def run_sent140(self):
'''
Trained on sent140, predict on emoji
Report score on sent 140 too, just because it's intersting
'''
# model
#self.model_sent140 = TorchRNNClassifier(self.sent140_train_glove_vocab, embedding=self.sent140_train_embedding, bidirectional=True)
self.model_sent140 = TorchRNNClassifier(self.sent140_train_glove_vocab, embedding=self.sent140_train_embedding)
# train
self.model_sent140.fit(self.sent140_train_X, self.sent140_train_Y)
# test on sent140
#sent140_train_preds = self.model_sent140.predict(self.sent140_train_X)
#sent140_dev_preds = self.model_sent140.predict(self.sent140_dev_X)
# test on emoji
emoji_train_preds = self.model_sent140.predict(self.emoji_train_X)
emoji_dev_preds = self.model_sent140.predict(self.emoji_dev_X)
if self.testing:
emoji_test_preds = self.model_sent140.predict(self.emoji_test_X)
else:
emoji_test_preds = None
#return (sent140_train_preds, sent140_dev_preds, emoji_train_preds, emoji_dev_preds, emoji_test_preds)
return (None, None, emoji_train_preds, emoji_dev_preds, emoji_test_preds)
def test_predict_functions_honor_device(X_sequence, func):
X_train, X_test, y_train, y_test, vocab = X_sequence
mod = TorchRNNClassifier(vocab, max_iter=2)
mod.fit(X_train, y_train)
prediction_func = getattr(mod, func)
with pytest.raises(RuntimeError):
prediction_func(X_test, device="FAKE_DEVICE")
def run_sent140_emojiless(self):
'''
Trained on sent140, fine-tuned on emojiless, predict on emoji
Report score on sent 140 too, just because it's intersting
'''
# model
#self.model_sent140_emojiless = TorchRNNClassifier(self.sent140_emojiless_train_glove_vocab, embedding=self.sent140_emojiless_train_embedding, bidirectional=True)
self.model_sent140_emojiless = TorchRNNClassifier(self.sent140_emojiless_train_glove_vocab, embedding=self.sent140_emojiless_train_embedding)
# train
# combine features
combined_train_X = self.sent140_train_X + self.emojiless_train_X
combined_train_Y = self.sent140_train_Y + self.emojiless_train_Y
self.model_sent140_emojiless.fit(combined_train_X, combined_train_Y)
# test on sent140
#sent140_train_preds = self.model_sent140_emojiless.predict(self.sent140_train_X)
#sent140_dev_preds = self.model_sent140_emojiless.predict(self.sent140_dev_X)
# test on emoji
emoji_train_preds = self.model_sent140_emojiless.predict(self.emoji_train_X)
emoji_dev_preds = self.model_sent140_emojiless.predict(self.emoji_dev_X)
if self.testing:
emoji_test_preds = self.model_sent140_emojiless.predict(self.emoji_test_X)
else:
emoji_test_preds = None
#return (sent140_train_preds, sent140_dev_preds, emoji_train_preds, emoji_dev_preds, emoji_test_preds)
return (None, None, emoji_train_preds, emoji_dev_preds, emoji_test_preds)
def fit_elmo_rnn(X, y):
mod = TorchRNNClassifier(
vocab=[],
max_iter=50,
use_embedding=False)
mod.fit(X, y)
return mod
def test_model_graph_dimensions(X_sequence, mod_attr, graph_attr):
X_train, X_test, y_train, y_test, vocab = X_sequence
mod = TorchRNNClassifier(vocab, max_iter=1)
mod.fit(X_train, y_train)
mod_attr_val = getattr(mod, mod_attr)
graph_attr_val = getattr(mod.model.rnn.rnn, graph_attr)
assert mod_attr_val == graph_attr_val
def fit_hf_rnn(X, y):
mod = TorchRNNClassifier(
vocab=[],
max_iter=50,
hidden_dim=50,
use_embedding=False) # Pass in the BERT hidden states directly!
mod.fit(X, y)
return mod
def test_predict_restores_device(X_sequence, func):
X_train, X_test, y_train, y_test, vocab = X_sequence
mod = TorchRNNClassifier(vocab, max_iter=2)
mod.fit(X_train, y_train)
current_device = mod.device
assert current_device != torch.device("cpu:0")
prediction_func = getattr(mod, func)
prediction_func(X_test, device="cpu:0")
assert mod.device == current_device
def test_parameter_setting(param, expected):
vocab = []
mod = TorchRNNClassifier(vocab)
mod.set_params(**{param: expected})
result = getattr(mod, param)
if param == "embedding":
assert np.array_equal(result, expected)
else:
assert result == expected
def test_build_dataset(cheese_disease_dataset, with_y, expected):
vocab = cheese_disease_dataset['vocab']
X = cheese_disease_dataset['X_train']
y = cheese_disease_dataset['y_train']
mod = TorchRNNClassifier(vocab)
if with_y:
dataset = mod.build_dataset(X, y)
else:
dataset = mod.build_dataset(X)
result = next(iter(dataset))
assert len(result) == expected
def test_embedding_update_control(X_sequence, freeze, outcome):
X_train, X_test, y_train, y_test, vocab = X_sequence
embed_dim = 5
embedding = np.ones((len(vocab), embed_dim))
mod = TorchRNNClassifier(vocab,
max_iter=10,
embedding=embedding,
freeze_embedding=freeze)
mod.fit(X_train, y_train)
graph_emb = mod.model.rnn.embedding.weight.detach().cpu().numpy()
assert np.array_equal(embedding, graph_emb) == outcome
def test_pretrained_embedding(X_sequence):
X_train, X_test, y_train, y_test, vocab = X_sequence
embed_dim = 5
embedding = np.ones((len(vocab), embed_dim))
mod = TorchRNNClassifier(vocab,
max_iter=1,
embedding=embedding,
freeze_embedding=True)
mod.fit(X_train, y_train)
graph_emb = mod.model.rnn.embedding.weight.detach().cpu().numpy()
assert np.array_equal(embedding, graph_emb)
def test_cheese_disease(cheese_disease_dataset):
vocab = cheese_disease_dataset['vocab']
X_train = cheese_disease_dataset['X_train']
y_train = cheese_disease_dataset['y_train']
mod = TorchRNNClassifier(vocab=vocab,
embed_dim=50,
hidden_dim=50,
max_iter=200)
mod.fit(X_train, y_train)
X_test = cheese_disease_dataset['X_train']
y_test = cheese_disease_dataset['y_train']
pred = mod.predict(X_test)
acc = accuracy_score(y_test, pred)
assert acc > 0.80
def test_torch_rnn_classifier_save_load(X_sequence):
X_train, X_test, y_train, y_test, vocab = X_sequence
mod = TorchRNNClassifier(vocab=vocab, max_iter=2)
mod.fit(X_train, y_train)
mod.predict(X_test)
with tempfile.NamedTemporaryFile(mode='wb') as f:
name = f.name
mod.to_pickle(name)
mod2 = TorchRNNClassifier.from_pickle(name)
mod2.predict(X_test)
mod2.fit(X_test, y_test)
def test_simple_example_params(X_sequence, param, expected):
X_train, X_test, y_train, y_test, vocab = X_sequence
mod = TorchRNNClassifier(vocab, **{param: expected})
if param == "use_embedding" and expected == False:
embedding = np.random.uniform(
low=-1.0, high=1.0, size=(len(vocab), 60))
X_train = [[embedding[vocab.index(w)] for w in ex] for ex in X_train]
X_test = [[embedding[vocab.index(w)] for w in ex] for ex in X_test]
mod.fit(X_train, y_train)
preds = mod.predict(X_test)
acc = accuracy_score(y_test, preds)
if not (param == "max_iter" and expected == 0):
assert acc >= 0.60
def system_0_original():
# Data------------
with open(wordentail_filename) as f:
wordentail_data = json.load(f)
print("Distribution of labels : \n{0}".format(
pd.DataFrame(
wordentail_data['word_disjoint']['train'])[1].value_counts()))
# Model-----------
X_glove = pd.DataFrame(GLOVE)
X_glove['$UNK'] = 0
X_glove = X_glove.T
vocab = list(X_glove.index)
embedding = X_glove.values
net = TorchRNNClassifier(vocab=vocab,
embedding=embedding,
bidirectional=True)
# Exp-------------
result = nli.wordentail_experiment(
train_data=wordentail_data['word_disjoint']['train'],
assess_data=wordentail_data['word_disjoint']['dev'],
model=net,
vector_func=lambda x: np.array([x]),
vector_combo_func=vec_concatenate)
return result['macro-F1']
def fit_rnn_classifier(X, y):
sst_glove_vocab = get_vocab(X, n_words=10)
# sst_glove_vocab = get_vocab(X, n_words=10000)
mod = TorchRNNClassifier(
sst_glove_vocab,
eta=0.05,
embedding=None,
batch_size=1000,
embed_dim=50,
hidden_dim=50,
max_iter=5,
l2_strength=0.001,
bidirectional=True,
hidden_activation=nn.ReLU())
mod.fit(X, y)
return mod
def test_model(X_sequence):
"""Just makes sure that this code will run; it doesn't check that
it is creating good models.
"""
X_train, X_test, y_train, y_test, vocab = X_sequence
mod = TorchRNNClassifier(vocab=vocab, max_iter=100)
mod.fit(X_train, y_train)
mod.predict(X_test)
mod.predict_proba(X_test)
rnn_dev_predictions = rnn.predict(X_rnn_dev)
# In[26]:
print(classification_report(y_rnn_dev, rnn_dev_predictions))
# ### PyTorch implementation
#
# The included PyTorch implementation is much faster and more configurable.
# In[27]:
torch_rnn = TorchRNNClassifier(sst_train_vocab,
embed_dim=50,
hidden_dim=50,
max_iter=50,
eta=0.05)
# In[28]:
get_ipython().run_line_magic('time',
'_ = torch_rnn.fit(X_rnn_train, y_rnn_train)')
# In[29]:
torch_rnn_dev_predictions = torch_rnn.predict(X_rnn_dev)
# In[30]:
print(classification_report(y_rnn_dev, torch_rnn_dev_predictions))
def vec_concatenate(u, v):
"""Concatenate np.array instances `u` and `v` into a new np.array"""
return np.concatenate((u, v))
# net = TorchShallowNeuralClassifier(hidden_dim=50, max_iter=100)
X_glove = pd.DataFrame(GLOVE)
X_glove['$UNK'] = 0
X_glove = X_glove.T
vocab = list(X_glove.index)
embedding = X_glove.values
net = TorchRNNClassifier(vocab=vocab, embedding=embedding)
word_disjoint_experiment = nli.wordentail_experiment(
train_data=wordentail_data['word_disjoint']['train'],
assess_data=wordentail_data['word_disjoint']['dev'],
# model=GridSearchCV(net, {'hidden_dim': [25, 50, 100]}, cv=2, scoring='f1_macro'),
model=net,
vector_func=lambda x: np.array([x]),
vector_combo_func=vec_concatenate)
print("macro-f1: {0}".format(word_disjoint_experiment['macro-F1']))
#
# # The outer keys are the splits plus a list giving the vocabulary for the entire dataset:
#
# # In[ ]:
def test_cross_validation_sklearn(cheese_disease_dataset, model_class):
vocab = cheese_disease_dataset['vocab']
X = cheese_disease_dataset['X_train']
y = cheese_disease_dataset['y_train']
mod = TorchRNNClassifier(vocab, max_iter=5)
xval = cross_validate(mod, X, y, cv=2)
def test_np_parameter_setting(param, expected):
vocab = []
mod = TorchRNNClassifier(vocab)
mod.set_params(**{param: expected})
result = getattr(mod, param)
assert result == expected
return [ex[-1] for ex in elmo_vecs]
# In[51]:
X_elmo_train = elmo_layer_reduce_top(X_elmo_train_layers)
# Now we can fit an RNN as usual:
# In[52]:
elmo_rnn = TorchRNNClassifier(
vocab=[],
max_iter=50,
use_embedding=False) # Pass in the ELMo hidden states directly!
# In[53]:
get_ipython().run_line_magic('time', '_ = elmo_rnn.fit(X_elmo_train, y_elmo_train)')
# Evaluation proceeds in the usual way:
# In[54]:
X_elmo_dev = elmo_layer_reduce_top(X_elmo_dev_layers)
def fit_simple_chained_rnn(X, y):
vocab = utils.get_vocab(X, n_words=10000)
mod = TorchRNNClassifier(vocab, hidden_dim=50, max_iter=10)
mod.fit(X, y)
return mod
write yourself, as in `torch_rnn_classifier`, or the outpiut of
`nn.Sequential`, as in `torch_shallow_neural_classifier`.
"""
##### YOUR CODE HERE
return nn.Sequential(
nn.Linear(self.input_dim, self.hidden_dim),
nn.Dropout(self.dropout_prob),
self.hidden_activation,
nn.Linear(self.hidden_dim, self.n_classes_))
from torch_rnn_classifier import TorchRNNClassifier
vocab = utils.get_vocab(X, n_words=10000)
mod = TorchRNNClassifier(vocab, hidden_dim=50, max_iter=10)
word_disjoint_experiment = nli.wordentail_experiment(
train_data=wordentail_data['word_disjoint']['train'],
assess_data=wordentail_data['word_disjoint']['dev'],
model=net,
vector_func=glove_vec,
vector_combo_func=vec_concatenate)
word_experiment = nli.wordentail_experiment(
train_data=wordentail_data[data]['train'],
assess_data=wordentail_data[data]['dev'],
model=model,
class RNN_Classifier:
'''
Modified torch rnn classifier wrapper class for initial fitting and then fine tuning of weights.
'''
def __init__(self, sent140_train_X_list, sent140_dev_X_list, sent140_train_Y, sent140_dev_Y, sent140_train_embedding, sent140_train_glove_vocab, emoji_train_X_list, emoji_dev_X_list, emoji_test_X_list, emoji_train_Y, emoji_dev_Y, emoji_test_Y, sent140_emoji_train_embedding, sent140_emoji_train_glove_vocab, emojiless_train_X_list, emojiless_dev_X_list, emojiless_test_X_list, emojiless_train_Y, emojiless_dev_Y, emojiless_test_Y, sent140_emojiless_train_embedding, sent140_emojiless_train_glove_vocab, testing):
'''
Pass in initial data for fitting to constructor. Later adding passing logisitic regression
parameters into constructor.
'''
self.testing = testing
self.sent140_train_X = sent140_train_X_list
self.sent140_train_Y = sent140_train_Y
self.sent140_dev_X = sent140_dev_X_list
self.sent140_dev_Y = sent140_dev_Y
self.emoji_train_X = emoji_train_X_list
self.emoji_train_Y = emoji_train_Y
self.emoji_dev_X = emoji_dev_X_list
self.emoji_dev_Y = emoji_dev_Y
if self.testing:
self.emoji_test_X = emoji_test_X_list
self.emoji_test_Y = emoji_test_Y
self.emojiless_train_X = emojiless_train_X_list
self.emojiless_train_Y = emojiless_train_Y
self.emojiless_dev_X = emojiless_dev_X_list
self.emojiless_dev_Y = emojiless_dev_Y
if self.testing:
self.emojiless_test_X = emojiless_test_X_list
self.emojiless_test_Y = emojiless_test_Y
# embeddings and vocabs
self.sent140_train_embedding = sent140_train_embedding
self.sent140_train_glove_vocab = sent140_train_glove_vocab
self.sent140_emoji_train_embedding = sent140_emoji_train_embedding
self.sent140_emoji_train_glove_vocab = sent140_emoji_train_glove_vocab
self.sent140_emojiless_train_embedding = sent140_emojiless_train_embedding
self.sent140_emojiless_train_glove_vocab = sent140_emojiless_train_glove_vocab
# pass in model parameters for to constructor?
def run_sent140(self):
'''
Trained on sent140, predict on emoji
Report score on sent 140 too, just because it's intersting
'''
# model
#self.model_sent140 = TorchRNNClassifier(self.sent140_train_glove_vocab, embedding=self.sent140_train_embedding, bidirectional=True)
self.model_sent140 = TorchRNNClassifier(self.sent140_train_glove_vocab, embedding=self.sent140_train_embedding)
# train
self.model_sent140.fit(self.sent140_train_X, self.sent140_train_Y)
# test on sent140
#sent140_train_preds = self.model_sent140.predict(self.sent140_train_X)
#sent140_dev_preds = self.model_sent140.predict(self.sent140_dev_X)
# test on emoji
emoji_train_preds = self.model_sent140.predict(self.emoji_train_X)
emoji_dev_preds = self.model_sent140.predict(self.emoji_dev_X)
if self.testing:
emoji_test_preds = self.model_sent140.predict(self.emoji_test_X)
else:
emoji_test_preds = None
#return (sent140_train_preds, sent140_dev_preds, emoji_train_preds, emoji_dev_preds, emoji_test_preds)
return (None, None, emoji_train_preds, emoji_dev_preds, emoji_test_preds)
def run_sent140_emojiless(self):
'''
Trained on sent140, fine-tuned on emojiless, predict on emoji
Report score on sent 140 too, just because it's intersting
'''
# model
#self.model_sent140_emojiless = TorchRNNClassifier(self.sent140_emojiless_train_glove_vocab, embedding=self.sent140_emojiless_train_embedding, bidirectional=True)
self.model_sent140_emojiless = TorchRNNClassifier(self.sent140_emojiless_train_glove_vocab, embedding=self.sent140_emojiless_train_embedding)
# train
# combine features
combined_train_X = self.sent140_train_X + self.emojiless_train_X
combined_train_Y = self.sent140_train_Y + self.emojiless_train_Y
self.model_sent140_emojiless.fit(combined_train_X, combined_train_Y)
# test on sent140
#sent140_train_preds = self.model_sent140_emojiless.predict(self.sent140_train_X)
#sent140_dev_preds = self.model_sent140_emojiless.predict(self.sent140_dev_X)
# test on emoji
emoji_train_preds = self.model_sent140_emojiless.predict(self.emoji_train_X)
emoji_dev_preds = self.model_sent140_emojiless.predict(self.emoji_dev_X)
if self.testing:
emoji_test_preds = self.model_sent140_emojiless.predict(self.emoji_test_X)
else:
emoji_test_preds = None
#return (sent140_train_preds, sent140_dev_preds, emoji_train_preds, emoji_dev_preds, emoji_test_preds)
return (None, None, emoji_train_preds, emoji_dev_preds, emoji_test_preds)
def run_sent140_emoji(self):
'''
Trained on sent140, fine-tuned on emoji, predict on emoji
Report score on sent 140 too, just because it's intersting
'''
# model
#self.model_sent140_emoji = TorchRNNClassifier(self.sent140_emoji_train_glove_vocab, embedding=self.sent140_emoji_train_embedding, bidirectional=True)
self.model_sent140_emoji = TorchRNNClassifier(self.sent140_emoji_train_glove_vocab, embedding=self.sent140_emoji_train_embedding)
# train
combined_train_X = self.sent140_train_X + self.emoji_train_X
combined_train_Y = self.sent140_train_Y + self.emoji_train_Y
self.model_sent140_emoji.fit(combined_train_X, combined_train_Y)
# test on sent140
#sent140_train_preds = self.model_sent140_emoji.predict(self.sent140_train_X)
#sent140_dev_preds = self.model_sent140_emoji.predict(self.sent140_dev_X)
# test on emoji
emoji_train_preds = self.model_sent140_emoji.predict(self.emoji_train_X)
emoji_dev_preds = self.model_sent140_emoji.predict(self.emoji_dev_X)
if self.testing:
emoji_test_preds = self.model_sent140_emoji.predict(self.emoji_test_X)
else:
emoji_test_preds = None
#return (sent140_train_preds, sent140_dev_preds, emoji_train_preds, emoji_dev_preds, emoji_test_preds)
return (None, None, emoji_train_preds, emoji_dev_preds, emoji_test_preds)
samp_percentage=1.0).read()]
anli_map = {'c': 'contradiction', 'e': 'entailment', 'n': 'neutral'}
dev_data = [((ex.context, ex.hypothesis), anli_map[ex.label])
for ex in nli.ANLIDevReader(ANLI_HOME, rounds=(1, )).read()]
# net = RandomClassifier()
X_glove = pd.DataFrame(GLOVE)
X_glove['$UNK'] = 0
X_glove = X_glove.T
vocab = list(X_glove.index)
embedding = X_glove.values
net = TorchRNNClassifier(vocab,
embedding=embedding,
hidden_dim=50,
max_iter=10)
def vec_func(w):
return w.split()
def vec_concatenate(u, v):
""" hypothesis only baseline """
return v
print("---------------------------------------------")
word_disjoint_experiment = nli.wordentail_experiment(
