def __init__(self, patent_id, company, inventor_id, lat, lng, city, state, country):
self.patent_id = patent_id
self.inventor_id = inventor_id
self.lat = fast_real(lat)
self.lng = fast_real(lng)
self.company = company
self.called_api = False
self.failed_api = False
if self.lat == '' or self.lng == '':
try:
print(unidecode(city))
print(unidecode(state))
response = requests.get("http://dev.virtualearth.net/REST/v1/Locations/" + city + ' ' + state + ' ' + country,
params={"include":"queryParse",
"key":formulas.get_api_key()})
data = response.json()
self.called_api = True
self.lat = data['resourceSets'][0]['resources'][0]['point']['coordinates'][0]
self.lng = data['resourceSets'][0]['resources'][0]['point']['coordinates'][1]
except:
print('error when finding lat and lng')
self.failed_api = True
self.lat = 404
self.lng = 404
self.city = city
self.state = state
self.country = country
def test_fast_real_with_coerce_given_dumb_class_responds_to_internal_ValueError(
):
x = DumbFloatClass()
assert fastnumbers.fast_real(x, coerce=True) is x
with raises(ValueError):
fastnumbers.fast_real(x, coerce=True, raise_on_invalid=True)
assert fastnumbers.fast_real(x, coerce=True, default=5) == 5
def test_fast_real_given_float_string_returns_float(x):
assume(not math.isnan(x))
y = repr(x)
assert fastnumbers.fast_real(y, coerce=False) == x
assert fastnumbers.fast_real(y, raise_on_invalid=True, coerce=False) == x
assert fastnumbers.fast_real(y, None, True, coerce=False) == x
assert isinstance(fastnumbers.fast_real(y, coerce=False), float)
def fixTimeAndAlt(data): '''Statyczna funkcja majaca na celu zamiane dlugosci wyrazonej w stopach na metry oraz ustawienie, aby czas liczony byl od 0s @param data - lista danych ''' start_time = fast_real(data[0][0]) for i in data: i[0] = fast_real(i[0]) - start_time i[0] = str(i[0]) i[3] = fast_real(i[3])*0.3048 i[3] = str(i[3])
def fixTimeAndAlt(data):
'''Statyczna funkcja majaca na celu zamiane dlugosci wyrazonej w stopach na metry oraz ustawienie, aby czas liczony byl od 0s
@param data - lista danych
'''
start_time = fast_real(data[0][0])
for i in data:
i[0] = fast_real(i[0]) - start_time
i[0] = str(i[0])
i[3] = fast_real(i[3]) * 0.3048
i[3] = str(i[3])
def fixDistance(data): '''Funkcja statyczna obliczajaca przebyty dystans na podstawie szerokosci i wysokosci geografizcnej @param data - lista danych @return dist - lista zawierajaca przebyty dystans ''' start_Lo = fast_real(data[0][1]) start_La = fast_real(data[0][2]) dist = [] for i in data: dist.append(math.sqrt(math.pow(math.cos((math.pi*start_La)/180.0)*(fast_real(i[1])-start_Lo),2)+math.pow((fast_real(i[2])-start_La),2))*math.pi*(12756.274/360)*1000) return dist
def prepareSpeed(data): '''Statyczna funkcja obliczajaca predkosc samolotu w danym czasie @param data - lista danch @result speed - lista zawierajaca predkosci ''' dst = Fixer.fixDistance(data) speed = [] s = fast_real(dst[0]) for i in dst: dist = fast_real(i)-s speed.append(dist*3.6) s = i return speed
def prepareSpeed(data):
'''Statyczna funkcja obliczajaca predkosc samolotu w danym czasie
@param data - lista danch
@result speed - lista zawierajaca predkosci
'''
dst = Fixer.fixDistance(data)
speed = []
s = fast_real(dst[0])
for i in dst:
dist = fast_real(i) - s
speed.append(dist * 3.6)
s = i
return speed
def get_min(data_list):
new = []
for i in data_list:
if i != -99:
new.append(fast_real(i))
min = sorted(new)
return round(min[0], 4) # calculates min of a list of values
def get_max(data_list):
new = []
for i in data_list:
if i != -99:
new.append(fast_real(i))
max = sorted(new)
return round(max[len(new) - 1], 4) # calculates max of a list of values
def create(self, token, sheet=None):
if token.type == Token.OPERAND:
#First lets check if token is a range and have has no sheet, in which case add sheet name to token value
if token.subtype == Token.RANGE and '!' not in token.value and ':' in token.value:
token.value = '{}!{}'.format(sheet, token.value)
return RangeNode(token)
elif token.subtype == Token.RANGE and '!' not in token.value and ':' not in token.value:
token.value = '{}!{}'.format(sheet, token.value)
return CellNode(token)
# Then lets check if token is a number, in which case update assign float or int to token value
elif token.subtype == Token.NUMBER:
token.value = fast_real(token.value)
return OperandNode(token)
elif token.subtype == Token.LOGICAL:
token.value = token.value == 'TRUE'
return OperandNode(token)
# Token must be subtype Text, Logical or Error - in which case do nothing
else:
return OperandNode(token)
elif token.is_funcopen:
return FunctionNode(token)
elif token.is_operator:
return OperatorNode(token)
def createHardcode(self,value):
if isinstance(fast_real(value), str):
tok = Token(value, Token.OPERAND, "TEXT")
else:
tok = Token(value, Token.OPERAND, "NUMBER")
self.rpn.append(OperandNode(tok, self.model))
self.needs_calc = False
def convert_to_bytes(self, value):
value = fast_real(value)
if not (isinstance(value, int) or isinstance(value, float)):
raise NoValidMessageException(
str.format("Message is no int/float: {}", value))
value = int(value * 10**self._decimal)
return struct.pack('!h', value)
def transform(self, value):
if isinstance(value, string_types):
value = re.sub(',', '.', value)
try:
return fastnumbers.fast_real(value, np.nan, raise_on_invalid=False)
except TypeError:
return np.nan
def get_min(data_list): new = [] for i in data_list: if i != -99: new.append(fast_real(i)) min = sorted(new) return round(min[0], 4) # calculates min of a list of values
def received_info(self, edge, prob):
global G
global Links_weight_Dictionary
print '-----------------------------------'
print 'The previous link weight list is'
print '-----------------------------------'
print Links_weight_Dictionary
print '-----------------------------------'
print "The failed link is = {}".format(edge)
print "The failed link probability is = {}".format(prob)
Link = ast.literal_eval(
edge) # To convert the link from Unicode into Tuple object
F_Probability = fast_real(
prob) # To convert the link failure probability into float
Links_weight_Dictionary[
Link] = F_Probability # To update the link failure probability
print '-----------------------------------'
print 'The updated link weight list is'
print '-----------------------------------'
print Links_weight_Dictionary
print '-----------------------------------'
def convert_to_bytes(self, value):
value = fast_real(value)
if not isinstance(value, int) or value < 0:
raise NoValidMessageException(
str.format("Message is no int or is smaller than 0: {}",
value))
return struct.pack('!B', value)
def get_max(data_list): new = [] for i in data_list: if i != -99: new.append(fast_real(i)) max = sorted(new) return round(max[len(new)-1], 4) # calculates max of a list of values
def formula(self, excel_formula):
'''
If excel formula is set, this TRIGGERS creation of rpn formula and tree
@param excel_formula: excel formula as a string
@return: rpn formula
'''
self._formula = excel_formula
logging.debug("Processing RPN for formula {} at cell {}".format(
excel_formula, self))
#First check if formula starts with correct operator
if str(excel_formula).startswith(('=', '+')):
self.rpn = self.make_rpn(excel_formula)
# creates list of precedents (who do I depend on)
self.createPrec()
# This means formula must be a hardcode
else:
logging.debug(
"Formula does not start with = or +. Creating a hardcode cell")
if isinstance(fast_real(self.address), str):
tok = Token(self.address, Token.OPERAND, "TEXT")
self.rpn.append(OperandNode(tok))
self.needs_calc = False
else:
tok = Token(self.address, Token.OPERAND, "NUMBER")
self.rpn.append(OperandNode(tok))
logging.info("RPN is: {}".format(self.rpn))
def load_old_rects(floor_id, img_name):
building, num = parse_name(img_name)
prev_file = "rects/{}/{}_rects_{}.txt".format(floor_id, building, num)
prev_rects = []
if isfile(prev_file):
with open(prev_file, "r") as f:
data = [l.strip() for l in f.read().split("\n") if len(l.strip()) > 0]
for l in data:
rect = l.split(" ")
x, y, width, height = rect[0], rect[1], rect[2], rect[3]
prev_rects.append({
"x": fast_real(x),
"y": fast_real(y),
"width": fast_real(width),
"height": fast_real(height)
})
return prev_rects
def get_Resume_info(self):
resume_price = self.app.driver.find_element_by_css_selector(
'.resume-item.resume-checkout .price-format span.value').text
resume_name = self.app.driver.find_element_by_css_selector('h1').text
resume_phone = {
'name': resume_name,
'cost': fastnumbers.fast_real(resume_price)
}
def fixDistance(data):
'''Funkcja statyczna obliczajaca przebyty dystans na podstawie szerokosci i wysokosci geografizcnej
@param data - lista danych
@return dist - lista zawierajaca przebyty dystans
'''
start_Lo = fast_real(data[0][1])
start_La = fast_real(data[0][2])
dist = []
for i in data:
dist.append(
math.sqrt(
math.pow(
math.cos((math.pi * start_La) / 180.0) *
(fast_real(i[1]) - start_Lo), 2) +
math.pow((fast_real(i[2]) - start_La), 2)) * math.pi *
(12756.274 / 360) * 1000)
return dist
def get_mean(data_list): sum = 0.0 count = 0.0 # get mean for i in data_list: if i != -99: sum += fast_real(i) count += 1 mean = round(sum/count, 4) return mean # calculates mean of a list of values
def get_mean(data_list):
sum = 0.0
count = 0.0
# get mean
for i in data_list:
if i != -99:
sum += fast_real(i)
count += 1
mean = round(sum / count, 4)
return mean # calculates mean of a list of values
def product_info(self, device):
model = device.find_element_by_css_selector(".item-info p a")
price = device.find_element_by_css_selector(
'.item-price.stick-bottom span.value').text
converted = fastnumbers.fast_real(price)
phone = ({
"name": model.text,
"costa": converted,
"link": model.get_attribute('href')
})
return phone
def count_numbers(string):
ss = string.split(' ')
ii = []
for i in ss:
if type(fast_real(i)) == float or i.isdigit():
i = float(i)
ii.append(i)
print(ii)
print(len(ii))
print(sum(ii))
print(max(ii))
def get_numpy_val(input_name, input_val):
"""Convert input values to NumPy-compatible numerical values"""
if input_val == "inf" or input_val == "+inf":
return np.inf
elif input_val == "-inf":
return -np.inf
else:
num = fast_real(input_val)
if isinstance(num, (int, long, float)):
return num
else:
raise BadRequest(
"Invalid value for \"{0}\" ({1}). Expected: -inf, inf, or a numerical value.".format(input_name, input_val))
def number_guess(numbers):
"""
number_guess tries to parse each potential value into a number.
It returns the percentage (using 0.0 to 1.0) that were parsable.
"""
try:
num_good_matches = 0.0
for probable_number in numbers:
result = fast_real(probable_number)
if (type(result) is int) or (type(result) is float):
num_good_matches = num_good_matches + 1
return num_good_matches/len(numbers)
except:
return 0.0
def get_std_lat_lon(data_list): sum = 0.0 count = 0.0 new = [] # get mean for i in data_list: if i != -99: sum += fast_real(i) count += 1 new.append(fast_real(i)) mean = sum/count a = [] b = [] c = 0.0 for i in new: a.append(i - mean) for i in a: b.append(i*i) for i in b: c+=i std = math.sqrt(c/count) return round(std, 4) # calculates stdev of a list of values
def get_std_lat_lon(data_list):
sum = 0.0
count = 0.0
new = []
# get mean
for i in data_list:
if i != -99:
sum += fast_real(i)
count += 1
new.append(fast_real(i))
mean = sum / count
a = []
b = []
c = 0.0
for i in new:
a.append(i - mean)
for i in a:
b.append(i * i)
for i in b:
c += i
std = math.sqrt(c / count)
return round(std, 4) # calculates stdev of a list of values
def extractValue(value):
if isinstance(value, str):
if value.startswith("#"):
# Convert constant
convertedValue = fast_real(value[1:])
if convertedValue == "false":
return False
elif convertedValue == "true":
return True
return convertedValue
elif value.startswith("&"):
return value
else:
newValue = getValueFromMemory(value)
return newValue
def split(self, line): if fastnumbers is not None: return [fastnumbers.fast_real(s, nan=u'nan', inf=u'inf') \ for s in line.split()] l = [] for s in line.split(): try: l.append(int(s)) except: try: # Make sure we don't convert 'inf' and 'nan' strings to # float assert(not math.isinf(float(s))) assert(not math.isnan(float(s))) l.append(float(s)) except: l.append(s) return l
def create(self):
#Assigning to variable token for readability
token = self.token
if token.type == Token.OPERAND:
#First lets check if token is a RangeNode
if token.subtype == Token.RANGE and ':' in token.value:
return RangeNode(token, self.model)
# Then check if this is a CellNode
elif token.subtype == Token.RANGE and ':' not in token.value:
return CellNode(token, self.model)
# Then lets check if token is a number, in which case update assign float or int to token value
elif token.subtype == Token.NUMBER:
token.value = fast_real(token.value)
return OperandNode(token, self.model)
elif token.subtype == Token.LOGICAL:
token.value = token.value == 'TRUE'
return OperandNode(token, self.model)
elif token.subtype == Token.TEXT:
token.value = token.value.replace('"', '')
return OperandNode(token, self.model)
# Token must be Error - in which case do nothing
else:
logger.error(
"Formula has error {}. Please fix error before uploading again"
.format(token.value))
return OperandNode(token, self.model)
elif token.is_funcopen:
return FunctionNode(token, self.model)
elif token.is_operator:
return OperatorNode(token, self.model)
def convert_number_or_into_string(str_input, col):
"""Optimizes the Data Types. If VARCHAR type is defined in SQL for any value, it saves the similar value by adding quotation marks.
However, if not, then by default it's a Number. In the later case, if the value is NULL, convert it to 0 else save the number."""
if (col == "CRD-revision-side ID") or (col == "CRD") or \
(col == "CRD revision") or (col == "Folder name") or (col == "Symmetric") or (col == "Side") or (
col == "User") or (col == "Origin") or (col == "Tire size") or \
(col == "CTC revision") or (col == "ERD-ARD") or (col == "Design manual") or (col == "Design code") or \
(col == "Rim flange protector") or (col == "Apex 3 layup") or (col == "Ply layu") or (
col == "Flipper layup") or \
(col == "Stiffener inside layup") or (col == "First chipper layup") or (col == "Toeguard layup") or (
col == "Sidewall layup") or \
(col == "Overlay layup") or (col == "Tread layup") or (col == "Bead configuration") or (col == "Type") or (
col == "Description") or \
(col == "Construction") or (col == "Material model") or (col == "DEW version") or (
col == "Rolling surface") or (col == "Cooldown") or \
(col == "Unit system") or (col == "Rim contour") or (col == "Test-component ID") or (
col == "Component") or (col == "Compound") or (
col == "Sample ID") or \
(col == "Cord code") or (col == "Cord serial") or (
col == "Treatment code") or \
(col == "Test-load-pressure ID") or (col == "TD") or (
col == "FP") or (col == "SR") or (col == "RR") or \
(col == "FM") or (col == "COSTGV") or (col == "COSBO") or (col == "Groove contact") or (col == "Sipe contact") \
or (col == "Test-load-pressure-component I") or (col == "Test-load-pressure-component I") or (col == "Test ID")\
or (col == "Test path"):
return "'" + str_input + "'"
if str_input == 'null' or str_input == 'None':
return 0
elif str_input.isdigit() or (str_input.replace('.', '', 1).isdigit()
and str_input.count('.') < 2) or (
str_input.replace('-', '', 1).replace(
'.', '', 1).isdigit()):
return fast_real(str_input)
else:
return "'" + str_input + "'"
def test_fast_real_returns_input_as_is_if_valid_and_key_is_given(x):
fastnumbers.fast_real(x, key=len) == x
fastnumbers.fast_real(str(x), key=len) == x
def test_fast_real_returns_raises_ValueError_if_raise_on_invalid_is_True_and_default_is_given(x):
assume(not a_number(x))
with raises(ValueError):
fastnumbers.fast_real(x, default=90, raise_on_invalid=True)
fastnumbers.fast_real(x, 90, True)
def test_fast_real_returns_transformed_input_if_invalid_and_key_is_given(x):
assume(not a_number(x))
fastnumbers.fast_real(x, key=len) == len(x)
def test_fast_real():
# 1. float number
assert fastnumbers.fast_real(-367.3268) == -367.3268
assert fastnumbers.fast_real(-367.3268, raise_on_invalid=True) == -367.3268
# 2. signed float string
assert fastnumbers.fast_real("+367.3268") == +367.3268
assert fastnumbers.fast_real("+367.3268", True) == +367.3268
# 3. float string with exponents
assert fastnumbers.fast_real("-367.3268e207") == -367.3268e207
assert fastnumbers.fast_real("1.175494351e-3810000000") == 0.0
# 4. float string with padded whitespace
assert fastnumbers.fast_real(" -367.04 ") == -367.04
# 5. int number
assert fastnumbers.fast_real(499) == 499
# 6. signed int string
assert fastnumbers.fast_real("-499") == -499
# 7. int string with padded whitespace
assert fastnumbers.fast_real(" +3001 ") == 3001
# 8. long number
assert fastnumbers.fast_real(35892482945872302493) == 35892482945872302493
# 9. long string
if python_version_tuple()[0] == "2":
assert fastnumbers.fast_real("35892482945872302493L") == 35892482945872302493
assert fastnumbers.fast_real("35892482945872302493l") == 35892482945872302493
assert fastnumbers.fast_real("35892482945872302493") == 35892482945872302493
# 10. return type
assert isinstance(fastnumbers.fast_real(4029), int)
assert isinstance(fastnumbers.fast_real(4029.0, coerce=False), float)
assert isinstance(fastnumbers.fast_real(4029), int)
assert isinstance(fastnumbers.fast_real(4029.0), int)
assert isinstance(fastnumbers.fast_real(4029.5), float)
assert isinstance(fastnumbers.fast_real("4029"), int)
assert isinstance(fastnumbers.fast_real("4029.0"), int)
assert isinstance(fastnumbers.fast_real("4029.0", coerce=False), float)
# 11. TypeError for invalid input
with raises(TypeError):
fastnumbers.fast_real(["hey"])
# 12. Invalid input string
assert fastnumbers.fast_real("not_a_number") == "not_a_number"
with raises(ValueError):
assert fastnumbers.fast_real("not_a_number", raise_on_invalid=True)
# 13. Invalid input string with numbers
assert fastnumbers.fast_real("26.8 lb") == "26.8 lb"
with raises(ValueError):
assert fastnumbers.fast_real("26.8 lb", None, True)
# 14. Infinity
assert fastnumbers.fast_real("inf") == float("inf")
assert fastnumbers.fast_real("-iNFinity") == float("-inf")
assert fastnumbers.fast_real("-iNFinity", inf=7608) == 7608
# 15. NaN
assert math.isnan(fastnumbers.fast_real("nan"))
assert math.isnan(fastnumbers.fast_real("-NaN"))
assert fastnumbers.fast_real("-NaN", nan=0) == 0
# 16. Sign/'e'/'.' only
assert fastnumbers.fast_real("+") == "+"
assert fastnumbers.fast_real("-") == "-"
assert fastnumbers.fast_real("e") == "e"
assert fastnumbers.fast_real(".") == "."
# 17. Default on invalid... 'raise_on_invalid' supersedes
assert fastnumbers.fast_real("invalid", default=90) == 90
assert fastnumbers.fast_real("invalid", default=None) is None
with raises(ValueError):
assert fastnumbers.fast_real("invalid", 90, True)
# 18. Unicode numbers
assert fastnumbers.fast_real(u"⑦") == 7
assert fastnumbers.fast_real(u"⁸") == 8
assert fastnumbers.fast_real(u"⅔") == 2.0 / 3.0
assert fastnumbers.fast_real(u"Ⅴ") == 5
# 19. Key function
assert fastnumbers.fast_real(76.8, key=len) == 76.8
assert fastnumbers.fast_real("76.8", key=len) == 76.8
assert fastnumbers.fast_real("invalid", key=len) == 7
import config
import os.path
from fastnumbers import fast_real
import csv
import numpy as np
# Return parameter types and names.
objectFeatures = {}
firstFilePath = config.inputPath + "HT01/HT01A004_ftrs.tab"
with open(firstFilePath, 'rb') as csvfile:
reader = csv.reader(csvfile, delimiter='\t')
header = reader.next()
firstValues = [fast_real(v) for v in reader.next()]
types = [np.int32 if isinstance(v, int) else np.float32 if isinstance(v, float) else np.object for v in firstValues]
for i, name in enumerate(header):
objectFeatures[name] = types[i]
objectFeatures['plate'] = np.int32
objectFeatures['column'] = np.int32
objectFeatures['row'] = np.int32
del objectFeatures['class']
del objectFeatures['spot']
features = objectFeatures.keys()
def openTextFile(feature, mode):
return open(config.outputPath + feature + ".txt", mode)
def __call__(self, form, field):
"""Convert input values to NumPy-compatible numerical values"""
if not field.data == "inf" and not field.data == "+inf" and not field.data == "-inf":
num = fast_real(field.data)
if not isinstance(num, (int, long, float)):
raise ValidationError("Invalid value \"{0}\". Expected: -inf, inf, or a numerical value.".format(field.data))
sheet_GPGGA = workbook1.sheet_by_index(0) # extracting info. from sheet GPGGA
GPGGA_lines = sheet_GPGGA.nrows -1
n_s_indicator = sheet_GPGGA.cell_value(1, 4)
if n_s_indicator == "N":
n_s_indicator = "(North)"
elif n_s_indicator == "S":
n_s_indicator = "(South)"
e_w_indicator = sheet_GPGGA.cell_value(1, 6)
if e_w_indicator == "E":
e_w_indicator = "(East)"
elif e_w_indicator == "W":
e_w_indicator = "(West)"
for i in range(1, sheet_GPGGA.nrows):
fix_indicator.append(fast_real(sheet_GPGGA.cell_value(i, 7)))
local = sheet_GPGGA.cell_value(i, 0).split("_")[1]
local = fast_real(local.split("-")[0]+local.split("-")[1]+local.split("-")[2])
local_time.append(local) #UTC+8 hours
# latitude
if sheet_GPGGA.cell_value(i, 3) == "":
latitude.append(-99)
else:
latitude.append(fast_real((sheet_GPGGA.cell_value(i, 3))))
# longitude
if sheet_GPGGA.cell_value(i, 5) == "":
longitude.append(-99)
else:
longitude.append(str(fast_real(sheet_GPGGA.cell_value(i, 5))))
# no_of_satelites_used
if sheet_GPGGA.cell_value(i, 8) == "":