def add(self, data=None, row_ids=None, sync=False):
'''add the data to the multiverso MatrixTable
If row_ids is None, we will add all data, and the data
should be a list, e.g. [1, 2, 3, ...]
Otherwise we will add the data according to the row_ids
Data type of `data` is numpy.ndarray with two-dimensional
If sync is True, this call will blocked by IO until the call finish.
Otherwise it will return immediately
'''
assert(data is not None)
data = convert_data(data)
if row_ids is None:
assert(data.size == self._size)
if sync:
mv_lib.MV_AddMatrixTableAll(self._handler, data.ctypes.data_as(C_FLOAT_P), self._size)
else:
mv_lib.MV_AddAsyncMatrixTableAll(self._handler, data.ctypes.data_as(C_FLOAT_P), self._size)
else:
row_ids_n = len(row_ids)
assert(data.size == row_ids_n * self._num_col)
int_array_type = ctypes.c_int * row_ids_n
if sync:
mv_lib.MV_AddMatrixTableByRows(self._handler, data.ctypes.data_as(C_FLOAT_P),
row_ids_n * self._num_col,
int_array_type(*row_ids), row_ids_n)
else:
mv_lib.MV_AddAsyncMatrixTableByRows(self._handler, data.ctypes.data_as(C_FLOAT_P),
row_ids_n * self._num_col,
int_array_type(*row_ids), row_ids_n)
def run_models(model_ensemble, data_file):
feature_names = model_ensemble[0].feature_names
df = read_data(data_file)
df = convert_data(df)
# Drop extra columns
extra_columns = set(df.columns) - set(feature_names)
logging.info(f'Columns present in now, but not in training {extra_columns}')
df.drop(extra_columns, axis=1, inplace=True)
# Add missing columns
missing_columns = set(feature_names) - set(df.columns)
logging.info(f'Columns present in training, but not in test {missing_columns}')
for col in missing_columns:
df[col] = 0
df = df[feature_names]
preds = pd.DataFrame(model.predict(df) for model in model_ensemble)
result = pd.DataFrame()
result['ident'] = df.reset_index()['ident']
result['probs'] = preds.mean() > 0.5
return result
def add(self, data, sync=False):
'''add the data to the multiverso ArrayTable
Data type of `data` is numpy.ndarray with one-dimensional
If sync is True, this call will blocked by IO until the call finish.
Otherwise it will return immediately
'''
data = convert_data(data)
assert(data.size == self._size)
if sync:
mv_lib.MV_AddArrayTable(self._handler, data.ctypes.data_as(C_FLOAT_P), self._size)
else:
mv_lib.MV_AddAsyncArrayTable(self._handler, data.ctypes.data_as(C_FLOAT_P), self._size)
def __init__(self, size, init_value=None):
'''Constructor for syncing array-like (one-dimensional) value.
The `size` should be a int equal to the size of value we want to sync.
If init_value is None, zeros will be used to initialize the tables,
otherwise the table will be initialized as the init_value.
Notice: if the init_value is different in different processes, the
average of them will be used.
'''
self._handler = ctypes.c_void_p()
self._size = size
mv_lib.MV_NewArrayTable(size, ctypes.byref(self._handler))
if init_value is not None:
init_value = convert_data(init_value)
# sync add is used because we want to make sure that the initial
# value has taken effect when the call returns.
self.add(init_value / api.workers_num(), sync=True)
def __init__(self, size, init_value=None):
'''Constructor for syncing array-like (one-dimensional) value.
The `size` should be a int equal to the size of value we want to sync.
If init_value is None, zeros will be used to initialize the table,
otherwise the table will be initialized as the init_value.
*Notice*: if the init_value is different in different processes, the
average of them will be used.
'''
self._handler = ctypes.c_void_p()
self._size = size
mv_lib.MV_NewArrayTable(size, ctypes.byref(self._handler))
if init_value is not None:
init_value = convert_data(init_value)
# sync add is used because we want to make sure that the initial
# value has taken effect when the call returns.
self.add(init_value / api.workers_num(), sync=True)
def add(self, data, sync=False):
'''add the data to the multiverso ArrayTable
Data type of `data` is numpy.ndarray with one-dimensional
If sync is True, this call will blocked by IO until the call finish.
Otherwise it will return immediately
'''
data = convert_data(data)
assert (data.size == self._size)
if sync:
mv_lib.MV_AddArrayTable(self._handler,
data.ctypes.data_as(C_FLOAT_P), self._size)
else:
mv_lib.MV_AddAsyncArrayTable(self._handler,
data.ctypes.data_as(C_FLOAT_P),
self._size)
def __init__(self, size, init_value=None):
'''Constructor for syncing array-like (one-dimensional) value.
The `size` should be a int equal to the size of value we want to sync.
If init_value is None, zeros will be used to initialize the table,
otherwise the table will be initialized as the init_value.
*Notice*: Only the init_value from the master will be used!
'''
self._handler = ctypes.c_void_p()
self._size = size
mv_lib.MV_NewArrayTable(size, ctypes.byref(self._handler))
if init_value is not None:
init_value = convert_data(init_value)
# sync add is used because we want to make sure that the initial
# value has taken effect when the call returns. No matter whether
# it is master worker, we should call add to make sure it works in
# sync mode
self.add(init_value if api.is_master_worker() else np.zeros(init_value.shape), sync=True)
def __init__(self, size, init_value=None):
'''Constructor for syncing array-like (one-dimensional) value.
The `size` should be a int equal to the size of value we want to sync.
If init_value is None, zeros will be used to initialize the table,
otherwise the table will be initialized as the init_value.
*Notice*: Only the init_value from the master will be used!
'''
self._handler = ctypes.c_void_p()
self._size = size
mv_lib.MV_NewArrayTable(size, ctypes.byref(self._handler))
if init_value is not None:
init_value = convert_data(init_value)
# sync add is used because we want to make sure that the initial
# value has taken effect when the call returns. No matter whether
# it is master worker, we should call add to make sure it works in
# sync mode
self.add(init_value
if api.is_master_worker() else np.zeros(init_value.shape),
sync=True)
def main(*data_files):
if len(data_files) < 1:
raise TypeError(
f'No data files found! Usage: python {os.path.basename(__file__)} data_file [data_file]...'
)
start = datetime.now()
logger.info(f'Starting {start}')
df = read_data(*data_files)
df = convert_data(df)
model = train_model(df)
save_model(model=model,
filename=MODEL_PATH.joinpath(SESSION_NAME + '.pkl'))
end = datetime.now()
logger.info(f'All done {end}, elapsed: {end - start}')
def __init__(self, num_row, num_col, init_value=None):
'''Constructor for syncing matrix-like (two-dimensional) value.
The `num_row` should be the number of rows and the `num_col` should be
the number of columns.
If init_value is None, zeros will be used to initialize the table,
otherwise the table will be initialized as the init_value.
Notice: if the init_value is different in different processes, the
average of them will be used.
'''
self._handler = ctypes.c_void_p()
self._num_row = num_row
self._num_col = num_col
self._size = num_col * num_row
mv_lib.MV_NewMatrixTable(num_row, num_col, ctypes.byref(self._handler))
if init_value is not None:
init_value = convert_data(init_value)
# sync add is used because we want to make sure that the initial
# value has taken effect when the call returns.
self.add(init_value / api.workers_num(), sync=True)
def __init__(self, num_row, num_col, init_value=None):
'''Constructor for syncing matrix-like (two-dimensional) value.
The `num_row` should be the number of rows and the `num_col` should be
the number of columns.
If init_value is None, zeros will be used to initialize the tables,
otherwise the table will be initialized as the init_value.
Notice: if the init_value is different in different processes, the
average of them will be used.
'''
self._handler = ctypes.c_void_p()
self._num_row = num_row
self._num_col = num_col
self._size = num_col * num_row
mv_lib.MV_NewMatrixTable(num_row, num_col, ctypes.byref(self._handler))
if init_value is not None:
init_value = convert_data(init_value)
# sync add is used because we want to make sure that the initial
# value has taken effect when the call returns.
self.add(init_value / api.workers_num(), sync=True)
def add(self, data=None, row_ids=None, sync=False):
'''add the data to the multiverso MatrixTable
If row_ids is None, we will add all data, and the data
should be a list, e.g. [1, 2, 3, ...]
Otherwise we will add the data according to the row_ids
Data type of `data` is numpy.ndarray with two-dimensional
If sync is True, this call will blocked by IO until the call finish.
Otherwise it will return immediately
'''
assert (data is not None)
data = convert_data(data)
if row_ids is None:
assert (data.size == self._size)
if sync:
mv_lib.MV_AddMatrixTableAll(self._handler,
data.ctypes.data_as(C_FLOAT_P),
self._size)
else:
mv_lib.MV_AddAsyncMatrixTableAll(
self._handler, data.ctypes.data_as(C_FLOAT_P), self._size)
else:
row_ids_n = len(row_ids)
assert (data.size == row_ids_n * self._num_col)
int_array_type = ctypes.c_int * row_ids_n
if sync:
mv_lib.MV_AddMatrixTableByRows(self._handler,
data.ctypes.data_as(C_FLOAT_P),
row_ids_n * self._num_col,
int_array_type(*row_ids),
row_ids_n)
else:
mv_lib.MV_AddAsyncMatrixTableByRows(
self._handler,
data.ctypes.data_as(C_FLOAT_P), row_ids_n * self._num_col,
int_array_type(*row_ids), row_ids_n)
def __init__(self, num_row, num_col, init_value=None):
'''Constructor for syncing matrix-like (two-dimensional) value.
The `num_row` should be the number of rows and the `num_col` should be
the number of columns.
If init_value is None, zeros will be used to initialize the table,
otherwise the table will be initialized as the init_value.
*Notice*: Only the init_value from the master will be used!
'''
self._handler = ctypes.c_void_p()
self._num_row = num_row
self._num_col = num_col
self._size = num_col * num_row
mv_lib.MV_NewMatrixTable(num_row, num_col, ctypes.byref(self._handler))
if init_value is not None:
init_value = convert_data(init_value)
# sync add is used because we want to make sure that the initial
# value has taken effect when the call returns. No matter whether
# it is master worker, we should call add to make sure it works in
# sync mode
self.add(init_value if api.is_master_worker() else np.zeros(init_value.shape), sync=True)
def de_parse(cls, prefix, json):
'''
de parse
'''
result_dict = {}
for key, value in json.iteritems():
if key in {'_id'}:
pass
else:
key_name = make_column_name(prefix, key)
if key_name in USER_DATETIME_COLUMN_SET:
result_dict[key_name] = parse_datetime_into_hbase(value)
elif key_name in USER_BOOLEAN_COLUMN_SET:
result_dict[key_name] = parse_boolean_into_hbase(value)
elif key_name in USER_INT_COLUMN_SET:
result_dict[key_name] = parse_int_into_hbase(value)
elif key_name in USER_LIST_COLUMN_SET:
json = import_simplejson()
result_dict[key_name] = json.dumps(value)
else:
result_dict[key_name] = convert_data(value)
return result_dict
def __init__(self, num_row, num_col, init_value=None):
'''Constructor for syncing matrix-like (two-dimensional) value.
The `num_row` should be the number of rows and the `num_col` should be
the number of columns.
If init_value is None, zeros will be used to initialize the table,
otherwise the table will be initialized as the init_value.
*Notice*: Only the init_value from the master will be used!
'''
self._handler = ctypes.c_void_p()
self._num_row = num_row
self._num_col = num_col
self._size = num_col * num_row
mv_lib.MV_NewMatrixTable(num_row, num_col, ctypes.byref(self._handler))
if init_value is not None:
init_value = convert_data(init_value)
# sync add is used because we want to make sure that the initial
# value has taken effect when the call returns. No matter whether
# it is master worker, we should call add to make sure it works in
# sync mode
self.add(init_value
if api.is_master_worker() else np.zeros(init_value.shape),
sync=True)
name_model = "dt_gridsearchcv.joblib"
model_path = os.path.join(save_path,name_model)
joblib.dump(tree_clf, model_path)
tree_score = cross_val_score(tree_clf, X_train, y_train, cv=5)
print('DecisionTree Classifier Cross Validation Score', \
round(tree_score.mean() * 100, 2).astype(str) + '%')
print("-"*80)
if __name__ =="__main__":
path = "/home/hoangnv68/BankFraudDetection/creditcard.csv"
df = read_data(path)
sub_df = Downsample_data(df)
sub_df = Remove_ouliers(sub_df, ["V14", "V12", "V10"], 25, 75, 1.5)
X = sub_df.drop("Class", axis=1)
y = sub_df["Class"]
X_train, X_test, y_train, y_test = convert_data(X, y)
classifiers = {
"LogisiticRegression": LogisticRegression(max_iter=1000),
"KNearest": KNeighborsClassifier(),
"Support Vector Classifier": SVC(),
"DecisionTreeClassifier": DecisionTreeClassifier()
}
save_path = "/home/hoangnv68/BankFraudDetection/supervise_model/pretrained_model"
train(X_train, X_test, y_train, y_test, save_path)
gridsearchCV(X_train, X_test, y_train, y_test, save_path)
def main(argv):
print '\nSYSTEM START\n'
print 'Emb Dim: %d\tHidden Dim: %d\tOptimization: %s\tLayer: %d\tEpoch: %d' %\
(argv.emb, argv.hidden, argv.opt, argv.layer, argv.epoch)
print 'Parameters to be saved: %s' % argv.save
"""data preprocessing"""
print 'DATA Preprocessing...'
corpus, vocab_word = utils.load_conll(argv.data)
id_corpus = utils.convert_words_into_ids(corpus, vocab_word)
train_samples = utils.convert_data(id_corpus)
n_samples = len(id_corpus)
print 'Samples: %d\tVocab: %d' % (n_samples, vocab_word.size())
"""symbol definition"""
index = T.iscalar()
w = T.ivector()
d = T.ivector()
n_hidden = argv.hidden
n_words = argv.n_words
batch_size = argv.batch
"""model setup"""
print 'Compiling Theano Code...'
model = lstm.LSTM(w=w, d=d, n_layers=argv.layer, vocab_size=vocab_word.size(), n_in=n_hidden, n_h=n_hidden,
n_words=n_words, batch_size=batch_size
)
cost = model.nll
opt = optimizers.main(name=argv.opt, cost=cost, params=model.params, emb=model.emb, x=model.x, w=model.w)
""" train """
def _train():
train_model = theano.function(
inputs=[index],
outputs=[model.nll, model.errors],
updates=opt,
givens={
w: train_samples[index * n_words * batch_size: (index+1) * n_words * batch_size],
d: train_samples[index * n_words * batch_size + 1: (index+1) * n_words * batch_size + 1]
},
mode='FAST_RUN'
)
n_batch_samples = n_samples / n_words / batch_size
print 'Vocabulary Size: %d\tBatch Sample Size: %d' % (vocab_word.size(), n_batch_samples)
print '\nTrain START'
for epoch in xrange(argv.epoch):
print '\nEpoch: %d' % (epoch + 1)
print '\tIndex: ',
start = time.time()
losses = []
errors = []
for b_index in xrange(n_batch_samples):
if b_index % 100 == 0 and b_index != 0:
print b_index,
sys.stdout.flush()
loss, error = train_model(b_index)
losses.append(loss)
errors.append(error)
avg_loss = np.mean(losses)
end = time.time()
print '\tTime: %f seconds' % (end - start)
print '\tAverage Negative Log Likelihood: %f' % avg_loss
total = 0.0
correct = 0
for sent in errors:
total += len(sent)
for y_pred in sent:
if y_pred == 0:
correct += 1
print '\tTrain Accuracy: %f' % (correct / total)
if argv.save:
model.save()
_train()
def s2s_data_generator(s2s_df=duplets,
all_catalog=catalog_images,
batch_size=None):
"""
A data generator for generating triplets, i.e, (input_image, positive_image, negative_image) on the fly before training.
Select a random input image from the training set and select an positive_image with
same product id and negative image with different product id and generate batch of triplets
The function keeps yielding a batch of triplets until the whole training process is complete.
"""
orig_index_list = duplets.index.tolist()
all_shop_index_list = catalog_images.index.tolist()
dummy = np.zeros((1, 3 * N))
while True:
q_list = list()
p_list = list()
n_list = list()
dummy_list = list()
index_list = copy.copy(orig_index_list)
while len(index_list) > 0:
index = random.choice(index_list)
product_id = duplets.loc[index, 'product_id']
q_temp = duplets.loc[index, 'street_images']
q_img = os.path.join(Path, q_temp + '.jpeg')
p_temp = duplets.loc[index, 'shop_images']
p_img = os.path.join(Path, p_temp + '.jpeg')
while True:
idx = random.choice(all_shop_index_list)
prod_idx = catalog_images.loc[idx, 'product_id']
if prod_idx != product_id:
temp = random.choice(catalog_images.loc[idx,
'shop_images'])
n_img = os.path.join(Path, temp + '.jpeg')
q_img = os.path.join(Path, q_index + '.jpeg')
p_img = os.path.join(Path, p_index + '.jpeg')
n_img = os.path.join(Path, n_index + '.jpeg')
res = bbox_mappings[q_index]
left = res['left']
top = res['top']
right = left + res['width']
bottom = top + res['height']
query_img = Image.open(q_img)
query_crop = query_img.crop((left, top, right, bottom))
positive_img = Image.open(p_img)
negative_img = Image.open(n_img)
query = np.array(query_crop.resize((300, 300), Image.NEAREST))
positive = np.array(positive_img.resize((300, 300), Image.NEAREST))
negative = np.array(negative_img.resize((300, 300), Image.NEAREST))
q_list.append(query_array)
p_list.append(positive_array)
n_list.append(negative_array)
dummy_list.append(dummy)
index_list.remove(index)
if len(q_list) == batch_size or (len(index_list) == 0
and len(q_list) > 0):
yield convert_data(q_list, p_list, n_list, dummy_list)
q_list = list()
p_list = list()
n_list = list()
dummy_list = list()
def main(argv):
print '\nSYSTEM START'
print '\nMODE: Training'
print '\nRECURRENT HIDDEN UNIT: %s\n' % argv.unit
print '\tTRAINING\t\tBatch: %d Epoch: %d Parameters Save: %s' % (
argv.batch, argv.epoch, argv.save)
print '\tINITIAL EMBEDDING\t %s' % argv.init_emb
print '\tNETWORK STRUCTURE\tEmb Dim: %d Hidden Dim: %d Layers: %d' % (
argv.emb, argv.hidden, argv.layer)
print '\tOPTIMIZATION\t\tMethod: %s Learning Rate: %f %f L2 Reg: %f' % (
argv.opt, argv.lr1, argv.lr2, argv.reg)
""" load corpus"""
print '\n\tCorpus Preprocessing...'
train_corpus = load_conll(argv.train_data, exclude=True)
print '\tTrain Sentences: %d' % len(train_corpus)
if argv.dev_data:
dev_corpus = load_conll(argv.dev_data)
print '\tDev Sentences: %d' % len(dev_corpus)
if argv.test_data:
test_corpus = load_conll(argv.test_data)
print '\tTest Sentences: %d' % len(test_corpus)
""" load initial embedding file """
print '\n\tInitial Embedding Loading...'
init_emb, vocab_word = load_init_emb(init_emb=argv.init_emb)
print '\tVocabulary Size: %d' % vocab_word.size()
""" convert words into ids """
print '\n\tConverting Words into IDs...'
tr_id_sents, tr_id_ctx, tr_marks, tr_prds, train_y, arg_dict = get_id_samples(
train_corpus, vocab_word=vocab_word, sort=True)
if argv.dev_data:
dev_id_sents, dev_id_ctx, dev_marks, dev_prds, dev_y, dev_arg_dict =\
get_id_samples(dev_corpus, vocab_word=vocab_word, a_dict=arg_dict)
if argv.test_data:
te_id_sents, te_id_ctx, te_marks, te_prds, test_y, test_arg_dict =\
get_id_samples(test_corpus, vocab_word=vocab_word, a_dict=arg_dict)
print '\tLabel size: %d' % arg_dict.size()
dump_data(data=arg_dict,
fn=argv.train_dir + 'arg_dict-%d' % (arg_dict.size()))
""" convert formats for theano """
print '\n\tCreating Training/Dev/Test Samples...'
train_sample_x, train_sample_y = convert_data(tr_id_sents, tr_prds,
tr_id_ctx, tr_marks, train_y,
init_emb)
print '\tTrain Samples: %d' % len(train_sample_x)
if argv.dev_data:
dev_sample_x, dev_sample_y = convert_data_test(dev_id_sents, dev_prds,
dev_id_ctx, dev_marks,
dev_y, init_emb)
print '\tDev Samples: %d' % len(dev_sample_x)
if argv.test_data:
test_sample_x, test_sample_y = convert_data_test(
te_id_sents, te_prds, te_id_ctx, te_marks, test_y, init_emb)
print '\tTest Samples: %d' % len(test_sample_x)
"""symbol definition"""
x = T.ftensor3()
d = T.imatrix()
n_in = init_emb.shape[1]
n_h = argv.hidden
n_y = arg_dict.size()
reg = argv.reg
batch = argv.batch
""" Model Setup """
print '\nTheano Code Compiling...'
tagger = RNN(unit=argv.unit,
x=x,
d=d,
n_layers=argv.layer,
n_in=n_in,
n_h=n_h,
n_y=n_y,
reg=reg)
train_model = theano.function(inputs=[x, d],
outputs=[tagger.nll, tagger.errors],
updates=tagger.updates,
mode='FAST_RUN')
test_model = theano.function(inputs=[x, d],
outputs=[tagger.y_pred, tagger.errors],
mode='FAST_RUN')
""" Training """
print '\nTRAIN START'
best_dev_f = 0.0
best_test_f = 0.0
best_epoch = -1
flag = False
for epoch in xrange(argv.epoch):
_train_sample_x, _train_sample_y = shuffle(train_sample_x,
train_sample_y)
print '\nEpoch: %d' % (epoch + 1)
print '\tIndex: ',
start = time.time()
losses = []
errors = []
sample_index = 0
for index in xrange(len(train_sample_x)):
batch_x = _train_sample_x[index]
batch_y = _train_sample_y[index]
for b_index in xrange(len(batch_x) / batch + 1):
sample_index += 1
if sample_index % 100 == 0:
print '%d' % sample_index,
sys.stdout.flush()
sample_x = batch_x[b_index * batch:(b_index + 1) * batch]
sample_y = batch_y[b_index * batch:(b_index + 1) * batch]
if len(sample_x) == 0:
continue
loss, error = train_model(sample_x, sample_y)
losses.append(loss)
errors.extend(error)
end = time.time()
avg_loss = np.mean(losses)
total, correct = count_correct(errors)
print '\tTime: %f seconds' % (end - start)
print '\tAverage Negative Log Likelihood: %f' % avg_loss
print '\tTrain Accuracy: %f' % (correct / total)
""" Check model performance """
if argv.dev_data:
dev_f, predicts = test(test_model, dev_sample_x, dev_sample_y,
dev_arg_dict, 'Dev')
if best_dev_f < dev_f:
best_dev_f = dev_f
best_epoch = epoch
""" Save Parameters """
if argv.save:
fn = 'Layer-%d_Dim-%d_Batch-%d_Hidden-%d_Reg-%f_Epoch-%d' % (
argv.layer, argv.hidden, argv.batch, argv.hidden,
argv.reg, epoch)
dump_data(data=tagger, fn=argv.train_dir + fn)
""" Output Results """
output_results(
dev_corpus, dev_prds, arg_dict, predicts, argv.train_dir +
'Dev-result.layer%d.batch%d.hidden%d.opt-%s.reg-%f.epoch%d.txt'
% (argv.layer, argv.batch, argv.hidden, argv.opt, argv.reg,
epoch))
flag = True
print '\t### Best Dev F Score: %f Epoch: %d ###' % (
best_dev_f, best_epoch + 1)
if argv.test_data:
test_f, predicts = test(test_model, test_sample_x, test_sample_y,
test_arg_dict, 'Test')
if flag:
best_test_f = test_f
flag = False
output_results(
test_corpus, te_prds, arg_dict, predicts, argv.train_dir +
'Test-result.layer%d.batch%d.hidden%d.opt-%s.reg-%f.epoch%d.txt'
% (argv.layer, argv.batch, argv.hidden, argv.opt, argv.reg,
epoch))
if argv.dev_data:
print '\t### Best Test F Score: %f Epoch: %d ###' % (
best_test_f, best_epoch + 1)
testing_data = readData("KBQA_data/sq_relations/test.replace_ne.withpool",
False)
print "Start to read validation data"
valid_data = readData("KBQA_data/sq_relations/valid.replace_ne.withpool",
False)
print "\n"
print "start to get word dictionary for questions and relations"
question_words = wordStatForQuestion(training_data)
relation_words = wordStatForRelation(relation_list_seg,
relation_list_seg_all, training_data)
print "\n"
print "Start to convert data to vectors..."
training_data_conv = convert_data(question_words, relation_words,
relation_list_seg, relation_list_seg_all,
training_data)
print "\nThere are", len(training_data_conv), "in the training data"
testing_data_conv = convert_data(question_words, relation_words,
relation_list_seg, relation_list_seg_all,
testing_data)
print "\nThere are", len(testing_data_conv), "in the testing data"
valid_data_conv = convert_data(question_words, relation_words,
relation_list_seg, relation_list_seg_all,
valid_data)
print "\nThere are", len(valid_data_conv), "in the valid data"
print "\n"
print "Start to calculate the max length for sequence length..."
max_length_dict = data_static(training_data_conv, testing_data_conv,
valid_data_conv)
