def __new__(cls, n, m, set):
n, m, set = _sympify(n), _sympify(m), _sympify(set)
cls._check_dim(n)
cls._check_dim(m)
if not isinstance(set, Set):
raise TypeError("{} should be an instance of Set.".format(set))
return Set.__new__(cls, n, m, set)
def __new__(cls, sets):
new_sets = []
# sets is Union of ProductSets
if not sets.is_ProductSet:
for k in sets.args:
new_sets.append(k)
# sets is ProductSets
else:
new_sets.append(sets)
# Normalize input theta
for k, v in enumerate(new_sets):
new_sets[k] = ProductSet(v.args[0], normalize_theta_set(v.args[1]))
sets = Union(*new_sets)
return Set.__new__(cls, sets)
def __new__(cls, sets):
if sets == S.Reals * S.Reals:
return S.Complexes
if all(_a.is_FiniteSet for _a in sets.args) and (len(sets.args) == 2):
# ** ProductSet of FiniteSets in the Complex Plane. **
# For Cases like ComplexRegion({2, 4}*{3}), It
# would return {2 + 3*I, 4 + 3*I}
# FIXME: This should probably be handled with something like:
# return ImageSet(Lambda((x, y), x+I*y), sets).rewrite(FiniteSet)
complex_num = []
for x in sets.args[0]:
for y in sets.args[1]:
complex_num.append(x + S.ImaginaryUnit * y)
return FiniteSet(*complex_num)
else:
return Set.__new__(cls, sets)
def __new__(cls):
return Set.__new__(cls)
