Instruction stringlengths 45 106 | input_code stringlengths 1 13.7k | output_code stringlengths 1 13.7k |
|---|---|---|
Change the programming language of this snippet from OCaml to C# without modifying what it does. | let a r = print_endline " > function a called"; r
let b r = print_endline " > function b called"; r
let test_and b1 b2 =
Printf.printf "# testing (%b && %b)\n" b1 b2;
ignore (a b1 && b b2)
let test_or b1 b2 =
Printf.printf "# testing (%b || %b)\n" b1 b2;
ignore (a b1 || b b2)
let test_this test =
test true true;
test true false;
test false true;
test false false;
;;
let () =
print_endline "==== Testing and ====";
test_this test_and;
print_endline "==== Testing or ====";
test_this test_or;
;;
| using System;
class Program
{
static bool a(bool value)
{
Console.WriteLine("a");
return value;
}
static bool b(bool value)
{
Console.WriteLine("b");
return value;
}
static void Main()
{
foreach (var i in new[] { false, true })
{
foreach (var j in new[] { false, true })
{
Console.WriteLine("{0} and {1} = {2}", i, j, a(i) && b(j));
Console.WriteLine();
Console.WriteLine("{0} or {1} = {2}", i, j, a(i) || b(j));
Console.WriteLine();
}
}
}
}
|
Produce a functionally identical C++ code for the snippet given in OCaml. | let a r = print_endline " > function a called"; r
let b r = print_endline " > function b called"; r
let test_and b1 b2 =
Printf.printf "# testing (%b && %b)\n" b1 b2;
ignore (a b1 && b b2)
let test_or b1 b2 =
Printf.printf "# testing (%b || %b)\n" b1 b2;
ignore (a b1 || b b2)
let test_this test =
test true true;
test true false;
test false true;
test false false;
;;
let () =
print_endline "==== Testing and ====";
test_this test_and;
print_endline "==== Testing or ====";
test_this test_or;
;;
| #include <iostream>
bool a(bool in)
{
std::cout << "a" << std::endl;
return in;
}
bool b(bool in)
{
std::cout << "b" << std::endl;
return in;
}
void test(bool i, bool j) {
std::cout << std::boolalpha << i << " and " << j << " = " << (a(i) && b(j)) << std::endl;
std::cout << std::boolalpha << i << " or " << j << " = " << (a(i) || b(j)) << std::endl;
}
int main()
{
test(false, false);
test(false, true);
test(true, false);
test(true, true);
return 0;
}
|
Port the following code from OCaml to Java with equivalent syntax and logic. | let a r = print_endline " > function a called"; r
let b r = print_endline " > function b called"; r
let test_and b1 b2 =
Printf.printf "# testing (%b && %b)\n" b1 b2;
ignore (a b1 && b b2)
let test_or b1 b2 =
Printf.printf "# testing (%b || %b)\n" b1 b2;
ignore (a b1 || b b2)
let test_this test =
test true true;
test true false;
test false true;
test false false;
;;
let () =
print_endline "==== Testing and ====";
test_this test_and;
print_endline "==== Testing or ====";
test_this test_or;
;;
| module test
{
@Inject Console console;
static Boolean show(String name, Boolean value)
{
console.print($"{name}()={value}");
return value;
}
void run()
{
val a = show("a", _);
val b = show("b", _);
for (Boolean v1 : False..True)
{
for (Boolean v2 : False..True)
{
console.print($"a({v1}) && b({v2}) == {a(v1) && b(v2)}");
console.print();
console.print($"a({v1}) || b({v2}) == {a(v1) || b(v2)}");
console.print();
}
}
}
}
|
Generate an equivalent Python version of this OCaml code. | let a r = print_endline " > function a called"; r
let b r = print_endline " > function b called"; r
let test_and b1 b2 =
Printf.printf "# testing (%b && %b)\n" b1 b2;
ignore (a b1 && b b2)
let test_or b1 b2 =
Printf.printf "# testing (%b || %b)\n" b1 b2;
ignore (a b1 || b b2)
let test_this test =
test true true;
test true false;
test false true;
test false false;
;;
let () =
print_endline "==== Testing and ====";
test_this test_and;
print_endline "==== Testing or ====";
test_this test_or;
;;
| >>> def a(answer):
print("
return answer
>>> def b(answer):
print("
return answer
>>> for i in (False, True):
for j in (False, True):
print ("\nCalculating: x = a(i) and b(j)")
x = a(i) and b(j)
print ("Calculating: y = a(i) or b(j)")
y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
|
Write the same algorithm in VB as shown in this OCaml implementation. | let a r = print_endline " > function a called"; r
let b r = print_endline " > function b called"; r
let test_and b1 b2 =
Printf.printf "# testing (%b && %b)\n" b1 b2;
ignore (a b1 && b b2)
let test_or b1 b2 =
Printf.printf "# testing (%b || %b)\n" b1 b2;
ignore (a b1 || b b2)
let test_this test =
test true true;
test true false;
test false true;
test false false;
;;
let () =
print_endline "==== Testing and ====";
test_this test_and;
print_endline "==== Testing or ====";
test_this test_or;
;;
| Private Function a(i As Variant) As Boolean
Debug.Print "a: "; i = 1,
a = i
End Function
Private Function b(j As Variant) As Boolean
Debug.Print "b: "; j = 1;
b = j
End Function
Public Sub short_circuit()
Dim x As Boolean, y As Boolean
Debug.Print "=====AND=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print "======OR=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If Not a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print
End Sub
|
Generate a Go translation of this OCaml snippet without changing its computational steps. | let a r = print_endline " > function a called"; r
let b r = print_endline " > function b called"; r
let test_and b1 b2 =
Printf.printf "# testing (%b && %b)\n" b1 b2;
ignore (a b1 && b b2)
let test_or b1 b2 =
Printf.printf "# testing (%b || %b)\n" b1 b2;
ignore (a b1 || b b2)
let test_this test =
test true true;
test true false;
test false true;
test false false;
;;
let () =
print_endline "==== Testing and ====";
test_this test_and;
print_endline "==== Testing or ====";
test_this test_or;
;;
| package main
import "fmt"
func a(v bool) bool {
fmt.Print("a")
return v
}
func b(v bool) bool {
fmt.Print("b")
return v
}
func test(i, j bool) {
fmt.Printf("Testing a(%t) && b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) && b(j))
fmt.Printf("Testing a(%t) || b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) || b(j))
fmt.Println("")
}
func main() {
test(false, false)
test(false, true)
test(true, false)
test(true, true)
}
|
Port the following code from Pascal to C with equivalent syntax and logic. | program shortcircuit(output);
function a(value: boolean): boolean;
begin
writeln('a(', value, ')');
a := value
end;
function b(value:boolean): boolean;
begin
writeln('b(', value, ')');
b := value
end;
procedure scandor(value1, value2: boolean);
var
result: boolean;
begin
if a(value1)
then
result := b(value2)
else
result := false;
writeln(value1, ' and ', value2, ' = ', result);
if a(value1)
then
result := true
else
result := b(value2)
writeln(value1, ' or ', value2, ' = ', result);
end;
begin
scandor(false, false);
scandor(false, true);
scandor(true, false);
scandor(true, true);
end.
| #include <stdio.h>
#include <stdbool.h>
bool a(bool in)
{
printf("I am a\n");
return in;
}
bool b(bool in)
{
printf("I am b\n");
return in;
}
#define TEST(X,Y,O) \
do { \
x = a(X) O b(Y); \
printf(#X " " #O " " #Y " = %s\n\n", x ? "true" : "false"); \
} while(false);
int main()
{
bool x;
TEST(false, true, &&);
TEST(true, false, ||);
TEST(true, false, &&);
TEST(false, false, ||);
return 0;
}
|
Translate this program into C# but keep the logic exactly as in Pascal. | program shortcircuit(output);
function a(value: boolean): boolean;
begin
writeln('a(', value, ')');
a := value
end;
function b(value:boolean): boolean;
begin
writeln('b(', value, ')');
b := value
end;
procedure scandor(value1, value2: boolean);
var
result: boolean;
begin
if a(value1)
then
result := b(value2)
else
result := false;
writeln(value1, ' and ', value2, ' = ', result);
if a(value1)
then
result := true
else
result := b(value2)
writeln(value1, ' or ', value2, ' = ', result);
end;
begin
scandor(false, false);
scandor(false, true);
scandor(true, false);
scandor(true, true);
end.
| using System;
class Program
{
static bool a(bool value)
{
Console.WriteLine("a");
return value;
}
static bool b(bool value)
{
Console.WriteLine("b");
return value;
}
static void Main()
{
foreach (var i in new[] { false, true })
{
foreach (var j in new[] { false, true })
{
Console.WriteLine("{0} and {1} = {2}", i, j, a(i) && b(j));
Console.WriteLine();
Console.WriteLine("{0} or {1} = {2}", i, j, a(i) || b(j));
Console.WriteLine();
}
}
}
}
|
Translate the given Pascal code snippet into C++ without altering its behavior. | program shortcircuit(output);
function a(value: boolean): boolean;
begin
writeln('a(', value, ')');
a := value
end;
function b(value:boolean): boolean;
begin
writeln('b(', value, ')');
b := value
end;
procedure scandor(value1, value2: boolean);
var
result: boolean;
begin
if a(value1)
then
result := b(value2)
else
result := false;
writeln(value1, ' and ', value2, ' = ', result);
if a(value1)
then
result := true
else
result := b(value2)
writeln(value1, ' or ', value2, ' = ', result);
end;
begin
scandor(false, false);
scandor(false, true);
scandor(true, false);
scandor(true, true);
end.
| #include <iostream>
bool a(bool in)
{
std::cout << "a" << std::endl;
return in;
}
bool b(bool in)
{
std::cout << "b" << std::endl;
return in;
}
void test(bool i, bool j) {
std::cout << std::boolalpha << i << " and " << j << " = " << (a(i) && b(j)) << std::endl;
std::cout << std::boolalpha << i << " or " << j << " = " << (a(i) || b(j)) << std::endl;
}
int main()
{
test(false, false);
test(false, true);
test(true, false);
test(true, true);
return 0;
}
|
Change the programming language of this snippet from Pascal to Java without modifying what it does. | program shortcircuit(output);
function a(value: boolean): boolean;
begin
writeln('a(', value, ')');
a := value
end;
function b(value:boolean): boolean;
begin
writeln('b(', value, ')');
b := value
end;
procedure scandor(value1, value2: boolean);
var
result: boolean;
begin
if a(value1)
then
result := b(value2)
else
result := false;
writeln(value1, ' and ', value2, ' = ', result);
if a(value1)
then
result := true
else
result := b(value2)
writeln(value1, ' or ', value2, ' = ', result);
end;
begin
scandor(false, false);
scandor(false, true);
scandor(true, false);
scandor(true, true);
end.
| module test
{
@Inject Console console;
static Boolean show(String name, Boolean value)
{
console.print($"{name}()={value}");
return value;
}
void run()
{
val a = show("a", _);
val b = show("b", _);
for (Boolean v1 : False..True)
{
for (Boolean v2 : False..True)
{
console.print($"a({v1}) && b({v2}) == {a(v1) && b(v2)}");
console.print();
console.print($"a({v1}) || b({v2}) == {a(v1) || b(v2)}");
console.print();
}
}
}
}
|
Translate this program into Python but keep the logic exactly as in Pascal. | program shortcircuit(output);
function a(value: boolean): boolean;
begin
writeln('a(', value, ')');
a := value
end;
function b(value:boolean): boolean;
begin
writeln('b(', value, ')');
b := value
end;
procedure scandor(value1, value2: boolean);
var
result: boolean;
begin
if a(value1)
then
result := b(value2)
else
result := false;
writeln(value1, ' and ', value2, ' = ', result);
if a(value1)
then
result := true
else
result := b(value2)
writeln(value1, ' or ', value2, ' = ', result);
end;
begin
scandor(false, false);
scandor(false, true);
scandor(true, false);
scandor(true, true);
end.
| >>> def a(answer):
print("
return answer
>>> def b(answer):
print("
return answer
>>> for i in (False, True):
for j in (False, True):
print ("\nCalculating: x = a(i) and b(j)")
x = a(i) and b(j)
print ("Calculating: y = a(i) or b(j)")
y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
|
Write a version of this Pascal function in VB with identical behavior. | program shortcircuit(output);
function a(value: boolean): boolean;
begin
writeln('a(', value, ')');
a := value
end;
function b(value:boolean): boolean;
begin
writeln('b(', value, ')');
b := value
end;
procedure scandor(value1, value2: boolean);
var
result: boolean;
begin
if a(value1)
then
result := b(value2)
else
result := false;
writeln(value1, ' and ', value2, ' = ', result);
if a(value1)
then
result := true
else
result := b(value2)
writeln(value1, ' or ', value2, ' = ', result);
end;
begin
scandor(false, false);
scandor(false, true);
scandor(true, false);
scandor(true, true);
end.
| Private Function a(i As Variant) As Boolean
Debug.Print "a: "; i = 1,
a = i
End Function
Private Function b(j As Variant) As Boolean
Debug.Print "b: "; j = 1;
b = j
End Function
Public Sub short_circuit()
Dim x As Boolean, y As Boolean
Debug.Print "=====AND=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print "======OR=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If Not a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print
End Sub
|
Write a version of this Pascal function in Go with identical behavior. | program shortcircuit(output);
function a(value: boolean): boolean;
begin
writeln('a(', value, ')');
a := value
end;
function b(value:boolean): boolean;
begin
writeln('b(', value, ')');
b := value
end;
procedure scandor(value1, value2: boolean);
var
result: boolean;
begin
if a(value1)
then
result := b(value2)
else
result := false;
writeln(value1, ' and ', value2, ' = ', result);
if a(value1)
then
result := true
else
result := b(value2)
writeln(value1, ' or ', value2, ' = ', result);
end;
begin
scandor(false, false);
scandor(false, true);
scandor(true, false);
scandor(true, true);
end.
| package main
import "fmt"
func a(v bool) bool {
fmt.Print("a")
return v
}
func b(v bool) bool {
fmt.Print("b")
return v
}
func test(i, j bool) {
fmt.Printf("Testing a(%t) && b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) && b(j))
fmt.Printf("Testing a(%t) || b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) || b(j))
fmt.Println("")
}
func main() {
test(false, false)
test(false, true)
test(true, false)
test(true, true)
}
|
Ensure the translated C code behaves exactly like the original Perl snippet. | sub a { print 'A'; return $_[0] }
sub b { print 'B'; return $_[0] }
sub test {
for my $op ('&&','||') {
for (qw(1,1 1,0 0,1 0,0)) {
my ($x,$y) = /(.),(.)/;
print my $str = "a($x) $op b($y)", ': ';
eval $str; print "\n"; } }
}
test();
| #include <stdio.h>
#include <stdbool.h>
bool a(bool in)
{
printf("I am a\n");
return in;
}
bool b(bool in)
{
printf("I am b\n");
return in;
}
#define TEST(X,Y,O) \
do { \
x = a(X) O b(Y); \
printf(#X " " #O " " #Y " = %s\n\n", x ? "true" : "false"); \
} while(false);
int main()
{
bool x;
TEST(false, true, &&);
TEST(true, false, ||);
TEST(true, false, &&);
TEST(false, false, ||);
return 0;
}
|
Change the following Perl code into C# without altering its purpose. | sub a { print 'A'; return $_[0] }
sub b { print 'B'; return $_[0] }
sub test {
for my $op ('&&','||') {
for (qw(1,1 1,0 0,1 0,0)) {
my ($x,$y) = /(.),(.)/;
print my $str = "a($x) $op b($y)", ': ';
eval $str; print "\n"; } }
}
test();
| using System;
class Program
{
static bool a(bool value)
{
Console.WriteLine("a");
return value;
}
static bool b(bool value)
{
Console.WriteLine("b");
return value;
}
static void Main()
{
foreach (var i in new[] { false, true })
{
foreach (var j in new[] { false, true })
{
Console.WriteLine("{0} and {1} = {2}", i, j, a(i) && b(j));
Console.WriteLine();
Console.WriteLine("{0} or {1} = {2}", i, j, a(i) || b(j));
Console.WriteLine();
}
}
}
}
|
Transform the following Perl implementation into C++, maintaining the same output and logic. | sub a { print 'A'; return $_[0] }
sub b { print 'B'; return $_[0] }
sub test {
for my $op ('&&','||') {
for (qw(1,1 1,0 0,1 0,0)) {
my ($x,$y) = /(.),(.)/;
print my $str = "a($x) $op b($y)", ': ';
eval $str; print "\n"; } }
}
test();
| #include <iostream>
bool a(bool in)
{
std::cout << "a" << std::endl;
return in;
}
bool b(bool in)
{
std::cout << "b" << std::endl;
return in;
}
void test(bool i, bool j) {
std::cout << std::boolalpha << i << " and " << j << " = " << (a(i) && b(j)) << std::endl;
std::cout << std::boolalpha << i << " or " << j << " = " << (a(i) || b(j)) << std::endl;
}
int main()
{
test(false, false);
test(false, true);
test(true, false);
test(true, true);
return 0;
}
|
Ensure the translated Java code behaves exactly like the original Perl snippet. | sub a { print 'A'; return $_[0] }
sub b { print 'B'; return $_[0] }
sub test {
for my $op ('&&','||') {
for (qw(1,1 1,0 0,1 0,0)) {
my ($x,$y) = /(.),(.)/;
print my $str = "a($x) $op b($y)", ': ';
eval $str; print "\n"; } }
}
test();
| module test
{
@Inject Console console;
static Boolean show(String name, Boolean value)
{
console.print($"{name}()={value}");
return value;
}
void run()
{
val a = show("a", _);
val b = show("b", _);
for (Boolean v1 : False..True)
{
for (Boolean v2 : False..True)
{
console.print($"a({v1}) && b({v2}) == {a(v1) && b(v2)}");
console.print();
console.print($"a({v1}) || b({v2}) == {a(v1) || b(v2)}");
console.print();
}
}
}
}
|
Preserve the algorithm and functionality while converting the code from Perl to Python. | sub a { print 'A'; return $_[0] }
sub b { print 'B'; return $_[0] }
sub test {
for my $op ('&&','||') {
for (qw(1,1 1,0 0,1 0,0)) {
my ($x,$y) = /(.),(.)/;
print my $str = "a($x) $op b($y)", ': ';
eval $str; print "\n"; } }
}
test();
| >>> def a(answer):
print("
return answer
>>> def b(answer):
print("
return answer
>>> for i in (False, True):
for j in (False, True):
print ("\nCalculating: x = a(i) and b(j)")
x = a(i) and b(j)
print ("Calculating: y = a(i) or b(j)")
y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
|
Generate a VB translation of this Perl snippet without changing its computational steps. | sub a { print 'A'; return $_[0] }
sub b { print 'B'; return $_[0] }
sub test {
for my $op ('&&','||') {
for (qw(1,1 1,0 0,1 0,0)) {
my ($x,$y) = /(.),(.)/;
print my $str = "a($x) $op b($y)", ': ';
eval $str; print "\n"; } }
}
test();
| Private Function a(i As Variant) As Boolean
Debug.Print "a: "; i = 1,
a = i
End Function
Private Function b(j As Variant) As Boolean
Debug.Print "b: "; j = 1;
b = j
End Function
Public Sub short_circuit()
Dim x As Boolean, y As Boolean
Debug.Print "=====AND=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print "======OR=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If Not a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print
End Sub
|
Rewrite this program in Go while keeping its functionality equivalent to the Perl version. | sub a { print 'A'; return $_[0] }
sub b { print 'B'; return $_[0] }
sub test {
for my $op ('&&','||') {
for (qw(1,1 1,0 0,1 0,0)) {
my ($x,$y) = /(.),(.)/;
print my $str = "a($x) $op b($y)", ': ';
eval $str; print "\n"; } }
}
test();
| package main
import "fmt"
func a(v bool) bool {
fmt.Print("a")
return v
}
func b(v bool) bool {
fmt.Print("b")
return v
}
func test(i, j bool) {
fmt.Printf("Testing a(%t) && b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) && b(j))
fmt.Printf("Testing a(%t) || b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) || b(j))
fmt.Println("")
}
func main() {
test(false, false)
test(false, true)
test(true, false)
test(true, true)
}
|
Write a version of this PowerShell function in C with identical behavior. |
function a ( [boolean]$J ) { return $J }
function b ( [boolean]$J ) { Sleep -Seconds 2; return $J }
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
Measure-Command {
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
} | Select TotalMilliseconds
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
Measure-Command {
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
} | Select TotalMilliseconds
| #include <stdio.h>
#include <stdbool.h>
bool a(bool in)
{
printf("I am a\n");
return in;
}
bool b(bool in)
{
printf("I am b\n");
return in;
}
#define TEST(X,Y,O) \
do { \
x = a(X) O b(Y); \
printf(#X " " #O " " #Y " = %s\n\n", x ? "true" : "false"); \
} while(false);
int main()
{
bool x;
TEST(false, true, &&);
TEST(true, false, ||);
TEST(true, false, &&);
TEST(false, false, ||);
return 0;
}
|
Generate a C# translation of this PowerShell snippet without changing its computational steps. |
function a ( [boolean]$J ) { return $J }
function b ( [boolean]$J ) { Sleep -Seconds 2; return $J }
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
Measure-Command {
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
} | Select TotalMilliseconds
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
Measure-Command {
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
} | Select TotalMilliseconds
| using System;
class Program
{
static bool a(bool value)
{
Console.WriteLine("a");
return value;
}
static bool b(bool value)
{
Console.WriteLine("b");
return value;
}
static void Main()
{
foreach (var i in new[] { false, true })
{
foreach (var j in new[] { false, true })
{
Console.WriteLine("{0} and {1} = {2}", i, j, a(i) && b(j));
Console.WriteLine();
Console.WriteLine("{0} or {1} = {2}", i, j, a(i) || b(j));
Console.WriteLine();
}
}
}
}
|
Convert the following code from PowerShell to C++, ensuring the logic remains intact. |
function a ( [boolean]$J ) { return $J }
function b ( [boolean]$J ) { Sleep -Seconds 2; return $J }
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
Measure-Command {
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
} | Select TotalMilliseconds
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
Measure-Command {
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
} | Select TotalMilliseconds
| #include <iostream>
bool a(bool in)
{
std::cout << "a" << std::endl;
return in;
}
bool b(bool in)
{
std::cout << "b" << std::endl;
return in;
}
void test(bool i, bool j) {
std::cout << std::boolalpha << i << " and " << j << " = " << (a(i) && b(j)) << std::endl;
std::cout << std::boolalpha << i << " or " << j << " = " << (a(i) || b(j)) << std::endl;
}
int main()
{
test(false, false);
test(false, true);
test(true, false);
test(true, true);
return 0;
}
|
Generate an equivalent Java version of this PowerShell code. |
function a ( [boolean]$J ) { return $J }
function b ( [boolean]$J ) { Sleep -Seconds 2; return $J }
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
Measure-Command {
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
} | Select TotalMilliseconds
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
Measure-Command {
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
} | Select TotalMilliseconds
| module test
{
@Inject Console console;
static Boolean show(String name, Boolean value)
{
console.print($"{name}()={value}");
return value;
}
void run()
{
val a = show("a", _);
val b = show("b", _);
for (Boolean v1 : False..True)
{
for (Boolean v2 : False..True)
{
console.print($"a({v1}) && b({v2}) == {a(v1) && b(v2)}");
console.print();
console.print($"a({v1}) || b({v2}) == {a(v1) || b(v2)}");
console.print();
}
}
}
}
|
Write the same algorithm in Python as shown in this PowerShell implementation. |
function a ( [boolean]$J ) { return $J }
function b ( [boolean]$J ) { Sleep -Seconds 2; return $J }
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
Measure-Command {
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
} | Select TotalMilliseconds
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
Measure-Command {
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
} | Select TotalMilliseconds
| >>> def a(answer):
print("
return answer
>>> def b(answer):
print("
return answer
>>> for i in (False, True):
for j in (False, True):
print ("\nCalculating: x = a(i) and b(j)")
x = a(i) and b(j)
print ("Calculating: y = a(i) or b(j)")
y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
|
Write a version of this PowerShell function in VB with identical behavior. |
function a ( [boolean]$J ) { return $J }
function b ( [boolean]$J ) { Sleep -Seconds 2; return $J }
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
Measure-Command {
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
} | Select TotalMilliseconds
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
Measure-Command {
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
} | Select TotalMilliseconds
| Private Function a(i As Variant) As Boolean
Debug.Print "a: "; i = 1,
a = i
End Function
Private Function b(j As Variant) As Boolean
Debug.Print "b: "; j = 1;
b = j
End Function
Public Sub short_circuit()
Dim x As Boolean, y As Boolean
Debug.Print "=====AND=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print "======OR=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If Not a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print
End Sub
|
Keep all operations the same but rewrite the snippet in Go. |
function a ( [boolean]$J ) { return $J }
function b ( [boolean]$J ) { Sleep -Seconds 2; return $J }
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
Measure-Command {
( a $True ) -or ( b $False )
( a $True ) -or ( b $True )
( a $False ) -and ( b $False )
( a $False ) -and ( b $True )
} | Select TotalMilliseconds
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
Measure-Command {
( a $False ) -or ( b $False )
( a $False ) -or ( b $True )
( a $True ) -and ( b $False )
( a $True ) -and ( b $True )
} | Select TotalMilliseconds
| package main
import "fmt"
func a(v bool) bool {
fmt.Print("a")
return v
}
func b(v bool) bool {
fmt.Print("b")
return v
}
func test(i, j bool) {
fmt.Printf("Testing a(%t) && b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) && b(j))
fmt.Printf("Testing a(%t) || b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) || b(j))
fmt.Println("")
}
func main() {
test(false, false)
test(false, true)
test(true, false)
test(true, true)
}
|
Generate an equivalent C version of this R code. | a <- function(x) {cat("a called\n"); x}
b <- function(x) {cat("b called\n"); x}
tests <- expand.grid(op=list(quote(`||`), quote(`&&`)), x=c(1,0), y=c(1,0))
invisible(apply(tests, 1, function(row) {
call <- substitute(op(a(x),b(y)), row)
cat(deparse(call), "->", eval(call), "\n\n")
}))
| #include <stdio.h>
#include <stdbool.h>
bool a(bool in)
{
printf("I am a\n");
return in;
}
bool b(bool in)
{
printf("I am b\n");
return in;
}
#define TEST(X,Y,O) \
do { \
x = a(X) O b(Y); \
printf(#X " " #O " " #Y " = %s\n\n", x ? "true" : "false"); \
} while(false);
int main()
{
bool x;
TEST(false, true, &&);
TEST(true, false, ||);
TEST(true, false, &&);
TEST(false, false, ||);
return 0;
}
|
Rewrite the snippet below in C# so it works the same as the original R code. | a <- function(x) {cat("a called\n"); x}
b <- function(x) {cat("b called\n"); x}
tests <- expand.grid(op=list(quote(`||`), quote(`&&`)), x=c(1,0), y=c(1,0))
invisible(apply(tests, 1, function(row) {
call <- substitute(op(a(x),b(y)), row)
cat(deparse(call), "->", eval(call), "\n\n")
}))
| using System;
class Program
{
static bool a(bool value)
{
Console.WriteLine("a");
return value;
}
static bool b(bool value)
{
Console.WriteLine("b");
return value;
}
static void Main()
{
foreach (var i in new[] { false, true })
{
foreach (var j in new[] { false, true })
{
Console.WriteLine("{0} and {1} = {2}", i, j, a(i) && b(j));
Console.WriteLine();
Console.WriteLine("{0} or {1} = {2}", i, j, a(i) || b(j));
Console.WriteLine();
}
}
}
}
|
Produce a language-to-language conversion: from R to C++, same semantics. | a <- function(x) {cat("a called\n"); x}
b <- function(x) {cat("b called\n"); x}
tests <- expand.grid(op=list(quote(`||`), quote(`&&`)), x=c(1,0), y=c(1,0))
invisible(apply(tests, 1, function(row) {
call <- substitute(op(a(x),b(y)), row)
cat(deparse(call), "->", eval(call), "\n\n")
}))
| #include <iostream>
bool a(bool in)
{
std::cout << "a" << std::endl;
return in;
}
bool b(bool in)
{
std::cout << "b" << std::endl;
return in;
}
void test(bool i, bool j) {
std::cout << std::boolalpha << i << " and " << j << " = " << (a(i) && b(j)) << std::endl;
std::cout << std::boolalpha << i << " or " << j << " = " << (a(i) || b(j)) << std::endl;
}
int main()
{
test(false, false);
test(false, true);
test(true, false);
test(true, true);
return 0;
}
|
Preserve the algorithm and functionality while converting the code from R to Java. | a <- function(x) {cat("a called\n"); x}
b <- function(x) {cat("b called\n"); x}
tests <- expand.grid(op=list(quote(`||`), quote(`&&`)), x=c(1,0), y=c(1,0))
invisible(apply(tests, 1, function(row) {
call <- substitute(op(a(x),b(y)), row)
cat(deparse(call), "->", eval(call), "\n\n")
}))
| module test
{
@Inject Console console;
static Boolean show(String name, Boolean value)
{
console.print($"{name}()={value}");
return value;
}
void run()
{
val a = show("a", _);
val b = show("b", _);
for (Boolean v1 : False..True)
{
for (Boolean v2 : False..True)
{
console.print($"a({v1}) && b({v2}) == {a(v1) && b(v2)}");
console.print();
console.print($"a({v1}) || b({v2}) == {a(v1) || b(v2)}");
console.print();
}
}
}
}
|
Convert the following code from R to Python, ensuring the logic remains intact. | a <- function(x) {cat("a called\n"); x}
b <- function(x) {cat("b called\n"); x}
tests <- expand.grid(op=list(quote(`||`), quote(`&&`)), x=c(1,0), y=c(1,0))
invisible(apply(tests, 1, function(row) {
call <- substitute(op(a(x),b(y)), row)
cat(deparse(call), "->", eval(call), "\n\n")
}))
| >>> def a(answer):
print("
return answer
>>> def b(answer):
print("
return answer
>>> for i in (False, True):
for j in (False, True):
print ("\nCalculating: x = a(i) and b(j)")
x = a(i) and b(j)
print ("Calculating: y = a(i) or b(j)")
y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
|
Write the same algorithm in VB as shown in this R implementation. | a <- function(x) {cat("a called\n"); x}
b <- function(x) {cat("b called\n"); x}
tests <- expand.grid(op=list(quote(`||`), quote(`&&`)), x=c(1,0), y=c(1,0))
invisible(apply(tests, 1, function(row) {
call <- substitute(op(a(x),b(y)), row)
cat(deparse(call), "->", eval(call), "\n\n")
}))
| Private Function a(i As Variant) As Boolean
Debug.Print "a: "; i = 1,
a = i
End Function
Private Function b(j As Variant) As Boolean
Debug.Print "b: "; j = 1;
b = j
End Function
Public Sub short_circuit()
Dim x As Boolean, y As Boolean
Debug.Print "=====AND=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print "======OR=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If Not a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print
End Sub
|
Convert this R snippet to Go and keep its semantics consistent. | a <- function(x) {cat("a called\n"); x}
b <- function(x) {cat("b called\n"); x}
tests <- expand.grid(op=list(quote(`||`), quote(`&&`)), x=c(1,0), y=c(1,0))
invisible(apply(tests, 1, function(row) {
call <- substitute(op(a(x),b(y)), row)
cat(deparse(call), "->", eval(call), "\n\n")
}))
| package main
import "fmt"
func a(v bool) bool {
fmt.Print("a")
return v
}
func b(v bool) bool {
fmt.Print("b")
return v
}
func test(i, j bool) {
fmt.Printf("Testing a(%t) && b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) && b(j))
fmt.Printf("Testing a(%t) || b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) || b(j))
fmt.Println("")
}
func main() {
test(false, false)
test(false, true)
test(true, false)
test(true, true)
}
|
Translate the given Racket code snippet into C without altering its behavior. | #lang racket
(define (a x)
(display (~a "a:" x " "))
x)
(define (b x)
(display (~a "b:" x " "))
x)
(for* ([x '(#t #f)]
[y '(#t #f)])
(displayln `(and (a ,x) (b ,y)))
(and (a x) (b y))
(newline)
(displayln `(or (a ,x) (b ,y)))
(or (a x) (b y))
(newline))
| #include <stdio.h>
#include <stdbool.h>
bool a(bool in)
{
printf("I am a\n");
return in;
}
bool b(bool in)
{
printf("I am b\n");
return in;
}
#define TEST(X,Y,O) \
do { \
x = a(X) O b(Y); \
printf(#X " " #O " " #Y " = %s\n\n", x ? "true" : "false"); \
} while(false);
int main()
{
bool x;
TEST(false, true, &&);
TEST(true, false, ||);
TEST(true, false, &&);
TEST(false, false, ||);
return 0;
}
|
Rewrite this program in C# while keeping its functionality equivalent to the Racket version. | #lang racket
(define (a x)
(display (~a "a:" x " "))
x)
(define (b x)
(display (~a "b:" x " "))
x)
(for* ([x '(#t #f)]
[y '(#t #f)])
(displayln `(and (a ,x) (b ,y)))
(and (a x) (b y))
(newline)
(displayln `(or (a ,x) (b ,y)))
(or (a x) (b y))
(newline))
| using System;
class Program
{
static bool a(bool value)
{
Console.WriteLine("a");
return value;
}
static bool b(bool value)
{
Console.WriteLine("b");
return value;
}
static void Main()
{
foreach (var i in new[] { false, true })
{
foreach (var j in new[] { false, true })
{
Console.WriteLine("{0} and {1} = {2}", i, j, a(i) && b(j));
Console.WriteLine();
Console.WriteLine("{0} or {1} = {2}", i, j, a(i) || b(j));
Console.WriteLine();
}
}
}
}
|
Produce a functionally identical C++ code for the snippet given in Racket. | #lang racket
(define (a x)
(display (~a "a:" x " "))
x)
(define (b x)
(display (~a "b:" x " "))
x)
(for* ([x '(#t #f)]
[y '(#t #f)])
(displayln `(and (a ,x) (b ,y)))
(and (a x) (b y))
(newline)
(displayln `(or (a ,x) (b ,y)))
(or (a x) (b y))
(newline))
| #include <iostream>
bool a(bool in)
{
std::cout << "a" << std::endl;
return in;
}
bool b(bool in)
{
std::cout << "b" << std::endl;
return in;
}
void test(bool i, bool j) {
std::cout << std::boolalpha << i << " and " << j << " = " << (a(i) && b(j)) << std::endl;
std::cout << std::boolalpha << i << " or " << j << " = " << (a(i) || b(j)) << std::endl;
}
int main()
{
test(false, false);
test(false, true);
test(true, false);
test(true, true);
return 0;
}
|
Maintain the same structure and functionality when rewriting this code in Java. | #lang racket
(define (a x)
(display (~a "a:" x " "))
x)
(define (b x)
(display (~a "b:" x " "))
x)
(for* ([x '(#t #f)]
[y '(#t #f)])
(displayln `(and (a ,x) (b ,y)))
(and (a x) (b y))
(newline)
(displayln `(or (a ,x) (b ,y)))
(or (a x) (b y))
(newline))
| module test
{
@Inject Console console;
static Boolean show(String name, Boolean value)
{
console.print($"{name}()={value}");
return value;
}
void run()
{
val a = show("a", _);
val b = show("b", _);
for (Boolean v1 : False..True)
{
for (Boolean v2 : False..True)
{
console.print($"a({v1}) && b({v2}) == {a(v1) && b(v2)}");
console.print();
console.print($"a({v1}) || b({v2}) == {a(v1) || b(v2)}");
console.print();
}
}
}
}
|
Port the provided Racket code into Python while preserving the original functionality. | #lang racket
(define (a x)
(display (~a "a:" x " "))
x)
(define (b x)
(display (~a "b:" x " "))
x)
(for* ([x '(#t #f)]
[y '(#t #f)])
(displayln `(and (a ,x) (b ,y)))
(and (a x) (b y))
(newline)
(displayln `(or (a ,x) (b ,y)))
(or (a x) (b y))
(newline))
| >>> def a(answer):
print("
return answer
>>> def b(answer):
print("
return answer
>>> for i in (False, True):
for j in (False, True):
print ("\nCalculating: x = a(i) and b(j)")
x = a(i) and b(j)
print ("Calculating: y = a(i) or b(j)")
y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
|
Rewrite this program in VB while keeping its functionality equivalent to the Racket version. | #lang racket
(define (a x)
(display (~a "a:" x " "))
x)
(define (b x)
(display (~a "b:" x " "))
x)
(for* ([x '(#t #f)]
[y '(#t #f)])
(displayln `(and (a ,x) (b ,y)))
(and (a x) (b y))
(newline)
(displayln `(or (a ,x) (b ,y)))
(or (a x) (b y))
(newline))
| Private Function a(i As Variant) As Boolean
Debug.Print "a: "; i = 1,
a = i
End Function
Private Function b(j As Variant) As Boolean
Debug.Print "b: "; j = 1;
b = j
End Function
Public Sub short_circuit()
Dim x As Boolean, y As Boolean
Debug.Print "=====AND=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print "======OR=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If Not a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print
End Sub
|
Transform the following Racket implementation into Go, maintaining the same output and logic. | #lang racket
(define (a x)
(display (~a "a:" x " "))
x)
(define (b x)
(display (~a "b:" x " "))
x)
(for* ([x '(#t #f)]
[y '(#t #f)])
(displayln `(and (a ,x) (b ,y)))
(and (a x) (b y))
(newline)
(displayln `(or (a ,x) (b ,y)))
(or (a x) (b y))
(newline))
| package main
import "fmt"
func a(v bool) bool {
fmt.Print("a")
return v
}
func b(v bool) bool {
fmt.Print("b")
return v
}
func test(i, j bool) {
fmt.Printf("Testing a(%t) && b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) && b(j))
fmt.Printf("Testing a(%t) || b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) || b(j))
fmt.Println("")
}
func main() {
test(false, false)
test(false, true)
test(true, false)
test(true, true)
}
|
Please provide an equivalent version of this REXX code in C. |
options replace format comments java crossref symbols nobinary
Parse Version v
Say 'Version='v
If a() | b() Then Say 'a and b are true'
If \a() | b() Then Say 'Surprise'
Else Say 'ok'
If a(), b() Then Say 'a is true'
If \a(), b() Then Say 'Surprise'
Else Say 'ok: \\a() is false'
Select
When \a(), b() Then Say 'Surprise'
Otherwise Say 'ok: \\a() is false (Select)'
End
Return
method a private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--a returns' state
Return state
method b private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--b returns' state
Return state
| #include <stdio.h>
#include <stdbool.h>
bool a(bool in)
{
printf("I am a\n");
return in;
}
bool b(bool in)
{
printf("I am b\n");
return in;
}
#define TEST(X,Y,O) \
do { \
x = a(X) O b(Y); \
printf(#X " " #O " " #Y " = %s\n\n", x ? "true" : "false"); \
} while(false);
int main()
{
bool x;
TEST(false, true, &&);
TEST(true, false, ||);
TEST(true, false, &&);
TEST(false, false, ||);
return 0;
}
|
Ensure the translated C# code behaves exactly like the original REXX snippet. |
options replace format comments java crossref symbols nobinary
Parse Version v
Say 'Version='v
If a() | b() Then Say 'a and b are true'
If \a() | b() Then Say 'Surprise'
Else Say 'ok'
If a(), b() Then Say 'a is true'
If \a(), b() Then Say 'Surprise'
Else Say 'ok: \\a() is false'
Select
When \a(), b() Then Say 'Surprise'
Otherwise Say 'ok: \\a() is false (Select)'
End
Return
method a private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--a returns' state
Return state
method b private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--b returns' state
Return state
| using System;
class Program
{
static bool a(bool value)
{
Console.WriteLine("a");
return value;
}
static bool b(bool value)
{
Console.WriteLine("b");
return value;
}
static void Main()
{
foreach (var i in new[] { false, true })
{
foreach (var j in new[] { false, true })
{
Console.WriteLine("{0} and {1} = {2}", i, j, a(i) && b(j));
Console.WriteLine();
Console.WriteLine("{0} or {1} = {2}", i, j, a(i) || b(j));
Console.WriteLine();
}
}
}
}
|
Write a version of this REXX function in C++ with identical behavior. |
options replace format comments java crossref symbols nobinary
Parse Version v
Say 'Version='v
If a() | b() Then Say 'a and b are true'
If \a() | b() Then Say 'Surprise'
Else Say 'ok'
If a(), b() Then Say 'a is true'
If \a(), b() Then Say 'Surprise'
Else Say 'ok: \\a() is false'
Select
When \a(), b() Then Say 'Surprise'
Otherwise Say 'ok: \\a() is false (Select)'
End
Return
method a private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--a returns' state
Return state
method b private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--b returns' state
Return state
| #include <iostream>
bool a(bool in)
{
std::cout << "a" << std::endl;
return in;
}
bool b(bool in)
{
std::cout << "b" << std::endl;
return in;
}
void test(bool i, bool j) {
std::cout << std::boolalpha << i << " and " << j << " = " << (a(i) && b(j)) << std::endl;
std::cout << std::boolalpha << i << " or " << j << " = " << (a(i) || b(j)) << std::endl;
}
int main()
{
test(false, false);
test(false, true);
test(true, false);
test(true, true);
return 0;
}
|
Preserve the algorithm and functionality while converting the code from REXX to Java. |
options replace format comments java crossref symbols nobinary
Parse Version v
Say 'Version='v
If a() | b() Then Say 'a and b are true'
If \a() | b() Then Say 'Surprise'
Else Say 'ok'
If a(), b() Then Say 'a is true'
If \a(), b() Then Say 'Surprise'
Else Say 'ok: \\a() is false'
Select
When \a(), b() Then Say 'Surprise'
Otherwise Say 'ok: \\a() is false (Select)'
End
Return
method a private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--a returns' state
Return state
method b private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--b returns' state
Return state
| module test
{
@Inject Console console;
static Boolean show(String name, Boolean value)
{
console.print($"{name}()={value}");
return value;
}
void run()
{
val a = show("a", _);
val b = show("b", _);
for (Boolean v1 : False..True)
{
for (Boolean v2 : False..True)
{
console.print($"a({v1}) && b({v2}) == {a(v1) && b(v2)}");
console.print();
console.print($"a({v1}) || b({v2}) == {a(v1) || b(v2)}");
console.print();
}
}
}
}
|
Maintain the same structure and functionality when rewriting this code in Python. |
options replace format comments java crossref symbols nobinary
Parse Version v
Say 'Version='v
If a() | b() Then Say 'a and b are true'
If \a() | b() Then Say 'Surprise'
Else Say 'ok'
If a(), b() Then Say 'a is true'
If \a(), b() Then Say 'Surprise'
Else Say 'ok: \\a() is false'
Select
When \a(), b() Then Say 'Surprise'
Otherwise Say 'ok: \\a() is false (Select)'
End
Return
method a private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--a returns' state
Return state
method b private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--b returns' state
Return state
| >>> def a(answer):
print("
return answer
>>> def b(answer):
print("
return answer
>>> for i in (False, True):
for j in (False, True):
print ("\nCalculating: x = a(i) and b(j)")
x = a(i) and b(j)
print ("Calculating: y = a(i) or b(j)")
y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
|
Convert this REXX snippet to VB and keep its semantics consistent. |
options replace format comments java crossref symbols nobinary
Parse Version v
Say 'Version='v
If a() | b() Then Say 'a and b are true'
If \a() | b() Then Say 'Surprise'
Else Say 'ok'
If a(), b() Then Say 'a is true'
If \a(), b() Then Say 'Surprise'
Else Say 'ok: \\a() is false'
Select
When \a(), b() Then Say 'Surprise'
Otherwise Say 'ok: \\a() is false (Select)'
End
Return
method a private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--a returns' state
Return state
method b private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--b returns' state
Return state
| Private Function a(i As Variant) As Boolean
Debug.Print "a: "; i = 1,
a = i
End Function
Private Function b(j As Variant) As Boolean
Debug.Print "b: "; j = 1;
b = j
End Function
Public Sub short_circuit()
Dim x As Boolean, y As Boolean
Debug.Print "=====AND=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print "======OR=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If Not a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print
End Sub
|
Convert this REXX block to Go, preserving its control flow and logic. |
options replace format comments java crossref symbols nobinary
Parse Version v
Say 'Version='v
If a() | b() Then Say 'a and b are true'
If \a() | b() Then Say 'Surprise'
Else Say 'ok'
If a(), b() Then Say 'a is true'
If \a(), b() Then Say 'Surprise'
Else Say 'ok: \\a() is false'
Select
When \a(), b() Then Say 'Surprise'
Otherwise Say 'ok: \\a() is false (Select)'
End
Return
method a private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--a returns' state
Return state
method b private static binary returns boolean
state = Boolean.TRUE.booleanValue()
Say '--b returns' state
Return state
| package main
import "fmt"
func a(v bool) bool {
fmt.Print("a")
return v
}
func b(v bool) bool {
fmt.Print("b")
return v
}
func test(i, j bool) {
fmt.Printf("Testing a(%t) && b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) && b(j))
fmt.Printf("Testing a(%t) || b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) || b(j))
fmt.Println("")
}
func main() {
test(false, false)
test(false, true)
test(true, false)
test(true, true)
}
|
Produce a language-to-language conversion: from Ruby to C, same semantics. | def a( bool )
puts "a(
bool
end
def b( bool )
puts "b(
bool
end
[true, false].each do |a_val|
[true, false].each do |b_val|
puts "a(
puts
puts "a(
puts
end
end
| #include <stdio.h>
#include <stdbool.h>
bool a(bool in)
{
printf("I am a\n");
return in;
}
bool b(bool in)
{
printf("I am b\n");
return in;
}
#define TEST(X,Y,O) \
do { \
x = a(X) O b(Y); \
printf(#X " " #O " " #Y " = %s\n\n", x ? "true" : "false"); \
} while(false);
int main()
{
bool x;
TEST(false, true, &&);
TEST(true, false, ||);
TEST(true, false, &&);
TEST(false, false, ||);
return 0;
}
|
Generate an equivalent C# version of this Ruby code. | def a( bool )
puts "a(
bool
end
def b( bool )
puts "b(
bool
end
[true, false].each do |a_val|
[true, false].each do |b_val|
puts "a(
puts
puts "a(
puts
end
end
| using System;
class Program
{
static bool a(bool value)
{
Console.WriteLine("a");
return value;
}
static bool b(bool value)
{
Console.WriteLine("b");
return value;
}
static void Main()
{
foreach (var i in new[] { false, true })
{
foreach (var j in new[] { false, true })
{
Console.WriteLine("{0} and {1} = {2}", i, j, a(i) && b(j));
Console.WriteLine();
Console.WriteLine("{0} or {1} = {2}", i, j, a(i) || b(j));
Console.WriteLine();
}
}
}
}
|
Rewrite this program in C++ while keeping its functionality equivalent to the Ruby version. | def a( bool )
puts "a(
bool
end
def b( bool )
puts "b(
bool
end
[true, false].each do |a_val|
[true, false].each do |b_val|
puts "a(
puts
puts "a(
puts
end
end
| #include <iostream>
bool a(bool in)
{
std::cout << "a" << std::endl;
return in;
}
bool b(bool in)
{
std::cout << "b" << std::endl;
return in;
}
void test(bool i, bool j) {
std::cout << std::boolalpha << i << " and " << j << " = " << (a(i) && b(j)) << std::endl;
std::cout << std::boolalpha << i << " or " << j << " = " << (a(i) || b(j)) << std::endl;
}
int main()
{
test(false, false);
test(false, true);
test(true, false);
test(true, true);
return 0;
}
|
Change the programming language of this snippet from Ruby to Java without modifying what it does. | def a( bool )
puts "a(
bool
end
def b( bool )
puts "b(
bool
end
[true, false].each do |a_val|
[true, false].each do |b_val|
puts "a(
puts
puts "a(
puts
end
end
| module test
{
@Inject Console console;
static Boolean show(String name, Boolean value)
{
console.print($"{name}()={value}");
return value;
}
void run()
{
val a = show("a", _);
val b = show("b", _);
for (Boolean v1 : False..True)
{
for (Boolean v2 : False..True)
{
console.print($"a({v1}) && b({v2}) == {a(v1) && b(v2)}");
console.print();
console.print($"a({v1}) || b({v2}) == {a(v1) || b(v2)}");
console.print();
}
}
}
}
|
Convert this Ruby block to Python, preserving its control flow and logic. | def a( bool )
puts "a(
bool
end
def b( bool )
puts "b(
bool
end
[true, false].each do |a_val|
[true, false].each do |b_val|
puts "a(
puts
puts "a(
puts
end
end
| >>> def a(answer):
print("
return answer
>>> def b(answer):
print("
return answer
>>> for i in (False, True):
for j in (False, True):
print ("\nCalculating: x = a(i) and b(j)")
x = a(i) and b(j)
print ("Calculating: y = a(i) or b(j)")
y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
|
Can you help me rewrite this code in VB instead of Ruby, keeping it the same logically? | def a( bool )
puts "a(
bool
end
def b( bool )
puts "b(
bool
end
[true, false].each do |a_val|
[true, false].each do |b_val|
puts "a(
puts
puts "a(
puts
end
end
| Private Function a(i As Variant) As Boolean
Debug.Print "a: "; i = 1,
a = i
End Function
Private Function b(j As Variant) As Boolean
Debug.Print "b: "; j = 1;
b = j
End Function
Public Sub short_circuit()
Dim x As Boolean, y As Boolean
Debug.Print "=====AND=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print "======OR=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If Not a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print
End Sub
|
Convert this Ruby snippet to Go and keep its semantics consistent. | def a( bool )
puts "a(
bool
end
def b( bool )
puts "b(
bool
end
[true, false].each do |a_val|
[true, false].each do |b_val|
puts "a(
puts
puts "a(
puts
end
end
| package main
import "fmt"
func a(v bool) bool {
fmt.Print("a")
return v
}
func b(v bool) bool {
fmt.Print("b")
return v
}
func test(i, j bool) {
fmt.Printf("Testing a(%t) && b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) && b(j))
fmt.Printf("Testing a(%t) || b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) || b(j))
fmt.Println("")
}
func main() {
test(false, false)
test(false, true)
test(true, false)
test(true, true)
}
|
Write a version of this Scala function in C with identical behavior. |
fun a(v: Boolean): Boolean {
println("'a' called")
return v
}
fun b(v: Boolean): Boolean {
println("'b' called")
return v
}
fun main(args: Array<String>){
val pairs = arrayOf(Pair(true, true), Pair(true, false), Pair(false, true), Pair(false, false))
for (pair in pairs) {
val x = a(pair.first) && b(pair.second)
println("${pair.first} && ${pair.second} = $x")
val y = a(pair.first) || b(pair.second)
println("${pair.first} || ${pair.second} = $y")
println()
}
}
| #include <stdio.h>
#include <stdbool.h>
bool a(bool in)
{
printf("I am a\n");
return in;
}
bool b(bool in)
{
printf("I am b\n");
return in;
}
#define TEST(X,Y,O) \
do { \
x = a(X) O b(Y); \
printf(#X " " #O " " #Y " = %s\n\n", x ? "true" : "false"); \
} while(false);
int main()
{
bool x;
TEST(false, true, &&);
TEST(true, false, ||);
TEST(true, false, &&);
TEST(false, false, ||);
return 0;
}
|
Produce a language-to-language conversion: from Scala to C#, same semantics. |
fun a(v: Boolean): Boolean {
println("'a' called")
return v
}
fun b(v: Boolean): Boolean {
println("'b' called")
return v
}
fun main(args: Array<String>){
val pairs = arrayOf(Pair(true, true), Pair(true, false), Pair(false, true), Pair(false, false))
for (pair in pairs) {
val x = a(pair.first) && b(pair.second)
println("${pair.first} && ${pair.second} = $x")
val y = a(pair.first) || b(pair.second)
println("${pair.first} || ${pair.second} = $y")
println()
}
}
| using System;
class Program
{
static bool a(bool value)
{
Console.WriteLine("a");
return value;
}
static bool b(bool value)
{
Console.WriteLine("b");
return value;
}
static void Main()
{
foreach (var i in new[] { false, true })
{
foreach (var j in new[] { false, true })
{
Console.WriteLine("{0} and {1} = {2}", i, j, a(i) && b(j));
Console.WriteLine();
Console.WriteLine("{0} or {1} = {2}", i, j, a(i) || b(j));
Console.WriteLine();
}
}
}
}
|
Convert this Scala snippet to C++ and keep its semantics consistent. |
fun a(v: Boolean): Boolean {
println("'a' called")
return v
}
fun b(v: Boolean): Boolean {
println("'b' called")
return v
}
fun main(args: Array<String>){
val pairs = arrayOf(Pair(true, true), Pair(true, false), Pair(false, true), Pair(false, false))
for (pair in pairs) {
val x = a(pair.first) && b(pair.second)
println("${pair.first} && ${pair.second} = $x")
val y = a(pair.first) || b(pair.second)
println("${pair.first} || ${pair.second} = $y")
println()
}
}
| #include <iostream>
bool a(bool in)
{
std::cout << "a" << std::endl;
return in;
}
bool b(bool in)
{
std::cout << "b" << std::endl;
return in;
}
void test(bool i, bool j) {
std::cout << std::boolalpha << i << " and " << j << " = " << (a(i) && b(j)) << std::endl;
std::cout << std::boolalpha << i << " or " << j << " = " << (a(i) || b(j)) << std::endl;
}
int main()
{
test(false, false);
test(false, true);
test(true, false);
test(true, true);
return 0;
}
|
Produce a language-to-language conversion: from Scala to Java, same semantics. |
fun a(v: Boolean): Boolean {
println("'a' called")
return v
}
fun b(v: Boolean): Boolean {
println("'b' called")
return v
}
fun main(args: Array<String>){
val pairs = arrayOf(Pair(true, true), Pair(true, false), Pair(false, true), Pair(false, false))
for (pair in pairs) {
val x = a(pair.first) && b(pair.second)
println("${pair.first} && ${pair.second} = $x")
val y = a(pair.first) || b(pair.second)
println("${pair.first} || ${pair.second} = $y")
println()
}
}
| module test
{
@Inject Console console;
static Boolean show(String name, Boolean value)
{
console.print($"{name}()={value}");
return value;
}
void run()
{
val a = show("a", _);
val b = show("b", _);
for (Boolean v1 : False..True)
{
for (Boolean v2 : False..True)
{
console.print($"a({v1}) && b({v2}) == {a(v1) && b(v2)}");
console.print();
console.print($"a({v1}) || b({v2}) == {a(v1) || b(v2)}");
console.print();
}
}
}
}
|
Ensure the translated Python code behaves exactly like the original Scala snippet. |
fun a(v: Boolean): Boolean {
println("'a' called")
return v
}
fun b(v: Boolean): Boolean {
println("'b' called")
return v
}
fun main(args: Array<String>){
val pairs = arrayOf(Pair(true, true), Pair(true, false), Pair(false, true), Pair(false, false))
for (pair in pairs) {
val x = a(pair.first) && b(pair.second)
println("${pair.first} && ${pair.second} = $x")
val y = a(pair.first) || b(pair.second)
println("${pair.first} || ${pair.second} = $y")
println()
}
}
| >>> def a(answer):
print("
return answer
>>> def b(answer):
print("
return answer
>>> for i in (False, True):
for j in (False, True):
print ("\nCalculating: x = a(i) and b(j)")
x = a(i) and b(j)
print ("Calculating: y = a(i) or b(j)")
y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
|
Produce a functionally identical VB code for the snippet given in Scala. |
fun a(v: Boolean): Boolean {
println("'a' called")
return v
}
fun b(v: Boolean): Boolean {
println("'b' called")
return v
}
fun main(args: Array<String>){
val pairs = arrayOf(Pair(true, true), Pair(true, false), Pair(false, true), Pair(false, false))
for (pair in pairs) {
val x = a(pair.first) && b(pair.second)
println("${pair.first} && ${pair.second} = $x")
val y = a(pair.first) || b(pair.second)
println("${pair.first} || ${pair.second} = $y")
println()
}
}
| Private Function a(i As Variant) As Boolean
Debug.Print "a: "; i = 1,
a = i
End Function
Private Function b(j As Variant) As Boolean
Debug.Print "b: "; j = 1;
b = j
End Function
Public Sub short_circuit()
Dim x As Boolean, y As Boolean
Debug.Print "=====AND=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print "======OR=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If Not a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print
End Sub
|
Write the same code in Go as shown below in Scala. |
fun a(v: Boolean): Boolean {
println("'a' called")
return v
}
fun b(v: Boolean): Boolean {
println("'b' called")
return v
}
fun main(args: Array<String>){
val pairs = arrayOf(Pair(true, true), Pair(true, false), Pair(false, true), Pair(false, false))
for (pair in pairs) {
val x = a(pair.first) && b(pair.second)
println("${pair.first} && ${pair.second} = $x")
val y = a(pair.first) || b(pair.second)
println("${pair.first} || ${pair.second} = $y")
println()
}
}
| package main
import "fmt"
func a(v bool) bool {
fmt.Print("a")
return v
}
func b(v bool) bool {
fmt.Print("b")
return v
}
func test(i, j bool) {
fmt.Printf("Testing a(%t) && b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) && b(j))
fmt.Printf("Testing a(%t) || b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) || b(j))
fmt.Println("")
}
func main() {
test(false, false)
test(false, true)
test(true, false)
test(true, true)
}
|
Please provide an equivalent version of this Swift code in C. | func a(v: Bool) -> Bool {
print("a")
return v
}
func b(v: Bool) -> Bool {
print("b")
return v
}
func test(i: Bool, j: Bool) {
println("Testing a(\(i)) && b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) && b(j))")
println("Testing a(\(i)) || b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) || b(j))")
println()
}
test(false, false)
test(false, true)
test(true, false)
test(true, true)
| #include <stdio.h>
#include <stdbool.h>
bool a(bool in)
{
printf("I am a\n");
return in;
}
bool b(bool in)
{
printf("I am b\n");
return in;
}
#define TEST(X,Y,O) \
do { \
x = a(X) O b(Y); \
printf(#X " " #O " " #Y " = %s\n\n", x ? "true" : "false"); \
} while(false);
int main()
{
bool x;
TEST(false, true, &&);
TEST(true, false, ||);
TEST(true, false, &&);
TEST(false, false, ||);
return 0;
}
|
Generate a C# translation of this Swift snippet without changing its computational steps. | func a(v: Bool) -> Bool {
print("a")
return v
}
func b(v: Bool) -> Bool {
print("b")
return v
}
func test(i: Bool, j: Bool) {
println("Testing a(\(i)) && b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) && b(j))")
println("Testing a(\(i)) || b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) || b(j))")
println()
}
test(false, false)
test(false, true)
test(true, false)
test(true, true)
| using System;
class Program
{
static bool a(bool value)
{
Console.WriteLine("a");
return value;
}
static bool b(bool value)
{
Console.WriteLine("b");
return value;
}
static void Main()
{
foreach (var i in new[] { false, true })
{
foreach (var j in new[] { false, true })
{
Console.WriteLine("{0} and {1} = {2}", i, j, a(i) && b(j));
Console.WriteLine();
Console.WriteLine("{0} or {1} = {2}", i, j, a(i) || b(j));
Console.WriteLine();
}
}
}
}
|
Write a version of this Swift function in C++ with identical behavior. | func a(v: Bool) -> Bool {
print("a")
return v
}
func b(v: Bool) -> Bool {
print("b")
return v
}
func test(i: Bool, j: Bool) {
println("Testing a(\(i)) && b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) && b(j))")
println("Testing a(\(i)) || b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) || b(j))")
println()
}
test(false, false)
test(false, true)
test(true, false)
test(true, true)
| #include <iostream>
bool a(bool in)
{
std::cout << "a" << std::endl;
return in;
}
bool b(bool in)
{
std::cout << "b" << std::endl;
return in;
}
void test(bool i, bool j) {
std::cout << std::boolalpha << i << " and " << j << " = " << (a(i) && b(j)) << std::endl;
std::cout << std::boolalpha << i << " or " << j << " = " << (a(i) || b(j)) << std::endl;
}
int main()
{
test(false, false);
test(false, true);
test(true, false);
test(true, true);
return 0;
}
|
Translate the given Swift code snippet into Java without altering its behavior. | func a(v: Bool) -> Bool {
print("a")
return v
}
func b(v: Bool) -> Bool {
print("b")
return v
}
func test(i: Bool, j: Bool) {
println("Testing a(\(i)) && b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) && b(j))")
println("Testing a(\(i)) || b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) || b(j))")
println()
}
test(false, false)
test(false, true)
test(true, false)
test(true, true)
| module test
{
@Inject Console console;
static Boolean show(String name, Boolean value)
{
console.print($"{name}()={value}");
return value;
}
void run()
{
val a = show("a", _);
val b = show("b", _);
for (Boolean v1 : False..True)
{
for (Boolean v2 : False..True)
{
console.print($"a({v1}) && b({v2}) == {a(v1) && b(v2)}");
console.print();
console.print($"a({v1}) || b({v2}) == {a(v1) || b(v2)}");
console.print();
}
}
}
}
|
Write a version of this Swift function in Python with identical behavior. | func a(v: Bool) -> Bool {
print("a")
return v
}
func b(v: Bool) -> Bool {
print("b")
return v
}
func test(i: Bool, j: Bool) {
println("Testing a(\(i)) && b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) && b(j))")
println("Testing a(\(i)) || b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) || b(j))")
println()
}
test(false, false)
test(false, true)
test(true, false)
test(true, true)
| >>> def a(answer):
print("
return answer
>>> def b(answer):
print("
return answer
>>> for i in (False, True):
for j in (False, True):
print ("\nCalculating: x = a(i) and b(j)")
x = a(i) and b(j)
print ("Calculating: y = a(i) or b(j)")
y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
|
Change the following Swift code into VB without altering its purpose. | func a(v: Bool) -> Bool {
print("a")
return v
}
func b(v: Bool) -> Bool {
print("b")
return v
}
func test(i: Bool, j: Bool) {
println("Testing a(\(i)) && b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) && b(j))")
println("Testing a(\(i)) || b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) || b(j))")
println()
}
test(false, false)
test(false, true)
test(true, false)
test(true, true)
| Private Function a(i As Variant) As Boolean
Debug.Print "a: "; i = 1,
a = i
End Function
Private Function b(j As Variant) As Boolean
Debug.Print "b: "; j = 1;
b = j
End Function
Public Sub short_circuit()
Dim x As Boolean, y As Boolean
Debug.Print "=====AND=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print "======OR=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If Not a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print
End Sub
|
Write the same algorithm in Go as shown in this Swift implementation. | func a(v: Bool) -> Bool {
print("a")
return v
}
func b(v: Bool) -> Bool {
print("b")
return v
}
func test(i: Bool, j: Bool) {
println("Testing a(\(i)) && b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) && b(j))")
println("Testing a(\(i)) || b(\(j))")
print("Trace: ")
println("\nResult: \(a(i) || b(j))")
println()
}
test(false, false)
test(false, true)
test(true, false)
test(true, true)
| package main
import "fmt"
func a(v bool) bool {
fmt.Print("a")
return v
}
func b(v bool) bool {
fmt.Print("b")
return v
}
func test(i, j bool) {
fmt.Printf("Testing a(%t) && b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) && b(j))
fmt.Printf("Testing a(%t) || b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) || b(j))
fmt.Println("")
}
func main() {
test(false, false)
test(false, true)
test(true, false)
test(true, true)
}
|
Please provide an equivalent version of this Tcl code in C. | package require Tcl 8.5
proc tcl::mathfunc::a boolean {
puts "a($boolean) called"
return $boolean
}
proc tcl::mathfunc::b boolean {
puts "b($boolean) called"
return $boolean
}
foreach i {false true} {
foreach j {false true} {
set x [expr {a($i) && b($j)}]
puts "x = a($i) && b($j) = $x"
set y [expr {a($i) || b($j)}]
puts "y = a($i) || b($j) = $y"
puts "";
}
}
| #include <stdio.h>
#include <stdbool.h>
bool a(bool in)
{
printf("I am a\n");
return in;
}
bool b(bool in)
{
printf("I am b\n");
return in;
}
#define TEST(X,Y,O) \
do { \
x = a(X) O b(Y); \
printf(#X " " #O " " #Y " = %s\n\n", x ? "true" : "false"); \
} while(false);
int main()
{
bool x;
TEST(false, true, &&);
TEST(true, false, ||);
TEST(true, false, &&);
TEST(false, false, ||);
return 0;
}
|
Write the same code in C# as shown below in Tcl. | package require Tcl 8.5
proc tcl::mathfunc::a boolean {
puts "a($boolean) called"
return $boolean
}
proc tcl::mathfunc::b boolean {
puts "b($boolean) called"
return $boolean
}
foreach i {false true} {
foreach j {false true} {
set x [expr {a($i) && b($j)}]
puts "x = a($i) && b($j) = $x"
set y [expr {a($i) || b($j)}]
puts "y = a($i) || b($j) = $y"
puts "";
}
}
| using System;
class Program
{
static bool a(bool value)
{
Console.WriteLine("a");
return value;
}
static bool b(bool value)
{
Console.WriteLine("b");
return value;
}
static void Main()
{
foreach (var i in new[] { false, true })
{
foreach (var j in new[] { false, true })
{
Console.WriteLine("{0} and {1} = {2}", i, j, a(i) && b(j));
Console.WriteLine();
Console.WriteLine("{0} or {1} = {2}", i, j, a(i) || b(j));
Console.WriteLine();
}
}
}
}
|
Please provide an equivalent version of this Tcl code in C++. | package require Tcl 8.5
proc tcl::mathfunc::a boolean {
puts "a($boolean) called"
return $boolean
}
proc tcl::mathfunc::b boolean {
puts "b($boolean) called"
return $boolean
}
foreach i {false true} {
foreach j {false true} {
set x [expr {a($i) && b($j)}]
puts "x = a($i) && b($j) = $x"
set y [expr {a($i) || b($j)}]
puts "y = a($i) || b($j) = $y"
puts "";
}
}
| #include <iostream>
bool a(bool in)
{
std::cout << "a" << std::endl;
return in;
}
bool b(bool in)
{
std::cout << "b" << std::endl;
return in;
}
void test(bool i, bool j) {
std::cout << std::boolalpha << i << " and " << j << " = " << (a(i) && b(j)) << std::endl;
std::cout << std::boolalpha << i << " or " << j << " = " << (a(i) || b(j)) << std::endl;
}
int main()
{
test(false, false);
test(false, true);
test(true, false);
test(true, true);
return 0;
}
|
Preserve the algorithm and functionality while converting the code from Tcl to Java. | package require Tcl 8.5
proc tcl::mathfunc::a boolean {
puts "a($boolean) called"
return $boolean
}
proc tcl::mathfunc::b boolean {
puts "b($boolean) called"
return $boolean
}
foreach i {false true} {
foreach j {false true} {
set x [expr {a($i) && b($j)}]
puts "x = a($i) && b($j) = $x"
set y [expr {a($i) || b($j)}]
puts "y = a($i) || b($j) = $y"
puts "";
}
}
| module test
{
@Inject Console console;
static Boolean show(String name, Boolean value)
{
console.print($"{name}()={value}");
return value;
}
void run()
{
val a = show("a", _);
val b = show("b", _);
for (Boolean v1 : False..True)
{
for (Boolean v2 : False..True)
{
console.print($"a({v1}) && b({v2}) == {a(v1) && b(v2)}");
console.print();
console.print($"a({v1}) || b({v2}) == {a(v1) || b(v2)}");
console.print();
}
}
}
}
|
Convert this Tcl block to Python, preserving its control flow and logic. | package require Tcl 8.5
proc tcl::mathfunc::a boolean {
puts "a($boolean) called"
return $boolean
}
proc tcl::mathfunc::b boolean {
puts "b($boolean) called"
return $boolean
}
foreach i {false true} {
foreach j {false true} {
set x [expr {a($i) && b($j)}]
puts "x = a($i) && b($j) = $x"
set y [expr {a($i) || b($j)}]
puts "y = a($i) || b($j) = $y"
puts "";
}
}
| >>> def a(answer):
print("
return answer
>>> def b(answer):
print("
return answer
>>> for i in (False, True):
for j in (False, True):
print ("\nCalculating: x = a(i) and b(j)")
x = a(i) and b(j)
print ("Calculating: y = a(i) or b(j)")
y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
|
Write the same algorithm in VB as shown in this Tcl implementation. | package require Tcl 8.5
proc tcl::mathfunc::a boolean {
puts "a($boolean) called"
return $boolean
}
proc tcl::mathfunc::b boolean {
puts "b($boolean) called"
return $boolean
}
foreach i {false true} {
foreach j {false true} {
set x [expr {a($i) && b($j)}]
puts "x = a($i) && b($j) = $x"
set y [expr {a($i) || b($j)}]
puts "y = a($i) || b($j) = $y"
puts "";
}
}
| Private Function a(i As Variant) As Boolean
Debug.Print "a: "; i = 1,
a = i
End Function
Private Function b(j As Variant) As Boolean
Debug.Print "b: "; j = 1;
b = j
End Function
Public Sub short_circuit()
Dim x As Boolean, y As Boolean
Debug.Print "=====AND=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print "======OR=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If Not a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print
End Sub
|
Keep all operations the same but rewrite the snippet in Go. | package require Tcl 8.5
proc tcl::mathfunc::a boolean {
puts "a($boolean) called"
return $boolean
}
proc tcl::mathfunc::b boolean {
puts "b($boolean) called"
return $boolean
}
foreach i {false true} {
foreach j {false true} {
set x [expr {a($i) && b($j)}]
puts "x = a($i) && b($j) = $x"
set y [expr {a($i) || b($j)}]
puts "y = a($i) || b($j) = $y"
puts "";
}
}
| package main
import "fmt"
func a(v bool) bool {
fmt.Print("a")
return v
}
func b(v bool) bool {
fmt.Print("b")
return v
}
func test(i, j bool) {
fmt.Printf("Testing a(%t) && b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) && b(j))
fmt.Printf("Testing a(%t) || b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) || b(j))
fmt.Println("")
}
func main() {
test(false, false)
test(false, true)
test(true, false)
test(true, true)
}
|
Translate this program into Rust but keep the logic exactly as in C. | #include <stdio.h>
#include <stdbool.h>
bool a(bool in)
{
printf("I am a\n");
return in;
}
bool b(bool in)
{
printf("I am b\n");
return in;
}
#define TEST(X,Y,O) \
do { \
x = a(X) O b(Y); \
printf(#X " " #O " " #Y " = %s\n\n", x ? "true" : "false"); \
} while(false);
int main()
{
bool x;
TEST(false, true, &&);
TEST(true, false, ||);
TEST(true, false, &&);
TEST(false, false, ||);
return 0;
}
| fn a(foo: bool) -> bool {
println!("a");
foo
}
fn b(foo: bool) -> bool {
println!("b");
foo
}
fn main() {
for i in vec![true, false] {
for j in vec![true, false] {
println!("{} and {} == {}", i, j, a(i) && b(j));
println!("{} or {} == {}", i, j, a(i) || b(j));
println!();
}
}
}
|
Change the programming language of this snippet from C++ to Rust without modifying what it does. | #include <iostream>
bool a(bool in)
{
std::cout << "a" << std::endl;
return in;
}
bool b(bool in)
{
std::cout << "b" << std::endl;
return in;
}
void test(bool i, bool j) {
std::cout << std::boolalpha << i << " and " << j << " = " << (a(i) && b(j)) << std::endl;
std::cout << std::boolalpha << i << " or " << j << " = " << (a(i) || b(j)) << std::endl;
}
int main()
{
test(false, false);
test(false, true);
test(true, false);
test(true, true);
return 0;
}
| fn a(foo: bool) -> bool {
println!("a");
foo
}
fn b(foo: bool) -> bool {
println!("b");
foo
}
fn main() {
for i in vec![true, false] {
for j in vec![true, false] {
println!("{} and {} == {}", i, j, a(i) && b(j));
println!("{} or {} == {}", i, j, a(i) || b(j));
println!();
}
}
}
|
Translate the given C# code snippet into Rust without altering its behavior. | using System;
class Program
{
static bool a(bool value)
{
Console.WriteLine("a");
return value;
}
static bool b(bool value)
{
Console.WriteLine("b");
return value;
}
static void Main()
{
foreach (var i in new[] { false, true })
{
foreach (var j in new[] { false, true })
{
Console.WriteLine("{0} and {1} = {2}", i, j, a(i) && b(j));
Console.WriteLine();
Console.WriteLine("{0} or {1} = {2}", i, j, a(i) || b(j));
Console.WriteLine();
}
}
}
}
| fn a(foo: bool) -> bool {
println!("a");
foo
}
fn b(foo: bool) -> bool {
println!("b");
foo
}
fn main() {
for i in vec![true, false] {
for j in vec![true, false] {
println!("{} and {} == {}", i, j, a(i) && b(j));
println!("{} or {} == {}", i, j, a(i) || b(j));
println!();
}
}
}
|
Translate the given Java code snippet into Rust without altering its behavior. | module test
{
@Inject Console console;
static Boolean show(String name, Boolean value)
{
console.print($"{name}()={value}");
return value;
}
void run()
{
val a = show("a", _);
val b = show("b", _);
for (Boolean v1 : False..True)
{
for (Boolean v2 : False..True)
{
console.print($"a({v1}) && b({v2}) == {a(v1) && b(v2)}");
console.print();
console.print($"a({v1}) || b({v2}) == {a(v1) || b(v2)}");
console.print();
}
}
}
}
| fn a(foo: bool) -> bool {
println!("a");
foo
}
fn b(foo: bool) -> bool {
println!("b");
foo
}
fn main() {
for i in vec![true, false] {
for j in vec![true, false] {
println!("{} and {} == {}", i, j, a(i) && b(j));
println!("{} or {} == {}", i, j, a(i) || b(j));
println!();
}
}
}
|
Transform the following Go implementation into Rust, maintaining the same output and logic. | package main
import "fmt"
func a(v bool) bool {
fmt.Print("a")
return v
}
func b(v bool) bool {
fmt.Print("b")
return v
}
func test(i, j bool) {
fmt.Printf("Testing a(%t) && b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) && b(j))
fmt.Printf("Testing a(%t) || b(%t)\n", i, j)
fmt.Print("Trace: ")
fmt.Println("\nResult:", a(i) || b(j))
fmt.Println("")
}
func main() {
test(false, false)
test(false, true)
test(true, false)
test(true, true)
}
| fn a(foo: bool) -> bool {
println!("a");
foo
}
fn b(foo: bool) -> bool {
println!("b");
foo
}
fn main() {
for i in vec![true, false] {
for j in vec![true, false] {
println!("{} and {} == {}", i, j, a(i) && b(j));
println!("{} or {} == {}", i, j, a(i) || b(j));
println!();
}
}
}
|
Convert the following code from Rust to Python, ensuring the logic remains intact. | fn a(foo: bool) -> bool {
println!("a");
foo
}
fn b(foo: bool) -> bool {
println!("b");
foo
}
fn main() {
for i in vec![true, false] {
for j in vec![true, false] {
println!("{} and {} == {}", i, j, a(i) && b(j));
println!("{} or {} == {}", i, j, a(i) || b(j));
println!();
}
}
}
| >>> def a(answer):
print("
return answer
>>> def b(answer):
print("
return answer
>>> for i in (False, True):
for j in (False, True):
print ("\nCalculating: x = a(i) and b(j)")
x = a(i) and b(j)
print ("Calculating: y = a(i) or b(j)")
y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
|
Translate this program into VB but keep the logic exactly as in Rust. | fn a(foo: bool) -> bool {
println!("a");
foo
}
fn b(foo: bool) -> bool {
println!("b");
foo
}
fn main() {
for i in vec![true, false] {
for j in vec![true, false] {
println!("{} and {} == {}", i, j, a(i) && b(j));
println!("{} or {} == {}", i, j, a(i) || b(j));
println!();
}
}
}
| Private Function a(i As Variant) As Boolean
Debug.Print "a: "; i = 1,
a = i
End Function
Private Function b(j As Variant) As Boolean
Debug.Print "b: "; j = 1;
b = j
End Function
Public Sub short_circuit()
Dim x As Boolean, y As Boolean
Debug.Print "=====AND=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print "======OR=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If Not a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print
End Sub
|
Change the programming language of this snippet from Ada to C# without modifying what it does. | package Server is
pragma Remote_Call_Interface;
procedure Foo;
function Bar return Natural;
end Server;
| using System;
using System.IO;
using System.Net;
using System.Net.Sockets;
using System.Runtime.Serialization.Formatters.Binary;
using System.Threading.Tasks;
using static System.Console;
class DistributedProgramming
{
const int Port = 555;
async static Task RunClient()
{
WriteLine("Connecting");
var client = new TcpClient();
await client.ConnectAsync("localhost", Port);
using (var stream = client.GetStream())
{
WriteLine("Sending loot");
var data = Serialize(new SampleData());
await stream.WriteAsync(data, 0, data.Length);
WriteLine("Receiving thanks");
var buffer = new byte[80000];
var bytesRead = await stream.ReadAsync(buffer, 0, buffer.Length);
var thanks = (string)Deserialize(buffer, bytesRead);
WriteLine(thanks);
}
client.Close();
}
async static Task RunServer()
{
WriteLine("Listening");
var listener = new TcpListener(IPAddress.Any, Port);
listener.Start();
var client = await listener.AcceptTcpClientAsync();
using (var stream = client.GetStream())
{
WriteLine("Receiving loot");
var buffer = new byte[80000];
var bytesRead = await stream.ReadAsync(buffer, 0, buffer.Length);
var data = (SampleData)Deserialize(buffer, bytesRead);
WriteLine($"{data.Loot} at {data.Latitude}, {data.Longitude}");
WriteLine("Sending thanks");
var thanks = Serialize("Thanks!");
await stream.WriteAsync(thanks, 0, thanks.Length);
}
client.Close();
listener.Stop();
Write("Press a key");
ReadKey();
}
static byte[] Serialize(object data)
{
using (var mem = new MemoryStream())
{
new BinaryFormatter().Serialize(mem, data);
return mem.ToArray();
}
}
static object Deserialize(byte[] data, int length)
{
using (var mem = new MemoryStream(data, 0, length))
{
return new BinaryFormatter().Deserialize(mem);
}
}
static void Main(string[] args)
{
if (args.Length == 0) return;
switch (args[0])
{
case "client": RunClient().Wait(); break;
case "server": RunServer().Wait(); break;
}
}
}
[Serializable]
class SampleData
{
public decimal Latitude = 44.33190m;
public decimal Longitude = 114.84129m;
public string Loot = "140 tonnes of jade";
}
|
Port the provided Ada code into C while preserving the original functionality. | package Server is
pragma Remote_Call_Interface;
procedure Foo;
function Bar return Natural;
end Server;
| #include <stdio.h>
#include <stdlib.h>
#include <pvm3.h>
int main(int c, char **v)
{
int tids[10];
int parent, spawn;
int i_data, i2;
double f_data;
if (c > 1) {
spawn = pvm_spawn("/tmp/a.out", 0, PvmTaskDefault, 0, 1, tids);
if (spawn <= 0) {
printf("Can't spawn task\n");
return 1;
}
printf("Spawning successful\n");
pvm_recv(-1, 2);
pvm_unpackf("%d %d", &i_data, &i2);
printf("got msg type 2: %d %d\n", i_data, i2);
pvm_recv(-1, 1);
pvm_unpackf("%d %lf", &i_data, &f_data);
printf("got msg type 1: %d %f\n", i_data, f_data);
} else {
parent = pvm_parent();
pvm_initsend(PvmDataDefault);
i_data = rand();
f_data = (double)rand() / RAND_MAX;
pvm_packf("%d %lf", i_data, f_data);
pvm_send(parent, 1);
pvm_initsend(PvmDataDefault);
i2 = rand();
pvm_packf("%d %d", i_data, i2);
pvm_send(parent, 2);
}
pvm_exit();
return 0;
}
|
Convert this Ada block to Go, preserving its control flow and logic. | package Server is
pragma Remote_Call_Interface;
procedure Foo;
function Bar return Natural;
end Server;
| package main
import (
"errors"
"log"
"net"
"net/http"
"net/rpc"
)
type TaxComputer float64
func (taxRate TaxComputer) Tax(x float64, r *float64) error {
if x < 0 {
return errors.New("Negative values not allowed")
}
*r = x * float64(taxRate)
return nil
}
func main() {
c := TaxComputer(.05)
rpc.Register(c)
rpc.HandleHTTP()
listener, err := net.Listen("tcp", ":1234")
if err != nil {
log.Fatal(err)
}
http.Serve(listener, nil)
}
|
Ensure the translated Python code behaves exactly like the original Ada snippet. | package Server is
pragma Remote_Call_Interface;
procedure Foo;
function Bar return Natural;
end Server;
|
import SimpleXMLRPCServer
class MyHandlerInstance:
def echo(self, data):
return 'Server responded: %s' % data
def div(self, num1, num2):
return num1/num2
def foo_function():
return True
HOST = "localhost"
PORT = 8000
server = SimpleXMLRPCServer.SimpleXMLRPCServer((HOST, PORT))
server.register_introspection_functions()
server.register_instance(MyHandlerInstance())
server.register_function(foo_function)
try:
server.serve_forever()
except KeyboardInterrupt:
print 'Exiting...'
server.server_close()
|
Generate an equivalent C version of this Common_Lisp code. | > (defun get-server-name ()
(list_to_atom (++ "exampleserver@" (element 2 (inet:gethostname)))))
> (defun start ()
(net_kernel:start `(,(get-server-name) shortnames))
(erlang:set_cookie (node) 'rosettaexample)
(let ((pid (spawn #'listen/0)))
(register 'serverref pid)
(io:format "~p ready~n" (list (node pid)))
'ok))
> (defun listen ()
(receive
(`#(echo ,pid ,data)
(io:format "Got ~p from ~p~n" (list data (node pid)))
(! pid `#(hello ,data))
(listen))
(x
(io:format "Unexpected pattern: ~p~n" `(,x)))))
| #include <stdio.h>
#include <stdlib.h>
#include <pvm3.h>
int main(int c, char **v)
{
int tids[10];
int parent, spawn;
int i_data, i2;
double f_data;
if (c > 1) {
spawn = pvm_spawn("/tmp/a.out", 0, PvmTaskDefault, 0, 1, tids);
if (spawn <= 0) {
printf("Can't spawn task\n");
return 1;
}
printf("Spawning successful\n");
pvm_recv(-1, 2);
pvm_unpackf("%d %d", &i_data, &i2);
printf("got msg type 2: %d %d\n", i_data, i2);
pvm_recv(-1, 1);
pvm_unpackf("%d %lf", &i_data, &f_data);
printf("got msg type 1: %d %f\n", i_data, f_data);
} else {
parent = pvm_parent();
pvm_initsend(PvmDataDefault);
i_data = rand();
f_data = (double)rand() / RAND_MAX;
pvm_packf("%d %lf", i_data, f_data);
pvm_send(parent, 1);
pvm_initsend(PvmDataDefault);
i2 = rand();
pvm_packf("%d %d", i_data, i2);
pvm_send(parent, 2);
}
pvm_exit();
return 0;
}
|
Ensure the translated C# code behaves exactly like the original Common_Lisp snippet. | > (defun get-server-name ()
(list_to_atom (++ "exampleserver@" (element 2 (inet:gethostname)))))
> (defun start ()
(net_kernel:start `(,(get-server-name) shortnames))
(erlang:set_cookie (node) 'rosettaexample)
(let ((pid (spawn #'listen/0)))
(register 'serverref pid)
(io:format "~p ready~n" (list (node pid)))
'ok))
> (defun listen ()
(receive
(`#(echo ,pid ,data)
(io:format "Got ~p from ~p~n" (list data (node pid)))
(! pid `#(hello ,data))
(listen))
(x
(io:format "Unexpected pattern: ~p~n" `(,x)))))
| using System;
using System.IO;
using System.Net;
using System.Net.Sockets;
using System.Runtime.Serialization.Formatters.Binary;
using System.Threading.Tasks;
using static System.Console;
class DistributedProgramming
{
const int Port = 555;
async static Task RunClient()
{
WriteLine("Connecting");
var client = new TcpClient();
await client.ConnectAsync("localhost", Port);
using (var stream = client.GetStream())
{
WriteLine("Sending loot");
var data = Serialize(new SampleData());
await stream.WriteAsync(data, 0, data.Length);
WriteLine("Receiving thanks");
var buffer = new byte[80000];
var bytesRead = await stream.ReadAsync(buffer, 0, buffer.Length);
var thanks = (string)Deserialize(buffer, bytesRead);
WriteLine(thanks);
}
client.Close();
}
async static Task RunServer()
{
WriteLine("Listening");
var listener = new TcpListener(IPAddress.Any, Port);
listener.Start();
var client = await listener.AcceptTcpClientAsync();
using (var stream = client.GetStream())
{
WriteLine("Receiving loot");
var buffer = new byte[80000];
var bytesRead = await stream.ReadAsync(buffer, 0, buffer.Length);
var data = (SampleData)Deserialize(buffer, bytesRead);
WriteLine($"{data.Loot} at {data.Latitude}, {data.Longitude}");
WriteLine("Sending thanks");
var thanks = Serialize("Thanks!");
await stream.WriteAsync(thanks, 0, thanks.Length);
}
client.Close();
listener.Stop();
Write("Press a key");
ReadKey();
}
static byte[] Serialize(object data)
{
using (var mem = new MemoryStream())
{
new BinaryFormatter().Serialize(mem, data);
return mem.ToArray();
}
}
static object Deserialize(byte[] data, int length)
{
using (var mem = new MemoryStream(data, 0, length))
{
return new BinaryFormatter().Deserialize(mem);
}
}
static void Main(string[] args)
{
if (args.Length == 0) return;
switch (args[0])
{
case "client": RunClient().Wait(); break;
case "server": RunServer().Wait(); break;
}
}
}
[Serializable]
class SampleData
{
public decimal Latitude = 44.33190m;
public decimal Longitude = 114.84129m;
public string Loot = "140 tonnes of jade";
}
|
Rewrite the snippet below in Python so it works the same as the original Common_Lisp code. | > (defun get-server-name ()
(list_to_atom (++ "exampleserver@" (element 2 (inet:gethostname)))))
> (defun start ()
(net_kernel:start `(,(get-server-name) shortnames))
(erlang:set_cookie (node) 'rosettaexample)
(let ((pid (spawn #'listen/0)))
(register 'serverref pid)
(io:format "~p ready~n" (list (node pid)))
'ok))
> (defun listen ()
(receive
(`#(echo ,pid ,data)
(io:format "Got ~p from ~p~n" (list data (node pid)))
(! pid `#(hello ,data))
(listen))
(x
(io:format "Unexpected pattern: ~p~n" `(,x)))))
|
import SimpleXMLRPCServer
class MyHandlerInstance:
def echo(self, data):
return 'Server responded: %s' % data
def div(self, num1, num2):
return num1/num2
def foo_function():
return True
HOST = "localhost"
PORT = 8000
server = SimpleXMLRPCServer.SimpleXMLRPCServer((HOST, PORT))
server.register_introspection_functions()
server.register_instance(MyHandlerInstance())
server.register_function(foo_function)
try:
server.serve_forever()
except KeyboardInterrupt:
print 'Exiting...'
server.server_close()
|
Convert this Common_Lisp block to Go, preserving its control flow and logic. | > (defun get-server-name ()
(list_to_atom (++ "exampleserver@" (element 2 (inet:gethostname)))))
> (defun start ()
(net_kernel:start `(,(get-server-name) shortnames))
(erlang:set_cookie (node) 'rosettaexample)
(let ((pid (spawn #'listen/0)))
(register 'serverref pid)
(io:format "~p ready~n" (list (node pid)))
'ok))
> (defun listen ()
(receive
(`#(echo ,pid ,data)
(io:format "Got ~p from ~p~n" (list data (node pid)))
(! pid `#(hello ,data))
(listen))
(x
(io:format "Unexpected pattern: ~p~n" `(,x)))))
| package main
import (
"errors"
"log"
"net"
"net/http"
"net/rpc"
)
type TaxComputer float64
func (taxRate TaxComputer) Tax(x float64, r *float64) error {
if x < 0 {
return errors.New("Negative values not allowed")
}
*r = x * float64(taxRate)
return nil
}
func main() {
c := TaxComputer(.05)
rpc.Register(c)
rpc.HandleHTTP()
listener, err := net.Listen("tcp", ":1234")
if err != nil {
log.Fatal(err)
}
http.Serve(listener, nil)
}
|
Translate the given D code snippet into C without altering its behavior. | import arsd.rpc;
struct S1 {
int number;
string name;
}
struct S2 {
string name;
int number;
}
interface ExampleNetworkFunctions {
string sayHello(string name);
int add(in int a, in int b) const pure nothrow;
S2 structTest(S1);
void die();
}
class ExampleServer : ExampleNetworkFunctions {
override string sayHello(string name) {
return "Hello, " ~ name;
}
override int add(in int a, in int b) const pure nothrow {
return a + b;
}
override S2 structTest(S1 a) {
return S2(a.name, a.number);
}
override void die() {
throw new Exception("death requested");
}
mixin NetworkServer!ExampleNetworkFunctions;
}
class Client {
mixin NetworkClient!ExampleNetworkFunctions;
}
void main(in string[] args) {
import std.stdio;
if (args.length > 1) {
auto client = new Client("localhost", 5005);
client.sayHello("whoa", (a) { writeln(a); }, null);
client.add(1,2, (a){ writeln(a); }, null);
client.add(10,20, (a){ writeln(a); }, null);
client.structTest(S1(20, "cool!"),
(a){ writeln(a.name, " -- ", a.number); },
null);
client.die(delegate(){ writeln("shouldn't happen"); },
delegate(a){ writeln(a); });
client.eventLoop;
} else {
auto server = new ExampleServer(5005);
server.eventLoop;
}
}
| #include <stdio.h>
#include <stdlib.h>
#include <pvm3.h>
int main(int c, char **v)
{
int tids[10];
int parent, spawn;
int i_data, i2;
double f_data;
if (c > 1) {
spawn = pvm_spawn("/tmp/a.out", 0, PvmTaskDefault, 0, 1, tids);
if (spawn <= 0) {
printf("Can't spawn task\n");
return 1;
}
printf("Spawning successful\n");
pvm_recv(-1, 2);
pvm_unpackf("%d %d", &i_data, &i2);
printf("got msg type 2: %d %d\n", i_data, i2);
pvm_recv(-1, 1);
pvm_unpackf("%d %lf", &i_data, &f_data);
printf("got msg type 1: %d %f\n", i_data, f_data);
} else {
parent = pvm_parent();
pvm_initsend(PvmDataDefault);
i_data = rand();
f_data = (double)rand() / RAND_MAX;
pvm_packf("%d %lf", i_data, f_data);
pvm_send(parent, 1);
pvm_initsend(PvmDataDefault);
i2 = rand();
pvm_packf("%d %d", i_data, i2);
pvm_send(parent, 2);
}
pvm_exit();
return 0;
}
|
Port the provided D code into C# while preserving the original functionality. | import arsd.rpc;
struct S1 {
int number;
string name;
}
struct S2 {
string name;
int number;
}
interface ExampleNetworkFunctions {
string sayHello(string name);
int add(in int a, in int b) const pure nothrow;
S2 structTest(S1);
void die();
}
class ExampleServer : ExampleNetworkFunctions {
override string sayHello(string name) {
return "Hello, " ~ name;
}
override int add(in int a, in int b) const pure nothrow {
return a + b;
}
override S2 structTest(S1 a) {
return S2(a.name, a.number);
}
override void die() {
throw new Exception("death requested");
}
mixin NetworkServer!ExampleNetworkFunctions;
}
class Client {
mixin NetworkClient!ExampleNetworkFunctions;
}
void main(in string[] args) {
import std.stdio;
if (args.length > 1) {
auto client = new Client("localhost", 5005);
client.sayHello("whoa", (a) { writeln(a); }, null);
client.add(1,2, (a){ writeln(a); }, null);
client.add(10,20, (a){ writeln(a); }, null);
client.structTest(S1(20, "cool!"),
(a){ writeln(a.name, " -- ", a.number); },
null);
client.die(delegate(){ writeln("shouldn't happen"); },
delegate(a){ writeln(a); });
client.eventLoop;
} else {
auto server = new ExampleServer(5005);
server.eventLoop;
}
}
| using System;
using System.IO;
using System.Net;
using System.Net.Sockets;
using System.Runtime.Serialization.Formatters.Binary;
using System.Threading.Tasks;
using static System.Console;
class DistributedProgramming
{
const int Port = 555;
async static Task RunClient()
{
WriteLine("Connecting");
var client = new TcpClient();
await client.ConnectAsync("localhost", Port);
using (var stream = client.GetStream())
{
WriteLine("Sending loot");
var data = Serialize(new SampleData());
await stream.WriteAsync(data, 0, data.Length);
WriteLine("Receiving thanks");
var buffer = new byte[80000];
var bytesRead = await stream.ReadAsync(buffer, 0, buffer.Length);
var thanks = (string)Deserialize(buffer, bytesRead);
WriteLine(thanks);
}
client.Close();
}
async static Task RunServer()
{
WriteLine("Listening");
var listener = new TcpListener(IPAddress.Any, Port);
listener.Start();
var client = await listener.AcceptTcpClientAsync();
using (var stream = client.GetStream())
{
WriteLine("Receiving loot");
var buffer = new byte[80000];
var bytesRead = await stream.ReadAsync(buffer, 0, buffer.Length);
var data = (SampleData)Deserialize(buffer, bytesRead);
WriteLine($"{data.Loot} at {data.Latitude}, {data.Longitude}");
WriteLine("Sending thanks");
var thanks = Serialize("Thanks!");
await stream.WriteAsync(thanks, 0, thanks.Length);
}
client.Close();
listener.Stop();
Write("Press a key");
ReadKey();
}
static byte[] Serialize(object data)
{
using (var mem = new MemoryStream())
{
new BinaryFormatter().Serialize(mem, data);
return mem.ToArray();
}
}
static object Deserialize(byte[] data, int length)
{
using (var mem = new MemoryStream(data, 0, length))
{
return new BinaryFormatter().Deserialize(mem);
}
}
static void Main(string[] args)
{
if (args.Length == 0) return;
switch (args[0])
{
case "client": RunClient().Wait(); break;
case "server": RunServer().Wait(); break;
}
}
}
[Serializable]
class SampleData
{
public decimal Latitude = 44.33190m;
public decimal Longitude = 114.84129m;
public string Loot = "140 tonnes of jade";
}
|
Transform the following D implementation into Python, maintaining the same output and logic. | import arsd.rpc;
struct S1 {
int number;
string name;
}
struct S2 {
string name;
int number;
}
interface ExampleNetworkFunctions {
string sayHello(string name);
int add(in int a, in int b) const pure nothrow;
S2 structTest(S1);
void die();
}
class ExampleServer : ExampleNetworkFunctions {
override string sayHello(string name) {
return "Hello, " ~ name;
}
override int add(in int a, in int b) const pure nothrow {
return a + b;
}
override S2 structTest(S1 a) {
return S2(a.name, a.number);
}
override void die() {
throw new Exception("death requested");
}
mixin NetworkServer!ExampleNetworkFunctions;
}
class Client {
mixin NetworkClient!ExampleNetworkFunctions;
}
void main(in string[] args) {
import std.stdio;
if (args.length > 1) {
auto client = new Client("localhost", 5005);
client.sayHello("whoa", (a) { writeln(a); }, null);
client.add(1,2, (a){ writeln(a); }, null);
client.add(10,20, (a){ writeln(a); }, null);
client.structTest(S1(20, "cool!"),
(a){ writeln(a.name, " -- ", a.number); },
null);
client.die(delegate(){ writeln("shouldn't happen"); },
delegate(a){ writeln(a); });
client.eventLoop;
} else {
auto server = new ExampleServer(5005);
server.eventLoop;
}
}
|
import SimpleXMLRPCServer
class MyHandlerInstance:
def echo(self, data):
return 'Server responded: %s' % data
def div(self, num1, num2):
return num1/num2
def foo_function():
return True
HOST = "localhost"
PORT = 8000
server = SimpleXMLRPCServer.SimpleXMLRPCServer((HOST, PORT))
server.register_introspection_functions()
server.register_instance(MyHandlerInstance())
server.register_function(foo_function)
try:
server.serve_forever()
except KeyboardInterrupt:
print 'Exiting...'
server.server_close()
|
Please provide an equivalent version of this D code in Go. | import arsd.rpc;
struct S1 {
int number;
string name;
}
struct S2 {
string name;
int number;
}
interface ExampleNetworkFunctions {
string sayHello(string name);
int add(in int a, in int b) const pure nothrow;
S2 structTest(S1);
void die();
}
class ExampleServer : ExampleNetworkFunctions {
override string sayHello(string name) {
return "Hello, " ~ name;
}
override int add(in int a, in int b) const pure nothrow {
return a + b;
}
override S2 structTest(S1 a) {
return S2(a.name, a.number);
}
override void die() {
throw new Exception("death requested");
}
mixin NetworkServer!ExampleNetworkFunctions;
}
class Client {
mixin NetworkClient!ExampleNetworkFunctions;
}
void main(in string[] args) {
import std.stdio;
if (args.length > 1) {
auto client = new Client("localhost", 5005);
client.sayHello("whoa", (a) { writeln(a); }, null);
client.add(1,2, (a){ writeln(a); }, null);
client.add(10,20, (a){ writeln(a); }, null);
client.structTest(S1(20, "cool!"),
(a){ writeln(a.name, " -- ", a.number); },
null);
client.die(delegate(){ writeln("shouldn't happen"); },
delegate(a){ writeln(a); });
client.eventLoop;
} else {
auto server = new ExampleServer(5005);
server.eventLoop;
}
}
| package main
import (
"errors"
"log"
"net"
"net/http"
"net/rpc"
)
type TaxComputer float64
func (taxRate TaxComputer) Tax(x float64, r *float64) error {
if x < 0 {
return errors.New("Negative values not allowed")
}
*r = x * float64(taxRate)
return nil
}
func main() {
c := TaxComputer(.05)
rpc.Register(c)
rpc.HandleHTTP()
listener, err := net.Listen("tcp", ":1234")
if err != nil {
log.Fatal(err)
}
http.Serve(listener, nil)
}
|
Please provide an equivalent version of this Erlang code in C. | -module(srv).
-export([start/0, wait/0]).
start() ->
net_kernel:start([srv,shortnames]),
erlang:set_cookie(node(), rosetta),
Pid = spawn(srv,wait,[]),
register(srv,Pid),
io:fwrite("~p ready~n",[node(Pid)]),
ok.
wait() ->
receive
{echo, Pid, Any} ->
io:fwrite("-> ~p from ~p~n", [Any, node(Pid)]),
Pid ! {hello, Any},
wait();
Any -> io:fwrite("Error ~p~n", [Any])
end.
| #include <stdio.h>
#include <stdlib.h>
#include <pvm3.h>
int main(int c, char **v)
{
int tids[10];
int parent, spawn;
int i_data, i2;
double f_data;
if (c > 1) {
spawn = pvm_spawn("/tmp/a.out", 0, PvmTaskDefault, 0, 1, tids);
if (spawn <= 0) {
printf("Can't spawn task\n");
return 1;
}
printf("Spawning successful\n");
pvm_recv(-1, 2);
pvm_unpackf("%d %d", &i_data, &i2);
printf("got msg type 2: %d %d\n", i_data, i2);
pvm_recv(-1, 1);
pvm_unpackf("%d %lf", &i_data, &f_data);
printf("got msg type 1: %d %f\n", i_data, f_data);
} else {
parent = pvm_parent();
pvm_initsend(PvmDataDefault);
i_data = rand();
f_data = (double)rand() / RAND_MAX;
pvm_packf("%d %lf", i_data, f_data);
pvm_send(parent, 1);
pvm_initsend(PvmDataDefault);
i2 = rand();
pvm_packf("%d %d", i_data, i2);
pvm_send(parent, 2);
}
pvm_exit();
return 0;
}
|
Change the following Erlang code into C# without altering its purpose. | -module(srv).
-export([start/0, wait/0]).
start() ->
net_kernel:start([srv,shortnames]),
erlang:set_cookie(node(), rosetta),
Pid = spawn(srv,wait,[]),
register(srv,Pid),
io:fwrite("~p ready~n",[node(Pid)]),
ok.
wait() ->
receive
{echo, Pid, Any} ->
io:fwrite("-> ~p from ~p~n", [Any, node(Pid)]),
Pid ! {hello, Any},
wait();
Any -> io:fwrite("Error ~p~n", [Any])
end.
| using System;
using System.IO;
using System.Net;
using System.Net.Sockets;
using System.Runtime.Serialization.Formatters.Binary;
using System.Threading.Tasks;
using static System.Console;
class DistributedProgramming
{
const int Port = 555;
async static Task RunClient()
{
WriteLine("Connecting");
var client = new TcpClient();
await client.ConnectAsync("localhost", Port);
using (var stream = client.GetStream())
{
WriteLine("Sending loot");
var data = Serialize(new SampleData());
await stream.WriteAsync(data, 0, data.Length);
WriteLine("Receiving thanks");
var buffer = new byte[80000];
var bytesRead = await stream.ReadAsync(buffer, 0, buffer.Length);
var thanks = (string)Deserialize(buffer, bytesRead);
WriteLine(thanks);
}
client.Close();
}
async static Task RunServer()
{
WriteLine("Listening");
var listener = new TcpListener(IPAddress.Any, Port);
listener.Start();
var client = await listener.AcceptTcpClientAsync();
using (var stream = client.GetStream())
{
WriteLine("Receiving loot");
var buffer = new byte[80000];
var bytesRead = await stream.ReadAsync(buffer, 0, buffer.Length);
var data = (SampleData)Deserialize(buffer, bytesRead);
WriteLine($"{data.Loot} at {data.Latitude}, {data.Longitude}");
WriteLine("Sending thanks");
var thanks = Serialize("Thanks!");
await stream.WriteAsync(thanks, 0, thanks.Length);
}
client.Close();
listener.Stop();
Write("Press a key");
ReadKey();
}
static byte[] Serialize(object data)
{
using (var mem = new MemoryStream())
{
new BinaryFormatter().Serialize(mem, data);
return mem.ToArray();
}
}
static object Deserialize(byte[] data, int length)
{
using (var mem = new MemoryStream(data, 0, length))
{
return new BinaryFormatter().Deserialize(mem);
}
}
static void Main(string[] args)
{
if (args.Length == 0) return;
switch (args[0])
{
case "client": RunClient().Wait(); break;
case "server": RunServer().Wait(); break;
}
}
}
[Serializable]
class SampleData
{
public decimal Latitude = 44.33190m;
public decimal Longitude = 114.84129m;
public string Loot = "140 tonnes of jade";
}
|
Preserve the algorithm and functionality while converting the code from Erlang to Python. | -module(srv).
-export([start/0, wait/0]).
start() ->
net_kernel:start([srv,shortnames]),
erlang:set_cookie(node(), rosetta),
Pid = spawn(srv,wait,[]),
register(srv,Pid),
io:fwrite("~p ready~n",[node(Pid)]),
ok.
wait() ->
receive
{echo, Pid, Any} ->
io:fwrite("-> ~p from ~p~n", [Any, node(Pid)]),
Pid ! {hello, Any},
wait();
Any -> io:fwrite("Error ~p~n", [Any])
end.
|
import SimpleXMLRPCServer
class MyHandlerInstance:
def echo(self, data):
return 'Server responded: %s' % data
def div(self, num1, num2):
return num1/num2
def foo_function():
return True
HOST = "localhost"
PORT = 8000
server = SimpleXMLRPCServer.SimpleXMLRPCServer((HOST, PORT))
server.register_introspection_functions()
server.register_instance(MyHandlerInstance())
server.register_function(foo_function)
try:
server.serve_forever()
except KeyboardInterrupt:
print 'Exiting...'
server.server_close()
|
Produce a language-to-language conversion: from Erlang to Go, same semantics. | -module(srv).
-export([start/0, wait/0]).
start() ->
net_kernel:start([srv,shortnames]),
erlang:set_cookie(node(), rosetta),
Pid = spawn(srv,wait,[]),
register(srv,Pid),
io:fwrite("~p ready~n",[node(Pid)]),
ok.
wait() ->
receive
{echo, Pid, Any} ->
io:fwrite("-> ~p from ~p~n", [Any, node(Pid)]),
Pid ! {hello, Any},
wait();
Any -> io:fwrite("Error ~p~n", [Any])
end.
| package main
import (
"errors"
"log"
"net"
"net/http"
"net/rpc"
)
type TaxComputer float64
func (taxRate TaxComputer) Tax(x float64, r *float64) error {
if x < 0 {
return errors.New("Negative values not allowed")
}
*r = x * float64(taxRate)
return nil
}
func main() {
c := TaxComputer(.05)
rpc.Register(c)
rpc.HandleHTTP()
listener, err := net.Listen("tcp", ":1234")
if err != nil {
log.Fatal(err)
}
http.Serve(listener, nil)
}
|
Keep all operations the same but rewrite the snippet in C. | USING: concurrency.distributed concurrency.messaging threads io.sockets io.servers ;
QUALIFIED: concurrency.messaging
: prettyprint-message ( -- ) concurrency.messaging:receive . flush prettyprint-message ;
[ prettyprint-message ] "logger" spawn dup name>> register-remote-thread
"127.0.0.1" 9000 <inet4> <node-server> start-server
| #include <stdio.h>
#include <stdlib.h>
#include <pvm3.h>
int main(int c, char **v)
{
int tids[10];
int parent, spawn;
int i_data, i2;
double f_data;
if (c > 1) {
spawn = pvm_spawn("/tmp/a.out", 0, PvmTaskDefault, 0, 1, tids);
if (spawn <= 0) {
printf("Can't spawn task\n");
return 1;
}
printf("Spawning successful\n");
pvm_recv(-1, 2);
pvm_unpackf("%d %d", &i_data, &i2);
printf("got msg type 2: %d %d\n", i_data, i2);
pvm_recv(-1, 1);
pvm_unpackf("%d %lf", &i_data, &f_data);
printf("got msg type 1: %d %f\n", i_data, f_data);
} else {
parent = pvm_parent();
pvm_initsend(PvmDataDefault);
i_data = rand();
f_data = (double)rand() / RAND_MAX;
pvm_packf("%d %lf", i_data, f_data);
pvm_send(parent, 1);
pvm_initsend(PvmDataDefault);
i2 = rand();
pvm_packf("%d %d", i_data, i2);
pvm_send(parent, 2);
}
pvm_exit();
return 0;
}
|
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