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Transform the following Clojure implementation into VB, maintaining the same output and logic.
(let [rows (Integer/parseInt (read-line)) cols (Integer/parseInt (read-line)) a (to-array-2d (repeat rows (repeat cols nil)))] (aset a 0 0 12) (println "Element at 0,0:" (aget a 0 0)))
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Produce a language-to-language conversion: from Clojure to Go, same semantics.
(let [rows (Integer/parseInt (read-line)) cols (Integer/parseInt (read-line)) a (to-array-2d (repeat rows (repeat cols nil)))] (aset a 0 0 12) (println "Element at 0,0:" (aget a 0 0)))
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Maintain the same structure and functionality when rewriting this code in C.
(let ((d1 (read)) (d2 (read))) (assert (and (typep d1 '(integer 1)) (typep d2 '(integer 1))) (d1 d2)) (let ((array (make-array (list d1 d2) :initial-element nil)) (p1 0) (p2 (floor d2 2))) (setf (aref array p1 p2) t) (print (aref array p1 p2))))
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Keep all operations the same but rewrite the snippet in C#.
(let ((d1 (read)) (d2 (read))) (assert (and (typep d1 '(integer 1)) (typep d2 '(integer 1))) (d1 d2)) (let ((array (make-array (list d1 d2) :initial-element nil)) (p1 0) (p2 (floor d2 2))) (setf (aref array p1 p2) t) (print (aref array p1 p2))))
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Port the following code from Common_Lisp to C++ with equivalent syntax and logic.
(let ((d1 (read)) (d2 (read))) (assert (and (typep d1 '(integer 1)) (typep d2 '(integer 1))) (d1 d2)) (let ((array (make-array (list d1 d2) :initial-element nil)) (p1 0) (p2 (floor d2 2))) (setf (aref array p1 p2) t) (print (aref array p1 p2))))
#include <iostream> int main() { int dim1, dim2; std::cin >> dim1 >> dim2; double* array_data = new double[dim1*dim2]; double** array = new double*[dim1]; for (int i = 0; i < dim1; ++i) array[i] = array_data + dim2*i; array[0][0] = 3.5; std::cout << array[0][0] << std::endl; delete[] array; delete[] array_data; return 0; }
Generate a Java translation of this Common_Lisp snippet without changing its computational steps.
(let ((d1 (read)) (d2 (read))) (assert (and (typep d1 '(integer 1)) (typep d2 '(integer 1))) (d1 d2)) (let ((array (make-array (list d1 d2) :initial-element nil)) (p1 0) (p2 (floor d2 2))) (setf (aref array p1 p2) t) (print (aref array p1 p2))))
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Maintain the same structure and functionality when rewriting this code in Python.
(let ((d1 (read)) (d2 (read))) (assert (and (typep d1 '(integer 1)) (typep d2 '(integer 1))) (d1 d2)) (let ((array (make-array (list d1 d2) :initial-element nil)) (p1 0) (p2 (floor d2 2))) (setf (aref array p1 p2) t) (print (aref array p1 p2))))
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Preserve the algorithm and functionality while converting the code from Common_Lisp to VB.
(let ((d1 (read)) (d2 (read))) (assert (and (typep d1 '(integer 1)) (typep d2 '(integer 1))) (d1 d2)) (let ((array (make-array (list d1 d2) :initial-element nil)) (p1 0) (p2 (floor d2 2))) (setf (aref array p1 p2) t) (print (aref array p1 p2))))
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Translate the given Common_Lisp code snippet into Go without altering its behavior.
(let ((d1 (read)) (d2 (read))) (assert (and (typep d1 '(integer 1)) (typep d2 '(integer 1))) (d1 d2)) (let ((array (make-array (list d1 d2) :initial-element nil)) (p1 0) (p2 (floor d2 2))) (setf (aref array p1 p2) t) (print (aref array p1 p2))))
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Generate an equivalent C version of this D code.
void main() { import std.stdio, std.conv, std.string; int nRow, nCol; write("Give me the numer of rows: "); try { nRow = readln.strip.to!int; } catch (StdioException) { nRow = 3; writeln; } write("Give me the numer of columns: "); try { nCol = readln.strip.to!int; } catch (StdioException) { nCol = 5; writeln; } auto array = new float[][](nRow, nCol); array[0][0] = 3.5; writeln("The number at place [0, 0] is ", array[0][0]); }
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Convert this D snippet to C# and keep its semantics consistent.
void main() { import std.stdio, std.conv, std.string; int nRow, nCol; write("Give me the numer of rows: "); try { nRow = readln.strip.to!int; } catch (StdioException) { nRow = 3; writeln; } write("Give me the numer of columns: "); try { nCol = readln.strip.to!int; } catch (StdioException) { nCol = 5; writeln; } auto array = new float[][](nRow, nCol); array[0][0] = 3.5; writeln("The number at place [0, 0] is ", array[0][0]); }
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Produce a functionally identical C++ code for the snippet given in D.
void main() { import std.stdio, std.conv, std.string; int nRow, nCol; write("Give me the numer of rows: "); try { nRow = readln.strip.to!int; } catch (StdioException) { nRow = 3; writeln; } write("Give me the numer of columns: "); try { nCol = readln.strip.to!int; } catch (StdioException) { nCol = 5; writeln; } auto array = new float[][](nRow, nCol); array[0][0] = 3.5; writeln("The number at place [0, 0] is ", array[0][0]); }
#include <iostream> int main() { int dim1, dim2; std::cin >> dim1 >> dim2; double* array_data = new double[dim1*dim2]; double** array = new double*[dim1]; for (int i = 0; i < dim1; ++i) array[i] = array_data + dim2*i; array[0][0] = 3.5; std::cout << array[0][0] << std::endl; delete[] array; delete[] array_data; return 0; }
Produce a functionally identical Java code for the snippet given in D.
void main() { import std.stdio, std.conv, std.string; int nRow, nCol; write("Give me the numer of rows: "); try { nRow = readln.strip.to!int; } catch (StdioException) { nRow = 3; writeln; } write("Give me the numer of columns: "); try { nCol = readln.strip.to!int; } catch (StdioException) { nCol = 5; writeln; } auto array = new float[][](nRow, nCol); array[0][0] = 3.5; writeln("The number at place [0, 0] is ", array[0][0]); }
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Rewrite this program in Python while keeping its functionality equivalent to the D version.
void main() { import std.stdio, std.conv, std.string; int nRow, nCol; write("Give me the numer of rows: "); try { nRow = readln.strip.to!int; } catch (StdioException) { nRow = 3; writeln; } write("Give me the numer of columns: "); try { nCol = readln.strip.to!int; } catch (StdioException) { nCol = 5; writeln; } auto array = new float[][](nRow, nCol); array[0][0] = 3.5; writeln("The number at place [0, 0] is ", array[0][0]); }
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Generate an equivalent VB version of this D code.
void main() { import std.stdio, std.conv, std.string; int nRow, nCol; write("Give me the numer of rows: "); try { nRow = readln.strip.to!int; } catch (StdioException) { nRow = 3; writeln; } write("Give me the numer of columns: "); try { nCol = readln.strip.to!int; } catch (StdioException) { nCol = 5; writeln; } auto array = new float[][](nRow, nCol); array[0][0] = 3.5; writeln("The number at place [0, 0] is ", array[0][0]); }
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Produce a language-to-language conversion: from D to Go, same semantics.
void main() { import std.stdio, std.conv, std.string; int nRow, nCol; write("Give me the numer of rows: "); try { nRow = readln.strip.to!int; } catch (StdioException) { nRow = 3; writeln; } write("Give me the numer of columns: "); try { nCol = readln.strip.to!int; } catch (StdioException) { nCol = 5; writeln; } auto array = new float[][](nRow, nCol); array[0][0] = 3.5; writeln("The number at place [0, 0] is ", array[0][0]); }
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Translate this program into C but keep the logic exactly as in Delphi.
program Project1; uses SysUtils; var matrix:array of array of Byte; i,j:Integer; begin Randomize; Finalize(matrix); SetLength(matrix,Random(10) + 1); for i := Low(matrix) to High(matrix) do SetLength(matrix[i],Random(10) + 1); Writeln(Format('Total amount of columns = %.2d',[Length(matrix)])); for i := Low(matrix) to High(matrix) do Writeln(Format('Column %.2d = %.2d rows',[i,Length(matrix[i])])); Readln; end.
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Maintain the same structure and functionality when rewriting this code in C#.
program Project1; uses SysUtils; var matrix:array of array of Byte; i,j:Integer; begin Randomize; Finalize(matrix); SetLength(matrix,Random(10) + 1); for i := Low(matrix) to High(matrix) do SetLength(matrix[i],Random(10) + 1); Writeln(Format('Total amount of columns = %.2d',[Length(matrix)])); for i := Low(matrix) to High(matrix) do Writeln(Format('Column %.2d = %.2d rows',[i,Length(matrix[i])])); Readln; end.
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Translate the given Delphi code snippet into C++ without altering its behavior.
program Project1; uses SysUtils; var matrix:array of array of Byte; i,j:Integer; begin Randomize; Finalize(matrix); SetLength(matrix,Random(10) + 1); for i := Low(matrix) to High(matrix) do SetLength(matrix[i],Random(10) + 1); Writeln(Format('Total amount of columns = %.2d',[Length(matrix)])); for i := Low(matrix) to High(matrix) do Writeln(Format('Column %.2d = %.2d rows',[i,Length(matrix[i])])); Readln; end.
#include <iostream> int main() { int dim1, dim2; std::cin >> dim1 >> dim2; double* array_data = new double[dim1*dim2]; double** array = new double*[dim1]; for (int i = 0; i < dim1; ++i) array[i] = array_data + dim2*i; array[0][0] = 3.5; std::cout << array[0][0] << std::endl; delete[] array; delete[] array_data; return 0; }
Keep all operations the same but rewrite the snippet in Java.
program Project1; uses SysUtils; var matrix:array of array of Byte; i,j:Integer; begin Randomize; Finalize(matrix); SetLength(matrix,Random(10) + 1); for i := Low(matrix) to High(matrix) do SetLength(matrix[i],Random(10) + 1); Writeln(Format('Total amount of columns = %.2d',[Length(matrix)])); for i := Low(matrix) to High(matrix) do Writeln(Format('Column %.2d = %.2d rows',[i,Length(matrix[i])])); Readln; end.
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Convert this Delphi snippet to Python and keep its semantics consistent.
program Project1; uses SysUtils; var matrix:array of array of Byte; i,j:Integer; begin Randomize; Finalize(matrix); SetLength(matrix,Random(10) + 1); for i := Low(matrix) to High(matrix) do SetLength(matrix[i],Random(10) + 1); Writeln(Format('Total amount of columns = %.2d',[Length(matrix)])); for i := Low(matrix) to High(matrix) do Writeln(Format('Column %.2d = %.2d rows',[i,Length(matrix[i])])); Readln; end.
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Convert this Delphi snippet to VB and keep its semantics consistent.
program Project1; uses SysUtils; var matrix:array of array of Byte; i,j:Integer; begin Randomize; Finalize(matrix); SetLength(matrix,Random(10) + 1); for i := Low(matrix) to High(matrix) do SetLength(matrix[i],Random(10) + 1); Writeln(Format('Total amount of columns = %.2d',[Length(matrix)])); for i := Low(matrix) to High(matrix) do Writeln(Format('Column %.2d = %.2d rows',[i,Length(matrix[i])])); Readln; end.
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Rewrite the snippet below in Go so it works the same as the original Delphi code.
program Project1; uses SysUtils; var matrix:array of array of Byte; i,j:Integer; begin Randomize; Finalize(matrix); SetLength(matrix,Random(10) + 1); for i := Low(matrix) to High(matrix) do SetLength(matrix[i],Random(10) + 1); Writeln(Format('Total amount of columns = %.2d',[Length(matrix)])); for i := Low(matrix) to High(matrix) do Writeln(Format('Column %.2d = %.2d rows',[i,Length(matrix[i])])); Readln; end.
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Write a version of this Elixir function in C with identical behavior.
defmodule TwoDimArray do def create(w, h) do List.duplicate(0, w) |> List.duplicate(h) end def set(arr, x, y, value) do List.replace_at(arr, x, List.replace_at(Enum.at(arr, x), y, value) ) end def get(arr, x, y) do arr |> Enum.at(x) |> Enum.at(y) end end width = IO.gets "Enter Array Width: " w = width |> String.trim() |> String.to_integer() height = IO.gets "Enter Array Height: " h = height |> String.trim() |> String.to_integer() arr = TwoDimArray.create(w, h) arr = TwoDimArray.set(arr,2,0,42) IO.puts(TwoDimArray.get(arr,2,0))
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Generate an equivalent C# version of this Elixir code.
defmodule TwoDimArray do def create(w, h) do List.duplicate(0, w) |> List.duplicate(h) end def set(arr, x, y, value) do List.replace_at(arr, x, List.replace_at(Enum.at(arr, x), y, value) ) end def get(arr, x, y) do arr |> Enum.at(x) |> Enum.at(y) end end width = IO.gets "Enter Array Width: " w = width |> String.trim() |> String.to_integer() height = IO.gets "Enter Array Height: " h = height |> String.trim() |> String.to_integer() arr = TwoDimArray.create(w, h) arr = TwoDimArray.set(arr,2,0,42) IO.puts(TwoDimArray.get(arr,2,0))
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Generate a C++ translation of this Elixir snippet without changing its computational steps.
defmodule TwoDimArray do def create(w, h) do List.duplicate(0, w) |> List.duplicate(h) end def set(arr, x, y, value) do List.replace_at(arr, x, List.replace_at(Enum.at(arr, x), y, value) ) end def get(arr, x, y) do arr |> Enum.at(x) |> Enum.at(y) end end width = IO.gets "Enter Array Width: " w = width |> String.trim() |> String.to_integer() height = IO.gets "Enter Array Height: " h = height |> String.trim() |> String.to_integer() arr = TwoDimArray.create(w, h) arr = TwoDimArray.set(arr,2,0,42) IO.puts(TwoDimArray.get(arr,2,0))
#include <iostream> int main() { int dim1, dim2; std::cin >> dim1 >> dim2; double* array_data = new double[dim1*dim2]; double** array = new double*[dim1]; for (int i = 0; i < dim1; ++i) array[i] = array_data + dim2*i; array[0][0] = 3.5; std::cout << array[0][0] << std::endl; delete[] array; delete[] array_data; return 0; }
Change the following Elixir code into Java without altering its purpose.
defmodule TwoDimArray do def create(w, h) do List.duplicate(0, w) |> List.duplicate(h) end def set(arr, x, y, value) do List.replace_at(arr, x, List.replace_at(Enum.at(arr, x), y, value) ) end def get(arr, x, y) do arr |> Enum.at(x) |> Enum.at(y) end end width = IO.gets "Enter Array Width: " w = width |> String.trim() |> String.to_integer() height = IO.gets "Enter Array Height: " h = height |> String.trim() |> String.to_integer() arr = TwoDimArray.create(w, h) arr = TwoDimArray.set(arr,2,0,42) IO.puts(TwoDimArray.get(arr,2,0))
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Keep all operations the same but rewrite the snippet in Python.
defmodule TwoDimArray do def create(w, h) do List.duplicate(0, w) |> List.duplicate(h) end def set(arr, x, y, value) do List.replace_at(arr, x, List.replace_at(Enum.at(arr, x), y, value) ) end def get(arr, x, y) do arr |> Enum.at(x) |> Enum.at(y) end end width = IO.gets "Enter Array Width: " w = width |> String.trim() |> String.to_integer() height = IO.gets "Enter Array Height: " h = height |> String.trim() |> String.to_integer() arr = TwoDimArray.create(w, h) arr = TwoDimArray.set(arr,2,0,42) IO.puts(TwoDimArray.get(arr,2,0))
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Maintain the same structure and functionality when rewriting this code in VB.
defmodule TwoDimArray do def create(w, h) do List.duplicate(0, w) |> List.duplicate(h) end def set(arr, x, y, value) do List.replace_at(arr, x, List.replace_at(Enum.at(arr, x), y, value) ) end def get(arr, x, y) do arr |> Enum.at(x) |> Enum.at(y) end end width = IO.gets "Enter Array Width: " w = width |> String.trim() |> String.to_integer() height = IO.gets "Enter Array Height: " h = height |> String.trim() |> String.to_integer() arr = TwoDimArray.create(w, h) arr = TwoDimArray.set(arr,2,0,42) IO.puts(TwoDimArray.get(arr,2,0))
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Port the following code from Elixir to Go with equivalent syntax and logic.
defmodule TwoDimArray do def create(w, h) do List.duplicate(0, w) |> List.duplicate(h) end def set(arr, x, y, value) do List.replace_at(arr, x, List.replace_at(Enum.at(arr, x), y, value) ) end def get(arr, x, y) do arr |> Enum.at(x) |> Enum.at(y) end end width = IO.gets "Enter Array Width: " w = width |> String.trim() |> String.to_integer() height = IO.gets "Enter Array Height: " h = height |> String.trim() |> String.to_integer() arr = TwoDimArray.create(w, h) arr = TwoDimArray.set(arr,2,0,42) IO.puts(TwoDimArray.get(arr,2,0))
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Change the following Erlang code into C without altering its purpose.
-module( two_dimensional_array ). -export( [create/2, get/3, set/4, task/0] ). create( X, Y ) -> array:new( [{size, X}, {default, array:new( [{size, Y}] )}] ). get( X, Y, Array ) -> array:get( Y, array:get(X, Array) ). set( X, Y, Value, Array ) -> Y_array = array:get( X, Array ), New_y_array = array:set( Y, Value, Y_array ), array:set( X, New_y_array, Array ). task() -> {ok, [X, Y]} = io:fread( "Input two integers. Space delimited, please: ", "~d ~d" ), Array = create( X, Y ), New_array = set( X - 1, Y - 1, X * Y, Array ), io:fwrite( "In position ~p ~p we have ~p~n", [X - 1, Y - 1, get( X - 1, Y - 1, New_array)] ).
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Can you help me rewrite this code in C# instead of Erlang, keeping it the same logically?
-module( two_dimensional_array ). -export( [create/2, get/3, set/4, task/0] ). create( X, Y ) -> array:new( [{size, X}, {default, array:new( [{size, Y}] )}] ). get( X, Y, Array ) -> array:get( Y, array:get(X, Array) ). set( X, Y, Value, Array ) -> Y_array = array:get( X, Array ), New_y_array = array:set( Y, Value, Y_array ), array:set( X, New_y_array, Array ). task() -> {ok, [X, Y]} = io:fread( "Input two integers. Space delimited, please: ", "~d ~d" ), Array = create( X, Y ), New_array = set( X - 1, Y - 1, X * Y, Array ), io:fwrite( "In position ~p ~p we have ~p~n", [X - 1, Y - 1, get( X - 1, Y - 1, New_array)] ).
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Transform the following Erlang implementation into C++, maintaining the same output and logic.
-module( two_dimensional_array ). -export( [create/2, get/3, set/4, task/0] ). create( X, Y ) -> array:new( [{size, X}, {default, array:new( [{size, Y}] )}] ). get( X, Y, Array ) -> array:get( Y, array:get(X, Array) ). set( X, Y, Value, Array ) -> Y_array = array:get( X, Array ), New_y_array = array:set( Y, Value, Y_array ), array:set( X, New_y_array, Array ). task() -> {ok, [X, Y]} = io:fread( "Input two integers. Space delimited, please: ", "~d ~d" ), Array = create( X, Y ), New_array = set( X - 1, Y - 1, X * Y, Array ), io:fwrite( "In position ~p ~p we have ~p~n", [X - 1, Y - 1, get( X - 1, Y - 1, New_array)] ).
#include <iostream> int main() { int dim1, dim2; std::cin >> dim1 >> dim2; double* array_data = new double[dim1*dim2]; double** array = new double*[dim1]; for (int i = 0; i < dim1; ++i) array[i] = array_data + dim2*i; array[0][0] = 3.5; std::cout << array[0][0] << std::endl; delete[] array; delete[] array_data; return 0; }
Port the following code from Erlang to Java with equivalent syntax and logic.
-module( two_dimensional_array ). -export( [create/2, get/3, set/4, task/0] ). create( X, Y ) -> array:new( [{size, X}, {default, array:new( [{size, Y}] )}] ). get( X, Y, Array ) -> array:get( Y, array:get(X, Array) ). set( X, Y, Value, Array ) -> Y_array = array:get( X, Array ), New_y_array = array:set( Y, Value, Y_array ), array:set( X, New_y_array, Array ). task() -> {ok, [X, Y]} = io:fread( "Input two integers. Space delimited, please: ", "~d ~d" ), Array = create( X, Y ), New_array = set( X - 1, Y - 1, X * Y, Array ), io:fwrite( "In position ~p ~p we have ~p~n", [X - 1, Y - 1, get( X - 1, Y - 1, New_array)] ).
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Translate this program into Python but keep the logic exactly as in Erlang.
-module( two_dimensional_array ). -export( [create/2, get/3, set/4, task/0] ). create( X, Y ) -> array:new( [{size, X}, {default, array:new( [{size, Y}] )}] ). get( X, Y, Array ) -> array:get( Y, array:get(X, Array) ). set( X, Y, Value, Array ) -> Y_array = array:get( X, Array ), New_y_array = array:set( Y, Value, Y_array ), array:set( X, New_y_array, Array ). task() -> {ok, [X, Y]} = io:fread( "Input two integers. Space delimited, please: ", "~d ~d" ), Array = create( X, Y ), New_array = set( X - 1, Y - 1, X * Y, Array ), io:fwrite( "In position ~p ~p we have ~p~n", [X - 1, Y - 1, get( X - 1, Y - 1, New_array)] ).
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Change the programming language of this snippet from Erlang to VB without modifying what it does.
-module( two_dimensional_array ). -export( [create/2, get/3, set/4, task/0] ). create( X, Y ) -> array:new( [{size, X}, {default, array:new( [{size, Y}] )}] ). get( X, Y, Array ) -> array:get( Y, array:get(X, Array) ). set( X, Y, Value, Array ) -> Y_array = array:get( X, Array ), New_y_array = array:set( Y, Value, Y_array ), array:set( X, New_y_array, Array ). task() -> {ok, [X, Y]} = io:fread( "Input two integers. Space delimited, please: ", "~d ~d" ), Array = create( X, Y ), New_array = set( X - 1, Y - 1, X * Y, Array ), io:fwrite( "In position ~p ~p we have ~p~n", [X - 1, Y - 1, get( X - 1, Y - 1, New_array)] ).
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Produce a functionally identical Go code for the snippet given in Erlang.
-module( two_dimensional_array ). -export( [create/2, get/3, set/4, task/0] ). create( X, Y ) -> array:new( [{size, X}, {default, array:new( [{size, Y}] )}] ). get( X, Y, Array ) -> array:get( Y, array:get(X, Array) ). set( X, Y, Value, Array ) -> Y_array = array:get( X, Array ), New_y_array = array:set( Y, Value, Y_array ), array:set( X, New_y_array, Array ). task() -> {ok, [X, Y]} = io:fread( "Input two integers. Space delimited, please: ", "~d ~d" ), Array = create( X, Y ), New_array = set( X - 1, Y - 1, X * Y, Array ), io:fwrite( "In position ~p ~p we have ~p~n", [X - 1, Y - 1, get( X - 1, Y - 1, New_array)] ).
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Write the same algorithm in C as shown in this F# implementation.
open System let width = int( Console.ReadLine() ) let height = int( Console.ReadLine() ) let arr = Array2D.create width height 0 arr.[0,0] <- 42 printfn "%d" arr.[0,0]
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Change the following F# code into C# without altering its purpose.
open System let width = int( Console.ReadLine() ) let height = int( Console.ReadLine() ) let arr = Array2D.create width height 0 arr.[0,0] <- 42 printfn "%d" arr.[0,0]
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Please provide an equivalent version of this F# code in C++.
open System let width = int( Console.ReadLine() ) let height = int( Console.ReadLine() ) let arr = Array2D.create width height 0 arr.[0,0] <- 42 printfn "%d" arr.[0,0]
#include <iostream> int main() { int dim1, dim2; std::cin >> dim1 >> dim2; double* array_data = new double[dim1*dim2]; double** array = new double*[dim1]; for (int i = 0; i < dim1; ++i) array[i] = array_data + dim2*i; array[0][0] = 3.5; std::cout << array[0][0] << std::endl; delete[] array; delete[] array_data; return 0; }
Convert this F# block to Java, preserving its control flow and logic.
open System let width = int( Console.ReadLine() ) let height = int( Console.ReadLine() ) let arr = Array2D.create width height 0 arr.[0,0] <- 42 printfn "%d" arr.[0,0]
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Maintain the same structure and functionality when rewriting this code in Python.
open System let width = int( Console.ReadLine() ) let height = int( Console.ReadLine() ) let arr = Array2D.create width height 0 arr.[0,0] <- 42 printfn "%d" arr.[0,0]
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Change the following F# code into VB without altering its purpose.
open System let width = int( Console.ReadLine() ) let height = int( Console.ReadLine() ) let arr = Array2D.create width height 0 arr.[0,0] <- 42 printfn "%d" arr.[0,0]
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Rewrite the snippet below in Go so it works the same as the original F# code.
open System let width = int( Console.ReadLine() ) let height = int( Console.ReadLine() ) let arr = Array2D.create width height 0 arr.[0,0] <- 42 printfn "%d" arr.[0,0]
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Convert this Factor block to C, preserving its control flow and logic.
USING: io kernel math.matrices math.parser prettyprint sequences ; IN: rosettacode.runtime2darray : set-Mi,j ( elt {i,j} matrix -- ) [ first2 swap ] dip nth set-nth ; : Mi,j ( {i,j} matrix -- elt ) [ first2 swap ] dip nth nth ; : example ( -- ) readln readln [ string>number ] bi@ zero-matrix [ [ 42 { 0 0 } ] dip set-Mi,j ] [ [ { 0 0 } ] dip Mi,j . ] bi ;
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Produce a language-to-language conversion: from Factor to C#, same semantics.
USING: io kernel math.matrices math.parser prettyprint sequences ; IN: rosettacode.runtime2darray : set-Mi,j ( elt {i,j} matrix -- ) [ first2 swap ] dip nth set-nth ; : Mi,j ( {i,j} matrix -- elt ) [ first2 swap ] dip nth nth ; : example ( -- ) readln readln [ string>number ] bi@ zero-matrix [ [ 42 { 0 0 } ] dip set-Mi,j ] [ [ { 0 0 } ] dip Mi,j . ] bi ;
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Change the programming language of this snippet from Factor to C++ without modifying what it does.
USING: io kernel math.matrices math.parser prettyprint sequences ; IN: rosettacode.runtime2darray : set-Mi,j ( elt {i,j} matrix -- ) [ first2 swap ] dip nth set-nth ; : Mi,j ( {i,j} matrix -- elt ) [ first2 swap ] dip nth nth ; : example ( -- ) readln readln [ string>number ] bi@ zero-matrix [ [ 42 { 0 0 } ] dip set-Mi,j ] [ [ { 0 0 } ] dip Mi,j . ] bi ;
#include <iostream> int main() { int dim1, dim2; std::cin >> dim1 >> dim2; double* array_data = new double[dim1*dim2]; double** array = new double*[dim1]; for (int i = 0; i < dim1; ++i) array[i] = array_data + dim2*i; array[0][0] = 3.5; std::cout << array[0][0] << std::endl; delete[] array; delete[] array_data; return 0; }
Rewrite this program in Java while keeping its functionality equivalent to the Factor version.
USING: io kernel math.matrices math.parser prettyprint sequences ; IN: rosettacode.runtime2darray : set-Mi,j ( elt {i,j} matrix -- ) [ first2 swap ] dip nth set-nth ; : Mi,j ( {i,j} matrix -- elt ) [ first2 swap ] dip nth nth ; : example ( -- ) readln readln [ string>number ] bi@ zero-matrix [ [ 42 { 0 0 } ] dip set-Mi,j ] [ [ { 0 0 } ] dip Mi,j . ] bi ;
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Produce a functionally identical Python code for the snippet given in Factor.
USING: io kernel math.matrices math.parser prettyprint sequences ; IN: rosettacode.runtime2darray : set-Mi,j ( elt {i,j} matrix -- ) [ first2 swap ] dip nth set-nth ; : Mi,j ( {i,j} matrix -- elt ) [ first2 swap ] dip nth nth ; : example ( -- ) readln readln [ string>number ] bi@ zero-matrix [ [ 42 { 0 0 } ] dip set-Mi,j ] [ [ { 0 0 } ] dip Mi,j . ] bi ;
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Rewrite the snippet below in VB so it works the same as the original Factor code.
USING: io kernel math.matrices math.parser prettyprint sequences ; IN: rosettacode.runtime2darray : set-Mi,j ( elt {i,j} matrix -- ) [ first2 swap ] dip nth set-nth ; : Mi,j ( {i,j} matrix -- elt ) [ first2 swap ] dip nth nth ; : example ( -- ) readln readln [ string>number ] bi@ zero-matrix [ [ 42 { 0 0 } ] dip set-Mi,j ] [ [ { 0 0 } ] dip Mi,j . ] bi ;
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Ensure the translated Go code behaves exactly like the original Factor snippet.
USING: io kernel math.matrices math.parser prettyprint sequences ; IN: rosettacode.runtime2darray : set-Mi,j ( elt {i,j} matrix -- ) [ first2 swap ] dip nth set-nth ; : Mi,j ( {i,j} matrix -- elt ) [ first2 swap ] dip nth nth ; : example ( -- ) readln readln [ string>number ] bi@ zero-matrix [ [ 42 { 0 0 } ] dip set-Mi,j ] [ [ { 0 0 } ] dip Mi,j . ] bi ;
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Convert this Forth snippet to C and keep its semantics consistent.
: cell-matrix create over , * cells allot does> dup cell+ >r @ * + cells r> + ; 5 5 cell-matrix test 36 0 0 test ! 0 0 test @ .
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Write the same algorithm in C# as shown in this Forth implementation.
: cell-matrix create over , * cells allot does> dup cell+ >r @ * + cells r> + ; 5 5 cell-matrix test 36 0 0 test ! 0 0 test @ .
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Keep all operations the same but rewrite the snippet in C++.
: cell-matrix create over , * cells allot does> dup cell+ >r @ * + cells r> + ; 5 5 cell-matrix test 36 0 0 test ! 0 0 test @ .
#include <iostream> int main() { int dim1, dim2; std::cin >> dim1 >> dim2; double* array_data = new double[dim1*dim2]; double** array = new double*[dim1]; for (int i = 0; i < dim1; ++i) array[i] = array_data + dim2*i; array[0][0] = 3.5; std::cout << array[0][0] << std::endl; delete[] array; delete[] array_data; return 0; }
Translate this program into Java but keep the logic exactly as in Forth.
: cell-matrix create over , * cells allot does> dup cell+ >r @ * + cells r> + ; 5 5 cell-matrix test 36 0 0 test ! 0 0 test @ .
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Generate a Python translation of this Forth snippet without changing its computational steps.
: cell-matrix create over , * cells allot does> dup cell+ >r @ * + cells r> + ; 5 5 cell-matrix test 36 0 0 test ! 0 0 test @ .
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Convert the following code from Forth to VB, ensuring the logic remains intact.
: cell-matrix create over , * cells allot does> dup cell+ >r @ * + cells r> + ; 5 5 cell-matrix test 36 0 0 test ! 0 0 test @ .
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Write the same algorithm in Go as shown in this Forth implementation.
: cell-matrix create over , * cells allot does> dup cell+ >r @ * + cells r> + ; 5 5 cell-matrix test 36 0 0 test ! 0 0 test @ .
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Please provide an equivalent version of this Fortran code in C#.
PROGRAM Example IMPLICIT NONE INTEGER :: rows, columns, errcheck INTEGER, ALLOCATABLE :: array(:,:) WRITE(*,*) "Enter number of rows" READ(*,*) rows WRITE(*,*) "Enter number of columns" READ(*,*) columns ALLOCATE (array(rows,columns), STAT=errcheck) array(1,1) = 42 WRITE(*,*) array(1,1) DEALLOCATE (array, STAT=errcheck) END PROGRAM Example
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Change the following Fortran code into C++ without altering its purpose.
PROGRAM Example IMPLICIT NONE INTEGER :: rows, columns, errcheck INTEGER, ALLOCATABLE :: array(:,:) WRITE(*,*) "Enter number of rows" READ(*,*) rows WRITE(*,*) "Enter number of columns" READ(*,*) columns ALLOCATE (array(rows,columns), STAT=errcheck) array(1,1) = 42 WRITE(*,*) array(1,1) DEALLOCATE (array, STAT=errcheck) END PROGRAM Example
#include <iostream> int main() { int dim1, dim2; std::cin >> dim1 >> dim2; double* array_data = new double[dim1*dim2]; double** array = new double*[dim1]; for (int i = 0; i < dim1; ++i) array[i] = array_data + dim2*i; array[0][0] = 3.5; std::cout << array[0][0] << std::endl; delete[] array; delete[] array_data; return 0; }
Preserve the algorithm and functionality while converting the code from Fortran to C.
PROGRAM Example IMPLICIT NONE INTEGER :: rows, columns, errcheck INTEGER, ALLOCATABLE :: array(:,:) WRITE(*,*) "Enter number of rows" READ(*,*) rows WRITE(*,*) "Enter number of columns" READ(*,*) columns ALLOCATE (array(rows,columns), STAT=errcheck) array(1,1) = 42 WRITE(*,*) array(1,1) DEALLOCATE (array, STAT=errcheck) END PROGRAM Example
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Change the programming language of this snippet from Fortran to Java without modifying what it does.
PROGRAM Example IMPLICIT NONE INTEGER :: rows, columns, errcheck INTEGER, ALLOCATABLE :: array(:,:) WRITE(*,*) "Enter number of rows" READ(*,*) rows WRITE(*,*) "Enter number of columns" READ(*,*) columns ALLOCATE (array(rows,columns), STAT=errcheck) array(1,1) = 42 WRITE(*,*) array(1,1) DEALLOCATE (array, STAT=errcheck) END PROGRAM Example
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Translate the given Fortran code snippet into Python without altering its behavior.
PROGRAM Example IMPLICIT NONE INTEGER :: rows, columns, errcheck INTEGER, ALLOCATABLE :: array(:,:) WRITE(*,*) "Enter number of rows" READ(*,*) rows WRITE(*,*) "Enter number of columns" READ(*,*) columns ALLOCATE (array(rows,columns), STAT=errcheck) array(1,1) = 42 WRITE(*,*) array(1,1) DEALLOCATE (array, STAT=errcheck) END PROGRAM Example
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Transform the following Fortran implementation into VB, maintaining the same output and logic.
PROGRAM Example IMPLICIT NONE INTEGER :: rows, columns, errcheck INTEGER, ALLOCATABLE :: array(:,:) WRITE(*,*) "Enter number of rows" READ(*,*) rows WRITE(*,*) "Enter number of columns" READ(*,*) columns ALLOCATE (array(rows,columns), STAT=errcheck) array(1,1) = 42 WRITE(*,*) array(1,1) DEALLOCATE (array, STAT=errcheck) END PROGRAM Example
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Convert this Groovy block to C, preserving its control flow and logic.
def make2d = { nrows, ncols -> (0..<nrows).collect { [0]*ncols } }
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Convert this Groovy snippet to C# and keep its semantics consistent.
def make2d = { nrows, ncols -> (0..<nrows).collect { [0]*ncols } }
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Produce a language-to-language conversion: from Groovy to C++, same semantics.
def make2d = { nrows, ncols -> (0..<nrows).collect { [0]*ncols } }
#include <iostream> int main() { int dim1, dim2; std::cin >> dim1 >> dim2; double* array_data = new double[dim1*dim2]; double** array = new double*[dim1]; for (int i = 0; i < dim1; ++i) array[i] = array_data + dim2*i; array[0][0] = 3.5; std::cout << array[0][0] << std::endl; delete[] array; delete[] array_data; return 0; }
Maintain the same structure and functionality when rewriting this code in Java.
def make2d = { nrows, ncols -> (0..<nrows).collect { [0]*ncols } }
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Generate an equivalent Python version of this Groovy code.
def make2d = { nrows, ncols -> (0..<nrows).collect { [0]*ncols } }
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Port the provided Groovy code into VB while preserving the original functionality.
def make2d = { nrows, ncols -> (0..<nrows).collect { [0]*ncols } }
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Write the same algorithm in Go as shown in this Groovy implementation.
def make2d = { nrows, ncols -> (0..<nrows).collect { [0]*ncols } }
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Change the programming language of this snippet from Haskell to C without modifying what it does.
import Data.Array doit n m = a!(0,0) where a = array ((0,0),(n,m)) [((0,0),42)]
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Port the provided Haskell code into C# while preserving the original functionality.
import Data.Array doit n m = a!(0,0) where a = array ((0,0),(n,m)) [((0,0),42)]
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Produce a language-to-language conversion: from Haskell to Java, same semantics.
import Data.Array doit n m = a!(0,0) where a = array ((0,0),(n,m)) [((0,0),42)]
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Port the provided Haskell code into Python while preserving the original functionality.
import Data.Array doit n m = a!(0,0) where a = array ((0,0),(n,m)) [((0,0),42)]
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Ensure the translated VB code behaves exactly like the original Haskell snippet.
import Data.Array doit n m = a!(0,0) where a = array ((0,0),(n,m)) [((0,0),42)]
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Generate a Go translation of this Haskell snippet without changing its computational steps.
import Data.Array doit n m = a!(0,0) where a = array ((0,0),(n,m)) [((0,0),42)]
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Generate an equivalent C version of this Icon code.
procedure main(args) nr := integer(args[1]) | 3 nc := integer(args[2]) | 3 A := list(nr) every !A := list(nc) x := ?nr y := ?nc A[x][y] := &pi write("A[",x,"][",y,"] -> ",A[x][y]) end
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Produce a language-to-language conversion: from Icon to C#, same semantics.
procedure main(args) nr := integer(args[1]) | 3 nc := integer(args[2]) | 3 A := list(nr) every !A := list(nc) x := ?nr y := ?nc A[x][y] := &pi write("A[",x,"][",y,"] -> ",A[x][y]) end
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Write the same algorithm in C++ as shown in this Icon implementation.
procedure main(args) nr := integer(args[1]) | 3 nc := integer(args[2]) | 3 A := list(nr) every !A := list(nc) x := ?nr y := ?nc A[x][y] := &pi write("A[",x,"][",y,"] -> ",A[x][y]) end
#include <iostream> int main() { int dim1, dim2; std::cin >> dim1 >> dim2; double* array_data = new double[dim1*dim2]; double** array = new double*[dim1]; for (int i = 0; i < dim1; ++i) array[i] = array_data + dim2*i; array[0][0] = 3.5; std::cout << array[0][0] << std::endl; delete[] array; delete[] array_data; return 0; }
Translate the given Icon code snippet into Java without altering its behavior.
procedure main(args) nr := integer(args[1]) | 3 nc := integer(args[2]) | 3 A := list(nr) every !A := list(nc) x := ?nr y := ?nc A[x][y] := &pi write("A[",x,"][",y,"] -> ",A[x][y]) end
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Translate the given Icon code snippet into Python without altering its behavior.
procedure main(args) nr := integer(args[1]) | 3 nc := integer(args[2]) | 3 A := list(nr) every !A := list(nc) x := ?nr y := ?nc A[x][y] := &pi write("A[",x,"][",y,"] -> ",A[x][y]) end
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Write the same code in VB as shown below in Icon.
procedure main(args) nr := integer(args[1]) | 3 nc := integer(args[2]) | 3 A := list(nr) every !A := list(nc) x := ?nr y := ?nc A[x][y] := &pi write("A[",x,"][",y,"] -> ",A[x][y]) end
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Convert the following code from Icon to Go, ensuring the logic remains intact.
procedure main(args) nr := integer(args[1]) | 3 nc := integer(args[2]) | 3 A := list(nr) every !A := list(nc) x := ?nr y := ?nc A[x][y] := &pi write("A[",x,"][",y,"] -> ",A[x][y]) end
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Maintain the same structure and functionality when rewriting this code in C.
array1=:i. 3 4 array2=: 5 6 $ 2
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Convert this J snippet to C# and keep its semantics consistent.
array1=:i. 3 4 array2=: 5 6 $ 2
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Please provide an equivalent version of this J code in C++.
array1=:i. 3 4 array2=: 5 6 $ 2
#include <iostream> int main() { int dim1, dim2; std::cin >> dim1 >> dim2; double* array_data = new double[dim1*dim2]; double** array = new double*[dim1]; for (int i = 0; i < dim1; ++i) array[i] = array_data + dim2*i; array[0][0] = 3.5; std::cout << array[0][0] << std::endl; delete[] array; delete[] array_data; return 0; }
Generate a Java translation of this J snippet without changing its computational steps.
array1=:i. 3 4 array2=: 5 6 $ 2
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Port the following code from J to Python with equivalent syntax and logic.
array1=:i. 3 4 array2=: 5 6 $ 2
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Change the following J code into VB without altering its purpose.
array1=:i. 3 4 array2=: 5 6 $ 2
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Please provide an equivalent version of this J code in Go.
array1=:i. 3 4 array2=: 5 6 $ 2
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Write a version of this Julia function in C with identical behavior.
function input(prompt::AbstractString) print(prompt) return readline() end n = input("Upper bound for dimension 1: ") |> x -> parse(Int, x) m = input("Upper bound for dimension 2: ") |> x -> parse(Int, x) x = rand(n, m) display(x) x[3, 3] x[3, 3] = 5.0 x::Matrix x = 0; gc()
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Keep all operations the same but rewrite the snippet in C#.
function input(prompt::AbstractString) print(prompt) return readline() end n = input("Upper bound for dimension 1: ") |> x -> parse(Int, x) m = input("Upper bound for dimension 2: ") |> x -> parse(Int, x) x = rand(n, m) display(x) x[3, 3] x[3, 3] = 5.0 x::Matrix x = 0; gc()
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }
Port the following code from Julia to C++ with equivalent syntax and logic.
function input(prompt::AbstractString) print(prompt) return readline() end n = input("Upper bound for dimension 1: ") |> x -> parse(Int, x) m = input("Upper bound for dimension 2: ") |> x -> parse(Int, x) x = rand(n, m) display(x) x[3, 3] x[3, 3] = 5.0 x::Matrix x = 0; gc()
#include <iostream> int main() { int dim1, dim2; std::cin >> dim1 >> dim2; double* array_data = new double[dim1*dim2]; double** array = new double*[dim1]; for (int i = 0; i < dim1; ++i) array[i] = array_data + dim2*i; array[0][0] = 3.5; std::cout << array[0][0] << std::endl; delete[] array; delete[] array_data; return 0; }
Rewrite the snippet below in Java so it works the same as the original Julia code.
function input(prompt::AbstractString) print(prompt) return readline() end n = input("Upper bound for dimension 1: ") |> x -> parse(Int, x) m = input("Upper bound for dimension 2: ") |> x -> parse(Int, x) x = rand(n, m) display(x) x[3, 3] x[3, 3] = 5.0 x::Matrix x = 0; gc()
import java.util.Scanner; public class twoDimArray { public static void main(String[] args) { Scanner in = new Scanner(System.in); int nbr1 = in.nextInt(); int nbr2 = in.nextInt(); double[][] array = new double[nbr1][nbr2]; array[0][0] = 42.0; System.out.println("The number at place [0 0] is " + array[0][0]); } }
Preserve the algorithm and functionality while converting the code from Julia to Python.
function input(prompt::AbstractString) print(prompt) return readline() end n = input("Upper bound for dimension 1: ") |> x -> parse(Int, x) m = input("Upper bound for dimension 2: ") |> x -> parse(Int, x) x = rand(n, m) display(x) x[3, 3] x[3, 3] = 5.0 x::Matrix x = 0; gc()
width = int(raw_input("Width of myarray: ")) height = int(raw_input("Height of Array: ")) myarray = [[0] * width for i in range(height)] myarray[0][0] = 3.5 print (myarray[0][0])
Produce a functionally identical VB code for the snippet given in Julia.
function input(prompt::AbstractString) print(prompt) return readline() end n = input("Upper bound for dimension 1: ") |> x -> parse(Int, x) m = input("Upper bound for dimension 2: ") |> x -> parse(Int, x) x = rand(n, m) display(x) x[3, 3] x[3, 3] = 5.0 x::Matrix x = 0; gc()
Module Program Sub Main() Console.WriteLine("Enter two space-delimited integers:") Dim input = Console.ReadLine().Split() Dim rows = Integer.Parse(input(0)) Dim cols = Integer.Parse(input(1)) Dim arr(rows - 1, cols - 1) As Integer arr(0, 0) = 2 Console.WriteLine(arr(0, 0)) End Sub End Module
Translate the given Julia code snippet into Go without altering its behavior.
function input(prompt::AbstractString) print(prompt) return readline() end n = input("Upper bound for dimension 1: ") |> x -> parse(Int, x) m = input("Upper bound for dimension 2: ") |> x -> parse(Int, x) x = rand(n, m) display(x) x[3, 3] x[3, 3] = 5.0 x::Matrix x = 0; gc()
package main import "fmt" func main() { var row, col int fmt.Print("enter rows cols: ") fmt.Scan(&row, &col) a := make([][]int, row) for i := range a { a[i] = make([]int, col) } fmt.Println("a[0][0] =", a[0][0]) a[row-1][col-1] = 7 fmt.Printf("a[%d][%d] = %d\n", row-1, col-1, a[row-1][col-1]) a = nil }
Can you help me rewrite this code in C instead of Lua, keeping it the same logically?
function multiply(n, a, b) if a <= b then return n, multiply(n, a + 1, b) end end a, b = io.read() + 0, io.read() + 0 matrix = {multiply({multiply(1, 1, b)}, 1, a)} matrix[a][b] = 5 print(matrix[a][b]) print(matrix[1][1])
#include <stdio.h> int main(int argc, char **argv) { int user1 = 0, user2 = 0; printf("Enter two integers. Space delimited, please: "); scanf("%d %d",&user1, &user2); int array[user1][user2]; array[user1/2][user2/2] = user1 + user2; printf("array[%d][%d] is %d\n",user1/2,user2/2,array[user1/2][user2/2]); return 0; }
Maintain the same structure and functionality when rewriting this code in C#.
function multiply(n, a, b) if a <= b then return n, multiply(n, a + 1, b) end end a, b = io.read() + 0, io.read() + 0 matrix = {multiply({multiply(1, 1, b)}, 1, a)} matrix[a][b] = 5 print(matrix[a][b]) print(matrix[1][1])
class Program { static void Main(string[] args) { Console.WriteLine("Enter two integers. Space delimited please: "); string s = Console.ReadLine(); int[,] myArray=new int[(int)s[0],(int)s[2]]; myArray[0, 0] = 2; Console.WriteLine(myArray[0, 0]); Console.ReadLine(); } }