def test_tcav_sample_from_positive(self):
# Tests the case where more concept examples are passed than non-concept
# examples, so the concept set is sampled from the concept examples.
random.seed(0) # Sets seed since create_comparison_splits() uses random.
# Basic test with dummy outputs from the model.
examples = [
{'sentence': 'a'},
{'sentence': 'b'},
{'sentence': 'c'},
{'sentence': 'd'},
{'sentence': 'e'},
{'sentence': 'f'},
{'sentence': 'g'},
{'sentence': 'h'}]
indexed_inputs = [{'id': caching.input_hash(ex), 'data': ex}
for ex in examples]
dataset = lit_dataset.IndexedDataset(id_fn=caching.input_hash,
indexed_examples=indexed_inputs)
config = {
'concept_set_ids': [indexed_inputs[0]['id'],
indexed_inputs[2]['id'],
indexed_inputs[3]['id'],
indexed_inputs[4]['id'],
indexed_inputs[7]['id']],
'class_to_explain': '1',
'grad_layer': 'cls_grad',
'random_state': 0
}
result = self.tcav.run_with_metadata(indexed_inputs, self.model, dataset,
config=config)
self.assertLen(result, 1)
expected = {
'p_val': 0.80489,
'random_mean': 0.53333,
'result': {
'score': 0.8,
'cos_sim': [
0.09527, -0.20442, 0.05141,
0.14985, 0.06750, -0.28244,
-0.11022, -0.14479
],
'dot_prods': [
152.48776, -335.64998, 82.99588,
247.80113, 109.53684, -461.81805,
-181.29095, -239.47817
],
'accuracy': 1.0
}
}
testing_utils.assert_deep_almost_equal(self, expected, result[0])
def test_tcav(self):
random.seed(0) # Sets seed since create_comparison_splits() uses random.
# Basic test with dummy outputs from the model.
examples = [
{'sentence': 'a'},
{'sentence': 'b'},
{'sentence': 'c'},
{'sentence': 'd'},
{'sentence': 'e'},
{'sentence': 'f'},
{'sentence': 'g'},
{'sentence': 'h'},
{'sentence': 'i'}]
indexed_inputs = [{'id': caching.input_hash(ex), 'data': ex}
for ex in examples]
dataset = lit_dataset.IndexedDataset(id_fn=caching.input_hash,
indexed_examples=indexed_inputs)
config = {
'concept_set_ids': [indexed_inputs[0]['id'],
indexed_inputs[2]['id'],
indexed_inputs[3]['id'],
indexed_inputs[7]['id']],
'class_to_explain': '1',
'grad_layer': 'cls_grad',
'random_state': 0,
'dataset_name': 'test'
}
result = self.tcav.run_with_metadata(indexed_inputs, self.model, dataset,
config=config)
self.assertLen(result, 1)
expected = {
'p_val': 0.13311,
'random_mean': 0.56667,
'result': {
'score': 0.33333,
'cos_sim': [
0.088691, -0.12179, 0.16013,
0.24840, -0.09793, 0.05166,
-0.21578, -0.06560, -0.14759
],
'dot_prods': [
189.085096, -266.36317, 344.350498,
547.144949, -211.663965, 112.502439,
-472.72066, -144.529598, -323.31888
],
'accuracy': 0.66667
}
}
testing_utils.assert_deep_almost_equal(self, expected, result[0])
def setUp(self):
super().setUp()
dataset = lit_dataset.IndexedDataset(base=RegressionTestDataset(),
id_fn=caching.input_hash)
self._dataset = dataset
self._model = RegressionTestModel()
self._gen = minimal_targeted_counterfactuals.TabularMTC()
self._example = {'x_1': 1.0, 'x_2': 1.0}
self._config = {
'Prediction key': 'score',
'dataset_name': 'regression_test_dataset'
}
def setUp(self):
super(ThresholderTest, self).setUp()
self.thresholder = thresholder.Thresholder()
self.model = caching.CachingModelWrapper(
glue_models.SST2Model(BERT_TINY_PATH), 'test')
examples = [{
'sentence': 'a',
'label': '1'
}, {
'sentence': 'b',
'label': '1'
}, {
'sentence': 'c',
'label': '1'
}, {
'sentence': 'd',
'label': '1'
}, {
'sentence': 'e',
'label': '1'
}, {
'sentence': 'f',
'label': '0'
}, {
'sentence': 'g',
'label': '0'
}, {
'sentence': 'h',
'label': '0'
}, {
'sentence': 'i',
'label': '0'
}]
self.indexed_inputs = [{
'id': caching.input_hash(ex),
'data': ex
} for ex in examples]
self.dataset = lit_dataset.IndexedDataset(
id_fn=caching.input_hash,
spec={
'sentence': lit_types.TextSegment(),
'label': lit_types.CategoryLabel(vocab=['0', '1'])
},
indexed_examples=self.indexed_inputs)
self.model_outputs = list(
self.model.predict_with_metadata(self.indexed_inputs,
dataset_name='test'))
def setUp(self):
super().setUp()
dataset = lit_dataset.IndexedDataset(base=ClassificationTestDataset(),
id_fn=caching.input_hash)
self._dataset = dataset
self._model = ClassificationTestModel(self._dataset)
self._gen = minimal_targeted_counterfactuals.TabularMTC()
self._example = {
'size': 'large',
'weight': 1.2,
'legs': False,
'description': 'big water animal',
'animal': 'whale'
}
self._config = {
'Prediction key': 'preds',
'dataset_name': 'classification_test_dataset'
}
def test_run_nn(self):
examples = [
{
'segment': 'a'
},
{
'segment': 'b'
},
{
'segment': 'c'
},
]
indexed_inputs = [{
'id': caching.input_hash(ex),
'data': ex
} for ex in examples]
model = TestModelNearestNeighbors()
dataset = lit_dataset.IndexedDataset(id_fn=caching.input_hash,
indexed_examples=indexed_inputs)
config = {
'embedding_name': 'input_embs',
'num_neighbors': 2,
}
result = self.nearest_neighbors.run_with_metadata([indexed_inputs[1]],
model,
dataset,
config=config)
expected = {
'nearest_neighbors': [{
'id': '1',
'nn_distance': 0.0
}, {
'id': '0',
'nn_distance': 1.7320508075688772
}]
}
self.assertLen(result, 1)
testing_utils.assert_deep_almost_equal(self, expected, result[0])
def setUp(self):
super(PdpTest, self).setUp()
self.pdp = pdp.PdpInterpreter()
self.reg_model = TestRegressionPdp()
self.class_model = TestClassificationPdp()
examples = [
{
'num': 1,
'cats': 'One',
},
{
'num': 10,
'cats': 'None',
},
{
'num': 5,
'cats': 'One',
},
]
indexed_inputs = [{'id': caching.input_hash(ex), 'data': ex}
for ex in examples]
self.dataset = lit_dataset.IndexedDataset(
spec=self.reg_model.input_spec(), id_fn=caching.input_hash,
indexed_examples=indexed_inputs)
def test_relative_tcav(self):
# Tests passing in a negative set.
random.seed(0) # Sets seed since create_comparison_splits() uses random.
# Basic test with dummy outputs from the model.
examples = [
{'sentence': 'happy'}, # 0
{'sentence': 'sad'}, # 1
{'sentence': 'good'}, # 2
{'sentence': 'bad'}, # 3
{'sentence': 'pretty'}, # 4
{'sentence': 'ugly'}, # 5
{'sentence': 'sweet'}, # 6
{'sentence': 'bitter'}, # 7
{'sentence': 'well'}, # 8
{'sentence': 'poor'}, # 9
{'sentence': 'compelling'}, # 10
{'sentence': 'boring'}, # 11
{'sentence': 'pleasing'}, # 12
{'sentence': 'gross'}, # 13
{'sentence': 'blue'}, # 14
{'sentence': 'red'}, # 15
{'sentence': 'flower'}, # 16
{'sentence': 'bee'}, # 17
{'sentence': 'snake'}, # 18
{'sentence': 'windshield'}, # 19
{'sentence': 'plant'}, # 20
{'sentence': 'scary'}, # 21
{'sentence': 'pencil'}, # 22
{'sentence': 'hello'} # 23
]
indexed_inputs = [{'id': caching.input_hash(ex), 'data': ex}
for ex in examples]
dataset = lit_dataset.IndexedDataset(id_fn=caching.input_hash,
indexed_examples=indexed_inputs)
# This first example doesn't have enough examples for statistical testing,
# so the returned p-value is None.
config = {
'concept_set_ids': [indexed_inputs[0]['id'],
indexed_inputs[2]['id'],
indexed_inputs[4]['id']],
'negative_set_ids': [indexed_inputs[1]['id'],
indexed_inputs[3]['id'],
indexed_inputs[5]['id']],
'class_to_explain': '1',
'grad_layer': 'cls_grad',
'random_state': 0
}
result = self.tcav.run_with_metadata(indexed_inputs, self.model, dataset,
config=config)
self.assertLen(result, 1)
expected = {
'result': {
'score': 1.0,
'cos_sim': [
0.9999999581246426, 0.049332143689572144, 0.8987945047547466,
-0.41858423757857954, 0.6908297036543664, -0.5167857909664919,
0.8423017503220364, -0.005793079244916016, 0.8334491603894322,
-0.4054645113448612, 0.7616102123736647, -0.4578596155267783,
0.8366905563807711, -0.27390786544756535, 0.7325538474066896,
0.5190287630768531, 0.8145227936096425, 0.02005592868363552,
-0.1143256029298114, -0.1221480700842533, 0.6852995739227957,
0.3984620730733816, 0.5211149530112407, 0.5909723902471223
],
'dot_prods': [
1385.1480610241554, 69.95638452724207, 1239.4947646060161,
-595.253135700978, 971.5880156862692, -725.0749813217176,
1182.8641913758102, -8.149647641120662, 1146.5803071544124,
-576.4043054391316, 1038.3510704649307, -648.097269442522,
1154.4720122394317, -378.32103870822493, 1024.066390571124,
738.6959135414066, 1139.7963358416857, 28.691395032352318,
-167.37808507284706, -176.4474746971391, 959.5159619261449,
562.8772536987927, 716.7270332848395, 840.7031847912738
],
'accuracy': 0.5
},
'p_val': None,
'random_mean': 0.9285714285714286,
'split_size': 3,
'num_runs': 1
}
testing_utils.assert_deep_almost_equal(self, expected, result[0])
# This example has enough inputs for two runs of size 3.
config = {
'concept_set_ids': [
indexed_inputs[1]['id'], indexed_inputs[2]['id'],
indexed_inputs[4]['id'], indexed_inputs[5]['id'],
indexed_inputs[10]['id'], indexed_inputs[9]['id']
],
'negative_set_ids': [
indexed_inputs[0]['id'], indexed_inputs[3]['id'],
indexed_inputs[12]['id'], indexed_inputs[6]['id'],
indexed_inputs[7]['id'], indexed_inputs[8]['id']
],
'class_to_explain': '0',
'grad_layer': 'cls_grad',
'random_state': 0
}
result = self.tcav.run_with_metadata(indexed_inputs, self.model, dataset,
config=config)
self.assertLen(result, 1)
expected = {
'result': {
'score': 0.0,
'cos_sim': [
0.2731987606830683, 0.427838045403812, 0.3166440584420665,
-0.1358964965831398, 0.5616614702946262, -0.16511808390168164,
-0.05103355252438478, -0.16945565920473257, 0.28148962348967155,
-0.18169036476392003, 0.33244873698665106, -0.13316476546155087,
0.15226772288202886, -0.05534469666649352, 0.2886150002073456,
0.33888135113008555, 0.12875301375254147, 0.046908665182593096,
-0.052445114502024985, 0.088858405172313, 0.219517174438115,
0.35833013079793435, 0.2291162415605806, 0.3635686086637199
],
'dot_prods': [
452.17220644153525, 724.9460578876271, 521.776546745851,
-230.9170522777958, 943.8754747127095, -276.8190148523963,
-85.63511897570154, -284.8487792023684, 462.71830216201926,
-308.62790255581496, 541.5830529968077, -225.2299308998058,
251.04716264718752, -91.33998249705493, 482.0991668852444,
576.3029773313335, 215.28329927312336, 80.18458502795752,
-91.74640483442752, 153.37559992294862, 367.2562273288043,
604.8378479001944, 376.53473821563625, 618.003311205616
],
'accuracy': 0.5
},
'p_val': 0.42264973081037427,
'random_mean': 0.0,
'split_size': 3,
'num_runs': 2
}
testing_utils.assert_deep_almost_equal(self, expected, result[0])
# This example has enough examples for three runs of size 3 and two runs of
# size 5, and returns results with p-value < 0.05.
config = {
'concept_set_ids': [indexed_inputs[0]['id'],
indexed_inputs[1]['id'],
indexed_inputs[2]['id'],
indexed_inputs[3]['id'],
indexed_inputs[4]['id'],
indexed_inputs[5]['id'],
indexed_inputs[6]['id'],
indexed_inputs[7]['id'],
indexed_inputs[8]['id'],
indexed_inputs[9]['id']],
'negative_set_ids': [indexed_inputs[10]['id'],
indexed_inputs[11]['id'],
indexed_inputs[12]['id'],
indexed_inputs[13]['id'],
indexed_inputs[14]['id'],
indexed_inputs[15]['id'],
indexed_inputs[16]['id'],
indexed_inputs[17]['id'],
indexed_inputs[18]['id'],
indexed_inputs[19]['id']],
'class_to_explain': '1',
'grad_layer': 'cls_grad',
'random_state': 0
}
result = self.tcav.run_with_metadata(indexed_inputs, self.model, dataset,
config=config)
self.assertLen(result, 1)
expected = [{
'result': {
'score': 0.42857142857142855,
'cos_sim': [
-0.1107393877916321, -0.0993967046974328, -0.2214985917242054,
0.08132588965575606, -0.3590211572508748, 0.18708109817461333,
0.000724498781128839, 0.09700473783330398, -0.25015742815240055,
0.16108236033785076, -0.10283274286140846, 0.0972663321478731,
-0.05924679176256152, -0.048499696342091746,
-0.4357117016074766, -0.593245752003111, -0.3645147796989344,
-0.5507605083253673, -0.27914997949782694, -0.30908550968594417,
-0.5584676299422896, -0.16983339994284577, -0.42587740852240746,
-0.37482298817032594
],
'dot_prods': [
-261.4389298435066, -240.23776409902007, -520.6275907607769,
197.11495117497446, -860.6035066083074, 447.3775519523981,
1.7341104803878409, 232.59170976304426, -586.5576327736542,
390.2961568516803, -238.95427152619726, 234.6617547723058,
-139.3334215524385, -114.17392512371171, -1038.149036709951,
-1439.0663895591745, -869.3828698612926, -1342.899780229334,
-696.569760699206, -760.9907977738051, -1332.7284530349625,
-408.90435403478875, -998.3360993150825, -908.8111404537224
],
'accuracy': 0.75
},
'p_val': 0.04400624968940752,
'random_mean': 0.9642857142857143,
'split_size': 5,
'num_runs': 2
}]
testing_utils.assert_deep_almost_equal(self, expected, result)