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/dynadjust/include/config/dnaprojectfile.cpp

//============================================================================
// Name         : dnaprojectfile.cpp
// Author       : Roger Fraser
// Contributors :
// Version      : 1.00
// Copyright    : Copyright 2017 Geoscience Australia
//
//                Licensed under the Apache License, Version 2.0 (the "License");
//                you may not use this file except in compliance with the License.
//                You may obtain a copy of the License at
//               
//                http ://www.apache.org/licenses/LICENSE-2.0
//               
//                Unless required by applicable law or agreed to in writing, software
//                distributed under the License is distributed on an "AS IS" BASIS,
//                WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
//                See the License for the specific language governing permissions and
//                limitations under the License.
//
// Description  : DynAdjust Project class
//============================================================================

#include <include/config/dnatypes-gui.hpp>
#include <include/config/dnaprojectfile.hpp>
#include <include/functions/dnaiostreamfuncs.hpp>
#include <include/functions/dnatemplatefuncs.hpp>
#include <include/functions/dnastringfuncs.hpp>
#include <include/functions/dnafilepathfuncs.hpp>
#include <include/config/dnaoptions-helper.hpp>

namespace dynadjust {

CDnaProjectFile::CDnaProjectFile(void)
{
        
}

// Create instance and initialise settings based on context
CDnaProjectFile::CDnaProjectFile(const string& projectFile, const UINT16& verifyContext)
{
        LoadProjectFile(projectFile);

        switch (verifyContext)
        {
        case importSetting:
                InitialiseImportSettings();
                break;
        case reftranSetting:
                InitialiseReftranSettings();
                break;
        case geoidSetting:
                InitialiseGeoidSettings();
                break;
        case segmentSetting:
                InitialiseSegmentSettings();
                break;
        case adjustSetting:
                InitialiseAdjustSettings();
                break;
        default:
                InitialiseGeneralSettings();
        }
}


//CDnaProjectFile::CDnaProjectFile(const project_settings& project)
//        : settings_(project)
//{
//}

//CDnaProjectFile::CDnaProjectFile(const CDnaProjectFile& newProject)
//        : settings_(newProject.settings_)
//{        
//}

//CDnaProjectFile& CDnaProjectFile::operator=(const CDnaProjectFile& rhs)
//{
//        if (this == &rhs)        // check for assignment to self!
//                return *this;
//
//        settings_ = rhs.settings_;
//
//        return *this;
//}

//bool CDnaProjectFile::operator==(const CDnaProjectFile& rhs) const
//{
//        return (settings_ == rhs.settings_);
//}
        

void CDnaProjectFile::LoadProjectFile(const string& projectFile)
{
        // load project file
        if (exists(projectFile))
        {
                settings_.g.project_file = projectFile;
                LoadProjectFile();
        }
        else
        {
                stringstream err_msg;
                err_msg << "LoadProjectFile(): Project file " << 
                projectFile << " does not exist." << endl;        
                throw boost::enable_current_exception(runtime_error(err_msg.str()));
        }
}


void CDnaProjectFile::LoadProjectFile()
{
        // load project file using p.g.project_file
        std::ifstream dnaproj_file;

        stringstream err_msg;
        err_msg << "LoadProjectFile(): An error was encountered when opening " << 
                settings_.g.project_file << "." << endl;

        try {
                // create binary aml file.  Throws runtime_error on failure.
                file_opener(dnaproj_file, settings_.g.project_file,
                        ios::in, ascii, true);
        }
        catch (const runtime_error& e) {
                err_msg << e.what();
                throw boost::enable_current_exception(runtime_error(err_msg.str()));
        }
        catch (...) {
                throw boost::enable_current_exception(runtime_error(err_msg.str()));
        }

        err_msg.str("");
        err_msg << "LoadProjectFile(): An error was encountered when loading from " << 
                settings_.g.project_file << "." << endl;

        string str, line, var, val;
        stringstream ss;

        settingMode mSetting(unknownSetting);
        
        while (!dnaproj_file.eof())
        {
                try {
                        getline(dnaproj_file, line, '\n');
                }
                catch (std::ifstream::failure& f)
                {
                        if (dnaproj_file.eof())
                                break;
                        
                        err_msg << f.what() << endl;
                        throw boost::enable_current_exception(runtime_error(err_msg.str()));
                }
                catch (...)
                {
                        if (dnaproj_file.eof())
                                break;

                        err_msg << "Could not read file." << endl;
                        throw boost::enable_current_exception(runtime_error(err_msg.str()));
                }


                // Blank line?
                if (line.empty())
                        continue;

                // Line too short?
                if (line.length() <= PRINT_VAR_PAD)
                        continue;

                // #variables
                if (line.find(section_variables) != string::npos)
                {
                        mSetting = switchSetting;
                        continue;
                }

                // #general
                if (line.find(section_general) != string::npos)
                {
                        mSetting = generalSetting;
                        continue;
                }

                // #import
                if (line.find(section_import) != string::npos)
                {
                        mSetting = importSetting;
                        continue;
                }

                // #reftran
                if (line.find(section_reftran) != string::npos)
                {
                        mSetting = reftranSetting;
                        continue;
                }

                // #general
                if (line.find(section_geoid) != string::npos)
                {
                        mSetting = geoidSetting;
                        continue;
                }

                // #segment
                if (line.find(section_segment) != string::npos)
                {
                        mSetting = segmentSetting;
                        continue;
                }

                // #adjust
                if (line.find(section_adjust) != string::npos)
                {
                        mSetting = adjustSetting;
                        continue;
                }

                // #output
                if (line.find(section_output) != string::npos)
                {
                        mSetting = outputSetting;
                        continue;
                }

                // #plot
                if (line.find(section_plot) != string::npos)
                {
                        mSetting = plotSetting;
                        continue;
                }

                // #display
                if (line.find(section_display) != string::npos)
                {
                        mSetting = displaySetting;
                        continue;
                }
                
                // Line?
                if (line.find("----------") != string::npos)
                        continue;

                // Now get the variables and their value relating to the setting
                var = trimstr(line.substr(0, PRINT_VAR_PAD));
                if (line.length() > PRINT_VAR_PAD)
                        val = trimstr(line.substr(PRINT_VAR_PAD));
                else
                        val.clear();

                try {
                        switch (mSetting)
                        {
                        case generalSetting:
                                LoadSettingGeneral(mSetting, var, val);
                                break;
                        case importSetting:
                                LoadSettingImport(mSetting, var, val);
                                break;
                        case reftranSetting:
                                LoadSettingReftran(var, val);
                                break;
                        case geoidSetting:
                                LoadSettingGeoid(var, val);
                                break;
                        case segmentSetting:
                                LoadSettingSegment(var, val);
                                break;
                        case adjustSetting:
                                LoadSettingAdjust(var, val);
                                LoadSettingOutput(var, val);
                                break;
                        case outputSetting:
                                LoadSettingOutput(var, val);
                                break;
                        case plotSetting:
                                LoadSettingOutput(var, val);
                                break;
                        case displaySetting:
                                break;
                        default:
                                  break;
                        }
                }
                catch (const runtime_error& e) {
                        err_msg << e.what();
                        throw boost::enable_current_exception(runtime_error(err_msg.str()));
                }
                catch (...) {
                        throw boost::enable_current_exception(runtime_error(err_msg.str()));
                }
        }

        dnaproj_file.clear();
        dnaproj_file.close();
}

void CDnaProjectFile::InitialiseGeneralSettings()
{
        if (settings_.g.network_name.empty())
        {
                stringstream ss;
                ss << "The project file does not provide the network name. " << endl << endl;
                throw boost::enable_current_exception(runtime_error(ss.str()));
        }
}

void CDnaProjectFile::InitialiseImportSettings()
{
        InitialiseGeneralSettings();

        if (settings_.i.input_files.empty() && 
                settings_.i.seg_file.empty())
        {
                stringstream ss;
                ss << "Nothing to do - the project file does not list any files to import. " << endl << endl;
                throw boost::enable_current_exception(runtime_error(ss.str()));
        }

        string firstPart(settings_.g.output_folder + FOLDER_SLASH + settings_.g.network_name + ".");
        
        if (!settings_.i.bst_file.empty())
        {
                if (!exists(settings_.i.bst_file))
                        // Does the file exist?  No.  
                        // Assume it is a filename contained in the input folder.
                        // import will throw an exception if it cannot be found.
                        settings_.i.bst_file = formPath<string>(settings_.g.input_folder, 
                                leafStr<string>(settings_.i.bst_file));
        }
        else
                settings_.i.bst_file = firstPart + "bst";        // binary stations file

        if (!settings_.i.bms_file.empty())
        {
                if (!exists(settings_.i.bms_file))
                        // Does the file exist?  No.  
                        // Assume it is a filename contained in the input folder.
                        // import will throw an exception if it cannot be found.
                        settings_.i.bms_file = formPath<string>(settings_.g.input_folder, 
                                leafStr<string>(settings_.i.bms_file));
        }
        else
                settings_.i.bms_file = firstPart + "bms";        // binary measurements file

        settings_.i.asl_file = firstPart + "asl";        // associated stations list
        settings_.i.aml_file = firstPart + "aml";        // associated measurements list
        settings_.i.map_file = firstPart + "map";        // station names map
        settings_.i.dst_file = firstPart + "dst";        // fuplicate stations
        settings_.i.dms_file = firstPart + "dms";        // duplicate measurements
        settings_.i.imp_file = firstPart + "imp";        // log

        if (settings_.o._msr_to_stn == 1)
                settings_.o._m2s_file = firstPart + "m2s";        // measurement to stations table

        if (!settings_.i.seg_file.empty())
        {
                if (!exists(settings_.i.seg_file))
                        // Does the file exist?  No.  
                        // Assume it is a filename contained in the input folder.
                        // import will throw an exception if it cannot be found.
                        settings_.i.seg_file = formPath<string>(settings_.g.input_folder, 
                                leafStr<string>(settings_.i.seg_file));
        }

        //////////////////////////////////////////////////////////////////////////////
        // GNSS scaling
        if (fabs(settings_.i.pscale - 1.0) > PRECISION_1E5 ||
                fabs(settings_.i.lscale - 1.0) > PRECISION_1E5 ||
                fabs(settings_.i.hscale - 1.0) > PRECISION_1E5 ||
                fabs(settings_.i.vscale - 1.0) > PRECISION_1E5 ||
                !settings_.i.scalar_file.empty())
                settings_.i.apply_scaling = 1;
        
        if (!settings_.i.scalar_file.empty())
        {
                if (!exists(settings_.i.scalar_file))                        
                        // Does the file exist?  No.  
                        // Assume it is a filename contained in the input folder.
                        // import will throw an exception if it cannot be found.
                        settings_.i.scalar_file = formPath<string>(settings_.g.input_folder, 
                                leafStr<string>(settings_.i.scalar_file));        
        }

        // Create file name based on the provided block
        string fileName(settings_.g.network_name);
        if (settings_.i.import_block)
        {
                stringstream blk("");
                blk << ".block-" << settings_.i.import_block_number;
                fileName += blk.str();
        }

        if (settings_.i.export_dynaml)
        {
                if (settings_.i.export_single_xml_file)
                        settings_.i.xml_outfile = formPath<string>(settings_.g.output_folder, 
                                fileName, "xml");
                else
                {
                        settings_.i.xml_stnfile = formPath<string>(settings_.g.output_folder, 
                                fileName + "stn", "xml");
                        settings_.i.xml_msrfile = formPath<string>(settings_.g.output_folder, 
                                fileName + "msr", "xml");
                }
        }

        if (settings_.i.export_dna_files)
        {
                settings_.i.dna_stnfile = formPath<string>(settings_.g.output_folder, 
                        fileName, "stn");
                settings_.i.dna_msrfile = formPath<string>(settings_.g.output_folder, 
                        fileName, "msr");                
        }

        if (settings_.i.simulate_measurements)
                settings_.i.simulate_msrfile = formPath<string>(settings_.g.output_folder, 
                        settings_.g.network_name, "simulated.msr");

}

void CDnaProjectFile::InitialiseReftranSettings()
{
        InitialiseGeneralSettings();

        if (settings_.r.reference_frame.empty())
        {
                stringstream ss;
                ss << "Nothing to do - the project file does not specify a reference frame." << endl << endl;
                throw boost::enable_current_exception(runtime_error(ss.str()));
        }

        string firstPart(settings_.g.output_folder + FOLDER_SLASH + settings_.g.network_name + ".");
        settings_.r.bst_file = firstPart + "bst";        // binary stations file
        settings_.r.bms_file = firstPart + "bms";        // binary measurements file
        settings_.r.rft_file = firstPart + "rft";        // log

        if (settings_.i.export_dynaml == 1)
        {
                if (settings_.i.export_single_xml_file == 1)
                        settings_.i.xml_outfile = firstPart + "xml";                // single XML file
                else
                {
                        settings_.i.xml_stnfile = formPath<string>(settings_.g.output_folder,
                                settings_.g.network_name + "stn", "xml");
                        settings_.i.xml_msrfile = formPath<string>(settings_.g.output_folder,
                                settings_.g.network_name + "msr", "xml");;
                }
        }

        if (settings_.i.export_dna_files == 1)
        {
                settings_.i.dna_stnfile = firstPart + "stn";        // station file
                settings_.i.dna_msrfile = firstPart + "msr";        // measurement file
        }
        
        if (settings_.o._export_snx_file == 1)
                settings_.o._snx_file = firstPart + "snx";                // SINEX file

}

void CDnaProjectFile::InitialiseGeoidSettings()
{
        InitialiseGeneralSettings();

        // Expected behaviour: when running geoid using a project file, network name must exist
        if (settings_.g.network_name.empty())
        {
                stringstream ss;
                ss << "Nothing to do - the project file does not provide a network name. " << endl << endl;
                throw boost::enable_current_exception(runtime_error(ss.str()));
        }
        
        settings_.n.bst_file = formPath<string>(settings_.g.input_folder, settings_.g.network_name, "bst");                // binary stations file
        settings_.n.geo_file = formPath<string>(settings_.g.output_folder, settings_.g.network_name, "geo");        // dna geo file
        settings_.n.file_mode = 1;

        if (settings_.n.ntv2_geoid_file.empty())
        {
                stringstream ss;
                ss << "Nothing to do - the project file does not provide an NTv2 grid file path. " << endl << endl;
                throw boost::enable_current_exception(runtime_error(ss.str()));
        }
}

void CDnaProjectFile::InitialiseSegmentSettings()
{
        InitialiseGeneralSettings();

        string firstPart(settings_.g.output_folder + FOLDER_SLASH + settings_.g.network_name + ".");
        settings_.s.bst_file = firstPart + "bst";        // binary stations file
        settings_.s.bms_file = firstPart + "bms";        // binary measurements file
        settings_.s.asl_file = firstPart + "asl";        // associated stations list
        settings_.s.aml_file = firstPart + "aml";        // associated measurements list
        settings_.s.map_file = firstPart + "map";        // station names map
        settings_.s.seg_file = firstPart + "seg";        // segmentation file
        settings_.s.sap_file = firstPart + "sap";        // station appearance file
}

void CDnaProjectFile::InitialiseAdjustSettings()
{
        InitialiseGeneralSettings();

        string firstPart(settings_.g.output_folder + FOLDER_SLASH + settings_.g.network_name + ".");
        settings_.a.bst_file = firstPart + "bst";        // binary stations file
        settings_.a.bms_file = firstPart + "bms";        // binary measurements file

        if (!exists(settings_.a.bst_file) || !exists(settings_.a.bms_file))
        {
                stringstream ss;
                ss << "- Nothing to do: ";  
                        
                if (settings_.g.network_name.empty())
                        ss << endl << "network name has not been specified specified, and " << endl << "               ";  
                ss << settings_.a.bst_file << " and " << settings_.a.bms_file << " do not exist." << endl << endl;  
                throw boost::enable_current_exception(runtime_error(ss.str()));
        }
        
        // Station appearance file
        settings_.a.seg_file = firstPart + "seg";        // segmentation file
        settings_.s.sap_file = firstPart + "sap";        // station appearance file
        settings_.s.asl_file = firstPart + "asl";        // associated stations list
        settings_.s.aml_file = firstPart + "aml";        // associated measurements list
        settings_.a.map_file = firstPart + "map";        // station names map

        // Set up file names dependent on adjustment mode
        settings_.o._xyz_file = settings_.o._adj_file = 
                formPath<string>(settings_.g.output_folder, settings_.g.network_name);

        if (settings_.o._positional_uncertainty)
                settings_.o._apu_file = settings_.o._adj_file;

        if (settings_.o._init_stn_corrections)
                settings_.o._cor_file = settings_.o._adj_file;

        switch (settings_.a.adjust_mode)
        {
        case Phased_Block_1Mode:
        case PhasedMode:

                settings_.o._adj_file += ".phased";
                settings_.o._xyz_file += ".phased";

                if (settings_.o._positional_uncertainty)
                        settings_.o._apu_file += ".phased";

                if (settings_.o._init_stn_corrections)
                        settings_.o._cor_file += ".phased";
                
                if (settings_.a.adjust_mode == Phased_Block_1Mode)
                {
                        settings_.o._adj_file += "-block1";
                        settings_.o._xyz_file += "-block1";
                        
                        if (settings_.o._positional_uncertainty)
                                settings_.o._apu_file += "-block1";

                        if (settings_.o._init_stn_corrections)
                                settings_.o._cor_file += "-block1";

                }
                else if (settings_.a.stage)
                {
                        settings_.o._adj_file += "-stage";
                        settings_.o._xyz_file += "-stage";

                        if (settings_.o._positional_uncertainty)
                                settings_.o._apu_file += "-stage";

                        if (settings_.o._init_stn_corrections)
                                settings_.o._cor_file += "-stage";

                }
#ifdef MULTI_THREAD_ADJUST
                else if (settings_.a.multi_thread)
                {
                        settings_.o._adj_file += "-mt";
                        settings_.o._xyz_file += "-mt";
                        
                        if (settings_.o._positional_uncertainty)
                                settings_.o._apu_file += "-mt";

                        if (settings_.o._init_stn_corrections)
                                settings_.o._cor_file += "-mt";
                }
#endif
                break;
        case SimultaneousMode:
                settings_.o._adj_file += ".simult";
                settings_.o._xyz_file += ".simult";
                
                if (settings_.o._positional_uncertainty)
                        settings_.o._apu_file += ".simult";
                if (settings_.o._init_stn_corrections)
                        settings_.o._cor_file += ".simult";
                break;
        }

        settings_.o._adj_file += ".adj";
        settings_.o._xyz_file += ".xyz";

        if (settings_.o._positional_uncertainty)
                settings_.o._apu_file += ".apu";

        if (settings_.o._init_stn_corrections)
                settings_.o._cor_file += ".cor";

        if (settings_.a.fixed_std_dev < 0.)
                settings_.a.fixed_std_dev = PRECISION_1E6;
        else if (settings_.a.fixed_std_dev < PRECISION_1E10)
                settings_.a.fixed_std_dev = PRECISION_1E6;

        if (settings_.a.free_std_dev < 0.)
                settings_.a.free_std_dev = 10.0;
        else if (settings_.a.free_std_dev < PRECISION_1E10)
                settings_.a.free_std_dev = 10.0;

}

void CDnaProjectFile::LoadSettingGeneral(const settingMode mSetting, const string& var, string& val)
{
        // general settings
        if (iequals(var, QUIET))
        {
                if (val.empty())
                        return;                        
                settings_.g.quiet = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, VERBOSE))
        {
                if (val.empty())
                        return;
                settings_.g.verbose = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, PROJECT_FILE))
        {
                if (val.empty())
                        return;                        
                settings_.g.project_file = val;
        }
        else if (iequals(var, DYNADJUST_LOG_FILE))
        {
                if (val.empty())
                        return;                        
                settings_.g.log_file = val;
        }
        else if (iequals(var, NETWORK_NAME))
        {
                if (val.empty())
                        return;
                string_string_pair t;
                switch (mSetting)
                {
                case switchSetting:
                        t.first = var.c_str();
                        t.second = val.substr(0,4).c_str();
                        t.second = trimstr(t.second);
                        if (t.second.substr(0,2) == "${" && t.second.at(3) == '}')
                        {
                                settings_.g.variables.push_back(t);
                                sort(settings_.g.variables.begin(), settings_.g.variables.end(), PairCompareFirst<string, string>());
                        }
                        break;
                case generalSetting:
                        settings_.g.network_name = val;
                        break;
                default:
                          break;
                }                        
        }
        else if (iequals(var, INPUT_FOLDER))
        {
                if (val.empty())
                        return;                        
                settings_.g.input_folder = val;
        }
        else if (iequals(var, OUTPUT_FOLDER))
        {
                if (val.empty())
                        return;                        
                settings_.g.output_folder = val;
        }
                
}
        
void CDnaProjectFile::LoadSettingImport(const settingMode mSetting, const string& var, string& val)
{
        // Import settings
        if (iequals(var, IMPORT_FILE))
        {
                if (val.empty())
                        return;                        
                settings_.i.input_files.push_back(formPath<string>(settings_.g.input_folder, val));
        }
        else if (iequals(var, REFERENCE_FRAME))
        {
                if (val.empty())
                        return;
                settings_.i.reference_frame = val;
        }
        else if (iequals(var, OVERRIDE_INPUT_FRAME))
        {
                if (val.empty())
                        return;
                settings_.i.override_input_rfame = yesno_uint<UINT16, string>(val);;
        }
        else if (iequals(var, IMPORT_GEO_FILE))
        {
                if (val.empty())
                        return;
                settings_.i.geo_file = formPath<string>(settings_.g.input_folder, val);
                settings_.i.import_geo_file = 1;
        }
        else if (iequals(var, BIN_STN_FILE))
        {
                string_string_pair t;
                switch (mSetting)
                {
                case switchSetting:
                        if (val.empty())
                                return;
                        t.first = var.c_str();
                        t.second = val.substr(0,4).c_str();
                        t.second = trimstr(t.second);
                        if (t.second.substr(0,2) == "${" && t.second.at(3) == '}')
                        {
                                settings_.g.variables.push_back(t);
                                sort(settings_.g.variables.begin(), settings_.g.variables.end(), PairCompareFirst<string, string>());
                        }
                        break;
                case importSetting:
                        if (val.empty())
                                // default export bst file - create in output folder
                                settings_.i.bst_file = formPath<string>(settings_.g.output_folder, settings_.g.network_name, "bst");        // binary stations file
                        else
                                // user specified bst file - look in input folder
                                settings_.i.bst_file = formPath<string>(settings_.g.input_folder, val);
                        break;
                default:
                          break;
                }
        }
        else if (iequals(var, BIN_MSR_FILE))
        {
                string_string_pair t;
                switch (mSetting)
                {
                case switchSetting:
                        if (val.empty())
                                return;
                        t.first = var.c_str();
                        t.second = val.substr(0,4).c_str();
                        t.second = trimstr(t.second);
                        if (t.second.substr(0,2) == "${" && t.second.at(3) == '}')
                        {
                                settings_.g.variables.push_back(t);
                                sort(settings_.g.variables.begin(), settings_.g.variables.end(), PairCompareFirst<string, string>());
                        }
                        break;
                case importSetting:
                        if (val.empty())
                                settings_.i.bms_file = formPath<string>(settings_.g.output_folder, settings_.g.network_name, "bms");        // binary stations file
                        else
                                settings_.i.bms_file = formPath<string>(settings_.g.input_folder, val);
                        break;
                default:
                          break;
                }
        }
        else if (iequals(var, MAP_FILE))
        {
                if (val.empty())
                        return;
                string_string_pair t;
                switch (mSetting)
                {
                case switchSetting:
                        t.first = var.c_str();
                        t.second = val.substr(0,4).c_str();
                        t.second = trimstr(t.second);
                        if (t.second.substr(0,2) == "${" && t.second.at(3) == '}')
                        {
                                settings_.g.variables.push_back(t);
                                sort(settings_.g.variables.begin(), settings_.g.variables.end(), PairCompareFirst<string, string>());
                        }
                        break;
                case importSetting:
                        settings_.i.map_file = formPath<string>(settings_.g.output_folder, val);
                        break;
                default:
                          break;
                }                        
        }
        else if (iequals(var, ASL_FILE))
        {
                if (val.empty())
                        return;
                string_string_pair t;
                switch (mSetting)
                {
                case switchSetting:
                        t.first = var.c_str();
                        t.second = val.substr(0,4).c_str();
                        t.second = trimstr(t.second);
                        if (t.second.substr(0,2) == "${" && t.second.at(3) == '}')
                        {
                                settings_.g.variables.push_back(t);
                                sort(settings_.g.variables.begin(), settings_.g.variables.end(), PairCompareFirst<string, string>());
                        }
                        break;
                case importSetting:
                        settings_.i.asl_file = formPath<string>(settings_.g.output_folder, val);
                        break;
                default:
                          break;
                }
        }
        else if (iequals(var, AML_FILE))
        {
                if (val.empty())
                        return;
                string_string_pair t;
                switch (mSetting)
                {
                case switchSetting:
                        t.first = var.c_str();
                        t.second = val.substr(0,4).c_str();
                        t.second = trimstr(t.second);
                        if (t.second.substr(0,2) == "${" && t.second.at(3) == '}')
                        {
                                settings_.g.variables.push_back(t);
                                sort(settings_.g.variables.begin(), settings_.g.variables.end(), PairCompareFirst<string, string>());
                        }
                        break;
                case importSetting:
                        settings_.i.aml_file = formPath<string>(settings_.g.output_folder, val);
                        break;
                default:
                          break;
                }
        }
        else if (iequals(var, DST_FILE))
        {
                if (val.empty())
                        return;
                settings_.i.dst_file = formPath<string>(settings_.g.output_folder, val);
        }
        else if (iequals(var, DMS_FILE))
        {
                if (val.empty())
                        return;
                settings_.i.dms_file = formPath<string>(settings_.g.output_folder, val);
        }
        else if (iequals(var, BOUNDING_BOX))
        {
                if (val.empty())
                        return;
                settings_.i.bounding_box = val;
        }
        else if (iequals(var, GET_MSRS_TRANSCENDING_BOX))
        {
                if (val.empty())
                        return;
                settings_.i.include_transcending_msrs = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, INCLUDE_STN_ASSOC_MSRS))
        {
                if (val.empty())
                        return;
                settings_.i.stn_associated_msr_include = valorno_string<string>(val);
        }
        else if (iequals(var, EXCLUDE_STN_ASSOC_MSRS))
        {
                if (val.empty())
                        return;
                settings_.i.stn_associated_msr_exclude = valorno_string<string>(val);
        }
        else if (iequals(var, SPLIT_CLUSTERS))
        {
                if (val.empty())
                        return;
                settings_.i.split_clusters = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, IMPORT_SEG_BLOCK))
        {
                if (val.empty())
                        return;
                settings_.i.import_block_number = valorno_uint<UINT16, string>(val, settings_.i.import_block);
        }
        else if (iequals(var, SEG_FILE))
        {
                if (val.empty())
                        return;
                settings_.i.seg_file = formPath<string>(settings_.g.input_folder, val);
        }
        else if (iequals(var, PREFER_X_MSR_AS_G))
        {
                if (val.empty())
                        return;
                settings_.i.prefer_single_x_as_g = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, INCLUDE_MSRS))
        {
                if (val.empty())
                        return;
                settings_.i.include_msrs = val;
        }
        else if (iequals(var, EXCLUDE_MSRS))
        {
                if (val.empty())
                        return;
                settings_.i.exclude_msrs = val;
        }
        else if (iequals(var, STATION_RENAMING_FILE))
        {
                if (val.empty())
                        return;
                settings_.i.stn_renamingfile = formPath<string>(settings_.g.input_folder, val);
        }
        else if (iequals(var, STATION_DISCONTINUITY_FILE))
        {
                if (val.empty())
                        return;
                settings_.i.stn_discontinuityfile = formPath<string>(settings_.g.input_folder, val);
                settings_.i.apply_discontinuities = true;
        }
        else if (iequals(var, TEST_NEARBY_STNS))
        {
                if (val.empty())
                        return;
                settings_.i.search_nearby_stn = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, TEST_NEARBY_STN_DIST))
        {
                if (val.empty())
                        return;
                settings_.i.search_stn_radius = DoubleFromString<double>(val);
        }
        else if (iequals(var, TEST_SIMILAR_MSRS))
        {
                if (val.empty())
                        return;
                settings_.i.search_similar_msr = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, TEST_SIMILAR_GNSS_MSRS))
        {
                if (val.empty())
                        return;
                settings_.i.search_similar_msr_gx = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, IGNORE_SIMILAR_MSRS))
        {
                if (val.empty())
                        return;
                settings_.i.ignore_similar_msr = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, REMOVE_IGNORED_MSRS))
        {
                if (val.empty())
                        return;
                settings_.i.remove_ignored_msr = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, FLAG_UNUSED_STNS))
        {
                if (val.empty())
                        return;
                settings_.i.flag_unused_stn = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, TEST_INTEGRITY))
        {
                if (val.empty())
                        return;                        
                settings_.i.test_integrity = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, VSCALE))
        {
                if (val.empty())
                        return;
                settings_.i.vscale = DoubleFromString<double>(val);
        }
        else if (iequals(var, PSCALE))
        {
                if (val.empty())
                        return;
                settings_.i.pscale = DoubleFromString<double>(val);
        }
        else if (iequals(var, LSCALE))
        {
                if (val.empty())
                        return;
                settings_.i.lscale = DoubleFromString<double>(val);
        }
        else if (iequals(var, HSCALE))
        {
                if (val.empty())
                        return;
                settings_.i.hscale = DoubleFromString<double>(val);
        }
        else if (iequals(var, SCALAR_FILE))
        {
                if (val.empty())
                        return;
                settings_.i.scalar_file = formPath<string>(settings_.g.input_folder, val);
        }
        else if (iequals(var, EXPORT_XML_FILES))
        {
                if (val.empty())
                        return;                        
                settings_.i.export_dynaml = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, EXPORT_SINGLE_XML_FILE))
        {
                if (val.empty())
                        return;                        
                settings_.i.export_single_xml_file = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, EXPORT_FROM_BINARY))
        {
                if (val.empty())
                        return;                        
                settings_.i.export_from_bfiles = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, EXPORT_DNA_FILES))
        {
                if (val.empty())
                        return;                        
                settings_.i.export_dna_files = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, EXPORT_ASL_FILE))
        {
                if (val.empty())
                        return;                        
                settings_.i.export_asl_file = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, EXPORT_AML_FILE))
        {
                if (val.empty())
                        return;                        
                settings_.i.export_aml_file = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, EXPORT_MAP_FILE))
        {
                if (val.empty())
                        return;                        
                settings_.i.export_map_file = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, SIMULATE_MSR_FILE))
        {
                if (val.empty())
                        return;                        
                settings_.i.simulate_measurements = yesno_uint<UINT16, string>(val);
        }
        //else if (iequals(var, VERIFY_COORDS))
        //{
        //        if (val.empty())
        //                return;                        
        //        settings_.i.verify_coordinates = lexical_cast<UINT16, string>(val);
        //}
        
}
        
void CDnaProjectFile::LoadSettingReftran(const string& var, string& val)
{
        if (iequals(var, REFERENCE_FRAME))
        {
                if (val.empty())
                        return;
                settings_.r.reference_frame = val;
        }
        else if (iequals(var, EPOCH))
        {
                if (val.empty())
                        return;
                settings_.r.epoch = val;
        }
        else if (iequals(var, TECTONIC_PLATE_MODEL_OPTION))
        {
                if (val.empty())
                        return;
                settings_.r.plate_model_option = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, TECTONIC_PLATE_BDY_FILE))
        {
                if (val.empty())
                        return;
                settings_.r.tpb_file = val;

                if (!exists(val))
                        if (exists(formPath<string>(settings_.g.input_folder, val)))
                                settings_.r.tpb_file = formPath<string>(settings_.g.input_folder, val);
        }
        else if (iequals(var, TECTONIC_PLATE_POLE_FILE))
        {
                if (val.empty())
                        return;
                settings_.r.tpp_file = val;

                if (!exists(val))
                        if (exists(formPath<string>(settings_.g.input_folder, val)))
                                settings_.r.tpp_file = formPath<string>(settings_.g.input_folder, val);
        }
}
        
void CDnaProjectFile::LoadSettingGeoid(const string& var, string& val)
{
        if (iequals(var, DAT_FILEPATH))
        {
                if (val.empty())
                        return;
                settings_.n.rdat_geoid_file = formPath<string>(settings_.g.input_folder, val);
        }
        else if (iequals(var, NTV2_FILEPATH))
        {
                if (val.empty())
                        return;
                settings_.n.ntv2_geoid_file = val;

                if (!exists(val))
                        if (exists(formPath<string>(settings_.g.input_folder, val)))
                                settings_.n.ntv2_geoid_file = formPath<string>(settings_.g.input_folder, val);
        }
        else if (iequals(var, INPUT_FILE))
        {
                if (val.empty())
                        return;
                settings_.n.input_file = formPath<string>(settings_.g.input_folder, val);
        }
        //else if (iequals(var, BIN_STN_FILE))
        //{
        //        if (val.empty())
        //                return;
        //        settings_.n.bst_file = formPath<string>(settings_.g.input_folder, val);
        //}
        else if (iequals(var, METHOD))
        {
                if (val.empty())
                        return;
                settings_.n.interpolation_method = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, DDEG_FORMAT))
        {
                if (val.empty())
                        return;
                settings_.n.coordinate_format = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, DIRECTION))
        {
                if (val.empty())
                        return;
                settings_.n.ellipsoid_to_ortho = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, CONVERT_BST_HT))
        {
                if (val.empty())
                        return;
                settings_.n.convert_heights = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, EXPORT_GEO_FILE))
        {
                if (val.empty())
                        return;
                settings_.n.export_dna_geo_file = yesno_uint<UINT16, string>(val);
        }
}
        
void CDnaProjectFile::LoadSettingSegment(const string& var, string& val)
{
        if (iequals(var, NET_FILE))
        {
                if (val.empty())
                        return;
                settings_.s.net_file = formPath<string>(settings_.g.input_folder, val);
        }
        else if (iequals(var, SEG_FILE))
        {
                if (val.empty())
                        return;
                settings_.s.seg_file = val;

                if (!exists(val))
                        if (exists(formPath<string>(settings_.g.input_folder, val)))
                                settings_.s.seg_file = formPath<string>(settings_.g.input_folder, val);
        }
        else if (iequals(var, BIN_STN_FILE))
        {
                if (val.empty())
                        return;
                settings_.s.bst_file = val;

                if (!exists(val))
                        if (exists(formPath<string>(settings_.g.input_folder, val)))
                                settings_.s.bst_file = formPath<string>(settings_.g.input_folder, val);
        }
        else if (iequals(var, BIN_MSR_FILE))
        {
                if (val.empty())
                        return;
                settings_.s.bms_file = val;

                if (!exists(val))
                        if (exists(formPath<string>(settings_.g.input_folder, val)))
                                settings_.s.bms_file = formPath<string>(settings_.g.input_folder, val);
        }
        else if (iequals(var, SEG_MIN_INNER_STNS))
        {
                if (val.empty())
                        return;
                settings_.s.min_inner_stations = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, SEG_THRESHOLD_STNS))
        {
                if (val.empty())
                        return;
                settings_.s.max_total_stations = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, SEG_FORCE_CONTIGUOUS))
        {
                if (val.empty())
                        return;
                settings_.s.force_contiguous_blocks = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, SEG_STARTING_STN))
        {
                if (val.empty())
                        return;
                settings_.s.seg_starting_stns = val;
        }
        else if (iequals(var, SEG_SEARCH_LEVEL))
        {
                if (val.empty())
                        return;
                settings_.s.seg_search_level = lexical_cast<UINT16, string>(val);
        }
}
        
void CDnaProjectFile::LoadSettingAdjust(const string& var, string& val)
{
        if (iequals(var, BIN_STN_FILE))
        {
                if (val.empty())
                        return;
                settings_.a.bst_file = val;

                if (!exists(val))
                        if (exists(formPath<string>(settings_.g.input_folder, val)))
                                settings_.a.bst_file = formPath<string>(settings_.g.input_folder, val);
        }
        else if (iequals(var, BIN_MSR_FILE))
        {
                if (val.empty())
                        return;
                settings_.a.bms_file = val;

                if (!exists(val))
                        if (exists(formPath<string>(settings_.g.input_folder, val)))
                                settings_.a.bms_file = formPath<string>(settings_.g.input_folder, val);
        }
        else if (iequals(var, SEG_FILE))
        {
                if (val.empty())
                        return;
                settings_.a.seg_file = val;

                if (!exists(val))
                        if (exists(formPath<string>(settings_.g.input_folder, val)))
                                settings_.a.seg_file = formPath<string>(settings_.g.input_folder, val);
        }
        else if (iequals(var, COMMENTS))
        {
                if (val.empty())
                        return;
                settings_.a.comments = val;                
        }
        if (iequals(var, ADJUSTMENT_MODE))
        {
                if (val.empty())
                        return;
                if (iequals(val, MODE_SIMULTANEOUS))
                {
                        settings_.a.adjust_mode = SimultaneousMode;
                        settings_.a.multi_thread = false;
                        settings_.a.stage = false;
                }
                else if (iequals(val, MODE_PHASED))
                {
                        settings_.a.adjust_mode = PhasedMode;
                }
                else if (iequals(val, MODE_PHASED_BLOCK1))
                {
                        settings_.a.adjust_mode = Phased_Block_1Mode;
                        settings_.a.multi_thread = false;
                }
                else if (iequals(val, MODE_SIMULATION))
                {
                        settings_.a.adjust_mode = SimulationMode;
                        settings_.a.multi_thread = false;
                        settings_.a.stage = false;
                }
        }

        else if (iequals(var, MODE_PHASED_MT))
        {
                if (val.empty())
                        return;
                settings_.a.multi_thread = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, STAGED_ADJUSTMENT))
        {
                if (val.empty())
                        return;
                settings_.a.stage = yesno_uint<UINT16, string>(val);
        }
        
        else if (iequals(var, CONF_INTERVAL))
        {
                if (val.empty())
                        return;
                settings_.a.confidence_interval = FloatFromString<float>(val);
        }
        else if (iequals(var, ITERATION_THRESHOLD))
        {
                if (val.empty())
                        return;
                settings_.a.iteration_threshold = FloatFromString<float>(val);
        }
        else if (iequals(var, MAX_ITERATIONS))
        {
                if (val.empty())
                        return;
                settings_.a.max_iterations = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, STN_CONSTRAINTS))
        {
                if (val.empty())
                        return;
                settings_.a.station_constraints = val;
        }
        else if (iequals(var, FREE_STN_SD))
        {
                if (val.empty())
                        return;
                settings_.a.free_std_dev = DoubleFromString<double>(val);
        }
        else if (iequals(var, FIXED_STN_SD))
        {
                if (val.empty())
                        return;
                settings_.a.fixed_std_dev = DoubleFromString<double>(val);
        }
        //else if (iequals(var, LSQ_INVERSE_METHOD))
        //{
        //        if (val.empty())
        //                return;
        //        settings_.a.inverse_method_lsq = lexical_cast<UINT16, string>(val);
        //}
        else if (iequals(var, SCALE_NORMAL_UNITY))
        {
                if (val.empty())
                        return;
                settings_.a.scale_normals_to_unity = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, RECREATE_STAGE_FILES))
        {
                if (val.empty())
                        return;
                settings_.a.recreate_stage_files = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, PURGE_STAGE_FILES))
        {
                if (val.empty())
                        return;
                settings_.a.purge_stage_files = yesno_uint<UINT16, string>(val) == 1;
        }
        else if (iequals(var, TYPE_B_GLOBAL))
        {
                if (val.empty())
                        return;
                settings_.a.type_b_global = val;
        }
        else if (iequals(var, TYPE_B_FILE))
        {
                if (val.empty())
                        return;
                settings_.a.type_b_file = val;

                if (!exists(val))
                        if (exists(formPath<string>(settings_.g.input_folder, val)))
                                settings_.a.type_b_file = formPath<string>(settings_.g.input_folder, val);
        }
}
        
void CDnaProjectFile::LoadSettingOutput(const string& var, string& val)
{
        if (iequals(var, OUTPUT_MSR_TO_STN))
        {
                if (val.empty())
                        return;
                settings_.o._msr_to_stn = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_MSR_TO_STN_SORTBY))
        {
                if (val.empty())
                        return;
                settings_.o._sort_msr_to_stn = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_ADJ_STN_ITER))
        {
                if (val.empty())
                        return;
                settings_.o._adj_stn_iteration = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_ADJ_STAT_ITER))
        {
                if (val.empty())
                        return;
                settings_.o._adj_stat_iteration = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_ADJ_MSR_ITER))
        {
                if (val.empty())
                        return;
                settings_.o._adj_msr_iteration = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_CMP_MSR_ITER))
        {
                if (val.empty())
                        return;
                settings_.o._cmp_msr_iteration = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_ADJ_MSR))
        {
                if (val.empty())
                        return;
                settings_.o._adj_msr_final = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_ADJ_GNSS_UNITS))
        {
                if (val.empty())
                        return;
                settings_.o._adj_gnss_units = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_ADJ_MSR_TSTAT))
        {
                if (val.empty())
                        return;
                settings_.o._adj_msr_tstat = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_ADJ_MSR_SORTBY))
        {
                if (val.empty())
                        return;
                settings_.o._sort_adj_msr = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_ADJ_MSR_DBID))
        {
                if (val.empty())
                        return;
                settings_.o._database_ids = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_ADJ_STN_BLOCKS))
        {
                if (val.empty())
                        return;
                settings_.o._output_stn_blocks = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_ADJ_MSR_BLOCKS))
        {
                if (val.empty())
                        return;
                settings_.o._output_msr_blocks = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_ADJ_STN_SORT_ORDER))
        {
                if (val.empty())
                        return;
                settings_.o._sort_stn_file_order = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_STN_COORD_TYPES))
        {
                if (val.empty())
                        return;
                settings_.o._stn_coord_types = val;
        }
        else if (iequals(var, OUTPUT_ANGULAR_TYPE_STN))
        {
                if (val.empty())
                        return;
                settings_.o._angular_type_stn = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_STN_CORR))
        {
                if (val.empty())
                        return;
                settings_.o._stn_corr = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_PRECISION_METRES_STN))
        {
                if (val.empty())
                        return;
                settings_.o._precision_metres_stn = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_PRECISION_SECONDS_STN))
        {
                if (val.empty())
                        return;
                settings_.o._precision_seconds_stn = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_PRECISION_METRES_MSR))
        {
                if (val.empty())
                        return;
                settings_.o._precision_metres_msr = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_PRECISION_SECONDS_MSR))
        {
                if (val.empty())
                        return;
                settings_.o._precision_seconds_msr = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_ANGULAR_TYPE_MSR))
        {
                if (val.empty())
                        return;
                settings_.o._angular_type_msr = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_DMS_FORMAT_MSR))
        {
                if (val.empty())
                        return;
                settings_.o._dms_format_msr = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_POS_UNCERTAINTY))
        {
                if (val.empty())
                        return;
                settings_.o._positional_uncertainty = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_APU_CORRELATIONS))
        {
                if (val.empty())
                        return;
                settings_.o._output_pu_covariances = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_APU_UNITS))
        {
                if (val.empty())
                        return;
                settings_.o._apu_vcv_units = lexical_cast<UINT16, string>(val);
        }
        else if (iequals(var, OUTPUT_STN_COR_FILE))
        {
                if (val.empty())
                        return;
                settings_.o._init_stn_corrections = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, HZ_CORR_THRESHOLD))
        {
                if (val.empty())
                        return;
                settings_.o._hz_corr_threshold = DoubleFromString<double>(val);
        }
        else if (iequals(var, VT_CORR_THRESHOLD))
        {
                if (val.empty())
                        return;
                settings_.o._vt_corr_threshold = DoubleFromString<double>(val);
        }
        //else if (iequals(var, UPDATE_ORIGINAL_STN_FILE))
        //{
        //        if (val.empty())
        //                return;
        //        settings_.o. = yesno_uint<UINT16, string>(val);
        //}
        else if (iequals(var, EXPORT_XML_STN_FILE))
        {
                if (val.empty())
                        return;
                settings_.o._export_xml_stn_file= yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, EXPORT_DNA_STN_FILE))
        {
                if (val.empty())
                        return;
                settings_.o._export_dna_stn_file = yesno_uint<UINT16, string>(val);
        }
        else if (iequals(var, EXPORT_SNX_FILE))
        {
                if (val.empty())
                        return;
                settings_.o._export_snx_file = yesno_uint<UINT16, string>(val);
        }
        
}
        
//void CDnaProjectFile::LoadSettingPlot(const string& var, string& val)
//{
//}
//        
//void CDnaProjectFile::LoadSettingDisplay(const string& var, string& val)
//{
//}

template <typename T>
void CDnaProjectFile::AddOptionValue(ostream& os, const char* const option, const T& value) {
        os << " --" << option << " " << value;
}

template <typename T>
void CDnaProjectFile::AddDefaultValue(ostream& os, const T& value)
{
        os << " " << value;
}

template <typename T, typename U>
void CDnaProjectFile::PrintRecord(ostream& os, const T& variable, const U& value) {

        PrintVariable(os, variable);
        PrintValue(os, value);
}
        

template <typename T>
void CDnaProjectFile::PrintVariable(ostream& os, const T& variable) {
        // width of 35
        os << setw(PRINT_VAR_PAD) << left << variable;
}
        

template <typename T>
void CDnaProjectFile::PrintValue(ostream& os, const T& value) {
        // width of 45
        os << setw(PRINT_VAL_PAD) << left << value << endl;
}
        

string CDnaProjectFile::FormCommandLineOptionsStringImport()
{
        stringstream options;
        //////////////////////////////////////////////////////
        // General settings
        AddDefaultValue(options, FormCommandLineOptionsStringGeneral());
        
        //////////////////////////////////////////////////////
        // Import settings
        // files
        for (_it_vstr_const _it_tmp(settings_.i.input_files.begin());
                _it_tmp!=settings_.i.input_files.end(); ++_it_tmp)
                AddDefaultValue<string>(options, 
                        leafStr<string>(trimstr<string>(_it_tmp->c_str())));
        

        return options.str();
}
        
string CDnaProjectFile::FormCommandLineOptionsStringGeneral()
{
        stringstream options;
        //////////////////////////////////////////////////////
        // General settings
        // project file
        AddOptionValue<string>(options, PROJECT_FILE, settings_.g.project_file);
        // network name
        AddOptionValue<string>(options, NETWORK_NAME, settings_.g.network_name);
        // verbose
        AddOptionValue<UINT16>(options, VERBOSE, settings_.g.verbose);
        // verbose
        AddOptionValue<UINT16>(options, QUIET, settings_.g.quiet);

        return options.str();
}
        
void CDnaProjectFile::PrintProjectFile()
{
        std::ofstream dnaproj_file;

        stringstream err_msg;
        err_msg << "PrintProjectFile(): An error was encountered when opening " << 
                settings_.g.project_file << "." << endl;

        try {
                // create binary aml file.  Throws runtime_error on failure.
                file_opener(dnaproj_file, settings_.g.project_file,
                        ios::out, ascii);
        }
        catch (const runtime_error& e) {
                err_msg << e.what();
                throw boost::enable_current_exception(runtime_error(err_msg.str()));
        }
        catch (...) {
                throw boost::enable_current_exception(runtime_error(err_msg.str()));
        }

        err_msg.str("");
        err_msg << "PrintProjectFile(): An error was encountered when writing to " << 
                settings_.g.project_file << "." << endl;

        stringstream ss;

        // Write header line
        dnaproj_header(dnaproj_file, settings_.g.network_name + " project file.");
        dnaproj_file << endl << endl;

        ////////////////////////////////////////////////////////////////////////////////////////////////
        // #general
        ss.str("");
        ss << section_general << " (" << PRINT_VAR_PAD << ")";
        PrintRecord(dnaproj_file, ss.str(), "VALUE");
        dnaproj_file << OUTPUTLINE << endl;
        
        PrintRecord(dnaproj_file, NETWORK_NAME, settings_.g.network_name);                                                                // network name
        PrintRecord(dnaproj_file, INPUT_FOLDER, system_complete(settings_.g.input_folder).string());        // Path containing all input files
        PrintRecord(dnaproj_file, OUTPUT_FOLDER, system_complete(settings_.g.output_folder).string());        // Path for all output files
        PrintRecord(dnaproj_file, VERBOSE, settings_.g.verbose);                                                                                // Give detailed information about what dnainterop is doing.
                                                                                                                                                                                                        // 0: No information (default)
                                                                                                                                                                                                        // 1: Helpful information
                                                                                                                                                                                                        // 2: Extended information\n3: Debug level information
        PrintRecord(dnaproj_file, QUIET, yesno_string(settings_.g.quiet));                                                                // Run quietly?
        PrintRecord(dnaproj_file, PROJECT_FILE, system_complete(settings_.g.project_file).string());        // project file
        PrintRecord(dnaproj_file, DYNADJUST_LOG_FILE, system_complete(settings_.g.log_file).string());        // dynadjust log file
        
        dnaproj_file << endl;

        ////////////////////////////////////////////////////////////////////////////////////////////////
        // #import
        ss.str("");
        ss << section_import << " (" << PRINT_VAR_PAD << ")";
        PrintRecord(dnaproj_file, ss.str(), "VALUE");
        dnaproj_file << OUTPUTLINE << endl;
        
        // Input files
        for_each (settings_.i.input_files.begin(), settings_.i.input_files.end(),
                [&dnaproj_file, this] (string file) {
                        PrintRecord(dnaproj_file, IMPORT_FILE, leafStr<string>(file.c_str()));
        });

        // geoid file
        PrintRecord(dnaproj_file, IMPORT_GEO_FILE, 
                (settings_.i.geo_file.empty() ? " " : leafStr<string>(settings_.i.geo_file)));

        // reference frame settings
        PrintRecord(dnaproj_file, REFERENCE_FRAME, settings_.i.reference_frame);
        PrintRecord(dnaproj_file, OVERRIDE_INPUT_FRAME, 
                yesno_string(settings_.i.override_input_rfame));

        // data screening
        PrintRecord(dnaproj_file, BOUNDING_BOX, settings_.i.bounding_box);
        PrintRecord(dnaproj_file, GET_MSRS_TRANSCENDING_BOX, 
                yesno_string(settings_.i.include_transcending_msrs));
        
        PrintRecord(dnaproj_file, INCLUDE_STN_ASSOC_MSRS,
                (settings_.i.stn_associated_msr_include.empty() ? "no" : settings_.i.stn_associated_msr_include));
        PrintRecord(dnaproj_file, EXCLUDE_STN_ASSOC_MSRS,
                (settings_.i.stn_associated_msr_exclude.empty() ? "no" : settings_.i.stn_associated_msr_exclude));
        PrintRecord(dnaproj_file, SPLIT_CLUSTERS,
                yesno_string(settings_.i.split_clusters));        
        PrintRecord(dnaproj_file, IMPORT_SEG_BLOCK,
                (settings_.i.import_block ? val_uint<string, UINT32>(settings_.i.import_block_number) : "no"));
        PrintRecord(dnaproj_file, SEG_FILE, 
                (settings_.i.seg_file.empty() ? " " : leafStr<string>(settings_.i.seg_file)));
        PrintRecord(dnaproj_file, PREFER_X_MSR_AS_G, 
                yesno_string(settings_.i.prefer_single_x_as_g));        
        
        PrintRecord(dnaproj_file, INCLUDE_MSRS, settings_.i.include_msrs);
        PrintRecord(dnaproj_file, EXCLUDE_MSRS, settings_.i.exclude_msrs);                                                        
        PrintRecord(dnaproj_file, STATION_RENAMING_FILE,
                leafStr<string>(settings_.i.stn_renamingfile));                                                
        PrintRecord(dnaproj_file, STATION_DISCONTINUITY_FILE,
                leafStr<string>(settings_.i.stn_discontinuityfile));                                                
        PrintRecord(dnaproj_file, TEST_NEARBY_STNS,
                yesno_string(settings_.i.search_nearby_stn));                                                
        PrintRecord(dnaproj_file, TEST_NEARBY_STN_DIST, settings_.i.search_stn_radius);                                        
        PrintRecord(dnaproj_file, TEST_SIMILAR_MSRS,
                yesno_string(settings_.i.search_similar_msr));                                                
        PrintRecord(dnaproj_file, TEST_SIMILAR_GNSS_MSRS,
                yesno_string(settings_.i.search_similar_msr_gx));                                                
        PrintRecord(dnaproj_file, IGNORE_SIMILAR_MSRS,
                yesno_string(settings_.i.ignore_similar_msr));                                        
        PrintRecord(dnaproj_file, REMOVE_IGNORED_MSRS,
                yesno_string(settings_.i.remove_ignored_msr));                                        
        PrintRecord(dnaproj_file, FLAG_UNUSED_STNS,
                yesno_string(settings_.i.flag_unused_stn));                                                
        PrintRecord(dnaproj_file, TEST_INTEGRITY,
                yesno_string(settings_.i.test_integrity));                                                
        
        // GNSS variance matrix scaling
        PrintRecord(dnaproj_file, VSCALE, settings_.i.vscale);                                
        PrintRecord(dnaproj_file, PSCALE, settings_.i.pscale);                                
        PrintRecord(dnaproj_file, LSCALE, settings_.i.lscale);                                
        PrintRecord(dnaproj_file, HSCALE, settings_.i.hscale);                                
        PrintRecord(dnaproj_file, SCALAR_FILE, leafStr<string>(settings_.i.scalar_file));

        // export options
        PrintRecord(dnaproj_file, EXPORT_XML_FILES, 
                yesno_string(settings_.i.export_dynaml));                                                // Create DynaML output file
        PrintRecord(dnaproj_file, EXPORT_SINGLE_XML_FILE, 
                yesno_string(settings_.i.export_single_xml_file));                                // Create single station and measurement DynaML output files
        PrintRecord(dnaproj_file, EXPORT_DNA_FILES, 
                yesno_string(settings_.i.export_dna_files));
        PrintRecord(dnaproj_file, EXPORT_ASL_FILE,
                yesno_string(settings_.i.export_asl_file));
        PrintRecord(dnaproj_file, EXPORT_AML_FILE, 
                yesno_string(settings_.i.export_aml_file));
        PrintRecord(dnaproj_file, EXPORT_MAP_FILE,
                yesno_string(settings_.i.export_map_file));
        PrintRecord(dnaproj_file, SIMULATE_MSR_FILE, 
                yesno_string(settings_.i.simulate_measurements));

        dnaproj_file << endl;
        
        ////////////////////////////////////////////////////////////////////////////////////////////////
        // #reftran
        ss.str("");
        ss << section_reftran << " (" << PRINT_VAR_PAD << ")";
        PrintRecord(dnaproj_file, ss.str(), "VALUE");
        dnaproj_file << OUTPUTLINE << endl;
        
        PrintRecord(dnaproj_file, REFERENCE_FRAME, settings_.r.reference_frame);
        PrintRecord(dnaproj_file, EPOCH, settings_.r.epoch);

        PrintRecord(dnaproj_file, TECTONIC_PLATE_MODEL_OPTION, settings_.r.plate_model_option);                                        // Plate motion model option
        PrintRecord(dnaproj_file, TECTONIC_PLATE_BDY_FILE, leafStr<string>(settings_.r.tpb_file));                                // Tectonic plate boundary file
        PrintRecord(dnaproj_file, TECTONIC_PLATE_POLE_FILE, leafStr<string>(settings_.r.tpp_file));                                // Tectonic plate pole file
        
        dnaproj_file << endl;
        
        ////////////////////////////////////////////////////////////////////////////////////////////////
        // #geoid
        ss.str("");
        ss << section_geoid << " (" << PRINT_VAR_PAD << ")";
        PrintRecord(dnaproj_file, ss.str(), "VALUE");
        dnaproj_file << OUTPUTLINE << endl;

        // Output configured to populate binary station files
        PrintRecord(dnaproj_file, NTV2_FILEPATH, system_complete(settings_.n.ntv2_geoid_file).string());                                        // Full file path to geoid file
        
        PrintRecord(dnaproj_file, METHOD, settings_.n.interpolation_method);
        PrintRecord(dnaproj_file, DDEG_FORMAT, settings_.n.coordinate_format);
        PrintRecord(dnaproj_file, DIRECTION, settings_.n.ellipsoid_to_ortho);
        //PrintRecord(dnaproj_file, CONVERT_BST_HT,
        //        yesno_string(settings_.n.convert_heights));
        PrintRecord(dnaproj_file, EXPORT_GEO_FILE,
                yesno_string(settings_.n.export_dna_geo_file));
        
        dnaproj_file << endl;

        ////////////////////////////////////////////////////////////////////////////////////////////////
        // #segment
        ss.str("");
        ss << section_segment << " (" << PRINT_VAR_PAD << ")";
        PrintRecord(dnaproj_file, ss.str(), "VALUE");
        dnaproj_file << OUTPUTLINE << endl;
        
        PrintRecord(dnaproj_file, NET_FILE, leafStr<string>(settings_.s.net_file));                                // Starting stations file
        PrintRecord(dnaproj_file, SEG_FILE, leafStr<string>(settings_.s.seg_file));                                // Segmentation output file
        PrintRecord(dnaproj_file, SEG_MIN_INNER_STNS, settings_.s.min_inner_stations);                        // Minimum number of inner stations per block
        PrintRecord(dnaproj_file, SEG_THRESHOLD_STNS, settings_.s.max_total_stations);                        // Maximum number of total stations per block
        PrintRecord(dnaproj_file, SEG_FORCE_CONTIGUOUS,
                yesno_string(settings_.s.force_contiguous_blocks));

        // Stations to be incorporated within the first block.
        PrintRecord(dnaproj_file, SEG_STARTING_STN, settings_.s.seg_starting_stns);        

        dnaproj_file << endl;

        ////////////////////////////////////////////////////////////////////////////////////////////////
        // #adjust
        ss.str("");
        ss << section_adjust << " (" << PRINT_VAR_PAD << ")";
        PrintRecord(dnaproj_file, ss.str(), "VALUE");
        dnaproj_file << OUTPUTLINE << endl;

        PrintRecord(dnaproj_file, SEG_FILE, leafStr<string>(settings_.a.seg_file));                                // Starting stations file
        PrintRecord(dnaproj_file, COMMENTS, settings_.a.comments);                                                                // Starting stations file
        
        PrintRecord(dnaproj_file, ADJUSTMENT_MODE, adjustmentMode<string, UINT32>(settings_.a.adjust_mode));

        PrintRecord(dnaproj_file, MODE_PHASED_MT, 
                yesno_string(settings_.a.multi_thread));
        PrintRecord(dnaproj_file, STAGED_ADJUSTMENT, 
                yesno_string(settings_.a.stage));
        
        PrintRecord(dnaproj_file, CONF_INTERVAL, settings_.a.confidence_interval);                                // Confidence interval
        PrintRecord(dnaproj_file, ITERATION_THRESHOLD, settings_.a.iteration_threshold);                // Threshold to halt iterations
        PrintRecord(dnaproj_file, MAX_ITERATIONS, settings_.a.max_iterations);                                        // Number of iteration before a solution is adopted
        PrintRecord(dnaproj_file, STN_CONSTRAINTS, settings_.a.station_constraints);                        
        
        ss.str("");
        ss << fixed << setprecision(3) << settings_.a.free_std_dev;
        PrintRecord(dnaproj_file, FREE_STN_SD, ss.str());                                                                                // SD for free stations
        ss.str("");
        ss << scientific << setprecision(4) << settings_.a.fixed_std_dev;
        PrintRecord(dnaproj_file, FIXED_STN_SD, ss.str());                                                                                // SD for fixed stations
        
        //PrintRecord(dnaproj_file, LSQ_INVERSE_METHOD, settings_.a.inverse_method_lsq);                        // Least squares inverse method

        PrintRecord(dnaproj_file, SCALE_NORMAL_UNITY, 
                yesno_string(settings_.a.scale_normals_to_unity));                                                                        // Scale normals to unity before inversion
        PrintRecord(dnaproj_file, RECREATE_STAGE_FILES, 
                yesno_string(settings_.a.recreate_stage_files));                                                                        // Recreate stage files
        PrintRecord(dnaproj_file, PURGE_STAGE_FILES, 
                yesno_string(settings_.a.purge_stage_files));                                                                                // Purge stage files

        PrintRecord(dnaproj_file, TYPE_B_GLOBAL, settings_.a.type_b_global);                                        // Global Type B uncertainties
        PrintRecord(dnaproj_file, TYPE_B_FILE, leafStr<string>(settings_.a.type_b_file));                // Type B uncertainty file
        
        dnaproj_file << endl;

        ////////////////////////////////////////////////////////////////////////////////////////////////
        // #output
        ss.str("");
        ss << section_output << " (" << PRINT_VAR_PAD << ")";
        PrintRecord(dnaproj_file, ss.str(), "VALUE");
        dnaproj_file << OUTPUTLINE << endl;

        PrintRecord(dnaproj_file, OUTPUT_MSR_TO_STN, 
                yesno_string(settings_.o._msr_to_stn));
        PrintRecord(dnaproj_file, OUTPUT_MSR_TO_STN_SORTBY, settings_.o._sort_msr_to_stn);
        PrintRecord(dnaproj_file, OUTPUT_ADJ_STN_ITER, 
                yesno_string(settings_.o._adj_stn_iteration));
        PrintRecord(dnaproj_file, OUTPUT_ADJ_STAT_ITER, 
                yesno_string(settings_.o._adj_stat_iteration));
        PrintRecord(dnaproj_file, OUTPUT_ADJ_MSR_ITER, 
                yesno_string(settings_.o._adj_msr_iteration));
        PrintRecord(dnaproj_file, OUTPUT_CMP_MSR_ITER, 
                yesno_string(settings_.o._cmp_msr_iteration));
        PrintRecord(dnaproj_file, OUTPUT_ADJ_MSR, 
                yesno_string(settings_.o._adj_msr_final));
        PrintRecord(dnaproj_file, OUTPUT_ADJ_GNSS_UNITS, 
                settings_.o._adj_gnss_units);        
        PrintRecord(dnaproj_file, OUTPUT_ADJ_MSR_TSTAT, 
                yesno_string(settings_.o._adj_msr_tstat));

        PrintRecord(dnaproj_file, OUTPUT_ADJ_MSR_SORTBY, settings_.o._sort_adj_msr);

        PrintRecord(dnaproj_file, OUTPUT_ADJ_MSR_DBID, 
                yesno_string(settings_.o._database_ids));                        
        
        PrintRecord(dnaproj_file, OUTPUT_ADJ_MSR_BLOCKS, 
                yesno_string(settings_.o._output_msr_blocks));                                
        PrintRecord(dnaproj_file, OUTPUT_ADJ_STN_SORT_ORDER, 
                yesno_string(settings_.o._sort_stn_file_order));                        
        PrintRecord(dnaproj_file, OUTPUT_STN_COORD_TYPES, settings_.o._stn_coord_types);
        PrintRecord(dnaproj_file, OUTPUT_ANGULAR_TYPE_STN, settings_.o._angular_type_stn);
        PrintRecord(dnaproj_file, OUTPUT_STN_CORR, 
                yesno_string(settings_.o._stn_corr));
        PrintRecord(dnaproj_file, OUTPUT_PRECISION_METRES_STN, settings_.o._precision_metres_stn);        
        PrintRecord(dnaproj_file, OUTPUT_PRECISION_SECONDS_STN, settings_.o._precision_seconds_stn);
        PrintRecord(dnaproj_file, OUTPUT_PRECISION_METRES_MSR, settings_.o._precision_metres_msr);        
        PrintRecord(dnaproj_file, OUTPUT_PRECISION_SECONDS_MSR, settings_.o._precision_seconds_msr);
        PrintRecord(dnaproj_file, OUTPUT_ANGULAR_TYPE_MSR, settings_.o._angular_type_msr);
        PrintRecord(dnaproj_file, OUTPUT_DMS_FORMAT_MSR, settings_.o._dms_format_msr);                                
        PrintRecord(dnaproj_file, OUTPUT_POS_UNCERTAINTY, 
                yesno_string(settings_.o._positional_uncertainty));
        PrintRecord(dnaproj_file, OUTPUT_APU_CORRELATIONS, 
                yesno_string(settings_.o._output_pu_covariances));                
        
        PrintRecord(dnaproj_file, OUTPUT_APU_UNITS, 
                settings_.o._apu_vcv_units);

        PrintRecord(dnaproj_file, OUTPUT_STN_COR_FILE, 
                yesno_string(settings_.o._init_stn_corrections));
        
        ss.str("");
        ss << fixed << setprecision(3) << settings_.o._hz_corr_threshold;
        PrintRecord(dnaproj_file, HZ_CORR_THRESHOLD, ss.str());                                
        ss.str("");
        ss << fixed << setprecision(3) << settings_.o._vt_corr_threshold;
        PrintRecord(dnaproj_file, VT_CORR_THRESHOLD, ss.str());                                
        
        PrintRecord(dnaproj_file, EXPORT_XML_STN_FILE, 
                yesno_string(settings_.o._export_xml_stn_file));                                        
        PrintRecord(dnaproj_file, EXPORT_DNA_STN_FILE, 
                yesno_string(settings_.o._export_dna_stn_file));                                        
        PrintRecord(dnaproj_file, EXPORT_SNX_FILE, 
                yesno_string(settings_.o._export_snx_file));                                        
        
        dnaproj_file << endl;

        ////////////////////////////////////////////////////////////////////////////////////////////////
        // #plot
        ss.str("");
        ss << section_plot << " (" << PRINT_VAR_PAD << ")";
        PrintRecord(dnaproj_file, ss.str(), "VALUE");
        dnaproj_file << OUTPUTLINE << endl;
        
        dnaproj_file << endl;

        dnaproj_file.close();
}



}        // namespace dynadjust

icsm-au / DynAdjust / 4558854622

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