def covid(countries=None):
if countries is None:
countries = [
'italy', 'uk', 'france', 'spain', 'switzerland', 'usa', 'greece',
'brazil'
]
try:
res = requests.get(f'{covid_api}/countries').json()
except (requests.exceptions.RequestException,
json.decoder.JSONDecodeError) as e:
return e
rows = list()
for i in res:
if i['country'].lower() in countries:
i['country'] = isoify(i['country'])
if i['country'] == 'Switzerland':
i['country'] = 'Suisse'
for k in i.keys():
if isinstance(i[k], int) and i[k] > 10000:
i[k] = human_format(i[k])
row = [
i.get('country'),
i.get('cases'),
i.get('todayCases'),
i.get('deaths'),
i.get('todayDeaths')
]
rows.append(row)
table = tabulate.tabulate(rows,
headers=['', 'Case', 'New', 'D️', 'ND'],
tablefmt='simple',
numalign='right',
stralign='right')
return f'<pre>\nCOVID-19 situation:\n{table}\n</pre>\nhttps://www.worldometers.info/coronavirus/#countries'
def create_container_with_specific_mems_cpus(name, mems, cpus):
need_fake_numa()
os.mkdir(full_path(name))
utils.write_one_line(cpuset_attr(name, 'mem_hardwall'), '1')
utils.write_one_line(mems_path(name), ','.join(map(str, mems)))
utils.write_one_line(cpus_path(name), ','.join(map(str, cpus)))
logging.debug('container %s has %d cpus and %d nodes totalling %s bytes',
name, len(cpus), len(get_mem_nodes(name)),
utils.human_format(container_bytes(name)) )
def create_container_via_memcg(name, parent, bytes, cpus):
# create container via direct memcg cgroup writes
os.mkdir(full_path(name))
nodes = utils.read_one_line(mems_path(parent))
utils.write_one_line(mems_path(name), nodes) # inherit parent's nodes
utils.write_one_line(memory_path(name)+'.limit_in_bytes', str(bytes))
utils.write_one_line(cpus_path(name), ','.join(map(str, cpus)))
logging.debug('Created container %s directly via memcg,'
' has %d cpus and %s bytes',
name, len(cpus), utils.human_format(container_bytes(name)))
def compute_memory(self):
ssize = 1
print ("***"*200)
print ("saliency_size", self.saliency_size)
for s in self.saliency_size:
ssize *= s
saliency_memory = 4 * self.args.experiment.memory_budget * ssize
ncha, size, _ = self.args.inputsize
image_size = ncha * size * size
samples_memory = 4 * self.args.experiment.memory_budget * image_size
count = sum(p.numel() for p in self.model.parameters() if p.requires_grad)
print('Num parameters in the entire model = %s ' % (utils.human_format(count)))
architecture_memory = 4 * count
print("--------------------------> Saliency memory size: (%sB)" % utils.human_format(saliency_memory))
print("--------------------------> Episodic memory size: (%sB)" % utils.human_format(samples_memory))
print("------------------------------------------------------------------------------")
print(" TOTAL: %sB" % utils.human_format(
architecture_memory+samples_memory+saliency_memory))
def render(self):
self.__clear_frame()
location = self.__tracker.getCurrentLocation()
presents = human_format(location.get("presentsDelivered"))
stopover = location.get("stopover")
curr_location = None
# Printing local time
local_time = datetime.fromtimestamp(
int(self.__tracker.get_adj_time() / 1000)).strftime("%H:%M")
self.__frame.text((6, 48),
"LT: {} | D: {}".format(local_time, presents),
font=self.__sm_font,
fill=1)
if (stopover):
departure = datetime.fromtimestamp(int(stopover.departure /
1000)).strftime("%H:%M")
self.__frame.text((6, 4), "Landed", font=self.__sm_font, fill=1)
self.__frame.text((76, 4),
"ETD: {}".format(departure),
font=self.__sm_font,
fill=1)
curr_location = stopover
else:
eta = datetime.fromtimestamp(
int(location.get("next").arrival / 1000)).strftime("%H:%M")
self.__frame.text((6, 4), "Next stop", font=self.__sm_font, fill=1)
self.__frame.text((76, 4),
"ETA: {}".format(eta),
font=self.__sm_font,
fill=1)
curr_location = location.get("next")
# Checking if the location has changed
if (self.__last_location == None
or curr_location.id != self.__last_location.id):
self.__last_location = curr_location
self.__location_str = ScrollingText(text="{}, {}".format(
self.__last_location.city, self.__last_location.region))
self.__frame.text((6, 22),
self.__location_str.render(),
font=self.__lg_font,
fill=1)
return self.__image
def get_player_contract_table(html, url):
# html = utils.get_page(url)
# with open('spotrac.txt', 'r') as w:
# html = w.read()
bs = BeautifulSoup(html, 'html.parser')
blurb = bs.find("p", {"class":"currentinfo"})
output = ""
if blurb is not None:
output = blurb.get_text() + "\n\n"
table = bs.find("table", {"class":"salaryTable salaryInfo current visible-xs"})
rows = table.find_all("tr")
contract_table = []
for row in rows:
cells = row.find_all('td')
r = {'0':cells[0].get_text(), '1':cells[1].get_text()}
contract_table.append(r)
output = output + "```python\n%s```" % utils.format_table(['0','1'], contract_table, showlabels=False)
table = bs.find("table", {"class":"salaryTable current"})
rows = table.find_all("tr")
salary_table = []
salary_th = []
for header in rows[0].find_all('th'):
salary_th.append(header.get_text())
print(salary_th)
for row in rows[1:]:
year_row = {}
cells = row.find_all('td')
# print(cells)
for i in range(len(salary_th)):
try:
if 'noborder' not in cells[i]['class'] or 'fayear' in cells[i]['class']:
data = cells[i].get_text().lstrip()
if data.startswith('$'):
if '(' in data:
data = data[:data.find('(')]
data = utils.human_format(data)
year_row[salary_th[i]] = data
except:
pass
if len(year_row.keys()) > 0:
salary_table.append(year_row)
print(salary_table)
labs = ['Year', 'Age', 'Base Salary','Luxury Tax Salary','Payroll Salary', 'Adjusted Salary', 'Yearly Cash']
repl = {"Base Salary":"Base", "Luxury Tax Salary":"Luxury Tax", "Payroll Salary":"Payroll", "Adjusted Salary":"Adjusted", "Yearly Cash":"Take home"}
output = output + "\n```python\n%s```" % utils.format_table(labs, salary_table, repl_map=repl)
output = output + "\n<%s>" % url
return output
def corona(countries=None):
if countries is None:
countries = [
'italy', 'uk', 'france', 'spain', 'switzerland', 'usa', 'greece',
'brazil'
]
countries.append('total:')
url = 'https://www.worldometers.info/coronavirus/'
try:
r = requests.get(url)
except requests.exceptions.RequestException as e:
return e
soup = BeautifulSoup(r.text, features='html.parser')
table = soup.table
table_rows = table.find_all('tr')
rows = list()
for tr in table_rows:
td = tr.find_all('td')
row = [
i.text.strip(' ').replace(',', '').replace('+', '')
for i in td[0:4]
]
if row and ((row[0].lower() in countries) or ('all' in countries)):
row[1] = int(row[1])
if not row[2]:
row[2] = 0
row[2] = int(row[2])
if not row[3]:
row[3] = 0
row[3] = int(row[3])
if row[0] == 'Switzerland':
row[0] = 'Suisse'
if row[0] == 'Total:':
row[0] = 'Global'
rows.append(
human_format(r) if isinstance(r, int) and r > 10000 else r
for r in row)
fancy_table = tabulate.tabulate(
rows,
headers=['Pais', 'Cases', 'New', 'Deaths️'],
tablefmt='simple',
numalign='right')
text = f'<pre>\n{fancy_table}\n</pre>'
return text
def discover_container_style():
"""Fetch information about containers and cache in global state."""
global super_root_path, cpuset_prefix
global mem_isolation_on, fake_numa_containers
global node_mbytes, root_container_bytes
if super_root_path != '':
return # already looked up
if os.path.exists('/dev/cgroup/tasks') or \
os.path.exists('/dev/cgroup/cpuset/tasks'):
# running on 2.6.26 or later kernel with containers on:
super_root_path = '/dev/cgroup'
cpuset_prefix = 'cpuset.'
if get_boot_numa():
mem_isolation_on = fake_numa_containers = True
else: # memcg containers IFF compiled-in & mounted & non-fakenuma boot
fake_numa_containers = False
#TODO(teravest): Fix this to detect correct mounting.
mem_isolation_on = os.path.exists(
'/dev/cgroup/memory.limit_in_bytes')
# TODO: handle possibility of where memcg is mounted as its own
# cgroup hierarchy, separate from cpuset?
else:
# neither cpuset nor cgroup filesystem active:
super_root_path = None
cpuset_prefix = 'no_cpusets_or_cgroups_exist'
mem_isolation_on = fake_numa_containers = False
logging.debug('mem_isolation: %s', mem_isolation_on)
logging.debug('fake_numa_containers: %s', fake_numa_containers)
if fake_numa_containers:
node_mbytes = int(mbytes_per_mem_node())
elif mem_isolation_on: # memcg-style containers
# For now, limit total of all containers to using just 98% of system's
# visible total ram, to avoid oom events at system level, and avoid
# page reclaim overhead from going above kswapd highwater mark.
system_visible_pages = utils.memtotal() >> 2
usable_pages = int(system_visible_pages * 0.98)
root_container_bytes = usable_pages << 12
logging.debug('root_container_bytes: %s',
utils.human_format(root_container_bytes))
def views(self, formatted: bool = True):
""" The visualizations are really important to determine if a song is famous or not. Using this information it
is possible to create leaderboards and statistics, top rankings and more. Visualizations can only be gained in
official ways like on the official website, Telegram bot or Discord bot.
Args:
formatted (bool, optional): Indicates if the number should be formatted in a human readable way or not. By
default it's True.
Returns:
int:
The number of visualizations of the video.
"""
self.cursor.execute("SELECT views FROM songs WHERE id = ?",
(self.id, ))
views = self.cursor.fetchone()[0]
self.cursor.close()
self.conn.close()
return human_format(views) if formatted else views
def update_cards(n, time_range, exclude_rt):
conn = sqlite3.connect(DATABASE_PATH)
time_range = 15 if time_range not in (15, 60, 1440) else time_range
filter_rt = True if exclude_rt == [1] else False
query = f"""
select
target as target,
count(*) as responses,
avg(case when sentiment < 0.5 then 0 else 1 end) * 100 as sentiment
from tweets
where
datetime(tweet_timestamp) >= datetime('now', '-{time_range} minutes')
{"and IS_RT = 0" if filter_rt else ""}
group by target;
"""
df = pd.read_sql_query(query, conn)
cards = []
for target in TARGETS_DF.itertuples():
try:
responses = df.loc[df.target == target.id, "responses"].item()
sentiment_score = df.loc[df.target == target.id,
"sentiment"].item()
cards.append(card(target, responses, sentiment_score))
except Exception as e:
logging.debug(e)
pass
total_responses_num = df.responses.sum()
total_responses = human_format(total_responses_num)
total_approval_num = 0
try:
total_approval_num = np.nanmean(df.sentiment)
except Exception as e:
logging.debug(e)
pass
total_approval = f"{total_approval_num:.0f}%"
approval_style = {"color": get_color_from_score(total_approval_num)}
return cards, total_responses, total_approval, approval_style
def __init__(self, model, vocab):
assert isinstance(model, dict) or isinstance(model, str)
assert isinstance(vocab, tuple) or isinstance(vocab, str)
# dataset
logger.info('-' * 100)
logger.info('Loading training and validation dataset')
self.dataset = data.CodePtrDataset(mode='test')
self.dataset_size = len(self.dataset)
logger.info('Size of training dataset: {}'.format(self.dataset_size))
logger.info('The dataset are successfully loaded')
self.dataloader = DataLoader(dataset=self.dataset,
batch_size=config.test_batch_size,
collate_fn=lambda *args: utils.collate_fn(args,
source_vocab=self.source_vocab,
code_vocab=self.code_vocab,
ast_vocab=self.ast_vocab,
nl_vocab=self.nl_vocab,
raw_nl=True))
# vocab
logger.info('-' * 100)
if isinstance(vocab, tuple):
logger.info('Vocabularies are passed from parameters')
assert len(vocab) == 4
self.source_vocab, self.code_vocab, self.ast_vocab, self.nl_vocab = vocab
else:
logger.info('Vocabularies are read from dir: {}'.format(vocab))
self.source_vocab = utils.load_vocab(vocab, 'source')
self.code_vocab = utils.load_vocab(vocab, 'code')
self.ast_vocab = utils.load_vocab(vocab, 'ast')
self.nl_vocab = utils.load_vocab(vocab, 'nl')
# vocabulary
self.source_vocab_size = len(self.source_vocab)
self.code_vocab_size = len(self.code_vocab)
self.ast_vocab_size = len(self.ast_vocab)
self.nl_vocab_size = len(self.nl_vocab)
logger.info('Size of source vocabulary: {} -> {}'.format(self.source_vocab.origin_size, self.source_vocab_size))
logger.info('Size of code vocabulary: {} -> {}'.format(self.code_vocab.origin_size, self.code_vocab_size))
logger.info('Size of ast vocabulary: {}'.format(self.ast_vocab_size))
logger.info('Size of nl vocabulary: {} -> {}'.format(self.nl_vocab.origin_size, self.nl_vocab_size))
logger.info('Vocabularies are successfully built')
# model
logger.info('-' * 100)
logger.info('Building model')
self.model = models.Model(source_vocab_size=self.source_vocab_size,
code_vocab_size=self.code_vocab_size,
ast_vocab_size=self.ast_vocab_size,
nl_vocab_size=self.nl_vocab_size,
is_eval=True,
model=model)
# model device
logger.info('Model device: {}'.format(next(self.model.parameters()).device))
# log model statistic
logger.info('Trainable parameters: {}'.format(utils.human_format(utils.count_params(self.model))))
# degrees_in = g.degree(mode="in")
# max_deg_in = max(degrees_in)
# print(max_deg_in)
# df_degree_in = [g.vs[idx].attributes() for idx, eb in enumerate(degrees_in) if eb == max_deg_in]
# print(df_degree_in)
# print(" twitter id having max degree IN: ", df_degree_in)
# delta1 = get_delta()
# print('Time required to get graph degree in : %(delta1)s' % locals())
#
#
# start_time()
# degrees_out = g.degree(mode="out")
# max_deg_out = max(degrees_out)
# print(max_deg_out)
# df_degree_out = [g.vs[idx].attributes() for idx, eb in enumerate(degrees_out) if eb == max_deg_out]
# print(df_degree_out)
# print(" twitter id having max degree OUT: ", df_degree_out)
# delta1 = get_delta()
# print('Time required to get graph degree out : %(delta1)s' % locals())
file_name: str = '../files/TEST_twitter_' + u.human_format(
n_rows) + '_pickle' + ('z' if compressed else '')
print("now saving graph to ", file_name)
u.start_time()
if compressed:
g.write_picklez(file_name)
else:
g.write_pickle(file_name)
u.print_delta("save the graph")
print("====== End of program =======")
def __init__(self):
# dataset
logger.info('-' * 100)
logger.info('Loading training and validation dataset')
self.dataset = data.CodePtrDataset(mode='train')
self.dataset_size = len(self.dataset)
logger.info('Size of training dataset: {}'.format(self.dataset_size))
self.dataloader = DataLoader(dataset=self.dataset,
batch_size=config.batch_size,
shuffle=True,
collate_fn=lambda *args: utils.collate_fn(
args,
source_vocab=self.source_vocab,
code_vocab=self.code_vocab,
ast_vocab=self.ast_vocab,
nl_vocab=self.nl_vocab))
# valid dataset
self.valid_dataset = data.CodePtrDataset(mode='valid')
self.valid_dataset_size = len(self.valid_dataset)
self.valid_dataloader = DataLoader(
dataset=self.valid_dataset,
batch_size=config.valid_batch_size,
collate_fn=lambda *args: utils.collate_fn(
args,
source_vocab=self.source_vocab,
code_vocab=self.code_vocab,
ast_vocab=self.ast_vocab,
nl_vocab=self.nl_vocab))
logger.info('Size of validation dataset: {}'.format(
self.valid_dataset_size))
logger.info('The dataset are successfully loaded')
# vocab
logger.info('-' * 100)
logger.info('Building vocabularies')
sources, codes, asts, nls = self.dataset.get_dataset()
self.source_vocab = utils.build_word_vocab(
dataset=sources,
vocab_name='source',
ignore_case=True,
max_vocab_size=config.source_vocab_size,
save_dir=config.vocab_root)
self.source_vocab_size = len(self.source_vocab)
logger.info('Size of source vocab: {} -> {}'.format(
self.source_vocab.origin_size, self.source_vocab_size))
self.code_vocab = utils.build_word_vocab(
dataset=codes,
vocab_name='code',
ignore_case=True,
max_vocab_size=config.code_vocab_size,
save_dir=config.vocab_root)
self.code_vocab_size = len(self.code_vocab)
logger.info('Size of code vocab: {} -> {}'.format(
self.code_vocab.origin_size, self.code_vocab_size))
self.ast_vocab = utils.build_word_vocab(dataset=asts,
vocab_name='ast',
ignore_case=True,
save_dir=config.vocab_root)
self.ast_vocab_size = len(self.ast_vocab)
logger.info('Size of ast vocab: {}'.format(self.ast_vocab_size))
self.nl_vocab = utils.build_word_vocab(
dataset=nls,
vocab_name='nl',
ignore_case=True,
max_vocab_size=config.nl_vocab_size,
save_dir=config.vocab_root)
self.nl_vocab_size = len(self.nl_vocab)
logger.info('Size of nl vocab: {} -> {}'.format(
self.nl_vocab.origin_size, self.nl_vocab_size))
logger.info('Vocabularies are successfully built')
# model
logger.info('-' * 100)
logger.info('Building the model')
self.model = models.Model(source_vocab_size=self.source_vocab_size,
code_vocab_size=self.code_vocab_size,
ast_vocab_size=self.ast_vocab_size,
nl_vocab_size=self.nl_vocab_size)
# model device
logger.info('Model device: {}'.format(
next(self.model.parameters()).device))
# log model statistic
logger.info('Trainable parameters: {}'.format(
utils.human_format(utils.count_params(self.model))))
# optimizer
self.optimizer = Adam([
{
'params': self.model.parameters(),
'lr': config.learning_rate
},
])
self.criterion = nn.CrossEntropyLoss(
ignore_index=self.nl_vocab.get_pad_index())
if config.use_lr_decay:
self.lr_scheduler = lr_scheduler.StepLR(self.optimizer,
step_size=1,
gamma=config.lr_decay_rate)
# early stopping
self.early_stopping = None
if config.use_early_stopping:
self.early_stopping = utils.EarlyStopping(
patience=config.early_stopping_patience, high_record=False)