def update_site_covariates(site):
site_pk = site.pk
point = site.location
north_pole = (90, 0)
south_pole = (-90, 0)
existing_covariates = set(site.covariates.all().values_list("name",
flat=True))
supported_covariates = set([c for c, _ in Covariate.SUPPORTED_COVARIATES])
coral_atlas = CoralAtlasCovariate()
if ((site_pk and Site.objects.get(pk=site_pk).location == point
and not supported_covariates.difference(existing_covariates))
or geopy_distance(
(point.y, point.x), north_pole).km < coral_atlas.radius
or geopy_distance(
(point.y, point.x), south_pole).km < coral_atlas.radius):
return
results = coral_atlas.fetch([(point.x, point.y)])
if not results:
return
result = results[0]
data_date = result["date"]
requested_date = result["requested_date"]
aca_covariates = result.get("covariates") or dict()
aca_benthic = aca_covariates.get("aca_benthic") or []
aca_geomorphic = aca_covariates.get("aca_geomorphic") or []
aca_benthic_covariate = Covariate.objects.get_or_none(
name="aca_benthic", site_id=site_pk) or Covariate(name="aca_benthic",
site=site)
aca_benthic_covariate.display = "Alan Coral Atlas Benthic"
aca_benthic_covariate.datestamp = data_date
aca_benthic_covariate.requested_datestamp = requested_date
aca_benthic_covariate.value = aca_benthic
aca_benthic_covariate.save()
aca_geomorphic_covariate = Covariate.objects.get_or_none(
name="aca_geomorphic", site=site) or Covariate(name="aca_geomorphic",
site=site)
aca_geomorphic_covariate.display = "Alan Coral Atlas Geomorphic"
aca_geomorphic_covariate.datestamp = data_date
aca_geomorphic_covariate.requested_datestamp = requested_date
aca_geomorphic_covariate.value = aca_geomorphic
aca_geomorphic_covariate.save()
def resolve_tweet(self, tweet):
# The Twitter API allows tweet['coordinates'] to both be absent
# and None, such that the key exists but has a None value.
# "tweet.get('coordinates', {})" would return None in the latter
# case, with None.get() in turn causing an AttributeError. (None
# or {}), on the other hand, is {}, and {}.get() is okay.
tweet_coordinates = (tweet.get('coordinates') or {}).get('coordinates')
if not tweet_coordinates:
return None
tweet_coordinates = Point(longitude=tweet_coordinates[0],
latitude=tweet_coordinates[1])
closest_candidate = None
closest_distance = float('inf')
for cell in self._cells_for(tweet_coordinates.latitude,
tweet_coordinates.longitude):
for candidate in self.location_map[cell]:
candidate_coordinates = Point(
candidate.latitude, candidate.longitude)
distance = geopy_distance(
tweet_coordinates, candidate_coordinates).miles
if closest_distance > distance:
closest_candidate = candidate
closest_distance = distance
if closest_distance < self.max_distance:
return (False, closest_candidate)
return None
def get_customers_within_miles(self, x=5):
from geopy.distance import distance as geopy_distance
return [
i.pk for i in Customer.objects.all()
if i.location and self.location and
geopy_distance(i.location.location, self.location.location).mi <= x
]
def findInteractionDataFromShapes(sourceShape, sourceCollarDataPoint, distance=settings.DEFAULT_INTERACTION_DISTANCE, timedelta=None, starttime=None, endtime=None, interactiongroup=None):
"""
findInteractionDataFromShapes does the same as the above function for animals but with shapes.
"""
list_of_data_points_to_search = CollarData.objects.all()
if starttime:
if endtime:
list_of_data_points_to_search = list_of_data_points_to_search.filter(GMT_DATETIME__range=(starttime, endtime))
else:
list_of_data_points_to_search = list_of_data_points_to_search.filter(GMT_DATETIME__gte=starttime)
elif endtime:
list_of_data_points_to_search = list_of_data_points_to_search.filter(GMT_DATETIME__lte=endtime)
if distance:
list_of_data_points_to_search = list_of_data_points_to_search.filter(LOCATION__distance_lte=(sourceShape.shape, D(km=distance)))
if timedelta:
real_time_delta = datetime.timedelta(seconds=timedelta)
start_delta = sourceCollarDataPoint.GMT_DATETIME - real_time_delta
end_delta = sourceCollarDataPoint.GMT_DATETIME + real_time_delta
list_of_data_points_to_search = list_of_data_points_to_search.filter(GMT_DATETIME__range=(start_delta, end_delta))
for match in list_of_data_points_to_search:
shape_interaction_to_add = ShapeInteraction()
shape_interaction_to_add.source_shapes = sourceShape
shape_interaction_to_add.destination_animal_data_point = match
shape_interaction_to_add.distance = geopy_distance(sourceShape.shape,match.LOCATION).kilometers
shape_interaction_to_add.interaction_group = interactiongroup
shape_interaction_to_add.date_time = match.GMT_DATETIME
try:
shape_interaction_to_add.clean()
shape_interaction_to_add.save()
except ValidationError:
print "The entry already exists"
zip_content = ContentFile(exportShape())
interactiongroup.zip_file.save("sampleFile.zip",zip_content)
interactiongroup.save()
def find_place_from_info(info, provider):
from .venue_providers import venue_providers
venue_provider = venue_providers[provider]
if not info.get('geo'):
if not info.get('address'):
print('No address found.')
return
address = info['address']
point, formatted_address = geocode(address)
if not point:
print('Geocoding failed.', address)
return
info['geo'] = point
info['address'] = formatted_address
place = venue_provider.match_place(
[info['geo'].coords[1], info['geo'].coords[0]], info['name'])
if not place:
print('No match found.')
return None
place_point = Point(place['lng'], place['lat'])
distance = geopy_distance(place_point, info['geo'])
if distance.meters > 100:
print('Matches too far away.')
return None
place['geo'] = place_point
return place
def resolve_tweet(self, tweet):
# The Twitter API allows tweet['coordinates'] to both be absent
# and None, such that the key exists but has a None value.
# "tweet.get('coordinates', {})" would return None in the latter
# case, with None.get() in turn causing an AttributeError. (None
# or {}), on the other hand, is {}, and {}.get() is okay.
tweet_coordinates = (tweet.get('coordinates') or {}).get('coordinates')
if not tweet_coordinates:
return None
tweet_coordinates = Point(longitude=tweet_coordinates[0],
latitude=tweet_coordinates[1])
closest_candidate = None
closest_distance = float('inf')
for cell in self._cells_for(tweet_coordinates.latitude,
tweet_coordinates.longitude):
for candidate in self.location_map[cell]:
candidate_coordinates = Point(candidate.latitude,
candidate.longitude)
distance = geopy_distance(tweet_coordinates,
candidate_coordinates).miles
if closest_distance > distance:
closest_candidate = candidate
closest_distance = distance
if closest_distance < self.max_distance:
return (False, closest_candidate)
return None
def get(self,request):
latitude = self.request.query_params.get('latitude')
longitude = self.request.query_params.get('longitude')
radius = self.request.query_params.get('radius')
point1 = Point(float(latitude), float(longitude))
count = 0
avg = 0
std = 0
values = []
for res in Restaurants.objects.raw('select * from melp_res_restaurants'):
point2 = Point(res.lat, res.lng)
result = geopy_distance(point1,point2).meters
if int(result) <= int(radius):
count = count + 1;
avg = avg + res.rating
values.append(res.rating)
if count > 0:
avg = avg/count
addition = 0
for val in values:
addition = addition + abs(val-avg)**2
std = math.sqrt(addition/count)
return Response({
"count": count,
"avg": avg,
"std": std,
})
def length(self):
'''Determine the length of the route.'''
points = (waypoint.point
for waypoint in self.waypoint_set.orderby('time'))
meters = sum(
geopy_distance(a, b).meters for (a, b) in pairwise(points))
return Distance(m=meters)
def get_distance(request):
if request.method == "GET":
user = request.user
serialized_user = serializers.serialize('json', [ user ])
user_latitude = request.GET.get('user_latitude')
user_longitude = request.GET.get('user_longitude')
user_position = (user_latitude, user_longitude)
# fixed_position = (41.8781, 87.6298)
fixed_position = (-1.3034531999999999, 36.7927116)
#fixed_position = (-1.2828671999999999, 36.831232)
distance = geopy_distance(user_position, fixed_position)
my_user ={
"first_name":user.first_name,
"last_name":user.last_name
}
dist = distance.meters
context = {
"distance":dist,
"user":serialized_user,
"user_data":my_user
}
print(dist)
return JsonResponse(context,safe=False)
def run(self):
self.logging.info("Running Gps..")
nm2km = 1.852
idx = 0
self.current_position = self.vessel["start_point"]
self.next_waypoint = self.vessel["waypoints"][idx]
while True:
# Coordinates
lat1 = self.current_position["lat"]
lon1 = self.current_position["lon"]
lat2 = self.next_waypoint["lat"]
lon2 = self.next_waypoint["lon"]
kts = self.current_position["kts"]
# Nm travelled over the last random_sleep
distance = (kts / 3600) * self.random_sleep
bearing = self.get_bearing(lat1, lon1, lat2, lon2)
origin = geopy.Point(lat1, lon1)
destination = geodesic(kilometers=(distance * nm2km)).destination(
origin, bearing)
msg = self.gll(destination.latitude, destination.longitude)
self.logging.info("{}{}".format(self.log_prefix, msg))
self.mqtt_publisher.publish(self.vessel["id"], msg)
msg = self.hdt(bearing)
self.logging.info("{}{}".format(self.log_prefix, msg))
self.mqtt_publisher.publish(self.vessel["id"], msg)
msg = self.vhw(bearing, kts)
self.logging.info("{}{}".format(self.log_prefix, msg))
self.mqtt_publisher.publish(self.vessel["id"], msg)
self.current_position["lat"] = destination.latitude
self.current_position["lon"] = destination.longitude
# Work out how close to waypoint we are.
distanceToWaypoint = geopy_distance(
geopy.Point(self.current_position["lat"],
self.current_position["lon"]),
geopy.Point(lat2, lon2)).miles
if distanceToWaypoint < 1:
if idx == (len(self.vessel["waypoints"]) - 1):
idx = 0
else:
idx += 1
self.current_position = self.next_waypoint
self.next_waypoint = self.vessel["waypoints"][idx]
# print("DISTANCE", distanceToWaypoint)
time.sleep(self.random_sleep)
def get_restaurants(longitude, latitude, categories):
'''
Returns objects at given point that satisfy set of categories,
or all of them if categories is empty.
input:
str longitude
str latitude
list categories
output:
list of dicts
'''
currentPoint = geos.GEOSGeometry('POINT(%s %s)' %(longitude, latitude))
distance_m = 15000
list_of_cats = []
for c in categories:
list_of_cats.append(models.Category.objects.get(name=c))
if list_of_cats:
restaurants = models.Restaurant.gis.filter(
location__distance_lte=(currentPoint, distance_m),
categories__in=list_of_cats
)
else:
restaurants = models.Restaurant.gis.filter(location__distance_lte=(currentPoint, distance_m))
# seems that this thing doesn't actually order objects by distance
# btw at this step there is no distance property in objects or rows in table
# restaurants = restaurants.distance(currentPoint).order_by('distance')
# String based JSON
data = serializers.serialize('json', restaurants)
# Actual JSON object to be edited
data = json.loads(data)
# if venue has multiple categories and some of them
# are in list_of_cats than venue will appear in data that some times
# so we will uniqify venues in data
if len(list_of_cats) > 1:
data = {v['pk']:v for v in data}.values()
for restaurant in data:
d = geopy_distance(currentPoint, restaurant['fields']['location']).kilometers
restaurant['fields']['distance'] = round(d, 1)
# Fancy splitting on POINT(lon, lat)
lng = restaurant['fields']['location'].split()[1][1:]
lat = restaurant['fields']['location'].split()[2][:-1]
del restaurant['fields']['location']
restaurant['fields']['lng'] = lng
restaurant['fields']['lat'] = lat
# Replace category ids with names
cat_names = []
for cat_id in restaurant['fields']['categories']:
cat = models.Category.objects.get(id=cat_id)
cat_names.append(cat.name)
restaurant['fields']['categories'] = cat_names
return data
def get_active_customers_miles(self, x=5, filter_pks=[]):
from geopy.distance import distance as geopy_distance
if len(filter_pks) > 0:
return [
i.pk
for i in Customer.objects.exclude(pk__in=filter_pks).filter(
verified=True, active=True, offer_count=0)
if i.location and self.location and geopy_distance(
i.location.location, self.location.location).mi <= x
]
else:
return [
i.pk for i in Customer.objects.filter(
verified=True, active=True, offer_count=0)
if i.location and self.location and geopy_distance(
i.location.location, self.location.location).mi <= x
]
def get_center_coords(cls, min_lat, min_lng, max_lat, max_lng):
approx_distance = distances.geographic_distance(
min_lat, min_lng, max_lat, max_lng,)
d = geopy_distance(kilometers=approx_distance / 2.0)
center = d.destination(GeoPyPoint(max_lat, max_lng), 225)
return (center.latitude, center.longitude,)
def get_center_coords(cls, min_lat, min_lng, max_lat, max_lng):
approx_distance = distances.geographic_distance(
min_lat, min_lng, max_lat, max_lng,)
d = geopy_distance(kilometers=approx_distance / 2.0)
center = d.destination(GeoPyPoint(max_lat, max_lng), 225)
return (center.latitude, center.longitude,)
def count_merchants_within_miles(self, x=5): from geopy.distance import distance as geopy_distance count = 0 for i in Merchant.objects.all() : if i.location and self.location: if geopy_distance(i.location.location,self.location.location).mi<=x: count = count + 1 return count
def count_offers_within_miles (self, x=5): from offer.models import Offer from geopy.distance import distance as geopy_distance count = 0 for i in Offer.objects.filter(expired_time__gt=datetime.now()): if self.location and i.merchant.location: if geopy_distance(self.location.location,i.merchant.location.location).mi<=x: count = count + 1 return count
def count_merchants_within_miles(self, x=5):
from geopy.distance import distance as geopy_distance
count = 0
for i in Merchant.objects.all():
if i.location and self.location:
if geopy_distance(i.location.location,
self.location.location).mi <= x:
count = count + 1
return count
def get_masjids(longitude, latitude, categories):
'''
Returns objects at given point that satisfy set of categories,
or all of them if categories is empty.
input:
str longitude
str latitude
list categories
output:
list of dicts
'''
currentPoint =Point(float(longitude), float(latitude)) #geos.GEOSGeometry('POINT(%s %s)' % (longitude, latitude))
distance_m = 15000
list_of_cats = []
for c in categories:
list_of_cats.append(Cuisine.objects.get(name=c))
if list_of_cats:
masjids = Masjid.gis.filter(
location__distance_lte=(currentPoint, distance_m),
categories__in=list_of_cats
)
else:
masjids = Masjid.gis.filter(location__distance_lte=(currentPoint, distance_m))
# String based JSON
data = serializers.serialize('json', masjids)
# Actual JSON object to be edited
data = json.loads(data)
# if venue has multiple categories and some of them
# are in list_of_cats than venue will appear in data that some times
# so we will uniqify venues in data
if len(list_of_cats) > 1:
data = {v['pk']: v for v in data}.values()
for masjid in data:
d = geopy_distance(currentPoint, masjid['fields']['location']).kilometers
masjid['fields']['distance'] = round(d, 1)
# Fancy splitting on POINT(lon, lat)
lng = masjid['fields']['location'].split()[1][1:]
lat = masjid['fields']['location'].split()[2][:-1]
del masjid['fields']['location']
masjid['fields']['lng'] = lng
masjid['fields']['lat'] = lat
# Replace category ids with names
cat_names = []
for cat in Sect.objects.filter(id=masjid['fields']['sect']):
cat_names.append(cat.name)
masjid['fields']['sects'] = cat_names
return data
def get_merchants_within_miles(self, x=5):
from geopy.distance import distance as geopy_distance
#print self.address_1 + " " + self.zipcode.code, self.location.location.x, self.location.location.y
#for i in Merchant.objects.all():
#print i , i.location.location.x, i.location.location.y, geopy_distance(i.location.location,self.location.location).mi
return [
i.pk for i in Merchant.objects.all()
if i.location and self.location and
geopy_distance(i.location.location, self.location.location).mi <= x
]
def count_offers_within_miles(self, x=5):
from offer.models import Offer
from geopy.distance import distance as geopy_distance
count = 0
for i in Offer.objects.filter(expired_time__gt=datetime.now()):
if self.location and i.merchant.location:
if geopy_distance(self.location.location,
i.merchant.location.location).mi <= x:
count = count + 1
return count
def get_masjids(longitude, latitude, categories):
'''
Returns objects at given point that satisfy set of categories,
or all of them if categories is empty.
input:
str longitude
str latitude
list categories
output:
list of dicts
'''
currentPoint = geos.GEOSGeometry('POINT(%s %s)' %(longitude, latitude))
distance_m = 15000
list_of_cats = []
for c in categories:
list_of_cats.append(models.Category.objects.get(name=c))
if list_of_cats:
masjids = models.Masjid.gis.filter(
location__distance_lte=(currentPoint, distance_m),
categories__in=list_of_cats
)
else:
masjids = models.Masjid.gis.filter(location__distance_lte=(currentPoint, distance_m))
# String based JSON
data = serializers.serialize('json', masjids)
# Actual JSON object to be edited
data = json.loads(data)
# if venue has multiple categories and some of them
# are in list_of_cats than venue will appear in data that some times
# so we will uniqify venues in data
if len(list_of_cats) > 1:
data = {v['pk']:v for v in data}.values()
for masjid in data:
d = geopy_distance(currentPoint, masjid['fields']['location']).kilometers
masjid['fields']['distance'] = round(d, 1)
# Fancy splitting on POINT(lon, lat)
lng = masjid['fields']['location'].split()[1][1:]
lat = masjid['fields']['location'].split()[2][:-1]
del masjid['fields']['location']
masjid['fields']['lng'] = lng
masjid['fields']['lat'] = lat
# Replace category ids with names
cat_names = []
for cat_id in masjid['fields']['categories']:
cat = models.Category.objects.get(id=cat_id)
cat_names.append(cat.name)
masjid['fields']['categories'] = cat_names
return data
def getClosestStation(dataPoint):
"""
getClosestStation will call the above scrape stations method to update the
database first. After this has been completed it will get the location of
its data point and compare that against all weather stations. Once the
closest data point has been found it will return the station and the data
point.
"""
all_stations = Station.objects.all()
distance_to_station = geopy_distance(dataPoint.LOCATION, all_stations[0].LOCATION).kilometers
the_closest_station = all_stations[0]
for station in all_stations:
distance = geopy_distance(dataPoint.LOCATION, station.LOCATION).kilometers
if distance < distance_to_station:
distance_to_station = distance
the_closest_station = station
print "The closest station was: " + str(the_closest_station)
print "It was: " + str(distance_to_station) + " kilometers away from the collar data point."
station.distanceToPoint = distance_to_station
return station
def add_calculated_fields(*, current_item: Dict[str, Any], initial_status,
current_status, position_list, lap_list, total,
charging_process_list, forecast,
configuration: Configuration,
current_item_index: Optional[int],
now_dt: pendulum.DateTime):
"""
Add hardcoded calculated fields into current_item
Note the prototype is the same for all calculated functions even if all inputs are not used
:param current_item:
:param initial_status:
:param current_status:
:param position_list:
:param lap_list:
:param total:
:param charging_process_list:
:param forecast:
:param configuration:
:param current_item_index:
:param now_dt: time to calculate data for.
:return:
"""
initial_odo = initial_status[
'odometer'] if 'odometer' in initial_status else None
current_odo = current_item[
'odometer'] if 'odometer' in current_item else None
start_time = configuration.start_time
end_time = configuration.start_time.add(hours=configuration.hours)
current_item[
'distance'] = current_odo - initial_odo if current_odo is not None and initial_odo is not None else None
current_item['air_distance'] = geopy_distance(
(configuration.start_latitude, configuration.start_longitude),
(current_item['latitude'], current_item['longitude'])
).km if 'latitude' in current_item and current_item['latitude'] is not None \
and 'longitude' in current_item and current_item['longitude'] is not None else None
current_item['start_time'] = start_time
current_item['end_time'] = end_time
current_item['time_since_start'] = pendulum.period(start_time, now_dt, True) \
if now_dt >= start_time else pendulum.period(now_dt, now_dt, True)
current_item['time_to_end'] = pendulum.period(now_dt, end_time, True) \
if now_dt <= end_time else pendulum.period(now_dt, now_dt, True)
current_item['slow_data_age'] = pendulum.period(current_item['slow_data_date'], now_dt) \
if current_item and 'slow_data_date' in current_item and current_item['slow_data_date'] else None
current_item['fast_data_age'] = pendulum.period(current_item['fast_data_date'], now_dt) \
if current_item and 'fast_data_date' in current_item and current_item['fast_data_date'] else None
current_item['lap_number'] = lap_list[-1]['lap_id'] if lap_list else None
def distance(*points):
'''
Find the geodesic distance between two or more points.
If more than two points are specified, the points are assumed
to be on a route. The total length of this route is
calculated.
Returns a django.contrib.gis.measure.Distance object.
'''
meters = sum(geopy_distance(a, b).meters for (a, b) in pairwise(points))
return Distance(m=meters)
def calculate_distance(user_id1, user_id2, units='miles'):
"""
calculate distance
https://docs.djangoproject.com/en/1.8/ref/contrib/gis/measure/#supported-units
km Kilometre, Kilometer
mi Mile
m Meter, Metre
"""
g = GeoIP()
distance = [10000, 'miles']
try:
user1_location = UserLocation.objects.filter(
user_id=user_id1).order_by('-timestamp')[0]
user1_point = user1_location.geometry
except IndexError:
try:
user_id1_ip = str(UserIPAddress.objects.get(user_id=user_id1).ip)
point = g.geos(user_id1_ip)
if not point:
return distance
user1_point = GEOSGeometry(point)
except UserIPAddress.DoesNotExist:
return distance
try:
user2_location = UserLocation.objects.filter(
user_id=user_id2).order_by('-timestamp')[0]
user2_point = user2_location.geometry
except IndexError:
try:
user_id2_ip = str(UserIPAddress.objects.get(user_id=user_id2).ip)
point = g.geos(user_id2_ip)
if not point:
return distance
user2_point = GEOSGeometry(point)
except UserIPAddress.DoesNotExist:
return distance
try:
_units = FilterState.objects.filter(user_id=user_id1)[0].distance_unit
if _units in ('miles', 'km'):
units = _units
except IndexError:
pass
distance = geopy_distance(user1_point, user2_point)
if getattr(distance, units) < 1.0:
if getattr(distance, 'm') <= 10.0:
return [10, 'meters']
else:
return [int(getattr(distance, 'm')), 'meters']
else:
return [int(getattr(distance, units)), units]
def is_forecast_location_accurate(self, forecast):
if not forecast.latitude or not forecast.longitude:
return False
location_service = LocationService(user = self.__user)
current_location = location_service.get_current_location()
current_coords = (current_location.latitude, current_location.longitude)
forecast_coords = (forecast.latitude, forecast.longitude)
distance = geopy_distance(current_coords, forecast_coords)
if distance.km <= 50:
return True
else:
return False
def get_bounds(cls, center, distance):
"""
Returns a Bounds object based on a center point and a distance.
"""
d = geopy_distance(kilometers=distance)
point = GeoPyPoint(center.latitude, center.longitude)
ne = d.destination(point, 45)
sw = d.destination(point, 225)
return Bounds(
sw=Point(Decimal(sw.latitude), Decimal(sw.longitude)),
ne=Point(Decimal(ne.latitude), Decimal(ne.longitude)))
def get_bounds(cls, center, distance):
"""
Returns a Bounds object based on a center point and a distance.
"""
d = geopy_distance(kilometers=distance)
point = GeoPyPoint(center.latitude, center.longitude)
ne = d.destination(point, 45)
sw = d.destination(point, 225)
return Bounds(
sw=Point(Decimal(sw.latitude), Decimal(sw.longitude)),
ne=Point(Decimal(ne.latitude), Decimal(ne.longitude)))
def compute_missing_distances(trackpoints):
trackpoints = iter(trackpoints)
p = next(trackpoints, None)
if p is None:
return
if p.distance_meters is None:
p.distance_meters = 0.0
for t in trackpoints:
if not t.distance_meters:
t.distance_meters = p.distance_meters + geopy_distance(
(p.latitude_degrees, p.longitude_degrees),
(t.latitude_degrees, t.longitude_degrees),
).m
p = t
def find_default_image(self, user_pnt):
cities = SearchQuerySet().using('mobile_api').filter(django_ct='core.citypicture')\
.distance('geometry', user_pnt).order_by('distance')
closest_city = cities[0]
dist_btwn_city_user = geopy_distance((user_pnt.y, user_pnt.x), (closest_city.geometry.y, closest_city.geometry.x)).miles
if dist_btwn_city_user <= closest_city.radius:
default_image = closest_city.picture_url
else:
try:
default = cities.filter(text='Default')[0]
default_image = default.picture_url
except:
default_image = 'https://s3.amazonaws.com/pushpennyapp/pushpenny-default.jpg'
return default_image
def ponto_1(request):
if request.method == 'POST':
ulat1 = request.POST.get("latitude1")
unome = request.POST.get("nome1")
unome2 = request.POST.get("nome2")
ulng1 = request.POST.get("longitude1")
coord1 = fromstr('POINT(%s %s )' % (ulng1, ulat1), srid=4326)
ulat2 = request.POST.get("latitude2")
ulng2 = request.POST.get("longitude2")
coord2 = fromstr('POINT(%s %s )' % (ulng2, ulat2), srid=4326)
ud = geopy_distance(coord1, coord2)
novo1 = ponto1(nome=unome,
ponto1=coord1,
ponto2=coord2,
nome2=unome2,
d=ud)
novo1.save()
d = geopy_distance(coord1, coord2)
print d.meters
return render_to_response('ponto_1.html')
else:
HttpResponse("ERRO")
def find_default_image(self, user_pnt):
cities = SearchQuerySet().using('mobile_api').filter(django_ct='core.citypicture')\
.distance('geometry', user_pnt).order_by('distance')
closest_city = cities[0]
dist_btwn_city_user = geopy_distance(
(user_pnt.y, user_pnt.x),
(closest_city.geometry.y, closest_city.geometry.x)).miles
if dist_btwn_city_user <= closest_city.radius:
default_image = closest_city.picture_url
else:
try:
default = cities.filter(text='Default')[0]
default_image = default.picture_url
except:
default_image = 'https://s3.amazonaws.com/pushpennyapp/pushpenny-default.jpg'
return default_image
def get_offers_within_miles(self, x=5):
from offer.models import Offer
from geopy.distance import distance as geopy_distance
"""
# for testing
print "All offers: %d"%Offer.objects.all().count()
for i in Offer.objects.all():
print "Customer location:", self.location.location
print "Merchant location:", i.merchant.location.location
print "Distance:", geopy_distance(self.location.location, i.merchant.location.location).mi
"""
return [
i for i in Offer.objects.filter(expired_time__gt=datetime.now())
if self.location and i.merchant.location and geopy_distance(
self.location.location, i.merchant.location.location).mi <= x
]
def get_geo_distance(self, pre_ip, cur_ip):
'''Caculate a distance in miles and meters with SRC IP and DST IP'''
if self.is_ip(pre_ip) is False or self.is_ip(pre_ip) is False:
return ""
if self._g_geodb == None: return ""
pre_gir = self._g_geodb.record_by_addr(pre_ip)
pre_loc = []
cur_loc = []
if pre_gir != None:
if pre_gir['latitude']: pre_loc.append(pre_gir['latitude'])
if pre_gir['longitude']: pre_loc.append(pre_gir['longitude'])
cur_gir = self._g_geodb.record_by_addr(cur_ip)
if cur_gir != None:
if cur_gir['latitude']: cur_loc.append(cur_gir['latitude'])
if cur_gir['longitude']: cur_loc.append(cur_gir['longitude'])
d = geopy_distance(pre_loc, cur_loc)
return (d.meters, d.miles)
def appendSortCSV(tempList):
destList = []
geolocator = Nominatim(user_agent="Hello")
origin = geolocator.geocode("Stony Brook University")
p1 = Point(origin.latitude, origin.longitude)
for pos in range(len(tempList)):
dest = geolocator.geocode(tempList[pos])
p2 = Point(dest.latitude, dest.longitude)
points = (p1, p2)
destList.append({
'Address':
tempList[pos],
'Distance':
float(
round(
sum(
geopy_distance(a, b).meters
for (a, b) in pairwise(points)) * 0.000621371, 4))
})
destList.sort(key=distance)
for pos in range(len(destList)):
print destList[pos]
def findAllMatchingByDistance(sourceCollar, distance=None):
"""
findAllMatchingByDistance This checks for interactions based on a distance parameter, dates must be precise
"""
if not distance:
return distance
sourceCollarDataPoints = CollarData.objects.filter(collar=sourceCollar)
matches = CollarData.objects.exclude(collar=sourceCollar)
matchesToReport = []
for sourceDataPoint in sourceCollarDataPoints:
thesematches = matches.filter(GMT_DATETIME=sourceDataPoint.GMT_DATETIME)
thesematches = thesematches.filter(LOCATION__distance_lte=(sourceDataPoint.LOCATION, D(km=distance)))
if len(thesematches) > 0:
for i,match in enumerate(thesematches):
thisMatch = Collar()
thisMatch.sourceCollarID = sourceDataPoint.collar.collarID
thisMatch.matchedCollarID = match.collar.collarID
thisMatch.datetime = sourceDataPoint.GMT_DATETIME
thisMatch.locationX = sourceDataPoint.LOCATION.x
thisMatch.locationY = sourceDataPoint.LOCATION.y
thisMatch.distance = str(geopy_distance(sourceDataPoint.LOCATION,match.LOCATION))
matchesToReport.append(thisMatch)
return matchesToReport
def findInteractionFromDataPoint(sourceCollarDataPoint, distance=settings.DEFAULT_INTERACTION_DISTANCE, timedelta=None, starttime=None, endtime=None, interactiongroup=None):
"""
findInteractionFromDataPoint is used to calculate interaction data based on a singular data point.
Once a match has been reported it is then added to the group.
Input parameters should be self explanitory.
"""
list_of_data_points_to_search = CollarData.objects.exclude(collar=sourceCollarDataPoint.collar)
if starttime:
if endtime:
list_of_data_points_to_search = list_of_data_points_to_search.filter(GMT_DATETIME__range=(starttime, endtime))
else:
list_of_data_points_to_search = list_of_data_points_to_search.filter(GMT_DATETIME__gte=starttime)
elif endtime:
list_of_data_points_to_search = list_of_data_points_to_search.filter(GMT_DATETIME__lte=endtime)
if distance:
list_of_data_points_to_search = list_of_data_points_to_search.filter(LOCATION__distance_lte=(sourceCollarDataPoint.LOCATION, D(km=distance)))
if timedelta:
real_time_delta = datetime.timedelta(seconds=timedelta)
start_delta = sourceCollarDataPoint.GMT_DATETIME - real_time_delta
end_delta = sourceCollarDataPoint.GMT_DATETIME + real_time_delta
list_of_data_points_to_search = list_of_data_points_to_search.filter(GMT_DATETIME__range=(start_delta, end_delta))
else:
list_of_data_points_to_search = list_of_data_points_to_search.filter(GMT_DATETIME=sourceCollarDataPoint.GMT_DATETIME)
for match in list_of_data_points_to_search:
animal_interaction_to_add = AnimalInteraction()
animal_interaction_to_add.source_animal_data_point = sourceCollarDataPoint
animal_interaction_to_add.destination_animal_data_point = match
animal_interaction_to_add.distance = geopy_distance(sourceCollarDataPoint.LOCATION,match.LOCATION).kilometers
animal_interaction_to_add.interaction_group = interactiongroup
try:
animal_interaction_to_add.clean()
animal_interaction_to_add.save()
except ValidationError:
print "The entry already exists"
zip_content = ContentFile(exportShape())
interactiongroup.zip_file.save("sampleFile.zip",zip_content)
interactiongroup.save()
def _vincenty_distance(self,
origin: GeoLocation,
target: GeoLocation,
metric: bool = False) -> float:
"""Calculate distance between two locations using the proper Vincenty distance.
.. note:: This is the proper way of discovering distance between lat/long
coordinates. I would not recommend using the Haversine distance calculations
in production as they have discrepancies of ~0.5% especially when using
long distances.
:param GeoLocation origin: The starting location
:param GeoLocation target: The ending location
:param bool metric: Return results in kilometers rather than miles,
optional, defaults to False
:return: The vincenty distance between the given coordinates
:rtype: float
"""
distance = geopy_distance((origin.latitude, origin.longitude),
(target.latitude, target.longitude))
if metric:
return distance.km
return distance.miles
def localinfo_return_response(self, request, **kwargs):
self.method_check(request, allowed=['get'])
self.create_localinfo_index_if_doesnt_exist()
params_dict = request.GET
params_keys = params_dict.keys()
try:
location_param = params_dict['location']
except:
response = {
'error': {'message': "You must supply a valid user location information."}
}
return self.create_response(request, response)
lat_lng_in_list = location_param.split(',')
lat, lng = map(float, lat_lng_in_list)
user_pnt = Point(lng, lat)
radius = D(mi=float(params_dict['radius'])) if 'radius' in params_keys else D(mi=100)
default_radius_filter = '5mi'
filters = {
"query": {
"filtered" : {
"query" : {
"match_all" : {}
},
"filter" : {
"geo_distance" : {
"distance" : default_radius_filter,
"location" : location_param
}
}
}
},
"facets": {
"search_keyword" : {
"terms" : {
"field" : "search_keyword",
"order" : "count"
}
},
"search_category" : {
"terms" : {
"field" : "search_category",
"order" : "count"
}
}
}
}
res = self.es.search(index="localinfo", doc_type='populars', body=filters)
popular_nearby_list_raw = res['facets']['search_keyword']['terms']
# popular_category_list_raw = res['facets']['search_category']['terms'] # Not used for now; instead of parent categories.
default_image = self.find_default_image(user_pnt)
base_response = {
"default_image": default_image,
"search_categories": []
}
popular_category_sub_structure = {
"name": "Popular Categories",
"list": []
}
popular_nearby_sub_structure = {
"name": "Popular Nearby",
"list": []
}
# Always show parent categories as 'popular categories' (minus Special Interest and Product )
for c in self.parent_categories_list:
popular_category = self.return_popular_something_insert(user_pnt, c)
popular_category_sub_structure['list'].append(popular_category)
base_response['search_categories'].append(popular_category_sub_structure)
# Always try to show 5 'popular nearby's based on historical searches (min occurance threshold at 100);
# To the extent there aren't enough historical popular nearbys, then fill the rest with
# randomly selected categories, provided that there are at least 10 deals available under each category.
# The user's location & poular_nearbys pair is cached and used for 12hrs; If the user's location changes
# more than 50 miles away from any cached locations, then generate a new list of popular nearbys.
id_param = params_dict.get('id', 'uuid')
cached_data = cache.get(id_param) if id_param != 'uuid' else None
if cached_data:
cached_locations = cached_data['pop_nearbys'].keys()
closest_pnt_to_user = {}
for location in cached_locations:
lat, lng = map(float, location.split(','))
dist_to_user = geopy_distance((user_pnt.y, user_pnt.x), (lat, lng)).miles
if len(closest_pnt_to_user) == 0:
closest_pnt_to_user = {location: dist_to_user}
continue
closest_dist_so_far = closest_pnt_to_user.values()[0]
if dist_to_user < closest_dist_so_far:
closest_pnt_to_user = {location: dist_to_user}
else:
continue
max_dist_for_caching = 50 # miles
if cached_data and (closest_pnt_to_user.values()[0] <= max_dist_for_caching):
closest_lat_lng = closest_pnt_to_user.keys()[0]
cached_popular_nearbys = cached_data['pop_nearbys'][closest_lat_lng]
for n in cached_popular_nearbys:
popular_nearby = self.return_popular_something_insert(user_pnt, n)
popular_nearby_sub_structure['list'].append(popular_nearby)
base_response['search_categories'].append(popular_nearby_sub_structure)
else:
max_nearbys = 5
for kw in popular_nearby_list_raw[:max_nearbys]:
if kw['count'] < 100:
break
else:
popular_nearby = self.return_popular_something_insert(user_pnt, kw['term'])
popular_nearby_sub_structure['list'].append(popular_nearby)
categories_to_sample_from = copy.copy(self.sanitized_categories_list)
while True:
popular_nearbys_so_far = [n['name'] for n in popular_nearby_sub_structure['list']]
if len(popular_nearbys_so_far) >= max_nearbys:
break
try:
random_pick = random.sample(categories_to_sample_from, 1)[0]
except ValueError: # When ran out of categories to choose from.
break
sqs = SearchQuerySet().using('mobile_api')\
.filter(django_ct='core.coupon', online=False, is_duplicate=False,
is_deleted=False, status='considered-active', mobilequery=random_pick)\
.exclude(end__lt=datetime.now(pytz.utc))\
.dwithin('merchant_location', user_pnt, radius)\
.distance('merchant_location', user_pnt).order_by('distance')
if (random_pick in popular_nearbys_so_far) or (len(sqs) < 10):
categories_to_sample_from.remove(random_pick)
continue
else:
popular_nearby = self.return_popular_something_insert(user_pnt, random_pick)
popular_nearby_sub_structure['list'].append(popular_nearby)
categories_to_sample_from.remove(random_pick)
popular_nearbys_so_far = [n['name'] for n in popular_nearby_sub_structure['list']]
if popular_nearbys_so_far:
base_response['search_categories'].append(popular_nearby_sub_structure)
if id_param != 'uuid':
self.cache_it_with_location(id_param, popular_nearbys_so_far, location_param)
# only for debugging purposes below
# base_response['elasticsearch_res'] = res
response = base_response
return self.create_response(request, response)
def get_customers_within_miles(self,x=5): from geopy.distance import distance as geopy_distance return [ i.pk for i in Customer.objects.all() if i.location and self.location and geopy_distance(i.location.location,self.location.location).mi<=x]
def get_active_customers_miles(self, x=5, filter_pks=[]): from geopy.distance import distance as geopy_distance if len(filter_pks) > 0: return [ i.pk for i in Customer.objects.exclude(pk__in=filter_pks).filter(verified=True, active=True, offer_count=0) if i.location and self.location and geopy_distance(i.location.location,self.location.location).mi<=x] else: return [ i.pk for i in Customer.objects.filter(verified=True, active=True, offer_count=0) if i.location and self.location and geopy_distance(i.location.location,self.location.location).mi<=x]
def get_offers_within_miles(self,x=5): from offer.models import Offer from geopy.distance import distance as geopy_distance """ # for testing print "All offers: %d"%Offer.objects.all().count() for i in Offer.objects.all(): print "Customer location:", self.location.location print "Merchant location:", i.merchant.location.location print "Distance:", geopy_distance(self.location.location, i.merchant.location.location).mi """ return [i for i in Offer.objects.filter(expired_time__gt=datetime.now()) if self.location and i.merchant.location and geopy_distance(self.location.location, i.merchant.location.location).mi<=x]
def get_merchants_within_miles(self,x=5): from geopy.distance import distance as geopy_distance #print self.address_1 + " " + self.zipcode.code, self.location.location.x, self.location.location.y #for i in Merchant.objects.all(): #print i , i.location.location.x, i.location.location.y, geopy_distance(i.location.location,self.location.location).mi return [ i.pk for i in Merchant.objects.all() if i.location and self.location and geopy_distance(i.location.location,self.location.location).mi<=x]
def find_laps(configuration: Configuration,
segment,
region=10,
min_time=5,
start_idx=0) -> List[Dict[str, Any]]:
"""Return laps given latitude & longitude data.
We assume that the first point defines the start and
that the last point defines the end and that these are
approximately at the same place.
Parameters
----------
segment : dict
The data for the full track.
region : float
The region around the starting point which is used to
define if we are passing through the starting point and
begin a new lap.
min_time : float
This is the minimum time (in seconds) we should spend in the
region before exiting. This will depend on the setting for region
and the velocity for the activity.
start_idx : integer
The starting point for the first lap.
"""
if not segment: # race not started yet
return []
points = [(pt['latitude'], pt['longitude']) for pt in segment]
start = (configuration.start_latitude, configuration.start_longitude) \
if configuration.start_latitude is not None and configuration.start_longitude \
else points[start_idx]
time = [pt['date'] for pt in segment]
# For locating the tracks, we look for point which are such that
# we enter the starting region and pass through it.
# For each point, find the distance to the starting region:
distance = [geopy_distance(point, start) for point in points]
#np.set_printoptions(suppress=True)
# print(distance)
# Now look for points where we enter the region:
# We want to avoid cases where we jump back and forth across the
# boundary, so we set a minimum time we should spend inside the
# region.
# let's assume we are in pit or at the lap already at start time
lapId = 1
splits = []
pit_entry_idx = None
lap_entry_idx = None
current_split = None
for i, dist in enumerate(distance):
if i == start_idx: # in fact that just skips the first one
if distance[0] > region: # already at lap, so create new one
current_split = LapSplit(lapId=lapId,
pitEntryIdx=start_idx,
pitLeaveIdx=start_idx,
lapEntryIdx=start_idx)
else: # in pit
current_split = LapSplit(
lapId=lapId,
pitEntryIdx=start_idx,
)
splits.append(current_split) # HACK
lapId += 1
continue
if dist <= region: # we are inside the pit
if distance[i - 1] <= region: # was in pit before
if pit_entry_idx: # not recorded yet
delta_t = time[i] - time[pit_entry_idx]
if min_time < delta_t.total_seconds() or (
i == (len(distance) - 1)
): # check time in pit (if last point and in pit, create anyway
if current_split: # long enough, dump the previous one to output list
current_split.lapLeaveIdx = pit_entry_idx
# HACK splits.append(current_split)
current_split = LapSplit(
lapId=str(lapId),
pitEntryIdx=pit_entry_idx) # and create new one
splits.append(current_split) # HACK
lapId += 1
pit_entry_idx = None
else: # entered the pit (left lap)
pit_entry_idx = i # remember entry, start measuring time
else: # outside of pit (on lap)
if distance[i - 1] > region: # was on lap before
if lap_entry_idx: # not recorded yet
delta_t = time[i] - time[lap_entry_idx]
if min_time < delta_t.total_seconds(): # check time in pit
if current_split: # long enough, record switch to lap
current_split.pitLeaveIdx = lap_entry_idx
current_split.lapEntryIdx = lap_entry_idx
pit_entry_idx = None
else: # entered the lap (left pit)
lap_entry_idx = i # remember exit, start measuring time
# HACK if current_split and current_split.lapEntryIdx: # do not include the one having just pit time
# HACK splits.append(current_split)
agg_splits = aggregate_splits(configuration, splits)
# new
statuses = extract_lap_statuses(configuration, agg_splits, segment)
# TODO implement better way
if not agg_splits[-1].lapLeaveIdx or distance[
agg_splits[-1].lapLeaveIdx] > region:
statuses[-1]['finished'] = False # outside of region
return statuses
INCREMENT_MI = 5.0 # mile(s)
GROUPON_KEY = 'cd4f46230f4d6bb2c8467c1695e891f24a0baf37'
GROUPON_API_URL = 'http://api.groupon.com/v2/deals'
COLLECTED_DEALS = []
request_parameters = {
'client_id': GROUPON_KEY,
# 'radius': INCREMENT_MI
}
# denver bounding box: http://isithackday.com/geoplanet-explorer/index.php?woeid=24701640
north_east = Point(-103.705704,40.284950)
south_west = Point(-105.927017,39.128181)
x_dist_mi = geopy_distance((north_east.y, north_east.x), (north_east.y, south_west.x)).miles
y_dist_mi = geopy_distance((north_east.y, north_east.x), (south_west.y, north_east.x)).miles
x_grid_divisor = x_dist_mi / INCREMENT_MI
y_grid_divisor = y_dist_mi / INCREMENT_MI
x_increment_pnt = (north_east.x - south_west.x) / x_grid_divisor
y_increment_pnt = (north_east.y - south_west.y) / y_grid_divisor
x_move_count = int(math.ceil(x_grid_divisor)) + 1
y_move_count = int(math.ceil(y_grid_divisor)) + 1
# starting from south_west corner and move right across first, and move up
request_parameters['lat'] = south_west.y
request_parameters['lng'] = south_west.x
request_parameters['radius'] = 5
def deals_return_response(self, request, **kwargs):
self.method_check(request, allowed=['get'])
params_dict = request.GET
params_keys = params_dict.keys()
location_param = params_dict.get('location', None)
if not location_param:
response = {
'error': {
'message':
"You must supply a valid user location information."
}
}
return self.create_response(request, response)
lat_lng_in_list = location_param.split(',')
lat, lng = map(float, lat_lng_in_list)
id_param = params_dict.get('id', 'uuid')
radius = D(
mi=float(params_dict['radius'])) if 'radius' in params_keys else D(
mi=10)
user_pnt = Point(lng, lat)
sqs = SearchQuerySet().using('mobile_api').filter(django_ct='core.coupon', online=False,
is_duplicate=False, is_deleted=False, status='considered-active')\
.exclude(end__lt=datetime.now(pytz.utc))\
.dwithin('merchant_location', user_pnt, radius).distance('merchant_location', user_pnt)\
.order_by('distance')
if 'query' in params_keys:
query = params_dict['query']
sqs_by_query = SearchQuerySet().using('mobile_api').filter(
mobilequery=query)
sqs = sqs.__and__(sqs_by_query)
# Prepare for 'localindex' api service
self.create_localinfo_index_if_doesnt_exist()
matched_category_indices = [
i for i, s in enumerate(self.available_categories_list)
if query.lower() in s.lower()
]
matched_category_names = [
self.available_categories_list[i]
for i in matched_category_indices
]
self.index_it_in_localinfo_populars(id_param, location_param,
string.capwords(query),
matched_category_names)
if 'category_slugs' in params_keys:
category_slugs_list = params_dict['category_slugs'].split(',')
sqs_by_category = SearchQuerySet().using('mobile_api')
for c in category_slugs_list:
sqs_by_category = sqs_by_category.filter_or(
category_slugs=c.strip())
sqs = sqs.__and__(sqs_by_category)
if 'provider_slugs' in params_keys:
provider_slugs_list = params_dict['provider_slugs'].split(',')
sqs_by_provider = SearchQuerySet().using('mobile_api')
for p in provider_slugs_list:
sqs_by_provider = sqs_by_provider.filter_or(
provider_slugs=p.strip())
sqs = sqs.__and__(sqs_by_provider)
updated_after = params_dict.get('updated_after', None)
per_page = int(params_dict.get('per_page', 20))
page = int(params_dict.get('page', 1))
start_point = (page - 1) * per_page
end_point = page * per_page
deals = []
for sqs_obj in sqs[start_point:end_point]:
merchant_pnt = sqs_obj.merchant_location
if not merchant_pnt:
continue
dist_to_user = geopy_distance(
(user_pnt.y, user_pnt.x),
(merchant_pnt.y, merchant_pnt.x)).miles
deal_description = sqs_obj.text
if sqs_obj.related_deals_count != 0:
deal_description = deal_description if deal_description else ""
deal_description += "\n\nFind {} more similar deal(s) from this vendor on {}!".format(
sqs_obj.related_deals_count, sqs_obj.provider)
each_deal = {
'deal': {
'id':
sqs_obj.coupon_ref_id,
'title':
sqs_obj.embedly_title,
'short_title':
sqs_obj.embedly_description,
'description':
deal_description,
'fine_print':
sqs_obj.restrictions,
'number_sold':
None,
'url':
sqs_obj.link,
'untracked_url':
sqs_obj.directlink,
'price':
sqs_obj.price,
'value':
sqs_obj.listprice,
'discount_amount':
sqs_obj.discount,
'discount_percentage':
float(sqs_obj.percent) / 100,
'commission':
None,
'provider_name':
sqs_obj.provider,
'provider_slug':
sqs_obj.provider_slug,
'category_name':
', '.join(sqs_obj.categories)
if sqs_obj.categories else None,
'category_slug':
', '.join(sqs_obj.category_slugs)
if sqs_obj.category_slugs else None,
'image_url':
sqs_obj.image,
'online':
sqs_obj.online,
'expires_at':
sqs_obj.end,
'created_at':
sqs_obj.start,
'updated_at':
sqs_obj.lastupdated,
'is_duplicate':
sqs_obj.is_duplicate,
'merchant': {
'id': sqs_obj.merchant_ref_id,
'name': sqs_obj.merchant_name,
'address': sqs_obj.merchant_address,
'locality': sqs_obj.merchant_locality,
'region': sqs_obj.merchant_region,
'postal_code': sqs_obj.merchant_postal_code,
'country': "United States",
'country_code': "US",
'latitude': merchant_pnt.y,
'longitude': merchant_pnt.x,
'dist_to_user_mi': dist_to_user,
'url': sqs_obj.merchant_link,
}
}
}
deals.append(each_deal)
query = {
'total':
len(sqs),
'page':
page,
'per_page':
per_page,
'query':
query if 'query' in params_keys else None,
'location': {
'latitude': lat,
'longitude': lng,
},
'radius':
float(params_dict['radius']) if 'radius' in params_keys else 10,
'online':
False,
'category_slugs':
category_slugs_list if 'category_slugs' in params_keys else None,
'provider_slugs':
provider_slugs_list if 'provider_slugs' in params_keys else None,
'updated_after':
updated_after,
}
response = {
'query': query,
'deals': deals,
}
return self.create_response(request, response)
def localinfo_return_response(self, request, **kwargs):
self.method_check(request, allowed=['get'])
self.create_localinfo_index_if_doesnt_exist()
params_dict = request.GET
params_keys = params_dict.keys()
try:
location_param = params_dict['location']
except:
response = {
'error': {
'message':
"You must supply a valid user location information."
}
}
return self.create_response(request, response)
lat_lng_in_list = location_param.split(',')
lat, lng = map(float, lat_lng_in_list)
user_pnt = Point(lng, lat)
radius = D(
mi=float(params_dict['radius'])) if 'radius' in params_keys else D(
mi=100)
default_radius_filter = '5mi'
filters = {
"query": {
"filtered": {
"query": {
"match_all": {}
},
"filter": {
"geo_distance": {
"distance": default_radius_filter,
"location": location_param
}
}
}
},
"facets": {
"search_keyword": {
"terms": {
"field": "search_keyword",
"order": "count"
}
},
"search_category": {
"terms": {
"field": "search_category",
"order": "count"
}
}
}
}
res = self.es.search(index="localinfo",
doc_type='populars',
body=filters)
popular_nearby_list_raw = res['facets']['search_keyword']['terms']
# popular_category_list_raw = res['facets']['search_category']['terms'] # Not used for now; instead of parent categories.
default_image = self.find_default_image(user_pnt)
base_response = {
"default_image": default_image,
"search_categories": []
}
popular_category_sub_structure = {
"name": "Popular Categories",
"list": []
}
popular_nearby_sub_structure = {"name": "Popular Nearby", "list": []}
# Always show parent categories as 'popular categories' (minus Special Interest and Product )
for c in self.parent_categories_list:
popular_category = self.return_popular_something_insert(
user_pnt, c)
popular_category_sub_structure['list'].append(popular_category)
base_response['search_categories'].append(
popular_category_sub_structure)
# Always try to show 5 'popular nearby's based on historical searches (min occurance threshold at 100);
# To the extent there aren't enough historical popular nearbys, then fill the rest with
# randomly selected categories, provided that there are at least 10 deals available under each category.
# The user's location & poular_nearbys pair is cached and used for 12hrs; If the user's location changes
# more than 50 miles away from any cached locations, then generate a new list of popular nearbys.
id_param = params_dict.get('id', 'uuid')
cached_data = cache.get(id_param) if id_param != 'uuid' else None
if cached_data:
cached_locations = cached_data['pop_nearbys'].keys()
closest_pnt_to_user = {}
for location in cached_locations:
lat, lng = map(float, location.split(','))
dist_to_user = geopy_distance((user_pnt.y, user_pnt.x),
(lat, lng)).miles
if len(closest_pnt_to_user) == 0:
closest_pnt_to_user = {location: dist_to_user}
continue
closest_dist_so_far = closest_pnt_to_user.values()[0]
if dist_to_user < closest_dist_so_far:
closest_pnt_to_user = {location: dist_to_user}
else:
continue
max_dist_for_caching = 50 # miles
if cached_data and (closest_pnt_to_user.values()[0] <=
max_dist_for_caching):
closest_lat_lng = closest_pnt_to_user.keys()[0]
cached_popular_nearbys = cached_data['pop_nearbys'][
closest_lat_lng]
for n in cached_popular_nearbys:
popular_nearby = self.return_popular_something_insert(
user_pnt, n)
popular_nearby_sub_structure['list'].append(popular_nearby)
base_response['search_categories'].append(
popular_nearby_sub_structure)
else:
max_nearbys = 5
for kw in popular_nearby_list_raw[:max_nearbys]:
if kw['count'] < 100:
break
else:
popular_nearby = self.return_popular_something_insert(
user_pnt, kw['term'])
popular_nearby_sub_structure['list'].append(popular_nearby)
categories_to_sample_from = copy.copy(
self.sanitized_categories_list)
while True:
popular_nearbys_so_far = [
n['name'] for n in popular_nearby_sub_structure['list']
]
if len(popular_nearbys_so_far) >= max_nearbys:
break
try:
random_pick = random.sample(categories_to_sample_from,
1)[0]
except ValueError: # When ran out of categories to choose from.
break
sqs = SearchQuerySet().using('mobile_api')\
.filter(django_ct='core.coupon', online=False, is_duplicate=False,
is_deleted=False, status='considered-active', mobilequery=random_pick)\
.exclude(end__lt=datetime.now(pytz.utc))\
.dwithin('merchant_location', user_pnt, radius)\
.distance('merchant_location', user_pnt).order_by('distance')
if (random_pick in popular_nearbys_so_far) or (len(sqs) < 10):
categories_to_sample_from.remove(random_pick)
continue
else:
popular_nearby = self.return_popular_something_insert(
user_pnt, random_pick)
popular_nearby_sub_structure['list'].append(popular_nearby)
categories_to_sample_from.remove(random_pick)
popular_nearbys_so_far = [
n['name'] for n in popular_nearby_sub_structure['list']
]
if popular_nearbys_so_far:
base_response['search_categories'].append(
popular_nearby_sub_structure)
if id_param != 'uuid':
self.cache_it_with_location(id_param,
popular_nearbys_so_far,
location_param)
# only for debugging purposes below
# base_response['elasticsearch_res'] = res
response = base_response
return self.create_response(request, response)
def deals_return_response(self, request, **kwargs):
self.method_check(request, allowed=['get'])
params_dict = request.GET
params_keys = params_dict.keys()
location_param = params_dict.get('location', None)
if not location_param:
response = {
'error': {'message': "You must supply a valid user location information."}
}
return self.create_response(request, response)
lat_lng_in_list = location_param.split(',')
lat, lng = map(float, lat_lng_in_list)
id_param = params_dict.get('id', 'uuid')
radius = D(mi=float(params_dict['radius'])) if 'radius' in params_keys else D(mi=10)
user_pnt = Point(lng, lat)
sqs = SearchQuerySet().using('mobile_api').filter(django_ct='core.coupon', online=False,
is_duplicate=False, is_deleted=False, status='considered-active')\
.exclude(end__lt=datetime.now(pytz.utc))\
.dwithin('merchant_location', user_pnt, radius).distance('merchant_location', user_pnt)\
.order_by('distance')
if 'query' in params_keys:
query = params_dict['query']
sqs_by_query = SearchQuerySet().using('mobile_api').filter(mobilequery=query)
sqs = sqs.__and__(sqs_by_query)
# Prepare for 'localindex' api service
self.create_localinfo_index_if_doesnt_exist()
matched_category_indices = [i for i, s in enumerate(self.available_categories_list) if query.lower() in s.lower()]
matched_category_names = [self.available_categories_list[i] for i in matched_category_indices]
self.index_it_in_localinfo_populars(id_param, location_param, string.capwords(query), matched_category_names)
if 'category_slugs' in params_keys:
category_slugs_list = params_dict['category_slugs'].split(',')
sqs_by_category = SearchQuerySet().using('mobile_api')
for c in category_slugs_list:
sqs_by_category = sqs_by_category.filter_or(category_slugs=c.strip())
sqs = sqs.__and__(sqs_by_category)
if 'provider_slugs' in params_keys:
provider_slugs_list = params_dict['provider_slugs'].split(',')
sqs_by_provider = SearchQuerySet().using('mobile_api')
for p in provider_slugs_list:
sqs_by_provider = sqs_by_provider.filter_or(provider_slugs=p.strip())
sqs = sqs.__and__(sqs_by_provider)
updated_after = params_dict.get('updated_after', None)
per_page = int(params_dict.get('per_page', 20))
page = int(params_dict.get('page', 1))
start_point = (page - 1) * per_page
end_point = page * per_page
deals = []
for sqs_obj in sqs[start_point:end_point]:
merchant_pnt = sqs_obj.merchant_location
if not merchant_pnt:
continue
dist_to_user = geopy_distance((user_pnt.y, user_pnt.x), (merchant_pnt.y, merchant_pnt.x)).miles
deal_description = sqs_obj.text
if sqs_obj.related_deals_count != 0:
deal_description = deal_description if deal_description else ""
deal_description += "\n\nFind {} more similar deal(s) from this vendor on {}!".format(sqs_obj.related_deals_count,
sqs_obj.provider)
each_deal = {'deal':
{
'id': sqs_obj.coupon_ref_id,
'title': sqs_obj.embedly_title,
'short_title': sqs_obj.embedly_description,
'description': deal_description,
'fine_print': sqs_obj.restrictions,
'number_sold': None,
'url': sqs_obj.link,
'untracked_url': sqs_obj.directlink,
'price': sqs_obj.price,
'value': sqs_obj.listprice,
'discount_amount': sqs_obj.discount,
'discount_percentage': float(sqs_obj.percent) / 100,
'commission': None,
'provider_name': sqs_obj.provider,
'provider_slug': sqs_obj.provider_slug,
'category_name': ', '.join(sqs_obj.categories) if sqs_obj.categories else None,
'category_slug': ', '.join(sqs_obj.category_slugs) if sqs_obj.category_slugs else None,
'image_url': sqs_obj.image,
'online': sqs_obj.online,
'expires_at': sqs_obj.end,
'created_at': sqs_obj.start,
'updated_at': sqs_obj.lastupdated,
'is_duplicate': sqs_obj.is_duplicate,
'merchant': {
'id': sqs_obj.merchant_ref_id,
'name': sqs_obj.merchant_name,
'address': sqs_obj.merchant_address,
'locality': sqs_obj.merchant_locality,
'region': sqs_obj.merchant_region,
'postal_code': sqs_obj.merchant_postal_code,
'country': "United States",
'country_code': "US",
'latitude': merchant_pnt.y,
'longitude': merchant_pnt.x,
'dist_to_user_mi': dist_to_user,
'url': sqs_obj.merchant_link,
}
}
}
deals.append(each_deal)
query = {
'total': len(sqs),
'page': page,
'per_page': per_page,
'query': query if 'query' in params_keys else None,
'location': {
'latitude': lat,
'longitude': lng,
},
'radius': float(params_dict['radius']) if 'radius' in params_keys else 10,
'online': False,
'category_slugs': category_slugs_list if 'category_slugs' in params_keys else None,
'provider_slugs': provider_slugs_list if 'provider_slugs' in params_keys else None,
'updated_after': updated_after,
}
response = {
'query': query,
'deals': deals,
}
return self.create_response(request, response)
def detalhe(request, codigo_inep):
'''Essa rotina monta o territorio educativo com base no codigo inep da escola'''
from django.contrib.gis.geos import GEOSGeometry
from django.contrib.gis.geos import Point, Polygon, MultiPolygon
from django.contrib.gis.measure import Distance, D
from escola.models import Escola
from ibge.models import Municipio
from ibge.models import SetorCensitario
from censo_ibge.models import Domicilio01PorSetor
from censo_ibge.models import Domicilio02PorSetor
from censo_ibge.models import Responsavel01PorSetor
from censo_ibge.models import Responsavel02PorSetor
from censo_ibge.models import ResponsavelrendaPorSetor
from censo_ibge.models import DomiciliorendaPorSetor
from censo_ibge.models import PessoarendaPorSetor
from censo_ibge.models import BasicoPorSetor
from censo_ibge.models import Pessoa11PorSetor
from censo_ibge.models import Pessoa12PorSetor
from censo_ibge.models import Entorno01PorSetor
from censo_ibge.models import Entorno02PorSetor
from censo_ibge.models import Entorno03PorSetor
from censo_ibge.models import Pessoa01PorSetor
from censo_ibge.models import Pessoa02PorSetor
from censo_ibge.models import Pessoa03PorSetor
from escola.models import DadosEscolas
from ideb.models import Ideb
escola = Escola.objects.get(codigo_inep = codigo_inep)
dados_escolas = DadosEscolas.objects.get(cod_inep = codigo_inep)
ll_e = (escola.longitude, escola.latitude)
latitude = str(escola.latitude).replace(',','.')
longitude = str(escola.longitude).replace(',','.')
# Pega o raio personalizado do municipio
raio = Municipio.objects.get(cd_geocodm = escola.ibge.cd_geocodm).raio
if raio == None:
raio = 1
# Calculos censo IBGE
distancia_raio = Distance(km = raio)
try:
todos_setores = SetorCensitario.objects.filter(
cd_geocodm = escola.ibge.cd_geocodm).filter(
setor_censitario_bruto__distance_lte=(escola.latlong, distancia_raio))
except:
todos_setores = []
domicilio_por_setor = {
'casas': 0,
'apartamentos': 0,
'sem_agua': 0,
'sem_banheiro': 0,
'sem_lixo': 0,
'sem_energia': 0,
'casas_p': 0,
'apartamentos_p': 0,
'sem_agua_p': 0,
'sem_banheiro_p': 0,
'sem_lixo_p': 0,
'sem_energia_p': 0,
}
moradores = {
'casas': 0,
'apartamentos': 0,
'sem_agua': 0,
'sem_banheiro': 0,
'sem_lixo': 0,
'sem_energia': 0,
'casas_p': 0,
'apartamentos_p': 0,
'sem_agua_p': 0,
'sem_banheiro_p': 0,
'sem_lixo_p': 0,
'sem_energia_p': 0,
}
responsaveis = {
'h_responsaveis': 0,
'h_nao_alfabetizados': 0,
'h_ate_18': 0,
'h_sem_rendimento': 0,
'h_rendimento_1sm': 0,
'h_responsaveis_p': 0,
'h_nao_alfabetizados_p': 0,
'h_ate_18_p': 0,
'h_sem_rendimento_p': 0,
'h_rendimento_1sm_p': 0,
'm_responsaveis': 0,
'm_nao_alfabetizados': 0,
'm_ate_18': 0,
'm_sem_rendimento': 0,
'm_rendimento_1sm': 0,
'm_responsaveis_p': 0,
'm_nao_alfabetizados_p': 0,
'm_ate_18_p': 0,
'm_sem_rendimento_p': 0,
'm_rendimento_1sm_p': 0,
't_responsaveis': 0,
't_nao_alfabetizados': 0,
't_ate_18': 0,
't_sem_rendimento': 0,
't_rendimento_1sm': 0,
't_responsaveis_p': 0,
't_nao_alfabetizados_p': 0,
't_ate_18_p': 0,
't_sem_rendimento_p': 0,
't_rendimento_1sm_p': 0,
}
renda = {
'dom_sem_rendimento': 0,
'dom_ate_meio': 0,
'dom_de_meio_a_1': 0,
'dom_de_1_a_2': 0,
'dom_de_2_a_3': 0,
'dom_de_3_a_5': 0,
'dom_de_5_a_10': 0,
'dom_de_10_a_15': 0,
'dom_de_15_a_20': 0,
'dom_mais_de_20': 0,
'dom_sem_rendimento_p': 0,
'dom_ate_meio_p': 0,
'dom_de_meio_a_1_p': 0,
'dom_de_1_a_2_p': 0,
'dom_de_2_a_3_p': 0,
'dom_de_3_a_5_p': 0,
'dom_de_5_a_10_p': 0,
'dom_de_10_a_15_p': 0,
'dom_de_15_a_20_p': 0,
'dom_mais_de_20_p': 0,
'h_sem_rendimento': 0,
'h_ate_meio': 0,
'h_de_meio_a_1': 0,
'h_de_1_a_2': 0,
'h_de_2_a_3': 0,
'h_de_3_a_5': 0,
'h_de_5_a_10': 0,
'h_de_10_a_15': 0,
'h_de_15_a_20': 0,
'h_mais_de_20': 0,
'm_sem_rendimento': 0,
'm_ate_meio': 0,
'm_de_meio_a_1': 0,
'm_de_1_a_2': 0,
'm_de_2_a_3': 0,
'm_de_3_a_5': 0,
'm_de_5_a_10': 0,
'm_de_10_a_15': 0,
'm_de_15_a_20': 0,
'm_mais_de_20': 0,
}
piramide = {
'h_100_mais': 0,
'h_95_99': 0,
'h_90_94': 0,
'h_85_89': 0,
'h_80_84': 0,
'h_75_79': 0,
'h_70_74': 0,
'h_65_69': 0,
'h_60_64': 0,
'h_55_59': 0,
'h_50_54': 0,
'h_45_49': 0,
'h_40_44': 0,
'h_35_39': 0,
'h_30_34': 0,
'h_25_29': 0,
'h_20_24': 0,
'h_15_19': 0,
'h_10_14': 0,
'h_5_9': 0,
'h_0_4': 0,
'm_100_mais': 0,
'm_95_99': 0,
'm_90_94': 0,
'm_85_89': 0,
'm_80_84': 0,
'm_75_79': 0,
'm_70_74': 0,
'm_65_69': 0,
'm_60_64': 0,
'm_55_59': 0,
'm_50_54': 0,
'm_45_49': 0,
'm_40_44': 0,
'm_35_39': 0,
'm_30_34': 0,
'm_25_29': 0,
'm_20_24': 0,
'm_15_19': 0,
'm_10_14': 0,
'm_5_9': 0,
'm_0_4': 0,
}
infra = {
'd_arborizacao_s': 0,
'd_calcada_s': 0,
'd_iluminacao_s': 0,
'd_pavimentacao_s': 0,
'd_rampa_cadeirante_s': 0,
'd_esgoto_s': 0,
'd_lixo_s': 0,
'm_arborizacao_s': 0,
'm_calcada_s': 0,
'm_iluminacao_s': 0,
'm_pavimentacao_s': 0,
'm_rampa_cadeirante_s': 0,
'm_esgoto_s': 0,
'm_lixo_s': 0,
'd_arborizacao_n': 0,
'd_calcada_n': 0,
'd_iluminacao_n': 0,
'd_pavimentacao_n': 0,
'd_rampa_cadeirante_n': 0,
'd_esgoto_n': 0,
'd_lixo_n': 0,
'm_arborizacao_n': 0,
'm_calcada_n': 0,
'm_iluminacao_n': 0,
'm_pavimentacao_n': 0,
'm_rampa_cadeirante_n': 0,
'm_esgoto_n': 0,
'm_lixo_n': 0,
}
alfab = {
'h_5_9_s': 0,
'h_10_14_s': 0,
'h_15_19_s': 0,
'h_20_24_s': 0,
'h_25_29_s': 0,
'h_30_34_s': 0,
'h_35_39_s': 0,
'h_40_44_s': 0,
'h_45_49_s': 0,
'h_50_54_s': 0,
'h_55_59_s': 0,
'h_60_64_s': 0,
'h_65_69_s': 0,
'h_70_74_s': 0,
'h_75_79_s': 0,
'h_mais80_s': 0,
'm_5_9_s': 0,
'm_10_14_s': 0,
'm_15_19_s': 0,
'm_20_24_s': 0,
'm_25_29_s': 0,
'm_30_34_s': 0,
'm_35_39_s': 0,
'm_40_44_s': 0,
'm_45_49_s': 0,
'm_50_54_s': 0,
'm_55_59_s': 0,
'm_60_64_s': 0,
'm_65_69_s': 0,
'm_70_74_s': 0,
'm_75_79_s': 0,
'm_mais80_s': 0,
'h_5_9_n': 0,
'h_10_14_n': 0,
'h_15_19_n': 0,
'h_20_24_n': 0,
'h_25_29_n': 0,
'h_30_34_n': 0,
'h_35_39_n': 0,
'h_40_44_n': 0,
'h_45_49_n': 0,
'h_50_54_n': 0,
'h_55_59_n': 0,
'h_60_64_n': 0,
'h_65_69_n': 0,
'h_70_74_n': 0,
'h_75_79_n': 0,
'h_mais80_n': 0,
'm_5_9_n': 0,
'm_10_14_n': 0,
'm_15_19_n': 0,
'm_20_24_n': 0,
'm_25_29_n': 0,
'm_30_34_n': 0,
'm_35_39_n': 0,
'm_40_44_n': 0,
'm_45_49_n': 0,
'm_50_54_n': 0,
'm_55_59_n': 0,
'm_60_64_n': 0,
'm_65_69_n': 0,
'm_70_74_n': 0,
'm_75_79_n': 0,
'm_mais80_n': 0,
}
raca = {
'branca': 0,
'preta': 0,
'amarela': 0,
'parda': 0,
'indigena': 0,
}
for s in todos_setores:
try:
racacor = Pessoa03PorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
raca['branca'] += racacor.v002
raca['preta'] += racacor.v003
raca['amarela'] += racacor.v004
raca['parda'] += racacor.v005
raca['indigena'] += racacor.v006
except:
pass
try:
dom01 = Domicilio01PorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
domicilio_por_setor['casas'] += dom01.s001
domicilio_por_setor['apartamentos'] += dom01.v005
domicilio_por_setor['sem_agua'] += dom01.s004
domicilio_por_setor['sem_banheiro'] += dom01.v023
domicilio_por_setor['sem_lixo'] += dom01.s005
domicilio_por_setor['sem_energia'] += dom01.v046
domicilio_por_setor['casas_p'] += dom01.ps001 / len(todos_setores)
domicilio_por_setor['apartamentos_p'] += dom01.pv005 / len(todos_setores)
domicilio_por_setor['sem_agua_p'] += dom01.ps004 / len(todos_setores)
domicilio_por_setor['sem_banheiro_p'] += dom01.pv023 / len(todos_setores)
domicilio_por_setor['sem_lixo_p'] += dom01.ps005 / len(todos_setores)
domicilio_por_setor['sem_energia_p'] += dom01.pv046 / len(todos_setores)
except:
pass
try:
mor01 = Domicilio02PorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
moradores['casas'] += mor01.s001
moradores['apartamentos'] += mor01.v005
moradores['sem_agua'] += mor01.s004
moradores['sem_banheiro'] += mor01.v023
moradores['sem_lixo'] += mor01.s005
moradores['sem_energia'] += mor01.v041
moradores['casas_p'] += mor01.ps001 / len(todos_setores)
moradores['apartamentos_p'] += mor01.pv005 / len(todos_setores)
moradores['sem_agua_p'] += mor01.ps004 / len(todos_setores)
moradores['sem_banheiro_p'] += mor01.pv023 / len(todos_setores)
moradores['sem_lixo_p'] += mor01.ps005 / len(todos_setores)
moradores['sem_energia_p'] += mor01.pv041 / len(todos_setores)
except:
pass
try:
r01 = Responsavel01PorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
r02 = Responsavel02PorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
rrenda = ResponsavelrendaPorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
responsaveis['h_responsaveis'] += r02.v109
responsaveis['h_responsaveis_p'] += r02.pv109 / len(todos_setores)
responsaveis['h_nao_alfabetizados'] += r02.s004
responsaveis['h_nao_alfabetizados_p'] += r02.ps004 / len(todos_setores)
responsaveis['h_ate_18'] += r02.s003
responsaveis['h_ate_18_p'] += r02.ps003 / len(todos_setores)
responsaveis['h_sem_rendimento'] += rrenda.v032
responsaveis['h_sem_rendimento_p'] += rrenda.pv032 / len(todos_setores)
responsaveis['h_rendimento_1sm'] += rrenda.s002
responsaveis['h_rendimento_1sm_p'] += rrenda.ps002 / len(todos_setores)
responsaveis['m_responsaveis'] += r01.v001
responsaveis['m_responsaveis_p'] += r01.pv001 / len(todos_setores)
responsaveis['m_nao_alfabetizados'] += r01.s002
responsaveis['m_nao_alfabetizados_p'] += r01.ps002 / len(todos_setores)
responsaveis['m_ate_18'] += r01.s001
responsaveis['m_ate_18_p'] += r01.ps001 / len(todos_setores)
responsaveis['m_sem_rendimento'] += rrenda.v054
responsaveis['m_sem_rendimento_p'] += rrenda.pv054 / len(todos_setores)
responsaveis['m_rendimento_1sm'] += rrenda.s003
responsaveis['m_rendimento_1sm_p'] += rrenda.ps003 / len(todos_setores)
responsaveis['t_responsaveis'] += r02.v001
#responsaveis['t_responsaveis_p'] += r02.pv001 / len(todos_setores)
responsaveis['t_nao_alfabetizados'] += r02.s002
#responsaveis['t_nao_alfabetizados_p'] += r02.ps002 / len(todos_setores)
responsaveis['t_ate_18'] += r02.s001
#responsaveis['t_ate_18_p'] += r02.ps001 / len(todos_setores)
responsaveis['t_sem_rendimento'] += rrenda.v010
responsaveis['t_sem_rendimento_p'] += rrenda.pv010 / len(todos_setores)
responsaveis['t_rendimento_1sm'] += rrenda.s001
responsaveis['t_rendimento_1sm_p'] += rrenda.ps001 / len(todos_setores)
except:
pass
try:
drenda = DomiciliorendaPorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
except:
drenda = False
pass
try:
prenda = PessoarendaPorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
except:
prenda = False
pass
try:
basico_setor = BasicoPorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
except:
basico_setor = False
pass
if drenda:
renda['dom_sem_rendimento'] += drenda.v014
renda['dom_ate_meio'] += drenda.s001
renda['dom_de_meio_a_1'] += drenda.v008
renda['dom_de_1_a_2'] += drenda.v009
renda['dom_de_2_a_3'] += drenda.v010
renda['dom_de_3_a_5'] += drenda.v011
renda['dom_de_5_a_10'] += drenda.v012
renda['dom_de_10_a_15'] += drenda.v013
if prenda:
renda['h_sem_rendimento'] += prenda.v032
renda['h_ate_meio'] += prenda.v023
renda['h_de_meio_a_1'] += prenda.v024
renda['h_de_1_a_2'] += prenda.v025
renda['h_de_2_a_3'] += prenda.v026
renda['h_de_3_a_5'] += prenda.v027
renda['h_de_5_a_10'] += prenda.v028
renda['h_de_10_a_15'] += prenda.v029
renda['h_de_15_a_20'] += prenda.v030
renda['h_mais_de_20'] += prenda.v031
renda['m_sem_rendimento'] += prenda.v054
renda['m_ate_meio'] += prenda.v045
renda['m_de_meio_a_1'] += prenda.v046
renda['m_de_1_a_2'] += prenda.v047
renda['m_de_2_a_3'] += prenda.v048
renda['m_de_3_a_5'] += prenda.v049
renda['m_de_5_a_10'] += prenda.v050
renda['m_de_10_a_15'] += prenda.v051
renda['m_de_15_a_20'] += prenda.v052
renda['m_mais_de_20'] += prenda.v053
try:
psetor = Pessoa11PorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
psetor2 = Pessoa12PorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
piramide['h_100_mais'] += psetor.v134
piramide['h_95_99'] += psetor.s020
piramide['h_90_94'] += psetor.s019
piramide['h_85_89'] += psetor.s018
piramide['h_80_84'] += psetor.s017
piramide['h_75_79'] += psetor.s016
piramide['h_70_74'] += psetor.s015
piramide['h_65_69'] += psetor.s014
piramide['h_60_64'] += psetor.s013
piramide['h_55_59'] += psetor.s012
piramide['h_50_54'] += psetor.s011
piramide['h_45_49'] += psetor.s010
piramide['h_40_44'] += psetor.s009
piramide['h_35_39'] += psetor.s008
piramide['h_30_34'] += psetor.s007
piramide['h_25_29'] += psetor.s006
piramide['h_20_24'] += psetor.s005
piramide['h_15_19'] += psetor.s004
piramide['h_10_14'] += psetor.s003
piramide['h_5_9'] += psetor.s002
piramide['h_0_4'] += psetor.s001
piramide['m_100_mais'] += psetor.v134
piramide['m_95_99'] += psetor2.s020
piramide['m_90_94'] += psetor2.s019
piramide['m_85_89'] += psetor2.s018
piramide['m_80_84'] += psetor2.s017
piramide['m_75_79'] += psetor2.s016
piramide['m_70_74'] += psetor2.s015
piramide['m_65_69'] += psetor2.s014
piramide['m_60_64'] += psetor2.s013
piramide['m_55_59'] += psetor2.s012
piramide['m_50_54'] += psetor2.s011
piramide['m_45_49'] += psetor2.s010
piramide['m_40_44'] += psetor2.s009
piramide['m_35_39'] += psetor2.s008
piramide['m_30_34'] += psetor2.s007
piramide['m_25_29'] += psetor2.s006
piramide['m_20_24'] += psetor2.s005
piramide['m_15_19'] += psetor2.s004
piramide['m_10_14'] += psetor2.s003
piramide['m_5_9'] += psetor2.s002
piramide['m_0_4'] += psetor2.s001
except:
pass
try:
entorno01 = Entorno01PorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
entorno02 = Entorno03PorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
infra['d_arborizacao_s'] += entorno01.s015
infra['d_calcada_s'] += entorno01.s007
infra['d_pavimentacao_s'] += entorno01.s005
infra['d_rampa_cadeirante_s'] += entorno01.s013
infra['d_esgoto_s'] += entorno01.s017
infra['d_lixo_s'] += entorno01.s019
infra['d_iluminacao_s'] += entorno01.s003
infra['d_arborizacao_n'] += entorno01.s016
infra['d_calcada_n'] += entorno01.s008
infra['d_pavimentacao_n'] += entorno01.s006
infra['d_rampa_cadeirante_n'] += entorno01.s014
infra['d_esgoto_n'] += entorno01.s018
infra['d_lixo_n'] += entorno01.s020
infra['d_iluminacao_n'] += entorno01.s004
infra['m_arborizacao_s'] += entorno02.s015
infra['m_calcada_s'] += entorno02.s007
infra['m_pavimentacao_s'] += entorno02.s005
infra['m_rampa_cadeirante_s'] += entorno02.s013
infra['m_esgoto_s'] += entorno02.s017
infra['m_lixo_s'] += entorno02.s019
infra['m_iluminacao_s'] += entorno02.s003
infra['m_arborizacao_n'] += entorno02.s016
infra['m_calcada_n'] += entorno02.s008
infra['m_pavimentacao_n'] += entorno02.s006
infra['m_rampa_cadeirante_n'] += entorno02.s014
infra['m_esgoto_n'] += entorno02.s018
infra['m_lixo_n'] += entorno02.s020
infra['m_iluminacao_n'] += entorno02.s004
except:
pass
try:
p01 = Pessoa02PorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
p02 = Pessoa01PorSetor.objects.using('censo_ibge').get(cod_setor = float(s.cd_geocodi))
alfab['h_5_9_s'] += p01.s001
alfab['h_10_14_s'] += p01.s002
alfab['h_15_19_s'] += p01.s003
alfab['h_20_24_s'] += p01.s004
alfab['h_25_29_s'] += p01.s005
alfab['h_30_34_s'] += p01.s006
alfab['h_35_39_s'] += p01.s007
alfab['h_40_44_s'] += p01.s008
alfab['h_45_49_s'] += p01.s009
alfab['h_50_54_s'] += p01.s010
alfab['h_55_59_s'] += p01.s011
alfab['h_60_64_s'] += p01.s012
alfab['h_65_69_s'] += p01.s013
alfab['h_70_74_s'] += p01.s014
alfab['h_75_79_s'] += p01.s015
alfab['h_mais80_s'] += p01.v077
alfab['m_5_9_s'] += p01.s032
alfab['m_10_14_s'] += p01.s033
alfab['m_15_19_s'] += p01.s034
alfab['m_20_24_s'] += p01.s035
alfab['m_25_29_s'] += p01.s036
alfab['m_30_34_s'] += p01.s037
alfab['m_35_39_s'] += p01.s038
alfab['m_40_44_s'] += p01.s039
alfab['m_45_49_s'] += p01.s040
alfab['m_50_54_s'] += p01.s041
alfab['m_55_59_s'] += p01.s042
alfab['m_60_64_s'] += p01.s043
alfab['m_65_69_s'] += p01.s044
alfab['m_70_74_s'] += p01.s045
alfab['m_75_79_s'] += p01.s046
alfab['m_mais80_s'] += p01.v162
alfab['h_5_9_n'] += p01.s016
alfab['h_10_14_n'] += p01.s017
alfab['h_15_19_n'] += p01.s018
alfab['h_20_24_n'] += p01.s019
alfab['h_25_29_n'] += p01.s020
alfab['h_30_34_n'] += p01.s021
alfab['h_35_39_n'] += p01.s022
alfab['h_40_44_n'] += p01.s023
alfab['h_45_49_n'] += p01.s024
alfab['h_50_54_n'] += p01.s025
alfab['h_55_59_n'] += p01.s026
alfab['h_60_64_n'] += p01.s027
alfab['h_65_69_n'] += p01.s028
alfab['h_70_74_n'] += p01.s029
alfab['h_75_79_n'] += p01.s030
alfab['h_mais80_n'] += p01.s031
alfab['m_5_9_n'] += p01.s047
alfab['m_10_14_n'] += p01.s048
alfab['m_15_19_n'] += p01.s049
alfab['m_20_24_n'] += p01.s050
alfab['m_25_29_n'] += p01.s051
alfab['m_30_34_n'] += p01.s052
alfab['m_35_39_n'] += p01.s053
alfab['m_40_44_n'] += p01.s054
alfab['m_45_49_n'] += p01.s055
alfab['m_50_54_n'] += p01.s056
alfab['m_55_59_n'] += p01.s057
alfab['m_60_64_n'] += p01.s058
alfab['m_65_69_n'] += p01.s059
alfab['m_70_74_n'] += p01.s060
alfab['m_75_79_n'] += p01.s061
alfab['m_mais80_n'] += p01.s062
except:
pass
# Pega os equipamentos de saude
from saude.models import Saude
equipamentos_saude = []
try:
for p in Saude.objects.filter(geom__distance_lte = (escola.latlong, distancia_raio)):
ll_p = (p.longitude, p.latitude)
distancia = geopy_distance(ll_e, ll_p).meters
equipamentos_saude.append({
'nome': p.nome,
'tipo_logradouro': p.tipo_logra,
'nome_logradouro': p.nome_logra,
'numero_logradouro': p.num_lograd,
'id': p.id,
'distancia': distancia,
})
except:
pass
# Pega os teatros
from teatro.models import Teatro
teatros = []
try:
for p in Teatro.objects.filter(geom__distance_lte = (escola.latlong, distancia_raio)):
ll_p = (p.longitude, p.latitude)
distancia = geopy_distance(ll_e, ll_p).meters
teatros.append({
'nome': p.nome,
'tipo_logradouro': p.tipo_logradouro,
'nome_logradouro': p.nome_logradouro,
'numero_logradouro': p.numero_logradouro,
'id': p.id,
'distancia': distancia
})
except:
pass
# pega os museus
from museu.models import Museu
museus = []
try:
for p in Museu.objects.filter(geom__distance_lte = (escola.latlong, distancia_raio)):
ll_p = (p.longitude, p.latitude)
distancia = geopy_distance(ll_e, ll_p).meters
museus.append({
'nome': p.nome,
'tipo_logradouro': p.tipo_logradouro,
'nome_logradouro': p.nome_logradouro,
'numero_logradouro': p.numero_logradouro,
'id': p.id,
'distancia': distancia
})
except:
pass
# Pega as bibliotecas
from biblioteca.models import Biblioteca
bibliotecas = []
try:
for p in Biblioteca.objects.filter(geom__distance_lte = (escola.latlong, distancia_raio)):
ll_p = (p.longitude, p.latitude)
distancia = geopy_distance(ll_e, ll_p).meters
bibliotecas.append({
'nome': p.nome,
'tipo_logradouro': p.tipo_logradouro,
'nome_logradouro': p.nome_logradouro,
'numero_logradouro': p.numero_logradouro,
'id': p.id,
'distancia': distancia
})
except:
pass
# Pega os centros de ciencia
from centro_ciencia.models import CentroCiencia
centros_ciencia = []
try:
for p in CentroCiencia.objects.filter(geom__distance_lte = (escola.latlong, distancia_raio)):
ll_p = (p.longitude, p.latitude)
distancia = geopy_distance(ll_e, ll_p).meters
centros_ciencia.append({
'nome': p.nome,
'tipo_logradouro': p.tipo_logradouro,
'nome_logradouro': p.nome_logradouro,
'numero_logradouro': p.numero_logradouro,
'id': p.id,
'distancia': distancia
})
except:
pass
# Pega CRAs
from cra.models import Cra
try:
cras = Cra.objects.filter(geom__distance_lte = (escola.latlong, distancia_raio))
except:
cras = []
# Pega os cinemas
from cinema.models import Cinema
cinemas = []
try:
for p in Cinema.objects.filter(geom__distance_lte = (escola.latlong, distancia_raio)):
ll_p = (p.longitude, p.latitude)
distancia = geopy_distance(ll_e, ll_p).meters
cinemas.append({
'nome': p.nome,
'tipo_logradouro': p.tipo_logradouro,
'nome_logradouro': p.nome_logradouro,
'numero_logradouro': p.numero_logradouro,
'id': p.id,
'distancia': distancia
})
except:
pass
# Pega as salas verdes
from sala_verde.models import SalaVerde
salas_verdes = []
try:
for p in SalaVerde.objects.filter(geom__distance_lte = (escola.latlong, distancia_raio)):
ll_p = (p.longitude, p.latitude)
distancia = geopy_distance(ll_e, ll_p).meters
salas_verdes.append({
'nome': p.nome,
'endereco': p.nome_logradouro,
'id': p.id,
'distancia': distancia
})
except:
pass
# Pega os pontos de cultura
from ponto_cultura.models import PontoCultura
pontos_cultura = []
try:
for p in PontoCultura.objects.filter(geom__distance_lte = (escola.latlong, distancia_raio)).distance(escola.latlong).order_by('distance'):
ll_p = (p.longitude, p.latitude)
distancia = geopy_distance(ll_e, ll_p).meters
pontos_cultura.append({
'projeto': p.projeto,
'tipo_logradouro': p.tipo_logradouro,
'nome_logradouro': p.nome_logradouro,
'numero_logradouro': p.numero_logradouro,
'id': p.id,
'distancia': distancia
})
except:
pass
# Soma domicilios
try:
total_domicilios = domicilio_por_setor['casas'] + domicilio_por_setor['apartamentos']
except:
total_domicilios = 0
try:
total_moradores = moradores['casas'] + moradores['apartamentos']
except:
total_moradores = 0
try:
numero_setores = len(todos_setores)
except:
numero_setores = 0
try:
media_moradores = total_moradores / total_domicilios
except:
media_moradores = 0
ideb = Ideb.objects.get(codigo_inep = codigo_inep)
return render_to_response('territorio/territorio.html', {
'escola': escola,
'latitude': latitude,
'longitude': longitude,
'setores': todos_setores,
'domicilio_por_setor': domicilio_por_setor,
'moradores': moradores,
'responsaveis': responsaveis,
'renda': renda,
'piramide': piramide,
'infra': infra,
'alfab': alfab,
'dados': dados_escolas,
'equipamentos_saude': equipamentos_saude,
'teatros': teatros,
'museus': museus,
'cinemas': cinemas,
'salas_verdes': salas_verdes,
'pontos_cultura': pontos_cultura,
'bibliotecas': bibliotecas,
'centros_ciencia': centros_ciencia,
'cras': cras,
'raca': raca,
'total_domicilios': total_domicilios,
'total_moradores': total_moradores,
'numero_setores': numero_setores,
'media_moradores': media_moradores,
'ideb': ideb,
})
def get_distance(self):
return geopy_distance(
(self.reference.position.y, self.reference.position.x),
(self.colocated.position.y, self.colocated.position.x),
)