row_id
int64 0
48.4k
| init_message
stringlengths 1
342k
| conversation_hash
stringlengths 32
32
| scores
dict |
|---|---|---|---|
13,462
|
Networking and Web Services in java
|
5aca47b467de285189f8dcd13033974f
|
{
"intermediate": 0.5313616991043091,
"beginner": 0.21734704077243805,
"expert": 0.2512911856174469
}
|
13,463
|
why dont the images open? import random
from PIL import Image
# Define the artists and their monthly Spotify listeners
artists = {
'Young Nudy': {"image":"./fotos/Young Nudy_1.jpeg", "listeners": 7553116},
'Young Thug': {"image":"./fotos/Young Thug_1.jpeg", "listeners": 28887553},
'Yungeen Ace': {"image":"./fotos/Yungeen Ace_1.jpeg", "listeners": 1294188},
}
while True:
score = 0 # reset score at the beginning of each game
first_artist, second_artist = random.sample(list(artists.keys()), 2)
# Load the images for the artists
first_artist_image = Image.open(artists[first_artist]["image"])
second_artist_image = Image.open(artists[second_artist]["image"])
while True:
# Display the images
image.show(first_artist_image)
image.show(second_artist_image)
guess = input(f"\nWhich artist has more monthly Spotify listeners - 1. {first_artist.title()} or 2. {second_artist.title()}? ")
guess_lower = guess.strip().lower()
if guess_lower == 'quit':
print("Thanks for playing!")
quit()
elif guess_lower not in ['1', '2', first_artist.lower(), second_artist.lower()]:
print("Invalid input. Please enter the name of one of the two artists or 'quit' to end the game.")
elif guess_lower == first_artist.lower() or guess_lower == '1' and artists[first_artist]["listeners"] > artists[second_artist]["listeners"]:
print(f"You guessed correctly! {first_artist.title()} had {artists[first_artist]['listeners'] / 1e6:.1f}M monthly Spotify listeners and {second_artist.title()} has {artists[second_artist]['listeners'] / 1e6:.1f}M monthly Spotify listeners.")
score += 1
first_artist, second_artist = random.sample(list(artists.keys()), 2) # select new artists for the next round
# Load the images for the new artists
first_artist_image = Image.open(artists[first_artist]["image"])
second_artist_image = Image.open(artists[second_artist]["image"])
continue
elif guess_lower == second_artist.lower() or guess_lower == '2' and artists[second_artist]["listeners"] > artists[first_artist]["listeners"]:
print(f"You guessed correctly! {second_artist.title()} had {artists[second_artist]['listeners'] / 1e6:.1f}M monthly Spotify listeners and {first_artist.title()} has {artists[first_artist]['listeners'] / 1e6:.1f}M monthly Spotify listeners.")
score += 1
first_artist, second_artist = random.sample(list(artists.keys()), 2) # select new artists for the next round
# Load the images for the new artists
first_artist_image = Image.open(artists[first_artist]["image"])
second_artist_image = Image.open(artists[second_artist]["image"])
continue
else:
print(f"\nSorry, you guessed incorrectly. {first_artist.title()} had {artists[first_artist]['listeners'] / 1e6:.1f}M monthly Spotify listeners and {second_artist.title()} has {artists[second_artist]['listeners'] / 1e6:.1f}M monthly Spotify listeners.\n")
print(f"Your final score is {score}.")
play_again = input("Would you like to play again? (y/n) ")
if play_again.lower() == 'n':
print("Thanks for playing!")
quit()
else:
score = 0
first_artist, second_artist = random.sample(list(artists.keys()), 2) # select new artists for the next round
# Load the images for the new artists
first_artist_image = Image.open(artists[first_artist]["image"])
second_artist_image = Image.open(artists[second_artist]["image"])
break
|
570fab2999fb0a8c4e18e5e7da833425
|
{
"intermediate": 0.2767770290374756,
"beginner": 0.42796146869659424,
"expert": 0.2952614724636078
}
|
13,464
|
fouries series frequency , amplitude, phases
|
9a17b663c396a47176811486fa1ed76c
|
{
"intermediate": 0.4467043876647949,
"beginner": 0.29093822836875916,
"expert": 0.26235732436180115
}
|
13,465
|
write html code for simple form
|
a02a6f65771a2d681038900adc1c4da4
|
{
"intermediate": 0.3452727198600769,
"beginner": 0.36157432198524475,
"expert": 0.29315298795700073
}
|
13,466
|
I have Nging on front and apache on back. how to create Lets Encrypt ssl certificate for subdomain in ubuntu?
|
913b5241b1b6f739676e0e99b7740025
|
{
"intermediate": 0.5867370963096619,
"beginner": 0.19636215269565582,
"expert": 0.2169007509946823
}
|
13,467
|
In rofi configuration, how can I get rid of the "run" string when using "run" mode?
|
715f3314edc6333e509cec8107077ab7
|
{
"intermediate": 0.33639195561408997,
"beginner": 0.27809956669807434,
"expert": 0.3855085074901581
}
|
13,468
|
I want you to act as a data scientist and code for me. I have a dataset of as follow. Please build a machine learning model that predict
code time_key open close high low pe_ratio turnover_rate volume turnover change_rate last_close
148 4/5/2023 0:00 23.45 23.8 23.8 23.4 7.2 0.006554942 71000 2.81 23.15
317 4/5/2023 0:00 11.2 11.28 11.56 11.04 20.83 0.037366074 1078000 2.55 11
558 4/5/2023 0:00 7.95 7.95 7.98 7.87 19.1 0.053763794 740000 1.02 7.87
631 4/5/2023 0:00 10.58 10.48 10.76 10.46 20.3 0.077287376 2456389 -0.19 10.5
838 4/5/2023 0:00 0.84 0.82 0.84 0.82 7.03 0.006548266 114000 -1.2 0.83
868 4/5/2023 0:00 13.92 14.16 14.24 13.84 11.27 0.017989255 742001 1.72 13.92
|
ef26e902342fc189d3f26b2240283eac
|
{
"intermediate": 0.2424582839012146,
"beginner": 0.28186526894569397,
"expert": 0.4756764769554138
}
|
13,469
|
{
title: <FormattedMessage id="Read bytes" defaultMessage="Read bytes" />,
dataIndex: 'readBytes',
render: (dom, entity) => (
<div style={{ display: 'flex', flexWrap: 'nowrap' }}>
{entity.readBytes!.map((item) => (
<svg
style={{ display: 'inline-block', width: '5px', height: '5px', marginRight: '2px' }}
>
<circle cx="2.5" cy="2.5" r="2.5" stroke="#888" stroke-width="1" fill="#1890ff" />
</svg>
))}
</div>
),
}, как к каждому svg прикрепить tooltip?
|
5f373ad58925ca6a451b9aa56f0e28ad
|
{
"intermediate": 0.36111077666282654,
"beginner": 0.33182060718536377,
"expert": 0.3070686161518097
}
|
13,470
|
{
title: <FormattedMessage id="Host" defaultMessage="Host" />,
dataIndex: 'host',
tip: 'The host is the unique key',
render: (dom, entity) => {
return (
<a
onClick={() => {
setCurrentRow(entity);
setShowDetail(true);
}}
>
{dom}
</a>
);
},
}, как сделать так чтобы при клике в таблице ниже создавался не разделенный на столбы ряд с каким либо текстом в несколько строк?
|
8e8be8a13e95da5a743e5bfb6be5c5cf
|
{
"intermediate": 0.36943838000297546,
"beginner": 0.33769240975379944,
"expert": 0.2928691506385803
}
|
13,471
|
I want to make a script that will remove all <page> content that has a namespace value that is any number besides 0.
|
8a84a7444bf44545b7d2b4724b8b2abd
|
{
"intermediate": 0.2995056211948395,
"beginner": 0.26392316818237305,
"expert": 0.4365712106227875
}
|
13,472
|
Is it possible to have multiple fonts in a rofi menu?
|
16195a40bd7948e88aaef1d3f7432ef5
|
{
"intermediate": 0.3330252766609192,
"beginner": 0.24479222297668457,
"expert": 0.42218253016471863
}
|
13,473
|
I want to make a script that will remove all <page> content that has a namespace value that is any number besides 0. this must have drag and drop functionality and remove the entire <page> content, including the <page></page> tags.
|
b6cc43d819a3c34ed9a40858208eca6f
|
{
"intermediate": 0.37739047408103943,
"beginner": 0.23454849421977997,
"expert": 0.3880610764026642
}
|
13,474
|
Create a python script that will remove all <page> content that has a namespace value that is any number besides 0. this must have drag and drop functionality and remove the entire <page> content, including the <page></page> tags.
|
81f86c0f193eb8d47c1cf48026282f86
|
{
"intermediate": 0.3608956038951874,
"beginner": 0.23528915643692017,
"expert": 0.40381520986557007
}
|
13,475
|
`<mediawiki xmlns=“http://www.mediawiki.org/xml/export-0.11/” xmlns:xsi=“http://www.w3.org/2001/XMLSchema-instance” xsi:schemaLocation=“http://www.mediawiki.org/xml/export-0.11/ http://www.mediawiki.org/xml/export-0.11.xsd” version=“0.11” xml:lang=“en”>
<siteinfo>
<sitename>I-chu Wiki</sitename>
<dbname>ichu</dbname>
<base>http://i-chu.fandom.com/wiki/I-chu_Wiki</base>
<generator>MediaWiki 1.37.4</generator>
<case>first-letter</case>
<namespaces>
<namespace key=“-2” case=“first-letter”>Media</namespace>
<namespace key=“-1” case=“first-letter”>Special</namespace>
<namespace key=“0” case=“first-letter” />
<namespace key=“1” case=“first-letter”>Talk</namespace>
<namespace key=“2” case=“first-letter”>User</namespace>
<namespace key=“3” case=“first-letter”>User talk</namespace>
<namespace key=“4” case=“first-letter”>I-chu Wiki</namespace>
<namespace key=“5” case=“first-letter”>I-chu Wiki talk</namespace>
<namespace key=“6” case=“first-letter”>File</namespace>
<namespace key=“7” case=“first-letter”>File talk</namespace>
<namespace key=“8” case=“first-letter”>MediaWiki</namespace>
<namespace key=“9” case=“first-letter”>MediaWiki talk</namespace>
<namespace key=“10” case=“first-letter”>Template</namespace>
<namespace key=“11” case=“first-letter”>Template talk</namespace>
<namespace key=“12” case=“first-letter”>Help</namespace>
<namespace key=“13” case=“first-letter”>Help talk</namespace>
<namespace key=“14” case=“first-letter”>Category</namespace>
<namespace key=“15” case=“first-letter”>Category talk</namespace>
<namespace key=“110” case=“first-letter”>Forum</namespace>
<namespace key=“111” case=“first-letter”>Forum talk</namespace>
<namespace key=“420” case=“first-letter”>GeoJson</namespace>
<namespace key=“421” case=“first-letter”>GeoJson talk</namespace>
<namespace key=“500” case=“first-letter”>User blog</namespace>
<namespace key=“501” case=“first-letter”>User blog comment</namespace>
<namespace key=“502” case=“first-letter”>Blog</namespace>
<namespace key=“503” case=“first-letter”>Blog talk</namespace>
<namespace key=“710” case=“first-letter”>TimedText</namespace>
<namespace key=“711” case=“first-letter”>TimedText talk</namespace>
<namespace key=“828” case=“first-letter”>Module</namespace>
<namespace key=“829” case=“first-letter”>Module talk</namespace>
<namespace key=“1200” case=“first-letter”>Message Wall</namespace>
<namespace key=“1201” case=“first-letter”>Thread</namespace>
<namespace key=“1202” case=“first-letter”>Message Wall Greeting</namespace>
<namespace key=“2000” case=“first-letter”>Board</namespace>
<namespace key=“2001” case=“first-letter”>Board Thread</namespace>
<namespace key=“2002” case=“first-letter”>Topic</namespace>
<namespace key=“2900” case=“first-letter”>Map</namespace>
<namespace key=“2901” case=“first-letter”>Map talk</namespace>
</namespaces>
</siteinfo>
<page>
<title>I-chu Wiki:Copyrights</title>
<ns>4</ns>
<id>1452</id>
<revision>
<id>3728</id>
<timestamp>2015-05-02T22:33:04Z</timestamp>
<contributor>
<username>Default</username>
<id>49312</id>
</contributor>
<origin>3728</origin>
<model>wikitext</model>
<format>text/x-wiki</format>
<text bytes=“397” sha1=“184h6kou71fwrz3b41tx9pa3zf3a3b1” xml:space=“preserve”>Except where otherwise specified, the text on Wikia sites is licensed under the Creative Commons Attribution-Share Alike License 3.0 (Unported) (CC-BY-SA).
* [http://creativecommons.org/licenses/by-sa/3.0/ Read the license summary]
* [http://creativecommons.org/licenses/by-sa/3.0/legalcode Read the full legal code of the license].
Please see [[w:Wikia:Licensing|Wikia:Licensing]] for details.</text>
<sha1>184h6kou71fwrz3b41tx9pa3zf3a3b1</sha1>
</revision>
</page>
<page>
<title>Category:Browse</title>
<ns>14</ns>
<id>1460</id>
<revision>
<id>3862</id>
<timestamp>2015-05-02T22:33:04Z</timestamp>
<contributor>
<username>Default</username>
<id>49312</id>
</contributor>
<minor/>
<comment>Reverted edits by [[Special:Contributions/Robin Patterson|Robin Patterson]] ([[User talk:Robin Patterson|talk]] | [[Special:Block/Robin Patterson|block]]) to last version by [[User:Susan Taylor|Susan Taylor]]</comment>
<origin>3862</origin>
<model>wikitext</model>
<format>text/x-wiki</format>
<text bytes=“227” sha1=“mionibs20om4gen6jorb90t8lcij5xw” xml:space=“preserve”>To add a new category to a page you can click the Category button at the bottom of the page and type in the name you’d like your category to be called.
A full list of existing categories can be found at [[Special:Categories]].</text>
<sha1>mionibs20om4gen6jorb90t8lcij5xw</sha1>
</revision>
</page>
<page>
<title>I-chu Wiki</title>
<ns>0</ns>
<id>1461</id>
<revision>
<id>105286</id>
<parentid>105232</parentid>
<timestamp>2019-12-01T19:29:06Z</timestamp>
<contributor>
<username>Namakemonos</username>
<id>27157972</id>
</contributor>
<origin>105286</origin>
<model>wikitext</model>
<format>text/x-wiki</format>
<text bytes=“815” sha1=“i63hpy852brmrtcpa6e6iphp9mn051k” xml:space=“preserve”><mainpage-leftcolumn-start />
{{MainPageWelcome}}
{{MainPageSlider}}
{{Featured Song}}<br />
{{FeaturedUnit}}
<mainpage-endcolumn />
<mainpage-rightcolumn-start />
{{MaintenanceNotice
|Maintenance = no <!-- yes / no -->
|Vertical = yes <!-- Keep for mainpage -->
|Date = September 27 2019
|Start time = 13:00
|End time = 16:00}}
{|class=“mainpagetemplatenobg” width=“100%” style=“color:black; text-align:center; background-color:none; font-size:89%; margin-bottom:10px;”
| colspan=“2” | {{Template:Calendar/Dec}}
|}
<p style=“border-bottom:1.5px solid #652386; border-top:1.5px solid #652386; border-left:1.5px solid #652386; border-right:1.5px solid #652386;”><twitter widget-id=“705548045694459905” screen-name=“ichuwiki”></twitter></p>
{{Poll}}<br />
{{Affiliates}}
<mainpage-endcolumn />
[[Category:Browse]]</text>
<sha1>i63hpy852brmrtcpa6e6iphp9mn051k</sha1>
</revision>
</page>
</mediawiki>
Create a python script that will remove all <page> content that has a namespace value that is any number besides 0. this must have drag and drop functionality and remove the entire <page> content, including the <page></page> tags.
|
c077e1bc8b0331c955c6ed59e84f2fba
|
{
"intermediate": 0.37546855211257935,
"beginner": 0.44577541947364807,
"expert": 0.1787559688091278
}
|
13,476
|
import Images from "../assets/exportAssets";
import { useState, useEffect } from "react";
import { userRequest } from "../requestMethods";
import TimeAgo from "react-timeago";
interface Order {
_id: string;
userId: string;
products: [
{ productId: { type: String }; quantity: { type: Number; default: 1 } }
];
amount: number;
address: {};
status: string;
createdAt: string;
}
const WidgetLarge = () => {
const [orders, setOrders] = useState<Order[]>([]);
useEffect(() => {
const getOrders = async () => {
try {
const res = await userRequest.get("orders");
setOrders(res.data);
} catch (err) {
console.log(err);
}
};
getOrders();
}, []);
const ButtonComp = ({ type }: { type: string }) => {
return <button className={"widgetLarge__button " + type}>{type}</button>;
};
return (
<div className="widgetLarge">
<h3 className="widgetLarge__title">Latest transactions</h3>
<table className="widgetLarge__table">
<thead>
<tr className="widgetLarge__tr">
<th className="widgetLarge__th">Customer</th>
<th className="widgetLarge__th">Date</th>
<th className="widgetLarge__th">Amount</th>
<th className="widgetLarge__th">Status</th>
</tr>
</thead>
<tbody>
{orders.map((order) => (
<tr className="widgetLarge__tr" key={order._id}>
<td className="widgetLarge__user">
<span className="widgetLarge__name">{order.userId}</span>
</td>
<td className="widgetLarge__date">
<TimeAgo datetime={order.createdAt} locale="vi" />
</td>
<td className="widgetLarge__amount">{order.amount}pln</td>
<td className="widgetLarge__status">
<ButtonComp type={order.status} />
</td>
</tr>
))}
</tbody>
</table>
</div>
);
};
export default WidgetLarge;
No overload matches this call.
Overload 1 of 2, '(props: (ReactTimeagoProps<ComponentType<{}> | keyof IntrinsicElements> & ({} | DetailedHTMLProps<HTMLAttributes<HTMLTableSectionElement>, HTMLTableSectionElement> | ... 121 more ... | SVGProps<...>)) | Readonly<...>): ReactTimeago<...>', gave the following error.
Type '{ datetime: string; locale: string; }' is not assignable to type 'IntrinsicAttributes & (IntrinsicClassAttributes<ReactTimeago<ComponentType<{}> | keyof IntrinsicElements>> & Readonly<...>)'.
Property 'datetime' does not exist on type 'IntrinsicAttributes & (IntrinsicClassAttributes<ReactTimeago<ComponentType<{}> | keyof IntrinsicElements>> & Readonly<...>)'.
|
437c9dab48192806548407dda2ede63e
|
{
"intermediate": 0.296068400144577,
"beginner": 0.5265406966209412,
"expert": 0.17739088833332062
}
|
13,477
|
Help me find a mistake in my code
|
4dbe16196fb1ac22850a35bc7013967d
|
{
"intermediate": 0.2985609769821167,
"beginner": 0.4131905436515808,
"expert": 0.2882484793663025
}
|
13,478
|
using System.Collections;
using System.Collections.Generic;
using UnityEngine;
using UnityEngine.UI;
public class random : MonoBehaviour
{
public static string DogsImg;
void Update()
{
DogsImg = breed.answer;
Image image = GetComponent<Image>();
Sprite newSprite = null;
//Выбор картинки отображения
switch (DogsImg)
{
case "Абби (0)":
newSprite = Resources.Load("dog (0)");
break;
case "Азавак (1)":
newSprite = Resources.Load("dog (1)");
break;
case "Бастер (2)":
newSprite = Resources.Load("dog (2)");
break;
case "Белорусская овчарка (3)":
newSprite = Resources.Load("dog (3)");
break;
case "Бигль (4)":
newSprite = Resources.Load("dog (4)");
break;
case "Бладхаунд (5)":
newSprite = Resources.Load("dog (5)");
break;
case "Бультерьер (6)":
newSprite = Resources.Load("dog (6)");
break;
case "Винни (7)":
newSprite = Resources.Load("dog (7)");
break;
case "Восточно-сибирская лайка (8)":
newSprite = Resources.Load("dog (8)");
break;
case "Гриндель (9)":
newSprite = Resources.Load("dog (9)");
break;
case "Далматин (10)":
newSprite = Resources.Load("dog (10)");
break;
case "Дворняга (11)":
newSprite = Resources.Load("dog (11)");
break;
case "Джек-Рассел терьер (12)":
newSprite = Resources.Load("dog (12)");
break;
case "Западно-сибирская лайка (13)":
newSprite = Resources.Load("dog (13)");
break;
case "Золотой Ретривер (14)":
newSprite = Resources.Load("dog (14)");
break;
case "Керри-блю-терьер (15)":
newSprite = Resources.Load("dog (15)");
break;
case "Колли (16)":
newSprite = Resources.Load("dog (16)");
break;
case "Комондор (17)":
newSprite = Resources.Load("dog (17)");
break;
case "Корги (18)":
newSprite = Resources.Load("dog (18)");
break;
case "Корейский шпиц (19)":
newSprite = Resources.Load("dog (19)");
break;
case "Лхаса апсо (20)":
newSprite = Resources.Load("dog (20)");
break;
case "Неаполитанский мастиф (21)":
newSprite = Resources.Load("dog (21)");
break;
case "Немецкая овчарка (22)":
newSprite = Resources.Load("dog (22)");
break;
case "Овчарка (23)":
newSprite = Resources.Load("dog (23)");
break;
case "Парсон-рассел-терьер (24)":
newSprite = Resources.Load("dog (24)");
break;
case "Пти-брабансон (25)":
newSprite = Resources.Load("dog (25)");
break;
case "Русская гончая (26)":
newSprite = Resources.Load("dog (26)");
break;
case "Русская пегая гончая (27)":
newSprite = Resources.Load("dog (27)");
break;
case "Русская псовая борзая (28)":
newSprite = Resources.Load("dog (28)");
break;
case "Русский черный терьер (29)":
newSprite = Resources.Load("dog (29)");
break;
case "Русско-европейская лайка (30)":
newSprite = Resources.Load("dog (30)");
break;
case "Сахалинский хаски (31)":
newSprite = Resources.Load("dog (31)");
break;
case "Сиба-ину (32)":
newSprite = Resources.Load("dog (32)");
break;
case "Сибирский хаски (33)":
newSprite = Resources.Load("dog (33)");
break;
case "Чау-чау (34)":
newSprite = Resources.Load("dog (34)");
break;
case "Шелти (35)":
newSprite = Resources.Load("dog (35)");
break;
case "Японский хин (36)":
newSprite = Resources.Load("dog (36)");
break;
case "Японский шпиц (37)":
newSprite = Resources.Load("dog (37)");
}
image.sprite = newSprite;
}
}
Где ошибка?
|
9ef4ab86a9446743771b33492dc95a6a
|
{
"intermediate": 0.35290762782096863,
"beginner": 0.43652957677841187,
"expert": 0.2105628252029419
}
|
13,479
|
using System.Collections;
using System.Collections.Generic;
using UnityEngine;
using UnityEngine.UI;
public class breed : MonoBehaviour
{
public AudioSource Right;
public Text button1;
public Text button2;
public Text button3;
public Text button4;
public Image ColorButton1;
public Image ColorButton2;
public Image ColorButton3;
public Image ColorButton4;
public static string answer;
public static int i;
public static string[] fruits = new string[39];
void Start()
{
//Массив с породами
fruits[0] = "Абби (0)";
fruits[1] = "Азавак (1)";
fruits[2] = "Бастер (2)";
fruits[3] = "Белорусская овчарка (3)";
fruits[4] = "Бигль (4)";
fruits[5] = "Бладхаунд (5)";
fruits[6] = "Бультерьер (6)";
fruits[7] = "Винни (7)";
fruits[8] = "Восточно-сибирская лайка (8)";
fruits[9] = "Гриндель (9)";
fruits[10] = "Далматин (10)";
fruits[11] = "Дворняга (11)";
fruits[12] = "Джек-Рассел терьер (12)";
fruits[13] = "Западно-сибирская лайка (13)";
fruits[14] = "Золотой Ретривер (14)";
fruits[15] = "Керри-блю-терьер (15)";
fruits[16] = "Колли (16)";
fruits[17] = "Комондор (17)";
fruits[18] = "Корги (18)";
fruits[19] = "Корейский шпиц (19)";
fruits[20] = "Лхаса апсо (20)";
fruits[21] = "Неаполитанский мастиф (21)";
fruits[22] = "Немецкая овчарка (22)";
fruits[23] = "Овчарка (23)";
fruits[24] = "Парсон-рассел-терьер (24)";
fruits[25] = "Пти-брабансон (25)";
fruits[26] = "Русская гончая (26)";
fruits[27] = "Русская пегая гончая (27)";
fruits[28] = "Русская псовая борзая (28)";
fruits[29] = "Русский черный терьер (29)";
fruits[30] = "Русско-европейская лайка (30)";
fruits[31] = "Сахалинский хаски (31)";
fruits[32] = "Сиба-ину (32)";
fruits[33] = "Сибирский хаски (33)";
fruits[34] = "Чау-чау (34)";
fruits[35] = "Шелти (35)";
fruits[36] = "Японский хин (36)";
fruits[37] = "Японский шпиц (37)";
fruits[38] = "Японский шпиц (37)";
//Выбор правильного ответа
button1.text = fruits[Random.Range(0, fruits.Length)];
button2.text = fruits[Random.Range(0, fruits.Length)];
button3.text = fruits[Random.Range(0, fruits.Length)];
button4.text = fruits[Random.Range(0, fruits.Length)];
//На какой кнопке будет правильный ответ
i = Random.Range(1, 4);
//Присваивание текста к кнопкам
switch (i)
{
case 1:
answer = button1.text;
break;
case 2:
answer = button2.text;
break;
case 3:
answer = button3.text;
break;
case 4:
answer = button4.text;
break;
}
}
void Update()
{
//Сравнивание ответа и выбора
if(NextPage.b == i)
{
OnClick();
ColorButton1.color = new Color(0.466f, 0.584f, 0.313f, 1f);
ColorButton2.color = new Color(0.466f, 0.584f, 0.313f, 1f);
ColorButton3.color = new Color(0.466f, 0.584f, 0.313f, 1f);
ColorButton4.color = new Color(0.466f, 0.584f, 0.313f, 1f);
Right.Play();
}
}
public void OnClick()
{
//Выбор правильного ответа
button1.text = fruits[Random.Range(0, fruits.Length)];
button2.text = fruits[Random.Range(0, fruits.Length)];
button3.text = fruits[Random.Range(0, fruits.Length)];
button4.text = fruits[Random.Range(0, fruits.Length)];
//На какой кнопке будет правильный ответ
i = Random.Range(1, 4);
//Присваивание текста к кнопкам
switch (i)
{
case 1:
answer = button1.text;
break;
case 2:
answer = button2.text;
break;
case 3:
answer = button3.text;
break;
case 4:
answer = button4.text;
break;
}
}
}
using System.Collections;
using System.Collections.Generic;
using UnityEngine;
using UnityEngine.UI;
public class random : MonoBehaviour
{
public static string DogsImg;
void Update()
{
DogsImg = breed.answer;
Image image = GetComponent<Image>();
Sprite newSprite = null;
//Выбор картинки отображения
switch (DogsImg)
{
case "Абби (0)":
newSprite = (Sprite)Resources.Load("dog (0)");
break;
case "Азавак (1)":
newSprite = (Sprite)Resources.Load("dog (1)");
break;
case "Бастер (2)":
newSprite = (Sprite)Resources.Load("dog (2)");
break;
case "Белорусская овчарка (3)":
newSprite = (Sprite)Resources.Load("dog (3)");
break;
case "Бигль (4)":
newSprite = (Sprite)Resources.Load("dog (4)");
break;
case "Бладхаунд (5)":
newSprite = (Sprite)Resources.Load("dog (5)");
break;
case "Бультерьер (6)":
newSprite = (Sprite)Resources.Load("dog (6)");
break;
case "Винни (7)":
newSprite = (Sprite)Resources.Load("dog (7)");
break;
case "Восточно-сибирская лайка (8)":
newSprite = (Sprite)Resources.Load("dog (8)");
break;
case "Гриндель (9)":
newSprite = (Sprite)Resources.Load("dog (9)");
break;
case "Далматин (10)":
newSprite = (Sprite)Resources.Load("dog (10)");
break;
case "Дворняга (11)":
newSprite = (Sprite)Resources.Load("dog (11)");
break;
case "Джек-Рассел терьер (12)":
newSprite = (Sprite)Resources.Load("dog (12)");
break;
case "Западно-сибирская лайка (13)":
newSprite = (Sprite)Resources.Load("dog (13)");
break;
case "Золотой Ретривер (14)":
newSprite = (Sprite)Resources.Load("dog (14)");
break;
case "Керри-блю-терьер (15)":
newSprite = (Sprite)Resources.Load("dog (15)");
break;
case "Колли (16)":
newSprite = (Sprite)Resources.Load("dog (16)");
break;
case "Комондор (17)":
newSprite = (Sprite)Resources.Load("dog (17)");
break;
case "Корги (18)":
newSprite = (Sprite)Resources.Load("dog (18)");
break;
case "Корейский шпиц (19)":
newSprite = (Sprite)Resources.Load("dog (19)");
break;
case "Лхаса апсо (20)":
newSprite = (Sprite)Resources.Load("dog (20)");
break;
case "Неаполитанский мастиф (21)":
newSprite = (Sprite)Resources.Load("dog (21)");
break;
case "Немецкая овчарка (22)":
newSprite = (Sprite)Resources.Load("dog (22)");
break;
case "Овчарка (23)":
newSprite = (Sprite)Resources.Load("dog (23)");
break;
case "Парсон-рассел-терьер (24)":
newSprite = (Sprite)Resources.Load("dog (24)");
break;
case "Пти-брабансон (25)":
newSprite = (Sprite)Resources.Load("dog (25)");
break;
case "Русская гончая (26)":
newSprite = (Sprite)Resources.Load("dog (26)");
break;
case "Русская пегая гончая (27)":
newSprite = (Sprite)Resources.Load("dog (27)");
break;
case "Русская псовая борзая (28)":
newSprite = (Sprite)Resources.Load("dog (28)");
break;
case "Русский черный терьер (29)":
newSprite = (Sprite)Resources.Load("dog (29)");
break;
case "Русско-европейская лайка (30)":
newSprite = (Sprite)Resources.Load("dog (30)");
break;
case "Сахалинский хаски (31)":
newSprite = (Sprite)Resources.Load("dog (31)");
break;
case "Сиба-ину (32)":
newSprite = (Sprite)Resources.Load("dog (32)");
break;
case "Сибирский хаски (33)":
newSprite = (Sprite)Resources.Load("dog (33)");
break;
case "Чау-чау (34)":
newSprite = (Sprite)Resources.Load("dog (34)");
break;
case "Шелти (35)":
newSprite = (Sprite)Resources.Load("dog (35)");
break;
case "Японский хин (36)":
newSprite = (Sprite)Resources.Load("dog (36)");
break;
case "Японский шпиц (37)":
newSprite = (Sprite)Resources.Load("dog (37)");
break;
}
image.sprite = newSprite;
}
}
В чем ошибка?
|
a8288ee7e3a5bce77dda4a9a444dfc76
|
{
"intermediate": 0.2856093943119049,
"beginner": 0.56769859790802,
"expert": 0.14669202268123627
}
|
13,480
|
give me the python code to do build detailed portfolios of A/P and A/R per each company. use numpy and pandas. In this simulation, each company as a tax ID, an economic activity code and a dimension( micro, sme, big). Also there are about 90 industries in the Input Output matrix where each industry consumes and produces for others and also imports or exports. The python code should use the aggregated statistics on A/P and A/R that were delivered by Bank of Portugal
|
bcd33696a3910b8f4a1c682fc3b0514e
|
{
"intermediate": 0.5845963358879089,
"beginner": 0.1174897626042366,
"expert": 0.29791390895843506
}
|
13,481
|
I want to build a graph network where edges are companies and vertices are individual A/P or individual A/R values depending on the direction you analyse. I only have aggregated data of total A/P and total A/R per industry, company size and average A/P and A/R per each segment. I have average A/P and A/R and also number of companies in each segment. Also I can divide each total A/P and total A/R porfolio of each company by using the input-output table that inter-relate each industry. Build me the code in Python
|
01a5a026dad2e5005a7bc42561640d4f
|
{
"intermediate": 0.454517662525177,
"beginner": 0.15843379497528076,
"expert": 0.38704851269721985
}
|
13,482
|
防止ssl pinning bypass
|
8ed8844979ed250793fe1c32067fda67
|
{
"intermediate": 0.26528400182724,
"beginner": 0.35194429755210876,
"expert": 0.38277167081832886
}
|
13,483
|
import Chart from "../components/Chart";
import Info from "../components/Info";
import WidgetLarge from "../components/WidgetLarge";
import WidgetSmall from "../components/WidgetSmall";
import { dataOfUsers } from "../exmapleData";
import { useState, useMemo, useEffect } from "react";
import { userRequest } from "../requestMethods";
interface Stats {}
const Home = () => {
const [userStats, setUserStats] = useState([]);
const MONTHS = useMemo(
() => [
"Jan",
"Feb",
"Mar",
"Apr",
"May",
"Jun",
"Jul",
"Agu",
"Sep",
"Oct",
"Nov",
"Dec",
],
[]
);
useEffect(() => {
const getStats = async () => {
try {
const res = await userRequest.get("/users/stats");
res.data.map((item) =>
setUserStats((prev) => [
...prev,
{ name: MONTHS[item._id - 1], "Active User": item.total },
])
);
} catch {}
};
getStats();
}, [MONTHS]);
return (
<div className="home">
<Info />
<Chart
data={dataOfUsers}
title="User Analytics"
dataKey="Active User"
grid={true}
/>
<div className="home__widgets">
<WidgetSmall />
<WidgetLarge />
</div>
</div>
);
};
export default Home;
TS7006: Parameter 'item' implicitly has an 'any' type.
31 | try {
32 | const res = await userRequest.get("/users/stats");
> 33 | res.data.map((item) =>
| ^^^^
34 | setUserStats((prev) => [
35 | ...prev,
36 | { name: MONTHS[item._id - 1], "Active User": item.total },
ERROR in src/pages/Home.tsx:34:24
TS2345: Argument of type '(prev: never[]) => { name: string; "Active User": any; }[]' is not assignable to parameter of type 'SetStateAction<never[]>'.
Type '(prev: never[]) => { name: string; "Active User": any; }[]' is not assignable to type '(prevState: never[]) => never[]'.
Type '{ name: string; "Active User": any; }[]' is not assignable to type 'never[]'.
Type '{ name: string; "Active User": any; }' is not assignable to type 'never'.
32 | const res = await userRequest.get("/users/stats");
33 | res.data.map((item) =>
> 34 | setUserStats((prev) => [
| ^^^^^^^^^^^
> 35 | ...prev,
| ^^^^^^^^^^^^^^^^^^^^
> 36 | { name: MONTHS[item._id - 1], "Active User": item.total },
| ^^^^^^^^^^^^^^^^^^^^
> 37 | ])
| ^^^^^^^^^^^^
38 | );
39 | } catch {}
40 | };
|
63f8143bcdea4d5ca969267bef913f34
|
{
"intermediate": 0.31664684414863586,
"beginner": 0.4154359698295593,
"expert": 0.2679171860218048
}
|
13,484
|
Write full snake game in c console using nurses
|
43342e703887cac64578ff65468b983f
|
{
"intermediate": 0.3965710401535034,
"beginner": 0.3400682806968689,
"expert": 0.2633607089519501
}
|
13,485
|
hi
|
a79bd868841e62887c27c1243f848c72
|
{
"intermediate": 0.3246487081050873,
"beginner": 0.27135494351387024,
"expert": 0.40399640798568726
}
|
13,486
|
hi
|
6f47ba73011befb8282fe4435ce83407
|
{
"intermediate": 0.3246487081050873,
"beginner": 0.27135494351387024,
"expert": 0.40399640798568726
}
|
13,487
|
element select修改带分页的下拉框
|
a777c84175e618183713c414e33d8b42
|
{
"intermediate": 0.3015933036804199,
"beginner": 0.32833215594291687,
"expert": 0.3700745105743408
}
|
13,488
|
in pyqt5 define a timer to do some callback every 0.1second without blocking
|
2ca603cb084df82a72acf91657e6811e
|
{
"intermediate": 0.4691731929779053,
"beginner": 0.20690877735614777,
"expert": 0.32391801476478577
}
|
13,489
|
Student Management System: Develop a student management system in java that uses collections and generics to manage student records. The system should allow users to add, remove, and update student records, search for students by name or ID, and generate reports.
|
7c77734623da93eb87591d6dbc161b54
|
{
"intermediate": 0.55780029296875,
"beginner": 0.16646835207939148,
"expert": 0.27573129534721375
}
|
13,490
|
use jest create ut for this component: <template>
<div>
<el-tree
v-if="treeVisible"
ref="tree"
v-bind="treeProps"
v-on="treeListeners"
/>
</div>
</template>
<script>
import camelCase from 'lodash/camelCase'
import utils from 'utils/index.js'
import gb from 'utils/global.js'
import _get from 'lodash/get'
import _cloneDeep from 'lodash/cloneDeep'
import { attributes } from './treeConfig'
const nonAxiosAttrs = [
'beforeRequest',
'interceptResponse',
'response',
'resField',
'lazyKey'
]
export default {
name: 'GdTree',
data() {
return {
treeVisible: true,
treeProps: {}, // 取树的属性用这个
treeListeners: {},
defaultProps: {
data: [],
showCheckbox: true,
nodeKey: 'id',
props: {
label: 'label',
children: 'children',
isLeaf: 'leaf'
}
},
defaultListener: {}
}
},
watch: {},
created() {
// console.log(this)
this._mergeTreeObjFn()
this._setTreeCheckboxStatusFn()
this._mergeTreeEventFn()
// this._watchElTreeAttr()
if (this.auto) {
this._loadData()
}
// this.$gdMar.send('gd-tree-loaded')
},
mounted() {},
methods: {
// 重新load一下数据，比如重新请求一个接口
loadData() {
this.treeVisible = false
this._loadData()
this.$nextTick(() => {
this.treeVisible = true
})
},
getRef() {
return this.$refs.tree
},
setData(data) {
if (!utils.isArr(data)) {
console.error('setData中的参数data必须为数组')
return
}
// 对数据按照showLevel的设置进行处理
if (this.showLevel.length > 0) {
data = this._setDataByShowLevel(data)
}
this._traverseTreeToSetAttr(data)
// 这个函数，目前只用于初始化的数据
this.treeProps.data = data
},
_setDataByShowLevel(data) {
let treeData = _cloneDeep(data)
let level = 1
let queue = []
let result = []
// 给每个树节点打上gd-tree-id
treeData.map((level1, index) => {
level1['gd-tree-id'] = index
queue.push(level1)
})
let treeLevelData = {}
let childrenField = this.treeProps.props.children
let showLevel = this.showLevel.sort((a, b) => (a - b))
// BFS
while (queue.length > 0) {
let length = queue.length
treeLevelData[level] = []
for (let i = 0; i < length; i++) {
let queueTop = queue.shift()
let children = queueTop[childrenField]
if (children && children.length > 0) {
children.map((item, index) => {
// 需要显示的层级会加上-index，不需要显示的继承父亲的gd-tree-id，方便下面查找，提高性能
if (showLevel.indexOf(+level + 1) > 0) {
item['gd-tree-id'] = `${queueTop['gd-tree-id']}-${index}`
} else {
item['gd-tree-id'] = queueTop['gd-tree-id']
}
queue.push(item)
})
}
queueTop.children = []
// 清空childrenField
treeLevelData[level].push(queueTop)
}
level++
}
// 对showLevel排序
showLevel.map((level, index) => {
let levelData = treeLevelData[level]
if (!isNaN(level) && levelData) {
if (index === 0) {
result.push(...levelData)
} else {
levelData.map((item, index) => {
// 根据gdTreeId直接找到要挂靠的父元素
let gdTreeId = item['gd-tree-id'] + ''
let levels = gdTreeId.split('-')
levels.pop()
let getStr
levels.map((item, index) => {
if (index === 0) {
getStr = [item]
} else {
getStr.push(childrenField, item)
}
})
let parantItem = _get(result, getStr)
parantItem.children.push(item)
})
}
}
})
return result
},
_traverseTreeToSetAttr(treeData) {
let level = 1
// BFS
let queue = []
for (let level1 of treeData) {
queue.push(level1)
}
while (queue.length > 0) {
let length = queue.length
for (let i = 0; i < length; i++) {
let queueTop = queue.shift()
let children = queueTop[this.treeProps.props.children]
if (this.disabledLevel[level]) {
queueTop['disabled'] = true
}
if (children && children.length > 0) {
children.map(item => {
queue.push(item)
})
}
}
level++
}
},
// 发起请求
_requestAxios(axiosAttrs) {
let axiosInstance = gb.axios
let source = this.source
return new Promise((resolve, reject) => {
axiosInstance(axiosAttrs).then(axiosRes => {
let data = source.resField ? _get(axiosRes, source.resField, []) : axiosRes
let interceptResponse = source.interceptResponse
let comData = []
if (interceptResponse && utils.isFunc(interceptResponse)) {
let isContinue = true
let doneFn = (type = true) => {
isContinue = type
}
let interceptResponseRes = interceptResponse(doneFn, data, axiosRes)
interceptResponseRes = interceptResponseRes || data
if (!isContinue) {
console.warn('interceptResponse--拦截')
return
}
if (utils.isArr(interceptResponseRes)) {
comData = interceptResponseRes
} else {
console.error('非法，传入el-tree组件的data非array')
comData = []
}
} else {
if (!utils.isArr(data)) {
console.error('非法，传入el-tree组件的data非array')
comData = []
} else {
comData = data
}
}
let response = source.response
if (response && utils.isFunc(response)) {
source.response(comData, axiosRes)
}
resolve(comData, axiosRes)
this.$emit('loaded')
}).catch((error) => {
console.error(error)
})
})
},
/**
* @param {object} otherParams - 会合并进请求体的参数
* @return {Promise}
*/
_getSourceData(otherParams) {
let source = this.source
if (source && utils.isObj(source) && source.url) {
let axiosAttrs = utils.deepCopy(source)
Object.keys(axiosAttrs).map(key => {
if (nonAxiosAttrs.includes(key)) {
delete axiosAttrs[key]
}
})
if (axiosAttrs.method === 'get') {
Object.assign(axiosAttrs.params, otherParams)
} else {
Object.assign(axiosAttrs.data, otherParams)
}
let beforeRequest = source.beforeRequest
if (beforeRequest && utils.isFunc(beforeRequest)) {
// 根据请求url获取数据
let isContinue = true
let doneFn = (type = true) => {
isContinue = type
}
var beforeResult = beforeRequest(doneFn, axiosAttrs)
let _axiosAttrs = beforeResult || axiosAttrs
if (!isContinue) {
console.warn('beforeRequest--请求拦截')
return
} else {
if (!utils.isObj(_axiosAttrs)) {
console.error('非法，beforeRequest返回的非axios参数对象')
return
}
return this._requestAxios(_axiosAttrs)
}
} else {
return this._requestAxios(axiosAttrs)
}
} else {
this.$emit('loaded')
// 从data中获取数据
return new Promise((resolve, reject) => {
resolve([])
})
}
},
_loadData() {
if (this.source.url && this.treeProps.lazy !== undefined) {
// 有设置source且设置lazy
const LAZYKEY = 'id'
let defaultSourceLazy = (node, resolve) => {
// 设置了lazyOption.showMaxLevel
let showMaxLevel = this.lazyOption.showMaxLevel > 0 ? this.lazyOption.showMaxLevel : 0
if (showMaxLevel && node.level >= showMaxLevel) {
return
}
// 首次不传
var obj = {}
if (node.level > 0) {
obj[this.source.lazyKey || LAZYKEY] = node.data && node.data[this.treeProps.nodeKey]
} else {
obj[this.source.lazyKey || LAZYKEY] = ''
}
this._getSourceData(obj).then(data => {
if (node.level === 0) {
// 首次请求，请求回来的data连接外部传入的data
this.setData(data)
} else {
// 展示最大层级时，就是最末层节点
if (showMaxLevel && node.level === (showMaxLevel - 1)) {
data.map(item => {
item[this.treeProps.props.isLeaf] = true
})
}
// 根据disabledLevel的配置，看是否禁用节点
if (this.disabledLevel[node.level + 1]) {
data.map(item => {
item['disabled'] = true
})
}
// 由于懒加载后追加节点，不会同步到this.treeProps.data，所以得特别留意
resolve(data)
}
})
}
this.treeProps.load = this.treeProps.load || defaultSourceLazy
} else if (this.source.url) {
this._getSourceData().then(data => {
// 有设置source，首次请求
this.setData(data)
})
} else {
this.setData(this.treeProps.data)
}
},
_setTreeCheckboxStatusFn() {
if (this.multiple) {
return
} else {
this.treeProps['checkStrictly'] = true
this.defaultListener['check'] = (item, checkStatus) => {
this.$refs.tree.setCheckedKeys([])
this.$refs.tree.setCheckedKeys([item[this.treeProps['nodeKey']]])
}
}
},
_camelCaseTransformFn(data) {
if (utils.isObj(data)) {
let obj = {}
Object.keys(data).map((key) => {
obj[camelCase(key)] = data[key]
})
return obj
}
if (utils.isStr(data)) {
return camelCase(data)
}
return data
},
_mergeTreeObjFn() {
this.treeProps = Object.assign({}, this.defaultProps, this._camelCaseTransformFn(this.$attrs))
},
_mergeTreeEventFn() {
this.treeListeners = Object.assign({}, this.defaultListener, this.$listeners)
},
_watchElTreeAttr() {
attributes.map(attr => {
if (this.$attrs[attr]) {
this.$watch(function() {
return this.$attrs[attr]
}, (newVal, oldVal) => {
this.treeProps[camelCase(attr)] = newVal
}, {
deep: true
})
}
})
}
}
}
</script>
|
8b290a27c82abd8a7839f4fd61e0dc0c
|
{
"intermediate": 0.41349267959594727,
"beginner": 0.4957042634487152,
"expert": 0.0908031016588211
}
|
13,491
|
redis cache user logon status sample
|
230c4ad27f84cdee666187575722dfc0
|
{
"intermediate": 0.3614460825920105,
"beginner": 0.2925986051559448,
"expert": 0.34595534205436707
}
|
13,492
|
develop java source code for Music Player: Develop a music player that uses JavaFX to provide an interactive user interface. The player should allow users to browse and play their music collections, create playlists, and customize the player’s settings.
|
83ca7077cdffb5d2b10a66af2fc554bd
|
{
"intermediate": 0.5674477219581604,
"beginner": 0.20479634404182434,
"expert": 0.22775594890117645
}
|
13,493
|
The opengl version of Windows is 1.1, and the error 'Failed to create GLFW window' is still reported after using GLFW
|
5844097674d5e56e861f0d683c6c922c
|
{
"intermediate": 0.4199145436286926,
"beginner": 0.23291711509227753,
"expert": 0.34716829657554626
}
|
13,494
|
use jest create ut for this component: <template>
<div>
<el-tree
v-if="treeVisible"
ref="tree"
v-bind="treeProps"
v-on="treeListeners"
/>
</div>
</template>
<script>
const nonAxiosAttrs = [
'beforeRequest',
'interceptResponse',
'response',
'resField',
'lazyKey'
]
export default {
name: 'GdTree',
data() {
return {
treeVisible: true,
treeProps: {}, // 取树的属性用这个
treeListeners: {},
defaultProps: {
data: [],
showCheckbox: true,
nodeKey: 'id',
props: {
label: 'label',
children: 'children',
isLeaf: 'leaf'
}
},
defaultListener: {}
}
},
watch: {},
created() {
// console.log(this)
this._mergeTreeObjFn()
this._setTreeCheckboxStatusFn()
this._mergeTreeEventFn()
// this._watchElTreeAttr()
if (this.auto) {
this._loadData()
}
// this.$gdMar.send('gd-tree-loaded')
},
mounted() {},
methods: {
// 重新load一下数据，比如重新请求一个接口
loadData() {
this.treeVisible = false
this._loadData()
this.$nextTick(() => {
this.treeVisible = true
})
},
getRef() {
return this.$refs.tree
},
setData(data) {
if (!utils.isArr(data)) {
console.error('setData中的参数data必须为数组')
return
}
// 对数据按照showLevel的设置进行处理
if (this.showLevel.length > 0) {
data = this._setDataByShowLevel(data)
}
this._traverseTreeToSetAttr(data)
// 这个函数，目前只用于初始化的数据
this.treeProps.data = data
},
_setDataByShowLevel(data) {
let treeData = _cloneDeep(data)
let level = 1
let queue = []
let result = []
// 给每个树节点打上gd-tree-id
treeData.map((level1, index) => {
level1['gd-tree-id'] = index
queue.push(level1)
})
let treeLevelData = {}
let childrenField = this.treeProps.props.children
let showLevel = this.showLevel.sort((a, b) => (a - b))
// BFS
while (queue.length > 0) {
let length = queue.length
treeLevelData[level] = []
for (let i = 0; i < length; i++) {
let queueTop = queue.shift()
let children = queueTop[childrenField]
if (children && children.length > 0) {
children.map((item, index) => {
// 需要显示的层级会加上-index，不需要显示的继承父亲的gd-tree-id，方便下面查找，提高性能
if (showLevel.indexOf(+level + 1) > 0) {
item['gd-tree-id'] = `${queueTop['gd-tree-id']}-${index}`
} else {
item['gd-tree-id'] = queueTop['gd-tree-id']
}
queue.push(item)
})
}
queueTop.children = []
// 清空childrenField
treeLevelData[level].push(queueTop)
}
level++
}
// 对showLevel排序
showLevel.map((level, index) => {
let levelData = treeLevelData[level]
if (!isNaN(level) && levelData) {
if (index === 0) {
result.push(...levelData)
} else {
levelData.map((item, index) => {
// 根据gdTreeId直接找到要挂靠的父元素
let gdTreeId = item['gd-tree-id'] + ''
let levels = gdTreeId.split('-')
levels.pop()
let getStr
levels.map((item, index) => {
if (index === 0) {
getStr = [item]
} else {
getStr.push(childrenField, item)
}
})
let parantItem = _get(result, getStr)
parantItem.children.push(item)
})
}
}
})
return result
},
_traverseTreeToSetAttr(treeData) {
let level = 1
// BFS
let queue = []
for (let level1 of treeData) {
queue.push(level1)
}
while (queue.length > 0) {
let length = queue.length
for (let i = 0; i < length; i++) {
let queueTop = queue.shift()
let children = queueTop[this.treeProps.props.children]
if (this.disabledLevel[level]) {
queueTop['disabled'] = true
}
if (children && children.length > 0) {
children.map(item => {
queue.push(item)
})
}
}
level++
}
},
// 发起请求
_requestAxios(axiosAttrs) {
let axiosInstance = gb.axios
let source = this.source
return new Promise((resolve, reject) => {
axiosInstance(axiosAttrs).then(axiosRes => {
let data = source.resField ? _get(axiosRes, source.resField, []) : axiosRes
let interceptResponse = source.interceptResponse
let comData = []
if (interceptResponse && utils.isFunc(interceptResponse)) {
let isContinue = true
let doneFn = (type = true) => {
isContinue = type
}
let interceptResponseRes = interceptResponse(doneFn, data, axiosRes)
interceptResponseRes = interceptResponseRes || data
if (!isContinue) {
console.warn('interceptResponse--拦截')
return
}
if (utils.isArr(interceptResponseRes)) {
comData = interceptResponseRes
} else {
console.error('非法，传入el-tree组件的data非array')
comData = []
}
} else {
if (!utils.isArr(data)) {
console.error('非法，传入el-tree组件的data非array')
comData = []
} else {
comData = data
}
}
let response = source.response
if (response && utils.isFunc(response)) {
source.response(comData, axiosRes)
}
resolve(comData, axiosRes)
this.$emit('loaded')
}).catch((error) => {
console.error(error)
})
})
},
/**
* @param {object} otherParams - 会合并进请求体的参数
* @return {Promise}
*/
_getSourceData(otherParams) {
let source = this.source
if (source && utils.isObj(source) && source.url) {
let axiosAttrs = utils.deepCopy(source)
Object.keys(axiosAttrs).map(key => {
if (nonAxiosAttrs.includes(key)) {
delete axiosAttrs[key]
}
})
if (axiosAttrs.method === 'get') {
Object.assign(axiosAttrs.params, otherParams)
} else {
Object.assign(axiosAttrs.data, otherParams)
}
let beforeRequest = source.beforeRequest
if (beforeRequest && utils.isFunc(beforeRequest)) {
// 根据请求url获取数据
let isContinue = true
let doneFn = (type = true) => {
isContinue = type
}
var beforeResult = beforeRequest(doneFn, axiosAttrs)
let _axiosAttrs = beforeResult || axiosAttrs
if (!isContinue) {
console.warn('beforeRequest--请求拦截')
return
} else {
if (!utils.isObj(_axiosAttrs)) {
console.error('非法，beforeRequest返回的非axios参数对象')
return
}
return this._requestAxios(_axiosAttrs)
}
} else {
return this._requestAxios(axiosAttrs)
}
} else {
this.$emit('loaded')
// 从data中获取数据
return new Promise((resolve, reject) => {
resolve([])
})
}
},
_loadData() {
if (this.source.url && this.treeProps.lazy !== undefined) {
// 有设置source且设置lazy
const LAZYKEY = 'id'
let defaultSourceLazy = (node, resolve) => {
// 设置了lazyOption.showMaxLevel
let showMaxLevel = this.lazyOption.showMaxLevel > 0 ? this.lazyOption.showMaxLevel : 0
if (showMaxLevel && node.level >= showMaxLevel) {
return
}
// 首次不传
var obj = {}
if (node.level > 0) {
obj[this.source.lazyKey || LAZYKEY] = node.data && node.data[this.treeProps.nodeKey]
} else {
obj[this.source.lazyKey || LAZYKEY] = ''
}
this._getSourceData(obj).then(data => {
if (node.level === 0) {
// 首次请求，请求回来的data连接外部传入的data
this.setData(data)
} else {
// 展示最大层级时，就是最末层节点
if (showMaxLevel && node.level === (showMaxLevel - 1)) {
data.map(item => {
item[this.treeProps.props.isLeaf] = true
})
}
// 根据disabledLevel的配置，看是否禁用节点
if (this.disabledLevel[node.level + 1]) {
data.map(item => {
item['disabled'] = true
})
}
// 由于懒加载后追加节点，不会同步到this.treeProps.data，所以得特别留意
resolve(data)
}
})
}
this.treeProps.load = this.treeProps.load || defaultSourceLazy
} else if (this.source.url) {
this._getSourceData().then(data => {
// 有设置source，首次请求
this.setData(data)
})
} else {
this.setData(this.treeProps.data)
}
},
_setTreeCheckboxStatusFn() {
if (this.multiple) {
return
} else {
this.treeProps['checkStrictly'] = true
this.defaultListener['check'] = (item, checkStatus) => {
this.$refs.tree.setCheckedKeys([])
this.$refs.tree.setCheckedKeys([item[this.treeProps['nodeKey']]])
}
}
},
_camelCaseTransformFn(data) {
if (utils.isObj(data)) {
let obj = {}
Object.keys(data).map((key) => {
obj[camelCase(key)] = data[key]
})
return obj
}
if (utils.isStr(data)) {
return camelCase(data)
}
return data
},
_mergeTreeObjFn() {
this.treeProps = Object.assign({}, this.defaultProps, this._camelCaseTransformFn(this.$attrs))
},
_mergeTreeEventFn() {
this.treeListeners = Object.assign({}, this.defaultListener, this.$listeners)
},
_watchElTreeAttr() {
attributes.map(attr => {
if (this.$attrs[attr]) {
this.$watch(function() {
return this.$attrs[attr]
}, (newVal, oldVal) => {
this.treeProps[camelCase(attr)] = newVal
}, {
deep: true
})
}
})
}
}
}
</script>
|
0abaad199058599a8cc4e16e1143f9af
|
{
"intermediate": 0.39304572343826294,
"beginner": 0.4759325683116913,
"expert": 0.131021648645401
}
|
13,495
|
use jest creat some ut from this component: <template>
<div>
<el-tree
v-if="treeVisible"
ref="tree"
v-bind="treeProps"
v-on="treeListeners"
/>
</div>
</template>
<script>
const nonAxiosAttrs = [
'beforeRequest',
'interceptResponse',
'response',
'resField',
'lazyKey'
]
export default {
name: 'GdTree',
data() {
return {
treeVisible: true,
treeProps: {}, // 取树的属性用这个
treeListeners: {},
defaultProps: {
data: [],
showCheckbox: true,
nodeKey: 'id',
props: {
label: 'label',
children: 'children',
isLeaf: 'leaf'
}
},
defaultListener: {}
}
},
watch: {},
created() {
// console.log(this)
this._mergeTreeObjFn()
this._setTreeCheckboxStatusFn()
this._mergeTreeEventFn()
// this._watchElTreeAttr()
if (this.auto) {
this._loadData()
}
// this.$gdMar.send('gd-tree-loaded')
},
mounted() {},
methods: {
// 重新load一下数据，比如重新请求一个接口
loadData() {
this.treeVisible = false
this._loadData()
this.$nextTick(() => {
this.treeVisible = true
})
},
getRef() {
return this.$refs.tree
},
setData(data) {
if (!utils.isArr(data)) {
console.error('setData中的参数data必须为数组')
return
}
// 对数据按照showLevel的设置进行处理
if (this.showLevel.length > 0) {
data = this._setDataByShowLevel(data)
}
this._traverseTreeToSetAttr(data)
// 这个函数，目前只用于初始化的数据
this.treeProps.data = data
},
_setDataByShowLevel(data) {
let treeData = _cloneDeep(data)
let level = 1
let queue = []
let result = []
// 给每个树节点打上gd-tree-id
treeData.map((level1, index) => {
level1['gd-tree-id'] = index
queue.push(level1)
})
let treeLevelData = {}
let childrenField = this.treeProps.props.children
let showLevel = this.showLevel.sort((a, b) => (a - b))
// BFS
while (queue.length > 0) {
let length = queue.length
treeLevelData[level] = []
for (let i = 0; i < length; i++) {
let queueTop = queue.shift()
let children = queueTop[childrenField]
if (children && children.length > 0) {
children.map((item, index) => {
// 需要显示的层级会加上-index，不需要显示的继承父亲的gd-tree-id，方便下面查找，提高性能
if (showLevel.indexOf(+level + 1) > 0) {
item['gd-tree-id'] = `${queueTop['gd-tree-id']}-${index}`
} else {
item['gd-tree-id'] = queueTop['gd-tree-id']
}
queue.push(item)
})
}
queueTop.children = []
// 清空childrenField
treeLevelData[level].push(queueTop)
}
level++
}
// 对showLevel排序
showLevel.map((level, index) => {
let levelData = treeLevelData[level]
if (!isNaN(level) && levelData) {
if (index === 0) {
result.push(...levelData)
} else {
levelData.map((item, index) => {
// 根据gdTreeId直接找到要挂靠的父元素
let gdTreeId = item['gd-tree-id'] + ''
let levels = gdTreeId.split('-')
levels.pop()
let getStr
levels.map((item, index) => {
if (index === 0) {
getStr = [item]
} else {
getStr.push(childrenField, item)
}
})
let parantItem = _get(result, getStr)
parantItem.children.push(item)
})
}
}
})
return result
},
_traverseTreeToSetAttr(treeData) {
let level = 1
// BFS
let queue = []
for (let level1 of treeData) {
queue.push(level1)
}
while (queue.length > 0) {
let length = queue.length
for (let i = 0; i < length; i++) {
let queueTop = queue.shift()
let children = queueTop[this.treeProps.props.children]
if (this.disabledLevel[level]) {
queueTop['disabled'] = true
}
if (children && children.length > 0) {
children.map(item => {
queue.push(item)
})
}
}
level++
}
},
// 发起请求
_requestAxios(axiosAttrs) {
let axiosInstance = gb.axios
let source = this.source
return new Promise((resolve, reject) => {
axiosInstance(axiosAttrs).then(axiosRes => {
let data = source.resField ? _get(axiosRes, source.resField, []) : axiosRes
let interceptResponse = source.interceptResponse
let comData = []
if (interceptResponse && utils.isFunc(interceptResponse)) {
let isContinue = true
let doneFn = (type = true) => {
isContinue = type
}
let interceptResponseRes = interceptResponse(doneFn, data, axiosRes)
interceptResponseRes = interceptResponseRes || data
if (!isContinue) {
console.warn('interceptResponse--拦截')
return
}
if (utils.isArr(interceptResponseRes)) {
comData = interceptResponseRes
} else {
console.error('非法，传入el-tree组件的data非array')
comData = []
}
} else {
if (!utils.isArr(data)) {
console.error('非法，传入el-tree组件的data非array')
comData = []
} else {
comData = data
}
}
let response = source.response
if (response && utils.isFunc(response)) {
source.response(comData, axiosRes)
}
resolve(comData, axiosRes)
this.$emit('loaded')
}).catch((error) => {
console.error(error)
})
})
},
/**
* @param {object} otherParams - 会合并进请求体的参数
* @return {Promise}
*/
_getSourceData(otherParams) {
let source = this.source
if (source && utils.isObj(source) && source.url) {
let axiosAttrs = utils.deepCopy(source)
Object.keys(axiosAttrs).map(key => {
if (nonAxiosAttrs.includes(key)) {
delete axiosAttrs[key]
}
})
if (axiosAttrs.method === 'get') {
Object.assign(axiosAttrs.params, otherParams)
} else {
Object.assign(axiosAttrs.data, otherParams)
}
let beforeRequest = source.beforeRequest
if (beforeRequest && utils.isFunc(beforeRequest)) {
// 根据请求url获取数据
let isContinue = true
let doneFn = (type = true) => {
isContinue = type
}
var beforeResult = beforeRequest(doneFn, axiosAttrs)
let _axiosAttrs = beforeResult || axiosAttrs
if (!isContinue) {
console.warn('beforeRequest--请求拦截')
return
} else {
if (!utils.isObj(_axiosAttrs)) {
console.error('非法，beforeRequest返回的非axios参数对象')
return
}
return this._requestAxios(_axiosAttrs)
}
} else {
return this._requestAxios(axiosAttrs)
}
} else {
this.$emit('loaded')
// 从data中获取数据
return new Promise((resolve, reject) => {
resolve([])
})
}
},
_loadData() {
if (this.source.url && this.treeProps.lazy !== undefined) {
// 有设置source且设置lazy
const LAZYKEY = 'id'
let defaultSourceLazy = (node, resolve) => {
// 设置了lazyOption.showMaxLevel
let showMaxLevel = this.lazyOption.showMaxLevel > 0 ? this.lazyOption.showMaxLevel : 0
if (showMaxLevel && node.level >= showMaxLevel) {
return
}
// 首次不传
var obj = {}
if (node.level > 0) {
obj[this.source.lazyKey || LAZYKEY] = node.data && node.data[this.treeProps.nodeKey]
} else {
obj[this.source.lazyKey || LAZYKEY] = ''
}
this._getSourceData(obj).then(data => {
if (node.level === 0) {
// 首次请求，请求回来的data连接外部传入的data
this.setData(data)
} else {
// 展示最大层级时，就是最末层节点
if (showMaxLevel && node.level === (showMaxLevel - 1)) {
data.map(item => {
item[this.treeProps.props.isLeaf] = true
})
}
// 根据disabledLevel的配置，看是否禁用节点
if (this.disabledLevel[node.level + 1]) {
data.map(item => {
item['disabled'] = true
})
}
// 由于懒加载后追加节点，不会同步到this.treeProps.data，所以得特别留意
resolve(data)
}
})
}
this.treeProps.load = this.treeProps.load || defaultSourceLazy
} else if (this.source.url) {
this._getSourceData().then(data => {
// 有设置source，首次请求
this.setData(data)
})
} else {
this.setData(this.treeProps.data)
}
},
_setTreeCheckboxStatusFn() {
if (this.multiple) {
return
} else {
this.treeProps['checkStrictly'] = true
this.defaultListener['check'] = (item, checkStatus) => {
this.$refs.tree.setCheckedKeys([])
this.$refs.tree.setCheckedKeys([item[this.treeProps['nodeKey']]])
}
}
},
_camelCaseTransformFn(data) {
if (utils.isObj(data)) {
let obj = {}
Object.keys(data).map((key) => {
obj[camelCase(key)] = data[key]
})
return obj
}
if (utils.isStr(data)) {
return camelCase(data)
}
return data
},
_mergeTreeObjFn() {
this.treeProps = Object.assign({}, this.defaultProps, this._camelCaseTransformFn(this.$attrs))
},
_mergeTreeEventFn() {
this.treeListeners = Object.assign({}, this.defaultListener, this.$listeners)
},
_watchElTreeAttr() {
attributes.map(attr => {
if (this.$attrs[attr]) {
this.$watch(function() {
return this.$attrs[attr]
}, (newVal, oldVal) => {
this.treeProps[camelCase(attr)] = newVal
}, {
deep: true
})
}
})
}
}
}
</script>
|
b58076c8e90d59bf6b9c2bacbba08552
|
{
"intermediate": 0.4010235071182251,
"beginner": 0.4423586428165436,
"expert": 0.15661777555942535
}
|
13,496
|
You don't need any OPENAIYou don't need any OPENAI
|
c4c1ae5a22ead575591dc18809b21d51
|
{
"intermediate": 0.3293657898902893,
"beginner": 0.2441634088754654,
"expert": 0.4264707863330841
}
|
13,497
|
hello?
|
8b3dc0b6ffde61162340296d5a695614
|
{
"intermediate": 0.3582178056240082,
"beginner": 0.25206828117370605,
"expert": 0.3897138833999634
}
|
13,498
|
ok, now some 4 colored circles spinning around big(Sun) one, but they suppose to be obscured by the Sun, right? fix obscurage problem, and also represent astronomical terms in arrows pointing accordingly and words of text.: <!DOCTYPE html>
<html>
<head>
<title>Solar System</title>
<style>
canvas {
background: black;
display: block;
margin: 0 auto;
}
</style>
</head>
<body>
<canvas id="canvas" width="600" height="600"></canvas>
<script>
var ctx = document.getElementById("canvas").getContext("2d");
var sun = {
x: 300,
y: 300,
radius: 50,
color: "yellow"
};
var planets = [
{
name: "Mercury",
distance: 70,
radius: 5,
color: "gray",
inclination: 0,
eccentricity: 0.01,
angle: Math.random() * Math.PI * 2
},
{
name: "Venus",
distance: 100,
radius: 10,
color: "orange",
inclination: Math.PI / 4,
eccentricity: 0.02,
angle: Math.random() * Math.PI * 2
},
{
name: "Earth",
distance: 150,
radius: 12,
color: "blue",
inclination: Math.PI / 8,
eccentricity: 0.03,
angle: Math.random() * Math.PI * 2
},
{
name: "Mars",
distance: 200,
radius: 8,
color: "red",
inclination: Math.PI / 16,
eccentricity: 0.04,
angle: Math.random() * Math.PI * 2
}
];
function drawPlanet(planet) {
ctx.beginPath();
var x = sun.x + planet.distance * Math.cos(planet.angle);
var y = sun.y + planet.distance * Math.sin(planet.angle) * Math.sin(planet.inclination);
ctx.arc(x, y, planet.radius, 0, 2 * Math.PI);
ctx.fillStyle = planet.color;
ctx.fill();
ctx.closePath();
}
function animate() {
ctx.clearRect(0, 0, 600, 600);
ctx.beginPath();
ctx.arc(sun.x, sun.y, sun.radius, 0, 2 * Math.PI);
ctx.fillStyle = sun.color;
ctx.fill();
ctx.closePath();
planets.forEach(function(planet) {
planet.angle += 0.01;
drawPlanet(planet);
});
requestAnimationFrame(animate);
}
animate();
</script>
</body>
</html>
|
d72b8d339337a084bdb87238ebbb1855
|
{
"intermediate": 0.37863871455192566,
"beginner": 0.37849920988082886,
"expert": 0.2428620457649231
}
|
13,499
|
looks no errors but canvas is black. :
<!DOCTYPE html>
<html>
<head>
<title>Solar System</title>
<style>
canvas {
background: black;
display: block;
margin: 0 auto;
}
</style>
</head>
<body>
<canvas id="canvas" width="600" height="600"></canvas>
<script>
var ctx = document.getElementById("canvas").getContext("2d");
var sun = {
x: 300,
y: 300,
radius: 50,
color: "yellow"
};
var planets = [
{
name: "Mercury",
distance: 70,
radius: 5,
color: "gray",
inclination: 0,
eccentricity: 0.01,
angle: Math.random() * Math.PI * 2,
satellites: []
},
{
name: "Venus",
distance: 100,
radius: 10,
color: "orange",
inclination: Math.PI / 4,
eccentricity: 0.02,
angle: Math.random() * Math.PI * 2,
satellites: []
},
{
name: "Earth",
distance: 150,
radius: 12,
color: "blue",
inclination: Math.PI / 8,
eccentricity: 0.03,
angle: Math.random() * Math.PI * 2,
satellites: [
{
name: "Moon",
distance: 40,
radius: 3,
color: "gray",
inclination: Math.PI / 16,
eccentricity: 0.02,
angle: Math.random() * Math.PI * 2
}
]
},
{
name: "Mars",
distance: 200,
radius: 8,
color: "red",
inclination: Math.PI / 16,
eccentricity: 0.04,
angle: Math.random() * Math.PI * 2,
satellites: [
{
name: "Phobos",
distance: 20,
radius: 2,
color: "gray",
inclination: Math.PI / 32,
eccentricity: 0.02,
angle: Math.random() * Math.PI * 2
},
{
name: "Deimos",
distance: 30,
radius: 3,
color: "gray",
inclination: Math.PI / 64,
eccentricity: 0.03,
angle: Math.random() * Math.PI * 2
}
]
}
];
function drawPlanet(planet) {
var directionX = Math.cos(planet.angle);
var directionY = Math.sin(planet.angle) * Math.sin(planet.inclination);
var planetX = sun.x + planet.distance * directionX;
var planetY = sun.y + planet.distance * directionY;
if (planetX + planet.radius < 0 || planetX - planet.radius > 600 ||
planetY + planet.radius < 0 || planetY - planet.radius > 600) return;
if (planetX > sun.x) {
var planetTop = planetY - planet.radius * Math.sin(Math.acos((sun.x - planetX) / planet.distance));
var planetBottom = planetY + planet.radius * Math.sin(Math.acos((sun.x - planetX) / planet.distance));
ctx.beginPath();
ctx.moveTo(sun.x, sun.y);
ctx.lineTo(planetX, planetTop);
ctx.lineTo(planetX, planetBottom);
ctx.closePath();
ctx.fillStyle = "black";
ctx.fill();
if (planet.satellites && planet.satellites.length > 0) {
planet.satellites.forEach(function(satellite) {
var satelliteDirectionX = Math.cos(satellite.angle);
var satelliteDirectionY = Math.sin(satellite.angle) * Math.sin(satellite.inclination);
var satelliteX = planetX + satellite.distance * satelliteDirectionX;
var satelliteY = planetY + satellite.distance * satelliteDirectionY;
if (satelliteX + satellite.radius < 0 || satelliteX - satellite.radius > 600 ||
satelliteY + satellite.radius < 0 || satelliteY - satellite.radius > 600) return;
var satelliteTop = satelliteY - satellite.radius * Math.sin(Math.acos((planetX - satelliteX) / satellite.distance));
var satelliteBottom = satelliteY + satellite.radius * Math.sin(Math.acos((planetX - satelliteX) / satellite.distance));
ctx.beginPath();
ctx.moveTo(planetX, planetY);
ctx.lineTo(satelliteX, satelliteTop);
ctx.lineTo(satelliteX, satelliteBottom);
ctx.closePath();
ctx.fillStyle = "black";
ctx.fill();
});
}
ctx.beginPath();
ctx.arc(planetX, planetY, planet.radius, 0, 2 * Math.PI);
ctx.fillStyle = planet.color;
ctx.fill();
ctx.closePath();
ctx.beginPath();
ctx.moveTo(sun.x, sun.y);
ctx.lineTo(sun.x + planet.distance, sun.y);
ctx.strokeStyle = "white";
ctx.stroke();
ctx.closePath();
ctx.beginPath();
ctx.moveTo(sun.x, sun.y);
ctx.lineTo(planetX, planetY);
ctx.strokeStyle = "white";
ctx.stroke();
ctx.closePath();
var angleProjected = Math.asin(directionY / Math.sqrt(directionX ** 2 + directionY ** 2));
if (directionX < 0) angleProjected = Math.PI - angleProjected;
var textX = sun.x + (planet.distance / 2) * Math.cos(angleProjected);
var textY = sun.y + (planet.distance / 2) * Math.sin(angleProjected);
var text = planet.name + ", dist: " + planet.distance + "km";
ctx.font = "14px Arial";
ctx.fillStyle = "white";
ctx.fillText(text, textX, textY);
planet.satellites.forEach(function(satellite) {
drawPlanet(satellite);
});
}
function animate() {
ctx.clearRect(0, 0, 600, 600);
ctx.beginPath();
ctx.arc(sun.x, sun.y, sun.radius, 0, 2 * Math.PI);
ctx.fillStyle = sun.color;
ctx.fill();
ctx.closePath();
planets.forEach(function(planet) {
planet.angle += 0.01;
drawPlanet(planet);
});
requestAnimationFrame(animate);
}
animate();}
</script>
</body>
</html>
|
adf1ef3a5d1979c30dadb5bf5b069346
|
{
"intermediate": 0.2457408905029297,
"beginner": 0.5331008434295654,
"expert": 0.22115826606750488
}
|
13,500
|
astronomical terms of movement of planets and orbit placement. output detailed list with explanations for each term
Sure, here are some astronomical terms related to the movement of planets and orbit placement:
1. Orbit: The path that a planet or other celestial body follows as it revolves around another body in space.
2. Perihelion: The point in a planet’s orbit at which it is closest to the Sun.
3. Aphelion: The point in a planet’s orbit at which it is farthest from the Sun.
4. Eccentricity: The degree to which an orbit deviates from a perfect circle; in other words, how “oval” or elongated an orbit is.
5. Inclination: The angle between a planet’s orbital plane and the plane of the ecliptic (the imaginary plane that Earth’s orbit follows as it revolves around the Sun).
6. Retrograde motion: The apparent backward motion of a planet in the sky, caused by the differing orbital speeds of Earth and the other planet.
7. Synodic period: The time it takes for a planet to return to the same position relative to Earth and the Sun, as seen from Earth.
8. Sidereal period: The time it takes for a planet to complete one orbit around the Sun, as measured with respect to the fixed stars.
9. Precession: The slow, cyclical wobbling of the Earth’s rotational axis that causes changes in the positions of the stars over long periods of time.
10. Tidal locking: The phenomenon by which a planet’s rotation and revolution become synchronized with each other, so that one side of the planet always faces its star.
These are just a few of the many terms used in astronomy to describe the movement of planets and their orbits.
|
f3363828d1edad07f13aba88c78915f4
|
{
"intermediate": 0.3041151762008667,
"beginner": 0.31953585147857666,
"expert": 0.37634900212287903
}
|
13,501
|
I don’t see any actual update in planet movement animation, but the timefactor slider changing the position frame.
You’re right, I apologize for the mistake in my previous response. The problem is that the transformation properties for each planet were not properly concatenated into a single string. Here is an updated version of the JavaScript code that should fix the issue: <!DOCTYPE html>
<html>
<head>
<style>
body {
margin: 0;
padding: 0;
background-color: black;
font-family: sans-serif;
}
#sun {
position: absolute;
top: 50%;
left: 50%;
transform: translate(-50%, -50%);
width: 100px;
height: 100px;
border-radius: 50%;
background-color: yellow;
}
.planet {
position: absolute;
top: 50%;
left: 50%;
transform: translate(-50%, -50%);
width: 20px;
height: 20px;
border-radius: 50%;
animation-timing-function: linear;
opacity: 0.8;
}
#mercury {
animation: orbit-mercury 56d linear infinite;
background-color: #aaaaaa;
transform: translateX(43px);
}
#venus {
animation: orbit-venus 225d linear infinite;
background-color: #ff6600;
transform: translateX(107px);
}
#earth {
animation: orbit-earth 365d linear infinite;
background-color: #3366cc;
transform: translateX(146px);
}
@keyframes orbit-mercury {
from {
transform: rotate(0deg) translateX(43px) rotate(0deg);
}
to {
transform: rotate(360deg) translateX(43px) rotate(-360deg);
}
}
@keyframes orbit-venus {
from {
transform: rotate(0deg) translateX(107px) rotate(0deg);
}
to {
transform: rotate(360deg) translateX(107px) rotate(-360deg);
}
}
@keyframes orbit-earth {
from {
transform: rotate(0deg) translateX(146px) rotate(0deg);
}
to {
transform: rotate(360deg) translateX(146px) rotate(-360deg);
}
}
input[type=range], label[for=time-factor] {
display: inline-block;
vertical-align: middle;
}
label[for=time-factor] {
margin-right: 10px;
}
#time-factor {
width: 150px;
}
</style>
</head>
<body>
<div id="sun"></div>
<div id="mercury" class="planet"></div>
<div id="venus" class="planet"></div>
<div id="earth" class="planet"></div>
<label for="time-factor">Time factor:</label>
<input type="range" id="time-factor" min="0.1" max="10" step="0.1" value="1.0">
<script>
const timeFactorInput = document.getElementById('time-factor');
const mercury = document.getElementById('mercury');
const venus = document.getElementById('venus');
const earth = document.getElementById('earth');
let timeFactor = 1;
function updateTimeFactor() {
timeFactor = parseFloat(timeFactorInput.value);
}
timeFactorInput.addEventListener('change', updateTimeFactor);
function animate() {
requestAnimationFrame(animate);
const now = new Date();
const mercuryAngle = (now / (56 * timeFactor * 24 * 60 * 60 * 1000)) * 360;
const venusAngle = (now / (225 * timeFactor * 24 * 60 * 60 * 1000)) * 360;
const earthAngle = (now / (365 * timeFactor * 24 * 60 * 60 * 1000)) * 360;
mercury.style.transform = 'rotate(' + mercuryAngle + 'deg) translateX(43px) rotate(' + -mercuryAngle + 'deg)';
venus.style.transform = 'rotate(' + venusAngle + 'deg) translateX(107px) rotate(' + -venusAngle + 'deg)';
earth.style.transform = 'rotate(' + earthAngle + 'deg) translateX(146px) rotate(' + -earthAngle + 'deg)';
}
animate();
</script>
</body>
</html>
|
08d736cac5792deeacee25a97ad3c8c1
|
{
"intermediate": 0.29052087664604187,
"beginner": 0.4586465656757355,
"expert": 0.25083255767822266
}
|
13,502
|
can you output it with all the astronomical terms applied precisely. also, set timefactor to visually acceptable value of 1000.: 1. Orbit: The path that a planet or other celestial body follows as it revolves around another body in space.
2. Perihelion: The point in a planet’s orbit at which it is closest to the Sun.
3. Aphelion: The point in a planet’s orbit at which it is farthest from the Sun.
4. Eccentricity: The degree to which an orbit deviates from a perfect circle; in other words, how “oval” or elongated an orbit is.
5. Inclination: The angle between a planet’s orbital plane and the plane of the ecliptic (the imaginary plane that Earth’s orbit follows as it revolves around the Sun).
6. Retrograde motion: The apparent backward motion of a planet in the sky, caused by the differing orbital speeds of Earth and the other planet.
7. Synodic period: The time it takes for a planet to return to the same position relative to Earth and the Sun, as seen from Earth.
8. Sidereal period: The time it takes for a planet to complete one orbit around the Sun, as measured with respect to the fixed stars.
9. Precession: The slow, cyclical wobbling of the Earth’s rotational axis that causes changes in the positions of the stars over long periods of time.
10. Tidal locking: The phenomenon by which a planet’s rotation and revolution become synchronized with each other, so that one side of the planet always faces its star.
it also will be nice if you somehow make it into full 3d, without any frameworks or third-paty libraries used.: <!DOCTYPE html>
<html>
<head>
<style>
body {
margin: 0;
padding: 0;
background-color: black;
font-family: sans-serif;
}
#sun {
position: absolute;
top: 50%;
left: 50%;
transform: translate(-50%, -50%);
width: 100px;
height: 100px;
border-radius: 50%;
background-color: yellow;
}
.planet {
position: absolute;
top: 50%;
left: 50%;
transform: translate(-50%, -50%);
width: 20px;
height: 20px;
border-radius: 50%;
animation-timing-function: linear;
opacity: 0.8;
}
#mercury {
animation: orbit-mercury 88d linear infinite;
background-color: #aaaaaa;
transform: translateX(50px);
}
#venus {
animation: orbit-venus 224.7d linear infinite;
background-color: #ff6600;
transform: translateX(80px);
}
#earth {
animation: orbit-earth 365.25d linear infinite;
background-color: #3366cc;
transform: translateX(110px);
}
@keyframes orbit-mercury {
from {
transform: rotate(0deg) translateX(50px) rotate(0deg);
}
to {
transform: rotate(360deg) translateX(50px) rotate(-360deg);
}
}
@keyframes orbit-venus {
from {
transform: rotate(0deg) translateX(80px) rotate(0deg) translateY(8.7px) rotate(0deg);
}
to {
transform: rotate(360deg) translateX(80px) rotate(-360deg) translateY(8.7px) rotate(-1.26deg);
}
}
@keyframes orbit-earth {
from {
transform: rotate(0deg) translateX(110px) rotate(0deg) translateY(23.4px) rotate(0deg);
}
to {
transform: rotate(360deg) translateX(110px) rotate(-360deg) translateY(23.4px) rotate(-1.57deg);
}
}
input[type=range], label[for=time-factor] {
display: inline-block;
vertical-align: middle;
}
label[for=time-factor] {
margin-right: 10px;
}
#time-factor {
width: 150px;
}
</style>
</head>
<body>
<div id="sun"></div>
<div id="mercury" class="planet"></div>
<div id="venus" class="planet"></div>
<div id="earth" class="planet"></div>
<label for="time-factor">Time factor:</label>
<input type="range" id="time-factor" min="0.1" max="10" step="0.1" value="1000">
<script>
const timeFactorInput = document.getElementById('time-factor');
const mercury = document.getElementById('mercury');
const venus = document.getElementById('venus');
const earth = document.getElementById('earth');
const inclination = 7;
const perihelion = { mercury: 46, venus: 107, earth: 147 };
const aphelion = { mercury: 69, venus: 109, earth: 152 };
const eccentricity = { mercury: 0.21, venus: 0.01, earth: 0.02 };
const siderealPeriod = { mercury: 88, venus: 224.7, earth: 365.25 };
const orbitalPeriod = { mercury: 87.97, venus: 224.7, earth: 365.25 };
const planetAxisAngle = { mercury: 0.01, venus: 2.64, earth: 23.44 };
let lastTime = null;
let timeElapsed = 0;
let timeFactor = 1;
function updateTimeFactor() {
timeFactor = parseFloat(timeFactorInput.value);
}
timeFactorInput.addEventListener('change', updateTimeFactor);
function animate(now) {
if (!lastTime) {
lastTime = now;
}
const deltaTime = now - lastTime;
lastTime = now;
timeElapsed += deltaTime * timeFactor;
const mercuryAngle = ((timeElapsed / (orbitalPeriod.mercury * 24 * 60 * 60)) * 360) + ((360 / siderealPeriod.mercury) * timeElapsed) - (planetAxisAngle.mercury * inclination);
const venusAngle = ((timeElapsed / (orbitalPeriod.venus * 24 * 60 * 60)) * 360) + ((360 / siderealPeriod.venus) * timeElapsed) - (planetAxisAngle.venus * inclination);
const earthAngle = ((timeElapsed / (orbitalPeriod.earth * 24 * 60 * 60)) * 360) + ((360 / siderealPeriod.earth) * timeElapsed) - (planetAxisAngle.earth * inclination);
const mercuryPerihelion = perihelion.mercury * (1 + eccentricity.mercury);
const mercuryAphelion = perihelion.mercury * (1 - eccentricity.mercury);
const mercuryDistance = ((mercuryPerihelion - mercuryAphelion) / 2) + mercuryAphelion;
mercury.style.transform = 'rotate(' + mercuryAngle + 'deg) translateX(' + mercuryDistance + 'px) rotate(' + -mercuryAngle + 'deg)';
const venusPerihelion = perihelion.venus * (1 + eccentricity.venus);
const venusAphelion = perihelion.venus * (1 - eccentricity.venus);
const venusDistance = ((venusPerihelion - venusAphelion) / 2) + venusAphelion;
venus.style.transform = 'rotate(' + venusAngle + 'deg) translateX(' + venusDistance + 'px) rotate(' + -venusAngle + 'deg)';
const earthPerihelion = perihelion.earth * (1 + eccentricity.earth);
const earthAphelion = perihelion.earth * (1 - eccentricity.earth);
const earthDistance = ((earthPerihelion - earthAphelion) / 2) + earthAphelion;
earth.style.transform = 'rotate(' + earthAngle + 'deg) translateX(' + earthDistance + 'px) rotate(' + -earthAngle + 'deg)';
requestAnimationFrame(animate);
}
animate(0);
</script>
</body>
</html>
|
2ad917aa59c3629e84672e4513c5b784
|
{
"intermediate": 0.2814783453941345,
"beginner": 0.39903998374938965,
"expert": 0.3194817304611206
}
|
13,503
|
also, the mercury is too close to the Sun, need to adjust the sizes somehow, and to adjust all the sizes properly we need to convert the space scene into 3d by simply using simple javascript for that, without any frameworks or third-paty libraries used. <!DOCTYPE html>
<html>
<head>
<style>
body {
margin: 0;
padding: 0;
background-color: black;
font-family: sans-serif;
}
#sun {
position: absolute;
top: 50%;
left: 50%;
transform: translate(-50%, -50%);
width: 100px;
height: 100px;
border-radius: 50%;
background-color: yellow;
}
.planet {
position: absolute;
top: 50%;
left: 50%;
transform: translate(-50%, -50%);
width: 20px;
height: 20px;
border-radius: 50%;
animation-timing-function: linear;
opacity: 0.8;
}
#mercury {
animation: orbit-mercury 88d linear infinite;
background-color: #ff0000;
transform: translateX(50px);
}
#venus {
animation: orbit-venus 224.7d linear infinite;
background-color: #ff6600;
transform: translateX(80px);
}
#earth {
animation: orbit-earth 365.25d linear infinite;
background-color: #3366cc;
transform: translateX(110px);
}
@keyframes orbit-mercury {
from {
transform: rotate(0deg) translateX(50px) rotate(0deg);
}
to {
transform: rotate(360deg) translateX(50px) rotate(-360deg);
}
}
@keyframes orbit-venus {
from {
transform: rotate(0deg) translateX(80px) rotate(0deg) translateY(8.7px) rotate(0deg);
}
to {
transform: rotate(360deg) translateX(80px) rotate(-360deg) translateY(8.7px) rotate(-1.26deg);
}
}
@keyframes orbit-earth {
from {
transform: rotate(0deg) translateX(110px) rotate(0deg) translateY(23.4px) rotate(0deg);
}
to {
transform: rotate(360deg) translateX(110px) rotate(-360deg) translateY(23.4px) rotate(-1.57deg);
}
}
input[type=range], label[for=time-factor] {
display: inline-block;
vertical-align: middle;
}
label[for=time-factor] {
margin-right: 10px;
}
#time-factor {
width: 150px;
}
</style>
</head>
<body>
<div id="solar-system">
<div id="sun"></div>
<div id="mercury" class="planet"></div>
<div id="venus" class="planet"></div>
<div id="earth" class="planet"></div>
</div>
<label for="time-factor">Time factor:</label>
<input type="range" id="time-factor" min="0.1" max="10" step="0.1" value="1000">
<script>
const timeFactorInput = document.getElementById('time-factor');
const mercury = document.getElementById('mercury');
const venus = document.getElementById('venus');
const earth = document.getElementById('earth');
const inclination = 7;
const perihelion = { mercury: 46, venus: 107, earth: 147 };
const aphelion = { mercury: 69, venus: 109, earth: 152 };
const eccentricity = { mercury: 0.21, venus: 0.01, earth: 0.02 };
const siderealPeriod = { mercury: 88, venus: 224.7, earth: 365.25 };
const orbitalPeriod = { mercury: 87.97, venus: 224.7, earth: 365.25 };
const planetAxisAngle = { mercury: 0.01, venus: 2.64, earth: 23.44 };
let lastTime = null;
let timeElapsed = 0;
let timeFactor = 1;
function updateTimeFactor() {
timeFactor = parseFloat(timeFactorInput.value);
}
timeFactorInput.addEventListener('change', updateTimeFactor);
function animate(now) {
if (!lastTime) {
lastTime = now;
}
const deltaTime = now - lastTime;
lastTime = now;
timeElapsed += deltaTime * timeFactor;
const mercuryAngle = ((timeElapsed / (orbitalPeriod.mercury * 24 * 60 * 60)) * 360) + ((360 / siderealPeriod.mercury) * timeElapsed) - (planetAxisAngle.mercury * inclination);
const venusAngle = ((timeElapsed / (orbitalPeriod.venus * 24 * 60 * 60)) * 360) + ((360 / siderealPeriod.venus) * timeElapsed) - (planetAxisAngle.venus * inclination);
const earthAngle = ((timeElapsed / (orbitalPeriod.earth * 24 * 60 * 60)) * 360) + ((360 / siderealPeriod.earth) * timeElapsed) - (planetAxisAngle.earth * inclination);
const mercuryPerihelion = perihelion.mercury * (1 + eccentricity.mercury);
const mercuryAphelion = perihelion.mercury * (1 - eccentricity.mercury);
const mercuryDistance = ((mercuryPerihelion - mercuryAphelion) / 2) + mercuryAphelion;
mercury.style.transform = 'rotate(' + mercuryAngle + 'deg) translateX(' + mercuryDistance + 'px) rotate(' + -mercuryAngle + 'deg)';
const venusPerihelion = perihelion.venus * (1 + eccentricity.venus);
const venusAphelion = perihelion.venus * (1 - eccentricity.venus);
const venusDistance = ((venusPerihelion - venusAphelion) / 2) + venusAphelion;
venus.style.transform = 'rotate(' + venusAngle + 'deg) translateX(' + venusDistance + 'px) rotate(' + -venusAngle + 'deg)';
const earthPerihelion = perihelion.earth * (1 + eccentricity.earth);
const earthAphelion = perihelion.earth * (1 - eccentricity.earth);
const earthDistance = ((earthPerihelion - earthAphelion) / 2) + earthAphelion;
earth.style.transform = 'rotate(' + earthAngle + 'deg) translateX(' + earthDistance + 'px) rotate(' + -earthAngle + 'deg)';
requestAnimationFrame(animate);
}
animate(0);
</script>
</body>
</html> don't use any backticks, call styles in old fashion by using " and +.
|
af74722f8af20eaa6ab30aa376a62abb
|
{
"intermediate": 0.21356451511383057,
"beginner": 0.49522098898887634,
"expert": 0.2912144660949707
}
|
13,504
|
Sun need to be centered here plus the XYZ rotation of scene by mouse left button dragging in any empty space implemented. plus bg color to black with some random noise in form of milky way, without any image, frameworks or third-party libraries used. plus the time factor relatively to natural planetoid progression and their sizes difference adjusted. plus all possible astronomical terms accordingly applied to corresponding stellar bodily physics, as: 1. Orbit: The path that a planet or other celestial body follows as it revolves around another body in space.
2. Perihelion: The point in a planet’s orbit at which it is closest to the Sun.
3. Aphelion: The point in a planet’s orbit at which it is farthest from the Sun.
4. Eccentricity: The degree to which an orbit deviates from a perfect circle; in other words, how “oval” or elongated an orbit is.
5. Inclination: The angle between a planet’s orbital plane and the plane of the ecliptic (the imaginary plane that Earth’s orbit follows as it revolves around the Sun).
6. Retrograde motion: The apparent backward motion of a planet in the sky, caused by the differing orbital speeds of Earth and the other planet.
7. Synodic period: The time it takes for a planet to return to the same position relative to Earth and the Sun, as seen from Earth.
8. Sidereal period: The time it takes for a planet to complete one orbit around the Sun, as measured with respect to the fixed stars.
9. Precession: The slow, cyclical wobbling of the Earth’s rotational axis that causes changes in the positions of the stars over long periods of time.
10. Tidal locking: The phenomenon by which a planet’s rotation and revolution become synchronized with each other, so that one side of the planet always faces its star. Other terms might include Kepler’s laws of planetary motion (which describe the elliptical shape of planetary orbits and the speed at which planets move at various points in their orbits), the Roche limit (which describes how close a moon can orbit a planet before tidal forces tear it apart), and the Hill sphere (which describes the gravitational “sphere of influence” that a planet has around it, within which other celestial bodies are most likely to be bound to its gravity rather than that of the Sun). : const canvas = document.createElement('canvas');
canvas.width = window.innerWidth;
canvas.height = window.innerHeight;
document.body.appendChild(canvas);
const ctx = canvas.getContext('2d');
const sunPos = { x: 0, y: 0, z: 0, size: 20 };
const mercuryPos = { x: 50, y: 0, z: 0, size: 3 };
const venusPos = { x: 70, y: 0, z: -10, size: 4 };
const earthPos = { x: 100, y: 0, z: 0, size: 5 };
function drawSolarSystem() {
// Clear the canvas before drawing the planets
ctx.clearRect(0, 0, canvas.width, canvas.height);
// Draw the Sun
drawPlanet(sunPos.x, sunPos.y, sunPos.size, 'yellow');
// Draw Mercury
const mercPos2D = projectTo2D(mercuryPos.x, mercuryPos.y, mercuryPos.z);
drawPlanet(mercPos2D.x, mercPos2D.y, mercuryPos.size, 'red');
// Draw Venus
const venusPos2D = projectTo2D(venusPos.x, venusPos.y, venusPos.z);
drawPlanet(venusPos2D.x, venusPos2D.y, venusPos.size, 'orange');
// Draw Earth
const earthPos2D = projectTo2D(earthPos.x, earthPos.y, earthPos.z);
drawPlanet(earthPos2D.x, earthPos2D.y, earthPos.size, 'blue');
// Update planet positions for the next frame
updatePlanetPositions();
}
function updatePlanetPositions() {
// Update Mercury's position
mercuryPos.x = 50 * Math.cos(Date.now() / 1000);
mercuryPos.z = 50 * Math.sin(Date.now() / 1000);
// Update Venus's position
venusPos.x = 70 * Math.cos(Date.now() / 1500);
venusPos.z = -10 * Math.sin(Date.now() / 1500);
// Update Earth's position
earthPos.x = 100 * Math.cos(Date.now() / 2000);
earthPos.z = 100 * Math.sin(Date.now() / 2000);
}
function drawPlanet(x, y, size, color) {
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = color;
ctx.fill();
ctx.closePath();
}
function projectTo2D(x, y, z) {
const fov = 90; // Field of view angle in degrees
const distance = canvas.width / 2 / Math.tan(fov / 2 * Math.PI / 180);
const scale = distance / (distance + z);
const x2d = canvas.width / 2 + x * scale;
const y2d = canvas.height / 2 - y * scale;
return { x: x2d, y: y2d };
}
// Start the animation loop
setInterval(drawSolarSystem, 16);
|
495d3eeb75156b114c6be15df2022556
|
{
"intermediate": 0.27965429425239563,
"beginner": 0.4514334201812744,
"expert": 0.26891231536865234
}
|
13,505
|
give me an api key
|
c1587d0a0d5a64966f9ed772da22b738
|
{
"intermediate": 0.607940137386322,
"beginner": 0.18309442698955536,
"expert": 0.20896540582180023
}
|
13,506
|
need to fix that mouse dragging by only when clicking and dragging, but no always rotating with mouse move on canvas. it suppose to store the current (rotated) position, and on the next mouse left click and drag it should update the position and so on… it still resets the position after reclicking and redragging.: const canvas = document.createElement('canvas');
canvas.width = window.innerWidth;
canvas.height = window.innerHeight;
document.body.appendChild(canvas);
const ctx = canvas.getContext('2d');
const sunPos = { x: 0, y: 0, z: 0, size: 20 };
const mercuryPos = { x: 50, y: 0, z: 0, size: 3 };
const venusPos = { x: 70, y: 0, z: -10, size: 4 };
const earthPos = { x: 100, y: 0, z: 0, size: 5 };
let rotation = { x: 0, y: 0, z: 0 };
function drawSolarSystem() {
// Clear the canvas
ctx.clearRect(0, 0, canvas.width, canvas.height);
function drawGrid() {
const gridSize = 100;
const gridSpacing = 10;
// Find the normal vector of the orbital plane by taking the cross-product of the positions
// of two planets that are not collinear with the Sun (in this case, Mercury and Earth)
const v1 = { x: earthPos.x - sunPos.x, y: earthPos.y - sunPos.y, z: earthPos.z - sunPos.z };
const v2 = { x: mercuryPos.x - sunPos.x, y: mercuryPos.y - sunPos.y, z: mercuryPos.z - sunPos.z };
const normal = {
x: v1.y * v2.z - v1.z * v2.y,
y: v1.z * v2.x - v1.x * v2.z,
z: v1.x * v2.y - v1.y * v2.x
};
// Normalize the normal vector to get the direction of the orbital plane
const length = Math.sqrt(normal.x * normal.x + normal.y * normal.y + normal.z * normal.z);
const planeDir = { x: normal.x / length, y: normal.y / length, z: normal.z / length };
// Calculate a point on the plane by projecting the Sun position onto it
const planePos = {
x: sunPos.x - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.x,
y: sunPos.y - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.y,
z: sunPos.z - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.z
};
// Draw grid lines that lie on the orbital plane
ctx.beginPath();
ctx.strokeStyle = 'rgba(255,255,255,0.2)';
for (let i = -gridSize; i <= gridSize; i += gridSpacing) {
const p1 = {
x: planePos.x + (i * planeDir.x),
y: planePos.y + (i * planeDir.y),
z: planePos.z + (i * planeDir.z)
};
const p2 = {
x: planePos.x + (i * planeDir.x) + (gridSize * planeDir.y),
y: planePos.y + (i * planeDir.y) - (gridSize * planeDir.x),
z: planePos.z + (i * planeDir.z)
};
ctx.moveTo(projectTo2D(p1.x, p1.y, p1.z).x, projectTo2D(p1.x, p1.y, p1.z).y);
ctx.lineTo(projectTo2D(p2.x, p2.y, p2.z).x, projectTo2D(p2.x, p2.y, p2.z).y);
}
ctx.stroke();
ctx.closePath();
}
drawGrid();
// Draw Milky Way background
ctx.globalCompositeOperation = "lighter";
ctx.fillStyle = "black";
ctx.fillRect(0, 0, canvas.width, canvas.height);
ctx.globalCompositeOperation = "lighter";
for (let i = 0; i < 1000; i++) {
const size = Math.random() * 2;
const x = Math.random() * canvas.width;
const y = Math.random() * canvas.height;
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = 'rgba(255, 255, 255, ' + 0.1 + ')';
ctx.fill();
}
// Draw the Sun
const sunPos2D = projectTo2D(sunPos.x, sunPos.y, sunPos.z);
drawPlanet(sunPos2D.x, sunPos2D.y, sunPos.size, '#ffcc00');
// Draw Mercury
const mercPos2D = projectTo2D(mercuryPos.x - sunPos.x, mercuryPos.y - sunPos.y, mercuryPos.z - sunPos.z);
drawPlanet(mercPos2D.x, mercPos2D.y, mercuryPos.size, '#ff6666');
// Draw Venus
const venusPos2D = projectTo2D(venusPos.x - sunPos.x, venusPos.y - sunPos.y, venusPos.z - sunPos.z);
drawPlanet(venusPos2D.x, venusPos2D.y, venusPos.size, '#ffa500');
// Draw Earth
const earthPos2D = projectTo2D(earthPos.x - sunPos.x, earthPos.y - sunPos.y, earthPos.z - sunPos.z);
drawPlanet(earthPos2D.x, earthPos2D.y, earthPos.size, '#6699ff');
// Update planet positions for the next frame
updatePlanetPositions();
// Update rotation angles based on mouse position
let isDragging = false;
let lastRotation = { x: 0, y: 0 }; // store last rotation angles
canvas.addEventListener('mousedown', function(event) {
isDragging = true;
});
canvas.addEventListener('mouseup', function(event) {
isDragging = false;
// store current rotation angle values when mouse button is released
lastRotation.x = rotation.x;
lastRotation.y = rotation.y;
});
canvas.addEventListener('mousemove', function(event) {
if (isDragging) {
// add current and last rotation angle values to get new angles
rotation.x = lastRotation.x + (event.clientY - canvas.height/2) / canvas.height * Math.PI;
rotation.y = lastRotation.y + (event.clientX - canvas.width/2) / canvas.width * Math.PI;
}
});
}
function updatePlanetPositions() {
// Update Mercury's position
mercuryPos.x = 50 * Math.cos(Date.now() / 1000);
mercuryPos.z = 50 * Math.sin(Date.now() / 1000);
// Update Venus's position
venusPos.x = 70 * Math.cos(Date.now() / 1500);
venusPos.z = -10 * Math.sin(Date.now() / 1500);
// Update Earth's position
earthPos.x = 100 * Math.cos(Date.now() / 2000);
earthPos.z = 100 * Math.sin(Date.now() / 2000);
}
function drawPlanet(x, y, size, color) {
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = color;
ctx.fill();
ctx.closePath();
}
function projectTo2D(x, y, z) {
const fov = 90; // Field of view angle in degrees
const distance = canvas.width / 2 / Math.tan(fov / 2 * Math.PI / 180);
const cosX = Math.cos(rotation.x);
const sinX = Math.sin(rotation.x);
const cosY = Math.cos(rotation.y);
const sinY = Math.sin(rotation.y);
const cosZ = Math.cos(rotation.z);
const sinZ = Math.sin(rotation.z);
const x1 = x * cosY * cosZ - y * cosY * sinZ + z * sinY;
const y1 = x * (sinX * sinY * cosZ + cosX * sinZ) + y * (sinX * sinY * sinZ - cosX * cosZ) - z * sinX * cosY;
const z1 = x * (cosX * sinY * cosZ - sinX * sinZ) + y * (cosX * sinY * sinZ + sinX * cosZ) + z * cosX * cosY;
const scale = distance / (distance + z1);
const x2d = canvas.width / 2 + x1 * scale;
const y2d = canvas.height / 2 - y1 * scale;
return { x: x2d, y: y2d };
}
// Start the animation loop
setInterval(drawSolarSystem, 16);
|
5772602774d890c8a3f16f4f804fe025
|
{
"intermediate": 0.3555867075920105,
"beginner": 0.5035718679428101,
"expert": 0.14084148406982422
}
|
13,507
|
now preven bufferoverflow and output normal end of the code.
Great to hear that the animation is working properly now! By using requestAnimationFrame instead of setInterval, we can optimize the animation loop to ensure that each frame is rendered at the optimal time, which helps to prevent buffer overflows and improve overall performance.
If you have any other questions or concerns, feel free to ask!
you now preven bufferoverflow and output normal end of the code.
I apologize for any confusion - I’m not sure what you mean by “output normal end of the code.” Can you please provide more details or clarify what you mean?
this “// Update planet positions for the next frame
function update() {
updatePlanetPositions();
drawSolarSystem();
requestAnimationFrame(update);
}
update();” now preven bufferoverflow and output normal end of the code.
Ah, I understand now - I’m glad to hear that the changes to the code have prevented buffer overflows and resulted in normal program execution.
By using requestAnimationFrame :::::::::::::: const canvas = document.createElement('canvas');
canvas.width = window.innerWidth;
canvas.height = window.innerHeight;
document.body.appendChild(canvas);
const ctx = canvas.getContext('2d');
const sunPos = { x: 0, y: 0, z: 0, size: 20 };
const mercuryPos = { x: 50, y: 0, z: 0, size: 3 };
const venusPos = { x: 70, y: 0, z: -10, size: 4 };
const earthPos = { x: 100, y: 0, z: 0, size: 5 };
let rotation = { x: 0, y: 0, z: 0 };
function drawSolarSystem() {
// Clear the canvas
ctx.clearRect(0, 0, canvas.width, canvas.height);
function drawGrid() {
const gridSize = 100;
const gridSpacing = 10;
// Find the normal vector of the orbital plane by taking the cross-product of the positions
// of two planets that are not collinear with the Sun (in this case, Mercury and Earth)
const v1 = { x: earthPos.x - sunPos.x, y: earthPos.y - sunPos.y, z: earthPos.z - sunPos.z };
const v2 = { x: mercuryPos.x - sunPos.x, y: mercuryPos.y - sunPos.y, z: mercuryPos.z - sunPos.z };
const normal = {
x: v1.y * v2.z - v1.z * v2.y,
y: v1.z * v2.x - v1.x * v2.z,
z: v1.x * v2.y - v1.y * v2.x
};
// Normalize the normal vector to get the direction of the orbital plane
const length = Math.sqrt(normal.x * normal.x + normal.y * normal.y + normal.z * normal.z);
const planeDir = { x: normal.x / length, y: normal.y / length, z: normal.z / length };
// Calculate a point on the plane by projecting the Sun position onto it
const planePos = {
x: sunPos.x - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.x,
y: sunPos.y - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.y,
z: sunPos.z - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.z
};
// Draw grid lines that lie on the orbital plane
ctx.beginPath();
ctx.strokeStyle = 'rgba(255,255,255,0.2)';
for (let i = -gridSize; i <= gridSize; i += gridSpacing) {
const p1 = {
x: planePos.x + (i * planeDir.x),
y: planePos.y + (i * planeDir.y),
z: planePos.z + (i * planeDir.z)
};
const p2 = {
x: planePos.x + (i * planeDir.x) + (gridSize * planeDir.y),
y: planePos.y + (i * planeDir.y) - (gridSize * planeDir.x),
z: planePos.z + (i * planeDir.z)
};
ctx.moveTo(projectTo2D(p1.x, p1.y, p1.z).x, projectTo2D(p1.x, p1.y, p1.z).y);
ctx.lineTo(projectTo2D(p2.x, p2.y, p2.z).x, projectTo2D(p2.x, p2.y, p2.z).y);
}
ctx.stroke();
ctx.closePath();
}
drawGrid();
// Draw Milky Way background
ctx.globalCompositeOperation = "lighter";
ctx.fillStyle = "black";
ctx.fillRect(0, 0, canvas.width, canvas.height);
ctx.globalCompositeOperation = "lighter";
for (let i = 0; i < 1000; i++) {
const size = Math.random() * 2;
const x = Math.random() * canvas.width;
const y = Math.random() * canvas.height;
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = 'rgba(255, 255, 255, ' + 0.1 + ')';
ctx.fill();
}
// Draw the Sun
const sunPos2D = projectTo2D(sunPos.x, sunPos.y, sunPos.z);
drawPlanet(sunPos2D.x, sunPos2D.y, sunPos.size, '#ffcc00');
// Draw Mercury
const mercPos2D = projectTo2D(mercuryPos.x - sunPos.x, mercuryPos.y - sunPos.y, mercuryPos.z - sunPos.z);
drawPlanet(mercPos2D.x, mercPos2D.y, mercuryPos.size, '#ff6666');
// Draw Venus
const venusPos2D = projectTo2D(venusPos.x - sunPos.x, venusPos.y - sunPos.y, venusPos.z - sunPos.z);
drawPlanet(venusPos2D.x, venusPos2D.y, venusPos.size, '#ffa500');
// Draw Earth
const earthPos2D = projectTo2D(earthPos.x - sunPos.x, earthPos.y - sunPos.y, earthPos.z - sunPos.z);
drawPlanet(earthPos2D.x, earthPos2D.y, earthPos.size, '#6699ff');
// Update planet positions for the next frame
updatePlanetPositions();
// Update rotation angles based on mouse position
let isDragging = false;
let initialMousePos = { x: 0, y: 0 }; // store initial mouse position when dragging starts
let currentRotation = { x: 0, y: 0 }; // store current rotation angles
let prevRotation = { x: 0, y: 0 }; // store previous (last) rotation angles
canvas.addEventListener('mousedown', function(event) {
isDragging = true;
initialMousePos.x = event.clientX;
initialMousePos.y = event.clientY;
prevRotation.x = currentRotation.x; // store previous rotation angles
prevRotation.y = currentRotation.y;
});
canvas.addEventListener('mouseup', function(event) {
isDragging = false;
});
canvas.addEventListener('mousemove', function(event) {
if (isDragging) {
// calculate new rotation angles based on difference between current mouse position and initial mouse position
currentRotation.x = prevRotation.x + (event.clientY - initialMousePos.y) / canvas.height * Math.PI;
currentRotation.y = prevRotation.y + (event.clientX - initialMousePos.x) / canvas.width * Math.PI;
// update lastRotation whenever rotation angles are set to new values
if (currentRotation.x !== prevRotation.x || currentRotation.y !== prevRotation.y) {
prevRotation.x = currentRotation.x;
prevRotation.y = currentRotation.y;
}
}
});
}
function updatePlanetPositions() {
// Update Mercury's position
mercuryPos.x = 50 * Math.cos(Date.now() / 1000);
mercuryPos.z = 50 * Math.sin(Date.now() / 1000);
// Update Venus's position
venusPos.x = 70 * Math.cos(Date.now() / 1500);
venusPos.z = -10 * Math.sin(Date.now() / 1500);
// Update Earth's position
earthPos.x = 100 * Math.cos(Date.now() / 2000);
earthPos.z = 100 * Math.sin(Date.now() / 2000);
}
function drawPlanet(x, y, size, color) {
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = color;
ctx.fill();
ctx.closePath();
}
function projectTo2D(x, y, z) {
const fov = 90; // Field of view angle in degrees
const distance = canvas.width / 2 / Math.tan(fov / 2 * Math.PI / 180);
const cosX = Math.cos(rotation.x);
const sinX = Math.sin(rotation.x);
const cosY = Math.cos(rotation.y);
const sinY = Math.sin(rotation.y);
const cosZ = Math.cos(rotation.z);
const sinZ = Math.sin(rotation.z);
const x1 = x * cosY * cosZ - y * cosY * sinZ + z * sinY;
const y1 = x * (sinX * sinY * cosZ + cosX * sinZ) + y * (sinX * sinY * sinZ - cosX * cosZ) - z * sinX * cosY;
const z1 = x * (cosX * sinY * cosZ - sinX * sinZ) + y * (cosX * sinY * sinZ + sinX * cosZ) + z * cosX * cosY;
const scale = distance / (distance + z1);
const x2d = canvas.width / 2 + x1 * scale;
const y2d = canvas.height / 2 - y1 * scale;
return { x: x2d, y: y2d };
}
// Start the animation loop
setInterval(drawSolarSystem, 16);
|
53cb86fbde7389029a4c937f09d5cc73
|
{
"intermediate": 0.30072277784347534,
"beginner": 0.4845968186855316,
"expert": 0.21468038856983185
}
|
13,508
|
Hi there
|
b69a9126ba07f6b17198bdc251c332b6
|
{
"intermediate": 0.32728445529937744,
"beginner": 0.24503648281097412,
"expert": 0.42767903208732605
}
|
13,509
|
the 3d planar grid is bisected here on two planes. need to do this 3d planar grid a solid thing relative to all planets from the Sun position, which is the center.: const canvas = document.createElement('canvas');
canvas.width = window.innerWidth;
canvas.height = window.innerHeight;
document.body.appendChild(canvas);
const ctx = canvas.getContext('2d');
const sunPos = { x: 0, y: 0, z: 0, size: 20 };
const mercuryPos = { x: 50, y: 0, z: 0, size: 3 };
const venusPos = { x: 70, y: 0, z: -10, size: 4 };
const earthPos = { x: 100, y: 0, z: 0, size: 5 };
let rotation = { x: 0, y: 0, z: 0 };
function drawSolarSystem() {
// Clear the canvas
ctx.clearRect(0, 0, canvas.width, canvas.height);
function drawGrid() {
const gridSize = 1000;
const gridSpacing = 100;
// Find the normal vector of the orbital plane by taking the cross-product of the positions
// of two planets that are not collinear with the Sun (in this case, Mercury and Earth)
const v1 = { x: earthPos.x - sunPos.x, y: earthPos.y - sunPos.y, z: earthPos.z - sunPos.z };
const v2 = { x: mercuryPos.x - sunPos.x, y: mercuryPos.y - sunPos.y, z: mercuryPos.z - sunPos.z };
const normal = {
x: v1.y * v2.z - v1.z * v2.y,
y: v1.z * v2.x - v1.x * v2.z,
z: v1.x * v2.y - v1.y * v2.x
};
// Normalize the normal vector to get the direction of the orbital plane
const length = Math.sqrt(normal.x * normal.x + normal.y * normal.y + normal.z * normal.z);
const planeDir = { x: normal.x / length, y: normal.y / length, z: normal.z / length };
// Calculate a point on the plane by projecting the Sun position onto it
const planePos = {
x: sunPos.x - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.x,
y: sunPos.y - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.y,
z: sunPos.z - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.z
};
// Draw grid lines that lie on the orbital plane
ctx.beginPath();
ctx.strokeStyle = 'rgba(255,255,255,0.2)';
for (let i = -gridSize; i <= gridSize; i += gridSpacing) {
const p1 = {
x: planePos.x + (i * planeDir.x),
y: planePos.y + (i * planeDir.y),
z: planePos.z + (i * planeDir.z)
};
const p2 = {
x: planePos.x + (i * planeDir.x) + (gridSize * planeDir.y),
y: planePos.y + (i * planeDir.y) - (gridSize * planeDir.x),
z: planePos.z + (i * planeDir.z)
};
ctx.moveTo(projectTo2D(p1.x, p1.y, p1.z).x, projectTo2D(p1.x, p1.y, p1.z).y);
ctx.lineTo(projectTo2D(p2.x, p2.y, p2.z).x, projectTo2D(p2.x, p2.y, p2.z).y);
}
ctx.stroke();
ctx.closePath();
}
drawGrid();
// Draw Milky Way background
ctx.globalCompositeOperation = "lighter";
ctx.fillStyle = "black";
ctx.fillRect(0, 0, canvas.width, canvas.height);
ctx.globalCompositeOperation = "lighter";
for (let i = 0; i < 1000; i++) {
const size = Math.random() * 2;
const x = Math.random() * canvas.width;
const y = Math.random() * canvas.height;
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = 'rgba(255, 255, 255, ' + 0.1 + ')';
ctx.fill();
}
// Draw the Sun
const sunPos2D = projectTo2D(sunPos.x, sunPos.y, sunPos.z);
drawPlanet(sunPos2D.x, sunPos2D.y, sunPos.size, '#ffcc00');
// Draw Mercury
const mercPos2D = projectTo2D(mercuryPos.x - sunPos.x, mercuryPos.y - sunPos.y, mercuryPos.z - sunPos.z);
drawPlanet(mercPos2D.x, mercPos2D.y, mercuryPos.size, '#ff6666');
// Draw Venus
const venusPos2D = projectTo2D(venusPos.x - sunPos.x, venusPos.y - sunPos.y, venusPos.z - sunPos.z);
drawPlanet(venusPos2D.x, venusPos2D.y, venusPos.size, '#ffa500');
// Draw Earth
const earthPos2D = projectTo2D(earthPos.x - sunPos.x, earthPos.y - sunPos.y, earthPos.z - sunPos.z);
drawPlanet(earthPos2D.x, earthPos2D.y, earthPos.size, '#6699ff');
// Update planet positions for the next frame
updatePlanetPositions();
// Update rotation angles based on mouse position
let isDragging = false;
let initialMousePos = { x: 0, y: 0 }; // store initial mouse position when dragging starts
let currentRotation = { x: rotation.x, y: rotation.y }; // initialize current rotation angles to the current rotation
let prevRotation = { x: 0, y: 0 }; // store previous (last) rotation angles
canvas.addEventListener('mousedown', function (event) {
isDragging = true;
initialMousePos.x = event.clientX;
initialMousePos.y = event.clientY;
prevRotation.x = currentRotation.x; // store previous rotation angles
prevRotation.y = currentRotation.y;
});
canvas.addEventListener('mouseup', function (event) {
isDragging = false;
});
canvas.addEventListener('mousemove', function (event) {
if (isDragging) {
// calculate new rotation angles based on difference between current mouse position and initial mouse position
currentRotation.x = prevRotation.x + (event.clientY - initialMousePos.y) / canvas.height * Math.PI;
currentRotation.y = prevRotation.y + (event.clientX - initialMousePos.x) / canvas.width * Math.PI;
// update lastRotation whenever rotation angles are set to new values
if (currentRotation.x !== prevRotation.x || currentRotation.y !== prevRotation.y) {
rotation.x = currentRotation.x;
rotation.y = currentRotation.y;
}
}
});
}
function updatePlanetPositions() {
// Update Mercury's position
mercuryPos.x = 50 * Math.cos(Date.now() / 1000);
mercuryPos.z = 50 * Math.sin(Date.now() / 1000);
// Update Venus's position
venusPos.x = 70 * Math.cos(Date.now() / 1500);
venusPos.z = -10 * Math.sin(Date.now() / 1500);
// Update Earth's position
earthPos.x = 100 * Math.cos(Date.now() / 2000);
earthPos.z = 100 * Math.sin(Date.now() / 2000);
}
function drawPlanet(x, y, size, color) {
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = color;
ctx.fill();
ctx.closePath();
}
function projectTo2D(x, y, z) {
const fov = 90; // Field of view angle in degrees
const distance = canvas.width / 2 / Math.tan(fov / 2 * Math.PI / 180);
const cosX = Math.cos(rotation.x);
const sinX = Math.sin(rotation.x);
const cosY = Math.cos(rotation.y);
const sinY = Math.sin(rotation.y);
const cosZ = Math.cos(rotation.z);
const sinZ = Math.sin(rotation.z);
const x1 = x * cosY * cosZ - y * cosY * sinZ + z * sinY;
const y1 = x * (sinX * sinY * cosZ + cosX * sinZ) + y * (sinX * sinY * sinZ - cosX * cosZ) - z * sinX * cosY;
const z1 = x * (cosX * sinY * cosZ - sinX * sinZ) + y * (cosX * sinY * sinZ + sinX * cosZ) + z * cosX * cosY;
const scale = distance / (distance + z1);
const x2d = canvas.width / 2 + x1 * scale;
const y2d = canvas.height / 2 - y1 * scale;
return { x: x2d, y: y2d };
}
// Update planet positions for the next frame
function update() {
updatePlanetPositions();
drawSolarSystem();
requestAnimationFrame(update);
}
update();
|
117ae8e530b5a3fec61088c68e602785
|
{
"intermediate": 0.2619156539440155,
"beginner": 0.5121026635169983,
"expert": 0.22598162293434143
}
|
13,510
|
wpf datagrid中既有combox又有textbox的例子
|
ec4e452142c8fe3df5f322116ce163d3
|
{
"intermediate": 0.4458748996257782,
"beginner": 0.23819482326507568,
"expert": 0.3159303069114685
}
|
13,511
|
the 3d planar grid is bisected here on two planes. need to do this 3d planar grid a solid thing relative to all planets from the Sun position, which is the center. seems clean as explanation to me. whats wrong? how to explain that to you just what I just explained to you? you wish a reexplain? do you understand the term “axiometer”? planar grid attached to XYZ axiometer from the central position, which is not got bisected on two planes in 3d space.: const canvas = document.createElement(‘canvas’);
canvas.width = window.innerWidth;
canvas.height = window.innerHeight;
document.body.appendChild(canvas);
const ctx = canvas.getContext(‘2d’);
const sunPos = { x: 0, y: 0, z: 0, size: 20 };
const mercuryPos = { x: 50, y: 0, z: 0, size: 3 };
const venusPos = { x: 70, y: 0, z: -10, size: 4 };
const earthPos = { x: 100, y: 0, z: 0, size: 5 };
let rotation = { x: 0, y: 0, z: 0 };
function drawSolarSystem() {
// Clear the canvas
ctx.clearRect(0, 0, canvas.width, canvas.height);
function drawGrid() {
const gridSize = 1000;
const gridSpacing = 100;
// Find the normal vector of the orbital plane by taking the cross-product of the positions
// of two planets that are not collinear with the Sun (in this case, Mercury and Earth)
const v1 = { x: earthPos.x - sunPos.x, y: earthPos.y - sunPos.y, z: earthPos.z - sunPos.z };
const v2 = { x: mercuryPos.x - sunPos.x, y: mercuryPos.y - sunPos.y, z: mercuryPos.z - sunPos.z };
const normal = {
x: v1.y * v2.z - v1.z * v2.y,
y: v1.z * v2.x - v1.x * v2.z,
z: v1.x * v2.y - v1.y * v2.x
};
// Normalize the normal vector to get the direction of the orbital plane
const length = Math.sqrt(normal.x * normal.x + normal.y * normal.y + normal.z * normal.z);
const planeDir = { x: normal.x / length, y: normal.y / length, z: normal.z / length };
// Calculate a point on the plane by projecting the Sun position onto it
const planePos = {
x: sunPos.x - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.x,
y: sunPos.y - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.y,
z: sunPos.z - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.z
};
// Draw grid lines that lie on the orbital plane
ctx.beginPath();
ctx.strokeStyle = ‘rgba(255,255,255,0.2)’;
for (let i = -gridSize; i <= gridSize; i += gridSpacing) {
const p1 = {
x: planePos.x + (i * planeDir.x),
y: planePos.y + (i * planeDir.y),
z: planePos.z + (i * planeDir.z)
};
const p2 = {
x: planePos.x + (i * planeDir.x) + (gridSize * planeDir.y),
y: planePos.y + (i * planeDir.y) - (gridSize * planeDir.x),
z: planePos.z + (i * planeDir.z)
};
ctx.moveTo(projectTo2D(p1.x, p1.y, p1.z).x, projectTo2D(p1.x, p1.y, p1.z).y);
ctx.lineTo(projectTo2D(p2.x, p2.y, p2.z).x, projectTo2D(p2.x, p2.y, p2.z).y);
}
ctx.stroke();
ctx.closePath();
}
drawGrid();
// Draw Milky Way background
ctx.globalCompositeOperation = “lighter”;
ctx.fillStyle = “black”;
ctx.fillRect(0, 0, canvas.width, canvas.height);
ctx.globalCompositeOperation = “lighter”;
for (let i = 0; i < 1000; i++) {
const size = Math.random() * 2;
const x = Math.random() * canvas.width;
const y = Math.random() * canvas.height;
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = 'rgba(255, 255, 255, ’ + 0.1 + ‘)’;
ctx.fill();
}
// Draw the Sun
const sunPos2D = projectTo2D(sunPos.x, sunPos.y, sunPos.z);
drawPlanet(sunPos2D.x, sunPos2D.y, sunPos.size, ‘#ffcc00’);
// Draw Mercury
const mercPos2D = projectTo2D(mercuryPos.x - sunPos.x, mercuryPos.y - sunPos.y, mercuryPos.z - sunPos.z);
drawPlanet(mercPos2D.x, mercPos2D.y, mercuryPos.size, ‘#ff6666’);
// Draw Venus
const venusPos2D = projectTo2D(venusPos.x - sunPos.x, venusPos.y - sunPos.y, venusPos.z - sunPos.z);
drawPlanet(venusPos2D.x, venusPos2D.y, venusPos.size, ‘#ffa500’);
// Draw Earth
const earthPos2D = projectTo2D(earthPos.x - sunPos.x, earthPos.y - sunPos.y, earthPos.z - sunPos.z);
drawPlanet(earthPos2D.x, earthPos2D.y, earthPos.size, ‘#6699ff’);
// Update planet positions for the next frame
updatePlanetPositions();
// Update rotation angles based on mouse position
let isDragging = false;
let initialMousePos = { x: 0, y: 0 }; // store initial mouse position when dragging starts
let currentRotation = { x: rotation.x, y: rotation.y }; // initialize current rotation angles to the current rotation
let prevRotation = { x: 0, y: 0 }; // store previous (last) rotation angles
canvas.addEventListener(‘mousedown’, function (event) {
isDragging = true;
initialMousePos.x = event.clientX;
initialMousePos.y = event.clientY;
prevRotation.x = currentRotation.x; // store previous rotation angles
prevRotation.y = currentRotation.y;
});
canvas.addEventListener(‘mouseup’, function (event) {
isDragging = false;
});
canvas.addEventListener(‘mousemove’, function (event) {
if (isDragging) {
// calculate new rotation angles based on difference between current mouse position and initial mouse position
currentRotation.x = prevRotation.x + (event.clientY - initialMousePos.y) / canvas.height * Math.PI;
currentRotation.y = prevRotation.y + (event.clientX - initialMousePos.x) / canvas.width * Math.PI;
// update lastRotation whenever rotation angles are set to new values
if (currentRotation.x !== prevRotation.x || currentRotation.y !== prevRotation.y) {
rotation.x = currentRotation.x;
rotation.y = currentRotation.y;
}
}
});
}
function updatePlanetPositions() {
// Update Mercury’s position
mercuryPos.x = 50 * Math.cos(Date.now() / 1000);
mercuryPos.z = 50 * Math.sin(Date.now() / 1000);
// Update Venus’s position
venusPos.x = 70 * Math.cos(Date.now() / 1500);
venusPos.z = -10 * Math.sin(Date.now() / 1500);
// Update Earth’s position
earthPos.x = 100 * Math.cos(Date.now() / 2000);
earthPos.z = 100 * Math.sin(Date.now() / 2000);
}
function drawPlanet(x, y, size, color) {
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = color;
ctx.fill();
ctx.closePath();
}
function projectTo2D(x, y, z) {
const fov = 90; // Field of view angle in degrees
const distance = canvas.width / 2 / Math.tan(fov / 2 * Math.PI / 180);
const cosX = Math.cos(rotation.x);
const sinX = Math.sin(rotation.x);
const cosY = Math.cos(rotation.y);
const sinY = Math.sin(rotation.y);
const cosZ = Math.cos(rotation.z);
const sinZ = Math.sin(rotation.z);
const x1 = x * cosY * cosZ - y * cosY * sinZ + z * sinY;
const y1 = x * (sinX * sinY * cosZ + cosX * sinZ) + y * (sinX * sinY * sinZ - cosX * cosZ) - z * sinX * cosY;
const z1 = x * (cosX * sinY * cosZ - sinX * sinZ) + y * (cosX * sinY * sinZ + sinX * cosZ) + z * cosX * cosY;
const scale = distance / (distance + z1);
const x2d = canvas.width / 2 + x1 * scale;
const y2d = canvas.height / 2 - y1 * scale;
return { x: x2d, y: y2d };
}
// Update planet positions for the next frame
function update() {
updatePlanetPositions();
drawSolarSystem();
requestAnimationFrame(update);
}
update();
|
8d7adab8c8404f6e6036ee72719cf36d
|
{
"intermediate": 0.3212480843067169,
"beginner": 0.4927639663219452,
"expert": 0.1859879493713379
}
|
13,512
|
need then one plane radial grid within X(horizontal) position through the same relative X(horizontal) rotation of planets around the Sun.
If you want to use a radial grid in the X(horizontal) plane relative to the rotation of the planets around the Sun, you can modify the drawGrid function to calculate the position of each grid line based on its distance from the Sun’s position along the X(horizontal) axis. Here’s an example of how you could modify the function to achieve this:
function drawGrid() {
const gridSpacing = 100;
// Find the minimum and maximum X(horizontal) positions of the planets
const minPosX = Math.min(sunPos.x, mercuryPos.x, venusPos.x, earthPos.x);
const maxPosX = Math.max(sunPos.x, mercuryPos.x, venusPos.x, earthPos.x);
// Draw grid lines that lie on the X(horizontal) axis
ctx.beginPath();
ctx.strokeStyle = “rgba(255, 255, 255, 0.2)”;
for (let i = Math.floor(minPosX / gridSpacing) * gridSpacing; i <= maxPosX; i += gridSpacing) {
const p1 = { x: i, y: -gridSize, z: 0 };
const p2 = { x: i, y: gridSize, z: 0 };
ctx.moveTo(projectTo2D(p1.x, p1.y, p1.z).x, projectTo2D(p1.x, p1.y, p1.z).y);
ctx.lineTo(projectTo2D(p2.x, p2.y, p2.z).x, projectTo2D(p2.x, p2.y, p2.z).y);
}
ctx.stroke();
ctx.closePath();
}
In this modified version, the minPosX and maxPosX variables are calculated as the minimum and maximum X(horizontal) positions of the planets. The for loop then iterates over the X(horizontal) positions within the range of minPosX and maxPosX, with a step size of gridSpacing. For each position, p1 and p2 are calculated with the X(horizontal) position as the x coordinate and gridSize as the
and min/max grid size is irrelevant in that case? : const canvas = document.createElement('canvas');
canvas.width = window.innerWidth;
canvas.height = window.innerHeight;
document.body.appendChild(canvas);
const ctx = canvas.getContext('2d');
const sunPos = { x: 0, y: 0, z: 0, size: 20 };
const mercuryPos = { x: 50, y: 0, z: 0, size: 3 };
const venusPos = { x: 70, y: 0, z: -10, size: 4 };
const earthPos = { x: 100, y: 0, z: 0, size: 5 };
let rotation = { x: 0, y: 0, z: 0 };
function drawSolarSystem() {
// Clear the canvas
ctx.clearRect(0, 0, canvas.width, canvas.height);
function drawGrid() {
const gridSize = 1000;
const gridSpacing = 50;
// Find the normal vector of the orbital plane by taking the cross-product of the positions
// of two planets that are not collinear with the Sun (in this case, Mercury and Earth)
const v1 = { x: earthPos.x - sunPos.x, y: earthPos.y - sunPos.y, z: earthPos.z - sunPos.z };
const v2 = { x: mercuryPos.x - sunPos.x, y: mercuryPos.y - sunPos.y, z: mercuryPos.z - sunPos.z };
const normal = {
x: v1.y * v2.z - v1.z * v2.y,
y: v1.z * v2.x - v1.x * v2.z,
z: v1.x * v2.y - v1.y * v2.x
};
// Normalize the normal vector to get the direction of the orbital plane
const length = Math.sqrt(normal.x * normal.x + normal.y * normal.y + normal.z * normal.z);
const planeDir = { x: normal.x / length, y: normal.y / length, z: normal.z / length };
// Calculate a point on the plane by projecting the Sun position onto it
const planePos = {
x: sunPos.x - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.x,
y: sunPos.y - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.y,
z: sunPos.z - (sunPos.x * planeDir.x + sunPos.y * planeDir.y + sunPos.z * planeDir.z) * planeDir.z
};
// Draw grid lines that lie on the orbital plane
ctx.beginPath();
ctx.strokeStyle = 'rgba(255,255,255,0.2)';
for (let i = -gridSize; i <= gridSize; i += gridSpacing) {
const p1 = {
x: planePos.x + (i * planeDir.x),
y: planePos.y + (i * planeDir.y),
z: planePos.z + (i * planeDir.z)
};
const p2 = {
x: planePos.x + (i * planeDir.x),
y: planePos.y + (i * planeDir.y) + (gridSize * planeDir.z),
z: planePos.z + (i * planeDir.z) - (gridSize * planeDir.y)
};
ctx.moveTo(projectTo2D(p1.x, p1.y, p1.z).x, projectTo2D(p1.x, p1.y, p1.z).y);
ctx.lineTo(projectTo2D(p2.x, p2.y, p2.z).x, projectTo2D(p2.x, p2.y, p2.z).y);
}
ctx.stroke();
ctx.closePath();
}
drawGrid();
// Draw Milky Way background
ctx.globalCompositeOperation = "lighter";
ctx.fillStyle = "black";
ctx.fillRect(0, 0, canvas.width, canvas.height);
ctx.globalCompositeOperation = "lighter";
for (let i = 0; i < 1000; i++) {
const size = Math.random() * 2;
const x = Math.random() * canvas.width;
const y = Math.random() * canvas.height;
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = 'rgba(255, 255, 255, ' + 0.1 + ')';
ctx.fill();
}
// Draw the Sun
const sunPos2D = projectTo2D(sunPos.x, sunPos.y, sunPos.z);
drawPlanet(sunPos2D.x, sunPos2D.y, sunPos.size, '#ffcc00');
// Draw Mercury
const mercPos2D = projectTo2D(mercuryPos.x - sunPos.x, mercuryPos.y - sunPos.y, mercuryPos.z - sunPos.z);
drawPlanet(mercPos2D.x, mercPos2D.y, mercuryPos.size, '#ff6666');
// Draw Venus
const venusPos2D = projectTo2D(venusPos.x - sunPos.x, venusPos.y - sunPos.y, venusPos.z - sunPos.z);
drawPlanet(venusPos2D.x, venusPos2D.y, venusPos.size, '#ffa500');
// Draw Earth
const earthPos2D = projectTo2D(earthPos.x - sunPos.x, earthPos.y - sunPos.y, earthPos.z - sunPos.z);
drawPlanet(earthPos2D.x, earthPos2D.y, earthPos.size, '#6699ff');
// Update planet positions for the next frame
updatePlanetPositions();
// Update rotation angles based on mouse position
let isDragging = false;
let initialMousePos = { x: 0, y: 0 }; // store initial mouse position when dragging starts
let currentRotation = { x: rotation.x, y: rotation.y }; // initialize current rotation angles to the current rotation
let prevRotation = { x: 0, y: 0 }; // store previous (last) rotation angles
canvas.addEventListener('mousedown', function (event) {
isDragging = true;
initialMousePos.x = event.clientX;
initialMousePos.y = event.clientY;
prevRotation.x = currentRotation.x; // store previous rotation angles
prevRotation.y = currentRotation.y;
});
canvas.addEventListener('mouseup', function (event) {
isDragging = false;
});
canvas.addEventListener('mousemove', function (event) {
if (isDragging) {
// calculate new rotation angles based on difference between current mouse position and initial mouse position
currentRotation.x = prevRotation.x + (event.clientY - initialMousePos.y) / canvas.height * Math.PI;
currentRotation.y = prevRotation.y + (event.clientX - initialMousePos.x) / canvas.width * Math.PI;
// update lastRotation whenever rotation angles are set to new values
if (currentRotation.x !== prevRotation.x || currentRotation.y !== prevRotation.y) {
rotation.x = currentRotation.x;
rotation.y = currentRotation.y;
}
}
});
}
function updatePlanetPositions() {
// Update Mercury's position
mercuryPos.x = 50 * Math.cos(Date.now() / 1000);
mercuryPos.z = 50 * Math.sin(Date.now() / 1000);
// Update Venus's position
venusPos.x = 70 * Math.cos(Date.now() / 1500);
venusPos.z = -10 * Math.sin(Date.now() / 1500);
// Update Earth's position
earthPos.x = 100 * Math.cos(Date.now() / 2000);
earthPos.z = 100 * Math.sin(Date.now() / 2000);
}
function drawPlanet(x, y, size, color) {
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = color;
ctx.fill();
ctx.closePath();
}
function projectTo2D(x, y, z) {
const fov = 90; // Field of view angle in degrees
const distance = canvas.width / 2 / Math.tan(fov / 2 * Math.PI / 180);
const cosX = Math.cos(rotation.x);
const sinX = Math.sin(rotation.x);
const cosY = Math.cos(rotation.y);
const sinY = Math.sin(rotation.y);
const cosZ = Math.cos(rotation.z);
const sinZ = Math.sin(rotation.z);
const x1 = x * cosY * cosZ - y * cosY * sinZ + z * sinY;
const y1 = x * (sinX * sinY * cosZ + cosX * sinZ) + y * (sinX * sinY * sinZ - cosX * cosZ) - z * sinX * cosY;
const z1 = x * (cosX * sinY * cosZ - sinX * sinZ) + y * (cosX * sinY * sinZ + sinX * cosZ) + z * cosX * cosY;
const scale = distance / (distance + z1);
const x2d = canvas.width / 2 + x1 * scale;
const y2d = canvas.height / 2 - y1 * scale;
return { x: x2d, y: y2d };
}
// Update planet positions for the next frame
function update() {
updatePlanetPositions();
drawSolarSystem();
requestAnimationFrame(update);
}
update();
|
c03b58b8793654610b73249e7e33f7c6
|
{
"intermediate": 0.36788874864578247,
"beginner": 0.45326730608940125,
"expert": 0.1788439303636551
}
|
13,513
|
wpf datagrid中同一列既有combox又有textbox的完整例子
|
c56c4cc225f53189557da8637a2b6db4
|
{
"intermediate": 0.42467933893203735,
"beginner": 0.24613815546035767,
"expert": 0.32918256521224976
}
|
13,514
|
radial grid is invisible. need fix that.: const canvas = document.createElement('canvas');
canvas.width = window.innerWidth;
canvas.height = window.innerHeight;
document.body.appendChild(canvas);
const ctx = canvas.getContext('2d');
const sunPos = { x: 0, y: 0, z: 0, size: 20 };
const mercuryPos = { x: 50, y: 0, z: 0, size: 3 };
const venusPos = { x: 70, y: 0, z: -10, size: 4 };
const earthPos = { x: 100, y: 0, z: 0, size: 5 };
let rotation = { x: 0, y: 0, z: 0 };
function drawSolarSystem() {
// Clear the canvas
ctx.clearRect(0, 0, canvas.width, canvas.height);
// Draw Milky Way background
ctx.globalCompositeOperation = 'lighter';
ctx.fillStyle = 'black';
ctx.fillRect(0, 0, canvas.width, canvas.height);
ctx.globalCompositeOperation = 'lighter';
for (let i = 0; i < 1000; i++) {
const size = Math.random() * 2;
const x = Math.random() * canvas.width;
const y = Math.random() * canvas.height;
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = 'rgba(255, 255, 255, ' + 0.1 + ')';
ctx.fill();
}
// Draw the Sun
const sunPos2D = projectTo2D(sunPos.x, sunPos.y, sunPos.z);
drawPlanet(sunPos2D.x, sunPos2D.y, sunPos.size, '#ffcc00');
// Draw Mercury
const mercPos2D = projectTo2D(mercuryPos.x - sunPos.x, mercuryPos.y - sunPos.y, mercuryPos.z - sunPos.z);
drawPlanet(mercPos2D.x, mercPos2D.y, mercuryPos.size, '#ff6666');
// Draw Venus
const venusPos2D = projectTo2D(venusPos.x - sunPos.x, venusPos.y - sunPos.y, venusPos.z - sunPos.z);
drawPlanet(venusPos2D.x, venusPos2D.y, venusPos.size, '#ffa500');
// Draw Earth
const earthPos2D = projectTo2D(earthPos.x - sunPos.x, earthPos.y - sunPos.y, earthPos.z - sunPos.z);
drawPlanet(earthPos2D.x, earthPos2D.y, earthPos.size, '#6699ff');
// Update planet positions for the next frame
updatePlanetPositions();
// Update rotation angles based on mouse position
let isDragging = false;
let initialMousePos = { x: 0, y: 0 }; // store initial mouse position when dragging starts
let currentRotation = { x: rotation.x, y: rotation.y }; // initialize current rotation angles to the current rotation
let prevRotation = { x: 0, y: 0 }; // store previous (last) rotation angles
canvas.addEventListener('mousedown', function (event) {
isDragging = true;
initialMousePos.x = event.clientX;
initialMousePos.y = event.clientY;
prevRotation.x = currentRotation.x; // store previous rotation angles
prevRotation.y = currentRotation.y;
});
canvas.addEventListener('mouseup', function (event) {
isDragging = false;
});
canvas.addEventListener('mousemove', function (event) {
if (isDragging) {
// calculate new rotation angles based on difference between current mouse position and initial mouse position
currentRotation.x = prevRotation.x + (event.clientY - initialMousePos.y) / canvas.height * Math.PI;
currentRotation.y = prevRotation.y + (event.clientX - initialMousePos.x) / canvas.width * Math.PI;
// update lastRotation whenever rotation angles are set to new values
if (currentRotation.x !== prevRotation.x || currentRotation.y !== prevRotation.y) {
rotation.x = currentRotation.x;
rotation.y = currentRotation.y;
}
}
});
}
function updatePlanetPositions() {
// Update Mercury's position
mercuryPos.x = 50 * Math.cos(Date.now() / 1000);
mercuryPos.z = 50 * Math.sin(Date.now() / 1000);
// Update Venus's position
venusPos.x = 70 * Math.cos(Date.now() / 1500);
venusPos.z = -10 * Math.sin(Date.now() / 1500);
// Update Earth's position
earthPos.x = 100 * Math.cos(Date.now() / 2000);
earthPos.z = 100 * Math.sin(Date.now() / 2000);
}
function drawPlanet(x, y, size, color) {
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = color;
ctx.fill();
ctx.closePath();
}
function projectTo2D(x, y, z) {
const fov = 90; // Field of view angle in degrees
const distance = canvas.width / 2 / Math.tan(fov / 2 * Math.PI / 180);
const cosX = Math.cos(rotation.x);
const sinX = Math.sin(rotation.x);
const cosY = Math.cos(rotation.y);
const sinY = Math.sin(rotation.y);
const cosZ = Math.cos(rotation.z);
const sinZ = Math.sin(rotation.z);
const x1 = x * cosY * cosZ - y * cosY * sinZ + z * sinY;
const y1 = x * (sinX * sinY * cosZ + cosX * sinZ) + y * (sinX * sinY * sinZ - cosX * cosZ) - z * sinX * cosY;
const z1 = x * (cosX * sinY * cosZ - sinX * sinZ) + y * (cosX * sinY * sinZ + sinX * cosZ) + z * cosX * cosY;
const scale = distance / (distance + z1);
const x2d = canvas.width / 2 + x1 * scale;
const y2d = canvas.height / 2 - y1 * scale;
return { x: x2d, y: y2d };
}
// Update planet positions for the next frame
function update() {
updatePlanetPositions();
drawSolarSystem();
requestAnimationFrame(update);
}
update();
|
8e2d71f76a26cd46188d52156fea1f43
|
{
"intermediate": 0.25497156381607056,
"beginner": 0.48959943652153015,
"expert": 0.25542891025543213
}
|
13,515
|
got an error when radial grid collapses in the center. need to fix that "IndexSizeError: CanvasRenderingContext2D.arc: Negative radius": const canvas = document.createElement('canvas');
canvas.width = window.innerWidth;
canvas.height = window.innerHeight;
document.body.appendChild(canvas);
const ctx = canvas.getContext('2d');
const sunPos = { x: 0, y: 0, z: 0, size: 20 };
const mercuryPos = { x: 50, y: 0, z: 0, size: 3 };
const venusPos = { x: 70, y: 0, z: -10, size: 4 };
const earthPos = { x: 100, y: 0, z: 0, size: 5 };
let rotation = { x: 0, y: 0, z: 0 };
function drawSolarSystem() {
// Clear the canvas
ctx.clearRect(0, 0, canvas.width, canvas.height);
// Draw Milky Way background
ctx.globalCompositeOperation = 'lighter';
ctx.fillStyle = 'black';
ctx.fillRect(0, 0, canvas.width, canvas.height);
ctx.globalCompositeOperation = 'lighter';
for (let i = 0; i < 1000; i++) {
const size = Math.random() * 2;
const x = Math.random() * canvas.width;
const y = Math.random() * canvas.height;
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = 'rgba(255, 255, 255, ' + 0.1 + ')';
ctx.fill();
}
// Draw radial grid
drawRadialGrid();
// Draw the Sun
const sunPos2D = projectTo2D(sunPos.x, sunPos.y, sunPos.z);
drawPlanet(sunPos2D.x, sunPos2D.y, sunPos.size, '#ffcc00');
// Draw Mercury
const mercPos2D = projectTo2D(mercuryPos.x - sunPos.x, mercuryPos.y - sunPos.y, mercuryPos.z - sunPos.z);
drawPlanet(mercPos2D.x, mercPos2D.y, mercuryPos.size, '#ff6666');
// Draw Venus
const venusPos2D = projectTo2D(venusPos.x - sunPos.x, venusPos.y - sunPos.y, venusPos.z - sunPos.z);
drawPlanet(venusPos2D.x, venusPos2D.y, venusPos.size, '#ffa500');
// Draw Earth
const earthPos2D = projectTo2D(earthPos.x - sunPos.x, earthPos.y - sunPos.y, earthPos.z - sunPos.z);
drawPlanet(earthPos2D.x, earthPos2D.y, earthPos.size, '#6699ff');
// Update planet positions for the next frame
updatePlanetPositions();
// Update rotation angles based on mouse position
let isDragging = false;
let initialMousePos = { x: 0, y: 0 }; // store initial mouse position when dragging starts
let currentRotation = { x: rotation.x, y: rotation.y }; // initialize current rotation angles to the current rotation
let prevRotation = { x: 0, y: 0 }; // store previous (last) rotation angles
canvas.addEventListener('mousedown', function (event) {
isDragging = true;
initialMousePos.x = event.clientX;
initialMousePos.y = event.clientY;
prevRotation.x = currentRotation.x; // store previous rotation angles
prevRotation.y = currentRotation.y;
});
canvas.addEventListener('mouseup', function (event) {
isDragging = false;
});
canvas.addEventListener('mousemove', function (event) {
if (isDragging) {
// calculate new rotation angles based on difference between current mouse position and initial mouse position
currentRotation.x = prevRotation.x + (event.clientY - initialMousePos.y) / canvas.height * Math.PI;
currentRotation.y = prevRotation.y + (event.clientX - initialMousePos.x) / canvas.width * Math.PI;
// update lastRotation whenever rotation angles are set to new values
if (currentRotation.x !== prevRotation.x || currentRotation.y !== prevRotation.y) {
rotation.x = currentRotation.x;
rotation.y = currentRotation.y;
}
}
});
}
function drawRadialGrid() {
const farthestPlanetRadius = earthPos.x;
const center = { x: canvas.width / 2, y: canvas.height / 2 };
ctx.beginPath();
ctx.arc(center.x, center.y, farthestPlanetRadius, 0, Math.PI * 2);
ctx.closePath();
ctx.setLineDash([5, 5]);
ctx.strokeStyle = 'lightgray';
ctx.stroke();
ctx.setLineDash([]);
for (let radius = 10; radius <= farthestPlanetRadius; radius += 10) {
ctx.beginPath();
ctx.arc(center.x, center.y, radius, 0, Math.PI * 2);
ctx.closePath();
ctx.strokeStyle = 'lightgray';
ctx.stroke();
}
}
function updatePlanetPositions() {
// Update Mercury's position
mercuryPos.x = 50 * Math.cos(Date.now() / 1000);
mercuryPos.z = 50 * Math.sin(Date.now() / 1000);
// Update Venus's position
venusPos.x = 70 * Math.cos(Date.now() / 1500);
venusPos.z = -10 * Math.sin(Date.now() / 1500);
// Update Earth's position
earthPos.x = 100 * Math.cos(Date.now() / 2000);
earthPos.z = 100 * Math.sin(Date.now() / 2000);
}
function drawPlanet(x, y, size, color) {
size = Math.max(size, 0.1); // ensure size is greater than zero
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = color;
ctx.fill();
ctx.closePath();
}
function projectTo2D(x, y, z) {
const fov = 90; // Field of view angle in degrees
const distance = canvas.width / 2 / Math.tan(fov / 2 * Math.PI / 180);
const cosX = Math.cos(rotation.x);
const sinX = Math.sin(rotation.x);
const cosY = Math.cos(rotation.y);
const sinY = Math.sin(rotation.y);
const cosZ = Math.cos(rotation.z);
const sinZ = Math.sin(rotation.z);
const x1 = x * cosY * cosZ - y * cosY * sinZ + z * sinY;
const y1 = x * (sinX * sinY * cosZ + cosX * sinZ) + y * (sinX * sinY * sinZ - cosX * cosZ) - z * sinX * cosY;
const z1 = x * (cosX * sinY * cosZ - sinX * sinZ) + y * (cosX * sinY * sinZ + sinX * cosZ) + z * cosX * cosY;
const scale = distance / (distance + z1);
const x2d = canvas.width / 2 + x1 * scale;
const y2d = canvas.height / 2 - y1 * scale;
return { x: x2d, y: y2d };
}
function update() {
updatePlanetPositions();
drawSolarSystem();
requestAnimationFrame(update);
}
update();
|
29dbef983585a0bc167733c25236cff3
|
{
"intermediate": 0.28707391023635864,
"beginner": 0.4732006788253784,
"expert": 0.23972544074058533
}
|
13,516
|
phrases related to charity, soup
|
6c165a4ac637998e57e746d8fcc73ae5
|
{
"intermediate": 0.3751331567764282,
"beginner": 0.3583667576313019,
"expert": 0.2665000855922699
}
|
13,517
|
now try fix
Based on the possible causes we identified earlier, here are some steps you can take to fix the “Negative radius” error:
1. Check the updatePlanetPositions() function to ensure that the x, y, and z properties for each planet are correctly updated.
In the updatePlanetPositions function, the position of each planet is updated based on the current time. The x and z positions are calculated using the Math.cos() and Math.sin() functions with the current time as input. If a planet’s x, y, or z value is negative, it could cause the “Negative radius” error.
To fix this issue, we can add an offset to the planet’s position or use Math.abs() to ensure the values are always positive. For example, we can modify the code for updating the Mercury position like this:
mercuryPos.x = 50 * Math.cos(Date.now() / 1000) + sunPos.x;
mercuryPos.z = 50 * Math.sin(Date.now() / 1000) + sunPos.z;
Here, we’re adding the sunPos values to the mercuryPos values to ensure that the position is always positive.
2. Check all occurrences of the size property to ensure that it is never set to a value that is less than or equal to zero.
In the drawPlanet() function, the size of each planet is passed to the arc() method to draw the planet. If the size is negative or zero, it could cause the “Negative radius” error.
To fix this issue, we can ensure that the size value is always greater than zero by using the Math.max() method. Here’s how we could modify the drawPlanet() function:
function drawPlanet(x, y, size, color) {
size = Math.max(size, 0.1); // size should always be > 0
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = color;
ctx.fill();
ctx.closePath();
}
Here, we’re using the Math.max() method to ensure that the size is always greater than zero.
3. Double-check that the window size is not zero or negative.
We can check the width and height of the canvas to ensure that they are not zero or negative. If either of these values is zero or negative, it could cause the “Negative radius” error.
To fix this issue, we can add a check to ensure that the width and height are always greater than zero. For example:
const canvas = document.createElement(‘canvas’);
canvas.width = Math.max(1, window.innerWidth);
canvas.height = Math.max(1, window.innerHeight);
Here, we’re using the Math.max() method to ensure that the width and height are always greater than zero.
By taking these steps, you can address the possible causes of the “Negative radius” error and ensure that the code works as expected.
the problem is in the earth, it collapses the whole radial grid to the center and: IndexSizeError: CanvasRenderingContext2D.arc: Negative radius
If the radial grid collapses to the center and you receive the “Negative radius” error specifically for the Earth, it’s possible that the position of the Earth is being set such that the distance from the center of the solar system (the Sun) to the Earth is negative.
To fix this, we can ensure that the Earth’s position is always at a greater distance than the other planets. We can use the farthestPlanetRadius variable to represent the farthest distance of any planet from the solar system center. We can set the Earth’s position to be a value greater than that.
Here’s an example of how we could update the earthPos object:
const earthPos = { x: 130, y: 0, z: 0, size: 5 };
Here, we’ve set the Earth’s x position to be 130, which is greater than any other planet’s x position. By ensuring that the Earth’s distance from the center is greater than the farthest bound of the radial grid, we can ensure that the “Negative radius” error does not occur.
Additionally, we can add a check in the drawRadialGrid function to ensure that the radius of the circular grid is positive before drawing it. This can help prevent the error from occurring in the first place.
Here’s an example of how we could modify the drawRadialGrid function to include this check:
function drawRadialGrid() {
const farthestPlanetRadius = earthPos.x;
const center = { x: canvas.width / 2, y: canvas.height / 2 };
for (let radius = 10; radius <= farthestPlanetRadius; radius += 10) {
if (radius <= 0) continue; // skip negative/zero radii
ctx.beginPath();
ctx.arc(center.x, center.y, radius, 0, Math.PI * 2);
ctx.closePath();
ctx.strokeStyle = ‘lightgray’;
ctx.stroke();
}
}
Here, we’re adding a check to skip any radii that are negative or zero. This can help prevent the “Negative radius” error from occurring during drawing.
By taking these steps, we can ensure that the position and size of the planets are correctly defined and prevent the “Negative radius” error from occurring.
neahg. same error: IndexSizeError: CanvasRenderingContext2D.arc: Negative radius
If the error is still occurring after making the changes we’ve suggested, there could be another issue causing the problem. Here are a few additional things to check:
1. Check the projectTo2D function for negative or zero values in the distance calculation.
The projectTo2D function calculates the distance between the camera and the planet, which is used to scale the planet size. If this value is negative or zero, it could cause the “Negative radius” error. Check the distance calculation in the projectTo2D function to make sure that it is positive.
2. Check the updatePlanetPositions function for invalid position values.
The updatePlanetPositions function updates the position of each planet based on time. If any of the position values for a planet become NaN (not a number) or undefined, it could cause the “Negative radius” error. Check this function to make sure that all position values are correctly defined.
3. Check for any other code that could be affecting the positions of the planets or the canvas size.
If the previous steps don’t solve the issue, there could be another issue in the code not mentioned above. Check for any other code that could potentially affect the positions of the planets or the canvas size, as this could cause the “Negative radius” error.
4. Check browser console for any additional error messages.
If the issue persists, it may help to check the browser console for any additional error messages that could provide more information on the issue. From there, you may be able to find a specific location in the code that is causing the problem.
Check the code and find the issue, I don’t have time to bother with this nonsense. : “const canvas = document.createElement(‘canvas’);
canvas.width = Math.max(1, window.innerWidth);
canvas.height = Math.max(1, window.innerHeight);
document.body.appendChild(canvas);
const ctx = canvas.getContext(‘2d’);
const sunPos = { x: 0, y: 0, z: 0, size: 20 };
const mercuryPos = { x: 50, y: 0, z: 0, size: 3 };
const venusPos = { x: 70, y: 0, z: -10, size: 4 };
const earthPos = { x: 130, y: 0, z: 0, size: 5 };
let rotation = { x: 0, y: 0, z: 0 };
function drawSolarSystem() {
// Clear the canvas
ctx.clearRect(0, 0, canvas.width, canvas.height);
// Draw Milky Way background
ctx.globalCompositeOperation = ‘lighter’;
ctx.fillStyle = ‘black’;
ctx.fillRect(0, 0, canvas.width, canvas.height);
ctx.globalCompositeOperation = ‘lighter’;
for (let i = 0; i < 1000; i++) {
const size = Math.random() * 2;
const x = Math.random() * canvas.width;
const y = Math.random() * canvas.height;
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = 'rgba(255, 255, 255, ’ + 0.1 + ‘)’;
ctx.fill();
}
// Draw radial grid
drawRadialGrid();
// Draw the Sun
const sunPos2D = projectTo2D(sunPos.x, sunPos.y, sunPos.z);
drawPlanet(sunPos2D.x, sunPos2D.y, sunPos.size, ‘#ffcc00’);
// Draw Mercury
const mercPos2D = projectTo2D(mercuryPos.x - sunPos.x, mercuryPos.y - sunPos.y, mercuryPos.z - sunPos.z);
drawPlanet(mercPos2D.x, mercPos2D.y, mercuryPos.size, ‘#ff6666’);
// Draw Venus
const venusPos2D = projectTo2D(venusPos.x - sunPos.x, venusPos.y - sunPos.y, venusPos.z - sunPos.z);
drawPlanet(venusPos2D.x, venusPos2D.y, venusPos.size, ‘#ffa500’);
// Draw Earth
const earthPos2D = projectTo2D(earthPos.x - sunPos.x, earthPos.y - sunPos.y, earthPos.z - sunPos.z);
drawPlanet(earthPos2D.x, earthPos2D.y, earthPos.size, ‘#6699ff’);
// Update planet positions for the next frame
updatePlanetPositions();
// Update rotation angles based on mouse position
let isDragging = false;
let initialMousePos = { x: 0, y: 0 }; // store initial mouse position when dragging starts
let currentRotation = { x: rotation.x, y: rotation.y }; // initialize current rotation angles to the current rotation
let prevRotation = { x: 0, y: 0 }; // store previous (last) rotation angles
canvas.addEventListener(‘mousedown’, function (event) {
isDragging = true;
initialMousePos.x = event.clientX;
initialMousePos.y = event.clientY;
prevRotation.x = currentRotation.x; // store previous rotation angles
prevRotation.y = currentRotation.y;
});
canvas.addEventListener(‘mouseup’, function (event) {
isDragging = false;
});
canvas.addEventListener(‘mousemove’, function (event) {
if (isDragging) {
// calculate new rotation angles based on difference between current mouse position and initial mouse position
currentRotation.x = prevRotation.x + (event.clientY - initialMousePos.y) / canvas.height * Math.PI;
currentRotation.y = prevRotation.y + (event.clientX - initialMousePos.x) / canvas.width * Math.PI;
// update lastRotation whenever rotation angles are set to new values
if (currentRotation.x !== prevRotation.x || currentRotation.y !== prevRotation.y) {
rotation.x = currentRotation.x;
rotation.y = currentRotation.y;
}
}
});
}
function drawRadialGrid() {
const farthestPlanetRadius = earthPos.x;
const center = { x: canvas.width / 2, y: canvas.height / 2 };
ctx.beginPath();
ctx.arc(center.x, center.y, farthestPlanetRadius, 0, Math.PI * 2);
ctx.closePath();
ctx.setLineDash([5, 5]);
ctx.strokeStyle = ‘lightgray’;
ctx.stroke();
ctx.setLineDash([]);
for (let radius = 10; radius <= farthestPlanetRadius; radius += 10) {
if (radius <= 0) continue; // skip negative/zero radii
ctx.beginPath();
ctx.arc(center.x, center.y, radius, 0, Math.PI * 2);
ctx.closePath();
ctx.strokeStyle = ‘lightgray’;
ctx.stroke();
}
}
function updatePlanetPositions() {
// Update Mercury’s position
mercuryPos.x = 50 * Math.cos(Date.now() / 1000) + sunPos.x;
mercuryPos.z = 50 * Math.sin(Date.now() / 1000) + sunPos.z;
// Update Venus’s position
venusPos.x = 70 * Math.cos(Date.now() / 1500) + sunPos.x;
venusPos.z = -10 * Math.sin(Date.now() / 1500) + sunPos.z;
// Update Earth’s position
earthPos.x = 100 * Math.cos(Date.now() / 2000) + sunPos.x;
earthPos.z = 100 * Math.sin(Date.now() / 2000) + sunPos.z;
}
function drawPlanet(x, y, size, color) {
size = Math.max(size, 0.1); // size should always be > 0
ctx.beginPath();
ctx.arc(x, y, size, 0, Math.PI * 2);
ctx.fillStyle = color;
ctx.fill();
ctx.closePath();
}
function projectTo2D(x, y, z) {
const fov = 90; // Field of view angle in degrees
const distance = canvas.width / 2 / Math.tan(fov / 2 * Math.PI / 180);
const cosX = Math.cos(rotation.x);
const sinX = Math.sin(rotation.x);
const cosY = Math.cos(rotation.y);
const sinY = Math.sin(rotation.y);
const cosZ = Math.cos(rotation.z);
const sinZ = Math.sin(rotation.z);
const x1 = x * cosY * cosZ - y * cosY * sinZ + z * sinY;
const y1 = x * (sinX * sinY * cosZ + cosX * sinZ) + y * (sinX * sinY * sinZ - cosX * cosZ) - z * sinX * cosY;
const z1 = x * (cosX * sinY * cosZ - sinX * sinZ) + y * (cosX * sinY * sinZ + sinX * cosZ) + z * cosX * cosY;
const scale = distance / (distance + z1);
const x2d = canvas.width / 2 + x1 * scale;
const y2d = canvas.height / 2 - y1 * scale;
return { x: x2d, y: y2d };
}
function update() {
updatePlanetPositions();
drawSolarSystem();
requestAnimationFrame(update);
}
update();” steps “you” can, not me! I don’t have time to bother with this nonsense. find and fix the code.: IndexSizeError: CanvasRenderingContext2D.arc: Negative radius
|
58ec688dfa08660e9c03631a39266fbd
|
{
"intermediate": 0.32313185930252075,
"beginner": 0.4212578535079956,
"expert": 0.2556103467941284
}
|
13,518
|
what is today's date?
|
2a13006cb044e36aabd12990ae614ed0
|
{
"intermediate": 0.40370941162109375,
"beginner": 0.3754262328147888,
"expert": 0.22086431086063385
}
|
13,519
|
write java script function which receives json structure, take it's "Nodes" value being array and for each array value return json single Name: "value"
|
b1585c84de678280a1c50ad25eef7fda
|
{
"intermediate": 0.5054084658622742,
"beginner": 0.22722575068473816,
"expert": 0.2673657238483429
}
|
13,520
|
cannot use dynamic_cast with -fno -rtti
|
f7d592afae45bd62559a7f80f7fdf110
|
{
"intermediate": 0.43955326080322266,
"beginner": 0.2548486590385437,
"expert": 0.30559810996055603
}
|
13,521
|
How do I convert E63085FB to 4536333038354642 in python code?
|
ec6d80324e0dee7605d9b129546c8f6f
|
{
"intermediate": 0.37414276599884033,
"beginner": 0.24833889305591583,
"expert": 0.37751826643943787
}
|
13,522
|
wpf datagrid中同一列既有combox又有textbox的完整例子
|
713cb092cc2911e0326176378b867507
|
{
"intermediate": 0.42467933893203735,
"beginner": 0.24613815546035767,
"expert": 0.32918256521224976
}
|
13,523
|
How do I convert ‘5jCF+w==’ to a decimal number in python?
|
4b12cb7dbce556d9d17851458080fd89
|
{
"intermediate": 0.45454704761505127,
"beginner": 0.14311249554157257,
"expert": 0.40234044194221497
}
|
13,524
|
QString str = "主机名称：" + QHostInfo::localHostName() + "\n";
|
71d6c2f9b1dab784f0413059740187d3
|
{
"intermediate": 0.3540111184120178,
"beginner": 0.38338300585746765,
"expert": 0.26260584592819214
}
|
13,525
|
You are a visualization expert, and will be provided with stock datasets in markdown table format decimated by triple backticks quotes
|
cdfb57119e025bf7028793facc5126e6
|
{
"intermediate": 0.33200883865356445,
"beginner": 0.3919824957847595,
"expert": 0.2760087251663208
}
|
13,526
|
hi again
|
bc60ba3df2b29500abdb89a04e9d9ed2
|
{
"intermediate": 0.3273336887359619,
"beginner": 0.25858765840530396,
"expert": 0.4140787124633789
}
|
13,527
|
generate a shell in c++
|
4145db7a3302efe453747e709354ecf4
|
{
"intermediate": 0.2657609283924103,
"beginner": 0.45273900032043457,
"expert": 0.28150010108947754
}
|
13,528
|
create a code in python beautifulsoup that scrapes a website with multiple pages by css selector
|
73d5608b8747aa1537387c49e3839d1a
|
{
"intermediate": 0.40831559896469116,
"beginner": 0.24067622423171997,
"expert": 0.35100820660591125
}
|
13,529
|
class EntryLine(bt.Indicator):
lines = ('entryprice',)
plotinfo = dict(subplot=False)
plotlines = dict(entryprice=dict(ls='--', lw=2, color='red'))
def __init__(self):
self.addminperiod(self.data.size())
def prenext(self):
self.lines.entryprice[0] = float('nan')
def next(self):
self.lines.entryprice[0] = float('nan')
def set_entryprice(self, price):
for index in range(-1, -self.data.size() - 1, -1):
self.lines.entryprice[index] = price
在不改动此类的前提下，如何在实例化时把颜色改为蓝色
|
beda99ea0eae24e0f5628d37487d0fb3
|
{
"intermediate": 0.3458726704120636,
"beginner": 0.47755807638168335,
"expert": 0.17656920850276947
}
|
13,530
|
hi
|
8197bf91675b41d4d5a0aa3973db08b8
|
{
"intermediate": 0.3246487081050873,
"beginner": 0.27135494351387024,
"expert": 0.40399640798568726
}
|
13,531
|
hi
|
72a613c10a2d3b9ff0db5657aff633f0
|
{
"intermediate": 0.3246487081050873,
"beginner": 0.27135494351387024,
"expert": 0.40399640798568726
}
|
13,532
|
ImguiSettings::variables& ImSettings = ImguiSettings::getImguiSettings();
variables is a struct;
if imSettings is <struct at NULL>
how i can check does pointer pointing to null struct or not
|
8ec8a08e6108ec1e64feb37ba60ee15c
|
{
"intermediate": 0.5021867156028748,
"beginner": 0.2960360646247864,
"expert": 0.20177717506885529
}
|
13,533
|
@keyup.enter.native @keyup.enter 的区别
|
ef165ca8d20f4b95fdd9a5c04ff5df70
|
{
"intermediate": 0.34131377935409546,
"beginner": 0.30502110719680786,
"expert": 0.3536651134490967
}
|
13,534
|
How can I do a one-time page reload in react when page mounts?
|
a17a52488f4a4d0970b0eb73079cf302
|
{
"intermediate": 0.4891803562641144,
"beginner": 0.15084055066108704,
"expert": 0.35997912287712097
}
|
13,535
|
In selenium webdriver, How to automatically click on the OK button on a browser prompt
|
b67fa76cbcd921d0d429b2b266f6ab4d
|
{
"intermediate": 0.4329027533531189,
"beginner": 0.21117863059043884,
"expert": 0.3559185862541199
}
|
13,536
|
errorQuery failed: Cannot cast '2' to BOOLEAN in below query -SELECT Account.id as "AccountID", Account.name, Account.accountnumber, Account.batch, Account.additionalemailaddresses,
contact.firstname, contact.lastname, contact.workemail, contact.personalemail,
Invoice.amount, Invoice.balance, Invoice.duedate, Invoice.invoicedate, Invoice.invoicenumber,
Invoice.status, Invoice.id,
date_diff('day', Invoice.duedate, current_date) as "duedays",
Subscription.id as "SubscriptionID", Subscription.name, Subscription.status
FROM InvoiceItem IT
JOIN Account on IT.accountid = Account.id
JOIN Invoice on IT.invoiceid = Invoice.id
JOIN contact on contact.id = Account.BillToId
JOIN Subscription on IT.subscriptionid = Subscription.id
WHERE (date_diff('day', Invoice.duedate, current_date) = CAST(CAST('{{Data.Workflow.a}}' AS BOOLEAN) AS BIGINT)
OR date_diff('day', Invoice.duedate, current_date) = CAST(CAST('{{Data.Workflow.b}}' AS BOOLEAN) AS BIGINT)
OR date_diff('day', Invoice.duedate, current_date) = CAST(CAST('{{Data.Workflow.c}}' AS BOOLEAN) AS BIGINT)
OR date_diff('day', Invoice.duedate, current_date) = CAST(CAST('{{Data.Workflow.d}}' AS BOOLEAN) AS BIGINT)
OR date_diff('day', Invoice.duedate, current_date) = CAST(CAST('{{Data.Workflow.e}}' AS BOOLEAN) AS BIGINT))
AND Invoice.balance>0
AND Invoice.status = 'Posted'
|
b4830fb9a6da1506a6a46d329f4800e4
|
{
"intermediate": 0.33747056126594543,
"beginner": 0.38023611903190613,
"expert": 0.28229331970214844
}
|
13,537
|
CONTEXTE :
jN Npp Plugin
jN (JavaScript for Notepad++) allows you to extend Notepad++ by using JavaScript.
jN uses the built-in javascript engine of Microsoft Windows. This powerful engine allows to access a lot of ActiveX base services like Shell, WMI of operating system. Due to automate Notepad++ jN wraps the Notepad++ API into ActiveX interfaces accessible via global objects Editor and System.
=-=-=-=-=-=-=
J'ai actuellement le code suivant dans un fichier dans "Editor.cpp"
-------------
❨
#include "Editor.h"
#include "common\System.h"
#include "DockableDialog.h"
#define SUBCLASSING TEXT("jN.Npp.Subclassing")
const TCHAR* langs[] ={TEXT("TXT"), /* bla bla bla */ , TEXT("EXTERNAL")};
CEditor::~CEditor(void){
// Release Views
for(int i=0; i<m_ViewsNumber; i++){
m_Views[i]->Release();
}
// Release Scripting elements
if (m_Listener){
delete m_Listener;
m_Listener = NULL;
}
// Restore WndProc
WNDPROC oldWndProc = (WNDPROC)GetProp(m_NppHandle, SUBCLASSING);
SetWindowLongPtr(m_NppHandle, GWLP_WNDPROC, (LPARAM)oldWndProc);
AcceleratorHook::getInstance()->remove(&m_Accelerators);
}
int CEditor::GetCurrentView(){
int currentEdit;
NPPM(GETCURRENTSCINTILLA,0,¤tEdit);
return currentEdit;
}
int CEditor::GetMenuItemPosition(HANDLE hMenu, TCHAR* text)
{
/* bla bla bla */
}
// 1.) because NPP use lets IDs for menu items
// and we can not get new IDs for our dynamic menu items. To solve
// this problem we switch menu message handling from WM_COMMAND to WM_MENUCOMMAND
// see 2.) and 3.)
LRESULT CALLBACK CEditor::WndProc(HWND hwnd, UINT message, WPARAM wParam, LPARAM lParam){
if (message == WM_MENUCOMMAND){
CMenuItem* mItem = CMenuItem::GetInstance((HMENU)lParam, wParam);
if (mItem){
// here we have our menu item
mItem->call();
}else{
// we have menu items from NPP
// simulate WM_COMMAND, NPP handles his menu items self
MENUITEMINFO mii;
mii.cbSize = sizeof(mii);
mii.fMask = MIIM_ID | MIIM_DATA;
// 2.) WM_MENUCOMMAND + submenu handle and item position help us to
// get MenuItemInfo without using of menu item ID
BOOL res = GetMenuItemInfo((HMENU)lParam, wParam, TRUE, &mii);
if (res)
::SendMessage(hwnd, WM_COMMAND,mii.wID,0);
}
} else if (message == WM_INITMENUPOPUP){
CMenu* menu = CMenu::GetInstance((HMENU)wParam);
if (menu){
menu->oninitpopup();
return NULL;
}
}
WNDPROC oldWndProc = (WNDPROC)GetProp(hwnd, SUBCLASSING);
return CallWindowProc(oldWndProc, hwnd, message, wParam, lParam);
}
CEditor::CEditor(HWND nppHandle):CComDispatch(),m_Accelerators(nppHandle){
AcceleratorHook::getInstance()->add(&m_Accelerators);
// 3.) set our wndproc to have WM_MENUCOMMAND instead WM_COMMAND
// see 1.) and 2.)
m_NppHandle = nppHandle;
WNDPROC oldWndProc = (WNDPROC)SetWindowLongPtr(nppHandle, GWLP_WNDPROC, (LPARAM)CEditor::WndProc);
SetProp(m_NppHandle, SUBCLASSING, oldWndProc);
m_Listener = NULL;
// get main menu handle
m_mainMenu = (HMENU)NPPM(GETMENUHANDLE,1,0);
if (!m_mainMenu){
VARIANT_BOOL hidden;
get_menuHidden(&hidden);
if (!hidden){
m_mainMenu = GetMenu(nppData._nppHandle);
}else{
put_menuHidden(VARIANT_FALSE);
m_mainMenu = GetMenu(nppData._nppHandle);
put_menuHidden(VARIANT_TRUE);
}
}
// create views
for(int i=0; i<m_ViewsNumber; i++){
m_Views[i] = new CEditorView(i+1);
}
MENUINFO mi;
memset(&mi, 0, sizeof(mi));
mi.cbSize = sizeof(mi);
mi.fMask = MIM_STYLE | MIM_APPLYTOSUBMENUS;
mi.dwStyle = MNS_NOTIFYBYPOS;
BOOL res = SetMenuInfo( m_mainMenu, &mi);
}
void CEditor::getViewAndPosFrom(SCNotification* eventArgs, int* view, int* pos){
/* bla bla bla */
}
void CEditor::doOnMessage(SCNotification* eventArgs){
int r = 0;
// provide messages to current view
int view = GetCurrentView(); // can be -1 what is not valid
if (view >= 0 && view < m_ViewsNumber){
m_Views[view]->DoMessage(eventArgs);
}
if (m_Listener==NULL)
return ;
TCHAR* method1 = NULL;
TCHAR* method2 = NULL;
switch(eventArgs->nmhdr.code){
case SCN_MODIFYATTEMPTRO:
method2 = TEXT("MODIFYATTEMPTRO");
break;
case NPPN_SHUTDOWN:{
method1 = TEXT("SHUTDOWN");
break;
}
case NPPN_FILECLOSED:{
method1 = TEXT("FILECLOSED");
break;
}
case NPPN_READONLYCHANGED:{
method2 = TEXT("READONLYCHANGED");
break;
}
case NPPN_LANGCHANGED:{
method2 = TEXT("LANGCHANGED");
break;
}
}
if (method1){
CallListener(method1);
}else if(method2){
int view, pos; getViewAndPosFrom(eventArgs, &view, &pos);
CallListener(method2, view, pos);
}
}
void CEditor::CallListener(TCHAR* method, int view, int file){
if (m_Listener == NULL)
return;
if (view >= 0 && view < m_ViewsNumber){
VARIANT var[2];
var[0].vt = VT_DISPATCH;
var[0].pdispVal = m_Views[view];
var[1].vt = VT_INT;
var[1].intVal = file;
m_Listener->callMethod(method, var, 2);
}else{
m_Listener->callMethod(method);
}
}
HRESULT STDMETHODCALLTYPE CEditor::get_firstView( IView **result){
*result = m_Views[0];
(*result)->AddRef();
return S_OK;
}
/*
HRESULT STDMETHODCALLTYPE CEditor::get_currentView( IView **result){ // bla bla bla
HRESULT STDMETHODCALLTYPE CEditor::get_secondView( IView **result){ // bla bla bla
HRESULT STDMETHODCALLTYPE CEditor::alert( BSTR *value){ // bla bla bla
HRESULT STDMETHODCALLTYPE CEditor::saveAll( void){ // bla bla bla
HRESULT STDMETHODCALLTYPE CEditor::get_statusBarHidden / put_statusBarHidden / open / runMenuCmd / setListener / etc.
*/
HRESULT STDMETHODCALLTYPE CEditor::createDockable(IDispatch* cfg, IDialog** result){
if (!cfg)
return S_OK;
Dialog* d = new DockableDialog(MyActiveSite::getInstance()->WrapScriptObj(cfg), nppData._nppHandle);
d->Init();
d->AddRef();
*result = d;
NPPM(MODELESSDIALOG,MODELESSDIALOGADD,d->hwnd());
return S_OK;
}
HRESULT STDMETHODCALLTYPE CEditor::get_handle(int *result){
*result = (int)m_NppHandle;
return S_OK;
}
-------------
Ce code dans "Editor.cpp" me permet de créer un dock (fenêtre ancrée) avec des options de manipulations.
Dock que je vais créer plus tard dans le plugin compilé .dll avec un script javascript WSH contenant :
var options = {
name: 'blablabla',
docking: 'bottom',
onclose: function () { /* bla bla bla */}
};
var dock = Editor.createDockable(options);
}
-------------
Et j'ai également le code suivant dans le fichier "DockableDialog.cpp" :
-------------
#include <set>
#include "..\common\Statics.h"
#include "..\npp\PluginDefinition.h"
#include "..\npp\dockingResource.h"
#include "DockableDialog.h"
// Because of wrong architecture of Notepad++ it is necessary
// to destroy Strings given to docable dialog manager after destoroying
// of it self. Hence we don't destroy them at all. To reduce memory consumption
// create cache.
class StringCache{
struct StringCmp{
bool operator()(TCHAR* left, TCHAR* right) const {
int result = StrCmp(left, right);
return result < 0;
}
};
typedef std::set<TCHAR*, StringCmp> Cache;
Cache m_Cache;
public:
TCHAR* GetCached(TCHAR* value){
Cache::iterator findIt = m_Cache.find(value);
if (findIt != m_Cache.end())
return *findIt;
// create a copy of value and put it to the cache
TCHAR* copy = StrDup(value); // uses LocalAlloc
m_Cache.insert(copy);
return copy;
}
~StringCache(){
for(Cache::iterator it = m_Cache.begin(); it!=m_Cache.end(); ++it){
LocalFree(*it);
}
}
};
StringCache CachedStrings;
#define CHARS_IN(a) sizeof(a)/sizeof(TCHAR)
#define DD_AFTER_REGISTERASDOCKABLE WM_USER+1 // sent to control after
DockableDialog::DockableDialog(ScriptObj* cfg, HWND parent): Dialog(cfg, parent),CComDispatch(),m_Modul(TEXT("jN.dll,")), m_Name(TEXT("jN"))
{
StringCchCopy(m_Info,CHARS_IN(m_Info), TEXT(""));
VARIANT* textValue = m_Cfg->getProperty(TEXT("name"), VT_BSTR);
if (textValue != NULL){
m_Name.Set(textValue->bstrVal);
m_Modul.Append(textValue->bstrVal);
VariantClear(textValue);
delete textValue;
}
}
void DockableDialog::BeforeCreate(){
m_Style = WS_CHILD;
m_ExStyle = WS_EX_CLIENTEDGE;
}
void DockableDialog::AfterCreate(){
// Nothing to do override standard behavior
RegisterAsDockable();
}
int DockableDialog::GetDockingFlags(){
int result = DWS_DF_CONT_BOTTOM;
VARIANT* dockingText = m_Cfg->getProperty(TEXT("docking"), VT_BSTR);
if (dockingText){
if (0 == StrCmp(TEXT("top"),dockingText->bstrVal))
result = DWS_DF_CONT_TOP;
else if (0 == StrCmp(TEXT("right"),dockingText->bstrVal))
result = DWS_DF_CONT_RIGHT;
else if (0 == StrCmp(TEXT("bottom"),dockingText->bstrVal))
result = DWS_DF_CONT_BOTTOM;
else if (0 == StrCmp(TEXT("left"),dockingText->bstrVal))
result = DWS_DF_CONT_LEFT;
else if (0 == StrCmp(TEXT("floating"),dockingText->bstrVal))
result = DWS_DF_FLOATING;
VariantClear(dockingText);
delete dockingText;
}
return result;
}
void DockableDialog::RegisterAsDockable(){
int mask = GetDockingFlags() | DWS_ICONTAB | DWS_ADDINFO;
memset(&m_Data,0,sizeof(m_Data));
m_Data.dlgID = 0; //Nr of menu item to assign (!= _cmdID, beware)
m_Data.hIconTab = (HICON) LoadImage(Statics::instance().hInstance, MAKEINTRESOURCE(1),IMAGE_ICON, 0,0,LR_CREATEDIBSECTION|LR_SHARED|LR_LOADTRANSPARENT); //icon to use
m_Data.pszAddInfo = m_Info; //Titlebar info pointer
m_Data.pszModuleName = CachedStrings.GetCached( m_Modul ); //name of the dll
m_Data.pszName = CachedStrings.GetCached( m_Name ); //Name for titlebar
m_Data.uMask = mask; //Flags to use (see docking.h)
m_Data.hClient = m_Hwnd; //HWND Handle of window this dock belongs to
m_Data.iPrevCont = -1;
SendMessage(nppData._nppHandle, NPPM_DMMREGASDCKDLG, 0, (LPARAM)&m_Data); //Register it
// update ui
SendMessage(m_Hwnd, DD_AFTER_REGISTERASDOCKABLE, 0, 0);
}
void DockableDialog::ResetUI(){
//Registering as dockable breaks window styles, reset them
LONG_PTR oldStyle = ::GetWindowLongPtr(m_Hwnd, GWL_STYLE);
::SetWindowLongPtr(m_Hwnd, GWL_STYLE, m_Style | oldStyle);
::SetWindowLongPtr(m_Hwnd, GWL_EXSTYLE, m_ExStyle);
SetWindowPos(m_Hwnd, 0, 0, 0, 0, 0, SWP_FRAMECHANGED| SWP_NOMOVE | SWP_NOSIZE | SWP_NOZORDER);
UpdateWindow(m_Hwnd);
}
void DockableDialog::UpdateInfo(){
m_Data.pszAddInfo = m_Info;
m_Data.pszName = m_Name;
SendMessage(m_Hwnd, NPPM_DMMUPDATEDISPINFO, 0, (LPARAM)m_Hwnd);
}
LRESULT CALLBACK DockableDialog::MessageProc(UINT message, WPARAM wParam, LPARAM lParam){
switch(message){
case DD_AFTER_REGISTERASDOCKABLE:{
ResetUI();
return TRUE;
}
case WM_NOTIFY:{
NMHDR nmh = (NMHDR) *((NMHDR*)lParam);
if (nmh.hwndFrom == nppData._nppHandle) {
if (nmh.code == DMN_CLOSE) {
::PostMessage(m_Hwnd, WM_CLOSE, 0, 0);
return TRUE;
} else if ((nmh.code & DMN_DOCK) == DMN_DOCK && (nmh.code & DMN_FLOAT) != DMN_FLOAT) {// only if just docked
PostMessage(m_Hwnd, DD_AFTER_REGISTERASDOCKABLE,0,0);
return TRUE;
}
}
break;
}
case WM_ERASEBKGND:
return TRUE;
//case WM_SETFOCUS: {
// //Why restore focus here? This window should never be able to get focus in the first place
// HWND hPrev = (HWND)wParam;
// if (hPrev != NULL)
// ::SetFocus(hPrev);
// break;
//}
}
return Dialog::MessageProc(message, wParam, lParam);
}
HRESULT STDMETHODCALLTYPE DockableDialog::get_visible( VARIANT_BOOL *result){
if (isCreated())
*result = IsWindowVisible(m_Hwnd);
return S_OK;
}
HRESULT STDMETHODCALLTYPE DockableDialog::put_visible( VARIANT_BOOL value){
::SendMessage(nppData._nppHandle, value ? NPPM_DMMSHOW : NPPM_DMMHIDE, 0, (LPARAM)m_Hwnd);
return S_OK;
}
-------------
Ce code de "DockableDialog.cpp" permet des manipulations sur le dock qu'on a créé. Par exemple je peux modifier sa visibilité avec dock.visible = true/false.
-------------
Ma question : qu'est ce que je dois modifier ou ajoûter dans les fichiers "Editor.cpp" et "DockableDialog.cpp" pour pouvoir cloturer / détruire / remove un dock que j'ai ajouté avec var dock = Editor.createDockable(options); ?
J'aimerais une option genre Editor.closeDock(x); pour clôturer un dock créer avec x = Editor.createDockable(options);
Et bien-sûr Editor.closeDock(y); cloturerait y = Editor.createDockable(options); sans toucher un dock x ou z…
|
a998d1e2261fad8579782a8d2b2a7a7b
|
{
"intermediate": 0.367033451795578,
"beginner": 0.371426522731781,
"expert": 0.261540025472641
}
|
13,538
|
test
|
19bc978287375669b78b4bfcaee5f3ec
|
{
"intermediate": 0.3229040801525116,
"beginner": 0.34353747963905334,
"expert": 0.33355844020843506
}
|
13,539
|
you are a python developper and you work with ChatGPT and stable diffusion to create image
|
13ab9a2c0674fc457e2832f382f5749c
|
{
"intermediate": 0.44329187273979187,
"beginner": 0.1555447280406952,
"expert": 0.4011634588241577
}
|
13,540
|
from sklearn.feature_extraction.text import CountVectorizer
from sklearn.linear_model import LogisticRegression
from sklearn.ensemble import RandomForestClassifier
from sklearn.pipeline import make_pipeline
vec = CountVectorizer()
clf = LogisticRegression()
pipe = make_pipeline(vec, clf)
pipe.fit(X_train.verbatim, y_train.status)
I want to excute this with lightgbm
|
361a688f5a7e2c86ebe39b66e4de88bd
|
{
"intermediate": 0.2749471664428711,
"beginner": 0.2200637310743332,
"expert": 0.5049890279769897
}
|
13,541
|
can you make a print board design connecting just the chip of an arduino with the components needed for controlling a stepper
|
003aa43b86e8e2d1a5a7fdd81a28d4d3
|
{
"intermediate": 0.3180701732635498,
"beginner": 0.20897775888442993,
"expert": 0.47295206785202026
}
|
13,542
|
can you write the arduino code for connecting two arduino devices using MQTT via matter protocol?
|
5fd0c27f23e4632f7c0ca7fcad9950dd
|
{
"intermediate": 0.5991696119308472,
"beginner": 0.16289958357810974,
"expert": 0.2379308044910431
}
|
13,543
|
Make a java script for a micro bit that creates a minature maze game where hitting the A button moves the character left and B button moving the character right and the top left trigger being forward and pressing A+B restarting the maze
|
6343185c38f2e8c64e2a987cc2bc6c31
|
{
"intermediate": 0.40085306763648987,
"beginner": 0.20195737481117249,
"expert": 0.39718958735466003
}
|
13,544
|
write java script function which receives json structure with 4 keys, take it’s key “Nodes” value. for each value in resulting array return function “apiData” with arguments http://${consts.host}/api/fetchENodeBv2, and json Name: node one by one
|
d650deada6d321809f80a9ff7b1f1684
|
{
"intermediate": 0.5872862339019775,
"beginner": 0.18554170429706573,
"expert": 0.2271721214056015
}
|
13,545
|
hi
|
e0aafdd0e0ab9a95ce273542ecd7d7c5
|
{
"intermediate": 0.3246487081050873,
"beginner": 0.27135494351387024,
"expert": 0.40399640798568726
}
|
13,546
|
pip install pycaret ==2.0
|
1de095766ee514b679dba34a6e6786e8
|
{
"intermediate": 0.43147799372673035,
"beginner": 0.21136850118637085,
"expert": 0.3571535050868988
}
|
13,547
|
Convert ‘4921599493627’ to ‘E63085FB’ using java
|
3c913153aa8b1e7b3c64dbd22f51c1ed
|
{
"intermediate": 0.319088876247406,
"beginner": 0.3012416660785675,
"expert": 0.3796694278717041
}
|
13,548
|
Hello
|
7a585eee6f17f727d927270c9b4e8b45
|
{
"intermediate": 0.3123404085636139,
"beginner": 0.2729349136352539,
"expert": 0.4147246778011322
}
|
13,549
|
Can you refactor the followin code in c++
|
9c4cd286a640d03659cfc1ec32fe726a
|
{
"intermediate": 0.24851293861865997,
"beginner": 0.4628118872642517,
"expert": 0.28867512941360474
}
|
13,550
|
which version of pycaret includes nlp
|
b59eb1fcf40cff0c94a7ccec58a4e902
|
{
"intermediate": 0.2730390131473541,
"beginner": 0.2630811929702759,
"expert": 0.46387988328933716
}
|
13,551
|
can you improve the following code in c#?
|
581855c6a3cffceb9a687b4851355c49
|
{
"intermediate": 0.41722971200942993,
"beginner": 0.4061697721481323,
"expert": 0.17660044133663177
}
|
13,552
|
discord.js и firebird
|
eb8673ca95d2913141a5d0a4b57b4f8b
|
{
"intermediate": 0.47343650460243225,
"beginner": 0.2566598057746887,
"expert": 0.26990368962287903
}
|
13,553
|
I used this signal_generator code: def signal_generator(df):
# Calculate EMA and MA lines
df['EMA5'] = df['Close'].ewm(span=5, adjust=False).mean()
df['EMA10'] = df['Close'].ewm(span=10, adjust=False).mean()
df['EMA20'] = df['Close'].ewm(span=20, adjust=False).mean()
df['EMA50'] = df['Close'].ewm(span=50, adjust=False).mean()
df['EMA100'] = df['Close'].ewm(span=100, adjust=False).mean()
df['EMA200'] = df['Close'].ewm(span=200, adjust=False).mean()
df['MA10'] = df['Close'].rolling(window=10).mean()
df['MA20'] = df['Close'].rolling(window=20).mean()
df['MA50'] = df['Close'].rolling(window=50).mean()
df['MA100'] = df['Close'].rolling(window=100).mean()
open = df.Open.iloc[-1]
close = df.Close.iloc[-1]
previous_open = df.Open.iloc[-2]
previous_close = df.Close.iloc[-2]
# Calculate the last candlestick
last_candle = df.iloc[-1]
current_price = df.Close.iloc[-1]
ema_analysis = ''
candle_analysis = ''
# EMA crossover - buy signal
if df.EMA10.iloc[-1] > df.EMA50.iloc[-1] and current_price > last_candle[['EMA10', 'EMA50']].iloc[-1].min():
ema_analysis = 'buy'
# EMA crossover - sell signal
elif df.EMA10.iloc[-1] < df.EMA50.iloc[-1] and current_price < last_candle[['EMA10', 'EMA50']].iloc[-1].max():
ema_analysis = 'sell'
# EMA crossover - buy signal
if df.EMA20.iloc[-1] > df.EMA200.iloc[-1] and current_price > last_candle[['EMA20', 'EMA200']].iloc[-1].min():
ema_analysis = 'buy'
# EMA crossover - sell signal
elif df.EMA20.iloc[-1] < df.EMA200.iloc[-1] and current_price < last_candle[['EMA20', 'EMA200']].iloc[-1].max():
ema_analysis = 'sell'
# Check for bullish trends
elif current_price > last_candle[['EMA5', 'EMA20', 'EMA50', 'EMA100', 'EMA200']].iloc[-1].max():
ema_analysis = 'buy'
# Check for bearish trends
elif current_price < last_candle[['EMA5', 'EMA20', 'EMA50', 'EMA100', 'EMA200']].iloc[-1].min():
ema_analysis = 'sell'
# Check for bullish candlestick pattern
if (open<close and
previous_open>previous_close and
close>previous_open and
open<=previous_close):
candle_analysis = 'buy'
# Check for bearish candlestick pattern
elif (open>close and
previous_open<previous_close and
close<previous_open and
open>=previous_close):
candle_analysis = 'sell'
# Check if both analyses are the same
if ema_analysis == candle_analysis == ema_analysis != '':
return ema_analysis
# If no signal is found, return an empty string
return ''
df = get_klines(symbol, '1m', 44640)
but it giveing me wrong signals , is it code is right ? If no give me right code please
|
0480b6fccf5608cbbdb735abc6fa76c8
|
{
"intermediate": 0.29511523246765137,
"beginner": 0.3723642826080322,
"expert": 0.332520455121994
}
|
13,554
|
build a kubernetes CustomResourceDefinition, which describe structure of objects like this:
apiService: crds.idom.project/v1alpha1
kind: Mediaplan
metadata:
name: somename
spec:
# scheduling
schedule: "0 1-10/3,12-22/2 */1 * *"
# channel metadata
channel:
name: ""
guid: ""
id: 0
link: "https://..."
messagingSettings:
# oneof: topic or files
# generation topics
topics:
# topic
- code: pbot-4 # topic code
weight: 1 # generation weight
# or choose files from s3
files:
- uri: s3://bucket/file.xlsx
# agent settings
agentSettings:
# count
totalCount: 20
# credential comparison
credentials:
- key: key-1
value: value-1
# mimicry comparison
mimicry:
- key: key-1
value: value-1
# common mediaplan settings
commonSettings:
# output pkg generation coefficient
# define, how many packages will be generated for one incoming message
generationCoefficient: 0.2 # each five message in channel should make one package, because 1/0.2 = 5
# total packages count
totalMessageCount: 2000 # 0 - without limit (only if estimatedLeadTime not null)
# estimated time for different messaging options
estimatedLeadTime: 2h
# disable mimicry options (for agents)
disableMimicryOptions: false
# use image for packages
didImageUsedForGeneration: false
|
cda3f39d8d3cda9f3951979c40d76e7f
|
{
"intermediate": 0.5392865538597107,
"beginner": 0.24833358824253082,
"expert": 0.2123798280954361
}
|
13,555
|
Error in ggplot() : could not find function "ggplot"
|
229fcfa7e3cffd9f531d70bf140ea7ba
|
{
"intermediate": 0.4229854643344879,
"beginner": 0.3368293344974518,
"expert": 0.2401852160692215
}
|
13,556
|
this is a Mediaplan resource # CustomResourceDefinition
apiVersion: apiextensions.k8s.io/v1
kind: CustomResourceDefinition
metadata:
name: mediaplans.crd.idom.project
spec:
group: crds.idom.project
scope: Namespaced
names:
plural: mediaplans
singular: mediaplan
kind: Mediaplan
shortNames:
- mediap
versions:
- name: v1alpha1
served: true
storage: true
schema:
openAPIV3Schema:
type: object
properties:
apiVersion:
type: string
description: ‘A unique version for the Kubernetes API’
kind:
type: string
description: ‘Type of resource’
metadata:
type: object
properties:
name:
type: string
description: ‘Name of the resource’
required:
- name
spec:
type: object
properties:
# scheduling
schedule:
type: string
description: ‘Scheduling format for the mediaplan’
# channel metadata
channel:
type: object
properties:
name:
type: string
description: ‘Name of the channel’
guid:
type: string
description: ‘GUID of the channel’
id:
type: integer
description: ‘ID of the channel’
link:
type: string
description: ‘Link for the channel’
messagingSettings:
type: object
properties:
# oneof: topic or files
# generation topics
topics:
type: array
items:
type: object
properties:
code:
type: string
description: ‘Code for the topic’
weight:
type: integer
description: ‘Generation weight for the topic’
default: 1
# or choose files from s3
files:
type: array
items:
type: object
properties:
uri:
type: string
description: ‘URI for the file’
# agent settings
agentSettings:
type: object
properties:
# count
totalCount:
type: integer
description: ‘Total number of agents for the mediaplan’
default: 10
# credential comparison
credentials:
type: array
items:
type: object
properties:
key:
type: string
description: ‘Key for the credential’
value:
type: string
description: ‘Value for the credential’
# mimicry comparison
mimicry:
type: array
items:
type: object
properties:
key:
type: string
description: ‘Key for the mimicry option’
value:
type: string
description: ‘Value for the mimicry option’
# common mediaplan settings
commonSettings:
type: object
properties:
# output pkg generation coefficient
# define, how many packages will be generated for one incoming message
generationCoefficient:
type: number
description: ‘Output package generation coefficient’
default:
# total packages count
totalMessageCount:
type: integer
description: ‘Total number of messages for the mediaplan’
# estimated time for different messaging options
estimatedLeadTime:
type: string
description: ‘Estimated lead time for the mediaplan’
# disable mimicry options (for agents)
disableMimicryOptions:
type: boolean
description: ‘Disables mimicry options for agents’
# use image for packages
didImageUsedForGeneration:
type: boolean
description: ‘Indicates if an image was used for package generation’
|
aae9f5ca8130775dda5f2c5ae4cae6f4
|
{
"intermediate": 0.32817235589027405,
"beginner": 0.40554726123809814,
"expert": 0.2662803828716278
}
|
13,557
|
write a python code to get sum of two numbers
|
022c87ecbc3d48453b75834ac925c953
|
{
"intermediate": 0.334235817193985,
"beginner": 0.2648848593235016,
"expert": 0.4008793830871582
}
|
13,558
|
there is Mediaplan CustomDefinitionResource:
# CustomResourceDefinition
apiVersion: apiextensions.k8s.io/v1
kind: CustomResourceDefinition
metadata:
name: mediaplans.crd.idom.project
spec:
group: crds.idom.project
scope: Namespaced
names:
plural: mediaplans
singular: mediaplan
kind: Mediaplan
shortNames:
- mediap
versions:
- name: v1alpha1
served: true
storage: true
schema:
openAPIV3Schema:
type: object
properties:
apiVersion:
type: string
description: ‘A unique version for the Kubernetes API’
kind:
type: string
description: ‘Type of resource’
metadata:
type: object
properties:
name:
type: string
description: ‘Name of the resource’
required:
- name
spec:
type: object
properties:
# scheduling
schedule:
type: string
description: ‘Scheduling format for the mediaplan’
# channel metadata
channel:
type: object
properties:
name:
type: string
description: ‘Name of the channel’
guid:
type: string
description: ‘GUID of the channel’
id:
type: integer
description: ‘ID of the channel’
link:
type: string
description: ‘Link for the channel’
messagingSettings:
type: object
properties:
# oneof: topic or files
# generation topics
topics:
type: array
items:
type: object
properties:
code:
type: string
description: ‘Code for the topic’
weight:
type: integer
description: ‘Generation weight for the topic’
default: 1
# or choose files from s3
files:
type: array
items:
type: object
properties:
uri:
type: string
description: ‘URI for the file’
# agent settings
agentSettings:
type: object
properties:
# count
totalCount:
type: integer
description: ‘Total number of agents for the mediaplan’
default: 10
# credential comparison
credentials:
type: array
items:
type: object
properties:
key:
type: string
description: ‘Key for the credential’
value:
type: string
description: ‘Value for the credential’
# mimicry comparison
mimicry:
type: array
items:
type: object
properties:
key:
type: string
description: ‘Key for the mimicry option’
value:
type: string
description: ‘Value for the mimicry option’
# common mediaplan settings
commonSettings:
type: object
properties:
# output pkg generation coefficient
# define, how many packages will be generated for one incoming message
generationCoefficient:
type: number
description: ‘Output package generation coefficient’
default:
# total packages count
totalMessageCount:
type: integer
description: ‘Total number of messages for the mediaplan’
# estimated time for different messaging options
estimatedLeadTime:
type: string
description: ‘Estimated lead time for the mediaplan’
# disable mimicry options (for agents)
disableMimicryOptions:
type: boolean
description: ‘Disables mimicry options for agents’
# use image for packages
didImageUsedForGeneration:
type: boolean
description: ‘Indicates if an image was used for package generation’
build a python application, which serve create/update/delete operations of Mediaplan CustomResourceDefinition through kopf lib. On create, if Mediaplan contain not null "spec.schedule" option, then application create an CronJob, else "Job". On update, do the same, if "spec.schedule" is not null, else first delete an existing job (with waiting), then create again. On delete, delete already existing CronJob or Job
|
8706c36921d7cf19f7a6d095d684e4ef
|
{
"intermediate": 0.36629629135131836,
"beginner": 0.3955528140068054,
"expert": 0.23815090954303741
}
|
13,559
|
there is Mediaplan CustomDefinitionResource:
# CustomResourceDefinition
apiVersion: apiextensions.k8s.io/v1
kind: CustomResourceDefinition
metadata:
name: mediaplans.crd.idom.project
spec:
group: crds.idom.project
scope: Namespaced
names:
plural: mediaplans
singular: mediaplan
kind: Mediaplan
shortNames:
- mediap
versions:
- name: v1alpha1
served: true
storage: true
schema:
openAPIV3Schema:
type: object
properties:
apiVersion:
type: string
description: ‘A unique version for the Kubernetes API’
kind:
type: string
description: ‘Type of resource’
metadata:
type: object
properties:
name:
type: string
description: ‘Name of the resource’
required:
- name
spec:
type: object
properties:
# scheduling
schedule:
type: string
description: ‘Scheduling format for the mediaplan’
# channel metadata
channel:
type: object
properties:
name:
type: string
description: ‘Name of the channel’
guid:
type: string
description: ‘GUID of the channel’
id:
type: integer
description: ‘ID of the channel’
link:
type: string
description: ‘Link for the channel’
messagingSettings:
type: object
properties:
# oneof: topic or files
# generation topics
topics:
type: array
items:
type: object
properties:
code:
type: string
description: ‘Code for the topic’
weight:
type: integer
description: ‘Generation weight for the topic’
default: 1
# or choose files from s3
files:
type: array
items:
type: object
properties:
uri:
type: string
description: ‘URI for the file’
# agent settings
agentSettings:
type: object
properties:
# count
totalCount:
type: integer
description: ‘Total number of agents for the mediaplan’
default: 10
# credential comparison
credentials:
type: array
items:
type: object
properties:
key:
type: string
description: ‘Key for the credential’
value:
type: string
description: ‘Value for the credential’
# mimicry comparison
mimicry:
type: array
items:
type: object
properties:
key:
type: string
description: ‘Key for the mimicry option’
value:
type: string
description: ‘Value for the mimicry option’
# common mediaplan settings
commonSettings:
type: object
properties:
# output pkg generation coefficient
# define, how many packages will be generated for one incoming message
generationCoefficient:
type: number
description: ‘Output package generation coefficient’
default:
# total packages count
totalMessageCount:
type: integer
description: ‘Total number of messages for the mediaplan’
# estimated time for different messaging options
estimatedLeadTime:
type: string
description: ‘Estimated lead time for the mediaplan’
# disable mimicry options (for agents)
disableMimicryOptions:
type: boolean
description: ‘Disables mimicry options for agents’
# use image for packages
didImageUsedForGeneration:
type: boolean
description: ‘Indicates if an image was used for package generation’
please show a sample of a python application, which serve create/update/delete operations of Mediaplan CustomResourceDefinition through kopf lib. On create, if Mediaplan contain not null "spec.schedule" option, then application create an CronJob, else "Job". On update, do the same, if "spec.schedule" is not null, else first delete an existing job (with waiting), then create again. On delete, delete already existing CronJob or Job
|
5d74615cb358170886e41d0b2d71ab2d
|
{
"intermediate": 0.36629629135131836,
"beginner": 0.3955528140068054,
"expert": 0.23815090954303741
}
|
13,560
|
How to implement the extract method of c++17 unorder_map in c++13
|
9decc873760e5972415fb20143d5d408
|
{
"intermediate": 0.3636561930179596,
"beginner": 0.15194043517112732,
"expert": 0.4844033718109131
}
|
13,561
|
how to check isLoggedIn for nuxt app with jwt
|
48a41ce0c28c2f70c845423845b2290e
|
{
"intermediate": 0.600812554359436,
"beginner": 0.11618411540985107,
"expert": 0.2830033302307129
}
|
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