def train_parser(cls, options, data_train=None, data_dev=None, data_test=None):
set_proc_name(options.title)
ensure_dir(options.output)
path = os.path.join(options.output, "{}_{}_train.log".format(options.title,
int(time.time())))
log_to_file(path)
logger.name = options.title
cls.options_hook(options)
DataFormatClass = cls.get_data_formats()[options.data_format]
if data_train is None:
data_train = DataFormatClass.from_file(options.conll_train)
if data_dev is None:
data_dev = {i: DataFormatClass.from_file(i, False) for i in options.conll_dev}
try:
os.makedirs(options.output)
except OSError:
pass
parser = cls(options, data_train)
random_obj = random.Random(1)
for epoch in range(options.epochs):
logger.info('Starting epoch %d', epoch)
random_obj.shuffle(data_train)
options.is_train = True
parser.train(data_train)
# save model and delete old model
for i in range(0, epoch - options.max_save):
path = os.path.join(options.output, os.path.basename(options.model)) + str(i + 1)
if os.path.exists(path):
os.remove(path)
path = os.path.join(options.output, os.path.basename(options.model)) + str(epoch + 1)
parser.save(path)
def predict(sentences, gold_file, output_file):
options.is_train = False
with open(output_file, "w") as f_output:
if hasattr(DataFormatClass, "file_header"):
f_output.write(DataFormatClass.file_header + "\n")
for i in parser.predict(sentences):
f_output.write(i.to_string())
# script_path = os.path.join(os.path.dirname(__file__), "main.py")
# p = subprocess.Popen([sys.executable, script_path, "mst+empty", "predict", "--model", path,
# "--test", gold_file,
# "--output", output_file], stdout=sys.stdout)
# p.wait()
DataFormatClass.evaluate_with_external_program(gold_file, output_file)
for file_name, file_content in data_dev.items():
try:
prefix, suffix = os.path.basename(file_name).rsplit(".", 1)
except ValueError:
prefix = os.path.basename(file_name)
suffix = ""
dev_output = os.path.join(options.output, '{}_epoch_{}.{}'.format(prefix, epoch + 1, suffix))
predict(file_content, file_name, dev_output)
def train_parser(cls, options, data_train=None, data_dev=None, data_test=None):
if sys.platform.startswith("linux"):
set_proc_name(options.title)
ensure_dir(options.output)
path = os.path.join(options.output, "{}_{}_train.log".format(options.title,
int(time.time())))
log_to_file(path)
logger.name = options.title
cls.options_hook(options)
DataFormatClass = cls.get_data_formats()[options.data_format]
if data_train is None:
data_train = DataFormatClass.from_file(options.conll_train)
if data_dev is None:
data_dev = {i: DataFormatClass.from_file(i, False) for i in options.conll_dev}
if data_test is None and options.conll_test is not None:
data_test = DataFormatClass.from_file(options.conll_test, False)
else:
data_test = None
try:
os.makedirs(options.output)
except OSError:
pass
return cls.repeat_train_and_validate(data_train, data_dev, data_test, options)
def compile(self):
super().compile()
try:
for file in self.get_file_list():
Cetus.replace_line_in_code(file["file_full_path"], GlobalsConfig.OMP_HEADER, '')
cwd_path = os.path.dirname(file["file_full_path"])
self.copy_headers(cwd_path)
logger.info(f'{Cetus.__name__}: start parallelizing {file["file_name"]}')
command = [f'cetus {" ".join(self.get_compilation_flags())} {file["file_name"]}']
stdout, stderr, ret_code = run_subprocess(command, cwd_path)
log_file_path = f'{os.path.splitext(file["file_full_path"])[0]}{CetusConfig.LOG_FILE_SUFFIX}'
logger.log_to_file(f'{stdout}\n{stderr}', log_file_path)
logger.debug(f'{Cetus.__name__}: {stdout}')
logger.debug_error(f'{Cetus.__name__}: {stderr}')
logger.info(f'{Cetus.__name__}: finished parallelizing {file["file_name"]}')
# Replace file from cetus output folder into original file folder
if os.path.isdir(os.path.join(cwd_path, CetusConfig.OUTPUT_DIR_NAME)):
src_file = os.path.join(cwd_path, CetusConfig.OUTPUT_DIR_NAME, file["file_name"])
dst_file = file["file_full_path"]
shutil.copy(src_file, dst_file)
shutil.rmtree(os.path.join(cwd_path, CetusConfig.OUTPUT_DIR_NAME))
Cetus.inject_line_in_code(file["file_full_path"], GlobalsConfig.OMP_HEADER)
return True
except subprocess.CalledProcessError as ex:
log_file_path = f'{os.path.splitext(file["file_full_path"])[0]}{CetusConfig.LOG_FILE_SUFFIX}'
logger.log_to_file(f'{ex.output}\n{ex.stderr}', log_file_path)
raise CombinationFailure(f'cetus return with {ex.returncode} code: {str(ex)} : {ex.output} : {ex.stderr}')
except Exception as ex:
raise CompilationError(str(ex) + " files in directory " + self.get_input_file_directory() +
" failed to be parallel!")
def __run_p4a_process(self):
self.files_to_compile += [
file_dict['file_full_path'] for file_dict in self.get_file_list()
]
command = 'PATH=/bin:$PATH p4a -vv ' + ' '.join(self.files_to_compile)
if self.extra_files:
command += f' {" ".join(self.extra_files)}'
command += ' ' + ' '.join(map(str, super().get_compilation_flags()))
if self.include_dirs_list:
command += ' -I ' + ' -I '.join(
map(
lambda x: os.path.join(self.get_input_file_directory(),
str(x)), self.include_dirs_list))
try:
logger.info(f'{Par4all.__name__}: start parallelizing')
stdout, stderr, ret_code = run_subprocess([
command,
], self.get_input_file_directory())
log_file_path = os.path.join(self.get_input_file_directory(),
Par4allConfig.LOG_FILE_NAME)
logger.log_to_file(f'{stdout}\n{stderr}', log_file_path)
logger.debug(f'{Par4all.__name__}: {stdout}')
logger.debug_error(f'{Par4all.__name__}: {stderr}')
logger.info(f'{Par4all.__name__}: finished parallelizing')
except subprocess.CalledProcessError as e:
log_file_path = os.path.join(self.get_input_file_directory(),
Par4allConfig.LOG_FILE_NAME)
logger.log_to_file(f'{e.output}\n{e.stderr}', log_file_path)
raise CombinationFailure(
f'par4all return with {e.returncode} code: {str(e)} : {e.output} : {e.stderr}'
)
except Exception as e:
raise CompilationError(
f"{e}\nfiles in directory {self.get_input_file_directory()} failed to be parallel!"
)
def initialize_blind(self, src):
src_text = self.check_source(src)
self.setup_gpio()
GPIO.output(self.go_up_pin, 1)
GPIO.output(self.go_down_pin, 1)
logger.log_to_file(
f"{src_text} Blind '{self.device_name} initialized.",
logs_directory)
def stop_blind(self, src):
src_text = self.check_source(src)
self.setup_gpio()
GPIO.output(self.go_up_pin, 1)
GPIO.output(self.go_down_pin, 1)
logger.log_to_file(f"{src_text} Blind '{self.device_name} stopped.",
logs_directory)
print("stopped")
def turn_off_light(self):
print(
f"Dummy opening, {self.room_name}, {self.device_type}, {self.device_name}, {self.off_pin}"
)
logger.log_to_file(
f"Light '{self.device_name}' in '{self.room_name}' turning off...",
logs_directory)
logger.log_to_file(
f"Light '{self.device_name}' in '{self.room_name}' turned off.",
logs_directory)
def initialize_light(self):
for pin in self.on_pin, self.off_pin:
logger.log_to_file(
f"Light '{self.device_name} in '{self.room_name}' initializing...",
logs_directory)
# GPIO.setup(xxxx, xxx)
# GPIO.output(pin, 1)
print("Initialize light")
logger.log_to_file(
f"Light '{self.device_name} in '{self.room_name}' initialized",
logs_directory)
def train_parser(cls, options, data_train=None, data_dev=None, data_test=None):
set_proc_name(options.title)
ensure_dir(options.output)
path = os.path.join(options.output, "{}_{}_train.log".format(options.title,
int(time.time())))
log_to_file(path)
logger.name = options.title
logger.info('Options:\n%s', pformat(options.__dict__))
if data_train is None:
data_train = cls.DataType.from_file(options.conll_train)
if data_dev is None:
data_dev = {i: cls.DataType.from_file(i, False) for i in options.conll_dev}
try:
os.makedirs(options.output)
except OSError:
pass
parser = cls(options, data_train)
random_obj = random.Random(1)
def do_predict(epoch):
for file_name, dev_sentences in data_dev.items():
try:
prefix, suffix = os.path.basename(file_name).rsplit(".", 1)
except ValueError:
prefix = file_name
suffix = ""
dev_output = os.path.join(options.output, '{}_epoch_{}.{}'.format(prefix, epoch, suffix))
cls.predict_and_output(parser, options, dev_sentences, dev_output)
if options.epochs == 0:
print("Predict directly.")
do_predict(0)
for epoch in range(options.epochs):
logger.info('Starting epoch %d', epoch)
random_obj.shuffle(data_train)
parser.train(data_train)
# save model and delete old model
for i in range(0, epoch - options.max_save):
path = os.path.join(options.output, os.path.basename(options.model)) + str(i + 1)
if os.path.exists(path):
os.remove(path)
path = os.path.join(options.output, os.path.basename(options.model)) + str(epoch + 1)
parser.save(path)
do_predict(epoch)
def compile(self):
super().compile()
# Parallelizing
try:
for file in self.get_file_list():
self.run_autopar(file["file_name"], file["file_full_path"], self.get_compilation_flags())
return True
except subprocess.CalledProcessError as e:
log_file_path = f'{os.path.splitext(file["file_full_path"])[0]}{AutoParConfig.LOG_FILE_SUFFIX}'
logger.log_to_file(f'{e.output}\n{e.stderr}', log_file_path)
raise CombinationFailure(f'autopar return with {e.returncode} code: {str(e)} : {e.output} : {e.stderr}')
except Exception as e:
raise CompilationError(str(e) + " files in directory " + self.get_input_file_directory() +
" failed to be parallel!")
def log(self):
interruptions = len(self.buffering_time) - 1
# Checking if player is on initial buffering state
if interruptions > 0 or not self.is_buffering:
initial_wait = self.buffering_time[0]
else:
initial_wait = -1
# Removing invalid samples
buffering_time = self.buffering_time[1:]
if self.is_buffering:
buffering_time = buffering_time[:-1]
# Calculating statistics
mean_time = stats.avg(buffering_time)
std_time = stats.std(buffering_time)
# Logging
logger.log("--*--Buffer statistics--*--")
logger.log("Time to start playback (s): %d" % initial_wait)
logger.log("Number of interruptions: %d" % interruptions)
logger.log("Interruption time (s) - mean: %f" % mean_time)
logger.log("Interruption time (s) - standard deviation: %f" % std_time)
logger.log("Interruptions (s): %r" % buffering_time)
logger.log_to_file("playback_start_time, %d\r\n" % initial_wait)
logger.log_to_file("interruptions, %d\r\n" % interruptions)
logger.log_to_file("interruption_time_mean, %f\r\n" % mean_time)
logger.log_to_file("interruption_time_stdev, %f\r\n" % std_time)
def log(self):
interruptions = len(self.buffering_time) - 1
# Checking if player is on initial buffering state
if interruptions > 0 or not self.is_buffering:
initial_wait = self.buffering_time[0]
else:
initial_wait = -1
# Removing invalid samples
buffering_time = self.buffering_time[1:]
if self.is_buffering:
buffering_time = buffering_time[:-1]
# Calculating statistics
mean_time = stats.avg(buffering_time)
std_time = stats.std(buffering_time)
# Logging
logger.log("--*--Buffer statistics--*--")
logger.log("Time to start playback (s): %d" % initial_wait)
logger.log("Number of interruptions: %d" % interruptions)
logger.log("Interruption time (s) - mean: %f" % mean_time)
logger.log("Interruption time (s) - standard deviation: %f" % std_time)
logger.log("Interruptions (s): %r" % buffering_time)
logger.log_to_file("playback_start_time, %d\r\n" % initial_wait)
logger.log_to_file("interruptions, %d\r\n" % interruptions)
logger.log_to_file("interruption_time_mean, %f\r\n" % mean_time)
logger.log_to_file("interruption_time_stdev, %f\r\n" % std_time)
def run_autopar(self, file_name: str, file_full_path: str, options: list):
logger.info(f'{Autopar.__name__}: started parallelizing {file_name}')
command = 'autoPar'
if self.include_dirs_list:
command += ' -I' + ' -I'.join(map(lambda x: os.path.join(self.get_input_file_directory(), str(x)),
self.include_dirs_list))
command += f' {" ".join(options)} -c {file_name}'
stdout, stderr, ret_code = run_subprocess([command], os.path.dirname(file_full_path))
log_file_path = f'{os.path.splitext(file_full_path)[0]}{AutoParConfig.LOG_FILE_SUFFIX}'
logger.log_to_file(f'{stdout}\n{stderr}', log_file_path)
dir_path, file_name = os.path.split(file_full_path)
parallel_file_full_path = os.path.join(dir_path, f'{AutoParConfig.OUTPUT_FILE_NAME_PREFIX}{file_name}')
if os.path.exists(parallel_file_full_path):
os.remove(file_full_path)
os.rename(parallel_file_full_path, file_full_path)
logger.debug(f'{Autopar.__name__}: {stdout}')
logger.debug_error(f'{Autopar.__name__}: {stderr}')
logger.info(f'{Autopar.__name__}: finished parallelizing {file_name}')
def handle_ssh_errors(status, output, cmd):
if "install -y nginx" in cmd:
print(
colored('Failure installing nginx \n',
'red',
attrs=['reverse', 'blink']))
log_to_file(status, output)
elif "scp" in cmd:
print(
colored(
'Failure copying script using SCP \n Please Check the Command and Restart Program to Try Process Again\n',
'red',
attrs=['reverse', 'blink']))
log_to_file(status, output)
sys.exit(1)
elif "chmod 700" in cmd:
print(
colored(
'Failure changing permissions on webserver script \n Please Check the Command and Restart Program To Try Process Again\n',
'red',
attrs=['reverse', 'blink']))
log_to_file(status, output)
sys.exit(1)
elif "-y python34" in cmd:
print(
colored('Failure installing python\n',
'red',
attrs=['reverse', 'blink']))
log_to_file(status, output)
sys.exit(1)
elif "python3 start_webserver.py" in cmd:
print(
colored(
"Failure starting webserver \n Please Check the Command and Restart Program To Try Process Again \n",
'red',
attrs=['reverse', 'blink']))
log_to_file(status, output)
sys.exit(1)
else:
print('Error')
def main():
# parse config
config_file = sys.argv[1]
config = Config(config_file)
# setup logger
setup_logging(config.working_dir)
# encoding func
encoding_func = ENCODING_METHOD_MAP[config.encoding_method]
encoding_func2= ENCODING_METHOD_MAP[config.encoding_method2]
log_to_file('Encoding method2', config.encoding_method2)
data_provider=[]
for p in range(config.base_model_count):
temp_provider = DataProvider(
encoding_func,
encoding_func2,
config.data_file,
config.test_file,
config.batch_size,
max_len_hla=config.max_len_hla,
max_len_pep=config.max_len_pep,
model_count=config.model_count
)
data_provider.append(temp_provider)
log_to_file('max_len_hla', data_provider[0].max_len_hla)
log_to_file('max_len_pep', data_provider[0].max_len_pep)
test(config, data_provider[0])
def close_blind(self, src):
src_text = self.check_source(src)
self.setup_gpio()
# If blind is opening (0 on input) - stop opening
if not GPIO.input(self.go_up_pin):
GPIO.output(self.go_up_pin, 1)
logger.log_to_file(
f"{src_text} Blind '{self.device_name}' in '{self.room_name}' opening aborted!",
logs_directory)
logger.log_to_file(
f"{src_text} Blind '{self.device_name}' in '{self.room_name}' closing...",
logs_directory)
GPIO.output(self.go_down_pin, 0)
for i in range(150):
sleep(0.2)
# Break when during closing OPEN Button or STOP Button clicked
if not GPIO.input(self.go_up_pin) or (GPIO.input(
self.go_up_pin) and GPIO.input(self.go_down_pin)):
GPIO.output(self.go_down_pin, 1)
break
else:
GPIO.output(self.go_down_pin, 1)
logger.log_to_file(
f"{src_text} Blind '{self.device_name}' in '{self.room_name}' closed.",
logs_directory)
print(f"Blind '{self.device_name}' in '{self.room_name}' closed.")
def handle_ssh_errors(status, output, cmd):
if "install -y nginx" in cmd:
print(colored('Failure installing nginx \n', 'red',attrs=['reverse', 'blink']))
log_to_file(status, output)
elif "scp" in cmd:
print(colored('Failure copying script using SCP \n Please Check the Command and Restart Program to Try Process Again\n', 'red',attrs=['reverse', 'blink']))
log_to_file(status, output)
sys.exit(1)
elif "chmod 700" in cmd:
print(colored('Failure changing permissions on webserver script \n Please Check the Command and Restart Program To Try Process Again\n', 'red',attrs=['reverse', 'blink']))
log_to_file(status, output)
sys.exit(1)
elif "-y python34" in cmd:
print(colored('Failure installing python\n', 'red',attrs=['reverse', 'blink']))
log_to_file(status, output)
sys.exit(1)
elif "python3 start_webserver.py" in cmd:
print(colored("Failure starting webserver \n Please Check the Command and Restart Program To Try Process Again \n", 'red',attrs=['reverse', 'blink']))
log_to_file(status, output)
sys.exit(1)
else:
print('Error')
def test(config, data_provider):
if not config.do_test:
log_to_file('Skip testing', 'Not enabled testing')
return
device = config.device
temp_list=[]
for p in range(config.base_model_count):
for k in range(config.model_count):
# load and prepare model
state_dict = torch.load(config.model_save_path(p*config.model_count+k))
model = Model(config)
model.load_state_dict(state_dict)
model.to(device)
model.eval()
temp_dict={}
data_provider.new_epoch()
for _ in range(data_provider.test_steps()):
data = data_provider.batch_test()
with torch.no_grad():
pred_ic50, uid_list= batch_test(model, device, data, config)
for i, uid in enumerate(uid_list):
temp_dict[uid] = pred_ic50[i].item()
temp_list.append(temp_dict)
# average score of the emsemble model
result_dict=temp_list[0]
if config.model_count>1:
for k in range(1,config.model_count):
for j in result_dict.keys():
result_dict[j]+=temp_list[k][j]
if config.base_model_count>1:
for p in range(1,config.base_model_count):
for k in range(config.model_count):
for j in result_dict.keys():
result_dict[j]+=temp_list[p*config.model_count+k][j]
for j in result_dict.keys():
result_dict[j]=result_dict[j]/(config.model_count*config.base_model_count)
# print(result_dict)
result_file = weeekly_result_writer(result_dict, config)
log_to_file('Testing result file', result_file)
metric_file = write_metrics_file(result_file, config)
log_to_file('Testing metric result file', metric_file)
def index(request):
room_names = Room.objects.all()
context = {'room_names': room_names}
if request.POST:
received_data = request.POST
main_action = received_data.get('main_action')
try:
if "all_blinds_open" in main_action:
logger.log_to_file(f"[WebServer] All blinds opening...",
logger.get_logs_directory())
open_all_blinds(source="web")
elif "all_blinds_close" in main_action:
logger.log_to_file(f"[WebServer] All blinds closing...",
logger.get_logs_directory())
close_all_blinds(source="web")
elif "all_blinds_stop" in main_action:
logger.log_to_file(f"[WebServer] All blinds stopping...",
logger.get_logs_directory())
stop_all_blinds(source="web")
elif "emergency_stop" in main_action:
logger.log_to_file(f"[WebServer] Emergency stop performing...",
logger.get_logs_directory())
stop_all_blinds(source="web")
for light in Light.objects.all():
light.initialize_light()
elif "restart_system" in main_action:
logger.log_to_file(f"[WebServer] Restart system performing...",
logger.get_logs_directory())
manual_buttons.system_restart()
elif "shutdown_system" in main_action:
logger.log_to_file(
f"[WebServer] Shutdown system performing...",
logger.get_logs_directory())
manual_buttons.system_shutdown()
else:
pass
except:
return HttpResponse("")
return render(request, 'devices/index.html', context)
def train(config, data_provider, p):
# skip training if test mode
if not config.do_train:
log_to_file('Skip train', 'Not enabled training')
return
device = config.device
log_to_file('Device', device)
# log pytorch version
log_to_file('PyTorch version', torch.__version__)
# prepare model
log_to_file('based on base_model #', p)
for i in range(config.model_count):
log_to_file('begin training model #', i)
model = Model(config)
weight_initial(model, config)
model.to(device)
# state_dict = torch.load(config.model_base_path(p))
# model = Model(config)
# model.load_state_dict(state_dict)
# model.to(device)
# log param count
log_to_file('Trainable params count', count_parameters(model))
print(model.parameters())
# exit()
# OPTIMIZER
optimizer = optim.SGD(model.parameters(), lr=config.start_lr)
log_to_file("Optimizer", "SGD")
# call backs
scheduler = lr_scheduler.ReduceLROnPlateau(optimizer,
threshold=config.loss_delta,
patience=4,
cooldown=4,
verbose=True,
min_lr=config.min_lr,
factor=0.2)
model_check_callback = ModelCheckPointCallBack(
model,
config.model_save_path(p * config.model_count + i),
period=1,
delta=config.loss_delta,
)
early_stop_callback = EarlyStopCallBack(patience=25,
delta=config.loss_delta)
# some vars
epoch_loss = 0
validation_loss = 0
data_provider.new_epoch()
# reset data provider
# output the validation dataset
# val_data_path = os.path.join(config.working_dir, 'val_data_{}.csv'.format(p*config.model_count+i))
# val_df=pd.DataFrame(data_provider.validation_samples[i],columns=["hla_a","peptide", "ic50"])
# val_df.to_csv(val_data_path, sep=',',header=True,index=True)
steps = data_provider.train_steps()
log_to_file('Start training1', datetime.datetime.now())
for epoch in range(config.epochs):
epoch_start_time = datetime.datetime.now()
# train batches
print(steps)
model.train(True)
for _ in range(steps):
data = data_provider.batch_train(i)
print("***")
loss = batch_train(model, device, data, config)
print("loss:", loss)
# exit()
loss.backward()
# clip grads
nn.utils.clip_grad_value_(model.parameters(), config.grad_clip)
# update params
optimizer.step()
# record loss
epoch_loss += loss.item()
# reset grad
optimizer.zero_grad()
# time compute
time_delta = datetime.datetime.now() - epoch_start_time
# validation on epoch end
model.eval()
# print(data_provider.val_steps())
# print(data_provider.batch_index_val)
# validation_call
val_sample = []
val_pred = []
for _ in range(data_provider.val_steps()):
data = data_provider.batch_val(i)
t_loss, t_pred, t_samples = batch_validation(
model, device, data, config)
val_sample.append(t_samples)
val_pred.append(t_pred)
validation_loss += t_loss
# log
log_to_file(
"Training process",
"[base_model{0:1d}]-[model{1:1d}]-[Epoch {2:04d}] - time: {3:4d} s, train_loss: {4:0.5f}, val_loss: {5:0.5f}"
.format(p, i, epoch, time_delta.seconds, epoch_loss / steps,
validation_loss / data_provider.val_steps()))
# call back
model_check_callback.check(
epoch, validation_loss / data_provider.val_steps())
if early_stop_callback.check(
epoch, validation_loss / data_provider.val_steps()):
break
# LR schedule
scheduler.step(loss.item())
# reset loss
epoch_loss = 0
validation_loss = 0
# reset data provider
data_provider.new_epoch()
# save last epoch model
torch.save(
model.state_dict(),
os.path.join(
config.working_dir,
'last_epoch_model_{}.pytorch'.format(p *
config.model_count +
i)))
#validation_call
val_path = os.path.join(
config.working_dir,
'val_result_{}.csv'.format(p * config.model_count + i))
val_temp_list = []
for ii in range(len(val_sample)):
for jj in range(len(val_sample[ii])):
temp = {
"hla_a": val_sample[ii][jj][0],
"peptide": val_sample[ii][jj][1],
"ic50": val_sample[ii][jj][2],
"pred_ic50": val_pred[ii][jj]
}
val_temp_list.append(temp)
val_df = pd.DataFrame(val_temp_list)
val_df["up_ic50"] = 50000**val_df["ic50"]
val_df["up_pred_ic50"] = 50000**val_df["pred_ic50"]
val_df["binding"] = val_df["up_ic50"].apply(lambda x: 1
if x < 500 else 0)
val_df["pred_binding"] = val_df["up_pred_ic50"].apply(
lambda x: 1 if x < 500 else 0)
def main():
# parse config
config_file = sys.argv[1]
config = Config(config_file)
# setup logger
setup_logging(config.working_dir)
# encoding func
encoding_func = ENCODING_METHOD_MAP[config.encoding_method]
encoding_func2 = ENCODING_METHOD_MAP[config.encoding_method2]
log_to_file('Encoding method2', config.encoding_method2)
data_provider = []
for p in range(config.base_model_count):
temp_provider = DataProvider(encoding_func,
encoding_func2,
config.data_file,
config.test_file,
config.batch_size,
max_len_hla=config.max_len_hla,
max_len_pep=config.max_len_pep,
model_count=config.model_count)
data_provider.append(temp_provider)
log_to_file('Traning samples', len(data_provider[0].train_samples[0]))
log_to_file('Val samples', len(data_provider[0].validation_samples[0]))
log_to_file('Traning steps', data_provider[0].train_steps())
log_to_file('Val steps', data_provider[0].val_steps())
log_to_file('Batch size', data_provider[0].batch_size)
log_to_file('max_len_hla', data_provider[0].max_len_hla)
log_to_file('max_len_pep', data_provider[0].max_len_pep)
for p in range(config.base_model_count):
train(config, data_provider[p], p)
def log(self):
mean_download_rate = stats.avg(self.download_rates)
std_download_rate = stats.std(self.download_rates)
mean_upload_rate = stats.avg(self.upload_rates)
std_upload_rate = stats.std(self.upload_rates)
logger.log("--*--Torrent statistics--*--")
logger.log("Download rate (KiB/s) - mean: %f" % mean_download_rate)
logger.log("Download rate (KiB/s) - standard deviation: %f" % std_download_rate)
logger.log("Upload rate (KiB/s) - mean: %f" % mean_upload_rate)
logger.log("Upload rate (KiB/s) - standard deviation: %f" % std_upload_rate)
logger.log_to_file("download_rate_mean, %f\r\n" % mean_download_rate)
logger.log_to_file("download_rate_stdev, %f\r\n" % std_download_rate)
logger.log_to_file("upload_rate_mean, %f\r\n" % mean_upload_rate)
logger.log_to_file("upload_rate_stdev, %f\r\n" % std_upload_rate)
if self.download_finished:
logger.log("Download time (s): %d" % self.download_time)
logger.log_to_file("download_time, %d\r\n" % self.download_time)
else:
logger.log_to_file("download_time, %d\r\n" % -1)
self.buffer_manager.log()
today_sunrise = sun_cycles.Sunrise()
today_sunset = sun_cycles.Sunset()
while True:
# Checks between 3.00 and 3.03 AM
if datetime.now().hour == 3 and datetime.now().minute < 3:
logger.remove_old_logs(last_days_logging,
logger.get_logs_directory())
# Instantiate sunrise and sunset every day
today_sunrise = sun_cycles.Sunrise()
today_sunset = sun_cycles.Sunset()
current_time = pytz.timezone("Europe/Warsaw").localize(datetime.now())
# Sunrise
if today_sunrise.period_on < current_time < today_sunrise.period_off:
logger.log_to_file(f"[AutoSun] All blinds opening...",
logger.get_logs_directory())
today_sunrise.action()
if today_sunrise.period_on < current_time < today_sunrise.period_off:
today_sunrise.set_inactive()
# Sunset
if today_sunset.period_on < current_time < today_sunset.period_off:
logger.log_to_file(f"[AutoSun] All blinds closing...",
logger.get_logs_directory())
today_sunset.action()
if today_sunset.period_on < current_time < today_sunset.period_off:
today_sunset.set_inactive()
# Manual buttons
if ManualButtons["Rolety_UP"].is_pressed():
