document.getElementById("mycode").innerHTML=rspText;
// 如果定时开关打开，则设置下一次定时执行
if ( g_switch == 1 )
window.setTimeout(pollData, 2000); // 下次执行的定时设置放到loadXMLDoc()函数里面去
document.getElementById('execute').className="button"; // 变色，表示正在执行
prettyPrint();
}
}
var vcmd = cmd;
if ( vcmd == null ) // 如果函数输入参数为空，则取输入框的内容
{
vcmd = document.getElementById("cmd").value;
}
g_cmd = vcmd; // 执行命令前，保存vcmd，已便定时刷新功能用到
document.getElementById("cmd").value=g_cmd;
vcmd = encodeURIComponent(vcmd); // 对符号+进行编码
variable.open("GET", "demo_get.php?cmd="+vcmd, true);
variable.send();
document.getElementById('execute').className="pressed_button2"; // 变色，表示正在执行
}
function loadDiv(cmd) // 获取界面元素 mydiv
{
variable=new XMLHttpRequest();
variable.onreadystatechange=function()
{
if (variable.readyState==4 && variable.status==200)
{
document.getElementById("mydiv").innerHTML=variable.responseText;
}
prettyPrint();
}
vcmd = encodeURIComponent(cmd); // 对符号+进行编码
variable.open("GET", "plain_get.php?cmd="+vcmd, true);
variable.send();
}
// 定时查询数据函数
g_switch = 0;
g_switch_mark = 1;
function pollData(b_switch)
{
// 如果b_switch，说明是按钮触发
// 如果点击按钮， 则将开关置为1
if( b_switch == 1)
{
// 如果全局开关为0，则置为真, 0->1->1, 1->2->0
g_switch += 1;
g_switch %= 2;
}
// 如果全局开关打开，则设置定时执行
if( g_switch == 1 )
{
var localTime=new Date().toLocaleTimeString();
document.getElementById("switch").innerHTML=localTime;
loadXMLDoc(g_cmd);
// window.setTimeout(pollData, 2000); // 下次执行的定时设置放到loadXMLDoc()函数里面去
// 当计时开始，改变按钮效果
g_switch_mark += 1;
g_switch_mark %= 2;
if( g_switch_mark == 0)
{
document.getElementById('switch').className="pressed_button";
}
else
{
document.getElementById('switch').className="pressed_button2";
}
}
else
{
document.getElementById("switch").innerHTML="定时刷新";
// 当计时结束，恢复按钮效果
document.getElementById('switch').className='button';
}
}
function menu_next(i, url)
{
// 先清空数据
if(i==2)
{
document.getElementById("menu_list2").innerHTML="";
document.getElementById("menu_list3").innerHTML="";
}
if(i==3)
{
document.getElementById("menu_list3").innerHTML="";
}
//ajax 获取列表数据
variable=new XMLHttpRequest();
variable.onreadystatechange=function()
{
if (variable.readyState==4 && variable.status==200)
{
document.getElementById("menu_list"+i).innerHTML=variable.responseText;
}
prettyPrint();
}
variable.open("GET", url, true);
variable.send();
}
function menu_exe(cmd)
{
document.getElementById('mydiv').style.display='none'; // 关掉菜单
loadXMLDoc(cmd); // 执行命令
}
loadDiv('cat cssmenu/menu.html'); //加载数据，但不显示Div
</script>
</head>
<body onload="prettyPrint()">
<div>
<input type="text" id="cmd" style="width:500px;"
onKeyDown="if(event.keyCode==13) {loadXMLDoc(); return false;}"/>
<br/>
<button type="button" onclick="loadXMLDoc()" id="execute">执行命令</button>
<button type="button" onclick="loadXMLDoc('sudo /home/yw/ps_monitor/load.sh')">提交文章</button>
<button type="button" onclick="loadXMLDoc('cat /home/yw/configMonitor/now.log')">查看环境配置文件变更</button>
<button type="button" onclick="pollData(1)", id="switch">定时刷新</button>
<button type="button" onclick="document.getElementById('mydiv').style.display='block'">点击显示功能菜单...</button>
</div>
<pre id="mycode" class="prettyprint">Let AJAX change this text</pre>
<div id="mydiv" class="black_overlay"></div>
</body>
</html>
| 0weibo | trunk/index.php | PHP | oos | 5,237 |
Hola Mundo!!! | 01-prueba | trunk/Hola mundo.java | Java | asf20 | 13 |
using System;
using System.Collections.Generic;
using System.ComponentModel;
using System.Data;
using System.Drawing;
using System.Text;
using System.Windows.Forms;
namespace HttpNamespaceManager.UI
{
public partial class InputBox : Form
{
public InputBox()
{
InitializeComponent();
}
public InputBox(string title, string prompt)
{
InitializeComponent();
this.Text = title;
this.labelPrompt.Text = prompt;
this.Size = new Size(Math.Max(this.labelPrompt.Width + 31, 290), this.labelPrompt.Height + 103);
}
public static DialogResult Show(string title, string prompt, out string result)
{
InputBox input = new InputBox(title, prompt);
DialogResult retval = input.ShowDialog();
result = input.textInput.Text;
return retval;
}
}
} | 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerUI/InputBox.cs | C# | gpl2 | 954 |
using System;
using System.Collections.Generic;
using System.ComponentModel;
using System.Data;
using System.Drawing;
using System.Text;
using System.Windows.Forms;
using HttpNamespaceManager.Lib;
using HttpNamespaceManager.Lib.AccessControl;
using System.IO;
using System.Diagnostics;
using System.Security.Principal;
namespace HttpNamespaceManager.UI
{
public partial class MainForm : Form
{
private HttpApi nsManager;
Dictionary<string, SecurityDescriptor> nsTable;
NamespaceManagerAction action = NamespaceManagerAction.None;
string initialUrl = null;
public MainForm()
{
nsManager = new HttpApi();
InitializeComponent();
}
public MainForm(NamespaceManagerAction action, string url)
{
nsManager = new HttpApi();
InitializeComponent();
this.action = action;
this.initialUrl = url;
}
private void MainForm_Load(object sender, EventArgs e)
{
this.nsTable = this.nsManager.QueryHttpNamespaceAcls();
foreach (string prefix in this.nsTable.Keys)
{
this.listHttpNamespaces.Items.Add(prefix);
}
if (this.initialUrl != null) listHttpNamespaces.SelectedItem = this.initialUrl;
else listHttpNamespaces.SelectedIndex = 0;
}
private void MainForm_Shown(object sender, EventArgs e)
{
if (this.action != NamespaceManagerAction.None)
{
switch (this.action)
{
case NamespaceManagerAction.Add:
buttonAdd_Click(this, new EventArgs());
break;
case NamespaceManagerAction.Edit:
buttonEdit_Click(this, new EventArgs());
break;
case NamespaceManagerAction.Remove:
buttonRemove_Click(this, new EventArgs());
break;
}
}
}
private void Elevate(NamespaceManagerAction action, string url)
{
if (!Util.IsUserAnAdmin())
{
ProcessStartInfo procInfo = new ProcessStartInfo(Application.ExecutablePath, String.Format("-{0} {1}", action.ToString(), url));
procInfo.UseShellExecute = true;
procInfo.Verb = "runas";
procInfo.WindowStyle = ProcessWindowStyle.Normal;
Process.Start(procInfo);
Application.Exit();
}
}
private void buttonAdd_Click(object sender, EventArgs e)
{
if (!String.IsNullOrEmpty((string)listHttpNamespaces.SelectedItem))
{
Elevate(NamespaceManagerAction.Add, (string)listHttpNamespaces.SelectedItem);
string url;
InputBox.Show("Enter URL", "Enter the URL to add:", out url);
if (!String.IsNullOrEmpty(url))
{
SecurityDescriptor newSd = new SecurityDescriptor();
newSd.DACL = new AccessControlList();
AccessControlListDialog aclDlg = new AccessControlListDialog(url,
newSd.DACL,
new List<AceRights>(new AceRights[] { AceRights.GenericAll, AceRights.GenericExecute, AceRights.GenericRead, AceRights.GenericWrite }),
new List<AceType>(new AceType[] { AceType.AccessAllowed }));
if (aclDlg.ShowDialog() == DialogResult.OK)
{
try
{
this.nsManager.SetHttpNamespaceAcl(url, newSd);
this.nsTable.Add(url, newSd);
this.listHttpNamespaces.Items.Add(url);
}
catch (Exception ex)
{
MessageBox.Show("Error Adding ACL. " + ex.Message, "Error Adding ACL", MessageBoxButtons.OK, MessageBoxIcon.Error);
}
}
}
}
}
private void buttonEdit_Click(object sender, EventArgs e)
{
if (!String.IsNullOrEmpty((string)listHttpNamespaces.SelectedItem))
{
Elevate(NamespaceManagerAction.Edit, (string)listHttpNamespaces.SelectedItem);
AccessControlList original = this.nsTable[(string)listHttpNamespaces.SelectedItem].DACL;
AccessControlListDialog aclDialog = new AccessControlListDialog((string)listHttpNamespaces.SelectedItem,
original != null ? new AccessControlList(original) : new AccessControlList(),
new List<AceRights>(new AceRights[] { AceRights.GenericAll, AceRights.GenericExecute, AceRights.GenericRead, AceRights.GenericWrite }),
new List<AceType>(new AceType[] { AceType.AccessAllowed }));
if (aclDialog.ShowDialog() == DialogResult.OK)
{
bool removed = false;
try
{
this.nsManager.RemoveHttpHamespaceAcl((string)listHttpNamespaces.SelectedItem);
removed = true;
this.nsTable[(string)listHttpNamespaces.SelectedItem].DACL = aclDialog.ACL;
this.nsManager.SetHttpNamespaceAcl((string)listHttpNamespaces.SelectedItem, this.nsTable[(string)listHttpNamespaces.SelectedItem]);
}
catch (Exception ex)
{
MessageBox.Show("Error Setting ACL. " + ex.Message, "Error Setting ACL", MessageBoxButtons.OK, MessageBoxIcon.Error);
if (removed)
{
try
{
this.nsTable[(string)listHttpNamespaces.SelectedItem].DACL = original;
this.nsManager.SetHttpNamespaceAcl((string)listHttpNamespaces.SelectedItem, this.nsTable[(string)listHttpNamespaces.SelectedItem]);
}
catch (Exception ex2)
{
MessageBox.Show("Unable to Restore Original ACL, ACL may be corrupt. " + ex2.Message, "Error Retoring ACL", MessageBoxButtons.OK, MessageBoxIcon.Error);
}
}
}
}
}
}
private void buttonRemove_Click(object sender, EventArgs e)
{
if (!String.IsNullOrEmpty((string)listHttpNamespaces.SelectedItem))
{
Elevate(NamespaceManagerAction.Remove, (string)listHttpNamespaces.SelectedItem);
try
{
this.nsManager.RemoveHttpHamespaceAcl((string)listHttpNamespaces.SelectedItem);
this.nsTable.Remove((string)listHttpNamespaces.SelectedItem);
this.listHttpNamespaces.Items.Remove((string)listHttpNamespaces.SelectedItem);
}
catch (Exception ex)
{
MessageBox.Show("Error Removing ACL. " + ex.Message, "Error Removing ACL", MessageBoxButtons.OK, MessageBoxIcon.Error);
}
}
}
private void MainForm_FormClosed(object sender, FormClosedEventArgs e)
{
if (this.nsManager != null) this.nsManager.Dispose();
}
}
public enum NamespaceManagerAction
{
None,
Add,
Edit,
Remove
}
} | 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerUI/MainForm.cs | C# | gpl2 | 8,000 |
// This work is licensed under the Creative Commons Attribution 3.0 License.
// To view a copy of this license, visit http://creativecommons.org/licenses/by/3.0/ or send a letter to:
// Creative Commons
// 171 Second Street, Suite 300
// San Francisco, California, 94105, USA.
using System.Reflection;
using System.Runtime.CompilerServices;
using System.Runtime.InteropServices;
// General Information about an assembly is controlled through the following
// set of attributes. Change these attribute values to modify the information
// associated with an assembly.
[assembly: AssemblyTitle("HttpNamespaceManagerUI")]
[assembly: AssemblyDescription("")]
[assembly: AssemblyConfiguration("")]
[assembly: AssemblyCompany("Paul Wheeler")]
[assembly: AssemblyProduct("HttpNamespaceManagerUI")]
[assembly: AssemblyCopyright("Copyright © Paul Wheeler 2007")]
[assembly: AssemblyTrademark("")]
[assembly: AssemblyCulture("")]
// Setting ComVisible to false makes the types in this assembly not visible
// to COM components. If you need to access a type in this assembly from
// COM, set the ComVisible attribute to true on that type.
[assembly: ComVisible(false)]
// The following GUID is for the ID of the typelib if this project is exposed to COM
[assembly: Guid("0c335f3e-db8c-4733-a6b7-d7ea9c195049")]
// Version information for an assembly consists of the following four values:
//
// Major Version
// Minor Version
// Build Number
// Revision
//
[assembly: AssemblyVersion("1.0.0.0")]
[assembly: AssemblyFileVersion("1.0.0.0")]
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerUI/Properties/AssemblyInfo.cs | C# | gpl2 | 1,601 |
using System;
using System.Collections.Generic;
using System.ComponentModel;
using System.Drawing;
using System.Data;
using System.Text;
using System.Windows.Forms;
using HttpNamespaceManager.Lib.AccessControl;
namespace HttpNamespaceManager.UI
{
public partial class AccessControlRightsListBox : UserControl
{
private List<AceRights> supportedRights;
private List<AceType> supportedTypes;
private AccessControlList acl;
private SecurityIdentity selectedUser;
public List<AceRights> SupportedRights
{
get { return this.supportedRights; }
}
public List<AceType> SupportedTypes
{
get { return this.supportedTypes; }
}
public AccessControlList ACL
{
get
{
return this.acl;
}
set
{
this.acl = value;
}
}
public SecurityIdentity SelectedUser
{
get
{
return this.selectedUser;
}
set
{
this.selectedUser = value;
}
}
public AccessControlRightsListBox()
{
InitializeComponent();
this.supportedRights = new List<AceRights>();
this.supportedTypes = new List<AceType>();
}
public void UpdateList()
{
this.tableRights.SuspendLayout();
this.tableHeader.Controls.Clear();
this.tableHeader.ColumnCount = this.supportedTypes.Count + 1;
this.tableHeader.ColumnStyles.Clear();
this.tableRights.Controls.Clear();
this.tableRights.ColumnCount = this.supportedTypes.Count + 1;
this.tableRights.RowCount = this.supportedRights.Count;
this.tableRights.RowStyles.Clear();
this.tableRights.RowStyles.Add(new RowStyle(SizeType.AutoSize));
this.tableRights.ColumnStyles.Clear();
this.tableRights.ColumnStyles.Add(new ColumnStyle(SizeType.AutoSize));
int maxsize = 0;
int col = 1;
foreach (AceType type in this.supportedTypes)
{
Label labelAceType = new Label();
labelAceType.Name = String.Format("labelAceType{0}", col.ToString());
labelAceType.Text = type.ToString();
labelAceType.TextAlign = ContentAlignment.MiddleCenter;
labelAceType.Dock = DockStyle.Fill;
this.tableRights.ColumnStyles.Add(new ColumnStyle(SizeType.Absolute, labelAceType.Width));
this.tableHeader.Controls.Add(labelAceType, col++, 0);
}
int row = 0;
foreach (AceRights right in this.supportedRights)
{
if (this.selectedUser != null)
{
col = 1;
foreach (AceType type in this.supportedTypes)
{
CheckBox checkAceType = new CheckBox();
checkAceType.Name = String.Format("checkAceType{0}", col.ToString());
checkAceType.Text = "";
checkAceType.Size = new Size(15, 14);
checkAceType.CheckAlign = ContentAlignment.MiddleCenter;
checkAceType.Dock = DockStyle.Fill;
checkAceType.Checked = GetRightValue(type, right);
checkAceTypeCheckedHandler checkedHandler = new checkAceTypeCheckedHandler(this, type, right);
checkAceType.CheckedChanged += new EventHandler(checkedHandler.checkAceType_Checked);
this.tableRights.Controls.Add(checkAceType, col++, row);
}
}
Label labelRight = new Label();
labelRight.Name = String.Format("labelRight{0}", row.ToString());
labelRight.Text = right.ToString();
labelRight.TextAlign = ContentAlignment.MiddleLeft;
maxsize = Math.Max(maxsize, labelRight.Width);
this.tableRights.Controls.Add(labelRight, 0, row++);
}
this.tableHeader.ColumnStyles.Add(new ColumnStyle(SizeType.Absolute, maxsize));
this.tableHeader.ColumnStyles.Add(new ColumnStyle(SizeType.AutoSize));
this.tableRights.ResumeLayout(true);
}
private class checkAceTypeCheckedHandler
{
private AccessControlRightsListBox parent;
private AceType aceType;
private AceRights aceRight;
public checkAceTypeCheckedHandler(AccessControlRightsListBox parent, AceType aceType, AceRights aceRight)
{
this.parent = parent;
this.aceType = aceType;
this.aceRight = aceRight;
}
public void checkAceType_Checked(object sender, EventArgs e)
{
parent.HandleCheckBoxClick((CheckBox)sender, aceType, aceRight);
}
}
private bool GetRightValue(AceType aceType, AceRights aceRight)
{
foreach (AccessControlEntry ace in this.acl)
{
if (ace.AceType == aceType && ace.AccountSID == this.selectedUser)
{
foreach (AceRights right in ace)
{
if (right == aceRight) return true;
}
}
}
return false;
}
private void HandleCheckBoxClick(CheckBox source, AceType aceType, AceRights aceRight)
{
foreach (AccessControlEntry ace in this.acl)
{
if (ace.AceType == aceType && ace.AccountSID == this.selectedUser)
{
if (source.Checked)
{
ace.Add(aceRight);
}
else
{
ace.Remove(aceRight);
}
return;
}
}
// The ace type doesn't exist
AccessControlEntry newAce = new AccessControlEntry(this.selectedUser);
newAce.AceType = aceType;
newAce.Add(aceRight);
this.acl.Add(newAce);
}
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerUI/AccessControlRightsListBox.cs | C# | gpl2 | 6,660 |
using System;
using System.Collections.Generic;
using System.Text;
using System.Runtime.InteropServices;
namespace HttpNamespaceManager.UI
{
internal static class Util
{
[DllImport("shell32.dll")]
internal static extern bool IsUserAnAdmin();
internal static string GetErrorMessage(UInt32 errorCode)
{
UInt32 FORMAT_MESSAGE_ALLOCATE_BUFFER = 0x00000100;
UInt32 FORMAT_MESSAGE_IGNORE_INSERTS = 0x00000200;
UInt32 FORMAT_MESSAGE_FROM_SYSTEM = 0x00001000;
UInt32 dwFlags = FORMAT_MESSAGE_ALLOCATE_BUFFER | FORMAT_MESSAGE_FROM_SYSTEM | FORMAT_MESSAGE_IGNORE_INSERTS;
IntPtr source = new IntPtr();
string msgBuffer = "";
UInt32 retVal = FormatMessage(dwFlags, source, errorCode, 0, ref msgBuffer, 512, null);
return msgBuffer.ToString();
}
[DllImport("kernel32.dll", CharSet = CharSet.Auto)]
private static extern UInt32 FormatMessage(UInt32 dwFlags, IntPtr lpSource, UInt32 dwMessageId, UInt32 dwLanguageId, [MarshalAs(UnmanagedType.LPTStr)] ref string lpBuffer, int nSize, IntPtr[] Arguments);
/*
* DWORD GetLastError(void);
*/
[DllImport("kernel32.dll")]
internal static extern uint GetLastError();
}
/*
* typedef enum _TOKEN_INFORMATION_CLASS
* {
* TokenUser = 1,
* TokenGroups,
* TokenPrivileges,
* TokenOwner,
* TokenPrimaryGroup,
* TokenDefaultDacl,
* TokenSource,
* TokenType,
* TokenImpersonationLevel,
* TokenStatistics,
* TokenRestrictedSids,
* TokenSessionId,
* TokenGroupsAndPrivileges,
* TokenSessionReference,
* TokenSandBoxInert,
* TokenAuditPolicy,
* TokenOrigin
* } TOKEN_INFORMATION_CLASS;
*/
internal enum TOKEN_INFORMATION_CLASS
{
TokenUser = 1,
TokenGroups,
TokenPrivileges,
TokenOwner,
TokenPrimaryGroup,
TokenDefaultDacl,
TokenSource,
TokenType,
TokenImpersonationLevel,
TokenStatistics,
TokenRestrictedSids,
TokenSessionId,
TokenGroupsAndPrivileges,
TokenSessionReference,
TokenSandBoxInert,
TokenAuditPolicy,
TokenOrigin
}
internal enum ShowCommand
{
SW_HIDE = 0,
SW_SHOWNORMAL = 1,
SW_NORMAL = 1,
SW_SHOWMINIMIZED = 2,
SW_SHOWMAXIMIZED = 3,
SW_MAXIMIZE = 3,
SW_SHOWNOACTIVATE = 4,
SW_SHOW = 5,
SW_MINIMIZE = 6,
SW_SHOWMINNOACTIVE = 7,
SW_SHOWNA = 8,
SW_RESTORE = 9,
SW_SHOWDEFAULT = 10,
SW_FORCEMINIMIZE = 11,
SW_MAX = 11
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerUI/Util.cs | C# | gpl2 | 2,922 |
using System;
using System.Collections.Generic;
using System.ComponentModel;
using System.Data;
using System.Drawing;
using System.Text;
using System.Windows.Forms;
using HttpNamespaceManager.Lib.AccessControl;
namespace HttpNamespaceManager.UI
{
public partial class AccessControlListDialog : Form
{
private string objectName;
private AccessControlList acl;
private List<SecurityIdentity> userList;
public string ObjectName
{
get { return this.objectName; }
}
public AccessControlList ACL
{
get { return this.acl; }
}
public AccessControlListDialog()
{
InitializeComponent();
}
public AccessControlListDialog(string objectName, AccessControlList acl, List<AceRights> supportedRights, List<AceType> supportedTypes)
{
InitializeComponent();
if (objectName == null)
{
throw new ArgumentNullException("objectName");
}
if (acl == null)
{
throw new ArgumentNullException("acl");
}
this.objectName = objectName;
this.acl = acl;
this.labelObjectName.Text = objectName;
this.userList = new List<SecurityIdentity>();
foreach (AccessControlEntry ace in this.acl)
{
if (!this.userList.Contains(ace.AccountSID))
{
this.userList.Add(ace.AccountSID);
}
}
this.aclListPermissions.SupportedRights.AddRange(supportedRights);
this.aclListPermissions.SupportedTypes.AddRange(supportedTypes);
this.aclListPermissions.ACL = this.acl;
}
private void AccessControlListDialog_Load(object sender, EventArgs e)
{
if (this.userList != null)
{
foreach (SecurityIdentity sid in this.userList)
{
this.listUsersAndGroups.Items.Add(sid);
}
this.listUsersAndGroups.DisplayMember = "Name";
if (this.listUsersAndGroups.Items.Count > 0) this.listUsersAndGroups.SelectedIndex = 0;
else
{
this.aclListPermissions.UpdateList();
}
}
}
private void listUsersAndGroups_SelectedIndexChanged(object sender, EventArgs e)
{
this.aclListPermissions.SelectedUser = (SecurityIdentity)this.listUsersAndGroups.SelectedItem;
this.aclListPermissions.UpdateList();
}
private void buttonAdd_Click(object sender, EventArgs e)
{
string accountName;
if (InputBox.Show("Add User or Group", "Enter the User or Group Name:", out accountName) == DialogResult.OK)
{
try
{
SecurityIdentity sid = SecurityIdentity.SecurityIdentityFromName(accountName);
if (MessageBox.Show(String.Format("Add user or group: {0}?", sid.Name), "User or Group Found", MessageBoxButtons.YesNo, MessageBoxIcon.Question) == DialogResult.Yes)
{
if (!this.userList.Contains(sid))
{
AccessControlEntry ace = new AccessControlEntry(sid);
ace.AceType = AceType.AccessAllowed;
this.acl.Add(ace);
this.userList.Add(sid);
this.listUsersAndGroups.Items.Add(sid);
}
else
{
MessageBox.Show("The selected user or group already exists.", "Duplicate User or Group", MessageBoxButtons.OK, MessageBoxIcon.Warning);
}
}
}
catch (Exception ex)
{
MessageBox.Show("User or group name was not found. " + ex.Message, "User or Group Not Found", MessageBoxButtons.OK, MessageBoxIcon.Warning);
}
}
}
private void buttonRemove_Click(object sender, EventArgs e)
{
if (this.listUsersAndGroups.SelectedItem != null)
{
SecurityIdentity sid = (SecurityIdentity)this.listUsersAndGroups.SelectedItem;
List<AccessControlEntry> toDelete = new List<AccessControlEntry>();
foreach (AccessControlEntry ace in this.acl)
{
if (ace.AccountSID == sid)
{
toDelete.Add(ace);
}
}
foreach (AccessControlEntry deleteAce in toDelete)
{
this.acl.Remove(deleteAce);
}
this.userList.Remove(sid);
this.listUsersAndGroups.Items.Remove(sid);
}
}
}
} | 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerUI/AccessControlListDialog.cs | C# | gpl2 | 5,251 |
using System;
using System.Collections.Generic;
using System.ComponentModel;
using System.Data;
using System.Drawing;
using System.Text;
using System.Windows.Forms;
namespace HttpNamespaceManager.UI
{
public partial class UsageForm : Form
{
public UsageForm()
{
InitializeComponent();
}
private void UsageForm_Load(object sender, EventArgs e)
{
this.Size = new Size(labelUsage.Right + 18, labelUsage.Bottom + 62);
}
private void buttonOK_Click(object sender, EventArgs e)
{
this.Close();
}
}
} | 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerUI/UsageForm.cs | C# | gpl2 | 643 |
using System;
using System.Collections.Generic;
using System.Windows.Forms;
using System.Text.RegularExpressions;
namespace HttpNamespaceManager.UI
{
static class Program
{
/// <summary>
/// The main entry point for the application.
/// </summary>
[STAThread]
static void Main(string[] args)
{
Application.EnableVisualStyles();
Application.SetCompatibleTextRenderingDefault(false);
if (args.Length == 0)
{
Application.Run(new MainForm());
}
else if (args.Length == 2)
{
Regex actionRegex = new Regex(@"(-|--|/)(?'action'ad?d?|ed?i?t?|re?m?o?v?e?)", RegexOptions.IgnoreCase);
Match m = actionRegex.Match(args[0]);
if (m.Success && m.Groups["action"] != null && m.Groups["action"].Success && !String.IsNullOrEmpty(m.Groups["action"].Value))
{
string action = m.Groups["action"].Value.ToLower();
if (action.StartsWith("a"))
{
Application.Run(new MainForm(NamespaceManagerAction.Add, args[1]));
}
else if (action.StartsWith("e"))
{
Application.Run(new MainForm(NamespaceManagerAction.Edit, args[1]));
}
else
{
Application.Run(new MainForm(NamespaceManagerAction.Remove, args[1]));
}
}
else
{
Application.Run(new UsageForm());
}
}
else
{
Application.Run(new UsageForm());
}
}
}
} | 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerUI/Program.cs | C# | gpl2 | 1,881 |
using System;
using System.Collections.Generic;
using System.Text;
using System.Runtime.InteropServices;
namespace HttpNamespaceManager.Lib.AccessControl
{
/// <summary>
/// Security Identity
/// </summary>
/// <remarks>The SecurityIdentity class is a read only representation of a
/// SID. The class has no public constructors, instead use the static
/// SecurityIdentityFrom* methods to instantiate it.</remarks>
public class SecurityIdentity
{
private string name;
private string sid;
private WELL_KNOWN_SID_TYPE wellKnownSidType = WELL_KNOWN_SID_TYPE.None;
/// <summary>
/// Gets the name of to security object represented by the SID
/// </summary>
public string Name
{
get { return this.name; }
}
/// <summary>
/// Gets the SID string of the security object
/// </summary>
public string SID
{
get { return this.sid; }
}
/// <summary>
/// Gets a value indicating whether or not the SID is a well known SID or not
/// </summary>
public bool IsWellKnownSid
{
get { return this.wellKnownSidType != WELL_KNOWN_SID_TYPE.None; }
}
/// <summary>
/// Gets the type of well known SID
/// </summary>
public WELL_KNOWN_SID_TYPE WellKnownSidType
{
get { return this.wellKnownSidType; }
}
/// <summary>
/// Creates a blank Security Identity
/// </summary>
private SecurityIdentity()
{
// Do Nothing
}
public override bool Equals(object obj)
{
if (obj == null) return false;
if (obj is SecurityIdentity)
{
SecurityIdentity sd = (SecurityIdentity)obj;
return (String.Compare(this.sid, sd.sid, true) == 0);
}
else return false;
}
public static bool operator==(SecurityIdentity obj1, SecurityIdentity obj2)
{
if (Object.ReferenceEquals(obj1, null) && Object.ReferenceEquals(obj2, null)) return true;
else if (Object.ReferenceEquals(obj1, null) || Object.ReferenceEquals(obj2, null)) return false;
return obj1.Equals(obj2);
}
public static bool operator !=(SecurityIdentity obj1, SecurityIdentity obj2)
{
if (Object.ReferenceEquals(obj1, null) && Object.ReferenceEquals(obj2, null)) return false;
else if (Object.ReferenceEquals(obj1, null) || Object.ReferenceEquals(obj2, null)) return true;
return !obj1.Equals(obj2);
}
public override int GetHashCode()
{
return this.sid != null ? this.sid.GetHashCode() : base.GetHashCode();
}
/// <summary>
/// Renders the Security Identity as a SDDL SID string or abbreviation
/// </summary>
/// <returns>An SDDL SID string or abbreviation</returns>
public override string ToString()
{
if (this.IsWellKnownSid && !String.IsNullOrEmpty(SecurityIdentity.wellKnownSidAbbreviations[(int)this.wellKnownSidType]))
{
return SecurityIdentity.wellKnownSidAbbreviations[(int)this.wellKnownSidType];
}
else return this.sid;
}
/// <summary>
/// Table of well known SID strings
/// </summary>
/// <remarks>The table indicies correspond to <see cref="WELL_KNOWN_SID_TYPE"/>s</remarks>
private static readonly string[] wellKnownSids = new string[] {
"S-1-0-0", // NULL SID
"S-1-1-0", // Everyone
"S-1-2-0", // LOCAL
"S-1-3-0", // CREATOR OWNER
"S-1-3-1", // CREATOR GROUP
"S-1-3-2", // CREATOR OWNER SERVER
"S-1-3-3", // CREATOR GROUP SERVER
"S-1-5", // NT Pseudo Domain\NT Pseudo Domain
"S-1-5-1", // NT AUTHORITY\DIALUP
"S-1-5-2", // NT AUTHORITY\NETWORK
"S-1-5-3", // NT AUTHORITY\BATCH
"S-1-5-4", // NT AUTHORITY\INTERACTIVE
"S-1-5-6", // NT AUTHORITY\SERVICE
"S-1-5-7", // NT AUTHORITY\ANONYMOUS LOGON
"S-1-5-8", // NT AUTHORITY\PROXY
"S-1-5-9", // NT AUTHORITY\ENTERPRISE DOMAIN CONTROLLERS
"S-1-5-10", // NT AUTHORITY\SELF
"S-1-5-11", // NT AUTHORITY\Authenticated Users
"S-1-5-12", // NT AUTHORITY\RESTRICTED
"S-1-5-13", // NT AUTHORITY\TERMINAL SERVER USER
"S-1-5-14", // NT AUTHORITY\REMOTE INTERACTIVE LOGON
"", // Unknown
"S-1-5-18", // NT AUTHORITY\SYSTEM
"S-1-5-19", // NT AUTHORITY\LOCAL SERVICE
"S-1-5-20", // NT AUTHORITY\NETWORK SERVICE
"S-1-5-32", // BUILTIN\BUILTIN
"S-1-5-32-544", // BUILTIN\Administrators
"S-1-5-32-545", // BUILTIN\Users
"S-1-5-32-546", // BUILTIN\Guests
"S-1-5-32-547", // BUILTIN\Power Users
"", // Unknown
"", // Unknown
"", // Unknown
"S-1-5-32-551", // BUILTIN\Backup Operators
"S-1-5-32-552", // BUILTIN\Replicator
"", // Unknown
"S-1-5-32-555", // BUILTIN\Remote Desktop Users
"S-1-5-32-556", // BUILTIN\Network Configuration Operators
"", // Unknown
"", // Unknown
"", // Unknown
"", // Unknown
"", // Unknown
"", // Unknown
"", // Unknown
"", // Unknown
"", // Unknown
"", // Unknown
"", // Unknown
"", // Unknown
"", // Unknown
"S-1-5-64-10", // NT AUTHORITY\NTLM Authentication
"S-1-5-64-21", // NT AUTHORITY\Digest Authentication
"S-1-5-64-14", // NT AUTHORITY\SChannel Authentication
"S-1-5-15", // NT AUTHORITY\This Organization
"S-1-5-1000", // NT AUTHORITY\Other Organization
"", // Unknown
"S-1-5-32-558", // BUILTIN\Performance Monitor Users
"S-1-5-32-559", // BUILTIN\Performance Log Users
"", // Unknown
"", // Unknown
"S-1-5-32-562", // BUILTIN\Distributed COM Users
"S-1-5-32-568", // BUILTIN\IIS_IUSRS
"S-1-5-17", // NT AUTHORITY\IUSR
"S-1-5-32-569", // BUILTIN\Cryptographic Operators
"S-1-16-0", // Mandatory Label\Untrusted Mandatory Level
"S-1-16-4096", // Mandatory Label\Low Mandatory Level
"S-1-16-8192", // Mandatory Label\Medium Mandatory Level
"S-1-16-12288", // Mandatory Label\High Mandatory Level
"S-1-16-16384", // Mandatory Label\System Mandatory Level
"S-1-5-33", // NT AUTHORITY\WRITE RESTRICTED
"S-1-3-4", // OWNER RIGHTS
"", // Unknown
"", // Unknown
"S-1-5-22", // NT AUTHORITY\ENTERPRISE READ-ONLY DOMAIN CONTROLLERS BETA
"", // Unknown
"S-1-5-32-573" // BUILTIN\Event Log Readers
};
/// <summary>
/// Creates a Security Identity from a SID string
/// </summary>
/// <param name="sid">A SID string (Format: S-1-1-...) or well known SID abbreviation (e.g. DA)</param>
/// <returns>A populated Security Identity</returns>
public static SecurityIdentity SecurityIdentityFromString(string sid)
{
if (sid == null)
{
throw new ArgumentNullException("sid");
}
if (sid == "")
{
throw new ArgumentException("Argument 'sid' cannot be the empty string.", "sid");
}
if (!sid.StartsWith("S-"))
{
// If the string is not a SID string (S-1-n-...) assume it is a SDDL abbreviation
return SecurityIdentity.SecurityIdentityFromWellKnownSid(SecurityIdentity.GetWellKnownSidTypeFromSddlAbbreviation(sid));
}
SecurityIdentity secId = new SecurityIdentity();
secId.sid = sid;
// Check if the SID is a well known SID
secId.wellKnownSidType = (WELL_KNOWN_SID_TYPE)Array.IndexOf<string>(SecurityIdentity.wellKnownSids, secId.sid);
IntPtr sidStruct;
// Convert the SID string to a SID structure
if (!SecurityIdentity.ConvertStringSidToSid(sid, out sidStruct))
{
throw new ExternalException(String.Format("Error Converting SID String to SID Structur: {0}", Util.GetErrorMessage(Util.GetLastError())));
}
try
{
uint nameLen = 0;
uint domainLen = 0;
SID_NAME_USE nameUse;
// Get the lengths of the object and domain names
SecurityIdentity.LookupAccountSid(null, sidStruct, IntPtr.Zero, ref nameLen, IntPtr.Zero, ref domainLen, out nameUse);
if (nameLen == 0) throw new ExternalException("Unable to Find SID");
IntPtr accountName = Marshal.AllocHGlobal((IntPtr)nameLen);
IntPtr domainName = domainLen > 0 ? Marshal.AllocHGlobal((IntPtr)domainLen) : IntPtr.Zero;
try
{
// Get the object and domain names
if (!SecurityIdentity.LookupAccountSid(null, sidStruct, accountName, ref nameLen, domainName, ref domainLen, out nameUse))
{
throw new ExternalException("Unable to Find SID");
}
// Marshal and store the object name
secId.name = String.Format("{0}{1}{2}", domainLen > 1 ? Marshal.PtrToStringAnsi(domainName) : "", domainLen > 1 ? "\\" : "", Marshal.PtrToStringAnsi(accountName));
}
finally
{
if (accountName != IntPtr.Zero) Marshal.FreeHGlobal(accountName);
if (domainName != IntPtr.Zero) Marshal.FreeHGlobal(domainName);
}
}
finally
{
if (sidStruct != IntPtr.Zero) Util.LocalFree(sidStruct);
}
return secId;
}
/// <summary>
/// Table of SDDL SID abbreviations
/// </summary>
/// <remarks>The table indicies correspond to <see cref="WELL_KNOWN_SID_TYPE"/>s</remarks>
private static readonly string[] wellKnownSidAbbreviations = new string[] {
"",
"WD",
"",
"CO",
"CG",
"",
"",
"",
"",
"NU",
"",
"IU",
"SU",
"AN",
"",
"EC",
"PS",
"AU",
"RC",
"",
"",
"",
"SY",
"LS",
"NS",
"",
"BA",
"BU",
"BG",
"PU",
"AO",
"SO",
"PO",
"BO",
"RE",
"RU",
"RD",
"NO",
"LA",
"LG",
"",
"DA",
"DU",
"DG",
"DC",
"DD",
"CA",
"SA",
"EA",
"PA",
"RS",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
"",
""
};
/// <summary>
/// Gets the Well Known SID Type for an SDDL abbreviation
/// </summary>
/// <param name="abbreviation">The SDDL abbreviation</param>
/// <returns>The Well Known SID Type that corresponds to the abbreviation</returns>
public static WELL_KNOWN_SID_TYPE GetWellKnownSidTypeFromSddlAbbreviation(string abbreviation)
{
if (abbreviation == null)
{
throw new ArgumentNullException("abbreviation");
}
if (abbreviation == "")
{
throw new ArgumentException("Argument 'abbreviation' cannot be the empty string.", "abbreviation");
}
return (WELL_KNOWN_SID_TYPE)Array.IndexOf<string>(SecurityIdentity.wellKnownSidAbbreviations, abbreviation);
}
/// <summary>
/// Creates a Security Identity from an object name (e.g. DOMAIN\AccountName)
/// </summary>
/// <param name="name">A security object name (i.e. a Computer, Account, or Group)</param>
/// <returns>A populated Security Identity</returns>
public static SecurityIdentity SecurityIdentityFromName(string name)
{
if (name == null)
{
throw new ArgumentNullException("name");
}
if (name == "")
{
throw new ArgumentException("Argument 'name' cannot be the empty string.", "name");
}
LSA_OBJECT_ATTRIBUTES attribs = new LSA_OBJECT_ATTRIBUTES();
attribs.Attributes = 0;
attribs.ObjectName = IntPtr.Zero;
attribs.RootDirectory = IntPtr.Zero;
attribs.SecurityDescriptor = IntPtr.Zero;
attribs.SecurityQualityOfService = IntPtr.Zero;
attribs.Length = (uint)Marshal.SizeOf(attribs);
IntPtr handle;
int status = SecurityIdentity.LsaOpenPolicy(IntPtr.Zero, ref attribs, ACCESS_MASK.POLICY_LOOKUP_NAMES, out handle);
if(status != 0)
{
throw new ExternalException("Unable to Find Object: " + Util.GetErrorMessage(SecurityIdentity.LsaNtStatusToWinError(status)));
}
try
{
LSA_UNICODE_STRING nameString = new LSA_UNICODE_STRING();
nameString.Buffer = name;
nameString.Length = (ushort)(name.Length * UnicodeEncoding.CharSize);
nameString.MaxLength = (ushort)(name.Length * UnicodeEncoding.CharSize + UnicodeEncoding.CharSize);
IntPtr domains;
IntPtr sids;
status = SecurityIdentity.LsaLookupNames2(handle, 0, 1, new LSA_UNICODE_STRING[] { nameString }, out domains, out sids);
if(status != 0)
{
throw new ExternalException("Unable to Find Object: " + Util.GetErrorMessage(SecurityIdentity.LsaNtStatusToWinError(status)));
}
try
{
SecurityIdentity secId = new SecurityIdentity();
LSA_TRANSLATED_SID2 lsaSid = (LSA_TRANSLATED_SID2)Marshal.PtrToStructure(sids, typeof(LSA_TRANSLATED_SID2));
IntPtr sidStruct = lsaSid.Sid;
IntPtr sidString = IntPtr.Zero;
// Get the SID string
if (!SecurityIdentity.ConvertSidToStringSid(sidStruct, out sidString))
{
throw new ExternalException("Unable to Find Object: " + Util.GetErrorMessage(Util.GetLastError()));
}
try
{
// Marshal and store the SID string
secId.sid = Marshal.PtrToStringAnsi(sidString);
}
finally
{
if (sidString != IntPtr.Zero) Util.LocalFree(sidString);
}
// Check if the SID is a well known SID
secId.wellKnownSidType = (WELL_KNOWN_SID_TYPE)Array.IndexOf<string>(SecurityIdentity.wellKnownSids, secId.sid);
SID_NAME_USE nameUse;
uint nameLen = 0;
uint domainLen = 0;
// Get the lengths for the object and domain names
SecurityIdentity.LookupAccountSid(null, sidStruct, IntPtr.Zero, ref nameLen, IntPtr.Zero, ref domainLen, out nameUse);
if (nameLen == 0)
{
throw new ExternalException("Unable to Find SID: " + Util.GetErrorMessage(Util.GetLastError()));
}
IntPtr accountName = Marshal.AllocHGlobal((IntPtr)nameLen);
IntPtr domainName = domainLen > 0 ? Marshal.AllocHGlobal((IntPtr)domainLen) : IntPtr.Zero;
try
{
// Get the object and domain names
if (!SecurityIdentity.LookupAccountSid(null, sidStruct, accountName, ref nameLen, domainName, ref domainLen, out nameUse))
{
throw new ExternalException("Unable to Find SID: " + Util.GetErrorMessage(Util.GetLastError()));
}
// Marshal and store the object name
secId.name = String.Format("{0}{1}{2}", domainLen > 1 ? Marshal.PtrToStringAnsi(domainName) : "", domainLen > 1 ? "\\" : "", Marshal.PtrToStringAnsi(accountName));
return secId;
}
finally
{
if (accountName != IntPtr.Zero) Marshal.FreeHGlobal(accountName);
if (domainName != IntPtr.Zero) Marshal.FreeHGlobal(domainName);
}
}
finally
{
if (domains != IntPtr.Zero) SecurityIdentity.LsaFreeMemory(domains);
if (sids != IntPtr.Zero) SecurityIdentity.LsaFreeMemory(sids);
}
}
finally
{
if (handle != IntPtr.Zero) SecurityIdentity.LsaClose(handle);
}
}
/// <summary>
/// Creates a Security Identity for a well known SID (such as LOCAL SYSTEM)
/// </summary>
/// <param name="sidType">The type of well known SID</param>
/// <returns>A populated Security Identity</returns>
public static SecurityIdentity SecurityIdentityFromWellKnownSid(WELL_KNOWN_SID_TYPE sidType)
{
if (sidType == WELL_KNOWN_SID_TYPE.None)
{
throw new ExternalException("Unable to Get Well Known SID");
}
SecurityIdentity secId = new SecurityIdentity();
secId.wellKnownSidType = sidType;
// Get the size required for the SID
uint size = SecurityIdentity.GetSidLengthRequired(SecurityIdentity.SID_MAX_SUB_AUTHORITIES); ;
IntPtr sidStruct = Marshal.AllocHGlobal((IntPtr)size);
try
{
// Get the SID struct from the well known SID type
if (!SecurityIdentity.CreateWellKnownSid(sidType, IntPtr.Zero, sidStruct, ref size))
{
throw new ExternalException("Unable to Get Well Known SID");
}
IntPtr sidString = IntPtr.Zero;
// Convert the SID structure to a SID string
SecurityIdentity.ConvertSidToStringSid(sidStruct, out sidString);
try
{
// Marshal and store the SID string
secId.sid = Marshal.PtrToStringAnsi(sidString);
}
finally
{
if (sidString != IntPtr.Zero) Util.LocalFree(sidString);
}
uint nameLen = 0;
uint domainLen = 0;
SID_NAME_USE nameUse;
// Get the lengths of the object and domain names
SecurityIdentity.LookupAccountSid(null, sidStruct, IntPtr.Zero, ref nameLen, IntPtr.Zero, ref domainLen, out nameUse);
if (nameLen == 0)
{
throw new ExternalException("Unable to Find SID");
}
IntPtr accountName = Marshal.AllocHGlobal((IntPtr)nameLen);
IntPtr domainName = domainLen > 0 ? Marshal.AllocHGlobal((IntPtr)domainLen) : IntPtr.Zero;
try
{
// Get the object and domain names
if (!SecurityIdentity.LookupAccountSid(null, sidStruct, accountName, ref nameLen, domainName, ref domainLen, out nameUse))
{
throw new ExternalException("Unable to Find SID");
}
// Marshal and store the object name
secId.name = String.Format("{0}{1}{2}", domainLen > 1 ? Marshal.PtrToStringAnsi(domainName) : "", domainLen > 1 ? "\\" : "", Marshal.PtrToStringAnsi(accountName));
}
finally
{
if (accountName != IntPtr.Zero) Marshal.FreeHGlobal(accountName);
if (domainName != IntPtr.Zero) Marshal.FreeHGlobal(domainName);
}
}
finally
{
if (sidStruct != IntPtr.Zero) Marshal.FreeHGlobal(sidStruct);
}
return secId;
}
private const ushort SID_MAX_SUB_AUTHORITIES = 15;
/*
* BOOL ConvertStringSidToSid(
* LPCTSTR StringSid,
* PSID* Sid
* );
*/
[DllImport("Advapi32.dll", CharSet = CharSet.Unicode)]
private static extern bool ConvertStringSidToSid([MarshalAs(UnmanagedType.LPWStr)]string StringSid,
out IntPtr Sid);
/*
* BOOL ConvertSidToStringSid(
* PSID Sid,
* LPTSTR* StringSid
* );
*/
[DllImport("Advapi32.dll")]
private static extern bool ConvertSidToStringSid(IntPtr Sid, out IntPtr StringSid);
/*
* DWORD GetSidLengthRequired(
* UCHAR nSubAuthorityCount
* );
*/
[DllImport("Advapi32.dll")]
private static extern uint GetSidLengthRequired(ushort nSubAuthorityCount);
/*
* BOOL CreateWellKnownSid(
* WELL_KNOWN_SID_TYPE WellKnownSidType,
* PSID DomainSid,
* PSID pSid,
* DWORD* cbSid
* );
*/
[DllImport("Advapi32.dll")]
private static extern bool CreateWellKnownSid(WELL_KNOWN_SID_TYPE WellKnownSidType, IntPtr DomainSid, IntPtr pSid, ref uint cbSid);
/*
* NTSTATUS LsaOpenPolicy(
* PLSA_UNICODE_STRING SystemName,
* PLSA_OBJECT_ATTRIBUTES ObjectAttributes,
* ACCESS_MASK DesiredAccess,
* PLSA_HANDLE PolicyHandle
* );
*/
[DllImport("Advapi32.dll")]
private static extern int LsaOpenPolicy(IntPtr SystemName,
ref LSA_OBJECT_ATTRIBUTES ObjectAttributes,
ACCESS_MASK DesiredAccess,
out IntPtr PolicyHandle);
/*
* NTSTATUS LsaClose(
* LSA_HANDLE ObjectHandle
* );
*/
[DllImport("Advapi32.dll")]
private static extern int LsaClose(IntPtr ObjectHandle);
/*
* NTSTATUS LsaLookupNames2(
* LSA_HANDLE PolicyHandle,
* ULONG Flags,
* ULONG Count,
* PLSA_UNICODE_STRING Names,
* PLSA_REFERENCED_DOMAIN_LIST* ReferencedDomains,
* PLSA_TRANSLATED_SID2* Sids
* );
*/
[DllImport("Advapi32.dll")]
private static extern int LsaLookupNames2(IntPtr PolicyHandle,
uint Flags,
uint Count,
LSA_UNICODE_STRING[] Names,
out IntPtr ReferencedDomains,
out IntPtr Sids);
/*
* ULONG LsaNtStatusToWinError(
* NTSTATUS Status
* );
*/
[DllImport("Advapi32.dll")]
private static extern uint LsaNtStatusToWinError(int Status);
/*
* NTSTATUS LsaFreeMemory(
* PVOID Buffer
* );
*/
[DllImport("Advapi32.dll")]
private static extern int LsaFreeMemory(IntPtr Buffer);
/*
* BOOL LookupAccountSid(
* LPCTSTR lpSystemName,
* PSID lpSid,
* LPTSTR lpName,
* LPDWORD cchName,
* LPTSTR lpReferencedDomainName,
* LPDWORD cchReferencedDomainName,
* PSID_NAME_USE peUse
* );
*/
[DllImport("Advapi32.dll")]
private static extern bool LookupAccountSid([MarshalAs(UnmanagedType.LPTStr)]string lpSystemName,
IntPtr lpSid,
IntPtr lpName,
ref uint cchName,
IntPtr lpReferencedDomainName,
ref uint cchReferencedDomainName,
out SID_NAME_USE peUse);
}
/*
* typedef enum {
* WinNullSid = 0,
* WinWorldSid = 1,
* WinLocalSid = 2,
* WinCreatorOwnerSid = 3,
* WinCreatorGroupSid = 4,
* WinCreatorOwnerServerSid = 5,
* WinCreatorGroupServerSid = 6,
* WinNtAuthoritySid = 7,
* WinDialupSid = 8,
* WinNetworkSid = 9,
* WinBatchSid = 10,
* WinInteractiveSid = 11,
* WinServiceSid = 12,
* WinAnonymousSid = 13,
* WinProxySid = 14,
* WinEnterpriseControllersSid = 15,
* WinSelfSid = 16,
* WinAuthenticatedUserSid = 17,
* WinRestrictedCodeSid = 18,
* WinTerminalServerSid = 19,
* WinRemoteLogonIdSid = 20,
* WinLogonIdsSid = 21,
* WinLocalSystemSid = 22,
* WinLocalServiceSid = 23,
* WinNetworkServiceSid = 24,
* WinBuiltinDomainSid = 25,
* WinBuiltinAdministratorsSid = 26,
* WinBuiltinUsersSid = 27,
* WinBuiltinGuestsSid = 28,
* WinBuiltinPowerUsersSid = 29,
* WinBuiltinAccountOperatorsSid = 30,
* WinBuiltinSystemOperatorsSid = 31,
* WinBuiltinPrintOperatorsSid = 32,
* WinBuiltinBackupOperatorsSid = 33,
* WinBuiltinReplicatorSid = 34,
* WinBuiltinPreWindows2000CompatibleAccessSid = 35,
* WinBuiltinRemoteDesktopUsersSid = 36,
* WinBuiltinNetworkConfigurationOperatorsSid = 37,
* WinAccountAdministratorSid = 38,
* WinAccountGuestSid = 39,
* WinAccountKrbtgtSid = 40,
* WinAccountDomainAdminsSid = 41,
* WinAccountDomainUsersSid = 42,
* WinAccountDomainGuestsSid = 43,
* WinAccountComputersSid = 44,
* WinAccountControllersSid = 45,
* WinAccountCertAdminsSid = 46,
* WinAccountSchemaAdminsSid = 47,
* WinAccountEnterpriseAdminsSid = 48,
* WinAccountPolicyAdminsSid = 49,
* WinAccountRasAndIasServersSid = 50,
* WinNTLMAuthenticationSid = 51,
* WinDigestAuthenticationSid = 52,
* WinSChannelAuthenticationSid = 53,
* WinThisOrganizationSid = 54,
* WinOtherOrganizationSid = 55,
* WinBuiltinIncomingForestTrustBuildersSid = 56,
* WinBuiltinPerfMonitoringUsersSid = 57,
* WinBuiltinPerfLoggingUsersSid = 58,
* WinBuiltinAuthorizationAccessSid = 59,
* WinBuiltinTerminalServerLicenseServersSid = 60,
* WinBuiltinDCOMUsersSid = 61,
* WinBuiltinIUsersSid = 62,
* WinIUserSid = 63,
* WinBuiltinCryptoOperatorsSid = 64,
* WinUntrustedLabelSid = 65,
* WinLowLabelSid = 66,
* WinMediumLabelSid = 67,
* WinHighLabelSid = 68,
* WinSystemLabelSid = 69,
* WinWriteRestrictedCodeSid = 70,
* WinCreatorOwnerRightsSid = 71,
* WinCacheablePrincipalsGroupSid = 72,
* WinNonCacheablePrincipalsGroupSid = 73,
* WinEnterpriseReadonlyControllersSid = 74,
* WinAccountReadonlyControllersSid = 75,
* WinBuiltinEventLogReadersGroup = 76,
* } WELL_KNOWN_SID_TYPE;
*/
public enum WELL_KNOWN_SID_TYPE
{
None = -1,
WinNullSid = 0,
WinWorldSid = 1,
WinLocalSid = 2,
WinCreatorOwnerSid = 3,
WinCreatorGroupSid = 4,
WinCreatorOwnerServerSid = 5,
WinCreatorGroupServerSid = 6,
WinNtAuthoritySid = 7,
WinDialupSid = 8,
WinNetworkSid = 9,
WinBatchSid = 10,
WinInteractiveSid = 11,
WinServiceSid = 12,
WinAnonymousSid = 13,
WinProxySid = 14,
WinEnterpriseControllersSid = 15,
WinSelfSid = 16,
WinAuthenticatedUserSid = 17,
WinRestrictedCodeSid = 18,
WinTerminalServerSid = 19,
WinRemoteLogonIdSid = 20,
WinLogonIdsSid = 21,
WinLocalSystemSid = 22,
WinLocalServiceSid = 23,
WinNetworkServiceSid = 24,
WinBuiltinDomainSid = 25,
WinBuiltinAdministratorsSid = 26,
WinBuiltinUsersSid = 27,
WinBuiltinGuestsSid = 28,
WinBuiltinPowerUsersSid = 29,
WinBuiltinAccountOperatorsSid = 30,
WinBuiltinSystemOperatorsSid = 31,
WinBuiltinPrintOperatorsSid = 32,
WinBuiltinBackupOperatorsSid = 33,
WinBuiltinReplicatorSid = 34,
WinBuiltinPreWindows2000CompatibleAccessSid = 35,
WinBuiltinRemoteDesktopUsersSid = 36,
WinBuiltinNetworkConfigurationOperatorsSid = 37,
WinAccountAdministratorSid = 38,
WinAccountGuestSid = 39,
WinAccountKrbtgtSid = 40,
WinAccountDomainAdminsSid = 41,
WinAccountDomainUsersSid = 42,
WinAccountDomainGuestsSid = 43,
WinAccountComputersSid = 44,
WinAccountControllersSid = 45,
WinAccountCertAdminsSid = 46,
WinAccountSchemaAdminsSid = 47,
WinAccountEnterpriseAdminsSid = 48,
WinAccountPolicyAdminsSid = 49,
WinAccountRasAndIasServersSid = 50,
WinNTLMAuthenticationSid = 51,
WinDigestAuthenticationSid = 52,
WinSChannelAuthenticationSid = 53,
WinThisOrganizationSid = 54,
WinOtherOrganizationSid = 55,
WinBuiltinIncomingForestTrustBuildersSid = 56,
WinBuiltinPerfMonitoringUsersSid = 57,
WinBuiltinPerfLoggingUsersSid = 58,
WinBuiltinAuthorizationAccessSid = 59,
WinBuiltinTerminalServerLicenseServersSid = 60,
WinBuiltinDCOMUsersSid = 61,
WinBuiltinIUsersSid = 62,
WinIUserSid = 63,
WinBuiltinCryptoOperatorsSid = 64,
WinUntrustedLabelSid = 65,
WinLowLabelSid = 66,
WinMediumLabelSid = 67,
WinHighLabelSid = 68,
WinSystemLabelSid = 69,
WinWriteRestrictedCodeSid = 70,
WinCreatorOwnerRightsSid = 71,
WinCacheablePrincipalsGroupSid = 72,
WinNonCacheablePrincipalsGroupSid = 73,
WinEnterpriseReadonlyControllersSid = 74,
WinAccountReadonlyControllersSid = 75,
WinBuiltinEventLogReadersGroup = 76
}
/*
* typedef enum _SID_NAME_USE
* {
* SidTypeUser = 1,
* SidTypeGroup,
* SidTypeDomain,
* SidTypeAlias,
* SidTypeWellKnownGroup,
* SidTypeDeletedAccount,
* SidTypeInvalid,
* SidTypeUnknown,
* SidTypeComputer
* } SID_NAME_USE, *PSID_NAME_USE;
*/
internal enum SID_NAME_USE
{
SidTypeUser = 1,
SidTypeGroup,
SidTypeDomain,
SidTypeAlias,
SidTypeWellKnownGroup,
SidTypeDeletedAccount,
SidTypeInvalid,
SidTypeUnknown,
SidTypeComputer
}
/*
* typedef struct _LSA_UNICODE_STRING {
* USHORT Length;
* USHORT MaximumLength;
* PWSTR Buffer;
* } LSA_UNICODE_STRING, *PLSA_UNICODE_STRING;
*/
[StructLayout(LayoutKind.Sequential, CharSet=CharSet.Unicode)]
internal struct LSA_UNICODE_STRING
{
public ushort Length;
public ushort MaxLength;
[MarshalAs(UnmanagedType.LPWStr)]
public string Buffer;
}
/*
* typedef struct _LSA_REFERENCED_DOMAIN_LIST {
* ULONG Entries;
* PLSA_TRUST_INFORMATION Domains;
* } LSA_REFERENCED_DOMAIN_LIST, *PLSA_REFERENCED_DOMAIN_LIST;
*/
[StructLayout(LayoutKind.Sequential)]
internal struct LSA_REFERENCED_DOMAIN_LIST
{
public uint Entries;
public IntPtr Domains;
}
/*
* typedef struct _LSA_TRUST_INFORMATION {
* LSA_UNICODE_STRING Name;
* PSID Sid;
* } LSA_TRUST_INFORMATION, *PLSA_TRUST_INFORMATION;
*/
[StructLayout(LayoutKind.Sequential)]
internal struct LSA_TRUST_INFORMATION
{
public LSA_UNICODE_STRING Name;
public IntPtr Sid;
}
/*
* typedef struct _LSA_TRANSLATED_SID2 {
* SID_NAME_USE Use;
* PSID Sid;
* LONG DomainIndex;
* ULONG Flags;
* } LSA_TRANSLATED_SID2, *PLSA_TRANSLATED_SID2;
*/
[StructLayout(LayoutKind.Sequential)]
internal struct LSA_TRANSLATED_SID2
{
public SID_NAME_USE Use;
public IntPtr Sid;
public int DomainIndex;
public uint Flags;
}
/*
* typedef struct _LSA_OBJECT_ATTRIBUTES {
* ULONG Length;
* HANDLE RootDirectory;
* PLSA_UNICODE_STRING ObjectName;
* ULONG Attributes;
* PVOID SecurityDescriptor;
* PVOID SecurityQualityOfService;
* } LSA_OBJECT_ATTRIBUTES, *PLSA_OBJECT_ATTRIBUTES;
*/
[StructLayout(LayoutKind.Sequential)]
internal struct LSA_OBJECT_ATTRIBUTES
{
public uint Length;
public IntPtr RootDirectory;
public IntPtr ObjectName;
public uint Attributes;
public IntPtr SecurityDescriptor;
public IntPtr SecurityQualityOfService;
}
[Flags]
internal enum ACCESS_MASK
{
POLICY_VIEW_LOCAL_INFORMATION = 0x0001,
POLICY_VIEW_AUDIT_INFORMATION = 0x0002,
POLICY_GET_PRIVATE_INFORMATION = 0x0004,
POLICY_TRUST_ADMIN = 0x0008,
POLICY_CREATE_ACCOUNT = 0x0010,
POLICY_CREATE_SECRET = 0x0020,
POLICY_CREATE_PRIVILEGE = 0x0040,
POLICY_SET_DEFAULT_QUOTA_LIMITS = 0x0080,
POLICY_SET_AUDIT_REQUIREMENTS = 0x0100,
POLICY_AUDIT_LOG_ADMIN = 0x0200,
POLICY_SERVER_ADMIN = 0x0400,
POLICY_LOOKUP_NAMES = 0x0800
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerLib/AccessControl/SecurityIdentity.cs | C# | gpl2 | 38,072 |
using System;
using System.Collections.Generic;
using System.Text;
using System.Runtime.InteropServices;
namespace HttpNamespaceManager.Lib.AccessControl
{
internal static class Util
{
internal static string GetErrorMessage(UInt32 errorCode)
{
UInt32 FORMAT_MESSAGE_ALLOCATE_BUFFER = 0x00000100;
UInt32 FORMAT_MESSAGE_IGNORE_INSERTS = 0x00000200;
UInt32 FORMAT_MESSAGE_FROM_SYSTEM = 0x00001000;
UInt32 dwFlags = FORMAT_MESSAGE_ALLOCATE_BUFFER | FORMAT_MESSAGE_FROM_SYSTEM | FORMAT_MESSAGE_IGNORE_INSERTS;
IntPtr source = new IntPtr();
string msgBuffer = "";
UInt32 retVal = FormatMessage(dwFlags, source, errorCode, 0, ref msgBuffer, 512, null);
return msgBuffer.ToString();
}
[DllImport("kernel32.dll", CharSet = CharSet.Auto)]
private static extern UInt32 FormatMessage(UInt32 dwFlags, IntPtr lpSource, UInt32 dwMessageId, UInt32 dwLanguageId, [MarshalAs(UnmanagedType.LPTStr)] ref string lpBuffer, int nSize, IntPtr[] Arguments);
/*
* DWORD GetLastError(void);
*/
[DllImport("kernel32.dll")]
internal static extern uint GetLastError();
/*
* HLOCAL LocalAlloc(
* UINT uFlags,
* SIZE_T uBytes
* );
*/
[DllImport("Kernel32.dll")]
internal static extern IntPtr LocalAlloc(LocalAllocFlags uFlags, uint uBytes);
/*
* HLOCAL LocalFree(
* HLOCAL hMem
* );
*/
[DllImport("Kernel32.dll")]
internal static extern IntPtr LocalFree(IntPtr hMem);
}
[Flags]
internal enum LocalAllocFlags
{
Fixed = 0x00,
Moveable = 0x20,
ZeroInit = 0x40
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerLib/AccessControl/Util.cs | C# | gpl2 | 1,872 |
using System;
using System.Collections.Generic;
using System.Text;
using System.Text.RegularExpressions;
namespace HttpNamespaceManager.Lib.AccessControl
{
/// <summary>
/// Access Control List
/// </summary>
public class AccessControlList : IList<AccessControlEntry>
{
private AclFlags flags = AclFlags.None;
private List<AccessControlEntry> aceList;
/// <summary>
/// Gets or Sets the Access Control List flags
/// </summary>
public AclFlags Flags
{
get { return this.flags; }
set { this.flags = value; }
}
/// <summary>
/// Creates a Blank Access Control List
/// </summary>
public AccessControlList()
{
this.aceList = new List<AccessControlEntry>();
}
/// <summary>
/// Creates a deep copy of an exusting Access Control List
/// </summary>
/// <param name="original"></param>
public AccessControlList(AccessControlList original)
{
this.aceList = new List<AccessControlEntry>();
this.flags = original.flags;
foreach (AccessControlEntry ace in original)
{
this.Add(new AccessControlEntry(ace));
}
}
/// <summary>
/// Renders the Access Control List and an SDDL ACL string.
/// </summary>
/// <returns>An SDDL ACL string</returns>
public override string ToString()
{
StringBuilder sb = new StringBuilder();
if ((this.flags & AclFlags.Protected) == AclFlags.Protected) sb.Append('P');
if ((this.flags & AclFlags.MustInherit) == AclFlags.MustInherit) sb.Append("AR");
if ((this.flags & AclFlags.Inherited) == AclFlags.Inherited) sb.Append("AI");
foreach(AccessControlEntry ace in this.aceList)
{
sb.AppendFormat("({0})", ace.ToString());
}
return sb.ToString();
}
private const string aclExpr = @"^(?'flags'[A-Z]+)?(?'ace_list'(\([^\)]+\))+)$";
private const string aceListExpr = @"\((?'ace'[^\)]+)\)";
/// <summary>
/// Creates an Access Control List from the DACL or SACL portion of an SDDL string
/// </summary>
/// <param name="aclString">The ACL String</param>
/// <returns>A populated Access Control List</returns>
public static AccessControlList AccessControlListFromString(string aclString)
{
Regex aclRegex = new Regex(AccessControlList.aclExpr, RegexOptions.IgnoreCase);
Match aclMatch = aclRegex.Match(aclString);
if (!aclMatch.Success) throw new FormatException("Invalid ACL String Format");
AccessControlList acl = new AccessControlList();
if(aclMatch.Groups["flags"] != null && aclMatch.Groups["flags"].Success && !String.IsNullOrEmpty(aclMatch.Groups["flags"].Value))
{
string flagString = aclMatch.Groups["flags"].Value.ToUpper();
for (int i = 0; i < flagString.Length; i++)
{
if (flagString[i] == 'P')
{
acl.flags = acl.flags | AclFlags.Protected;
}
else if(flagString.Length - i >= 2)
{
switch(flagString.Substring(i, 2))
{
case "AR":
acl.flags = acl.flags | AclFlags.MustInherit;
i++;
break;
case "AI":
acl.flags = acl.flags | AclFlags.Inherited;
i++;
break;
default:
throw new FormatException("Invalid ACL String Format");
}
}
else throw new FormatException("Invalid ACL String Format");
}
}
if (aclMatch.Groups["ace_list"] != null && aclMatch.Groups["ace_list"].Success && !String.IsNullOrEmpty(aclMatch.Groups["ace_list"].Value))
{
Regex aceListRegex = new Regex(AccessControlList.aceListExpr);
foreach (Match aceMatch in aceListRegex.Matches(aclMatch.Groups["ace_list"].Value))
{
acl.Add(AccessControlEntry.AccessControlEntryFromString(aceMatch.Groups["ace"].Value));
}
}
return acl;
}
/// <summary>
/// Gets the Index of an <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" />
/// </summary>
/// <param name="item">The <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /></param>
/// <returns>The index of the <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" />, or -1 if the Access Control Entry is not found</returns>
public int IndexOf(AccessControlEntry item)
{
return this.aceList.IndexOf(item);
}
/// <summary>
/// Inserts an <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> into the Access Control List
/// </summary>
/// <param name="index">The insertion position</param>
/// <param name="item">The <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> to insert</param>
public void Insert(int index, AccessControlEntry item)
{
this.aceList.Insert(index, item);
}
/// <summary>
/// Removes the <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> at the specified position
/// </summary>
/// <param name="index">The position to remove</param>
public void RemoveAt(int index)
{
this.aceList.RemoveAt(index);
}
/// <summary>
/// Gets or Sets an <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> by index
/// </summary>
/// <param name="index"></param>
/// <returns></returns>
public AccessControlEntry this[int index]
{
get
{
return this.aceList[index];
}
set
{
this.aceList[index] = value;
}
}
/// <summary>
/// Adds a <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> to the Access Control List
/// </summary>
/// <param name="item">The <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> to add</param>
public void Add(AccessControlEntry item)
{
this.aceList.Add(item);
}
/// <summary>
/// Clears all <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> items from the Access Control List
/// </summary>
public void Clear()
{
this.aceList.Clear();
}
/// <summary>
/// Checks if an <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> exists in the Access Control List
/// </summary>
/// <param name="item">The <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /></param>
/// <returns>true if the <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> exists, otherwise false</returns>
public bool Contains(AccessControlEntry item)
{
return this.aceList.Contains(item);
}
/// <summary>
/// Copies all <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> items from the Access Control List to an Array
/// </summary>
/// <param name="array">The array to copy to</param>
/// <param name="arrayIndex">The index of the array at which to begin copying</param>
public void CopyTo(AccessControlEntry[] array, int arrayIndex)
{
this.aceList.CopyTo(array, arrayIndex);
}
/// <summary>
/// Gets the number of <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> items in the Access Control List
/// </summary>
public int Count
{
get { return this.aceList.Count; }
}
/// <summary>
/// Returns false
/// </summary>
public bool IsReadOnly
{
get { return false; }
}
/// <summary>
/// Removes an <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> from the Access Control List
/// </summary>
/// <param name="item">The <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> to remove</param>
/// <returns>true if the <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> was found and removed, otherwise false</returns>
public bool Remove(AccessControlEntry item)
{
return this.aceList.Remove(item);
}
/// <summary>
/// Gets an Enumerator over all <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> items in the Access Control List
/// </summary>
/// <returns>An Enumerator over all <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> items</returns>
public IEnumerator<AccessControlEntry> GetEnumerator()
{
return this.aceList.GetEnumerator();
}
/// <summary>
/// Gets an Enumerator over all <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> items in the Access Control List
/// </summary>
/// <returns>An Enumerator over all <see cref="HttpNamespaceManager.Lib.AccessControl.AccessControlEntry" /> items</returns>
System.Collections.IEnumerator System.Collections.IEnumerable.GetEnumerator()
{
return ((System.Collections.IEnumerable)this.aceList).GetEnumerator();
}
}
/// <summary>
/// Access Control List Flags
/// </summary>
[Flags]
public enum AclFlags
{
None = 0x00,
Protected = 0x01,
MustInherit = 0x02,
Inherited = 0x04
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerLib/AccessControl/AccessControlList.cs | C# | gpl2 | 10,717 |
using System;
using System.Collections.Generic;
using System.Text;
using System.Text.RegularExpressions;
namespace HttpNamespaceManager.Lib.AccessControl
{
public class AccessControlEntry : ICollection<AceRights>
{
private AceType aceType = AceType.AccessAllowed;
private AceFlags flags = AceFlags.None;
private AceRights rights = AceRights.None;
private Guid objectGuid = Guid.Empty;
private Guid inheritObjectGuid = Guid.Empty;
private SecurityIdentity accountSID;
/// <summary>
/// Gets or Sets the Access Control Entry Type
/// </summary>
public AceType AceType
{
get { return this.aceType; }
set { this.aceType = value; }
}
/// <summary>
/// Gets or Sets the Access Control Entry Flags
/// </summary>
public AceFlags Flags
{
get { return this.flags; }
set { this.flags = value; }
}
/// <summary>
/// Gets or Sets the Access Control Entry Rights
/// </summary>
/// <remarks>This is a binary flag value, and can be more easily
/// accessed via the Access Control Entry collection methods.</remarks>
public AceRights Rights
{
get { return this.rights; }
set { this.rights = value; }
}
/// <summary>
/// Gets or Sets the Object Guid
/// </summary>
public Guid ObjectGuid
{
get { return this.objectGuid; }
set { this.objectGuid = value; }
}
/// <summary>
/// Gets or Sets the Inherit Object Guid
/// </summary>
public Guid InheritObjectGuid
{
get { return this.inheritObjectGuid; }
set { this.inheritObjectGuid = value; }
}
/// <summary>
/// Gets or Sets the Account SID
/// </summary>
public SecurityIdentity AccountSID
{
get { return this.accountSID; }
set { this.accountSID = value; }
}
private AccessControlEntry()
{
// Do Nothing
}
public AccessControlEntry(SecurityIdentity account)
{
this.accountSID = account;
}
public AccessControlEntry(AccessControlEntry original)
{
this.accountSID = original.accountSID;
this.aceType = original.aceType;
this.flags = original.flags;
this.inheritObjectGuid = original.inheritObjectGuid;
this.objectGuid = original.objectGuid;
this.rights = original.rights;
}
/// <summary>
/// Renders the Access Control Entry as an SDDL ACE string
/// </summary>
/// <returns>An SDDL ACE string.</returns>
public override string ToString()
{
StringBuilder sb = new StringBuilder();
sb.AppendFormat("{0};", AccessControlEntry.aceTypeStrings[(int)this.aceType]);
for (int flag = 0x01; flag <= (int)AceFlags.AuditFailure; flag = flag << 1)
{
if ((flag & (int)this.flags) == flag) sb.Append(AccessControlEntry.aceFlagStrings[(int)Math.Log(flag, 2.0d)]);
}
sb.Append(';');
foreach (AceRights right in this)
{
sb.Append(AccessControlEntry.rightsStrings[(int)Math.Log((int)right, 2.0d)]);
}
sb.Append(';');
sb.AppendFormat("{0};", this.objectGuid != Guid.Empty ? this.objectGuid.ToString() : "");
sb.AppendFormat("{0};", this.inheritObjectGuid != Guid.Empty ? this.inheritObjectGuid.ToString() : "");
if (this.accountSID != null) sb.Append(this.accountSID.ToString());
return sb.ToString();
}
private static readonly string [] aceTypeStrings = new string [] { "A", "D", "OA", "OD", "AU", "AL", "OU", "OL" };
private static readonly string [] aceFlagStrings = new string [] { "CI", "OI", "NP", "IO", "ID", "SA", "FA" };
private static readonly string [] rightsStrings = new string [] {
"GA",
"GR",
"GW",
"GX",
"RC",
"SD",
"WD",
"WO",
"RP",
"WP",
"CC",
"DC",
"LC",
"SW",
"LO",
"DT",
"CR",
"FA",
"FR",
"FW",
"FX",
"KA",
"KR",
"KW",
"KX"
};
private const string aceExpr = @"^(?'ace_type'[A-Z]+)?;(?'ace_flags'([A-Z]{2})+)?;(?'rights'([A-Z]{2})+|0x[0-9A-Fa-f]+)?;(?'object_guid'[0-9A-Fa-f\-]+)?;(?'inherit_object_guid'[0-9A-Fa-f\-]+)?;(?'account_sid'[A-Z]+?|S(-[0-9]+)+)?$";
public static AccessControlEntry AccessControlEntryFromString(string aceString)
{
Regex aceRegex = new Regex(aceExpr, RegexOptions.IgnoreCase);
Match aceMatch = aceRegex.Match(aceString);
if (!aceMatch.Success) throw new FormatException("Invalid ACE String Format");
AccessControlEntry ace = new AccessControlEntry();
if (aceMatch.Groups["ace_type"] != null && aceMatch.Groups["ace_type"].Success && !String.IsNullOrEmpty(aceMatch.Groups["ace_type"].Value))
{
int aceTypeValue = Array.IndexOf<string>(AccessControlEntry.aceTypeStrings, aceMatch.Groups["ace_type"].Value.ToUpper());
if (aceTypeValue == -1) throw new FormatException("Invalid ACE String Format");
ace.aceType = (AceType)aceTypeValue;
}
else throw new FormatException("Invalid ACE String Format");
if (aceMatch.Groups["ace_flags"] != null && aceMatch.Groups["ace_flags"].Success && !String.IsNullOrEmpty(aceMatch.Groups["ace_flags"].Value))
{
string aceFlagsValue = aceMatch.Groups["ace_flags"].Value.ToUpper();
for (int i = 0; i < aceFlagsValue.Length - 1; i += 2)
{
int flagValue = Array.IndexOf<string>(AccessControlEntry.aceFlagStrings, aceFlagsValue.Substring(i, 2));
if (flagValue == -1) throw new FormatException("Invalid ACE String Format");
ace.flags = ace.flags | ((AceFlags)(int)Math.Pow(2.0d, flagValue));
}
}
if (aceMatch.Groups["rights"] != null && aceMatch.Groups["rights"].Success && !String.IsNullOrEmpty(aceMatch.Groups["rights"].Value))
{
string rightsValue = aceMatch.Groups["rights"].Value.ToUpper();
for (int i = 0; i < rightsValue.Length - 1; i += 2)
{
int rightValue = Array.IndexOf<string>(AccessControlEntry.rightsStrings, rightsValue.Substring(i, 2));
if (rightValue == -1) throw new FormatException("Invalid ACE String Format");
ace.Add((AceRights)(int)Math.Pow(2.0d, rightValue));
}
}
if (aceMatch.Groups["object_guid"] != null && aceMatch.Groups["object_guid"].Success && !String.IsNullOrEmpty(aceMatch.Groups["object_guid"].Value))
{
ace.objectGuid = new Guid(aceMatch.Groups["object_guid"].Value);
}
if (aceMatch.Groups["inherit_object_guid"] != null && aceMatch.Groups["inherit_object_guid"].Success && !String.IsNullOrEmpty(aceMatch.Groups["inherit_object_guid"].Value))
{
ace.inheritObjectGuid = new Guid(aceMatch.Groups["inherit_object_guid"].Value);
}
if (aceMatch.Groups["account_sid"] != null && aceMatch.Groups["account_sid"].Success && !String.IsNullOrEmpty(aceMatch.Groups["account_sid"].Value))
{
ace.accountSID = SecurityIdentity.SecurityIdentityFromString(aceMatch.Groups["account_sid"].Value.ToUpper());
}
else throw new FormatException("Invalid ACE String Format");
return ace;
}
#region Rights Collection Members
public void Add(AceRights item)
{
this.rights = rights | item;
}
public void Clear()
{
this.rights = AceRights.None;
}
public bool Contains(AceRights item)
{
return item == (item & this.rights);
}
public void CopyTo(AceRights[] array, int arrayIndex)
{
foreach (AceRights right in this)
{
array[arrayIndex++] = right;
}
}
public int Count
{
get
{
int count = 0;
for (int col = (int)this.rights; col != 0; col = col >> 1) count += ((col & 1) == 1) ? 1 : 0;
return count;
}
}
public bool IsReadOnly
{
get { return false; }
}
public bool Remove(AceRights item)
{
if (this.Contains(item))
{
this.rights = this.rights & ~item;
return true;
}
else return false;
}
public IEnumerator<AceRights> GetEnumerator()
{
int current = (int)AceRights.GenericAll;
for (int col = (int)this.rights; col != 0; col = col >> 1, current = current << 1)
{
while (col != 0 && (col & 1) != 1)
{
col = col >> 1;
current = current << 1;
}
if ((col & 1) == 1)
{
yield return (AceRights)current;
}
}
}
System.Collections.IEnumerator System.Collections.IEnumerable.GetEnumerator()
{
return (System.Collections.IEnumerator)this.GetEnumerator();
}
#endregion
}
public enum AceType
{
AccessAllowed = 0,
AccessDenied,
ObjectAccessAllowed,
ObjectAccessDenied,
Audit,
Alarm,
ObjectAudit,
ObjectAlarm
}
[Flags]
public enum AceFlags
{
None = 0x0000,
ContainerInherit = 0x0001,
ObjectInherit = 0x0002,
NoPropogate = 0x0004,
InheritOnly = 0x0008,
Inherited = 0x0010,
AuditSuccess = 0x0020,
AuditFailure = 0x0040
}
[Flags]
public enum AceRights
{
None = 0x00000000,
GenericAll = 0x00000001,
GenericRead = 0x00000002,
GenericWrite = 0x00000004,
GenericExecute = 0x00000008,
StandardReadControl = 0x00000010,
StandardDelete = 0x00000020,
StandardWriteDAC = 0x00000040,
StandardWriteOwner = 0x00000080,
DirectoryReadProperty = 0x00000100,
DirectoryWriteProperty = 0x00000200,
DirectoryCreateChild = 0x00000400,
DirectoryDeleteChild = 0x00000800,
DirectoryListChildren = 0x00001000,
DirectorySelfWrite = 0x00002000,
DirectoryListObject = 0x00004000,
DirectoryDeleteTree = 0x00008000,
DirectoryControlAccess = 0x00010000,
FileAll = 0x00020000,
FileRead = 0x00040000,
FileWrite = 0x00080000,
FileExecute = 0x00100000,
KeyAll = 0x00200000,
KeyRead = 0x00400000,
KeyWrite = 0x00800000,
KeyExecute = 0x01000000
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerLib/AccessControl/AccessControlEntry.cs | C# | gpl2 | 11,921 |
using System;
using System.Collections.Generic;
using System.Text;
using System.Text.RegularExpressions;
namespace HttpNamespaceManager.Lib.AccessControl
{
/// <summary>
/// Security Descriptor
/// </summary>
/// <remarks>The Security Descriptor is the top level of the Access
/// Control API. It represents all the Access Control data that is
/// associated with the secured object.</remarks>
public class SecurityDescriptor
{
private SecurityIdentity ownerSid = null;
private SecurityIdentity groupSid = null;
private AccessControlList dacl = null;
private AccessControlList sacl = null;
/// <summary>
/// Gets or Sets the Owner
/// </summary>
public SecurityIdentity Owner
{
get { return this.ownerSid; }
set { this.ownerSid = value; }
}
/// <summary>
/// Gets or Sets the Group
/// </summary>
/// <remarks>Security Descriptor Groups are present for Posix compatibility reasons and are usually ignored.</remarks>
public SecurityIdentity Group
{
get { return this.groupSid; }
set { this.groupSid = value; }
}
/// <summary>
/// Gets or Sets the DACL
/// </summary>
/// <remarks>The DACL (Discretionary Access Control List) is the
/// Access Control List that grants or denies various types of access
/// for different users and groups.</remarks>
public AccessControlList DACL
{
get { return this.dacl; }
set { this.dacl = value; }
}
/// <summary>
/// Gets or Sets the SACL
/// </summary>
/// <remarks>The SACL (System Access Control List) is the Access
/// Control List that specifies what actions should be auditted</remarks>
public AccessControlList SACL
{
get { return this.sacl; }
set { this.sacl = value; }
}
/// <summary>
/// Private constructor for creating a Security Descriptor from an SDDL string
/// </summary>
public SecurityDescriptor()
{
// Do Nothing
}
/// <summary>
/// Renders the Security Descriptor as an SDDL string
/// </summary>
/// <remarks>For more info on SDDL see <a href="http://msdn.microsoft.com/library/en-us/secauthz/security/security_descriptor_string_format.asp">MSDN: Security Descriptor String Format.</a></remarks>
/// <returns>An SDDL string</returns>
public override string ToString()
{
StringBuilder sb = new StringBuilder();
if (this.ownerSid != null)
{
sb.AppendFormat("O:{0}", this.ownerSid.ToString());
}
if (this.groupSid != null)
{
sb.AppendFormat("G:{0}", this.groupSid.ToString());
}
if (this.dacl != null)
{
sb.AppendFormat("D:{0}", this.dacl.ToString());
}
if (this.sacl != null)
{
sb.AppendFormat("S:{0}", this.sacl.ToString());
}
return sb.ToString();
}
/// <summary>
/// Regular Expression used to parse SDDL strings
/// </summary>
private const string sddlExpr = @"^(O:(?'owner'[A-Z]+?|S(-[0-9]+)+)?)?(G:(?'group'[A-Z]+?|S(-[0-9]+)+)?)?(D:(?'dacl'[A-Z]*(\([^\)]*\))*))?(S:(?'sacl'[A-Z]*(\([^\)]*\))*))?$";
/// <summary>
/// Creates a Security Descriptor from an SDDL string
/// </summary>
/// <param name="sddl">The SDDL string that represents the Security Descriptor</param>
/// <returns>The Security Descriptor represented by the SDDL string</returns>
/// <exception cref="System.FormatException" />
public static SecurityDescriptor SecurityDescriptorFromString(string sddl)
{
Regex sddlRegex = new Regex(SecurityDescriptor.sddlExpr, RegexOptions.IgnoreCase);
Match m = sddlRegex.Match(sddl);
if (!m.Success) throw new FormatException("Invalid SDDL String Format");
SecurityDescriptor sd = new SecurityDescriptor();
if (m.Groups["owner"] != null && m.Groups["owner"].Success && !String.IsNullOrEmpty(m.Groups["owner"].Value))
{
sd.Owner = SecurityIdentity.SecurityIdentityFromString(m.Groups["owner"].Value);
}
if (m.Groups["group"] != null && m.Groups["group"].Success && !String.IsNullOrEmpty(m.Groups["group"].Value))
{
sd.Group = SecurityIdentity.SecurityIdentityFromString(m.Groups["group"].Value);
}
if (m.Groups["dacl"] != null && m.Groups["dacl"].Success && !String.IsNullOrEmpty(m.Groups["dacl"].Value))
{
sd.DACL = AccessControlList.AccessControlListFromString(m.Groups["dacl"].Value);
}
if (m.Groups["sacl"] != null && m.Groups["sacl"].Success && !String.IsNullOrEmpty(m.Groups["sacl"].Value))
{
sd.SACL = AccessControlList.AccessControlListFromString(m.Groups["sacl"].Value);
}
return sd;
}
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerLib/AccessControl/SecurityDescriptor.cs | C# | gpl2 | 5,469 |
// This work is licensed under the Creative Commons Attribution 3.0 License.
// To view a copy of this license, visit http://creativecommons.org/licenses/by/3.0/ or send a letter to:
// Creative Commons
// 171 Second Street, Suite 300
// San Francisco, California, 94105, USA.
using System.Reflection;
using System.Runtime.CompilerServices;
using System.Runtime.InteropServices;
// General Information about an assembly is controlled through the following
// set of attributes. Change these attribute values to modify the information
// associated with an assembly.
[assembly: AssemblyTitle("HttpNamespaceManagerLib")]
[assembly: AssemblyDescription("")]
[assembly: AssemblyConfiguration("")]
[assembly: AssemblyCompany("Paul Wheeler")]
[assembly: AssemblyProduct("HttpNamespaceManagerLib")]
[assembly: AssemblyCopyright("Copyright © Paul Wheeler 2007")]
[assembly: AssemblyTrademark("")]
[assembly: AssemblyCulture("")]
// Setting ComVisible to false makes the types in this assembly not visible
// to COM components. If you need to access a type in this assembly from
// COM, set the ComVisible attribute to true on that type.
[assembly: ComVisible(false)]
// The following GUID is for the ID of the typelib if this project is exposed to COM
[assembly: Guid("4f36ab5d-e602-48c8-87c4-767673de2dde")]
// Version information for an assembly consists of the following four values:
//
// Major Version
// Minor Version
// Build Number
// Revision
//
// You can specify all the values or you can default the Revision and Build Numbers
// by using the '*' as shown below:
[assembly: AssemblyVersion("1.0.0.0")]
[assembly: AssemblyFileVersion("1.0.0.0")]
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerLib/Properties/AssemblyInfo.cs | C# | gpl2 | 1,726 |
using System;
using System.Collections.Generic;
using System.Text;
using System.Runtime.InteropServices;
using System.Diagnostics;
using HttpNamespaceManager.Lib.AccessControl;
namespace HttpNamespaceManager.Lib
{
public class HttpApi : IDisposable
{
public HttpApi()
{
HTTPAPI_VERSION version = new HTTPAPI_VERSION();
version.HttpApiMajorVersion = 1;
version.HttpApiMinorVersion = 0;
HttpApi.HttpInitialize(version, HttpApi.HTTP_INITIALIZE_CONFIG, IntPtr.Zero);
}
~HttpApi()
{
this.Dispose(false);
}
protected void Dispose(bool p)
{
HttpApi.HttpTerminate(HttpApi.HTTP_INITIALIZE_CONFIG, IntPtr.Zero);
}
public void Dispose()
{
GC.SuppressFinalize(this);
this.Dispose(true);
}
public Dictionary<string, SecurityDescriptor> QueryHttpNamespaceAcls()
{
Dictionary<string, SecurityDescriptor> nsTable = new Dictionary<string, SecurityDescriptor>();
HTTP_SERVICE_CONFIG_URLACL_QUERY query = new HTTP_SERVICE_CONFIG_URLACL_QUERY();
query.QueryDesc = HTTP_SERVICE_CONFIG_QUERY_TYPE.HttpServiceConfigQueryNext;
IntPtr pQuery = Marshal.AllocHGlobal(Marshal.SizeOf(query));
try
{
uint retval = NO_ERROR;
for (query.dwToken = 0; true; query.dwToken++)
{
Marshal.StructureToPtr(query, pQuery, false);
try
{
uint returnSize = 0;
// Get Size
retval = HttpQueryServiceConfiguration(IntPtr.Zero, HTTP_SERVICE_CONFIG_ID.HttpServiceConfigUrlAclInfo, pQuery, (uint) Marshal.SizeOf(query), IntPtr.Zero, 0, ref returnSize, IntPtr.Zero);
if (retval == ERROR_NO_MORE_ITEMS)
{
break;
}
if (retval != ERROR_INSUFFICIENT_BUFFER)
{
throw new Exception("HttpQueryServiceConfiguration returned unexpected error code.");
}
IntPtr pConfig = Marshal.AllocHGlobal((IntPtr)returnSize);
try
{
retval = HttpApi.HttpQueryServiceConfiguration(IntPtr.Zero, HTTP_SERVICE_CONFIG_ID.HttpServiceConfigUrlAclInfo, pQuery, (uint)Marshal.SizeOf(query), pConfig, returnSize, ref returnSize, IntPtr.Zero);
if (retval == NO_ERROR)
{
HTTP_SERVICE_CONFIG_URLACL_SET config = (HTTP_SERVICE_CONFIG_URLACL_SET)Marshal.PtrToStructure(pConfig, typeof(HTTP_SERVICE_CONFIG_URLACL_SET));
nsTable.Add(config.KeyDesc.pUrlPrefix, SecurityDescriptor.SecurityDescriptorFromString(config.ParamDesc.pStringSecurityDescriptor));
}
}
finally
{
Marshal.FreeHGlobal(pConfig);
}
}
finally
{
Marshal.DestroyStructure(pQuery, typeof(HTTP_SERVICE_CONFIG_URLACL_QUERY));
}
}
if (retval != ERROR_NO_MORE_ITEMS)
{
throw new Exception("HttpQueryServiceConfiguration returned unexpected error code.");
}
}
finally
{
Marshal.FreeHGlobal(pQuery);
}
return nsTable;
}
public void SetHttpNamespaceAcl(string urlPrefix, SecurityDescriptor acl)
{
HTTP_SERVICE_CONFIG_URLACL_SET urlAclConfig = new HTTP_SERVICE_CONFIG_URLACL_SET();
urlAclConfig.KeyDesc.pUrlPrefix = urlPrefix;
urlAclConfig.ParamDesc.pStringSecurityDescriptor = acl.ToString();
IntPtr pUrlAclConfig = Marshal.AllocHGlobal(Marshal.SizeOf(urlAclConfig));
Marshal.StructureToPtr(urlAclConfig, pUrlAclConfig, false);
try
{
uint retval = HttpApi.HttpSetServiceConfiguration(IntPtr.Zero, HTTP_SERVICE_CONFIG_ID.HttpServiceConfigUrlAclInfo, pUrlAclConfig, (uint)Marshal.SizeOf(urlAclConfig), IntPtr.Zero);
if (retval != 0)
{
throw new ExternalException("Error Setting Configuration: " + Util.GetErrorMessage(retval));
}
}
finally
{
if (pUrlAclConfig != IntPtr.Zero)
{
Marshal.DestroyStructure(pUrlAclConfig, typeof(HTTP_SERVICE_CONFIG_URLACL_SET));
Marshal.FreeHGlobal(pUrlAclConfig); ;
}
}
}
public void RemoveHttpHamespaceAcl(string urlPrefix)
{
HTTP_SERVICE_CONFIG_URLACL_SET urlAclConfig = new HTTP_SERVICE_CONFIG_URLACL_SET();
urlAclConfig.KeyDesc.pUrlPrefix = urlPrefix;
//urlAclConfig.ParamDesc.pStringSecurityDescriptor = acl.ToString();
IntPtr pUrlAclConfig = Marshal.AllocHGlobal(Marshal.SizeOf(urlAclConfig));
Marshal.StructureToPtr(urlAclConfig, pUrlAclConfig, false);
try
{
uint retval = HttpApi.HttpDeleteServiceConfiguration(IntPtr.Zero, HTTP_SERVICE_CONFIG_ID.HttpServiceConfigUrlAclInfo, pUrlAclConfig, (uint)Marshal.SizeOf(urlAclConfig), IntPtr.Zero);
if (retval != 0)
{
throw new ExternalException("Error Setting Configuration: " + Util.GetErrorMessage(retval));
}
}
finally
{
if (pUrlAclConfig != IntPtr.Zero)
{
Marshal.DestroyStructure(pUrlAclConfig, typeof(HTTP_SERVICE_CONFIG_URLACL_SET));
Marshal.FreeHGlobal(pUrlAclConfig); ;
}
}
}
internal const uint ERROR_NO_MORE_ITEMS = 259;
internal const uint ERROR_INSUFFICIENT_BUFFER = 122;
internal const uint NO_ERROR = 0;
internal const uint HTTP_INITIALIZE_CONFIG = 2;
/*
* ULONG HttpInitialize(
* HTTPAPI_VERSION Version,
* ULONG Flags,
* PVOID pReserved
* );
*/
[DllImport("Httpapi.dll")]
internal static extern uint HttpInitialize(HTTPAPI_VERSION Version, uint Flags, IntPtr pReserved);
/*
* ULONG HttpTerminate(
* ULONG Flags,
* PVOID pReserved
* );
*/
[DllImport("Httpapi.dll")]
internal static extern uint HttpTerminate(uint Flags, IntPtr pReserved);
/*
* ULONG HttpSetServiceConfiguration(
* HANDLE ServiceHandle,
* HTTP_SERVICE_CONFIG_ID ConfigId,
* PVOID pConfigInformation,
* ULONG ConfigInformationLength,
* LPOVERLAPPED pOverlapped
* );
*/
[DllImport("Httpapi.dll")]
internal static extern uint HttpSetServiceConfiguration(IntPtr ServiceHandle, HTTP_SERVICE_CONFIG_ID ConfigId, IntPtr pConfigInformation, uint ConfigInformationLength, IntPtr pOverlapped);
/*
* ULONG HttpQueryServiceConfiguration(
* HANDLE ServiceHandle,
* HTTP_SERVICE_CONFIG_ID ConfigId,
* PVOID pInputConfigInfo,
* ULONG InputConfigInfoLength,
* PVOID pOutputConfigInfo,
* ULONG OutputConfigInfoLength,
* PULONG pReturnLength,
* LPOVERLAPPED pOverlapped
* );
*/
[DllImport("Httpapi.dll")]
internal static extern uint HttpQueryServiceConfiguration(IntPtr ServiceHandle, HTTP_SERVICE_CONFIG_ID ConfigId, IntPtr pInputConfigInfo, uint InputConfigLength, IntPtr pOutputConfigInfo, uint OutputConfigInfoLength, ref uint pReturnLength, IntPtr pOverlapped);
/*
* ULONG HttpDeleteServiceConfiguration(
* HANDLE ServiceHandle,
* HTTP_SERVICE_CONFIG_ID ConfigId,
* PVOID pConfigInformation,
* ULONG ConfigInformationLength,
* LPOVERLAPPED pOverlapped
* );
*/
[DllImport("Httpapi.dll")]
internal static extern uint HttpDeleteServiceConfiguration(IntPtr ServiceHandle, HTTP_SERVICE_CONFIG_ID ConfigId, IntPtr pConfigInformation, uint ConfigInformationLength, IntPtr pOverlapped);
}
/*
* typedef struct _HTTPAPI_VERSION
* {
* USHORT HttpApiMajorVersion;
* USHORT HttpApiMinorVersion;
* } HTTPAPI_VERSION, *PHTTPAPI_VERSION;
*/
internal struct HTTPAPI_VERSION
{
public ushort HttpApiMajorVersion;
public ushort HttpApiMinorVersion;
}
/*
* typedef enum _HTTP_SERVICE_CONFIG_ID
* {
* HttpServiceConfigIPListenList,
* HttpServiceConfigSSLCertInfo,
* HttpServiceConfigUrlAclInfo,
* HttpServiceConfigTimeout,
* HttpServiceConfigMax
* }HTTP_SERVICE_CONFIG_ID, *PHTTP_SERVICE_CONFIG_ID;
*/
internal enum HTTP_SERVICE_CONFIG_ID
{
HttpServiceConfigIPListenList,
HttpServiceConfigSSLCertInfo,
HttpServiceConfigUrlAclInfo,
HttpServiceConfigTimeout,
HttpServiceConfigMax
}
/*
* typedef struct _HTTP_SERVICE_CONFIG_URLACL_QUERY {
* HTTP_SERVICE_CONFIG_QUERY_TYPE QueryDesc;
* HTTP_SERVICE_CONFIG_URLACL_KEY KeyDesc;
* DWORD dwToken;
* } HTTP_SERVICE_CONFIG_URLACL_QUERY, *PHTTP_SERVICE_CONFIG_URLACL_QUERY;
*/
[StructLayout(LayoutKind.Sequential)]
internal struct HTTP_SERVICE_CONFIG_URLACL_QUERY
{
public HTTP_SERVICE_CONFIG_QUERY_TYPE QueryDesc;
public HTTP_SERVICE_CONFIG_URLACL_KEY KeyDesc;
public uint dwToken;
}
/*
* typedef enum _HTTP_SERVICE_CONFIG_QUERY_TYPE
* {
* HttpServiceConfigQueryExact,
* HttpServiceConfigQueryNext,
* HttpServiceConfigQueryMax
* } HTTP_SERVICE_CONFIG_QUERY_TYPE, *PHTTP_SERVICE_CONFIG_QUERY_TYPE;
*/
internal enum HTTP_SERVICE_CONFIG_QUERY_TYPE
{
HttpServiceConfigQueryExact,
HttpServiceConfigQueryNext,
HttpServiceConfigQueryMax
}
/*
* typedef struct _HTTP_SERVICE_CONFIG_URLACL_KEY
* {
* PWSTR pUrlPrefix;
* } HTTP_SERVICE_CONFIG_URLACL_KEY, *PHTTP_SERVICE_CONFIG_URLACL_KEY;
*/
internal struct HTTP_SERVICE_CONFIG_URLACL_KEY
{
[MarshalAs(UnmanagedType.LPWStr)]
public string pUrlPrefix;
}
/*
* typedef struct _HTTP_SERVICE_CONFIG_URLACL_SET
* {
* HTTP_SERVICE_CONFIG_URLACL_KEY KeyDesc;
* HTTP_SERVICE_CONFIG_URLACL_PARAM ParamDesc;
* } HTTP_SERVICE_CONFIG_URLACL_SET, *PHTTP_SERVICE_CONFIG_URLACL_SET;
*/
[StructLayout(LayoutKind.Sequential)]
internal struct HTTP_SERVICE_CONFIG_URLACL_SET
{
public HTTP_SERVICE_CONFIG_URLACL_KEY KeyDesc;
public HTTP_SERVICE_CONFIG_URLACL_PARAM ParamDesc;
}
/*
* typedef struct _HTTP_SERVICE_CONFIG_URLACL_PARAM
* {
* PWSTR pStringSecurityDescriptor;
* } HTTP_SERVICE_CONFIG_URLACL_PARAM, *PHTTP_SERVICE_CONFIG_URLACL_PARAM;
*/
internal struct HTTP_SERVICE_CONFIG_URLACL_PARAM
{
[MarshalAs(UnmanagedType.LPWStr)]
public string pStringSecurityDescriptor;
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/HTTP Namespace Editor/source/HttpNamespaceManagerLib/HttpApi.cs | C# | gpl2 | 12,120 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Text;
using System.Windows;
using System.Windows.Controls;
using System.Windows.Data;
using System.Windows.Documents;
using System.Windows.Input;
using System.Windows.Media;
using System.Windows.Media.Imaging;
using System.Windows.Navigation;
using System.Windows.Shapes;
using System.Threading;
using System.Timers;
using System.Globalization;
using POSDisplay.PetroFexPOSServiceReference;
namespace POSDisplay
{
public sealed class PumpInfo
{
public string ID { get; set; }
public string Litres { get; set; }
public string Sale { get; set; }
public string Fuel { get; set; }
public string Ready { get; set; }
public string Active { get; set; }
}
///<summary>
///Interaction logic for MainWindow.xaml
///</summary>
public partial class MainWindow : Window
{
System.Timers.Timer m_PumpUpdateTimer = new System.Timers.Timer(250);
System.Timers.Timer m_ButtonUpdateTimer = new System.Timers.Timer(250);
PetroFexServiceClient client = new PetroFexServiceClient();
List<PetrolPump> pumps;
private string m_POSId = "";
public MainWindow()
{
InitializeComponent();
pumps = client.getPumps();
int inactivePOSId = client.GetInactivePOSId();
m_POSId = inactivePOSId.ToString();
PopulateListView();
client.ConnectPOS(m_POSId);
this.Title = "PetroFex POS - ID: " + m_POSId;
var pumpUpdater = new ThreadStart(updatePumpStates);
pumpUpdater.BeginInvoke(null, null);
}
private void PopulateListView()
{
foreach (PetrolPump p in pumps)
{
PumpInfo info = new PumpInfo
{
ID = p.PumpId,
Litres = p.LitresPumped.ToString("N", new CultureInfo("en-GB")),
Sale = p.ThisSale.ToString("N", new CultureInfo("en-GB")),
Fuel = p.CurrentFuelType.ToString(),
Ready = p.CustomerReady.ToString(),
Active = p.PumpActive.ToString()
};
pumpList.Items.Add(info);
}
}
protected override void OnClosing(System.ComponentModel.CancelEventArgs e)
{
base.OnClosing(e);
client.DisconnectPOS(m_POSId);
}
private void authoriseBtn_Click(object sender, RoutedEventArgs e)
{
int selectedIndex = pumpList.SelectedIndex;
if (selectedIndex != -1)
{
PumpInfo pi = (PumpInfo)pumpList.Items.GetItemAt(pumpList.SelectedIndex);
if (bool.Parse(pi.Ready) && !bool.Parse(pi.Active))
client.ActivatePump(pi.ID);
else
MessageBox.Show("Pump not ready or is already active!", "Error", MessageBoxButton.OK, MessageBoxImage.Error);
}
else
MessageBox.Show("No pumps selected", "Error", MessageBoxButton.OK, MessageBoxImage.Error);
}
private void updatePumpStates()
{
m_PumpUpdateTimer.Elapsed += (sender, args) =>
{
pumps = client.getPumps();
int selectedPump = 0;
Application.Current.Dispatcher.BeginInvoke(new Action(() => selectedPump = pumpList.SelectedIndex));
Application.Current.Dispatcher.BeginInvoke(new Action(() => pumpList.Items.Clear()));
Application.Current.Dispatcher.BeginInvoke(new Action(() => PopulateListView()));
Application.Current.Dispatcher.BeginInvoke(new Action(() => pumpList.SelectedIndex = selectedPump));
};
m_PumpUpdateTimer.Start();
}
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/POSDisplay/POSWindow.xaml.cs | C# | gpl2 | 4,020 |
using System;
using System.Collections.Generic;
using System.Configuration;
using System.Data;
using System.Linq;
using System.Windows;
namespace POSDisplay
{
/// <summary>
/// Interaction logic for App.xaml
/// </summary>
public partial class App : Application
{
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/POSDisplay/App.xaml.cs | C# | gpl2 | 312 |
using System.Reflection;
using System.Resources;
using System.Runtime.CompilerServices;
using System.Runtime.InteropServices;
using System.Windows;
// General Information about an assembly is controlled through the following
// set of attributes. Change these attribute values to modify the information
// associated with an assembly.
[assembly: AssemblyTitle("POSDisplay")]
[assembly: AssemblyDescription("")]
[assembly: AssemblyConfiguration("")]
[assembly: AssemblyCompany("")]
[assembly: AssemblyProduct("POSDisplay")]
[assembly: AssemblyCopyright("Copyright © 2013")]
[assembly: AssemblyTrademark("")]
[assembly: AssemblyCulture("")]
// Setting ComVisible to false makes the types in this assembly not visible
// to COM components. If you need to access a type in this assembly from
// COM, set the ComVisible attribute to true on that type.
[assembly: ComVisible(false)]
//In order to begin building localizable applications, set
//<UICulture>CultureYouAreCodingWith</UICulture> in your .csproj file
//inside a <PropertyGroup>. For example, if you are using US english
//in your source files, set the <UICulture> to en-US. Then uncomment
//the NeutralResourceLanguage attribute below. Update the "en-US" in
//the line below to match the UICulture setting in the project file.
//[assembly: NeutralResourcesLanguage("en-US", UltimateResourceFallbackLocation.Satellite)]
[assembly: ThemeInfo(
ResourceDictionaryLocation.None, //where theme specific resource dictionaries are located
//(used if a resource is not found in the page,
// or application resource dictionaries)
ResourceDictionaryLocation.SourceAssembly //where the generic resource dictionary is located
//(used if a resource is not found in the page,
// app, or any theme specific resource dictionaries)
)]
// Version information for an assembly consists of the following four values:
//
// Major Version
// Minor Version
// Build Number
// Revision
//
// You can specify all the values or you can default the Build and Revision Numbers
// by using the '*' as shown below:
// [assembly: AssemblyVersion("1.0.*")]
[assembly: AssemblyVersion("1.0.0.0")]
[assembly: AssemblyFileVersion("1.0.0.0")]
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/POSDisplay/Properties/AssemblyInfo.cs | C# | gpl2 | 2,284 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Runtime.Serialization;
using System.ServiceModel;
using System.Text;
using System.Data.SQLite;
using System.Globalization;
using PetroFexService.FuelSupplyServiceReference;
using PetroFexService.ReportServiceReference;
namespace NSPetroFexService
{
public class PumpEventArgs : EventArgs
{
public PumpEventArgs(string pumpId, float litresPumped, float thisSale)
{
this.PumpId = pumpId;
this.LitresPumped = litresPumped;
this.ThisSale = thisSale;
}
private string pumpId;
public string PumpId
{
get { return pumpId; }
set { pumpId = value; }
}
public float litresPumped;
public float LitresPumped
{
get { return litresPumped; }
set { litresPumped = value; }
}
public float thisSale;
public float ThisSale
{
get { return thisSale; }
set { thisSale = value; }
}
}
public class POSEventArgs : EventArgs
{
public POSEventArgs(string posId)
{
this.PosId = posId;
}
private string posId;
public string PosId
{
get { return posId; }
set { posId = value; }
}
}
// NOTE: You can use the "Rename" command on the "Refactor" menu to change the class name "Service1" in both code and config file together.
[ServiceBehavior(InstanceContextMode = InstanceContextMode.Single, ConcurrencyMode=ConcurrencyMode.Multiple)]
public class PetroFexService : IPetroFexService
{
public static event EventHandler<PumpEventArgs> pumpConnected;
public static event EventHandler<PumpEventArgs> pumpDisconnected;
public static event EventHandler<PumpEventArgs> pumpUpdated;
public static event EventHandler<POSEventArgs> POSTerminalConnected;
public static event EventHandler<POSEventArgs> POSTerminalDisconnected;
public static event EventHandler ManagerSystemConnected;
public static event EventHandler ManagerSystemDisconnected;
private SQLiteConnection sqlConnection = new SQLiteConnection("Data source=petroFexDatabase.db; Version=3;");
private List<PetrolPump> m_PetrolPumps = new List<PetrolPump>();
private List<string> m_POSIds = new List<string>();
private FuelSupplyServiceClient fuelSupplyClient = new FuelSupplyServiceClient();
private ReportServiceClient reportServiceClient = new ReportServiceClient();
public bool ConnectPOS(string POSId)
{
m_POSIds.Add(POSId);
if (POSTerminalConnected != null)
POSTerminalConnected(null, new POSEventArgs(POSId));
OpenSQLiteConnection(); //if POS Connected, open SQL connection so transactions can be saved.
return true;
}
public bool DisconnectPOS(string POSId)
{
m_POSIds.RemoveAll(pos => pos == POSId);
m_POSIds.TrimExcess();
if (POSTerminalDisconnected != null)
POSTerminalDisconnected(null, new POSEventArgs(POSId));
return true;
}
public bool ConnectPump(string pumpId)
{
m_PetrolPumps.Add(new PetrolPump(pumpId));
if (pumpConnected != null)
pumpConnected(null, new PumpEventArgs(pumpId, 0.0f, 0.0f));
OpenSQLiteConnection();
return true;
}
public bool DisconnectPump(string pumpId)
{
m_PetrolPumps.RemoveAll(pump => pump.PumpId == pumpId);
m_PetrolPumps.TrimExcess();
if (pumpDisconnected != null)
pumpDisconnected(null, new PumpEventArgs(pumpId, 0.0f, 0.0f));
return true;
}
public bool UpdatePump(string pumpId, float litresPumped, float thisSale)
{
foreach (PetrolPump pp in m_PetrolPumps)
{
if (pumpId == pp.PumpId)
{
pp.LitresPumped = litresPumped;
pp.ThisSale = thisSale;
}
}
if (pumpUpdated != null)
pumpUpdated(null, new PumpEventArgs(pumpId, litresPumped, thisSale));
return true;
}
public List<PetrolPump> getPumps()
{
return m_PetrolPumps;
}
public PetrolPump getPump(string pumpId)
{
return m_PetrolPumps.First(p => p.PumpId == pumpId);
}
public void ActivatePump(string pumpId)
{
foreach (PetrolPump pp in m_PetrolPumps)
{
if (pp.PumpId == pumpId)
pp.PumpActive = true;
}
}
public void DeactivatePump(string pumpId)
{
foreach (PetrolPump pp in m_PetrolPumps)
{
if (pp.PumpId == pumpId)
pp.PumpActive = false;
}
}
public bool MakeCustomerReady(string pumpId, string fuel)
{
foreach (PetrolPump pp in m_PetrolPumps)
{
if (pp.PumpId == pumpId)
{
pp.CustomerReady = true;
pp.CurrentFuelType = fuel;
}
}
return true;
}
public bool MakeCustomerUnready(string pumpId)
{
foreach (PetrolPump pp in m_PetrolPumps)
{
if (pp.PumpId == pumpId)
{
pp.CustomerReady = false;
pp.CurrentFuelType = "None";
}
}
return true;
}
public void LogCustomerPetrolPurchase(string fuel, float amount, float price)
{
SQLiteCommand insertLog = sqlConnection.CreateCommand();
insertLog.CommandText =
"INSERT INTO CustomerFuelPurchases (Time, Amount, Price, Fuel) VALUES (@Time, @Amount, @Price, @Fuel)";
insertLog.Parameters.Add(new SQLiteParameter("@Time"));
insertLog.Parameters.Add(new SQLiteParameter("@Amount"));
insertLog.Parameters.Add(new SQLiteParameter("@Price"));
insertLog.Parameters.Add(new SQLiteParameter("@Fuel"));
//Set param values
insertLog.Parameters["@Time"].Value = DateTime.Now.Date.ToShortDateString();
insertLog.Parameters["@Amount"].Value = amount.ToString("N", new CultureInfo("en-GB"));
insertLog.Parameters["@Price"].Value = price.ToString("N", new CultureInfo("en-GB"));
insertLog.Parameters["@Fuel"].Value = fuel;
insertLog.ExecuteNonQuery();
List<float> currentLevels = GetPetrolTankLevels();
SQLiteCommand updateTankLevel = sqlConnection.CreateCommand();
if (fuel == "Unleaded")
{
string level = (currentLevels[0] - amount).ToString();
updateTankLevel.CommandText = "UPDATE FuelTanks SET Amount=" + level + " WHERE Fuel='Unleaded'";
}
else if (fuel == "Diesel")
{
string level = (currentLevels[1] - amount).ToString();
updateTankLevel.CommandText = "UPDATE FuelTanks SET Amount=" + level + " WHERE Fuel='Diesel'";
}
updateTankLevel.ExecuteNonQuery();
}
public List<float> GetPetrolTankLevels()
{
float unleadedLevel = 0.0f;
float dieselLevel = 0.0f;
SQLiteDataReader unleadedReader, dieselReader;
SQLiteCommand getUnleadedLevel = sqlConnection.CreateCommand();
getUnleadedLevel.CommandText = "SELECT Amount FROM FuelTanks WHERE Fuel='Unleaded'";
SQLiteCommand getDieselLevel = sqlConnection.CreateCommand();
getDieselLevel.CommandText = "SELECT Amount FROM FuelTanks WHERE Fuel='Diesel'";
unleadedReader = getUnleadedLevel.ExecuteReader();
dieselReader = getDieselLevel.ExecuteReader();
while (unleadedReader.Read())
{
unleadedLevel = float.Parse(unleadedReader["Amount"] + "");
}
while (dieselReader.Read())
{
dieselLevel = float.Parse(dieselReader["Amount"] + "");
}
return new List<float> { unleadedLevel, dieselLevel };
}
private void OpenSQLiteConnection()
{
if (sqlConnection.State != System.Data.ConnectionState.Open) //if connection is not already open
{
sqlConnection.Open(); //open that connection
}
SQLiteCommand createTablesCommand = sqlConnection.CreateCommand();
createTablesCommand.CommandText = "CREATE TABLE IF NOT EXISTS CustomerFuelPurchases(Time varchar(25), Amount varchar(10), Price varchar(10), Fuel varchar(10), WholesalePrice varchar(10))";
createTablesCommand.ExecuteNonQuery();
createTablesCommand.CommandText = "CREATE TABLE IF NOT EXISTS FuelTanks(Fuel varchar(10), Amount varchar(10))";
createTablesCommand.ExecuteNonQuery();
createTablesCommand.CommandText = "CREATE TABLE IF NOT EXISTS BulkFuelPurchases(Date varchar(25), Amount varchar(10), Price varchar(10), Fuel varchar(10))";
createTablesCommand.ExecuteNonQuery();
createTablesCommand.CommandText = "CREATE TABLE IF NOT EXISTS FuelPrices(UnleadedPrice varchar(10), DieselPrice varchar(10))";
createTablesCommand.ExecuteNonQuery();
//Commands to programmatically create full fuel tanks, if for some inexplicable reason the .db file was deleted.
SQLiteCommand sqlCommander = sqlConnection.CreateCommand();
sqlCommander.CommandText =
"SELECT COUNT (*) FROM FuelTanks WHERE Fuel='Unleaded'";
int result = Convert.ToInt32(sqlCommander.ExecuteScalar());
if (result == 0) //if no result found
{
sqlCommander.CommandText = "INSERT INTO FuelTanks (Fuel, Amount) VALUES (@Fuel, @Amount)";
sqlCommander.Parameters.Add(new SQLiteParameter("@Fuel"));
sqlCommander.Parameters.Add(new SQLiteParameter("@Amount"));
sqlCommander.Parameters["@Fuel"].Value = "Unleaded";
sqlCommander.Parameters["@Amount"].Value = "10000.0";
sqlCommander.ExecuteNonQuery();
}
sqlCommander.Parameters.Clear();
sqlCommander.CommandText =
"SELECT COUNT (*) FROM FuelTanks WHERE Fuel='Diesel'";
result = Convert.ToInt32(sqlCommander.ExecuteScalar());
if (result == 0) //if no result found
{
sqlCommander.CommandText = "INSERT INTO FuelTanks (Fuel, Amount) VALUES (@Fuel, @Amount)";
sqlCommander.Parameters.Add(new SQLiteParameter("@Fuel"));
sqlCommander.Parameters.Add(new SQLiteParameter("@Amount"));
sqlCommander.Parameters["@Fuel"].Value = "Diesel";
sqlCommander.Parameters["@Amount"].Value = "10000.0";
sqlCommander.ExecuteNonQuery();
}
//Create fuel prices
sqlCommander.Parameters.Clear();
sqlCommander.CommandText =
"SELECT COUNT (*) FROM FuelPrices";
result = Convert.ToInt32(sqlCommander.ExecuteScalar());
if (result == 0) //if no result found
{
sqlCommander.CommandText = "INSERT INTO FuelPrices (UnleadedPrice, DieselPrice) VALUES (@UnleadedPrice, @DieselPrice)";
sqlCommander.Parameters.Add(new SQLiteParameter("@UnleadedPrice"));
sqlCommander.Parameters.Add(new SQLiteParameter("@DieselPrice"));
sqlCommander.Parameters["@UnleadedPrice"].Value = "1.00";
sqlCommander.Parameters["@DieselPrice"].Value = "1.00";
sqlCommander.ExecuteNonQuery();
}
}
public bool ConnectManagerSystem()
{
if (ManagerSystemConnected != null)
ManagerSystemConnected(null, null);
OpenSQLiteConnection();
return true;
}
public bool DisconnectManagerSystem()
{
if (ManagerSystemDisconnected != null)
ManagerSystemDisconnected(null, null);
return true;
}
public List<float> GetFuelPrices()
{
float unleadedPrice = 0.0f;
float dieselPrice = 0.0f;
SQLiteDataReader reader;
SQLiteCommand getPrices = sqlConnection.CreateCommand();
getPrices.CommandText = "SELECT * FROM FuelPrices";
reader = getPrices.ExecuteReader();
while (reader.Read())
{
unleadedPrice = float.Parse(reader["UnleadedPrice"] + "");
dieselPrice = float.Parse(reader["DieselPrice"] + "");
}
return new List<float> { unleadedPrice, dieselPrice };
}
public void SetFuelPrices(float unleadedPrice, float dieselPrice)
{
SQLiteCommand setPrices = sqlConnection.CreateCommand();
string unleadedPriceStr = unleadedPrice.ToString("N", new CultureInfo("en-GB"));
string dieselPriceStr = dieselPrice.ToString("N", new CultureInfo("en-GB"));
setPrices.CommandText = "DELETE FROM FuelPrices"; //delete record
setPrices.ExecuteNonQuery();
setPrices.CommandText = "INSERT INTO FuelPrices (UnleadedPrice, DieselPrice) VALUES (@UnleadedPrice, @DieselPrice)";
setPrices.Parameters.Add(new SQLiteParameter("@UnleadedPrice"));
setPrices.Parameters.Add(new SQLiteParameter("@DieselPrice"));
setPrices.Parameters["@UnleadedPrice"].Value = unleadedPriceStr;
setPrices.Parameters["@DieselPrice"].Value = dieselPriceStr;
setPrices.ExecuteNonQuery();
}
public List<float> GetFuelSales(string date, string fuel)
{
List<float> sales = new List<float>();
SQLiteCommand getSalesCommand = sqlConnection.CreateCommand();
getSalesCommand.CommandText = "SELECT * FROM CustomerFuelPurchases WHERE Time='" + date + "' AND Fuel='" + fuel +"'";
SQLiteDataReader reader = getSalesCommand.ExecuteReader();
while (reader.Read())
{
sales.Add(float.Parse(reader["Amount"] + ""));
sales.Add(float.Parse(reader["Price"] + ""));
}
return sales;
}
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/PetroFexService/PetroFexService.cs | C# | gpl2 | 15,164 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Runtime.Serialization;
using System.ServiceModel;
using System.Text;
using PetroFexService.FuelSupplyServiceReference;
namespace NSPetroFexService
{
// NOTE: You can use the "Rename" command on the "Refactor" menu to change the interface name "IService1" in both code and config file together.
[ServiceContract]
public interface IPetroFexService
{
//POS Operations
[OperationContract]
bool ConnectPOS(string POSId);
[OperationContract]
bool DisconnectPOS(string POSId);
//Pump operations
[OperationContract]
bool ConnectPump(string pumpId);
[OperationContract]
bool DisconnectPump(string pumpId);
//Manager System Operations
[OperationContract]
bool ConnectManagerSystem();
[OperationContract]
bool DisconnectManagerSystem();
//Pump updaters
[OperationContract]
bool UpdatePump(string pumpId, float litresPumped, float thisSale);
[OperationContract]
List<PetrolPump> getPumps();
[OperationContract]
PetrolPump getPump(string pumpId);
[OperationContract]
void ActivatePump(string pumpId);
[OperationContract]
void DeactivatePump(string pumpId);
//Customer Operations
[OperationContract]
bool MakeCustomerUnready(string pumpId);
[OperationContract]
bool MakeCustomerReady(string pumpId, string fuel);
/* SQLite DB Operations */
[OperationContract]//So POS Systems can log purchases to the database
void LogCustomerPetrolPurchase(string fuel, float amount, float price);
[OperationContract]
List<float> GetPetrolTankLevels();
[OperationContract]
List<float> GetFuelPrices();
[OperationContract]
void SetFuelPrices(float unleadedPrice, float dieselPrice);
[OperationContract]
List<float> GetFuelSales(string date, string fuel);
}
// Use a data contract as illustrated in the sample below to add composite types to service operations
[DataContract]
public class PetrolPump
{
private string m_PumpId;
private float m_LitresPumped, m_ThisSale;
private bool pumpActive, customerReady;
private string m_FuelType;
[DataMember]
public string PumpId
{
get { return m_PumpId; }
set { m_PumpId = value; }
}
[DataMember]
public float ThisSale
{
get { return m_ThisSale; }
set { m_ThisSale = value; }
}
[DataMember]
public float LitresPumped
{
get { return m_LitresPumped; }
set { m_LitresPumped = value; }
}
[DataMember]
public bool PumpActive
{
get { return pumpActive; }
set { pumpActive = value; }
}
[DataMember]
public bool CustomerReady
{
get { return customerReady; }
set { customerReady = value; }
}
[DataMember]
public string CurrentFuelType
{
get { return m_FuelType; }
set { m_FuelType = value; }
}
public PetrolPump()
{
this.PumpId = "";
this.ThisSale = 0.0f;
this.LitresPumped = 0.0f;
this.PumpActive = false;
this.CustomerReady = false;
this.CurrentFuelType = "None";
}
public PetrolPump(string pumpId)
{
this.PumpId = pumpId;
this.ThisSale = 0.0f;
this.LitresPumped = 0.0f;
this.PumpActive = false;
this.CustomerReady = false;
this.CurrentFuelType = "None";
}
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/PetroFexService/IPetroFexService.cs | C# | gpl2 | 4,036 |
using System.Reflection;
using System.Runtime.CompilerServices;
using System.Runtime.InteropServices;
// General Information about an assembly is controlled through the following
// set of attributes. Change these attribute values to modify the information
// associated with an assembly.
[assembly: AssemblyTitle("PetroFex")]
[assembly: AssemblyDescription("")]
[assembly: AssemblyConfiguration("")]
[assembly: AssemblyCompany("")]
[assembly: AssemblyProduct("PetroFex")]
[assembly: AssemblyCopyright("Copyright © 2013")]
[assembly: AssemblyTrademark("")]
[assembly: AssemblyCulture("")]
// Setting ComVisible to false makes the types in this assembly not visible
// to COM components. If you need to access a type in this assembly from
// COM, set the ComVisible attribute to true on that type.
[assembly: ComVisible(false)]
// The following GUID is for the ID of the typelib if this project is exposed to COM
[assembly: Guid("961bf290-a2cb-46ba-8b89-47e967a6e54b")]
// Version information for an assembly consists of the following four values:
//
// Major Version
// Minor Version
// Build Number
// Revision
//
// You can specify all the values or you can default the Build and Revision Numbers
// by using the '*' as shown below:
// [assembly: AssemblyVersion("1.0.*")]
[assembly: AssemblyVersion("1.0.0.0")]
[assembly: AssemblyFileVersion("1.0.0.0")]
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/PetroFexService/Properties/AssemblyInfo.cs | C# | gpl2 | 1,428 |
using System;
using System.Collections.Generic;
using System.Windows;
using System.Windows.Documents;
using PumpDisplay.PetroFexPumpServiceReference;
namespace PumpDisplay
{
/// <summary>
/// Interaction logic for PumpIDInputWindow.xaml
/// </summary>
public partial class PumpIDInputWindow : Window
{
PetroFexServiceClient client = new PetroFexServiceClient();
public PumpIDInputWindow()
{
InitializeComponent();
}
private void startPumpBtn_Click(object sender, RoutedEventArgs e)
{
List<PetrolPump> pumps = new List<PetrolPump>();
try
{
pumps = client.getPumps();
}
catch (SystemException ex)
{
MessageBox.Show("FATAL ERROR: The server is not active! Cannot connect pump.", "Fatal Error", MessageBoxButton.OK, MessageBoxImage.Error);
}
bool existspump = pumps.Exists(pump => pump.PumpId == pumpIdBox.Text);
if (!existspump) //if pump doesnt exist
{
var pumpWindow = new PumpWindow(pumpIdBox.Text);
pumpWindow.Show();
this.Close();
}
else
MessageBox.Show("This Pump Is Already Active!", "Invalid Pump Specified", MessageBoxButton.OK, MessageBoxImage.Error);
}
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/PumpDisplay/PumpIDInputWindow.xaml.cs | C# | gpl2 | 1,450 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Text;
using System.Windows;
using System.Windows.Controls;
using System.Windows.Data;
using System.Windows.Documents;
using System.Windows.Input;
using System.Windows.Media;
using System.Windows.Media.Imaging;
using System.Windows.Navigation;
using System.Windows.Shapes;
using PumpLibrary;
using System.Globalization;
using System.Windows.Threading;
using System.Threading;
using PumpDisplay.PetroFexPumpServiceReference;
namespace PumpDisplay
{
/// <summary>
/// Interaction logic for MainWindow.xaml
/// </summary>
public partial class PumpWindow : Window
{
PetroFexServiceClient client = new PetroFexServiceClient();
CustomerGenerator m_CustomerGenerator;
float dieselPrice, unleadedPrice;
FuelType m_SelectedFuel;
System.Timers.Timer timer = new System.Timers.Timer(250);
private string m_PumpId;
float m_ThisSale, m_LitresPumped;
public PumpWindow(string pumpId)
{
InitializeComponent();
m_PumpId = pumpId;
m_CustomerGenerator = new CustomerGenerator(); //must be defined after ID to prevent customer becoming ready before an ID is created from server info.
m_CustomerGenerator.CustomerReady += new CustomerGenerator.CustomerReadyHandler(CustomerReady);
m_CustomerGenerator.PumpProgress += new CustomerGenerator.PumpProgressHandler(CustomerGeneratorPumpProgress);
m_CustomerGenerator.PumpingFinished += new CustomerGenerator.PumpingFinishedHandler(CustomerGeneratorPumpingFinished);
client.ConnectPump(m_PumpId);
this.Title = "PetroFex Pump Display - Pump ID: " + m_PumpId;
pumpIDLbl.Content = m_PumpId;
List<float> prices = client.GetFuelPrices();
unleadedPrice = prices[0];
dieselPrice = prices[1];
dieselPriceBox.Text = dieselPrice.ToString("N", new CultureInfo("en-GB"));
unleadedPriceBox.Text = unleadedPrice.ToString("N", new CultureInfo("en-GB"));
var updater = new ThreadStart(UpdateThisPump);
updater.BeginInvoke(null, null);
}
protected override void OnClosing(System.ComponentModel.CancelEventArgs e)
{
base.OnClosing(e);
client.DisconnectPump(m_PumpId);
}
void CustomerGeneratorPumpingFinished(object sender, EventArgs e)
{
client.UpdatePump(m_PumpId, m_LitresPumped, m_ThisSale);
switch (m_SelectedFuel)
{
case (FuelType.Diesel):
client.LogCustomerPetrolPurchase("Diesel", m_LitresPumped, m_ThisSale);
Application.Current.Dispatcher.BeginInvoke(new Action(() => dieselPriceBox.Foreground = SystemColors.GrayTextBrush));
break;
case (FuelType.Unleaded):
client.LogCustomerPetrolPurchase("Unleaded", m_LitresPumped, m_ThisSale);
Application.Current.Dispatcher.BeginInvoke(new Action(() => unleadedPriceBox.Foreground = SystemColors.GrayTextBrush));
break;
}
client.MakeCustomerUnready(m_PumpId);
client.DeactivatePump(m_PumpId);
timer.Start(); //start listening for activation again
}
void CustomerGeneratorPumpProgress(object sender, PumpProgressEventArgs e)
{
m_LitresPumped = (float)e.LitresPumped;
m_ThisSale = 0.0f;
Application.Current.Dispatcher.BeginInvoke(
DispatcherPriority.Background,
new Action(() => this.litresBox.Text = m_LitresPumped.ToString("N", new CultureInfo("en-GB"))));
switch(m_SelectedFuel){
case(FuelType.Diesel):
m_ThisSale = m_LitresPumped * dieselPrice;
Application.Current.Dispatcher.BeginInvoke(
new Action(() => thisSaleBox.Text = m_ThisSale.ToString("N", new CultureInfo("en-GB"))));
break;
case(FuelType.Unleaded):
m_ThisSale = m_LitresPumped * unleadedPrice;
Application.Current.Dispatcher.BeginInvoke(
new Action(() => thisSaleBox.Text = m_ThisSale.ToString("N", new CultureInfo("en-GB"))));
break;
}
client.UpdatePump(m_PumpId, m_LitresPumped, m_ThisSale);
}
void CustomerReady(object sender, CustomerReadyEventArgs e)
{
m_SelectedFuel = e.SelectedFuel;
switch (m_SelectedFuel)
{
case (FuelType.Diesel):
Application.Current.Dispatcher.BeginInvoke(new Action(() => dieselPriceBox.Foreground = Brushes.Red));
client.MakeCustomerReady(m_PumpId,"Diesel");
break;
case (FuelType.Unleaded):
Application.Current.Dispatcher.BeginInvoke(new Action(() => unleadedPriceBox.Foreground = Brushes.Red));
client.MakeCustomerReady(m_PumpId,"Unleaded");
break;
}
}
void StartPumping()
{
m_CustomerGenerator.ActivatePump();
}
void UpdateThisPump()
{
timer.Elapsed += (sender, args) =>
{
//make sure prices are always current
List<float> prices = client.GetFuelPrices();
unleadedPrice = prices[0];
dieselPrice = prices[1];
Application.Current.Dispatcher.BeginInvoke(new Action(() => dieselPriceBox.Text = dieselPrice.ToString("N", new CultureInfo("en-GB"))));
Application.Current.Dispatcher.BeginInvoke(new Action(() => unleadedPriceBox.Text = unleadedPrice.ToString("N", new CultureInfo("en-GB"))));
PetrolPump p = client.getPump(m_PumpId);
if (p.PumpActive && p.CustomerReady)
{
StartPumping();
timer.Stop();
}
};
timer.Start();
}
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/PumpDisplay/PumpWindow.xaml.cs | C# | gpl2 | 6,445 |
using System;
using System.Collections.Generic;
using System.Configuration;
using System.Data;
using System.Linq;
using System.Windows;
namespace PumpDisplay
{
/// <summary>
/// Interaction logic for App.xaml
/// </summary>
public partial class App : Application
{
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/PumpDisplay/App.xaml.cs | C# | gpl2 | 313 |
using System.Reflection;
using System.Resources;
using System.Runtime.CompilerServices;
using System.Runtime.InteropServices;
using System.Windows;
// General Information about an assembly is controlled through the following
// set of attributes. Change these attribute values to modify the information
// associated with an assembly.
[assembly: AssemblyTitle("PetroFex")]
[assembly: AssemblyDescription("")]
[assembly: AssemblyConfiguration("")]
[assembly: AssemblyCompany("")]
[assembly: AssemblyProduct("PetroFex")]
[assembly: AssemblyCopyright("Copyright © 2013")]
[assembly: AssemblyTrademark("")]
[assembly: AssemblyCulture("")]
// Setting ComVisible to false makes the types in this assembly not visible
// to COM components. If you need to access a type in this assembly from
// COM, set the ComVisible attribute to true on that type.
[assembly: ComVisible(false)]
//In order to begin building localizable applications, set
//<UICulture>CultureYouAreCodingWith</UICulture> in your .csproj file
//inside a <PropertyGroup>. For example, if you are using US english
//in your source files, set the <UICulture> to en-US. Then uncomment
//the NeutralResourceLanguage attribute below. Update the "en-US" in
//the line below to match the UICulture setting in the project file.
//[assembly: NeutralResourcesLanguage("en-US", UltimateResourceFallbackLocation.Satellite)]
[assembly: ThemeInfo(
ResourceDictionaryLocation.None, //where theme specific resource dictionaries are located
//(used if a resource is not found in the page,
// or application resource dictionaries)
ResourceDictionaryLocation.SourceAssembly //where the generic resource dictionary is located
//(used if a resource is not found in the page,
// app, or any theme specific resource dictionaries)
)]
// Version information for an assembly consists of the following four values:
//
// Major Version
// Minor Version
// Build Number
// Revision
//
// You can specify all the values or you can default the Build and Revision Numbers
// by using the '*' as shown below:
// [assembly: AssemblyVersion("1.0.*")]
[assembly: AssemblyVersion("1.0.0.0")]
[assembly: AssemblyFileVersion("1.0.0.0")]
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/PumpDisplay/Properties/AssemblyInfo.cs | C# | gpl2 | 2,280 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Text;
using System.Windows;
using System.Windows.Controls;
using System.Windows.Data;
using System.Windows.Documents;
using System.Windows.Input;
using System.Windows.Media;
using System.Windows.Media.Imaging;
using System.Windows.Navigation;
using System.Windows.Shapes;
using System.Threading;
using ManagerDisplay.PetroFexManagerServiceReference;
using ManagerDisplay.PetroFexFuelSupplyServiceReference;
using System.Globalization;
namespace ManagerDisplay
{
/// <summary>
/// Interaction logic for MainWindow.xaml
/// </summary>
public partial class MainWindow : Window
{
System.Timers.Timer updateTimer = new System.Timers.Timer(5000); //much slower than POS one as it's not necessary to check that often for this purpose
PetroFexServiceClient stationServerClient = new PetroFexServiceClient();
FuelSupplyServiceClient fuelSupplyClient = new FuelSupplyServiceClient();
public MainWindow()
{
InitializeComponent();
stationServerClient.ConnectManagerSystem();
var updaterThread = new ThreadStart(updateTankLevels);
updaterThread.BeginInvoke(null, null);
}
protected override void OnClosing(System.ComponentModel.CancelEventArgs e)
{
base.OnClosing(e);
stationServerClient.DisconnectManagerSystem();
stationServerClient.Close();
}
private void updateTankLevels()
{
updateTimer.Elapsed += (sender, args) =>
{
List<float> levels = stationServerClient.GetPetrolTankLevels();
Application.Current.Dispatcher.BeginInvoke(new Action(() => unleadedLevelBar.Value = (int)levels[0]));
Application.Current.Dispatcher.BeginInvoke(new Action(() => dieselLevelBar.Value = (int)levels[1]));
Application.Current.Dispatcher.BeginInvoke(new Action(() => unleadedTankLevelLbl.Content = levels[0].ToString("N", new CultureInfo("en-GB")) + " Litres"));
Application.Current.Dispatcher.BeginInvoke(new Action(() => dieselTankLevelLbl.Content = levels[1].ToString("N", new CultureInfo("en-GB")) + " Litres"));
};
updateTimer.Start();
}
private void getPriceQuoteBtn_Click(object sender, RoutedEventArgs e)
{
FuelPriceQuote quote = fuelSupplyClient.GetFuelPrices(201009271);
List<FuelPrice> prices = quote.QuotePrices;
Application.Current.Dispatcher.BeginInvoke(new Action(() => dieselPriceLbl.Content = prices[0].Price.ToString("C", new CultureInfo("en-GB"))));
Application.Current.Dispatcher.BeginInvoke(new Action(() => unleadedPriceLbl.Content = prices[1].Price.ToString("C", new CultureInfo("en-GB"))));
DateTime quoteTime = quote.QuoteDate;
Application.Current.Dispatcher.BeginInvoke(new Action(() => quoteDateTimeLbl.Content = quoteTime.ToShortDateString() + " - " + quoteTime.ToShortTimeString()));
Guid quoteRef = quote.QuoteReference;
Application.Current.Dispatcher.BeginInvoke(new Action(() => quoteRefGuidLbl.Content = quoteRef.ToString()));
}
private void setPricesBtn_Click(object sender, RoutedEventArgs e)
{
float unleadedResult = 0.0f;
float dieselResult = 0.0f;
bool tryParse = float.TryParse(setUnleadedPriceBox.Text, out unleadedResult);
if (!tryParse)
{
MessageBox.Show("Incorrect Unleaded Price Entered!", "Error", MessageBoxButton.OK, MessageBoxImage.Error);
return;
}
tryParse = float.TryParse(setDieselPriceBox.Text, out dieselResult);
if (!tryParse)
{
MessageBox.Show("Incorrect Diesel Price Entered!", "Error", MessageBoxButton.OK, MessageBoxImage.Error);
return;
}
stationServerClient.SetFuelPrices(unleadedResult, dieselResult);
}
private void getSalesBtn_Click(object sender, RoutedEventArgs e)
{
DateTime? nullableDate = getFuelSaleDatePicker.SelectedDate;
if (nullableDate == null)
{
MessageBox.Show("Invalid Date Entered", "Error", MessageBoxButton.OK, MessageBoxImage.Error);
return;
}
DateTime date = nullableDate.Value;
string dateStr = date.ToShortDateString();
List<float> sales = stationServerClient.GetFuelSales(dateStr, getSalesFuelBox.Text);
float totalLitres = 0.0f;
float totalPaid = 0.0f;
for (int i = 0; i < sales.Count; i += 2)
{
totalLitres += sales[i];
totalPaid += sales[i + 1];
}
litresSoldValueLbl.Content = totalLitres.ToString("N", new CultureInfo("en-GB"));
totalPaidValueLbl.Content = "£" + totalPaid.ToString("N", new CultureInfo("en-GB"));
}
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/ManagerDisplay/ManagerWindow.xaml.cs | C# | gpl2 | 5,221 |
using System;
using System.Collections.Generic;
using System.Configuration;
using System.Data;
using System.Linq;
using System.Windows;
namespace ManagerDisplay
{
/// <summary>
/// Interaction logic for App.xaml
/// </summary>
public partial class App : Application
{
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/ManagerDisplay/App.xaml.cs | C# | gpl2 | 316 |
using System.Reflection;
using System.Resources;
using System.Runtime.CompilerServices;
using System.Runtime.InteropServices;
using System.Windows;
// General Information about an assembly is controlled through the following
// set of attributes. Change these attribute values to modify the information
// associated with an assembly.
[assembly: AssemblyTitle("ManagerDisplay")]
[assembly: AssemblyDescription("")]
[assembly: AssemblyConfiguration("")]
[assembly: AssemblyCompany("")]
[assembly: AssemblyProduct("ManagerDisplay")]
[assembly: AssemblyCopyright("Copyright © 2013")]
[assembly: AssemblyTrademark("")]
[assembly: AssemblyCulture("")]
// Setting ComVisible to false makes the types in this assembly not visible
// to COM components. If you need to access a type in this assembly from
// COM, set the ComVisible attribute to true on that type.
[assembly: ComVisible(false)]
//In order to begin building localizable applications, set
//<UICulture>CultureYouAreCodingWith</UICulture> in your .csproj file
//inside a <PropertyGroup>. For example, if you are using US english
//in your source files, set the <UICulture> to en-US. Then uncomment
//the NeutralResourceLanguage attribute below. Update the "en-US" in
//the line below to match the UICulture setting in the project file.
//[assembly: NeutralResourcesLanguage("en-US", UltimateResourceFallbackLocation.Satellite)]
[assembly: ThemeInfo(
ResourceDictionaryLocation.None, //where theme specific resource dictionaries are located
//(used if a resource is not found in the page,
// or application resource dictionaries)
ResourceDictionaryLocation.SourceAssembly //where the generic resource dictionary is located
//(used if a resource is not found in the page,
// app, or any theme specific resource dictionaries)
)]
// Version information for an assembly consists of the following four values:
//
// Major Version
// Minor Version
// Build Number
// Revision
//
// You can specify all the values or you can default the Build and Revision Numbers
// by using the '*' as shown below:
// [assembly: AssemblyVersion("1.0.*")]
[assembly: AssemblyVersion("1.0.0.0")]
[assembly: AssemblyFileVersion("1.0.0.0")]
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/ManagerDisplay/Properties/AssemblyInfo.cs | C# | gpl2 | 2,292 |
using System;
using System.Collections.Generic;
using System.Configuration;
using System.Data;
using System.Linq;
using System.Windows;
namespace PetroFexHost
{
/// <summary>
/// Interaction logic for App.xaml
/// </summary>
public partial class App : Application
{
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/PetroFexHost/App.xaml.cs | C# | gpl2 | 314 |
using System.Reflection;
using System.Resources;
using System.Runtime.CompilerServices;
using System.Runtime.InteropServices;
using System.Windows;
// General Information about an assembly is controlled through the following
// set of attributes. Change these attribute values to modify the information
// associated with an assembly.
[assembly: AssemblyTitle("PetroFexHost")]
[assembly: AssemblyDescription("")]
[assembly: AssemblyConfiguration("")]
[assembly: AssemblyCompany("")]
[assembly: AssemblyProduct("PetroFexHost")]
[assembly: AssemblyCopyright("Copyright © 2013")]
[assembly: AssemblyTrademark("")]
[assembly: AssemblyCulture("")]
// Setting ComVisible to false makes the types in this assembly not visible
// to COM components. If you need to access a type in this assembly from
// COM, set the ComVisible attribute to true on that type.
[assembly: ComVisible(false)]
//In order to begin building localizable applications, set
//<UICulture>CultureYouAreCodingWith</UICulture> in your .csproj file
//inside a <PropertyGroup>. For example, if you are using US english
//in your source files, set the <UICulture> to en-US. Then uncomment
//the NeutralResourceLanguage attribute below. Update the "en-US" in
//the line below to match the UICulture setting in the project file.
//[assembly: NeutralResourcesLanguage("en-US", UltimateResourceFallbackLocation.Satellite)]
[assembly: ThemeInfo(
ResourceDictionaryLocation.None, //where theme specific resource dictionaries are located
//(used if a resource is not found in the page,
// or application resource dictionaries)
ResourceDictionaryLocation.SourceAssembly //where the generic resource dictionary is located
//(used if a resource is not found in the page,
// app, or any theme specific resource dictionaries)
)]
// Version information for an assembly consists of the following four values:
//
// Major Version
// Minor Version
// Build Number
// Revision
//
// You can specify all the values or you can default the Build and Revision Numbers
// by using the '*' as shown below:
// [assembly: AssemblyVersion("1.0.*")]
[assembly: AssemblyVersion("1.0.0.0")]
[assembly: AssemblyFileVersion("1.0.0.0")]
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/PetroFexHost/Properties/AssemblyInfo.cs | C# | gpl2 | 2,288 |
using System;
using System.Collections.Generic;
using System.Linq;
using System.Text;
using System.Windows;
using System.Windows.Controls;
using System.Windows.Data;
using System.Windows.Documents;
using System.Windows.Input;
using System.Windows.Media;
using System.Windows.Media.Imaging;
using System.Windows.Navigation;
using System.Windows.Shapes;
using System.ServiceModel;
using NSPetroFexService;
namespace PetroFexHost
{
/// <summary>
/// Interaction logic for MainWindow.xaml
/// </summary>
public partial class MainWindow : Window
{
ServiceHost m_ServiceHost;
public MainWindow()
{
InitializeComponent();
m_ServiceHost = new ServiceHost(typeof(NSPetroFexService.PetroFexService));
NSPetroFexService.PetroFexService.pumpConnected += new EventHandler<PumpEventArgs>(PetroFexService_pumpConnected);
NSPetroFexService.PetroFexService.pumpDisconnected += new EventHandler<PumpEventArgs>(PetroFexService_pumpDisconnected);
NSPetroFexService.PetroFexService.pumpUpdated += new EventHandler<PumpEventArgs>(PetroFexService_pumpUpdated);
NSPetroFexService.PetroFexService.POSTerminalConnected += new EventHandler<POSEventArgs>(PetroFexService_POSTerminalConnected);
NSPetroFexService.PetroFexService.POSTerminalDisconnected += new EventHandler<POSEventArgs>(PetroFexService_POSTerminalDisconnected);
NSPetroFexService.PetroFexService.ManagerSystemConnected += new EventHandler(PetroFexService_ManagerSystemConnected);
NSPetroFexService.PetroFexService.ManagerSystemDisconnected += new EventHandler(PetroFexService_ManagerSystemDisconnected);
m_ServiceHost.Open();
logBox.Items.Add("Server Running...");
}
void PetroFexService_ManagerSystemDisconnected(object sender, EventArgs e)
{
logBox.Items.Add("Manager System Disconnected");
logBox.SelectedIndex = logBox.Items.Count - 1;
logBox.ScrollIntoView(logBox.SelectedItem);
}
void PetroFexService_ManagerSystemConnected(object sender, EventArgs e)
{
logBox.Items.Add("New Manager System Connected");
logBox.SelectedIndex = logBox.Items.Count - 1;
logBox.ScrollIntoView(logBox.SelectedItem);
}
void PetroFexService_POSTerminalDisconnected(object sender, POSEventArgs e)
{
logBox.Items.Add("POS Terminal (ID: " + e.PosId + ") Disconnected");
logBox.SelectedIndex = logBox.Items.Count - 1;
logBox.ScrollIntoView(logBox.SelectedItem);
}
void PetroFexService_POSTerminalConnected(object sender, POSEventArgs e)
{
logBox.Items.Add("New POS (ID: " + e.PosId + ") Terminal Connected");
logBox.SelectedIndex = logBox.Items.Count - 1;
logBox.ScrollIntoView(logBox.SelectedItem);
}
void PetroFexService_pumpUpdated(object sender, PumpEventArgs e)
{
logBox.Items.Add("Pump " + e.PumpId + ", " + e.LitresPumped + ", " + e.ThisSale);
logBox.SelectedIndex = logBox.Items.Count - 1;
logBox.ScrollIntoView(logBox.SelectedItem);
}
void PetroFexService_pumpDisconnected(object sender, PumpEventArgs e)
{
logBox.Items.Add("Pump " + e.PumpId + " Disconnected.");
logBox.SelectedIndex = logBox.Items.Count - 1;
logBox.ScrollIntoView(logBox.SelectedItem);
}
void PetroFexService_pumpConnected(object sender, PumpEventArgs e)
{
logBox.Items.Add("Pump " + e.PumpId + " Connected.");
logBox.SelectedIndex = logBox.Items.Count - 1;
logBox.ScrollIntoView(logBox.SelectedItem);
}
}
}
| 08346-acw1-petrofex | trunk/ 08346-acw1-petrofex --username ProperBritish@googlemail.com/PetroFex/PetroFexHost/HostWindow.xaml.cs | C# | gpl2 | 3,904 |
% Gesture recognition with Matlab.
% Copyright (C) 2008 Thomas Holleczek, ETH Zurich
%
% This program is free software: you can redistribute it and/or modify
% it under the terms of the GNU General Public License as published by
% the Free Software Foundation, either version 3 of the License, or
% (at your option) any later version.
%
% This program is distributed in the hope that it will be useful,
% but WITHOUT ANY WARRANTY; without even the implied warranty of
% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
% GNU General Public License for more details.
%
% You should have received a copy of the GNU General Public License
% along with this program. If not, see <http://www.gnu.org/licenses/>.
function x = classificationGUI()
global classification_gui;
global classification_status;
global gestures_initialized;
global axes_classification;
global axes_image;
if (gestures_initialized)
classification_gui = figure('Name', 'Classification results', 'Position', [750, 300, 600, 650]);
set(classification_gui, 'CloseRequestFcn', @close_fcn);
mydata = guidata(classification_gui);
mydata.gui = classification_gui;
static_status_1 = uicontrol(classification_gui, 'Style', 'text', 'String', 'Status', 'FontSize', 12,...
'Position', [10 590 150 20]);
static_status_2 = uicontrol(classification_gui, 'Style', 'text', 'Tag', 'status', 'String', 'rest', 'FontWeight', 'bold', 'FontSize', 12,...
'Position', [200 590 350 20]);
static_classification = uicontrol(classification_gui, 'Style', 'text', 'String', 'Last classification', 'FontSize', 12,...
'Position', [10, 510 540 20]);
static_result_mag_1 = uicontrol(classification_gui, 'Style', 'text', 'String', 'Magnitude', 'FontSize', 12,...
'Position', [10, 470 150 20]);
static_result_mag_2 = uicontrol(classification_gui, 'Style', 'text', 'Tag', 'result_mag', 'String', '', 'FontWeight', 'bold', 'FontSize', 12,...
'Position', [200, 470 350 20]);
static_result_xyz_1 = uicontrol(classification_gui, 'Style', 'text', 'String', 'Majority x/y/z', 'FontSize', 12,...
'Position', [10, 430 150 20]);
static_result_xyz_2 = uicontrol(classification_gui, 'Style', 'text', 'Tag', 'result_xyz', 'String', '', 'FontWeight', 'bold', 'FontSize', 12,...
'Position', [200, 430 350 20]);
static_LL = uicontrol(classification_gui, 'Style', 'text', 'String', 'LL matrix', 'FontSize', 12,...
'Position', [10, 390 150 20]);
static_pause = uicontrol(classification_gui, 'Style', 'pushbutton', 'String', 'Pause',...
'Position', [10 340 150 30]);
set(static_pause, 'Callback', {@callback_pause});
mydata.pause = static_pause;
guidata(classification_gui, mydata);
% create LL matrix
columnName = cell(1,1);
columnName{1, 1} = 'x';
columnName{1, 2} = 'y';
columnName{1, 3} = 'z';
columnName{1, 4} = 'mag';
rowName = cell(1, 1);
global gestures;
len = size(gestures);
len = len(2);
for i = 1:len
gesture = gestures{1, i};
rowName{1, i} = gesture.Name;
end
LL = zeros(len, 4);
rowHeight = 25;
table_height = (len+1)*rowHeight;
table_height = 100;
table = uitable(classification_gui, 'Tag', 'LL', 'Data', LL, 'ColumnName', columnName, 'RowName', rowName, 'Position', [200 410 - table_height 350 table_height]);
axes_classification = axes('Parent', classification_gui, 'Position', [0.05 0.05 0.4 0.3]);
axes_image = axes('Parent', classification_gui, 'Position', [0.55 0.05 0.4 0.3]);
end
function varargout = callback_pause(h, eventdata)
mydata = guidata(h);
pause = mydata.pause;
% adjust classification flag accordingly
global CLASSIFICATION;
if (CLASSIFICATION == 1)
set(pause, 'String', 'Resume');
CLASSIFICATION = 0;
else
set(pause, 'String', 'Pause');
CLASSIFICATION = 1;
end
function varargout = close_fcn(h, eventdata)
global CLASSIFICATION;
CLASSIFICATION = 0;
delete(h); | 113mant-matges | Matlab/classificationGUI.m | MATLAB | gpl2 | 4,048 |
%system('./dx3.sh /dev/ttyUSB0')
buffer_len = 256;
sensor = fopen('/dev/ttyUSB0', 'r');
% load buffer initially
buffer = fscanf(sensor, '%c', buffer_len);
% synchronize initially
i = 0;
while(0)
if (buffer(0) == 'D' && buffer(1) == 'X' && buffer(2) == '3')
circularshift(buffer, [1,-3]);
buffer(buffer_len - 3) = fscanf(sensor, '%c', 1);
buffer(buffer_len - 2) = fscanf(sensor, '%c', 1);
buffer(buffer_len - 1) = fscanf(sensor, '%c', 1);
else
circularshift(buffer, [1,-1]);
buffer(buffer_len - 1) = fscanf(sensor, '%c', 1);
end
i = i + 1;
if (c == 'D')
end
end
| 113mant-matges | Matlab/support/reader.m | MATLAB | gpl2 | 653 |
% Gesture recognition with Matlab.
% Copyright (C) 2008 Thomas Holleczek, ETH Zurich
%
% This program is free software: you can redistribute it and/or modify
% it under the terms of the GNU General Public License as published by
% the Free Software Foundation, either version 3 of the License, or
% (at your option) any later version.
%
% This program is distributed in the hope that it will be useful,
% but WITHOUT ANY WARRANTY; without even the implied warranty of
% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
% GNU General Public License for more details.
%
% You should have received a copy of the GNU General Public License
% along with this program. If not, see <http://www.gnu.org/licenses/>.
function x = compress(discretized)
x = zeros(1);
x(1) = discretized(1);
dataSize = size(discretized);
for i = 2:dataSize(2)
lastIndex = size(x);
lastIndex = lastIndex(2);
if (discretized(i) == x(lastIndex))
% merge discretized values, i.e. don't do anything
else
% do not merge discretized values, i.e. append current value to
% result
x(lastIndex + 1) = discretized(i);
end
end | 113mant-matges | Matlab/support/compress.m | MATLAB | gpl2 | 1,174 |
function x = select_test()
len = 2;
buttons = cell(1, len);
select_gui = figure('Name', 'HMM modification', 'Position', [1100, 550, 400, 400]);
bgh = uibuttongroup('Parent', select_gui, 'Title', 'Gesture selection', 'Tag', 'group', 'Position', [0.1, 0.2, 0.7, 0.7]);
button_select = uicontrol(select_gui, 'Style', 'pushbutton', 'String', 'Select', 'Position', [50 20 300 30]);
set(button_select, 'Callback', {@callback_select});
name_space_vert_per = 0.1;
name_height_per = (1 - name_space_vert_per) / cast(len, 'double');
name_left_per = 0.1;
name_width_per = 0.7;
name_space_single = name_space_vert_per / cast(len + 1, 'double');
for i = 1:len
tag = sprintf('name%d', i);
inv = len - i + 1;
name_bottom_per = inv * name_space_single + (inv - 1) * name_height_per;
name_left_per
name_bottom_per
name_width_per
name_height_per
buttons{1, i} = uicontrol(bgh, 'Style', 'radiobutton', 'Tag', tag, 'String', tag, 'Units', 'normalized',...
'Position', [name_left_per, name_bottom_per, name_width_per, name_height_per]);
end
| 113mant-matges | Matlab/support/select_test.m | MATLAB | gpl2 | 1,232 |
system('stty -F /dev/rfcomm10 38400 raw');
system('stty -F /dev/rfcomm10');
pause(2);
sensor = fopen('/dev/rfcomm10', 'r');
buffer = fread(sensor, 17, 'int8')
| 113mant-matges | Matlab/support/readBlue.m | MATLAB | gpl2 | 166 |
% Gesture recognition with Matlab.
% Copyright (C) 2008 Thomas Holleczek, ETH Zurich
%
% This program is free software: you can redistribute it and/or modify
% it under the terms of the GNU General Public License as published by
% the Free Software Foundation, either version 3 of the License, or
% (at your option) any later version.
%
% This program is distributed in the hope that it will be useful,
% but WITHOUT ANY WARRANTY; without even the implied warranty of
% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
% GNU General Public License for more details.
%
% You should have received a copy of the GNU General Public License
% along with this program. If not, see <http://www.gnu.org/licenses/>.
function x = convert(a, b)
x = 256 * b + a;
| 113mant-matges | Matlab/support/convert.m | MATLAB | gpl2 | 773 |
function varargout = recordGUI(name, units)
global large_buffer_ind;
win_width = 1600;
win_height = 370;
button_width = 80;
space = 0.1; % space between graphs in total
space_btw_plots = space / cast(units + 1, 'double'); % space between plots
gui = figure('Name', name, 'Position', [0, 40, win_width, win_height]);
myhandles = guihandles(gui);
myhandles.gui = gui;
myhandles.name = name;
myhandles.units = units;
myhandles.space = space;
myhandles.space_btw_plots = space_btw_plots;
myhandles.start_time = zeros(1, units);
myhandles.end_time = zeros(1, units);
myhandles.axes_handle = zeros(1, units);
% cell array storing recorded gesture
myhandles.recorded_data = cell(units, 4);
% cell array storing descretized values of gesture
myhandles.discretized_data = cell(units, 4);
button_train = uicontrol(gui, 'Style', 'pushbutton', 'String', 'Train HMM', 'Position', [40, win_height - 50, win_width - 80, 30]);
set(button_train, 'Callback', {@callback_train});
% define buttons and axes
for i = 1:units
plot_width = (1.0 - space) / cast(units, 'double');
plot_height = 0.6;
plot_left = space_btw_plots * cast(i, 'double') + plot_width * cast(i - 1, 'double');
plot_bottom = 0.2;
myhandles.axes_handle(i) = axes('Parent', gui, 'Position', [plot_left, plot_bottom, plot_width, plot_height]);
xpos = cast(plot_left * win_width, 'int32');
button_start(i) = uicontrol('Parent', gui, 'Value', i, 'Style', 'pushbutton', 'String','Start',...
'Position', [xpos, 10, button_width, 20]);
set(button_start(i), 'Callback', {@callback_start, i});
xpos = xpos + button_width;
button_end(i) = uicontrol(gui, 'Value', i, 'Style', 'pushbutton', 'String', 'End',...
'Position', [xpos, 10, button_width, 20]);
set(button_end(i), 'Callback', {@callback_end, i});
xpos = xpos + button_width;
button_clear(i) = uicontrol(gui, 'Value', i, 'Style', 'pushbutton', 'String', 'Clear',...
'Position', [xpos, 10, button_width, 20]);
set(button_clear(i), 'Callback', {@callback_clear, i});
end
guidata(gui, myhandles);
% callback functions
function varargout = callback_start(h, eventdata, index)
global large_buffer_ind;
mydata = guidata(h);
mydata.start_time(1, index) = large_buffer_ind;
large_buffer_ind
guidata(h, mydata);
function varargout = callback_end(h, eventdata, index)
global large_buffer;
global large_buffer_ind;
global large_buffer_len;
global discretized_buffer;
mydata = guidata(h);
mydata.end_time(1, index) = large_buffer_ind;
large_buffer_ind
mystart = mydata.start_time(1, index);
myend = large_buffer_ind;
if (mystart ~= 0)
record_len = mod((myend - 1) - (mystart - 1), large_buffer_len) + 1;
record = zeros(4, record_len);
discretized_record = zeros(4, record_len);
% copy data from buffer
i = mystart - 1;
ctr = 1;
%fprintf(1, 'start: %d, end: %d\n', mystart, myend);
while (ctr <= record_len)
% get buffer contents
for k = 1:4
record(k, ctr) = large_buffer(k, i + 1);
discretized_record(k, ctr) = discretized_buffer(k, i + 1);
end
% update indices
i = mod(i + 1, large_buffer_len);
ctr = ctr + 1;
end
% save recorded data
for k = 1:4
mydata.recorded_data{index, k} = record(k,:);
mydata.discretized_data{index, k} = discretized_record(k,:);
end
% plot recorded gesture
diagram = mydata.axes_handle(index);
axes(diagram);
record_plot = record(1:3,:);
record_plot = record_plot';
plot(record_plot);
% reset start and end index
mydata.start_time(1, index) = 0;
mydata.end_time(1, index) = 0;
else
% nothing, as start button has not yet been pressed
end
guidata(h, mydata);
function varargout = callback_clear(h, eventdata, index)
mydata = guidata(h);
diagram = mydata.axes_handle(index);
axes(diagram);
plot(1);
% remove recorded data
for k = 1:4
mydata.recorded_data{index,k}=[];
end
% load new data
guidata(h, mydata);
function varargout = callback_train(h, eventdata)
mydata = guidata(h);
% check if all training units are available
for i = 1:mydata.units
if (size(mydata.recorded_data{i, 1}) == 0)
return; % training unit is missing
end
end
close(mydata.gui);
| 113mant-matges | Matlab/support/recordGUI.saved.m | MATLAB | gpl2 | 4,786 |
function [LL, prior, transmat, obsmat, gamma] = learn_dhmm(data, prior, transmat, obsmat, max_iter, thresh, ...
verbose, act, adj_prior, adj_trans, adj_obs, dirichlet)
% LEARN_HMM Find the ML parameters of an HMM with discrete outputs using EM.
%
% [LL, PRIOR, TRANSMAT, OBSMAT] = LEARN_HMM(DATA, PRIOR0, TRANSMAT0, OBSMAT0)
% computes maximum likelihood estimates of the following parameters,
% where, for each time t, Q(t) is the hidden state, and
% Y(t) is the observation
% prior(i) = Pr(Q(1) = i)
% transmat(i,j) = Pr(Q(t+1)=j | Q(t)=i)
% obsmat(i,o) = Pr(Y(t)=o | Q(t)=i)
% It uses PRIOR0 as the initial estimate of PRIOR, etc.
%
% Row l of DATA is the observation sequence for example l. If the sequences are of
% different lengths, you can pass in a cell array, so DATA{l} is a vector.
% If there is only one sequence, the estimate of prior will be poor.
% If all the sequences are of length 1, transmat cannot be estimated.
%
% LL is the "learning curve": a vector of the log likelihood values at each iteration.
%
% There are several optional arguments, which should be passed in the following order
% LEARN_HMM(DATA, PRIOR, TRANSMAT, OBSMAT, MAX_ITER, THRESH, VERBOSE)
% These have the following meanings
% max_iter = max. num EM steps to take (default 10)
% thresh = threshold for stopping EM (default 1e-4)
% verbose = 0 to suppress the display of the log lik at each iteration (Default 1).
%
% If the transition matrix is non-stationary (e.g., as in a POMDP),
% then TRANSMAT should be a cell array, where T{a}(i,j) = Pr(Q(t+1)=j|Q(t)=i,A(t)=a).
% The last arg should specify the sequence of actions in the same form as DATA:
% LEARN_HMM(DATA, PRIOR, TRANSMAT, OBSMAT, MAX_ITER, THRESH, VERBOSE, As)
% The action at time 1 is ignored.
%
% If you want to clamp some of the parameters at fixed values, set the corresponding adjustable
% argument to 0 (default: everything is adjustable)
% LEARN_HMM(..., VERBOSE, As, ADJ_PRIOR, ADJ_TRANS, ADJ_OBS)
%
% To avoid 0s when estimating OBSMAT, specify a non-zero equivalent sample size (e.g., 0.01) for
% the Dirichlet prior: LEARN_HMM(..., ADJ_OBS, DIRICHLET)
%
% When there is a single sequence, the smoothed posteriors using the penultimate set of
% parameters are returned in GAMMA:
% [LL, PRIOR, TRANSMAT, OBSMAT, GAMMA] = LEARN_HMM(...)
% This can be useful for online learning and decision making.
%learn_dhmm(data, prior, transmat, obsmat, max_iter, thresh, verbose, act, adj_prior, adj_trans, adj_obs, dirichlet)
if nargin < 5, max_iter = 10; end
if nargin < 6, thresh = 1e-4; end
if nargin < 7, verbose = 1; end
if nargin < 8
act = [];
A = 0;
else
A = length(transmat);
end
if nargin < 9, adj_prior = 1; end
if nargin < 10, adj_trans = 1; end
if nargin < 11, adj_obs = 1; end
if nargin < 12, dirichlet = 0; end
previous_loglik = -inf;
loglik = 0;
converged = 0;
num_iter = 1;
LL = [];
if ~iscell(data)
data = num2cell(data, 2); % each row gets its own cell
end
if ~isempty(act) & ~iscell(act)
act = num2cell(act, 2);
end
numex = length(data);
while (num_iter <= max_iter) & ~converged
% E step
[loglik, exp_num_trans, exp_num_visits1, exp_num_emit, gamma] = ...
compute_ess(prior, transmat, obsmat, data, act, dirichlet);
if verbose, fprintf(1, 'iteration %d, loglik = %f\n', num_iter, loglik); end
num_iter = num_iter + 1;
% M step
if adj_prior
prior = normalise(exp_num_visits1);
end
if adj_trans & ~isempty(exp_num_trans)
if isempty(act)
transmat = mk_stochastic(exp_num_trans);
else
for a=1:A
transmat{a} = mk_stochastic(exp_num_trans{a});
end
end
end
if adj_obs
obsmat = mk_stochastic(exp_num_emit);
end
converged = em_converged(loglik, previous_loglik, thresh);
previous_loglik = loglik;
LL = [LL loglik];
end
%%%%%%%%%%%
function [loglik, exp_num_trans, exp_num_visits1, exp_num_emit, gamma] = ...
compute_ess(prior, transmat, obsmat, data, act, dirichlet)
%
% Compute the Expected Sufficient Statistics for a discrete Hidden Markov Model.
%
% Outputs:
% exp_num_trans(i,j) = sum_l sum_{t=2}^T Pr(X(t-1) = i, X(t) = j| Obs(l))
% exp_num_visits1(i) = sum_l Pr(X(1)=i | Obs(l))
% exp_num_emit(i,o) = sum_l sum_{t=1}^T Pr(X(t) = i, O(t)=o| Obs(l))
% where Obs(l) = O_1 .. O_T for sequence l.
numex = length(data);
[S O] = size(obsmat);
if isempty(act)
exp_num_trans = zeros(S,S);
A = 0;
else
A = length(transmat);
exp_num_trans = cell(1,A);
for a=1:A
exp_num_trans{a} = zeros(S,S);
end
end
exp_num_visits1 = zeros(S,1);
exp_num_emit = dirichlet*ones(S,O);
loglik = 0;
estimated_trans = 0;
for ex=1:numex
obs = data{ex};
T = length(obs);
olikseq = mk_dhmm_obs_lik(obs, obsmat);
if isempty(act)
[gamma, xi, current_ll] = forwards_backwards(prior, transmat, olikseq);
else
[gamma, xi, current_ll] = forwards_backwards_pomdp(prior, transmat, olikseq, act{ex});
end
loglik = loglik + current_ll;
if T > 1
estimated_trans = 1;
if isempty(act)
exp_num_trans = exp_num_trans + sum(xi,3);
else
% act(2) determines Q(2), xi(:,:,1) holds P(Q(1), Q(2))
A = length(transmat);
for a=1:A
ndx = find(act{ex}(2:end)==a);
if ~isempty(ndx)
exp_num_trans{a} = exp_num_trans{a} + sum(xi(:,:,ndx), 3);
end
end
end
end
exp_num_visits1 = exp_num_visits1 + gamma(:,1);
if T < O
for t=1:T
o = obs(t);
exp_num_emit(:,o) = exp_num_emit(:,o) + gamma(:,t);
end
else
for o=1:O
ndx = find(obs==o);
if ~isempty(ndx)
exp_num_emit(:,o) = exp_num_emit(:,o) + sum(gamma(:, ndx), 2);
end
end
end
end
if ~estimated_trans
exp_num_trans = [];
end
| 113mant-matges | Matlab/learn_dhmm.m | MATLAB | gpl2 | 5,852 |
% Gesture recognition with Matlab.
% Copyright (C) 2008 Thomas Holleczek, ETH Zurich
%
% This program is free software: you can redistribute it and/or modify
% it under the terms of the GNU General Public License as published by
% the Free Software Foundation, either version 3 of the License, or
% (at your option) any later version.
%
% This program is distributed in the hope that it will be useful,
% but WITHOUT ANY WARRANTY; without even the implied warranty of
% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
% GNU General Public License for more details.
%
% You should have received a copy of the GNU General Public License
% along with this program. If not, see <http://www.gnu.org/licenses/>.
function x = show_HMMs(index)
global gestures;
global gestures_initialized;
win_width = 1400;
win_height = 600;
name_width = 100;
name_height = 15;
start_vert = 0.9;
space_hor = 0.1;
space_vert = 0.2;
top = 0.1; % space (%) between top row and upper edge of window
% height of matrices (%)
matrix_height_per = 0.2;
matrix_height = matrix_height_per * win_height;
titles = cell(1, 1);
titles{1, 1} = 'x';
titles{1, 2} = 'y';
titles{1, 3} = 'z';
titles{1, 4} = 'mag';
if (gestures_initialized)
len = 4;
gesture = gestures{1, index};
title = sprintf('Recovered HMMs for %s', gesture.Name);
hmm_gui = figure('Name', title, 'Position', [0, 40, win_width, win_height]);
set(hmm_gui, 'CloseRequestFcn', @close_fcn);
mydata = guihandles(hmm_gui);
mydata.gui = hmm_gui;
mydata.Index = index;
matrix_width_per = (1 - space_hor) / cast(len, 'double');
matrix_width = matrix_width_per * win_width;
space_matrix_hor_per = space_hor / cast(len + 1, 'double');
space_matrix_hor = space_matrix_hor_per * win_width;
space_matrix_vert_per = (start_vert - 3 * matrix_height_per) / cast(len, 'double');
space_matrix_vert = space_matrix_vert_per * win_height;
matrix_trans_bottom = space_matrix_vert;
matrix_obs_bottom = matrix_trans_bottom + space_matrix_vert + matrix_height;
matrix_init_bottom = matrix_obs_bottom + space_matrix_vert + matrix_height;
tables = cell(len, 3);
button_load = uicontrol(hmm_gui, 'Style', 'pushbutton', 'String', 'Apply changes', 'Position',...
[space_matrix_hor, (1 - top) * win_height + 10, win_width - 2*space_matrix_hor, 25]);
set(button_load, 'Callback', {@callback_load});
for i = 1:len
name_left = space_matrix_hor * i + matrix_width * (i - 1);
name_bottom = win_height - name_height - top * win_height;
matrix_left = name_left;
rowName = cell(1, 1);
states = size(gesture.Transition_matrix{1, i});
states = states(1);
for k = 1:states
rowName{1, k} = sprintf('State %d', k);
end
colName_trans = rowName;
colName_init = cell(1, 1);
colName_init{1, 1} = 'p';
colName_obs = cell(1, 1);
obs = size(gesture.Observation_matrix{1, i});
obs = obs(2);
for k = 1:obs
colName_obs{1, k} = sprintf('Obs %d', k);
end
colEdit_init = true;
colEdit_trans = true(1, states);
colEdit_obs = true(1, obs);
buttons{1, i} = uicontrol(hmm_gui, 'Style', 'text', 'String', titles{1, i}, 'Position', [name_left name_bottom name_width name_height]);
tables{i, 1} = uitable(hmm_gui,...
'Data', gesture.Prior_matrix{1, i},...
'ColumnName', colName_init,...
'ColumnWidth',{55},...
'RowName', rowName,...
'ColumnEditable', colEdit_init,...
'CellEditCallback', {@callback_table, i, 1},...
'Position', [matrix_left, matrix_init_bottom, matrix_width, matrix_height]);
tables{i, 2} = uitable(hmm_gui,...
'Data', gesture.Transition_matrix{1, i},...
'ColumnName', colName_trans,...
'ColumnWidth',{55},...
'RowName', rowName,...
'ColumnEditable', colEdit_trans,...
'CellEditCallback', {@callback_table, i, 2},...
'Position', [matrix_left, matrix_trans_bottom, matrix_width, matrix_height]);
tables{i, 3} = uitable(hmm_gui, 'Data', gesture.Observation_matrix{1, i},...
'ColumnName', colName_obs,...
'ColumnWidth',{55},...
'RowName', rowName,...
'ColumnEditable', colEdit_obs,...
'CellEditCallback', {@callback_table, i, 3},...
'Position', [matrix_left, matrix_obs_bottom, matrix_width, matrix_height]);
end
mydata.tables = tables;
guidata(hmm_gui, mydata);
global SUSPEND_PLOT;
SUSPEND_PLOT = 1;
end
function callback_load(h, eventdata)
mydata = guidata(h);
gui = mydata.gui;
global gestures;
gesture = gestures{1, mydata.Index};
gestures{1, mydata.Index} = gesture.normalize();
close(gui);
global SUSPEND_PLOT;
SUSPEND_PLOT = 0;
function varargout = callback_table(h, eventdata, signal, matrixType)
global gestures;
mydata = guidata(h);
gesture = gestures{1, mydata.Index};
i = eventdata.Indices(1, 1);
k = eventdata.Indices(1, 2);
if (matrixType == 1)
matrix = gesture.Prior_matrix{1, signal};
matrix(i, k) = eventdata.NewData;
gesture = gesture.set_prior_matrix(1, signal, matrix);
gestures{1, mydata.Index} = gesture;
elseif (matrixType == 2)
matrix = gesture.Transition_matrix{1, signal};
matrix(i, k) = eventdata.NewData;
gesture = gesture.set_trans_matrix(1, signal, matrix);
gestures{1, mydata.Index} = gesture;
else
matrix = gesture.Observation_matrix{1, signal};
matrix(i, k) = eventdata.NewData;
gesture = gesture.set_obs_matrix(1, signal, matrix);
gestures{1, mydata.Index} = gesture;
end
fprintf('hello signal:%d matrixType:%d\n', signal, matrixType);
function varargout = close_fcn(h, eventdata)
global gestures;
mydata = guidata(h);
gesture = gestures{1, mydata.Index};
gestures{1, mydata.Index} = gesture.normalize();
delete(h);
| 113mant-matges | Matlab/show_HMMs.m | MATLAB | gpl2 | 6,191 |