forked from VimPlug/jedi
Clarify generic tuple inference
This hoist a loop invariant conditional check outside the loop making it clearer and one branch more obviously similar to the general type handling.
This commit is contained in:
@@ -445,37 +445,37 @@ def _infer_type_vars(annotation_value, value_set, is_class_value=False):
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elif annotation_name == 'Tuple':
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elif annotation_name == 'Tuple':
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# TODO: this logic is pretty similar to the general logic below, can
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annotation_generics = annotation_value.get_generics()
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# we combine them?
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tuple_annotation, = annotation_value.execute_annotation()
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# TODO: is can we avoid using this private method?
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if tuple_annotation._is_homogenous():
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# The parameter annotation is of the form `Tuple[T, ...]`,
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# so we treat the incoming tuple like a iterable sequence
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# rather than a positional container of elements.
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for nested_annotation_value in annotation_generics[0]:
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_merge_type_var_dicts(
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type_var_dict,
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_infer_type_vars(
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nested_annotation_value,
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value_set.merge_types_of_iterate(),
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),
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)
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else:
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# The parameter annotation has only explicit type parameters
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# (e.g: `Tuple[T]`, `Tuple[T, U]`, `Tuple[T, U, V]`, etc.) so we
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# treat the incoming values as needing to match the annotation
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# exactly, just as we would for non-tuple annotations.
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for element in value_set:
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# TODO: this logic is pretty similar to the general logic below, can
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py_class = element.get_annotated_class_object()
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# we combine them?
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if not isinstance(py_class, GenericClass):
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py_class = element
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if not isinstance(py_class, DefineGenericBase):
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for element in value_set:
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continue
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py_class = element.get_annotated_class_object()
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if not isinstance(py_class, GenericClass):
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py_class = element
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annotation_generics = annotation_value.get_generics()
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if not isinstance(py_class, DefineGenericBase):
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tuple_annotation, = annotation_value.execute_annotation()
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continue
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# TODO: is can we avoid using this private method?
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if tuple_annotation._is_homogenous():
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# The parameter annotation is of the form `Tuple[T, ...]`,
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# so we treat the incoming tuple like a iterable sequence
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# rather than a positional container of elements.
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for nested_annotation_value in annotation_generics[0]:
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_merge_type_var_dicts(
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type_var_dict,
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_infer_type_vars(
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nested_annotation_value,
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value_set.merge_types_of_iterate(),
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),
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)
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else:
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# The parameter annotation has only explicit type parameters
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# (e.g: `Tuple[T]`, `Tuple[T, U]`, `Tuple[T, U, V]`, etc.) so we
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# treat the incoming values as needing to match the annotation
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# exactly, just as we would for non-tuple annotations.
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actual_generics = py_class.get_generics()
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actual_generics = py_class.get_generics()
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merge_pairwise_generics(annotation_generics, actual_generics)
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merge_pairwise_generics(annotation_generics, actual_generics)
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