source: trunk/src/Detection/columns.cc @ 447

// -----------------------------------------------------------------------
// columns.cc: Define a set of columns for Duchamp output.
// -----------------------------------------------------------------------
// Copyright (C) 2006, Matthew Whiting, ATNF
//
// This program is free software; you can redistribute it and/or modify it
// under the terms of the GNU General Public License as published by the
// Free Software Foundation; either version 2 of the License, or (at your
// option) any later version.
//
// Duchamp 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 Duchamp; if not, write to the Free Software Foundation,
// Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307, USA
//
// Correspondence concerning Duchamp may be directed to:
//    Internet email: Matthew.Whiting [at] atnf.csiro.au
//    Postal address: Dr. Matthew Whiting
//                    Australia Telescope National Facility, CSIRO
//                    PO Box 76
//                    Epping NSW 1710
//                    AUSTRALIA
// -----------------------------------------------------------------------
#include <iostream>
#include <sstream>

#include <math.h>
#include <duchamp/duchamp.hh>
#include <duchamp/fitsHeader.hh>
#include <vector> 
#include <string>
#include <duchamp/Detection/detection.hh>
#include <duchamp/Detection/columns.hh>

namespace duchamp
{

  namespace Column
  {


    Col::Col()
    {
      /** Set the default values for the parameters. */
      this->width=1; 
      this->precision=0; 
      this->name=" "; 
      this->units=" ";
      this->type=UNKNOWN;
    }

    Col::~Col(){}

    Col::Col(const Col& c)
    {
      operator=(c);
    }

    Col& Col::operator=(const Col& c)
    {
      if(this==&c) return *this;
      this->width = c.width;
      this->precision = c.precision;
      this->name = c.name;
      this->units = c.units;
      this->type = c.type;
      return *this;
    }

    Col::Col(int num, int prec)
    {
      /**
       * A specialised constructor that defines one of the default 
       *  columns, as defined in the Column namespace
       * \param num The number of the column to be constructed. 
       *            Corresponds to the order of the columns in the const 
       *            arrays in the Column namespace.
       * \param prec The precision to use, if not the default. A value
       * <0 or no value given results in the default being used.
       */ 
      if((num>=0)&&(num<numColumns)){
        this->width     = defaultWidth[num];
        if(prec<0) this->precision = defaultPrec[num];
        else this->precision = prec;
        this->name      = defaultName[num];
        this->units     = defaultUnits[num];
        this->type = COLNAME(num);
      }
      else{
        std::stringstream errmsg;
        errmsg << "Incorrect value for Col(num) --> num="<<num
               << ", should be between 0 and " << numColumns-1 << ".\n";
        duchampError("Column constructor", errmsg.str());
        this->width = 1;
        this->precision = 0;
        this->name = " ";
        this->units = " ";
        this->type=UNKNOWN;
      }
    }

    //------------------------------------------------------------
    void Col::printTitle(std::ostream &stream)
    {
      stream << std::setw(this->width) 
             << std::setfill(' ') 
             << this->name;
    }

    void Col::printUnits(std::ostream &stream)
    {
      stream << std::setw(this->width) 
             << std::setfill(' ') 
             << this->units;
    }
  
    void Col::printDash (std::ostream &stream)
    {
      stream << std::setw(this->width) 
             << std::setfill('-')
             << "" 
             << std::setfill(' ');
    }

    void Col::printBlank(std::ostream &stream)
    {
      stream << std::setw(this->width) 
             << std::setfill(' ') 
             << "";
    }
  
    template <class T> void Col::printEntry(std::ostream &stream, T value)
    {
      /**
       *  \param stream Where the printing is done.
       *  \param value  The value to be printed.
       */
      stream << std::setprecision(this->precision)
             << std::setw(this->width) 
             << std::setfill(' ')
             << value;
    }
    template void Col::printEntry<int>(std::ostream &stream, int value);
    template void Col::printEntry<long>(std::ostream &stream, long value);
    template void Col::printEntry<unsigned>(std::ostream &stream, unsigned value);
    template void Col::printEntry<float>(std::ostream &stream, float value);
    template void Col::printEntry<double>(std::ostream &stream, double value);
    template void Col::printEntry<std::string>(std::ostream &stream, std::string value);

 
    bool Col::doCol(std::string tableType, bool flagFint)
    {
      /** 
       *  Uses the info in the isFile etc arrays to determine whether
       *  a given column, referenced by the enumeration COLNAME, is
       *  used for a given table type.
       * \param tableType The type of table: one of file, screen, log, votable.
       * \param flagFint Whether to use FINT (true) or FTOT
       * (false). This defaults to true, so need not be given. It only
       * applies to the screen and votable cases -- both are written for the
       * results file case.
       * \return True if column is used for given table type. False
       * otherwise. False if tableType not one of four listed.
       */
      
      if(tableType == "file") return isFile[this->type];
      else if(tableType == "screen"){
        if(flagFint && this->type==FTOT) return false;
        if(!flagFint && this->type==FINT) return false;
        return isScreen[this->type];
      }
      else if(tableType == "log") return isLog[this->type];
      else if(tableType == "votable"){
        if(flagFint && this->type==FTOT) return false;
        if(!flagFint && this->type==FINT) return false;
        return isVOTable[this->type];
      }
      else return false;
    }

  

    std::vector<Col> getFullColSet(std::vector<Detection> &objectList, 
                                   FitsHeader &head)
    {
      /**
       *  A function that returns a std::vector of Col objects containing
       *  information on the columns necessary for output to the results
       *  file:
       *    Obj#,NAME,X,Y,Z,RA,DEC,VEL,w_RA,w_DEC,w_VEL,F_tot,F_int,F_peak,
       *                X1,X2,Y1,Y2,Z1,Z2,Npix,Flag,
       *                XAV,YAV,ZAV,XCENT,YCENT,ZCENT,XPEAK,YPEAK,ZPEAK
       *
       *   Each object in the provided objectList is checked to see if it
       *   requires any column to be widened, or for that column to have
       *   its precision increased.
       *
       *   Both Ftot and Fint are provided -- it is up to the calling
       *   function to determine which to use.
       *
       * \param objectList A std::vector list of Detection objects that the
       * columns need to fit.
       * \param head The FitsHeader object defining the World Coordinate
       * System.
       * \return A std::vector list of Col definitions.
       */

      std::vector<Col> newset;

      // desired precisions for fluxes, velocities and SNR value
      int precVel=objectList[0].getVelPrec(),
        precFlux=objectList[0].getFpeakPrec(), // same as FintPrec at this point.
        precSNR=objectList[0].getSNRPrec();

      // set up the default columns 
      newset.push_back( Col(NUM) );
      newset.push_back( Col(NAME) );
      newset.push_back( Col(X) );
      newset.push_back( Col(Y) );
      newset.push_back( Col(Z) );
      newset.push_back( Col(RA) );
      newset.push_back( Col(DEC) );
      newset.push_back( Col(RAJD) );
      newset.push_back( Col(DECJD) );
      newset.push_back( Col(VEL, precVel) );
      newset.push_back( Col(WRA) );
      newset.push_back( Col(WDEC) );
      newset.push_back( Col(WVEL, precVel) );
      newset.push_back( Col(FINT, precFlux) );
      newset.push_back( Col(FTOT, precFlux) );
      newset.push_back( Col(FPEAK, precFlux) );
      newset.push_back( Col(SNRPEAK, precSNR) );
      newset.push_back( Col(X1) );
      newset.push_back( Col(X2) );
      newset.push_back( Col(Y1) );
      newset.push_back( Col(Y2) );
      newset.push_back( Col(Z1) );
      newset.push_back( Col(Z2) );
      newset.push_back( Col(NPIX) );
      newset.push_back( Col(FLAG) );
      newset.push_back( Col(XAV) );
      newset.push_back( Col(YAV) );
      newset.push_back( Col(ZAV) );
      newset.push_back( Col(XCENT) );
      newset.push_back( Col(YCENT) );
      newset.push_back( Col(ZCENT) );
      newset.push_back( Col(XPEAK) );
      newset.push_back( Col(YPEAK) );
      newset.push_back( Col(ZPEAK) );


      // Now test each object against each new column
      for( int obj = 0; obj < objectList.size(); obj++){
        std::string tempstr;
        int tempwidth;
        float val,minval;

        // Obj#
        tempwidth = int( log10(objectList[obj].getID()) + 1) + 
          newset[NUM].getPrecision() + 1;
        for(int i=newset[NUM].getWidth();i<tempwidth;i++) newset[NUM].widen();

        // Name
        tempwidth = objectList[obj].getName().size() + 1;
        for(int i=newset[NAME].getWidth();i<tempwidth;i++) newset[NAME].widen();

        // X position
        val = objectList[obj].getXcentre() + objectList[obj].getXOffset();
        if((val<1.)&&(val>0.)){
          minval = pow(10, -1. * (newset[X].getPrecision()+1)); 
          if(val < minval) newset[X].upPrec();
        }
        tempwidth = int( log10(val) + 1) + newset[X].getPrecision() + 2;
        for(int i=newset[X].getWidth();i<tempwidth;i++) newset[X].widen();
        // Y position
        val = objectList[obj].getYcentre() + objectList[obj].getYOffset();
        if((val<1.)&&(val>0.)){
          minval = pow(10, -1. * (newset[Y].getPrecision()+1)); 
          if(val < minval) newset[Y].upPrec();
        }
        tempwidth = int( log10(val) + 1) + newset[Y].getPrecision() + 2;
        for(int i=newset[Y].getWidth();i<tempwidth;i++) newset[Y].widen();
        // Z position
        val = objectList[obj].getZcentre() + objectList[obj].getZOffset();
        if((val<1.)&&(val>0.)){
          minval = pow(10, -1. * (newset[Z].getPrecision()+1)); 
          if((val>0.)&&(val < minval)) newset[Z].upPrec();
        }
        tempwidth = int( log10(val) + 1) + newset[Z].getPrecision() + 2;
        for(int i=newset[Z].getWidth();i<tempwidth;i++) newset[Z].widen();

        if(head.isWCS()){  
          // RA -- assign correct title. Check width but should be ok by definition
          tempstr = head.WCS().lngtyp;
          newset[RA].setName(tempstr);
          tempwidth = objectList[obj].getRAs().size() + 1;
          for(int i=newset[RA].getWidth();i<tempwidth;i++) newset[RA].widen();
      
          // Dec -- assign correct title. Check width, should be ok by definition
          tempstr = head.WCS().lattyp;
          newset[DEC].setName(tempstr);
          tempwidth = objectList[obj].getDecs().size() + 1;
          for(int i=newset[DEC].getWidth();i<tempwidth;i++) newset[DEC].widen();

          // RA decimal degrees -- assign correct title. Check width but should be OK
          tempstr = head.WCS().lngtyp;
          newset[RAJD].setName(tempstr);
          val = objectList[obj].getRA();
          tempwidth = int( log10(fabs(val)) + 1) + newset[RAJD].getPrecision() + 2;
          for(int i=newset[RAJD].getWidth();i<tempwidth;i++) newset[RAJD].widen();
      
          // Dec decimal degrees -- assign correct title. Check width but should be OK
          tempstr = head.WCS().lattyp;
          newset[DECJD].setName(tempstr);
          val = objectList[obj].getDec();
          tempwidth = int( log10(fabs(val)) + 1) + newset[DECJD].getPrecision() + 2;
          for(int i=newset[DECJD].getWidth();i<tempwidth;i++) newset[DECJD].widen();

          // Vel -- check width, title and units.
          //if(head.isSpecOK()){
          if(head.canUseThirdAxis()){
            if(head.WCS().restfrq == 0) // using frequency, not velocity
              newset[VEL].setName("FREQ");
            if(head.getSpectralUnits().size()>0)
              newset[VEL].setUnits("[" + head.getSpectralUnits() + "]");
            tempwidth = newset[VEL].getUnits().size() + 1;
            for(int i=newset[VEL].getWidth();i<tempwidth;i++) newset[VEL].widen();
        
            val = objectList[obj].getVel();
            if((fabs(val) < 1.)&&(val>0.)){
              minval = pow(10, -1. * (newset[VEL].getPrecision()+1)); 
              if(val < minval) newset[VEL].upPrec();
            }
            tempwidth = int(log10(fabs(val)) + 1) + newset[VEL].getPrecision() + 2;
            if(val<0) tempwidth++;
            for(int i=newset[VEL].getWidth();i<tempwidth;i++) newset[VEL].widen();
          }

          // w_RA -- check width & title. leave units for the moment.
          tempwidth = newset[RA].getUnits().size() + 1;
          for(int i=newset[RA].getWidth();i<tempwidth;i++) newset[RA].widen();
          val = objectList[obj].getRAWidth();
          if((fabs(val) < 1.)&&(val>0.)){
            minval = pow(10, -1. * (newset[WRA].getPrecision()+1)); 
            if(val < minval) newset[WRA].upPrec();
          }
          tempwidth = int( log10(fabs(val)) + 1) + newset[WRA].getPrecision() + 2;
          if(val<0) tempwidth++;
          for(int i=newset[WRA].getWidth();i<tempwidth;i++) newset[WRA].widen();

          // w_DEC -- check width & title. leave units for the moment.
          tempwidth = newset[DEC].getUnits().size() + 1;
          for(int i=newset[DEC].getWidth();i<tempwidth;i++) newset[DEC].widen();
          val = objectList[obj].getDecWidth();
          if((fabs(val) < 1.)&&(val>0.)){
            minval = pow(10, -1. * (newset[WDEC].getPrecision()+1)); 
            if(val < minval) newset[WDEC].upPrec();
          }
          tempwidth = int( log10(fabs(val)) + 1) + newset[WDEC].getPrecision() + 2;
          if(val<0) tempwidth++;
          for(int i=newset[WDEC].getWidth();i<tempwidth;i++) newset[WDEC].widen();

          // w_Vel -- check width, title and units.
          //if(head.isSpecOK()){
          if(head.canUseThirdAxis()){
            if(head.WCS().restfrq == 0) // using frequency, not velocity
              newset[WVEL].setName("w_FREQ");
            if(head.getSpectralUnits().size()>0)
              newset[WVEL].setUnits("[" + head.getSpectralUnits() + "]");
            tempwidth = newset[WVEL].getUnits().size() + 1;
            for(int i=newset[WVEL].getWidth();i<tempwidth;i++)newset[WVEL].widen();
            val = objectList[obj].getVel();
            if((fabs(val) < 1.)&&(val>0.)){
              minval = pow(10, -1. * (newset[WVEL].getPrecision()+1)); 
              if(val < minval) newset[WVEL].upPrec();
            }
            tempwidth = int( log10(fabs(val)) + 1) + newset[WVEL].getPrecision() + 2;
            if(val<0) tempwidth++;
            for(int i=newset[WVEL].getWidth();i<tempwidth;i++) newset[WVEL].widen();
          }

          // F_int -- check width & units
          if(head.getIntFluxUnits().size()>0)
            newset[FINT].setUnits("[" + head.getIntFluxUnits() + "]");
          tempwidth = newset[FINT].getUnits().size() + 1;
          for(int i=newset[FINT].getWidth();i<tempwidth;i++) newset[FINT].widen();
          val = objectList[obj].getIntegFlux();
          if((fabs(val) < 1.)// &&(val>0.)
             ){
            int minprec = int(fabs(log10(fabs(val))))+2;
            for(int i=newset[FINT].getPrecision();i<minprec;i++) newset[FINT].upPrec();
          }
          tempwidth = int( log10(fabs(val)) + 1) + newset[FINT].getPrecision() + 2;
          if(val<0) tempwidth++;
          for(int i=newset[FINT].getWidth();i<tempwidth;i++) newset[FINT].widen();
      
        }

        // F_tot
        newset[FTOT].setUnits("[" + head.getFluxUnits() + "]");
        tempwidth = newset[FTOT].getUnits().size() + 1;
        for(int i=newset[FTOT].getWidth();i<tempwidth;i++) newset[FTOT].widen();
        val = objectList[obj].getTotalFlux();
        //     std::cerr << val << "\n";
        if((fabs(val) < 1.)// &&(val>0.)
           ){
          int minprec = int(fabs(log10(fabs(val))))+2;
          for(int i=newset[FTOT].getPrecision();i<minprec;i++) newset[FTOT].upPrec();
        }
        tempwidth = int( log10(fabs(val)) + 1) + newset[FTOT].getPrecision() + 2;
        if(val<0) tempwidth++;
        for(int i=newset[FTOT].getWidth();i<tempwidth;i++) newset[FTOT].widen();

        // F_peak
        newset[FPEAK].setUnits("[" + head.getFluxUnits() + "]");
        tempwidth = newset[FPEAK].getUnits().size() + 1;
        for(int i=newset[FPEAK].getWidth();i<tempwidth;i++) newset[FPEAK].widen();
        val = objectList[obj].getPeakFlux();
        if((fabs(val) < 1.)// &&(val>0.)
           ){
          int minprec = int(fabs(log10(fabs(val))))+2;
          for(int i=newset[FPEAK].getPrecision();i<minprec;i++) newset[FPEAK].upPrec();
        }
        tempwidth = int( log10(fabs(val)) + 1) + newset[FPEAK].getPrecision() + 2;
        if(val<0) tempwidth++;
        for(int i=newset[FPEAK].getWidth();i<tempwidth;i++) newset[FPEAK].widen();

        // S/N_peak
        val = objectList[obj].getPeakSNR();
        if((fabs(val) < 1.)&&(val>0.)){
          minval = pow(10, -1. * (newset[SNRPEAK].getPrecision()+1)); 
          if(val < minval) newset[SNRPEAK].upPrec();
        }
        tempwidth = int( log10(fabs(val)) + 1) + newset[SNRPEAK].getPrecision() +2;
        if(val<0) tempwidth++;
        for(int i=newset[SNRPEAK].getWidth();i<tempwidth;i++) newset[SNRPEAK].widen();

        // X1 position
        val = objectList[obj].getXmin() + objectList[obj].getXOffset();
        tempwidth = int( log10(val) + 1) + newset[X1].getPrecision() + 1;
        for(int i=newset[X1].getWidth();i<tempwidth;i++) newset[X1].widen();
        // X2 position
        val = objectList[obj].getXmax() + objectList[obj].getXOffset();
        tempwidth = int( log10(val) + 1) + newset[X2].getPrecision() + 1;
        for(int i=newset[X2].getWidth();i<tempwidth;i++) newset[X2].widen();
        // Y1 position
        val = objectList[obj].getYmin() + objectList[obj].getYOffset();
        tempwidth = int( log10(val) + 1) + newset[Y1].getPrecision() + 1;
        for(int i=newset[Y1].getWidth();i<tempwidth;i++) newset[Y1].widen();
        // Y2 position
        val = objectList[obj].getYmax() + objectList[obj].getYOffset();
        tempwidth = int( log10(val) + 1) + newset[Y2].getPrecision() + 1;
        for(int i=newset[Y2].getWidth();i<tempwidth;i++) newset[Y2].widen();
        // Z1 position
        val = objectList[obj].getZmin() + objectList[obj].getZOffset();
        tempwidth = int( log10(val) + 1) + newset[Z1].getPrecision() + 1;
        for(int i=newset[Z1].getWidth();i<tempwidth;i++) newset[Z1].widen();
        // Z2 position
        val = objectList[obj].getZmax() + objectList[obj].getZOffset();
        tempwidth = int( log10(val) + 1) + newset[Z2].getPrecision() + 1;
        for(int i=newset[Z2].getWidth();i<tempwidth;i++) newset[Z2].widen();

        // Npix
        tempwidth = int( log10(objectList[obj].getSize()) + 1) + 
          newset[NPIX].getPrecision() + 1;
        for(int i=newset[NPIX].getWidth();i<tempwidth;i++) newset[NPIX].widen();
    
        // average X position
        val = objectList[obj].getXAverage() + objectList[obj].getXOffset();
        if((val<1.)&&(val>0.)){
          minval = pow(10, -1. * (newset[XAV].getPrecision()+1)); 
          if(val < minval) newset[XAV].upPrec();
        }
        tempwidth = int( log10(val) + 1) + newset[XAV].getPrecision() + 2;
        for(int i=newset[XAV].getWidth();i<tempwidth;i++) newset[XAV].widen();
        // average Y position
        val = objectList[obj].getYAverage() + objectList[obj].getYOffset();
        if((val<1.)&&(val>0.)){
          minval = pow(10, -1. * (newset[YAV].getPrecision()+1)); 
          if(val < minval) newset[YAV].upPrec();
        }
        tempwidth = int( log10(val) + 1) + newset[YAV].getPrecision() + 2;
        for(int i=newset[YAV].getWidth();i<tempwidth;i++) newset[YAV].widen();
        // average Z position
        val = objectList[obj].getZAverage() + objectList[obj].getZOffset();
        if((val<1.)&&(val>0.)){
          minval = pow(10, -1. * (newset[ZAV].getPrecision()+1)); 
          if((val>0.)&&(val < minval)) newset[ZAV].upPrec();
        }
        tempwidth = int( log10(val) + 1) + newset[ZAV].getPrecision() + 2;
        for(int i=newset[ZAV].getWidth();i<tempwidth;i++) newset[ZAV].widen();
    
        // X position of centroid
        val = objectList[obj].getXCentroid() + objectList[obj].getXOffset();
        if((val<1.)&&(val>0.)){
          minval = pow(10, -1. * (newset[XCENT].getPrecision()+1)); 
          if(val < minval) newset[XCENT].upPrec();
        }
        tempwidth = int( log10(val) + 1) + newset[XCENT].getPrecision() + 2;
        for(int i=newset[XCENT].getWidth();i<tempwidth;i++) newset[XCENT].widen();
        // Y position of centroid
        val = objectList[obj].getYCentroid() + objectList[obj].getYOffset();
        if((val<1.)&&(val>0.)){
          minval = pow(10, -1. * (newset[YCENT].getPrecision()+1)); 
          if(val < minval) newset[YCENT].upPrec();
        }
        tempwidth = int( log10(val) + 1) + newset[YCENT].getPrecision() + 2;
        for(int i=newset[YCENT].getWidth();i<tempwidth;i++) newset[YCENT].widen();
        // Z position of centroid
        val = objectList[obj].getZCentroid() + objectList[obj].getZOffset();
        if((val<1.)&&(val>0.)){
          minval = pow(10, -1. * (newset[ZCENT].getPrecision()+1)); 
          if((val>0.)&&(val < minval)) newset[ZCENT].upPrec();
        }
        tempwidth = int( log10(val) + 1) + newset[ZCENT].getPrecision() + 2;
        for(int i=newset[ZCENT].getWidth();i<tempwidth;i++) newset[ZCENT].widen();
    
        // X position of peak flux
        val = objectList[obj].getXPeak() + objectList[obj].getXOffset();
        if((val<1.)&&(val>0.)){
          minval = pow(10, -1. * (newset[XPEAK].getPrecision()+1)); 
          if(val < minval) newset[XPEAK].upPrec();
        }
        tempwidth = int( log10(val) + 1) + newset[XPEAK].getPrecision() + 2;
        for(int i=newset[XPEAK].getWidth();i<tempwidth;i++) newset[XPEAK].widen();
        // Y position of peak flux
        val = objectList[obj].getYPeak() + objectList[obj].getYOffset();
        if((val<1.)&&(val>0.)){
          minval = pow(10, -1. * (newset[YPEAK].getPrecision()+1)); 
          if(val < minval) newset[YPEAK].upPrec();
        }
        tempwidth = int( log10(val) + 1) + newset[YPEAK].getPrecision() + 2;
        for(int i=newset[YPEAK].getWidth();i<tempwidth;i++) newset[YPEAK].widen();
        // Z position of peak flux
        val = objectList[obj].getZPeak() + objectList[obj].getZOffset();
        if((val<1.)&&(val>0.)){
          minval = pow(10, -1. * (newset[ZPEAK].getPrecision()+1)); 
          if((val>0.)&&(val < minval)) newset[ZPEAK].upPrec();
        }
        tempwidth = int( log10(val) + 1) + newset[ZPEAK].getPrecision() + 2;
        for(int i=newset[ZPEAK].getWidth();i<tempwidth;i++) newset[ZPEAK].widen();
      }

      return newset;

    }

    std::vector<Col> getLogColSet(std::vector<Detection> &objectList, 
                                  FitsHeader &head)
    {
      /**
       *  A function that returns a std::vector of Col objects containing
       *    information on the columns necessary for logfile output:
       *    Obj#,X,Y,Z,F_tot,F_peak,X1,X2,Y1,Y2,Z1,Z2,Npix
       *
       *   Each object in the provided objectList is checked to see if 
       *    it requires any column to be widened, or for that column to
       *    have its precision increased.
       *
       * \param objectList A std::vector list of Detection objects that the columns need to fit.
       * \param head The FitsHeader object defining the World Coordinate System.
       * \return A std::vector list of Col definitions.
       */

      std::vector<Col> newset,tempset;
  
      // set up the default columns:
      //  get from FullColSet, and select only the ones we want.
      tempset = getFullColSet(objectList,head);

      newset.push_back( tempset[NUM] );
      newset.push_back( tempset[X] );
      newset.push_back( tempset[Y] );
      newset.push_back( tempset[Z] );
      newset.push_back( tempset[FTOT] );
      newset.push_back( tempset[FPEAK] );
      newset.push_back( tempset[SNRPEAK] );
      newset.push_back( tempset[X1] );
      newset.push_back( tempset[X2] );
      newset.push_back( tempset[Y1] );
      newset.push_back( tempset[Y2] );
      newset.push_back( tempset[Z1] );
      newset.push_back( tempset[Z2] );
      newset.push_back( tempset[NPIX] );

      return newset;

    }

  }

}