Source-to-source code translation from OCaml using AI involves utilizing natural language processing (NLP) techniques and machine learning algorithms to analyze and understand source code
Translation Problem | OCaml Syntax Example | Rust Syntax Example | Score (1-10) |
---|---|---|---|
Algebraic Data Types (ADTs) | type shape = Circle of float | Rectangle of float * float |
enum Shape { Circle(f64), Rectangle(f64, f64) } |
3 |
Pattern Matching | match shape with Circle r -> ... | Rectangle (w, h) -> ... |
match shape { Shape::Circle(r) => ..., Shape::Rectangle(w, h) => ... } |
4 |
First-Class Functions | let apply f x = f x |
fn apply(f: fn(i32) -> i32, x: i32) -> i32 { f(x) } |
5 |
Immutable vs Mutable Data | let x = 5; x := 10 |
let mut x = 5; x = 10 |
2 |
Type Inference | let x = 42 |
let x: i32 = 42 |
6 |
Module System | module M = struct let x = 5 end |
mod M { pub const X: i32 = 5; } |
7 |
Exception Handling | try ... with Failure -> ... |
std::panic::catch_unwind(|| { ... }).unwrap_err() |
8 |
Higher-Kinded Types | let f : ('a -> 'b) -> 'a -> 'b = ... |
fn f<T, U>(x: T) -> U { ... } |
9 |
In OCaml, you can define algebraic data types using the type
keyword. For example:
type shape = Circle of float | Rectangle of float * float
In Rust, you achieve a similar effect using enums:
enum Shape {
Circle(f64),
Rectangle(f64, f64),
}
Reference: OCaml Documentation on Types
OCaml allows pattern matching directly on data constructors:
match shape with
| Circle r -> ...
| Rectangle (w, h) -> ...
In Rust, pattern matching is also supported but with a slightly different syntax:
match shape {
Shape::Circle(r) => ...,
Shape::Rectangle(w, h) => ...,
}
Reference: Rust Documentation on Pattern Matching
In OCaml, first-class functions can be defined and passed around easily:
let apply f x = f x
In Rust, you can define a function that takes another function as an argument:
fn apply(f: fn(i32) -> i32, x: i32) -> i32 {
f(x)
}
Reference: OCaml Documentation on Functions
OCaml variables are immutable by default:
let x = 5; x := 10 (* This will raise an error *)
In Rust, you can declare mutable variables using mut
:
let mut x = 5; x = 10;
Reference: Rust Documentation on Variables
OCaml has powerful type inference:
let x = 42 (* Type is inferred as int *)
In Rust, you can also infer types, but sometimes you need to specify them explicitly:
let x: i32 = 42; // Type must be specified if not inferred
Reference: OCaml Documentation on Type Inference
OCaml has a module system that allows for encapsulation:
module M = struct
let x = 5
end
In Rust, modules are defined using the mod
keyword:
mod M {
pub const X: i32 = 5;
}
Reference: Rust Documentation on Modules
OCaml uses a try ... with
construct for exception handling:
try ... with Failure -> ...
In Rust, you can use std::panic::catch_unwind
for similar functionality:
std::panic::catch_unwind(|| {
...
}).unwrap_err();
Reference: OCaml Documentation on Exceptions
OCaml supports higher-kinded types through polymorphic functions:
let f : ('a -> 'b) -> 'a -> 'b = ...
In Rust, you can achieve this with generics:
fn f<T, U>(x: T) -> U { ... }
Reference: Rust Documentation on Generics