def test_search_quick(self):
"""Perform search and check found caches"""
# at time of writing, there were exactly 16 caches in this area + one PM only
expected_cache_num = 16
tolerance = 7
rect = Rectangle(Point(49.73, 13.38), Point(49.74, 13.40))
with self.subTest("normal"):
res = [c.wp for c in self.g.search_quick(rect)]
for wp in ["GC41FJC", "GC17E8Y", "GC5ND9F"]:
self.assertIn(wp, res)
# but 108 caches larger tile
self.assertLess(len(res), 130)
self.assertGreater(len(res), 90)
with self.subTest("strict handling of cache coordinates"):
res = list(self.g.search_quick(rect, strict=True))
self.assertLess(len(res), expected_cache_num + tolerance)
self.assertGreater(len(res), expected_cache_num - tolerance)
with self.subTest("larger zoom - more precise"):
res1 = list(self.g.search_quick(rect, strict=True, zoom=15))
res2 = list(self.g.search_quick(rect, strict=True, zoom=14))
for res in res1, res2:
self.assertLess(len(res), expected_cache_num + tolerance)
self.assertGreater(len(res), expected_cache_num - tolerance)
for c1, c2 in itertools.product(res1, res2):
self.assertLess(c1.location.precision, c2.location.precision)
def test_search_quick(self):
"""Perform quick search and check found caches"""
# at time of writing, there were exactly 16 caches in this area + one PM only
expected_cache_num = 16
tolerance = 7
rect = Rectangle(Point(49.73, 13.38), Point(49.74, 13.40))
with self.subTest("normal"):
with self.recorder.use_cassette('geocaching_quick_normal'):
# Once this feature is fixed, the corresponding cassette will have to be deleted
# and re-recorded.
res = [c.wp for c in self.gc.search_quick(rect)]
for wp in ["GC41FJC", "GC17E8Y", "GC383XN"]:
self.assertIn(wp, res)
# but 108 caches larger tile
self.assertLess(len(res), 130)
self.assertGreater(len(res), 90)
with self.subTest("strict handling of cache coordinates"):
with self.recorder.use_cassette('geocaching_quick_strictness'):
res = list(self.gc.search_quick(rect, strict=True))
self.assertLess(len(res), expected_cache_num + tolerance)
self.assertGreater(len(res), expected_cache_num - tolerance)
with self.subTest("larger zoom - more precise"):
with self.recorder.use_cassette('geocaching_quick_zoom'):
res1 = list(self.gc.search_quick(rect, strict=True, zoom=15))
res2 = list(self.gc.search_quick(rect, strict=True, zoom=14))
for res in res1, res2:
self.assertLess(len(res), expected_cache_num + tolerance)
self.assertGreater(len(res), expected_cache_num - tolerance)
for c1, c2 in itertools.product(res1, res2):
self.assertLess(c1.location.precision, c2.location.precision)
def test_search_quick(self):
"""Perform search and check found caches"""
rect = Rectangle(Point(49.73, 13.38), Point(49.74, 13.40))
caches = list(self.g.search_quick(rect))
strict_caches = list(self.g.search_quick(rect, strict=True))
precise_caches = list(self.g.search_quick(rect, precision=45.))
# Check for known geocaches
expected = ["GC41FJC", "GC17E8Y", "GC5ND9F"]
for i in expected:
found = False
for c in caches:
if c.wp == i:
found = True
break
with self.subTest("Check if {} is in results".format(c.wp)):
self.assertTrue(found)
with self.subTest("Precision is in assumed range"):
self.assertLess(caches[0].location.precision, 49.5)
self.assertGreater(caches[0].location.precision, 49.3)
with self.subTest("Found roughly correct amount of caches"):
# At time of writing, there were 108 caches inside inspected tile
self.assertLess(len(caches), 130)
self.assertGreater(len(caches), 90)
with self.subTest("Strict handling of cache coordinates"):
# ...but only 12 inside this stricter area
self.assertLess(len(strict_caches), 16)
self.assertGreater(len(strict_caches), 7)
with self.subTest("Precision grows when asking for it"):
self.assertLess(precise_caches[0].location.precision, 45.)
def test_search_quick_match_load(self):
"""Test if search results matches exact cache locations."""
rect = Rectangle(Point(49.73, 13.38), Point(49.74, 13.39))
caches = list(self.g.search_quick(rect, strict=True, zoom=15))
for cache in caches:
try:
cache.load()
self.assertIn(cache.location, rect)
except PMOnlyException:
pass
def test_search(self):
with self.subTest("normal"):
expected = ["GC41FJC", "GC17E8Y", "GC5ND9F"]
caches = self.g.search(Point(49.733867, 13.397091), 3)
for cache in caches:
self.assertIn(cache.wp, expected)
with self.subTest("pagging"):
caches = list(self.g.search(Point(49.733867, 13.397091), 25))
self.assertNotEqual(caches[0], caches[20])
def test_from_tile(self):
"""Test coordinate creation from tile"""
p = Point.from_tile(8800, 5574, 14)
p_pos = Point(49.752879934150215, 13.359375, 0.0)
p2 = Point.from_tile(x=8801, y=5575, z=14)
p_half = Point.from_tile(8800, 5574, 14, 1, 1, 2)
# Check creation
for att in ['latitude', 'longitude']:
with self.subTest("Assumed location: {}".format(att)):
self.assertAlmostEqual(getattr(p, att), getattr(p_pos, att))
with self.subTest("Fractional tiles: y-axis addition"):
self.assertEqual(Point.from_tile(8800, 5574, 14, 0, 32, 32),
Point.from_tile(x=8800, y=5575, z=14))
with self.subTest("Fractional tiles: x-axis addition"):
self.assertAlmostEqual(Point.from_tile(8800, 5574, 14, 32, 0, 32),
Point.from_tile(x=8801, y=5574, z=14))
with self.subTest("Fractional tiles: addition on both axes"):
self.assertEqual(Point.from_tile(8800, 5574, 14, 32, 32, 32), p2)
with self.subTest("y increases -> latitude decreases"):
self.assertGreater(p.latitude, p_half.latitude)
with self.subTest("x increases -> latitude increases"):
self.assertLess(p.longitude, p_half.longitude)
def test_calculate_initial_tiles(self):
expect_tiles = [(2331, 1185, 12), (2331, 1186, 12), (2332, 1185, 12),
(2332, 1186, 12)]
expect_precision = 76.06702024121832
r = Rectangle(Point(60.15, 24.95), Point(60.17, 25.00))
tiles, starting_precision = self.g._calculate_initial_tiles(r)
for t in tiles:
with self.subTest("Tile {} expected as initial tile".format(t)):
self.assertIn(t, expect_tiles)
with self.subTest("Expected precision"):
self.assertAlmostEqual(starting_precision, expect_precision)
def test_location(self):
self.assertEqual(self.c.location, Point())
with self.subTest("automatic str conversion"):
self.c.location = "S 36 51.918 E 174 46.725"
self.assertEqual(self.c.location,
Point.from_string("S 36 51.918 E 174 46.725"))
with self.subTest("filter invalid"):
with self.assertRaises(ValueError):
self.c.location = "somewhere"
def test_search(self):
with self.subTest("normal"):
expected = ["GC41FJC", "GC17E8Y", "GC1ZAQV"]
caches = self.g.search(Point(49.733867, 13.397091), len(expected))
for wp, cache in zip(expected, caches):
self.assertEqual(wp, cache.wp)
with self.subTest("pagging"):
caches = self.g.search(Point(49.733867, 13.397091), 25)
res = [c for c in caches]
self.assertNotEqual(res[0], res[20])
def test_search(self):
with self.subTest("normal"):
tolerance = 2
expected = {"GC5VJ0P", "GC41FJC", "GC50AQ6", "GC167Y7", "GC7RR74", "GC167Y7"}
with self.recorder.use_cassette("geocaching_search"):
found = {cache.wp for cache in self.gc.search(Point(49.733867, 13.397091), 20)}
self.assertGreater(len(expected & found), len(expected) - tolerance)
with self.subTest("pagging"):
with self.recorder.use_cassette("geocaching_search_pagination"):
caches = list(self.gc.search(Point(49.733867, 13.397091), 100))
self.assertNotEqual(caches[0], caches[50])
def test_search_quick_match_load(self):
"""Test if quick search results matches exact cache locations."""
rect = Rectangle(Point(49.73, 13.38), Point(49.74, 13.39))
with self.recorder.use_cassette('geocaching_matchload'):
# at commit time, this test is an allowed failure. Once this feature is fixed, the
# corresponding cassette will have to be deleted and re-recorded.
caches = list(self.gc.search_quick(rect, strict=True, zoom=15))
for cache in caches:
try:
cache.load()
self.assertIn(cache.location, rect)
except PMOnlyException:
pass
def test_from_tile(self):
"""Test coordinate creation from tile"""
p = Point.from_tile(8800, 5574, 14)
p_pos = Point(49.752879934150215, 13.359375, 0.0)
p2 = Point.from_tile(x=8801, y=5575, z=14)
p_half = Point.from_tile(8800, 5574, 14, 1, 1, 2)
# Check creation
for att in ['latitude', 'longitude']:
with self.subTest("Assumed location: {}".format(att)):
self.assertAlmostEqual(getattr(p, att), getattr(p_pos, att))
with self.subTest("Fractional tiles: y-axis addition"):
self.assertEqual(Point.from_tile(8800, 5574, 14, 0, 32, 32),
Point.from_tile(x=8800, y=5575, z=14))
with self.subTest("Fractional tiles: x-axis addition"):
self.assertAlmostEqual(Point.from_tile(8800, 5574, 14, 32, 0, 32),
Point.from_tile(x=8801, y=5574, z=14))
with self.subTest("Fractional tiles: addition on both axes"):
self.assertEqual(Point.from_tile(8800, 5574, 14, 32, 32, 32), p2)
with self.subTest("y increases -> latitude decreases"):
self.assertGreater(p.latitude, p_half.latitude)
with self.subTest("x increases -> latitude increases"):
self.assertLess(p.longitude, p_half.longitude)
def test_precision_from_tile_zoom(self):
p = Point(49.75, 13.36)
with self.subTest("Random point"):
self.assertAlmostEqual(p.precision_from_tile_zoom(14),
6.173474613462484)
with self.subTest("Precision is larger on greater Z values"):
self.assertGreater(p.precision_from_tile_zoom(13),
p.precision_from_tile_zoom(14))
with self.subTest("Precision is larger when tile is divided less"):
self.assertGreater(p.precision_from_tile_zoom(14, 10),
p.precision_from_tile_zoom(14, 100))
def test_to_map_tile(self):
t = (8800, 5574, 14)
point_in_t = Point(49.75, 13.36)
with self.subTest("From tile and back"):
self.assertEqual(Point.from_tile(*t).to_map_tile(t[-1]), t)
with self.subTest("Random point"):
self.assertEqual(point_in_t.to_map_tile(14), t)
with self.subTest("Increase in latitude: decrease in y value"):
self.assertLess(Point(50., 13.36).to_map_tile(14)[1], t[1])
with self.subTest("Increase in longitude: increase in x value"):
self.assertGreater(Point(49.75, 14.).to_map_tile(14)[0], t[0])
def setUp(self):
self.gc = Geocaching()
self.t = Trackable("TB1234", self.gc, name="TrackMe")
self.c = Cache("GC12345",
self.gc,
name="Testing",
cache_type="Traditional Cache",
location=Point(),
state=True,
found=False,
size="micro",
difficulty=1.5,
terrain=5,
author="human",
hidden=date(2000, 1, 1),
attributes={
"onehour": True,
"kids": False,
"available": True
},
summary="text",
description="long text",
hint="rot13",
favorites=0,
pm_only=False,
trackables=self.t)
def test_search(self):
with self.subTest("normal"):
tolerance = 2
expected = {
"GC5VJ0P", "GC41FJC", "GC17E8Y", "GC14AV5", "GC50AQ6",
"GC167Y7"
}
found = {
cache.wp
for cache in self.g.search(Point(49.733867, 13.397091), 20)
}
self.assertGreater(len(expected & found),
len(expected) - tolerance)
with self.subTest("pagging"):
caches = list(self.g.search(Point(49.733867, 13.397091), 100))
self.assertNotEqual(caches[0], caches[50])
def test_recover_from_rate_limit(self):
"""Test recovering from API rate limit exception."""
rect = Rectangle(Point(50.74, 13.38), Point(49.73, 14.40)) # large rectangle
with self.recorder.use_cassette("geocaching_api_rate_limit") as vcr:
orig_wait_for = TooManyRequestsError.wait_for
with patch.object(TooManyRequestsError, "wait_for", autospec=True) as wait_for:
# If we are recording, we must perform real wait, otherwise we skip waiting
wait_for.side_effect = orig_wait_for if vcr.current_cassette.is_recording() else None
for i, _cache in enumerate(self.gc.search_rect(rect, per_query=1)):
if wait_for.called:
self.assertEqual(wait_for.call_count, 1)
break
if i > 20: # rate limit should be released after ~10 requests
self.fail("API Rate Limit not released")
def setUp(self):
self.gc = Geocaching()
self.t = Trackable("TB123AB",
self.gc,
name="Testing",
type="Travel Bug",
location=Point(),
owner="human",
description="long text",
goal="short text")
def test_location(self):
self.assertEqual(self.c.location, Point())
with self.subTest("automatic str conversion"):
self.c.location = "S 36 51.918 E 174 46.725"
self.assertEqual(self.c.location, Point.from_string("S 36 51.918 E 174 46.725"))
with self.subTest("filter invalid"):
with self.assertRaises(ValueError):
self.c.location = "somewhere"
def test_search_rect(self):
"""Perform search by rect and check found caches."""
rect = Rectangle(Point(49.73, 13.38), Point(49.74, 13.39))
expected = {"GC1TYYG", "GC11PRW", "GC7JRR5", "GC161KR", "GC1GW54", "GC7KDWE", "GC93HA6", "GCZC5D"}
orig_wait_for = TooManyRequestsError.wait_for
with self.recorder.use_cassette("geocaching_search_rect") as vcr:
with patch.object(TooManyRequestsError, "wait_for", autospec=True) as wait_for:
wait_for.side_effect = orig_wait_for if vcr.current_cassette.is_recording() else None
with self.subTest("default use"):
caches = self.gc.search_rect(rect)
waypoints = {cache.wp for cache in caches}
self.assertSetEqual(waypoints, expected)
with self.subTest("sort by distance"):
with self.assertRaises(AssertionError):
caches = list(self.gc.search_rect(rect, sort_by="distance"))
origin = Point.from_string("N 49° 44.230 E 013° 22.858")
caches = list(self.gc.search_rect(rect, sort_by=SortOrder.distance, origin=origin))
waypoints = {cache.wp for cache in caches}
self.assertSetEqual(waypoints, expected)
# Check if caches are sorted by distance to origin
distances = []
for cache in caches:
try:
distances.append(great_circle(cache.location, origin).meters)
except PMOnlyException:
# can happend when getting accurate location
continue
self.assertEqual(distances, sorted(distances))
with self.subTest("sort by different criteria"):
for sort_by in SortOrder:
if sort_by is SortOrder.distance:
continue
caches = self.gc.search_rect(rect, sort_by=sort_by)
waypoints = {cache.wp for cache in caches}
self.assertSetEqual(waypoints, expected)
def test_recover_from_rate_limit_without_sleep(self):
"""Test recovering from API rate limit exception without sleep."""
rect = Rectangle(Point(50.74, 13.38), Point(49.73, 14.40))
with self.recorder.use_cassette('geocaching_api_rate_limit_with_none') as vcr:
with patch.object(TooManyRequestsError, 'wait_for', autospec=True) as wait_for:
caches = self.gc.search_rect(rect, per_query=1, wait_sleep=False)
for i, cache in enumerate(caches):
if cache is None:
import time
while cache is None:
if vcr.current_cassette.is_recording():
time.sleep(10)
cache = next(caches)
self.assertIsInstance(cache, Cache)
break
if i > 20:
self.fail("API Rate Limit not released")
self.assertEqual(wait_for.call_count, 0)
def test_search_rect(self):
"""Perform search by rect and check found caches."""
rect = Rectangle(Point(49.73, 13.38), Point(49.74, 13.39))
expected = {'GC1TYYG', 'GC11PRW', 'GC7JRR5', 'GC161KR', 'GC1GW54', 'GC7KDWE', 'GC8D303'}
orig_wait_for = TooManyRequestsError.wait_for
with self.recorder.use_cassette('geocaching_search_rect') as vcr:
with patch.object(TooManyRequestsError, 'wait_for', autospec=True) as wait_for:
wait_for.side_effect = orig_wait_for if vcr.current_cassette.is_recording() else None
with self.subTest("default use"):
caches = self.gc.search_rect(rect)
waypoints = {cache.wp for cache in caches}
self.assertSetEqual(waypoints, expected)
with self.subTest("sort by distance"):
with self.assertRaises(AssertionError):
caches = list(self.gc.search_rect(rect, sort_by='distance'))
origin = Point.from_string('N 49° 44.230 E 013° 22.858')
caches = list(self.gc.search_rect(rect, sort_by=SortOrder.distance, origin=origin))
waypoints = [cache.wp for cache in caches]
self.assertEqual(waypoints, [
'GC11PRW', 'GC1TYYG', 'GC7JRR5', 'GC1GW54', 'GC161KR', 'GC7KDWE', 'GC8D303'
])
# Check if caches are sorted by distance to origin
distances = [great_circle(cache.location, origin).meters for cache in caches]
self.assertEqual(distances, sorted(distances))
with self.subTest("sort by different criteria"):
for sort_by in SortOrder:
if sort_by is SortOrder.distance:
continue
caches = self.gc.search_rect(rect, sort_by=sort_by)
waypoints = {cache.wp for cache in caches}
self.assertSetEqual(waypoints, expected)
def test_get_zoom_by_distance(self):
"""Check that calculated zoom levels are correct"""
with self.subTest("World map zoom level"):
self.assertEqual(
self.g._get_zoom_by_distance(40e6, 0., 1., 'le'), 0)
with self.subTest("Next level"):
self.assertEqual(
self.g._get_zoom_by_distance(40e6, 0., 1., 'ge'), 1)
with self.subTest("Tile width greater or equal to 1 km"):
self.assertEqual(
self.g._get_zoom_by_distance(1e3, 49., 1., 'le'), 14)
with self.subTest("More accurate than 10 m"):
self.assertEqual(
self.g._get_zoom_by_distance(10., 49., 256, 'ge'), 14)
with self.subTest("Previous test was correct"):
p = Point(49., 13.)
self.assertGreater(p.precision_from_tile_zoom(13), 10)
self.assertLess(p.precision_from_tile_zoom(14), 10)
def test_get_zoom_by_distance(self):
"""Check that calculated zoom levels are correct"""
with self.subTest("World map zoom level"):
self.assertEqual(self.g._get_zoom_by_distance(40e6, 0., 1., 'le'),
0)
with self.subTest("Next level"):
self.assertEqual(self.g._get_zoom_by_distance(40e6, 0., 1., 'ge'),
1)
with self.subTest("Tile width greater or equal to 1 km"):
self.assertEqual(self.g._get_zoom_by_distance(1e3, 49., 1., 'le'),
14)
with self.subTest("More accurate than 10 m"):
self.assertEqual(self.g._get_zoom_by_distance(10., 49., 256, 'ge'),
14)
with self.subTest("Previous test was correct"):
p = Point(49., 13.)
self.assertGreater(p.precision_from_tile_zoom(13), 10)
self.assertLess(p.precision_from_tile_zoom(14), 10)
def test_geocode(self):
pilsen = Point(49.74774, 13.37752)
with self.subTest("existing location"):
self.assertEqual(self.g.geocode("Pilsen"), pilsen)
self.assertEqual(self.g.geocode("Plzeň"), pilsen)
self.assertEqual(self.g.geocode("plzen"), pilsen)
with self.subTest("non-existing location"):
with self.assertRaises(GeocodeError):
self.g.geocode("qwertzuiop")
with self.subTest("empty request"):
with self.assertRaises(GeocodeError):
self.g.geocode("")
def test_precision_from_tile_zoom(self):
p = Point(49.75, 13.36)
with self.subTest("Random point"):
self.assertAlmostEqual(p.precision_from_tile_zoom(14),
6.173474613462484)
with self.subTest("Precision is larger on greater Z values"):
self.assertGreater(p.precision_from_tile_zoom(13),
p.precision_from_tile_zoom(14))
with self.subTest("Precision is larger when tile is divided less"):
self.assertGreater(p.precision_from_tile_zoom(14, 10),
p.precision_from_tile_zoom(14, 100))
def test_to_map_tile(self):
t = (8800, 5574, 14)
point_in_t = Point(49.75, 13.36)
with self.subTest("From tile and back"):
self.assertEqual(Point.from_tile(*t).to_map_tile(t[-1]), t)
with self.subTest("Random point"):
self.assertEqual(point_in_t.to_map_tile(14), t)
with self.subTest("Increase in latitude: decrease in y value"):
self.assertLess(Point(50., 13.36).to_map_tile(14)[1], t[1])
with self.subTest("Increase in longitude: increase in x value"):
self.assertGreater(Point(49.75, 14.).to_map_tile(14)[0], t[0])
def test_geocode(self):
ref_point = Point(50.08746, 14.42125)
with self.recorder.use_cassette('geocaching_shortcut_geocode'):
self.assertLess(
great_circle(self.gc.geocode("Prague"), ref_point).miles, 10)
def test_from_string(self):
with self.subTest("normal"):
self.assertEqual(Point.from_string("N 49 45.123 E 013 22.123"),
Point(49.75205, 13.36872))
with self.subTest("south and west"):
self.assertEqual(Point.from_string("S 49 45.123 W 013 22.123"),
Point(-48.24795, -12.63128))
with self.subTest("letter together"):
self.assertEqual(Point.from_string("N49 45.123 E013 22.123"),
Point(49.75205, 13.36872))
with self.subTest("letter after"):
self.assertEqual(Point.from_string("49N 45.123 013E 22.123"),
Point(49.75205, 13.36872))
with self.subTest("south and west letter after"):
self.assertEqual(Point.from_string("49S 45.123 013W 22.123"),
Point(-48.24795, -12.63128))
with self.subTest("decimal separator: coma"):
self.assertEqual(Point.from_string("N 49 45,123 E 013 22,123"),
Point(49.75205, 13.36872))
with self.subTest("degree symbol"):
self.assertEqual(Point.from_string("N 49° 45.123 E 013° 22.123"),
Point(49.75205, 13.36872))
with self.subTest("coma between lat and lon"):
self.assertEqual(Point.from_string("N 49 45.123, E 013 22.123"),
Point(49.75205, 13.36872))
with self.subTest("marginal values: zeroes"):
self.assertEqual(Point.from_string("N 49 45.000 E 13 0.0"),
Point(49.75, 13.0))
with self.subTest("Include precision"):
self.assertIn("precision", Point(49.75, 13.0).__dict__)
with self.assertRaises(ValueError):
Point.from_string("123")
def test_distance(self):
p1, p2 = Point(60.15, 24.95), Point(60.17, 25.00)
self.assertAlmostEqual(p1.distance(p2), 3560.1077441805196)
def test_geocode(self):
ref_point = Point(49.74774, 13.37752)
self.assertLess(great_circle(self.g.geocode("Pilsen"), ref_point).miles, 10)
def test_from_string(self):
with self.subTest("normal"):
self.assertEqual(Point.from_string("N 49 45.123 E 013 22.123"), Point(49.75205, 13.36872))
with self.subTest("south and west"):
self.assertEqual(Point.from_string("S 49 45.123 W 013 22.123"), Point(-48.24795, -12.63128))
with self.subTest("letter together"):
self.assertEqual(Point.from_string("N49 45.123 E013 22.123"), Point(49.75205, 13.36872))
with self.subTest("letter after"):
self.assertEqual(Point.from_string("49N 45.123 013E 22.123"), Point(49.75205, 13.36872))
with self.subTest("south and west letter after"):
self.assertEqual(Point.from_string("49S 45.123 013W 22.123"), Point(-48.24795, -12.63128))
with self.subTest("decimal separator: coma"):
self.assertEqual(Point.from_string("N 49 45,123 E 013 22,123"), Point(49.75205, 13.36872))
with self.subTest("degree symbol"):
self.assertEqual(Point.from_string("N 49° 45.123 E 013° 22.123"), Point(49.75205, 13.36872))
with self.subTest("coma between lat and lon"):
self.assertEqual(Point.from_string("N 49 45.123, E 013 22.123"), Point(49.75205, 13.36872))
with self.subTest("marginal values: zeroes"):
self.assertEqual(Point.from_string("N 49 45.000 E 13 0.0"), Point(49.75, 13.0))
with self.assertRaises(ValueError):
Point.from_string("123")
def test_distance(self):
p1, p2 = Point(60.15,24.95), Point(60.17,25.00)
self.assertAlmostEqual(p1.distance(p2), 3560.1077441805196)
