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Write a version of this Haskell function in Go with identical behavior.
import Data.Version import Control.Monad import System.Info minGHCVersion = Version [6, 8] [] main = when (compilerName == "ghc" && compilerVersion < minGHCVersion) $ fail "Compiler too old."
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Produce a functionally identical C code for the snippet given in J.
6 (2!:55@:]^:>) 0 ". 1 { 9!:14''
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Can you help me rewrite this code in C# instead of J, keeping it the same logically?
6 (2!:55@:]^:>) 0 ". 1 { 9!:14''
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Write a version of this J function in C++ with identical behavior.
6 (2!:55@:]^:>) 0 ". 1 { 9!:14''
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Produce a language-to-language conversion: from J to Java, same semantics.
6 (2!:55@:]^:>) 0 ". 1 { 9!:14''
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Translate the given J code snippet into Python without altering its behavior.
6 (2!:55@:]^:>) 0 ". 1 { 9!:14''
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Port the following code from J to Go with equivalent syntax and logic.
6 (2!:55@:]^:>) 0 ". 1 { 9!:14''
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Generate an equivalent C version of this Julia code.
@show VERSION VERSION < v"0.4" && exit(1) if isdefined(Base, :bloop) && !isempty(methods(abs)) @show abs(bloop) end a, b, c = 1, 2, 3 vars = filter(x -> eval(x) isa Integer, names(Main)) println("Integer variables: ", join(vars, ", "), ".") println("Sum of integers in the global scope: ", sum(eval.(vars)), ".")
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Produce a language-to-language conversion: from Julia to C#, same semantics.
@show VERSION VERSION < v"0.4" && exit(1) if isdefined(Base, :bloop) && !isempty(methods(abs)) @show abs(bloop) end a, b, c = 1, 2, 3 vars = filter(x -> eval(x) isa Integer, names(Main)) println("Integer variables: ", join(vars, ", "), ".") println("Sum of integers in the global scope: ", sum(eval.(vars)), ".")
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Translate this program into C++ but keep the logic exactly as in Julia.
@show VERSION VERSION < v"0.4" && exit(1) if isdefined(Base, :bloop) && !isempty(methods(abs)) @show abs(bloop) end a, b, c = 1, 2, 3 vars = filter(x -> eval(x) isa Integer, names(Main)) println("Integer variables: ", join(vars, ", "), ".") println("Sum of integers in the global scope: ", sum(eval.(vars)), ".")
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Write the same code in Java as shown below in Julia.
@show VERSION VERSION < v"0.4" && exit(1) if isdefined(Base, :bloop) && !isempty(methods(abs)) @show abs(bloop) end a, b, c = 1, 2, 3 vars = filter(x -> eval(x) isa Integer, names(Main)) println("Integer variables: ", join(vars, ", "), ".") println("Sum of integers in the global scope: ", sum(eval.(vars)), ".")
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Translate the given Julia code snippet into Python without altering its behavior.
@show VERSION VERSION < v"0.4" && exit(1) if isdefined(Base, :bloop) && !isempty(methods(abs)) @show abs(bloop) end a, b, c = 1, 2, 3 vars = filter(x -> eval(x) isa Integer, names(Main)) println("Integer variables: ", join(vars, ", "), ".") println("Sum of integers in the global scope: ", sum(eval.(vars)), ".")
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Write the same code in VB as shown below in Julia.
@show VERSION VERSION < v"0.4" && exit(1) if isdefined(Base, :bloop) && !isempty(methods(abs)) @show abs(bloop) end a, b, c = 1, 2, 3 vars = filter(x -> eval(x) isa Integer, names(Main)) println("Integer variables: ", join(vars, ", "), ".") println("Sum of integers in the global scope: ", sum(eval.(vars)), ".")
If Application.Version < 15 Then Exit Sub
Change the following Julia code into Go without altering its purpose.
@show VERSION VERSION < v"0.4" && exit(1) if isdefined(Base, :bloop) && !isempty(methods(abs)) @show abs(bloop) end a, b, c = 1, 2, 3 vars = filter(x -> eval(x) isa Integer, names(Main)) println("Integer variables: ", join(vars, ", "), ".") println("Sum of integers in the global scope: ", sum(eval.(vars)), ".")
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Rewrite this program in C while keeping its functionality equivalent to the Lua version.
if _VERSION:sub(5) + 0 < 5.1 then print"too old" end if bloop and math.abs then print(math.abs(bloop)) end
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Port the following code from Lua to C# with equivalent syntax and logic.
if _VERSION:sub(5) + 0 < 5.1 then print"too old" end if bloop and math.abs then print(math.abs(bloop)) end
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Convert the following code from Lua to C++, ensuring the logic remains intact.
if _VERSION:sub(5) + 0 < 5.1 then print"too old" end if bloop and math.abs then print(math.abs(bloop)) end
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Please provide an equivalent version of this Lua code in Java.
if _VERSION:sub(5) + 0 < 5.1 then print"too old" end if bloop and math.abs then print(math.abs(bloop)) end
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Convert this Lua snippet to Python and keep its semantics consistent.
if _VERSION:sub(5) + 0 < 5.1 then print"too old" end if bloop and math.abs then print(math.abs(bloop)) end
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Change the following Lua code into VB without altering its purpose.
if _VERSION:sub(5) + 0 < 5.1 then print"too old" end if bloop and math.abs then print(math.abs(bloop)) end
If Application.Version < 15 Then Exit Sub
Preserve the algorithm and functionality while converting the code from Lua to Go.
if _VERSION:sub(5) + 0 < 5.1 then print"too old" end if bloop and math.abs then print(math.abs(bloop)) end
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Write the same code in C as shown below in Mathematica.
If[$VersionNumber < 8, Quit[]] If[NameQ["bloop"] && NameQ["Abs"], Print[Abs[bloop]]]
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Can you help me rewrite this code in C# instead of Mathematica, keeping it the same logically?
If[$VersionNumber < 8, Quit[]] If[NameQ["bloop"] && NameQ["Abs"], Print[Abs[bloop]]]
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Can you help me rewrite this code in C++ instead of Mathematica, keeping it the same logically?
If[$VersionNumber < 8, Quit[]] If[NameQ["bloop"] && NameQ["Abs"], Print[Abs[bloop]]]
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Write a version of this Mathematica function in Java with identical behavior.
If[$VersionNumber < 8, Quit[]] If[NameQ["bloop"] && NameQ["Abs"], Print[Abs[bloop]]]
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Rewrite this program in Python while keeping its functionality equivalent to the Mathematica version.
If[$VersionNumber < 8, Quit[]] If[NameQ["bloop"] && NameQ["Abs"], Print[Abs[bloop]]]
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Transform the following Mathematica implementation into VB, maintaining the same output and logic.
If[$VersionNumber < 8, Quit[]] If[NameQ["bloop"] && NameQ["Abs"], Print[Abs[bloop]]]
If Application.Version < 15 Then Exit Sub
Produce a language-to-language conversion: from Mathematica to Go, same semantics.
If[$VersionNumber < 8, Quit[]] If[NameQ["bloop"] && NameQ["Abs"], Print[Abs[bloop]]]
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Write a version of this MATLAB function in C with identical behavior.
v = version; v(v=='.')=' '; v = str2num(v); if v(2)>10; v(2) = v(2)/10; end; ver = v(1)+v(2)/10; if exist('OCTAVE_VERSION','builtin') if ver < 3.0, exit end; else if ver < 7.0, exit end; end if exist('bloob','var') && any(exist('abs')==[2,3,5]) printf('abs(bloob) is return; end;
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Transform the following MATLAB implementation into C#, maintaining the same output and logic.
v = version; v(v=='.')=' '; v = str2num(v); if v(2)>10; v(2) = v(2)/10; end; ver = v(1)+v(2)/10; if exist('OCTAVE_VERSION','builtin') if ver < 3.0, exit end; else if ver < 7.0, exit end; end if exist('bloob','var') && any(exist('abs')==[2,3,5]) printf('abs(bloob) is return; end;
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Write a version of this MATLAB function in C++ with identical behavior.
v = version; v(v=='.')=' '; v = str2num(v); if v(2)>10; v(2) = v(2)/10; end; ver = v(1)+v(2)/10; if exist('OCTAVE_VERSION','builtin') if ver < 3.0, exit end; else if ver < 7.0, exit end; end if exist('bloob','var') && any(exist('abs')==[2,3,5]) printf('abs(bloob) is return; end;
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Write a version of this MATLAB function in Java with identical behavior.
v = version; v(v=='.')=' '; v = str2num(v); if v(2)>10; v(2) = v(2)/10; end; ver = v(1)+v(2)/10; if exist('OCTAVE_VERSION','builtin') if ver < 3.0, exit end; else if ver < 7.0, exit end; end if exist('bloob','var') && any(exist('abs')==[2,3,5]) printf('abs(bloob) is return; end;
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Write a version of this MATLAB function in Python with identical behavior.
v = version; v(v=='.')=' '; v = str2num(v); if v(2)>10; v(2) = v(2)/10; end; ver = v(1)+v(2)/10; if exist('OCTAVE_VERSION','builtin') if ver < 3.0, exit end; else if ver < 7.0, exit end; end if exist('bloob','var') && any(exist('abs')==[2,3,5]) printf('abs(bloob) is return; end;
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Write a version of this MATLAB function in VB with identical behavior.
v = version; v(v=='.')=' '; v = str2num(v); if v(2)>10; v(2) = v(2)/10; end; ver = v(1)+v(2)/10; if exist('OCTAVE_VERSION','builtin') if ver < 3.0, exit end; else if ver < 7.0, exit end; end if exist('bloob','var') && any(exist('abs')==[2,3,5]) printf('abs(bloob) is return; end;
If Application.Version < 15 Then Exit Sub
Transform the following MATLAB implementation into Go, maintaining the same output and logic.
v = version; v(v=='.')=' '; v = str2num(v); if v(2)>10; v(2) = v(2)/10; end; ver = v(1)+v(2)/10; if exist('OCTAVE_VERSION','builtin') if ver < 3.0, exit end; else if ver < 7.0, exit end; end if exist('bloob','var') && any(exist('abs')==[2,3,5]) printf('abs(bloob) is return; end;
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Port the provided Nim code into C while preserving the original functionality.
when NimVersion < "1.2": error "This compiler is too old" assert NimVersion >= "1.4", "This compiler is too old." var bloop = -12 when compiles abs(bloop): echo abs(bloop)
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Generate a C# translation of this Nim snippet without changing its computational steps.
when NimVersion < "1.2": error "This compiler is too old" assert NimVersion >= "1.4", "This compiler is too old." var bloop = -12 when compiles abs(bloop): echo abs(bloop)
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Change the following Nim code into C++ without altering its purpose.
when NimVersion < "1.2": error "This compiler is too old" assert NimVersion >= "1.4", "This compiler is too old." var bloop = -12 when compiles abs(bloop): echo abs(bloop)
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Write the same code in Java as shown below in Nim.
when NimVersion < "1.2": error "This compiler is too old" assert NimVersion >= "1.4", "This compiler is too old." var bloop = -12 when compiles abs(bloop): echo abs(bloop)
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Write the same algorithm in Python as shown in this Nim implementation.
when NimVersion < "1.2": error "This compiler is too old" assert NimVersion >= "1.4", "This compiler is too old." var bloop = -12 when compiles abs(bloop): echo abs(bloop)
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Transform the following Nim implementation into VB, maintaining the same output and logic.
when NimVersion < "1.2": error "This compiler is too old" assert NimVersion >= "1.4", "This compiler is too old." var bloop = -12 when compiles abs(bloop): echo abs(bloop)
If Application.Version < 15 Then Exit Sub
Generate a Go translation of this Nim snippet without changing its computational steps.
when NimVersion < "1.2": error "This compiler is too old" assert NimVersion >= "1.4", "This compiler is too old." var bloop = -12 when compiles abs(bloop): echo abs(bloop)
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Rewrite this program in C while keeping its functionality equivalent to the OCaml version.
# Sys.ocaml_version;; - : string = "3.10.2"
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Can you help me rewrite this code in C# instead of OCaml, keeping it the same logically?
# Sys.ocaml_version;; - : string = "3.10.2"
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Translate this program into C++ but keep the logic exactly as in OCaml.
# Sys.ocaml_version;; - : string = "3.10.2"
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Generate a Java translation of this OCaml snippet without changing its computational steps.
# Sys.ocaml_version;; - : string = "3.10.2"
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Rewrite this program in Python while keeping its functionality equivalent to the OCaml version.
# Sys.ocaml_version;; - : string = "3.10.2"
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Transform the following OCaml implementation into Go, maintaining the same output and logic.
# Sys.ocaml_version;; - : string = "3.10.2"
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Translate the given Perl code snippet into C without altering its behavior.
require v5.6.1; require 5.6.1; require 5.006_001;
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Preserve the algorithm and functionality while converting the code from Perl to C#.
require v5.6.1; require 5.6.1; require 5.006_001;
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Convert the following code from Perl to C++, ensuring the logic remains intact.
require v5.6.1; require 5.6.1; require 5.006_001;
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Translate the given Perl code snippet into Java without altering its behavior.
require v5.6.1; require 5.6.1; require 5.006_001;
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Write the same code in Python as shown below in Perl.
require v5.6.1; require 5.6.1; require 5.006_001;
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Change the programming language of this snippet from Perl to VB without modifying what it does.
require v5.6.1; require 5.6.1; require 5.006_001;
If Application.Version < 15 Then Exit Sub
Port the provided Perl code into Go while preserving the original functionality.
require v5.6.1; require 5.6.1; require 5.006_001;
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Convert this PowerShell snippet to C and keep its semantics consistent.
if ($PSVersionTable['PSVersion'] -lt '2.0') { exit } if ((Test-Path Variable:bloop) -and ([Math]::Abs)) { [Math]::Abs($bloop) } Get-Variable -Scope global ` | Where-Object { $_.Value -is [int] } ` | Measure-Object -Sum Value ` | Select-Object Count,Sum
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Maintain the same structure and functionality when rewriting this code in C#.
if ($PSVersionTable['PSVersion'] -lt '2.0') { exit } if ((Test-Path Variable:bloop) -and ([Math]::Abs)) { [Math]::Abs($bloop) } Get-Variable -Scope global ` | Where-Object { $_.Value -is [int] } ` | Measure-Object -Sum Value ` | Select-Object Count,Sum
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Rewrite this program in C++ while keeping its functionality equivalent to the PowerShell version.
if ($PSVersionTable['PSVersion'] -lt '2.0') { exit } if ((Test-Path Variable:bloop) -and ([Math]::Abs)) { [Math]::Abs($bloop) } Get-Variable -Scope global ` | Where-Object { $_.Value -is [int] } ` | Measure-Object -Sum Value ` | Select-Object Count,Sum
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Port the provided PowerShell code into Java while preserving the original functionality.
if ($PSVersionTable['PSVersion'] -lt '2.0') { exit } if ((Test-Path Variable:bloop) -and ([Math]::Abs)) { [Math]::Abs($bloop) } Get-Variable -Scope global ` | Where-Object { $_.Value -is [int] } ` | Measure-Object -Sum Value ` | Select-Object Count,Sum
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Write the same code in Python as shown below in PowerShell.
if ($PSVersionTable['PSVersion'] -lt '2.0') { exit } if ((Test-Path Variable:bloop) -and ([Math]::Abs)) { [Math]::Abs($bloop) } Get-Variable -Scope global ` | Where-Object { $_.Value -is [int] } ` | Measure-Object -Sum Value ` | Select-Object Count,Sum
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Translate this program into VB but keep the logic exactly as in PowerShell.
if ($PSVersionTable['PSVersion'] -lt '2.0') { exit } if ((Test-Path Variable:bloop) -and ([Math]::Abs)) { [Math]::Abs($bloop) } Get-Variable -Scope global ` | Where-Object { $_.Value -is [int] } ` | Measure-Object -Sum Value ` | Select-Object Count,Sum
If Application.Version < 15 Then Exit Sub
Ensure the translated Go code behaves exactly like the original PowerShell snippet.
if ($PSVersionTable['PSVersion'] -lt '2.0') { exit } if ((Test-Path Variable:bloop) -and ([Math]::Abs)) { [Math]::Abs($bloop) } Get-Variable -Scope global ` | Where-Object { $_.Value -is [int] } ` | Measure-Object -Sum Value ` | Select-Object Count,Sum
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Write the same algorithm in C as shown in this R implementation.
if(getRversion() < "2.14.1") { warning("Your version of R is older than 2.14.1") q() }
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Convert this R snippet to C# and keep its semantics consistent.
if(getRversion() < "2.14.1") { warning("Your version of R is older than 2.14.1") q() }
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Produce a language-to-language conversion: from R to C++, same semantics.
if(getRversion() < "2.14.1") { warning("Your version of R is older than 2.14.1") q() }
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Change the programming language of this snippet from R to Java without modifying what it does.
if(getRversion() < "2.14.1") { warning("Your version of R is older than 2.14.1") q() }
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Translate this program into Python but keep the logic exactly as in R.
if(getRversion() < "2.14.1") { warning("Your version of R is older than 2.14.1") q() }
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Translate the given R code snippet into VB without altering its behavior.
if(getRversion() < "2.14.1") { warning("Your version of R is older than 2.14.1") q() }
If Application.Version < 15 Then Exit Sub
Rewrite the snippet below in Go so it works the same as the original R code.
if(getRversion() < "2.14.1") { warning("Your version of R is older than 2.14.1") q() }
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Convert this Racket block to C, preserving its control flow and logic.
#lang racket (unless (string<=? "5.3" (version)) (error "ancient version"))
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Rewrite this program in C# while keeping its functionality equivalent to the Racket version.
#lang racket (unless (string<=? "5.3" (version)) (error "ancient version"))
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Port the following code from Racket to C++ with equivalent syntax and logic.
#lang racket (unless (string<=? "5.3" (version)) (error "ancient version"))
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Change the programming language of this snippet from Racket to Java without modifying what it does.
#lang racket (unless (string<=? "5.3" (version)) (error "ancient version"))
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Translate this program into Python but keep the logic exactly as in Racket.
#lang racket (unless (string<=? "5.3" (version)) (error "ancient version"))
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Rewrite this program in Go while keeping its functionality equivalent to the Racket version.
#lang racket (unless (string<=? "5.3" (version)) (error "ancient version"))
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Maintain the same structure and functionality when rewriting this code in C.
options replace format comments java crossref symbols binary runSample(arg) return -- ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ method runSample(arg) private static parse arg minVersion . if minVersion = '' then minVersion = 2.0 parse version lang ver bdate if ver < minVersion then do say - lang 'version' ver - '[Build date:' bdate']' - 'is less than' minVersion.format(null, 2)'; exiting...' exit end else do say - lang 'version' ver - '[Build date:' bdate']' - 'meets minimum requirements of' minVersion.format(null, 2) end return
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Produce a language-to-language conversion: from REXX to C#, same semantics.
options replace format comments java crossref symbols binary runSample(arg) return -- ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ method runSample(arg) private static parse arg minVersion . if minVersion = '' then minVersion = 2.0 parse version lang ver bdate if ver < minVersion then do say - lang 'version' ver - '[Build date:' bdate']' - 'is less than' minVersion.format(null, 2)'; exiting...' exit end else do say - lang 'version' ver - '[Build date:' bdate']' - 'meets minimum requirements of' minVersion.format(null, 2) end return
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Produce a language-to-language conversion: from REXX to C++, same semantics.
options replace format comments java crossref symbols binary runSample(arg) return -- ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ method runSample(arg) private static parse arg minVersion . if minVersion = '' then minVersion = 2.0 parse version lang ver bdate if ver < minVersion then do say - lang 'version' ver - '[Build date:' bdate']' - 'is less than' minVersion.format(null, 2)'; exiting...' exit end else do say - lang 'version' ver - '[Build date:' bdate']' - 'meets minimum requirements of' minVersion.format(null, 2) end return
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Preserve the algorithm and functionality while converting the code from REXX to Java.
options replace format comments java crossref symbols binary runSample(arg) return -- ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ method runSample(arg) private static parse arg minVersion . if minVersion = '' then minVersion = 2.0 parse version lang ver bdate if ver < minVersion then do say - lang 'version' ver - '[Build date:' bdate']' - 'is less than' minVersion.format(null, 2)'; exiting...' exit end else do say - lang 'version' ver - '[Build date:' bdate']' - 'meets minimum requirements of' minVersion.format(null, 2) end return
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Change the following REXX code into Python without altering its purpose.
options replace format comments java crossref symbols binary runSample(arg) return -- ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ method runSample(arg) private static parse arg minVersion . if minVersion = '' then minVersion = 2.0 parse version lang ver bdate if ver < minVersion then do say - lang 'version' ver - '[Build date:' bdate']' - 'is less than' minVersion.format(null, 2)'; exiting...' exit end else do say - lang 'version' ver - '[Build date:' bdate']' - 'meets minimum requirements of' minVersion.format(null, 2) end return
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Rewrite the snippet below in VB so it works the same as the original REXX code.
options replace format comments java crossref symbols binary runSample(arg) return -- ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ method runSample(arg) private static parse arg minVersion . if minVersion = '' then minVersion = 2.0 parse version lang ver bdate if ver < minVersion then do say - lang 'version' ver - '[Build date:' bdate']' - 'is less than' minVersion.format(null, 2)'; exiting...' exit end else do say - lang 'version' ver - '[Build date:' bdate']' - 'meets minimum requirements of' minVersion.format(null, 2) end return
If Application.Version < 15 Then Exit Sub
Convert the following code from REXX to Go, ensuring the logic remains intact.
options replace format comments java crossref symbols binary runSample(arg) return -- ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ method runSample(arg) private static parse arg minVersion . if minVersion = '' then minVersion = 2.0 parse version lang ver bdate if ver < minVersion then do say - lang 'version' ver - '[Build date:' bdate']' - 'is less than' minVersion.format(null, 2)'; exiting...' exit end else do say - lang 'version' ver - '[Build date:' bdate']' - 'meets minimum requirements of' minVersion.format(null, 2) end return
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Rewrite the snippet below in C so it works the same as the original Ruby code.
exit if RUBY_VERSION < '1.8.6' puts bloop.abs if defined?(bloop) and bloop.respond_to?(:abs)
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Translate this program into C# but keep the logic exactly as in Ruby.
exit if RUBY_VERSION < '1.8.6' puts bloop.abs if defined?(bloop) and bloop.respond_to?(:abs)
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Write the same algorithm in C++ as shown in this Ruby implementation.
exit if RUBY_VERSION < '1.8.6' puts bloop.abs if defined?(bloop) and bloop.respond_to?(:abs)
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Transform the following Ruby implementation into Java, maintaining the same output and logic.
exit if RUBY_VERSION < '1.8.6' puts bloop.abs if defined?(bloop) and bloop.respond_to?(:abs)
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Port the provided Ruby code into Python while preserving the original functionality.
exit if RUBY_VERSION < '1.8.6' puts bloop.abs if defined?(bloop) and bloop.respond_to?(:abs)
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Ensure the translated VB code behaves exactly like the original Ruby snippet.
exit if RUBY_VERSION < '1.8.6' puts bloop.abs if defined?(bloop) and bloop.respond_to?(:abs)
If Application.Version < 15 Then Exit Sub
Port the following code from Ruby to Go with equivalent syntax and logic.
exit if RUBY_VERSION < '1.8.6' puts bloop.abs if defined?(bloop) and bloop.respond_to?(:abs)
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Keep all operations the same but rewrite the snippet in C.
import java.lang.reflect.Method val bloop = -3 val i = 4 val j = 5 val k = 6 fun main(args: Array<String>) { val version = System.getProperty("java.version") if (version >= "1.6") println("The current JVM version is $version") else println("Must use version 1.6 or later") val topLevel = Class.forName("IntroKt") val math = Class.forName("java.lang.Math") val abs = math.getDeclaredMethod("abs", Int::class.java) val methods = topLevel.getDeclaredMethods() for (method in methods) { if (method.name == "getBloop" && method.returnType == Int::class.java) { println("\nabs(bloop) = ${abs.invoke(null, method.invoke(null))}") break } } var count = 0 var sum = 0 for (method in methods) { if (method.returnType == Int::class.java) { count++ sum += method.invoke(null) as Int } } println("\nThere are $count global integer variables and their sum is $sum") }
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Write the same code in C# as shown below in Scala.
import java.lang.reflect.Method val bloop = -3 val i = 4 val j = 5 val k = 6 fun main(args: Array<String>) { val version = System.getProperty("java.version") if (version >= "1.6") println("The current JVM version is $version") else println("Must use version 1.6 or later") val topLevel = Class.forName("IntroKt") val math = Class.forName("java.lang.Math") val abs = math.getDeclaredMethod("abs", Int::class.java) val methods = topLevel.getDeclaredMethods() for (method in methods) { if (method.name == "getBloop" && method.returnType == Int::class.java) { println("\nabs(bloop) = ${abs.invoke(null, method.invoke(null))}") break } } var count = 0 var sum = 0 for (method in methods) { if (method.returnType == Int::class.java) { count++ sum += method.invoke(null) as Int } } println("\nThere are $count global integer variables and their sum is $sum") }
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Preserve the algorithm and functionality while converting the code from Scala to C++.
import java.lang.reflect.Method val bloop = -3 val i = 4 val j = 5 val k = 6 fun main(args: Array<String>) { val version = System.getProperty("java.version") if (version >= "1.6") println("The current JVM version is $version") else println("Must use version 1.6 or later") val topLevel = Class.forName("IntroKt") val math = Class.forName("java.lang.Math") val abs = math.getDeclaredMethod("abs", Int::class.java) val methods = topLevel.getDeclaredMethods() for (method in methods) { if (method.name == "getBloop" && method.returnType == Int::class.java) { println("\nabs(bloop) = ${abs.invoke(null, method.invoke(null))}") break } } var count = 0 var sum = 0 for (method in methods) { if (method.returnType == Int::class.java) { count++ sum += method.invoke(null) as Int } } println("\nThere are $count global integer variables and their sum is $sum") }
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Convert this Scala block to Java, preserving its control flow and logic.
import java.lang.reflect.Method val bloop = -3 val i = 4 val j = 5 val k = 6 fun main(args: Array<String>) { val version = System.getProperty("java.version") if (version >= "1.6") println("The current JVM version is $version") else println("Must use version 1.6 or later") val topLevel = Class.forName("IntroKt") val math = Class.forName("java.lang.Math") val abs = math.getDeclaredMethod("abs", Int::class.java) val methods = topLevel.getDeclaredMethods() for (method in methods) { if (method.name == "getBloop" && method.returnType == Int::class.java) { println("\nabs(bloop) = ${abs.invoke(null, method.invoke(null))}") break } } var count = 0 var sum = 0 for (method in methods) { if (method.returnType == Int::class.java) { count++ sum += method.invoke(null) as Int } } println("\nThere are $count global integer variables and their sum is $sum") }
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }
Ensure the translated Python code behaves exactly like the original Scala snippet.
import java.lang.reflect.Method val bloop = -3 val i = 4 val j = 5 val k = 6 fun main(args: Array<String>) { val version = System.getProperty("java.version") if (version >= "1.6") println("The current JVM version is $version") else println("Must use version 1.6 or later") val topLevel = Class.forName("IntroKt") val math = Class.forName("java.lang.Math") val abs = math.getDeclaredMethod("abs", Int::class.java) val methods = topLevel.getDeclaredMethods() for (method in methods) { if (method.name == "getBloop" && method.returnType == Int::class.java) { println("\nabs(bloop) = ${abs.invoke(null, method.invoke(null))}") break } } var count = 0 var sum = 0 for (method in methods) { if (method.returnType == Int::class.java) { count++ sum += method.invoke(null) as Int } } println("\nThere are $count global integer variables and their sum is $sum") }
import sys major, minor, bugfix = sys.version_info[:3] if major < 2: sys.exit('Python 2 is required') def defined(name): return name in globals() or name in locals() or name in vars(__builtins__) def defined2(name): try: eval(name) return True except NameError: return False if defined('bloop') and defined('abs') and callable(abs): print abs(bloop) if defined2('bloop') and defined2('abs') and callable(abs): print abs(bloop)
Write a version of this Scala function in VB with identical behavior.
import java.lang.reflect.Method val bloop = -3 val i = 4 val j = 5 val k = 6 fun main(args: Array<String>) { val version = System.getProperty("java.version") if (version >= "1.6") println("The current JVM version is $version") else println("Must use version 1.6 or later") val topLevel = Class.forName("IntroKt") val math = Class.forName("java.lang.Math") val abs = math.getDeclaredMethod("abs", Int::class.java) val methods = topLevel.getDeclaredMethods() for (method in methods) { if (method.name == "getBloop" && method.returnType == Int::class.java) { println("\nabs(bloop) = ${abs.invoke(null, method.invoke(null))}") break } } var count = 0 var sum = 0 for (method in methods) { if (method.returnType == Int::class.java) { count++ sum += method.invoke(null) as Int } } println("\nThere are $count global integer variables and their sum is $sum") }
If Application.Version < 15 Then Exit Sub
Keep all operations the same but rewrite the snippet in Go.
import java.lang.reflect.Method val bloop = -3 val i = 4 val j = 5 val k = 6 fun main(args: Array<String>) { val version = System.getProperty("java.version") if (version >= "1.6") println("The current JVM version is $version") else println("Must use version 1.6 or later") val topLevel = Class.forName("IntroKt") val math = Class.forName("java.lang.Math") val abs = math.getDeclaredMethod("abs", Int::class.java) val methods = topLevel.getDeclaredMethods() for (method in methods) { if (method.name == "getBloop" && method.returnType == Int::class.java) { println("\nabs(bloop) = ${abs.invoke(null, method.invoke(null))}") break } } var count = 0 var sum = 0 for (method in methods) { if (method.returnType == Int::class.java) { count++ sum += method.invoke(null) as Int } } println("\nThere are $count global integer variables and their sum is $sum") }
package main import ( "debug/elf" "debug/gosym" "fmt" "log" "math" "os" "runtime" ) var bloop = -3.4 func main() { fmt.Println("task 1: verify version") fmt.Println(" program compiled with", runtime.Version()) fmt.Println("task 2: check for presence of variable and function") f, err := elf.Open(os.Args[0]) if err != nil { log.Fatal(err) } defer f.Close() symSection := f.Section(".gosymtab") lineSection := f.Section(".gopclntab") textSection := f.Section(".text") if symSection == nil || lineSection == nil || textSection == nil { log.Fatal("symbolic information not found") } symData, err := symSection.Data() if err != nil { log.Fatal(err) } lineData, err := lineSection.Data() if err != nil { log.Fatal(err) } table, err := gosym.NewTable(symData, gosym.NewLineTable(lineData, textSection.Addr)) if err != nil { log.Fatal(" ", err) } var foundBloop, foundFabs bool for _, s := range table.Syms { if s.Name == "main.bloop" { foundBloop = true fmt.Println(" bloop symbol table entry:", s) } else if s.Name == "math.Abs" { foundFabs = true fmt.Println(" abs symbol table entry:", s) } } if foundBloop && foundFabs { fmt.Println(" bloop: ", bloop) fmt.Println(" abs(bloop): ", math.Abs(bloop)) } }
Change the following Tcl code into C without altering its purpose.
package require Tcl 8.4 ; if {[info exists bloop] && [llength [info functions abs]]} { puts [expr abs($bloop)] }
#if !defined(__STDC_VERSION__) || __STDC_VERSION__ < 199901L #pragma error("C compiler must adhere to at least C99 for the following code.") #else #endif
Maintain the same structure and functionality when rewriting this code in C#.
package require Tcl 8.4 ; if {[info exists bloop] && [llength [info functions abs]]} { puts [expr abs($bloop)] }
using System; using System.Reflection; namespace Rosetta_Introspection { static public class Program { static public int bloop = -10; static public int bloop2 = -20; public static void Main() { var asm = Assembly.GetExecutingAssembly(); var version = int.Parse(asm.ImageRuntimeVersion.Split('.')[0].Substring(1)); if (version < 4) { Console.WriteLine("Get with the program! I'm outta here!"); return; } FieldInfo bloopField = null; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.Name != "bloop") { continue; } bloopField = field; if (bloopField.FieldType != typeof(int)) { throw new InvalidProgramException("bloop should be an integer"); } break; } if (bloopField != null) { break; } } if (bloopField == null) { throw new InvalidProgramException("No bloop exported value"); } foreach (var refAsm in AppDomain.CurrentDomain.GetAssemblies()) { foreach (var type in refAsm.GetExportedTypes()) { if (type.Name == "Math") { var absMethod = type.GetMethod("Abs", new Type[] { typeof(int) }); if (absMethod != null) { Console.WriteLine("bloop's abs value = {0}", absMethod.Invoke(null, new object[] { bloopField.GetValue(null) })); } } } } int intCount = 0; int total = 0; foreach (var type in asm.GetExportedTypes()) { foreach (var field in type.GetFields()) { if (field.FieldType == typeof(int)) { intCount++; total += (int)field.GetValue(null); } } } Console.WriteLine("{0} exported ints which total to {1}", intCount, total); Console.ReadKey(); } } }
Can you help me rewrite this code in C++ instead of Tcl, keeping it the same logically?
package require Tcl 8.4 ; if {[info exists bloop] && [llength [info functions abs]]} { puts [expr abs($bloop)] }
#if !defined(__cplusplus) || __cplusplus < 201103L #pragma error("The following code requires at least C++11.") #else #endif
Write the same algorithm in Java as shown in this Tcl implementation.
package require Tcl 8.4 ; if {[info exists bloop] && [llength [info functions abs]]} { puts [expr abs($bloop)] }
public class VersCheck { public static void main(String[] args) { String vers = System.getProperty("java.version"); vers = vers.substring(0,vers.indexOf('.')) + "." + vers.substring(vers.indexOf('.')+1,vers.lastIndexOf('.')); if(Double.parseDouble(vers) >= 1.5){ System.out.println("YAY!"); }else{ System.err.println("Must use Java >=1.5"); } } }