ekf2: delete redundant aid src status getters

This commit is contained in:
Daniel Agar
2023-10-18 15:21:51 -04:00
committed by GitHub
parent bdaf0acfca
commit 408c30de13
7 changed files with 275 additions and 356 deletions
+33 -133
View File
@@ -83,19 +83,9 @@ public:
static uint8_t getNumberOfStates() { return State::size; }
#if defined(CONFIG_EKF2_EXTERNAL_VISION)
void getEvVelPosInnov(float hvel[2], float &vvel, float hpos[2], float &vpos) const;
void getEvVelPosInnovVar(float hvel[2], float &vvel, float hpos[2], float &vpos) const;
void getEvVelPosInnovRatio(float &hvel, float &vvel, float &hpos, float &vpos) const;
#endif // CONFIG_EKF2_EXTERNAL_VISION
#if defined(CONFIG_EKF2_BAROMETER)
const auto &aid_src_baro_hgt() const { return _aid_src_baro_hgt; }
const BiasEstimator::status &getBaroBiasEstimatorStatus() const { return _baro_b_est.getStatus(); }
void getBaroHgtInnov(float &baro_hgt_innov) const { baro_hgt_innov = _aid_src_baro_hgt.innovation; }
void getBaroHgtInnovVar(float &baro_hgt_innov_var) const { baro_hgt_innov_var = _aid_src_baro_hgt.innovation_variance; }
void getBaroHgtInnovRatio(float &baro_hgt_innov_ratio) const { baro_hgt_innov_ratio = _aid_src_baro_hgt.test_ratio; }
#endif // CONFIG_EKF2_BAROMETER
#if defined(CONFIG_EKF2_TERRAIN)
@@ -115,28 +105,10 @@ public:
# if defined(CONFIG_EKF2_RANGE_FINDER)
const auto &aid_src_terrain_range_finder() const { return _aid_src_terrain_range_finder; }
void getHaglInnov(float &hagl_innov) const { hagl_innov = _aid_src_terrain_range_finder.innovation; }
void getHaglInnovVar(float &hagl_innov_var) const { hagl_innov_var = _aid_src_terrain_range_finder.innovation_variance; }
void getHaglInnovRatio(float &hagl_innov_ratio) const { hagl_innov_ratio = _aid_src_terrain_range_finder.test_ratio; }
# endif // CONFIG_EKF2_RANGE_FINDER
# if defined(CONFIG_EKF2_OPTICAL_FLOW)
const auto &aid_src_terrain_optical_flow() const { return _aid_src_terrain_optical_flow; }
void getTerrainFlowInnov(float flow_innov[2]) const
{
flow_innov[0] = _aid_src_terrain_optical_flow.innovation[0];
flow_innov[1] = _aid_src_terrain_optical_flow.innovation[1];
}
void getTerrainFlowInnovVar(float flow_innov_var[2]) const
{
flow_innov_var[0] = _aid_src_terrain_optical_flow.innovation_variance[0];
flow_innov_var[1] = _aid_src_terrain_optical_flow.innovation_variance[1];
}
void getTerrainFlowInnovRatio(float &flow_innov_ratio) const { flow_innov_ratio = math::max(_aid_src_terrain_optical_flow.test_ratio[0], _aid_src_terrain_optical_flow.test_ratio[1]); }
# endif // CONFIG_EKF2_OPTICAL_FLOW
#endif // CONFIG_EKF2_TERRAIN
@@ -146,32 +118,14 @@ public:
const BiasEstimator::status &getRngHgtBiasEstimatorStatus() const { return _rng_hgt_b_est.getStatus(); }
const auto &aid_src_rng_hgt() const { return _aid_src_rng_hgt; }
void getRngHgtInnov(float &rng_hgt_innov) const { rng_hgt_innov = _aid_src_rng_hgt.innovation; }
void getRngHgtInnovVar(float &rng_hgt_innov_var) const { rng_hgt_innov_var = _aid_src_rng_hgt.innovation_variance; }
void getRngHgtInnovRatio(float &rng_hgt_innov_ratio) const { rng_hgt_innov_ratio = _aid_src_rng_hgt.test_ratio; }
void getHaglRateInnov(float &hagl_rate_innov) const { hagl_rate_innov = _rng_consistency_check.getInnov(); }
void getHaglRateInnovVar(float &hagl_rate_innov_var) const { hagl_rate_innov_var = _rng_consistency_check.getInnovVar(); }
void getHaglRateInnovRatio(float &hagl_rate_innov_ratio) const { hagl_rate_innov_ratio = _rng_consistency_check.getSignedTestRatioLpf(); }
float getHaglRateInnov() const { return _rng_consistency_check.getInnov(); }
float getHaglRateInnovVar() const { return _rng_consistency_check.getInnovVar(); }
float getHaglRateInnovRatio() const { return _rng_consistency_check.getSignedTestRatioLpf(); }
#endif // CONFIG_EKF2_RANGE_FINDER
#if defined(CONFIG_EKF2_OPTICAL_FLOW)
const auto &aid_src_optical_flow() const { return _aid_src_optical_flow; }
void getFlowInnov(float flow_innov[2]) const
{
flow_innov[0] = _aid_src_optical_flow.innovation[0];
flow_innov[1] = _aid_src_optical_flow.innovation[1];
}
void getFlowInnovVar(float flow_innov_var[2]) const
{
flow_innov_var[0] = _aid_src_optical_flow.innovation_variance[0];
flow_innov_var[1] = _aid_src_optical_flow.innovation_variance[1];
}
void getFlowInnovRatio(float &flow_innov_ratio) const { flow_innov_ratio = math::max(_aid_src_optical_flow.test_ratio[0], _aid_src_optical_flow.test_ratio[1]); }
const Vector2f &getFlowVelBody() const { return _flow_vel_body; }
const Vector2f &getFlowVelNE() const { return _flow_vel_ne; }
@@ -185,140 +139,93 @@ public:
const Vector3f &getMeasuredBodyRate() const { return _measured_body_rate; }
#endif // CONFIG_EKF2_OPTICAL_FLOW
#if defined(CONFIG_EKF2_AUXVEL)
void getAuxVelInnov(float aux_vel_innov[2]) const;
void getAuxVelInnovVar(float aux_vel_innov[2]) const;
void getAuxVelInnovRatio(float &aux_vel_innov_ratio) const { aux_vel_innov_ratio = math::max(_aid_src_aux_vel.test_ratio[0], _aid_src_aux_vel.test_ratio[1]); }
#endif // CONFIG_EKF2_AUXVEL
void getHeadingInnov(float &heading_innov) const
float getHeadingInnov() const
{
#if defined(CONFIG_EKF2_MAGNETOMETER)
if (_control_status.flags.mag_hdg) {
heading_innov = _aid_src_mag_heading.innovation;
return;
return _aid_src_mag_heading.innovation;
}
} else if (_control_status.flags.mag_3D) {
heading_innov = Vector3f(_aid_src_mag.innovation).max();
return;
if (_control_status.flags.mag_3D) {
return Vector3f(_aid_src_mag.innovation).max();
}
#endif // CONFIG_EKF2_MAGNETOMETER
#if defined(CONFIG_EKF2_GNSS_YAW)
if (_control_status.flags.gps_yaw) {
heading_innov = _aid_src_gnss_yaw.innovation;
return;
return _aid_src_gnss_yaw.innovation;
}
#endif // CONFIG_EKF2_GNSS_YAW
#if defined(CONFIG_EKF2_EXTERNAL_VISION)
if (_control_status.flags.ev_yaw) {
heading_innov = _aid_src_ev_yaw.innovation;
return;
return _aid_src_ev_yaw.innovation;
}
#endif // CONFIG_EKF2_EXTERNAL_VISION
return 0.f;
}
void getHeadingInnovVar(float &heading_innov_var) const
float getHeadingInnovVar() const
{
#if defined(CONFIG_EKF2_MAGNETOMETER)
if (_control_status.flags.mag_hdg) {
heading_innov_var = _aid_src_mag_heading.innovation_variance;
return;
return _aid_src_mag_heading.innovation_variance;
}
} else if (_control_status.flags.mag_3D) {
heading_innov_var = Vector3f(_aid_src_mag.innovation_variance).max();
return;
if (_control_status.flags.mag_3D) {
return Vector3f(_aid_src_mag.innovation_variance).max();
}
#endif // CONFIG_EKF2_MAGNETOMETER
#if defined(CONFIG_EKF2_GNSS_YAW)
if (_control_status.flags.gps_yaw) {
heading_innov_var = _aid_src_gnss_yaw.innovation_variance;
return;
return _aid_src_gnss_yaw.innovation_variance;
}
#endif // CONFIG_EKF2_GNSS_YAW
#if defined(CONFIG_EKF2_EXTERNAL_VISION)
if (_control_status.flags.ev_yaw) {
heading_innov_var = _aid_src_ev_yaw.innovation_variance;
return;
return _aid_src_ev_yaw.innovation_variance;
}
#endif // CONFIG_EKF2_EXTERNAL_VISION
return 0.f;
}
void getHeadingInnovRatio(float &heading_innov_ratio) const
float getHeadingInnovRatio() const
{
#if defined(CONFIG_EKF2_MAGNETOMETER)
if (_control_status.flags.mag_hdg) {
heading_innov_ratio = _aid_src_mag_heading.test_ratio;
return;
return _aid_src_mag_heading.test_ratio;
}
} else if (_control_status.flags.mag_3D) {
heading_innov_ratio = Vector3f(_aid_src_mag.test_ratio).max();
return;
if (_control_status.flags.mag_3D) {
return Vector3f(_aid_src_mag.test_ratio).max();
}
#endif // CONFIG_EKF2_MAGNETOMETER
#if defined(CONFIG_EKF2_GNSS_YAW)
if (_control_status.flags.gps_yaw) {
heading_innov_ratio = _aid_src_gnss_yaw.test_ratio;
return;
return _aid_src_gnss_yaw.test_ratio;
}
#endif // CONFIG_EKF2_GNSS_YAW
#if defined(CONFIG_EKF2_EXTERNAL_VISION)
if (_control_status.flags.ev_yaw) {
heading_innov_ratio = _aid_src_ev_yaw.test_ratio;
return;
return _aid_src_ev_yaw.test_ratio;
}
#endif // CONFIG_EKF2_EXTERNAL_VISION
}
#if defined(CONFIG_EKF2_MAGNETOMETER)
void getMagInnov(float mag_innov[3]) const { memcpy(mag_innov, _aid_src_mag.innovation, sizeof(_aid_src_mag.innovation)); }
void getMagInnovVar(float mag_innov_var[3]) const { memcpy(mag_innov_var, _aid_src_mag.innovation_variance, sizeof(_aid_src_mag.innovation_variance)); }
void getMagInnovRatio(float &mag_innov_ratio) const { mag_innov_ratio = Vector3f(_aid_src_mag.test_ratio).max(); }
#endif // CONFIG_EKF2_MAGNETOMETER
return 0.f;
}
#if defined(CONFIG_EKF2_DRAG_FUSION)
const auto &aid_src_drag() const { return _aid_src_drag; }
void getDragInnov(float drag_innov[2]) const
{
drag_innov[0] = _aid_src_drag.innovation[0];
drag_innov[1] = _aid_src_drag.innovation[1];
}
void getDragInnovVar(float drag_innov_var[2]) const
{
drag_innov_var[0] = _aid_src_drag.innovation_variance[0];
drag_innov_var[1] = _aid_src_drag.innovation_variance[1];
}
void getDragInnovRatio(float drag_innov_ratio[2]) const
{
drag_innov_ratio[0] = _aid_src_drag.test_ratio[0];
drag_innov_ratio[1] = _aid_src_drag.test_ratio[1];
}
#endif // CONFIG_EKF2_DRAG_FUSION
#if defined(CONFIG_EKF2_AIRSPEED)
void getAirspeedInnov(float &airspeed_innov) const { airspeed_innov = _aid_src_airspeed.innovation; }
void getAirspeedInnovVar(float &airspeed_innov_var) const { airspeed_innov_var = _aid_src_airspeed.innovation_variance; }
void getAirspeedInnovRatio(float &airspeed_innov_ratio) const { airspeed_innov_ratio = _aid_src_airspeed.test_ratio; }
#endif // CONFIG_EKF2_AIRSPEED
#if defined(CONFIG_EKF2_SIDESLIP)
void getBetaInnov(float &beta_innov) const { beta_innov = _aid_src_sideslip.innovation; }
void getBetaInnovVar(float &beta_innov_var) const { beta_innov_var = _aid_src_sideslip.innovation_variance; }
void getBetaInnovRatio(float &beta_innov_ratio) const { beta_innov_ratio = _aid_src_sideslip.test_ratio; }
#endif // CONFIG_EKF2_SIDESLIP
#if defined(CONFIG_EKF2_GRAVITY_FUSION)
const auto &aid_src_gravity() const { return _aid_src_gravity; }
void getGravityInnov(float grav_innov[3]) const { memcpy(grav_innov, _aid_src_gravity.innovation, sizeof(_aid_src_gravity.innovation)); }
void getGravityInnovVar(float grav_innov_var[3]) const { memcpy(grav_innov_var, _aid_src_gravity.innovation_variance, sizeof(_aid_src_gravity.innovation_variance)); }
void getGravityInnovRatio(float &grav_innov_ratio) const { grav_innov_ratio = Vector3f(_aid_src_gravity.test_ratio).max(); }
#endif // CONFIG_EKF2_GRAVITY_FUSION
// get the state vector at the delayed time horizon
@@ -497,12 +404,6 @@ public:
uint8_t getHeightSensorRef() const { return _height_sensor_ref; }
#if defined(CONFIG_EKF2_EXTERNAL_VISION)
const BiasEstimator::status &getEvHgtBiasEstimatorStatus() const { return _ev_hgt_b_est.getStatus(); }
const BiasEstimator::status &getEvPosBiasEstimatorStatus(int i) const { return _ev_pos_b_est.getStatus(i); }
#endif // CONFIG_EKF2_EXTERNAL_VISION
#if defined(CONFIG_EKF2_AIRSPEED)
const auto &aid_src_airspeed() const { return _aid_src_airspeed; }
#endif // CONFIG_EKF2_AIRSPEED
@@ -519,13 +420,12 @@ public:
const auto &aid_src_ev_pos() const { return _aid_src_ev_pos; }
const auto &aid_src_ev_vel() const { return _aid_src_ev_vel; }
const auto &aid_src_ev_yaw() const { return _aid_src_ev_yaw; }
const BiasEstimator::status &getEvHgtBiasEstimatorStatus() const { return _ev_hgt_b_est.getStatus(); }
const BiasEstimator::status &getEvPosBiasEstimatorStatus(int i) const { return _ev_pos_b_est.getStatus(i); }
#endif // CONFIG_EKF2_EXTERNAL_VISION
#if defined(CONFIG_EKF2_GNSS)
void getGpsVelPosInnov(float hvel[2], float &vvel, float hpos[2], float &vpos) const;
void getGpsVelPosInnovVar(float hvel[2], float &vvel, float hpos[2], float &vpos) const;
void getGpsVelPosInnovRatio(float &hvel, float &vvel, float &hpos, float &vpos) const;
// ask estimator for sensor data collection decision and do any preprocessing if required, returns true if not defined
bool collect_gps(const gpsMessage &gps) override;
-80
View File
@@ -295,86 +295,6 @@ Vector3f Ekf::calcEarthRateNED(float lat_rad) const
-CONSTANTS_EARTH_SPIN_RATE * sinf(lat_rad));
}
#if defined(CONFIG_EKF2_GNSS)
void Ekf::getGpsVelPosInnov(float hvel[2], float &vvel, float hpos[2], float &vpos) const
{
hvel[0] = _aid_src_gnss_vel.innovation[0];
hvel[1] = _aid_src_gnss_vel.innovation[1];
vvel = _aid_src_gnss_vel.innovation[2];
hpos[0] = _aid_src_gnss_pos.innovation[0];
hpos[1] = _aid_src_gnss_pos.innovation[1];
vpos = _aid_src_gnss_hgt.innovation;
}
void Ekf::getGpsVelPosInnovVar(float hvel[2], float &vvel, float hpos[2], float &vpos) const
{
hvel[0] = _aid_src_gnss_vel.innovation_variance[0];
hvel[1] = _aid_src_gnss_vel.innovation_variance[1];
vvel = _aid_src_gnss_vel.innovation_variance[2];
hpos[0] = _aid_src_gnss_pos.innovation_variance[0];
hpos[1] = _aid_src_gnss_pos.innovation_variance[1];
vpos = _aid_src_gnss_hgt.innovation_variance;
}
void Ekf::getGpsVelPosInnovRatio(float &hvel, float &vvel, float &hpos, float &vpos) const
{
hvel = fmaxf(_aid_src_gnss_vel.test_ratio[0], _aid_src_gnss_vel.test_ratio[1]);
vvel = _aid_src_gnss_vel.test_ratio[2];
hpos = fmaxf(_aid_src_gnss_pos.test_ratio[0], _aid_src_gnss_pos.test_ratio[1]);
vpos = _aid_src_gnss_hgt.test_ratio;
}
#endif // CONFIG_EKF2_GNSS
#if defined(CONFIG_EKF2_EXTERNAL_VISION)
void Ekf::getEvVelPosInnov(float hvel[2], float &vvel, float hpos[2], float &vpos) const
{
hvel[0] = _aid_src_ev_vel.innovation[0];
hvel[1] = _aid_src_ev_vel.innovation[1];
vvel = _aid_src_ev_vel.innovation[2];
hpos[0] = _aid_src_ev_pos.innovation[0];
hpos[1] = _aid_src_ev_pos.innovation[1];
vpos = _aid_src_ev_hgt.innovation;
}
void Ekf::getEvVelPosInnovVar(float hvel[2], float &vvel, float hpos[2], float &vpos) const
{
hvel[0] = _aid_src_ev_vel.innovation_variance[0];
hvel[1] = _aid_src_ev_vel.innovation_variance[1];
vvel = _aid_src_ev_vel.innovation_variance[2];
hpos[0] = _aid_src_ev_pos.innovation_variance[0];
hpos[1] = _aid_src_ev_pos.innovation_variance[1];
vpos = _aid_src_ev_hgt.innovation_variance;
}
void Ekf::getEvVelPosInnovRatio(float &hvel, float &vvel, float &hpos, float &vpos) const
{
hvel = fmaxf(_aid_src_ev_vel.test_ratio[0], _aid_src_ev_vel.test_ratio[1]);
vvel = _aid_src_ev_vel.test_ratio[2];
hpos = fmaxf(_aid_src_ev_pos.test_ratio[0], _aid_src_ev_pos.test_ratio[1]);
vpos = _aid_src_ev_hgt.test_ratio;
}
#endif // CONFIG_EKF2_EXTERNAL_VISION
#if defined(CONFIG_EKF2_AUXVEL)
void Ekf::getAuxVelInnov(float aux_vel_innov[2]) const
{
aux_vel_innov[0] = _aid_src_aux_vel.innovation[0];
aux_vel_innov[1] = _aid_src_aux_vel.innovation[1];
}
void Ekf::getAuxVelInnovVar(float aux_vel_innov_var[2]) const
{
aux_vel_innov_var[0] = _aid_src_aux_vel.innovation_variance[0];
aux_vel_innov_var[1] = _aid_src_aux_vel.innovation_variance[1];
}
#endif // CONFIG_EKF2_AUXVEL
bool Ekf::getEkfGlobalOrigin(uint64_t &origin_time, double &latitude, double &longitude, float &origin_alt) const
{
origin_time = _pos_ref.getProjectionReferenceTimestamp();