read_input.cpp

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/* ==============================================================================================================================
 
   This file is part of CoastalME, the Coastal Modelling Environment.
 
   CoastalME 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.
 
   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., 675 Mass Ave, Cambridge, MA 02139, USA.
==============================================================================================================================*/
#include <cstdio>
 
#include <cstdlib>
using std::atol;
using std::strtod;
 
#include <cctype>
using std::isdigit;
using std::tolower;
 
#include <cmath>
using std::floor;
 
#include <fstream>
using std::ifstream;
 
#include <iostream>
using std::cerr;
using std::cout;
using std::endl;
using std::ios;
 
#include <string>
using std::to_string;
 
#include <algorithm>
using std::find;
using std::sort;
using std::transform;
 
#include <random>
using std::random_device;
 
#include "cme.h"
#include "configuration.h"
#include "sediment_input_event.h"
#include "simulation.h"
#include "yaml_parser.h"
 
//===============================================================================================================================
//===============================================================================================================================
bool CSimulation::bReadIniFile(void)
{
   // Check if user has supplied home directory
   if (m_strCMEIni.empty())
      // if not use the cme executable directory to find cme.ini
      m_strCMEIni = m_strCMEDir;
 
   else
   {
      // if user has supplied home directory replace cme run directory with user supplied dir
      m_strCMEDir = m_strCMEIni;
   }
 
   m_strCMEIni.append(CME_INI);
 
   // The .ini file is assumed to be in the CoastalME executable's directory
   string const strFilePathName(m_strCMEIni);
 
   // Tell the user what is happening
   cout << READING_FILE_LOCATIONS << strFilePathName << endl;
 
   // Create an ifstream object
   ifstream InStream;
 
   // Try to open .ini file for input
   InStream.open(strFilePathName.c_str(), ios::in);
 
   // Did it open OK?
   if (! InStream.is_open())
   {
      // Error: cannot open .ini file for input
      cerr << ERR << "cannot open " << strFilePathName << " for input" << endl;
      return false;
   }
 
   int nLine = 0;
   int i = 0;
   string strRec, strErr;
 
   while (getline(InStream, strRec))
   {
      nLine++;
 
      // Trim off leading and trailing whitespace
      strRec = strTrim(&strRec);
 
      // If it is a blank line or a comment then ignore it
      if ((! strRec.empty()) && (strRec[0] != QUOTE1) && (strRec[0] != QUOTE2))
      {
         // It isn't so increment counter
         i++;
 
         // Find the colon: note that lines MUST have a colon separating data from leading description portion
         size_t nPos = strRec.find(COLON);
 
         if (nPos == string::npos)
         {
            // Error: badly formatted (no colon)
            cerr << ERR << "on line " << nLine << ": badly formatted (no ':') in " << strFilePathName << endl
                 << "'" << strRec << "'" << endl;
            return false;
         }
 
         if (nPos == strRec.size() - 1)
         {
            // Error: badly formatted (colon with nothing following)
            cerr << ERR << "on line " << nLine << ": badly formatted (nothing following ':') in " << strFilePathName << endl
                 << "'" << strRec << "'" << endl;
            return false;
         }
 
         // Strip off leading portion (the bit up to and including the colon)
         string strRH = strRec.erase(0, nPos + 1);
 
         // Remove leading whitespace
         strRH = strTrimLeft(&strRH);
 
         // Look for a trailing comment, if found then terminate string at that point and trim off any trailing whitespace
         nPos = strRH.rfind(QUOTE1);
 
         if (nPos != string::npos)
            strRH.resize(nPos);
 
         nPos = strRH.rfind(QUOTE2);
 
         if (nPos != string::npos)
            strRH.resize(nPos);
 
         // Remove trailing whitespace
         strRH = strTrimRight(&strRH);
 
         switch (i)
         {
            case 1:
               // The main input run-data filename
               if (strRH.empty())
                  strErr = "line " + to_string(nLine) + ": path and name of main datafile";
 
               else
               {
                  // First check that we don't already have an input run-data filename, e.g. one entered on the command-line
                  if (m_strDataPathName.empty())
                  {
                     // We don't: so first check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
                     if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
                        // It has an absolute path, so use it 'as is'
                        m_strDataPathName = strRH;
 
                     else
                     {
                        // It has a relative path, so prepend the CoastalME dir
                        m_strDataPathName = m_strCMEDir;
                        m_strDataPathName.append(strRH);
                     }
                  }
               }
 
               break;
 
            case 2:
               // Path for CoastalME output
               if (strRH.empty())
                  strErr = "line " + to_string(nLine) + ": path for CoastalME output";
 
               else
               {
                  // Check for trailing slash on CoastalME output directory name (is vital)
                  if (strRH[strRH.size() - 1] != PATH_SEPARATOR)
                     strRH.push_back(PATH_SEPARATOR);
 
                  // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
                  if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
                     // It is an absolute path, so use it 'as is'
                     m_strOutPath = strRH;
 
                  else
                  {
                     // It is a relative path, so prepend the CoastalME dir
                     m_strOutPath = m_strCMEDir;
                     m_strOutPath.append(strRH);
                  }
               }
 
               break;
 
            case 3:
               // Email address, only useful if running under Linux/Unix
               if (! strRH.empty())
               {
                  // Something was entered, do rudimentary check for valid email address
                  if (strRH.find('@') == string::npos)
                     strErr = "line " + to_string(nLine) + ": email address for messages";
 
                  else
                     m_strMailAddress = strRH;
               }
 
               break;
         }
 
         // Did an error occur?
         if (! strErr.empty())
         {
            // Error in input to initialisation file
            cerr << ERR << "reading " << strErr << " in " << strFilePathName << endl
                 << "'" << strRec << "'" << endl;
            InStream.close();
 
            return false;
         }
      }
   }
 
   InStream.close();
   return true;
}
 
 
//===============================================================================================================================
// TODO 000 Should user input be split in two main files: one for
// frequently-changed things, one for rarely-changed things? If so, what should
// go into each file ('testing only' OK, but what else?)
//===============================================================================================================================
bool CSimulation::bReadRunDataFile(void)
{
   // Detect file format
   bool bIsYaml;
   if (! bDetectFileFormat(m_strDataPathName, bIsYaml))
   {
      cerr << ERR << "failed to detect file format for " << m_strDataPathName
           << endl;
      return false;
   }
 
   // Use appropriate parser based on format
   if (bIsYaml)
   {
      return bReadYamlFile();
   }
   // Continue with original .dat file parsing
   //
   // Create an ifstream object
   ifstream InStream;
 
   // Try to open run details file for input
   InStream.open(m_strDataPathName.c_str(), ios::in);
 
   // Did it open OK?
   if (!InStream.is_open())
   {
      // Error: cannot open run details file for input
      cerr << ERR << "cannot open " << m_strDataPathName << " for input" << endl;
      return false;
   }
 
   int nLine = 0;
   int i = 0;
   size_t nPos;
   string strRec, strErr;
 
   while (getline(InStream, strRec))
   {
      nLine++;
 
      // Trim off leading and trailing whitespace
      strRec = strTrim(&strRec);
 
      // If it is a blank line or a comment then ignore it
      if ((!strRec.empty()) && (strRec[0] != QUOTE1) && (strRec[0] != QUOTE2))
      {
         // It isn't so increment counter
         i++;
 
         // Find the colon: note that lines MUST have a colon separating data from leading description portion
         nPos = strRec.find(COLON);
 
         if (nPos == string::npos)
         {
            // Error: badly formatted (no colon)
            cerr << ERR << "on line " << to_string(nLine) << "badly formatted (no ':') in " << m_strDataPathName << endl
                 << strRec << endl;
            return false;
         }
 
         // Strip off leading portion (the bit up to and including the colon)
         string strRH = strRec.erase(0, nPos + 1);
 
         // Remove leading whitespace after the colon
         strRH = strTrimLeft(&strRH);
 
         // Look for trailing comments, if found then terminate string at that point and trim off any trailing whitespace
         bool bFound = true;
 
         while (bFound)
         {
            bFound = false;
 
            nPos = strRH.rfind(QUOTE1);
 
            if (nPos != string::npos)
            {
               strRH.resize(nPos);
               bFound = true;
            }
 
            nPos = strRH.rfind(QUOTE2);
 
            if (nPos != string::npos)
            {
               strRH.resize(nPos);
               bFound = true;
            }
 
            // Trim trailing spaces
            strRH = strTrimRight(&strRH);
         }
 
#ifdef _WIN32
         // For Windows, make sure has backslashes, not Unix-style slashes
         strRH = pstrChangeToBackslash(&strRH);
#endif
         bool bFirst = true;
         int nRet = 0;
         int nHour = 0;
         int nMin = 0;
         int nSec = 0;
         int nDay = 0;
         int nMonth = 0;
         int nYear = 0;
         double dMult = 0;
         string strTmp;
         vector<string> VstrTmp;
 
         switch (i)
         {
         // ---------------------------------------------- Run Information -----------------------------------------------------
         case 1:
            // Text output file names, don't change case
            if (strRH.empty())
               strErr = "line " + to_string(nLine) + ": output file names";
 
            else
            {
               m_strRunName = strRH;
 
               m_strOutFile = m_strOutPath;
               m_strOutFile.append(strRH);
               m_strOutFile.append(OUTEXT);
 
               m_strLogFile = m_strOutPath;
               m_strLogFile.append(strRH);
               m_strLogFile.append(LOGEXT);
            }
 
            break;
 
         case 2:
            // Content of log file, 0 = no log file, 1 = least detail, 3 = most detail
            if (! bIsStringValidInt(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid integer for log file detail level '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_nLogFileDetail = stoi(strRH);
 
            if ((m_nLogFileDetail < NO_LOG_FILE) || (m_nLogFileDetail > LOG_FILE_ALL))
               strErr = "line " + to_string(nLine) + ": log file detail level";
 
            break;
 
         case 3:
            // Output per-timestep results in CSV format?
            strRH = strToLower(&strRH);
 
            m_bCSVPerTimestepResults = false;
 
            if (strRH.find('y') != string::npos)
               m_bCSVPerTimestepResults = true;
 
            break;
 
         case 4:
            // Get the start date/time of the simulation, format is [hh-mm-ss dd/mm/yyyy]
            VstrTmp = VstrSplit(&strRH, SPACE);
 
            // Both date and time here?
            if (VstrTmp.size() < 2)
            {
               strErr = "line " + to_string(nLine) + ": must have both date and time for simulation start in '" + m_strDataPathName + "'";
               break;
            }
 
            // OK, first sort out the time
            if (! bParseTime(&VstrTmp[0], nHour, nMin, nSec))
            {
               strErr = "line " + to_string(nLine) + ": could not understand simulation start time in '" + m_strDataPathName + "'";
               break;
            }
 
            // Next sort out the date
            if (! bParseDate(&VstrTmp[1], nDay, nMonth, nYear))
            {
               strErr = "line " + to_string(nLine) + ": could not understand simulation start date in '" + m_strDataPathName + "'";
               break;
            }
 
            // Store simulation start time and date
            m_nSimStartSec = nSec;
            m_nSimStartMin = nMin;
            m_nSimStartHour = nHour;
            m_nSimStartDay = nDay;
            m_nSimStartMonth = nMonth;
            m_nSimStartYear = nYear;
 
            break;
 
         case 5:
            // Duration of simulation (in hours, days, months, or years): sort out multiplier and user units, as used in the per-timestep output
            strRH = strToLower(&strRH);
 
            nRet = nDoSimulationTimeMultiplier(&strRH);
 
            if (nRet != RTN_OK)
            {
               strErr = "line " + to_string(nLine) + ": units for duration of simulation";
               break;
            }
 
            // And now calculate the duration of the simulation in hours: first find whitespace between the number and the unit
            nPos = strRH.rfind(SPACE);
 
            if (nPos == string::npos)
            {
               strErr = "line " + to_string(nLine) + ": format of duration simulation line";
               break;
            }
 
            // Cut off rh bit of string
            strRH.resize(nPos);
 
            // Remove trailing spaces
            strRH = strTrimRight(&strRH);
 
            // Calculate the duration of the simulation in hours
            m_dSimDuration = strtod(strRH.c_str(), NULL) * m_dDurationUnitsMult;
 
            if (m_dSimDuration <= 0)
               strErr = "line " + to_string(nLine) + ": duration of simulation must be > 0";
 
            break;
 
         case 6:
            // Timestep of simulation (in hours or days)
            strRH = strToLower(&strRH);
 
            dMult = dGetTimeMultiplier(&strRH);
 
            if (static_cast<int>(dMult) == TIME_UNKNOWN)
            {
               strErr = "line " + to_string(nLine) + ": units for simulation timestep";
               break;
            }
 
            // We have the multiplier, now calculate the timestep in hours: look for the whitespace between the number and unit
            nPos = strRH.rfind(SPACE);
 
            if (nPos == string::npos)
            {
               strErr = "line " + to_string(nLine) + ": format of simulation timestep";
               break;
            }
 
            // Cut off rh bit of string
            strRH.resize(nPos);
 
            // Remove trailing spaces
            strRH = strTrimRight(&strRH);
 
            // Check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for timestep '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dTimeStep = strtod(strRH.c_str(), NULL) * dMult; // in hours
 
            if (m_dTimeStep <= 0)
               strErr = "line " + to_string(nLine) + ": timestep of simulation must be > 0";
 
            if (m_dTimeStep >= m_dSimDuration)
               strErr = "line " + to_string(nLine) + ": timestep of simulation must be < the duration of the simulation";
 
            break;
 
         case 7:
         {
            // Save interval(s) - can handle multiple groups with different units if groups are comma-separated e.g., "6 12 24 48 hours, 1 2 6 months, 1 years"
            strRH = strToLower(&strRH);
 
            // Split by commas to handle multiple unit groups
            string const strOriginal = strRH;
            size_t nCommaPos = 0;
 
            m_bSaveRegular = false; // Start with assumption of multiple values
 
            do
            {
               string strGroup;
               size_t const nNextComma = strOriginal.find(',', nCommaPos);
 
               if (nNextComma != string::npos)
               {
                  strGroup = strOriginal.substr(nCommaPos, nNextComma - nCommaPos);
                  nCommaPos = nNextComma + 1;
               }
 
               else
               {
                  strGroup = strOriginal.substr(nCommaPos);
                  nCommaPos = string::npos;
               }
 
               // Trim whitespace from group
               strGroup = strTrimLeft(&strGroup);
               strGroup = strTrimRight(&strGroup);
 
               if (strGroup.empty())
                  continue;
 
               // Get the multiplier for this group
               dMult = dGetTimeMultiplier(&strGroup);
 
               if (static_cast<int>(dMult) == TIME_UNKNOWN)
               {
                  strErr = "line " + to_string(nLine) + ": units for save intervals in group '" + strGroup + "'";
                  break;
               }
 
               // Remove the unit text from the end
               size_t const nLastSpace = strGroup.rfind(SPACE);
 
               if (nLastSpace == string::npos)
               {
                  strErr = "line " + to_string(nLine) + ": format of save times/intervals in group '" + strGroup + "'";
                  break;
               }
 
               string strNumbers = strGroup.substr(0, nLastSpace);
               strNumbers = strTrimRight(&strNumbers);
 
               // Parse numbers in this group
               size_t nSpacePos = 0;
               strNumbers += SPACE; // Add trailing space to help parsing
 
               do
               {
                  size_t const nNextSpace = strNumbers.find(SPACE, nSpacePos);
 
                  if (nNextSpace == string::npos)
                     break;
 
                  string const strNumber = strNumbers.substr(nSpacePos, nNextSpace - nSpacePos);
 
                  if (!strNumber.empty())
                  {
                     if (m_nUSave > static_cast<int>(SAVEMAX) - 1)
                     {
                        strErr = "line " + to_string(nLine) + ": too many save intervals";
                        break;
                     }
 
                     double const dValue = strtod(strNumber.c_str(), NULL) * dMult;
                     m_dUSaveTime[m_nUSave++] = dValue;
                  }
 
                  nSpacePos = nNextSpace + 1;
               } while (nSpacePos < strNumbers.length());
 
               if (! strErr.empty())
                  break;
            } while (nCommaPos != string::npos);
 
            if (! strErr.empty())
               break;
 
            // Check if we only have one value (making it a regular interval)
            if (m_nUSave == 1)
            {
               m_bSaveRegular = true;
               m_dRegularSaveInterval = m_dUSaveTime[0];
 
               if (m_dRegularSaveInterval < m_dTimeStep)
                  strErr = "line " + to_string(nLine) + ": save interval cannot be less than timestep";
 
               else
                  m_dRegularSaveTime = m_dRegularSaveInterval;
            }
 
            else if (m_nUSave > 1)
            {
               // Multiple values - sort them and validate
               sort(m_dUSaveTime, m_dUSaveTime + m_nUSave);
 
               if (m_dUSaveTime[0] < m_dTimeStep)
               {
                  strErr = "line " + to_string(nLine) + ": first save time cannot be less than timestep";
                  break;
               }
 
               // Put a dummy save interval as the last entry in the array
               m_dUSaveTime[m_nUSave] = m_dSimDuration + 1;
            }
 
            else
            {
               strErr = "line " + to_string(nLine) + ": no save times specified";
            }
         }
         break;
 
         case 8:
            // Random number seed(s)
            if (strRH.empty())
            {
               // User didn't specify a random number seed, so seed with a real random value, if available
               random_device rdev;
               m_ulRandSeed[0] = rdev();
 
               // Only one seed specified, so make all seeds the same
               for (int n = 1; n < NUMBER_OF_RNGS; n++)
                  m_ulRandSeed[n] = m_ulRandSeed[n - 1];
            }
 
            else
            {
               // User did specify at least one random number seed. Next find out whether we're dealing with a single seed or more than one: check for a space
               nPos = strRH.find(SPACE);
 
               if (nPos == string::npos)
               {
                  // No space, so we have just one one number
                  m_ulRandSeed[0] = atol(strRH.c_str());
 
                  // Only one seed specified, so make all seeds the same
                  for (int n = 1; n < NUMBER_OF_RNGS; n++)
                     m_ulRandSeed[n] = m_ulRandSeed[n - 1];
               }
 
               else
               {
                  // The user has supplied more than one random number seed
                  int n = 0;
 
                  do
                  {
                     // Get LH bit
                     strTmp = strRH.substr(0, nPos);
                     m_ulRandSeed[n++] = atol(strTmp.c_str());
 
                     if (n == NUMBER_OF_RNGS)
                        // All random number seeds read
                        break;
 
                     // We need more seeds, so get the RH bit
                     strRH = strRH.substr(nPos, strRH.size() - nPos);
                     strRH = strTrimLeft(&strRH);
 
                     if (strRH.size() == 0)
                        // No more seeds left to read
                        break;
                  } while (true);
 
                  // If we haven't filled all random number seeds, make all the remainder the same as the last one read
                  if (n < NUMBER_OF_RNGS - 1)
                  {
                     for (int m = n; m < NUMBER_OF_RNGS; m++)
                        m_ulRandSeed[m] = m_ulRandSeed[n];
                  }
               }
            }
 
            break;
 
         case 9:
            // Max save digits for GIS output file names
            if (! bIsStringValidInt(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid integer for max save digits for GIS output file names '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_nGISMaxSaveDigits = stoi(strRH);
 
            if (m_nGISMaxSaveDigits < 2)
               strErr = "line " + to_string(nLine) + ": max save digits for GIS output file names must be > 1";
 
            break;
 
         case 10:
            // Save digits for GIS output sequential or iteration number?    [s = sequential, i = iteration]: s
            if (strRH.empty())
               strErr = "line " + to_string(nLine) + ": must specify save digits for GIS output as sequential or as iteration number";
 
            else
            {
               // Convert to lower case
               strRH = strToLower(&strRH);
 
               if (strRH.find('s') != string::npos)
               {
                  // First look for 's'
                  m_bGISSaveDigitsSequential = true;
               }
 
               else if (strRH.find('i') != string::npos)
               {
                  // Now look for 'i'
                  m_bGISSaveDigitsSequential = false;
               }
 
               else
               {
                  strErr = "line ";
                  strErr += to_string(nLine);
                  strErr += ": invalid code for save digits for GIS output save number (must be s or i)";
 
                  break;
               }
            }
 
            break;
 
         case 11:
            // Raster GIS files to output
            if (strRH.empty())
            {
               strErr = "line ";
               strErr += to_string(nLine);
               strErr += ": must contain '";
               strErr += RASTER_ALL_OUTPUT_CODE;
               strErr += "', or '";
               strErr += RASTER_USUAL_OUTPUT_CODE;
               strErr += "', or at least one raster GIS output code";
            }
            else
            {
               // Convert to lower case
               strRH = strToLower(&strRH);
 
               if (strRH.find(RASTER_ALL_OUTPUT_CODE) != string::npos)
               {
                  // Set switches for all GIS raster output. Some of these (e.g. all relating to fine sediment) are ignored if e.g. no fine sediment layers are read in
                  m_bSuspSedSave = true;
                  m_bAvgSuspSedSave = true;
                  m_bFineUnconsSedSave = true;
                  m_bFineConsSedSave = true;
                  m_bSandUnconsSedSave = true;
                  m_bSandConsSedSave = true;
                  m_bCoarseUnconsSedSave = true;
                  m_bCoarseConsSedSave = true;
                  m_bSedIncTalusTopSurfSave = true;
                  m_bTopSurfIncSeaSave = true;
                  m_bTalusSave = true;
                  m_bSeaDepthSave = true;
                  m_bWaveHeightSave = true;
                  m_bWaveAngleSave = true;
                  m_bPotentialPlatformErosionSave = true;
                  m_bActualPlatformErosionSave = true;
                  m_bTotalPotentialPlatformErosionSave = true;
                  m_bTotalActualPlatformErosionSave = true;
                  m_bPotentialBeachErosionSave = true;
                  m_bActualBeachErosionSave = true;
                  m_bTotalPotentialBeachErosionSave = true;
                  m_bTotalActualBeachErosionSave = true;
                  m_bBeachDepositionSave = true;
                  m_bTotalBeachDepositionSave = true;
                  m_bLandformSave = true;
                  m_bSlopeConsSedSave = true;
                  m_bSlopeSaveForCliffToe = true;
                  m_bCliffToeSave = true;
                  m_bAvgSeaDepthSave = true;
                  m_bAvgWaveHeightSave = true;
                  m_bAvgWaveAngleSave = true;
                  m_bBeachProtectionSave = true;
                  m_bBasementElevSave = true;
                  m_bRasterCoastlineSave = true;
                  m_bRasterNormalProfileSave = true;
                  m_bActiveZoneSave = true;
                  m_bCliffCollapseSave = true;
                  m_bTotCliffCollapseSave = true;
                  m_bCliffCollapseDepositionSave = true;
                  m_bTotCliffCollapseDepositionSave = true;
                  m_bRasterPolygonSave = true;
                  m_bPotentialPlatformErosionMaskSave = true;
                  m_bSeaMaskSave = true;
                  m_bBeachMaskSave = true;
                  m_bShadowZoneCodesSave = true;
                  m_bDeepWaterWaveAngleSave = true;
                  m_bDeepWaterWaveHeightSave = true;
                  m_bDeepWaterWavePeriodSave = true;
                  m_bPolygonUnconsSedUpOrDownDriftSave = true;
                  m_bPolygonUnconsSedGainOrLossSave = true;
                  m_bCliffNotchAllSave = true;
                  m_bCliffCollapseTimestepSave = true;
               }
               else if (strRH.find(RASTER_USUAL_OUTPUT_CODE) != string::npos)
               {
                  // Set switches for usual GIS raster output. Again, some of these (e.g. all relating to fine sediment) are ignored if they are irrelevant
                  m_bSuspSedSave = true;
                  m_bAvgSuspSedSave = true;
                  m_bFineUnconsSedSave = true;
                  m_bFineConsSedSave = true;
                  m_bSandUnconsSedSave = true;
                  m_bSandConsSedSave = true;
                  m_bCoarseUnconsSedSave = true;
                  m_bCoarseConsSedSave = true;
                  m_bSedIncTalusTopSurfSave = true;
                  m_bTopSurfIncSeaSave = true;
                  m_bTalusSave = true;
                  m_bSeaDepthSave = true;
                  m_bWaveHeightSave = true;
                  m_bWaveAngleSave = true;
                  m_bPotentialPlatformErosionSave = true;
                  m_bActualPlatformErosionSave = true;
                  m_bTotalPotentialPlatformErosionSave = true;
                  m_bTotalActualPlatformErosionSave = true;
                  m_bPotentialBeachErosionSave = true;
                  m_bActualBeachErosionSave = true;
                  m_bTotalPotentialBeachErosionSave = true;
                  m_bTotalActualBeachErosionSave = true;
                  m_bBeachDepositionSave = true;
                  m_bTotalBeachDepositionSave = true;
                  m_bLandformSave = true;
                  m_bSlopeConsSedSave = true;
                  m_bSlopeSaveForCliffToe = true;
                  m_bAvgWaveHeightSave = true;
                  m_bAvgWaveAngleSave = true;
                  m_bBeachProtectionSave = true;
                  m_bBasementElevSave = true;
                  m_bActiveZoneSave = true;
                  m_bCliffCollapseSave = true;
                  m_bTotCliffCollapseSave = true;
                  m_bCliffCollapseDepositionSave = true;
                  m_bTotCliffCollapseDepositionSave = true;
                  m_bRasterPolygonSave = true;
                  m_bShadowZoneCodesSave = true;
                  m_bPolygonUnconsSedUpOrDownDriftSave = true;
                  m_bPolygonUnconsSedGainOrLossSave = true;
                  m_bRasterNormalProfileSave = true;
                  m_bRasterCoastlineSave = true;
                  m_bCliffNotchAllSave = true;
                  m_bCliffCollapseTimestepSave = true;
               }
               else
               {
                  // We are not outputting either the "usual" or the "all" collections of raster GIS files, so set switches (and remove strings) for those optional files for which the user specified the code
                  if (strRH.find(RASTER_SEDIMENT_TOP_CODE) != string::npos)
                  {
                     m_bSedIncTalusTopSurfSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_SEDIMENT_TOP_CODE);
                  }
 
                  if (strRH.find(RASTER_TOP_ELEVATION_INC_SEA_CODE) != string::npos)
                  {
                     m_bTopSurfIncSeaSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_TOP_ELEVATION_INC_SEA_CODE);
                  }
 
                  if (strRH.find(RASTER_TALUS_CODE) != string::npos)
                  {
                     m_bTalusSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_TALUS_CODE);
                  }
 
                  if (strRH.find(RASTER_SEA_DEPTH_CODE) != string::npos)
                  {
                     m_bSeaDepthSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_SEA_DEPTH_CODE);
                  }
 
                  if (strRH.find(RASTER_WAVE_HEIGHT_CODE) != string::npos)
                  {
                     m_bWaveHeightSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_WAVE_HEIGHT_CODE);
                  }
 
                  if (strRH.find(RASTER_WAVE_ORIENTATION_CODE) != string::npos)
                  {
                     m_bWaveAngleSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_WAVE_ORIENTATION_CODE);
                  }
 
                  if (strRH.find(RASTER_WAVE_PERIOD_CODE) != string::npos)
                  {
                     m_bDeepWaterWavePeriodSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_WAVE_PERIOD_CODE);
                  }
 
                  if (strRH.find(RASTER_POTENTIAL_PLATFORM_EROSION_CODE) != string::npos)
                  {
                     m_bPotentialPlatformErosionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_POTENTIAL_PLATFORM_EROSION_CODE);
                  }
 
                  if (strRH.find(RASTER_ACTUAL_PLATFORM_EROSION_CODE) != string::npos)
                  {
                     m_bActualPlatformErosionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_ACTUAL_PLATFORM_EROSION_CODE);
                  }
 
                  if (strRH.find(RASTER_TOTAL_POTENTIAL_PLATFORM_EROSION_CODE) != string::npos)
                  {
                     m_bTotalPotentialPlatformErosionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_TOTAL_POTENTIAL_PLATFORM_EROSION_CODE);
                  }
 
                  if (strRH.find(RASTER_TOTAL_ACTUAL_PLATFORM_EROSION_CODE) != string::npos)
                  {
                     m_bTotalActualPlatformErosionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_TOTAL_ACTUAL_PLATFORM_EROSION_CODE);
                  }
 
                  if (strRH.find(RASTER_POTENTIAL_BEACH_EROSION_CODE) != string::npos)
                  {
                     m_bPotentialBeachErosionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_POTENTIAL_BEACH_EROSION_CODE);
                  }
 
                  if (strRH.find(RASTER_ACTUAL_BEACH_EROSION_CODE) != string::npos)
                  {
                     m_bActualBeachErosionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_ACTUAL_BEACH_EROSION_CODE);
                  }
 
                  if (strRH.find(RASTER_TOTAL_POTENTIAL_BEACH_EROSION_CODE) != string::npos)
                  {
                     m_bTotalPotentialBeachErosionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_TOTAL_POTENTIAL_BEACH_EROSION_CODE);
                  }
 
                  if (strRH.find(RASTER_TOTAL_ACTUAL_BEACH_EROSION_CODE) != string::npos)
                  {
                     m_bTotalActualBeachErosionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_TOTAL_ACTUAL_BEACH_EROSION_CODE);
                  }
 
                  if (strRH.find(RASTER_LANDFORM_CODE) != string::npos)
                  {
                     m_bLandformSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_LANDFORM_CODE);
                  }
 
                  if (strRH.find(RASTER_AVG_SEA_DEPTH_CODE) != string::npos)
                  {
                     m_bAvgSeaDepthSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_AVG_SEA_DEPTH_CODE);
                  }
 
                  if (strRH.find(RASTER_AVG_WAVE_HEIGHT_CODE) != string::npos)
                  {
                     m_bAvgWaveHeightSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_AVG_WAVE_HEIGHT_CODE);
                  }
 
                  if (strRH.find(RASTER_AVG_WAVE_ORIENTATION_CODE) != string::npos)
                  {
                     m_bAvgWaveAngleSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_AVG_WAVE_ORIENTATION_CODE);
                  }
 
                  if (strRH.find(RASTER_BEACH_PROTECTION_CODE) != string::npos)
                  {
                     m_bBeachProtectionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_BEACH_PROTECTION_CODE);
                  }
 
                  if (strRH.find(RASTER_BASEMENT_ELEVATION_CODE) != string::npos)
                  {
                     m_bBasementElevSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_BASEMENT_ELEVATION_CODE);
                  }
 
                  if (strRH.find(RASTER_SUSP_SED_CODE) != string::npos)
                  {
                     m_bSuspSedSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_SUSP_SED_CODE);
                  }
 
                  if (strRH.find(RASTER_AVG_SUSP_SED_CODE) != string::npos)
                  {
                     m_bAvgSuspSedSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_AVG_SUSP_SED_CODE);
                  }
 
                  if (strRH.find(RASTER_FINE_UNCONS_CODE) != string::npos)
                  {
                     m_bFineUnconsSedSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_FINE_UNCONS_CODE);
                  }
 
                  if (strRH.find(RASTER_SAND_UNCONS_CODE) != string::npos)
                  {
                     m_bSandUnconsSedSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_SAND_UNCONS_CODE);
                  }
 
                  if (strRH.find(RASTER_COARSE_UNCONS_CODE) != string::npos)
                  {
                     m_bCoarseUnconsSedSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_COARSE_UNCONS_CODE);
                  }
 
                  if (strRH.find(RASTER_FINE_CONS_CODE) != string::npos)
                  {
                     m_bFineConsSedSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_FINE_CONS_CODE);
                  }
 
                  if (strRH.find(RASTER_SAND_CONS_CODE) != string::npos)
                  {
                     m_bSandConsSedSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_SAND_CONS_CODE);
                  }
 
                  if (strRH.find(RASTER_COARSE_CONS_CODE) != string::npos)
                  {
                     m_bCoarseConsSedSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_COARSE_CONS_CODE);
                  }
 
                  if (strRH.find(RASTER_COAST_CODE) != string::npos)
                  {
                     m_bRasterCoastlineSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_COAST_CODE);
                  }
 
                  if (strRH.find(RASTER_COAST_NORMAL_CODE) != string::npos)
                  {
                     m_bRasterNormalProfileSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_COAST_NORMAL_CODE);
                  }
 
                  if (strRH.find(RASTER_ACTIVE_ZONE_CODE) != string::npos)
                  {
                     m_bActiveZoneSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_ACTIVE_ZONE_CODE);
                  }
 
                  if (strRH.find(RASTER_CLIFF_COLLAPSE_EROSION_FINE_CODE) != string::npos)
                  {
                     m_bCliffCollapseSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_CLIFF_COLLAPSE_EROSION_FINE_CODE);
                  }
 
                  if (strRH.find(RASTER_CLIFF_COLLAPSE_EROSION_SAND_CODE) != string::npos)
                  {
                     m_bCliffCollapseSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_CLIFF_COLLAPSE_EROSION_SAND_CODE);
                  }
 
                  if (strRH.find(RASTER_CLIFF_COLLAPSE_EROSION_COARSE_CODE) != string::npos)
                  {
                     m_bCliffCollapseSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_CLIFF_COLLAPSE_EROSION_COARSE_CODE);
                  }
 
                  if (strRH.find(RASTER_TOTAL_CLIFF_COLLAPSE_EROSION_FINE_CODE) != string::npos)
                  {
                     m_bTotCliffCollapseSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_TOTAL_CLIFF_COLLAPSE_EROSION_FINE_CODE);
                  }
 
                  if (strRH.find(RASTER_TOTAL_CLIFF_COLLAPSE_EROSION_SAND_CODE) != string::npos)
                  {
                     m_bTotCliffCollapseSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_TOTAL_CLIFF_COLLAPSE_EROSION_SAND_CODE);
                  }
 
                  if (strRH.find(RASTER_TOTAL_CLIFF_COLLAPSE_EROSION_COARSE_CODE) != string::npos)
                  {
                     m_bTotCliffCollapseSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_TOTAL_CLIFF_COLLAPSE_EROSION_COARSE_CODE);
                  }
 
                  if (strRH.find(RASTER_CLIFF_COLLAPSE_DEPOSITION_SAND_CODE) != string::npos)
                  {
                     m_bCliffCollapseDepositionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_CLIFF_COLLAPSE_DEPOSITION_SAND_CODE);
                  }
 
                  if (strRH.find(RASTER_CLIFF_COLLAPSE_DEPOSITION_COARSE_CODE) != string::npos)
                  {
                     m_bCliffCollapseDepositionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_CLIFF_COLLAPSE_DEPOSITION_COARSE_CODE);
                  }
 
                  if (strRH.find(RASTER_TOTAL_CLIFF_COLLAPSE_DEPOSITION_SAND_CODE) != string::npos)
                  {
                     m_bTotCliffCollapseDepositionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_TOTAL_CLIFF_COLLAPSE_DEPOSITION_SAND_CODE);
                  }
 
                  if (strRH.find(RASTER_TOTAL_CLIFF_COLLAPSE_DEPOSITION_COARSE_CODE) != string::npos)
                  {
                     m_bTotCliffCollapseDepositionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_TOTAL_CLIFF_COLLAPSE_DEPOSITION_COARSE_CODE);
                  }
 
                  if (strRH.find(RASTER_POLYGON_CODE) != string::npos)
                  {
                     m_bRasterPolygonSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_POLYGON_CODE);
                  }
 
                  if (strRH.find(RASTER_POTENTIAL_PLATFORM_EROSION_MASK_CODE) != string::npos)
                  {
                     m_bPotentialPlatformErosionMaskSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_POTENTIAL_PLATFORM_EROSION_MASK_CODE);
                  }
 
                  if (strRH.find(RASTER_INUNDATION_MASK_CODE) != string::npos)
                  {
                     m_bSeaMaskSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_INUNDATION_MASK_CODE);
                  }
 
                  if (strRH.find(RASTER_BEACH_MASK_CODE) != string::npos)
                  {
                     m_bBeachMaskSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_BEACH_MASK_CODE);
                  }
 
                  if (strRH.find(RASTER_INTERVENTION_CLASS_CODE) != string::npos)
                  {
                     m_bInterventionClassSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_INTERVENTION_CLASS_CODE);
                  }
 
                  if (strRH.find(RASTER_INTERVENTION_HEIGHT_CODE) != string::npos)
                  {
                     m_bInterventionHeightSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_INTERVENTION_HEIGHT_CODE);
                  }
 
                  if (strRH.find(RASTER_SHADOW_ZONE_CODE) != string::npos)
                  {
                     m_bShadowZoneCodesSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_SHADOW_ZONE_CODE);
                  }
 
                  if (strRH.find(RASTER_DEEP_WATER_WAVE_ORIENTATION_CODE) != string::npos)
                  {
                     m_bDeepWaterWaveAngleSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_DEEP_WATER_WAVE_ORIENTATION_CODE);
                  }
 
                  if (strRH.find(RASTER_DEEP_WATER_WAVE_HEIGHT_CODE) != string::npos)
                  {
                     m_bDeepWaterWaveHeightSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_DEEP_WATER_WAVE_HEIGHT_CODE);
                  }
 
                  if (strRH.find(RASTER_DEEP_WATER_WAVE_PERIOD_CODE) != string::npos)
                  {
                     m_bDeepWaterWavePeriodSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_DEEP_WATER_WAVE_PERIOD_CODE);
                  }
 
                  if (strRH.find(RASTER_POLYGON_UPDRIFT_OR_DOWNDRIFT_CODE) != string::npos)
                  {
                     m_bPolygonUnconsSedUpOrDownDriftSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_POLYGON_UPDRIFT_OR_DOWNDRIFT_CODE);
                  }
 
                  if (strRH.find(RASTER_POLYGON_GAIN_OR_LOSS_CODE) != string::npos)
                  {
                     m_bPolygonUnconsSedGainOrLossSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_POLYGON_GAIN_OR_LOSS_CODE);
                  }
 
                  if (strRH.find(RASTER_BEACH_DEPOSITION_CODE) != string::npos)
                  {
                     m_bBeachDepositionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_BEACH_DEPOSITION_CODE);
                  }
 
                  if (strRH.find(RASTER_TOTAL_BEACH_DEPOSITION_CODE) != string::npos)
                  {
                     m_bTotalBeachDepositionSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_TOTAL_BEACH_DEPOSITION_CODE);
                  }
 
                  if (strRH.find(RASTER_SEDIMENT_INPUT_EVENT_CODE) != string::npos)
                  {
                     m_bSedimentInputEventSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_SEDIMENT_INPUT_EVENT_CODE);
                  }
 
                  if (strRH.find(RASTER_SETUP_SURGE_FLOOD_MASK_CODE) != string::npos)
                  {
                     m_bSetupSurgeFloodMaskSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_SETUP_SURGE_FLOOD_MASK_CODE);
                  }
 
                  if (strRH.find(RASTER_SETUP_SURGE_RUNUP_FLOOD_MASK_CODE) != string::npos)
                  {
                     m_bSetupSurgeRunupFloodMaskSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_SETUP_SURGE_RUNUP_FLOOD_MASK_CODE);
                  }
 
                  if (strRH.find(RASTER_WAVE_FLOOD_LINE_CODE) != string::npos)
                  {
                     m_bRasterWaveFloodLineSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_WAVE_FLOOD_LINE_CODE);
                  }
 
                  if (strRH.find(RASTER_CLIFF_NOTCH_ALL_CODE) != string::npos)
                  {
                     m_bCliffNotchAllSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_CLIFF_NOTCH_ALL_CODE);
                  }
 
                  if (strRH.find(RASTER_CLIFF_COLLAPSE_TIMESTEP_CODE) != string::npos)
                  {
                     m_bCliffCollapseTimestepSave = true;
                     strRH = strRemoveSubstr(&strRH, &RASTER_CLIFF_COLLAPSE_TIMESTEP_CODE);
                  }
 
                  // Check to see if all codes have been removed
                  if (! strRH.empty())
                     strErr = "line " + to_string(nLine) + ": unknown code '" + strRH + "' in list of codes for raster GIS output";
               }
            }
 
            break;
 
         case 12:
            // Raster GIS output format (note must retain original case). Blank means use same format as input DEM file (if possible)
            m_strRasterGISOutFormat = strTrimLeft(&strRH);
 
            // TODO 065 Remove this when GDAL gpkg raster output is working correctly
            if (strRH.find("gpkg") != string::npos)
               strErr = "GDAL gpkg raster create() is not yet working correctly. Please choose another output format.";
 
            break;
 
         case 13:
            // If needed, scale GIS raster output values
            strRH = strToLower(&strRH);
 
            m_bScaleRasterOutput = false;
 
            if (strRH.find('y') != string::npos)
               m_bScaleRasterOutput = true;
 
            break;
 
         case 14:
            // If needed, also output GIS raster world file
            strRH = strToLower(&strRH);
 
            m_bWorldFile = false;
 
            if (strRH.find('y') != string::npos)
               m_bWorldFile = true;
 
            break;
 
         case 15:
            // Elevations for raster slice output, if desired
            if (! strRH.empty())
            {
               m_bSliceSave = true;
 
               // OK, so find out whether we're dealing with a single seed or more than one: check for a space
               nPos = strRH.find(SPACE);
 
               if (nPos != string::npos)
               {
                  // There's a space, so we must have more than one number
                  do
                  {
                     // Get LH bit
                     strTmp = strRH.substr(0, nPos);
                     m_VdSliceElev.push_back(strtod(strTmp.c_str(), NULL));
 
                     // Get the RH bit
                     strRH = strRH.substr(nPos, strRH.size() - nPos);
                     strRH = strTrimLeft(&strRH);
 
                     // Now look for another space
                     nPos = strRH.find(SPACE);
                  } while (nPos != string::npos);
               }
 
               // Read either the single number, or the left-over number
               m_VdSliceElev.push_back(strtod(strTmp.c_str(), NULL));
            }
 
            break;
 
         case 16:
            // Vector GIS files to output
            if (strRH.empty())
            {
               strErr = "line ";
               strErr += to_string(nLine);
               strErr += ": must contain '";
               strErr += VECTOR_ALL_OUTPUT_CODE;
               strErr += "', or '";
               strErr += VECTOR_USUAL_OUTPUT_CODE;
               strErr += "', or at least one vector GIS output code";
            }
 
            else
            {
               strRH = strToLower(&strRH);
 
               if (strRH.find(VECTOR_ALL_OUTPUT_CODE) != string::npos)
               {
                  // Output all vector files
                  m_bCoastSave = true;
                  m_bCliffEdgeSave = true;
                  m_bWaveAngleAndHeightSave = true;
                  m_bNormalsSave = true;
                  m_bInvalidNormalsSave = true;
                  m_bAvgWaveAngleAndHeightSave = true;
                  m_bWaveEnergySinceCollapseSave = true;
                  m_bMeanWaveEnergySave = true;
                  m_bBreakingWaveHeightSave = true;
                  m_bCoastCurvatureSave = true;
                  m_bPolygonNodeSave = true;
                  m_bPolygonBoundarySave = true;
                  m_bCliffNotchSave = true;
                  m_bShadowBoundarySave = true;
                  m_bShadowDowndriftBoundarySave = true;
                  m_bDeepWaterWaveAngleAndHeightSave = true;
                  m_bWaveSetupSave = true;
                  m_bStormSurgeSave = true;
                  m_bRunUpSave = true;
                  m_bVectorWaveFloodLineSave = true;
               }
               else if (strRH.find(VECTOR_USUAL_OUTPUT_CODE) != string::npos)
               {
                  // Output the "usual" collection of vector output files
                  m_bCoastSave = true;
                  m_bCliffEdgeSave = true;
                  m_bWaveAngleAndHeightSave = true;
                  m_bNormalsSave = true;
                  m_bInvalidNormalsSave = true;
                  m_bAvgWaveAngleAndHeightSave = true;
                  m_bWaveEnergySinceCollapseSave = true;
                  m_bMeanWaveEnergySave = true;
                  m_bBreakingWaveHeightSave = true;
                  m_bPolygonBoundarySave = true;
                  m_bCliffNotchSave = true;
                  m_bShadowBoundarySave = true;
                  m_bShadowDowndriftBoundarySave = true;
                  m_bDeepWaterWaveAngleAndHeightSave = true;
               }
               else
               {
                  // Output only those vector files for which the user specified the code
                  if (strRH.find(VECTOR_COAST_CODE) != string::npos)
                  {
                     m_bCoastSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_COAST_CODE);
                  }
 
                  if (strRH.find(VECTOR_CLIFF_EDGE_CODE) != string::npos)
                  {
                     m_bCliffEdgeSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_CLIFF_EDGE_CODE);
                  }
 
                  if (strRH.find(VECTOR_AVG_WAVE_ANGLE_AND_HEIGHT_CODE) != string::npos)
                  {
                     m_bWaveAngleAndHeightSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_AVG_WAVE_ANGLE_AND_HEIGHT_CODE);
                  }
 
                  if (strRH.find(VECTOR_NORMALS_CODE) != string::npos)
                  {
                     m_bNormalsSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_NORMALS_CODE);
                  }
 
                  if (strRH.find(VECTOR_INVALID_NORMALS_CODE) != string::npos)
                  {
                     m_bInvalidNormalsSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_INVALID_NORMALS_CODE);
                  }
 
                  if (strRH.find(VECTOR_AVG_WAVE_ANGLE_AND_HEIGHT_CODE) != string::npos)
                  {
                     m_bAvgWaveAngleAndHeightSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_AVG_WAVE_ANGLE_AND_HEIGHT_CODE);
                  }
 
                  if (strRH.find(VECTOR_COAST_CURVATURE_CODE) != string::npos)
                  {
                     m_bCoastCurvatureSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_COAST_CURVATURE_CODE);
                  }
 
                  if (strRH.find(VECTOR_WAVE_ENERGY_SINCE_COLLAPSE_CODE) != string::npos)
                  {
                     m_bWaveEnergySinceCollapseSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_WAVE_ENERGY_SINCE_COLLAPSE_CODE);
                  }
 
                  if (strRH.find(VECTOR_MEAN_WAVE_ENERGY_CODE) != string::npos)
                  {
                     m_bMeanWaveEnergySave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_MEAN_WAVE_ENERGY_CODE);
                  }
 
                  if (strRH.find(VECTOR_BREAKING_WAVE_HEIGHT_CODE) != string::npos)
                  {
                     m_bBreakingWaveHeightSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_BREAKING_WAVE_HEIGHT_CODE);
                  }
 
                  if (strRH.find(VECTOR_POLYGON_NODE_CODE) != string::npos)
                  {
                     m_bPolygonNodeSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_POLYGON_NODE_CODE);
                  }
 
                  if (strRH.find(VECTOR_POLYGON_BOUNDARY_CODE) != string::npos)
                  {
                     m_bPolygonBoundarySave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_POLYGON_BOUNDARY_CODE);
                  }
 
                  if (strRH.find(VECTOR_CLIFF_NOTCH_ACTIVE_CODE) != string::npos)
                  {
                     m_bCliffNotchSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_CLIFF_NOTCH_ACTIVE_CODE);
                  }
 
                  if (strRH.find(VECTOR_SHADOW_ZONE_BOUNDARY_CODE) != string::npos)
                  {
                     m_bShadowBoundarySave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_SHADOW_ZONE_BOUNDARY_CODE);
                  }
 
                  if (strRH.find(VECTOR_DOWNDRIFT_ZONE_BOUNDARY_CODE) != string::npos)
                  {
                     m_bShadowDowndriftBoundarySave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_DOWNDRIFT_ZONE_BOUNDARY_CODE);
                  }
 
                  if (strRH.find(VECTOR_DEEP_WATER_WAVE_ANGLE_AND_HEIGHT_CODE) != string::npos)
                  {
                     m_bDeepWaterWaveAngleAndHeightSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_DEEP_WATER_WAVE_ANGLE_AND_HEIGHT_CODE);
                  }
 
                  if (strRH.find(VECTOR_WAVE_SETUP_CODE) != string::npos)
                  {
                     m_bWaveSetupSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_WAVE_SETUP_CODE);
                  }
 
                  if (strRH.find(VECTOR_STORM_SURGE_CODE) != string::npos)
                  {
                     m_bStormSurgeSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_STORM_SURGE_CODE);
                  }
 
                  if (strRH.find(VECTOR_RUN_UP_CODE) != string::npos)
                  {
                     m_bRunUpSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_RUN_UP_CODE);
                  }
 
                  if (strRH.find(VECTOR_FLOOD_LINE_CODE) != string::npos)
                  {
                     m_bVectorWaveFloodLineSave = true;
                     strRH = strRemoveSubstr(&strRH, &VECTOR_FLOOD_LINE_CODE);
                  }
 
                  // Check to see if all codes have been removed
                  if (! strRH.empty())
                     strErr = "line " + to_string(nLine) + ": unknown code '" + strRH + "' in list of vector GIS output codes";
               }
            }
 
            break;
 
         case 17:
            // Vector GIS output format (note must retain original case)
            m_strVectorGISOutFormat = strRH;
 
            if (strRH.empty())
               strErr = "line " + to_string(nLine) + ": vector GIS output format";
 
            break;
 
         case 18:
            // Time series files to output
            if (! strRH.empty())
            {
               strRH = strToLower(&strRH);
 
               // First check for "all"
               if (strRH.find(RASTER_ALL_OUTPUT_CODE) != string::npos)
               {
                  m_bSeaAreaTSSave = true;
                  m_bSWLTSSave = true;
                  m_bActualPlatformErosionTSSave = true;
                  m_bCliffCollapseErosionTSSave = true;
                  m_bCliffCollapseDepositionTSSave = true;
                  m_bCliffCollapseNetTSSave = true;
                  m_bBeachErosionTSSave = true;
                  m_bBeachDepositionTSSave = true;
                  m_bBeachSedimentChangeNetTSSave = true;
                  m_bSuspSedTSSave = true;
                  m_bFloodSetupSurgeTSSave = true;
                  m_bFloodSetupSurgeRunupTSSave = true;
                  m_bCliffNotchElevTSSave = true;
               }
               else
               {
                  if (strRH.find(TIME_SERIES_SEA_AREA_CODE) != string::npos)
                  {
                     m_bSeaAreaTSSave = true;
                     strRH = strRemoveSubstr(&strRH, &TIME_SERIES_SEA_AREA_CODE);
                  }
 
                  if (strRH.find(TIME_SERIES_SWL_CODE) != string::npos)
                  {
                     m_bSWLTSSave = true;
                     strRH = strRemoveSubstr(&strRH, &TIME_SERIES_SWL_CODE);
                  }
 
                  if (strRH.find(TIME_SERIES_PLATFORM_EROSION_CODE) != string::npos)
                  {
                     m_bActualPlatformErosionTSSave = true;
                     strRH = strRemoveSubstr(&strRH, &TIME_SERIES_PLATFORM_EROSION_CODE);
                  }
 
                  if (strRH.find(TIME_SERIES_CLIFF_COLLAPSE_EROSION_CODE) != string::npos)
                  {
                     m_bCliffCollapseErosionTSSave = true;
                     strRH = strRemoveSubstr(&strRH, &TIME_SERIES_CLIFF_COLLAPSE_EROSION_CODE);
                  }
 
                  if (strRH.find(TIME_SERIES_CLIFF_COLLAPSE_DEPOSITION_CODE) != string::npos)
                  {
                     m_bCliffCollapseDepositionTSSave = true;
                     strRH = strRemoveSubstr(&strRH, &TIME_SERIES_CLIFF_COLLAPSE_DEPOSITION_CODE);
                  }
 
                  if (strRH.find(TIME_SERIES_CLIFF_COLLAPSE_NET_CODE) != string::npos)
                  {
                     m_bCliffCollapseNetTSSave = true;
                     strRH = strRemoveSubstr(&strRH, &TIME_SERIES_CLIFF_COLLAPSE_NET_CODE);
                  }
 
                  if (strRH.find(TIME_SERIES_BEACH_EROSION_CODE) != string::npos)
                  {
                     m_bBeachErosionTSSave = true;
                     strRH = strRemoveSubstr(&strRH, &TIME_SERIES_BEACH_EROSION_CODE);
                  }
 
                  if (strRH.find(TIME_SERIES_BEACH_DEPOSITION_CODE) != string::npos)
                  {
                     m_bBeachDepositionTSSave = true;
                     strRH = strRemoveSubstr(&strRH, &TIME_SERIES_BEACH_DEPOSITION_CODE);
                  }
 
                  if (strRH.find(TIME_SERIES_BEACH_CHANGE_NET_CODE) != string::npos)
                  {
                     m_bBeachSedimentChangeNetTSSave = true;
                     strRH = strRemoveSubstr(&strRH, &TIME_SERIES_BEACH_CHANGE_NET_CODE);
                  }
 
                  if (strRH.find(TIME_SERIES_SUSPENDED_SEDIMENT_CODE) != string::npos)
                  {
                     m_bSuspSedTSSave = true;
                     strRH = strRemoveSubstr(&strRH, &TIME_SERIES_SUSPENDED_SEDIMENT_CODE);
                  }
 
                  if (strRH.find(TIME_SERIES_FLOOD_SETUP_SURGE_CODE) != string::npos)
                  {
                     m_bFloodSetupSurgeTSSave = true;
                     strRH = strRemoveSubstr(&strRH, &TIME_SERIES_FLOOD_SETUP_SURGE_CODE);
                  }
 
                  if (strRH.find(TIME_SERIES_FLOOD_SETUP_SURGE_RUNUP_CODE) != string::npos)
                  {
                     m_bFloodSetupSurgeRunupTSSave = true;
                     strRH = strRemoveSubstr(&strRH, &TIME_SERIES_FLOOD_SETUP_SURGE_RUNUP_CODE);
                  }
 
                  if (strRH.find(TIME_SERIES_CLIFF_NOTCH_ELEV_CODE) != string::npos)
                  {
                     m_bCliffNotchElevTSSave = true;
                     strRH = strRemoveSubstr(&strRH, &TIME_SERIES_CLIFF_NOTCH_ELEV_CODE);
                  }
 
                  // Check to see if all codes have been removed
                  if (! strRH.empty())
                     strErr = "line " + to_string(nLine) + ": unknown code '" + strRH + "' in list of time series output files";
               }
            }
 
            break;
 
         case 19:
            // Vector coastline smoothing algorithm: 0 = none, 1 = running mean, 2 = Savitzky-Golay
            if (! bIsStringValidInt(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid integer for coastline smoothing algorithm '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_nCoastSmooth = stoi(strRH);
 
            if ((m_nCoastSmooth < SMOOTH_NONE) || (m_nCoastSmooth > SMOOTH_SAVITZKY_GOLAY))
               strErr = "line " + to_string(nLine) + ": coastline vector smoothing algorithm must be " + to_string(SMOOTH_NONE) + ", " + to_string(SMOOTH_RUNNING_MEAN) + ", or " + to_string(SMOOTH_SAVITZKY_GOLAY);
 
            break;
 
         case 20:
            // Size of coastline smoothing window: must be odd
            if (! bIsStringValidInt(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid integer for coastline smoothing window '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_nCoastSmoothingWindowSize = stoi(strRH);
 
            if ((m_nCoastSmoothingWindowSize <= 0) || !(m_nCoastSmoothingWindowSize % 2))
               strErr = "line " + to_string(nLine) + ": size of coastline vector smoothing window (must be > 0 and odd)";
 
            break;
 
         case 21:
            // Order of coastline profile smoothing polynomial for Savitzky-Golay: usually 2 or 4, max is 6
            if (! bIsStringValidInt(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid integer for Savitzky-Golay polynomial for coastline smoothing '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_nSavGolCoastPoly = stoi(strRH);
 
            if ((m_nSavGolCoastPoly <= 0) || (m_nSavGolCoastPoly > 6))
               strErr = "line " + to_string(nLine) + ": value of Savitzky-Golay polynomial for coastline smoothing (must be <= 6)";
 
            break;
 
         case 22:
            // Grid edge(s) to omit when searching for coastline [NSWE]
            strRH = strToLower(&strRH);
 
            if (strRH.find('n') != string::npos)
            {
               m_bOmitSearchNorthEdge = true;
            }
 
            if (strRH.find('s') != string::npos)
            {
               m_bOmitSearchSouthEdge = true;
            }
 
            if (strRH.find('w') != string::npos)
            {
               m_bOmitSearchWestEdge = true;
            }
 
            if (strRH.find('e') != string::npos)
            {
               m_bOmitSearchEastEdge = true;
            }
 
            break;
 
         case 23:
            // Profile slope running-mean smoothing window size: must be odd
            if (! bIsStringValidInt(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid integer for size of coastline smoothing window '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_nProfileSmoothWindow = stoi(strRH);
 
            if ((m_nProfileSmoothWindow < 0) || (m_nProfileSmoothWindow > 0 && !(m_nProfileSmoothWindow % 2)))
               strErr = "line " + to_string(nLine) + ": size of profile vector smoothing window (must be >= 0, if > 0 must be odd)";
 
            break;
 
         case 24:
            // Max local slope (m/m), first check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for max local slope '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dProfileMaxSlope = strtod(strRH.c_str(), NULL);
 
            if (m_dProfileMaxSlope <= 0)
               strErr = "line " + to_string(nLine) + ": max local slope must be > 0";
 
            break;
 
         case 25:
            // Maximum elevation of beach above SWL, first check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for maximum elevation of beach above SWL '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dMaxBeachElevAboveSWL = strtod(strRH.c_str(), NULL);
 
            if (m_dMaxBeachElevAboveSWL < 0)
               strErr = "line " + to_string(nLine) + ": maximum elevation of beach above SWL must be >= 0";
 
            break;
 
         // ------------------------------------------------- Raster GIS layers ------------------------------------------------
         case 26:
            // Number of sediment layers
            if (! bIsStringValidInt(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid integer for number of sediment layers '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_nLayers = stoi(strRH);
 
            if (m_nLayers < 1)
            {
               strErr = "line " + to_string(nLine) + ": must be at least one sediment layer";
               break;
            }
 
            // OK we know the number of layers, so add elements to these vectors
            for (int j = 0; j < m_nLayers; j++)
            {
               m_VstrInitialFineUnconsSedimentFile.push_back("");
               m_VstrInitialSandUnconsSedimentFile.push_back("");
               m_VstrInitialCoarseUnconsSedimentFile.push_back("");
               m_VstrInitialFineConsSedimentFile.push_back("");
               m_VstrInitialSandConsSedimentFile.push_back("");
               m_VstrInitialCoarseConsSedimentFile.push_back("");
               m_VstrGDALIUFDriverCode.push_back("");
               m_VstrGDALIUFDriverDesc.push_back("");
               m_VstrGDALIUFProjection.push_back("");
               m_VstrGDALIUFDataType.push_back("");
               m_VstrGDALIUSDriverCode.push_back("");
               m_VstrGDALIUSDriverDesc.push_back("");
               m_VstrGDALIUSProjection.push_back("");
               m_VstrGDALIUSDataType.push_back("");
               m_VstrGDALIUCDriverCode.push_back("");
               m_VstrGDALIUCDriverDesc.push_back("");
               m_VstrGDALIUCProjection.push_back("");
               m_VstrGDALIUCDataType.push_back("");
               m_VstrGDALICFDriverCode.push_back("");
               m_VstrGDALICFDriverDesc.push_back("");
               m_VstrGDALICFProjection.push_back("");
               m_VstrGDALICFDataType.push_back("");
               m_VstrGDALICSDriverCode.push_back("");
               m_VstrGDALICSDriverDesc.push_back("");
               m_VstrGDALICSProjection.push_back("");
               m_VstrGDALICSDataType.push_back("");
               m_VstrGDALICCDriverCode.push_back("");
               m_VstrGDALICCDriverDesc.push_back("");
               m_VstrGDALICCProjection.push_back("");
               m_VstrGDALICCDataType.push_back("");
            }
 
            break;
 
         case 27:
            // Basement DEM file (can be blank)
            if (! strRH.empty())
            {
#ifdef _WIN32
               // For Windows, make sure has backslashes, not Unix-style slashes
               strRH = pstrChangeToBackslash(&strRH);
#endif
 
               // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
               if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
                  // It has an absolute path, so use it 'as is'
                  m_strInitialBasementDEMFile = strRH;
               else
               {
                  // It has a relative path, so prepend the CoastalME dir
                  m_strInitialBasementDEMFile = m_strCMEDir;
                  m_strInitialBasementDEMFile.append(strRH);
               }
            }
 
            break;
 
         case 28:
            // Read 6 x sediment files for each layer
            for (int nLayer = 0; nLayer < m_nLayers; nLayer++)
            {
               for (int j = 1; j <= 6; j++)
               {
                  if (! bFirst)
                  {
                     do
                     {
                        if (!getline(InStream, strRec))
                        {
                           cerr << ERR << "premature end of file in " << m_strDataPathName << endl;
                           return false;
                        }
 
                        nLine++;
 
                        // Trim off leading and trailing whitespace
                        strRec = strTrim(&strRec);
                     }
 
                     // If it is a blank line or a comment then ignore it
                     while (strRec.empty() || (strRec[0] == QUOTE1) || (strRec[0] == QUOTE2));
 
                     // Not blank or a comment, so find the colon: lines MUST have a colon separating data from leading description portion
                     nPos = strRec.find(COLON);
 
                     if (nPos == string::npos)
                     {
                        // Error: badly formatted (no colon)
                        cerr << ERR << "on line " << to_string(nLine) << ": badly formatted (no ':') in " << m_strDataPathName << endl
                             << strRec << endl;
                        return false;
                     }
 
                     // Strip off leading portion (the bit up to and including the colon)
                     strRH = strRec.substr(nPos + 1);
                     // ERROR                     strRH.resize(nPos);
 
                     // Remove leading whitespace after the colon
                     strRH = strTrimLeft(&strRH);
 
                     // Look for a trailing comment, if found then terminate string at that point and trim off any trailing whitespace
                     nPos = strRH.rfind(QUOTE1);
 
                     if (nPos != string::npos)
                        strRH.resize(nPos);
 
                     nPos = strRH.rfind(QUOTE2);
 
                     if (nPos != string::npos)
                        strRH.resize(nPos);
 
                     // Trim trailing spaces
                     strRH = strTrimRight(&strRH);
 
#ifdef _WIN32
                     // For Windows, make sure has backslashes, not Unix-style slashes
                     strRH = pstrChangeToBackslash(&strRH);
#endif
                  }
 
                  bFirst = false;
 
                  switch (j)
                  {
                  case 1:
 
                     // Initial fine unconsolidated sediment depth GIS file (can be blank)
                     if (! strRH.empty())
                     {
                        // Set switch
                        m_bHaveFineSediment = true;
#ifdef _WIN32
                        // For Windows, make sure has backslashes, not Unix-style slashes
                        strRH = pstrChangeToBackslash(&strRH);
#endif
 
                        // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
                        if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
                        {
                           // It has an absolute path, so use it 'as is'
                           m_VstrInitialFineUnconsSedimentFile[nLayer] = strRH;
                        }
 
                        else
                        {
                           // It has a relative path, so prepend the CoastalME dir
                           m_VstrInitialFineUnconsSedimentFile[nLayer] = m_strCMEDir;
                           m_VstrInitialFineUnconsSedimentFile[nLayer].append(strRH);
                        }
                     }
 
                     break;
 
                  case 2:
                     // Initial sand unconsolidated sediment depth GIS file (can be blank)
                     if (! strRH.empty())
                     {
                        // Set switch
                        m_bHaveSandSediment = true;
#ifdef _WIN32
                        // For Windows, make sure has backslashes, not Unix-style slashes
                        strRH = pstrChangeToBackslash(&strRH);
#endif
 
                        // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
                        if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
                        {
                           // It has an absolute path, so use it 'as is'
                           m_VstrInitialSandUnconsSedimentFile[nLayer] = strRH;
                        }
 
                        else
                        {
                           // It has a relative path, so prepend the CoastalME dir
                           m_VstrInitialSandUnconsSedimentFile[nLayer] = m_strCMEDir;
                           m_VstrInitialSandUnconsSedimentFile[nLayer].append(strRH);
                        }
                     }
 
                     break;
 
                  case 3:
                     // Initial coarse unconsolidated sediment depth GIS file (can be blank)
                     if (! strRH.empty())
                     {
                        // Set switch
                        m_bHaveCoarseSediment = true;
#ifdef _WIN32
                        // For Windows, make sure has backslashes, not Unix-style slashes
                        strRH = pstrChangeToBackslash(&strRH);
#endif
 
                        // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
                        if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
                        {
                           // It has an absolute path, so use it 'as is'
                           m_VstrInitialCoarseUnconsSedimentFile[nLayer] = strRH;
                        }
 
                        else
                        {
                           // It has a relative path, so prepend the CoastalME dir
                           m_VstrInitialCoarseUnconsSedimentFile[nLayer] = m_strCMEDir;
                           m_VstrInitialCoarseUnconsSedimentFile[nLayer].append(strRH);
                        }
                     }
 
                     break;
 
                  case 4:
                     // Initial fine consolidated sediment depth GIS file (can be blank)
                     if (! strRH.empty())
                     {
                        // Set switches
                        m_bHaveConsolidatedSediment = true;
                        m_bHaveFineSediment = true;
#ifdef _WIN32
                        // For Windows, make sure has backslashes, not Unix-style slashes
                        strRH = pstrChangeToBackslash(&strRH);
#endif
 
                        // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
                        if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
                        {
                           // It has an absolute path, so use it 'as is'
                           m_VstrInitialFineConsSedimentFile[nLayer] = strRH;
                        }
 
                        else
                        {
                           // It has a relative path, so prepend the CoastalME dir
                           m_VstrInitialFineConsSedimentFile[nLayer] = m_strCMEDir;
                           m_VstrInitialFineConsSedimentFile[nLayer].append(strRH);
                        }
                     }
 
                     break;
 
                  case 5:
                     // Initial sand consolidated sediment depth GIS file (can be blank)
                     if (! strRH.empty())
                     {
                        // Set switches
                        m_bHaveConsolidatedSediment = true;
                        m_bHaveSandSediment = true;
#ifdef _WIN32
                        // For Windows, make sure has backslashes, not Unix-style slashes
                        strRH = pstrChangeToBackslash(&strRH);
#endif
 
                        // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
                        if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
                        {
                           // It has an absolute path, so use it 'as is'
                           m_VstrInitialSandConsSedimentFile[nLayer] = strRH;
                        }
                        else
                        {
                           // It has a relative path, so prepend the CoastalME dir
                           m_VstrInitialSandConsSedimentFile[nLayer] = m_strCMEDir;
                           m_VstrInitialSandConsSedimentFile[nLayer].append(strRH);
                        }
                     }
 
                     break;
 
                  case 6:
                     // Initial coarse consolidated sediment depth GIS file (can be blank)
                     if (! strRH.empty())
                     {
                        // Set switches
                        m_bHaveConsolidatedSediment = true;
                        m_bHaveCoarseSediment = true;
#ifdef _WIN32
                        // For Windows, make sure has backslashes, not Unix-style slashes
                        strRH = pstrChangeToBackslash(&strRH);
#endif
 
                        // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
                        if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
                        {
                           // It has an absolute path, so use it 'as is'
                           m_VstrInitialCoarseConsSedimentFile[nLayer] = strRH;
                        }
 
                        else
                        {
                           // It has a relative path, so prepend the CoastalME dir
                           m_VstrInitialCoarseConsSedimentFile[nLayer] = m_strCMEDir;
                           m_VstrInitialCoarseConsSedimentFile[nLayer].append(strRH);
                        }
                     }
 
                     break;
                  }
 
                  // Did an error occur?
                  if (! strErr.empty())
                  {
                     // Error in input to run details file
                     cerr << ERR << "reading " << strErr << " in " << m_strDataPathName << endl
                          << "'" << strRec << "'" << endl;
                     InStream.close();
                     return false;
                  }
               }
            }
 
            break;
 
         case 29:
            // Initial suspended sediment depth GIS file (can be blank)
            if (! strRH.empty())
            {
               // Set switch
               m_bHaveFineSediment = true;
#ifdef _WIN32
               // For Windows, make sure has backslashes, not Unix-style slashes
               strRH = pstrChangeToBackslash(&strRH);
#endif
 
               // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
               if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
               {
                  // It has an absolute path, so use it 'as is'
                  m_strInitialSuspSedimentFile = strRH;
               }
 
               else
               {
                  // It has a relative path, so prepend the CoastalME dir
                  m_strInitialSuspSedimentFile = m_strCMEDir;
                  m_strInitialSuspSedimentFile.append(strRH);
               }
            }
 
            break;
 
         case 30:
            // Initial Landform class GIS file (can be blank)
            if (! strRH.empty())
            {
#ifdef _WIN32
               // For Windows, make sure has backslashes, not Unix-style slashes
               strRH = pstrChangeToBackslash(&strRH);
#endif
 
               // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
               if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
               {
                  // It has an absolute path, so use it 'as is'
                  m_strInitialLandformFile = strRH;
               }
 
               else
               {
                  // It has a relative path, so prepend the CoastalME dir
                  m_strInitialLandformFile = m_strCMEDir;
                  m_strInitialLandformFile.append(strRH);
               }
            }
 
            break;
 
         case 31:
            // Initial Intervention class GIS file (can be blank: if so then intervention height file must also be blank)
            if (! strRH.empty())
            {
#ifdef _WIN32
               // For Windows, make sure has backslashes, not Unix-style slashes
               strRH = pstrChangeToBackslash(&strRH);
#endif
 
               // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
               if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
               {
                  // It has an absolute path, so use it 'as is'
                  m_strInterventionClassFile = strRH;
               }
 
               else
               {
                  // It has a relative path, so prepend the CoastalME dir
                  m_strInterventionClassFile = m_strCMEDir;
                  m_strInterventionClassFile.append(strRH);
               }
 
               // Set the save switches
               m_bInterventionClassSave = true;
               m_bInterventionHeightSave = true;
            }
 
            break;
 
         case 32:
            // Initial Intervention height GIS file (can be blank: if so then intervention class file must also be blank)
            if (strRH.empty())
            {
               if (! m_strInterventionClassFile.empty())
                  strErr = "line " + to_string(nLine) + ": must specify both intervention class and intervention height files";
 
               break;
            }
 
            else
            {
               if (m_strInterventionClassFile.empty())
               {
                  strErr = "line " + to_string(nLine) + ": must specify both intervention class and intervention height files";
                  break;
               }
 
#ifdef _WIN32
               // For Windows, make sure has backslashes, not Unix-style slashes
               strRH = pstrChangeToBackslash(&strRH);
#endif
 
               // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
               if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
               {
                  // It has an absolute path, so use it 'as is'
                  m_strInterventionHeightFile = strRH;
               }
 
               else
               {
                  // It has a relative path, so prepend the CoastalME dir
                  m_strInterventionHeightFile = m_strCMEDir;
                  m_strInterventionHeightFile.append(strRH);
               }
            }
 
            break;
 
         // ---------------------------------------------------- Hydrology data ------------------------------------------------
         case 33:
            // Wave propagation model [0 = COVE, 1 = CShore]
            if (! bIsStringValidInt(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid integer for wave propagation model '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_nWavePropagationModel = stoi(strRH);
 
            if ((m_nWavePropagationModel != WAVE_MODEL_COVE) && (m_nWavePropagationModel != WAVE_MODEL_CSHORE))
               strErr = "line " + to_string(nLine) + ": wave propagation model must be " + to_string( WAVE_MODEL_COVE) + " or" + to_string( WAVE_MODEL_CSHORE);
 
            break;
 
         case 34:
            // Density of sea water (kg/m3), first check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for sea water density '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dSeaWaterDensity = strtod(strRH.c_str(), NULL);
 
            if (m_dSeaWaterDensity <= 0)
               strErr = "line " + to_string(nLine) + ": sea water density must be > 0";
 
            break;
 
         case 35:
            // Initial mean still water level (m), first check that this is a valid double TODO 041 Make this a per-timestep SWL file
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for initial SWL '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dInitialMeanSWL = strtod(strRH.c_str(), NULL);
            break;
 
         case 36:
            // Final mean still water level (m) [blank = same as initial MSWL]
            if (strRH.empty())
               m_dFinalMeanSWL = m_dInitialMeanSWL;
 
            else
            {
               // Check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for final SWL '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dFinalMeanSWL = strtod(strRH.c_str(), NULL);
            }
 
            break;
 
         case 37:
            // Deep water wave height (m) or a file of point vectors giving deep water wave height (m) and orientation (for units, see below)
            if (strRH.empty())
               strErr = "line " + to_string(nLine) + ": deep water wave height in " + m_strDataPathName + " must be either a number or a filename (filename must not start with a number)";
 
            else
            {
               if (isdigit(strRH.at(0))) // If this starts with a number then is a single value, otherwise is a filename. Note that filename must not start with number
               {
                  // Just one value of wave height for all deep water cells, first check that this is a valid double
                  if (! bIsStringValidDouble(strRH))
                  {
                     strErr = "line " + to_string(nLine) + ": invalid floating point number for deep water wave height '" + strRH + "' in " + m_strDataPathName;
                     break;
                  }
 
                  m_bSingleDeepWaterWaveValues = true;
                  m_bHaveWaveStationData = false;
 
                  m_dAllCellsDeepWaterWaveHeight = strtod(strRH.c_str(), NULL);
 
                  if (m_dAllCellsDeepWaterWaveHeight <= 0)
                     strErr = "line " + to_string(nLine) + ": deep water wave height must be > 0";
               }
 
               else
               {
                  // We are reading deep water wave height and deep water wave orientation from two files. This first file is a point shape file with the location of the buoys and integer ID for each one
                  m_bHaveWaveStationData = true;
#ifdef _WIN32
                  // For Windows, make sure has backslashes, not Unix-style slashes
                  strRH = pstrChangeToBackslash(&strRH);
#endif
 
                  // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
                  if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
                  {
                     // It has an absolute path, so use it 'as is'
                     m_strDeepWaterWaveStationsShapefile = strRH;
                  }
 
                  else
                  {
                     // It has a relative path, so prepend the CoastalME dir
                     m_strDeepWaterWaveStationsShapefile = m_strCMEDir;
                     m_strDeepWaterWaveStationsShapefile.append(strRH);
                  }
               }
            }
 
            break;
 
         case 38:
            // Deep water wave height input file. Each point in m_strDeepWaterWavesInputFile is a triad of wave height, orientation and period for each time step
            if (m_bHaveWaveStationData)
            {
               if (strRH.empty())
               {
                  strErr = "line " + to_string(nLine) + ": filename missing for deep water wave height input";
                  break;
               }
 
#ifdef _WIN32
               // For Windows, make sure has backslashes, not Unix-style slashes
               strRH = pstrChangeToBackslash(&strRH);
#endif
 
               // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
               if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
               {
                  // It has an absolute path, so use it 'as is'
                  m_strDeepWaterWavesInputFile = strRH;
               }
 
               else
               {
                  // It has a relative path, so prepend the CoastalME dir
                  m_strDeepWaterWavesInputFile = m_strCMEDir;
                  m_strDeepWaterWavesInputFile.append(strRH);
               }
            }
 
            break;
 
         case 39:
            // Deep water wave orientation in input CRS: this is the oceanographic convention i.e. direction TOWARDS which the waves move (in degrees clockwise from north)
            if (! m_bHaveWaveStationData)
            {
               // Only read this if we have just a single value of wave height for all deep water cells. Check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for deep water wave orientation '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dAllCellsDeepWaterWaveAngle = strtod(strRH.c_str(), NULL);
 
               if (m_dAllCellsDeepWaterWaveAngle < 0)
                  strErr = "line " + to_string(nLine) + ": deep water wave orientation must be zero degrees or more";
 
               else if (m_dAllCellsDeepWaterWaveAngle >= 360)
                  strErr = "line " + to_string(nLine) + ": deep water wave orientation must be less than 360 degrees";
            }
 
            break;
 
         case 40:
            // Wave period (sec)
            if (! m_bHaveWaveStationData)
            {
               // Only read this if we also have just a single value of wave height for all deep water cells. Check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for wave period '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dAllCellsDeepWaterWavePeriod = strtod(strRH.c_str(), NULL);
 
               if (m_dAllCellsDeepWaterWavePeriod <= 0)
                  strErr = "line " + to_string(nLine) + ": wave period must be > 0";
            }
 
            break;
 
         case 41:
            // Tide data file (can be blank). This is the change (m) from still water level for each timestep
            if (! strRH.empty())
            {
#ifdef _WIN32
               // For Windows, make sure has backslashes, not Unix-style slashes
               strRH = pstrChangeToBackslash(&strRH);
#endif
 
               // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
               if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
                  // It has an absolute path, so use it 'as is'
                  m_strTideDataFile = strRH;
 
               else
               {
                  // It has a relative path, so prepend the CoastalME dir
                  m_strTideDataFile = m_strCMEDir;
                  m_strTideDataFile.append(strRH);
               }
            }
 
            break;
 
         case 42:
            // Breaking wave height-to-depth ratio, check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for breaking wave height to depth ratio '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dBreakingWaveHeightDepthRatio = strtod(strRH.c_str(), NULL);
 
            if (m_dBreakingWaveHeightDepthRatio <= 0)
               strErr = "line " + to_string(nLine) + ": breaking wave height to depth ratio must be > 0";
 
            break;
 
         // ----------------------------------------------------- Sediment data ------------------------------------------------
         case 43:
            // Simulate coast platform erosion?
            strRH = strToLower(&strRH);
 
            if (strRH.find('y') != string::npos)
               m_bDoShorePlatformErosion = true;
 
            break;
 
         case 44:
            // If simulating coast platform erosion, R (coast platform resistance to erosion) values along profile, see Walkden & Hall, 2011
            if (m_bDoShorePlatformErosion)
            {
               // First check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for R (coast platform resistance to erosion) '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dR = strtod(strRH.c_str(), NULL);
 
               if (m_dR <= 0)
                  strErr = "line " + to_string(nLine) + ": R (coast platform resistance to erosion) value must be > 0";
            }
 
            break;
 
         case 45:
            // Simulate beach sediment transport?
            strRH = strToLower(&strRH);
 
            m_bDoBeachSedimentTransport = false;
 
            if (strRH.find('y') != string::npos)
               m_bDoBeachSedimentTransport = true;
 
            break;
 
         case 46:
            // If simulating beach sediment transport, beach sediment transport at grid edges [0 = closed, 1 = open, 2 = re-circulate]
            if (m_bDoBeachSedimentTransport)
            {
               if (! bIsStringValidInt(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid integer for beach sediment transport at grid edges '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_nUnconsSedimentHandlingAtGridEdges = stoi(strRH);
 
               if ((m_nUnconsSedimentHandlingAtGridEdges < GRID_EDGE_CLOSED) || (m_nUnconsSedimentHandlingAtGridEdges > GRID_EDGE_RECIRCULATE))
                  strErr = "line " + to_string(nLine) + ": switch for handling of beach sediment at grid edges must be " + to_string(GRID_EDGE_CLOSED) + ", " + to_string(GRID_EDGE_OPEN) + ", or " + to_string(GRID_EDGE_RECIRCULATE);
            }
 
            break;
 
         case 47:
            // If simulating beach sediment transport, beach erosion/deposition equation [0 = CERC, 1 = Kamphuis]
            if (m_bDoBeachSedimentTransport)
            {
               if (! bIsStringValidInt(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid integer for beach erosion/deposition equation '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_nBeachErosionDepositionEquation = stoi(strRH);
 
               if ((m_nBeachErosionDepositionEquation != UNCONS_SEDIMENT_EQUATION_CERC) && (m_nBeachErosionDepositionEquation != UNCONS_SEDIMENT_EQUATION_KAMPHUIS))
                  strErr = "line " + to_string(nLine) + ": switch for beach erosion/deposition equation must be " + to_string(UNCONS_SEDIMENT_EQUATION_CERC) + " or" + to_string(UNCONS_SEDIMENT_EQUATION_KAMPHUIS);
            }
 
            break;
 
         case 48:
            // Median size of fine sediment (mm), always needed [0 = default, only for Kamphuis eqn]. First check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for median particle size of fine sediment '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dD50Fine = strtod(strRH.c_str(), NULL);
 
            if (m_dD50Fine < 0)
               strErr = "line " + to_string(nLine) + ": median particle size of fine sediment must be > 0";
            else if (bFPIsEqual(m_dD50Fine, 0.0, TOLERANCE))
               // Use default value
               m_dD50Fine = D50_FINE_DEFAULT;
 
            break;
 
         case 49:
            // Median size of sand sediment (mm), always needed [0 = default, only for Kamphuis eqn]. First check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for median particle size of sand sediment '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dD50Sand = strtod(strRH.c_str(), NULL);
 
            if (m_dD50Sand < 0)
               strErr = "line " + to_string(nLine) + ": median particle size of sand sediment must be > 0";
            else if (bFPIsEqual(m_dD50Sand, 0.0, TOLERANCE))
               // Use default value
               m_dD50Sand = D50_SAND_DEFAULT;
 
            break;
 
         case 50:
            // Median size of coarse sediment (mm), always needed [0 = default, only for Kamphuis eqn]. First check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for median particle size of coarse sediment '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dD50Coarse = strtod(strRH.c_str(), NULL);
 
            if (m_dD50Coarse < 0)
               strErr = "line " + to_string(nLine) + ": median particle size of coarse sediment must be > 0";
            else if (bFPIsEqual(m_dD50Coarse, 0.0, TOLERANCE))
               // Use default value
               m_dD50Coarse = D50_COARSE_DEFAULT;
 
            break;
 
         case 51:
            // Density of unconsolidated beach sediment (kg/m3)
            if (m_bDoBeachSedimentTransport)
            {
               // First check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for density of beach sediment '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dBeachSedimentDensity = strtod(strRH.c_str(), NULL);
 
               if (m_dBeachSedimentDensity <= 0)
                  strErr = "line " + to_string(nLine) + ": density of beach sediment must be > 0";
            }
 
            break;
 
         case 52:
            // Beach sediment porosity
            if (m_bDoBeachSedimentTransport)
            {
               // First check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for porosity of beach sediment '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dBeachSedimentPorosity = strtod(strRH.c_str(), NULL);
 
               if (m_dBeachSedimentPorosity <= 0)
                  strErr = "line " + to_string(nLine) + ": porosity of beach sediment must be > 0";
            }
 
            break;
 
         case 53:
            // Relative erodibility (0 - 1) of fine-sized sediment, always needed. First check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for erodibility of fine-sized sediment '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dFineErodibility = strtod(strRH.c_str(), NULL);
 
            if ((m_dFineErodibility < 0) || (m_dFineErodibility > 1))
               strErr = "line " + to_string(nLine) + ": relative erodibility of fine-sized sediment must be between 0 and 1";
 
            break;
 
         case 54:
            // Relative erodibility (0 - 1) of sand-sized sediment, always needed. First check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for erodibility of sand-sized sediment '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dSandErodibility = strtod(strRH.c_str(), NULL);
 
            if ((m_dSandErodibility < 0) || (m_dSandErodibility > 1))
               strErr = "line " + to_string(nLine) + ": relative erodibility of sand-sized sediment must be between 0 and 1";
 
            break;
 
         case 55:
            // Relative erodibility (0 - 1) of coarse-sized sediment, always needed. First check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for erodibility of coarse-sized sediment '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dCoarseErodibility = strtod(strRH.c_str(), NULL);
 
            if ((m_dCoarseErodibility < 0) || (m_dCoarseErodibility > 1))
            {
               strErr = "line " + to_string(nLine) + ": relative erodibility of coarse-sized sediment must be between 0 and 1";
               break;
            }
 
            if ((m_dFineErodibility + m_dSandErodibility + m_dCoarseErodibility) <= 0)
               strErr = "line " + to_string(nLine) + ": must have at least one non-zero erodibility value";
 
            break;
 
         case 56:
            // Transport parameter KLS in CERC equation
            if (m_bDoBeachSedimentTransport)
            {
               // First check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for transport parameter KLS of CERC equation '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dKLS = strtod(strRH.c_str(), NULL);
 
               // However, many sites do not have transport data available to calibrate K, and for design applications without calibration data the CERC formula provides only order-of-magnitude accuracy (Fowler et al., 1995; Wang et al., 1998). The recommended value of K = 0.39 has been commonly used to represent the potential longshore transport rate. However, Miller (1998) found that the CERC formula sometimes over and sometimes under predicted longshore transport rate for measurements during storms, indicating the value of K also can be higher than 0.39
               // TODO 042 Should this be a user input, or not? The comment above seems inconclusive
               // m_dKLS = tMin(m_dKLS, 0.39);
 
               if (m_dKLS <= 0)
                  strErr = "line " + to_string(nLine) + ": transport parameter KLS of CERC equation must be > 0";
            }
 
            break;
 
         case 57:
            // Transport parameter for Kamphuis equation
            if (m_bDoBeachSedimentTransport)
            {
               // First check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for transport parameter of Kamphuis equation '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dKamphuis = strtod(strRH.c_str(), NULL);
 
               if (m_dKamphuis <= 0)
                  strErr = "line " + to_string(nLine) + ": transport parameter of Kamphuis equation must be > 0";
            }
 
            break;
 
         case 58:
            // Berm height i.e. height above SWL of start of depositional Dean profile
            if (m_bDoBeachSedimentTransport)
            {
               // First check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for Dean profile start height above SWL '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dDeanProfileStartAboveSWL = strtod(strRH.c_str(), NULL);
 
               if (m_dDeanProfileStartAboveSWL < 0)
                  strErr = "line " + to_string(nLine) + ": Berm height (Dean profile start height above SWL) must be >= 0";
            }
 
            break;
 
         // ------------------------------------------------ Cliff collapse data -----------------------------------------------
         case 59:
            // Simulate cliff collapse?
            if (m_bHaveConsolidatedSediment)
            {
               // Only consider cliff collapse if we have some consolidated sedimemt
               strRH = strToLower(&strRH);
 
               if (strRH.find('y') != string::npos)
                  m_bDoCliffCollapse = true;
            }
 
            break;
 
         case 60:
            // Cliff resistance to erosion
            if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
            {
               // First check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for cliff resistance to erosion '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dCliffErosionResistance = strtod(strRH.c_str(), NULL);
 
               if (m_dCliffErosionResistance <= 0)
                  strErr = "line " + to_string(nLine) + ": cliff resistance to erosion must be > 0";
            }
 
            break;
 
         case 61:
            // Notch overhang at collapse (m)
            if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
            {
               // First check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for cliff notch overhang at collapse '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dNotchIncisionAtCollapse = strtod(strRH.c_str(), NULL);
 
               if (m_dNotchIncisionAtCollapse <= 0)
                  strErr = "line " + to_string(nLine) + ": cliff notch overhang at collapse must be > 0";
            }
 
            break;
 
         case 62:
            // Notch apex above mean high water (MHW) level (m)
            if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
            {
               m_dNotchApexAboveMHW = strtod(strRH.c_str(), NULL);
 
               if (m_dNotchApexAboveMHW < 0)
                  strErr = "line " + to_string(nLine) + ": distance of cliff notch apex above MHW level must be >= 0";
            }
 
            break;
 
         case 63:
            // Scale parameter A for cliff deposition (m^(1/3)) [0 = auto]
            if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
            {
               // First check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for scale parameter A for cliff deposition '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dCliffDepositionA = strtod(strRH.c_str(), NULL);
 
               if (m_dCliffDepositionA < 0)
                  strErr = "line " + to_string(nLine) + ": scale parameter A for cliff deposition must be 0 [= auto] or greater";
            }
 
            break;
 
         case 64:
            // Approximate planview width of cliff collapse talus (in m)
            if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
            {
               // First check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for width of cliff collapse talus '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dCliffDepositionPlanviewWidth = strtod(strRH.c_str(), NULL);
 
               if (m_dCliffDepositionPlanviewWidth <= 0)
                  strErr = "line " + to_string(nLine) + ": planview width of cliff deposition must be > 0";
            }
 
            break;
 
         case 65:
            // Planview length of cliff deposition talus (m)
            if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
            {
               // First check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for planview length of cliff deposition '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dCliffTalusMinDepositionLength = strtod(strRH.c_str(), NULL);
 
               if (m_dCliffTalusMinDepositionLength <= 0)
                  strErr = "line " + to_string(nLine) + ": planview length of cliff deposition must be > 0";
            }
 
            break;
 
         case 66:
            // Minimum height of landward end of talus, as a fraction of cliff elevation
            if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
            {
               // First check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for height of cliff collapse (as a fraction of cliff elevation) '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dMinCliffTalusHeightFrac = strtod(strRH.c_str(), NULL);
 
               if (m_dMinCliffTalusHeightFrac <= 0)
                  strErr = "line " + to_string(nLine) + ": minimum height of cliff collapse (as a fraction of cliff elevation) must be >= 0";
            }
 
            break;
 
         // -------------------------------------------------- Input events data -----------------------------------------------
         case 67:
            // Simulate riverine flooding?
            strRH = strToLower(&strRH);
 
            if (strRH.find('y') != string::npos)
            {
               m_bRiverineFlooding = true;
               m_bSetupSurgeFloodMaskSave = true;
               m_bSetupSurgeRunupFloodMaskSave = true;
               m_bRasterWaveFloodLineSave = true;
            }
 
            break;
 
         case 68:
            // Output riverine flooding vector files
            if (m_bRiverineFlooding)
            {
               if (! strRH.empty())
               {
                  // Convert to lower case
                  strRH = strToLower(&strRH);
 
                  // First look for "all"
                  if (strRH.find(VECTOR_ALL_RIVER_FLOOD_OUTPUT_CODE) != string::npos)
                  {
                     m_bFloodSWLSetupLineSave = true;
                     m_bFloodSWLSetupSurgeLine = true;
                     m_bFloodSWLSetupSurgeRunupLineSave = true;
                  }
 
                  else
                  {
                     // We are not outputting all vector flood GIS files, so set switches (and remove strings) for those optional files for which the user specified the code
                     if (strRH.find(VECTOR_FLOOD_SWL_SETUP_LINE_CODE) != string::npos)
                     {
                        m_bFloodSWLSetupLineSave = true;
                        strRH = strRemoveSubstr(&strRH, &VECTOR_FLOOD_SWL_SETUP_LINE_CODE);
                     }
 
                     if (strRH.find(VECTOR_FLOOD_SWL_SETUP_SURGE_LINE_CODE) != string::npos)
                     {
                        m_bFloodSWLSetupSurgeLine = true;
                        strRH = strRemoveSubstr(&strRH, &VECTOR_FLOOD_SWL_SETUP_SURGE_LINE_CODE);
                     }
 
                     if (strRH.find(VECTOR_FLOOD_SWL_SETUP_SURGE_RUNUP_LINE_CODE) != string::npos)
                     {
                        m_bFloodSWLSetupSurgeRunupLineSave = true;
                        strRH = strRemoveSubstr(&strRH, &VECTOR_FLOOD_SWL_SETUP_SURGE_RUNUP_LINE_CODE);
                     }
 
                     // Check to see if all codes have been removed
                     if (! strRH.empty())
                        strErr = "line " + to_string(nLine) + ": unknown code '" + strRH + "' in list of riverine flooding output codes";
                  }
               }
               else
                  strErr = "line " + to_string(nLine) + ": if simulating riverine flooding, must contain '" + VECTOR_ALL_RIVER_FLOOD_OUTPUT_CODE + "' or at least one vector GIS output code for riverine flooding";
            }
 
            break;
 
         case 69:
            if (m_bRiverineFlooding && m_bVectorWaveFloodLineSave)
            {
               // Characteristic locations for flood?
               strRH = strToLower(&strRH);
 
               m_bFloodLocationSave = false;
 
               if (strRH.find('y') != string::npos)
                  m_bFloodLocationSave = true;
            }
 
            break;
 
         case 70:
            if (m_bRiverineFlooding)
            {
               // Path of location points file
               if (! strRH.empty())
               {
#ifdef _WIN32
                  // For Windows, make sure has backslashes, not Unix-style slashes
                  strRH = pstrChangeToBackslash(&strRH);
#endif
 
                  // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
                  if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
                     // It has an absolute path, so use it 'as is'
                     m_strFloodLocationShapefile = strRH;
 
                  else
                  {
                     // It has a relative path, so prepend the CoastalME dir
                     m_strFloodLocationShapefile = m_strCMEDir;
                     m_strFloodLocationShapefile.append(strRH);
                  }
 
                  // Set the switch
                  m_bFloodLocationSave = true;
               }
 
               else
                  strErr = "line " + to_string(nLine) + ": path of location points file must not be empty if simulating floods";
            }
 
            break;
 
         case 71:
            // Simulate sediment input?
            strRH = strToLower(&strRH);
 
            if (strRH.find('y') != string::npos)
            {
               m_bSedimentInput = true;
               m_bSedimentInputEventSave = true;
            }
 
            break;
 
         case 72:
            // Sediment input location (point or line shapefile)
            if (m_bSedimentInput)
            {
               if (! strRH.empty())
               {
#ifdef _WIN32
                  // For Windows, make sure has backslashes, not Unix-style slashes
                  strRH = pstrChangeToBackslash(&strRH);
#endif
 
                  // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
                  if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
                     // It has an absolute path, so use it 'as is'
                     m_strSedimentInputEventShapefile = strRH;
 
                  else
                  {
                     // It has a relative path, so prepend the CoastalME dir
                     m_strSedimentInputEventShapefile = m_strCMEDir;
                     m_strSedimentInputEventShapefile.append(strRH);
                  }
               }
            }
 
            break;
 
         case 73:
            // Sediment input type: required if have shapefile [P = Point, C = coast block, L = line]
            if (m_bSedimentInput)
            {
               strRH = strToLower(&strRH);
 
               if (strRH.find('p') != string::npos)
                  m_bSedimentInputAtPoint = true;
 
               else if (strRH.find('c') != string::npos)
                  m_bSedimentInputAtCoast = true;
 
               else if (strRH.find('l') != string::npos)
                  m_bSedimentInputAlongLine = true;
 
               else
                  strErr = "line " + to_string(nLine) + ": Sediment input type must be P, C, or L";
            }
 
            break;
 
         case 74:
            // Sediment input details file (required if have shapefile)
            if (m_bSedimentInput)
            {
               if (strRH.empty())
               {
                  strErr = "line " + to_string(nLine) + ": filename missing for sediment input";
                  break;
               }
 
#ifdef _WIN32
               // For Windows, make sure has backslashes, not Unix-style slashes
               strRH = pstrChangeToBackslash(&strRH);
#endif
 
               // Now check for leading slash, or leading Unix home dir symbol, or occurrence of a drive letter
               if ((strRH[0] == PATH_SEPARATOR) || (strRH[0] == TILDE) || (strRH[1] == COLON))
               {
                  // It has an absolute path, so use it 'as is'
                  m_strSedimentInputEventFile = strRH;
               }
 
               else
               {
                  // It has a relative path, so prepend the CoastalME dir
                  m_strSedimentInputEventFile = m_strCMEDir;
                  m_strSedimentInputEventFile.append(strRH);
               }
            }
 
            break;
 
         // ------------------------------------------------------ Other data --------------------------------------------------
         case 75:
            // Gravitational acceleration (m2/s). First check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for gravitational acceleration '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dG = strtod(strRH.c_str(), NULL);
 
            if (m_dG <= 0)
               strErr = "line " + to_string(nLine) + ": gravitational acceleration must be > 0";
 
            break;
 
         case 76:
            // Spacing of coastline normals (m)
            m_dCoastNormalSpacing = strtod(strRH.c_str(), NULL);
 
            if (bFPIsEqual(m_dCoastNormalSpacing, 0.0, TOLERANCE))
               m_nCoastNormalSpacing = DEFAULT_PROFILE_SPACING;      // In cells, we will set m_dCoastNormalSpacing later when we know m_dCellSide
 
            else if (m_dCoastNormalSpacing < 0)
               strErr = "line " + to_string(nLine) + ": spacing of coastline normals must be > 0";
 
            break;
 
         case 77:
            // Random factor for spacing of normals  [0 to 1, 0 = deterministic], check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for random factor for spacing of coastline normals '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dCoastNormalRandSpacingFactor = strtod(strRH.c_str(), NULL);
 
            if (m_dCoastNormalRandSpacingFactor < 0)
               strErr = "line " + to_string(nLine) + ": random factor for spacing of coastline normals must be >= 0";
            else if (m_dCoastNormalRandSpacingFactor > 1)
               strErr = "line " + to_string(nLine) + ": random factor for spacing of coastline normals must be < 1";
 
            break;
 
         case 78:
            // Length of coastline normals (m), check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for length of coastline normals '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dCoastNormalLength = strtod(strRH.c_str(), NULL);
 
            if (m_dCoastNormalLength <= 0)
               strErr = "line " + to_string(nLine) + ": length of coastline normals must be > 0";
 
            break;
 
         case 79:
            // Start depth for wave calcs (ratio to deep water wave height), check that this is a valid double
            if (! bIsStringValidDouble(strRH))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number for start depth for wave calcs '" + strRH + "' in " + m_strDataPathName;
               break;
            }
 
            m_dWaveDepthRatioForWaveCalcs = strtod(strRH.c_str(), NULL);
 
            if (m_dWaveDepthRatioForWaveCalcs <= 0)
               strErr = "line " + to_string(nLine) + ": start depth for wave calcs must be > 0";
 
            break;
 
         // ----------------------------------------------------- Testing only -------------------------------------------------
         case 80:
            // Output profile data?
            strRH = strToLower(&strRH);
 
            m_bOutputConsolidatedProfileData = false;
 
            if (strRH.find('y') != string::npos)
            {
               m_bOutputConsolidatedProfileData = true;
 
               if (! m_bDoShorePlatformErosion)
               {
                  strErr = "line " + to_string(nLine) + ": cannot save profiile data if not simulating shore platform erosion";
                  break;
               }
 
               // TODO 043 What about randomness of profile spacing, since profile location is determined by curvature?
            }
 
            break;
 
         case 81:
            // Numbers of profiles to be saved
            if (m_bOutputConsolidatedProfileData)
            {
               VstrTmp = VstrSplit(&strRH, SPACE);
 
               for (unsigned int j = 0; j < VstrTmp.size(); j++)
               {
                  VstrTmp[j] = strTrim(&VstrTmp[j]);
 
                  if (! bIsStringValidInt(VstrTmp[j]))
                  {
                     strErr = "line " + to_string(nLine) + ": invalid integer for profile to be saved '" + VstrTmp[j] + "' in " + m_strDataPathName;
                     break;
                  }
 
                  int const nTmp = stoi(VstrTmp[j]);
 
                  if (nTmp < 0)
                  {
                     strErr = "line " + to_string(nLine) + ": Profile number for saving must be >= 0";
                     break;
                  }
 
                  m_VnProfileToSave.push_back(nTmp);
               }
            }
 
            break;
 
         case 82:
            // Timesteps to save profiles
            if (m_bOutputConsolidatedProfileData)
            {
               VstrTmp = VstrSplit(&strRH, SPACE);
 
               for (unsigned int j = 0; j < VstrTmp.size(); j++)
               {
                  VstrTmp[j] = strTrim(&VstrTmp[j]);
                  unsigned long const ulTmp = atol(VstrTmp[j].c_str());
 
                  if (ulTmp < 1)
                  {
                     strErr = "line " + to_string(nLine) + ": Timestep for profile saves must >= 1";
                     break;
                  }
 
                  m_VulProfileTimestep.push_back(ulTmp);
               }
            }
 
            break;
 
         case 83:
            // Output parallel profile data?
            strRH = strToLower(&strRH);
 
            m_bOutputParallelProfileData = false;
 
            if (strRH.find('y') != string::npos)
               m_bOutputParallelProfileData = true;
 
            break;
 
         case 84:
            // Output erosion potential look-up data?
            strRH = strToLower(&strRH);
 
            m_bOutputErosionPotentialData = false;
 
            if (strRH.find('y') != string::npos)
               m_bOutputErosionPotentialData = true;
 
            break;
 
         case 85:
            // Cliff toe location? approach [0 = none, 1 = by slope threshold]
            if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
            {
               strRH = strToLower(&strRH);
 
               m_bCliffToeLocate = false;
 
               if (strRH.find('y') != string::npos)
               {
                  m_bCliffToeLocate = true;
                  m_bCliffToeSave = true;
                  m_bSlopeSaveForCliffToe = true;
               }
            }
 
            break;
 
         case 86:
            // Cliff edge smoothing algorithm: 0 = none, 1 = running mean, 2 = Savitzky-Golay
            if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse && m_bCliffToeLocate)
            {
               if (! bIsStringValidInt(strRH))
               {
                  strErr = "line ";
                  strErr += to_string(nLine);
                  strErr += ": invalid integer for cliff edge smoothing algorithm '";
                  strErr += strRH;
                  strErr += "' in " + m_strDataPathName;
 
                  break;
               }
 
               m_nCliffEdgeSmooth = stoi(strRH);
 
               if ((m_nCliffEdgeSmooth < SMOOTH_NONE) || (m_nCliffEdgeSmooth > SMOOTH_SAVITZKY_GOLAY))
                  strErr = "line " + to_string(nLine) + ": cliff edge smoothing algorithm must be " + to_string(SMOOTH_NONE) + ", " + to_string(SMOOTH_RUNNING_MEAN) + ", or " + to_string(SMOOTH_SAVITZKY_GOLAY);
            }
 
            break;
 
         case 87:
            // Size of cliff edge smoothing window: must be odd
            if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse && m_bCliffToeLocate)
            {
               if (! bIsStringValidInt(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid integer for cliff edge smoothing window '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_nCliffEdgeSmoothWindow = stoi(strRH);
 
               if ((m_nCliffEdgeSmoothWindow <= 0) || ! (m_nCliffEdgeSmoothWindow % 2))
                  strErr = "line " + to_string(nLine) + ": size of cliff edge smoothing window (must be > 0 and odd)";
            }
 
            break;
 
         case 88:
            // Order of cliff edge smoothing polynomial for Savitzky-Golay: usually 2 or 4, max is 6
            if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse && m_bCliffToeLocate)
            {
               if (! bIsStringValidInt(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid integer for Savitzky-Golay polynomial for cliff edge smoothing '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_nSavGolCliffEdgePoly = stoi(strRH);
 
               if ((m_nSavGolCliffEdgePoly < 2) || (m_nSavGolCliffEdgePoly > 6) || (m_nSavGolCliffEdgePoly % 2))
                  strErr = "line " + to_string(nLine) + ": order of Savitzky-Golay polynomial for cliff edge smoothing (must be 2, 4 or 6)";
            }
 
            break;
 
         case 89:
            // Slope limit for cliff toe detection
            if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse && m_bCliffToeLocate)
            {
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid number for cliff toe slope limit '" + strRH + "' in " + m_strDataPathName;
                  break;
               }
 
               m_dSlopeThresholdForCliffToe = stod(strRH);
 
               if (m_dSlopeThresholdForCliffToe <= 0)
                  strErr = "line " + to_string(nLine) + ": cliff toe slope limit must be > 0";
            }
 
            break;
 
         case 90:
            // Run-up equation?
            if (bIsStringValidInt(strRH))
               m_nRunUpEquation = stoi(strRH);
            else
               strErr = "line " + to_string(nLine) + ": invalid code for run-up equation used in simulating floods";
 
            if ((m_nRunUpEquation < 0) || (m_nRunUpEquation > 3))
               strErr = "line " + to_string(nLine) + ": runup equation code must be between 0 and 3";
 
            break;
         }
 
         // Did an error occur?
         if (! strErr.empty())
         {
            // Error in input to run details file
            cerr << endl << ERR << strErr << ".\nPlease edit " << m_strDataPathName << " and change this line:" << endl;
            cerr << "'" << strRec << "'" << endl << endl;
            InStream.close();
            return false;
         }
      }
   }
 
   // Close file
   InStream.close();
 
   // Finally, need to check that we have at least one raster file, so that we know the grid size and units (and preferably also the projection)
   bool bNoRasterFiles = true;
 
   if ((! m_strInitialBasementDEMFile.empty()) || (! m_strInitialSuspSedimentFile.empty()) || (! m_strInitialLandformFile.empty()) || (! m_strInterventionHeightFile.empty()))
      bNoRasterFiles = false;
 
   for (int j = 0; j < m_nLayers; j++)
   {
      if ((! m_VstrInitialFineUnconsSedimentFile[j].empty()) || (! m_VstrInitialSandUnconsSedimentFile[j].empty()) || (! m_VstrInitialCoarseUnconsSedimentFile[j].empty()) || (!  m_VstrInitialFineConsSedimentFile[j].empty()) || (! m_VstrInitialSandConsSedimentFile[j].empty()) || (! m_VstrInitialCoarseConsSedimentFile[j].empty()))
         bNoRasterFiles = false;
   }
 
   if (bNoRasterFiles)
   {
      // No raster files
      cerr << ERR << "at least one raster GIS file is needed" << endl;
      return false;
   }
 
   return true;
}
 
//===============================================================================================================================
//===============================================================================================================================
int CSimulation::nReadTideDataFile()
{
   // Create an ifstream object
   ifstream InStream;
 
   // Try to open the file for input
   InStream.open(m_strTideDataFile.c_str(), ios::in);
 
   // Did it open OK?
   if (! InStream.is_open())
   {
      // Error: cannot open tide data file for input
      cerr << ERR << "cannot open " << m_strTideDataFile << " for input" << endl;
      return RTN_ERR_TIDEDATAFILE;
   }
 
   // Opened OK
   int nLine = 0;
   string strRec;
 
   // Now read the data from the file
   while (getline(InStream, strRec))
   {
      nLine++;
 
      // Trim off leading and trailing whitespace
      strRec = strTrim(&strRec);
 
      // If it is a blank line or a comment then ignore it
      if ((strRec.empty()) || (strRec[0] == QUOTE1) || (strRec[0] == QUOTE2))
         continue;
 
      // Check that this is a valid double
      if (! bIsStringValidDouble(strRec))
      {
         cerr << ERR << "invalid floating point number for tide data '" << strRec << "' on line " << nLine << " of " << m_strTideDataFile << endl;
         return RTN_ERR_TIDEDATAFILE;
      }
 
      // Convert to double then append the value to the vector
      m_VdTideData.push_back(strtod(strRec.c_str(), NULL));
   }
 
   // Close file
   InStream.close();
 
   return RTN_OK;
}
 
//===============================================================================================================================
//===============================================================================================================================
int CSimulation::nReadShapeFunctionFile()
{
   // Sort out the path and filename
   m_strSCAPEShapeFunctionFile = m_strCMEDir;
   m_strSCAPEShapeFunctionFile.append(SCAPE_DIR);
   m_strSCAPEShapeFunctionFile.append(SCAPE_SHAPE_FUNCTION_FILE);
 
   // Create an ifstream object
   ifstream InStream;
 
   // Try to open the file for input
   InStream.open(m_strSCAPEShapeFunctionFile.c_str(), ios::in);
 
   // Did it open OK?
   if (! InStream.is_open())
   {
      // Error: cannot open shape function file for input
      cerr << ERR << "cannot open " << m_strSCAPEShapeFunctionFile << " for input" << endl;
      return RTN_ERR_SCAPE_SHAPE_FUNCTION_FILE;
   }
 
   // Opened OK
   int nLine = 0;
   int nExpected = 0, nRead = 0;
   string strRec;
 
   // Read in the number of data lines expected
   InStream >> nExpected;
 
   // Set up the vectors to hold the input data
   vector<double> VdDepthOverDB;
   vector<double> VdErosionPotential;
   vector<double> VdErosionPotentialFirstDeriv;
 
   // Now read the rest of the data from the file to get the Erosion Potential Shape function
   while (getline(InStream, strRec))
   {
      nLine++;
 
      // Trim off leading and trailing whitespace
      strRec = strTrim(&strRec);
 
      // If it is a blank line or a comment then ignore it
      if ((strRec.empty()) || (strRec[0] == QUOTE1) || (strRec[0] == QUOTE2))
         continue;
 
      // It isn't so increment counter
      nRead++;
 
      // Split the string, and remove whitespace
      vector<string> strTmp = VstrSplit(&strRec, SPACE);
 
      for (unsigned int i = 0; i < strTmp.size(); i++)
      {
         // Remove leading and trailing whitespace
         strTmp[i] = strTrim(&strTmp[i]);
 
         // Check that this is a valid double
         if (! bIsStringValidDouble(strTmp[i]))
         {
            cerr << ERR << "on line " + to_string(nLine) + "  invalid floating point number for Erosion Potential Shape data '" << strTmp[i] << "' in " << m_strSCAPEShapeFunctionFile << endl;
            return RTN_ERR_SCAPE_SHAPE_FUNCTION_FILE;
         }
      }
 
      // Convert to doubles then append the values to the vectors
      VdDepthOverDB.push_back(strtod(strTmp[0].c_str(), NULL));
      VdErosionPotential.push_back(strtod(strTmp[1].c_str(), NULL));
      VdErosionPotentialFirstDeriv.push_back(strtod(strTmp[2].c_str(), NULL));
   }
 
   // Now create the look up table values
   m_VdErosionPotential = VdErosionPotential;
   m_VdDepthOverDB = VdDepthOverDB;
   m_dDepthOverDBMax = VdDepthOverDB[14];
 
   // Close file
   InStream.close();
 
   // Did we read in what we expected?
   if (nExpected != nRead)
   {
      cout << ERR << "read in " << nRead << " lines from " << m_strSCAPEShapeFunctionFile << " but " << nExpected << " lines expected" << endl;
      return RTN_ERR_SCAPE_SHAPE_FUNCTION_FILE;
   }
 
   // Is the shape funcion well defined? i.e. it must be -ve or 0.0 for all values
   for (unsigned int j = 0; j < m_VdErosionPotential.size(); j++)
   {
      if (m_VdErosionPotential[j] > 0)
      {
         cout << ERR << " in " << m_strSCAPEShapeFunctionFile << ", erosion potential function cannot be positive" << endl;
         return RTN_ERR_SCAPE_SHAPE_FUNCTION_FILE;
      }
   }
 
   // OK, now use this data to create a look-up table to be used for the rest of the simulation
   if (! bCreateErosionPotentialLookUp(&VdDepthOverDB, &VdErosionPotential, &VdErosionPotentialFirstDeriv))
   {
      cout << ERR << "line " + to_string(nLine) + "  in " << m_strSCAPEShapeFunctionFile << ": erosion potential function is unbounded for high values of depth over DB" << endl;
      return RTN_ERR_SCAPE_SHAPE_FUNCTION_FILE;
   }
 
   return RTN_OK;
}
 
//===============================================================================================================================
//===============================================================================================================================
int CSimulation::nReadWaveStationInputFile(int const nWaveStations)
{
   // Create an ifstream object
   ifstream InStream;
 
   // Try to open the file for input
   InStream.open(m_strDeepWaterWavesInputFile.c_str(), ios::in);
 
   // Did it open OK?
   if (!InStream.is_open())
   {
      // Error: cannot open time series file for input
      cerr << ERR << "cannot open " << m_strDeepWaterWavesInputFile << " for input" << endl;
      return RTN_ERR_OPEN_DEEP_WATER_WAVE_DATA;
   }
 
   // Opened OK
   int nLine = 0;
   int nExpectedStations = 0;
   int nRead = 0;
   int nTimeStepsRead = 0;
   string strRec, strErr;
 
   // Read each line, ignoring blank lines and comment lines
   while (getline(InStream, strRec))
   {
      nLine++;
 
      // Trim off leading and trailing whitespace
      strRec = strTrim(&strRec);
 
      // If it is a blank line or a comment then ignore it
      if ((!strRec.empty()) && (strRec[0] != QUOTE1) && (strRec[0] != QUOTE2))
      {
         // It isn't so increment counter
         nRead++;
 
         // The header lines (the first four lines of the file) contains leading description separated by a colon from the data
         if (nRead < 5)
         {
            // Find the colon: note that lines MUST have a colon separating data from leading description portion
            size_t nPos = strRec.find(COLON);
 
            if (nPos == string::npos)
            {
               // Error: badly formatted (no colon)
               cerr << ERR << "on line " << to_string(nLine) << "badly formatted (no ':') in " << m_strDeepWaterWavesInputFile << endl
                    << "'" << strRec << "'" << endl;
               return RTN_ERR_READING_DEEP_WATER_WAVE_DATA;
            }
 
            if (nPos == strRec.size() - 1)
            {
               // Error: badly formatted (colon with nothing following)
               cerr << ERR << "on line " << to_string(nLine) << "badly formatted (nothing following ':') in " << m_strDeepWaterWavesInputFile << endl
                    << "'" << strRec << "'" << endl;
               return RTN_ERR_READING_DEEP_WATER_WAVE_DATA;
            }
 
            // Strip off leading portion (the bit up to and including the colon)
            string strRH = strRec.substr(nPos + 1);
 
            // Remove leading whitespace
            strRH = strTrimLeft(&strRH);
 
            // Look for a trailing comment, if found then terminate string at that point and trim off any trailing whitespace
            nPos = strRH.rfind(QUOTE1);
 
            if (nPos != string::npos)
               strRH.resize(nPos);
 
            nPos = strRH.rfind(QUOTE2);
 
            if (nPos != string::npos)
               strRH.resize(nPos);
 
            // Remove trailing whitespace
            strRH = strTrimRight(&strRH);
 
            int nSec = 0;
            int nMin = 0;
            int nHour = 0;
            int nDay = 0;
            int nMonth = 0;
            int nYear = 0;
            double dMult;
            double dThisIter;
            vector<string> VstrTmp;
 
            switch (nRead)
            {
            case 1:
               // Get the start date/time for this data, format is [hh-mm-ss dd/mm/yyyy]
               VstrTmp = VstrSplit(&strRH, SPACE);
 
               // Both date and time here?
               if (VstrTmp.size() < 2)
               {
                  strErr = "line " + to_string(nLine) + ": must have both date and time for start of data in";
                  break;
               }
 
               // OK, first sort out the time
               if (! bParseTime(&VstrTmp[0], nHour, nMin, nSec))
               {
                  strErr = "line " + to_string(nLine) + ": could not understand start time for data";
                  break;
               }
 
               // Next sort out the date
               if (! bParseDate(&VstrTmp[1], nDay, nMonth, nYear))
               {
                  strErr = "line " + to_string(nLine) + ": could not understand start date for data";
                  break;
               }
 
               // Compare time and date with simulation time and date
               if ((nSec != m_nSimStartSec) ||
                   (nMin != m_nSimStartMin) ||
                   (nHour != m_nSimStartHour) ||
                   (nDay != m_nSimStartDay) ||
                   (nMonth != m_nSimStartMonth) ||
                   (nYear != m_nSimStartYear))
               {
                  strErr = "line " + to_string(nLine) + ": start time and date for wave time series data differs from simulation start time and date,";
                  break;
               }
 
               break;
 
            case 2:
               // Get the timestep of this data (in hours or days)
               strRH = strToLower(&strRH);
 
               dMult = dGetTimeMultiplier(&strRH);
 
               if (static_cast<int>(dMult) == TIME_UNKNOWN)
               {
                  strErr = "line " + to_string(nLine) + ": unknown units for timestep";
                  break;
               }
 
               // We have the multiplier, now calculate the timestep in hours: look for the whitespace between the number and unit
               nPos = strRH.rfind(SPACE);
 
               if (nPos == string::npos)
               {
                  strErr = "line " + to_string(nLine) + ": format of timestep line";
                  break;
               }
 
               // Cut off rh bit of string
               strRH.resize(nPos);
 
               // Remove trailing spaces
               strRH = strTrimRight(&strRH);
 
               // Check that this is a valid double
               if (! bIsStringValidDouble(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for timestep";
                  break;
               }
 
               dThisIter = strtod(strRH.c_str(), NULL) * dMult; // in hours
 
               if (dThisIter <= 0)
                  strErr = "line " + to_string(nLine) + ": timestep must be > 0";
 
               if (dThisIter >= 24)
                  strErr = "line " + to_string(nLine) + ": timestep must be < 24 hours";
 
               if (! bFPIsEqual(dThisIter, m_dTimeStep, TOLERANCE))
                  strErr = "line " + to_string(nLine) + ": timestep must be the same as the simulation timestep";
 
               break;
 
            case 3:
               // Read the number of stations
               if (! bIsStringValidInt(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid integer for number of wave stations '" + strRH + "' in " + m_strDeepWaterWavesInputFile;
                  break;
               }
 
               nExpectedStations = stoi(strRH);
 
               // Check that the number of expected stations is equal to the number of stations on the point shape file
               if (nExpectedStations != nWaveStations)
               {
                  // Error: number of points on shape file does not match the number of stations on the wave time series file
                  strErr = "line " + to_string(nLine) + ": number of wave stations in " + m_strDeepWaterWaveStationsShapefile + " is " + to_string(nWaveStations) + " but we have " + to_string(nExpectedStations) + " stations";
 
                  break;
               }
 
               break;
 
            case 4:
               // Read the expected number of time steps in the file
               if (! bIsStringValidInt(strRH))
               {
                  strErr = "line " + to_string(nLine) + ": invalid integer for expected number of time steps '" + strRH + "' in " + m_strDeepWaterWaveStationsShapefile;
                  break;
               }
 
               m_nDeepWaterWaveDataNumTimeSteps = stoi(strRH);
 
               if (m_nDeepWaterWaveDataNumTimeSteps < 1)
               {
                  // Error: must have value(s) for at least one timestep
                  strErr = "line " + to_string(nLine) + ": must have values for at least one timestep";
                  break;
               }
 
               break;
            }
         }
         else
         {
            // This is not a header line
            nTimeStepsRead++;
 
            // Read in each wave attribute for each time step and station: split the string, and remove whitespace
            vector<string> VstrTmp = VstrSplit(&strRec, COMMA);
 
            for (unsigned int i = 0; i < VstrTmp.size(); i++) // VstrTmp.size() should be 3 x nExpectedStations
            {
               // Remove leading and trailing whitespace
               VstrTmp[i] = strTrim(&VstrTmp[i]);
 
               // Check that this is a valid double
               if (! bIsStringValidDouble(VstrTmp[i]))
               {
                  strErr = "line " + to_string(nLine) + ": invalid floating point number for deep water wave value '" + VstrTmp[i] + "' in " + m_strDeepWaterWavesInputFile;
                  break;
               }
            }
 
            // Convert to doubles then append the values to the vectors
            int n = 0;
 
            for (int i = 0; i < nExpectedStations; i++)
            {
               m_VdTSDeepWaterWaveStationHeight.push_back(strtod(VstrTmp[n + 0].c_str(), NULL));
               m_VdTSDeepWaterWaveStationAngle.push_back(strtod(VstrTmp[n + 1].c_str(), NULL));
               m_VdTSDeepWaterWaveStationPeriod.push_back(strtod(VstrTmp[n + 2].c_str(), NULL));
 
               // Check some simple wave input stats
               if (m_VdTSDeepWaterWaveStationHeight.back() > m_dMaxUserInputWaveHeight)
                  m_dMaxUserInputWaveHeight = m_VdTSDeepWaterWaveStationHeight.back();
 
               if (m_VdTSDeepWaterWaveStationPeriod.back() > m_dMaxUserInputWavePeriod)
                  m_dMaxUserInputWavePeriod = m_VdTSDeepWaterWaveStationPeriod.back();
 
               n += 3;
            }
         }
      }
 
      // Did an error occur?
      if (! strErr.empty())
      {
         // Error in input to initialisation file
         cerr << ERR << strErr << " in deep water wave time series file " << m_strDeepWaterWavesInputFile << endl
              << "'" << strRec << "'" << endl;
         InStream.close();
 
         return RTN_ERR_READING_DEEP_WATER_WAVE_DATA;
      }
   }
 
   if (nTimeStepsRead != m_nDeepWaterWaveDataNumTimeSteps)
   {
      // Error: number of timesteps read does not match the number given in the file's header
      cerr << ERR << "in " << m_strDeepWaterWavesInputFile << ", data for " << nTimeStepsRead << " timesteps was read, but " << m_nDeepWaterWaveDataNumTimeSteps << " timesteps were specified in the file's header" << endl;
 
      return RTN_ERR_READING_DEEP_WATER_WAVE_DATA;
   }
 
   // Close file
   InStream.close();
 
   // Did we read in what we expected?
   unsigned int const nTotExpected = nExpectedStations * m_nDeepWaterWaveDataNumTimeSteps;
 
   if (m_VdTSDeepWaterWaveStationHeight.size() != nTotExpected)
   {
      cout << ERR << "read in " << m_VdTSDeepWaterWaveStationHeight.size() << " lines from " << m_strDeepWaterWavesInputFile << " but " << nTotExpected << " values expected" << endl;
 
      return RTN_ERR_READING_DEEP_WATER_WAVE_DATA;
   }
 
   if (m_VdTSDeepWaterWaveStationAngle.size() != nTotExpected)
   {
      cout << ERR << "read in " << m_VdTSDeepWaterWaveStationAngle.size() << " lines from " << m_strDeepWaterWavesInputFile << " but " << nTotExpected << " values expected" << endl;
 
      return RTN_ERR_READING_DEEP_WATER_WAVE_DATA;
   }
 
   if (m_VdTSDeepWaterWaveStationPeriod.size() != nTotExpected)
   {
      cout << ERR << "read in " << m_VdTSDeepWaterWaveStationPeriod.size() << " lines from " << m_strDeepWaterWavesInputFile << " but " << nTotExpected << " values expected" << endl;
 
      return RTN_ERR_READING_DEEP_WATER_WAVE_DATA;
   }
 
   // All is OK, so we can now initialise the vectors that will store this timestep's deep water wave values
   for (int j = 0; j < nExpectedStations; j++)
   {
      m_VdThisIterDeepWaterWaveStationHeight.push_back(DBL_NODATA);
      m_VdThisIterDeepWaterWaveStationAngle.push_back(DBL_NODATA);
      m_VdThisIterDeepWaterWaveStationPeriod.push_back(DBL_NODATA);
   }
 
   // Finally, check whether the wave data will 'wrap' i.e. whether the number of timesteps is less than the total number of timesteps in the simulation
   int const nSimulationTimeSteps = static_cast<int>(floor(m_dSimDuration / m_dTimeStep));
 
   if (m_nDeepWaterWaveDataNumTimeSteps < nSimulationTimeSteps)
   {
      m_dWaveDataWrapHours = m_nDeepWaterWaveDataNumTimeSteps * m_dTimeStep;
      string const strTmp = "Deep water wave data will wrap every " + (m_nDeepWaterWaveDataNumTimeSteps > 1 ? to_string(m_nDeepWaterWaveDataNumTimeSteps) + " " : "") + "time step" + (m_nDeepWaterWaveDataNumTimeSteps > 1 ? "s" : "") + " (every " + to_string(m_dWaveDataWrapHours) + " hours)\n";
 
      cout << NOTE << strTmp;
   }
 
   return RTN_OK;
}
 
 
//===============================================================================================================================
//===============================================================================================================================
int CSimulation::nReadSedimentInputEventFile(void)
{
   // Create an ifstream object
   ifstream InStream;
 
   // Try to open the file for input
   InStream.open(m_strSedimentInputEventFile.c_str(), ios::in);
 
   // Did it open OK?
   if (! InStream.is_open())
   {
      // Error: cannot open time series file for input
      cerr << ERR << "cannot open " << m_strSedimentInputEventFile << " for input" << endl;
      return RTN_ERR_READING_SEDIMENT_INPUT_EVENT;
   }
 
   // Opened OK
   int nLine = 0;
   int nRead = 0;
   string strRec, strErr;
 
   // Read each line, ignoring comment lines
   while (getline(InStream, strRec))
   {
      nLine++;
 
      // Trim off leading and trailing whitespace
      strRec = strTrim(&strRec);
 
      // If it is a blank line or a comment then ignore it
      if ((! strRec.empty()) && (strRec[0] != QUOTE1) && (strRec[0] != QUOTE2))
      {
         // It isn't so increment counter
         nRead++;
 
         // Split at commas
         vector<string> VstrTmp = VstrSplit(&strRec, COMMA);
 
         // Check that have all we need
         unsigned int nTarget = 7;
 
         if (m_bSedimentInputAlongLine || m_bSedimentInputAtPoint)
            nTarget = 5;
 
         if (VstrTmp.size() < nTarget)
         {
            strErr = "line " + to_string(nLine) + ": too few data items on data line '" + to_string(nRead) + "' in " + m_strSedimentInputEventFile;
            break;
         }
 
         // First item is the Location ID of the sediment input event (same as the ID in the shapefile)
         if (! bIsStringValidInt(VstrTmp[0]))
         {
            strErr = "line " + to_string(nLine) + ": invalid integer for Location ID of sediment input event '" + VstrTmp[0] + "' in " + m_strSedimentInputEventFile;
            break;
         }
 
         int const nID = stoi(strTrim(&VstrTmp[0]));
 
         // OK, check the ID against IDs read in from the shapefile
         auto result = find(m_VnSedimentInputLocationID.begin(), m_VnSedimentInputLocationID.end(), nID);
 
         if (result == m_VnSedimentInputLocationID.end())
         {
            strErr = "line " + to_string(nLine) + ": invalid Location ID '" + to_string(nID) + "' for sediment input event location event in " + m_strSedimentInputEventFile;
            break;
         }
 
         // Next get the timestep at which the sediment input event occurs. This may be specified either as a relative time (i.e. a number of hours or days after the simulation start) or as an absolute time (i.e. a time/date in the format hh-mm-ss dd/mm/yyyy)
         unsigned long const ulEventTimeStep = ulConvertToTimestep(&VstrTmp[1]);
 
         if (ulEventTimeStep == SEDIMENT_INPUT_EVENT_ERROR)
         {
            strErr = "line " + to_string(nLine) + ": invalid time and/or date '" + VstrTmp[1] + "' for sediment input event in " + m_strSedimentInputEventFile;
            break;
         }
 
         // Then the volume (m3) of fine sediment, first check that this is a valid double
         if (! bIsStringValidDouble(VstrTmp[2]))
         {
            strErr = "line " + to_string(nLine) + ": invalid floating point number '" + VstrTmp[2] + "' for fine sediment volume for sediment input event in " + m_strSedimentInputEventFile;
            break;
         }
 
         double const dFineSedVol = stod(strTrim(&VstrTmp[2]));
 
         if (dFineSedVol < 0)
         {
            strErr = "line " + to_string(nLine) + ": negative number '" + to_string(dFineSedVol) + "' for fine sediment volume for sediment input event in " + m_strSedimentInputEventFile;
            break;
         }
 
         if (dFineSedVol > 0)
            m_bHaveFineSediment = true;
 
         // Then the volume (m3) of sand sediment, first check that this is a valid double
         if (! bIsStringValidDouble(VstrTmp[3]))
         {
            strErr = "line " + to_string(nLine) + ": invalid floating point number '" + VstrTmp[3] + "' for sand-sized sediment volume for sediment input event in " + m_strSedimentInputEventFile;
            break;
         }
 
         double const dSandSedVol = stod(strTrim(&VstrTmp[3]));
 
         if (dSandSedVol < 0)
         {
            strErr = "line " + to_string(nLine) + ": negative number '" + to_string(dSandSedVol) + "' for sand-sized sediment volume for sediment input event in " + m_strSedimentInputEventFile;
            break;
         }
 
         if (dSandSedVol > 0)
            m_bHaveSandSediment = true;
 
         // Then the volume (m3) of coarse sediment, first check that this is a valid double
         if (! bIsStringValidDouble(VstrTmp[4]))
         {
            strErr = "line " + to_string(nLine) + ": invalid floating point number '" + VstrTmp[4] + "' for coarse sediment volume for sediment input event in " + m_strSedimentInputEventFile;
            break;
         }
 
         double const dCoarseSedVol = stod(strTrim(&VstrTmp[4]));
 
         if (dCoarseSedVol < 0)
         {
            strErr = "line " + to_string(nLine) + ": negative number '" + to_string(dCoarseSedVol) + "' for coarse sediment volume of sediment input event in " + m_strSedimentInputEventFile;
            break;
         }
 
         if (dCoarseSedVol > 0)
            m_bHaveCoarseSediment = true;
 
         // Only read the last two items if we have on-coast sediment block sediment input
         double dLen = 0;
         double dWidth = 0;
 
         // double dThick = 0;
         if (m_bSedimentInputAtCoast)
         {
            // The coast-normal length (m) of the sediment block, first check that this is a valid double
            if (! bIsStringValidDouble(VstrTmp[5]))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number '" + VstrTmp[5] + "' for coast-normal length of sediment input event in " + m_strSedimentInputEventFile;
               break;
            }
 
            dLen = stod(strTrim(&VstrTmp[5]));
 
            if (dLen <= 0)
            {
               strErr = "line " + to_string(nLine) + ": coast-normal length of the sediment block '" + to_string(dLen) + "' must be > 0 in " + m_strSedimentInputEventFile;
               break;
            }
 
            // The along-coast width (m) of the sediment block, first check that this is a valid double
            if (! bIsStringValidDouble(VstrTmp[6]))
            {
               strErr = "line " + to_string(nLine) + ": invalid floating point number '" + VstrTmp[6] + "' for along-coast width of sediment input event in " + m_strSedimentInputEventFile;
               break;
            }
 
            dWidth = stod(strTrim(&VstrTmp[6]));
 
            if ((! m_bSedimentInputAtCoast) && (dWidth <= 0))
            {
               strErr = "line " + to_string(nLine) + ": along-coast width (m) of the sediment block '" + to_string(dWidth) + "' must be > 0 in " + m_strSedimentInputEventFile;
               break;
            }
 
            // // The along-coast thickness (m) of the sediment block, first check that this is a valid double
            // if (! bIsStringValidDouble(VstrTmp[7]))
            // {
            // strErr = "line " + to_string(nLine) + ": invalid floating point number '" + VstrTmp[7] + "' for along-coast thickness of sediment input event in " + m_strSedimentInputEventFile;
            // break;
            // }
            //
            // dThick = stod(strTrim(&VstrTmp[7]));
            // if ((! m_bSedimentInputAtCoast) && (dWidth <= 0))
            // {
            // strErr = "line " + to_string(nLine) + ": along-coast thickness (m) of the sediment block '" + to_string(dThick) + "' must be > 0 in " + m_strSedimentInputEventFile;
            // break;
            // }
         }
 
         // Create the CRWSedInputEvent object
         CRWSedInputEvent *pEvent = new CRWSedInputEvent(nID, ulEventTimeStep, dFineSedVol, dSandSedVol, dCoarseSedVol, dLen, dWidth); //, dThick);
 
         // And store it in the m_pVSedInputEvent vector
         m_pVSedInputEvent.push_back(pEvent);
      }
   }
 
   // Did an error occur?
   if (! strErr.empty())
   {
      // Error in input to initialisation file
      cerr << ERR << strErr << " in sediment input event file " << m_strSedimentInputEventFile << endl
           << "'" << strRec << "'" << endl;
      InStream.close();
 
      return RTN_ERR_READING_SEDIMENT_INPUT_EVENT;
   }
 
   // Close file
   InStream.close();
 
   return RTN_OK;
}
 
//===============================================================================================================================
//===============================================================================================================================
bool CSimulation::bDetectFileFormat(string const &strFileName, bool &bIsYaml)
{
   bIsYaml = false;
 
   // First check command-line flag
   if (m_bYamlInputFormat)
   {
      bIsYaml = true;
      return true;
   }
 
   // Check file extension
   size_t nDotPos = strFileName.find_last_of('.');
   if (nDotPos != string::npos)
   {
      string strExt = strFileName.substr(nDotPos + 1);
      std::transform(strExt.begin(), strExt.end(), strExt.begin(), ::tolower);
 
      if (strExt == "yaml" || strExt == "yml")
      {
         bIsYaml = true;
         return true;
      }
      else if (strExt == "dat")
      {
         bIsYaml = false;
         return true;
      }
   }
 
   // Default to .dat format if extension is ambiguous
   bIsYaml = false;
   return true;
}
 
//===============================================================================================================================
//===============================================================================================================================
bool CSimulation::bReadYamlFile(void)
{
   CConfiguration config;
   if (! bConfigureFromYamlFile(config))
      return false;
 
   // Apply configuration values to simulation object
   if (! bApplyConfiguration(config))
      return false;
 
   return true;
}
 
//===============================================================================================================================
//===============================================================================================================================
bool CSimulation::bConfigureFromYamlFile(CConfiguration &config)
{
   CYamlParser parser;
 
   if (! parser.bParseFile(m_strDataPathName))
   {
      cerr << ERR << "Failed to parse YAML file " << m_strDataPathName << ": "
           << parser.GetError() << endl;
      return false;
   }
 
   CYamlNode root = parser.GetRoot();
 
   // Helper function to process file paths with base path
   auto processFilePath = [&](string const &filePath) -> string
   {
      if (filePath.empty())
         return filePath;
 
      // Check if base_path is specified in YAML
      string basePath;
      if (root.HasChild("base_path"))
      {
         basePath = root.GetChild("base_path").GetValue();
         if (! basePath.empty() && basePath.back() != PATH_SEPARATOR)
         {
            basePath += PATH_SEPARATOR;
         }
      }
 
      // If no base path or file path is absolute, return as-is
      if (basePath.empty() || (filePath[0] == PATH_SEPARATOR) ||
          (filePath[0] == TILDE) ||
          (filePath.length() > 1 && filePath[1] == COLON))
      {
         return filePath;
      }
 
      // Prepend base path to relative file path
      return basePath + filePath;
   };
 
   try
   {
      // Run Information
      if (root.HasChild("run_information"))
      {
         CYamlNode runInfo = root.GetChild("run_information");
         if (runInfo.HasChild("output_file_names"))
            config.SetRunName(runInfo.GetChild("output_file_names").GetValue());
         if (runInfo.HasChild("log_file_detail"))
            config.SetLogFileDetail(
               runInfo.GetChild("log_file_detail").GetIntValue());
         if (runInfo.HasChild("csv_per_timestep_results"))
            config.SetCSVPerTimestepResults(
               runInfo.GetChild("csv_per_timestep_results").GetBoolValue());
      }
 
      // simulation
      if (root.HasChild("simulation"))
 
      {
         CYamlNode sim = root.GetChild("simulation");
         config.SetStartDateTime(sim.GetChild("start_date_time").GetValue());
         if (sim.HasChild("duration"))
            config.SetDuration(sim.GetChild("duration").GetValue());
         if (sim.HasChild("timestep"))
            config.SetTimestep(sim.GetChild("timestep").GetValue());
         if (sim.HasChild("save_times"))
         {
            CYamlNode saveTimes = sim.GetChild("save_times");
            if (saveTimes.IsSequence())
               config.SetSaveTimes(saveTimes.GetStringSequence());
         }
         if (sim.HasChild("random_seed"))
            config.SetRandomSeed(sim.GetChild("random_seed").GetIntValue());
      }
 
      // GIS Output
      if (root.HasChild("gis_output"))
      {
         CYamlNode gis = root.GetChild("gis_output");
         if (gis.HasChild("max_save_digits"))
            config.SetMaxSaveDigits(gis.GetChild("max_save_digits").GetIntValue());
         if (gis.HasChild("save_digits_mode"))
            config.SetSaveDigitsMode(gis.GetChild("save_digits_mode").GetValue());
         if (gis.HasChild("raster_files"))
         {
            CYamlNode rasterFiles = gis.GetChild("raster_files");
            if (rasterFiles.IsSequence())
               config.SetRasterFiles(rasterFiles.GetStringSequence());
         }
         if (gis.HasChild("vector_files"))
         {
            CYamlNode vectorFiles = gis.GetChild("vector_files");
            if (vectorFiles.IsSequence())
               config.SetVectorFiles(vectorFiles.GetStringSequence());
         }
         if (gis.HasChild("raster_format"))
            config.SetRasterFormat(gis.GetChild("raster_format").GetValue());
         if (gis.HasChild("world_file"))
            config.SetWorldFile(gis.GetChild("world_file").GetBoolValue());
         if (gis.HasChild("scale_values"))
            config.SetScaleValues(gis.GetChild("scale_values").GetBoolValue());
      }
 
      // Hydrology
      if (root.HasChild("hydrology"))
      {
         CYamlNode hydro = root.GetChild("hydrology");
         if (hydro.HasChild("wave_propagation_model"))
         {
            string strModel = hydro.GetChild("wave_propagation_model").GetValue();
            if (strModel == "COVE")
               config.SetWavePropagationModel(0);
            else if (strModel == "CShore")
               config.SetWavePropagationModel(1);
         }
         if (hydro.HasChild("seawater_density"))
            config.SetSeawaterDensity(
               hydro.GetChild("seawater_density").GetDoubleValue());
         if (hydro.HasChild("initial_water_level"))
            config.SetInitialWaterLevel(
               hydro.GetChild("initial_water_level").GetDoubleValue());
         if (hydro.HasChild("final_water_level"))
            config.SetFinalWaterLevel(
               hydro.GetChild("final_water_level").GetDoubleValue());
 
         // Wave data configuration
         if (hydro.HasChild("wave_height_time_series"))
            config.SetWaveHeightTimeSeries(
               hydro.GetChild("wave_height_time_series").GetValue());
         if (hydro.HasChild("wave_height_shape_file"))
            config.SetWaveStationDataFile(
               hydro.GetChild("wave_height_shape_file").GetValue());
         if (hydro.HasChild("wave_height"))
            config.SetDeepWaterWaveHeight(
               hydro.GetChild("wave_height").GetDoubleValue());
         if (hydro.HasChild("wave_orientation"))
            config.SetDeepWaterWaveOrientation(
               hydro.GetChild("wave_orientation").GetDoubleValue());
         if (hydro.HasChild("wave_period"))
            config.SetWavePeriod(hydro.GetChild("wave_period").GetDoubleValue());
 
         //  Tide data configuration
         if (hydro.HasChild("tide_data_file"))
            config.SetTideDataFile(processFilePath(hydro.GetChild("tide_data_file").GetValue()));
         if (hydro.HasChild("breaking_wave_ratio"))
            config.SetBreakingWaveRatio(
               hydro.GetChild("breaking_wave_ratio").GetDoubleValue());
      }
 
      // Grid and Coastline
      if (root.HasChild("grid_and_coastline"))
      {
         CYamlNode grid = root.GetChild("grid_and_coastline");
         if (grid.HasChild("coastline_smoothing"))
         {
            string strSmoothing = grid.GetChild("coastline_smoothing").GetValue();
            if (strSmoothing == "none")
               config.SetCoastlineSmoothing(0);
            else if (strSmoothing == "running_mean")
               config.SetCoastlineSmoothing(1);
            else if (strSmoothing == "savitzky_golay")
               config.SetCoastlineSmoothing(2);
            else
               config.SetCoastlineSmoothing(
                  grid.GetChild("coastline_smoothing").GetIntValue());
         }
         if (grid.HasChild("coastline_smoothing_window"))
            config.SetCoastlineSmoothingWindow(
               grid.GetChild("coastline_smoothing_window").GetIntValue());
         if (grid.HasChild("polynomial_order"))
            config.SetPolynomialOrder(
               grid.GetChild("polynomial_order").GetIntValue());
         if (grid.HasChild("omit_grid_edges"))
            config.SetOmitGridEdges(grid.GetChild("omit_grid_edges").GetValue());
         if (grid.HasChild("profile_smoothing_window"))
            config.SetProfileSmoothingWindow(
               grid.GetChild("profile_smoothing_window").GetIntValue());
         if (grid.HasChild("max_local_slope"))
            config.SetMaxLocalSlope(
               grid.GetChild("max_local_slope").GetDoubleValue());
         if (grid.HasChild("max_beach_elevation"))
            config.SetMaxBeachElevation(
               grid.GetChild("max_beach_elevation").GetDoubleValue());
      }
 
      // Layers and Files
      if (root.HasChild("layers_and_files"))
      {
         CYamlNode layers = root.GetChild("layers_and_files");
         if (layers.HasChild("num_layers"))
            config.SetNumLayers(layers.GetChild("num_layers").GetIntValue());
         if (layers.HasChild("basement_dem_file"))
            config.SetBasementDEMFile(
               processFilePath(layers.GetChild("basement_dem_file").GetValue()));
         if (layers.HasChild("suspended_sediment_file"))
            config.SetSuspendedSedFile(processFilePath(
               layers.GetChild("suspended_sediment_file").GetValue()));
         if (layers.HasChild("landform_file"))
            config.SetLandformFile(
               processFilePath(layers.GetChild("landform_file)").GetValue()));
         if (layers.HasChild("intervention_class_file"))
            config.SetInterventionClassFile(processFilePath(
               layers.GetChild("intervention_class_file").GetValue()));
         if (layers.HasChild("intervention_height_file"))
            config.SetInterventionHeightFile(processFilePath(
               layers.GetChild("intervention_height_file").GetValue()));
 
         // Handle layer-specific files (assuming layer_0, layer_1, etc.)
         if (layers.HasChild("layer_0"))
         {
            CYamlNode layer0 = layers.GetChild("layer_0");
            vector<string> unconsFine, unconsSand, unconsCoarse;
            vector<string> consFine, consSand, consCoarse;
 
            if (layer0.HasChild("unconsolidated_fine"))
               unconsFine.push_back(processFilePath(
                  layer0.GetChild("unconsolidated_fine").GetValue()));
            if (layer0.HasChild("unconsolidated_sand"))
               unconsSand.push_back(processFilePath(
                  layer0.GetChild("unconsolidated_sand").GetValue()));
            if (layer0.HasChild("unconsolidated_coarse"))
               unconsCoarse.push_back(processFilePath(
                  layer0.GetChild("unconsolidated_coarse").GetValue()));
            if (layer0.HasChild("consolidated_fine"))
               consFine.push_back(
                  processFilePath(layer0.GetChild("consolidated_fine").GetValue()));
            if (layer0.HasChild("consolidated_sand"))
               consSand.push_back(
                  processFilePath(layer0.GetChild("consolidated_sand").GetValue()));
            if (layer0.HasChild("consolidated_coarse"))
               consCoarse.push_back(processFilePath(
                  layer0.GetChild("consolidated_coarse").GetValue()));
 
            config.SetUnconsFineFiles(unconsFine);
            config.SetUnconsSandFiles(unconsSand);
            config.SetUnconsCoarseFiles(unconsCoarse);
            config.SetConsFineFiles(consFine);
            config.SetConsSandFiles(consSand);
            config.SetConsCoarseFiles(consCoarse);
         }
      }
 
      // Sediment and Erosion
      if (root.HasChild("sediment_and_erosion"))
      {
         CYamlNode sed = root.GetChild("sediment_and_erosion");
         if (sed.HasChild("coast_platform_erosion"))
            config.SetCoastPlatformErosion(
               sed.GetChild("coast_platform_erosion").GetBoolValue());
         if (sed.HasChild("platform_erosion_resistance"))
            config.SetPlatformErosionResistance(
               sed.GetChild("platform_erosion_resistance").GetDoubleValue());
         if (sed.HasChild("beach_sediment_transport"))
            config.SetBeachSedimentTransport(
               sed.GetChild("beach_sediment_transport").GetBoolValue());
         if (sed.HasChild("beach_transport_at_edges"))
            config.SetBeachTransportAtEdges(
               sed.GetChild("beach_transport_at_edges").GetIntValue());
         if (sed.HasChild("beach_erosion_equation"))
         {
            string strEqn = sed.GetChild("beach_erosion_equation").GetValue();
            config.SetBeachErosionEquation(strEqn == "CERC" ? 0 : 1);
         }
         if (sed.HasChild("sediment_density"))
            config.SetSedimentDensity(
               sed.GetChild("sediment_density").GetDoubleValue());
         if (sed.HasChild("beach_sediment_porosity"))
            config.SetBeachSedimentPorosity(
               sed.GetChild("beach_sediment_porosity").GetDoubleValue());
         if (sed.HasChild("transport_kls"))
            config.SetTransportKLS(sed.GetChild("transport_kls").GetDoubleValue());
         if (sed.HasChild("kamphuis_parameter"))
            config.SetKamphuis(sed.GetChild("kamphuis_parameter").GetDoubleValue());
         if (sed.HasChild("berm_height"))
            config.SetBermHeight(sed.GetChild("berm_height").GetDoubleValue());
 
         // Handle nested median_sizes and erosivity sections
         if (sed.HasChild("median_sizes"))
         {
            CYamlNode sizes = sed.GetChild("median_sizes");
            if (sizes.HasChild("fine"))
               config.SetFineMedianSize(sizes.GetChild("fine").GetDoubleValue());
            if (sizes.HasChild("sand"))
               config.SetSandMedianSize(sizes.GetChild("sand").GetDoubleValue());
            if (sizes.HasChild("coarse"))
               config.SetCoarseMedianSize(sizes.GetChild("coarse").GetDoubleValue());
         }
         if (sed.HasChild("erosivity"))
         {
            CYamlNode eros = sed.GetChild("erosivity");
            if (eros.HasChild("fine"))
               config.SetFineErosivity(eros.GetChild("fine").GetDoubleValue());
            if (eros.HasChild("sand"))
               config.SetSandErosivity(eros.GetChild("sand").GetDoubleValue());
            if (eros.HasChild("coarse"))
               config.SetCoarseErosivity(eros.GetChild("coarse").GetDoubleValue());
         }
      }
 
      // Cliff Parameters
      if (root.HasChild("cliff_parameters"))
      {
         CYamlNode cliff = root.GetChild("cliff_parameters");
         if (cliff.HasChild("cliff_collapse"))
            config.SetCliffCollapse(
               cliff.GetChild("cliff_collapse").GetBoolValue());
         if (cliff.HasChild("cliff_erosion_resistance"))
            config.SetCliffErosionResistance(
               cliff.GetChild("cliff_erosion_resistance").GetDoubleValue());
         if (cliff.HasChild("notch_overhang"))
            config.SetNotchOverhang(
               cliff.GetChild("notch_overhang").GetDoubleValue());
         if (cliff.HasChild("notch_base"))
            config.SetNotchBase(cliff.GetChild("notch_base").GetDoubleValue());
         if (cliff.HasChild("deposition_scale_parameter_a"))
            config.SetCliffDepositionA(
               cliff.GetChild("deposition_scale_parameter_a").GetDoubleValue());
         if (cliff.HasChild("talus_width"))
            config.SetTalusWidth(cliff.GetChild("talus_width").GetDoubleValue());
         if (cliff.HasChild("min_talus_length"))
            config.SetMinTalusLength(
               cliff.GetChild("min_talus_length").GetDoubleValue());
         if (cliff.HasChild("min_talus_height"))
            config.SetMinTalusHeight(
               cliff.GetChild("min_talus_height").GetDoubleValue());
      }
 
      // Flood Parameters
      if (root.HasChild("flood_parameters"))
      {
         CYamlNode flood = root.GetChild("flood_parameters");
         if (flood.HasChild("flood_input"))
            config.SetFloodInput(flood.GetChild("flood_input").GetBoolValue());
         if (flood.HasChild("flood_coastline"))
            config.SetFloodCoastline(flood.GetChild("flood_coastline").GetValue());
         if (flood.HasChild("runup_equation"))
            config.SetRunupEquation(flood.GetChild("runup_equation").GetValue());
         if (flood.HasChild("characteristic_locations"))
            config.SetFloodLocations(
               flood.GetChild("characteristic_locations").GetValue());
         if (flood.HasChild("flood_input_location"))
            config.SetFloodInputLocation(
               flood.GetChild("flood_input_location").GetValue());
      }
 
      // Sediment Input Parameters
      if (root.HasChild("sediment_input_parameters"))
      {
         CYamlNode sedInput = root.GetChild("sediment_input_parameters");
         if (sedInput.HasChild("sediment_input"))
            config.SetSedimentInput(
               sedInput.GetChild("sediment_input").GetBoolValue());
         if (sedInput.HasChild("location"))
            config.SetSedimentInputLocation(
               sedInput.GetChild("location").GetValue());
         if (sedInput.HasChild("type"))
            config.SetSedimentInputType(sedInput.GetChild("type").GetValue());
         if (sedInput.HasChild("details_file"))
            config.SetSedimentInputDetails(
               sedInput.GetChild("details_file").GetValue());
      }
 
      // Physics and Geometry
      if (root.HasChild("physics_and_geometry"))
      {
         CYamlNode physics = root.GetChild("physics_and_geometry");
         if (physics.HasChild("gravitational_acceleration"))
            config.SetGravitationalAcceleration(
               physics.GetChild("gravitational_acceleration").GetDoubleValue());
         if (physics.HasChild("normal_spacing"))
            config.SetNormalSpacing(
               physics.GetChild("normal_spacing").GetDoubleValue());
         if (physics.HasChild("random_factor"))
            config.SetRandomFactor(
               physics.GetChild("random_factor").GetDoubleValue());
         if (physics.HasChild("normal_length"))
            config.SetNormalLength(
               physics.GetChild("normal_length").GetDoubleValue());
         if (physics.HasChild("start_depth_ratio"))
            config.SetStartDepthRatio(
               physics.GetChild("start_depth_ratio").GetDoubleValue());
         if (physics.HasChild("synthetic_transect_spacing"))
            config.SetSyntheticTransectSpacing(
               physics.GetChild("synthetic_transect_spacing").GetDoubleValue());
      }
 
      // Profile and Output
      if (root.HasChild("profile_and_output"))
      {
         CYamlNode profile = root.GetChild("profile_and_output");
         if (profile.HasChild("save_profile_data"))
            config.SetSaveProfileData(
               profile.GetChild("save_profile_data").GetBoolValue());
         if (profile.HasChild("save_parallel_profiles"))
            config.SetSaveParallelProfiles(
               profile.GetChild("save_parallel_profiles").GetBoolValue());
         if (profile.HasChild("output_erosion_potential"))
            config.SetOutputErosionPotential(
               profile.GetChild("output_erosion_potential").GetBoolValue());
         if (profile.HasChild("curvature_window"))
            config.SetCurvatureWindow(
               profile.GetChild("curvature_window").GetIntValue());
 
         // Handle numeric lists
         if (profile.HasChild("profile_numbers"))
         {
            CYamlNode profileNums = profile.GetChild("profile_numbers");
            if (profileNums.IsSequence())
            {
               vector<int> vecNums;
               vector<CYamlNode> seq = profileNums.GetSequence();
               for (auto const &node : seq)
                  vecNums.push_back(node.GetIntValue());
               config.SetProfileNumbers(vecNums);
            }
         }
         if (profile.HasChild("profile_timesteps"))
         {
            CYamlNode profileTimes = profile.GetChild("profile_timesteps");
            if (profileTimes.IsSequence())
            {
               vector<unsigned long> vecTimes;
               vector<CYamlNode> seq = profileTimes.GetSequence();
               for (auto const &node : seq)
                  vecTimes.push_back(node.GetULongValue());
               config.SetProfileTimesteps(vecTimes);
            }
         }
      }
 
      // Cliff Edge Processing
      if (root.HasChild("cliff_edge_processing"))
      {
         CYamlNode cliffEdge = root.GetChild("cliff_edge_processing");
         if (cliffEdge.HasChild("cliff_edge_smoothing"))
         {
            string strSmoothing =
               cliffEdge.GetChild("cliff_edge_smoothing").GetValue();
            if (strSmoothing == "none")
               config.SetCliffEdgeSmoothing(0);
            else if (strSmoothing == "running_mean")
               config.SetCliffEdgeSmoothing(1);
            else if (strSmoothing == "savitzky_golay")
               config.SetCliffEdgeSmoothing(2);
            else
               config.SetCliffEdgeSmoothing(
                  cliffEdge.GetChild("cliff_edge_smoothing").GetIntValue());
         }
         if (cliffEdge.HasChild("cliff_edge_smoothing_window"))
            config.SetCliffEdgeSmoothingWindow(
               cliffEdge.GetChild("cliff_edge_smoothing_window").GetIntValue());
         if (cliffEdge.HasChild("cliff_edge_polynomial_order"))
            config.SetCliffEdgePolynomialOrder(
               cliffEdge.GetChild("cliff_edge_polynomial_order").GetIntValue());
         if (cliffEdge.HasChild("cliff_slope_limit"))
            config.SetCliffSlopeLimit(
               cliffEdge.GetChild("cliff_slope_limit").GetDoubleValue());
      }
   }
   catch (std::exception const &e)
   {
      cerr << ERR << "Error processing YAML configuration: " << e.what() << endl;
      return false;
   }
 
   return true;
}
 
//===============================================================================================================================
//===============================================================================================================================
bool CSimulation::bApplyConfiguration(CConfiguration const &config)
{
   string strRec, strErr;
   // Case 1: Text output file names, don't change case
   m_strRunName = config.GetRunName();
   m_strOutFile = m_strOutPath;
   m_strOutFile.append(m_strRunName);
   m_strOutFile.append(OUTEXT);
 
   m_strLogFile = m_strOutPath;
   m_strLogFile.append(m_strRunName);
   m_strLogFile.append(LOGEXT);
 
   // Case 2: Content of log file (0 = no log file, 1 = least detail, 3 = most
   // detail)
   m_nLogFileDetail = config.GetLogFileDetail();
 
   // Case 3: Output per-timestep results in CSV format?
   m_bCSVPerTimestepResults = config.GetCSVPerTimestepResults();
 
   // Case 4: Parse start date/time [hh-mm-ss dd/mm/yyyy]
   string strStartDateTime = config.GetStartDateTime();
   if (! strStartDateTime.empty())
   {
      vector<string> VstrTmp = VstrSplit(&strStartDateTime, SPACE);
      if (VstrTmp.size() >= 2)
      {
         int nHour, nMin, nSec, nDay, nMonth, nYear;
         if (bParseTime(&VstrTmp[0], nHour, nMin, nSec))
         {
            if (bParseDate(&VstrTmp[1], nDay, nMonth, nYear))
            {
               m_nSimStartSec = nSec;
               m_nSimStartMin = nMin;
               m_nSimStartHour = nHour;
               m_nSimStartDay = nDay;
               m_nSimStartMonth = nMonth;
               m_nSimStartYear = nYear;
            }
         }
      }
   }
 
   // Case 5: Duration of simulation (in hours, days, months, or years)
   string strDuration = config.GetDuration();
   if (! strDuration.empty())
   {
      string strDurationLower = strToLower(&strDuration);
      double dDurationMult = dGetTimeMultiplier(&strDurationLower);
      if (static_cast<int>(dDurationMult) != TIME_UNKNOWN)
      {
         // Extract numeric part and multiply
         string strNumeric = strDurationLower;
         // Remove the unit part to get just the number
         if (strNumeric.find("hour") != string::npos)
            strNumeric = strNumeric.substr(0, strNumeric.find("hour"));
         else if (strNumeric.find("day") != string::npos)
            strNumeric = strNumeric.substr(0, strNumeric.find("day"));
         else if (strNumeric.find("month") != string::npos)
            strNumeric = strNumeric.substr(0, strNumeric.find("month"));
         else if (strNumeric.find("year") != string::npos)
            strNumeric = strNumeric.substr(0, strNumeric.find("year"));
 
         if (bIsStringValidDouble(strNumeric))
         {
            m_dSimDuration = strtod(strNumeric.c_str(), NULL) * dDurationMult;
         }
      }
   }
 
   // Case 6: Timestep of simulation (in hours or days)
   string strTimestep = config.GetTimestep();
   if (! strTimestep.empty())
   {
      string strTimestepLower = strToLower(&strTimestep);
      double dTimestepMult = dGetTimeMultiplier(&strTimestepLower);
      if (static_cast<int>(dTimestepMult) != TIME_UNKNOWN)
      {
         // Extract numeric part and multiply
         std::string strNumeric = strTimestepLower;
         // Remove the unit part to get just the number
         if (strNumeric.find("hour") != string::npos)
            strNumeric = strNumeric.substr(0, strNumeric.find("hour"));
         else if (strNumeric.find("day") != string::npos)
            strNumeric = strNumeric.substr(0, strNumeric.find("day"));
         else if (strNumeric.find("month") != string::npos)
            strNumeric = strNumeric.substr(0, strNumeric.find("month"));
         else if (strNumeric.find("year") != string::npos)
            strNumeric = strNumeric.substr(0, strNumeric.find("year"));
 
         if (bIsStringValidDouble(strNumeric))
         {
            m_dTimeStep = strtod(strNumeric.c_str(), NULL) * dTimestepMult;
         }
         if (m_dTimeStep <= 0)
            strErr =
               "timestep of simulation must be > 0";
 
         if (m_dTimeStep >= m_dSimDuration)
            strErr =
               " timestep of simulation must be < the duration of the "
               "simulation";
      }
   }
 
   // Case 7: Save intervals - can handle multiple groups with different units
   vector<string> vecSaveTimes = config.GetSaveTimes();
   if (! vecSaveTimes.empty())
   {
      m_nUSave = 0;
      m_bSaveRegular = false;
 
      for (string const &strSaveTime : vecSaveTimes)
      {
         if (strSaveTime.empty())
            continue;
 
         string strSaveTimeLower = strToLower(&strSaveTime);
 
         // Get multiplier for time units
         double dMult = dGetTimeMultiplier(&strSaveTimeLower);
         if (static_cast<int>(dMult) != TIME_UNKNOWN)
         {
            // Find last space to separate number from unit
            size_t nLastSpace = strSaveTimeLower.rfind(SPACE);
            if (nLastSpace != string::npos)
            {
               string strNumbers = strSaveTimeLower.substr(0, nLastSpace);
               strNumbers = strTrimRight(&strNumbers);
 
               // Parse numbers (could be multiple space-separated values)
               vector<string> VstrNumbers = VstrSplit(&strNumbers, SPACE);
               for (string const &strNum : VstrNumbers)
               {
                  if (! strNum.empty())      //&& bIsStringValidDouble(strNum))
                  {
                     if (m_nUSave < static_cast<int>(SAVEMAX) - 1)
                     {
                        double dValue = strtod(strNum.c_str(), NULL) * dMult;
                        m_dUSaveTime[m_nUSave++] = dValue;
                     }
                  }
               }
            }
         }
      }
 
      // Check if we have save times
      if (m_nUSave == 1)
      {
         m_bSaveRegular = true;
         m_dRegularSaveInterval = m_dUSaveTime[0];
         m_dRegularSaveTime = m_dRegularSaveInterval;
      }
      else if (m_nUSave > 1)
      {
         // Multiple values - sort them
         sort(m_dUSaveTime, m_dUSaveTime + m_nUSave);
         // Put a dummy save interval as the last entry
         m_dUSaveTime[m_nUSave] = m_dSimDuration + 1;
      }
   }
 
   // Case 8: Random number seed(s)
   if (config.UseSystemTimeForRandomSeed())
   {
      // Use system time for random seed
      random_device rdev;
      m_ulRandSeed[0] = rdev();
      // Make all seeds the same
      for (int n = 1; n < NUMBER_OF_RNGS; n++)
         m_ulRandSeed[n] = m_ulRandSeed[0];
   }
   else
   {
      int nSeed = config.GetRandomSeed();
      if (nSeed != 0)
      {
         // Use specified seed
         m_ulRandSeed[0] = static_cast<unsigned long>(nSeed);
         // Make all seeds the same
         for (int n = 1; n < NUMBER_OF_RNGS; n++)
            m_ulRandSeed[n] = m_ulRandSeed[0];
      }
   }
 
   // Case 9: Max save digits for GIS output
   m_nGISMaxSaveDigits = config.GetMaxSaveDigits();
   if (m_nGISMaxSaveDigits < 2)
      strErr = "max save digits for GIS output file names must be > 1";
 
   // Case 10: Save digits mode (sequential vs iteration)
   string strSaveDigitsMode = config.GetSaveDigitsMode();
   if (! strSaveDigitsMode.empty())
   {
      string strSaveDigitsLower = strToLower(&strSaveDigitsMode);
      if (strSaveDigitsLower.find('s') != string::npos)
         m_bGISSaveDigitsSequential = true;
      else if (strSaveDigitsLower.find('i') != string::npos)
         m_bGISSaveDigitsSequential = false;
   }
 
   // Case 11: Raster GIS files to output
   vector<string> rasterFiles = config.GetRasterFiles();
   if (! rasterFiles.empty())
   {
      // Reset all raster output flags
      m_bSuspSedSave = false;
      m_bAvgSuspSedSave = false;
      m_bFineUnconsSedSave = false;
      m_bFineConsSedSave = false;
      m_bSandUnconsSedSave = false;
      m_bSandConsSedSave = false;
      m_bCoarseUnconsSedSave = false;
      m_bCoarseConsSedSave = false;
      m_bSedIncTalusTopSurfSave = false;
      m_bTopSurfIncSeaSave = false;
      m_bSeaDepthSave = false;
      m_bWaveHeightSave = false;
      m_bWaveAngleSave = false;
      m_bPotentialPlatformErosionSave = false;
      m_bActualPlatformErosionSave = false;
      m_bTotalPotentialPlatformErosionSave = false;
      m_bTotalActualPlatformErosionSave = false;
      m_bPotentialBeachErosionSave = false;
      m_bActualBeachErosionSave = false;
      m_bTotalPotentialBeachErosionSave = false;
      m_bTotalActualBeachErosionSave = false;
      m_bBeachDepositionSave = false;
      m_bTotalBeachDepositionSave = false;
      m_bLandformSave = false;
      // m_bLocalSlopeSave = false;
      // m_bSlopeSave = false;
      // m_bCliffSave = false;
      m_bAvgSeaDepthSave = false;
      m_bAvgWaveHeightSave = false;
      m_bAvgWaveAngleSave = false;
      m_bBeachProtectionSave = false;
      m_bBasementElevSave = false;
      m_bRasterCoastlineSave = false;
      m_bRasterNormalProfileSave = false;
      m_bActiveZoneSave = false;
      m_bCliffCollapseSave = false;
      m_bTotCliffCollapseSave = false;
      m_bCliffCollapseDepositionSave = false;
      m_bTotCliffCollapseDepositionSave = false;
      m_bRasterPolygonSave = false;
      m_bPotentialPlatformErosionMaskSave = false;
      m_bSeaMaskSave = false;
      m_bBeachMaskSave = false;
      m_bShadowZoneCodesSave = false;
      m_bDeepWaterWaveAngleSave = false;
      m_bDeepWaterWaveHeightSave = false;
      m_bDeepWaterWavePeriodSave = false;
      m_bPolygonUnconsSedUpOrDownDriftSave = false;
      m_bPolygonUnconsSedGainOrLossSave = false;
 
      // Set flags based on raster file codes (Case 11 implementation)
      for (string const &rasterCode : rasterFiles)
      {
         string code = rasterCode;
         std::transform(code.begin(), code.end(), code.begin(), ::tolower);
 
         if (code == "suspended_sediment")
            m_bSuspSedSave = true;
         else if (code == "avg_suspended_sediment")
            m_bAvgSuspSedSave = true;
         else if (code == "fine_uncons")
            m_bFineUnconsSedSave = true;
         else if (code == "fine_cons")
            m_bFineConsSedSave = true;
         else if (code == "sand_uncons")
            m_bSandUnconsSedSave = true;
         else if (code == "sand_cons")
            m_bSandConsSedSave = true;
         else if (code == "coarse_uncons")
            m_bCoarseUnconsSedSave = true;
         else if (code == "coarse_cons")
            m_bCoarseConsSedSave = true;
         else if (code == "sediment_top_elevation")
            m_bSedIncTalusTopSurfSave = true;
         else if (code == "top_elevation")
            m_bTopSurfIncSeaSave = true;
         else if (code == "sea_depth")
            m_bSeaDepthSave = true;
         else if (code == "wave_height")
            m_bWaveHeightSave = true;
         else if (code == "wave_orientation")
            m_bWaveAngleSave = true;
         else if (code == "wave_period")
            m_bDeepWaterWavePeriodSave = true;
         else if (code == "potential_platform_erosion")
            m_bPotentialPlatformErosionSave = true;
         else if (code == "actual_platform_erosion")
            m_bActualPlatformErosionSave = true;
         else if (code == "total_potential_platform_erosion")
            m_bTotalPotentialPlatformErosionSave = true;
         else if (code == "total_actual_platform_erosion")
            m_bTotalActualPlatformErosionSave = true;
         else if (code == "potential_beach_erosion")
            m_bPotentialBeachErosionSave = true;
         else if (code == "actual_beach_erosion")
            m_bActualBeachErosionSave = true;
         else if (code == "total_potential_beach_erosion")
            m_bTotalPotentialBeachErosionSave = true;
         else if (code == "total_actual_beach_erosion")
            m_bTotalActualBeachErosionSave = true;
         else if (code == "beach_deposition")
            m_bBeachDepositionSave = true;
         else if (code == "total_beach_deposition")
            m_bTotalBeachDepositionSave = true;
         else if (code == "landform")
            m_bLandformSave = true;
         // else if (code == "local_cons_sediment_slope")
         //    m_bLocalSlopeSave = true;
         // else if (code == "slope")
         //    m_bSlopeSave = true;
         // else if (code == "cliff")
         //    m_bCliffSave = true;
         else if (code == "avg_sea_depth")
            m_bAvgSeaDepthSave = true;
         else if (code == "avg_wave_height")
            m_bAvgWaveHeightSave = true;
         else if (code == "avg_wave_orientation")
            m_bAvgWaveAngleSave = true;
         else if (code == "beach_protection")
            m_bBeachProtectionSave = true;
         else if (code == "basement_elevation")
            m_bBasementElevSave = true;
         else if (code == "coastline")
            m_bRasterCoastlineSave = true;
         else if (code == "coast_normal")
            m_bRasterNormalProfileSave = true;
         else if (code == "active_zone")
            m_bActiveZoneSave = true;
         else if (code == "cliff_collapse")
            m_bCliffCollapseSave = true;
         else if (code == "total_cliff_collapse")
            m_bTotCliffCollapseSave = true;
         else if (code == "cliff_collapse_deposition")
            m_bCliffCollapseDepositionSave = true;
         else if (code == "total_cliff_collapse_deposition")
            m_bTotCliffCollapseDepositionSave = true;
         else if (code == "polygon")
            m_bRasterPolygonSave = true;
         else if (code == "potential_platform_erosion_mask")
            m_bPotentialPlatformErosionMaskSave = true;
         else if (code == "sea_mask")
            m_bSeaMaskSave = true;
         else if (code == "beach_mask")
            m_bBeachMaskSave = true;
         else if (code == "shadow_zone_codes")
            m_bShadowZoneCodesSave = true;
         else if (code == "deep_water_wave_angle")
            m_bDeepWaterWaveAngleSave = true;
         else if (code == "deep_water_wave_height")
            m_bDeepWaterWaveHeightSave = true;
         else if (code == "deep_water_wave_period")
            m_bDeepWaterWavePeriodSave = true;
         else if (code == "polygon_uncons_sediment_up_or_down_drift")
            m_bPolygonUnconsSedUpOrDownDriftSave = true;
         else if (code == "polygon_uncons_sediment_gain_or_loss")
            m_bPolygonUnconsSedGainOrLossSave = true;
      }
   }
 
   // Case 12: GIS output format for raster and vector files
   m_strRasterGISOutFormat = config.GetRasterFormat();
 
   // Case 13: If needed, scale GIS raster output values
   m_bScaleRasterOutput = config.GetScaleValues();
 
   // Case 14: If needed, also output GIS raster world file
   m_bWorldFile = config.GetWorldFile();
 
   // Case 15: Elevations for raster slice output, if desired
   if (! config.GetSliceElevations().empty())
   {
      m_bSliceSave = true;
      m_VdSliceElev = config.GetSliceElevations();
   }
 
   // Case 16: Vector GIS files to output
   vector<string> vectorFiles = config.GetVectorFiles();
   if (! vectorFiles.empty())
   {
      // Reset all vector output flags
      m_bCoastSave = false;
      m_bCliffEdgeSave = false;
      m_bWaveAngleAndHeightSave = false;
      m_bNormalsSave = false;
      m_bInvalidNormalsSave = false;
      m_bAvgWaveAngleAndHeightSave = false;
      m_bWaveEnergySinceCollapseSave = false;
      m_bMeanWaveEnergySave = false;
      m_bBreakingWaveHeightSave = false;
      m_bCoastCurvatureSave = false;
      m_bPolygonNodeSave = false;
      m_bPolygonBoundarySave = false;
      m_bCliffNotchSave = false;
      m_bShadowBoundarySave = false;
      m_bShadowDowndriftBoundarySave = false;
      m_bDeepWaterWaveAngleAndHeightSave = false;
      m_bWaveSetupSave = false;
      m_bStormSurgeSave = false;
      m_bRunUpSave = false;
      m_bVectorWaveFloodLineSave = false;
 
      // Set flags based on vector file codes (Case 16 implementation)
      for (string const &vectorCode : vectorFiles)
      {
         string code = vectorCode;
         std::transform(code.begin(), code.end(), code.begin(), ::tolower);
 
         if (code == "coast")
            m_bCoastSave = true;
         else if (code == "cliff_edge")
            m_bCliffEdgeSave = true;
         else if (code == "wave_angle")
            m_bWaveAngleAndHeightSave = true;
         else if (code == "normals")
            m_bNormalsSave = true;
         else if (code == "invalid_normals")
            m_bInvalidNormalsSave = true;
         else if (code == "avg_wave_angle")
            m_bAvgWaveAngleAndHeightSave = true;
         else if (code == "wave_energy")
            m_bWaveEnergySinceCollapseSave = true;
         else if (code == "mean_wave_energy")
            m_bMeanWaveEnergySave = true;
         else if (code == "breaking_wave_height")
            m_bBreakingWaveHeightSave = true;
         else if (code == "coast_curvature")
            m_bCoastCurvatureSave = true;
         else if (code == "polygon_node")
            m_bPolygonNodeSave = true;
         else if (code == "polygon")
            m_bPolygonBoundarySave = true;
         else if (code == "cliff_notch")
            m_bCliffNotchSave = true;
         else if (code == "wave_transect_points")
            m_bWaveTransectPointsSave = true;
         else if (code == "shadow_boundary")
            m_bShadowBoundarySave = true;
         else if (code == "downdrift_boundary")
            m_bShadowDowndriftBoundarySave = true;
         else if (code == "deep_water_wave_angle")
            m_bDeepWaterWaveAngleAndHeightSave = true;
         else if (code == "wave_setup")
            m_bWaveSetupSave = true;
         else if (code == "storm_surge")
            m_bStormSurgeSave = true;
         else if (code == "run_up")
            m_bRunUpSave = true;
         else if (code == "flood_line")
            m_bVectorWaveFloodLineSave = true;
      }
   }
 
   // Case 17: Vector GIS output format (note must retain original case)
   m_strVectorGISOutFormat = config.GetVectorFormat();
 
   // Case 18: Time series files to output
   // TODO: Migrate from bReadRunDataFile()
   vector<string> timeseriesFiles = config.GetTimeSeriesFiles();
   if (! timeseriesFiles.empty())
   {
      for (string const &timeseriesCode : timeseriesFiles)
      {
         string code = timeseriesCode;
         std::transform(code.begin(), code.end(), code.begin(), ::tolower);
 
         if (code == "sea_area")
            m_bSeaAreaTSSave = true;
         if (code == "water_level")
            m_bSWLTSSave = true;
         if (code == "platform_erosion")
            m_bActualPlatformErosionTSSave = true;
         if (code == "cliff_collapse_erosion")
            m_bCliffCollapseErosionTSSave = true;
         if (code == "cliff_collapse_deposition")
            m_bCliffCollapseDepositionTSSave = true;
         if (code == "cliff_collapse_net")
            m_bCliffCollapseNetTSSave = true;
         if (code == "beach_erosion")
            m_bBeachErosionTSSave = true;
         if (code == "beach_deposition")
            m_bBeachDepositionTSSave = true;
         if (code == "beach_change_net")
            m_bBeachSedimentChangeNetTSSave = true;
         if (code == "suspended")
            m_bSuspSedTSSave = true;
         if (code == "suspended")
            m_bSuspSedTSSave = true;
         if (code == "wave_setup")
            m_bFloodSetupSurgeTSSave = true;
         if (code == "wave_runup")
            m_bFloodSetupSurgeRunupTSSave = true;
         if (code == "cliff_notch")
            m_bCliffNotchElevTSSave = true;
      }
   }
 
   // Case 19: Vector coastline smoothing algorithm: 0 = none, 1 = running mean,
   // 2 = Savitzky-Golay
   m_nCoastSmooth = config.GetCoastlineSmoothing();
 
   // Case 20: Size of coastline smoothing window: must be odd
   m_nCoastSmoothingWindowSize = config.GetCoastlineSmoothingWindow();
 
   // Case 21: Order of coastline profile smoothing polynomial for
   // Savitzky-Golay: usually 2 or 4, max is 6
   m_nSavGolCoastPoly = config.GetPolynomialOrder();
 
   // Case 22: Omit grid edges from search (north/south/east/west)
   std::string strRH = config.GetOmitGridEdges();
   if (strRH.find('n') != string::npos)
   {
      m_bOmitSearchNorthEdge = true;
   }
 
   if (strRH.find('s') != string::npos)
   {
      m_bOmitSearchSouthEdge = true;
   }
 
   if (strRH.find('w') != string::npos)
   {
      m_bOmitSearchWestEdge = true;
   }
 
   if (strRH.find('e') != string::npos)
   {
      m_bOmitSearchEastEdge = true;
   }
 
   // Case 23: Profile slope running-mean smoothing window size: must be odd
   m_nProfileSmoothWindow = config.GetProfileSmoothingWindow();
 
   // Case 24: Max local slope (m/m), first check that this is a valid double
   m_dProfileMaxSlope = config.GetMaxLocalSlope();
 
   // Case 25: Maximum elevation of beach above SWL, first check that this is a
   // valid double
   m_dMaxBeachElevAboveSWL = config.GetMaxBeachElevation();
 
   // Case 26: Number of sediment layers
   m_nLayers = config.GetNumLayers();
   // OK we know the number of layers, so add elements to these vectors
   for (int j = 0; j < m_nLayers; j++)
   {
      m_VstrInitialFineUnconsSedimentFile.push_back("");
      m_VstrInitialSandUnconsSedimentFile.push_back("");
      m_VstrInitialCoarseUnconsSedimentFile.push_back("");
      m_VstrInitialFineConsSedimentFile.push_back("");
      m_VstrInitialSandConsSedimentFile.push_back("");
      m_VstrInitialCoarseConsSedimentFile.push_back("");
      m_VstrGDALIUFDriverCode.push_back("");
      m_VstrGDALIUFDriverDesc.push_back("");
      m_VstrGDALIUFProjection.push_back("");
      m_VstrGDALIUFDataType.push_back("");
      m_VstrGDALIUSDriverCode.push_back("");
      m_VstrGDALIUSDriverDesc.push_back("");
      m_VstrGDALIUSProjection.push_back("");
      m_VstrGDALIUSDataType.push_back("");
      m_VstrGDALIUCDriverCode.push_back("");
      m_VstrGDALIUCDriverDesc.push_back("");
      m_VstrGDALIUCProjection.push_back("");
      m_VstrGDALIUCDataType.push_back("");
      m_VstrGDALICFDriverCode.push_back("");
      m_VstrGDALICFDriverDesc.push_back("");
      m_VstrGDALICFProjection.push_back("");
      m_VstrGDALICFDataType.push_back("");
      m_VstrGDALICSDriverCode.push_back("");
      m_VstrGDALICSDriverDesc.push_back("");
      m_VstrGDALICSProjection.push_back("");
      m_VstrGDALICSDataType.push_back("");
      m_VstrGDALICCDriverCode.push_back("");
      m_VstrGDALICCDriverDesc.push_back("");
      m_VstrGDALICCProjection.push_back("");
      m_VstrGDALICCDataType.push_back("");
   }
 
   // Case 27: Basement DEM file (can be blank)
   m_strInitialBasementDEMFile = config.GetBasementDEMFile();
 
   // Cases 28: Initial sediment thickness files (unconsolidated and
   // consolidated)
   m_VstrInitialFineUnconsSedimentFile = config.GetUnconsFineFiles();
   m_bHaveFineSediment = true;
   m_VstrInitialSandUnconsSedimentFile = config.GetUnconsSandFiles();
   m_bHaveSandSediment = true;
   m_VstrInitialCoarseUnconsSedimentFile = config.GetUnconsCoarseFiles();
   m_bHaveCoarseSediment = true;
   m_VstrInitialFineConsSedimentFile = config.GetConsFineFiles();
   m_bHaveConsolidatedSediment = true;
   m_bHaveFineSediment = true;
   m_VstrInitialSandConsSedimentFile = config.GetConsSandFiles();
   m_bHaveSandSediment = true;
   m_VstrInitialCoarseConsSedimentFile = config.GetConsCoarseFiles();
   m_bHaveCoarseSediment = true;
 
   // Case 29: Initial suspended sediment depth GIS file (can be blank)
   string strSuspendedSed = config.GetSuspendedSedFile();
   if (! strSuspendedSed.empty())
   {
      m_strInitialSuspSedimentFile = strSuspendedSed;
   }
 
   // Case 30: Basic simulation input files
   m_strInitialLandformFile = config.GetLandformFile();
 
   // Case 31: Initial Intervention class GIS file
   // (can be blank: if so then intervention height file must also be blank)
   string strInterventionClass = config.GetInterventionClassFile();
   if (! strInterventionClass.empty())
      m_strInterventionClassFile = strInterventionClass;
 
   // Case 32: Initial Intervention height GIS file
   // (can be blank: if so then intervention class file must also be blank)
   string strInterventionHeight = config.GetInterventionHeightFile();
   if (! strInterventionHeight.empty())
      m_strInterventionHeightFile = strInterventionHeight;
 
   // Case 33: Wave propagation model [0 = COVE, 1 = CShore]
   m_nWavePropagationModel = config.GetWavePropagationModel();
 
   // Case 34: Density of sea water (kg/m3), first check that this is a valid
   // double
   m_dSeaWaterDensity = config.GetSeawaterDensity();
 
   // Case 35: Initial mean still water level (m), first check that this is a
   // valid double TODO 041 Make this a per-timestep SWL file
   m_dInitialMeanSWL = config.GetInitialWaterLevel();
 
   // Case 36: Final water level (optional)
   if (config.HasFinalWaterLevel())
   {
      if (! strInterventionHeight.empty())
      {
         m_dFinalMeanSWL = config.GetFinalWaterLevel();
      }
      else
      {
         m_dFinalMeanSWL = m_dInitialMeanSWL;
      }
   }
   // Case 38-40 Parse Wave Data
   // Case 38: Deep water wave height (m) or a file of point vectors giving deep
   // Firstly has the user provided a filepath for wave data
   if (config.GetWaveHeightTimeSeries().empty())
   {
      m_bSingleDeepWaterWaveValues = true;
      m_bHaveWaveStationData = false;
      // Case 37: Deep water wave height (m) or a file of point vectors giving deep
      // water wave height (m) and orientation (for units, see below)
      m_dAllCellsDeepWaterWaveHeight = config.GetDeepWaterWaveHeight();
 
      // Case 39: Deep water wave orientation in input CRS: this is the
      // oceanographic convention i.e. direction TOWARDS which the waves move (in
      // degrees clockwise from north)
      m_dAllCellsDeepWaterWaveAngle = config.GetDeepWaterWaveOrientation();
 
      // Case 40: Wave period (sec)
      m_dAllCellsDeepWaterWavePeriod = config.GetWavePeriod();
   }
   else
   {
      m_bHaveWaveStationData = true;
      m_strDeepWaterWaveStationsShapefile = config.GetWaveStationDataFile();
      m_dAllCellsDeepWaterWaveHeight = config.GetDeepWaterWaveHeight();
   }
 
   // Case 41: Tide data file (can be blank). This is the change (m) from still
   // water level for each timestep
   m_strTideDataFile = config.GetTideDataFile();
 
   // Case 42: Breaking wave height-to-depth ratio, check that this is a valid
   // double
   m_dBreakingWaveHeightDepthRatio = config.GetBreakingWaveRatio();
 
   // Case 43: Simulate coast platform erosion?
   m_bDoShorePlatformErosion = config.GetCoastPlatformErosion();
 
   // Case 44: If simulating coast platform erosion, R (coast platform resistance
   // to erosion) values along profile, see Walkden & Hall, 2011
   if (m_bDoShorePlatformErosion)
   {
      m_dR = config.GetPlatformErosionResistance();
   }
 
   // Case 45: Simulate beach sediment transport?
   m_bDoBeachSedimentTransport = config.GetBeachSedimentTransport();
 
   // Case 46: If simulating beach sediment transport, beach sediment transport
   // at grid edges [0 = closed, 1 = open, 2 = re-circulate]
   m_nUnconsSedimentHandlingAtGridEdges = config.GetBeachTransportAtEdges();
 
   // Case 47: If simulating beach sediment transport, beach erosion/deposition
   // equation [0 = CERC, 1 = Kamphuis]
   m_nBeachErosionDepositionEquation = config.GetBeachErosionEquation();
 
   // Case 48: Median size of fine sediment (mm), always needed [0 = default,
   // only for Kamphuis eqn]. First check that this is a valid double
   m_dD50Fine = config.GetFineMedianSize();
 
   // Case 49: Median size of sand sediment (mm), always needed [0 = default,
   // only for Kamphuis eqn]. First check that this is a valid double
   m_dD50Sand = config.GetSandMedianSize();
 
   // Case 50: Median size of coarse sediment (mm), always needed [0 = default,
   // only for Kamphuis eqn]. First check that this is a valid double
   m_dD50Coarse = config.GetCoarseMedianSize();
 
   // Case 51: Density of unconsolidated beach sediment (kg/m3)
   m_dBeachSedimentDensity = config.GetSedimentDensity();
 
   // Case 52: Beach sediment porosity
   m_dBeachSedimentPorosity = config.GetBeachSedimentPorosity();
 
   // Case 53: Relative erodibility (0 - 1) of fine-sized sediment, always
   // needed. First check that this is a valid double
   m_dFineErodibility = config.GetFineErosivity();
 
   // Case 54: Relative erodibility (0 - 1) of sand-sized sediment, always
   // needed. First check that this is a valid double
   m_dSandErodibility = config.GetSandErosivity();
 
   // Case 55: Relative erodibility (0 - 1) of coarse-sized sediment, always
   // needed. First check that this is a valid double
   m_dCoarseErodibility = config.GetCoarseErosivity();
 
   // Case 56: Transport parameter KLS in CERC equation
   m_dKLS = config.GetTransportKLS();
 
   // Case 57: Transport parameter for Kamphuis equation
   m_dKamphuis = config.GetKamphuis();
 
   // Case 58: Berm height i.e. height above SWL of start of depositional Dean
   // profile
   m_dDeanProfileStartAboveSWL = config.GetBermHeight();
 
   // Case 59: Simulate cliff collapse?
   m_dDeanProfileStartAboveSWL = config.GetCliffCollapse();
 
   // Case 60: Cliff resistance to erosion
   if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
   {
      m_dCliffErosionResistance = config.GetCliffErosionResistance();
   }
 
   // Case 61: Notch overhang at collapse (m)
   if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
   {
      m_dNotchIncisionAtCollapse = config.GetNotchOverhang();
   }
 
   // Case 62: Notch base below still water level (m)
   if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
   {
      m_dNotchApexAboveMHW = config.GetNotchBase();
   }
 
   // Case 63: Scale parameter A for cliff deposition (m^(1/3)) [0 = auto]
   if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
   {
      m_dCliffDepositionA = config.GetScaleValues();
   }
 
   // Case 64: Approximate planview width of cliff collapse talus (in m)
   if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
   {
      m_dCliffDepositionPlanviewWidth = config.GetTalusWidth();
   }
 
   // Case 65: Planview length of cliff deposition talus (m)
   if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
   {
      m_dCliffTalusMinDepositionLength = config.GetMinTalusLength();
   }
 
   // Case 66: Minimum height of landward end of talus, as a fraction of cliff
   // elevation
   if (m_bHaveConsolidatedSediment && m_bDoCliffCollapse)
   {
      m_dMinCliffTalusHeightFrac = config.GetMinTalusHeight();
   }
 
   // Case 67: Simulate riverine flooding?
   if (config.GetFloodInput())
   {
      m_bRiverineFlooding = true;
      m_bSetupSurgeFloodMaskSave = true;
      m_bSetupSurgeRunupFloodMaskSave = true;
      m_bRasterWaveFloodLineSave = true;
   }
 
   // Case 68: Output riverine flooding vector files
   if (config.GetFloodInput())
   {
      // TODO: This is a guess, please check
      vector<string> floodFiles = config.GetFloodFiles();
      if (! floodFiles.empty())
      {
         for (string const &floodCode : floodFiles)
         {
            string code = floodCode;
            std::transform(code.begin(), code.end(), code.begin(), ::tolower);
 
            if (code == "sea_area")
               m_bSeaAreaTSSave = true;
         }
      }
   }
 
   // Case 69: Flooding runup equation?
   if (config.GetFloodInput())
   {
      // TODO: This is a guess, please check
      m_nRunUpEquation = config.GetRunupEquation();
   }
 
   // Case 70: Somthing unknown relating to riverine flooding
   if (m_bRiverineFlooding && m_bVectorWaveFloodLineSave)
   {
      // TODO: This is a guess, please check
      m_bFloodLocationSave = ! config.GetFloodInputLocation().empty();
   }
 
   // Case 71: Somthing unknown relating to riverine flooding
   if (m_bRiverineFlooding)
   {
      // TODO: This is a guess, please check
      m_strFloodLocationShapefile = config.GetFloodLocations();
   }
 
   // Case 72: Simulate sediment input?
   if (config.GetSedimentInput())
   {
      m_bSedimentInput = true;
      m_bSedimentInputEventSave = true;
   }
 
   // Case 73: Sediment input location (point or line shapefile)
   if (m_bSedimentInput)
   {
      m_strSedimentInputEventShapefile = config.GetSedimentInputLocation();
   }
 
   // Case 74: Sediment input type: required if have shapefile [P = Point, C =
   // coast block, L = line]
   if (m_bSedimentInput)
   {
      strRH = config.GetSedimentInputType();
      if (strRH.find('p') != string::npos)
         m_bSedimentInputAtPoint = true;
 
      else if (strRH.find('c') != string::npos)
         m_bSedimentInputAtCoast = true;
 
      else if (strRH.find('l') != string::npos)
         m_bSedimentInputAlongLine = true;
   }
 
   // Case 75: Sediment input details file (required if have shapefile)
   if (m_bSedimentInput)
   {
      m_strSedimentInputEventFile = config.GetSedimentInputLocation();
   }
 
   // Case 76: Gravitational acceleration (m2/s). First check that this is a
   // valid double
   m_dG = config.GetGravitationalAcceleration();
 
   // Case 77: Spacing of coastline normals (m)
   m_dCoastNormalSpacing = config.GetNormalSpacing();
   if (bFPIsEqual(m_dCoastNormalSpacing, 0.0, TOLERANCE))
      m_nCoastNormalSpacing =
         DEFAULT_PROFILE_SPACING;      // In cells, we will set
                                       // m_dCoastNormalSpacing later when we
                                       // know m_dCellSide
 
   // Case 78: Random factor for spacing of normals  [0 to 1, 0 = deterministic],
   // check that this is a valid double
   m_dCoastNormalRandSpacingFactor = config.GetRandomFactor();
 
   // Case 79: Length of coastline normals (m), check that this is a valid double
   m_dCoastNormalLength = config.GetNormalLength();
 
   // Approximate minimum spacing (m) between wave transects for interpolation densification
   m_dSyntheticTransectSpacing = config.GetSyntheticTransectSpacing();
 
   // Case 80: Start depth for wave calcs (ratio to deep water wave height)check
   // that this is a valid double
   m_dWaveDepthRatioForWaveCalcs = config.GetBreakingWaveRatio();
 
   // Case 81: Output profile data?
   // ISSUE: Why are we now only outputing consolidated, this feels like a bodge
   m_bOutputConsolidatedProfileData = config.GetSaveProfileData();
 
   // Case 82: Numbers of profiles to be saved
   if (m_bOutputConsolidatedProfileData)
   {
      m_VnProfileToSave = config.GetProfileNumbers();
   }
 
   // Case 83: Timesteps to save profiles
   if (m_bOutputConsolidatedProfileData)
   {
      m_VulProfileTimestep = config.GetProfileTimesteps();
   }
 
   // Case 84: Output parallel profile data?
   m_bOutputParallelProfileData = config.GetSaveParallelProfiles();
 
   // Case 85: Output erosion potential look-up data?
   m_bOutputErosionPotentialData = config.GetOutputErosionPotential();
 
   // Case 86: Cliff toe location? approach [0 = none, 1 = by slope threshold]
   //TODO: Finish migration
   m_bCliffToeLocate = false;
 
   // Case 87: Cliff edge smoothing algorithm: 0 = none, 1 = running mean, 2 =
   // Savitzky-Golay
   m_nCliffEdgeSmooth = config.GetCliffEdgeSmoothing();
 
   // Case 89: Size of moving window for coastline curvature calculation (must be
   // odd)
   m_nCliffEdgeSmoothWindow = config.GetCurvatureWindow();
 
   // Case 90: Cliff slope limit for cliff toe detection
   m_dSlopeThresholdForCliffToe = config.GetCliffSlopeLimit();
 
   return true;
}