- Data List and LIST: new "filter empty" node that removes every empty entry (`None`, empty STRING, empty LIST/DICT/SET, ...); `0` and `False` are kept. An optional boolean switch also treats a STRING consisting only of whitespace as empty.
475 lines
17 KiB
Python
475 lines
17 KiB
Python
import pytest
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from src.basic_data_handling.data_list_nodes import (
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DataListAll,
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DataListAny,
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DataListAppend,
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DataListContains,
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DataListCount,
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DataListCreate,
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DataListCreateFromBoolean,
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DataListCreateFromFloat,
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DataListCreateFromInt,
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DataListCreateFromString,
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DataListEnumerate,
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DataListExtend,
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DataListFilter,
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DataListFilterEmpty,
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DataListFilterSelect,
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DataListFirst,
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DataListGetItem,
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DataListIndex,
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DataListInsert,
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DataListLast,
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DataListLength,
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DataListListCreate,
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DataListMax,
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DataListMin,
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DataListPop,
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DataListPopRandom,
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DataListRange,
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DataListRemove,
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DataListReverse,
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DataListSetItem,
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DataListShuffle,
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DataListSlice,
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DataListSort,
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DataListSum,
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DataListToList,
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DataListToSet,
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DataListZip,
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)
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def test_append():
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node = DataListAppend()
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assert node.append(list=[1, 2, 3], item=[4]) == ([1, 2, 3, 4],)
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assert node.append(list=[], item=["test"]) == (["test"],)
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assert node.append(list=[1, 2, 3], item=[]) == ([1, 2, 3],)
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def test_extend():
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node = DataListExtend()
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assert node.extend(list_a=[1, 2], list_b=[3, 4]) == ([1, 2, 3, 4],)
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assert node.extend(list_a=[], list_b=["a", "b"]) == (["a", "b"],)
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assert node.extend(list_a=[1], list_b=[]) == ([1],)
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def test_insert():
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node = DataListInsert()
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assert node.insert(list=[1, 2, 4], index=[2], item=[3]) == ([1, 2, 3, 4],)
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assert node.insert(list=[], index=[0], item=["a"]) == (["a"],)
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assert node.insert(list=[1, 2], index=[5], item=[3]) == ([1, 2, 3],) # Out-of-range insert
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def test_remove():
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node = DataListRemove()
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assert node.remove(list=[1, 2, 3], value=[2]) == ([1, 3], True)
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assert node.remove(list=["a", "b", "a"], value=["a"]) == (["b", "a"], True)
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assert node.remove(list=[1, 2, 3], value=[5]) == ([1, 2, 3], False) # Value not found
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def test_pop():
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node = DataListPop()
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assert node.pop(list=[1, 2, 3], index=[1]) == ([1, 3], 2)
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assert node.pop(list=["a", "b", "c"], index=[-1]) == (["a", "b"], "c") # Negative index
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assert node.pop(list=[], index=[0]) == ([], None) # Pop from empty list
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def test_index():
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node = DataListIndex()
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assert node.list_index(list=["a", "b", "c"], value=["b"]) == (1,)
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assert node.list_index(list=[1, 2, 3], value=[5]) == (-1,) # Value not found
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assert node.list_index(list=[1, 2, 1, 2], value=[1], start=[1]) == (2,)
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def test_count():
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node = DataListCount()
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assert node.count(list=[1, 2, 1, 2], value=[1]) == (2,)
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assert node.count(list=["a", "b", "a"], value=["a"]) == (2,)
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assert node.count(list=[], value=["x"]) == (0,)
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def test_sort():
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node = DataListSort()
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assert node.sort(list=[3, 2, 1]) == ([1, 2, 3],)
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assert node.sort(list=["c", "a", "b"]) == (["a", "b", "c"],)
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assert node.sort(list=[3, 1, 2], reverse=["True"]) == ([3, 2, 1],) # Reverse sort
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def test_reverse():
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node = DataListReverse()
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assert node.reverse(list=[1, 2, 3]) == ([3, 2, 1],)
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assert node.reverse(list=[]) == ([],)
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def test_length():
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node = DataListLength()
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assert node.length(list=[1, 2, 3]) == (3,)
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assert node.length(list=[]) == (0,)
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def test_slice():
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node = DataListSlice()
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assert node.slice(list=[1, 2, 3, 4, 5], start=[1], stop=[4]) == ([2, 3, 4],)
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assert node.slice(list=[1, 2, 3], start=[0], stop=[2], step=[2]) == ([1],)
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assert node.slice(list=["a", "b", "c"], start=[-2], stop=[3]) == (["b", "c"],)
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def test_get_item():
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node = DataListGetItem()
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assert node.get_item(list=[1, 2, 3], index=[1]) == (2,)
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assert node.get_item(list=["a", "b", "c"], index=[-1]) == ("c",) # Negative index
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assert node.get_item(list=[], index=[0]) == (None,) # Out of range
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def test_set_item():
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node = DataListSetItem()
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assert node.set_item(list=[1, 2, 3], index=[1], value=[9]) == ([1, 9, 3],)
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assert node.set_item(list=["a", "b", "c"], index=[-1], value=["z"]) == (["a", "b", "z"],)
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with pytest.raises(IndexError):
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node.set_item(list=[], index=[0], value=["test"]) # Out of range
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def test_shuffle():
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node = DataListShuffle()
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# Test determinism: Same seed should produce the same shuffle
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original_list = [1, 2, 3, 4, 5]
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result1 = node.shuffle_list(list=original_list, seed=[42])
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result2 = node.shuffle_list(list=original_list, seed=[42])
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assert result1 == result2 # Same seed, same output
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# Verify the output is a permutation of the input
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assert sorted(result1[0]) == sorted(original_list)
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assert len(result1[0]) == len(original_list)
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# Test different seeds produce different shuffles (not guaranteed, but likely for this list)
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result3 = node.shuffle_list(list=original_list, seed=[123])
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assert result1 != result3 # Different seed, likely different output
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# Test empty list
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assert node.shuffle_list(list=[], seed=[0]) == ([],)
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# Test single-item list
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assert node.shuffle_list(list=[42], seed=[99]) == ([42],)
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# Test mixed data types
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mixed_list = ["apple", 3.14, True, 42]
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result4 = node.shuffle_list(list=mixed_list, seed=[7])
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assert sorted(result4[0], key=str) == sorted(mixed_list, key=str) # Sort for comparison since types may not be directly comparable
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assert len(result4[0]) == len(mixed_list)
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# Test that the original list is not modified (node should return a copy)
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original_copy = original_list.copy()
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node.shuffle_list(list=original_list, seed=[1])
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assert original_list == original_copy # Original should remain unchanged
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def test_contains():
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node = DataListContains()
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assert node.contains(list=[1, 2, 3], value=[2]) == (True,)
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assert node.contains(list=["a", "b"], value=["c"]) == (False,)
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assert node.contains(list=[], value=["x"]) == (False,)
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def test_zip():
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node = DataListZip()
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assert node.zip_lists(list1=[1, 2], list2=["a", "b"]) == ([[1, "a"], [2, "b"]],)
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assert node.zip_lists(list1=[1], list2=["a", "b"]) == ([[1, "a"]],) # Shortest list length
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assert node.zip_lists(list1=[1, 2, 3], list2=["a", "b"]) == ([[1, "a"], [2, "b"]],) # Different lengths
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def test_filter():
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node = DataListFilter()
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assert node.filter_data(value=[1, 2, 3], filter=[False, True, False]) == ([1, 3],)
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assert node.filter_data(value=[1, 2], filter=[True, True]) == ([],)
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assert node.filter_data(value=[1, 2, 3], filter=[False, False, False]) == ([1, 2, 3],)
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def test_filter_empty():
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node = DataListFilterEmpty()
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assert node.filter_empty(list=[1, 2, 3]) == ([1, 2, 3],)
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assert node.filter_empty(list=[None, 1, "", 2, [], 3, {}, set()]) == ([1, 2, 3],)
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assert node.filter_empty(list=[0, False, 0.0, "", None]) == ([0, False, 0.0],) # 0 and False are not empty
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assert node.filter_empty(list=["", " ", "\t", "a"]) == ([" ", "\t", "a"],) # whitespace is kept by default
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assert node.filter_empty(list=["", " ", "\t", "a"], treat_whitespace_as_empty=[True]) == (["a"],)
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assert node.filter_empty(list=[], treat_whitespace_as_empty=[True]) == ([],)
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# Entries without a length (e.g. TENSORs) are never regarded as empty
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opaque = object()
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assert node.filter_empty(list=[opaque, None, ""]) == ([opaque],)
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def test_min():
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node = DataListMin()
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assert node.find_min(list=[3, 1, 2]) == (1,)
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assert node.find_min(list=[-1, -5, 0]) == (-5,)
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assert node.find_min(list=[]) == (None,)
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def test_max():
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node = DataListMax()
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assert node.find_max(list=[3, 1, 2]) == (3,)
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assert node.find_max(list=[-1, -5, 0]) == (0,)
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assert node.find_max(list=[]) == (None,)
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def test_filter_select():
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node = DataListFilterSelect()
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true_list, false_list = node.select(value=[1, 2, 3], select=[True, False, True])
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assert true_list == [1, 3]
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assert false_list == [2]
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# All true case
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true_list, false_list = node.select(value=["a", "b"], select=[True, True])
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assert true_list == ["a", "b"]
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assert false_list == []
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# All false case
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true_list, false_list = node.select(value=[1, 2, 3], select=[False, False, False])
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assert true_list == []
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assert false_list == [1, 2, 3]
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def test_create():
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node = DataListCreate()
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# Testing with one item
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assert node.create_list(item_0="test", item_1="") == (["test"],)
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# Testing with multiple items of different types
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assert node.create_list(item_0=1, item_1="two", item_2=3.0, item_3="") == ([1, "two", 3.0],)
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# Testing with empty list (no items)
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assert node.create_list(item_0="") == ([],)
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def test_create_from_boolean():
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node = DataListCreateFromBoolean()
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# Testing with boolean values
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assert node.create_list(item_0=True, item_1=False, item_2=False) == ([True, False],)
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# Testing with boolean-convertible values
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assert node.create_list(item_0=1, item_1=0, item_2="") == ([True, False],)
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# Testing with empty list
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assert node.create_list(item_0=0) == ([],)
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def test_create_from_float():
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node = DataListCreateFromFloat()
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# Testing with float values
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assert node.create_list(item_0=1.5, item_1=2.5, item_2=2) == ([1.5, 2.5],)
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# Testing with float-convertible values
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assert node.create_list(item_0=1, item_1="2.5", item_2="") == ([1.0, 2.5],)
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# Testing with empty list
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assert node.create_list(item_0="") == ([],)
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def test_create_from_int():
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node = DataListCreateFromInt()
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# Testing with integer values
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assert node.create_list(item_0=1, item_1=2, item_2="") == ([1, 2],)
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# Testing with int-convertible values
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assert node.create_list(item_0="1", item_1=2.0, item_2="") == ([1, 2],)
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# Testing with empty list
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assert node.create_list(item_0="") == ([],)
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def test_create_from_string():
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node = DataListCreateFromString()
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# Testing with string values
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assert node.create_list(item_0="hello", item_1="world", item_2="") == (["hello", "world"],)
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# Testing with string-convertible values
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assert node.create_list(item_0=123, item_1=True, item_2="") == (["123", "True"],)
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# Testing with empty list
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assert node.create_list(item_0="") == ([],)
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def test_list_create():
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node = DataListListCreate()
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# Testing with string values
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assert node.create_list(item_0=["hello", "world"], item_1=["bye", "bye!"], item_2="") == ([["hello", "world"], ["bye", "bye!"]],)
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# Testing with mixed values
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assert node.create_list(item_0=[123, 456], item_1=[True, False], item_2="") == ([[123, 456], [True, False]],)
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# Testing with empty list
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assert node.create_list(item_0="") == ([],)
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def test_pop_random():
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node = DataListPopRandom()
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result_list, item = node.pop_random_element(list=[1])
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assert result_list == [] and item == 1 # Only one item, so it must be chosen
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# With multiple items, we can't predict which one will be popped
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# But we can check that an item was removed and returned
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result_list, item = node.pop_random_element(list=[1, 2, 3])
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assert len(result_list) == 2 and item in [1, 2, 3]
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# Empty list case
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assert node.pop_random_element(list=[]) == ([], None)
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# Same seed should produce the same popped item
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original_list = [1, 2, 3, 4]
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result1, item1 = node.pop_random_element(list=original_list, seed=[42])
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result2, item2 = node.pop_random_element(list=original_list, seed=[42])
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assert item1 == item2
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assert result1 == result2
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def test_first():
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node = DataListFirst()
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assert node.get_first_element(list=[1, 2, 3]) == (1,)
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assert node.get_first_element(list=["a", "b", "c"]) == ("a",)
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assert node.get_first_element(list=[]) == (None,) # Empty list
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def test_last():
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node = DataListLast()
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assert node.get_last_element(list=[1, 2, 3]) == (3,)
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assert node.get_last_element(list=["a", "b", "c"]) == ("c",)
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assert node.get_last_element(list=[]) == (None,) # Empty list
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def test_to_list():
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node = DataListToList()
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# Test with regular list
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assert node.convert(list=[1, 2, 3]) == ([1, 2, 3],)
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# Test with empty list
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assert node.convert(list=[]) == ([],)
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# Test with mixed types
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assert node.convert(list=[1, "two", 3.0]) == ([1, "two", 3.0],)
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def test_to_set():
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node = DataListToSet()
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# Test with regular list
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assert node.convert(list=[1, 2, 3]) == ({1, 2, 3},)
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# Test with empty list
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assert node.convert(list=[]) == (set(),)
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# Test with duplicates
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assert node.convert(list=[1, 2, 1, 3, 2]) == ({1, 2, 3},)
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# Test with mixed types (that can be in a set)
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assert node.convert(list=[1, "two", 3.0]) == ({1, "two", 3.0},)
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def test_all():
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node = DataListAll()
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# All true values
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assert node.check_all(list=[True, True, 1, "text"]) == (True,)
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# Contains false value
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assert node.check_all(list=[True, False, True]) == (False,)
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# Empty list (returns True)
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assert node.check_all(list=[]) == (True,)
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def test_any():
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node = DataListAny()
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# Contains true value
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assert node.check_any(list=[False, True, False]) == (True,)
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# All false values
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assert node.check_any(list=[False, 0, "", None]) == (False,)
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# Empty list (returns False)
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assert node.check_any(list=[]) == (False,)
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def test_enumerate():
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node = DataListEnumerate()
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# Basic enumeration starting from 0
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assert node.enumerate_list(list=["a", "b", "c"]) == ([[0, "a"], [1, "b"], [2, "c"]],)
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# Custom start index
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assert node.enumerate_list(list=["x", "y", "z"], start=[10]) == ([[10, "x"], [11, "y"], [12, "z"]],)
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# Empty list
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assert node.enumerate_list(list=[]) == ([],)
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def test_sum():
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node = DataListSum()
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# Integer sum
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int_sum, float_sum = node.sum_list(list=[1, 2, 3])
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assert int_sum == 6
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assert float_sum == 6.0
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# Mixed number types
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int_sum, float_sum = node.sum_list(list=[1, 2.5, 3])
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assert int_sum == 6 # Integer part of the sum
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assert float_sum == 6.5 # Full float sum
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# With start value
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int_sum, float_sum = node.sum_list(list=[1, 2, 3], start=[10])
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assert int_sum == 16
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assert float_sum == 16.0
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# Empty list with start value
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int_sum, float_sum = node.sum_list(list=[], start=[5])
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assert int_sum == 5
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assert float_sum == 5.0
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def test_range():
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node = DataListRange()
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# Test with default start (0) and step (1)
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assert node.create_range(stop=5) == ([0, 1, 2, 3, 4],)
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# Test with custom start and stop
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assert node.create_range(start=2, stop=6) == ([2, 3, 4, 5],)
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# Test with custom step
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assert node.create_range(start=0, stop=10, step=2) == ([0, 2, 4, 6, 8],)
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# Test with negative numbers
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assert node.create_range(start=-3, stop=3) == ([-3, -2, -1, 0, 1, 2],)
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# Test backward counting
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assert node.create_range(start=5, stop=0, step=-1) == ([5, 4, 3, 2, 1],)
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# Test empty range
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assert node.create_range(start=0, stop=0) == ([],)
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# Test when start > stop with positive step (returns empty list)
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assert node.create_range(start=10, stop=5) == ([],)
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# Test with ValueError (step cannot be zero)
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with pytest.raises(ValueError, match="Step cannot be zero"):
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node.create_range(start=0, stop=5, step=0)
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def test_data_list_none_source():
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"""Graceful behaviour when the Data List source is None."""
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assert DataListAll().check_all(list=None) == (True,)
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assert DataListAny().check_any(list=None) == (False,)
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assert DataListAppend().append(list=None, item=[1]) == ([1],)
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assert DataListContains().contains(list=None, value=[1]) == (False,)
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|
assert DataListCount().count(list=None, value=[1]) == (0,)
|
|
assert DataListEnumerate().enumerate_list(list=None) == ([],)
|
|
assert DataListExtend().extend(list_a=None, list_b=None) == ([],)
|
|
assert DataListFilter().filter_data(value=None, filter=None) == ([],)
|
|
assert DataListFilterEmpty().filter_empty(list=None) == ([],)
|
|
assert DataListFilterSelect().select(value=None, select=None) == ([], [])
|
|
assert DataListFirst().get_first_element(list=None) == (None,)
|
|
assert DataListGetItem().get_item(list=None, index=[0]) == (None,)
|
|
assert DataListIndex().list_index(list=None, value=[1]) == (-1,)
|
|
assert DataListInsert().insert(list=None, index=[0], item=[1]) == ([1],)
|
|
assert DataListLast().get_last_element(list=None) == (None,)
|
|
assert DataListLength().length(list=None) == (0,)
|
|
assert DataListMax().find_max(list=None) == (None,)
|
|
assert DataListMin().find_min(list=None) == (None,)
|
|
assert DataListPop().pop(list=None) == ([], None)
|
|
assert DataListPopRandom().pop_random_element(list=None) == ([], None)
|
|
assert DataListRemove().remove(list=None, value=[1]) == ([], False)
|
|
assert DataListReverse().reverse(list=None) == ([],)
|
|
assert DataListShuffle().shuffle_list(list=None, seed=[0]) == ([],)
|
|
assert DataListSlice().slice(list=None) == ([],)
|
|
assert DataListSort().sort(list=None) == ([],)
|
|
assert DataListSum().sum_list(list=None) == (0, 0.0)
|
|
assert DataListZip().zip_lists(list1=None, list2=None) == ([],)
|
|
assert DataListToList().convert(list=None) == ([],)
|
|
assert DataListToSet().convert(list=None) == (set(),)
|