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https://github.com/gnss-sdr/gnss-sdr
synced 2024-11-15 14:25:00 +00:00
FIX: vtl_engine debugged
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c34782762c
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bece48e904
@ -1097,6 +1097,7 @@ bool Rtklib_Solver::get_PVT(const std::map<int, Gnss_Synchro> &gnss_observables_
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new_vtl_data.init_storage(n_sats);
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new_vtl_data.epoch_tow_s = gnss_observables_map.cbegin()->second.RX_time;
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new_vtl_data.sample_counter = gnss_observables_map.cbegin()->second.Tracking_sample_counter; // TODO: check if the different tracking instants (different sample_counters) affect the VTL commands
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new_vtl_data.sat_number=n_sats;
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for (int n = 0; n < n_sats; n++)
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{
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new_vtl_data.sat_p(n, 0) = rs[0 + 6 * n];
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@ -1139,9 +1140,10 @@ bool Rtklib_Solver::get_PVT(const std::map<int, Gnss_Synchro> &gnss_observables_
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new_vtl_data.rx_dts(0)=rx_position_and_time[3];
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new_vtl_data.rx_dts(1)=pvt_sol.dtr[5];
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new_vtl_data.debug_print();
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//Call the VTL engine loop: miguel: Should we wait until valid PVT solution?
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vtl_engine.vtl_loop(new_vtl_data);
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new_vtl_data.debug_print();
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}
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// compute Ground speed and COG
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double ground_speed_ms = 0.0;
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@ -30,6 +30,7 @@ void Vtl_Data::init_storage(int n_sats)
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sat_dts = arma::mat(n_sats, 2);
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sat_var = arma::vec(n_sats);
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sat_health_flag = arma::vec(n_sats);
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sat_CN0_dB_hz = arma::colvec(n_sats);
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int sat_number = n_sats;
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pr_m = arma::vec(n_sats);
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@ -40,7 +41,7 @@ void Vtl_Data::init_storage(int n_sats)
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rx_v = arma::mat(1, 3);
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rx_dts = arma::mat(1, 2);
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rx_var = arma::vec(1);
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rx_pvt_var = arma::vec(8);
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epoch_tow_s = 0;
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sample_counter = 0;
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}
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@ -48,13 +49,13 @@ void Vtl_Data::init_storage(int n_sats)
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void Vtl_Data::debug_print()
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{
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std::cout << "vtl_data debug print at RX TOW: " << epoch_tow_s << ", TRK sample counter: " << sample_counter << "\n";
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sat_p.print("VTL Sat Positions");
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sat_v.print("VTL Sat Velocities");
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sat_dts.print("VTL Sat clocks");
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sat_var.print("VTL Sat clock variances");
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// sat_p.print("VTL Sat Positions");
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// sat_v.print("VTL Sat Velocities");
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// sat_dts.print("VTL Sat clocks");
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// sat_var.print("VTL Sat clock variances");
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sat_health_flag.print("VTL Sat health");
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pr_m.print("Satellite Code pseudoranges [m]");
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doppler_hz.print("satellite Carrier Dopplers [Hz]");
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carrier_phase_rads.print("satellite accumulated carrier phases [rads]");
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// pr_m.print("Satellite Code pseudoranges [m]");
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// doppler_hz.print("satellite Carrier Dopplers [Hz]");
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// carrier_phase_rads.print("satellite accumulated carrier phases [rads]");
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}
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@ -28,14 +28,13 @@ bool Vtl_Engine::vtl_loop(Vtl_Data new_data)
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{
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//TODO: Implement main VTL loop here
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using arma::as_scalar;
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using arma::dot;
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// // ################## Kalman filter initialization ######################################
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// // covariances (static)
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kf_P_x_ini = arma::zeros(8, 8); //TODO: use a real value.
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// using arma::dot;
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// ################## Kalman filter initialization ######################################
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// covariances (static)
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kf_P_x = arma::zeros(8, 8); //TODO: use a real value.
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kf_x = arma::zeros(8, 1);
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kf_R = arma::zeros(2*new_data.sat_number, 2*new_data.sat_number);
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double kf_dt=1e-3;
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double kf_dt=1e-1;
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kf_Q = arma::zeros(8, 8);
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kf_F = arma::zeros(8, 8);
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@ -53,8 +52,8 @@ bool Vtl_Engine::vtl_loop(Vtl_Data new_data)
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kf_y = arma::zeros(2*new_data.sat_number, 1);
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kf_S = arma::zeros(2*new_data.sat_number, 2*new_data.sat_number); // kf_P_y innovation covariance matrix
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// // ################## Kalman Tracking ######################################
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// // receiver solution from rtklib_solver
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// ################## Kalman Tracking ######################################
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// receiver solution from rtklib_solver
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kf_x(0)=new_data.rx_p(0);
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kf_x(1)=new_data.rx_p(1);
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kf_x(2)=new_data.rx_p(2);
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@ -83,6 +82,15 @@ bool Vtl_Engine::vtl_loop(Vtl_Data new_data)
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// //zDot_u=zDot_u0+kf_x_pri(5);
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// //cdeltat_u=cdeltat_u0+kf_x_pri(6);
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// //cdeltatDot_u=cdeltatDot_u+kf_x_pri(7);
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// // //from error state variables to variables
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// // //x_u=x_u0+kf_x_pri(0);
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// // //y_u=y_u0+kf_x_pri(1);
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// // //z_u=z_u0+kf_x_pri(2);
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// // //xDot_u=xDot_u0+kf_x_pri(3);
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// // //yDot_u=yDot_u0+kf_x_pri(4);
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// // //zDot_u=zDot_u0+kf_x_pri(5);
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// // //cdeltat_u=cdeltat_u0+kf_x_pri(6);
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// // //cdeltatDot_u=cdeltatDot_u+kf_x_pri(7);
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// From state variables definition
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x_u=kf_x(0);
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y_u=kf_x(1);
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@ -113,7 +121,7 @@ bool Vtl_Engine::vtl_loop(Vtl_Data new_data)
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rhoDot_pri(i)=(new_data.sat_v(i, 0)-xDot_u)*a_x(i)+(new_data.sat_v(i, 1)-yDot_u)*a_y(i)+(new_data.sat_v(i, 2)-zDot_u)*a_z(i)+cdeltatDot_u;
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}
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kf_H = arma::zeros(8, 2*new_data.sat_number);
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kf_H = arma::zeros(2*new_data.sat_number,8);
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for (int32_t i = 0; i < new_data.sat_number; i++) // Measurement matrix H assembling
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{
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@ -149,45 +157,45 @@ bool Vtl_Engine::vtl_loop(Vtl_Data new_data)
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//}
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//kf_delta_x = kf_K * kf_delta_y; // updated error state estimation
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kf_x = kf_x + kf_K * (kf_y-dot(kf_H,kf_x)); // updated state estimation
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kf_x = kf_x + kf_K * (kf_y-kf_H*kf_x); // updated state estimation
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kf_P_x = (arma::eye(size(kf_P_x)) - kf_K * kf_H) * kf_P_x; // update state estimation error covariance matrix
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// // kf_x = kf_x_pri+kf_delta_x; // compute PVT from priori and error estimation (neccesary?)
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// // // kf_x = kf_x_pri+kf_delta_x; // compute PVT from priori and error estimation (neccesary?)
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// // ################## Geometric Transformation ######################################
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// // // ################## Geometric Transformation ######################################
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// for (int32_t i = 0; i < new_data.sat_number; n++) //neccesary quantities at posteriori
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// {
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// //compute pseudorange posteriori estimation
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// // rho_est(i)=;
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// //compute LOS sat-receiver vector components posteriori
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// // a_x(i)=;
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// // a_y(i)=;
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// // a_z(i)=;
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// //compute pseudorange rate posteriori estimation
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// // rhoDot_est(i)=;
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// }
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// // for (int32_t i = 0; i < new_data.sat_number; n++) //neccesary quantities at posteriori
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// // {
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// // //compute pseudorange posteriori estimation
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// // // rho_est(i)=;
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// // //compute LOS sat-receiver vector components posteriori
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// // // a_x(i)=;
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// // // a_y(i)=;
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// // // a_z(i)=;
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// // //compute pseudorange rate posteriori estimation
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// // // rhoDot_est(i)=;
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// // }
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// kf_H = arma::zeros(8, 2*new_data.sat_number);
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// // kf_H = arma::zeros(8, 2*new_data.sat_number);
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// for (int32_t i = 0; i < new_data.sat_number; n++) // Measurement matrix H posteriori assembling
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// {
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// // It has 8 columns (8 states) and 2*NSat rows (NSat psudorange error;NSat pseudo range rate error)
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// kf_H(i, 0) = a_x(i); kf_H(i, 1) = a_y(i); kf_H(i, 2) = a_z(i); kf_H(i, 6) = 1.0;
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// kf_H(i+new_data.sat_number, 3) = a_x(i); kf_H(i+new_data.sat_number, 4) = a_y(i); kf_H(i+new_data.sat_number, 5) = a_z(i); kf_H(i+new_data.sat_number, 7) = 1.0;
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// }
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// // for (int32_t i = 0; i < new_data.sat_number; n++) // Measurement matrix H posteriori assembling
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// // {
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// // // It has 8 columns (8 states) and 2*NSat rows (NSat psudorange error;NSat pseudo range rate error)
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// // kf_H(i, 0) = a_x(i); kf_H(i, 1) = a_y(i); kf_H(i, 2) = a_z(i); kf_H(i, 6) = 1.0;
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// // kf_H(i+new_data.sat_number, 3) = a_x(i); kf_H(i+new_data.sat_number, 4) = a_y(i); kf_H(i+new_data.sat_number, 5) = a_z(i); kf_H(i+new_data.sat_number, 7) = 1.0;
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// // }
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// //Re-calculate error measurement vector with the most recent data available
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// //kf_delta_y=kf_H*kf_delta_x
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// //Filtered pseudorange error measurement (in m):
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// //delta_rho_filt=;
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// //Filtered Doppler error measurement (in Hz):
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// //delta_doppler_filt=;
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// // //Re-calculate error measurement vector with the most recent data available
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// // //kf_delta_y=kf_H*kf_delta_x
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// // //Filtered pseudorange error measurement (in m):
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// // //delta_rho_filt=;
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// // //Filtered Doppler error measurement (in Hz):
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// // //delta_doppler_filt=;
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//TODO: Fill the tracking commands outputs
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// Notice: keep the same satellite order as in the Vtl_Data matrices
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// sample code
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// //TODO: Fill the tracking commands outputs
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// // Notice: keep the same satellite order as in the Vtl_Data matrices
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// // sample code
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TrackingCmd trk_cmd;
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trk_cmd.carrier_freq_hz = 0;
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trk_cmd.carrier_freq_rate_hz_s = 0;
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