/// <summary>
/// Returns a curried equivalent of the provided function. The curried functionhas two unusual capabilities. First, its arguments needn't be provided oneat a time. If `f` is a ternary function and `g` is `R.curry(f)`, thefollowing are equivalent: - `g(1)(2)(3)` - `g(1)(2, 3)` - `g(1, 2)(3)` - `g(1, 2, 3)`Secondly, the special placeholder value `R.__` may be used to specify"gaps", allowing partial application of any combination of arguments,regardless of their positions. If `g` is as above and `_` is `R.__`, thefollowing are equivalent: - `g(1, 2, 3)` - `g(_, 2, 3)(1)` - `g(_, _, 3)(1)(2)` - `g(_, _, 3)(1, 2)` - `g(_, 2)(1)(3)` - `g(_, 2)(1, 3)` - `g(_, 2)(_, 3)(1)`
/// <para />
/// sig: (* -> a) -> (* -> a)
/// </summary>
/// <param name="fn">The function to curry.</param>
/// <returns>A new, curried function.</returns>
/// <see cref="R.CurryN"/>
public static dynamic Curry(dynamic fn)
{
return(Currying.Curry(Delegate(fn)));
}
/// <summary>
/// Returns a curried equivalent of the provided function. The curried functionhas two unusual capabilities. First, its arguments needn't be provided oneat a time. If `f` is a ternary function and `g` is `R.curry(f)`, thefollowing are equivalent: - `g(1)(2)(3)` - `g(1)(2, 3)` - `g(1, 2)(3)` - `g(1, 2, 3)`Secondly, the special placeholder value `R.__` may be used to specify"gaps", allowing partial application of any combination of arguments,regardless of their positions. If `g` is as above and `_` is `R.__`, thefollowing are equivalent: - `g(1, 2, 3)` - `g(_, 2, 3)(1)` - `g(_, _, 3)(1)(2)` - `g(_, _, 3)(1, 2)` - `g(_, 2)(1)(3)` - `g(_, 2)(1, 3)` - `g(_, 2)(_, 3)(1)`
/// <para />
/// sig: (* -> a) -> (* -> a)
/// </summary>
/// <param name="fn">The function to curry.</param>
/// <returns>A new, curried function.</returns>
/// <see cref="R.CurryN"/>
public static dynamic Curry(RamdaPlaceholder fn = null)
{
return(Currying.Curry(fn));
}
