Instruction stringlengths 45 106 | input_code stringlengths 1 13.7k | output_code stringlengths 1 13.7k |
|---|---|---|
Translate the given Forth code snippet into Java without altering its behavior. | 1 constant maybe
: tnot dup maybe <> if invert then ;
: tand and ;
: tor or ;
: tequiv 2dup and rot tnot rot tnot and or ;
: timply tnot tor ;
: txor tequiv tnot ;
: t. C" TF?" 2 + + c@ emit ;
: table2.
cr ." T F ?"
cr ." --------"
2 true DO
cr I t. ." | "
2 true DO
dup I J rot execute t... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Convert this Forth block to Python, preserving its control flow and logic. | 1 constant maybe
: tnot dup maybe <> if invert then ;
: tand and ;
: tor or ;
: tequiv 2dup and rot tnot rot tnot and or ;
: timply tnot tor ;
: txor tequiv tnot ;
: t. C" TF?" 2 + + c@ emit ;
: table2.
cr ." T F ?"
cr ." --------"
2 true DO
cr I t. ." | "
2 true DO
dup I J rot execute t... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Write the same algorithm in Go as shown in this Forth implementation. | 1 constant maybe
: tnot dup maybe <> if invert then ;
: tand and ;
: tor or ;
: tequiv 2dup and rot tnot rot tnot and or ;
: timply tnot tor ;
: txor tequiv tnot ;
: t. C" TF?" 2 + + c@ emit ;
: table2.
cr ." T F ?"
cr ." --------"
2 true DO
cr I t. ." | "
2 true DO
dup I J rot execute t... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Generate an equivalent C# version of this Fortran code. |
module trit
real, parameter :: true = 1, false = 0, maybe = 0.5
contains
real function tnot(y)
real, intent(in) :: y
tnot = 1 - y
end function tnot
real function tand(x, y)
real, intent(in) :: x, y
tand = min(x, y)
end function tand
real func... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Write the same algorithm in C++ as shown in this Fortran implementation. |
module trit
real, parameter :: true = 1, false = 0, maybe = 0.5
contains
real function tnot(y)
real, intent(in) :: y
tnot = 1 - y
end function tnot
real function tand(x, y)
real, intent(in) :: x, y
tand = min(x, y)
end function tand
real func... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Ensure the translated C code behaves exactly like the original Fortran snippet. |
module trit
real, parameter :: true = 1, false = 0, maybe = 0.5
contains
real function tnot(y)
real, intent(in) :: y
tnot = 1 - y
end function tnot
real function tand(x, y)
real, intent(in) :: x, y
tand = min(x, y)
end function tand
real func... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Convert this Fortran snippet to Java and keep its semantics consistent. |
module trit
real, parameter :: true = 1, false = 0, maybe = 0.5
contains
real function tnot(y)
real, intent(in) :: y
tnot = 1 - y
end function tnot
real function tand(x, y)
real, intent(in) :: x, y
tand = min(x, y)
end function tand
real func... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Generate a Python translation of this Fortran snippet without changing its computational steps. |
module trit
real, parameter :: true = 1, false = 0, maybe = 0.5
contains
real function tnot(y)
real, intent(in) :: y
tnot = 1 - y
end function tnot
real function tand(x, y)
real, intent(in) :: x, y
tand = min(x, y)
end function tand
real func... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Translate the given Fortran code snippet into PHP without altering its behavior. |
module trit
real, parameter :: true = 1, false = 0, maybe = 0.5
contains
real function tnot(y)
real, intent(in) :: y
tnot = 1 - y
end function tnot
real function tand(x, y)
real, intent(in) :: x, y
tand = min(x, y)
end function tand
real func... | #!/usr/bin/php
<?php
# defined as numbers, so I can use max() and min() on it
if (! define('triFalse',0)) trigger_error('Unknown error defining!', E_USER_ERROR);
if (! define('triMaybe',1)) trigger_error('Unknown error defining!', E_USER_ERROR);
if (! define('triTrue', 2)) trigger_error('Unknown error defining!', E... |
Please provide an equivalent version of this Groovy code in C. | enum Trit {
TRUE, MAYBE, FALSE
private Trit nand(Trit that) {
switch ([this,that]) {
case { FALSE in it }: return TRUE
case { MAYBE in it }: return MAYBE
default : return FALSE
}
}
private Trit nor(Trit that) { this.or(that).not() }
... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Rewrite this program in C# while keeping its functionality equivalent to the Groovy version. | enum Trit {
TRUE, MAYBE, FALSE
private Trit nand(Trit that) {
switch ([this,that]) {
case { FALSE in it }: return TRUE
case { MAYBE in it }: return MAYBE
default : return FALSE
}
}
private Trit nor(Trit that) { this.or(that).not() }
... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Convert this Groovy snippet to C++ and keep its semantics consistent. | enum Trit {
TRUE, MAYBE, FALSE
private Trit nand(Trit that) {
switch ([this,that]) {
case { FALSE in it }: return TRUE
case { MAYBE in it }: return MAYBE
default : return FALSE
}
}
private Trit nor(Trit that) { this.or(that).not() }
... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Convert this Groovy snippet to Java and keep its semantics consistent. | enum Trit {
TRUE, MAYBE, FALSE
private Trit nand(Trit that) {
switch ([this,that]) {
case { FALSE in it }: return TRUE
case { MAYBE in it }: return MAYBE
default : return FALSE
}
}
private Trit nor(Trit that) { this.or(that).not() }
... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Preserve the algorithm and functionality while converting the code from Groovy to Python. | enum Trit {
TRUE, MAYBE, FALSE
private Trit nand(Trit that) {
switch ([this,that]) {
case { FALSE in it }: return TRUE
case { MAYBE in it }: return MAYBE
default : return FALSE
}
}
private Trit nor(Trit that) { this.or(that).not() }
... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Write a version of this Groovy function in Go with identical behavior. | enum Trit {
TRUE, MAYBE, FALSE
private Trit nand(Trit that) {
switch ([this,that]) {
case { FALSE in it }: return TRUE
case { MAYBE in it }: return MAYBE
default : return FALSE
}
}
private Trit nor(Trit that) { this.or(that).not() }
... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Rewrite this program in C while keeping its functionality equivalent to the Haskell version. | import Prelude hiding (Bool(..), not, (&&), (||), (==))
main = mapM_ (putStrLn . unlines . map unwords)
[ table "not" $ unary not
, table "and" $ binary (&&)
, table "or" $ binary (||)
, table "implies" $ binary (=->)
, table "equals" $ binary (==)
]
data Trit = False | Maybe | T... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Can you help me rewrite this code in C# instead of Haskell, keeping it the same logically? | import Prelude hiding (Bool(..), not, (&&), (||), (==))
main = mapM_ (putStrLn . unlines . map unwords)
[ table "not" $ unary not
, table "and" $ binary (&&)
, table "or" $ binary (||)
, table "implies" $ binary (=->)
, table "equals" $ binary (==)
]
data Trit = False | Maybe | T... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Rewrite the snippet below in C++ so it works the same as the original Haskell code. | import Prelude hiding (Bool(..), not, (&&), (||), (==))
main = mapM_ (putStrLn . unlines . map unwords)
[ table "not" $ unary not
, table "and" $ binary (&&)
, table "or" $ binary (||)
, table "implies" $ binary (=->)
, table "equals" $ binary (==)
]
data Trit = False | Maybe | T... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Keep all operations the same but rewrite the snippet in Java. | import Prelude hiding (Bool(..), not, (&&), (||), (==))
main = mapM_ (putStrLn . unlines . map unwords)
[ table "not" $ unary not
, table "and" $ binary (&&)
, table "or" $ binary (||)
, table "implies" $ binary (=->)
, table "equals" $ binary (==)
]
data Trit = False | Maybe | T... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Maintain the same structure and functionality when rewriting this code in Python. | import Prelude hiding (Bool(..), not, (&&), (||), (==))
main = mapM_ (putStrLn . unlines . map unwords)
[ table "not" $ unary not
, table "and" $ binary (&&)
, table "or" $ binary (||)
, table "implies" $ binary (=->)
, table "equals" $ binary (==)
]
data Trit = False | Maybe | T... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Generate an equivalent Go version of this Haskell code. | import Prelude hiding (Bool(..), not, (&&), (||), (==))
main = mapM_ (putStrLn . unlines . map unwords)
[ table "not" $ unary not
, table "and" $ binary (&&)
, table "or" $ binary (||)
, table "implies" $ binary (=->)
, table "equals" $ binary (==)
]
data Trit = False | Maybe | T... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Translate the given Icon code snippet into C without altering its behavior. | $define TRUE 1
$define FALSE -1
$define UNKNOWN 0
invocable all
link printf
procedure main()
ufunc := ["not3"]
bfunc := ["and3", "or3", "xor3", "eq3", "ifthen3"]
every f := !ufunc do {
printf("\nunary function=%s:\n",f)
every t1 := (TRUE | FALSE | UNKNOWN) do
printf(" %s : %s\n",showtrit(t1),... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Translate the given Icon code snippet into C# without altering its behavior. | $define TRUE 1
$define FALSE -1
$define UNKNOWN 0
invocable all
link printf
procedure main()
ufunc := ["not3"]
bfunc := ["and3", "or3", "xor3", "eq3", "ifthen3"]
every f := !ufunc do {
printf("\nunary function=%s:\n",f)
every t1 := (TRUE | FALSE | UNKNOWN) do
printf(" %s : %s\n",showtrit(t1),... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Transform the following Icon implementation into C++, maintaining the same output and logic. | $define TRUE 1
$define FALSE -1
$define UNKNOWN 0
invocable all
link printf
procedure main()
ufunc := ["not3"]
bfunc := ["and3", "or3", "xor3", "eq3", "ifthen3"]
every f := !ufunc do {
printf("\nunary function=%s:\n",f)
every t1 := (TRUE | FALSE | UNKNOWN) do
printf(" %s : %s\n",showtrit(t1),... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Write the same code in Java as shown below in Icon. | $define TRUE 1
$define FALSE -1
$define UNKNOWN 0
invocable all
link printf
procedure main()
ufunc := ["not3"]
bfunc := ["and3", "or3", "xor3", "eq3", "ifthen3"]
every f := !ufunc do {
printf("\nunary function=%s:\n",f)
every t1 := (TRUE | FALSE | UNKNOWN) do
printf(" %s : %s\n",showtrit(t1),... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Preserve the algorithm and functionality while converting the code from Icon to Python. | $define TRUE 1
$define FALSE -1
$define UNKNOWN 0
invocable all
link printf
procedure main()
ufunc := ["not3"]
bfunc := ["and3", "or3", "xor3", "eq3", "ifthen3"]
every f := !ufunc do {
printf("\nunary function=%s:\n",f)
every t1 := (TRUE | FALSE | UNKNOWN) do
printf(" %s : %s\n",showtrit(t1),... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Produce a functionally identical Go code for the snippet given in Icon. | $define TRUE 1
$define FALSE -1
$define UNKNOWN 0
invocable all
link printf
procedure main()
ufunc := ["not3"]
bfunc := ["and3", "or3", "xor3", "eq3", "ifthen3"]
every f := !ufunc do {
printf("\nunary function=%s:\n",f)
every t1 := (TRUE | FALSE | UNKNOWN) do
printf(" %s : %s\n",showtrit(t1),... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Write a version of this J function in C with identical behavior. | not=: -.
and=: <.
or =: >.
if =: (>. -.)"0~
eq =: (<.&-. >. <.)"0
| #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Change the following J code into C# without altering its purpose. | not=: -.
and=: <.
or =: >.
if =: (>. -.)"0~
eq =: (<.&-. >. <.)"0
| using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Convert this J block to C++, preserving its control flow and logic. | not=: -.
and=: <.
or =: >.
if =: (>. -.)"0~
eq =: (<.&-. >. <.)"0
| #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Maintain the same structure and functionality when rewriting this code in Java. | not=: -.
and=: <.
or =: >.
if =: (>. -.)"0~
eq =: (<.&-. >. <.)"0
| public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Produce a functionally identical Python code for the snippet given in J. | not=: -.
and=: <.
or =: >.
if =: (>. -.)"0~
eq =: (<.&-. >. <.)"0
| class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Ensure the translated Go code behaves exactly like the original J snippet. | not=: -.
and=: <.
or =: >.
if =: (>. -.)"0~
eq =: (<.&-. >. <.)"0
| package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Produce a functionally identical C code for the snippet given in Julia. | @enum Trit False Maybe True
const trits = (False, Maybe, True)
Base.:!(a::Trit) = a == False ? True : a == Maybe ? Maybe : False
∧(a::Trit, b::Trit) = a == b == True ? True : (a, b) ∋ False ? False : Maybe
∨(a::Trit, b::Trit) = a == b == False ? False : (a, b) ∋ True ? True : Maybe
⊃(a::Trit, b::Trit) = a == False || ... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Write the same code in C# as shown below in Julia. | @enum Trit False Maybe True
const trits = (False, Maybe, True)
Base.:!(a::Trit) = a == False ? True : a == Maybe ? Maybe : False
∧(a::Trit, b::Trit) = a == b == True ? True : (a, b) ∋ False ? False : Maybe
∨(a::Trit, b::Trit) = a == b == False ? False : (a, b) ∋ True ? True : Maybe
⊃(a::Trit, b::Trit) = a == False || ... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Translate the given Julia code snippet into C++ without altering its behavior. | @enum Trit False Maybe True
const trits = (False, Maybe, True)
Base.:!(a::Trit) = a == False ? True : a == Maybe ? Maybe : False
∧(a::Trit, b::Trit) = a == b == True ? True : (a, b) ∋ False ? False : Maybe
∨(a::Trit, b::Trit) = a == b == False ? False : (a, b) ∋ True ? True : Maybe
⊃(a::Trit, b::Trit) = a == False || ... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Rewrite this program in Java while keeping its functionality equivalent to the Julia version. | @enum Trit False Maybe True
const trits = (False, Maybe, True)
Base.:!(a::Trit) = a == False ? True : a == Maybe ? Maybe : False
∧(a::Trit, b::Trit) = a == b == True ? True : (a, b) ∋ False ? False : Maybe
∨(a::Trit, b::Trit) = a == b == False ? False : (a, b) ∋ True ? True : Maybe
⊃(a::Trit, b::Trit) = a == False || ... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Port the provided Julia code into Python while preserving the original functionality. | @enum Trit False Maybe True
const trits = (False, Maybe, True)
Base.:!(a::Trit) = a == False ? True : a == Maybe ? Maybe : False
∧(a::Trit, b::Trit) = a == b == True ? True : (a, b) ∋ False ? False : Maybe
∨(a::Trit, b::Trit) = a == b == False ? False : (a, b) ∋ True ? True : Maybe
⊃(a::Trit, b::Trit) = a == False || ... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Convert this Julia block to Go, preserving its control flow and logic. | @enum Trit False Maybe True
const trits = (False, Maybe, True)
Base.:!(a::Trit) = a == False ? True : a == Maybe ? Maybe : False
∧(a::Trit, b::Trit) = a == b == True ? True : (a, b) ∋ False ? False : Maybe
∨(a::Trit, b::Trit) = a == b == False ? False : (a, b) ∋ True ? True : Maybe
⊃(a::Trit, b::Trit) = a == False || ... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Port the following code from Mathematica to C with equivalent syntax and logic. | Maybe /: ! Maybe = Maybe;
Maybe /: (And | Or | Nand | Nor | Xor | Xnor | Implies | Equivalent)[Maybe, Maybe] = Maybe;
| #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Ensure the translated C# code behaves exactly like the original Mathematica snippet. | Maybe /: ! Maybe = Maybe;
Maybe /: (And | Or | Nand | Nor | Xor | Xnor | Implies | Equivalent)[Maybe, Maybe] = Maybe;
| using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Rewrite this program in C++ while keeping its functionality equivalent to the Mathematica version. | Maybe /: ! Maybe = Maybe;
Maybe /: (And | Or | Nand | Nor | Xor | Xnor | Implies | Equivalent)[Maybe, Maybe] = Maybe;
| #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Write the same algorithm in Java as shown in this Mathematica implementation. | Maybe /: ! Maybe = Maybe;
Maybe /: (And | Or | Nand | Nor | Xor | Xnor | Implies | Equivalent)[Maybe, Maybe] = Maybe;
| public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Convert this Mathematica snippet to Python and keep its semantics consistent. | Maybe /: ! Maybe = Maybe;
Maybe /: (And | Or | Nand | Nor | Xor | Xnor | Implies | Equivalent)[Maybe, Maybe] = Maybe;
| class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Rewrite the snippet below in Go so it works the same as the original Mathematica code. | Maybe /: ! Maybe = Maybe;
Maybe /: (And | Or | Nand | Nor | Xor | Xnor | Implies | Equivalent)[Maybe, Maybe] = Maybe;
| package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Convert this Nim snippet to C and keep its semantics consistent. | type Trit* = enum ttrue, tmaybe, tfalse
proc `$`*(a: Trit): string =
case a
of ttrue: "T"
of tmaybe: "?"
of tfalse: "F"
proc `not`*(a: Trit): Trit =
case a
of ttrue: tfalse
of tmaybe: tmaybe
of tfalse: ttrue
proc `and`*(a, b: Trit): Trit =
const t: array[Trit, array[Trit, Trit]] =
[ [ttrue, tm... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Maintain the same structure and functionality when rewriting this code in C#. | type Trit* = enum ttrue, tmaybe, tfalse
proc `$`*(a: Trit): string =
case a
of ttrue: "T"
of tmaybe: "?"
of tfalse: "F"
proc `not`*(a: Trit): Trit =
case a
of ttrue: tfalse
of tmaybe: tmaybe
of tfalse: ttrue
proc `and`*(a, b: Trit): Trit =
const t: array[Trit, array[Trit, Trit]] =
[ [ttrue, tm... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Write the same algorithm in C++ as shown in this Nim implementation. | type Trit* = enum ttrue, tmaybe, tfalse
proc `$`*(a: Trit): string =
case a
of ttrue: "T"
of tmaybe: "?"
of tfalse: "F"
proc `not`*(a: Trit): Trit =
case a
of ttrue: tfalse
of tmaybe: tmaybe
of tfalse: ttrue
proc `and`*(a, b: Trit): Trit =
const t: array[Trit, array[Trit, Trit]] =
[ [ttrue, tm... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Change the programming language of this snippet from Nim to Java without modifying what it does. | type Trit* = enum ttrue, tmaybe, tfalse
proc `$`*(a: Trit): string =
case a
of ttrue: "T"
of tmaybe: "?"
of tfalse: "F"
proc `not`*(a: Trit): Trit =
case a
of ttrue: tfalse
of tmaybe: tmaybe
of tfalse: ttrue
proc `and`*(a, b: Trit): Trit =
const t: array[Trit, array[Trit, Trit]] =
[ [ttrue, tm... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Translate this program into Python but keep the logic exactly as in Nim. | type Trit* = enum ttrue, tmaybe, tfalse
proc `$`*(a: Trit): string =
case a
of ttrue: "T"
of tmaybe: "?"
of tfalse: "F"
proc `not`*(a: Trit): Trit =
case a
of ttrue: tfalse
of tmaybe: tmaybe
of tfalse: ttrue
proc `and`*(a, b: Trit): Trit =
const t: array[Trit, array[Trit, Trit]] =
[ [ttrue, tm... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Port the following code from Nim to Go with equivalent syntax and logic. | type Trit* = enum ttrue, tmaybe, tfalse
proc `$`*(a: Trit): string =
case a
of ttrue: "T"
of tmaybe: "?"
of tfalse: "F"
proc `not`*(a: Trit): Trit =
case a
of ttrue: tfalse
of tmaybe: tmaybe
of tfalse: ttrue
proc `and`*(a, b: Trit): Trit =
const t: array[Trit, array[Trit, Trit]] =
[ [ttrue, tm... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Convert the following code from OCaml to C, ensuring the logic remains intact. | type trit = True | False | Maybe
let t_not = function
| True -> False
| False -> True
| Maybe -> Maybe
let t_and a b = match (a,b) with
| (True,True) -> True
| (False,_) | (_,False) -> False
| _ -> Maybe
let t_or a b = t_not (t_and (t_not a) (t_not b))
let t_eq a b = match (a,b) with
| (True,True... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Translate this program into C# but keep the logic exactly as in OCaml. | type trit = True | False | Maybe
let t_not = function
| True -> False
| False -> True
| Maybe -> Maybe
let t_and a b = match (a,b) with
| (True,True) -> True
| (False,_) | (_,False) -> False
| _ -> Maybe
let t_or a b = t_not (t_and (t_not a) (t_not b))
let t_eq a b = match (a,b) with
| (True,True... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Write a version of this OCaml function in C++ with identical behavior. | type trit = True | False | Maybe
let t_not = function
| True -> False
| False -> True
| Maybe -> Maybe
let t_and a b = match (a,b) with
| (True,True) -> True
| (False,_) | (_,False) -> False
| _ -> Maybe
let t_or a b = t_not (t_and (t_not a) (t_not b))
let t_eq a b = match (a,b) with
| (True,True... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Keep all operations the same but rewrite the snippet in Java. | type trit = True | False | Maybe
let t_not = function
| True -> False
| False -> True
| Maybe -> Maybe
let t_and a b = match (a,b) with
| (True,True) -> True
| (False,_) | (_,False) -> False
| _ -> Maybe
let t_or a b = t_not (t_and (t_not a) (t_not b))
let t_eq a b = match (a,b) with
| (True,True... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Keep all operations the same but rewrite the snippet in Python. | type trit = True | False | Maybe
let t_not = function
| True -> False
| False -> True
| Maybe -> Maybe
let t_and a b = match (a,b) with
| (True,True) -> True
| (False,_) | (_,False) -> False
| _ -> Maybe
let t_or a b = t_not (t_and (t_not a) (t_not b))
let t_eq a b = match (a,b) with
| (True,True... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Convert the following code from OCaml to Go, ensuring the logic remains intact. | type trit = True | False | Maybe
let t_not = function
| True -> False
| False -> True
| Maybe -> Maybe
let t_and a b = match (a,b) with
| (True,True) -> True
| (False,_) | (_,False) -> False
| _ -> Maybe
let t_or a b = t_not (t_and (t_not a) (t_not b))
let t_eq a b = match (a,b) with
| (True,True... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Preserve the algorithm and functionality while converting the code from Pascal to C. |
unit ternarylogic;
interface
type
trit = (tFalse=-1, tMaybe=0, tTrue=1);
operator * (const a,b:trit):trit;
operator and (const a,b:trit):trit;inline;
operator or (const a,b:trit):trit;inline;
operator not (const a:trit):trit;inline;
operator xor (const a,b:trit):trit;
operator >< (const a... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Can you help me rewrite this code in C# instead of Pascal, keeping it the same logically? |
unit ternarylogic;
interface
type
trit = (tFalse=-1, tMaybe=0, tTrue=1);
operator * (const a,b:trit):trit;
operator and (const a,b:trit):trit;inline;
operator or (const a,b:trit):trit;inline;
operator not (const a:trit):trit;inline;
operator xor (const a,b:trit):trit;
operator >< (const a... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Rewrite this program in C++ while keeping its functionality equivalent to the Pascal version. |
unit ternarylogic;
interface
type
trit = (tFalse=-1, tMaybe=0, tTrue=1);
operator * (const a,b:trit):trit;
operator and (const a,b:trit):trit;inline;
operator or (const a,b:trit):trit;inline;
operator not (const a:trit):trit;inline;
operator xor (const a,b:trit):trit;
operator >< (const a... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Generate a Java translation of this Pascal snippet without changing its computational steps. |
unit ternarylogic;
interface
type
trit = (tFalse=-1, tMaybe=0, tTrue=1);
operator * (const a,b:trit):trit;
operator and (const a,b:trit):trit;inline;
operator or (const a,b:trit):trit;inline;
operator not (const a:trit):trit;inline;
operator xor (const a,b:trit):trit;
operator >< (const a... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Convert this Pascal snippet to Python and keep its semantics consistent. |
unit ternarylogic;
interface
type
trit = (tFalse=-1, tMaybe=0, tTrue=1);
operator * (const a,b:trit):trit;
operator and (const a,b:trit):trit;inline;
operator or (const a,b:trit):trit;inline;
operator not (const a:trit):trit;inline;
operator xor (const a,b:trit):trit;
operator >< (const a... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Change the following Pascal code into Go without altering its purpose. |
unit ternarylogic;
interface
type
trit = (tFalse=-1, tMaybe=0, tTrue=1);
operator * (const a,b:trit):trit;
operator and (const a,b:trit):trit;inline;
operator or (const a,b:trit):trit;inline;
operator not (const a:trit):trit;inline;
operator xor (const a,b:trit):trit;
operator >< (const a... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Ensure the translated C code behaves exactly like the original Perl snippet. | use v5.36;
package Trit;
use List::Util qw(min max);
our @ISA = qw(Exporter);
our @EXPORT = qw(%E);
my %E = (true => 1, false => -1, maybe => 0);
use overload
'<=>' => sub ($a,$b) { $a->cmp($b) },
'cmp' => sub ($a,$b) { $a->cmp($b) },
'==' => sub ($a,$b,$) { $$a == $$b },
'eq' => sub ($a,$b... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Rewrite this program in C# while keeping its functionality equivalent to the Perl version. | use v5.36;
package Trit;
use List::Util qw(min max);
our @ISA = qw(Exporter);
our @EXPORT = qw(%E);
my %E = (true => 1, false => -1, maybe => 0);
use overload
'<=>' => sub ($a,$b) { $a->cmp($b) },
'cmp' => sub ($a,$b) { $a->cmp($b) },
'==' => sub ($a,$b,$) { $$a == $$b },
'eq' => sub ($a,$b... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Translate this program into C++ but keep the logic exactly as in Perl. | use v5.36;
package Trit;
use List::Util qw(min max);
our @ISA = qw(Exporter);
our @EXPORT = qw(%E);
my %E = (true => 1, false => -1, maybe => 0);
use overload
'<=>' => sub ($a,$b) { $a->cmp($b) },
'cmp' => sub ($a,$b) { $a->cmp($b) },
'==' => sub ($a,$b,$) { $$a == $$b },
'eq' => sub ($a,$b... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Generate an equivalent Java version of this Perl code. | use v5.36;
package Trit;
use List::Util qw(min max);
our @ISA = qw(Exporter);
our @EXPORT = qw(%E);
my %E = (true => 1, false => -1, maybe => 0);
use overload
'<=>' => sub ($a,$b) { $a->cmp($b) },
'cmp' => sub ($a,$b) { $a->cmp($b) },
'==' => sub ($a,$b,$) { $$a == $$b },
'eq' => sub ($a,$b... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Translate the given Perl code snippet into Python without altering its behavior. | use v5.36;
package Trit;
use List::Util qw(min max);
our @ISA = qw(Exporter);
our @EXPORT = qw(%E);
my %E = (true => 1, false => -1, maybe => 0);
use overload
'<=>' => sub ($a,$b) { $a->cmp($b) },
'cmp' => sub ($a,$b) { $a->cmp($b) },
'==' => sub ($a,$b,$) { $$a == $$b },
'eq' => sub ($a,$b... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Produce a language-to-language conversion: from Perl to Go, same semantics. | use v5.36;
package Trit;
use List::Util qw(min max);
our @ISA = qw(Exporter);
our @EXPORT = qw(%E);
my %E = (true => 1, false => -1, maybe => 0);
use overload
'<=>' => sub ($a,$b) { $a->cmp($b) },
'cmp' => sub ($a,$b) { $a->cmp($b) },
'==' => sub ($a,$b,$) { $$a == $$b },
'eq' => sub ($a,$b... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Preserve the algorithm and functionality while converting the code from Racket to C. | #lang typed/racket
(define-type trit (U 'true 'false 'maybe))
(: not (trit -> trit))
(define (not a)
(case a
[(true) 'false]
[(maybe) 'maybe]
[(false) 'true]))
(: and (trit trit -> trit))
(define (and a b)
(case a
[(false) 'false]
[(maybe) (case b
[(false) 'false]
... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Write the same algorithm in C# as shown in this Racket implementation. | #lang typed/racket
(define-type trit (U 'true 'false 'maybe))
(: not (trit -> trit))
(define (not a)
(case a
[(true) 'false]
[(maybe) 'maybe]
[(false) 'true]))
(: and (trit trit -> trit))
(define (and a b)
(case a
[(false) 'false]
[(maybe) (case b
[(false) 'false]
... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Write a version of this Racket function in C++ with identical behavior. | #lang typed/racket
(define-type trit (U 'true 'false 'maybe))
(: not (trit -> trit))
(define (not a)
(case a
[(true) 'false]
[(maybe) 'maybe]
[(false) 'true]))
(: and (trit trit -> trit))
(define (and a b)
(case a
[(false) 'false]
[(maybe) (case b
[(false) 'false]
... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Write a version of this Racket function in Java with identical behavior. | #lang typed/racket
(define-type trit (U 'true 'false 'maybe))
(: not (trit -> trit))
(define (not a)
(case a
[(true) 'false]
[(maybe) 'maybe]
[(false) 'true]))
(: and (trit trit -> trit))
(define (and a b)
(case a
[(false) 'false]
[(maybe) (case b
[(false) 'false]
... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Write a version of this Racket function in Python with identical behavior. | #lang typed/racket
(define-type trit (U 'true 'false 'maybe))
(: not (trit -> trit))
(define (not a)
(case a
[(true) 'false]
[(maybe) 'maybe]
[(false) 'true]))
(: and (trit trit -> trit))
(define (and a b)
(case a
[(false) 'false]
[(maybe) (case b
[(false) 'false]
... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Please provide an equivalent version of this Racket code in Go. | #lang typed/racket
(define-type trit (U 'true 'false 'maybe))
(: not (trit -> trit))
(define (not a)
(case a
[(true) 'false]
[(maybe) 'maybe]
[(false) 'true]))
(: and (trit trit -> trit))
(define (and a b)
(case a
[(false) 'false]
[(maybe) (case b
[(false) 'false]
... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Produce a functionally identical C code for the snippet given in REXX. | tritValues = .array~of(.trit~true, .trit~false, .trit~maybe)
tab = '09'x
say "not operation (\)"
loop a over tritValues
say "\"a":" (\a)
end
say
say "and operation (&)"
loop aa over tritValues
loop bb over tritValues
say (aa" & "bb":" (aa&bb))
end
end
say
say "or operation (|)"
loop aa over tritV... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Convert this REXX block to C#, preserving its control flow and logic. | tritValues = .array~of(.trit~true, .trit~false, .trit~maybe)
tab = '09'x
say "not operation (\)"
loop a over tritValues
say "\"a":" (\a)
end
say
say "and operation (&)"
loop aa over tritValues
loop bb over tritValues
say (aa" & "bb":" (aa&bb))
end
end
say
say "or operation (|)"
loop aa over tritV... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Produce a language-to-language conversion: from REXX to C++, same semantics. | tritValues = .array~of(.trit~true, .trit~false, .trit~maybe)
tab = '09'x
say "not operation (\)"
loop a over tritValues
say "\"a":" (\a)
end
say
say "and operation (&)"
loop aa over tritValues
loop bb over tritValues
say (aa" & "bb":" (aa&bb))
end
end
say
say "or operation (|)"
loop aa over tritV... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Port the provided REXX code into Java while preserving the original functionality. | tritValues = .array~of(.trit~true, .trit~false, .trit~maybe)
tab = '09'x
say "not operation (\)"
loop a over tritValues
say "\"a":" (\a)
end
say
say "and operation (&)"
loop aa over tritValues
loop bb over tritValues
say (aa" & "bb":" (aa&bb))
end
end
say
say "or operation (|)"
loop aa over tritV... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Please provide an equivalent version of this REXX code in Python. | tritValues = .array~of(.trit~true, .trit~false, .trit~maybe)
tab = '09'x
say "not operation (\)"
loop a over tritValues
say "\"a":" (\a)
end
say
say "and operation (&)"
loop aa over tritValues
loop bb over tritValues
say (aa" & "bb":" (aa&bb))
end
end
say
say "or operation (|)"
loop aa over tritV... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Convert the following code from REXX to Go, ensuring the logic remains intact. | tritValues = .array~of(.trit~true, .trit~false, .trit~maybe)
tab = '09'x
say "not operation (\)"
loop a over tritValues
say "\"a":" (\a)
end
say
say "and operation (&)"
loop aa over tritValues
loop bb over tritValues
say (aa" & "bb":" (aa&bb))
end
end
say
say "or operation (|)"
loop aa over tritV... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Generate a C translation of this Ruby snippet without changing its computational steps. |
require 'singleton'
class MaybeClass
include Singleton
def to_s; "maybe"; end
end
MAYBE = MaybeClass.instance
class TrueClass
TritMagic = Object.new
class << TritMagic
def index; 0; end
def !; false; end
def & other; other; end
def | other; true; end
def ^ other; [false... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Transform the following Ruby implementation into C#, maintaining the same output and logic. |
require 'singleton'
class MaybeClass
include Singleton
def to_s; "maybe"; end
end
MAYBE = MaybeClass.instance
class TrueClass
TritMagic = Object.new
class << TritMagic
def index; 0; end
def !; false; end
def & other; other; end
def | other; true; end
def ^ other; [false... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Can you help me rewrite this code in C++ instead of Ruby, keeping it the same logically? |
require 'singleton'
class MaybeClass
include Singleton
def to_s; "maybe"; end
end
MAYBE = MaybeClass.instance
class TrueClass
TritMagic = Object.new
class << TritMagic
def index; 0; end
def !; false; end
def & other; other; end
def | other; true; end
def ^ other; [false... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Change the following Ruby code into Java without altering its purpose. |
require 'singleton'
class MaybeClass
include Singleton
def to_s; "maybe"; end
end
MAYBE = MaybeClass.instance
class TrueClass
TritMagic = Object.new
class << TritMagic
def index; 0; end
def !; false; end
def & other; other; end
def | other; true; end
def ^ other; [false... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Generate an equivalent Python version of this Ruby code. |
require 'singleton'
class MaybeClass
include Singleton
def to_s; "maybe"; end
end
MAYBE = MaybeClass.instance
class TrueClass
TritMagic = Object.new
class << TritMagic
def index; 0; end
def !; false; end
def & other; other; end
def | other; true; end
def ^ other; [false... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Convert this Ruby block to Go, preserving its control flow and logic. |
require 'singleton'
class MaybeClass
include Singleton
def to_s; "maybe"; end
end
MAYBE = MaybeClass.instance
class TrueClass
TritMagic = Object.new
class << TritMagic
def index; 0; end
def !; false; end
def & other; other; end
def | other; true; end
def ^ other; [false... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Write the same algorithm in C as shown in this Scala implementation. |
enum class Trit {
TRUE, MAYBE, FALSE;
operator fun not() = when (this) {
TRUE -> FALSE
MAYBE -> MAYBE
FALSE -> TRUE
}
infix fun and(other: Trit) = when (this) {
TRUE -> other
MAYBE -> if (other == FALSE) FALSE else MAYBE
FALSE -> FALSE
}
in... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Produce a language-to-language conversion: from Scala to C#, same semantics. |
enum class Trit {
TRUE, MAYBE, FALSE;
operator fun not() = when (this) {
TRUE -> FALSE
MAYBE -> MAYBE
FALSE -> TRUE
}
infix fun and(other: Trit) = when (this) {
TRUE -> other
MAYBE -> if (other == FALSE) FALSE else MAYBE
FALSE -> FALSE
}
in... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Change the following Scala code into C++ without altering its purpose. |
enum class Trit {
TRUE, MAYBE, FALSE;
operator fun not() = when (this) {
TRUE -> FALSE
MAYBE -> MAYBE
FALSE -> TRUE
}
infix fun and(other: Trit) = when (this) {
TRUE -> other
MAYBE -> if (other == FALSE) FALSE else MAYBE
FALSE -> FALSE
}
in... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Produce a language-to-language conversion: from Scala to Java, same semantics. |
enum class Trit {
TRUE, MAYBE, FALSE;
operator fun not() = when (this) {
TRUE -> FALSE
MAYBE -> MAYBE
FALSE -> TRUE
}
infix fun and(other: Trit) = when (this) {
TRUE -> other
MAYBE -> if (other == FALSE) FALSE else MAYBE
FALSE -> FALSE
}
in... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Write the same algorithm in Python as shown in this Scala implementation. |
enum class Trit {
TRUE, MAYBE, FALSE;
operator fun not() = when (this) {
TRUE -> FALSE
MAYBE -> MAYBE
FALSE -> TRUE
}
infix fun and(other: Trit) = when (this) {
TRUE -> other
MAYBE -> if (other == FALSE) FALSE else MAYBE
FALSE -> FALSE
}
in... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Rewrite the snippet below in Go so it works the same as the original Scala code. |
enum class Trit {
TRUE, MAYBE, FALSE;
operator fun not() = when (this) {
TRUE -> FALSE
MAYBE -> MAYBE
FALSE -> TRUE
}
infix fun and(other: Trit) = when (this) {
TRUE -> other
MAYBE -> if (other == FALSE) FALSE else MAYBE
FALSE -> FALSE
}
in... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Rewrite this program in C while keeping its functionality equivalent to the Tcl version. | package require Tcl 8.5
namespace eval ternary {
proc maketable {name count values} {
set sep ""
for {set i 0; set c 97} {$i<$count} {incr i;incr c} {
set v [format "%c" $c]
lappend args $v; append key $sep "$" $v
set sep ","
}
foreach row [split $values \n] {
if {[llength $row]>1} {
... | #include <stdio.h>
typedef enum {
TRITTRUE,
TRITMAYBE,
TRITFALSE
} trit;
trit tritNot[3] = {TRITFALSE , TRITMAYBE, TRITTRUE};
trit tritAnd[3][3] = { {TRITTRUE, TRITMAYBE, TRITFALSE},
{TRITMAYBE, TRITMAYBE, TRITFALSE},
{TRITFALSE, TRITFALSE, TRITFALSE} };
t... |
Produce a functionally identical C# code for the snippet given in Tcl. | package require Tcl 8.5
namespace eval ternary {
proc maketable {name count values} {
set sep ""
for {set i 0; set c 97} {$i<$count} {incr i;incr c} {
set v [format "%c" $c]
lappend args $v; append key $sep "$" $v
set sep ","
}
foreach row [split $values \n] {
if {[llength $row]>1} {
... | using System;
public static class NullableBoolExtension
{
public static bool? Implies(this bool? left, bool? right)
{
return !left | right;
}
public static bool? IsEquivalentTo(this bool? left, bool? right)
{
return left.HasValue && right.HasValue ? left == right : default(bo... |
Please provide an equivalent version of this Tcl code in C++. | package require Tcl 8.5
namespace eval ternary {
proc maketable {name count values} {
set sep ""
for {set i 0; set c 97} {$i<$count} {incr i;incr c} {
set v [format "%c" $c]
lappend args $v; append key $sep "$" $v
set sep ","
}
foreach row [split $values \n] {
if {[llength $row]>1} {
... | #include <iostream>
#include <stdlib.h>
class trit {
public:
static const trit False, Maybe, True;
trit operator !() const {
return static_cast<Value>(-value);
}
trit operator &&(const trit &b) const {
return (value < b.value) ? value : b.value;
}
trit operator ||(const trit ... |
Convert this Tcl block to Java, preserving its control flow and logic. | package require Tcl 8.5
namespace eval ternary {
proc maketable {name count values} {
set sep ""
for {set i 0; set c 97} {$i<$count} {incr i;incr c} {
set v [format "%c" $c]
lappend args $v; append key $sep "$" $v
set sep ","
}
foreach row [split $values \n] {
if {[llength $row]>1} {
... | public class Logic{
public static enum Trit{
TRUE, MAYBE, FALSE;
public Trit and(Trit other){
if(this == TRUE){
return other;
}else if(this == MAYBE){
return (other == FALSE) ? FALSE : MAYBE;
}else{
return FALSE;
}
}
public Trit or(Trit other){
if(this == TRUE){
return TRUE... |
Write a version of this Tcl function in Python with identical behavior. | package require Tcl 8.5
namespace eval ternary {
proc maketable {name count values} {
set sep ""
for {set i 0; set c 97} {$i<$count} {incr i;incr c} {
set v [format "%c" $c]
lappend args $v; append key $sep "$" $v
set sep ","
}
foreach row [split $values \n] {
if {[llength $row]>1} {
... | class Trit(int):
def __new__(cls, value):
if value == 'TRUE':
value = 1
elif value == 'FALSE':
value = 0
elif value == 'MAYBE':
value = -1
return super(Trit, cls).__new__(cls, value // (abs(value) or 1))
def __repr__(self):
if self > ... |
Change the programming language of this snippet from Tcl to Go without modifying what it does. | package require Tcl 8.5
namespace eval ternary {
proc maketable {name count values} {
set sep ""
for {set i 0; set c 97} {$i<$count} {incr i;incr c} {
set v [format "%c" $c]
lappend args $v; append key $sep "$" $v
set sep ","
}
foreach row [split $values \n] {
if {[llength $row]>1} {
... | package main
import "fmt"
type trit int8
const (
trFalse trit = iota - 1
trMaybe
trTrue
)
func (t trit) String() string {
switch t {
case trFalse:
return "False"
case trMaybe:
return "Maybe"
case trTrue:
return "True "
}
panic("Invalid trit")
}
func trNot... |
Translate the given Rust code snippet into PHP without altering its behavior. | use std::{ops, fmt};
#[derive(Copy, Clone, Debug)]
enum Trit {
True,
Maybe,
False,
}
impl ops::Not for Trit {
type Output = Self;
fn not(self) -> Self {
match self {
Trit::True => Trit::False,
Trit::Maybe => Trit::Maybe,
Trit::False => Trit::True,
... | #!/usr/bin/php
<?php
# defined as numbers, so I can use max() and min() on it
if (! define('triFalse',0)) trigger_error('Unknown error defining!', E_USER_ERROR);
if (! define('triMaybe',1)) trigger_error('Unknown error defining!', E_USER_ERROR);
if (! define('triTrue', 2)) trigger_error('Unknown error defining!', E... |
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