self.assertIs(D[T].__origin__, D)
self.assertIs(D[Unpack[Ts]].__origin__, D)
+ def test_get_type_hints_on_unpack_args(self):
+ Ts = TypeVarTuple('Ts')
+
+ def func1(*args: *Ts): pass
+ self.assertEqual(gth(func1), {'args': Unpack[Ts]})
+
+ def func2(*args: *tuple[int, str]): pass
+ self.assertEqual(gth(func2), {'args': Unpack[tuple[int, str]]})
+
+ class CustomVariadic(Generic[*Ts]): pass
+
+ def func3(*args: *CustomVariadic[int, str]): pass
+ self.assertEqual(gth(func3), {'args': Unpack[CustomVariadic[int, str]]})
+
+ def test_get_type_hints_on_unpack_args_string(self):
+ Ts = TypeVarTuple('Ts')
+
+ def func1(*args: '*Ts'): pass
+ self.assertEqual(gth(func1, localns={'Ts': Ts}),
+ {'args': Unpack[Ts]})
+
+ def func2(*args: '*tuple[int, str]'): pass
+ self.assertEqual(gth(func2), {'args': Unpack[tuple[int, str]]})
+
+ class CustomVariadic(Generic[*Ts]): pass
+
+ def func3(*args: '*CustomVariadic[int, str]'): pass
+ self.assertEqual(gth(func3, localns={'CustomVariadic': CustomVariadic}),
+ {'args': Unpack[CustomVariadic[int, str]]})
+
def test_tuple_args_are_correct(self):
Ts = TypeVarTuple('Ts')
ForwardRef(arg) if isinstance(arg, str) else arg
for arg in t.__args__
)
+ is_unpacked = t.__unpacked__
if _should_unflatten_callable_args(t, args):
t = t.__origin__[(args[:-1], args[-1])]
else:
t = t.__origin__[args]
+ if is_unpacked:
+ t = Unpack[t]
ev_args = tuple(_eval_type(a, globalns, localns, recursive_guard) for a in t.__args__)
if ev_args == t.__args__:
return t
# Unfortunately, this isn't a valid expression on its own, so we
# do the unpacking manually.
if arg[0] == '*':
- arg_to_compile = f'({arg},)[0]' # E.g. (*Ts,)[0]
+ arg_to_compile = f'({arg},)[0]' # E.g. (*Ts,)[0] or (*tuple[int, int],)[0]
else:
arg_to_compile = arg
try: