def get_geolocaiton(weather_data_structure=[],Out_Location_File=[],city=[]):
'''
In order to generate city's lantitude and longtitude information.
python GeoPy package is required.
'''
# Get this python program full path to let use can program anywhere.
absolute_directory_path = os.path.dirname(os.path.abspath(sys.argv[0]))
geolocations_file_data = absolute_directory_path + Out_Location_File
# Initial geolocation dictionary to store written data.
geolocaiton = {}
'''
Instead of calling GeoPy use policy everytime
we will write location into a file. In the next
query request, the program will read the data from the file directly.
Format in the file: [city],[lantitude],[longtitude]
'''
# Check whether the file exist or not
if os.path.isfile(geolocations_file_data):
filereaderlocation = open(geolocations_file_data,'r')
for line in filereaderlocation:
temp = line.strip().split(',')
geolocaiton[temp[0]] = temp[1] + "," + temp[2]
filereaderlocation.close()
# Check whether the input city exists in the location file.
if not geolocaiton.has_key(city):
filewriterlocation = open(geolocations_file_data,'a')
geolocator = Nominatim()
location = perform_geocode(geolocator,city.lower())
lan = location.latitude
lon = location.longitude
filewriterlocation.write(city + "," + str(round(float(lan),2)) + "," + str(round(float(lon),2)) + "\n")
filewriterlocation.close()
else:
location = geolocaiton.get(city)
lan = location.split(',')[0]
lon = location.split(',')[1]
# Write into the weather data structure
weather_data_structure = weather_data_structure + str(round(float(lan),2)) + "," + str(round(float(lon),2)) + ","
'''
The following part generate city's altitude.
geocoder package required.
'''
g = geocoder.elevation([lan,lon])
alt = g.meters
# Write into the weather data structure
weather_data_structure = weather_data_structure + str(int(alt)) + "|"
return weather_data_structure
def getaltitude(latitude, longitude):
print latitude
print longitude
h = geocoder.elevation([latitude,longitude]).meters
time.sleep(0.25)
return str(h)
def set_location(self, location,
language=None, altitude=None, unit="meters"):
"""Set location via Google geocoding service.
:param tuple/str location:
:param str language: language for Google geocoding
:param str language: language e.g. 'en', 'ja'
:param float altitude: altitude
:param str unit: altitude unit e.g. 'meters', 'feet'
"""
language = language or self.language
unit = dict(m="meters", ft="feet").get(unit, "meters")
kw = {"language": language}
if isinstance(location, tuple):
kw["method"] = "reverse"
try:
location = geocoder.google(location, **kw)
except:
self._location = dict(
address=location,
latitude=None, longitude=None, altitude=None)
return
if not location.ok:
raise ValueError("unknown place")
address = unicodedata.normalize(
"NFKC", location.address.replace(FWHYPHEN, HWHYPHEN))
if not altitude:
altitude = getattr(geocoder.elevation(location.latlng), unit)
self._location = dict(
address=address,
latitude=location.latlng[0], longitude=location.latlng[1],
altitude=altitude)
def GetNames(ko, fallback='Unkown'):
"""
Method that returns information about the location
of given kooardinates.
Variabls:
ko (tuple) : lat,lon of the location
Keywords:
fallback : if the google api doesn't find information
which string should be returned
Returns str
"""
lat, lon = float(ko[0]), float(ko[1])
request = r = geocoder.reverse([lat, lon], short_name=False)
name = r.country
if type(r.state) != type(None):
name = '%s, %s' % (r.state, r.country)
if type(r.state) is type(None) and type(r.country) is type(None):
ele = geocoder.elevation([lat, lon], short_name=False).meters
if ele < 0:
if lon > 48 and lon < 76 and lat > 3.9 and lat < 27.9:
name = 'Arabian Sea'
elif lon > 79 and lon < 98 and lat > 3.9 and lat < 27.9:
name = 'Bay of Bengal'
elif lon > 40 and lon < 122:
name = 'Indian Ocean'
elif lon > 145 and lon < 163 and lat < -11 and lat > -30:
name = 'Coral Sea'
elif lon > 121 and lon < 180.1:
if lat > 0:
name = 'North West Pacific'
else:
name = 'South West Pacific'
elif lon > -180.1 and lon < -70:
if lat > 0:
name = 'North East Pacific'
else:
name = "South East Pacific"
elif lon > -97 and lon < -90 and lat < 30 and lat > 18:
name = 'Gulf of Mexico'
elif lon > -89 and lon < -80 and lat < 30 and lat > 21:
name = "Gulf of Mexico"
elif lon > -87 and lon < -73 and lat < 21 and lat > 9:
name = 'Caribbean Sea'
elif lon > -80 and lon < 13:
if lat > 0:
name = 'North Atlantic'
else:
name = 'South Atlantic'
else:
name = '%02f %02f' % (float(lat), float(lon))
else:
name = '%02f %02f' % (float(lat), float(lon))
return name
def get_location(self, given_location=None):
''' Get user location based on input '''
print('Location input examples:')
print(' "San Francisco, CA, USA"')
print(' "37.7749295, -122.4194155, 15.60"')
print(' "37:46:29.7N, -122:25:09.9E, 15.60"')
print('')
if sys.version_info < (3, 0):
input_function = raw_input # pylint:disable=undefined-variable
else:
input_function = input
self.home = ephem.Observer()
coords = None
while True:
if given_location:
print('Given location: "{}"'.format(given_location))
location_keyword = given_location
given_location = None
else:
location_keyword = input_function(
'Enter location (default="{}"): '.format(
self.default_location))
if not location_keyword or location_keyword.isspace():
location_keyword = self.default_location
coords = self._parse_coords(location_keyword)
if coords:
self.location = location_keyword
(self.latitude, self.longitude, self.elevation) = coords
self.elevation = float(self.elevation)
self.friendly_location = "coordinates"
break
else:
gloc = geocoder.google(location_keyword)
if gloc.status != 'OK':
print('Location not found: "{}"'.format(location_keyword))
location_keyword = None
else:
self.location = gloc.address
self.elevation = geocoder.elevation(gloc.latlng).meters
(self.latitude, self.longitude) = gloc.latlng
#(self.latitude, self.longitude) = (gloc.lat, gloc.lng)
self.friendly_location = u"{}".format(
unicode_deprecator(self.location))
#print(gloc.json)
print()
break
self.config['main']['default_location'] = self.location
self.home.elevation = self.elevation # meters
self.home.lat = str(self.latitude) # +N
self.home.lon = str(self.longitude) # +E
print("Found: {}N, {}E, {:0.2f}m".format(self.home.lat, self.home.lon,
self.home.elevation))
self.friendly_location = "{} ({:4.7f}N, {:4.7f}E) {:0.2f}m".format(
self.friendly_location, self.home.lat / ephem.degree,
self.home.lon / ephem.degree, self.home.elevation)
print("Location: {}".format(self.friendly_location))
print()
def fix():
prematrix_file = conf.data_process_file_prematrix
heigth=[]
fw = open(conf.data_process_file_prematrix,"w+")
i=0
#Open file an fix altitude of each station
with open(conf.data_process_file_prematrix_error,) as f:
for line in f:
slots = line.split(";")
# id = slots[0]
# street = slots[1]
# heigth = slots[2]
lat = float(slots[3])
lon = float(slots[4])
# neighbours = slots[5]
# type = slots[6]
# status = slots[7]
#print("old height: " + str(heigth))
#fix heigth
print [lat,lon]
altura =geocoder.elevation([lat,lon]).meters
heigth.append(altura)
print("Fix height: " + str(heigth[i]))
print altura
time.sleep(0.25)
line = slots[0]+";"+slots[1]+";"+str(heigth[i])+";"+slots[3]+";"+slots[4]+";"+slots[5]+";"+slots[6]+";"+slots[7]+";\n"
#print line
fw.write(line)
i+=1
fw.close()
f.close()
fw = open(conf.data_process_file_vector,"w+")
i=0
#Open file an fix altitude of each station
with open(conf.data_process_file_vector_error,) as f:
for line in f:
slots = line.split(";")
# id = slots[0]
line = slots[0]+";"+slots[1]+";"+slots[2]+";"+str(heigth[i])+";"+slots[4]+";"+slots[5]+";\n"
#print line
fw.write(line)
i+=1
fw.close()
f.close()
def fix():
prematrix_file = conf.data_process_file_prematrix
heigth = []
fw = open(conf.data_process_file_prematrix, "w+")
i = 0
#Open file an fix altitude of each station
with open(conf.data_process_file_prematrix_error, ) as f:
for line in f:
slots = line.split(";")
# id = slots[0]
# street = slots[1]
# heigth = slots[2]
lat = float(slots[3])
lon = float(slots[4])
# neighbours = slots[5]
# type = slots[6]
# status = slots[7]
#print("old height: " + str(heigth))
#fix heigth
print[lat, lon]
altura = geocoder.elevation([lat, lon]).meters
heigth.append(altura)
print("Fix height: " + str(heigth[i]))
print altura
time.sleep(0.25)
line = slots[0] + ";" + slots[1] + ";" + str(
heigth[i]) + ";" + slots[3] + ";" + slots[4] + ";" + slots[
5] + ";" + slots[6] + ";" + slots[7] + ";\n"
#print line
fw.write(line)
i += 1
fw.close()
f.close()
fw = open(conf.data_process_file_vector, "w+")
i = 0
#Open file an fix altitude of each station
with open(conf.data_process_file_vector_error, ) as f:
for line in f:
slots = line.split(";")
# id = slots[0]
line = slots[0] + ";" + slots[1] + ";" + slots[2] + ";" + str(
heigth[i]) + ";" + slots[4] + ";" + slots[5] + ";\n"
#print line
fw.write(line)
i += 1
fw.close()
f.close()
def get_coords(address):
while True:
try:
geolocator = Nominatim()
location = geolocator.geocode(address)
ele = geocoder.elevation(address)
break
except GeocoderTimedOut as e:
time.sleep(1)
print 'Geocoder Service timed out'
return location.latitude, location.longitude, ele.meters
#loc = get_coords("Yorkshire Gliding Club UK")
#print "latitude: ", loc[0], " longitude: ", loc[1], " elevation: ", loc[2]
def setLocation(self, search):
if len(search.split(" ")) == 2:
f, s = [i.replace(',','') for i in search.split(" ")]
# Input location is coordinates
if is_float(f) and is_float(s):
self.latitude = float(f)
self.longitude = float(s)
self.altitude = 8
return self.latitude, self.longitude, self.altitude
providers = ['google', 'osm', 'arcgis', 'freegeoip']
for p in providers:
geo = getattr(geocoder, p)(search)
if geo.lat is not None and geo.lng is not None:
elev = geocoder.elevation(geo.latlng)
self.latitude, self.longitude, self.altitude = geo.lat, geo.lng, elev.meters or 8
return self.latitude, self.longitude, self.altitude
raise GeneralPogoException("Location could not be found")
def get_coords(address):
try:
# geolocator = Nominatim(timeout=3, scheme='http') # Nominatim seems to have stopped working, see github geopy
geolocator = geopy.geocoders.GoogleV3(timeout=3)
# geolocator = geopy.geocoders.GeocodeFarm(timeout=20)
try:
location = geolocator.geocode(address, timeout=3, exactly_one=True) # Only 1 location for this address
if location == None:
print "Geocoder Service timed out or Airfield: ", address, " not known by geocode locator service. Check settings"
return False
ele = geocoder.elevation(address)
print "Geolocator worked"
return location.latitude, location.longitude, ele.meters
except ERROR_CODE_MAP[400]:
print " ERROR_CODE_MAP is: ", ERROR_CODE_MAP[400]
except ERROR_CODE_MAP[401]:
print " ERROR_CODE_MAP is: ", ERROR_CODE_MAP[401]
except ERROR_CODE_MAP[402]:
print " ERROR_CODE_MAP is: ", ERROR_CODE_MAP[402]
except ERROR_CODE_MAP[403]:
print " ERROR_CODE_MAP is: ", ERROR_CODE_MAP[403]
except ERROR_CODE_MAP[407]:
print " ERROR_CODE_MAP is: ", ERROR_CODE_MAP[407]
except ERROR_CODE_MAP[412]:
print " ERROR_CODE_MAP is: ", ERROR_CODE_MAP[412]
except ERROR_CODE_MAP[413]:
print " ERROR_CODE_MAP is: ", ERROR_CODE_MAP[413]
except ERROR_CODE_MAP[414]:
print " ERROR_CODE_MAP is: ", ERROR_CODE_MAP[414]
except ERROR_CODE_MAP[502]:
print " ERROR_CODE_MAP is: ", ERROR_CODE_MAP[502]
except ERROR_CODE_MAP[503]:
print " ERROR_CODE_MAP is: ", ERROR_CODE_MAP[503]
except ERROR_CODE_MAP[504]:
print " ERROR_CODE_MAP is: ", ERROR_CODE_MAP[503]
return False
except GeocoderTimedOut as e:
print "Geocoder Service timed out for Airfield: ", address
return False
def page_not_found(error):
with requests.Session() as session:
requester_ip = request.access_route[0]
if requester_ip == '127.0.0.1':
place, latlng, elev = 'nc', [35.6921, -80.4357], 218.2
address: str = u'On Library Park: 35\N{DEGREE SIGN} 41\' 31.9\"N 80\N{DEGREE SIGN} 26\' 8.67\"W'
else:
place, latlng = 'geocode', geocoder.ip(requester_ip, key=GOOGLE_API_KEY).latlng
requester_geocode = geocoder.google(latlng, key=GOOGLE_API_KEY, method='reverse', session=session)
# Use the defined address, implies we are using a static location, if undefined make it the geocoded one.
try:
address
except NameError:
address = str(requester_geocode.address)
# Use the defined elevation, implies we are using a static location, if undefined make it the geocoded one.
try:
requester_geocode.elevation = lambda: None
requester_geocode.elevation.meters = lambda: None
setattr(requester_geocode.elevation, 'meters', elev)
except NameError:
requester_geocode.elevation = geocoder.elevation(latlng, key=GOOGLE_API_KEY, session=session)
# Get the timezone
requester_geocode.timeZoneId = geocoder.timezone(latlng, key=GOOGLE_API_KEY, session=session).timeZoneId
return render_template('404.html',
place=place,
address=address,
latlng=latlng,
elevation=requester_geocode.elevation.meters,
ip=requester_ip), 404
sty_uni_lst.remove('')
sty_uni_lst.remove('Not Known')
for i in range(len(sty_uni_lst)):
ustyles.append(0)
fin1 = open('/data/user_detail', 'r')
for ln1 in fin1:
uid = ln1.split('|')[0].strip()
loc = ln1.split('|')[1].strip().split(',')[0]
if (loc != 'Not Known'):
geolocator = Nominatim()
location = geolocator.geocode(loc)
g = geocoder.elevation([location.latitude, location.longitude])
if (g.meters <= 30):
nos = 10
elif (g.meters > 30 and g.meters < 1000):
nos = 100
else:
nos = 1000
else:
nos = 0
vmonths = ln1.split('|')[2].strip().split(',')
for i in range(len(vmonths)):
if vmonths[i] == 'Jan':
months[0] = months[0] + 1
elif vmonths[i] == 'Feb':
import geocoder
g = geocoder.google('Mountain View, CA')
print g.latlng
g = geocoder.elevation([float(41.387953), float(2.150169)])
print(g.meters)
g = geocoder.google([45.15, -75.14], method='elevation')
print g.meters
def search_worker_thread(args, account_queue, account_failures, search_items_queue, pause_bit, status, dbq, whq):
log.debug('Search worker thread starting')
# The outer forever loop restarts only when the inner one is intentionally exited - which should only be done when the worker is failing too often, and probably banned.
# This reinitializes the API and grabs a new account from the queue.
while True:
try:
status['starttime'] = now()
# Get account
status['message'] = 'Waiting to get new account from the queue'
log.info(status['message'])
account = account_queue.get()
status['message'] = 'Switching to account {}'.format(account['username'])
status['user'] = account['username']
log.info(status['message'])
stagger_thread(args, account)
# New lease of life right here
status['fail'] = 0
status['success'] = 0
status['noitems'] = 0
status['skip'] = 0
status['location'] = False
status['last_scan_time'] = 0
# only sleep when consecutive_fails reaches max_failures, overall fails for stat purposes
consecutive_fails = 0
consecutive_empties = 0
# Create the API instance this will use
if args.mock != '':
api = FakePogoApi(args.mock)
else:
api = PGoApi()
if status['proxy_url']:
log.debug("Using proxy %s", status['proxy_url'])
api.set_proxy({'http': status['proxy_url'], 'https': status['proxy_url']})
# api.activate_signature(encryption_lib_path)
# The forever loop for the searches
while True:
# If this account has been messing up too hard, let it rest
if consecutive_fails >= args.max_failures:
status['message'] = 'Account {} failed more than {} scans; possibly bad account. Switching accounts...'.format(account['username'], args.max_failures)
log.warning(status['message'])
account_failures.append({'account': account, 'last_fail_time': now(), 'reason': 'failures'})
break # exit this loop to get a new account and have the API recreated
while pause_bit.is_set():
status['message'] = 'Scanning paused'
time.sleep(2)
# If this account has been running too long, let it rest
if (args.account_search_interval is not None):
if (status['starttime'] <= (now() - args.account_search_interval)):
status['message'] = 'Account {} is being rotated out to rest.'.format(account['username'])
log.info(status['message'])
account_failures.append({'account': account, 'last_fail_time': now(), 'reason': 'rest interval'})
break
# Grab the next thing to search (when available)
status['message'] = 'Waiting for item from queue'
step, step_location, appears, leaves = search_items_queue.get()
# too soon?
if appears and now() < appears + 10: # adding a 10 second grace period
first_loop = True
paused = False
while now() < appears + 10:
if pause_bit.is_set():
paused = True
break # why can't python just have `break 2`...
remain = appears - now() + 10
status['message'] = 'Early for {:6f},{:6f}; waiting {}s...'.format(step_location[0], step_location[1], remain)
if first_loop:
log.info(status['message'])
first_loop = False
time.sleep(1)
if paused:
search_items_queue.task_done()
continue
# too late?
if leaves and now() > (leaves - args.min_seconds_left):
search_items_queue.task_done()
status['skip'] += 1
# it is slightly silly to put this in status['message'] since it'll be overwritten very shortly after. Oh well.
status['message'] = 'Too late for location {:6f},{:6f}; skipping'.format(step_location[0], step_location[1])
log.info(status['message'])
# No sleep here; we've not done anything worth sleeping for. Plus we clearly need to catch up!
continue
# Get the actual altitude of step_location
altitude = geocoder.elevation([step_location[0], step_location[1]])
step_location = (step_location[0], step_location[1], altitude.meters)
# Let the api know where we intend to be for this loop
# doing this before check_login so it does not also have to be done there
# when the auth token is refreshed
api.set_position(*step_location)
# Ok, let's get started -- check our login status
check_login(args, account, api, step_location, status['proxy_url'])
# putting this message after the check_login so the messages aren't out of order
status['message'] = 'Searching at {:6f},{:6f}'.format(step_location[0], step_location[1])
log.info(status['message'])
# Make the actual request (finally!)
response_dict = map_request(api, step_location, args.jitter)
# G'damnit, nothing back. Mark it up, sleep, carry on
if not response_dict:
status['fail'] += 1
consecutive_fails += 1
status['message'] = 'Invalid response at {:6f},{:6f}, abandoning location'.format(step_location[0], step_location[1])
log.error(status['message'])
time.sleep(args.scan_delay)
continue
# Got the response, check for captcha, parse it out, send todo's to db/wh queues
try:
# Captcha check
if args.captcha_solving:
captcha_url = response_dict['responses']['CHECK_CHALLENGE']['challenge_url']
if len(captcha_url) > 1:
status['message'] = 'Account {} is encountering a captcha, starting 2captcha sequence'.format(account['username'])
log.warning(status['message'])
captcha_token = token_request(args, status, captcha_url)
if 'ERROR' in captcha_token:
log.warning("Unable to resolve captcha, please check your 2captcha API key and/or wallet balance")
account_failures.append({'account': account, 'last_fail_time': now(), 'reason': 'catpcha failed to verify'})
break
else:
status['message'] = 'Retrieved captcha token, attempting to verify challenge for {}'.format(account['username'])
log.info(status['message'])
response = api.verify_challenge(token=captcha_token)
if 'success' in response['responses']['VERIFY_CHALLENGE']:
status['message'] = "Account {} successfully uncaptcha'd".format(account['username'])
log.info(status['message'])
else:
status['message'] = "Account {} failed verifyChallenge, putting away account for now".format(account['username'])
log.info(status['message'])
account_failures.append({'account': account, 'last_fail_time': now(), 'reason': 'catpcha failed to verify'})
break
# Parse 'GET_MAP_OBJECTS'
parsed = parse_map(args, response_dict, step_location, dbq, whq, api)
search_items_queue.task_done()
if parsed['count'] > 0:
status['success'] += 1
consecutive_empties = 0
else:
status['noitems'] += 1
consecutive_empties += 1
consecutive_fails = 0
status['message'] = 'Search at {:6f},{:6f} completed with {} finds'.format(step_location[0], step_location[1], parsed['count'])
log.debug(status['message'])
except KeyError:
parsed = False
status['fail'] += 1
consecutive_fails += 1
status['message'] = 'Map parse failed at {:6f},{:6f}, abandoning location. {} may be banned.'.format(step_location[0], step_location[1], account['username'])
log.exception(status['message'])
# Get detailed information about gyms
if args.gym_info and parsed:
# build up a list of gyms to update
gyms_to_update = {}
for gym in parsed['gyms'].values():
# Can only get gym details within 1km of our position
distance = calc_distance(step_location, [gym['latitude'], gym['longitude']])
if distance < 1:
# check if we already have details on this gym (if not, get them)
try:
record = GymDetails.get(gym_id=gym['gym_id'])
except GymDetails.DoesNotExist as e:
gyms_to_update[gym['gym_id']] = gym
continue
# if we have a record of this gym already, check if the gym has been updated since our last update
if record.last_scanned < gym['last_modified']:
gyms_to_update[gym['gym_id']] = gym
continue
else:
log.debug('Skipping update of gym @ %f/%f, up to date', gym['latitude'], gym['longitude'])
continue
else:
log.debug('Skipping update of gym @ %f/%f, too far away from our location at %f/%f (%fkm)', gym['latitude'], gym['longitude'], step_location[0], step_location[1], distance)
if len(gyms_to_update):
gym_responses = {}
current_gym = 1
status['message'] = 'Updating {} gyms for location {},{}...'.format(len(gyms_to_update), step_location[0], step_location[1])
log.debug(status['message'])
for gym in gyms_to_update.values():
status['message'] = 'Getting details for gym {} of {} for location {},{}...'.format(current_gym, len(gyms_to_update), step_location[0], step_location[1])
time.sleep(random.random() + 2)
response = gym_request(api, step_location, gym)
# make sure the gym was in range. (sometimes the API gets cranky about gyms that are ALMOST 1km away)
if response['responses']['GET_GYM_DETAILS']['result'] == 2:
log.warning('Gym @ %f/%f is out of range (%dkm), skipping', gym['latitude'], gym['longitude'], distance)
else:
gym_responses[gym['gym_id']] = response['responses']['GET_GYM_DETAILS']
# increment which gym we're on (for status messages)
current_gym += 1
status['message'] = 'Processing details of {} gyms for location {},{}...'.format(len(gyms_to_update), step_location[0], step_location[1])
log.debug(status['message'])
if gym_responses:
parse_gyms(args, gym_responses, whq)
# Record the time and place the worker left off at
status['last_scan_time'] = now()
status['location'] = step_location
# Always delay the desired amount after "scan" completion
status['message'] += ', sleeping {}s until {}'.format(args.scan_delay, time.strftime('%H:%M:%S', time.localtime(time.time() + args.scan_delay)))
time.sleep(args.scan_delay)
# catch any process exceptions, log them, and continue the thread
except Exception as e:
status['message'] = 'Exception in search_worker using account {}. Restarting with fresh account. See logs for details.'.format(account['username'])
time.sleep(args.scan_delay)
log.error('Exception in search_worker under account {} Exception message: {}'.format(account['username'], e))
account_failures.append({'account': account, 'last_fail_time': now(), 'reason': 'exception'})
# Find missing gps_height values from longitute and latitude column
#use command --> "pip install --user geocoder" to install Geocoder package
from time import sleep
import geocoder
#Store missing gps heights in a dict {id:gps_height}
gpsHeights = {}
for i in data_values.id:
if (data_values.loc[data_values.id == i, "gps_height"] == 0).bool():
latitude = data_values.loc[data_values.id == i, "latitude"]
longitude = data_values.loc[data_values.id == i, "longitude"]
skipped = 0
while True:
sleep(1)
#GPS access key
geoAccess = geocoder.elevation(
[latitude, longitude],
key="AIzaSyDk3VvbBmuUH5J4vGntZAinU6rynEEKGO4")
if geoAccess.ok:
gpsHeights[i] = int(geoAccess.meters)
break
else:
skipped += 1
#Writing the missing gps heights on to a newGpsheights.csv file
pandas.DataFrame.from_dict(gpsHeights,
orient="index").reset_index().to_csv(
"../../../Datasets/heights.csv",
header=["id", "gps_height"],
index=False)
def load_stats(station_location_files=[],
sfile='stations.csv',
shp_file='../geo/limadmin-shp/LIMADMIN.shp'):
if os.path.exists(sfile):
print("Loading station infromation from saved file")
blocs = pd.read_csv(sfile)
else:
print("Creating station information file with relevant information")
import geocoder
import geopandas as gpd
import LatLon
from unidecode import unidecode
from shapely.geometry import Point
loc_files = station_location_files
loclist = []
for ll in loc_files:
loclist.append(load_loc(ll))
blocs = pd.concat(loclist)
blocs.drop_duplicates(subset=['code'], keep='last', inplace=True)
downtown = LatLon.LatLon(LatLon.Latitude(45.504045),
LatLon.Longitude(-73.569101))
stat_loc = [
LatLon.LatLon(LatLon.Latitude(blocs.loc[stat, 'latitude']),
LatLon.Latitude(blocs.loc[stat, 'longitude']))
for stat in blocs.index
]
print("finding elevation for each station")
ggs = [
geocoder.elevation(
"%s, %s" %
(blocs.loc[stat, 'latitude'], blocs.loc[stat, 'longitude']))
for stat in blocs.index
]
elevs = [g.meters for g in ggs]
dist_dt = [downtown.distance(sl) for sl in stat_loc]
blocs['distance_to_downtown'] = dist_dt
blocs['LatLon'] = stat_loc
blocs['elev'] = elevs
nbl = []
for bl in blocs['name']:
t = unidecode(bl)
t.encode(
"ascii"
) #works fine, because all non-ASCII from s are replaced with their equivalents
nbl.append(t)
blocs['name fmt'] = nbl
# remove names which are not easily written to file
del blocs['name']
blocs.index = blocs['code']
# read shape file of region
mtlbr = gpd.read_file(shp_file)
pps = [Point(pt) for pt in zip(blocs['longitude'], blocs['latitude'])]
nns = []
for pp in pps:
shp_indx = np.argmax(mtlbr['geometry'].contains(pp))
nns.append(shp_indx)
blocs['neighborhood code'] = nns
nnames = np.array(
mtlbr.loc[nns, 'NOM'].map(lambda x: unidecode(x).encode('ascii')))
blocs['neighborhood'] = nnames
blocs.to_csv(sfile)
return blocs
lan = location.latitude
lon = location.longitude
fwlocation.write(city + "," + str(round(float(lan),2)) + "," + str(round(float(lon),2)) + "\n")
fwlocation.close()
else:
location = geolocaiton.get(city)
lan = location.split(',')[0]
lon = location.split(',')[1]
# Write into the string data
str_data = str_data + str(round(float(lan),2)) + "," + str(round(float(lon),2)) + ","
'''
The following part generate city's altitude.
geocoder package required.
'''
g = geocoder.elevation([lan,lon])
alt = g.meters
# Write into the string data
str_data = str_data + str(int(alt)) + "|"
'''
Get current time using standard format
'''
ts = time.time()
st = datetime.datetime.fromtimestamp(ts,pytz.timezone(tz_loc.get(city))).strftime('%Y-%m-%dT%H:%M:%SZ')
# Write into the string data
str_data = str_data + st + "|"
'''
Randomly get conditions
'''
#!/usr/bin/python3
## This code accesses the Google Elevation API to return the corresponding elevation from sea level using the LAT and LONG array
import geocoder
import pandas as pd
import numpy as np
proxies = {
'http': 'http://*****:*****@172.27.16.154:3128',
'https': 'http://*****:*****@172.27.16.154:3128',
'HTTP': 'http://*****:*****@172.27.16.154:3128',
'HTTPS': 'http://*****:*****@172.27.16.154:3128'
}
data = pd.read_csv('soilData.csv')
df = data.set_index('ID')
data = np.array(df)
pos = data[:, 0:2]
elevation = np.array([])
for i in range(pos.shape[0]):
g = geocoder.elevation(list(pos[i]), proxies=proxies)
elevation = np.append(elevation, [g.meters])
alt = pd.DataFrame({'Elevation': elevation
}) # Creating a DataFrame to store elevation values
alt.to_csv('elevation.csv') #Exporting the data to a CSV
import geocoder
import sys
degree = 0.0025
lat = float(sys.argv[1])
lon = float(sys.argv[2])
w, h = 10, 10
arr = [[0 for x in range(w)] for y in range(h)]
fin = [[0 for x in range(w - 2)] for y in range(h - 2)]
for y in range(-5, 5):
for x in range(-5, 5):
g = geocoder.elevation([lat + (x * degree), lon + (y * degree)]).meters
if (g == None):
if (x == -5):
arr[y + 5][x + 5] = arr[y + 4][4]
else:
arr[y + 5][x + 5] = arr[y + 5][x + 4]
else:
arr[y + 5][x + 5] = g
print arr
for j in range(8):
for i in range(8):
fin[j][i] = abs(arr[j + 1][i + 1] - arr[j][i + 1]) + abs(
arr[j + 1][i + 1] - arr[j + 1][i + 2]) + abs(
arr[j + 1][i + 1] -
import geocoder
import pandas as pd
import numpy as np
import sys, os
os.chdir("C:\Users\Shikhar\Desktop\MEMS\THESIS\RESEARCH")
station = pd.read_csv('C:\Users\Shikhar\Desktop\MEMS\THESIS\RESEARCH\ground_data_stations_eu.csv', engine='python')
station_parent_dict = station.set_index('stid').T.to_dict('list')
all_stid = station["stid"].tolist()
for stid in all_stid:
# stid='penn_state'
lat, lon = round(station_parent_dict[stid][1],5), round(station_parent_dict[stid][2],5)
a = '['+str(lat)+","+str(lon)+']'
g = geocoder.elevation(a)
b = g.meters
if b==None:
b=0
df_tosave = pd.DataFrame({'country' : station_parent_dict[stid][0],'stid' : [str(stid)], 'nlat' : [round(station_parent_dict[stid][1],2)],'elon' : [round(station_parent_dict[stid][2],2)],'elev' : [round(b,0)]})
cols=['country','stid', 'nlat','elon' ,'elev']
df_tosave=df_tosave[cols]
filename1 = "ground_data_correctelev_eu.csv"
if stid == all_stid[0] :
df_tosave.to_csv(filename1, sep=',',index=False)
else:
with open(filename1, 'a') as f:
(df_tosave).to_csv(f, sep=',',index=False,header=False)
os.chdir("C:\Users\Shikhar\Desktop\MEMS\THESIS\RESEARCH" + "\\Europe\\"+stid + "\\data\\")
fake_station = pd.read_csv('station_info_noElev.csv',engine = 'python') ### for each fake region created, the elevations are downloaded
def address2elev(self, address):
g = geocoder.elevation(address)
elevation = g.elevation
if elevation is None:
elevation = 0
return elevation
# plot initialization and display
pltTitle = str(home.date)
ax = plt.subplot(111, polar=True)
ax.set_title(pltTitle, va='bottom')
ax.set_theta_offset(np.pi / 2.0) # Top = 0 deg = north
ax.set_theta_direction(-1) # clockwise
ax.xaxis.set_ticklabels(['N', 'NE', 'E', 'SE', 'S', 'SW', 'W', 'NW'])
ax.yaxis.set_ticklabels([]) # hide radial tick labels
ax.grid(True)
ax.scatter(theta_plot, r_plot, c=colors, alpha=0.5, picker=True)
ax.set_rmax(1.0)
fig.canvas.mpl_connect('pick_event', onpick)
fig.canvas.mpl_connect('close_event', handle_close)
plt.pause(0.25) # A pause is needed here, but the loop is rather slow
fig.clf()
if __name__ == "__main__":
print()
print('-'*79)
print(TITLE)
print('-'*79)
print()
savedsats = processTLEdata(tleSources)
g = getLocation()
(latitude, longitude) = g.latlng
elevation = geocoder.elevation(g.latlng).meters
plotSats(savedsats=savedsats, latitude=latitude,
longitude=longitude, elevation=elevation)
def test_elevation():
g = geocoder.elevation(location)
assert g.ok
import geocoder
g = geocoder.google('Mountain View, CA')
print g.latlng
g = geocoder.elevation([float(41.387953),float(2.150169)])
print (g.meters)
g = geocoder.google([45.15, -75.14], method='elevation')
print g.meters
def print_ephemeris():
# set the location to report for
with requests.Session() as session:
requester_ip = request.access_route[0]
if str(request.path) == '/nc' or str(request.path) == '/erikshus':
place, latlng, elev = 'nc', [35.6921, -80.4357], 218.2
address: str = u'On Library Park: 35\N{DEGREE SIGN} 41\' 32\"N 80\N{DEGREE SIGN} 26\' 9\"W'
elif str(request.path) == '/gammelhus':
place, latlng, elev = 'gammelhus', [42.1064, -76.2624], 248.7168
address: str = u'Under the streetlamp: 42\N{DEGREE SIGN} 06\' 23\"N 76\N{DEGREE SIGN} 15\' 45\"W'
elif str(request.path) == '/kopernik':
place, latlng, elev = 'kopernik', [42.0020, -76.0334], 528
address: str = u'Kopernik Observatory: 42\N{DEGREE SIGN} 0\' 7\"N 76\N{DEGREE SIGN} 2\' 0\"W'
elif str(request.path) == '/deetop':
place, latlng, elev = 'deetop', [41.9700, -75.6700], 284
address: str = u'Dee-Top Observatory: 41\N{DEGREE SIGN} 58\' 12\"N 75\N{DEGREE SIGN} 40\' 12\"W'
elif str(request.path) == '/stjohns':
place, latlng, elev = 'stjohns', [47.5675, -52.7072], 83
address: str = u'St. John\'s: 47\N{DEGREE SIGN} 34\' 3\"N 52\N{DEGREE SIGN} 42\' 26\"W'
elif str(request.path) == '/greenwich':
place, latlng, elev = 'greenwich', [51.4768, -0.0005], 47.1526
address: str = u'Greenwich Observatory: 51\N{DEGREE SIGN} 28\' 38\"N 0\N{DEGREE SIGN} 0\' 0\"'
else:
if requester_ip == '127.0.0.1':
place, latlng, elev = 'nc', [35.6921, -80.4357], 218.2
address: str = u'On Library Park: 35\N{DEGREE SIGN} 41\' 32\"N 80\N{DEGREE SIGN} 26\' 9\"W'
else:
place, latlng = 'geocode', geocoder.ip(requester_ip, key=GOOGLE_API_KEY, session=session).latlng
# Start with a discovered geocode.
requester_geocode = geocoder.google(latlng, method='reverse', key=GOOGLE_API_KEY, session=session)
# Use the defined address, implies we are using a static location, if undefined make it the geocoded one.
try:
address
except NameError:
address = str(requester_geocode.address)
# Use the defined elevation, implies we are using a static location, if undefined make it the geocoded one.
try:
requester_geocode.elevation = lambda: None
requester_geocode.elevation.meters = lambda: None
setattr(requester_geocode.elevation, 'meters', elev)
except NameError:
requester_geocode.elevation = geocoder.elevation(latlng, key=GOOGLE_API_KEY, session=session)
# Get the timezone
requester_geocode.timeZoneId = geocoder.timezone(latlng, key=GOOGLE_API_KEY, session=session).timeZoneId
# noinspection PyPep8
return render_template('print_times.html',
place=place,
sunset_string=twilight('sunset', requester_geocode),
sunrise_string=twilight('sunrise', requester_geocode),
civil_end_string=twilight('civil_end', requester_geocode),
civil_begin_string=twilight('civil_begin', requester_geocode),
nautical_end_string=twilight('nautical_end', requester_geocode),
nautical_begin_string=twilight('nautical_begin', requester_geocode),
amateur_end_string=twilight('amateur_end', requester_geocode),
amateur_begin_string=twilight('amateur_begin', requester_geocode),
astro_end_string=twilight('astronomical_end', requester_geocode),
astro_begin_string=twilight('astronomical_begin', requester_geocode),
moonrise_string=twilight('moonrise', requester_geocode),
moonset_string=twilight('moonset', requester_geocode),
moon_phase_string=twilight('moon_phase', requester_geocode),
moonset_ante_astro_noon_p=twilight('moonset_ante_astro_noon_p', requester_geocode),
address=address,
latlng=latlng,
elevation=requester_geocode.elevation.meters,
ip=requester_ip)
satellite = ''
for i in arg1:
if (i[0] == '-z'):
zip_code = i[1]
else:
satellite = i[1]
result = get_tle(satellite)
print ''
print "Satellite Info: "+result
result = result.split('\n')
geolocator = Nominatim()
location = geolocator.geocode(zip_code + ", United States")
g = geocoder.elevation((location.latitude, location.longitude))
times = get_times(result, g.meters, location)
#print times
clear_times = []
print 'NOTE: all times are in UTC time'
print ''
#loop through each time found and check to see if visible
for t in times:
clear = is_weather_clear(str(location.latitude),str(location.longitude), t)
night = is_night(str(location.latitude),str(location.longitude), t)
if(clear[0] and night):
print 'Clear time found! --> '+t
## use geopy to find latitude and longitude
lats, longs, elevations = [], [], []
## get lat,long and elevation
for loc in df["location"].values:
print("\n", loc)
geolocator = Nominatim()
#g = geocoder.google(loc)
location = geolocator.geocode(loc)
if location:
lats.append(location.latitude)
longs.append(location.longitude)
g = geocoder.elevation([location.latitude, location.longitude],
key=API_KEY)
elevation = g.meters
elevations.append(elevation)
print("\t", location.latitude, location.longitude)
print("\t", elevation)
else:
lats.append("NaN")
longs.append("NaN")
elevations.append(elevation)
print("did not find it")
df['lat'] = lats
df['long'] = longs
df['elevation'] = elevations
df.to_csv("snowfall.csv", sep=';')
pltTitle = str(home.date)
ax = plt.subplot(111, polar=True)
ax.set_title(pltTitle, va='bottom')
ax.set_theta_offset(np.pi / 2.0) # Top = 0 deg = north
ax.set_theta_direction(-1) # clockwise
ax.xaxis.set_ticklabels(['N', 'NE', 'E', 'SE', 'S', 'SW', 'W', 'NW'])
ax.yaxis.set_ticklabels([]) # hide radial tick labels
ax.grid(True)
ax.scatter(theta_plot, r_plot, c=colors, alpha=0.5, picker=True)
ax.set_rmax(1.0)
fig.canvas.mpl_connect('pick_event', onpick)
fig.canvas.mpl_connect('close_event', handle_close)
plt.pause(0.25) # A pause is needed here, but the loop is rather slow
fig.clf()
if __name__ == "__main__":
print()
print('-' * 79)
print(TITLE)
print('-' * 79)
print()
savedsats = processTLEdata(tleSources)
g = getLocation()
(latitude, longitude) = g.latlng
elevation = geocoder.elevation(g.latlng).meters
plotSats(savedsats=savedsats,
latitude=latitude,
longitude=longitude,
elevation=elevation)
def test_elevation():
g = geocoder.elevation(location)
assert g.ok
# -*- coding: utf-8 -*- """ Created on Thu May 9 11:33:24 2019 @author: nicho """ import geocoder g = geocoder.elevation() topo_points = [] topo_points.append(g)
def get_location(self, given_location=None):
''' Get user location based on input '''
print('Location input examples:')
print(' "San Francisco, CA, USA"')
print(' "37.7749295, -122.4194155, 15.60"')
print(' "37:46:29.7N, -122:25:09.9E, 15.60"')
print('')
input_function = input
self.home = ephem.Observer()
coords = None
while True:
if given_location:
print('Given location: "{}"'.format(given_location))
location_keyword = given_location
given_location = None
else:
location_keyword = input_function(
'Enter location ["{}"]: '.format(self.default_location))
if not location_keyword or location_keyword.isspace():
location_keyword = self.default_location
coords = self._parse_coords(location_keyword)
if coords:
self.location = location_keyword
(self.latitude, self.longitude, self.elevation) = coords
self.elevation = float(self.elevation)
self.friendly_location = "coordinates"
break
else:
gloc = geocoder.google(location_keyword, key=SECRET_API_KEY)
print(location_keyword, gloc.status)
if gloc.status != 'OK':
print('Location not found: "{}"'.format(location_keyword))
location_keyword = None
else:
self.location = gloc.address
if SECRET_API_KEY == '':
print(
"No API key - using default elevation {}m".format(
DEFAULT_ELEVATION))
self.elevation = DEFAULT_ELEVATION
else:
for _ in range(MAX_RETRIES):
self.elevation = geocoder.elevation(
gloc.latlng, key=SECRET_API_KEY).meters
if self.elevation is not None:
break
time.sleep(RETRY_DELAY)
else:
print(
"Retries exceeded - using default elevation {}m"
.format(DEFAULT_ELEVATION))
self.elevation = DEFAULT_ELEVATION
(self.latitude, self.longitude) = gloc.latlng
# (self.latitude, self.longitude) = (gloc.lat, gloc.lng)
self.friendly_location = u"{}".format(self.location)
# print(gloc.json)
print()
break
self.config['main']['default_location'] = self.location
print(self.elevation)
self.home.elevation = self.elevation # meters
self.home.lat = str(self.latitude) # +N
self.home.lon = str(self.longitude) # +E
print("Found: {}N, {}E, {:0.2f}m".format(self.home.lat, self.home.lon,
self.home.elevation))
self.friendly_location = "{} ({:4.7f}N, {:4.7f}E) {:0.2f}m".format(
self.friendly_location, self.home.lat / ephem.degree,
self.home.lon / ephem.degree, self.home.elevation)
print("Location: {}".format(self.friendly_location))
print()