def get_address_and_values_from_bytes(bytes_data):
data_module_num = bytes_data[:2]
data_others = bytes_data[2:]
# 获得地址起始值
sensor_module_num = Convert.byte2_to_uint16(data_module_num)
address_begin = get_module_address_from_id(sensor_module_num)
values = Convert.convert_to_uint16_data('bytes', data_others)
return address_begin, values
def get_module_id_and_timestamp_from_bytes(bytes_data):
data_module_num = bytes_data[:2]
data_others = bytes_data[2:]
# 获得传感器模块号
sensor_module_id = Convert.byte2_to_uint16(data_module_num)
# 获得时间戳数值
time_stamp = []
Convert.convert_to_real_data(
time_stamp, Sensor_Module_Config['time_stamp'][1],
data_others[(Sensor_Module_Config['time_stamp'][0] - 6) * 2:])
time_stamp = time_stamp[0]
return sensor_module_id, time_stamp
def get_system_parameter_address_and_values():
address_begin = Sys_Parameter_Address
values = []
for i in System_Parameter:
values = Convert.convert_to_uint16_data(System_Parameter_Config[i][1],
System_Parameter_Config[i][2],
values)
return address_begin, values
def __init__(
self,
images_dir,
csv_dir=None,
seed=23,
train_test_split=0.9,
train_test="train",
mode='concatenate',
flip_proba=0.5,
noise_magnitude=None,
**kwargs,
):
self.images_dir = Path(images_dir).expanduser()
self.seed = seed
self.train_test_split = train_test_split
self.train_test = train_test.lower()
assert self.train_test in ["train", "test"]
self.mode = mode.lower()
assert self.mode in ["concatenate", "scan", "mask"]
self.flip_proba = flip_proba
assert flip_proba <= 1.
self.noise_magnitude = noise_magnitude
paths = sorted(glob(str(self.images_dir / "*.*")))
size = len(paths)
random.seed(self.seed)
test_idx = random.sample(range(size),
int(size * (1 - self.train_test_split)))
train_idx = list(set(range(size)) - set(test_idx))
iterator = train_idx if self.train_test == 'train' else test_idx
self.paths = sorted([paths[i] for i in iterator])
self.__len = len(self.paths)
self.csv_dir = csv_dir
if csv_dir:
self.csv_dir = Path(csv_dir).expanduser()
self.ground_truth = pd.read_csv(self.csv_dir)
train_ids = [int(get_id_from_path(paths[i])) for i in train_idx]
train_survival_time = self.ground_truth.loc[
self.ground_truth.PatientID.isin(train_ids), 'SurvivalTime']
self.scaler = StandardScaler().fit(
train_survival_time.values.reshape(-1, 1))
if self.mode != "concatenate":
transform = [
Convert(),
T.RandomHorizontalFlip(self.flip_proba),
T.RandomVerticalFlip(self.flip_proba),
T.ToTensor(),
]
if self.mode == 'scan' and self.noise_magnitude is not None:
transform.append(T.Lambda(lambda x: x + torch.randn_like(x)), )
self.transform = T.Compose(transform)
def get_sensor_address_and_values(module_id):
if module_id in Sensor_Module_Id_List:
address_begin = Sensor_Module_Address_Dict[module_id]
sensor_config = deepcopy(Sensor_Module_Config)
sensor_config['module_id'][2] = module_id
sensor_config['install_num'][2] = Sensor_Module_InstallNum_Dict[
module_id]
values = []
for i in Sensor_Module:
values = Convert.convert_to_uint16_data(sensor_config[i][1],
sensor_config[i][2],
values)
return address_begin, values
else:
pass
from banner import *
from utils import modinv, Convert
banner()
try:
c = int(input("==> c = "))
p = int(input("==> p = "))
q = int(input("==> q = "))
dp = int(input("==> dp = "))
dq = int(input("==> dq = "))
slowprint("\n[+] Please Wait ...\n")
def chinese_remainder_theorem(p, q, dp, dq, chipher_text):
q_inv = modinv(p, q)
m1 = pow(chipher_text, dp, p)
m2 = pow(chipher_text, dq, q)
h = (q_inv * (m1 - m2)) % p
return m2 + h * q
Convert(chinese_remainder_theorem(p, q, dp, dq, c))
except ValueError:
slowprint("\n[-] c,p,q,dp,dq Must Be Integar Number")
except AssertionError:
slowprint("\n[-] Wrong Data")
except KeyboardInterrupt:
exit()
def crt(n, a):
sum = 0
prod = functools.reduce(lambda a, b: a*b, n)
for i,j in zip(n,a):
p = prod // i
sum += j * gmpy.invert(p,i) * p
return sum % prod
try:
c1 = int(input("==> c1 = "))
c2 = int(input("==> c2 = "))
c3 = int(input("==> c3 = "))
n1 = int(input("==> n1 = "))
n2 = int(input("==> n2 = "))
n3 = int(input("==> n3 = "))
N = [n1, n2, n3]
C = [c1, c2, c3]
e = len(N)
a = crt(N,C)
for n,c in zip(N, C):
assert a % n == c
m = gmpy.root(a,e)[0]
Convert(m)
except ValueError:
slowprint("\n[-] c1,c2,c3,n1,n2,n3 Must Be Integar Number")
except AssertionError:
slowprint("\n[-] Wrong Data")
except KeyboardInterrupt:
exit()
from banner import *
from utils import modinv, Convert
banner()
try:
c = int(input("==> c = "))
p = int(input("==> p = "))
q = int(input("==> q = "))
e = int(input("==> e = "))
n = p * q
phi = (p - 1) * (q - 1)
d = modinv(e, phi)
decrypt = pow(c, d, n)
Convert(decrypt)
except ImportError:
slowprint("\n[-] Module not setup ")
except ValueError:
slowprint("\n[-] p,q,e,c Must be Integer Number")
except AssertionError:
slowprint("\n[-] Wrong Data")
except KeyboardInterrupt:
exit()
def solve_single_request(bytes_data):
address = Convert.byte2_to_uint16(bytes_data[1:3], little_endian=False)
values = Convert.bytes_to_uint16(bytes_data[3:], little_endian=False)
return address, values
def get_Pi_timestamp_address_and_values():
address_begin = Pi_Time_stamp_Address
values = Convert.convert_to_uint16_data('uint32', int(time.time()))
return address_begin, values
def get_timestamp_address_and_values():
address_begin = Sys_Parameter_Address + System_Parameter_Config[
'time_stamp'][0]
values = Convert.convert_to_uint16_data(
System_Parameter_Config['time_stamp'][1], int(time.time()))
return address_begin, values
def __getitem__(self, idx, seed=None):
path = self.paths[idx]
scanner = np.load(path)
scan, mask = scanner["scan"], scanner["mask"]
if self.train_test == "train":
random.seed(seed)
v_flip = random.random() < self.flip_proba
h_flip = random.random() < self.flip_proba
if self.mode == 'concatenate':
scans = []
masks = []
to_pil = Convert()
to_tens = T.ToTensor()
for img, msk in zip(scan, mask):
img, msk = to_pil(img), to_pil(np.uint8(msk))
if v_flip:
img = TF.hflip(img)
msk = TF.hflip(msk)
if h_flip:
img = TF.vflip(img)
msk = TF.vflip(msk)
img, msk = to_tens(img).unsqueeze(0).float(), to_tens(
msk).unsqueeze(0).float()
if self.noise_magnitude is not None:
noise = torch.randn_like(img)
img += noise
scans.append(img)
masks.append(msk)
scans = torch.cat(scans, dim=1)
masks = torch.cat(masks, dim=1)
output = torch.cat([scans, masks], dim=0)
elif self.mode == 'mask':
output = np.expand_dims(mask, axis=1)
output = torch.cat([self.transform(x) for x in output], dim=0)
elif self.mode == 'scan':
output = np.expand_dims(scan, axis=1)
output = torch.cat([self.transform(x) for x in output], dim=0)
else:
if self.mode == 'mask':
output = torch.Tensor(mask).unsqueeze(1).float()
elif self.mode == 'scan':
output = torch.Tensor(scan).unsqueeze(1).float()
elif self.mode == 'concatenate':
scan = torch.Tensor(scan).unsqueeze(0).float()
mask = torch.Tensor(mask).unsqueeze(0).float()
output = torch.cat([scan, mask], dim=0)
output = {"images": output}
patient_id = int(get_id_from_path(path))
if self.csv_dir:
patient_info = self.ground_truth.loc[self.ground_truth.PatientID ==
patient_id]
output['y'] = self.scaler.transform([[patient_info.iloc[0, 1]]])[0]
output['info'] = np.array(
[patient_id, int(patient_info.iloc[0, 2])])
else:
output['info'] = np.array([patient_id, 1.])
return output
parser.add_argument('-o',
'--output_root',
help="generated source files root")
parser.add_argument(
'-q',
'--quant',
help=
"quantization granularity: 0(default) for per-tensor, 1 for per-channel",
type=int,
default=0)
args = parser.parse_args()
if args.input_root is None or args.name is None or args.output_root is None:
parser.print_help()
quit()
print(
f'\nGenerating {args.output_root}/{args.name} on {args.target_chip}...',
end='')
convert = Convert(target_chip=args.target_chip,
input_root=args.input_root,
json_file_name=args.json_file_name,
output_root=args.output_root,
name=args.name,
quant=args.quant)
convert()
print(' Finish\n')
else:
print(f'Not supported python == {python_version} on {system_type}')