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https://gitee.com/mirrors_PX4/PX4-Autopilot.git
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replace geo _wrap_pi with matrix::wrap_pi
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@ -42,6 +42,9 @@
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#include <float.h>
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#include <geo/geo.h>
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#include <mathlib/mathlib.h>
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#include <matrix/math.hpp>
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using matrix::wrap_pi;
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ECL_WheelController::ECL_WheelController() :
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ECL_Controller("wheel")
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@ -112,7 +115,7 @@ float ECL_WheelController::control_attitude(const struct ECL_ControlData &ctl_da
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}
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/* Calculate the error */
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float yaw_error = _wrap_pi(ctl_data.yaw_setpoint - ctl_data.yaw);
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float yaw_error = wrap_pi(ctl_data.yaw_setpoint - ctl_data.yaw);
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/* Apply P controller: rate setpoint from current error and time constant */
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_rate_setpoint = yaw_error / _tc;
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143
geo/geo.cpp
143
geo/geo.cpp
@ -46,8 +46,12 @@
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#include <ecl.h>
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#include <mathlib/mathlib.h>
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#include <matrix/math.hpp>
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#include <cfloat>
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using matrix::wrap_pi;
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using matrix::wrap_2pi;
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/*
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* Azimuthal Equidistant Projection
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* formulas according to: http://mathworld.wolfram.com/AzimuthalEquidistantProjection.html
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@ -291,7 +295,7 @@ void create_waypoint_from_line_and_dist(double lat_A, double lon_A, double lat_B
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} else {
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float heading = get_bearing_to_next_waypoint(lat_A, lon_A, lat_B, lon_B);
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heading = _wrap_2pi(heading + M_PI_F);
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heading = wrap_2pi(heading + M_PI_F);
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waypoint_from_heading_and_distance(lat_A, lon_A, heading, dist, lat_target, lon_target);
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}
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}
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@ -299,7 +303,7 @@ void create_waypoint_from_line_and_dist(double lat_A, double lon_A, double lat_B
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void waypoint_from_heading_and_distance(double lat_start, double lon_start, float bearing, float dist,
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double *lat_target, double *lon_target)
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{
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bearing = _wrap_2pi(bearing);
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bearing = wrap_2pi(bearing);
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double radius_ratio = (double)fabs((double)dist) / CONSTANTS_RADIUS_OF_EARTH;
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double lat_start_rad = math::radians(lat_start);
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@ -327,7 +331,7 @@ float get_bearing_to_next_waypoint(double lat_now, double lon_now, double lat_ne
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const float y = static_cast<float>(sin(d_lon) * cos(lat_next_rad));
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const float x = static_cast<float>(cos(lat_now_rad) * sin(lat_next_rad) - sin(lat_now_rad) * cos(lat_next_rad) * cos(d_lon));
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return _wrap_pi(atan2f(y, x));
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return wrap_pi(atan2f(y, x));
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}
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void
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@ -390,7 +394,7 @@ int get_distance_to_line(struct crosstrack_error_s *crosstrack_error, double lat
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float bearing_end = get_bearing_to_next_waypoint(lat_now, lon_now, lat_end, lon_end);
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float bearing_track = get_bearing_to_next_waypoint(lat_start, lon_start, lat_end, lon_end);
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float bearing_diff = _wrap_pi(bearing_track - bearing_end);
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float bearing_diff = wrap_pi(bearing_track - bearing_end);
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// Return past_end = true if past end point of line
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if (bearing_diff > M_PI_2_F || bearing_diff < -M_PI_2_F) {
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@ -402,10 +406,10 @@ int get_distance_to_line(struct crosstrack_error_s *crosstrack_error, double lat
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crosstrack_error->distance = (dist_to_end) * sinf(bearing_diff);
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if (sinf(bearing_diff) >= 0) {
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crosstrack_error->bearing = _wrap_pi(bearing_track - M_PI_2_F);
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crosstrack_error->bearing = wrap_pi(bearing_track - M_PI_2_F);
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} else {
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crosstrack_error->bearing = _wrap_pi(bearing_track + M_PI_2_F);
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crosstrack_error->bearing = wrap_pi(bearing_track + M_PI_2_F);
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}
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return_value = 0;
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@ -491,8 +495,8 @@ int get_distance_to_arc(struct crosstrack_error_s *crosstrack_error, double lat_
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double start_disp_x = (double)radius * sin((double)arc_start_bearing);
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double start_disp_y = (double)radius * cos((double)arc_start_bearing);
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double end_disp_x = (double)radius * sin((double)_wrap_pi(arc_start_bearing + arc_sweep));
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double end_disp_y = (double)radius * cos((double)_wrap_pi(arc_start_bearing + arc_sweep));
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double end_disp_x = (double)radius * sin((double)wrap_pi(arc_start_bearing + arc_sweep));
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double end_disp_y = (double)radius * cos((double)wrap_pi(arc_start_bearing + arc_sweep));
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double lon_start = lon_now + start_disp_x / 111111.0;
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double lat_start = lat_now + start_disp_y * cos(lat_now) / 111111.0;
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double lon_end = lon_now + end_disp_x / 111111.0;
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@ -511,8 +515,9 @@ int get_distance_to_arc(struct crosstrack_error_s *crosstrack_error, double lat_
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}
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}
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crosstrack_error->bearing = _wrap_pi(crosstrack_error->bearing);
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crosstrack_error->bearing = wrap_pi(crosstrack_error->bearing);
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return_value = 0;
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return return_value;
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}
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@ -553,123 +558,3 @@ float mavlink_wpm_distance_to_point_local(float x_now, float y_now, float z_now,
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return sqrtf(dx * dx + dy * dy + dz * dz);
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}
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float _wrap_pi(float bearing)
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{
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/* value is inf or NaN */
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if (!ISFINITE(bearing)) {
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return bearing;
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}
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int c = 0;
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while (bearing >= M_PI_F) {
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bearing -= (2 * M_PI_F);
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if (c++ > 3) {
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return NAN;
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}
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}
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c = 0;
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while (bearing < -M_PI_F) {
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bearing += (2 * M_PI_F);
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if (c++ > 3) {
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return NAN;
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}
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}
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return bearing;
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}
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float _wrap_2pi(float bearing)
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{
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/* value is inf or NaN */
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if (!ISFINITE(bearing)) {
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return bearing;
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}
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int c = 0;
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while (bearing >= (2 * M_PI_F)) {
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bearing -= (2 * M_PI_F);
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if (c++ > 3) {
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return NAN;
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}
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}
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c = 0;
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while (bearing < 0.0f) {
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bearing += (2 * M_PI_F);
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if (c++ > 3) {
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return NAN;
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}
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}
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return bearing;
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}
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float _wrap_180(float bearing)
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{
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/* value is inf or NaN */
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if (!ISFINITE(bearing)) {
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return bearing;
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}
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int c = 0;
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while (bearing >= 180.0f) {
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bearing -= 360.0f;
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if (c++ > 3) {
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return NAN;
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}
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}
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c = 0;
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while (bearing < -180.0f) {
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bearing += 360.0f;
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if (c++ > 3) {
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return NAN;
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}
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}
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return bearing;
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}
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float _wrap_360(float bearing)
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{
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/* value is inf or NaN */
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if (!ISFINITE(bearing)) {
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return bearing;
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}
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int c = 0;
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while (bearing >= 360.0f) {
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bearing -= 360.0f;
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if (c++ > 3) {
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return NAN;
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}
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}
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c = 0;
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while (bearing < 0.0f) {
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bearing += 360.0f;
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if (c++ > 3) {
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return NAN;
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}
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}
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return bearing;
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}
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@ -301,8 +301,3 @@ float get_distance_to_point_global_wgs84(double lat_now, double lon_now, float a
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float mavlink_wpm_distance_to_point_local(float x_now, float y_now, float z_now,
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float x_next, float y_next, float z_next,
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float *dist_xy, float *dist_z);
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float _wrap_180(float bearing);
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float _wrap_360(float bearing);
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float _wrap_pi(float bearing);
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float _wrap_2pi(float bearing);
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@ -43,6 +43,7 @@
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#include "ecl_l1_pos_controller.h"
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using matrix::Vector2f;
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using matrix::wrap_pi;
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float ECL_L1_Pos_Controller::nav_roll()
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{
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@ -292,9 +293,9 @@ void ECL_L1_Pos_Controller::navigate_heading(float navigation_heading, float cur
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* (and no crosstrack correction occurs),
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* target and navigation bearing become the same
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*/
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_target_bearing = _nav_bearing = _wrap_pi(navigation_heading);
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float eta = _target_bearing - _wrap_pi(current_heading);
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eta = _wrap_pi(eta);
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_target_bearing = _nav_bearing = wrap_pi(navigation_heading);
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float eta = wrap_pi(_target_bearing - wrap_pi(current_heading));
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/* consequently the bearing error is exactly eta: */
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_bearing_error = eta;
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@ -76,7 +76,7 @@ public:
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*
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* @return bearing angle (-pi..pi, in NED frame)
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*/
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float nav_bearing() { return _wrap_pi(_nav_bearing); }
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float nav_bearing() { return matrix::wrap_pi(_nav_bearing); }
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/**
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* Get lateral acceleration demand.
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