diff --git a/src/utils/matlab/dll_pll_veml_plot_sample.m b/src/utils/matlab/dll_pll_veml_plot_sample.m
index 273de3861..cd79955e3 100644
--- a/src/utils/matlab/dll_pll_veml_plot_sample.m
+++ b/src/utils/matlab/dll_pll_veml_plot_sample.m
@@ -1,83 +1,83 @@
-% Reads GNSS-SDR Tracking dump binary file using the provided
-% function and plots some internal variables
-% Javier Arribas, 2011. jarribas(at)cttc.es
-% Antonio Ramos, 2018. antonio.ramos(at)cttc.es
-% -------------------------------------------------------------------------
-%
-% Copyright (C) 2010-2018 (see AUTHORS file for a list of contributors)
-%
-% GNSS-SDR is a software defined Global Navigation
-% Satellite Systems receiver
-%
-% This file is part of GNSS-SDR.
-%
-% GNSS-SDR is free software: you can redistribute it and/or modify
-% it under the terms of the GNU General Public License as published by
-% the Free Software Foundation, either version 3 of the License, or
-% at your option) any later version.
-%
-% GNSS-SDR is distributed in the hope that it will be useful,
-% but WITHOUT ANY WARRANTY; without even the implied warranty of
-% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
-% GNU General Public License for more details.
-%
-% You should have received a copy of the GNU General Public License
-% along with GNSS-SDR. If not, see .
-%
-% -------------------------------------------------------------------------
-%
-
-close all;
-clear all;
-
-if ~exist('dll_pll_veml_read_tracking_dump.m', 'file')
- addpath('./libs')
-end
-
-samplingFreq = 5000000; %[Hz]
-coherent_integration_time_ms = 20; %[ms]
-channels = 5; % Number of channels
-first_channel = 0; % Number of the first channel
-
-path = '/dump_dir/'; %% CHANGE THIS PATH
-
-for N=1:1:channels
- tracking_log_path = [path 'track_ch_' num2str(N+first_channel-1) '.dat']; %% CHANGE track_ch_ BY YOUR dump_filename
- GNSS_tracking(N) = dll_pll_veml_read_tracking_dump(tracking_log_path);
-end
-
-% GNSS-SDR format conversion to MATLAB GPS receiver
-
-for N=1:1:channels
- trackResults(N).status = 'T'; %fake track
- trackResults(N).codeFreq = GNSS_tracking(N).code_freq_hz.';
- trackResults(N).carrFreq = GNSS_tracking(N).carrier_doppler_hz.';
- trackResults(N).dllDiscr = GNSS_tracking(N).code_error.';
- trackResults(N).dllDiscrFilt = GNSS_tracking(N).code_nco.';
- trackResults(N).pllDiscr = GNSS_tracking(N).carr_error.';
- trackResults(N).pllDiscrFilt = GNSS_tracking(N).carr_nco.';
-
- trackResults(N).I_P = GNSS_tracking(N).P.';
- trackResults(N).Q_P = zeros(1,length(GNSS_tracking(N).P));
-
- trackResults(N).I_VE = GNSS_tracking(N).VE.';
- trackResults(N).I_E = GNSS_tracking(N).E.';
- trackResults(N).I_L = GNSS_tracking(N).L.';
- trackResults(N).I_VL = GNSS_tracking(N).VL.';
- trackResults(N).Q_VE = zeros(1,length(GNSS_tracking(N).VE));
- trackResults(N).Q_E = zeros(1,length(GNSS_tracking(N).E));
- trackResults(N).Q_L = zeros(1,length(GNSS_tracking(N).L));
- trackResults(N).Q_VL = zeros(1,length(GNSS_tracking(N).VL));
- trackResults(N).data_I = GNSS_tracking(N).prompt_I.';
- trackResults(N).data_Q = GNSS_tracking(N).prompt_Q.';
- trackResults(N).PRN = GNSS_tracking(N).PRN.';
- trackResults(N).CNo = GNSS_tracking(N).CN0_SNV_dB_Hz.';
-
- % Use original MATLAB tracking plot function
- settings.numberOfChannels = channels;
- settings.msToProcess = length(GNSS_tracking(N).E) * coherent_integration_time_ms;
- plotVEMLTracking(N, trackResults, settings)
-end
-
-
-
+% Reads GNSS-SDR Tracking dump binary file using the provided
+% function and plots some internal variables
+% Javier Arribas, 2011. jarribas(at)cttc.es
+% Antonio Ramos, 2018. antonio.ramos(at)cttc.es
+% -------------------------------------------------------------------------
+%
+% Copyright (C) 2010-2018 (see AUTHORS file for a list of contributors)
+%
+% GNSS-SDR is a software defined Global Navigation
+% Satellite Systems receiver
+%
+% This file is part of GNSS-SDR.
+%
+% GNSS-SDR is free software: you can redistribute it and/or modify
+% it under the terms of the GNU General Public License as published by
+% the Free Software Foundation, either version 3 of the License, or
+% at your option) any later version.
+%
+% GNSS-SDR is distributed in the hope that it will be useful,
+% but WITHOUT ANY WARRANTY; without even the implied warranty of
+% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
+% GNU General Public License for more details.
+%
+% You should have received a copy of the GNU General Public License
+% along with GNSS-SDR. If not, see .
+%
+% -------------------------------------------------------------------------
+%
+
+close all;
+clear all;
+
+if ~exist('dll_pll_veml_read_tracking_dump.m', 'file')
+ addpath('./libs')
+end
+
+samplingFreq = 5000000; %[Hz]
+coherent_integration_time_ms = 20; %[ms]
+channels = 5; % Number of channels
+first_channel = 0; % Number of the first channel
+
+path = '/dump_dir/'; %% CHANGE THIS PATH
+
+for N=1:1:channels
+ tracking_log_path = [path 'track_ch_' num2str(N+first_channel-1) '.dat']; %% CHANGE track_ch_ BY YOUR dump_filename
+ GNSS_tracking(N) = dll_pll_veml_read_tracking_dump(tracking_log_path);
+end
+
+% GNSS-SDR format conversion to MATLAB GPS receiver
+
+for N=1:1:channels
+ trackResults(N).status = 'T'; %fake track
+ trackResults(N).codeFreq = GNSS_tracking(N).code_freq_hz.';
+ trackResults(N).carrFreq = GNSS_tracking(N).carrier_doppler_hz.';
+ trackResults(N).dllDiscr = GNSS_tracking(N).code_error.';
+ trackResults(N).dllDiscrFilt = GNSS_tracking(N).code_nco.';
+ trackResults(N).pllDiscr = GNSS_tracking(N).carr_error.';
+ trackResults(N).pllDiscrFilt = GNSS_tracking(N).carr_nco.';
+
+ trackResults(N).I_P = GNSS_tracking(N).P.';
+ trackResults(N).Q_P = zeros(1,length(GNSS_tracking(N).P));
+
+ trackResults(N).I_VE = GNSS_tracking(N).VE.';
+ trackResults(N).I_E = GNSS_tracking(N).E.';
+ trackResults(N).I_L = GNSS_tracking(N).L.';
+ trackResults(N).I_VL = GNSS_tracking(N).VL.';
+ trackResults(N).Q_VE = zeros(1,length(GNSS_tracking(N).VE));
+ trackResults(N).Q_E = zeros(1,length(GNSS_tracking(N).E));
+ trackResults(N).Q_L = zeros(1,length(GNSS_tracking(N).L));
+ trackResults(N).Q_VL = zeros(1,length(GNSS_tracking(N).VL));
+ trackResults(N).data_I = GNSS_tracking(N).prompt_I.';
+ trackResults(N).data_Q = GNSS_tracking(N).prompt_Q.';
+ trackResults(N).PRN = GNSS_tracking(N).PRN.';
+ trackResults(N).CNo = GNSS_tracking(N).CN0_SNV_dB_Hz.';
+
+ % Use original MATLAB tracking plot function
+ settings.numberOfChannels = channels;
+ settings.msToProcess = length(GNSS_tracking(N).E) * coherent_integration_time_ms;
+ plotVEMLTracking(N, trackResults, settings)
+end
+
+
+
diff --git a/src/utils/matlab/galileo_e1_dll_pll_veml_plot_sample.m b/src/utils/matlab/galileo_e1_dll_pll_veml_plot_sample.m
index fb04ccd71..240c279f7 100644
--- a/src/utils/matlab/galileo_e1_dll_pll_veml_plot_sample.m
+++ b/src/utils/matlab/galileo_e1_dll_pll_veml_plot_sample.m
@@ -1,79 +1,79 @@
-% Reads GNSS-SDR Tracking dump binary file using the provided
-% function and plots some internal variables
-% Javier Arribas, 2011. jarribas(at)cttc.es
-% -------------------------------------------------------------------------
-%
-% Copyright (C) 2010-2018 (see AUTHORS file for a list of contributors)
-%
-% GNSS-SDR is a software defined Global Navigation
-% Satellite Systems receiver
-%
-% This file is part of GNSS-SDR.
-%
-% GNSS-SDR is free software: you can redistribute it and/or modify
-% it under the terms of the GNU General Public License as published by
-% the Free Software Foundation, either version 3 of the License, or
-% at your option) any later version.
-%
-% GNSS-SDR is distributed in the hope that it will be useful,
-% but WITHOUT ANY WARRANTY; without even the implied warranty of
-% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
-% GNU General Public License for more details.
-%
-% You should have received a copy of the GNU General Public License
-% along with GNSS-SDR. If not, see .
-%
-% -------------------------------------------------------------------------
-%
-
-close all;
-clear all;
-
-if ~exist('dll_pll_veml_read_tracking_dump.m', 'file')
- addpath('./libs')
-end
-
-samplingFreq = 5000000; %[Hz]
-channels = 7; % Number of channels
-first_channel = 0; % Number of the first channel
-
-path = '/Users/carlesfernandez/git/cttc/build/'; %% CHANGE THIS PATH
-
-for N=1:1:channels
- tracking_log_path = [path 'track_ch' num2str(N+first_channel-1) '.dat']; %% CHANGE track_ch BY YOUR dump_filename
- GNSS_tracking(N) = dll_pll_veml_read_tracking_dump(tracking_log_path);
-end
-
-% GNSS-SDR format conversion to MATLAB GPS receiver
-
-for N=1:1:channels
- trackResults(N).status = 'T'; %fake track
- trackResults(N).codeFreq = GNSS_tracking(N).code_freq_hz.';
- trackResults(N).carrFreq = GNSS_tracking(N).carrier_doppler_hz.';
- trackResults(N).dllDiscr = GNSS_tracking(N).code_error.';
- trackResults(N).dllDiscrFilt = GNSS_tracking(N).code_nco.';
- trackResults(N).pllDiscr = GNSS_tracking(N).carr_error.';
- trackResults(N).pllDiscrFilt = GNSS_tracking(N).carr_nco.';
-
- trackResults(N).I_P = GNSS_tracking(N).prompt_I.';
- trackResults(N).Q_P = GNSS_tracking(N).prompt_Q.';
-
- trackResults(N).I_VE = GNSS_tracking(N).VE.';
- trackResults(N).I_E = GNSS_tracking(N).E.';
- trackResults(N).I_L = GNSS_tracking(N).L.';
- trackResults(N).I_VL = GNSS_tracking(N).VL.';
- trackResults(N).Q_VE = zeros(1,length(GNSS_tracking(N).VE));
- trackResults(N).Q_E = zeros(1,length(GNSS_tracking(N).E));
- trackResults(N).Q_L = zeros(1,length(GNSS_tracking(N).L));
- trackResults(N).Q_VL = zeros(1,length(GNSS_tracking(N).VL));
- trackResults(N).PRN = GNSS_tracking(N).PRN.';
- trackResults(N).CNo = GNSS_tracking(N).CN0_SNV_dB_Hz.';
-
- % Use original MATLAB tracking plot function
- settings.numberOfChannels = channels;
- settings.msToProcess = length(GNSS_tracking(N).E)*4;
- plotVEMLTracking(N, trackResults, settings)
-end
-
-
-
+% Reads GNSS-SDR Tracking dump binary file using the provided
+% function and plots some internal variables
+% Javier Arribas, 2011. jarribas(at)cttc.es
+% -------------------------------------------------------------------------
+%
+% Copyright (C) 2010-2018 (see AUTHORS file for a list of contributors)
+%
+% GNSS-SDR is a software defined Global Navigation
+% Satellite Systems receiver
+%
+% This file is part of GNSS-SDR.
+%
+% GNSS-SDR is free software: you can redistribute it and/or modify
+% it under the terms of the GNU General Public License as published by
+% the Free Software Foundation, either version 3 of the License, or
+% at your option) any later version.
+%
+% GNSS-SDR is distributed in the hope that it will be useful,
+% but WITHOUT ANY WARRANTY; without even the implied warranty of
+% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
+% GNU General Public License for more details.
+%
+% You should have received a copy of the GNU General Public License
+% along with GNSS-SDR. If not, see .
+%
+% -------------------------------------------------------------------------
+%
+
+close all;
+clear all;
+
+if ~exist('dll_pll_veml_read_tracking_dump.m', 'file')
+ addpath('./libs')
+end
+
+samplingFreq = 5000000; %[Hz]
+channels = 7; % Number of channels
+first_channel = 0; % Number of the first channel
+
+path = '/Users/carlesfernandez/git/cttc/build/'; %% CHANGE THIS PATH
+
+for N=1:1:channels
+ tracking_log_path = [path 'track_ch' num2str(N+first_channel-1) '.dat']; %% CHANGE track_ch BY YOUR dump_filename
+ GNSS_tracking(N) = dll_pll_veml_read_tracking_dump(tracking_log_path);
+end
+
+% GNSS-SDR format conversion to MATLAB GPS receiver
+
+for N=1:1:channels
+ trackResults(N).status = 'T'; %fake track
+ trackResults(N).codeFreq = GNSS_tracking(N).code_freq_hz.';
+ trackResults(N).carrFreq = GNSS_tracking(N).carrier_doppler_hz.';
+ trackResults(N).dllDiscr = GNSS_tracking(N).code_error.';
+ trackResults(N).dllDiscrFilt = GNSS_tracking(N).code_nco.';
+ trackResults(N).pllDiscr = GNSS_tracking(N).carr_error.';
+ trackResults(N).pllDiscrFilt = GNSS_tracking(N).carr_nco.';
+
+ trackResults(N).I_P = GNSS_tracking(N).prompt_I.';
+ trackResults(N).Q_P = GNSS_tracking(N).prompt_Q.';
+
+ trackResults(N).I_VE = GNSS_tracking(N).VE.';
+ trackResults(N).I_E = GNSS_tracking(N).E.';
+ trackResults(N).I_L = GNSS_tracking(N).L.';
+ trackResults(N).I_VL = GNSS_tracking(N).VL.';
+ trackResults(N).Q_VE = zeros(1,length(GNSS_tracking(N).VE));
+ trackResults(N).Q_E = zeros(1,length(GNSS_tracking(N).E));
+ trackResults(N).Q_L = zeros(1,length(GNSS_tracking(N).L));
+ trackResults(N).Q_VL = zeros(1,length(GNSS_tracking(N).VL));
+ trackResults(N).PRN = GNSS_tracking(N).PRN.';
+ trackResults(N).CNo = GNSS_tracking(N).CN0_SNV_dB_Hz.';
+
+ % Use original MATLAB tracking plot function
+ settings.numberOfChannels = channels;
+ settings.msToProcess = length(GNSS_tracking(N).E)*4;
+ plotVEMLTracking(N, trackResults, settings)
+end
+
+
+
diff --git a/src/utils/matlab/glonass_ca_dll_pll_plot_sample.m b/src/utils/matlab/glonass_ca_dll_pll_plot_sample.m
index d44799f6f..fc342eb26 100644
--- a/src/utils/matlab/glonass_ca_dll_pll_plot_sample.m
+++ b/src/utils/matlab/glonass_ca_dll_pll_plot_sample.m
@@ -1,73 +1,73 @@
-% Reads GNSS-SDR Tracking dump binary file using the provided
-% function and plots some internal variables
-% Damian Miralles, 2017. dmiralles2009(at)gmail.com
-% -------------------------------------------------------------------------
-%
-% Copyright (C) 2010-2018 (see AUTHORS file for a list of contributors)
-%
-% GNSS-SDR is a software defined Global Navigation
-% Satellite Systems receiver
-%
-% This file is part of GNSS-SDR.
-%
-% GNSS-SDR is free software: you can redistribute it and/or modify
-% it under the terms of the GNU General Public License as published by
-% the Free Software Foundation, either version 3 of the License, or
-% at your option) any later version.
-%
-% GNSS-SDR is distributed in the hope that it will be useful,
-% but WITHOUT ANY WARRANTY; without even the implied warranty of
-% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
-% GNU General Public License for more details.
-%
-% You should have received a copy of the GNU General Public License
-% along with GNSS-SDR. If not, see .
-%
-% -------------------------------------------------------------------------
-%
-
-close all;
-clear all;
-
-if ~exist('dll_pll_veml_read_tracking_dump.m', 'file')
- addpath('./libs')
-end
-
-
-samplingFreq = 6625000; %[Hz]
-channels = 5;
-first_channel = 0;
-
-path = '/archive/'; %% CHANGE THIS PATH
-
-for N=1:1:channels
- tracking_log_path = [path 'glo_tracking_ch_' num2str(N+first_channel-1) '.dat']; %% CHANGE glo_tracking_ch_ BY YOUR dump_filename
- GNSS_tracking(N) = dll_pll_veml_read_tracking_dump(tracking_log_path);
-end
-
-% GNSS-SDR format conversion to MATLAB GPS receiver
-
-for N=1:1:channels
- trackResults(N).status = 'T'; %fake track
- trackResults(N).codeFreq = GNSS_tracking(N).code_freq_hz.';
- trackResults(N).carrFreq = GNSS_tracking(N).carrier_freq_hz.';
- trackResults(N).dllDiscr = GNSS_tracking(N).code_error.';
- trackResults(N).dllDiscrFilt = GNSS_tracking(N).code_nco.';
- trackResults(N).pllDiscr = GNSS_tracking(N).carr_error.';
- trackResults(N).pllDiscrFilt = GNSS_tracking(N).carr_nco.';
-
- trackResults(N).I_P = GNSS_tracking(N).prompt_I.';
- trackResults(N).Q_P = GNSS_tracking(N).prompt_Q.';
-
- trackResults(N).I_E = GNSS_tracking(N).E.';
- trackResults(N).I_L = GNSS_tracking(N).L.';
- trackResults(N).Q_E = zeros(1,length(GNSS_tracking(N).E));
- trackResults(N).Q_L = zeros(1,length(GNSS_tracking(N).E));
- trackResults(N).CNo = GNSS_tracking(N).CN0_SNV_dB_Hz.';
- trackResults(N).PRN = ones(1,length(GNSS_tracking(N).E));
-
- % Use original MATLAB tracking plot function
- settings.numberOfChannels = channels;
- settings.msToProcess = length(GNSS_tracking(N).E);
- plotTracking(N, trackResults, settings)
-end
+% Reads GNSS-SDR Tracking dump binary file using the provided
+% function and plots some internal variables
+% Damian Miralles, 2017. dmiralles2009(at)gmail.com
+% -------------------------------------------------------------------------
+%
+% Copyright (C) 2010-2018 (see AUTHORS file for a list of contributors)
+%
+% GNSS-SDR is a software defined Global Navigation
+% Satellite Systems receiver
+%
+% This file is part of GNSS-SDR.
+%
+% GNSS-SDR is free software: you can redistribute it and/or modify
+% it under the terms of the GNU General Public License as published by
+% the Free Software Foundation, either version 3 of the License, or
+% at your option) any later version.
+%
+% GNSS-SDR is distributed in the hope that it will be useful,
+% but WITHOUT ANY WARRANTY; without even the implied warranty of
+% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
+% GNU General Public License for more details.
+%
+% You should have received a copy of the GNU General Public License
+% along with GNSS-SDR. If not, see .
+%
+% -------------------------------------------------------------------------
+%
+
+close all;
+clear all;
+
+if ~exist('dll_pll_veml_read_tracking_dump.m', 'file')
+ addpath('./libs')
+end
+
+
+samplingFreq = 6625000; %[Hz]
+channels = 5;
+first_channel = 0;
+
+path = '/archive/'; %% CHANGE THIS PATH
+
+for N=1:1:channels
+ tracking_log_path = [path 'glo_tracking_ch_' num2str(N+first_channel-1) '.dat']; %% CHANGE glo_tracking_ch_ BY YOUR dump_filename
+ GNSS_tracking(N) = dll_pll_veml_read_tracking_dump(tracking_log_path);
+end
+
+% GNSS-SDR format conversion to MATLAB GPS receiver
+
+for N=1:1:channels
+ trackResults(N).status = 'T'; %fake track
+ trackResults(N).codeFreq = GNSS_tracking(N).code_freq_hz.';
+ trackResults(N).carrFreq = GNSS_tracking(N).carrier_freq_hz.';
+ trackResults(N).dllDiscr = GNSS_tracking(N).code_error.';
+ trackResults(N).dllDiscrFilt = GNSS_tracking(N).code_nco.';
+ trackResults(N).pllDiscr = GNSS_tracking(N).carr_error.';
+ trackResults(N).pllDiscrFilt = GNSS_tracking(N).carr_nco.';
+
+ trackResults(N).I_P = GNSS_tracking(N).prompt_I.';
+ trackResults(N).Q_P = GNSS_tracking(N).prompt_Q.';
+
+ trackResults(N).I_E = GNSS_tracking(N).E.';
+ trackResults(N).I_L = GNSS_tracking(N).L.';
+ trackResults(N).Q_E = zeros(1,length(GNSS_tracking(N).E));
+ trackResults(N).Q_L = zeros(1,length(GNSS_tracking(N).E));
+ trackResults(N).CNo = GNSS_tracking(N).CN0_SNV_dB_Hz.';
+ trackResults(N).PRN = ones(1,length(GNSS_tracking(N).E));
+
+ % Use original MATLAB tracking plot function
+ settings.numberOfChannels = channels;
+ settings.msToProcess = length(GNSS_tracking(N).E);
+ plotTracking(N, trackResults, settings)
+end
diff --git a/src/utils/matlab/gps_l1_ca_dll_pll_plot_sample.m b/src/utils/matlab/gps_l1_ca_dll_pll_plot_sample.m
index 7dd7aa3d6..093799f7d 100644
--- a/src/utils/matlab/gps_l1_ca_dll_pll_plot_sample.m
+++ b/src/utils/matlab/gps_l1_ca_dll_pll_plot_sample.m
@@ -1,75 +1,75 @@
-% Reads GNSS-SDR Tracking dump binary file using the provided
-% function and plots some internal variables
-% Javier Arribas, 2011. jarribas(at)cttc.es
-% -------------------------------------------------------------------------
-%
-% Copyright (C) 2010-2018 (see AUTHORS file for a list of contributors)
-%
-% GNSS-SDR is a software defined Global Navigation
-% Satellite Systems receiver
-%
-% This file is part of GNSS-SDR.
-%
-% GNSS-SDR is free software: you can redistribute it and/or modify
-% it under the terms of the GNU General Public License as published by
-% the Free Software Foundation, either version 3 of the License, or
-% at your option) any later version.
-%
-% GNSS-SDR is distributed in the hope that it will be useful,
-% but WITHOUT ANY WARRANTY; without even the implied warranty of
-% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
-% GNU General Public License for more details.
-%
-% You should have received a copy of the GNU General Public License
-% along with GNSS-SDR. If not, see .
-%
-% -------------------------------------------------------------------------
-%
-
-close all;
-clear all;
-
-if ~exist('dll_pll_veml_read_tracking_dump.m', 'file')
- addpath('./libs')
-end
-
-
-samplingFreq = 6625000; %[Hz]
-channels = 5;
-first_channel = 0;
-
-path = '/archive/'; %% CHANGE THIS PATH
-
-for N=1:1:channels
- tracking_log_path = [path 'epl_tracking_ch_' num2str(N+first_channel-1) '.dat']; %% CHANGE epl_tracking_ch_ BY YOUR dump_filename
- GNSS_tracking(N) = dll_pll_veml_read_tracking_dump(tracking_log_path);
-end
-
-% GNSS-SDR format conversion to MATLAB GPS receiver
-
-for N=1:1:channels
- trackResults(N).status = 'T'; %fake track
- trackResults(N).codeFreq = GNSS_tracking(N).code_freq_hz.';
- trackResults(N).carrFreq = GNSS_tracking(N).carrier_doppler_hz.';
- trackResults(N).dllDiscr = GNSS_tracking(N).code_error.';
- trackResults(N).dllDiscrFilt = GNSS_tracking(N).code_nco.';
- trackResults(N).pllDiscr = GNSS_tracking(N).carr_error.';
- trackResults(N).pllDiscrFilt = GNSS_tracking(N).carr_nco.';
-
- trackResults(N).I_P = GNSS_tracking(N).prompt_I.';
- trackResults(N).Q_P = GNSS_tracking(N).prompt_Q.';
-
- trackResults(N).I_E = GNSS_tracking(N).E.';
- trackResults(N).I_L = GNSS_tracking(N).L.';
- trackResults(N).Q_E = zeros(1,length(GNSS_tracking(N).E));
- trackResults(N).Q_L = zeros(1,length(GNSS_tracking(N).E));
- trackResults(N).PRN = ones(1,length(GNSS_tracking(N).E));
- trackResults(N).CNo = GNSS_tracking(N).CN0_SNV_dB_Hz.';
-
- % Use original MATLAB tracking plot function
- settings.numberOfChannels = channels;
- settings.msToProcess = length(GNSS_tracking(N).E);
- plotTracking(N, trackResults, settings)
-end
-
-
+% Reads GNSS-SDR Tracking dump binary file using the provided
+% function and plots some internal variables
+% Javier Arribas, 2011. jarribas(at)cttc.es
+% -------------------------------------------------------------------------
+%
+% Copyright (C) 2010-2018 (see AUTHORS file for a list of contributors)
+%
+% GNSS-SDR is a software defined Global Navigation
+% Satellite Systems receiver
+%
+% This file is part of GNSS-SDR.
+%
+% GNSS-SDR is free software: you can redistribute it and/or modify
+% it under the terms of the GNU General Public License as published by
+% the Free Software Foundation, either version 3 of the License, or
+% at your option) any later version.
+%
+% GNSS-SDR is distributed in the hope that it will be useful,
+% but WITHOUT ANY WARRANTY; without even the implied warranty of
+% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
+% GNU General Public License for more details.
+%
+% You should have received a copy of the GNU General Public License
+% along with GNSS-SDR. If not, see .
+%
+% -------------------------------------------------------------------------
+%
+
+close all;
+clear all;
+
+if ~exist('dll_pll_veml_read_tracking_dump.m', 'file')
+ addpath('./libs')
+end
+
+
+samplingFreq = 6625000; %[Hz]
+channels = 5;
+first_channel = 0;
+
+path = '/archive/'; %% CHANGE THIS PATH
+
+for N=1:1:channels
+ tracking_log_path = [path 'epl_tracking_ch_' num2str(N+first_channel-1) '.dat']; %% CHANGE epl_tracking_ch_ BY YOUR dump_filename
+ GNSS_tracking(N) = dll_pll_veml_read_tracking_dump(tracking_log_path);
+end
+
+% GNSS-SDR format conversion to MATLAB GPS receiver
+
+for N=1:1:channels
+ trackResults(N).status = 'T'; %fake track
+ trackResults(N).codeFreq = GNSS_tracking(N).code_freq_hz.';
+ trackResults(N).carrFreq = GNSS_tracking(N).carrier_doppler_hz.';
+ trackResults(N).dllDiscr = GNSS_tracking(N).code_error.';
+ trackResults(N).dllDiscrFilt = GNSS_tracking(N).code_nco.';
+ trackResults(N).pllDiscr = GNSS_tracking(N).carr_error.';
+ trackResults(N).pllDiscrFilt = GNSS_tracking(N).carr_nco.';
+
+ trackResults(N).I_P = GNSS_tracking(N).prompt_I.';
+ trackResults(N).Q_P = GNSS_tracking(N).prompt_Q.';
+
+ trackResults(N).I_E = GNSS_tracking(N).E.';
+ trackResults(N).I_L = GNSS_tracking(N).L.';
+ trackResults(N).Q_E = zeros(1,length(GNSS_tracking(N).E));
+ trackResults(N).Q_L = zeros(1,length(GNSS_tracking(N).E));
+ trackResults(N).PRN = ones(1,length(GNSS_tracking(N).E));
+ trackResults(N).CNo = GNSS_tracking(N).CN0_SNV_dB_Hz.';
+
+ % Use original MATLAB tracking plot function
+ settings.numberOfChannels = channels;
+ settings.msToProcess = length(GNSS_tracking(N).E);
+ plotTracking(N, trackResults, settings)
+end
+
+
diff --git a/src/utils/matlab/gps_l1_ca_telemetry_plot_sample.m b/src/utils/matlab/gps_l1_ca_telemetry_plot_sample.m
index f1b839419..9e0e27125 100644
--- a/src/utils/matlab/gps_l1_ca_telemetry_plot_sample.m
+++ b/src/utils/matlab/gps_l1_ca_telemetry_plot_sample.m
@@ -1,39 +1,39 @@
-% Reads GNSS-SDR Tracking dump binary file using the provided
-% function and plots some internal variables
-% Javier Arribas, 2011. jarribas(at)cttc.es
-% -------------------------------------------------------------------------
-%
-% Copyright (C) 2010-2018 (see AUTHORS file for a list of contributors)
-%
-% GNSS-SDR is a software defined Global Navigation
-% Satellite Systems receiver
-%
-% This file is part of GNSS-SDR.
-%
-% GNSS-SDR is free software: you can redistribute it and/or modify
-% it under the terms of the GNU General Public License as published by
-% the Free Software Foundation, either version 3 of the License, or
-% at your option) any later version.
-%
-% GNSS-SDR is distributed in the hope that it will be useful,
-% but WITHOUT ANY WARRANTY; without even the implied warranty of
-% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
-% GNU General Public License for more details.
-%
-% You should have received a copy of the GNU General Public License
-% along with GNSS-SDR. If not, see .
-%
-% -------------------------------------------------------------------------
-%
-
-%close all;
-%clear all;
-samplingFreq = 64e6/16; %[Hz]
-channels=4;
-path='/home/javier/workspace/gnss-sdr-ref/trunk/install/';
-clear PRN_absolute_sample_start;
-for N=1:1:channels
- telemetry_log_path=[path 'telemetry' num2str(N-1) '.dat'];
- GNSS_telemetry(N)= gps_l1_ca_read_telemetry_dump(telemetry_log_path);
-end
-
+% Reads GNSS-SDR Tracking dump binary file using the provided
+% function and plots some internal variables
+% Javier Arribas, 2011. jarribas(at)cttc.es
+% -------------------------------------------------------------------------
+%
+% Copyright (C) 2010-2018 (see AUTHORS file for a list of contributors)
+%
+% GNSS-SDR is a software defined Global Navigation
+% Satellite Systems receiver
+%
+% This file is part of GNSS-SDR.
+%
+% GNSS-SDR is free software: you can redistribute it and/or modify
+% it under the terms of the GNU General Public License as published by
+% the Free Software Foundation, either version 3 of the License, or
+% at your option) any later version.
+%
+% GNSS-SDR is distributed in the hope that it will be useful,
+% but WITHOUT ANY WARRANTY; without even the implied warranty of
+% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
+% GNU General Public License for more details.
+%
+% You should have received a copy of the GNU General Public License
+% along with GNSS-SDR. If not, see .
+%
+% -------------------------------------------------------------------------
+%
+
+%close all;
+%clear all;
+samplingFreq = 64e6/16; %[Hz]
+channels=4;
+path='/home/javier/workspace/gnss-sdr-ref/trunk/install/';
+clear PRN_absolute_sample_start;
+for N=1:1:channels
+ telemetry_log_path=[path 'telemetry' num2str(N-1) '.dat'];
+ GNSS_telemetry(N)= gps_l1_ca_read_telemetry_dump(telemetry_log_path);
+end
+
diff --git a/src/utils/matlab/libs/geoFunctions/cart2geo.m b/src/utils/matlab/libs/geoFunctions/cart2geo.m
index 45947151f..324a226c1 100644
--- a/src/utils/matlab/libs/geoFunctions/cart2geo.m
+++ b/src/utils/matlab/libs/geoFunctions/cart2geo.m
@@ -1,58 +1,58 @@
-function [phi, lambda, h] = cart2geo(X, Y, Z, i)
-% CART2GEO Conversion of Cartesian coordinates (X,Y,Z) to geographical
-% coordinates (phi, lambda, h) on a selected reference ellipsoid.
-%
-% [phi, lambda, h] = cart2geo(X, Y, Z, i);
-%
-% Choices i of Reference Ellipsoid for Geographical Coordinates
-% 1. International Ellipsoid 1924
-% 2. International Ellipsoid 1967
-% 3. World Geodetic System 1972
-% 4. Geodetic Reference System 1980
-% 5. World Geodetic System 1984
-
-% Kai Borre 10-13-98
-% Copyright (c) by Kai Borre
-% Revision: 1.0 Date: 1998/10/23
-%==========================================================================
-
-a = [6378388 6378160 6378135 6378137 6378137];
-f = [1/297 1/298.247 1/298.26 1/298.257222101 1/298.257223563];
-
-lambda = atan2(Y,X);
-ex2 = (2-f(i))*f(i)/((1-f(i))^2);
-c = a(i)*sqrt(1+ex2);
-phi = atan(Z/((sqrt(X^2+Y^2)*(1-(2-f(i)))*f(i))));
-
-h = 0.1; oldh = 0;
-iterations = 0;
-while abs(h-oldh) > 1.e-12
- oldh = h;
- N = c/sqrt(1+ex2*cos(phi)^2);
- phi = atan(Z/((sqrt(X^2+Y^2)*(1-(2-f(i))*f(i)*N/(N+h)))));
- h = sqrt(X^2+Y^2)/cos(phi)-N;
-
- iterations = iterations + 1;
- if iterations > 100
- fprintf('Failed to approximate h with desired precision. h-oldh: %e.\n', h-oldh);
- break;
- end
-end
-
-phi = phi*180/pi;
-% b = zeros(1,3);
-% b(1,1) = fix(phi);
-% b(2,1) = fix(rem(phi,b(1,1))*60);
-% b(3,1) = (phi-b(1,1)-b(1,2)/60)*3600;
-
-lambda = lambda*180/pi;
-% l = zeros(1,3);
-% l(1,1) = fix(lambda);
-% l(2,1) = fix(rem(lambda,l(1,1))*60);
-% l(3,1) = (lambda-l(1,1)-l(1,2)/60)*3600;
-
-%fprintf('\n phi =%3.0f %3.0f %8.5f',b(1),b(2),b(3))
-%fprintf('\n lambda =%3.0f %3.0f %8.5f',l(1),l(2),l(3))
-%fprintf('\n h =%14.3f\n',h)
-
-%%%%%%%%%%%%%% end cart2geo.m %%%%%%%%%%%%%%%%%%%
+function [phi, lambda, h] = cart2geo(X, Y, Z, i)
+% CART2GEO Conversion of Cartesian coordinates (X,Y,Z) to geographical
+% coordinates (phi, lambda, h) on a selected reference ellipsoid.
+%
+% [phi, lambda, h] = cart2geo(X, Y, Z, i);
+%
+% Choices i of Reference Ellipsoid for Geographical Coordinates
+% 1. International Ellipsoid 1924
+% 2. International Ellipsoid 1967
+% 3. World Geodetic System 1972
+% 4. Geodetic Reference System 1980
+% 5. World Geodetic System 1984
+
+% Kai Borre 10-13-98
+% Copyright (c) by Kai Borre
+% Revision: 1.0 Date: 1998/10/23
+%==========================================================================
+
+a = [6378388 6378160 6378135 6378137 6378137];
+f = [1/297 1/298.247 1/298.26 1/298.257222101 1/298.257223563];
+
+lambda = atan2(Y,X);
+ex2 = (2-f(i))*f(i)/((1-f(i))^2);
+c = a(i)*sqrt(1+ex2);
+phi = atan(Z/((sqrt(X^2+Y^2)*(1-(2-f(i)))*f(i))));
+
+h = 0.1; oldh = 0;
+iterations = 0;
+while abs(h-oldh) > 1.e-12
+ oldh = h;
+ N = c/sqrt(1+ex2*cos(phi)^2);
+ phi = atan(Z/((sqrt(X^2+Y^2)*(1-(2-f(i))*f(i)*N/(N+h)))));
+ h = sqrt(X^2+Y^2)/cos(phi)-N;
+
+ iterations = iterations + 1;
+ if iterations > 100
+ fprintf('Failed to approximate h with desired precision. h-oldh: %e.\n', h-oldh);
+ break;
+ end
+end
+
+phi = phi*180/pi;
+% b = zeros(1,3);
+% b(1,1) = fix(phi);
+% b(2,1) = fix(rem(phi,b(1,1))*60);
+% b(3,1) = (phi-b(1,1)-b(1,2)/60)*3600;
+
+lambda = lambda*180/pi;
+% l = zeros(1,3);
+% l(1,1) = fix(lambda);
+% l(2,1) = fix(rem(lambda,l(1,1))*60);
+% l(3,1) = (lambda-l(1,1)-l(1,2)/60)*3600;
+
+%fprintf('\n phi =%3.0f %3.0f %8.5f',b(1),b(2),b(3))
+%fprintf('\n lambda =%3.0f %3.0f %8.5f',l(1),l(2),l(3))
+%fprintf('\n h =%14.3f\n',h)
+
+%%%%%%%%%%%%%% end cart2geo.m %%%%%%%%%%%%%%%%%%%
diff --git a/src/utils/matlab/libs/geoFunctions/cart2utm.m b/src/utils/matlab/libs/geoFunctions/cart2utm.m
index 8617bf541..48da278ea 100644
--- a/src/utils/matlab/libs/geoFunctions/cart2utm.m
+++ b/src/utils/matlab/libs/geoFunctions/cart2utm.m
@@ -1,173 +1,173 @@
-function [E, N, U] = cart2utm(X, Y, Z, zone)
-% CART2UTM Transformation of (X,Y,Z) to (N,E,U) in UTM, zone 'zone'.
-%
-% [E, N, U] = cart2utm(X, Y, Z, zone);
-%
-% Inputs:
-% X,Y,Z - Cartesian coordinates. Coordinates are referenced
-% with respect to the International Terrestrial Reference
-% Frame 1996 (ITRF96)
-% zone - UTM zone of the given position
-%
-% Outputs:
-% E, N, U - UTM coordinates (Easting, Northing, Uping)
-
-% Kai Borre -11-1994
-% Copyright (c) by Kai Borre
-
-% This implementation is based upon
-% O. Andersson & K. Poder (1981) Koordinattransformationer
-% ved Geod\ae{}tisk Institut. Landinspekt\oe{}ren
-% Vol. 30: 552--571 and Vol. 31: 76
-%
-% An excellent, general reference (KW) is
-% R. Koenig & K.H. Weise (1951) Mathematische Grundlagen der
-% h\"oheren Geod\"asie und Kartographie.
-% Erster Band, Springer Verlag
-
-% Explanation of variables used:
-% f flattening of ellipsoid
-% a semi major axis in m
-% m0 1 - scale at central meridian; for UTM 0.0004
-% Q_n normalized meridian quadrant
-% E0 Easting of central meridian
-% L0 Longitude of central meridian
-% bg constants for ellipsoidal geogr. to spherical geogr.
-% gb constants for spherical geogr. to ellipsoidal geogr.
-% gtu constants for ellipsoidal N, E to spherical N, E
-% utg constants for spherical N, E to ellipoidal N, E
-% tolutm tolerance for utm, 1.2E-10*meridian quadrant
-% tolgeo tolerance for geographical, 0.00040 second of arc
-
-% B, L refer to latitude and longitude. Southern latitude is negative
-% International ellipsoid of 1924, valid for ED50
-
-a = 6378388;
-f = 1/297;
-ex2 = (2-f)*f / ((1-f)^2);
-c = a * sqrt(1+ex2);
-vec = [X; Y; Z-4.5];
-alpha = .756e-6;
-R = [ 1 -alpha 0;
- alpha 1 0;
- 0 0 1];
-trans = [89.5; 93.8; 127.6];
-scale = 0.9999988;
-v = scale*R*vec + trans; % coordinate vector in ED50
-L = atan2(v(2), v(1));
-N1 = 6395000; % preliminary value
-B = atan2(v(3)/((1-f)^2*N1), norm(v(1:2))/N1); % preliminary value
-U = 0.1; oldU = 0;
-
-iterations = 0;
-while abs(U-oldU) > 1.e-4
- oldU = U;
- N1 = c/sqrt(1+ex2*(cos(B))^2);
- B = atan2(v(3)/((1-f)^2*N1+U), norm(v(1:2))/(N1+U) );
- U = norm(v(1:2))/cos(B)-N1;
-
- iterations = iterations + 1;
- if iterations > 100
- fprintf('Failed to approximate U with desired precision. U-oldU: %e.\n', U-oldU);
- break;
- end
-end
-
-% Normalized meridian quadrant, KW p. 50 (96), p. 19 (38b), p. 5 (21)
-m0 = 0.0004;
-n = f / (2-f);
-m = n^2 * (1/4 + n*n/64);
-w = (a*(-n-m0+m*(1-m0))) / (1+n);
-Q_n = a + w;
-
-% Easting and longitude of central meridian
-E0 = 500000;
-L0 = (zone-30)*6 - 3;
-
-% Check tolerance for reverse transformation
-tolutm = pi/2 * 1.2e-10 * Q_n;
-tolgeo = 0.000040;
-
-% Coefficients of trigonometric series
-
-% ellipsoidal to spherical geographical, KW p. 186--187, (51)-(52)
-% bg[1] = n*(-2 + n*(2/3 + n*(4/3 + n*(-82/45))));
-% bg[2] = n^2*(5/3 + n*(-16/15 + n*(-13/9)));
-% bg[3] = n^3*(-26/15 + n*34/21);
-% bg[4] = n^4*1237/630;
-
-% spherical to ellipsoidal geographical, KW p. 190--191, (61)-(62)
-% gb[1] = n*(2 + n*(-2/3 + n*(-2 + n*116/45)));
-% gb[2] = n^2*(7/3 + n*(-8/5 + n*(-227/45)));
-% gb[3] = n^3*(56/15 + n*(-136/35));
-% gb[4] = n^4*4279/630;
-
-% spherical to ellipsoidal N, E, KW p. 196, (69)
-% gtu[1] = n*(1/2 + n*(-2/3 + n*(5/16 + n*41/180)));
-% gtu[2] = n^2*(13/48 + n*(-3/5 + n*557/1440));
-% gtu[3] = n^3*(61/240 + n*(-103/140));
-% gtu[4] = n^4*49561/161280;
-
-% ellipsoidal to spherical N, E, KW p. 194, (65)
-% utg[1] = n*(-1/2 + n*(2/3 + n*(-37/96 + n*1/360)));
-% utg[2] = n^2*(-1/48 + n*(-1/15 + n*437/1440));
-% utg[3] = n^3*(-17/480 + n*37/840);
-% utg[4] = n^4*(-4397/161280);
-
-% With f = 1/297 we get
-
-bg = [-3.37077907e-3;
- 4.73444769e-6;
- -8.29914570e-9;
- 1.58785330e-11];
-
-gb = [ 3.37077588e-3;
- 6.62769080e-6;
- 1.78718601e-8;
- 5.49266312e-11];
-
-gtu = [ 8.41275991e-4;
- 7.67306686e-7;
- 1.21291230e-9;
- 2.48508228e-12];
-
-utg = [-8.41276339e-4;
- -5.95619298e-8;
- -1.69485209e-10;
- -2.20473896e-13];
-
-% Ellipsoidal latitude, longitude to spherical latitude, longitude
-neg_geo = 'FALSE';
-
-if B < 0
- neg_geo = 'TRUE ';
-end
-
-Bg_r = abs(B);
-[res_clensin] = clsin(bg, 4, 2*Bg_r);
-Bg_r = Bg_r + res_clensin;
-L0 = L0*pi / 180;
-Lg_r = L - L0;
-
-% Spherical latitude, longitude to complementary spherical latitude
-% i.e. spherical N, E
-cos_BN = cos(Bg_r);
-Np = atan2(sin(Bg_r), cos(Lg_r)*cos_BN);
-Ep = atanh(sin(Lg_r) * cos_BN);
-
-%Spherical normalized N, E to ellipsoidal N, E
-Np = 2 * Np;
-Ep = 2 * Ep;
-[dN, dE] = clksin(gtu, 4, Np, Ep);
-Np = Np/2;
-Ep = Ep/2;
-Np = Np + dN;
-Ep = Ep + dE;
-N = Q_n * Np;
-E = Q_n*Ep + E0;
-
-if neg_geo == 'TRUE '
- N = -N + 20000000;
-end;
-
+function [E, N, U] = cart2utm(X, Y, Z, zone)
+% CART2UTM Transformation of (X,Y,Z) to (N,E,U) in UTM, zone 'zone'.
+%
+% [E, N, U] = cart2utm(X, Y, Z, zone);
+%
+% Inputs:
+% X,Y,Z - Cartesian coordinates. Coordinates are referenced
+% with respect to the International Terrestrial Reference
+% Frame 1996 (ITRF96)
+% zone - UTM zone of the given position
+%
+% Outputs:
+% E, N, U - UTM coordinates (Easting, Northing, Uping)
+
+% Kai Borre -11-1994
+% Copyright (c) by Kai Borre
+
+% This implementation is based upon
+% O. Andersson & K. Poder (1981) Koordinattransformationer
+% ved Geod\ae{}tisk Institut. Landinspekt\oe{}ren
+% Vol. 30: 552--571 and Vol. 31: 76
+%
+% An excellent, general reference (KW) is
+% R. Koenig & K.H. Weise (1951) Mathematische Grundlagen der
+% h\"oheren Geod\"asie und Kartographie.
+% Erster Band, Springer Verlag
+
+% Explanation of variables used:
+% f flattening of ellipsoid
+% a semi major axis in m
+% m0 1 - scale at central meridian; for UTM 0.0004
+% Q_n normalized meridian quadrant
+% E0 Easting of central meridian
+% L0 Longitude of central meridian
+% bg constants for ellipsoidal geogr. to spherical geogr.
+% gb constants for spherical geogr. to ellipsoidal geogr.
+% gtu constants for ellipsoidal N, E to spherical N, E
+% utg constants for spherical N, E to ellipoidal N, E
+% tolutm tolerance for utm, 1.2E-10*meridian quadrant
+% tolgeo tolerance for geographical, 0.00040 second of arc
+
+% B, L refer to latitude and longitude. Southern latitude is negative
+% International ellipsoid of 1924, valid for ED50
+
+a = 6378388;
+f = 1/297;
+ex2 = (2-f)*f / ((1-f)^2);
+c = a * sqrt(1+ex2);
+vec = [X; Y; Z-4.5];
+alpha = .756e-6;
+R = [ 1 -alpha 0;
+ alpha 1 0;
+ 0 0 1];
+trans = [89.5; 93.8; 127.6];
+scale = 0.9999988;
+v = scale*R*vec + trans; % coordinate vector in ED50
+L = atan2(v(2), v(1));
+N1 = 6395000; % preliminary value
+B = atan2(v(3)/((1-f)^2*N1), norm(v(1:2))/N1); % preliminary value
+U = 0.1; oldU = 0;
+
+iterations = 0;
+while abs(U-oldU) > 1.e-4
+ oldU = U;
+ N1 = c/sqrt(1+ex2*(cos(B))^2);
+ B = atan2(v(3)/((1-f)^2*N1+U), norm(v(1:2))/(N1+U) );
+ U = norm(v(1:2))/cos(B)-N1;
+
+ iterations = iterations + 1;
+ if iterations > 100
+ fprintf('Failed to approximate U with desired precision. U-oldU: %e.\n', U-oldU);
+ break;
+ end
+end
+
+% Normalized meridian quadrant, KW p. 50 (96), p. 19 (38b), p. 5 (21)
+m0 = 0.0004;
+n = f / (2-f);
+m = n^2 * (1/4 + n*n/64);
+w = (a*(-n-m0+m*(1-m0))) / (1+n);
+Q_n = a + w;
+
+% Easting and longitude of central meridian
+E0 = 500000;
+L0 = (zone-30)*6 - 3;
+
+% Check tolerance for reverse transformation
+tolutm = pi/2 * 1.2e-10 * Q_n;
+tolgeo = 0.000040;
+
+% Coefficients of trigonometric series
+
+% ellipsoidal to spherical geographical, KW p. 186--187, (51)-(52)
+% bg[1] = n*(-2 + n*(2/3 + n*(4/3 + n*(-82/45))));
+% bg[2] = n^2*(5/3 + n*(-16/15 + n*(-13/9)));
+% bg[3] = n^3*(-26/15 + n*34/21);
+% bg[4] = n^4*1237/630;
+
+% spherical to ellipsoidal geographical, KW p. 190--191, (61)-(62)
+% gb[1] = n*(2 + n*(-2/3 + n*(-2 + n*116/45)));
+% gb[2] = n^2*(7/3 + n*(-8/5 + n*(-227/45)));
+% gb[3] = n^3*(56/15 + n*(-136/35));
+% gb[4] = n^4*4279/630;
+
+% spherical to ellipsoidal N, E, KW p. 196, (69)
+% gtu[1] = n*(1/2 + n*(-2/3 + n*(5/16 + n*41/180)));
+% gtu[2] = n^2*(13/48 + n*(-3/5 + n*557/1440));
+% gtu[3] = n^3*(61/240 + n*(-103/140));
+% gtu[4] = n^4*49561/161280;
+
+% ellipsoidal to spherical N, E, KW p. 194, (65)
+% utg[1] = n*(-1/2 + n*(2/3 + n*(-37/96 + n*1/360)));
+% utg[2] = n^2*(-1/48 + n*(-1/15 + n*437/1440));
+% utg[3] = n^3*(-17/480 + n*37/840);
+% utg[4] = n^4*(-4397/161280);
+
+% With f = 1/297 we get
+
+bg = [-3.37077907e-3;
+ 4.73444769e-6;
+ -8.29914570e-9;
+ 1.58785330e-11];
+
+gb = [ 3.37077588e-3;
+ 6.62769080e-6;
+ 1.78718601e-8;
+ 5.49266312e-11];
+
+gtu = [ 8.41275991e-4;
+ 7.67306686e-7;
+ 1.21291230e-9;
+ 2.48508228e-12];
+
+utg = [-8.41276339e-4;
+ -5.95619298e-8;
+ -1.69485209e-10;
+ -2.20473896e-13];
+
+% Ellipsoidal latitude, longitude to spherical latitude, longitude
+neg_geo = 'FALSE';
+
+if B < 0
+ neg_geo = 'TRUE ';
+end
+
+Bg_r = abs(B);
+[res_clensin] = clsin(bg, 4, 2*Bg_r);
+Bg_r = Bg_r + res_clensin;
+L0 = L0*pi / 180;
+Lg_r = L - L0;
+
+% Spherical latitude, longitude to complementary spherical latitude
+% i.e. spherical N, E
+cos_BN = cos(Bg_r);
+Np = atan2(sin(Bg_r), cos(Lg_r)*cos_BN);
+Ep = atanh(sin(Lg_r) * cos_BN);
+
+%Spherical normalized N, E to ellipsoidal N, E
+Np = 2 * Np;
+Ep = 2 * Ep;
+[dN, dE] = clksin(gtu, 4, Np, Ep);
+Np = Np/2;
+Ep = Ep/2;
+Np = Np + dN;
+Ep = Ep + dE;
+N = Q_n * Np;
+E = Q_n*Ep + E0;
+
+if neg_geo == 'TRUE '
+ N = -N + 20000000;
+end;
+
%%%%%%%%%%%%%%%%%%%% end cart2utm.m %%%%%%%%%%%%%%%%%%%%
\ No newline at end of file
diff --git a/src/utils/matlab/libs/geoFunctions/check_t.m b/src/utils/matlab/libs/geoFunctions/check_t.m
index 5c3cb6148..1b3ed323c 100644
--- a/src/utils/matlab/libs/geoFunctions/check_t.m
+++ b/src/utils/matlab/libs/geoFunctions/check_t.m
@@ -1,26 +1,26 @@
-function corrTime = check_t(time)
-% CHECK_T accounting for beginning or end of week crossover.
-%
-% corrTime = check_t(time);
-%
-% Inputs:
-% time - time in seconds
-%
-% Outputs:
-% corrTime - corrected time (seconds)
-
-% Kai Borre 04-01-96
-% Copyright (c) by Kai Borre
-%==========================================================================
-
-half_week = 302400; % seconds
-
-corrTime = time;
-
-if time > half_week
- corrTime = time - 2*half_week;
-elseif time < -half_week
- corrTime = time + 2*half_week;
+function corrTime = check_t(time)
+% CHECK_T accounting for beginning or end of week crossover.
+%
+% corrTime = check_t(time);
+%
+% Inputs:
+% time - time in seconds
+%
+% Outputs:
+% corrTime - corrected time (seconds)
+
+% Kai Borre 04-01-96
+% Copyright (c) by Kai Borre
+%==========================================================================
+
+half_week = 302400; % seconds
+
+corrTime = time;
+
+if time > half_week
+ corrTime = time - 2*half_week;
+elseif time < -half_week
+ corrTime = time + 2*half_week;
end
-
-%%%%%%% end check_t.m %%%%%%%%%%%%%%%%%
+
+%%%%%%% end check_t.m %%%%%%%%%%%%%%%%%
diff --git a/src/utils/matlab/libs/geoFunctions/clksin.m b/src/utils/matlab/libs/geoFunctions/clksin.m
index 99a16331e..f6f600c19 100644
--- a/src/utils/matlab/libs/geoFunctions/clksin.m
+++ b/src/utils/matlab/libs/geoFunctions/clksin.m
@@ -1,36 +1,36 @@
-function [re, im] = clksin(ar, degree, arg_real, arg_imag)
-% Clenshaw summation of sinus with complex argument
-% [re, im] = clksin(ar, degree, arg_real, arg_imag);
-
-% Written by Kai Borre
-% December 20, 1995
-%
-% See also WGS2UTM or CART2UTM
-%
-%==========================================================================
-
-sin_arg_r = sin(arg_real);
-cos_arg_r = cos(arg_real);
-sinh_arg_i = sinh(arg_imag);
-cosh_arg_i = cosh(arg_imag);
-
-r = 2 * cos_arg_r * cosh_arg_i;
-i =-2 * sin_arg_r * sinh_arg_i;
-
-hr1 = 0; hr = 0; hi1 = 0; hi = 0;
-
-for t = degree : -1 : 1
- hr2 = hr1;
- hr1 = hr;
- hi2 = hi1;
- hi1 = hi;
- z = ar(t) + r*hr1 - i*hi - hr2;
- hi = i*hr1 + r*hi1 - hi2;
- hr = z;
-end
-
-r = sin_arg_r * cosh_arg_i;
-i = cos_arg_r * sinh_arg_i;
-
-re = r*hr - i*hi;
-im = r*hi + i*hr;
+function [re, im] = clksin(ar, degree, arg_real, arg_imag)
+% Clenshaw summation of sinus with complex argument
+% [re, im] = clksin(ar, degree, arg_real, arg_imag);
+
+% Written by Kai Borre
+% December 20, 1995
+%
+% See also WGS2UTM or CART2UTM
+%
+%==========================================================================
+
+sin_arg_r = sin(arg_real);
+cos_arg_r = cos(arg_real);
+sinh_arg_i = sinh(arg_imag);
+cosh_arg_i = cosh(arg_imag);
+
+r = 2 * cos_arg_r * cosh_arg_i;
+i =-2 * sin_arg_r * sinh_arg_i;
+
+hr1 = 0; hr = 0; hi1 = 0; hi = 0;
+
+for t = degree : -1 : 1
+ hr2 = hr1;
+ hr1 = hr;
+ hi2 = hi1;
+ hi1 = hi;
+ z = ar(t) + r*hr1 - i*hi - hr2;
+ hi = i*hr1 + r*hi1 - hi2;
+ hr = z;
+end
+
+r = sin_arg_r * cosh_arg_i;
+i = cos_arg_r * sinh_arg_i;
+
+re = r*hr - i*hi;
+im = r*hi + i*hr;
diff --git a/src/utils/matlab/libs/geoFunctions/clsin.m b/src/utils/matlab/libs/geoFunctions/clsin.m
index 15b6d5b7b..46cf32524 100644
--- a/src/utils/matlab/libs/geoFunctions/clsin.m
+++ b/src/utils/matlab/libs/geoFunctions/clsin.m
@@ -1,24 +1,24 @@
-function result = clsin(ar, degree, argument)
-% Clenshaw summation of sinus of argument.
-%
-% result = clsin(ar, degree, argument);
-
-% Written by Kai Borre
-% December 20, 1995
-%
-% See also WGS2UTM or CART2UTM
-%==========================================================================
-
-cos_arg = 2 * cos(argument);
-hr1 = 0;
-hr = 0;
-
-for t = degree : -1 : 1
- hr2 = hr1;
- hr1 = hr;
- hr = ar(t) + cos_arg*hr1 - hr2;
-end
-
+function result = clsin(ar, degree, argument)
+% Clenshaw summation of sinus of argument.
+%
+% result = clsin(ar, degree, argument);
+
+% Written by Kai Borre
+% December 20, 1995
+%
+% See also WGS2UTM or CART2UTM
+%==========================================================================
+
+cos_arg = 2 * cos(argument);
+hr1 = 0;
+hr = 0;
+
+for t = degree : -1 : 1
+ hr2 = hr1;
+ hr1 = hr;
+ hr = ar(t) + cos_arg*hr1 - hr2;
+end
+
result = hr * sin(argument);
-
-%%%%%%%%%%%%%%%%%%%%%%% end clsin.m %%%%%%%%%%%%%%%%%%%%%
+
+%%%%%%%%%%%%%%%%%%%%%%% end clsin.m %%%%%%%%%%%%%%%%%%%%%
diff --git a/src/utils/matlab/libs/geoFunctions/deg2dms.m b/src/utils/matlab/libs/geoFunctions/deg2dms.m
index c7fc195df..1f925894d 100644
--- a/src/utils/matlab/libs/geoFunctions/deg2dms.m
+++ b/src/utils/matlab/libs/geoFunctions/deg2dms.m
@@ -1,43 +1,43 @@
-function dmsOutput = deg2dms(deg)
-% DEG2DMS Conversion of degrees to degrees, minutes, and seconds.
-% The output format (dms format) is: (degrees*100 + minutes + seconds/100)
-
-% Written by Kai Borre
-% February 7, 2001
-% Updated by Darius Plausinaitis
-
-%%% Save the sign for later processing
-neg_arg = false;
-if deg < 0
- % Only positive numbers should be used while spliting into deg/min/sec
- deg = -deg;
- neg_arg = true;
-end
-
-%%% Split degrees minutes and seconds
-int_deg = floor(deg);
-decimal = deg - int_deg;
-min_part = decimal*60;
-min = floor(min_part);
-sec_part = min_part - floor(min_part);
-sec = sec_part*60;
-
-%%% Check for overflow
-if sec == 60
- min = min + 1;
- sec = 0;
-end
-if min == 60
- int_deg = int_deg + 1;
- min = 0;
-end
-
-%%% Construct the output
-dmsOutput = int_deg * 100 + min + sec/100;
-
-%%% Correct the sign
-if neg_arg == true
- dmsOutput = -dmsOutput;
-end
-
-%%%%%%%%%%%%%%%%%%% end deg2dms.m %%%%%%%%%%%%%%%%
+function dmsOutput = deg2dms(deg)
+% DEG2DMS Conversion of degrees to degrees, minutes, and seconds.
+% The output format (dms format) is: (degrees*100 + minutes + seconds/100)
+
+% Written by Kai Borre
+% February 7, 2001
+% Updated by Darius Plausinaitis
+
+%%% Save the sign for later processing
+neg_arg = false;
+if deg < 0
+ % Only positive numbers should be used while spliting into deg/min/sec
+ deg = -deg;
+ neg_arg = true;
+end
+
+%%% Split degrees minutes and seconds
+int_deg = floor(deg);
+decimal = deg - int_deg;
+min_part = decimal*60;
+min = floor(min_part);
+sec_part = min_part - floor(min_part);
+sec = sec_part*60;
+
+%%% Check for overflow
+if sec == 60
+ min = min + 1;
+ sec = 0;
+end
+if min == 60
+ int_deg = int_deg + 1;
+ min = 0;
+end
+
+%%% Construct the output
+dmsOutput = int_deg * 100 + min + sec/100;
+
+%%% Correct the sign
+if neg_arg == true
+ dmsOutput = -dmsOutput;
+end
+
+%%%%%%%%%%%%%%%%%%% end deg2dms.m %%%%%%%%%%%%%%%%
diff --git a/src/utils/matlab/libs/geoFunctions/dms2deg.m b/src/utils/matlab/libs/geoFunctions/dms2deg.m
index 1b4420dd0..a8e99f9a6 100644
--- a/src/utils/matlab/libs/geoFunctions/dms2deg.m
+++ b/src/utils/matlab/libs/geoFunctions/dms2deg.m
@@ -1,12 +1,12 @@
-
-function deg = dms2deg(dms)
-% DMS2DEG Conversion of degrees, minutes, and seconds to degrees.
-
-% Written by Javier Arribas 2011
-% December 7, 2011
-
-%if (dms(1)>=0)
-deg=dms(1)+dms(2)/60+dms(3)/3600;
-%else
-%deg=dms(1)-dms(2)/60-dms(3)/3600;
-%end
+
+function deg = dms2deg(dms)
+% DMS2DEG Conversion of degrees, minutes, and seconds to degrees.
+
+% Written by Javier Arribas 2011
+% December 7, 2011
+
+%if (dms(1)>=0)
+deg=dms(1)+dms(2)/60+dms(3)/3600;
+%else
+%deg=dms(1)-dms(2)/60-dms(3)/3600;
+%end
diff --git a/src/utils/matlab/libs/geoFunctions/dms2mat.m b/src/utils/matlab/libs/geoFunctions/dms2mat.m
index a7d5b7023..a82b60ccc 100644
--- a/src/utils/matlab/libs/geoFunctions/dms2mat.m
+++ b/src/utils/matlab/libs/geoFunctions/dms2mat.m
@@ -1,104 +1,104 @@
-function [dout,mout,sout] = dms2mat(dms,n)
-
-% DMS2MAT Converts a dms vector format to a [deg min sec] matrix
-%
-% [d,m,s] = DMS2MAT(dms) converts a dms vector format to a
-% deg:min:sec matrix. The vector format is dms = 100*deg + min + sec/100.
-% This allows compressed dms data to be expanded to a d,m,s triple,
-% for easier reporting and viewing of the data.
-%
-% [d,m,s] = DMS2MAT(dms,n) uses n digits in the accuracy of the
-% seconds calculation. n = -2 uses accuracy in the hundredths position,
-% n = 0 uses accuracy in the units position. Default is n = -5.
-% For further discussion of the input n, see ROUNDN.
-%
-% mat = DMS2MAT(...) returns a single output argument of mat = [d m s].
-% This is useful only if the input dms is a single column vector.
-%
-% See also MAT2DMS
-
-% Copyright 1996-2002 Systems Planning and Analysis, Inc. and The MathWorks, Inc.
-% Written by: E. Byrns, E. Brown
-% Revision: 1.10 $Date: 2002/03/20 21:25:06
-
-
-if nargin == 0
- error('Incorrect number of arguments')
-elseif nargin == 1
- n = -5;
-end
-
-% Test for empty arguments
-
-if isempty(dms); dout = []; mout = []; sout = []; return; end
-
-% Test for complex arguments
-
-if ~isreal(dms)
- warning('Imaginary parts of complex ANGLE argument ignored')
- dms = real(dms);
-end
-
-% Don't let seconds be rounded beyond the tens place.
-% If you did, then 55 seconds rounds to 100, which is not good.
-
-if n == 2; n = 1; end
-
-% Construct a sign vector which has +1 when dms >= 0 and -1 when dms < 0.
-
-signvec = sign(dms);
-signvec = signvec + (signvec == 0); % Ensure +1 when dms = 0
-
-% Decompress the dms data vector
-
-dms = abs(dms);
-d = fix(dms/100); % Degrees
-m = fix(dms) - abs(100*d); % Minutes
-[s,msg] = roundn(100*rem(dms,1),n); % Seconds: Truncate to roundoff error
-if ~isempty(msg); error(msg); end
-
-% Adjust for 60 seconds or 60 minutes.
-% Test for seconds > 60 to allow for round-off from roundn,
-% Test for minutes > 60 as a ripple effect from seconds > 60
-
-
-indx = find(s >= 60);
-if ~isempty(indx); m(indx) = m(indx) + 1; s(indx) = s(indx) - 60; end
-indx = find(m >= 60);
-if ~isempty(indx); d(indx) = d(indx) + 1; m(indx) = m(indx) - 60; end
-
-% Data consistency checks
-
-if any(m > 59) | any (m < 0)
- error('Minutes must be >= 0 and <= 59')
-
-elseif any(s >= 60) | any( s < 0)
- error('Seconds must be >= 0 and < 60')
-end
-
-% Determine where to store the sign of the angle. It should be
-% associated with the largest nonzero component of d:m:s.
-
-dsign = signvec .* (d~=0);
-msign = signvec .* (d==0 & m~=0);
-ssign = signvec .* (d==0 & m==0 & s~=0);
-
-% In the application of signs below, the comparison with 0 is used so that
-% the sign vector contains only +1 and -1. Any zero occurances causes
-% data to be lost when the sign has been applied to a higher component
-% of d:m:s. Use fix function to eliminate potential round-off errors.
-
-d = ((dsign==0) + dsign).*fix(d); % Apply signs to the degrees
-m = ((msign==0) + msign).*fix(m); % Apply signs to minutes
-s = ((ssign==0) + ssign).*s; % Apply signs to seconds
-
-% Set the output arguments
-
-if nargout <= 1
- dout = [d m s];
-elseif nargout == 3
- dout = d; mout = m; sout = s;
-else
- error('Invalid number of output arguments')
-end
-
+function [dout,mout,sout] = dms2mat(dms,n)
+
+% DMS2MAT Converts a dms vector format to a [deg min sec] matrix
+%
+% [d,m,s] = DMS2MAT(dms) converts a dms vector format to a
+% deg:min:sec matrix. The vector format is dms = 100*deg + min + sec/100.
+% This allows compressed dms data to be expanded to a d,m,s triple,
+% for easier reporting and viewing of the data.
+%
+% [d,m,s] = DMS2MAT(dms,n) uses n digits in the accuracy of the
+% seconds calculation. n = -2 uses accuracy in the hundredths position,
+% n = 0 uses accuracy in the units position. Default is n = -5.
+% For further discussion of the input n, see ROUNDN.
+%
+% mat = DMS2MAT(...) returns a single output argument of mat = [d m s].
+% This is useful only if the input dms is a single column vector.
+%
+% See also MAT2DMS
+
+% Copyright 1996-2002 Systems Planning and Analysis, Inc. and The MathWorks, Inc.
+% Written by: E. Byrns, E. Brown
+% Revision: 1.10 $Date: 2002/03/20 21:25:06
+
+
+if nargin == 0
+ error('Incorrect number of arguments')
+elseif nargin == 1
+ n = -5;
+end
+
+% Test for empty arguments
+
+if isempty(dms); dout = []; mout = []; sout = []; return; end
+
+% Test for complex arguments
+
+if ~isreal(dms)
+ warning('Imaginary parts of complex ANGLE argument ignored')
+ dms = real(dms);
+end
+
+% Don't let seconds be rounded beyond the tens place.
+% If you did, then 55 seconds rounds to 100, which is not good.
+
+if n == 2; n = 1; end
+
+% Construct a sign vector which has +1 when dms >= 0 and -1 when dms < 0.
+
+signvec = sign(dms);
+signvec = signvec + (signvec == 0); % Ensure +1 when dms = 0
+
+% Decompress the dms data vector
+
+dms = abs(dms);
+d = fix(dms/100); % Degrees
+m = fix(dms) - abs(100*d); % Minutes
+[s,msg] = roundn(100*rem(dms,1),n); % Seconds: Truncate to roundoff error
+if ~isempty(msg); error(msg); end
+
+% Adjust for 60 seconds or 60 minutes.
+% Test for seconds > 60 to allow for round-off from roundn,
+% Test for minutes > 60 as a ripple effect from seconds > 60
+
+
+indx = find(s >= 60);
+if ~isempty(indx); m(indx) = m(indx) + 1; s(indx) = s(indx) - 60; end
+indx = find(m >= 60);
+if ~isempty(indx); d(indx) = d(indx) + 1; m(indx) = m(indx) - 60; end
+
+% Data consistency checks
+
+if any(m > 59) | any (m < 0)
+ error('Minutes must be >= 0 and <= 59')
+
+elseif any(s >= 60) | any( s < 0)
+ error('Seconds must be >= 0 and < 60')
+end
+
+% Determine where to store the sign of the angle. It should be
+% associated with the largest nonzero component of d:m:s.
+
+dsign = signvec .* (d~=0);
+msign = signvec .* (d==0 & m~=0);
+ssign = signvec .* (d==0 & m==0 & s~=0);
+
+% In the application of signs below, the comparison with 0 is used so that
+% the sign vector contains only +1 and -1. Any zero occurances causes
+% data to be lost when the sign has been applied to a higher component
+% of d:m:s. Use fix function to eliminate potential round-off errors.
+
+d = ((dsign==0) + dsign).*fix(d); % Apply signs to the degrees
+m = ((msign==0) + msign).*fix(m); % Apply signs to minutes
+s = ((ssign==0) + ssign).*s; % Apply signs to seconds
+
+% Set the output arguments
+
+if nargout <= 1
+ dout = [d m s];
+elseif nargout == 3
+ dout = d; mout = m; sout = s;
+else
+ error('Invalid number of output arguments')
+end
+
diff --git a/src/utils/matlab/libs/geoFunctions/e_r_corr.m b/src/utils/matlab/libs/geoFunctions/e_r_corr.m
index 4d93d9f2f..b668a714a 100644
--- a/src/utils/matlab/libs/geoFunctions/e_r_corr.m
+++ b/src/utils/matlab/libs/geoFunctions/e_r_corr.m
@@ -1,31 +1,31 @@
-function X_sat_rot = e_r_corr(traveltime, X_sat)
-% E_R_CORR Returns rotated satellite ECEF coordinates due to Earth
-% rotation during signal travel time
-%
-% X_sat_rot = e_r_corr(traveltime, X_sat);
-%
-% Inputs:
-% travelTime - signal travel time
-% X_sat - satellite's ECEF coordinates
-%
-% Outputs:
-% X_sat_rot - rotated satellite's coordinates (ECEF)
-
-% Written by Kai Borre
-% Copyright (c) by Kai Borre
-%==========================================================================
-
-Omegae_dot = 7.292115147e-5; % rad/sec
-
-%--- Find rotation angle --------------------------------------------------
-omegatau = Omegae_dot * traveltime;
-
-%--- Make a rotation matrix -----------------------------------------------
-R3 = [ cos(omegatau) sin(omegatau) 0;
- -sin(omegatau) cos(omegatau) 0;
- 0 0 1];
-
-%--- Do the rotation ------------------------------------------------------
-X_sat_rot = R3 * X_sat;
-
-%%%%%%%% end e_r_corr.m %%%%%%%%%%%%%%%%%%%%
+function X_sat_rot = e_r_corr(traveltime, X_sat)
+% E_R_CORR Returns rotated satellite ECEF coordinates due to Earth
+% rotation during signal travel time
+%
+% X_sat_rot = e_r_corr(traveltime, X_sat);
+%
+% Inputs:
+% travelTime - signal travel time
+% X_sat - satellite's ECEF coordinates
+%
+% Outputs:
+% X_sat_rot - rotated satellite's coordinates (ECEF)
+
+% Written by Kai Borre
+% Copyright (c) by Kai Borre
+%==========================================================================
+
+Omegae_dot = 7.292115147e-5; % rad/sec
+
+%--- Find rotation angle --------------------------------------------------
+omegatau = Omegae_dot * traveltime;
+
+%--- Make a rotation matrix -----------------------------------------------
+R3 = [ cos(omegatau) sin(omegatau) 0;
+ -sin(omegatau) cos(omegatau) 0;
+ 0 0 1];
+
+%--- Do the rotation ------------------------------------------------------
+X_sat_rot = R3 * X_sat;
+
+%%%%%%%% end e_r_corr.m %%%%%%%%%%%%%%%%%%%%
diff --git a/src/utils/matlab/libs/geoFunctions/findUtmZone.m b/src/utils/matlab/libs/geoFunctions/findUtmZone.m
index 1294c7837..e5717d635 100644
--- a/src/utils/matlab/libs/geoFunctions/findUtmZone.m
+++ b/src/utils/matlab/libs/geoFunctions/findUtmZone.m
@@ -1,69 +1,69 @@
-function utmZone = findUtmZone(latitude, longitude)
-% Function finds the UTM zone number for given longitude and latitude.
-% The longitude value must be between -180 (180 degree West) and 180 (180
-% degree East) degree. The latitude must be within -80 (80 degree South) and
-% 84 (84 degree North).
-%
-% utmZone = findUtmZone(latitude, longitude);
-%
-% Latitude and longitude must be in decimal degrees (e.g. 15.5 degrees not
-% 15 deg 30 min).
-
-%--------------------------------------------------------------------------
-% SoftGNSS v3.0
-%
-% Copyright (C) Darius Plausinaitis
-% Written by Darius Plausinaitis
-%--------------------------------------------------------------------------
-%This program is free software; you can redistribute it and/or
-%modify it under the terms of the GNU General Public License
-%as published by the Free Software Foundation; either version 2
-%of the License, or (at your option) any later version.
-%
-%This program is distributed in the hope that it will be useful,
-%but WITHOUT ANY WARRANTY; without even the implied warranty of
-%MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
-%GNU General Public License for more details.
-%
-%You should have received a copy of the GNU General Public License
-%along with this program; if not, write to the Free Software
-%Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301,
-%USA.
-%==========================================================================
-
-%% Check value bounds =====================================================
-
-if ((longitude > 180) || (longitude < -180))
- error('Longitude value exceeds limits (-180:180).');
-end
-
-if ((latitude > 84) || (latitude < -80))
- error('Latitude value exceeds limits (-80:84).');
-end
-
-%% Find zone ==============================================================
-
-% Start at 180 deg west = -180 deg
-
-utmZone = fix((180 + longitude)/ 6) + 1;
-
-%% Correct zone numbers for particular areas ==============================
-
-if (latitude > 72)
- % Corrections for zones 31 33 35 37
- if ((longitude >= 0) && (longitude < 9))
- utmZone = 31;
- elseif ((longitude >= 9) && (longitude < 21))
- utmZone = 33;
- elseif ((longitude >= 21) && (longitude < 33))
- utmZone = 35;
- elseif ((longitude >= 33) && (longitude < 42))
- utmZone = 37;
- end
-
-elseif ((latitude >= 56) && (latitude < 64))
- % Correction for zone 32
- if ((longitude >= 3) && (longitude < 12))
- utmZone = 32;
- end
-end
+function utmZone = findUtmZone(latitude, longitude)
+% Function finds the UTM zone number for given longitude and latitude.
+% The longitude value must be between -180 (180 degree West) and 180 (180
+% degree East) degree. The latitude must be within -80 (80 degree South) and
+% 84 (84 degree North).
+%
+% utmZone = findUtmZone(latitude, longitude);
+%
+% Latitude and longitude must be in decimal degrees (e.g. 15.5 degrees not
+% 15 deg 30 min).
+
+%--------------------------------------------------------------------------
+% SoftGNSS v3.0
+%
+% Copyright (C) Darius Plausinaitis
+% Written by Darius Plausinaitis
+%--------------------------------------------------------------------------
+%This program is free software; you can redistribute it and/or
+%modify it under the terms of the GNU General Public License
+%as published by the Free Software Foundation; either version 2
+%of the License, or (at your option) any later version.
+%
+%This program is distributed in the hope that it will be useful,
+%but WITHOUT ANY WARRANTY; without even the implied warranty of
+%MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
+%GNU General Public License for more details.
+%
+%You should have received a copy of the GNU General Public License
+%along with this program; if not, write to the Free Software
+%Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301,
+%USA.
+%==========================================================================
+
+%% Check value bounds =====================================================
+
+if ((longitude > 180) || (longitude < -180))
+ error('Longitude value exceeds limits (-180:180).');
+end
+
+if ((latitude > 84) || (latitude < -80))
+ error('Latitude value exceeds limits (-80:84).');
+end
+
+%% Find zone ==============================================================
+
+% Start at 180 deg west = -180 deg
+
+utmZone = fix((180 + longitude)/ 6) + 1;
+
+%% Correct zone numbers for particular areas ==============================
+
+if (latitude > 72)
+ % Corrections for zones 31 33 35 37
+ if ((longitude >= 0) && (longitude < 9))
+ utmZone = 31;
+ elseif ((longitude >= 9) && (longitude < 21))
+ utmZone = 33;
+ elseif ((longitude >= 21) && (longitude < 33))
+ utmZone = 35;
+ elseif ((longitude >= 33) && (longitude < 42))
+ utmZone = 37;
+ end
+
+elseif ((latitude >= 56) && (latitude < 64))
+ % Correction for zone 32
+ if ((longitude >= 3) && (longitude < 12))
+ utmZone = 32;
+ end
+end
diff --git a/src/utils/matlab/libs/geoFunctions/geo2cart.m b/src/utils/matlab/libs/geoFunctions/geo2cart.m
index 3297e966a..90cd6a10f 100644
--- a/src/utils/matlab/libs/geoFunctions/geo2cart.m
+++ b/src/utils/matlab/libs/geoFunctions/geo2cart.m
@@ -1,46 +1,46 @@
-function [X, Y, Z] = geo2cart(phi, lambda, h, i)
-% GEO2CART Conversion of geographical coordinates (phi, lambda, h) to
-% Cartesian coordinates (X, Y, Z).
-%
-% [X, Y, Z] = geo2cart(phi, lambda, h, i);
-%
-% Format for phi and lambda: [degrees minutes seconds].
-% h, X, Y, and Z are in meters.
-%
-% Choices i of Reference Ellipsoid
-% 1. International Ellipsoid 1924
-% 2. International Ellipsoid 1967
-% 3. World Geodetic System 1972
-% 4. Geodetic Reference System 1980
-% 5. World Geodetic System 1984
-%
-% Inputs:
-% phi - geocentric latitude (format [degrees minutes seconds])
-% lambda - geocentric longitude (format [degrees minutes seconds])
-% h - height
-% i - reference ellipsoid type
-%
-% Outputs:
-% X, Y, Z - Cartesian coordinates (meters)
-
-% Kai Borre 10-13-98
-% Copyright (c) by Kai Borre
-%==========================================================================
-
-b = phi(1) + phi(2)/60 + phi(3)/3600;
-b = b*pi / 180;
-l = lambda(1) + lambda(2)/60 + lambda(3)/3600;
-l = l*pi / 180;
-
-a = [6378388 6378160 6378135 6378137 6378137];
-f = [1/297 1/298.247 1/298.26 1/298.257222101 1/298.257223563];
-
-ex2 = (2-f(i))*f(i) / ((1-f(i))^2);
-c = a(i) * sqrt(1+ex2);
-N = c / sqrt(1 + ex2*cos(b)^2);
-
-X = (N+h) * cos(b) * cos(l);
-Y = (N+h) * cos(b) * sin(l);
+function [X, Y, Z] = geo2cart(phi, lambda, h, i)
+% GEO2CART Conversion of geographical coordinates (phi, lambda, h) to
+% Cartesian coordinates (X, Y, Z).
+%
+% [X, Y, Z] = geo2cart(phi, lambda, h, i);
+%
+% Format for phi and lambda: [degrees minutes seconds].
+% h, X, Y, and Z are in meters.
+%
+% Choices i of Reference Ellipsoid
+% 1. International Ellipsoid 1924
+% 2. International Ellipsoid 1967
+% 3. World Geodetic System 1972
+% 4. Geodetic Reference System 1980
+% 5. World Geodetic System 1984
+%
+% Inputs:
+% phi - geocentric latitude (format [degrees minutes seconds])
+% lambda - geocentric longitude (format [degrees minutes seconds])
+% h - height
+% i - reference ellipsoid type
+%
+% Outputs:
+% X, Y, Z - Cartesian coordinates (meters)
+
+% Kai Borre 10-13-98
+% Copyright (c) by Kai Borre
+%==========================================================================
+
+b = phi(1) + phi(2)/60 + phi(3)/3600;
+b = b*pi / 180;
+l = lambda(1) + lambda(2)/60 + lambda(3)/3600;
+l = l*pi / 180;
+
+a = [6378388 6378160 6378135 6378137 6378137];
+f = [1/297 1/298.247 1/298.26 1/298.257222101 1/298.257223563];
+
+ex2 = (2-f(i))*f(i) / ((1-f(i))^2);
+c = a(i) * sqrt(1+ex2);
+N = c / sqrt(1 + ex2*cos(b)^2);
+
+X = (N+h) * cos(b) * cos(l);
+Y = (N+h) * cos(b) * sin(l);
Z = ((1-f(i))^2*N + h) * sin(b);
-
-%%%%%%%%%%%%%% end geo2cart.m %%%%%%%%%%%%%%%%%%%%%%%%
+
+%%%%%%%%%%%%%% end geo2cart.m %%%%%%%%%%%%%%%%%%%%%%%%
diff --git a/src/utils/matlab/libs/geoFunctions/leastSquarePos.m b/src/utils/matlab/libs/geoFunctions/leastSquarePos.m
index 6f5c46f4f..dee7e2180 100644
--- a/src/utils/matlab/libs/geoFunctions/leastSquarePos.m
+++ b/src/utils/matlab/libs/geoFunctions/leastSquarePos.m
@@ -1,111 +1,111 @@
-function [pos, el, az, dop] = leastSquarePos(satpos, obs, settings)
-% Function calculates the Least Square Solution.
-%
-% [pos, el, az, dop] = leastSquarePos(satpos, obs, settings);
-%
-% Inputs:
-% satpos - Satellites positions (in ECEF system: [X; Y; Z;] -
-% one column per satellite)
-% obs - Observations - the pseudorange measurements to each
-% satellite:
-% (e.g. [20000000 21000000 .... .... .... .... ....])
-% settings - receiver settings
-%
-% Outputs:
-% pos - receiver position and receiver clock error
-% (in ECEF system: [X, Y, Z, dt])
-% el - Satellites elevation angles (degrees)
-% az - Satellites azimuth angles (degrees)
-% dop - Dilutions Of Precision ([GDOP PDOP HDOP VDOP TDOP])
-
-%--------------------------------------------------------------------------
-% SoftGNSS v3.0
-%--------------------------------------------------------------------------
-%Based on Kai Borre
-%Copyright (c) by Kai Borre
-%Updated by Darius Plausinaitis, Peter Rinder and Nicolaj Bertelsen
-%==========================================================================
-
-%=== Initialization =======================================================
-nmbOfIterations = 7;
-
-dtr = pi/180;
-pos = zeros(4, 1);
-X = satpos;
-nmbOfSatellites = size(satpos, 2);
-
-A = zeros(nmbOfSatellites, 4);
-omc = zeros(nmbOfSatellites, 1);
-az = zeros(1, nmbOfSatellites);
-el = az;
-
-%=== Iteratively find receiver position ===================================
-for iter = 1:nmbOfIterations
-
- for i = 1:nmbOfSatellites
- if iter == 1
- %--- Initialize variables at the first iteration --------------
- Rot_X = X(:, i);
- trop = 2;
- else
- %--- Update equations -----------------------------------------
- rho2 = (X(1, i) - pos(1))^2 + (X(2, i) - pos(2))^2 + ...
- (X(3, i) - pos(3))^2;
- traveltime = sqrt(rho2) / settings.c ;
-
- %--- Correct satellite position (do to earth rotation) --------
- Rot_X = e_r_corr(traveltime, X(:, i));
-
- %--- Find the elevation angel of the satellite ----------------
- [az(i), el(i), dist] = topocent(pos(1:3, :), Rot_X - pos(1:3, :));
-
- if (settings.useTropCorr == 1)
- %--- Calculate tropospheric correction --------------------
- trop = tropo(sin(el(i) * dtr), ...
- 0.0, 1013.0, 293.0, 50.0, 0.0, 0.0, 0.0);
- else
- % Do not calculate or apply the tropospheric corrections
- trop = 0;
- end
- end % if iter == 1 ... ... else
-
- %--- Apply the corrections ----------------------------------------
- omc(i) = (obs(i) - norm(Rot_X - pos(1:3), 'fro') - pos(4) - trop);
-
- %--- Construct the A matrix ---------------------------------------
- A(i, :) = [ (-(Rot_X(1) - pos(1))) / obs(i) ...
- (-(Rot_X(2) - pos(2))) / obs(i) ...
- (-(Rot_X(3) - pos(3))) / obs(i) ...
- 1 ];
- end % for i = 1:nmbOfSatellites
-
- % These lines allow the code to exit gracefully in case of any errors
- if rank(A) ~= 4
- pos = zeros(1, 4);
- return
- end
-
- %--- Find position update ---------------------------------------------
- x = A \ omc;
-
- %--- Apply position update --------------------------------------------
- pos = pos + x;
-
-end % for iter = 1:nmbOfIterations
-
-pos = pos';
-
-%=== Calculate Dilution Of Precision ======================================
-if nargout == 4
- %--- Initialize output ------------------------------------------------
- dop = zeros(1, 5);
-
- %--- Calculate DOP ----------------------------------------------------
- Q = inv(A'*A);
-
- dop(1) = sqrt(trace(Q)); % GDOP
- dop(2) = sqrt(Q(1,1) + Q(2,2) + Q(3,3)); % PDOP
- dop(3) = sqrt(Q(1,1) + Q(2,2)); % HDOP
- dop(4) = sqrt(Q(3,3)); % VDOP
- dop(5) = sqrt(Q(4,4)); % TDOP
-end
+function [pos, el, az, dop] = leastSquarePos(satpos, obs, settings)
+% Function calculates the Least Square Solution.
+%
+% [pos, el, az, dop] = leastSquarePos(satpos, obs, settings);
+%
+% Inputs:
+% satpos - Satellites positions (in ECEF system: [X; Y; Z;] -
+% one column per satellite)
+% obs - Observations - the pseudorange measurements to each
+% satellite:
+% (e.g. [20000000 21000000 .... .... .... .... ....])
+% settings - receiver settings
+%
+% Outputs:
+% pos - receiver position and receiver clock error
+% (in ECEF system: [X, Y, Z, dt])
+% el - Satellites elevation angles (degrees)
+% az - Satellites azimuth angles (degrees)
+% dop - Dilutions Of Precision ([GDOP PDOP HDOP VDOP TDOP])
+
+%--------------------------------------------------------------------------
+% SoftGNSS v3.0
+%--------------------------------------------------------------------------
+%Based on Kai Borre
+%Copyright (c) by Kai Borre
+%Updated by Darius Plausinaitis, Peter Rinder and Nicolaj Bertelsen
+%==========================================================================
+
+%=== Initialization =======================================================
+nmbOfIterations = 7;
+
+dtr = pi/180;
+pos = zeros(4, 1);
+X = satpos;
+nmbOfSatellites = size(satpos, 2);
+
+A = zeros(nmbOfSatellites, 4);
+omc = zeros(nmbOfSatellites, 1);
+az = zeros(1, nmbOfSatellites);
+el = az;
+
+%=== Iteratively find receiver position ===================================
+for iter = 1:nmbOfIterations
+
+ for i = 1:nmbOfSatellites
+ if iter == 1
+ %--- Initialize variables at the first iteration --------------
+ Rot_X = X(:, i);
+ trop = 2;
+ else
+ %--- Update equations -----------------------------------------
+ rho2 = (X(1, i) - pos(1))^2 + (X(2, i) - pos(2))^2 + ...
+ (X(3, i) - pos(3))^2;
+ traveltime = sqrt(rho2) / settings.c ;
+
+ %--- Correct satellite position (do to earth rotation) --------
+ Rot_X = e_r_corr(traveltime, X(:, i));
+
+ %--- Find the elevation angel of the satellite ----------------
+ [az(i), el(i), dist] = topocent(pos(1:3, :), Rot_X - pos(1:3, :));
+
+ if (settings.useTropCorr == 1)
+ %--- Calculate tropospheric correction --------------------
+ trop = tropo(sin(el(i) * dtr), ...
+ 0.0, 1013.0, 293.0, 50.0, 0.0, 0.0, 0.0);
+ else
+ % Do not calculate or apply the tropospheric corrections
+ trop = 0;
+ end
+ end % if iter == 1 ... ... else
+
+ %--- Apply the corrections ----------------------------------------
+ omc(i) = (obs(i) - norm(Rot_X - pos(1:3), 'fro') - pos(4) - trop);
+
+ %--- Construct the A matrix ---------------------------------------
+ A(i, :) = [ (-(Rot_X(1) - pos(1))) / obs(i) ...
+ (-(Rot_X(2) - pos(2))) / obs(i) ...
+ (-(Rot_X(3) - pos(3))) / obs(i) ...
+ 1 ];
+ end % for i = 1:nmbOfSatellites
+
+ % These lines allow the code to exit gracefully in case of any errors
+ if rank(A) ~= 4
+ pos = zeros(1, 4);
+ return
+ end
+
+ %--- Find position update ---------------------------------------------
+ x = A \ omc;
+
+ %--- Apply position update --------------------------------------------
+ pos = pos + x;
+
+end % for iter = 1:nmbOfIterations
+
+pos = pos';
+
+%=== Calculate Dilution Of Precision ======================================
+if nargout == 4
+ %--- Initialize output ------------------------------------------------
+ dop = zeros(1, 5);
+
+ %--- Calculate DOP ----------------------------------------------------
+ Q = inv(A'*A);
+
+ dop(1) = sqrt(trace(Q)); % GDOP
+ dop(2) = sqrt(Q(1,1) + Q(2,2) + Q(3,3)); % PDOP
+ dop(3) = sqrt(Q(1,1) + Q(2,2)); % HDOP
+ dop(4) = sqrt(Q(3,3)); % VDOP
+ dop(5) = sqrt(Q(4,4)); % TDOP
+end
diff --git a/src/utils/matlab/libs/geoFunctions/mat2dms.m b/src/utils/matlab/libs/geoFunctions/mat2dms.m
index 1c3787ab6..fad0eca81 100644
--- a/src/utils/matlab/libs/geoFunctions/mat2dms.m
+++ b/src/utils/matlab/libs/geoFunctions/mat2dms.m
@@ -1,124 +1,124 @@
-function dmsvec = mat2dms(d,m,s,n)
-% MAT2DMS Converts a [deg min sec] matrix to vector format
-%
-% dms = MAT2DMS(d,m,s) converts a deg:min:sec matrix into a vector
-% format. The vector format is dms = 100*deg + min + sec/100.
-% This allows d,m,s triple to be compressed into a single value,
-% which can then be employed similar to a degree or radian vector.
-% The inputs d, m and s must be of equal size. Minutes and
-% second must be between 0 and 60.
-%
-% dms = MAT2DMS(mat) assumes and input matrix of [d m s]. This is
-% useful only for single column vectors for d, m and s.
-%
-% dms = MAT2DMS(d,m) and dms = MAT2DMS([d m]) assume that seconds
-% are zero, s = 0.
-%
-% dms = MAT2DMS(d,m,s,n) uses n as the accuracy of the seconds
-% calculation. n = -2 uses accuracy in the hundredths position,
-% n = 0 uses accuracy in the units position. Default is n = -5.
-% For further discussion of the input n, see ROUNDN.
-%
-% See also DMS2MAT
-
-% Copyright 1996-2002 Systems Planning and Analysis, Inc. and The MathWorks, Inc.
-% Written by: E. Byrns, E. Brown
-% Revision: 1.10 Date: 2002/03/20 21:25:51
-
-
-if nargin == 0
- error('Incorrect number of arguments')
-
-elseif nargin==1
- if size(d,2)== 3
- s = d(:,3); m = d(:,2); d = d(:,1);
- elseif size(d,2)== 2
- m = d(:,2); d = d(:,1); s = zeros(size(d));
- elseif size(d,2) == 0
- d = []; m = []; s = [];
- else
- error('Single input matrices must be n-by-2 or n-by-3.');
- end
- n = -5;
-
-elseif nargin == 2
- s = zeros(size(d));
- n = -5;
-
-elseif nargin == 3
- n = -5;
-end
-
-% Test for empty arguments
-
-if isempty(d) & isempty(m) & isempty(s); dmsvec = []; return; end
-
-% Don't let seconds be rounded beyond the tens place.
-% If you did, then 55 seconds rounds to 100, which is not good.
-
-if n == 2; n = 1; end
-
-% Complex argument tests
-
-if any([~isreal(d) ~isreal(m) ~isreal(s)])
- warning('Imaginary parts of complex ANGLE argument ignored')
- d = real(d); m = real(m); s = real(s);
-end
-
-% Dimension and value tests
-
-if ~isequal(size(d),size(m),size(s))
- error('Inconsistent dimensions for input arguments')
-elseif any(rem(d(~isnan(d)),1) ~= 0 | rem(m(~isnan(m)),1) ~= 0)
- error('Degrees and minutes must be integers')
-end
-
-if any(abs(m) > 60) | any (abs(m) < 0) % Actually algorithm allows for
- error('Minutes must be >= 0 and < 60') % up to exactly 60 seconds or
- % 60 minutes, but the error message
-elseif any(abs(s) > 60) | any(abs(s) < 0) % doesn't reflect this so that angst
- error('Seconds must be >= 0 and < 60') % is minimized in the user docs
-end
-
-% Ensure that only one negative sign is present and at the correct location
-
-if any((s<0 & m<0) | (s<0 & d<0) | (m<0 & d<0) )
- error('Multiple negative entries in a DMS specification')
-elseif any((s<0 & (m~=0 | d~= 0)) | (m<0 & d~=0))
- error('Incorrect negative DMS specification')
-end
-
-% Construct a sign vector which has +1 when
-% angle >= 0 and -1 when angle < 0. Note that the sign of the
-% angle is associated with the largest nonzero component of d:m:s
-
-negvec = (d<0) | (m<0) | (s<0);
-signvec = ~negvec - negvec;
-
-% Convert to all positive numbers. Allows for easier
-% adjusting at 60 seconds and 60 minutes
-
-d = abs(d); m = abs(m); s = abs(s);
-
-% Truncate seconds to a specified accuracy to eliminate round-off errors
-
-[s,msg] = roundn(s,n);
-if ~isempty(msg); error(msg); end
-
-% Adjust for 60 seconds or 60 minutes. If s > 60, this can only be
-% from round-off during roundn since s > 60 is already tested above.
-% This round-off effect has happened though.
-
-indx = find(s >= 60);
-if ~isempty(indx); m(indx) = m(indx) + 1; s(indx) = 0; end
-
-% The user can not put minutes > 60 as input. However, the line
-% above may create minutes > 60 (since the user can put in m == 60),
-% thus, the test below includes the greater than condition.
-
-indx = find(m >= 60);
-if ~isempty(indx); d(indx) = d(indx) + 1; m(indx) = m(indx)-60; end
-
-% Construct the dms vector format
-
-dmsvec = signvec .* (100*d + m + s/100);
+function dmsvec = mat2dms(d,m,s,n)
+% MAT2DMS Converts a [deg min sec] matrix to vector format
+%
+% dms = MAT2DMS(d,m,s) converts a deg:min:sec matrix into a vector
+% format. The vector format is dms = 100*deg + min + sec/100.
+% This allows d,m,s triple to be compressed into a single value,
+% which can then be employed similar to a degree or radian vector.
+% The inputs d, m and s must be of equal size. Minutes and
+% second must be between 0 and 60.
+%
+% dms = MAT2DMS(mat) assumes and input matrix of [d m s]. This is
+% useful only for single column vectors for d, m and s.
+%
+% dms = MAT2DMS(d,m) and dms = MAT2DMS([d m]) assume that seconds
+% are zero, s = 0.
+%
+% dms = MAT2DMS(d,m,s,n) uses n as the accuracy of the seconds
+% calculation. n = -2 uses accuracy in the hundredths position,
+% n = 0 uses accuracy in the units position. Default is n = -5.
+% For further discussion of the input n, see ROUNDN.
+%
+% See also DMS2MAT
+
+% Copyright 1996-2002 Systems Planning and Analysis, Inc. and The MathWorks, Inc.
+% Written by: E. Byrns, E. Brown
+% Revision: 1.10 Date: 2002/03/20 21:25:51
+
+
+if nargin == 0
+ error('Incorrect number of arguments')
+
+elseif nargin==1
+ if size(d,2)== 3
+ s = d(:,3); m = d(:,2); d = d(:,1);
+ elseif size(d,2)== 2
+ m = d(:,2); d = d(:,1); s = zeros(size(d));
+ elseif size(d,2) == 0
+ d = []; m = []; s = [];
+ else
+ error('Single input matrices must be n-by-2 or n-by-3.');
+ end
+ n = -5;
+
+elseif nargin == 2
+ s = zeros(size(d));
+ n = -5;
+
+elseif nargin == 3
+ n = -5;
+end
+
+% Test for empty arguments
+
+if isempty(d) & isempty(m) & isempty(s); dmsvec = []; return; end
+
+% Don't let seconds be rounded beyond the tens place.
+% If you did, then 55 seconds rounds to 100, which is not good.
+
+if n == 2; n = 1; end
+
+% Complex argument tests
+
+if any([~isreal(d) ~isreal(m) ~isreal(s)])
+ warning('Imaginary parts of complex ANGLE argument ignored')
+ d = real(d); m = real(m); s = real(s);
+end
+
+% Dimension and value tests
+
+if ~isequal(size(d),size(m),size(s))
+ error('Inconsistent dimensions for input arguments')
+elseif any(rem(d(~isnan(d)),1) ~= 0 | rem(m(~isnan(m)),1) ~= 0)
+ error('Degrees and minutes must be integers')
+end
+
+if any(abs(m) > 60) | any (abs(m) < 0) % Actually algorithm allows for
+ error('Minutes must be >= 0 and < 60') % up to exactly 60 seconds or
+ % 60 minutes, but the error message
+elseif any(abs(s) > 60) | any(abs(s) < 0) % doesn't reflect this so that angst
+ error('Seconds must be >= 0 and < 60') % is minimized in the user docs
+end
+
+% Ensure that only one negative sign is present and at the correct location
+
+if any((s<0 & m<0) | (s<0 & d<0) | (m<0 & d<0) )
+ error('Multiple negative entries in a DMS specification')
+elseif any((s<0 & (m~=0 | d~= 0)) | (m<0 & d~=0))
+ error('Incorrect negative DMS specification')
+end
+
+% Construct a sign vector which has +1 when
+% angle >= 0 and -1 when angle < 0. Note that the sign of the
+% angle is associated with the largest nonzero component of d:m:s
+
+negvec = (d<0) | (m<0) | (s<0);
+signvec = ~negvec - negvec;
+
+% Convert to all positive numbers. Allows for easier
+% adjusting at 60 seconds and 60 minutes
+
+d = abs(d); m = abs(m); s = abs(s);
+
+% Truncate seconds to a specified accuracy to eliminate round-off errors
+
+[s,msg] = roundn(s,n);
+if ~isempty(msg); error(msg); end
+
+% Adjust for 60 seconds or 60 minutes. If s > 60, this can only be
+% from round-off during roundn since s > 60 is already tested above.
+% This round-off effect has happened though.
+
+indx = find(s >= 60);
+if ~isempty(indx); m(indx) = m(indx) + 1; s(indx) = 0; end
+
+% The user can not put minutes > 60 as input. However, the line
+% above may create minutes > 60 (since the user can put in m == 60),
+% thus, the test below includes the greater than condition.
+
+indx = find(m >= 60);
+if ~isempty(indx); d(indx) = d(indx) + 1; m(indx) = m(indx)-60; end
+
+% Construct the dms vector format
+
+dmsvec = signvec .* (100*d + m + s/100);
diff --git a/src/utils/matlab/libs/geoFunctions/roundn.m b/src/utils/matlab/libs/geoFunctions/roundn.m
index ef9c53f4c..ca2eb8998 100644
--- a/src/utils/matlab/libs/geoFunctions/roundn.m
+++ b/src/utils/matlab/libs/geoFunctions/roundn.m
@@ -1,46 +1,46 @@
-function [x,msg] = roundn(x,n)
-
-% ROUNDN Rounds input data at specified power of 10
-%
-% y = ROUNDN(x) rounds the input data x to the nearest hundredth.
-%
-% y = ROUNDN(x,n) rounds the input data x at the specified power
-% of tens position. For example, n = -2 rounds the input data to
-% the 10E-2 (hundredths) position.
-%
-% [y,msg] = ROUNDN(...) returns the text of any error condition
-% encountered in the output variable msg.
-%
-% See also ROUND
-
-% Copyright 1996-2002 Systems Planning and Analysis, Inc. and The MathWorks, Inc.
-% Written by: E. Byrns, E. Brown
-% Revision: 1.9 Date: 2002/03/20 21:26:19
-
-msg = []; % Initialize output
-
-if nargin == 0
- error('Incorrect number of arguments')
-elseif nargin == 1
- n = -2;
-end
-
-% Test for scalar n
-
-if max(size(n)) ~= 1
- msg = 'Scalar accuracy required';
- if nargout < 2; error(msg); end
- return
-elseif ~isreal(n)
- warning('Imaginary part of complex N argument ignored')
- n = real(n);
-end
-
-% Compute the exponential factors for rounding at specified
-% power of 10. Ensure that n is an integer.
-
-factors = 10 ^ (fix(-n));
-
-% Set the significant digits for the input data
-
-x = round(x * factors) / factors;
+function [x,msg] = roundn(x,n)
+
+% ROUNDN Rounds input data at specified power of 10
+%
+% y = ROUNDN(x) rounds the input data x to the nearest hundredth.
+%
+% y = ROUNDN(x,n) rounds the input data x at the specified power
+% of tens position. For example, n = -2 rounds the input data to
+% the 10E-2 (hundredths) position.
+%
+% [y,msg] = ROUNDN(...) returns the text of any error condition
+% encountered in the output variable msg.
+%
+% See also ROUND
+
+% Copyright 1996-2002 Systems Planning and Analysis, Inc. and The MathWorks, Inc.
+% Written by: E. Byrns, E. Brown
+% Revision: 1.9 Date: 2002/03/20 21:26:19
+
+msg = []; % Initialize output
+
+if nargin == 0
+ error('Incorrect number of arguments')
+elseif nargin == 1
+ n = -2;
+end
+
+% Test for scalar n
+
+if max(size(n)) ~= 1
+ msg = 'Scalar accuracy required';
+ if nargout < 2; error(msg); end
+ return
+elseif ~isreal(n)
+ warning('Imaginary part of complex N argument ignored')
+ n = real(n);
+end
+
+% Compute the exponential factors for rounding at specified
+% power of 10. Ensure that n is an integer.
+
+factors = 10 ^ (fix(-n));
+
+% Set the significant digits for the input data
+
+x = round(x * factors) / factors;
diff --git a/src/utils/matlab/libs/geoFunctions/satpos.m b/src/utils/matlab/libs/geoFunctions/satpos.m
index 11f4f101e..e359a5df1 100644
--- a/src/utils/matlab/libs/geoFunctions/satpos.m
+++ b/src/utils/matlab/libs/geoFunctions/satpos.m
@@ -1,138 +1,138 @@
-function [satPositions, satClkCorr] = satpos(transmitTime, prnList, ...
- eph, settings)
-% SATPOS Computation of satellite coordinates X,Y,Z at TRANSMITTIME for
-% given ephemeris EPH. Coordinates are computed for each satellite in the
-% list PRNLIST.
-%[ satPositions, satClkCorr] = satpos(transmitTime, prnList, eph, settings);
-%
-% Inputs:
-% transmitTime - transmission time
-% prnList - list of PRN-s to be processed
-% eph - ephemerides of satellites
-% settings - receiver settings
-%
-% Outputs:
-% satPositions - position of satellites (in ECEF system [X; Y; Z;])
-% satClkCorr - correction of satellite clocks
-
-%--------------------------------------------------------------------------
-% SoftGNSS v3.0
-%--------------------------------------------------------------------------
-% Based on Kai Borre 04-09-96
-% Copyright (c) by Kai Borre
-% Updated by Darius Plausinaitis, Peter Rinder and Nicolaj Bertelsen
-
-%% Initialize constants ===================================================
-numOfSatellites = size(prnList, 2);
-
-% GPS constatns
-
-gpsPi = 3.1415926535898; % Pi used in the GPS coordinate
-% system
-
-%--- Constants for satellite position calculation -------------------------
-Omegae_dot = 7.2921151467e-5; % Earth rotation rate, [rad/s]
-GM = 3.986005e14; % Universal gravitational constant times
-% the mass of the Earth, [m^3/s^2]
-F = -4.442807633e-10; % Constant, [sec/(meter)^(1/2)]
-
-%% Initialize results =====================================================
-satClkCorr = zeros(1, numOfSatellites);
-satPositions = zeros(3, numOfSatellites);
-
-%% Process each satellite =================================================
-
-for satNr = 1 : numOfSatellites
-
- prn = prnList(satNr);
-
- %% Find initial satellite clock correction --------------------------------
-
- %--- Find time difference ---------------------------------------------
- dt = check_t(transmitTime - eph(prn).t_oc);
-
- %--- Calculate clock correction ---------------------------------------
- satClkCorr(satNr) = (eph(prn).a_f2 * dt + eph(prn).a_f1) * dt + ...
- eph(prn).a_f0 - ...
- eph(prn).T_GD;
-
- time = transmitTime - satClkCorr(satNr);
-
- %% Find satellite's position ----------------------------------------------
-
- %Restore semi-major axis
- a = eph(prn).sqrtA * eph(prn).sqrtA;
-
- %Time correction
- tk = check_t(time - eph(prn).t_oe);
-
- %Initial mean motion
- n0 = sqrt(GM / a^3);
- %Mean motion
- n = n0 + eph(prn).deltan;
-
- %Mean anomaly
- M = eph(prn).M_0 + n * tk;
- %Reduce mean anomaly to between 0 and 360 deg
- M = rem(M + 2*gpsPi, 2*gpsPi);
-
- %Initial guess of eccentric anomaly
- E = M;
-
- %--- Iteratively compute eccentric anomaly ----------------------------
- for ii = 1:10
- E_old = E;
- E = M + eph(prn).e * sin(E);
- dE = rem(E - E_old, 2*gpsPi);
-
- if abs(dE) < 1.e-12
- % Necessary precision is reached, exit from the loop
- break;
- end
- end
-
- %Reduce eccentric anomaly to between 0 and 360 deg
- E = rem(E + 2*gpsPi, 2*gpsPi);
-
- %Compute relativistic correction term
- dtr = F * eph(prn).e * eph(prn).sqrtA * sin(E);
-
- %Calculate the true anomaly
- nu = atan2(sqrt(1 - eph(prn).e^2) * sin(E), cos(E)-eph(prn).e);
-
- %Compute angle phi
- phi = nu + eph(prn).omega;
- %Reduce phi to between 0 and 360 deg
- phi = rem(phi, 2*gpsPi);
-
- %Correct argument of latitude
- u = phi + ...
- eph(prn).C_uc * cos(2*phi) + ...
- eph(prn).C_us * sin(2*phi);
- %Correct radius
- r = a * (1 - eph(prn).e*cos(E)) + ...
- eph(prn).C_rc * cos(2*phi) + ...
- eph(prn).C_rs * sin(2*phi);
- %Correct inclination
- i = eph(prn).i_0 + eph(prn).iDot * tk + ...
- eph(prn).C_ic * cos(2*phi) + ...
- eph(prn).C_is * sin(2*phi);
-
- %Compute the angle between the ascending node and the Greenwich meridian
- Omega = eph(prn).omega_0 + (eph(prn).omegaDot - Omegae_dot)*tk - ...
- Omegae_dot * eph(prn).t_oe;
- %Reduce to between 0 and 360 deg
- Omega = rem(Omega + 2*gpsPi, 2*gpsPi);
-
- %--- Compute satellite coordinates ------------------------------------
- satPositions(1, satNr) = cos(u)*r * cos(Omega) - sin(u)*r * cos(i)*sin(Omega);
- satPositions(2, satNr) = cos(u)*r * sin(Omega) + sin(u)*r * cos(i)*cos(Omega);
- satPositions(3, satNr) = sin(u)*r * sin(i);
-
-
- %% Include relativistic correction in clock correction --------------------
- satClkCorr(satNr) = (eph(prn).a_f2 * dt + eph(prn).a_f1) * dt + ...
- eph(prn).a_f0 - ...
- eph(prn).T_GD + dtr;
-
-end % for satNr = 1 : numOfSatellites
+function [satPositions, satClkCorr] = satpos(transmitTime, prnList, ...
+ eph, settings)
+% SATPOS Computation of satellite coordinates X,Y,Z at TRANSMITTIME for
+% given ephemeris EPH. Coordinates are computed for each satellite in the
+% list PRNLIST.
+%[ satPositions, satClkCorr] = satpos(transmitTime, prnList, eph, settings);
+%
+% Inputs:
+% transmitTime - transmission time
+% prnList - list of PRN-s to be processed
+% eph - ephemerides of satellites
+% settings - receiver settings
+%
+% Outputs:
+% satPositions - position of satellites (in ECEF system [X; Y; Z;])
+% satClkCorr - correction of satellite clocks
+
+%--------------------------------------------------------------------------
+% SoftGNSS v3.0
+%--------------------------------------------------------------------------
+% Based on Kai Borre 04-09-96
+% Copyright (c) by Kai Borre
+% Updated by Darius Plausinaitis, Peter Rinder and Nicolaj Bertelsen
+
+%% Initialize constants ===================================================
+numOfSatellites = size(prnList, 2);
+
+% GPS constatns
+
+gpsPi = 3.1415926535898; % Pi used in the GPS coordinate
+% system
+
+%--- Constants for satellite position calculation -------------------------
+Omegae_dot = 7.2921151467e-5; % Earth rotation rate, [rad/s]
+GM = 3.986005e14; % Universal gravitational constant times
+% the mass of the Earth, [m^3/s^2]
+F = -4.442807633e-10; % Constant, [sec/(meter)^(1/2)]
+
+%% Initialize results =====================================================
+satClkCorr = zeros(1, numOfSatellites);
+satPositions = zeros(3, numOfSatellites);
+
+%% Process each satellite =================================================
+
+for satNr = 1 : numOfSatellites
+
+ prn = prnList(satNr);
+
+ %% Find initial satellite clock correction --------------------------------
+
+ %--- Find time difference ---------------------------------------------
+ dt = check_t(transmitTime - eph(prn).t_oc);
+
+ %--- Calculate clock correction ---------------------------------------
+ satClkCorr(satNr) = (eph(prn).a_f2 * dt + eph(prn).a_f1) * dt + ...
+ eph(prn).a_f0 - ...
+ eph(prn).T_GD;
+
+ time = transmitTime - satClkCorr(satNr);
+
+ %% Find satellite's position ----------------------------------------------
+
+ %Restore semi-major axis
+ a = eph(prn).sqrtA * eph(prn).sqrtA;
+
+ %Time correction
+ tk = check_t(time - eph(prn).t_oe);
+
+ %Initial mean motion
+ n0 = sqrt(GM / a^3);
+ %Mean motion
+ n = n0 + eph(prn).deltan;
+
+ %Mean anomaly
+ M = eph(prn).M_0 + n * tk;
+ %Reduce mean anomaly to between 0 and 360 deg
+ M = rem(M + 2*gpsPi, 2*gpsPi);
+
+ %Initial guess of eccentric anomaly
+ E = M;
+
+ %--- Iteratively compute eccentric anomaly ----------------------------
+ for ii = 1:10
+ E_old = E;
+ E = M + eph(prn).e * sin(E);
+ dE = rem(E - E_old, 2*gpsPi);
+
+ if abs(dE) < 1.e-12
+ % Necessary precision is reached, exit from the loop
+ break;
+ end
+ end
+
+ %Reduce eccentric anomaly to between 0 and 360 deg
+ E = rem(E + 2*gpsPi, 2*gpsPi);
+
+ %Compute relativistic correction term
+ dtr = F * eph(prn).e * eph(prn).sqrtA * sin(E);
+
+ %Calculate the true anomaly
+ nu = atan2(sqrt(1 - eph(prn).e^2) * sin(E), cos(E)-eph(prn).e);
+
+ %Compute angle phi
+ phi = nu + eph(prn).omega;
+ %Reduce phi to between 0 and 360 deg
+ phi = rem(phi, 2*gpsPi);
+
+ %Correct argument of latitude
+ u = phi + ...
+ eph(prn).C_uc * cos(2*phi) + ...
+ eph(prn).C_us * sin(2*phi);
+ %Correct radius
+ r = a * (1 - eph(prn).e*cos(E)) + ...
+ eph(prn).C_rc * cos(2*phi) + ...
+ eph(prn).C_rs * sin(2*phi);
+ %Correct inclination
+ i = eph(prn).i_0 + eph(prn).iDot * tk + ...
+ eph(prn).C_ic * cos(2*phi) + ...
+ eph(prn).C_is * sin(2*phi);
+
+ %Compute the angle between the ascending node and the Greenwich meridian
+ Omega = eph(prn).omega_0 + (eph(prn).omegaDot - Omegae_dot)*tk - ...
+ Omegae_dot * eph(prn).t_oe;
+ %Reduce to between 0 and 360 deg
+ Omega = rem(Omega + 2*gpsPi, 2*gpsPi);
+
+ %--- Compute satellite coordinates ------------------------------------
+ satPositions(1, satNr) = cos(u)*r * cos(Omega) - sin(u)*r * cos(i)*sin(Omega);
+ satPositions(2, satNr) = cos(u)*r * sin(Omega) + sin(u)*r * cos(i)*cos(Omega);
+ satPositions(3, satNr) = sin(u)*r * sin(i);
+
+
+ %% Include relativistic correction in clock correction --------------------
+ satClkCorr(satNr) = (eph(prn).a_f2 * dt + eph(prn).a_f1) * dt + ...
+ eph(prn).a_f0 - ...
+ eph(prn).T_GD + dtr;
+
+end % for satNr = 1 : numOfSatellites
diff --git a/src/utils/matlab/libs/geoFunctions/togeod.m b/src/utils/matlab/libs/geoFunctions/togeod.m
index 9f7812d41..b9d7bbb28 100644
--- a/src/utils/matlab/libs/geoFunctions/togeod.m
+++ b/src/utils/matlab/libs/geoFunctions/togeod.m
@@ -1,109 +1,109 @@
-function [dphi, dlambda, h] = togeod(a, finv, X, Y, Z)
-% TOGEOD Subroutine to calculate geodetic coordinates latitude, longitude,
-% height given Cartesian coordinates X,Y,Z, and reference ellipsoid
-% values semi-major axis (a) and the inverse of flattening (finv).
-%
-% [dphi, dlambda, h] = togeod(a, finv, X, Y, Z);
-%
-% The units of linear parameters X,Y,Z,a must all agree (m,km,mi,ft,..etc)
-% The output units of angular quantities will be in decimal degrees
-% (15.5 degrees not 15 deg 30 min). The output units of h will be the
-% same as the units of X,Y,Z,a.
-%
-% Inputs:
-% a - semi-major axis of the reference ellipsoid
-% finv - inverse of flattening of the reference ellipsoid
-% X,Y,Z - Cartesian coordinates
-%
-% Outputs:
-% dphi - latitude
-% dlambda - longitude
-% h - height above reference ellipsoid
-
-% Copyright (C) 1987 C. Goad, Columbus, Ohio
-% Reprinted with permission of author, 1996
-% Fortran code translated into MATLAB
-% Kai Borre 03-30-96
-%==========================================================================
-
-h = 0;
-tolsq = 1.e-10;
-maxit = 10;
-
-% compute radians-to-degree factor
-rtd = 180/pi;
-
-% compute square of eccentricity
-if finv < 1.e-20
- esq = 0;
-else
- esq = (2 - 1/finv) / finv;
-end
-
-oneesq = 1 - esq;
-
-% first guess
-% P is distance from spin axis
-P = sqrt(X^2+Y^2);
-% direct calculation of longitude
-
-if P > 1.e-20
- dlambda = atan2(Y,X) * rtd;
-else
- dlambda = 0;
-end
-
-if (dlambda < 0)
- dlambda = dlambda + 360;
-end
-
-% r is distance from origin (0,0,0)
-r = sqrt(P^2 + Z^2);
-
-if r > 1.e-20
- sinphi = Z/r;
-else
- sinphi = 0;
-end
-
-dphi = asin(sinphi);
-
-% initial value of height = distance from origin minus
-% approximate distance from origin to surface of ellipsoid
-if r < 1.e-20
- h = 0;
- return
-end
-
-h = r - a*(1-sinphi*sinphi/finv);
-
-% iterate
-for i = 1:maxit
- sinphi = sin(dphi);
- cosphi = cos(dphi);
-
- % compute radius of curvature in prime vertical direction
- N_phi = a/sqrt(1-esq*sinphi*sinphi);
-
- % compute residuals in P and Z
- dP = P - (N_phi + h) * cosphi;
- dZ = Z - (N_phi*oneesq + h) * sinphi;
-
- % update height and latitude
- h = h + (sinphi*dZ + cosphi*dP);
- dphi = dphi + (cosphi*dZ - sinphi*dP)/(N_phi + h);
-
- % test for convergence
- if (dP*dP + dZ*dZ < tolsq)
- break;
- end
-
- % Not Converged--Warn user
- if i == maxit
- fprintf([' Problem in TOGEOD, did not converge in %2.0f',...
- ' iterations\n'], i);
- end
-end % for i = 1:maxit
-
-dphi = dphi * rtd;
-%%%%%%%% end togeod.m %%%%%%%%%%%%%%%%%%%%%%
+function [dphi, dlambda, h] = togeod(a, finv, X, Y, Z)
+% TOGEOD Subroutine to calculate geodetic coordinates latitude, longitude,
+% height given Cartesian coordinates X,Y,Z, and reference ellipsoid
+% values semi-major axis (a) and the inverse of flattening (finv).
+%
+% [dphi, dlambda, h] = togeod(a, finv, X, Y, Z);
+%
+% The units of linear parameters X,Y,Z,a must all agree (m,km,mi,ft,..etc)
+% The output units of angular quantities will be in decimal degrees
+% (15.5 degrees not 15 deg 30 min). The output units of h will be the
+% same as the units of X,Y,Z,a.
+%
+% Inputs:
+% a - semi-major axis of the reference ellipsoid
+% finv - inverse of flattening of the reference ellipsoid
+% X,Y,Z - Cartesian coordinates
+%
+% Outputs:
+% dphi - latitude
+% dlambda - longitude
+% h - height above reference ellipsoid
+
+% Copyright (C) 1987 C. Goad, Columbus, Ohio
+% Reprinted with permission of author, 1996
+% Fortran code translated into MATLAB
+% Kai Borre 03-30-96
+%==========================================================================
+
+h = 0;
+tolsq = 1.e-10;
+maxit = 10;
+
+% compute radians-to-degree factor
+rtd = 180/pi;
+
+% compute square of eccentricity
+if finv < 1.e-20
+ esq = 0;
+else
+ esq = (2 - 1/finv) / finv;
+end
+
+oneesq = 1 - esq;
+
+% first guess
+% P is distance from spin axis
+P = sqrt(X^2+Y^2);
+% direct calculation of longitude
+
+if P > 1.e-20
+ dlambda = atan2(Y,X) * rtd;
+else
+ dlambda = 0;
+end
+
+if (dlambda < 0)
+ dlambda = dlambda + 360;
+end
+
+% r is distance from origin (0,0,0)
+r = sqrt(P^2 + Z^2);
+
+if r > 1.e-20
+ sinphi = Z/r;
+else
+ sinphi = 0;
+end
+
+dphi = asin(sinphi);
+
+% initial value of height = distance from origin minus
+% approximate distance from origin to surface of ellipsoid
+if r < 1.e-20
+ h = 0;
+ return
+end
+
+h = r - a*(1-sinphi*sinphi/finv);
+
+% iterate
+for i = 1:maxit
+ sinphi = sin(dphi);
+ cosphi = cos(dphi);
+
+ % compute radius of curvature in prime vertical direction
+ N_phi = a/sqrt(1-esq*sinphi*sinphi);
+
+ % compute residuals in P and Z
+ dP = P - (N_phi + h) * cosphi;
+ dZ = Z - (N_phi*oneesq + h) * sinphi;
+
+ % update height and latitude
+ h = h + (sinphi*dZ + cosphi*dP);
+ dphi = dphi + (cosphi*dZ - sinphi*dP)/(N_phi + h);
+
+ % test for convergence
+ if (dP*dP + dZ*dZ < tolsq)
+ break;
+ end
+
+ % Not Converged--Warn user
+ if i == maxit
+ fprintf([' Problem in TOGEOD, did not converge in %2.0f',...
+ ' iterations\n'], i);
+ end
+end % for i = 1:maxit
+
+dphi = dphi * rtd;
+%%%%%%%% end togeod.m %%%%%%%%%%%%%%%%%%%%%%
diff --git a/src/utils/matlab/libs/geoFunctions/topocent.m b/src/utils/matlab/libs/geoFunctions/topocent.m
index 7ec0aaede..723cb3dfb 100644
--- a/src/utils/matlab/libs/geoFunctions/topocent.m
+++ b/src/utils/matlab/libs/geoFunctions/topocent.m
@@ -1,54 +1,54 @@
-function [Az, El, D] = topocent(X, dx)
-% TOPOCENT Transformation of vector dx into topocentric coordinate
-% system with origin at X.
-% Both parameters are 3 by 1 vectors.
-%
-% [Az, El, D] = topocent(X, dx);
-%
-% Inputs:
-% X - vector origin corrdinates (in ECEF system [X; Y; Z;])
-% dx - vector ([dX; dY; dZ;]).
-%
-% Outputs:
-% D - vector length. Units like units of the input
-% Az - azimuth from north positive clockwise, degrees
-% El - elevation angle, degrees
-
-% Kai Borre 11-24-96
-% Copyright (c) by Kai Borre
-%==========================================================================
-
-dtr = pi/180;
-
-[phi, lambda, h] = togeod(6378137, 298.257223563, X(1), X(2), X(3));
-
-cl = cos(lambda * dtr);
-sl = sin(lambda * dtr);
-cb = cos(phi * dtr);
-sb = sin(phi * dtr);
-
-F = [-sl -sb*cl cb*cl;
- cl -sb*sl cb*sl;
- 0 cb sb];
-
-local_vector = F' * dx;
-E = local_vector(1);
-N = local_vector(2);
-U = local_vector(3);
-
-hor_dis = sqrt(E^2 + N^2);
-
-if hor_dis < 1.e-20
- Az = 0;
- El = 90;
-else
- Az = atan2(E, N)/dtr;
- El = atan2(U, hor_dis)/dtr;
-end
-
-if Az < 0
- Az = Az + 360;
-end
-
-D = sqrt(dx(1)^2 + dx(2)^2 + dx(3)^2);
-%%%%%%%%% end topocent.m %%%%%%%%%
+function [Az, El, D] = topocent(X, dx)
+% TOPOCENT Transformation of vector dx into topocentric coordinate
+% system with origin at X.
+% Both parameters are 3 by 1 vectors.
+%
+% [Az, El, D] = topocent(X, dx);
+%
+% Inputs:
+% X - vector origin corrdinates (in ECEF system [X; Y; Z;])
+% dx - vector ([dX; dY; dZ;]).
+%
+% Outputs:
+% D - vector length. Units like units of the input
+% Az - azimuth from north positive clockwise, degrees
+% El - elevation angle, degrees
+
+% Kai Borre 11-24-96
+% Copyright (c) by Kai Borre
+%==========================================================================
+
+dtr = pi/180;
+
+[phi, lambda, h] = togeod(6378137, 298.257223563, X(1), X(2), X(3));
+
+cl = cos(lambda * dtr);
+sl = sin(lambda * dtr);
+cb = cos(phi * dtr);
+sb = sin(phi * dtr);
+
+F = [-sl -sb*cl cb*cl;
+ cl -sb*sl cb*sl;
+ 0 cb sb];
+
+local_vector = F' * dx;
+E = local_vector(1);
+N = local_vector(2);
+U = local_vector(3);
+
+hor_dis = sqrt(E^2 + N^2);
+
+if hor_dis < 1.e-20
+ Az = 0;
+ El = 90;
+else
+ Az = atan2(E, N)/dtr;
+ El = atan2(U, hor_dis)/dtr;
+end
+
+if Az < 0
+ Az = Az + 360;
+end
+
+D = sqrt(dx(1)^2 + dx(2)^2 + dx(3)^2);
+%%%%%%%%% end topocent.m %%%%%%%%%
diff --git a/src/utils/matlab/libs/geoFunctions/tropo.m b/src/utils/matlab/libs/geoFunctions/tropo.m
index f0f08d218..4e1801aac 100644
--- a/src/utils/matlab/libs/geoFunctions/tropo.m
+++ b/src/utils/matlab/libs/geoFunctions/tropo.m
@@ -1,95 +1,95 @@
-function ddr = tropo(sinel, hsta, p, tkel, hum, hp, htkel, hhum)
-% TROPO Calculation of tropospheric correction.
-% The range correction ddr in m is to be subtracted from
-% pseudo-ranges and carrier phases
-%
-% ddr = tropo(sinel, hsta, p, tkel, hum, hp, htkel, hhum);
-%
-% Inputs:
-% sinel - sin of elevation angle of satellite
-% hsta - height of station in km
-% p - atmospheric pressure in mb at height hp
-% tkel - surface temperature in degrees Kelvin at height htkel
-% hum - humidity in % at height hhum
-% hp - height of pressure measurement in km
-% htkel - height of temperature measurement in km
-% hhum - height of humidity measurement in km
-%
-% Outputs:
-% ddr - range correction (meters)
-%
-% Reference
-% Goad, C.C. & Goodman, L. (1974) A Modified Tropospheric
-% Refraction Correction Model. Paper presented at the
-% American Geophysical Union Annual Fall Meeting, San
-% Francisco, December 12-17
-
-% A Matlab reimplementation of a C code from driver.
-% Kai Borre 06-28-95
-%==========================================================================
-
-a_e = 6378.137; % semi-major axis of earth ellipsoid
-b0 = 7.839257e-5;
-tlapse = -6.5;
-tkhum = tkel + tlapse*(hhum-htkel);
-atkel = 7.5*(tkhum-273.15) / (237.3+tkhum-273.15);
-e0 = 0.0611 * hum * 10^atkel;
-tksea = tkel - tlapse*htkel;
-em = -978.77 / (2.8704e6*tlapse*1.0e-5);
-tkelh = tksea + tlapse*hhum;
-e0sea = e0 * (tksea/tkelh)^(4*em);
-tkelp = tksea + tlapse*hp;
-psea = p * (tksea/tkelp)^em;
-
-if sinel < 0
- sinel = 0;
-end
-
-tropo = 0;
-done = 'FALSE';
-refsea = 77.624e-6 / tksea;
-htop = 1.1385e-5 / refsea;
-refsea = refsea * psea;
-ref = refsea * ((htop-hsta)/htop)^4;
-
-while 1
- rtop = (a_e+htop)^2 - (a_e+hsta)^2*(1-sinel^2);
-
- % check to see if geometry is crazy
- if rtop < 0
- rtop = 0;
- end
-
- rtop = sqrt(rtop) - (a_e+hsta)*sinel;
- a = -sinel/(htop-hsta);
- b = -b0*(1-sinel^2) / (htop-hsta);
- rn = zeros(8,1);
-
- for i = 1:8
- rn(i) = rtop^(i+1);
- end
-
- alpha = [2*a, 2*a^2+4*b/3, a*(a^2+3*b),...
- a^4/5+2.4*a^2*b+1.2*b^2, 2*a*b*(a^2+3*b)/3,...
- b^2*(6*a^2+4*b)*1.428571e-1, 0, 0];
-
- if b^2 > 1.0e-35
- alpha(7) = a*b^3/2;
- alpha(8) = b^4/9;
- end
-
- dr = rtop;
- dr = dr + alpha*rn;
- tropo = tropo + dr*ref*1000;
-
- if done == 'TRUE '
- ddr = tropo;
- break;
- end
-
- done = 'TRUE ';
- refsea = (371900.0e-6/tksea-12.92e-6)/tksea;
- htop = 1.1385e-5 * (1255/tksea+0.05)/refsea;
- ref = refsea * e0sea * ((htop-hsta)/htop)^4;
-end;
-%%%%%%%%% end tropo.m %%%%%%%%%%%%%%%%%%%
+function ddr = tropo(sinel, hsta, p, tkel, hum, hp, htkel, hhum)
+% TROPO Calculation of tropospheric correction.
+% The range correction ddr in m is to be subtracted from
+% pseudo-ranges and carrier phases
+%
+% ddr = tropo(sinel, hsta, p, tkel, hum, hp, htkel, hhum);
+%
+% Inputs:
+% sinel - sin of elevation angle of satellite
+% hsta - height of station in km
+% p - atmospheric pressure in mb at height hp
+% tkel - surface temperature in degrees Kelvin at height htkel
+% hum - humidity in % at height hhum
+% hp - height of pressure measurement in km
+% htkel - height of temperature measurement in km
+% hhum - height of humidity measurement in km
+%
+% Outputs:
+% ddr - range correction (meters)
+%
+% Reference
+% Goad, C.C. & Goodman, L. (1974) A Modified Tropospheric
+% Refraction Correction Model. Paper presented at the
+% American Geophysical Union Annual Fall Meeting, San
+% Francisco, December 12-17
+
+% A Matlab reimplementation of a C code from driver.
+% Kai Borre 06-28-95
+%==========================================================================
+
+a_e = 6378.137; % semi-major axis of earth ellipsoid
+b0 = 7.839257e-5;
+tlapse = -6.5;
+tkhum = tkel + tlapse*(hhum-htkel);
+atkel = 7.5*(tkhum-273.15) / (237.3+tkhum-273.15);
+e0 = 0.0611 * hum * 10^atkel;
+tksea = tkel - tlapse*htkel;
+em = -978.77 / (2.8704e6*tlapse*1.0e-5);
+tkelh = tksea + tlapse*hhum;
+e0sea = e0 * (tksea/tkelh)^(4*em);
+tkelp = tksea + tlapse*hp;
+psea = p * (tksea/tkelp)^em;
+
+if sinel < 0
+ sinel = 0;
+end
+
+tropo = 0;
+done = 'FALSE';
+refsea = 77.624e-6 / tksea;
+htop = 1.1385e-5 / refsea;
+refsea = refsea * psea;
+ref = refsea * ((htop-hsta)/htop)^4;
+
+while 1
+ rtop = (a_e+htop)^2 - (a_e+hsta)^2*(1-sinel^2);
+
+ % check to see if geometry is crazy
+ if rtop < 0
+ rtop = 0;
+ end
+
+ rtop = sqrt(rtop) - (a_e+hsta)*sinel;
+ a = -sinel/(htop-hsta);
+ b = -b0*(1-sinel^2) / (htop-hsta);
+ rn = zeros(8,1);
+
+ for i = 1:8
+ rn(i) = rtop^(i+1);
+ end
+
+ alpha = [2*a, 2*a^2+4*b/3, a*(a^2+3*b),...
+ a^4/5+2.4*a^2*b+1.2*b^2, 2*a*b*(a^2+3*b)/3,...
+ b^2*(6*a^2+4*b)*1.428571e-1, 0, 0];
+
+ if b^2 > 1.0e-35
+ alpha(7) = a*b^3/2;
+ alpha(8) = b^4/9;
+ end
+
+ dr = rtop;
+ dr = dr + alpha*rn;
+ tropo = tropo + dr*ref*1000;
+
+ if done == 'TRUE '
+ ddr = tropo;
+ break;
+ end
+
+ done = 'TRUE ';
+ refsea = (371900.0e-6/tksea-12.92e-6)/tksea;
+ htop = 1.1385e-5 * (1255/tksea+0.05)/refsea;
+ ref = refsea * e0sea * ((htop-hsta)/htop)^4;
+end;
+%%%%%%%%% end tropo.m %%%%%%%%%%%%%%%%%%%
diff --git a/src/utils/matlab/libs/plotNavigation.m b/src/utils/matlab/libs/plotNavigation.m
index fd6af14d8..9e27fc4d2 100644
--- a/src/utils/matlab/libs/plotNavigation.m
+++ b/src/utils/matlab/libs/plotNavigation.m
@@ -1,166 +1,166 @@
-% Function plots variations of coordinates over time and a 3D position
-% plot. It plots receiver coordinates in UTM system or coordinate offsets if
-% the true UTM receiver coordinates are provided.
-%
-% plotNavigation(navSolutions, settings)
-%
-% Inputs:
-% navSolutions - Results from navigation solution function. It
-% contains measured pseudoranges and receiver
-% coordinates.
-% settings - Receiver settings. The true receiver coordinates
-% are contained in this structure.
-% plot_skyplot - If ==1 then use satellite coordinates to plot the
-% the satellite positions
-
-% Darius Plausinaitis
-% Modified by Javier Arribas, 2011. jarribas(at)cttc.es
-% -------------------------------------------------------------------------
-%
-% Copyright (C) 2010-2018 (see AUTHORS file for a list of contributors)
-%
-% GNSS-SDR is a software defined Global Navigation
-% Satellite Systems receiver
-%
-% This file is part of GNSS-SDR.
-%
-% GNSS-SDR is free software: you can redistribute it and/or modify
-% it under the terms of the GNU General Public License as published by
-% the Free Software Foundation, either version 3 of the License, or
-% at your option) any later version.
-%
-% GNSS-SDR is distributed in the hope that it will be useful,
-% but WITHOUT ANY WARRANTY; without even the implied warranty of
-% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
-% GNU General Public License for more details.
-%
-% You should have received a copy of the GNU General Public License
-% along with GNSS-SDR. If not, see .
-%
-% -------------------------------------------------------------------------
-%
-
-function plotNavigation(navSolutions, settings,plot_skyplot)
-
-
-%% Plot results in the necessary data exists ==============================
-if (~isempty(navSolutions))
-
- %% If reference position is not provided, then set reference position
- %% to the average postion
- if isnan(settings.truePosition.E) || isnan(settings.truePosition.N) ...
- || isnan(settings.truePosition.U)
-
- %=== Compute mean values ==========================================
- % Remove NaN-s or the output of the function MEAN will be NaN.
- refCoord.E = mean(navSolutions.E(~isnan(navSolutions.E)));
- refCoord.N = mean(navSolutions.N(~isnan(navSolutions.N)));
- refCoord.U = mean(navSolutions.U(~isnan(navSolutions.U)));
-
- %Also convert geodetic coordinates to deg:min:sec vector format
- meanLongitude = dms2mat(deg2dms(...
- mean(navSolutions.longitude(~isnan(navSolutions.longitude)))), -5);
- meanLatitude = dms2mat(deg2dms(...
- mean(navSolutions.latitude(~isnan(navSolutions.latitude)))), -5);
-
- LatLong_str=[num2str(meanLatitude(1)), '??', ...
- num2str(meanLatitude(2)), '''', ...
- num2str(meanLatitude(3)), '''''', ...
- ',', ...
- num2str(meanLongitude(1)), '??', ...
- num2str(meanLongitude(2)), '''', ...
- num2str(meanLongitude(3)), '''''']
-
-
-
- refPointLgText = ['Mean Position\newline Lat: ', ...
- num2str(meanLatitude(1)), '{\circ}', ...
- num2str(meanLatitude(2)), '{\prime}', ...
- num2str(meanLatitude(3)), '{\prime}{\prime}', ...
- '\newline Lng: ', ...
- num2str(meanLongitude(1)), '{\circ}', ...
- num2str(meanLongitude(2)), '{\prime}', ...
- num2str(meanLongitude(3)), '{\prime}{\prime}', ...
- '\newline Hgt: ', ...
- num2str(mean(navSolutions.height(~isnan(navSolutions.height))), '%+6.1f')];
-
- else
- % compute the mean error for static receiver
- mean_position.E = mean(navSolutions.E(~isnan(navSolutions.E)));
- mean_position.N = mean(navSolutions.N(~isnan(navSolutions.N)));
- mean_position.U = mean(navSolutions.U(~isnan(navSolutions.U)));
- refCoord.E = settings.truePosition.E;
- refCoord.N = settings.truePosition.N;
- refCoord.U = settings.truePosition.U;
-
- error_meters=sqrt((mean_position.E-refCoord.E)^2+(mean_position.N-refCoord.N)^2+(mean_position.U-refCoord.U)^2);
-
- refPointLgText = ['Reference Position, Mean 3D error = ' num2str(error_meters) ' [m]'];
- end
-
- figureNumber = 300;
- % The 300 is chosen for more convenient handling of the open
- % figure windows, when many figures are closed and reopened. Figures
- % drawn or opened by the user, will not be "overwritten" by this
- % function if the auto numbering is not used.
-
- %=== Select (or create) and clear the figure ==========================
- figure(figureNumber);
- clf (figureNumber);
- set (figureNumber, 'Name', 'Navigation solutions');
-
- %--- Draw axes --------------------------------------------------------
- handles(1, 1) = subplot(4, 2, 1 : 4);
- handles(3, 1) = subplot(4, 2, [5, 7]);
- handles(3, 2) = subplot(4, 2, [6, 8]);
-
- %% Plot all figures =======================================================
-
- %--- Coordinate differences in UTM system -----------------------------
- plot(handles(1, 1), [(navSolutions.E - refCoord.E)', ...
- (navSolutions.N - refCoord.N)',...
- (navSolutions.U - refCoord.U)']);
-
- title (handles(1, 1), 'Coordinates variations in UTM system');
- legend(handles(1, 1), 'E', 'N', 'U');
- xlabel(handles(1, 1), ['Measurement period: ', ...
- num2str(settings.navSolPeriod), 'ms']);
- ylabel(handles(1, 1), 'Variations (m)');
- grid (handles(1, 1));
- axis (handles(1, 1), 'tight');
-
- %--- Position plot in UTM system --------------------------------------
- plot3 (handles(3, 1), navSolutions.E - refCoord.E, ...
- navSolutions.N - refCoord.N, ...
- navSolutions.U - refCoord.U, '+');
- hold (handles(3, 1), 'on');
-
- %Plot the reference point
- plot3 (handles(3, 1), 0, 0, 0, 'r+', 'LineWidth', 1.5, 'MarkerSize', 10);
- hold (handles(3, 1), 'off');
-
- view (handles(3, 1), 0, 90);
- axis (handles(3, 1), 'equal');
- grid (handles(3, 1), 'minor');
-
- legend(handles(3, 1), 'Measurements', refPointLgText);
-
- title (handles(3, 1), 'Positions in UTM system (3D plot)');
- xlabel(handles(3, 1), 'East (m)');
- ylabel(handles(3, 1), 'North (m)');
- zlabel(handles(3, 1), 'Upping (m)');
-
- if (plot_skyplot==1)
- %--- Satellite sky plot -----------------------------------------------
- skyPlot(handles(3, 2), ...
- navSolutions.channel.az, ...
- navSolutions.channel.el, ...
- navSolutions.channel.PRN(:, 1));
-
- title (handles(3, 2), ['Sky plot (mean PDOP: ', ...
- num2str(mean(navSolutions.DOP(2,:))), ')']);
- end
-
-else
- disp('plotNavigation: No navigation data to plot.');
-end % if (~isempty(navSolutions))
+% Function plots variations of coordinates over time and a 3D position
+% plot. It plots receiver coordinates in UTM system or coordinate offsets if
+% the true UTM receiver coordinates are provided.
+%
+% plotNavigation(navSolutions, settings)
+%
+% Inputs:
+% navSolutions - Results from navigation solution function. It
+% contains measured pseudoranges and receiver
+% coordinates.
+% settings - Receiver settings. The true receiver coordinates
+% are contained in this structure.
+% plot_skyplot - If ==1 then use satellite coordinates to plot the
+% the satellite positions
+
+% Darius Plausinaitis
+% Modified by Javier Arribas, 2011. jarribas(at)cttc.es
+% -------------------------------------------------------------------------
+%
+% Copyright (C) 2010-2018 (see AUTHORS file for a list of contributors)
+%
+% GNSS-SDR is a software defined Global Navigation
+% Satellite Systems receiver
+%
+% This file is part of GNSS-SDR.
+%
+% GNSS-SDR is free software: you can redistribute it and/or modify
+% it under the terms of the GNU General Public License as published by
+% the Free Software Foundation, either version 3 of the License, or
+% at your option) any later version.
+%
+% GNSS-SDR is distributed in the hope that it will be useful,
+% but WITHOUT ANY WARRANTY; without even the implied warranty of
+% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
+% GNU General Public License for more details.
+%
+% You should have received a copy of the GNU General Public License
+% along with GNSS-SDR. If not, see .
+%
+% -------------------------------------------------------------------------
+%
+
+function plotNavigation(navSolutions, settings,plot_skyplot)
+
+
+%% Plot results in the necessary data exists ==============================
+if (~isempty(navSolutions))
+
+ %% If reference position is not provided, then set reference position
+ %% to the average postion
+ if isnan(settings.truePosition.E) || isnan(settings.truePosition.N) ...
+ || isnan(settings.truePosition.U)
+
+ %=== Compute mean values ==========================================
+ % Remove NaN-s or the output of the function MEAN will be NaN.
+ refCoord.E = mean(navSolutions.E(~isnan(navSolutions.E)));
+ refCoord.N = mean(navSolutions.N(~isnan(navSolutions.N)));
+ refCoord.U = mean(navSolutions.U(~isnan(navSolutions.U)));
+
+ %Also convert geodetic coordinates to deg:min:sec vector format
+ meanLongitude = dms2mat(deg2dms(...
+ mean(navSolutions.longitude(~isnan(navSolutions.longitude)))), -5);
+ meanLatitude = dms2mat(deg2dms(...
+ mean(navSolutions.latitude(~isnan(navSolutions.latitude)))), -5);
+
+ LatLong_str=[num2str(meanLatitude(1)), '??', ...
+ num2str(meanLatitude(2)), '''', ...
+ num2str(meanLatitude(3)), '''''', ...
+ ',', ...
+ num2str(meanLongitude(1)), '??', ...
+ num2str(meanLongitude(2)), '''', ...
+ num2str(meanLongitude(3)), '''''']
+
+
+
+ refPointLgText = ['Mean Position\newline Lat: ', ...
+ num2str(meanLatitude(1)), '{\circ}', ...
+ num2str(meanLatitude(2)), '{\prime}', ...
+ num2str(meanLatitude(3)), '{\prime}{\prime}', ...
+ '\newline Lng: ', ...
+ num2str(meanLongitude(1)), '{\circ}', ...
+ num2str(meanLongitude(2)), '{\prime}', ...
+ num2str(meanLongitude(3)), '{\prime}{\prime}', ...
+ '\newline Hgt: ', ...
+ num2str(mean(navSolutions.height(~isnan(navSolutions.height))), '%+6.1f')];
+
+ else
+ % compute the mean error for static receiver
+ mean_position.E = mean(navSolutions.E(~isnan(navSolutions.E)));
+ mean_position.N = mean(navSolutions.N(~isnan(navSolutions.N)));
+ mean_position.U = mean(navSolutions.U(~isnan(navSolutions.U)));
+ refCoord.E = settings.truePosition.E;
+ refCoord.N = settings.truePosition.N;
+ refCoord.U = settings.truePosition.U;
+
+ error_meters=sqrt((mean_position.E-refCoord.E)^2+(mean_position.N-refCoord.N)^2+(mean_position.U-refCoord.U)^2);
+
+ refPointLgText = ['Reference Position, Mean 3D error = ' num2str(error_meters) ' [m]'];
+ end
+
+ figureNumber = 300;
+ % The 300 is chosen for more convenient handling of the open
+ % figure windows, when many figures are closed and reopened. Figures
+ % drawn or opened by the user, will not be "overwritten" by this
+ % function if the auto numbering is not used.
+
+ %=== Select (or create) and clear the figure ==========================
+ figure(figureNumber);
+ clf (figureNumber);
+ set (figureNumber, 'Name', 'Navigation solutions');
+
+ %--- Draw axes --------------------------------------------------------
+ handles(1, 1) = subplot(4, 2, 1 : 4);
+ handles(3, 1) = subplot(4, 2, [5, 7]);
+ handles(3, 2) = subplot(4, 2, [6, 8]);
+
+ %% Plot all figures =======================================================
+
+ %--- Coordinate differences in UTM system -----------------------------
+ plot(handles(1, 1), [(navSolutions.E - refCoord.E)', ...
+ (navSolutions.N - refCoord.N)',...
+ (navSolutions.U - refCoord.U)']);
+
+ title (handles(1, 1), 'Coordinates variations in UTM system');
+ legend(handles(1, 1), 'E', 'N', 'U');
+ xlabel(handles(1, 1), ['Measurement period: ', ...
+ num2str(settings.navSolPeriod), 'ms']);
+ ylabel(handles(1, 1), 'Variations (m)');
+ grid (handles(1, 1));
+ axis (handles(1, 1), 'tight');
+
+ %--- Position plot in UTM system --------------------------------------
+ plot3 (handles(3, 1), navSolutions.E - refCoord.E, ...
+ navSolutions.N - refCoord.N, ...
+ navSolutions.U - refCoord.U, '+');
+ hold (handles(3, 1), 'on');
+
+ %Plot the reference point
+ plot3 (handles(3, 1), 0, 0, 0, 'r+', 'LineWidth', 1.5, 'MarkerSize', 10);
+ hold (handles(3, 1), 'off');
+
+ view (handles(3, 1), 0, 90);
+ axis (handles(3, 1), 'equal');
+ grid (handles(3, 1), 'minor');
+
+ legend(handles(3, 1), 'Measurements', refPointLgText);
+
+ title (handles(3, 1), 'Positions in UTM system (3D plot)');
+ xlabel(handles(3, 1), 'East (m)');
+ ylabel(handles(3, 1), 'North (m)');
+ zlabel(handles(3, 1), 'Upping (m)');
+
+ if (plot_skyplot==1)
+ %--- Satellite sky plot -----------------------------------------------
+ skyPlot(handles(3, 2), ...
+ navSolutions.channel.az, ...
+ navSolutions.channel.el, ...
+ navSolutions.channel.PRN(:, 1));
+
+ title (handles(3, 2), ['Sky plot (mean PDOP: ', ...
+ num2str(mean(navSolutions.DOP(2,:))), ')']);
+ end
+
+else
+ disp('plotNavigation: No navigation data to plot.');
+end % if (~isempty(navSolutions))
diff --git a/src/utils/matlab/libs/plotTracking.m b/src/utils/matlab/libs/plotTracking.m
index e8d6ede85..b280d82aa 100644
--- a/src/utils/matlab/libs/plotTracking.m
+++ b/src/utils/matlab/libs/plotTracking.m
@@ -1,187 +1,187 @@
-function plotTracking(channelList, trackResults, settings)
-% This function plots the tracking results for the given channel list.
-%
-% plotTracking(channelList, trackResults, settings)
-%
-% Inputs:
-% channelList - list of channels to be plotted.
-% trackResults - tracking results from the tracking function.
-% settings - receiver settings.
-
-%--------------------------------------------------------------------------
-% SoftGNSS v3.0
-%
-% Copyright (C) Darius Plausinaitis
-% Written by Darius Plausinaitis
-%--------------------------------------------------------------------------
-%This program is free software; you can redistribute it and/or
-%modify it under the terms of the GNU General Public License
-%as published by the Free Software Foundation; either version 2
-%of the License, or (at your option) any later version.
-%
-%This program is distributed in the hope that it will be useful,
-%but WITHOUT ANY WARRANTY; without even the implied warranty of
-%MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
-%GNU General Public License for more details.
-%
-%You should have received a copy of the GNU General Public License
-%along with this program; if not, write to the Free Software
-%Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301,
-%USA.
-%--------------------------------------------------------------------------
-
-
-% Protection - if the list contains incorrect channel numbers
-channelList = intersect(channelList, 1:settings.numberOfChannels);
-
-%=== For all listed channels ==============================================
-for channelNr = channelList
-
- %% Select (or create) and clear the figure ================================
- % The number 200 is added just for more convenient handling of the open
- % figure windows, when many figures are closed and reopened.
- % Figures drawn or opened by the user, will not be "overwritten" by
- % this function.
-
- figure(channelNr +200);
- clf(channelNr +200);
- set(channelNr +200, 'Name', ['Channel ', num2str(channelNr), ...
- ' (PRN ', ...
- num2str(trackResults(channelNr).PRN(end-1)), ...
- ') results']);
-
- %% Draw axes ==============================================================
- % Row 1
- handles(1, 1) = subplot(4, 3, 1);
- handles(1, 2) = subplot(4, 3, [2 3]);
- % Row 2
- handles(2, 1) = subplot(4, 3, 4);
- handles(2, 2) = subplot(4, 3, [5 6]);
- % Row 3
- handles(3, 1) = subplot(4, 3, 7);
- handles(3, 2) = subplot(4, 3, 8);
- handles(3, 3) = subplot(4, 3, 9);
- % Row 4
- handles(4, 1) = subplot(4, 3, 10);
- handles(4, 2) = subplot(4, 3, 11);
- handles(4, 3) = subplot(4, 3, 12);
-
-
- %% Plot all figures =======================================================
-
- timeAxisInSeconds = (1:settings.msToProcess)/1000;
-
- %----- Discrete-Time Scatter Plot ---------------------------------
- plot(handles(1, 1), trackResults(channelNr).I_P,...
- trackResults(channelNr).Q_P, ...
- '.');
-
- grid (handles(1, 1));
- axis (handles(1, 1), 'equal');
- title (handles(1, 1), 'Discrete-Time Scatter Plot');
- xlabel(handles(1, 1), 'I prompt');
- ylabel(handles(1, 1), 'Q prompt');
-
- %----- Nav bits ---------------------------------------------------
- plot (handles(1, 2), timeAxisInSeconds, ...
- trackResults(channelNr).I_P);
-
- grid (handles(1, 2));
- title (handles(1, 2), 'Bits of the navigation message');
- xlabel(handles(1, 2), 'Time (s)');
- axis (handles(1, 2), 'tight');
-
- %----- PLL discriminator unfiltered--------------------------------
- plot (handles(2, 1), timeAxisInSeconds, ...
- trackResults(channelNr).pllDiscr, 'r');
-
- grid (handles(2, 1));
- axis (handles(2, 1), 'tight');
- xlabel(handles(2, 1), 'Time (s)');
- ylabel(handles(2, 1), 'Amplitude');
- title (handles(2, 1), 'Raw PLL discriminator');
-
- %----- Correlation ------------------------------------------------
- plot(handles(2, 2), timeAxisInSeconds, ...
- [sqrt(trackResults(channelNr).I_E.^2 + ...
- trackResults(channelNr).Q_E.^2)', ...
- sqrt(trackResults(channelNr).I_P.^2 + ...
- trackResults(channelNr).Q_P.^2)', ...
- sqrt(trackResults(channelNr).I_L.^2 + ...
- trackResults(channelNr).Q_L.^2)'], ...
- '-*');
-
- grid (handles(2, 2));
- title (handles(2, 2), 'Correlation results');
- xlabel(handles(2, 2), 'Time (s)');
- axis (handles(2, 2), 'tight');
-
- hLegend = legend(handles(2, 2), '$\sqrt{I_{E}^2 + Q_{E}^2}$', ...
- '$\sqrt{I_{P}^2 + Q_{P}^2}$', ...
- '$\sqrt{I_{L}^2 + Q_{L}^2}$');
-
- %set interpreter from tex to latex. This will draw \sqrt correctly
- set(hLegend, 'Interpreter', 'Latex');
-
- %----- PLL discriminator filtered----------------------------------
- plot (handles(3, 1), timeAxisInSeconds, ...
- trackResults(channelNr).pllDiscrFilt(1:settings.msToProcess), 'b');
-
- grid (handles(3, 1));
- axis (handles(3, 1), 'tight');
- xlabel(handles(3, 1), 'Time (s)');
- ylabel(handles(3, 1), 'Amplitude');
- title (handles(3, 1), 'Filtered PLL discriminator');
-
- %----- DLL discriminator unfiltered--------------------------------
- plot (handles(3, 2), timeAxisInSeconds, ...
- trackResults(channelNr).dllDiscr, 'r');
-
- grid (handles(3, 2));
- axis (handles(3, 2), 'tight');
- xlabel(handles(3, 2), 'Time (s)');
- ylabel(handles(3, 2), 'Amplitude');
- title (handles(3, 2), 'Raw DLL discriminator');
-
- %----- DLL discriminator filtered----------------------------------
- plot (handles(3, 3), timeAxisInSeconds, ...
- trackResults(channelNr).dllDiscrFilt, 'b');
-
- grid (handles(3, 3));
- axis (handles(3, 3), 'tight');
- xlabel(handles(3, 3), 'Time (s)');
- ylabel(handles(3, 3), 'Amplitude');
- title (handles(3, 3), 'Filtered DLL discriminator');
-
- %----- CNo for signal----------------------------------
- plot (handles(4, 1), timeAxisInSeconds, ...
- trackResults(channelNr).CNo(1:settings.msToProcess), 'b');
-
- grid (handles(4, 1));
- axis (handles(4, 1), 'tight');
- xlabel(handles(4, 1), 'Time (s)');
- ylabel(handles(4, 1), 'CNo (dB-Hz)');
- title (handles(4, 1), 'Carrier to Noise Ratio');
-
- %----- Carrier Frequency --------------------------------
- plot (handles(4, 2), timeAxisInSeconds(2:end), ...
- trackResults(channelNr).carrFreq(2:settings.msToProcess), 'Color',[0.42 0.25 0.39]);
-
- grid (handles(4, 2));
- axis (handles(4, 2));
- xlabel(handles(4, 2), 'Time (s)');
- ylabel(handles(4, 2), 'Freq (hz)');
- title (handles(4, 2), 'Carrier Freq');
-
- %----- Code Frequency----------------------------------
- %--- Skip sample 0 to help with results display
- plot (handles(4, 3), timeAxisInSeconds(2:end), ...
- trackResults(channelNr).codeFreq(2:settings.msToProcess), 'Color',[0.2 0.3 0.49]);
-
- grid (handles(4, 3));
- axis (handles(4, 3), 'tight');
- xlabel(handles(4, 3), 'Time (s)');
- ylabel(handles(4, 3), 'Freq (Hz)');
- title (handles(4, 3), 'Code Freq');
-
-end % for channelNr = channelList
+function plotTracking(channelList, trackResults, settings)
+% This function plots the tracking results for the given channel list.
+%
+% plotTracking(channelList, trackResults, settings)
+%
+% Inputs:
+% channelList - list of channels to be plotted.
+% trackResults - tracking results from the tracking function.
+% settings - receiver settings.
+
+%--------------------------------------------------------------------------
+% SoftGNSS v3.0
+%
+% Copyright (C) Darius Plausinaitis
+% Written by Darius Plausinaitis
+%--------------------------------------------------------------------------
+%This program is free software; you can redistribute it and/or
+%modify it under the terms of the GNU General Public License
+%as published by the Free Software Foundation; either version 2
+%of the License, or (at your option) any later version.
+%
+%This program is distributed in the hope that it will be useful,
+%but WITHOUT ANY WARRANTY; without even the implied warranty of
+%MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
+%GNU General Public License for more details.
+%
+%You should have received a copy of the GNU General Public License
+%along with this program; if not, write to the Free Software
+%Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301,
+%USA.
+%--------------------------------------------------------------------------
+
+
+% Protection - if the list contains incorrect channel numbers
+channelList = intersect(channelList, 1:settings.numberOfChannels);
+
+%=== For all listed channels ==============================================
+for channelNr = channelList
+
+ %% Select (or create) and clear the figure ================================
+ % The number 200 is added just for more convenient handling of the open
+ % figure windows, when many figures are closed and reopened.
+ % Figures drawn or opened by the user, will not be "overwritten" by
+ % this function.
+
+ figure(channelNr +200);
+ clf(channelNr +200);
+ set(channelNr +200, 'Name', ['Channel ', num2str(channelNr), ...
+ ' (PRN ', ...
+ num2str(trackResults(channelNr).PRN(end-1)), ...
+ ') results']);
+
+ %% Draw axes ==============================================================
+ % Row 1
+ handles(1, 1) = subplot(4, 3, 1);
+ handles(1, 2) = subplot(4, 3, [2 3]);
+ % Row 2
+ handles(2, 1) = subplot(4, 3, 4);
+ handles(2, 2) = subplot(4, 3, [5 6]);
+ % Row 3
+ handles(3, 1) = subplot(4, 3, 7);
+ handles(3, 2) = subplot(4, 3, 8);
+ handles(3, 3) = subplot(4, 3, 9);
+ % Row 4
+ handles(4, 1) = subplot(4, 3, 10);
+ handles(4, 2) = subplot(4, 3, 11);
+ handles(4, 3) = subplot(4, 3, 12);
+
+
+ %% Plot all figures =======================================================
+
+ timeAxisInSeconds = (1:settings.msToProcess)/1000;
+
+ %----- Discrete-Time Scatter Plot ---------------------------------
+ plot(handles(1, 1), trackResults(channelNr).I_P,...
+ trackResults(channelNr).Q_P, ...
+ '.');
+
+ grid (handles(1, 1));
+ axis (handles(1, 1), 'equal');
+ title (handles(1, 1), 'Discrete-Time Scatter Plot');
+ xlabel(handles(1, 1), 'I prompt');
+ ylabel(handles(1, 1), 'Q prompt');
+
+ %----- Nav bits ---------------------------------------------------
+ plot (handles(1, 2), timeAxisInSeconds, ...
+ trackResults(channelNr).I_P);
+
+ grid (handles(1, 2));
+ title (handles(1, 2), 'Bits of the navigation message');
+ xlabel(handles(1, 2), 'Time (s)');
+ axis (handles(1, 2), 'tight');
+
+ %----- PLL discriminator unfiltered--------------------------------
+ plot (handles(2, 1), timeAxisInSeconds, ...
+ trackResults(channelNr).pllDiscr, 'r');
+
+ grid (handles(2, 1));
+ axis (handles(2, 1), 'tight');
+ xlabel(handles(2, 1), 'Time (s)');
+ ylabel(handles(2, 1), 'Amplitude');
+ title (handles(2, 1), 'Raw PLL discriminator');
+
+ %----- Correlation ------------------------------------------------
+ plot(handles(2, 2), timeAxisInSeconds, ...
+ [sqrt(trackResults(channelNr).I_E.^2 + ...
+ trackResults(channelNr).Q_E.^2)', ...
+ sqrt(trackResults(channelNr).I_P.^2 + ...
+ trackResults(channelNr).Q_P.^2)', ...
+ sqrt(trackResults(channelNr).I_L.^2 + ...
+ trackResults(channelNr).Q_L.^2)'], ...
+ '-*');
+
+ grid (handles(2, 2));
+ title (handles(2, 2), 'Correlation results');
+ xlabel(handles(2, 2), 'Time (s)');
+ axis (handles(2, 2), 'tight');
+
+ hLegend = legend(handles(2, 2), '$\sqrt{I_{E}^2 + Q_{E}^2}$', ...
+ '$\sqrt{I_{P}^2 + Q_{P}^2}$', ...
+ '$\sqrt{I_{L}^2 + Q_{L}^2}$');
+
+ %set interpreter from tex to latex. This will draw \sqrt correctly
+ set(hLegend, 'Interpreter', 'Latex');
+
+ %----- PLL discriminator filtered----------------------------------
+ plot (handles(3, 1), timeAxisInSeconds, ...
+ trackResults(channelNr).pllDiscrFilt(1:settings.msToProcess), 'b');
+
+ grid (handles(3, 1));
+ axis (handles(3, 1), 'tight');
+ xlabel(handles(3, 1), 'Time (s)');
+ ylabel(handles(3, 1), 'Amplitude');
+ title (handles(3, 1), 'Filtered PLL discriminator');
+
+ %----- DLL discriminator unfiltered--------------------------------
+ plot (handles(3, 2), timeAxisInSeconds, ...
+ trackResults(channelNr).dllDiscr, 'r');
+
+ grid (handles(3, 2));
+ axis (handles(3, 2), 'tight');
+ xlabel(handles(3, 2), 'Time (s)');
+ ylabel(handles(3, 2), 'Amplitude');
+ title (handles(3, 2), 'Raw DLL discriminator');
+
+ %----- DLL discriminator filtered----------------------------------
+ plot (handles(3, 3), timeAxisInSeconds, ...
+ trackResults(channelNr).dllDiscrFilt, 'b');
+
+ grid (handles(3, 3));
+ axis (handles(3, 3), 'tight');
+ xlabel(handles(3, 3), 'Time (s)');
+ ylabel(handles(3, 3), 'Amplitude');
+ title (handles(3, 3), 'Filtered DLL discriminator');
+
+ %----- CNo for signal----------------------------------
+ plot (handles(4, 1), timeAxisInSeconds, ...
+ trackResults(channelNr).CNo(1:settings.msToProcess), 'b');
+
+ grid (handles(4, 1));
+ axis (handles(4, 1), 'tight');
+ xlabel(handles(4, 1), 'Time (s)');
+ ylabel(handles(4, 1), 'CNo (dB-Hz)');
+ title (handles(4, 1), 'Carrier to Noise Ratio');
+
+ %----- Carrier Frequency --------------------------------
+ plot (handles(4, 2), timeAxisInSeconds(2:end), ...
+ trackResults(channelNr).carrFreq(2:settings.msToProcess), 'Color',[0.42 0.25 0.39]);
+
+ grid (handles(4, 2));
+ axis (handles(4, 2));
+ xlabel(handles(4, 2), 'Time (s)');
+ ylabel(handles(4, 2), 'Freq (hz)');
+ title (handles(4, 2), 'Carrier Freq');
+
+ %----- Code Frequency----------------------------------
+ %--- Skip sample 0 to help with results display
+ plot (handles(4, 3), timeAxisInSeconds(2:end), ...
+ trackResults(channelNr).codeFreq(2:settings.msToProcess), 'Color',[0.2 0.3 0.49]);
+
+ grid (handles(4, 3));
+ axis (handles(4, 3), 'tight');
+ xlabel(handles(4, 3), 'Time (s)');
+ ylabel(handles(4, 3), 'Freq (Hz)');
+ title (handles(4, 3), 'Code Freq');
+
+end % for channelNr = channelList
diff --git a/src/utils/matlab/libs/plotVEMLTracking.m b/src/utils/matlab/libs/plotVEMLTracking.m
index 40cab0bb6..bc4e4e806 100644
--- a/src/utils/matlab/libs/plotVEMLTracking.m
+++ b/src/utils/matlab/libs/plotVEMLTracking.m
@@ -1,162 +1,162 @@
-function plotVEMLTracking(channelList, trackResults, settings)
-% This function plots the tracking results for the given channel list.
-%
-% plotTracking(channelList, trackResults, settings)
-%
-% Inputs:
-% channelList - list of channels to be plotted.
-% trackResults - tracking results from the tracking function.
-% settings - receiver settings.
-
-%--------------------------------------------------------------------------
-% SoftGNSS v3.0
-%
-% Copyright (C) Darius Plausinaitis
-% Written by Darius Plausinaitis
-%--------------------------------------------------------------------------
-%This program is free software; you can redistribute it and/or
-%modify it under the terms of the GNU General Public License
-%as published by the Free Software Foundation; either version 2
-%of the License, or (at your option) any later version.
-%
-%This program is distributed in the hope that it will be useful,
-%but WITHOUT ANY WARRANTY; without even the implied warranty of
-%MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
-%GNU General Public License for more details.
-%
-%You should have received a copy of the GNU General Public License
-%along with this program; if not, write to the Free Software
-%Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301,
-%USA.
-%--------------------------------------------------------------------------
-
-% Protection - if the list contains incorrect channel numbers
-channelList = intersect(channelList, 1:settings.numberOfChannels);
-
-%=== For all listed channels ==============================================
-for channelNr = channelList
-
- %% Select (or create) and clear the figure ================================
- % The number 200 is added just for more convenient handling of the open
- % figure windows, when many figures are closed and reopened.
- % Figures drawn or opened by the user, will not be "overwritten" by
- % this function.
-
- figure(channelNr +200);
- clf(channelNr +200);
- set(channelNr +200, 'Name', ['Channel ', num2str(channelNr), ...
- ' (PRN ', ...
- num2str(trackResults(channelNr).PRN(end-1)), ...
- ') results']);
-
- %% Draw axes ==============================================================
- % Row 1
- handles(1, 1) = subplot(3, 3, 1);
- handles(1, 2) = subplot(3, 3, [2 3]);
- % Row 2
- handles(2, 1) = subplot(3, 3, 4);
- handles(2, 2) = subplot(3, 3, [5 6]);
- % Row 3
- handles(3, 1) = subplot(3, 3, 7);
- handles(3, 2) = subplot(3, 3, 8);
- handles(3, 3) = subplot(3, 3, 9);
-
- %% Plot all figures =======================================================
-
- timeAxisInSeconds = (1:4:settings.msToProcess)/1000;
-
- %----- Discrete-Time Scatter Plot ---------------------------------
- plot(handles(1, 1), trackResults(channelNr).data_I,...
- trackResults(channelNr).data_Q, ...
- '.');
-
- grid (handles(1, 1));
- axis (handles(1, 1), 'equal');
- title (handles(1, 1), 'Discrete-Time Scatter Plot');
- xlabel(handles(1, 1), 'I prompt');
- ylabel(handles(1, 1), 'Q prompt');
-
- %----- Nav bits ---------------------------------------------------
- t = (1:length(trackResults(channelNr).data_I));
- plot (handles(1, 2), t, ...
- trackResults(channelNr).data_I);
-
- grid (handles(1, 2));
- title (handles(1, 2), 'Bits of the navigation message');
- xlabel(handles(1, 2), 'Time (s)');
- axis (handles(1, 2), 'tight');
-
- %----- PLL discriminator unfiltered--------------------------------
- t = (1:length(trackResults(channelNr).pllDiscr));
- plot (handles(2, 1), t, ...
- trackResults(channelNr).pllDiscr, 'r');
-
- grid (handles(2, 1));
- axis (handles(2, 1), 'tight');
- xlabel(handles(2, 1), 'Time (s)');
- ylabel(handles(2, 1), 'Amplitude');
- title (handles(2, 1), 'Raw PLL discriminator');
-
- %----- Correlation ------------------------------------------------
- t = (1:length(trackResults(channelNr).I_VE));
- plot(handles(2, 2), t, ...
- [sqrt(trackResults(channelNr).I_VE.^2 + ...
- trackResults(channelNr).Q_VE.^2)', ...
- sqrt(trackResults(channelNr).I_E.^2 + ...
- trackResults(channelNr).Q_E.^2)', ...
- sqrt(trackResults(channelNr).I_P.^2 + ...
- trackResults(channelNr).Q_P.^2)', ...
- sqrt(trackResults(channelNr).I_L.^2 + ...
- trackResults(channelNr).Q_L.^2)', ...
- sqrt(trackResults(channelNr).I_VL.^2 + ...
- trackResults(channelNr).Q_VL.^2)'], ...
- '-*');
-
- grid (handles(2, 2));
- title (handles(2, 2), 'Correlation results');
- xlabel(handles(2, 2), 'Time (s)');
- axis (handles(2, 2), 'tight');
-
- hLegend = legend(handles(2, 2), '$\sqrt{I_{VE}^2 + Q_{VE}^2}$', ...
- '$\sqrt{I_{E}^2 + Q_{E}^2}$', ...
- '$\sqrt{I_{P}^2 + Q_{P}^2}$', ...
- '$\sqrt{I_{L}^2 + Q_{L}^2}$', ...
- '$\sqrt{I_{VL}^2 + Q_{VL}^2}$');
-
- %set interpreter from tex to latex. This will draw \sqrt correctly
- set(hLegend, 'Interpreter', 'Latex');
-
- %----- PLL discriminator filtered----------------------------------
- t = (1:length(trackResults(channelNr).pllDiscrFilt));
- plot (handles(3, 1), t, ...
- trackResults(channelNr).pllDiscrFilt, 'b');
-
- grid (handles(3, 1));
- axis (handles(3, 1), 'tight');
- xlabel(handles(3, 1), 'Time (s)');
- ylabel(handles(3, 1), 'Amplitude');
- title (handles(3, 1), 'Filtered PLL discriminator');
-
- %----- DLL discriminator unfiltered--------------------------------
- t = (1:length(trackResults(channelNr).dllDiscr));
- plot (handles(3, 2), t, ...
- trackResults(channelNr).dllDiscr, 'r');
-
- grid (handles(3, 2));
- axis (handles(3, 2), 'tight');
- xlabel(handles(3, 2), 'Time (s)');
- ylabel(handles(3, 2), 'Amplitude');
- title (handles(3, 2), 'Raw DLL discriminator');
-
- %----- DLL discriminator filtered----------------------------------
- t = (1:length(trackResults(channelNr).dllDiscrFilt));
- plot (handles(3, 3), t, ...
- trackResults(channelNr).dllDiscrFilt, 'b');
-
- grid (handles(3, 3));
- axis (handles(3, 3), 'tight');
- xlabel(handles(3, 3), 'Time (s)');
- ylabel(handles(3, 3), 'Amplitude');
- title (handles(3, 3), 'Filtered DLL discriminator');
-
-end % for channelNr = channelList
+function plotVEMLTracking(channelList, trackResults, settings)
+% This function plots the tracking results for the given channel list.
+%
+% plotTracking(channelList, trackResults, settings)
+%
+% Inputs:
+% channelList - list of channels to be plotted.
+% trackResults - tracking results from the tracking function.
+% settings - receiver settings.
+
+%--------------------------------------------------------------------------
+% SoftGNSS v3.0
+%
+% Copyright (C) Darius Plausinaitis
+% Written by Darius Plausinaitis
+%--------------------------------------------------------------------------
+%This program is free software; you can redistribute it and/or
+%modify it under the terms of the GNU General Public License
+%as published by the Free Software Foundation; either version 2
+%of the License, or (at your option) any later version.
+%
+%This program is distributed in the hope that it will be useful,
+%but WITHOUT ANY WARRANTY; without even the implied warranty of
+%MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
+%GNU General Public License for more details.
+%
+%You should have received a copy of the GNU General Public License
+%along with this program; if not, write to the Free Software
+%Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301,
+%USA.
+%--------------------------------------------------------------------------
+
+% Protection - if the list contains incorrect channel numbers
+channelList = intersect(channelList, 1:settings.numberOfChannels);
+
+%=== For all listed channels ==============================================
+for channelNr = channelList
+
+ %% Select (or create) and clear the figure ================================
+ % The number 200 is added just for more convenient handling of the open
+ % figure windows, when many figures are closed and reopened.
+ % Figures drawn or opened by the user, will not be "overwritten" by
+ % this function.
+
+ figure(channelNr +200);
+ clf(channelNr +200);
+ set(channelNr +200, 'Name', ['Channel ', num2str(channelNr), ...
+ ' (PRN ', ...
+ num2str(trackResults(channelNr).PRN(end-1)), ...
+ ') results']);
+
+ %% Draw axes ==============================================================
+ % Row 1
+ handles(1, 1) = subplot(3, 3, 1);
+ handles(1, 2) = subplot(3, 3, [2 3]);
+ % Row 2
+ handles(2, 1) = subplot(3, 3, 4);
+ handles(2, 2) = subplot(3, 3, [5 6]);
+ % Row 3
+ handles(3, 1) = subplot(3, 3, 7);
+ handles(3, 2) = subplot(3, 3, 8);
+ handles(3, 3) = subplot(3, 3, 9);
+
+ %% Plot all figures =======================================================
+
+ timeAxisInSeconds = (1:4:settings.msToProcess)/1000;
+
+ %----- Discrete-Time Scatter Plot ---------------------------------
+ plot(handles(1, 1), trackResults(channelNr).data_I,...
+ trackResults(channelNr).data_Q, ...
+ '.');
+
+ grid (handles(1, 1));
+ axis (handles(1, 1), 'equal');
+ title (handles(1, 1), 'Discrete-Time Scatter Plot');
+ xlabel(handles(1, 1), 'I prompt');
+ ylabel(handles(1, 1), 'Q prompt');
+
+ %----- Nav bits ---------------------------------------------------
+ t = (1:length(trackResults(channelNr).data_I));
+ plot (handles(1, 2), t, ...
+ trackResults(channelNr).data_I);
+
+ grid (handles(1, 2));
+ title (handles(1, 2), 'Bits of the navigation message');
+ xlabel(handles(1, 2), 'Time (s)');
+ axis (handles(1, 2), 'tight');
+
+ %----- PLL discriminator unfiltered--------------------------------
+ t = (1:length(trackResults(channelNr).pllDiscr));
+ plot (handles(2, 1), t, ...
+ trackResults(channelNr).pllDiscr, 'r');
+
+ grid (handles(2, 1));
+ axis (handles(2, 1), 'tight');
+ xlabel(handles(2, 1), 'Time (s)');
+ ylabel(handles(2, 1), 'Amplitude');
+ title (handles(2, 1), 'Raw PLL discriminator');
+
+ %----- Correlation ------------------------------------------------
+ t = (1:length(trackResults(channelNr).I_VE));
+ plot(handles(2, 2), t, ...
+ [sqrt(trackResults(channelNr).I_VE.^2 + ...
+ trackResults(channelNr).Q_VE.^2)', ...
+ sqrt(trackResults(channelNr).I_E.^2 + ...
+ trackResults(channelNr).Q_E.^2)', ...
+ sqrt(trackResults(channelNr).I_P.^2 + ...
+ trackResults(channelNr).Q_P.^2)', ...
+ sqrt(trackResults(channelNr).I_L.^2 + ...
+ trackResults(channelNr).Q_L.^2)', ...
+ sqrt(trackResults(channelNr).I_VL.^2 + ...
+ trackResults(channelNr).Q_VL.^2)'], ...
+ '-*');
+
+ grid (handles(2, 2));
+ title (handles(2, 2), 'Correlation results');
+ xlabel(handles(2, 2), 'Time (s)');
+ axis (handles(2, 2), 'tight');
+
+ hLegend = legend(handles(2, 2), '$\sqrt{I_{VE}^2 + Q_{VE}^2}$', ...
+ '$\sqrt{I_{E}^2 + Q_{E}^2}$', ...
+ '$\sqrt{I_{P}^2 + Q_{P}^2}$', ...
+ '$\sqrt{I_{L}^2 + Q_{L}^2}$', ...
+ '$\sqrt{I_{VL}^2 + Q_{VL}^2}$');
+
+ %set interpreter from tex to latex. This will draw \sqrt correctly
+ set(hLegend, 'Interpreter', 'Latex');
+
+ %----- PLL discriminator filtered----------------------------------
+ t = (1:length(trackResults(channelNr).pllDiscrFilt));
+ plot (handles(3, 1), t, ...
+ trackResults(channelNr).pllDiscrFilt, 'b');
+
+ grid (handles(3, 1));
+ axis (handles(3, 1), 'tight');
+ xlabel(handles(3, 1), 'Time (s)');
+ ylabel(handles(3, 1), 'Amplitude');
+ title (handles(3, 1), 'Filtered PLL discriminator');
+
+ %----- DLL discriminator unfiltered--------------------------------
+ t = (1:length(trackResults(channelNr).dllDiscr));
+ plot (handles(3, 2), t, ...
+ trackResults(channelNr).dllDiscr, 'r');
+
+ grid (handles(3, 2));
+ axis (handles(3, 2), 'tight');
+ xlabel(handles(3, 2), 'Time (s)');
+ ylabel(handles(3, 2), 'Amplitude');
+ title (handles(3, 2), 'Raw DLL discriminator');
+
+ %----- DLL discriminator filtered----------------------------------
+ t = (1:length(trackResults(channelNr).dllDiscrFilt));
+ plot (handles(3, 3), t, ...
+ trackResults(channelNr).dllDiscrFilt, 'b');
+
+ grid (handles(3, 3));
+ axis (handles(3, 3), 'tight');
+ xlabel(handles(3, 3), 'Time (s)');
+ ylabel(handles(3, 3), 'Amplitude');
+ title (handles(3, 3), 'Filtered DLL discriminator');
+
+end % for channelNr = channelList
diff --git a/src/utils/matlab/plotTrackingE5a.m b/src/utils/matlab/plotTrackingE5a.m
index d8966caaf..e63d23162 100644
--- a/src/utils/matlab/plotTrackingE5a.m
+++ b/src/utils/matlab/plotTrackingE5a.m
@@ -1,150 +1,150 @@
-function plotTracking(channelList, trackResults, settings)
-% This function plots the tracking results for the given channel list.
-%
-% plotTracking(channelList, trackResults, settings)
-%
-% Inputs:
-% channelList - list of channels to be plotted.
-% trackResults - tracking results from the tracking function.
-% settings - receiver settings.
-
-%--------------------------------------------------------------------------
-% SoftGNSS v3.0
-%
-% Copyright (C) Darius Plausinaitis
-% Written by Darius Plausinaitis
-%--------------------------------------------------------------------------
-% This program is free software; you can redistribute it and/or
-% modify it under the terms of the GNU General Public License
-% as published by the Free Software Foundation; either version 2
-% of the License, or (at your option) any later version.
-%
-% This program is distributed in the hope that it will be useful,
-% but WITHOUT ANY WARRANTY; without even the implied warranty of
-% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
-% GNU General Public License for more details.
-%
-% You should have received a copy of the GNU General Public License
-% along with this program; if not, write to the Free Software
-% Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301,
-% USA.
-%--------------------------------------------------------------------------
-
-% Protection - if the list contains incorrect channel numbers
-channelList = intersect(channelList, 1:settings.numberOfChannels);
-
-%=== For all listed channels ==============================================
-for channelNr = channelList
-
- %% Select (or create) and clear the figure ================================
- % The number 200 is added just for more convenient handling of the open
- % figure windows, when many figures are closed and reopened.
- % Figures drawn or opened by the user, will not be "overwritten" by
- % this function.
-
- figure(channelNr +200);
- clf(channelNr +200);
- set(channelNr +200, 'Name', ['Channel ', num2str(channelNr), ...
- ' (PRN ', ...
- num2str(trackResults(channelNr).PRN), ...
- ') results']);
-
- %% Draw axes ==============================================================
- % Row 1
- handles(1, 1) = subplot(3, 3, 1);
- handles(1, 2) = subplot(3, 3, [2 3]);
- % Row 2
- handles(2, 1) = subplot(3, 3, 4);
- handles(2, 2) = subplot(3, 3, [5 6]);
- % Row 3
- handles(3, 1) = subplot(3, 3, 7);
- handles(3, 2) = subplot(3, 3, 8);
- handles(3, 3) = subplot(3, 3, 9);
-
- %% Plot all figures =======================================================
-
- timeAxisInSeconds = (1:settings.msToProcess-1)/1000;
-
- %----- Discrete-Time Scatter Plot ---------------------------------
- plot(handles(1, 1), trackResults(channelNr).I_PN,...
- trackResults(channelNr).Q_PN, ...
- '.');
-
- grid (handles(1, 1));
- axis (handles(1, 1), 'equal');
- title (handles(1, 1), 'Discrete-Time Scatter Plot');
- xlabel(handles(1, 1), 'I prompt');
- ylabel(handles(1, 1), 'Q prompt');
-
- %----- Nav bits ---------------------------------------------------
- plot (handles(1, 2), timeAxisInSeconds, ...
- trackResults(channelNr).I_PN(1:settings.msToProcess-1));
-
- grid (handles(1, 2));
- title (handles(1, 2), 'Bits of the navigation message');
- xlabel(handles(1, 2), 'Time (s)');
- axis (handles(1, 2), 'tight');
-
- %----- PLL discriminator unfiltered--------------------------------
- plot (handles(2, 1), timeAxisInSeconds, ...
- trackResults(channelNr).pllDiscr(1:settings.msToProcess-1), 'r');
-
- grid (handles(2, 1));
- axis (handles(2, 1), 'tight');
- xlabel(handles(2, 1), 'Time (s)');
- ylabel(handles(2, 1), 'Amplitude');
- title (handles(2, 1), 'Raw PLL discriminator');
-
- %----- Correlation ------------------------------------------------
- plot(handles(2, 2), timeAxisInSeconds, ...
- [sqrt(trackResults(channelNr).I_E(1:settings.msToProcess-1).^2 + ...
- trackResults(channelNr).Q_E(1:settings.msToProcess-1).^2)', ...
- sqrt(trackResults(channelNr).I_P(1:settings.msToProcess-1).^2 + ...
- trackResults(channelNr).Q_P(1:settings.msToProcess-1).^2)', ...
- sqrt(trackResults(channelNr).I_L(1:settings.msToProcess-1).^2 + ...
- trackResults(channelNr).Q_L(1:settings.msToProcess-1).^2)'], ...
- '-*');
-
- grid (handles(2, 2));
- title (handles(2, 2), 'Correlation results');
- xlabel(handles(2, 2), 'Time (s)');
- axis (handles(2, 2), 'tight');
-
- hLegend = legend(handles(2, 2), '$\sqrt{I_{E}^2 + Q_{E}^2}$', ...
- '$\sqrt{I_{P}^2 + Q_{P}^2}$', ...
- '$\sqrt{I_{L}^2 + Q_{L}^2}$');
-
- %set interpreter from tex to latex. This will draw \sqrt correctly
- set(hLegend, 'Interpreter', 'Latex');
-
- %----- PLL discriminator filtered----------------------------------
- plot (handles(3, 1), timeAxisInSeconds, ...
- trackResults(channelNr).pllDiscrFilt(1:settings.msToProcess-1), 'b');
-
- grid (handles(3, 1));
- axis (handles(3, 1), 'tight');
- xlabel(handles(3, 1), 'Time (s)');
- ylabel(handles(3, 1), 'Amplitude');
- title (handles(3, 1), 'Filtered PLL discriminator');
-
- %----- DLL discriminator unfiltered--------------------------------
- plot (handles(3, 2), timeAxisInSeconds, ...
- trackResults(channelNr).dllDiscr(1:settings.msToProcess-1), 'r');
-
- grid (handles(3, 2));
- axis (handles(3, 2), 'tight');
- xlabel(handles(3, 2), 'Time (s)');
- ylabel(handles(3, 2), 'Amplitude');
- title (handles(3, 2), 'Raw DLL discriminator');
-
- %----- DLL discriminator filtered----------------------------------
- plot (handles(3, 3), timeAxisInSeconds, ...
- trackResults(channelNr).dllDiscrFilt(1:settings.msToProcess-1), 'b');
-
- grid (handles(3, 3));
- axis (handles(3, 3), 'tight');
- xlabel(handles(3, 3), 'Time (s)');
- ylabel(handles(3, 3), 'Amplitude');
- title (handles(3, 3), 'Filtered DLL discriminator');
-
-end % for channelNr = channelList
+function plotTracking(channelList, trackResults, settings)
+% This function plots the tracking results for the given channel list.
+%
+% plotTracking(channelList, trackResults, settings)
+%
+% Inputs:
+% channelList - list of channels to be plotted.
+% trackResults - tracking results from the tracking function.
+% settings - receiver settings.
+
+%--------------------------------------------------------------------------
+% SoftGNSS v3.0
+%
+% Copyright (C) Darius Plausinaitis
+% Written by Darius Plausinaitis
+%--------------------------------------------------------------------------
+% This program is free software; you can redistribute it and/or
+% modify it under the terms of the GNU General Public License
+% as published by the Free Software Foundation; either version 2
+% of the License, or (at your option) any later version.
+%
+% This program is distributed in the hope that it will be useful,
+% but WITHOUT ANY WARRANTY; without even the implied warranty of
+% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
+% GNU General Public License for more details.
+%
+% You should have received a copy of the GNU General Public License
+% along with this program; if not, write to the Free Software
+% Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301,
+% USA.
+%--------------------------------------------------------------------------
+
+% Protection - if the list contains incorrect channel numbers
+channelList = intersect(channelList, 1:settings.numberOfChannels);
+
+%=== For all listed channels ==============================================
+for channelNr = channelList
+
+ %% Select (or create) and clear the figure ================================
+ % The number 200 is added just for more convenient handling of the open
+ % figure windows, when many figures are closed and reopened.
+ % Figures drawn or opened by the user, will not be "overwritten" by
+ % this function.
+
+ figure(channelNr +200);
+ clf(channelNr +200);
+ set(channelNr +200, 'Name', ['Channel ', num2str(channelNr), ...
+ ' (PRN ', ...
+ num2str(trackResults(channelNr).PRN), ...
+ ') results']);
+
+ %% Draw axes ==============================================================
+ % Row 1
+ handles(1, 1) = subplot(3, 3, 1);
+ handles(1, 2) = subplot(3, 3, [2 3]);
+ % Row 2
+ handles(2, 1) = subplot(3, 3, 4);
+ handles(2, 2) = subplot(3, 3, [5 6]);
+ % Row 3
+ handles(3, 1) = subplot(3, 3, 7);
+ handles(3, 2) = subplot(3, 3, 8);
+ handles(3, 3) = subplot(3, 3, 9);
+
+ %% Plot all figures =======================================================
+
+ timeAxisInSeconds = (1:settings.msToProcess-1)/1000;
+
+ %----- Discrete-Time Scatter Plot ---------------------------------
+ plot(handles(1, 1), trackResults(channelNr).I_PN,...
+ trackResults(channelNr).Q_PN, ...
+ '.');
+
+ grid (handles(1, 1));
+ axis (handles(1, 1), 'equal');
+ title (handles(1, 1), 'Discrete-Time Scatter Plot');
+ xlabel(handles(1, 1), 'I prompt');
+ ylabel(handles(1, 1), 'Q prompt');
+
+ %----- Nav bits ---------------------------------------------------
+ plot (handles(1, 2), timeAxisInSeconds, ...
+ trackResults(channelNr).I_PN(1:settings.msToProcess-1));
+
+ grid (handles(1, 2));
+ title (handles(1, 2), 'Bits of the navigation message');
+ xlabel(handles(1, 2), 'Time (s)');
+ axis (handles(1, 2), 'tight');
+
+ %----- PLL discriminator unfiltered--------------------------------
+ plot (handles(2, 1), timeAxisInSeconds, ...
+ trackResults(channelNr).pllDiscr(1:settings.msToProcess-1), 'r');
+
+ grid (handles(2, 1));
+ axis (handles(2, 1), 'tight');
+ xlabel(handles(2, 1), 'Time (s)');
+ ylabel(handles(2, 1), 'Amplitude');
+ title (handles(2, 1), 'Raw PLL discriminator');
+
+ %----- Correlation ------------------------------------------------
+ plot(handles(2, 2), timeAxisInSeconds, ...
+ [sqrt(trackResults(channelNr).I_E(1:settings.msToProcess-1).^2 + ...
+ trackResults(channelNr).Q_E(1:settings.msToProcess-1).^2)', ...
+ sqrt(trackResults(channelNr).I_P(1:settings.msToProcess-1).^2 + ...
+ trackResults(channelNr).Q_P(1:settings.msToProcess-1).^2)', ...
+ sqrt(trackResults(channelNr).I_L(1:settings.msToProcess-1).^2 + ...
+ trackResults(channelNr).Q_L(1:settings.msToProcess-1).^2)'], ...
+ '-*');
+
+ grid (handles(2, 2));
+ title (handles(2, 2), 'Correlation results');
+ xlabel(handles(2, 2), 'Time (s)');
+ axis (handles(2, 2), 'tight');
+
+ hLegend = legend(handles(2, 2), '$\sqrt{I_{E}^2 + Q_{E}^2}$', ...
+ '$\sqrt{I_{P}^2 + Q_{P}^2}$', ...
+ '$\sqrt{I_{L}^2 + Q_{L}^2}$');
+
+ %set interpreter from tex to latex. This will draw \sqrt correctly
+ set(hLegend, 'Interpreter', 'Latex');
+
+ %----- PLL discriminator filtered----------------------------------
+ plot (handles(3, 1), timeAxisInSeconds, ...
+ trackResults(channelNr).pllDiscrFilt(1:settings.msToProcess-1), 'b');
+
+ grid (handles(3, 1));
+ axis (handles(3, 1), 'tight');
+ xlabel(handles(3, 1), 'Time (s)');
+ ylabel(handles(3, 1), 'Amplitude');
+ title (handles(3, 1), 'Filtered PLL discriminator');
+
+ %----- DLL discriminator unfiltered--------------------------------
+ plot (handles(3, 2), timeAxisInSeconds, ...
+ trackResults(channelNr).dllDiscr(1:settings.msToProcess-1), 'r');
+
+ grid (handles(3, 2));
+ axis (handles(3, 2), 'tight');
+ xlabel(handles(3, 2), 'Time (s)');
+ ylabel(handles(3, 2), 'Amplitude');
+ title (handles(3, 2), 'Raw DLL discriminator');
+
+ %----- DLL discriminator filtered----------------------------------
+ plot (handles(3, 3), timeAxisInSeconds, ...
+ trackResults(channelNr).dllDiscrFilt(1:settings.msToProcess-1), 'b');
+
+ grid (handles(3, 3));
+ axis (handles(3, 3), 'tight');
+ xlabel(handles(3, 3), 'Time (s)');
+ ylabel(handles(3, 3), 'Amplitude');
+ title (handles(3, 3), 'Filtered DLL discriminator');
+
+end % for channelNr = channelList