| /third_party/boost/boost/geometry/strategies/spherical/ |
| D | envelope_segment.hpp | 57 static inline CalculationType apply(T1 const& lat1, in apply()
62 ::apply(lat1, alp1); in apply()
70 static inline CalculationType apply(T1 const& lat1, in apply()
75 ::apply(lat1, alp1, strategy.model()); in apply()
93 static inline void pre(T & lat1, T & lat2) in pre()
95 lat1 = math::latitude_convert_ep<Units>(lat1); in pre()
100 static inline void post(T & lat1, T & lat2) in post()
102 lat1 = math::latitude_convert_ep<Units>(lat1); in post()
104 std::swap(lat1, lat2); in post()
116 CalculationType& lat1, in swap() argument
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| D | side_by_cross_track.hpp | 65 calc_t lat1 = geometry::get_as_radian<1>(p1); in apply() local
72 (lon1, lat1, lon, lat).azimuth; in apply()
75 (lon1, lat1, lon2, lat2).azimuth; in apply()
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| D | distance_cross_track.hpp | 414 return_type lat1 = geometry::get_as_radian<1>(sp1); in apply() local
421 (lon1, lat1, lon, lat).azimuth; in apply()
425 (lon1, lat1, lon2, lat2); in apply()
498 inline radius_type vertical_or_meridian(T1 lat1, T2 lat2) const in vertical_or_meridian() argument
500 return m_strategy.radius() * (lat1 - lat2); in vertical_or_meridian()
616 inline radius_type vertical_or_meridian(T1 lat1, T2 lat2) const in vertical_or_meridian() argument
618 return m_strategy.radius() * (lat1 - lat2); in vertical_or_meridian()
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| D | distance_segment_box.hpp | 114 CT lat1 = geometry::get_as_radian<1>(p0); in segment_below_of_box() local
121 std::swap(lat1, lat2); in segment_below_of_box()
125 CT lat_sum = lat1 + lat2; in segment_below_of_box()
134 az_strategy.apply(lon1, lat1, lon2, lat2, alp1); in segment_below_of_box()
139 >::apply(lon1, lat1, lon2, lat2, in segment_below_of_box()
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| /third_party/boost/boost/geometry/formulas/ |
| D | meridian_inverse.hpp | 50 static bool meridian_not_crossing_pole(T lat1, T lat2, CT diff) in meridian_not_crossing_pole() argument
54 (math::equals(lat2, half_pi) && math::equals(lat1, -half_pi)); in meridian_not_crossing_pole()
64 static CT meridian_not_crossing_pole_dist(T lat1, T lat2, Spheroid const& spheroid) in meridian_not_crossing_pole_dist() argument
66 return math::abs(apply(lat2, spheroid) - apply(lat1, spheroid)); in meridian_not_crossing_pole_dist()
70 static CT meridian_crossing_pole_dist(T lat1, T lat2, Spheroid const& spheroid) in meridian_crossing_pole_dist() argument
75 if (lat1+lat2 < c0) in meridian_crossing_pole_dist()
80 - apply(lat1, spheroid) - apply(lat2, spheroid)); in meridian_crossing_pole_dist()
84 static result apply(T lon1, T lat1, T lon2, T lat2, Spheroid const& spheroid) in apply() argument
90 if (lat1 > lat2) in apply()
92 std::swap(lat1, lat2); in apply()
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| D | vertex_longitude.hpp | 40 static inline CT apply(T const& lat1, //segment point 1 in apply() argument
47 CT const A = sin(lat1) * cos(lat2) * cos(lat3) * sin_l12; in apply()
48 CT const B = sin(lat1) * cos(lat2) * cos(lat3) * cos_l12 in apply()
49 - cos(lat1) * sin(lat2) * cos(lat3); in apply()
69 static inline CT apply(T const& lat1, //segment point 1 in apply() argument
82 if (math::equals(lat1, half_pi) in apply()
84 || math::equals(lat1, -half_pi) in apply()
100 CT const bet1 = atan(one_minus_f * tan(lat1)); in apply()
155 if (lat1 * lat2 < c0)//different hemispheres in apply()
157 if ((lat2 - lat1) * lat3 > c0)// ascending segment in apply()
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| D | spherical.hpp | 128 T1 const& lat1, in spherical_azimuth() argument
148 CT const cos_lat1 = cos(lat1); in spherical_azimuth()
150 CT const sin_lat1 = sin(lat1); in spherical_azimuth()
172 inline ReturnType spherical_azimuth(T1 const& lon1, T1 const& lat1, in spherical_azimuth() argument
175 return spherical_azimuth<ReturnType, false>(lon1, lat1, lon2, lat2).azimuth; in spherical_azimuth()
179 inline T spherical_azimuth(T const& lon1, T const& lat1, T const& lon2, T const& lat2) in spherical_azimuth() argument
181 return spherical_azimuth<T, false>(lon1, lat1, lon2, lat2).azimuth; in spherical_azimuth()
229 CT const& lat1, in spherical_direct() argument
237 CT const sin_lat1 = sin(lat1); in spherical_direct()
239 CT const cos_lat1 = cos(lat1); in spherical_direct()
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| D | meridian_segment.hpp | 38 static inline SegmentType is_meridian(T lon1, T lat1, T lon2, T lat2) in is_meridian() argument
43 if ( meridian_not_crossing_pole(lat1, lat2, diff) ) in is_meridian()
55 static bool meridian_not_crossing_pole(T lat1, T lat2, T diff) in meridian_not_crossing_pole() argument
59 (math::equals(lat2, half_pi) && math::equals(lat1, -half_pi)); in meridian_not_crossing_pole()
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| D | vertex_latitude.hpp | 39 static inline CT apply(T1 const& lat1, in apply() argument
42 return std::acos( math::abs(cos(lat1) * sin(alp1)) ); in apply()
77 static inline CT apply(T1 const& lat1, in apply() argument
86 CT const bet1 = atan( one_minus_f * tan(lat1) ); in apply()
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| D | thomas_inverse.hpp | 60 T1 const& lat1, in apply() argument
69 if ( math::equals(lon1, lon2) && math::equals(lat1, lat2) ) in apply()
88 CT const theta1 = math::equals(lat1, pi_half) ? lat1 : in apply()
89 math::equals(lat1, -pi_half) ? lat1 : in apply()
90 atan(one_minus_f * tan(lat1)); in apply()
207 quantities::apply(lon1, lat1, lon2, lat2, in apply()
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| D | thomas_direct.hpp | 70 CT const lat1 = la1; in apply() local
90 CT lat1_alt = lat1; in apply()
91 bool alter_result = vflip_if_south(lat1, azimuth12, lat1_alt, azi12_alt); in apply()
202 quantities::apply(lon1, lat1, result.lon2, result.lat2, in apply()
221 … static inline bool vflip_if_south(CT const& lat1, CT const& azi12, CT & lat1_alt, CT & azi12_alt) in vflip_if_south() argument
230 lat1_alt = -lat1; in vflip_if_south()
236 lat1_alt = -lat1; in vflip_if_south()
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| D | gnomonic_intersection.hpp | 83 double lat1, lon1; in apply() local
90 && gnom_t::inverse(lon, lat, x, y, lon1, lat1, spheroid); in apply()
97 if (math::equals(lat1, lat) && math::equals(lon1, lon)) in apply()
102 lat = lat1; in apply()
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| D | vincenty_inverse.hpp | 70 T1 const& lat1, in apply()
77 if (math::equals(lat1, lat2) && math::equals(lon1, lon2)) in apply()
106 CT const tan_U1 = one_min_f * tan(lat1); // above (1) in apply()
208 quantities::apply(lon1, lat1, lon2, lat2, in apply()
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| D | andoyer_inverse.hpp | 61 T1 const& lat1, in apply() argument
70 if ( math::equals(lon1, lon2) && math::equals(lat1, lat2) ) in apply()
83 CT const sin_lat1 = sin(lat1); in apply()
84 CT const cos_lat1 = cos(lat1); in apply()
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| D | vincenty_direct.hpp | 76 CT const lat1 = la1; in apply() local
87 CT const tan_U1 = one_min_f * tan(lat1); in apply()
163 quantities::apply(lon1, lat1, result.lon2, result.lat2, in apply()
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| /third_party/boost/libs/geometry/test/strategies/ |
| D | andoyer.cpp | 69 void test_distance(double lon1, double lat1, double lon2, double lat2, double expected_km) in test_distance() argument
96 bg::assign_values(p1, lon1, lat1); in test_distance()
116 d_formula = andoyer_inverse_type::apply(to_rad(lon1), to_rad(lat1), in test_distance()
128 void test_azimuth(double lon1, double lat1, in test_azimuth() argument
141 …rtype a_formula = andoyer_inverse_type::apply(to_rad(lon1), to_rad(lat1), to_rad(lon2), to_rad(lat… in test_azimuth()
161 void test_distazi(double lon1, double lat1, double lon2, double lat2, in test_distazi() argument
164 test_distance<P1, P2>(lon1, lat1, lon2, lat2, expected_km); in test_distazi()
165 test_azimuth<P1, P2>(lon1, lat1, lon2, lat2, expected_azimuth_deg); in test_distazi()
170 void test_distazi_symm(double lon1, double lat1, double lon2, double lat2, in test_distazi_symm() argument
175 test_distazi<P1, P2>(lon1, lat1, lon2, lat2, expected_km, expected_azimuth_deg); in test_distazi_symm()
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| D | distance.cpp | 40 void test_distance(double lon1, double lat1, double lon2, double lat2) in test_distance() argument
53 bg::assign_values(p1, lon1, lat1); in test_distance()
65 lat1 * bg::math::d2r<double>(), in test_distance()
76 void test_distance_reverse(double lon1, double lat1, in test_distance_reverse() argument
79 test_distance<P1, P2, FormulaPolicy>(lon1, lat1, lon2, lat2); in test_distance_reverse()
80 test_distance<P1, P2, FormulaPolicy>(lon2, lat2, lon1, lat1); in test_distance_reverse()
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| D | vincenty.cpp | 108 void test_vincenty(double lon1, double lat1, double lon2, double lat2, in test_vincenty() argument
132 lat1 * d2r, in test_vincenty()
150 lat1 * d2r, in test_vincenty()
184 bg::assign_values(p1, lon1, lat1); in test_vincenty()
194 void test_vincenty(double lon1, double lat1, double lon2, double lat2, in test_vincenty() argument
199 test_vincenty<P1, P2>(lon1, lat1, lon2, lat2, in test_vincenty()
205 void test_side(double lon1, double lat1, in test_side() argument
227 bg::assign_values(p1, lon1, lat1); in test_side()
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| D | thomas.cpp | 42 void test_distance(double lon1, double lat1, double lon2, double lat2, double expected_km) in test_distance() argument
69 bg::assign_values(p1, lon1, lat1); in test_distance()
78 void test_side(double lon1, double lat1, in test_side() argument
100 bg::assign_values(p1, lon1, lat1); in test_side()
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| /third_party/boost/boost/geometry/algorithms/detail/disjoint/ |
| D | segment_box.hpp | 144 CT lat1 = geometry::get_as_radian<1>(p0_normalized); in apply() local
151 std::swap(lat1, lat2); in apply()
159 >::template apply<geometry::radian>(lon1, lat1, in apply()
178 azimuth_strategy.apply(lon1, lat1, lon2, lat2, alp1); in apply()
179 azimuth_strategy.apply(lon1, lat1, b_lon_min, b_lat_min, a_b0); in apply()
180 azimuth_strategy.apply(lon1, lat1, b_lon_max, b_lat_min, a_b1); in apply()
181 azimuth_strategy.apply(lon1, lat1, b_lon_min, b_lat_max, a_b2); in apply()
182 azimuth_strategy.apply(lon1, lat1, b_lon_max, b_lat_max, a_b3); in apply()
199 CT lat_sum = lat1 + lat2; in apply()
201 if ((lat1 < b_lat_min && lat_sum > CT(0)) in apply()
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| /third_party/boost/boost/geometry/strategies/geographic/ |
| D | distance_cross_track.hpp | 151 inline CT vertical_or_meridian(CT const& lat1, CT const& lat2) const in vertical_or_meridian() argument
159 return meridian_inverse::meridian_not_crossing_pole_dist(lat1, lat2, in vertical_or_meridian()
201 static inline non_iterative_case(CT const& lon1, CT const& lat1, //p1 in non_iterative_case() argument
206 ::apply(lon1, lat1, lon2, lat2, spheroid); in non_iterative_case()
208 return non_iterative_case(lon1, lat1, distance); in non_iterative_case()
242 static void bisection(CT const& lon1, CT const& lat1, //p1 in bisection() argument
260 CT pl_lat = lat1; in bisection()
268 res14 = direct_distance_type::apply(lon1, lat1, s14, a12, spheroid); in bisection()
330 static void newton(CT const& lon1, CT const& lat1, //p1 in newton() argument
360 res14 = direct_distance_type::apply(lon1, lat1, s14, a12, spheroid); in newton()
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| D | distance.hpp | 92 static inline CT apply(CT lon1, CT lat1, CT lon2, CT lat2, in apply() argument
101 meridian_inverse::apply(lon1, lat1, lon2, lat2, spheroid); in apply()
111 >::apply(lon1, lat1, lon2, lat2, spheroid).distance; in apply()
121 CT lat1 = get_as_radian<1>(point1); in apply() local
125 return apply(lon1, lat1, lon2, lat2, m_spheroid); in apply()
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| /third_party/grpc/examples/csharp/RouteGuide/RouteGuide/ |
| D | RouteGuideUtil.cs | 64 double lat1 = ToRadians(start.GetLatitude()); in GetDistance()
68 double deltalat = lat2 - lat1; in GetDistance()
71 …double a = Math.Sin(deltalat / 2) * Math.Sin(deltalat / 2) + Math.Cos(lat1) * Math.Cos(lat2) * Mat… in GetDistance()
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| /third_party/boost/boost/geometry/algorithms/detail/envelope/ |
| D | intersects_antimeridian.hpp | 33 CoordinateType const& lat1, in apply()
43 math::equals(math::abs(lat1), constants::max_latitude()) in apply()
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| /third_party/grpc/examples/node/dynamic_codegen/route_guide/ |
| D | route_guide_server.js | 125 var lat1 = toRadians(start.latitude / COORD_FACTOR);
130 var deltalat = lat2-lat1;
133 Math.cos(lat1) * Math.cos(lat2) *
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