Merge pull request #698 from revarbat/revarbat_dev

Added find_all(), re-did find_first() interface.  Made f_gt(), f_lt()…
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Revar Desmera 2021-10-17 00:59:30 -07:00 committed by GitHub
commit 584bea9e9b
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GPG Key ID: 4AEE18F83AFDEB23
2 changed files with 233 additions and 200 deletions

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@ -48,7 +48,7 @@ function map(func, list) =
// Topics: Function Literals, Looping, Filters
// Usage:
// lst = filter(func, list);
// lst = filter(function (x) x+1, list);
// lst = filter(function (x) x>1, list);
// Description:
// Returns all items in `list` that the function `func` returns true for.
// In pseudo-code, this is effectively:
@ -235,35 +235,72 @@ function for_n(n,init,func) =
a(init, n[0]);
// Function: find_all()
// Topics: Function Literals, Looping, Filters
// Usage:
// indices = find_all(func, list);
// indices = find_all(function (x) x>1, list);
// Description:
// Returns the indices of all items in `list` that the function `func` returns true for.
// In pseudo-code, this is effectively:
// ```
// function find_all(func,list):
// out = [];
// foreach item in list:
// if func(item) is true:
// append item index to out;
// return out;
// ```
// Arguments:
// func = The function of signature `function (x)` to evaluate for each item in `list`.
// list = The input list.
// See Also: find_all(), map(), reduce(), accumulate(), while(), for_n()
// Example:
// func = function(x) x>5;
// echo(find_all(func, [3,4,5,6,7]));
// // ECHO: [3,4]
function find_all(func, list) =
assert(is_function(func))
assert(is_list(list))
[for (indexnum=idx(list)) if (func(list[indexnum])) indexnum];
// Function: find_first()
// Topics: Function Literals, Searching
// Usage:
// idx = find_first(val, list, [start=], [func=]);
// idx = find_first(func, list, [start=]);
// Description:
// Finds the first item in `list` which, when compared against `val` using the function literal
// `func` gets a true result. By default, `func` just calls `approx()`. The signature of the
// function literal in `func` is `function (val,x)`, and it is expected to return true when the
// two values compare as matching. It should return false otherwise.
// If you need to find *all* matching items in the list, you should probably use {{filter()}} instead.
// See Also: map(), filter(), reduce(), accumulate(), while(), for_n(), binsearch()
// Finds the first item in `list`, after index `start`, which the function literal in `func` will return true for.
// The signature of the function literal in `func` is `function (x)`, and it is expected to return true when the
// value compares as matching. It should return false otherwise. If you need to find *all* matching items in the
// list, you should use {{find_all()}} instead.
// See Also: find_all(), map(), filter(), reduce(), accumulate(), while(), for_n(), binsearch()
// Arguments:
// val = The value to look for.
// func = The function literal to use to check each item in `list`. Expects the signature `function (x)`, and a boolean return value.
// list = The list to search.
// ---
// start = The first item to check.
// func = The function literal to use to compare `val` against the items in `list`. Expects the signature `function (a,b)`, and a boolean return value. Default: `f_approx()`
function find_first(val, list, start=0, func=f_approx()) =
// Example:
// data = [8,5,3,7,4,2,9];
// echo(find_first(f_lte(4), data));
// // ECHO: 2
// Example:
// data = [8,5,3,7,4,2,9];
// echo(find_first(f_lte(4), data, start=3));
// // ECHO: 4
function find_first(func, list, start=0) =
assert(is_function(func))
assert(is_list(list))
assert(is_finite(start))
assert(is_function(func))
let(
l = len(list),
a = function(i)
i >= l? undef :
func(val, list[i])? i :
a(i+1)
listlen = len(list),
_find_first = function(indexnum) (
indexnum >= listlen? undef :
func(list[indexnum])? indexnum :
_find_first(indexnum+1)
)
)
a(start);
_find_first(start);
// Function: binsearch()
@ -287,7 +324,7 @@ function find_first(val, list, start=0, func=f_approx()) =
// idx = binsearch(44, items, cmp=function(a,b) a-b);
// Example:
// items = [for (i=[32:126]) [chr(i), i]];
// idx = binsearch("G"", items, idx=0);
// idx = binsearch("G", items, idx=0);
function binsearch(key, list, idx, cmp=f_cmp()) =
let(
a = function(s,e)
@ -417,17 +454,17 @@ function hashmap(hashsize=127,items,table) =
// f_str = f_1arg(function(a) str(a));
// fn_str = f_str(); // = function(a) str(a);
// fn_str3 = f_str(3); // = function() str(3);
function f_1arg(func) =
function f_1arg(target_func) =
function(a)
a==undef? function(x) func(x) :
function() func(a);
a==undef? function(x) target_func(x) :
function() target_func(a);
// Function: f_2arg()
// Topics: Function Literals, Function Literal Factories
// See Also: f_1arg(), f_3arg()
// Usage:
// fn = f_2arg(func);
// fn = f_2arg(target_func);
// Description:
// Takes a function literal that accepts two arguments, and returns a function
// literal factory that can be used to pre-fill out one or both of those arguments
@ -439,22 +476,44 @@ function f_1arg(func) =
// fn_3lt = f_lt(a=3); // = function(b) 3<b;
// fn_lt3 = f_lt(b=3); // = function(a) a<3;
// fn_3lt4 = f_lt(3,4); // = function() 3<4;
function f_2arg(func) =
function f_2arg(target_func) =
function(a,b)
a==undef && b==undef? function(x,y) func(x,y) :
a==undef? function(x) func(x,b) :
b==undef? function(x) func(a,x) :
function() func(a,b);
a==undef && b==undef? function(x,y) target_func(x,y) :
a==undef? function(x) target_func(x,b) :
b==undef? function(x) target_func(a,x) :
function() target_func(a,b);
// Function: f_2arg_simple()
// Topics: Function Literals, Function Literal Factories
// See Also: f_1arg(), f_3arg()
// Usage:
// fn = f_2arg_simple(target_func);
// Description:
// Takes a function literal that accepts two arguments, and returns a function
// literal factory that can be used to pre-fill out one or both of those arguments
// with a constant. When given a single argument, fills out the segond function
// argument with a constant.
// Example:
// f_lt = f_2arg_simple(function(a,b) a<b);
// fn_lt = f_lt(); // = function(a,b) a<b;
// fn_lt3 = f_lt(3); // = function(a) a<3;
// fn_3lt4 = f_lt(3,4); // = function() 3<4;
function f_2arg_simple(target_func) =
function(a,b)
a==undef && b==undef? function(x,y) target_func(x,y) :
b==undef? function(x) target_func(x,a) :
function() target_func(a,b);
// Function: f_3arg()
// Topics: Function Literals, Function Literal Factories
// See Also: f_1arg(), f_2arg()
// Usage:
// fn = f_3arg(func);
// fn = f_3arg(target_func);
// Description:
// Takes a function literal that accepts two arguments, and returns a function
// literal factory that can be used to pre-fill out one or both of those arguments
// Takes a function literal that accepts three arguments, and returns a function
// literal factory that can be used to pre-fill out some or all of those arguments
// with a constant.
// Example:
// p1 = [10,4]; p2 = [3,7];
@ -463,16 +522,16 @@ function f_2arg(func) =
// fn_va2 = f_lt(c=p1); // = function(a,b) vector_angle(a,b,p1);
// fn_va3 = f_lt(a=p2); // = function(a,c) vector_angle(a,p2,c);
// fn_va4 = f_lt(a=p1,c=p2); // = function() vector_angle(p1,b,p2);
function f_3arg(func) =
function f_3arg(target_func) =
function(a,b,c)
a==undef && b==undef && c==undef? function(x,y,z) func(x,y,z) :
a==undef && b==undef? function(x,y) func(x,y,c) :
a==undef && c==undef? function(x,y) func(x,b,y) :
b==undef && c==undef? function(x,y) func(a,x,y) :
a==undef? function(x) func(x,b,c) :
b==undef? function(x) func(a,x,c) :
c==undef? function(x) func(a,b,x) :
function() func(a,b,c);
a==undef && b==undef && c==undef? function(x,y,z) target_func(x,y,z) :
a==undef && b==undef? function(x,y) target_func(x,y,c) :
a==undef && c==undef? function(x,y) target_func(x,b,y) :
b==undef && c==undef? function(x,y) target_func(a,x,y) :
a==undef? function(x) target_func(x,b,c) :
b==undef? function(x) target_func(a,x,c) :
c==undef? function(x) target_func(a,b,x) :
function() target_func(a,b,c);
// Function: ival()
@ -482,13 +541,13 @@ function f_3arg(func) =
// Wraps a single-argument function literal so that it can take two arguments,
// passing the first argument along to the wrapped function.
// Arguments:
// func = The function of signature (x) to wrap.
// target_func = The function of signature (x) to wrap.
// FunctionLiteral Args:
// a = The argument that will be passed through.
// b = The argumen that will be discarded.
// Example:
// x = while(0, ival(f_lt(5)), xval(fngen_add(1)));
function ival(func) = function(a,b) func(a);
function ival(target_func) = function(a,b) target_func(a);
// Function: xval()
@ -498,13 +557,13 @@ function ival(func) = function(a,b) func(a);
// Wraps a single-argument function literal so that it can take two arguments,
// passing the first argument along to the wrapped function.
// Arguments:
// func = The function of signature (x) to wrap.
// target_func = The function of signature (x) to wrap.
// FunctionLiteral Args:
// a = The argument that will be passed through.
// b = The argumen that will be discarded.
// Example:
// x = while(0, ival(f_lt(5)), xval(fngen_add(1)));
function xval(func) = function(a,b) func(b);
function xval(target_func) = function(a,b) target_func(b);
@ -515,179 +574,137 @@ function xval(func) = function(a,b) func(b);
// Function: f_cmp()
// Usage:
// fn = f_cmp();
// fn = f_cmp(a=);
// fn = f_cmp(b=);
// fn = f_cmp(a=,b=);
// fn = f_cmp(b);
// fn = f_cmp(a,b);
// Description:
// A factory that generates function literals based on `a > b`, where either
// or both of the `a` or `b` arguments can be replaced with constants.
// Arguments:
// a = If given, replaces the first argument.
// b = If given, replaces the second argument.
// A factory that generates function literals that compare `a` and `b`, where one or
// both arguments can be replaced with constants. If `a` and `b` are equal, the function
// literal will return 0. If a<b then -1 is returned. If a>b then 1 is returned.
// Example:
// fn_cmp = f_cmp(); // = function(a,b) a==b?0: a>b?1: -1;
// fn_cmp = f_cmp(); // = function(a,b) a==b?0: a>b?1: -1;
// fn_cmp3 = f_cmp(3); // = function(a) a==3?0: a>3?1: -1;
// fn_3cmp = f_cmp(a=3); // = function(b) 3==b?0: 3>b?1: -1;
// fn_3cmp4 = f_cmp(a=3,b=4); // = function() 3==4?0: 3>4?1: -1;
function f_cmp(a,b) = f_2arg(function (a,b) a==b?0: a>b?1: -1)(a,b);
// fn_3cmp4 = f_cmp(3,4); // = function() 3==4?0: 3>4?1: -1;
function f_cmp(a,b) = f_2arg_simple(function (a,b) a==b?0: a>b?1: -1)(a,b);
// Function: f_gt()
// Usage:
// fn = f_gt();
// fn = f_gt(a=);
// fn = f_gt(b=);
// fn = f_gt(a=,b=);
// fn = f_gt(b);
// fn = f_gt(a,b);
// Description:
// A factory that generates function literals based on `a > b`, where either
// or both of the `a` or `b` arguments can be replaced with constants.
// Arguments:
// a = If given, replaces the first argument.
// b = If given, replaces the second argument.
// A factory that generates function literals based on `a > b`, where one
// or both of the arguments can be replaced with constants.
// Example:
// fn_gt = f_gt(); // = function(a,b) a>b;
// fn_gt = f_gt(); // = function(a,b) a>b;
// fn_gt3 = f_gt(3); // = function(a) a>3;
// fn_3gt = f_gt(a=3); // = function(b) 3>b;
// fn_3gt4 = f_gt(a=3,b=4); // = function() 3>4;
function f_gt(a,b) = f_2arg(function (a,b) a>b)(a,b);
// fn_3gt4 = f_gt(3,4); // = function() 3>4;
function f_gt(a,b) = f_2arg_simple(function (a,b) a>b)(a,b);
// Function: f_lt()
// Usage:
// fn = f_lt();
// fn = f_lt(a=);
// fn = f_lt(b=);
// fn = f_lt(a=,b=);
// fn = f_lt(b);
// fn = f_lt(a,b);
// Description:
// A factory that generates function literals based on `a < b`, where either
// or both of the `a` or `b` arguments can be replaced with constants.
// Arguments:
// a = If given, replaces the first argument.
// b = If given, replaces the second argument.
// A factory that generates function literals based on `a < b`, where one
// or both of the arguments can be replaced with constants.
// Example:
// fn_lt = f_lt(); // = function(a,b) a<b;
// fn_lt = f_lt(); // = function(a,b) a<b;
// fn_lt3 = f_lt(3); // = function(a) a<3;
// fn_3lt = f_lt(a=3); // = function(b) 3<b;
// fn_3lt4 = f_lt(a=3,b=4); // = function() 3<4;
function f_lt(a,b) = f_2arg(function (a,b) a<b)(a,b);
// fn_3lt4 = f_lt(3,4); // = function() 3<4;
function f_lt(a,b) = f_2arg_simple(function (a,b) a<b)(a,b);
// Function: f_gte()
// Usage:
// fn = f_gte();
// fn = f_gte(a=);
// fn = f_gte(b=);
// fn = f_gte(a=,b=);
// fn = f_gte(b);
// fn = f_gte(a,b);
// Description:
// A factory that generates function literals based on `a >= b`, where either
// or both of the `a` or `b` arguments can be replaced with constants.
// Arguments:
// a = If given, replaces the first argument.
// b = If given, replaces the second argument.
// A factory that generates function literals based on `a >= b`, where one
// or both of the arguments can be replaced with constants.
// Example:
// fn_gte = f_gte(); // = function(a,b) a>=b;
// fn_gte = f_gte(); // = function(a,b) a>=b;
// fn_gte3 = f_gte(3); // = function(a) a>=3;
// fn_3gte = f_gte(a=3); // = function(b) 3>=b;
// fn_3gte4 = f_gte(a=3,b=4); // = function() 3>=4;
function f_gte(a,b) = f_2arg(function (a,b) a>=b)(a,b);
// fn_3gte4 = f_gte(3,4); // = function() 3>=4;
function f_gte(a,b) = f_2arg_simple(function (a,b) a>=b)(a,b);
// Function: f_lte()
// Usage:
// fn = f_lte();
// fn = f_lte(a=);
// fn = f_lte(b=);
// fn = f_lte(a=,b=);
// fn = f_lte(b);
// fn = f_lte(a,b);
// Description:
// A factory that generates function literals based on `a <= b`, where either
// or both of the `a` or `b` arguments can be replaced with constants.
// Arguments:
// a = If given, replaces the first argument.
// b = If given, replaces the second argument.
// A factory that generates function literals based on `a <= b`, where
// one or both arguments can be replaced with constants.
// Example:
// fn_lte = f_lte(); // = function(a,b) a<=b;
// fn_lte = f_lte(); // = function(a,b) a<=b;
// fn_lte3 = f_lte(3); // = function(a) a<=3;
// fn_3lte = f_lte(a=3); // = function(b) 3<=b;
// fn_3lte4 = f_lte(a=3,b=4); // = function() 3<=4;
function f_lte(a,b) = f_2arg(function (a,b) a<=b)(a,b);
// fn_3lte4 = f_lte(3,4); // = function() 3<=4;
function f_lte(a,b) = f_2arg_simple(function (a,b) a<=b)(a,b);
// Function: f_eq()
// Usage:
// fn = f_eq();
// fn = f_eq(a=);
// fn = f_eq(b=);
// fn = f_eq(a=,b=);
// fn = f_eq(b);
// fn = f_eq(a,b);
// Description:
// A factory that generates function literals based on `a == b`, where either
// or both of the `a` or `b` arguments can be replaced with constants.
// Arguments:
// a = If given, replaces the first argument.
// b = If given, replaces the second argument.
// A factory that generates function literals based on `a == b`, where
// one or both arguments can be replaced with constants.
// Example:
// fn_eq = f_eq(); // = function(a,b) a==b;
// fn_eq3 = f_eq(3); // = function(a) a==3;
// fn_3eq4 = f_eq(a=3,b=4); // = function() 3==4;
function f_eq(a,b) = f_2arg(function (a,b) a==b)(a,b);
// fn_eq3 = f_eq(3); // = function(a) a==3;
// fn_3eq4 = f_eq(3,4); // = function() 3==4;
function f_eq(a,b) = f_2arg_simple(function (a,b) a==b)(a,b);
// Function: f_neq()
// Usage:
// fn = f_neq();
// fn = f_neq(a=);
// fn = f_neq(b=);
// fn = f_neq(a=,b=);
// fn = f_neq(b);
// fn = f_neq(a,b);
// Description:
// A factory that generates function literals based on `a != b`, where either
// or both of the `a` or `b` arguments can be replaced with constants.
// Arguments:
// a = If given, replaces the first argument.
// b = If given, replaces the second argument.
// A factory that generates function literals based on `a != b`, where
// one or both arguments can be replaced with constants.
// Example:
// fn_neq = f_neq(); // = function(a,b) a!=b;
// fn_neq3 = f_neq(3); // = function(a) a!=3;
// fn_3neq4 = f_neq(a=3,b=4); // = function() 3!=4;
function f_neq(a,b) = f_2arg(function (a,b) a!=b)(a,b);
// fn_neq3 = f_neq(3); // = function(a) a!=3;
// fn_3neq4 = f_neq(3,4); // = function() 3!=4;
function f_neq(a,b) = f_2arg_simple(function (a,b) a!=b)(a,b);
// Function: f_approx()
// Usage:
// fn = f_approx();
// fn = f_approx(a=);
// fn = f_approx(b=);
// fn = f_approx(a=,b=);
// fn = f_approx(b);
// fn = f_approx(a,b);
// Description:
// A factory that generates function literals based on `approx(a,b)`, where
// either or both of the `a` or `b` arguments can be replaced with constants.
// Arguments:
// a = If given, replaces the first argument.
// b = If given, replaces the second argument.
// one or both arguments can be replaced with constants.
// Example:
// fn_approx = f_approx(); // = function(a,b) approx(a,b);
// fn_approx = f_approx(); // = function(a,b) approx(a,b);
// fn_approx3 = f_approx(3); // = function(a) approx(a,3);
// fn_3approx = f_approx(a=3); // = function(b) approx(3,b);
// fn_3approx4 = f_approx(a=3,b=4); // = function() approx(3,4);
function f_approx(a,b) = f_2arg(function (a,b) approx(a,b))(a,b);
// fn_3approx4 = f_approx(3,4); // = function() approx(3,4);
function f_approx(a,b) = f_2arg_simple(function (a,b) approx(a,b))(a,b);
// Function: f_napprox()
// Usage:
// fn = f_napprox();
// fn = f_napprox(a=);
// fn = f_napprox(b=);
// fn = f_napprox(a=,b=);
// fn = f_napprox(b);
// fn = f_napprox(a,b);
// Description:
// A factory that generates function literals based on `napprox(a,b)`, where
// either or both of the `a` or `b` arguments can be replaced with constants.
// Arguments:
// a = If given, replaces the first argument.
// b = If given, replaces the second argument.
// A factory that generates function literals based on `!approx(a,b)`, where
// one or both arguments can be replaced with constants.
// Example:
// fn_napprox = f_napprox(); // = function(a,b) napprox(a,b);
// fn_napprox = f_napprox(); // = function(a,b) napprox(a,b);
// fn_napprox3 = f_napprox(3); // = function(a) napprox(a,3);
// fn_3napprox = f_napprox(a=3); // = function(b) napprox(3,b);
// fn_3napprox4 = f_napprox(a=3,b=4); // = function() napprox(3,4);
function f_napprox(a,b) = f_2arg(function (a,b) !approx(a,b))(a,b);
// fn_3napprox4 = f_napprox(3,4); // = function() napprox(3,4);
function f_napprox(a,b) = f_2arg_simple(function (a,b) !approx(a,b))(a,b);

View File

@ -83,23 +83,23 @@ test_for_n();
module test_find_first() {
l = [7,3,9,1,6,1,3,2];
l = [7,3,8,1,6,1,3,2,9];
lt = function (val,x) val < x;
lte = function (val,x) val <= x;
gt = function (val,x) val > x;
gte = function (val,x) val >= x;
assert_equal(find_first(1,l), 3);
assert_equal(find_first(1,l,start=4), 5);
assert_equal(find_first(6,l), 4);
assert_equal(find_first(3,l,func=gt ), 3);
assert_equal(find_first(3,l,func=gte), 1);
assert_equal(find_first(3,l,func=lt ), 0);
assert_equal(find_first(7,l,func=lt ), 2);
assert_equal(find_first(7,l,func=lte), 0);
assert_equal(find_first(7,l,start=1,func=gte), 1);
assert_equal(find_first(7,l,start=3,func=gte), 3);
assert_equal(find_first(f_eq(1),l), 3);
assert_equal(find_first(f_eq(1),l,start=4), 5);
assert_equal(find_first(f_eq(6),l), 4);
assert_equal(find_first(f_gt(8),l), 8);
assert_equal(find_first(f_gte(8),l), 2);
assert_equal(find_first(f_lt(3),l), 3);
assert_equal(find_first(f_lt(7),l), 1);
assert_equal(find_first(f_lte(8),l), 0);
assert_equal(find_first(f_gte(8),l,start=1), 2);
assert_equal(find_first(f_gte(8),l,start=3), 8);
}
//test_find_first();
test_find_first();
module test_binsearch() {
@ -127,8 +127,8 @@ test_simple_hash();
module test_f_1arg() {
assert_equal(str(f_1arg(function (x) x)), "function(a) ((a == undef) ? function(x) func(x) : function() func(a))");
assert_equal(str(f_1arg(function (x) x)(3)), "function() func(a)");
assert_equal(str(f_1arg(function (x) x)), "function(a) ((a == undef) ? function(x) target_func(x) : function() target_func(a))");
assert_equal(str(f_1arg(function (x) x)(3)), "function() target_func(a)");
assert_equal(f_1arg(function (x) x)()(4), 4);
assert_equal(f_1arg(function (x) x)(3)(), 3);
}
@ -136,11 +136,11 @@ test_f_1arg();
module test_f_2arg() {
assert_equal(str(f_2arg(function (a,b) a+b)), "function(a, b) (((a == undef) && (b == undef)) ? function(x, y) func(x, y) : ((a == undef) ? function(x) func(x, b) : ((b == undef) ? function(x) func(a, x) : function() func(a, b))))");
assert_equal(str(f_2arg(function (a,b) a+b)(3)), "function(x) func(a, x)");
assert_equal(str(f_2arg(function (a,b) a+b)(a=3)), "function(x) func(a, x)");
assert_equal(str(f_2arg(function (a,b) a+b)(b=3)), "function(x) func(x, b)");
assert_equal(str(f_2arg(function (a,b) a+b)(3,4)), "function() func(a, b)");
assert_equal(str(f_2arg(function (a,b) a+b)), "function(a, b) (((a == undef) && (b == undef)) ? function(x, y) target_func(x, y) : ((a == undef) ? function(x) target_func(x, b) : ((b == undef) ? function(x) target_func(a, x) : function() target_func(a, b))))");
assert_equal(str(f_2arg(function (a,b) a+b)(3)), "function(x) target_func(a, x)");
assert_equal(str(f_2arg(function (a,b) a+b)(a=3)), "function(x) target_func(a, x)");
assert_equal(str(f_2arg(function (a,b) a+b)(b=3)), "function(x) target_func(x, b)");
assert_equal(str(f_2arg(function (a,b) a+b)(3,4)), "function() target_func(a, b)");
assert_equal(f_2arg(function (a,b) a+b)()(4,2), 6);
assert_equal(f_2arg(function (a,b) a+b)(3)(7), 10);
assert_equal(f_2arg(function (a,b) a+b)(a=2)(7), 9);
@ -150,10 +150,10 @@ test_f_2arg();
module test_f_3arg() {
assert_equal(str(f_3arg(function (a,b,c) a+b+c)), "function(a, b, c) ((((a == undef) && (b == undef)) && (c == undef)) ? function(x, y, z) func(x, y, z) : (((a == undef) && (b == undef)) ? function(x, y) func(x, y, c) : (((a == undef) && (c == undef)) ? function(x, y) func(x, b, y) : (((b == undef) && (c == undef)) ? function(x, y) func(a, x, y) : ((a == undef) ? function(x) func(x, b, c) : ((b == undef) ? function(x) func(a, x, c) : ((c == undef) ? function(x) func(a, b, x) : function() func(a, b, c))))))))");
assert_equal(str(f_3arg(function (a,b,c) a+b+c)(3)), "function(x, y) func(a, x, y)");
assert_equal(str(f_3arg(function (a,b,c) a+b+c)(3,4)), "function(x) func(a, b, x)");
assert_equal(str(f_3arg(function (a,b,c) a+b+c)(3,4,1)), "function() func(a, b, c)");
assert_equal(str(f_3arg(function (a,b,c) a+b+c)), "function(a, b, c) ((((a == undef) && (b == undef)) && (c == undef)) ? function(x, y, z) target_func(x, y, z) : (((a == undef) && (b == undef)) ? function(x, y) target_func(x, y, c) : (((a == undef) && (c == undef)) ? function(x, y) target_func(x, b, y) : (((b == undef) && (c == undef)) ? function(x, y) target_func(a, x, y) : ((a == undef) ? function(x) target_func(x, b, c) : ((b == undef) ? function(x) target_func(a, x, c) : ((c == undef) ? function(x) target_func(a, b, x) : function() target_func(a, b, c))))))))");
assert_equal(str(f_3arg(function (a,b,c) a+b+c)(3)), "function(x, y) target_func(a, x, y)");
assert_equal(str(f_3arg(function (a,b,c) a+b+c)(3,4)), "function(x) target_func(a, b, x)");
assert_equal(str(f_3arg(function (a,b,c) a+b+c)(3,4,1)), "function() target_func(a, b, c)");
assert_equal(f_3arg(function (a,b,c) a+b+c)()(4,2,1), 7);
assert_equal(f_3arg(function (a,b,c) a+b+c)(3)(7,3), 13);
assert_equal(f_3arg(function (a,b,c) a+b+c)(a=2)(7,1), 10);
@ -165,22 +165,22 @@ test_f_3arg();
module test_ival() {
assert_equal(str(ival(function (a) a)), "function(a, b) func(a)");
assert_equal(str(ival(function (a) a)), "function(a, b) target_func(a)");
assert_equal(ival(function (a) a)(3,5), 3);
}
test_ival();
module test_xval() {
assert_equal(str(xval(function (a) a)), "function(a, b) func(b)");
assert_equal(str(xval(function (a) a)), "function(a, b) target_func(b)");
assert_equal(xval(function (a) a)(3,5), 5);
}
test_xval();
module _test_fn1arg(dafunc,tests) {
assert_equal(str(dafunc()), "function(x) func(x)");
assert_equal(str(dafunc(3)), "function() func(a)");
assert_equal(str(dafunc()), "function(x) target_func(x)");
assert_equal(str(dafunc(3)), "function() target_func(a)");
for (test = tests) {
a = test[0];
r = test[1];
@ -191,11 +191,11 @@ module _test_fn1arg(dafunc,tests) {
module _test_fn2arg(dafunc,tests) {
assert_equal(str(dafunc()), "function(x, y) func(x, y)");
assert_equal(str(dafunc(3)), "function(x) func(a, x)");
assert_equal(str(dafunc(a=3)), "function(x) func(a, x)");
assert_equal(str(dafunc(b=3)), "function(x) func(x, b)");
assert_equal(str(dafunc(3,4)), "function() func(a, b)");
assert_equal(str(dafunc()), "function(x, y) target_func(x, y)");
assert_equal(str(dafunc(3)), "function(x) target_func(a, x)");
assert_equal(str(dafunc(a=3)), "function(x) target_func(a, x)");
assert_equal(str(dafunc(b=3)), "function(x) target_func(x, b)");
assert_equal(str(dafunc(3,4)), "function() target_func(a, b)");
for (test = tests) {
a = test[0];
b = test[1];
@ -210,17 +210,33 @@ module _test_fn2arg(dafunc,tests) {
}
module _test_fn2arg_simple(dafunc,tests) {
assert_equal(str(dafunc()), "function(x, y) target_func(x, y)");
assert_equal(str(dafunc(3)), "function(x) target_func(x, a)");
assert_equal(str(dafunc(3,4)), "function() target_func(a, b)");
for (test = tests) {
a = test[0];
b = test[1];
r = test[2];
assert_equal(dafunc(a=a,b=b)(), r);
assert_equal(dafunc(a,b)(), r);
assert_equal(dafunc(b)(a), r);
assert_equal(dafunc()(a,b), r);
}
}
module _test_fn3arg(dafunc,tests) {
assert_equal(str(dafunc()), "function(x, y, z) func(x, y, z)");
assert_equal(str(dafunc(3)), "function(x, y) func(a, x, y)");
assert_equal(str(dafunc(a=3)), "function(x, y) func(a, x, y)");
assert_equal(str(dafunc(b=3)), "function(x, y) func(x, b, y)");
assert_equal(str(dafunc(c=3)), "function(x, y) func(x, y, c)");
assert_equal(str(dafunc(3,4)), "function(x) func(a, b, x)");
assert_equal(str(dafunc(a=3,b=4)), "function(x) func(a, b, x)");
assert_equal(str(dafunc(a=3,c=4)), "function(x) func(a, x, c)");
assert_equal(str(dafunc(b=3,c=4)), "function(x) func(x, b, c)");
assert_equal(str(dafunc(3,4,5)), "function() func(a, b, c)");
assert_equal(str(dafunc()), "function(x, y, z) target_func(x, y, z)");
assert_equal(str(dafunc(3)), "function(x, y) target_func(a, x, y)");
assert_equal(str(dafunc(a=3)), "function(x, y) target_func(a, x, y)");
assert_equal(str(dafunc(b=3)), "function(x, y) target_func(x, b, y)");
assert_equal(str(dafunc(c=3)), "function(x, y) target_func(x, y, c)");
assert_equal(str(dafunc(3,4)), "function(x) target_func(a, b, x)");
assert_equal(str(dafunc(a=3,b=4)), "function(x) target_func(a, b, x)");
assert_equal(str(dafunc(a=3,c=4)), "function(x) target_func(a, x, c)");
assert_equal(str(dafunc(b=3,c=4)), "function(x) target_func(x, b, c)");
assert_equal(str(dafunc(3,4,5)), "function() target_func(a, b, c)");
for (test = tests) {
a = test[0];
b = test[1];
@ -241,7 +257,7 @@ module _test_fn3arg(dafunc,tests) {
module test_f_cmp() {
_test_fn2arg(
_test_fn2arg_simple(
function (a,b) f_cmp(a,b),
[[4,3,1],[3,3,0],[3,4,-1]]
);
@ -250,7 +266,7 @@ test_f_cmp();
module test_f_gt() {
_test_fn2arg(
_test_fn2arg_simple(
function (a,b) f_gt(a,b),
[[4,3,true],[3,3,false],[3,4,false]]
);
@ -259,7 +275,7 @@ test_f_gt();
module test_f_gte() {
_test_fn2arg(
_test_fn2arg_simple(
function (a,b) f_gte(a,b),
[[4,3,true],[3,3,true],[3,4,false]]
);
@ -268,7 +284,7 @@ test_f_gte();
module test_f_lt() {
_test_fn2arg(
_test_fn2arg_simple(
function (a,b) f_lt(a,b),
[[4,3,false],[3,3,false],[3,4,true]]
);
@ -277,7 +293,7 @@ test_f_lt();
module test_f_lte() {
_test_fn2arg(
_test_fn2arg_simple(
function (a,b) f_lte(a,b),
[[4,3,false],[3,3,true],[3,4,true]]
);
@ -286,7 +302,7 @@ test_f_lte();
module test_f_eq() {
_test_fn2arg(
_test_fn2arg_simple(
function (a,b) f_eq(a,b),
[[4,3,false],[3,3,true],[3,4,false]]
);
@ -295,7 +311,7 @@ test_f_eq();
module test_f_neq() {
_test_fn2arg(
_test_fn2arg_simple(
function (a,b) f_neq(a,b),
[[4,3,true],[3,3,false],[3,4,true]]
);
@ -304,7 +320,7 @@ test_f_neq();
module test_f_approx() {
_test_fn2arg(
_test_fn2arg_simple(
function (a,b) f_approx(a,b),
[[4,3,false],[3,3,true],[3,4,false],[1/3,0.33333333333333333333333333,true]]
);
@ -313,7 +329,7 @@ test_f_approx();
module test_f_napprox() {
_test_fn2arg(
_test_fn2arg_simple(
function (a,b) f_napprox(a,b),
[[4,3,true],[3,3,false],[3,4,true],[1/3,0.33333333333333333333333333,false]]
);