def create_batches(sentences,
src2dst_dict,
text_processor: TextProcessor,
resume_index=0,
end_index=-1):
print(len(src2dst_dict))
print("Getting batches...")
index = 0
for sid in src2dst_dict.keys():
index += 1
if index >= end_index and end_index > 0:
break
if index <= resume_index:
continue
tids = list(src2dst_dict[sid])
source_tokenized = torch.LongTensor(tok_sen(sentences[sid]))
trans_cands = list(
map(lambda i: torch.LongTensor(tok_sen(sentences[i])), tids))
candidates = pad_sequence(trans_cands,
batch_first=True,
padding_value=text_processor.pad_token_id())
target_langs = list(
map(
lambda i: text_processor.lang_id(sentences[i].strip().split(
" ")[0]), tids))
src_lang = torch.LongTensor(
[text_processor.lang_id(sentences[sid].strip().split(" ")[0])])
yield sid, source_tokenized, torch.LongTensor(
tids), candidates, src_lang, torch.LongTensor(target_langs)
def test_data(self):
path_dir_name = os.path.dirname(os.path.realpath(__file__))
data_path = os.path.join(path_dir_name, "sample.txt")
with tempfile.TemporaryDirectory() as tmpdirname:
processor = TextProcessor()
processor.train_tokenizer([data_path],
vocab_size=1000,
to_save_dir=tmpdirname,
languages={
"<mzn>": 0,
"<glk": 1
})
create_batches.write(text_processor=processor,
cache_dir=tmpdirname,
seq_len=512,
txt_file=data_path,
sen_block_size=10)
dataset = TextDataset(save_cache_dir=tmpdirname, max_cache_size=3)
assert dataset.line_num == 70
dataset.__getitem__(3)
assert len(dataset.current_cache) == 3
dataset.__getitem__(9)
assert len(dataset.current_cache) == 3
dataset.__getitem__(69)
assert len(dataset.current_cache) == 2
def __init__(self,
text_processor: TextProcessor,
config: BertConfig = None,
encoder: BertModel = None,
enc_layer: int = 6,
embed_dim: int = 768,
intermediate_dim: int = 3072):
super(LM, self).__init__()
self.text_processor: TextProcessor = text_processor
if config is not None:
self.config = config
else:
self.config = lm_config.get_config(
vocab_size=text_processor.tokenizer.get_vocab_size(),
pad_token_id=text_processor.pad_token_id(),
bos_token_id=text_processor.bos_token_id(),
eos_token_id=text_processor.sep_token_id(),
enc_layer=enc_layer,
embed_dim=embed_dim,
intermediate_dim=intermediate_dim)
self.config["type_vocab_size"] = len(text_processor.languages)
self.config = BertConfig(**self.config)
self.masked_lm = BertOutputLayer(self.config)
if encoder is None:
self.encoder: BertModel = BertModel(self.config)
self.encoder.init_weights()
else:
self.encoder = encoder
self.encoder._tie_or_clone_weights(
self.masked_lm.decoder, self.encoder.embeddings.word_embeddings)
def mask_text(mask_prob, pads, texts, text_processor: TextProcessor, mask_eos: bool = True):
assert 0 < mask_prob < 1
mask = torch.empty(texts.size()).uniform_(0, 1) < mask_prob
mask[~pads] = False # We should not mask pads.
if not mask_eos:
eos_idx = texts == text_processor.sep_token_id()
mask[eos_idx] = False # We should not mask end-of-sentence (usually in case of BART training).
masked_ids = texts[mask]
random_index = lambda: random.randint(len(text_processor.special_tokens), text_processor.vocab_size() - 1)
rand_select = lambda r, c: text_processor.mask_token_id() if r < 0.8 else (
random_index() if r < 0.9 else int(masked_ids[c]))
replacements = list(map(lambda i: rand_select(random.random(), i), range(masked_ids.size(0))))
texts[mask] = torch.LongTensor(replacements)
return mask, masked_ids, texts
def createSecondDataset(self, datasetFileName="df2.tsv"):
# the text processor object is initialized
self.tp = TextProcessor()
# the term encoding is built
self.tp.buildEncoding("encoding.pickle")
# the term frequency dictionary is built
self.tp.buildTf(fileName='tf.pickle')
# the function which build the tfidf, still not normalized, is invoked
self._createtfidf()
# the function which computes the euclidean norm of the description in the house ad collection
self._computeEuclideanNorm()
# this function creates the tfidf dictionary but normalized
self._createNormalizedtfidf()
# the dataframe is created
pd.DataFrame.from_dict(data=self.tfidf_normalized,
columns=range(1, self.tp.VOCABULARY_SIZE + 1),
orient='index').to_csv(datasetFileName,
sep='\t')
def test_albert_init(self):
path_dir_name = os.path.dirname(os.path.realpath(__file__))
data_path = os.path.join(path_dir_name, "sample.txt")
with tempfile.TemporaryDirectory() as tmpdirname:
processor = TextProcessor()
processor.train_tokenizer([data_path],
vocab_size=1000,
to_save_dir=tmpdirname,
languages={"<en>": 0})
lm = LM(text_processor=processor)
assert lm.encoder.base_model.embeddings.word_embeddings.num_embeddings == 1000
lm.save(tmpdirname)
new_lm = LM.load(tmpdirname)
assert new_lm.config == lm.config
def write(text_processor: TextProcessor,
output_file: str,
txt_file: str,
output_txt: bool = False):
with open(txt_file, "r") as fp, open(output_file, "w") as writer:
for line in fp:
if len(line.strip()) == 0 or len(line.strip()) == 0: continue
tok_line = text_processor.tokenize_one_line(line.strip(),
ignore_middle_eos=True)
if output_txt:
tokenized = [text_processor.id2token(tok)
for tok in tok_line][1:-1]
tokenized = list(
map(lambda tok: tok
if tok != "<unk>" else "unk", tokenized))
else:
tokenized = [str(tok) for tok in tok_line]
writer.write(" ".join(tokenized) + "\n")
def write(text_processor: TextProcessor, output_file: str, input_file: str,
max_len: int, sample_size: int):
with open(input_file, "r") as r:
obj = json.load(r)
annotations = obj["annotations"]
captions = list(
map(lambda annotation: caption_data(annotation), annotations))
print(len(captions))
skipped_long_sens = 0
image_path_dict, unique_images = dict(), dict()
tok_captions = {}
image_ids = {}
for ci, c in enumerate(captions):
if ci % 1000 == 0:
print(ci,
"/",
len(captions),
"->",
len(tok_captions),
len(unique_images),
end="\r")
tok_sen = text_processor.tokenize_one_sentence(c[1])
if len(tok_sen) > max_len:
skipped_long_sens += 1
continue
path = c[0]
if path not in image_path_dict:
image_id = len(unique_images)
unique_images[image_id] = path
image_path_dict[path] = image_id
elif path in image_path_dict:
image_id = image_path_dict[path]
unique_images[image_id] = path
caption_id = len(tok_captions)
tok_captions[caption_id] = tok_sen
image_ids[caption_id] = image_id
if (ci + 1) >= sample_size and sample_size > 0:
break
print("Skipped long sentences:", skipped_long_sens, "from", len(captions))
tok_captions_sorted = sorted(tok_captions.items(),
key=lambda item: len(item[1]))
caption_sorted = list(
map(lambda e: (image_ids[e[0]], e[1]), tok_captions_sorted))
print("Longest sentence", len(tok_captions_sorted[-1][1]))
with open(output_file, "wb") as wfp:
marshal.dump((unique_images, caption_sorted), wfp)
print("Dumped", len(caption_sorted), "captions from", len(unique_images),
"unique images")
def write(text_processor: TextProcessor, output_file: str, input_file: str, max_len: int, sample_size: int, lang):
eos = "</s>"
if lang is not None:
lang = "<" + lang + ">"
skipped_long_sens = 0
image_path_dict, unique_images = dict(), dict()
tok_captions = {}
image_ids = {}
with open(input_file, "r") as r:
for ci, line in enumerate(r):
try:
path, caption = line.strip().split("\t")
if lang is not None and not caption.startswith(lang):
caption = " ".join([lang, caption, eos])
tok_sen = text_processor.tokenize_one_sentence(caption)
if len(tok_sen) > max_len:
skipped_long_sens += 1
continue
if "." not in path: # Does not have extension; will add jpg.
if os.path.exists(path + ".jpg"):
path = path + ".jpg"
elif os.path.exists(path + ".jpeg"):
path = path + ".jpeg"
elif os.path.exists(path + ".JPG"):
path = path + ".JPG"
elif os.path.exists(path + ".png"):
path = path + ".png"
elif os.path.exists(path + ".PNG"):
path = path + ".PNG"
if path not in image_path_dict:
image_id = len(unique_images)
unique_images[image_id] = path
image_path_dict[path] = image_id
elif path in image_path_dict:
image_id = image_path_dict[path]
unique_images[image_id] = path
caption_id = len(tok_captions)
tok_captions[caption_id] = tok_sen
image_ids[caption_id] = image_id
if (ci + 1) >= sample_size and sample_size > 0:
break
except:
print(line.strip())
print("Skipped long sentences:", skipped_long_sens)
tok_captions_sorted = sorted(tok_captions.items(), key=lambda item: len(item[1]))
caption_sorted = list(map(lambda e: (image_ids[e[0]], e[1]), tok_captions_sorted))
print("Longest sentence", len(tok_captions_sorted[-1][1]))
with open(output_file, "wb") as wfp:
marshal.dump((unique_images, caption_sorted), wfp)
print("Dumped", len(caption_sorted), "captions from", len(unique_images), "unique images")
def load(out_dir: str, tok_dir: str):
text_processor = TextProcessor(tok_model_path=tok_dir)
device = torch.device("cuda" if torch.cuda.is_available() else "cpu")
with open(os.path.join(out_dir, "mt_config"), "rb") as fp:
enc_layer, embed_dim, intermediate_dim = pickle.load(fp)
mt_model = Caption2Image(text_processor=text_processor, enc_layer=enc_layer, embed_dim=embed_dim,
intermediate_dim=intermediate_dim)
mt_model.load_state_dict(torch.load(os.path.join(out_dir, "mt_model.state_dict"), map_location=device),
strict=False)
return mt_model
def load(out_dir: str):
text_processor = TextProcessor(tok_model_path=out_dir)
with open(os.path.join(out_dir, "config"), "rb") as fp:
config = pickle.load(fp)
if isinstance(config, dict):
# For older configs
config = BertConfig(**config)
lm = LM(text_processor=text_processor, config=config)
lm.load_state_dict(
torch.load(os.path.join(out_dir, "model.state_dict")))
return lm
def __init__(self, text_processor: TextProcessor, enc_layer: int = 6, embed_dim: int = 768,
intermediate_dim: int = 3072):
super(Caption2Image, self).__init__()
self.text_processor: TextProcessor = text_processor
self.config = lm_config.get_config(vocab_size=text_processor.tokenizer.get_vocab_size(),
pad_token_id=text_processor.pad_token_id(),
bos_token_id=text_processor.bos_token_id(),
eos_token_id=text_processor.sep_token_id(),
enc_layer=enc_layer, embed_dim=embed_dim, intermediate_dim=intermediate_dim)
self.enc_layer = enc_layer
self.embed_dim = embed_dim
self.intermediate_dim = intermediate_dim
self.config["type_vocab_size"] = len(text_processor.languages)
self.config = BertConfig(**self.config)
self.encoder = BertEncoderModel(self.config)
self.encoder.init_weights()
self.input_attention = nn.Linear(self.config.hidden_size, 1)
self.decoder = nn.Linear(self.config.hidden_size, 49 * self.config.hidden_size)
def mass_mask(mask_prob, pad_indices, src_text, text_processor: TextProcessor) -> Dict:
"""
20% of times, mask from start to middle
20% of times, mask from middle to end
60% of times, mask a random index
"""
index_range = pad_indices - (1 - mask_prob) * pad_indices
src_mask = torch.zeros(src_text.size(), dtype=torch.bool)
to_recover = []
to_recover_pos = []
for i, irange in enumerate(index_range):
range_size = int(pad_indices[i] / 2)
r = random.random()
last_idx = int(math.ceil(irange))
if r > 0.8:
start = 1
elif r > 0.6:
start = last_idx
else:
start = random.randint(2, last_idx) if last_idx >= 2 else 2
end = start + range_size
src_mask[i, start:end] = True
to_recover.append(src_text[i, start - 1:end])
to_recover_pos.append(torch.arange(start - 1, end))
to_recover = pad_sequence(to_recover, batch_first=True, padding_value=text_processor.pad_token_id())
to_recover_pos = pad_sequence(to_recover_pos, batch_first=True, padding_value=int(src_text.size(-1)) - 1)
assert 0 < mask_prob < 1
masked_ids = src_text[:, 1:][src_mask[:, 1:]]
mask_idx = src_text[src_mask]
random_index = lambda: random.randint(len(text_processor.special_tokens), text_processor.vocab_size() - 1)
rand_select = lambda r, c: text_processor.mask_token_id() if r < 0.8 else (
random_index() if r < 0.9 else int(mask_idx[c]))
replacements = list(map(lambda i: rand_select(random.random(), i), range(mask_idx.size(0))))
src_text[src_mask] = torch.LongTensor(replacements)
return {"src_mask": src_mask, "targets": masked_ids, "src_text": src_text, "to_recover": to_recover,
"positions": to_recover_pos, "mask_idx": mask_idx}
def get_tokenizer(train_path: Optional[str] = None,
model_path: Optional[str] = None,
vocab_size: Optional[int] = None) -> TextProcessor:
if not os.path.exists(model_path):
os.makedirs(model_path)
print("Training Tokenizer...")
text_processor = TextProcessor()
print("Writing raw text...")
languages = set()
with open(train_path + ".tmp", "w") as wf:
with open(train_path, "r") as rf:
for i, line in enumerate(rf):
spl = [
sen.strip() for sen in line.split("</s>")
if len(sen.strip()) > 0
]
if len(spl) == 0: continue
if spl[0].startswith("<"):
sen_split = spl[0].strip().split(" ")
spl[0] = " ".join(sen_split[1:])
languages.add(sen_split[0])
wf.write("\n".join(spl))
wf.write("\n")
if (i + 1) % 1000000 == 0:
print(i + 1, "\r", end="")
print("Writing raw text done!")
print(" ".join(languages))
text_processor.train_tokenizer(
paths=[train_path + ".tmp"],
vocab_size=vocab_size,
to_save_dir=model_path,
languages={l: i
for i, l in enumerate(sorted(languages))})
print("Removing temporary file!")
os.system("rm " + train_path + ".tmp &")
print("done!")
def load(cls, out_dir: str, tok_dir: str, use_obj: bool = False):
text_processor = TextProcessor(tok_model_path=tok_dir)
device = torch.device("cuda" if torch.cuda.is_available() else "cpu")
with open(os.path.join(out_dir, "mt_config"), "rb") as fp:
lang_dec, use_proposals, enc_layer, dec_layer, embed_dim, intermediate_dim, tie_embed, resnet_depth, freeze_image = pickle.load(
fp)
mt_model = cls(text_processor=text_processor, lang_dec=lang_dec, use_proposals=use_proposals,
tie_embed=tie_embed, enc_layer=enc_layer, dec_layer=dec_layer, embed_dim=embed_dim,
intermediate_dim=intermediate_dim, freeze_image=freeze_image, resnet_depth=resnet_depth,
use_obj=use_obj)
mt_model.load_state_dict(torch.load(os.path.join(out_dir, "mt_model.state_dict"), map_location=device),
strict=False)
return mt_model
def test_train_tokenizer(self):
path_dir_name = os.path.dirname(os.path.realpath(__file__))
data_path = os.path.join(path_dir_name, "sample.txt")
with tempfile.TemporaryDirectory() as tmpdirname:
processor = TextProcessor()
processor.train_tokenizer([data_path],
vocab_size=1000,
to_save_dir=tmpdirname,
languages={"<en>": 0})
assert processor.tokenizer.get_vocab_size() == 1000
sen1 = "Obama signed many landmark bills into law during his first two years in office."
assert processor._tokenize(sen1) is not None
many_sens = "\n".join([sen1] * 10)
assert len(processor.tokenize(many_sens)) == 10
new_prcoessor = TextProcessor(tok_model_path=tmpdirname)
assert new_prcoessor.tokenizer.get_vocab_size() == 1000
sen2 = "Obama signed many landmark bills into law during his first two years in office."
assert processor._tokenize(sen2) is not None
def load_raw_data(self):
textprocessor = TextProcessor(self.in_dir, self.dictionary_file,
self.hashtag_file)
textprocessor.load_dictioanry()
textprocessor.load_hashtag()
dat = pd.read_csv(self.in_dir + '/' + self.input_file, header=None)
dat.columns = ['tweet', 'hashtag']
# n = len(dat)
# nlist = range(0,n)
dat['id'] = None
dat = dat[['id', 'tweet', 'hashtag']]
total = ['id', 'tweet', 'hashtag']
total = total + list(textprocessor.hashtag)
dat = dat.reindex(columns=list(total), fill_value=0)
dat['tweet'] = dat['tweet'].apply(textprocessor.cleanup)
dat['tweet'] = dat['tweet'].apply(textprocessor.informal_norm)
dat['hashtag'] = dat['hashtag'].apply(textprocessor.del_hashtag)
dat = dat.drop(
dat[dat['hashtag'].map(len) < 1].index).reset_index(drop=True)
dat['tweet'] = dat['tweet'].apply(textprocessor.drop_tweet)
dat = dat.drop(
dat[dat['tweet'].map(len) < 1].index).reset_index(drop=True)
n = len(dat)
nlist = range(0, n)
dat['id'] = nlist
# assign label
for i in range(len(dat['hashtag'])):
tmp_list = dat['hashtag'][i].split(",")
for j in range(len(tmp_list)):
tmp_list[j] = tmp_list[j].replace(' ', '')
dat[tmp_list[j]][i] = 1
return dat.drop(columns=['hashtag'])
def __init__(self):
self.textprocessor = TextProcessor()
self.low_weight = 0.001
self.missclick_weight = 0.1
self.insert_weight = 0.1
self.delete_weight = 0.1
target_langs = list(
map(
lambda i: text_processor.lang_id(sentences[i].strip().split(
" ")[0]), tids))
src_lang = torch.LongTensor(
[text_processor.lang_id(sentences[sid].strip().split(" ")[0])])
yield sid, source_tokenized, torch.LongTensor(
tids), candidates, src_lang, torch.LongTensor(target_langs)
if __name__ == "__main__":
parser = get_option_parser()
(options, args) = parser.parse_args()
print("Loading text processor...")
text_processor = TextProcessor(options.tokenizer_path)
num_processors = max(torch.cuda.device_count(), 1)
print("Loading model...")
model = Seq2Seq.load(Seq2Seq,
options.model,
tok_dir=options.tokenizer_path)
device = torch.device("cuda" if torch.cuda.is_available() else "cpu")
model = model.to(device)
num_gpu = torch.cuda.device_count()
assert num_gpu <= 1
if options.fp16:
model = amp.initialize(model, opt_level="O2")
max_capacity = options.total_capacity * 1000000
def train(options):
lex_dict = None
if options.dict_path is not None:
lex_dict = get_lex_dict(options.dict_path)
if not os.path.exists(options.model_path):
os.makedirs(options.model_path)
text_processor = TextProcessor(options.tokenizer_path)
assert text_processor.pad_token_id() == 0
image_captioner = Seq2Seq.load(ImageCaptioning,
options.pretrained_path,
tok_dir=options.tokenizer_path)
txt2ImageModel = Caption2Image(
text_processor=text_processor,
enc_layer=options.encoder_layer,
embed_dim=options.embed_dim,
intermediate_dim=options.intermediate_layer_dim)
print("Model initialization done!")
# We assume that the collator function returns a list with the size of number of gpus (in case of cpus,
collator = dataset.ImageTextCollator()
num_batches = max(1, torch.cuda.device_count())
optimizer = build_optimizer(txt2ImageModel,
options.learning_rate,
warump_steps=options.warmup)
trainer = Caption2ImageTrainer(
model=txt2ImageModel,
caption_model=image_captioner,
mask_prob=options.mask_prob,
optimizer=optimizer,
clip=options.clip,
beam_width=options.beam_width,
max_len_a=options.max_len_a,
max_len_b=options.max_len_b,
len_penalty_ratio=options.len_penalty_ratio,
fp16=options.fp16,
mm_mode=options.mm_mode)
pin_memory = torch.cuda.is_available()
img_train_loader = ImageMTTrainer.get_img_loader(
collator,
dataset.ImageCaptionDatasetwNegSamples,
options.train_path,
txt2ImageModel,
num_batches,
options,
pin_memory,
lex_dict=lex_dict)
img_dev_loader = ImageMTTrainer.get_img_loader(
collator,
dataset.ImageCaptionDatasetwNegSamples,
options.dev_path,
txt2ImageModel,
num_batches,
options,
pin_memory,
lex_dict=lex_dict,
shuffle=False,
denom=2)
step, train_epoch = 0, 1
while options.step > 0 and step < options.step:
print("train epoch", train_epoch)
step = trainer.train_epoch(img_data_iter=img_train_loader,
img_dev_data_iter=img_dev_loader,
max_step=options.step,
lex_dict=lex_dict,
saving_path=options.model_path,
step=step)
train_epoch += 1
def train(options):
if not os.path.exists(options.model_path):
os.makedirs(options.model_path)
text_processor = TextProcessor(options.tokenizer_path)
lm_class = ReformerLM if options.reformer else LM
if options.pretrained_path is None:
lm = lm_class(text_processor=text_processor,
size=options.model_size)
else:
lm = lm_class.load(options.pretrained_path)
if options.reformer:
lm.config.hidden_dropout_prob = options.dropout
lm.config.local_attention_probs_dropout_prob = options.dropout
lm.config.lsh_attention_probs_dropout_prob = options.dropout
else:
LMTrainer.config_dropout(lm, options.dropout)
train_data = dataset.TextDataset(save_cache_dir=options.train_path,
max_cache_size=options.cache_size)
dev_data = dataset.TextDataset(save_cache_dir=options.dev_path,
max_cache_size=options.cache_size,
load_all=True)
if options.continue_train:
with open(os.path.join(options.pretrained_path, "optim"),
"rb") as fp:
optimizer = pickle.load(fp)
else:
optimizer = build_optimizer(lm, options.learning_rate,
options.warmup)
trainer = LMTrainer(model=lm,
mask_prob=options.mask_prob,
optimizer=optimizer,
clip=options.clip)
collator = dataset.TextCollator(pad_idx=text_processor.pad_token_id())
train_sampler, dev_sampler = None, None
pin_memory = torch.cuda.is_available()
loader = data_utils.DataLoader(train_data,
batch_size=options.batch,
shuffle=False,
pin_memory=pin_memory,
collate_fn=collator,
sampler=train_sampler)
dev_loader = data_utils.DataLoader(dev_data,
batch_size=options.batch,
shuffle=False,
pin_memory=pin_memory,
collate_fn=collator,
sampler=dev_sampler)
step, train_epoch = 0, 1
while step <= options.step:
print("train epoch", train_epoch)
step = trainer.train_epoch(data_iter=loader,
dev_data_iter=dev_loader,
saving_path=options.model_path,
step=step)
def __init__(self,
root_img_dir: str,
data_bin_file: str,
max_capacity: int,
text_processor: TextProcessor,
max_img_per_batch: int,
lex_dict=None,
ngpu=1,
use_neg_samples: bool = False):
self.ngpu = ngpu
self.lex_dict = lex_dict
self.size_transform = transforms.Resize(256)
self.crop = transforms.CenterCrop(224)
self.to_tensor = transforms.ToTensor()
self.img_normalize = transforms.Normalize(mean=[0.485, 0.456, 0.406],
std=[0.229, 0.224, 0.225])
self.pad_idx = text_processor.pad_token_id()
self.batches = []
self.root_img_dir = root_img_dir
max_capacity *= 1000000
self.image_batches = []
self.lang_ids = set()
self.all_captions = []
self.use_neg_samples = use_neg_samples
print("Start", datetime.datetime.now())
cur_batch, cur_imgs, cur_lex_cand_batch = [], [], []
cur_max_len = 0
with open(data_bin_file, "rb") as fp:
self.unique_images, captions = marshal.load(fp)
lang_id = text_processor.id2token(captions[0][1][0])
self.lang_ids.add(int(captions[0][1][0]))
self.lang = text_processor.languages[
lang_id] if lang_id in text_processor.languages else 0
for caption_info in captions:
image_id, caption = caption_info
if self.unique_images[image_id].lower().endswith(".png"):
continue
caption = torch.LongTensor(caption)
cur_batch.append(caption)
self.all_captions.append(caption)
if self.lex_dict is not None:
lex_cands = get_lex_suggestions(
self.lex_dict, caption, text_processor.pad_token_id())
cur_lex_cand_batch.append(lex_cands)
cur_imgs.append(image_id)
cur_max_len = max(cur_max_len, len(caption))
batch_capacity_size = 2 * (cur_max_len**3) * len(cur_batch)
if (len(cur_imgs) > max_img_per_batch
or batch_capacity_size > max_capacity
) and len(
cur_batch[:-1]) >= self.ngpu and len(cur_batch) > 1:
batch_tensor = pad_sequence(cur_batch[:-1],
batch_first=True,
padding_value=self.pad_idx)
lex_cand_batch = None
if self.lex_dict is not None:
lex_cand_batch = pad_sequence(
cur_lex_cand_batch[:-1],
batch_first=True,
padding_value=self.pad_idx)
cur_lex_cand_batch = [cur_lex_cand_batch[-1]]
pads = batch_tensor != self.pad_idx
pad_indices = [int(pads.size(1)) - 1] * int(pads.size(0))
pindices = torch.nonzero(~pads)
for (r, c) in pindices:
pad_indices[r] = min(pad_indices[r], int(c))
self.batches.append(
(batch_tensor, pads, torch.LongTensor(pad_indices),
lex_cand_batch))
self.image_batches.append(cur_imgs[:-1])
cur_batch = [cur_batch[-1]]
cur_imgs = [cur_imgs[-1]]
cur_max_len = len(cur_batch[0])
if len(cur_batch) > 0:
batch_tensor = pad_sequence(cur_batch,
batch_first=True,
padding_value=self.pad_idx)
pads = batch_tensor != self.pad_idx
pad_indices = [int(pads.size(1)) - 1] * int(pads.size(0))
lex_cand_batch = None
if self.lex_dict is not None:
lex_cand_batch = pad_sequence(cur_lex_cand_batch,
batch_first=True,
padding_value=self.pad_idx)
pindices = torch.nonzero(~pads)
for (r, c) in pindices:
pad_indices[r] = min(pad_indices[r], int(c))
self.batches.append(
(batch_tensor, pads, torch.LongTensor(pad_indices),
lex_cand_batch))
self.image_batches.append(cur_imgs)
print(
"Loaded %d image batches of %d unique images and %d all captions!"
% (len(self.batches), len(
self.unique_images), len(self.all_captions)))
print("End", datetime.datetime.now())
dest="output_file",
help="Output pickle file.",
metavar="FILE",
default=None)
parser.add_option("--tok",
dest="tokenizer_path",
help="Path to the tokenizer folder",
metavar="FILE",
default=None)
parser.add_option("--max-len",
dest="max_len",
help="Maximum tokenized caption length",
type="int",
default=256)
parser.add_option("--sample", dest="sample_size", type="int", default=-1)
(options, args) = parser.parse_args()
return options
if __name__ == "__main__":
options = get_options()
tokenizer = TextProcessor(options.tokenizer_path)
print("Writing batches")
write(text_processor=tokenizer,
output_file=options.output_file,
input_file=options.file,
max_len=options.max_len,
sample_size=options.sample_size)
print("Finished")
def __init__(self, text_processor: TextProcessor, lang_dec: bool = True, use_proposals=False, tie_embed=False,
enc_layer: int = 6, dec_layer: int = 3, embed_dim: int = 768, intermediate_dim: int = 3072,
freeze_image: bool = False, resnet_depth: int = 1, use_obj: bool=False):
super(Seq2Seq, self).__init__()
self.text_processor: TextProcessor = text_processor
self.config = lm_config.get_config(vocab_size=text_processor.tokenizer.get_vocab_size(),
pad_token_id=text_processor.pad_token_id(),
bos_token_id=text_processor.bos_token_id(),
eos_token_id=text_processor.sep_token_id(),
enc_layer=enc_layer, embed_dim=embed_dim, intermediate_dim=intermediate_dim)
self.enc_layer = enc_layer
self.dec_layer = dec_layer
self.embed_dim = embed_dim
self.intermediate_dim = intermediate_dim
self.config["type_vocab_size"] = len(text_processor.languages)
self.config = BertConfig(**self.config)
dec_config = copy.deepcopy(self.config)
dec_config.num_hidden_layers = self.dec_layer
self.encoder = BertEncoderModel(self.config)
self.encoder.init_weights()
self.lang_dec = lang_dec
self.tie_embed = tie_embed
if not lang_dec:
self.decoder = BertDecoderModel(dec_config)
self.encoder._tie_or_clone_weights(self.encoder.embeddings.position_embeddings,
self.decoder.embeddings.position_embeddings)
self.encoder._tie_or_clone_weights(self.encoder.embeddings.token_type_embeddings,
self.decoder.embeddings.token_type_embeddings)
self.encoder._tie_or_clone_weights(self.encoder.embeddings.word_embeddings,
self.decoder.embeddings.word_embeddings)
if tie_embed:
self.output_layer = BertOutputLayer(dec_config)
self.encoder._tie_or_clone_weights(self.output_layer, self.encoder.embeddings.word_embeddings)
self.encoder._tie_or_clone_weights(self.encoder.embeddings.position_embeddings,
self.decoder.embeddings.position_embeddings)
self.decoder._tie_or_clone_weights(self.output_layer, self.decoder.embeddings.word_embeddings)
else:
self.output_layer = nn.ModuleList([BertOutputLayer(dec_config) for _ in text_processor.languages])
if len(self.encoder.encoder.layer) == len(self.decoder.decoder.layer):
for i in range(len(self.encoder.encoder.layer)):
self.decoder.decoder.layer[i].attention = self.encoder.encoder.layer[i].attention
else:
dec = BertDecoderModel(dec_config)
self.decoder = nn.ModuleList([copy.deepcopy(dec) for _ in text_processor.languages])
self.output_layer = nn.ModuleList([BertOutputLayer(dec_config) for _ in text_processor.languages])
for i, dec in enumerate(self.decoder):
if tie_embed:
self.encoder._tie_or_clone_weights(self.output_layer[i], self.encoder.embeddings.word_embeddings)
dec.embeddings.position_embeddings = self.encoder.embeddings.position_embeddings
dec._tie_or_clone_weights(self.output_layer[i], dec.embeddings.word_embeddings)
dec._tie_or_clone_weights(self.encoder.embeddings.token_type_embeddings,
dec.embeddings.token_type_embeddings)
self.use_proposals = use_proposals
if self.use_proposals:
self.proposal_embedding = self.encoder.embeddings.word_embeddings
self.lexical_gate = nn.Parameter(torch.zeros(1, self.config.hidden_size).fill_(0.1), requires_grad=True)
self.lexical_layer_norm = nn.LayerNorm(self.config.hidden_size, eps=self.config.layer_norm_eps)
self.freeze_image = freeze_image
self.resnet_depth = resnet_depth
def test_albert_seq2seq_init(self):
path_dir_name = os.path.dirname(os.path.realpath(__file__))
data_path = os.path.join(path_dir_name, "sample.txt")
with tempfile.TemporaryDirectory() as tmpdirname:
processor = TextProcessor()
processor.train_tokenizer([data_path],
vocab_size=1000,
to_save_dir=tmpdirname,
languages={
"<en>": 0,
"<fa>": 1
})
seq2seq = Seq2Seq(text_processor=processor)
src_inputs = torch.tensor([[
1, 2, 3, 4, 5,
processor.pad_token_id(),
processor.pad_token_id()
], [1, 2, 3, 4, 5, 6, processor.pad_token_id()]])
tgt_inputs = torch.tensor(
[[6, 8, 7,
processor.pad_token_id(),
processor.pad_token_id()],
[6, 8, 7, 8, processor.pad_token_id()]])
src_mask = (src_inputs != processor.pad_token_id())
tgt_mask = (tgt_inputs != processor.pad_token_id())
src_langs = torch.tensor([[0], [0]]).squeeze()
tgt_langs = torch.tensor([[1], [1]]).squeeze()
seq_output = seq2seq(src_inputs,
tgt_inputs,
src_mask,
tgt_mask,
src_langs,
tgt_langs,
log_softmax=True)
assert list(seq_output.size()) == [5, processor.vocab_size()]
seq_output = seq2seq(src_inputs, tgt_inputs, src_mask, tgt_mask,
src_langs, tgt_langs)
assert list(seq_output.size()) == [5, processor.vocab_size()]
sorted_examples = list(map(lambda len_item: examples[len_item[0]], sorted_lens))
with open(output_file + "." + str(part_num), "wb") as fw:
marshal.dump(sorted_examples, fw)
def get_options():
global options
parser = OptionParser()
parser.add_option("--src", dest="src_data_path", help="Path to the source txt file", metavar="FILE", default=None)
parser.add_option("--dst", dest="dst_data_path", help="Path to the target txt file", metavar="FILE", default=None)
parser.add_option("--output", dest="output_path", help="Output marshal file ", metavar="FILE", default=None)
parser.add_option("--tok", dest="tokenizer_path", help="Path to the tokenizer folder", metavar="FILE", default=None)
parser.add_option("--max_seq_len", dest="max_seq_len", help="Max sequence length", type="int", default=175)
parser.add_option("--min_seq_len", dest="min_seq_len", help="Max sequence length", type="int", default=1)
parser.add_option("--src-lang", dest="src_lang", type="str", default=None)
parser.add_option("--dst-lang", dest="dst_lang", type="str", default=None)
(options, args) = parser.parse_args()
return options
if __name__ == "__main__":
options = get_options()
tokenizer = TextProcessor(options.tokenizer_path)
print(datetime.datetime.now(), "Writing batches")
src_lang = tokenizer.token_id("<" + options.src_lang + ">")
dst_lang = tokenizer.token_id("<" + options.dst_lang + ">") if options.dst_lang is not None else None
write(text_processor=tokenizer, output_file=options.output_path, src_txt_file=options.src_data_path,
dst_txt_file=options.dst_data_path, src_lang=src_lang, dst_lang=dst_lang)
print(datetime.datetime.now(), "Finished")
def write(text_processor: TextProcessor, output_file: str, src_txt_file: str, src_lang: int,
dst_txt_file: str = None, dst_lang: int = None, min_len: int = 1, max_len: int = 175):
examples = {}
line_num = 0
src_lang_str = text_processor.languages[text_processor.id2token(src_lang)]
lens = {}
if dst_txt_file is not None:
dst_lang_str = text_processor.languages[text_processor.id2token(dst_lang)]
with open(src_txt_file, "r") as s_fp, open(dst_txt_file, "r") as d_fp:
for src_line, dst_line in zip(s_fp, d_fp):
if len(src_line.strip()) == 0 or len(dst_line.strip()) == 0: continue
src_tok_line = text_processor.tokenize_one_sentence_with_langid(src_line.strip(), src_lang)
dst_tok_line = text_processor.tokenize_one_sentence_with_langid(dst_line.strip(), dst_lang)
if min_len <= len(src_tok_line) <= max_len and min_len <= len(dst_tok_line) <= max_len:
examples[line_num] = (src_tok_line, dst_tok_line, src_lang_str, dst_lang_str)
lens[line_num] = len(dst_tok_line)
line_num += 1
if line_num % 1000 == 0:
print(line_num, end="\r")
print("\nSorting")
sorted_lens = sorted(lens.items(), key=lambda item: item[1])
sorted_examples = []
print("Sorted examples")
for len_item in sorted_lens:
line_num = len(sorted_examples)
sorted_examples.append(examples[len_item[0]])
print("Dumping")
with open(output_file, "wb") as fw:
marshal.dump(sorted_examples, fw)
else:
part_num = 0
# Used for MASS training where we only have source sentences.
with open(src_txt_file, "r") as s_fp:
for src_line in s_fp:
if len(src_line.strip()) == 0: continue
src_tok_line = text_processor.tokenize_one_sentence_with_langid(src_line.strip(), src_lang)
if min_len <= len(src_tok_line) <= max_len:
examples[line_num] = (src_tok_line, src_lang_str)
lens[line_num] = len(src_tok_line)
line_num += 1
if line_num % 1000 == 0:
print(line_num, "\r", end="")
if len(examples) >= 6000000:
print(datetime.datetime.now(), "Sorting and writing", part_num)
sorted_lens = sorted(lens.items(), key=lambda item: item[1])
sorted_examples = list(map(lambda len_item: examples[len_item[0]], sorted_lens))
with open(output_file + "." + str(part_num), "wb") as fw:
marshal.dump(sorted_examples, fw)
examples = {}
lens = {}
part_num += 1
if len(examples) > 0:
print(datetime.datetime.now(), "Sorting and writing", part_num)
sorted_lens = sorted(lens.items(), key=lambda item: item[1])
sorted_examples = list(map(lambda len_item: examples[len_item[0]], sorted_lens))
with open(output_file + "." + str(part_num), "wb") as fw:
marshal.dump(sorted_examples, fw)
class HtmlProcessor:
def __init__(self, directory="./htmls/", MAX_DOCUMENTS=10000):
# directory where all the .html file are stored
self.directory = directory
# this variable is the number of ads needed to perform the analysis
self.MAX_DOCUMENTS = MAX_DOCUMENTS
# this variable will contain the text processor object needed to extract info
# by the descriptions of the house advertisements
self.tp = None
# the tfidf dictionary that will contain each tfidf value is initalized
self.tfidf = {}
# this variable will contain the euclidean of each document(description) in the corpus(collection of ads)
self.euclidean_norm = {}
# this variable contains the tfidf values but normalized such that the tfidf vector
# of each document has a unit euclidean norm.
self.tfidf_normalized = {}
def createFirstDataset(self):
# variable useful to keep track of the index of each house ad
ad_index = 0
# fields contained into the JSON value and that are interest for the purposes of the assignment
fields = ['locali', 'bagni', 'prezzo', 'superficie']
# lists that will contain the values of each column of the dataframe
price = []
locali = []
superficie = []
bagni = []
piano = []
allFeatures = [price, locali, superficie, bagni, piano]
# this list will contain the index of the dataframe
indexes = []
# start a row sample with the fields set to 0
row_sample = dict.fromkeys(fields, 0)
# this variable will contains the sample for the 'piano' variable
piano_sample = None
# name of the attribute that contains the piano value
attribute_name_piano = 'title'
# for each html file
for filePath in tqdm(listdir(self.directory)):
if (ad_index >= self.MAX_DOCUMENTS):
break
with open(self.directory + filePath, "r") as filereader:
html = filereader.read()
# Initialize the BeautifulSoup parser
soup = BeautifulSoup(html, 'html.parser')
# find the json document where most of the features are contained
jsonFile = soup.find(id='js-hydration').text.strip()
# extract a python dictionary value from the JSON value
metadata = json.loads(jsonFile)
# toCheck is an auxiliary variable to control the flow
# in fact since there are more than one loop, it is not possible
# to use only the 'continue' statement to manage the flow.
# the var/flag @toCheck is True, at the beginning, and if something bad happens
# its state is changed to False and, once the code is back into the main loop,
# the 'continue' statement is involved
toCheck = True
for field in fields:
# if one of the fields is not present then it is a 'bad' house ad
# Three checks are performed:
# 1- if the current @field is not present in the @metadata dictionary
# then the house ad is not good and so the flag @toCheck is uploaded
# 2- check if the flag @toCheck is already false and sequently 'break' the loop
# 3- If the JSON value is None then the features of interest aren't present
# and the loop must be broken.
if field not in metadata or not toCheck or metadata[
field] is None:
toCheck = False
break
# now I am sure that the field is present
# Three checks are performed:
# 1- The '+'(plus) char in the string. This is due to the fact that sometimes
# the exact info about how many 'locali' or 'bagni' isn't present, so the advertiser
# put at the end of the number a plus sign(so '5+' means 5,6,7,...,N locali)
# 2- The '-' character is present when the advertiser want to put a range of values
# for instance an house price could be '180.000-300.000', it means from 180k to 300k
# 3- The 'da' string means literally 'from' and it means that the advertiser wants to put
# a lower limit to one of the features.
# All 3 cases need to be avoided because the assignment requires a unique value
# for every feature.
if not ('+' in metadata[field] or '-' in metadata[field]
or 'da' in metadata[field]):
# split the value
tmp = metadata[field].split(' ')
# the flag state is put to False
toCheck = False
for string in tmp:
# on the string is invoked a replace of the '€' and '.' character
# because of the encoding the advertiser use for the price
if (string.replace('.', '').replace('€',
'').isdigit()):
# if the string is a digit then the flag can be newly be
# assigned to True
toCheck = True
row_sample[field] = int(
string.replace('.', '').replace('€', ''))
else:
# if one of the previous condition is encountered then it is not possible
# to include the house ad to the collection for the sequent analysis
toCheck = False
break
# at this point, the code flow is back into the main loop and if the flag is not True
# then a 'continue' statement is invoked
if not toCheck:
continue
# now it remains to extract the piano, the description and the link
# extracting piano field
piano_abbr = soup.find('abbr',
attrs={'class': 'text-bold im-abbr'})
# if the tag where the 'piano' value can be found it is not present in the html
# or the tag doesn't have the attribute with the 'piano' value, then the house ad
# must be discarded
if (not piano_abbr is None
) and attribute_name_piano in piano_abbr.attrs:
# if the piano is 'terra'(T),'rialzato'(R) or 'seminterrato'(S)
# the piano field is set to 1.
if piano_abbr.attrs[attribute_name_piano] in {
'T', 'R', 'S', 'Piano terra'
}:
piano_sample = 1
elif piano_abbr.attrs[attribute_name_piano].isdigit():
piano_sample = int(piano_abbr.attrs[attribute_name_piano])
else:
continue
else:
# the ad doesn't contain the piano info therefore it is a 'bad' ad
continue
# extracting description
description_div = soup.find(
'div',
attrs={'class': 'col-xs-12 description-text text-compressed'})
# if the tag where the description is contained it is not present in the html file
# then the house ad must be discarded
if (description_div is None):
continue
# extract the link
link_tag = soup.find('link', attrs={'rel': 'canonical'})
# if the tag where the link is contained it is not present in the html file
# then the house ad must be discarded
if not 'href' in link_tag.attrs:
continue
# At this point of the code flow, it is possible to say surely that the house ad
# can be included in the collection for the sequent analysis.
#
# open a file and store the description
# save the description on a textfile
with open("./descriptions/descriptionAD#" + str(ad_index) + ".txt",
"w") as text_file:
text_file.write(description_div.text.strip())
# retrieve the link value in the 'href' attribute of the tag
adLink = link_tag.attrs['href']
# upload the value of the ad_index
ad_index += 1
# Now it's possible to appreciate the use of additional variables for the fields of interest
# they are useful because if each variable is appended to the list immediately
# then anytime an issue involves(every time a "break" or "continue" statement appears)
# it is needed to pop the element from the list.
# Instead, with the use of auxiliary variable it is possible to first assign it
# and then append all of them at the end, when we are sure no issues are present
# for that specific house ad.
indexes.append(adLink)
price.append(row_sample['prezzo'])
locali.append(row_sample['locali'])
superficie.append(row_sample['superficie'])
bagni.append(row_sample['bagni'])
piano.append(piano_sample)
# columns of the dataframe
columnsDf = ["price", "locali", "superficie", "bagni", "piano"]
# initialize the dataframe to be stored on the filesystem
toReturn = pd.DataFrame()
# iterate over each column of the dataframe to be returned
# and assign the column to the corresponding list of values
for i in range(len(columnsDf)):
# assign the list of values to the specific column
toReturn[columnsDf[i]] = allFeatures[i]
# upload the indexes
toReturn.index = indexes
# save the dataframe on the filesystem
toReturn.to_csv('dataframe1.tsv', sep='\t')
def createSecondDataset(self, datasetFileName="df2.tsv"):
# the text processor object is initialized
self.tp = TextProcessor()
# the term encoding is built
self.tp.buildEncoding("encoding.pickle")
# the term frequency dictionary is built
self.tp.buildTf(fileName='tf.pickle')
# the function which build the tfidf, still not normalized, is invoked
self._createtfidf()
# the function which computes the euclidean norm of the description in the house ad collection
self._computeEuclideanNorm()
# this function creates the tfidf dictionary but normalized
self._createNormalizedtfidf()
# the dataframe is created
pd.DataFrame.from_dict(data=self.tfidf_normalized,
columns=range(1, self.tp.VOCABULARY_SIZE + 1),
orient='index').to_csv(datasetFileName,
sep='\t')
def _createNormalizedtfidf(self):
# now it will be created the dictionary that contains the tfidf values NORMALIZED
# so each tfidf value will be divided by the euclidean norm of the document into
# which the word is contained.
# iterating over the keys of the @tfidf dictionary.REMEMBER: this dict has as keys the
# doc indexes.
for doc_index in self.tfidf:
# at the beginning the tfidf vector will be a vector of zero
self.tfidf_normalized[doc_index] = [0] * self.tp.VOCABULARY_SIZE
# the tfidf values for that document are retrieve
tfidf_list = self.tfidf[doc_index]
# iterate over each tuple @tfidfTuple(structure: (wordId, tfidf{wordID,doc_index}))
for tfidfTuple in tfidf_list:
# this line access the tfidf vector in position @tfidfTuple[0]-1 which is the index
# of the word related and update the vector with the tfidf value divided by the euclidean
# norm of the document
self.tfidf_normalized[doc_index][tfidfTuple[0] - 1] = (
tfidfTuple[1] / self.euclidean_norm[doc_index])
# compute the euclidean norm of each document
def _computeEuclideanNorm(self):
# for each doc_index in the tfidf dictionary.
# REMEMBER: Why are you using as key of the @tfidf dictionary the doc_index?
# because in this way it will be much easier to build the final matrix
# containing the tfidf values
for doc_index in self.tfidf:
sum_of_squares = 0
# all the words contained in the document @doc_index is retrieved together with
# the related tf-idf value(both contained in the @tfidfTuple)
tfidf_list = self.tfidf[doc_index]
# iterate over each tuple @tfidfTuple(structure: (wordId, tfidf{wordID,doc_index}))
for tfidfTuple in tfidf_list:
# retrieve the tfidf value
tmp = tfidfTuple[1]
sum_of_squares += (tmp**2)
# the euclidean norm is equal to the square root of the sum of the squares of
# each component of the vector
self.euclidean_norm[doc_index] = sum_of_squares**0.5
def _createtfidf(self):
# for each word(equal to for each column in the tfidf matrix)
for word in self.tp.tf:
# df is the document frequency of the word, so the number of documents into which
# the word is contained, therefore given the structure of the @tp.tf dictionary
# the 'df' is equal to the length of the list given by tp.tf[word]
df = len(self.tp.tf[word])
# the wordID is given by the term encoding given by the dictionary @tp.term_enc
wordId = self.tp.term_enc[word]
# for each tuple contained in the list @tp.tf[word]. REMEMBER: the tuple has a length of 2.
# the first element is the doc_index and the second is the tf value
for tfTuple in self.tp.tf[word]:
# retrieve the doc_index
doc_index = int(tfTuple[0])
# retrieve the term frequency of that word in the document @doc_index
tfValue = tfTuple[1]
# calculate the idf value
idf = log(self.tp.NUMBER_OF_DOCS / df + 1)
# if the doc_index is already a key in the dictionary then the new tuple
# is only appended
if doc_index in self.tfidf:
self.tfidf[int(doc_index)].append(
(int(wordId) - 1, tfValue * idf))
# otherwise a new entry corresponding to that doc_index is added and the value
# is a list with a single element which is the tuple (wordId, tfidf{wordID,doc_index})
else:
self.tfidf[int(doc_index)] = [(int(wordId) - 1,
tfValue * idf)]
import time;
from textprocessor import TextProcessor
from bayes_classifier import BayesClassifier
form_file = 'formy'
polish_texts = ['dramat', 'popul', 'proza', 'publ', 'wp']
path_to_files = './data/'
show_simmilar = True;
num_of_simmilar = 4
if __name__ == '__main__':
textprocessor = TextProcessor()
textprocessor.create_dictionary(path_to_file = path_to_files, form_file=form_file)
textprocessor.improve_dictionary(path_to_files = path_to_files, polish_texts=polish_texts)
dict_of_words = textprocessor.dict_of_words;
input_word = input('Napisz pojedyncze slowo:\n')
start = time.time();
input_word = textprocessor.map_chars(input_word)
if not input_word in dict_of_words:
bayes_classifier = BayesClassifier()
simmilar_words = bayes_classifier.calculate(f'{input_word}', dict_of_words)
unmapped_words = []
for word in simmilar_words:
unmapped_words.append(textprocessor.unmap_words(word))
print(f'Slowo nie wystepuje w polskim jezyku.')
print(f'Moze chodzilo o \'{unmapped_words[0]}\'?')
show_hints = input('Chcesz zobaczyc inne mozliwosci? t/n\n')
if(show_hints == 't'):
print(f'Inne możliwosci {unmapped_words[1:num_of_simmilar]}\n')
else:
'sp', 'llc', 'co', 'ltd', 'tel', 'email', ' ', 'tel', 'fax', 'gmail',
'com', 'eu', 'pl', 'telfax', 'office', 'burg', 'poland'
]
fileName = "./data/pap.txt"
note_idx = 98
#https://www.datascienceassn.org/sites/default/files/users/user1/lsa_presentation_final.pdf?fbclid=IwAR3ax6JNemqmWzfau24-UwePT7isOEDP5mAE3jbCQG92dITVVwV9ZS7CYiA
if __name__ == '__main__':
start = time.time()
### PREPROCESSING
textProcessor = TextProcessor()
textProcessor.create_dictionary("data", "odm.txt")
lineWords = []
for line in open(fileName, 'r', encoding='utf-8'):
read_line = line.replace('#', '').strip('\n').strip(' ')
if not read_line.isdigit():
lineWords.append(textProcessor.preprocess(read_line))
textProcessor.create_frequency_dict(lineWords)
preprocessed = []
textProcessor.pre_process_vol_2(lineWords)
### Document-term matrix
stop_list = get_stop_list()
