Instruction stringlengths 45 106 | input_code stringlengths 1 13.7k | output_code stringlengths 1 13.7k |
|---|---|---|
Generate a VB translation of this Elixir snippet without changing its computational steps. | defmodule Short_circuit do
defp a(bool) do
IO.puts "a(
bool
end
defp b(bool) do
IO.puts "b(
bool
end
def task do
Enum.each([true, false], fn i ->
Enum.each([true, false], fn j ->
IO.puts "a(
IO.puts "a(
end)
end)
end
end
Short_circuit.task
| 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 Elixir. | defmodule Short_circuit do
defp a(bool) do
IO.puts "a(
bool
end
defp b(bool) do
IO.puts "b(
bool
end
def task do
Enum.each([true, false], fn i ->
Enum.each([true, false], fn j ->
IO.puts "a(
IO.puts "a(
end)
end)
end
end
Short_circuit.task
| 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 the same algorithm in C as shown in this Erlang implementation. | -module( short_circuit_evaluation ).
-export( [task/0] ).
task() ->
[task_helper(X, Y) || X <- [true, false], Y <- [true, false]].
a( Boolean ) ->
io:fwrite( " a ~p~n", [Boolean] ),
Boolean.
b( Boolean ) ->
io:fwrite( " b ~p~n", [Boolean] ),
Boolean.
task_helper( Boolean1, Boolean2 ) ->
io:fwrite( "~p andalso ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) andalso b(Boolean2)] ),
io:fwrite( "~p orelse ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) orelse b(Boolean2)] ).
| #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 Erlang. | -module( short_circuit_evaluation ).
-export( [task/0] ).
task() ->
[task_helper(X, Y) || X <- [true, false], Y <- [true, false]].
a( Boolean ) ->
io:fwrite( " a ~p~n", [Boolean] ),
Boolean.
b( Boolean ) ->
io:fwrite( " b ~p~n", [Boolean] ),
Boolean.
task_helper( Boolean1, Boolean2 ) ->
io:fwrite( "~p andalso ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) andalso b(Boolean2)] ),
io:fwrite( "~p orelse ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) orelse b(Boolean2)] ).
| 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 Erlang. | -module( short_circuit_evaluation ).
-export( [task/0] ).
task() ->
[task_helper(X, Y) || X <- [true, false], Y <- [true, false]].
a( Boolean ) ->
io:fwrite( " a ~p~n", [Boolean] ),
Boolean.
b( Boolean ) ->
io:fwrite( " b ~p~n", [Boolean] ),
Boolean.
task_helper( Boolean1, Boolean2 ) ->
io:fwrite( "~p andalso ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) andalso b(Boolean2)] ),
io:fwrite( "~p orelse ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) orelse b(Boolean2)] ).
| #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;
}
|
Keep all operations the same but rewrite the snippet in Java. | -module( short_circuit_evaluation ).
-export( [task/0] ).
task() ->
[task_helper(X, Y) || X <- [true, false], Y <- [true, false]].
a( Boolean ) ->
io:fwrite( " a ~p~n", [Boolean] ),
Boolean.
b( Boolean ) ->
io:fwrite( " b ~p~n", [Boolean] ),
Boolean.
task_helper( Boolean1, Boolean2 ) ->
io:fwrite( "~p andalso ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) andalso b(Boolean2)] ),
io:fwrite( "~p orelse ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) orelse b(Boolean2)] ).
| 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 Erlang snippet to Python and keep its semantics consistent. | -module( short_circuit_evaluation ).
-export( [task/0] ).
task() ->
[task_helper(X, Y) || X <- [true, false], Y <- [true, false]].
a( Boolean ) ->
io:fwrite( " a ~p~n", [Boolean] ),
Boolean.
b( Boolean ) ->
io:fwrite( " b ~p~n", [Boolean] ),
Boolean.
task_helper( Boolean1, Boolean2 ) ->
io:fwrite( "~p andalso ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) andalso b(Boolean2)] ),
io:fwrite( "~p orelse ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) orelse b(Boolean2)] ).
| >>> 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 language-to-language conversion: from Erlang to VB, same semantics. | -module( short_circuit_evaluation ).
-export( [task/0] ).
task() ->
[task_helper(X, Y) || X <- [true, false], Y <- [true, false]].
a( Boolean ) ->
io:fwrite( " a ~p~n", [Boolean] ),
Boolean.
b( Boolean ) ->
io:fwrite( " b ~p~n", [Boolean] ),
Boolean.
task_helper( Boolean1, Boolean2 ) ->
io:fwrite( "~p andalso ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) andalso b(Boolean2)] ),
io:fwrite( "~p orelse ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) orelse b(Boolean2)] ).
| 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. | -module( short_circuit_evaluation ).
-export( [task/0] ).
task() ->
[task_helper(X, Y) || X <- [true, false], Y <- [true, false]].
a( Boolean ) ->
io:fwrite( " a ~p~n", [Boolean] ),
Boolean.
b( Boolean ) ->
io:fwrite( " b ~p~n", [Boolean] ),
Boolean.
task_helper( Boolean1, Boolean2 ) ->
io:fwrite( "~p andalso ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) andalso b(Boolean2)] ),
io:fwrite( "~p orelse ~p~n", [Boolean1, Boolean2] ),
io:fwrite( "=> ~p~n", [a(Boolean1) orelse b(Boolean2)] ).
| 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 the same code in C as shown below in F#. | let a (x : bool) = printf "(a)"; x
let b (x : bool) = printf "(b)"; x
[for x in [true; false] do for y in [true; false] do yield (x, y)]
|> List.iter (fun (x, y) ->
printfn "%b AND %b = %b" x y ((a x) && (b y))
printfn "%b OR %b = %b" x y ((a x) || (b y)))
| #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;
}
|
Port the following code from F# to C# with equivalent syntax and logic. | let a (x : bool) = printf "(a)"; x
let b (x : bool) = printf "(b)"; x
[for x in [true; false] do for y in [true; false] do yield (x, y)]
|> List.iter (fun (x, y) ->
printfn "%b AND %b = %b" x y ((a x) && (b y))
printfn "%b OR %b = %b" x y ((a x) || (b y)))
| 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 F# code snippet into C++ without altering its behavior. | let a (x : bool) = printf "(a)"; x
let b (x : bool) = printf "(b)"; x
[for x in [true; false] do for y in [true; false] do yield (x, y)]
|> List.iter (fun (x, y) ->
printfn "%b AND %b = %b" x y ((a x) && (b y))
printfn "%b OR %b = %b" x y ((a x) || (b y)))
| #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;
}
|
Convert this F# block to Java, preserving its control flow and logic. | let a (x : bool) = printf "(a)"; x
let b (x : bool) = printf "(b)"; x
[for x in [true; false] do for y in [true; false] do yield (x, y)]
|> List.iter (fun (x, y) ->
printfn "%b AND %b = %b" x y ((a x) && (b y))
printfn "%b OR %b = %b" x y ((a x) || (b y)))
| 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 F# to Python. | let a (x : bool) = printf "(a)"; x
let b (x : bool) = printf "(b)"; x
[for x in [true; false] do for y in [true; false] do yield (x, y)]
|> List.iter (fun (x, y) ->
printfn "%b AND %b = %b" x y ((a x) && (b y))
printfn "%b OR %b = %b" x y ((a x) || (b y)))
| >>> 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)
|
Port the provided F# code into VB while preserving the original functionality. | let a (x : bool) = printf "(a)"; x
let b (x : bool) = printf "(b)"; x
[for x in [true; false] do for y in [true; false] do yield (x, y)]
|> List.iter (fun (x, y) ->
printfn "%b AND %b = %b" x y ((a x) && (b y))
printfn "%b OR %b = %b" x y ((a x) || (b y)))
| 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 F# snippet without changing its computational steps. | let a (x : bool) = printf "(a)"; x
let b (x : bool) = printf "(b)"; x
[for x in [true; false] do for y in [true; false] do yield (x, y)]
|> List.iter (fun (x, y) ->
printfn "%b AND %b = %b" x y ((a x) && (b y))
printfn "%b OR %b = %b" x y ((a x) || (b y)))
| 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)
}
|
Convert this Factor snippet to C and keep its semantics consistent. | USING: combinators.short-circuit.smart io prettyprint ;
IN: rosetta-code.short-circuit
: a ( ? -- ? ) "(a)" write ;
: b ( ? -- ? ) "(b)" write ;
"f && f = " write { [ f a ] [ f b ] } && .
"f || f = " write { [ f a ] [ f b ] } || .
"f && t = " write { [ f a ] [ t b ] } && .
"f || t = " write { [ f a ] [ t b ] } || .
"t && f = " write { [ t a ] [ f b ] } && .
"t || f = " write { [ t a ] [ f b ] } || .
"t && t = " write { [ t a ] [ t b ] } && .
"t || t = " write { [ t a ] [ t b ] } || .
| #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;
}
|
Maintain the same structure and functionality when rewriting this code in C#. | USING: combinators.short-circuit.smart io prettyprint ;
IN: rosetta-code.short-circuit
: a ( ? -- ? ) "(a)" write ;
: b ( ? -- ? ) "(b)" write ;
"f && f = " write { [ f a ] [ f b ] } && .
"f || f = " write { [ f a ] [ f b ] } || .
"f && t = " write { [ f a ] [ t b ] } && .
"f || t = " write { [ f a ] [ t b ] } || .
"t && f = " write { [ t a ] [ f b ] } && .
"t || f = " write { [ t a ] [ f b ] } || .
"t && t = " write { [ t a ] [ t b ] } && .
"t || t = " write { [ t a ] [ t b ] } || .
| 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 Factor to C++, same semantics. | USING: combinators.short-circuit.smart io prettyprint ;
IN: rosetta-code.short-circuit
: a ( ? -- ? ) "(a)" write ;
: b ( ? -- ? ) "(b)" write ;
"f && f = " write { [ f a ] [ f b ] } && .
"f || f = " write { [ f a ] [ f b ] } || .
"f && t = " write { [ f a ] [ t b ] } && .
"f || t = " write { [ f a ] [ t b ] } || .
"t && f = " write { [ t a ] [ f b ] } && .
"t || f = " write { [ t a ] [ f b ] } || .
"t && t = " write { [ t a ] [ t b ] } && .
"t || t = " write { [ t a ] [ t b ] } || .
| #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;
}
|
Transform the following Factor implementation into Java, maintaining the same output and logic. | USING: combinators.short-circuit.smart io prettyprint ;
IN: rosetta-code.short-circuit
: a ( ? -- ? ) "(a)" write ;
: b ( ? -- ? ) "(b)" write ;
"f && f = " write { [ f a ] [ f b ] } && .
"f || f = " write { [ f a ] [ f b ] } || .
"f && t = " write { [ f a ] [ t b ] } && .
"f || t = " write { [ f a ] [ t b ] } || .
"t && f = " write { [ t a ] [ f b ] } && .
"t || f = " write { [ t a ] [ f b ] } || .
"t && t = " write { [ t a ] [ t b ] } && .
"t || t = " write { [ t a ] [ t b ] } || .
| 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 Factor snippet to Python and keep its semantics consistent. | USING: combinators.short-circuit.smart io prettyprint ;
IN: rosetta-code.short-circuit
: a ( ? -- ? ) "(a)" write ;
: b ( ? -- ? ) "(b)" write ;
"f && f = " write { [ f a ] [ f b ] } && .
"f || f = " write { [ f a ] [ f b ] } || .
"f && t = " write { [ f a ] [ t b ] } && .
"f || t = " write { [ f a ] [ t b ] } || .
"t && f = " write { [ t a ] [ f b ] } && .
"t || f = " write { [ t a ] [ f b ] } || .
"t && t = " write { [ t a ] [ t b ] } && .
"t || t = " write { [ t a ] [ t b ] } || .
| >>> 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)
|
Preserve the algorithm and functionality while converting the code from Factor to VB. | USING: combinators.short-circuit.smart io prettyprint ;
IN: rosetta-code.short-circuit
: a ( ? -- ? ) "(a)" write ;
: b ( ? -- ? ) "(b)" write ;
"f && f = " write { [ f a ] [ f b ] } && .
"f || f = " write { [ f a ] [ f b ] } || .
"f && t = " write { [ f a ] [ t b ] } && .
"f || t = " write { [ f a ] [ t b ] } || .
"t && f = " write { [ t a ] [ f b ] } && .
"t || f = " write { [ t a ] [ f b ] } || .
"t && t = " write { [ t a ] [ t b ] } && .
"t || t = " write { [ t a ] [ t b ] } || .
| 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. | USING: combinators.short-circuit.smart io prettyprint ;
IN: rosetta-code.short-circuit
: a ( ? -- ? ) "(a)" write ;
: b ( ? -- ? ) "(b)" write ;
"f && f = " write { [ f a ] [ f b ] } && .
"f || f = " write { [ f a ] [ f b ] } || .
"f && t = " write { [ f a ] [ t b ] } && .
"f || t = " write { [ f a ] [ t b ] } || .
"t && f = " write { [ t a ] [ f b ] } && .
"t || f = " write { [ t a ] [ f b ] } || .
"t && t = " write { [ t a ] [ t b ] } && .
"t || t = " write { [ t a ] [ t b ] } || .
| 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)
}
|
Convert this Forth block to C, preserving its control flow and logic. |
: ENDIF postpone THEN ; immediate
: COND 0 ; immediate
: ENDIFS BEGIN DUP WHILE postpone ENDIF REPEAT DROP ; immediate
: ORELSE s" ?DUP 0= IF" evaluate ; immediate
: ANDIF s" DUP IF DROP" evaluate ; immediate
: .bool IF ." true " ELSE ." false " THEN ;
: A ." A=" DUP .bool ;
: B ." B=" DUP .bool ;
: test
CR
1 -1 DO 1 -1 DO
COND I A ANDIF J B ENDIFS ." ANDIF=" .bool CR
COND I A ORELSE J B ENDIFS ." ORELSE=" .bool CR
LOOP LOOP ;
: END-PRIOR-IF 1 CS-ROLL postpone ENDIF ; immediate
: test
CR
1 -1 DO 1 -1 DO
I A IF J B IF 1 ELSE END-PRIOR-IF 0 ENDIF ." ANDIF=" .bool CR
I A 0= IF J B IF END-PRIOR-IF 1 ELSE 0 ENDIF ." ORELSE=" .bool CR
LOOP LOOP ;
| #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 Forth. |
: ENDIF postpone THEN ; immediate
: COND 0 ; immediate
: ENDIFS BEGIN DUP WHILE postpone ENDIF REPEAT DROP ; immediate
: ORELSE s" ?DUP 0= IF" evaluate ; immediate
: ANDIF s" DUP IF DROP" evaluate ; immediate
: .bool IF ." true " ELSE ." false " THEN ;
: A ." A=" DUP .bool ;
: B ." B=" DUP .bool ;
: test
CR
1 -1 DO 1 -1 DO
COND I A ANDIF J B ENDIFS ." ANDIF=" .bool CR
COND I A ORELSE J B ENDIFS ." ORELSE=" .bool CR
LOOP LOOP ;
: END-PRIOR-IF 1 CS-ROLL postpone ENDIF ; immediate
: test
CR
1 -1 DO 1 -1 DO
I A IF J B IF 1 ELSE END-PRIOR-IF 0 ENDIF ." ANDIF=" .bool CR
I A 0= IF J B IF END-PRIOR-IF 1 ELSE 0 ENDIF ." ORELSE=" .bool CR
LOOP LOOP ;
| 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 Forth block to C++, preserving its control flow and logic. |
: ENDIF postpone THEN ; immediate
: COND 0 ; immediate
: ENDIFS BEGIN DUP WHILE postpone ENDIF REPEAT DROP ; immediate
: ORELSE s" ?DUP 0= IF" evaluate ; immediate
: ANDIF s" DUP IF DROP" evaluate ; immediate
: .bool IF ." true " ELSE ." false " THEN ;
: A ." A=" DUP .bool ;
: B ." B=" DUP .bool ;
: test
CR
1 -1 DO 1 -1 DO
COND I A ANDIF J B ENDIFS ." ANDIF=" .bool CR
COND I A ORELSE J B ENDIFS ." ORELSE=" .bool CR
LOOP LOOP ;
: END-PRIOR-IF 1 CS-ROLL postpone ENDIF ; immediate
: test
CR
1 -1 DO 1 -1 DO
I A IF J B IF 1 ELSE END-PRIOR-IF 0 ENDIF ." ANDIF=" .bool CR
I A 0= IF J B IF END-PRIOR-IF 1 ELSE 0 ENDIF ." ORELSE=" .bool CR
LOOP LOOP ;
| #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 provided Forth code into Java while preserving the original functionality. |
: ENDIF postpone THEN ; immediate
: COND 0 ; immediate
: ENDIFS BEGIN DUP WHILE postpone ENDIF REPEAT DROP ; immediate
: ORELSE s" ?DUP 0= IF" evaluate ; immediate
: ANDIF s" DUP IF DROP" evaluate ; immediate
: .bool IF ." true " ELSE ." false " THEN ;
: A ." A=" DUP .bool ;
: B ." B=" DUP .bool ;
: test
CR
1 -1 DO 1 -1 DO
COND I A ANDIF J B ENDIFS ." ANDIF=" .bool CR
COND I A ORELSE J B ENDIFS ." ORELSE=" .bool CR
LOOP LOOP ;
: END-PRIOR-IF 1 CS-ROLL postpone ENDIF ; immediate
: test
CR
1 -1 DO 1 -1 DO
I A IF J B IF 1 ELSE END-PRIOR-IF 0 ENDIF ." ANDIF=" .bool CR
I A 0= IF J B IF END-PRIOR-IF 1 ELSE 0 ENDIF ." ORELSE=" .bool CR
LOOP LOOP ;
| 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();
}
}
}
}
|
Change the programming language of this snippet from Forth to Python without modifying what it does. |
: ENDIF postpone THEN ; immediate
: COND 0 ; immediate
: ENDIFS BEGIN DUP WHILE postpone ENDIF REPEAT DROP ; immediate
: ORELSE s" ?DUP 0= IF" evaluate ; immediate
: ANDIF s" DUP IF DROP" evaluate ; immediate
: .bool IF ." true " ELSE ." false " THEN ;
: A ." A=" DUP .bool ;
: B ." B=" DUP .bool ;
: test
CR
1 -1 DO 1 -1 DO
COND I A ANDIF J B ENDIFS ." ANDIF=" .bool CR
COND I A ORELSE J B ENDIFS ." ORELSE=" .bool CR
LOOP LOOP ;
: END-PRIOR-IF 1 CS-ROLL postpone ENDIF ; immediate
: test
CR
1 -1 DO 1 -1 DO
I A IF J B IF 1 ELSE END-PRIOR-IF 0 ENDIF ." ANDIF=" .bool CR
I A 0= IF J B IF END-PRIOR-IF 1 ELSE 0 ENDIF ." ORELSE=" .bool CR
LOOP LOOP ;
| >>> 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)
|
Maintain the same structure and functionality when rewriting this code in VB. |
: ENDIF postpone THEN ; immediate
: COND 0 ; immediate
: ENDIFS BEGIN DUP WHILE postpone ENDIF REPEAT DROP ; immediate
: ORELSE s" ?DUP 0= IF" evaluate ; immediate
: ANDIF s" DUP IF DROP" evaluate ; immediate
: .bool IF ." true " ELSE ." false " THEN ;
: A ." A=" DUP .bool ;
: B ." B=" DUP .bool ;
: test
CR
1 -1 DO 1 -1 DO
COND I A ANDIF J B ENDIFS ." ANDIF=" .bool CR
COND I A ORELSE J B ENDIFS ." ORELSE=" .bool CR
LOOP LOOP ;
: END-PRIOR-IF 1 CS-ROLL postpone ENDIF ; immediate
: test
CR
1 -1 DO 1 -1 DO
I A IF J B IF 1 ELSE END-PRIOR-IF 0 ENDIF ." ANDIF=" .bool CR
I A 0= IF J B IF END-PRIOR-IF 1 ELSE 0 ENDIF ." ORELSE=" .bool CR
LOOP LOOP ;
| 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 following Forth code into Go without altering its purpose. |
: ENDIF postpone THEN ; immediate
: COND 0 ; immediate
: ENDIFS BEGIN DUP WHILE postpone ENDIF REPEAT DROP ; immediate
: ORELSE s" ?DUP 0= IF" evaluate ; immediate
: ANDIF s" DUP IF DROP" evaluate ; immediate
: .bool IF ." true " ELSE ." false " THEN ;
: A ." A=" DUP .bool ;
: B ." B=" DUP .bool ;
: test
CR
1 -1 DO 1 -1 DO
COND I A ANDIF J B ENDIFS ." ANDIF=" .bool CR
COND I A ORELSE J B ENDIFS ." ORELSE=" .bool CR
LOOP LOOP ;
: END-PRIOR-IF 1 CS-ROLL postpone ENDIF ; immediate
: test
CR
1 -1 DO 1 -1 DO
I A IF J B IF 1 ELSE END-PRIOR-IF 0 ENDIF ." ANDIF=" .bool CR
I A 0= IF J B IF END-PRIOR-IF 1 ELSE 0 ENDIF ." ORELSE=" .bool CR
LOOP LOOP ;
| 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 Fortran snippet. | program Short_Circuit_Eval
implicit none
logical :: x, y
logical, dimension(2) :: l = (/ .false., .true. /)
integer :: i, j
do i = 1, 2
do j = 1, 2
write(*, "(a,l1,a,l1,a)") "Calculating x = a(", l(i), ") and b(", l(j), ")"
x = a(l(i))
if(x) then
x = b(l(j))
write(*, "(a,l1)") "x = ", x
else
write(*, "(a,l1)") "x = ", x
end if
write(*,*)
write(*, "(a,l1,a,l1,a)") "Calculating y = a(", l(i), ") or b(", l(j), ")"
y = a(l(i))
if(y) then
write(*, "(a,l1)") "y = ", y
else
y = b(l(j))
write(*, "(a,l1)") "y = ", y
end if
write(*,*)
end do
end do
contains
function a(value)
logical :: a
logical, intent(in) :: value
a = value
write(*, "(a,l1,a)") "Called function a(", value, ")"
end function
function b(value)
logical :: b
logical, intent(in) :: value
b = value
write(*, "(a,l1,a)") "Called function b(", value, ")"
end function
end program
| 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();
}
}
}
}
|
Generate an equivalent C++ version of this Fortran code. | program Short_Circuit_Eval
implicit none
logical :: x, y
logical, dimension(2) :: l = (/ .false., .true. /)
integer :: i, j
do i = 1, 2
do j = 1, 2
write(*, "(a,l1,a,l1,a)") "Calculating x = a(", l(i), ") and b(", l(j), ")"
x = a(l(i))
if(x) then
x = b(l(j))
write(*, "(a,l1)") "x = ", x
else
write(*, "(a,l1)") "x = ", x
end if
write(*,*)
write(*, "(a,l1,a,l1,a)") "Calculating y = a(", l(i), ") or b(", l(j), ")"
y = a(l(i))
if(y) then
write(*, "(a,l1)") "y = ", y
else
y = b(l(j))
write(*, "(a,l1)") "y = ", y
end if
write(*,*)
end do
end do
contains
function a(value)
logical :: a
logical, intent(in) :: value
a = value
write(*, "(a,l1,a)") "Called function a(", value, ")"
end function
function b(value)
logical :: b
logical, intent(in) :: value
b = value
write(*, "(a,l1,a)") "Called function b(", value, ")"
end function
end program
| #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 C code behaves exactly like the original Fortran snippet. | program Short_Circuit_Eval
implicit none
logical :: x, y
logical, dimension(2) :: l = (/ .false., .true. /)
integer :: i, j
do i = 1, 2
do j = 1, 2
write(*, "(a,l1,a,l1,a)") "Calculating x = a(", l(i), ") and b(", l(j), ")"
x = a(l(i))
if(x) then
x = b(l(j))
write(*, "(a,l1)") "x = ", x
else
write(*, "(a,l1)") "x = ", x
end if
write(*,*)
write(*, "(a,l1,a,l1,a)") "Calculating y = a(", l(i), ") or b(", l(j), ")"
y = a(l(i))
if(y) then
write(*, "(a,l1)") "y = ", y
else
y = b(l(j))
write(*, "(a,l1)") "y = ", y
end if
write(*,*)
end do
end do
contains
function a(value)
logical :: a
logical, intent(in) :: value
a = value
write(*, "(a,l1,a)") "Called function a(", value, ")"
end function
function b(value)
logical :: b
logical, intent(in) :: value
b = value
write(*, "(a,l1,a)") "Called function b(", value, ")"
end function
end program
| #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 Java as shown below in Fortran. | program Short_Circuit_Eval
implicit none
logical :: x, y
logical, dimension(2) :: l = (/ .false., .true. /)
integer :: i, j
do i = 1, 2
do j = 1, 2
write(*, "(a,l1,a,l1,a)") "Calculating x = a(", l(i), ") and b(", l(j), ")"
x = a(l(i))
if(x) then
x = b(l(j))
write(*, "(a,l1)") "x = ", x
else
write(*, "(a,l1)") "x = ", x
end if
write(*,*)
write(*, "(a,l1,a,l1,a)") "Calculating y = a(", l(i), ") or b(", l(j), ")"
y = a(l(i))
if(y) then
write(*, "(a,l1)") "y = ", y
else
y = b(l(j))
write(*, "(a,l1)") "y = ", y
end if
write(*,*)
end do
end do
contains
function a(value)
logical :: a
logical, intent(in) :: value
a = value
write(*, "(a,l1,a)") "Called function a(", value, ")"
end function
function b(value)
logical :: b
logical, intent(in) :: value
b = value
write(*, "(a,l1,a)") "Called function b(", value, ")"
end function
end program
| 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 Fortran implementation. | program Short_Circuit_Eval
implicit none
logical :: x, y
logical, dimension(2) :: l = (/ .false., .true. /)
integer :: i, j
do i = 1, 2
do j = 1, 2
write(*, "(a,l1,a,l1,a)") "Calculating x = a(", l(i), ") and b(", l(j), ")"
x = a(l(i))
if(x) then
x = b(l(j))
write(*, "(a,l1)") "x = ", x
else
write(*, "(a,l1)") "x = ", x
end if
write(*,*)
write(*, "(a,l1,a,l1,a)") "Calculating y = a(", l(i), ") or b(", l(j), ")"
y = a(l(i))
if(y) then
write(*, "(a,l1)") "y = ", y
else
y = b(l(j))
write(*, "(a,l1)") "y = ", y
end if
write(*,*)
end do
end do
contains
function a(value)
logical :: a
logical, intent(in) :: value
a = value
write(*, "(a,l1,a)") "Called function a(", value, ")"
end function
function b(value)
logical :: b
logical, intent(in) :: value
b = value
write(*, "(a,l1,a)") "Called function b(", value, ")"
end function
end program
| >>> 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 the snippet below in VB so it works the same as the original Fortran code. | program Short_Circuit_Eval
implicit none
logical :: x, y
logical, dimension(2) :: l = (/ .false., .true. /)
integer :: i, j
do i = 1, 2
do j = 1, 2
write(*, "(a,l1,a,l1,a)") "Calculating x = a(", l(i), ") and b(", l(j), ")"
x = a(l(i))
if(x) then
x = b(l(j))
write(*, "(a,l1)") "x = ", x
else
write(*, "(a,l1)") "x = ", x
end if
write(*,*)
write(*, "(a,l1,a,l1,a)") "Calculating y = a(", l(i), ") or b(", l(j), ")"
y = a(l(i))
if(y) then
write(*, "(a,l1)") "y = ", y
else
y = b(l(j))
write(*, "(a,l1)") "y = ", y
end if
write(*,*)
end do
end do
contains
function a(value)
logical :: a
logical, intent(in) :: value
a = value
write(*, "(a,l1,a)") "Called function a(", value, ")"
end function
function b(value)
logical :: b
logical, intent(in) :: value
b = value
write(*, "(a,l1,a)") "Called function b(", value, ")"
end function
end program
| 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
|
Can you help me rewrite this code in C instead of Groovy, keeping it the same logically? | def f = { println ' AHA!'; it instanceof String }
def g = { printf ('%5d ', it); it > 50 }
println 'bitwise'
assert g(100) & f('sss')
assert g(2) | f('sss')
assert ! (g(1) & f('sss'))
assert g(200) | f('sss')
println '''
logical'''
assert g(100) && f('sss')
assert g(2) || f('sss')
assert ! (g(1) && f('sss'))
assert g(200) || f('sss')
| #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;
}
|
Convert the following code from Groovy to C#, ensuring the logic remains intact. | def f = { println ' AHA!'; it instanceof String }
def g = { printf ('%5d ', it); it > 50 }
println 'bitwise'
assert g(100) & f('sss')
assert g(2) | f('sss')
assert ! (g(1) & f('sss'))
assert g(200) | f('sss')
println '''
logical'''
assert g(100) && f('sss')
assert g(2) || f('sss')
assert ! (g(1) && f('sss'))
assert g(200) || f('sss')
| 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();
}
}
}
}
|
Keep all operations the same but rewrite the snippet in C++. | def f = { println ' AHA!'; it instanceof String }
def g = { printf ('%5d ', it); it > 50 }
println 'bitwise'
assert g(100) & f('sss')
assert g(2) | f('sss')
assert ! (g(1) & f('sss'))
assert g(200) | f('sss')
println '''
logical'''
assert g(100) && f('sss')
assert g(2) || f('sss')
assert ! (g(1) && f('sss'))
assert g(200) || f('sss')
| #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;
}
|
Convert the following code from Groovy to Java, ensuring the logic remains intact. | def f = { println ' AHA!'; it instanceof String }
def g = { printf ('%5d ', it); it > 50 }
println 'bitwise'
assert g(100) & f('sss')
assert g(2) | f('sss')
assert ! (g(1) & f('sss'))
assert g(200) | f('sss')
println '''
logical'''
assert g(100) && f('sss')
assert g(2) || f('sss')
assert ! (g(1) && f('sss'))
assert g(200) || f('sss')
| 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();
}
}
}
}
|
Can you help me rewrite this code in Python instead of Groovy, keeping it the same logically? | def f = { println ' AHA!'; it instanceof String }
def g = { printf ('%5d ', it); it > 50 }
println 'bitwise'
assert g(100) & f('sss')
assert g(2) | f('sss')
assert ! (g(1) & f('sss'))
assert g(200) | f('sss')
println '''
logical'''
assert g(100) && f('sss')
assert g(2) || f('sss')
assert ! (g(1) && f('sss'))
assert g(200) || f('sss')
| >>> 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 Groovy version. | def f = { println ' AHA!'; it instanceof String }
def g = { printf ('%5d ', it); it > 50 }
println 'bitwise'
assert g(100) & f('sss')
assert g(2) | f('sss')
assert ! (g(1) & f('sss'))
assert g(200) | f('sss')
println '''
logical'''
assert g(100) && f('sss')
assert g(2) || f('sss')
assert ! (g(1) && f('sss'))
assert g(200) || f('sss')
| 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
|
Please provide an equivalent version of this Groovy code in Go. | def f = { println ' AHA!'; it instanceof String }
def g = { printf ('%5d ', it); it > 50 }
println 'bitwise'
assert g(100) & f('sss')
assert g(2) | f('sss')
assert ! (g(1) & f('sss'))
assert g(200) | f('sss')
println '''
logical'''
assert g(100) && f('sss')
assert g(2) || f('sss')
assert ! (g(1) && f('sss'))
assert g(200) || f('sss')
| 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 Haskell code. | module ShortCircuit where
import Prelude hiding ((&&), (||))
import Debug.Trace
False && _ = False
True && False = False
_ && _ = True
True || _ = True
False || True = True
_ || _ = False
a p = trace ("<a " ++ show p ++ ">") p
b p = trace ("<b " ++ show p ++ ">") p
main = mapM_ print ( [ a p || b q | p <- [False, True], q <- [False, True] ]
++ [ a p && b q | p <- [False, True], q <- [False, 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;
}
|
Produce a language-to-language conversion: from Haskell to C#, same semantics. | module ShortCircuit where
import Prelude hiding ((&&), (||))
import Debug.Trace
False && _ = False
True && False = False
_ && _ = True
True || _ = True
False || True = True
_ || _ = False
a p = trace ("<a " ++ show p ++ ">") p
b p = trace ("<b " ++ show p ++ ">") p
main = mapM_ print ( [ a p || b q | p <- [False, True], q <- [False, True] ]
++ [ a p && b q | p <- [False, True], q <- [False, 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();
}
}
}
}
|
Convert this Haskell snippet to C++ and keep its semantics consistent. | module ShortCircuit where
import Prelude hiding ((&&), (||))
import Debug.Trace
False && _ = False
True && False = False
_ && _ = True
True || _ = True
False || True = True
_ || _ = False
a p = trace ("<a " ++ show p ++ ">") p
b p = trace ("<b " ++ show p ++ ">") p
main = mapM_ print ( [ a p || b q | p <- [False, True], q <- [False, True] ]
++ [ a p && b q | p <- [False, True], q <- [False, 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;
}
|
Write a version of this Haskell function in Java with identical behavior. | module ShortCircuit where
import Prelude hiding ((&&), (||))
import Debug.Trace
False && _ = False
True && False = False
_ && _ = True
True || _ = True
False || True = True
_ || _ = False
a p = trace ("<a " ++ show p ++ ">") p
b p = trace ("<b " ++ show p ++ ">") p
main = mapM_ print ( [ a p || b q | p <- [False, True], q <- [False, True] ]
++ [ a p && b q | p <- [False, True], q <- [False, 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();
}
}
}
}
|
Change the following Haskell code into Python without altering its purpose. | module ShortCircuit where
import Prelude hiding ((&&), (||))
import Debug.Trace
False && _ = False
True && False = False
_ && _ = True
True || _ = True
False || True = True
_ || _ = False
a p = trace ("<a " ++ show p ++ ">") p
b p = trace ("<b " ++ show p ++ ">") p
main = mapM_ print ( [ a p || b q | p <- [False, True], q <- [False, True] ]
++ [ a p && b q | p <- [False, True], q <- [False, 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)
|
Can you help me rewrite this code in VB instead of Haskell, keeping it the same logically? | module ShortCircuit where
import Prelude hiding ((&&), (||))
import Debug.Trace
False && _ = False
True && False = False
_ && _ = True
True || _ = True
False || True = True
_ || _ = False
a p = trace ("<a " ++ show p ++ ">") p
b p = trace ("<b " ++ show p ++ ">") p
main = mapM_ print ( [ a p || b q | p <- [False, True], q <- [False, True] ]
++ [ a p && b q | p <- [False, True], q <- [False, 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
|
Port the following code from Haskell to Go with equivalent syntax and logic. | module ShortCircuit where
import Prelude hiding ((&&), (||))
import Debug.Trace
False && _ = False
True && False = False
_ && _ = True
True || _ = True
False || True = True
_ || _ = False
a p = trace ("<a " ++ show p ++ ">") p
b p = trace ("<b " ++ show p ++ ">") p
main = mapM_ print ( [ a p || b q | p <- [False, True], q <- [False, True] ]
++ [ a p && b q | p <- [False, True], q <- [False, 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)
}
|
Change the following Icon code into C without altering its purpose. | procedure main()
&trace := -1
every (i := false | true ) & ( j := false | true) do {
write("i,j := ",image(i),", ",image(j))
write("i & j:")
x := i() & j()
write("i | j:")
y := i() | j()
}
end
procedure true()
return
end
procedure false()
fail
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;
}
|
Convert this Icon snippet to C# and keep its semantics consistent. | procedure main()
&trace := -1
every (i := false | true ) & ( j := false | true) do {
write("i,j := ",image(i),", ",image(j))
write("i & j:")
x := i() & j()
write("i | j:")
y := i() | j()
}
end
procedure true()
return
end
procedure false()
fail
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();
}
}
}
}
|
Port the following code from Icon to C++ with equivalent syntax and logic. | procedure main()
&trace := -1
every (i := false | true ) & ( j := false | true) do {
write("i,j := ",image(i),", ",image(j))
write("i & j:")
x := i() & j()
write("i | j:")
y := i() | j()
}
end
procedure true()
return
end
procedure false()
fail
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 Icon to Java without modifying what it does. | procedure main()
&trace := -1
every (i := false | true ) & ( j := false | true) do {
write("i,j := ",image(i),", ",image(j))
write("i & j:")
x := i() & j()
write("i | j:")
y := i() | j()
}
end
procedure true()
return
end
procedure false()
fail
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();
}
}
}
}
|
Change the programming language of this snippet from Icon to Python without modifying what it does. | procedure main()
&trace := -1
every (i := false | true ) & ( j := false | true) do {
write("i,j := ",image(i),", ",image(j))
write("i & j:")
x := i() & j()
write("i | j:")
y := i() | j()
}
end
procedure true()
return
end
procedure false()
fail
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 the same algorithm in VB as shown in this Icon implementation. | procedure main()
&trace := -1
every (i := false | true ) & ( j := false | true) do {
write("i,j := ",image(i),", ",image(j))
write("i & j:")
x := i() & j()
write("i | j:")
y := i() | j()
}
end
procedure true()
return
end
procedure false()
fail
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
|
Change the programming language of this snippet from Icon to Go without modifying what it does. | procedure main()
&trace := -1
every (i := false | true ) & ( j := false | true) do {
write("i,j := ",image(i),", ",image(j))
write("i & j:")
x := i() & j()
write("i | j:")
y := i() | j()
}
end
procedure true()
return
end
procedure false()
fail
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 J snippet. | labeled=:1 :'[ smoutput@,&":~&m'
A=: 'A ' labeled
B=: 'B ' labeled
and=: ^:
or=: 2 :'u^:(-.@v)'
| #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;
}
|
Convert this J snippet to C# and keep its semantics consistent. | labeled=:1 :'[ smoutput@,&":~&m'
A=: 'A ' labeled
B=: 'B ' labeled
and=: ^:
or=: 2 :'u^:(-.@v)'
| 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 the same algorithm in C++ as shown in this J implementation. | labeled=:1 :'[ smoutput@,&":~&m'
A=: 'A ' labeled
B=: 'B ' labeled
and=: ^:
or=: 2 :'u^:(-.@v)'
| #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 J code. | labeled=:1 :'[ smoutput@,&":~&m'
A=: 'A ' labeled
B=: 'B ' labeled
and=: ^:
or=: 2 :'u^:(-.@v)'
| 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();
}
}
}
}
|
Please provide an equivalent version of this J code in Python. | labeled=:1 :'[ smoutput@,&":~&m'
A=: 'A ' labeled
B=: 'B ' labeled
and=: ^:
or=: 2 :'u^:(-.@v)'
| >>> 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)
|
Maintain the same structure and functionality when rewriting this code in VB. | labeled=:1 :'[ smoutput@,&":~&m'
A=: 'A ' labeled
B=: 'B ' labeled
and=: ^:
or=: 2 :'u^:(-.@v)'
| 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
|
Translate the given J code snippet into Go without altering its behavior. | labeled=:1 :'[ smoutput@,&":~&m'
A=: 'A ' labeled
B=: 'B ' labeled
and=: ^:
or=: 2 :'u^:(-.@v)'
| 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 Julia snippet. | a(x) = (println("\t
b(x) = (println("\t
for i in [true,false], j in [true, false]
println("\nCalculating: x = a($i) && b($j)"); x = a(i) && b(j)
println("\tResult: x = $x")
println("\nCalculating: y = a($i) || b($j)"); y = a(i) || b(j)
println("\tResult: y = $y")
end
| #include <stdio.h>
#include <stdbool.h>
bool a(bool in)
{
printf("I am a\n");
return in;
}
bool b(bool in)
{
printf("I am b\n");
return in;
}
#define TEST(X,Y,O) \
do { \
x = a(X) O b(Y); \
printf(#X " " #O " " #Y " = %s\n\n", x ? "true" : "false"); \
} while(false);
int main()
{
bool x;
TEST(false, true, &&);
TEST(true, false, ||);
TEST(true, false, &&);
TEST(false, false, ||);
return 0;
}
|
Translate the given Julia code snippet into C# without altering its behavior. | a(x) = (println("\t
b(x) = (println("\t
for i in [true,false], j in [true, false]
println("\nCalculating: x = a($i) && b($j)"); x = a(i) && b(j)
println("\tResult: x = $x")
println("\nCalculating: y = a($i) || b($j)"); y = a(i) || b(j)
println("\tResult: y = $y")
end
| using System;
class Program
{
static bool a(bool value)
{
Console.WriteLine("a");
return value;
}
static bool b(bool value)
{
Console.WriteLine("b");
return value;
}
static void Main()
{
foreach (var i in new[] { false, true })
{
foreach (var j in new[] { false, true })
{
Console.WriteLine("{0} and {1} = {2}", i, j, a(i) && b(j));
Console.WriteLine();
Console.WriteLine("{0} or {1} = {2}", i, j, a(i) || b(j));
Console.WriteLine();
}
}
}
}
|
Port the provided Julia code into C++ while preserving the original functionality. | a(x) = (println("\t
b(x) = (println("\t
for i in [true,false], j in [true, false]
println("\nCalculating: x = a($i) && b($j)"); x = a(i) && b(j)
println("\tResult: x = $x")
println("\nCalculating: y = a($i) || b($j)"); y = a(i) || b(j)
println("\tResult: y = $y")
end
| #include <iostream>
bool a(bool in)
{
std::cout << "a" << std::endl;
return in;
}
bool b(bool in)
{
std::cout << "b" << std::endl;
return in;
}
void test(bool i, bool j) {
std::cout << std::boolalpha << i << " and " << j << " = " << (a(i) && b(j)) << std::endl;
std::cout << std::boolalpha << i << " or " << j << " = " << (a(i) || b(j)) << std::endl;
}
int main()
{
test(false, false);
test(false, true);
test(true, false);
test(true, true);
return 0;
}
|
Transform the following Julia implementation into Java, maintaining the same output and logic. | a(x) = (println("\t
b(x) = (println("\t
for i in [true,false], j in [true, false]
println("\nCalculating: x = a($i) && b($j)"); x = a(i) && b(j)
println("\tResult: x = $x")
println("\nCalculating: y = a($i) || b($j)"); y = a(i) || b(j)
println("\tResult: y = $y")
end
| module test
{
@Inject Console console;
static Boolean show(String name, Boolean value)
{
console.print($"{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 Julia. | a(x) = (println("\t
b(x) = (println("\t
for i in [true,false], j in [true, false]
println("\nCalculating: x = a($i) && b($j)"); x = a(i) && b(j)
println("\tResult: x = $x")
println("\nCalculating: y = a($i) || b($j)"); y = a(i) || b(j)
println("\tResult: y = $y")
end
| >>> def a(answer):
print("
return answer
>>> def b(answer):
print("
return answer
>>> for i in (False, True):
for j in (False, True):
print ("\nCalculating: x = a(i) and b(j)")
x = a(i) and b(j)
print ("Calculating: y = a(i) or b(j)")
y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
Calculating: x = a(i) and b(j)
Calculating: y = a(i) or b(j)
|
Write a version of this Julia function in VB with identical behavior. | a(x) = (println("\t
b(x) = (println("\t
for i in [true,false], j in [true, false]
println("\nCalculating: x = a($i) && b($j)"); x = a(i) && b(j)
println("\tResult: x = $x")
println("\nCalculating: y = a($i) || b($j)"); y = a(i) || b(j)
println("\tResult: y = $y")
end
| Private Function a(i As Variant) As Boolean
Debug.Print "a: "; i = 1,
a = i
End Function
Private Function b(j As Variant) As Boolean
Debug.Print "b: "; j = 1;
b = j
End Function
Public Sub short_circuit()
Dim x As Boolean, y As Boolean
Debug.Print "=====AND=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print "======OR=====" & vbCrLf
For p = 0 To 1
For q = 0 To 1
If Not a(p) Then
x = b(q)
End If
Debug.Print " = x"
Next q
Debug.Print
Next p
Debug.Print
End Sub
|
Transform the following Julia implementation into Go, maintaining the same output and logic. | a(x) = (println("\t
b(x) = (println("\t
for i in [true,false], j in [true, false]
println("\nCalculating: x = a($i) && b($j)"); x = a(i) && b(j)
println("\tResult: x = $x")
println("\nCalculating: y = a($i) || b($j)"); y = a(i) || b(j)
println("\tResult: y = $y")
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)
}
|
Change the programming language of this snippet from Lua to C without modifying what it does. | function a(i)
print "Function a(i) called."
return i
end
function b(i)
print "Function b(i) called."
return i
end
i = true
x = a(i) and b(i); print ""
y = a(i) or b(i); print ""
i = false
x = a(i) and b(i); print ""
y = a(i) or b(i)
| #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 Lua code into C# without altering its purpose. | function a(i)
print "Function a(i) called."
return i
end
function b(i)
print "Function b(i) called."
return i
end
i = true
x = a(i) and b(i); print ""
y = a(i) or b(i); print ""
i = false
x = a(i) and b(i); print ""
y = a(i) or b(i)
| 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();
}
}
}
}
|
Preserve the algorithm and functionality while converting the code from Lua to C++. | function a(i)
print "Function a(i) called."
return i
end
function b(i)
print "Function b(i) called."
return i
end
i = true
x = a(i) and b(i); print ""
y = a(i) or b(i); print ""
i = false
x = a(i) and b(i); print ""
y = a(i) or b(i)
| #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;
}
|
Write the same algorithm in Java as shown in this Lua implementation. | function a(i)
print "Function a(i) called."
return i
end
function b(i)
print "Function b(i) called."
return i
end
i = true
x = a(i) and b(i); print ""
y = a(i) or b(i); print ""
i = false
x = a(i) and b(i); print ""
y = a(i) or b(i)
| 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 Lua code into Python while preserving the original functionality. | function a(i)
print "Function a(i) called."
return i
end
function b(i)
print "Function b(i) called."
return i
end
i = true
x = a(i) and b(i); print ""
y = a(i) or b(i); print ""
i = false
x = a(i) and b(i); print ""
y = a(i) or b(i)
| >>> 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 Lua block to VB, preserving its control flow and logic. | function a(i)
print "Function a(i) called."
return i
end
function b(i)
print "Function b(i) called."
return i
end
i = true
x = a(i) and b(i); print ""
y = a(i) or b(i); print ""
i = false
x = a(i) and b(i); print ""
y = a(i) or b(i)
| 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
|
Produce a language-to-language conversion: from Lua to Go, same semantics. | function a(i)
print "Function a(i) called."
return i
end
function b(i)
print "Function b(i) called."
return i
end
i = true
x = a(i) and b(i); print ""
y = a(i) or b(i); print ""
i = false
x = a(i) and b(i); print ""
y = a(i) or b(i)
| 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 the same code in C as shown below in Mathematica. | a[in_] := (Print["a"]; in)
b[in_] := (Print["b"]; in)
a[False] && b[True]
a[True] || b[False]
| #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;
}
|
Transform the following Mathematica implementation into C#, maintaining the same output and logic. | a[in_] := (Print["a"]; in)
b[in_] := (Print["b"]; in)
a[False] && b[True]
a[True] || b[False]
| 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();
}
}
}
}
|
Change the following Mathematica code into C++ without altering its purpose. | a[in_] := (Print["a"]; in)
b[in_] := (Print["b"]; in)
a[False] && b[True]
a[True] || b[False]
| #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 a Java translation of this Mathematica snippet without changing its computational steps. | a[in_] := (Print["a"]; in)
b[in_] := (Print["b"]; in)
a[False] && b[True]
a[True] || b[False]
| 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 Mathematica snippet. | a[in_] := (Print["a"]; in)
b[in_] := (Print["b"]; in)
a[False] && b[True]
a[True] || b[False]
| >>> 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 an equivalent VB version of this Mathematica code. | a[in_] := (Print["a"]; in)
b[in_] := (Print["b"]; in)
a[False] && b[True]
a[True] || b[False]
| 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 Mathematica version. | a[in_] := (Print["a"]; in)
b[in_] := (Print["b"]; in)
a[False] && b[True]
a[True] || b[False]
| 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 functionally identical C code for the snippet given in MATLAB. | function x=a(x)
printf('a:
end;
function x=b(x)
printf('b:
end;
a(1) && b(1)
a(0) && b(1)
a(1) || b(1)
a(0) || b(1)
| #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 MATLAB version. | function x=a(x)
printf('a:
end;
function x=b(x)
printf('b:
end;
a(1) && b(1)
a(0) && b(1)
a(1) || b(1)
a(0) || b(1)
| 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 MATLAB. | function x=a(x)
printf('a:
end;
function x=b(x)
printf('b:
end;
a(1) && b(1)
a(0) && b(1)
a(1) || b(1)
a(0) || b(1)
| #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;
}
|
Rewrite this program in Java while keeping its functionality equivalent to the MATLAB version. | function x=a(x)
printf('a:
end;
function x=b(x)
printf('b:
end;
a(1) && b(1)
a(0) && b(1)
a(1) || b(1)
a(0) || b(1)
| 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 code in Python as shown below in MATLAB. | function x=a(x)
printf('a:
end;
function x=b(x)
printf('b:
end;
a(1) && b(1)
a(0) && b(1)
a(1) || b(1)
a(0) || b(1)
| >>> 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 MATLAB. | function x=a(x)
printf('a:
end;
function x=b(x)
printf('b:
end;
a(1) && b(1)
a(0) && b(1)
a(1) || b(1)
a(0) || b(1)
| 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 MATLAB function in Go with identical behavior. | function x=a(x)
printf('a:
end;
function x=b(x)
printf('b:
end;
a(1) && b(1)
a(0) && b(1)
a(1) || b(1)
a(0) || b(1)
| 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 Nim code. | proc a(x): bool =
echo "a called"
result = x
proc b(x): bool =
echo "b called"
result = x
let x = a(false) and b(true)
let y = a(true) or b(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;
}
|
Please provide an equivalent version of this Nim code in C#. | proc a(x): bool =
echo "a called"
result = x
proc b(x): bool =
echo "b called"
result = x
let x = a(false) and b(true)
let y = a(true) or b(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 the same algorithm in C++ as shown in this Nim implementation. | proc a(x): bool =
echo "a called"
result = x
proc b(x): bool =
echo "b called"
result = x
let x = a(false) and b(true)
let y = a(true) or b(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;
}
|
Produce a language-to-language conversion: from Nim to Java, same semantics. | proc a(x): bool =
echo "a called"
result = x
proc b(x): bool =
echo "b called"
result = x
let x = a(false) and b(true)
let y = a(true) or b(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();
}
}
}
}
|
Port the following code from Nim to Python with equivalent syntax and logic. | proc a(x): bool =
echo "a called"
result = x
proc b(x): bool =
echo "b called"
result = x
let x = a(false) and b(true)
let y = a(true) or b(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)
|
Translate the given Nim code snippet into VB without altering its behavior. | proc a(x): bool =
echo "a called"
result = x
proc b(x): bool =
echo "b called"
result = x
let x = a(false) and b(true)
let y = a(true) or b(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
|
Change the following Nim code into Go without altering its purpose. | proc a(x): bool =
echo "a called"
result = x
proc b(x): bool =
echo "b called"
result = x
let x = a(false) and b(true)
let y = a(true) or b(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)
}
|
Write the same code in C as shown below 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 <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;
}
|
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