#pragma once #include #include class AP_DAL_GPS { public: /// GPS status codes enum GPS_Status : uint8_t { NO_GPS = GPS_FIX_TYPE_NO_GPS, ///< No GPS connected/detected NO_FIX = GPS_FIX_TYPE_NO_FIX, ///< Receiving valid GPS messages but no lock GPS_OK_FIX_2D = GPS_FIX_TYPE_2D_FIX, ///< Receiving valid messages and 2D lock GPS_OK_FIX_3D = GPS_FIX_TYPE_3D_FIX, ///< Receiving valid messages and 3D lock GPS_OK_FIX_3D_DGPS = GPS_FIX_TYPE_DGPS, ///< Receiving valid messages and 3D lock with differential improvements GPS_OK_FIX_3D_RTK_FLOAT = GPS_FIX_TYPE_RTK_FLOAT, ///< Receiving valid messages and 3D RTK Float GPS_OK_FIX_3D_RTK_FIXED = GPS_FIX_TYPE_RTK_FIXED, ///< Receiving valid messages and 3D RTK Fixed }; AP_DAL_GPS(); GPS_Status status(uint8_t sensor_id) const { return (GPS_Status)_RGPI[sensor_id].status; } GPS_Status status() const { return status(primary_sensor()); } const Location &location(uint8_t instance) const { return tmp_location[instance]; } bool have_vertical_velocity(uint8_t instance) const { return _RGPI[instance].have_vertical_velocity; } bool have_vertical_velocity() const { return have_vertical_velocity(primary_sensor()); } bool horizontal_accuracy(uint8_t instance, float &hacc) const { hacc = _RGPJ[instance].hacc; return _RGPI[instance].horizontal_accuracy_returncode; } bool horizontal_accuracy(float &hacc) const { return horizontal_accuracy(primary_sensor(),hacc); } bool vertical_accuracy(uint8_t instance, float &vacc) const { vacc = _RGPJ[instance].vacc; return _RGPI[instance].vertical_accuracy_returncode; } bool vertical_accuracy(float &vacc) const { return vertical_accuracy(primary_sensor(), vacc); } uint16_t get_hdop(uint8_t instance) const { return _RGPJ[instance].hdop; } uint16_t get_hdop() const { return get_hdop(primary_sensor()); } uint32_t last_message_time_ms(uint8_t instance) const { return _RGPJ[instance].last_message_time_ms; } uint8_t num_sats(uint8_t instance) const { return _RGPI[instance].num_sats; } uint8_t num_sats() const { return num_sats(primary_sensor()); } bool get_lag(uint8_t instance, float &lag_sec) const { lag_sec = _RGPI[instance].lag_sec; return _RGPI[instance].get_lag_returncode; } bool get_lag(float &lag_sec) const { return get_lag(primary_sensor(), lag_sec); } const Vector3f &velocity(uint8_t instance) const { return _RGPJ[instance].velocity; } const Vector3f &velocity() const { return velocity(primary_sensor()); } bool speed_accuracy(uint8_t instance, float &sacc) const { sacc = _RGPJ[instance].sacc; return _RGPI[instance].speed_accuracy_returncode; } bool speed_accuracy(float &sacc) const { return speed_accuracy(primary_sensor(), sacc); } bool gps_yaw_deg(uint8_t instance, float &yaw_deg, float &accuracy_deg, uint32_t &time_ms) const { yaw_deg = _RGPJ[instance].yaw_deg; accuracy_deg = _RGPJ[instance].yaw_accuracy_deg; time_ms = _RGPJ[instance].yaw_deg_time_ms; return _RGPI[instance].gps_yaw_deg_returncode; } uint8_t num_sensors(void) const { return _RGPH.num_sensors; } uint8_t primary_sensor(void) const { return _RGPH.primary_sensor; } // TODO: decide if this really, really should be here! const Location &location() const { return location(_RGPH.primary_sensor); } // return a 3D vector defining the offset of the GPS antenna in meters relative to the body frame origin const Vector3f &get_antenna_offset(uint8_t instance) const { return _RGPI[instance].antenna_offset; } void start_frame(); void handle_message(const log_RGPH &msg) { _RGPH = msg; } void handle_message(const log_RGPI &msg) { _RGPI[msg.instance] = msg; } void handle_message(const log_RGPJ &msg) { _RGPJ[msg.instance] = msg; tmp_location[msg.instance].lat = msg.lat; tmp_location[msg.instance].lng = msg.lng; tmp_location[msg.instance].alt = msg.alt; } private: struct log_RGPH _RGPH; struct log_RGPI _RGPI[GPS_MAX_INSTANCES]; struct log_RGPJ _RGPJ[GPS_MAX_INSTANCES]; Location tmp_location[GPS_MAX_INSTANCES]; };