def create_map(self, *args):
_, latitude, longitude, markers = args
markers = pickle.loads(markers)
map = MapView(zoom=12, lat=latitude, lon=longitude, size_hint=(1, .8))
marker_layer = MarkerMapLayer()
map.add_layer(marker_layer)
for (lat, lon) in markers:
# print(type(lat),type(lon))
map.add_marker(MapMarker(lat=lat,
lon=lon,
source='images/mmy_marker.png'),
layer=marker_layer)
return map
def draw_iss_path(self):
# Path is drawn every 5 mins
if self.utcnow() - self.last_path_update > 30:
try:
self.map.remove_layer(self.mmlayer)
except:
pass
self.mmlayer = MarkerMapLayer()
# Create markers showing the ISS's position every 5 mins
for i in range(20):
lat, lon = self.get_loc(datetime.now() + timedelta(0, i * 300))
self.mmlayer.add_widget(
MapMarker(lat=lat, lon=lon, source=self.path_icon))
# Update the flag so we know when next update should be run
self.last_path_update = self.utcnow()
# Add the layer and call the reposition function otherwise the
# markers don't show otherwise!
self.map.add_layer(self.mmlayer)
self.mmlayer.reposition()
def __init__(self, walking_widget):
super().__init__()
self.walking_widget = walking_widget
self.widget_layout = FloatLayout()
self.origin_size = (1, 1)
self.map_view = MapView(zoom=12, lat=37.5606,
lon=126.9790) # gps에서 현재위치 받아서 띄우기
self.cur_lat, self.cur_lon = 37.5606, 126.9790
self.marker_layer = MarkerMapLayer()
self.map_view.add_layer(self.marker_layer)
self.positions = [(self.cur_lat, self.cur_lon)]
self.save_button = Button(text='save',
pos_hint={
'x': 0.0,
'y': 0.0
},
size_hint=(.1, .1))
self.clear_button = Button(text='clear',
pos_hint={
'x': 0.1,
'y': 0.0
},
size_hint=(.1, .1))
self.items_bind()
def draw_rout(self, lat, lon):
self.data_lay = MarkerMapLayer()
self.my_map.add_layer(self.data_lay)
lat = lat[::10]
lon = lon[::10]
for point in zip(lat, lon):
self.draw_marker(*point, layer=self.data_lay)
def draw_route(self,lat,lon):#narysowanie trasy
data_lay = MarkerMapLayer()
self.my_map.set_zoom_at(11, 0, 0, scale=None)
lat_ = float(np.mean(lat))
lon_ = float(np.mean(lon))
self.my_map.center_on(lat_, lon_)
self.my_map.add_layer(data_lay) # my_map jest obiektem klasy MapView
for point in zip(lat,lon):
self.draw_marker(*point,layer = data_lay)
def draw_route(self, df):
self.data_layer = MarkerMapLayer(
) #utworzenie warstwy, creating instance of class MarkerMapLayer
self.my_map.add_layer(self.data_layer) #dodanie warstwy do mapy
for i in range(df.shape[0]):
self.mark_point(lat=float((df.iloc[i, 0]) * 180 / pi),
lon=float(df.iloc[i, 1] * 180 / pi),
layer=self.data_layer) #narysowanie trasy
def __init__(self, lat=51.5, lon=0, zoom=8, url="http://localhost/dump1090/data/aircraft.json", interval=1):
self.aircraft_layer = MarkerMapLayer()
self.update_in_progress = False
self.list_of_tracked_aircraft = []
self.aircraft_markers = []
self.url = url
super().__init__(lat=lat, lon=lon, zoom=zoom)
self.add_layer(self.aircraft_layer)
Clock.schedule_interval(self.request_update, interval)
def search_location(self): #funkcja lokalizująca obiekty
self.data_layer = MarkerMapLayer()
self.my_map.add_layer(self.data_layer)
self.lati = self.my_map.lat
self.long = self.my_map.lon
print(self.lati)
print(self.long)
list_of_points = [[
'zegar_praga.jpg', 50 + 5 / 60 + 12 / 3600,
14 + 25 / 60 + 14 / 3600
], ['sagrada_familia.jpg', 50.06465009, 19.94497990000002],
['sacre_coeur.jpg', 48.8863280, 2.3430490],
['london_eye.jpg', 51.5007316, -0.1186893],
['notre_dame.jpg', 48.8540278, 2.3473245],
['koloseum.jpg', 41.8895897, 12.4940828],
['fontanna.jpg', 41.9008219, 12.4830284],
['eiffel_tower.jpg', 48.8583157, 2.2943230],
['big_ben.jpg', 51.4995730, -0.1245830],
['arc.jpg', 48.8738178, 2.2950626],
['akropol.jpg', 37.9666670, 23.7166670]]
try:
self.my_map.remove_marker(self.marker)
except:
pass
self.latitude = self.my_map.lat
self.longitude = self.my_map.lon
self.marker = MapMarker(lat=self.latitude, lon=self.longitude)
self.my_map.add_marker(self.marker)
#zmiana formatu wywietlania znakow
self.search_lat.text = "{:5.5f}".format(self.latitude)
self.search_long.text = "{:5.5f}".format(self.longitude)
#użycie funkcji obliczającej odległosc
for i in range(len(list_of_points)):
if self.pic.source == list_of_points[i][0]:
s = funkcja.Vincenty(self.lati * pi / 180,
self.long * pi / 180,
list_of_points[i][1] * pi / 180,
list_of_points[i][2] * pi / 180)
points = []
if s > 100:
self.tekst.text = "Odleglosc pomiedzy {} m".format(round(s, 3))
score = 0
points.append(score)
else:
self.tekst.text = "zdobywasz punkt!"
score = 1
points.append(score)
sum_of_points = points.count(1)
self.score.text = "Twoje punkty : {}".format(sum_of_points)
def __init__(self, **kwargs):
super(Editor, self).__init__(**kwargs)
self.marker_layer = MarkerMapLayer()
self.current_layer = GeoJsonMapLayer()
self.result_layer = GeoJsonMapLayer()
self.result_layer.geojson = kwargs["geojson"]
self.geojson_fn = kwargs["geojson_fn"]
self.ids.mapview.add_widget(self.current_layer)
self.ids.mapview.add_widget(self.result_layer)
self.ids.mapview.add_widget(self.marker_layer)
def build(self):
self.mapview = MapView(lat=51.48, lon=-3.17, zoom=11)
self.mapLayer = MarkerMapLayer()
for i in locations:
locationLat = float(locations[i][0])
locationLon = float(locations[i][1])
marker = MapMarker(lat=locationLat, lon=locationLon)
self.mapLayer.add_widget(marker)
self.mapview.add_layer(self.mapLayer)
self.add_widget(self.mapview)
def mark_boys(self):
#
boy = MarkerMapLayer()
self.add_layer(boy)
longitude = -71.979914
latitude = 41.800495
m1 = MapMarker(lon=longitude, lat=latitude, source=r'blue_pin.png')
m1.bind(on_press=pop_that)
self.add_marker(m1, layer=boy)
def mark_girls(self):
# used to draw in all girl's changing rooms
# change icon to pink
girl = MarkerMapLayer()
self.add_layer(girl)
longitude = -72.979914
latitude = 40.800495
m1 = MapMarker(lon=longitude, lat=latitude, source=r'pink_pin.png')
m1.bind(on_press=pop_that)
self.add_marker(m1, layer=girl)
def draw_marker(self):
data_lay = MarkerMapLayer()
self.my_map.add_layer(data_lay)
for i in range(len(self.lati)):
marker = MapMarker(lat=self.lati[i],
lon=self.loni[i],
source="dot.png")
self.my_map.add_marker(marker, layer=data_lay)
self.my_map.set_zoom_at(10, self.lati[1], self.loni[1], scale=None)
self.my_map.center_on(self.lati[1], self.loni[1])
def __init__(self):
super().__init__()
self.origin_size = (1, 1)
self.widget_layout = FloatLayout()
#줌을 12에서 붐비는정도라는 의도에 걸맞게 zoom을 높여주기 -> ux 개선사항
self.map_view = MapView(zoom=14, lat=37.5606,
lon=126.9790) # gps에서 현재위치 받아서 띄우기
self.cur_lat, self.cur_lon = 37.5606, 126.9790
self.marker_layer = MarkerMapLayer()
self.map_view.add_layer(self.marker_layer)
self.items_bind()
def __init__(self, **kwargs):
#super(ISSScreen, self).__init__(**kwargs)
super(ISSScreen, self).__init__()
self.name = kwargs["name"]
# Set the path for the folder
self.path = os.path.dirname(os.path.abspath(__file__))
# Set the path for local images
self.imagefolder = os.path.join(self.path, "images")
# Ephem calculates the position using the Two Line Element data
# We need to make sure we have up to date info
tle = self.get_TLE()
# Create an iss object from which we can get positional data
self.iss = ephem.readtle(*tle)
# Run the calculations
self.iss.compute()
# Get positon of iss and place a marker there
lat, lon = self.get_loc()
self.marker = MapMarker(lat=lat, lon=lon)
# Create a value to check when we last drew ISS path
self.last_path_update = 0
# Create the path icon
self.path_icon = os.path.join(self.imagefolder, "dot.png")
# Create the world map
#self.map = MapView(id="mpv",lat=0, lon=0, zoom=1, scale=1.5)
self.map = MapView(lat=0, lon=0, zoom=1)
x, y = self.map.get_window_xy_from(0, 0, 1)
self.map.scale_at(1.2, x, y)
# Add the ISS marker to the map and draw the map on the screen
print("add map")
self.map.add_widget(self.marker)
print("add widget")
self.add_widget(self.map)
# Add a new layer for the path
self.mmlayer = MarkerMapLayer()
self.draw_iss_path()
self.timer = None
def draw_markers(self, lats, lons, h_lat, h_lon):
''' Rysuj markery! I najtrudniejsze miejsce'''
# Ale najpierw skasujmy stare markery
self.remove_markers()
self.data_layer = MarkerMapLayer()
self.map_.add_layer(self.data_layer)
# Nie chcemy za dużo punktów narysować
if len(lats) > 50:
print('ZA DUŻO PUNKTÓW GPS!!!!')
co_ile = int(len(lats) / 50)
print('Wybieramy co %d punkt aby wyświetlić 50/51 punktów')
lats = lats[::co_ile]
lons = lons[::co_ile]
for lat, lon in zip(lats, lons):
marker = MapMarker(lat=lat, lon=lon)
self.map_.add_marker(marker, layer=self.data_layer)
n = len(lats)
# Ładnie centrujemy mapkę!
self.map_.center_on(sum(lats) / n, sum(lons) / n)
# Rysuj położenie najtrudniejszego odcinka
marker = MapMarker(lat=h_lat, lon=h_lon, source='cluster.png')
self.map_.add_marker(marker, layer=self.data_layer)
def draw_route(self, lon, lat):
data_layer = MarkerMapLayer()
self.my_map.add_layer(data_layer)
for point in zip(lat, lon):
self.mark_point(*point, layer=data_layer)
def draw_route(self, lat, lon):
# utworzenie nowej warstwy i dodanie jej do mapy
data_layer = MarkerMapLayer()
self.my_map.add_layer(data_layer) # my_map jest obiektem klasy MapView
for point in zip(lat, lon):
self.mark_point(*point, layer=data_layer)
def draw_route(self, lat, lon):
data_layer = MarkerMapLayer()
for point in zip(lat, lon):
self.mark_point(*point, layer=data_layer)
def analyse_file(self):
filename = self.txt1.text #wczytanie pliku
lat, lon, lat1, lat2, lon1, lon2, el, dates, elstart, elstop, datesstop, datesstart, delta, sekundy, sumdates, lat1wyk, lon1wyk = biblio.wczytaj_plik(
filename)
#---------------------HAVERSINE------------------------------------------------
def haversine(origin, destination):
lat1, lon1 = origin
lat2, lon2 = destination
radius = 6371000 # m
dlat = np.radians(lat2 - lat1)
dlon = np.radians(lon2 - lon1)
a = np.sin(dlat/2) * np.sin(dlat/2) + np.cos(np.radians(lat1)) \
* np.cos(np.radians(lat2)) * np.sin(dlon/2) * np.sin(dlon/2)
c = 2 * np.arctan2(np.sqrt(a), np.sqrt(1 - a))
d = radius * c
return d
#------------------rysowanie poczatku trasy------------------------------------
self.data_lay = MarkerMapLayer()
self.my_map.add_layer(self.data_lay)
marker = MapMarker(lat=lat[0], lon=lon[0], source="dot.png")
self.my_map.add_marker(marker, layer=self.data_lay)
#-----------------------obliczenia---------------------------------------------
dist_part = haversine((lat1, lon1), (lat2, lon2)) # m
sumdist = sum(dist_part) #długosć całkowita trasy - pozioma
alt_part = (elstop - elstart) #przwyższenia na odcinkach trasy
def przewyzszenie_dodatnie(alt_part): #całkowite przewyższenie w górę
dodatnie = []
for przewyzszenie in alt_part:
if przewyzszenie >= 0:
dodatnie.append(przewyzszenie)
return dodatnie
def przewyzszenie_ujemne(alt_part): #całkowite przewyższenie w dół
ujemne = []
for przewyzszenie in alt_part:
if przewyzszenie < 0:
ujemne.append(przewyzszenie)
return ujemne
altsum = sum(alt_part) #całkowite przewyższenie na trasie
odl3D = np.sqrt((dist_part**2 + alt_part**2)) #odległosć skosna
sum3D = sum(odl3D) #całkowita odleglosc skosna trasy
#------------------predkosci---------------------------------------------------
if sekundy > 0:
v = dist_part / sekundy #m/s
vavg = sum(v) / len(v)
p7 = str(round(vavg, 3))
else:
v = 0
vavg = 0
p7 = str('Brak')
#-------------wyswietlanie statystyk-------------------------------------------
p1 = str(round(sumdist, 3))
p2 = str(round(sum3D, 3))
p3 = str(round(altsum, 3))
p4 = str(round(sum(np.array(przewyzszenie_dodatnie(alt_part))), 3))
p5 = str(round(sum(np.array(przewyzszenie_ujemne(alt_part))), 3))
p6 = str(sumdates)
p8 = str(round(max(el), 3))
p9 = str(round(min(el), 3))
self.txt2.text = 'Statystyki:'
self.txt2.text += '\nCałkowita odległość (długość) pozioma [m] '
self.txt2.text += p1
self.txt2.text += '\nCałkowita odległość skośna [m] '
self.txt2.text += p2
self.txt2.text += '\nCałkowite przewyższenie [m] '
self.txt2.text += p3
self.txt2.text += '\nw tym: w górę / w dół '
self.txt2.text += p4
self.txt2.text += ' / '
self.txt2.text += p5
self.txt2.text += '\nCzas [h:m:s] '
self.txt2.text += p6
self.txt2.text += '\nSrednia predkość [m/s] '
self.txt2.text += p7
self.txt2.text += '\nMaksymalna wysokość [m] '
self.txt2.text += p8
self.txt2.text += '\nMinimalna wysokość [m] '
self.txt2.text += p9
def draw_route(self, lat, lon): #rysowanie trasy
data_lay = MarkerMapLayer()
self.my_map.add_layer(data_lay) # my_map jest obiektem klasy MapView
for point in zip(lat, lon):
self.draw_marker(*point, layer=data_lay)
