source: XIOS/dev/dev_olga/src/node/domain.cpp @ 1025

#include "domain.hpp"

#include "attribute_template.hpp"
#include "object_template.hpp"
#include "group_template.hpp"

#include "xios_spl.hpp"
#include "event_client.hpp"
#include "event_server.hpp"
#include "buffer_in.hpp"
#include "message.hpp"
#include "type.hpp"
#include "context.hpp"
#include "context_client.hpp"
#include "context_server.hpp"
#include "array_new.hpp"
#include "distribution_client.hpp"
#include "server_distribution_description.hpp"
#include "client_server_mapping_distributed.hpp"
#include "zoom_domain.hpp"
#include "interpolate_domain.hpp"
#include "generate_rectilinear_domain.hpp"

#include <algorithm>

namespace xios {

   /// ////////////////////// Définitions ////////////////////// ///

   CDomain::CDomain(void)
      : CObjectTemplate<CDomain>(), CDomainAttributes()
      , isChecked(false), relFiles(), isClientChecked(false), nbConnectedClients_(), indSrv_(), connectedServerRank_()
      , hasBounds(false), hasArea(false), isDistributed_(false), isCompressible_(false), isUnstructed_(false)
      , isClientAfterTransformationChecked(false), hasLonLat(false)
      , isRedistributed_(false), hasPole(false)
   {
   }

   CDomain::CDomain(const StdString & id)
      : CObjectTemplate<CDomain>(id), CDomainAttributes()
      , isChecked(false), relFiles(), isClientChecked(false), nbConnectedClients_(), indSrv_(), connectedServerRank_()
      , hasBounds(false), hasArea(false), isDistributed_(false), isCompressible_(false), isUnstructed_(false)
      , isClientAfterTransformationChecked(false), hasLonLat(false)
      , isRedistributed_(false), hasPole(false)
   {
         }

   CDomain::~CDomain(void)
   {
   }

   ///---------------------------------------------------------------

   void CDomain::assignMesh(const StdString meshName, const int nvertex)
   {
     mesh = CMesh::getMesh(meshName, nvertex);
   }

   CDomain* CDomain::createDomain()
   {
     CDomain* domain = CDomainGroup::get("domain_definition")->createChild();
     return domain;
   }

   std::map<StdString, ETranformationType> CDomain::transformationMapList_ = std::map<StdString, ETranformationType>();
   bool CDomain::_dummyTransformationMapList = CDomain::initializeTransformationMap(CDomain::transformationMapList_);

   bool CDomain::initializeTransformationMap(std::map<StdString, ETranformationType>& m)
   {
     m["zoom_domain"] = TRANS_ZOOM_DOMAIN;
     m["interpolate_domain"] = TRANS_INTERPOLATE_DOMAIN;
     m["generate_rectilinear_domain"] = TRANS_GENERATE_RECTILINEAR_DOMAIN;
     m["compute_connectivity_domain"] = TRANS_COMPUTE_CONNECTIVITY_DOMAIN;
     m["expand_domain"] = TRANS_EXPAND_DOMAIN;
   }

   const std::set<StdString> & CDomain::getRelFiles(void) const
   {
      return (this->relFiles);
   }


   const std::vector<int>& CDomain::getIndexesToWrite(void) const
   {
     return indexesToWrite;
   }

   /*!
     Returns the number of indexes written by each server.
     \return the number of indexes written by each server
   */
   int CDomain::getNumberWrittenIndexes() const
   {
     return numberWrittenIndexes_;
   }

   /*!
     Returns the total number of indexes written by the servers.
     \return the total number of indexes written by the servers
   */
   int CDomain::getTotalNumberWrittenIndexes() const
   {
     return totalNumberWrittenIndexes_;
   }

   /*!
     Returns the offset of indexes written by each server.
     \return the offset of indexes written by each server
   */
   int CDomain::getOffsetWrittenIndexes() const
   {
     return offsetWrittenIndexes_;
   }

   /*!
     Returns the start of indexes written by each server.
     \return the start of indexes written by each server
   */
   const std::vector<int>& CDomain::getStartWriteIndex() const
   {
     return start_write_index_;
   }

   /*!
     Returns the count of indexes written by each server.
     \return the count of indexes written by each server
   */
   const std::vector<int>& CDomain::getCountWriteIndex() const
   {
     return count_write_index_;
   }

   /*!
     Returns the local data written by each server.     
   */
   const std::vector<int>& CDomain::getLocalWriteSize() const
   {
     return local_write_size_;
   }

   /*!
     Returns the global data written by all server.     
   */
   const std::vector<int>& CDomain::getGlobalWriteSize() const
   {
     return global_write_size_;
   }

   //----------------------------------------------------------------

   /*!
    * Compute the minimum buffer size required to send the attributes to the server(s).
    *
    * \return A map associating the server rank with its minimum buffer size.
    */
   std::map<int, StdSize> CDomain::getAttributesBufferSize()
   {
     CContextClient* client = CContext::getCurrent()->client;

     std::map<int, StdSize> attributesSizes = getMinimumBufferSizeForAttributes();

     if (client->isServerLeader())
     {
       // size estimation for sendDistributionAttribut
       size_t size = 11 * sizeof(size_t);

       const std::list<int>& ranks = client->getRanksServerLeader();
       for (std::list<int>::const_iterator itRank = ranks.begin(), itRankEnd = ranks.end(); itRank != itRankEnd; ++itRank)
       {
         if (size > attributesSizes[*itRank])
           attributesSizes[*itRank] = size;
       }
     }

     boost::unordered_map<int, vector<size_t> >::const_iterator itIndexEnd = indSrv_.end();
     std::map<int, std::vector<int> >::const_iterator itWrittenIndexEnd = indWrittenSrv_.end();
     for (size_t k = 0; k < connectedServerRank_.size(); ++k)
     {
       int rank = connectedServerRank_[k];
       boost::unordered_map<int, std::vector<size_t> >::const_iterator it = indSrv_.find(rank);
       size_t idxCount = (it != itIndexEnd) ? it->second.size() : 0;

       // size estimation for sendIndex (and sendArea which is always smaller or equal)
       size_t sizeIndexEvent = 2 * sizeof(size_t) + 2 * CArray<int,1>::size(idxCount);
       if (isCompressible_)
       {
         std::map<int, std::vector<int> >::const_iterator itWritten = indWrittenSrv_.find(rank);
         size_t writtenIdxCount = (itWritten != itWrittenIndexEnd) ? itWritten->second.size() : 0;
         sizeIndexEvent += CArray<int,1>::size(writtenIdxCount);
       }

       // size estimation for sendLonLat
       size_t sizeLonLatEvent = CArray<double,1>::size(idxCount);
       if (hasBounds)
         sizeLonLatEvent += CArray<double,2>::size(nvertex * idxCount);

       size_t size = CEventClient::headerSize + getId().size() + sizeof(size_t) + std::max(sizeIndexEvent, sizeLonLatEvent);
       if (size > attributesSizes[rank])
         attributesSizes[rank] = size;
     }

     return attributesSizes;
   }

   //----------------------------------------------------------------

   bool CDomain::isEmpty(void) const
   {
      return ((this->zoom_i_index.isEmpty()) || (0 == this->zoom_i_index.numElements()));
      // return ((this->zoom_ni_srv == 0) ||
      //         (this->zoom_nj_srv == 0));
   }

   //----------------------------------------------------------------

   bool CDomain::IsWritten(const StdString & filename) const
   {
      return (this->relFiles.find(filename) != this->relFiles.end());
   }

   bool CDomain::isWrittenCompressed(const StdString& filename) const
   {
      return (this->relFilesCompressed.find(filename) != this->relFilesCompressed.end());
   }

   //----------------------------------------------------------------

   bool CDomain::isDistributed(void) const
   {
      return isDistributed_;
   }

   //----------------------------------------------------------------

   /*!
    * Test whether the data defined on the domain can be outputted in a compressed way.
    *
    * \return true if and only if a mask was defined for this domain
    */
   bool CDomain::isCompressible(void) const
   {
      return isCompressible_;
   }

   void CDomain::addRelFile(const StdString & filename)
   {
      this->relFiles.insert(filename);
   }

   void CDomain::addRelFileCompressed(const StdString& filename)
   {
      this->relFilesCompressed.insert(filename);
   }

   StdString CDomain::GetName(void)   { return (StdString("domain")); }
   StdString CDomain::GetDefName(void){ return (CDomain::GetName()); }
   ENodeType CDomain::GetType(void)   { return (eDomain); }

   //----------------------------------------------------------------

   /*!
     Redistribute RECTILINEAR domain with a number of local domains.
   All attributes ni,nj,ibegin,jbegin (if defined) will be rewritten
   The optional attributes lonvalue, latvalue will be added. Because this function only serves (for now)
   for interpolation from unstructured domain to rectilinear one, range of latvalue is 0-360 and lonvalue is -90 - +90
    \param [in] nbLocalDomain number of local domain on the domain destination
   */
   void CDomain::redistribute(int nbLocalDomain)
   {
     if (this->isRedistributed_) return;

     this->isRedistributed_ = true;
     CContext* context = CContext::getCurrent();
     CContextClient* client = context->client;
     int rankClient = client->clientRank;
     int rankOnDomain = rankClient%nbLocalDomain;

     if (ni_glo.isEmpty() || ni_glo <= 0 )
     {
        ERROR("CDomain::redistribute(int nbLocalDomain)",
           << "[ Id = " << this->getId() << " ] "
           << "The global domain is badly defined,"
           << " check the \'ni_glo\'  value !")
     }

     if (nj_glo.isEmpty() || nj_glo <= 0 )
     {
        ERROR("CDomain::redistribute(int nbLocalDomain)",
           << "[ Id = " << this->getId() << " ] "
           << "The global domain is badly defined,"
           << " check the \'nj_glo\'  value !")
     }

     if ((type_attr::rectilinear == type)  || (type_attr::curvilinear == type))
     {
        int globalDomainSize = ni_glo * nj_glo;
        if (globalDomainSize <= nbLocalDomain)
        {
          for (int idx = 0; idx < nbLocalDomain; ++idx)
          {
            if (rankOnDomain < globalDomainSize)
            {
              int iIdx = rankOnDomain % ni_glo;
              int jIdx = rankOnDomain / ni_glo;
              ibegin.setValue(iIdx); jbegin.setValue(jIdx);
              ni.setValue(1); nj.setValue(1);
            }
            else
            {
              ibegin.setValue(0); jbegin.setValue(0);
              ni.setValue(0); nj.setValue(0);
            }
          }
        }
        else
        {
          float njGlo = nj_glo.getValue();
          float niGlo = ni_glo.getValue();
          int nbProcOnX, nbProcOnY, range;

          // Compute (approximately) number of segment on x and y axis
          float yOverXRatio = njGlo/niGlo;

          nbProcOnX = std::ceil(std::sqrt(nbLocalDomain/yOverXRatio));
          nbProcOnY = std::ceil(((float)nbLocalDomain)/nbProcOnX);

          // Simple distribution: Sweep from top to bottom, left to right
          // Calculate local begin on x
          std::vector<int> ibeginVec(nbProcOnX,0), jbeginVec(nbProcOnY,0);
          std::vector<int> niVec(nbProcOnX), njVec(nbProcOnY);
          for (int i = 1; i < nbProcOnX; ++i)
          {
            range = ni_glo / nbProcOnX;
            if (i < (ni_glo%nbProcOnX)) ++range;
            niVec[i-1] = range;
            ibeginVec[i] = ibeginVec[i-1] + niVec[i-1];
          }
          niVec[nbProcOnX-1] = ni_glo - ibeginVec[nbProcOnX-1];

          // Calculate local begin on y
          for (int j = 1; j < nbProcOnY; ++j)
          {
            range = nj_glo / nbProcOnY;
            if (j < (nj_glo%nbProcOnY)) ++range;
            njVec[j-1] = range;
            jbeginVec[j] = jbeginVec[j-1] + njVec[j-1];
          }
          njVec[nbProcOnY-1] = nj_glo - jbeginVec[nbProcOnY-1];

          // Now assign value to ni, ibegin, nj, jbegin
          int iIdx = rankOnDomain % nbProcOnX;
          int jIdx = rankOnDomain / nbProcOnX;

          if (rankOnDomain != (nbLocalDomain-1))
          {
            ibegin.setValue(ibeginVec[iIdx]);
            jbegin.setValue(jbeginVec[jIdx]);
            nj.setValue(njVec[jIdx]);
            ni.setValue(niVec[iIdx]);
          }
          else // just merge all the remaining rectangle into the last one
          {
            ibegin.setValue(ibeginVec[iIdx]);
            jbegin.setValue(jbeginVec[jIdx]);
            nj.setValue(njVec[jIdx]);
            ni.setValue(ni_glo - ibeginVec[iIdx]);
          }
        }

        // Now fill other attributes
        if (type_attr::rectilinear == type) fillInRectilinearLonLat();
     }
     else  // unstructured domain
     {
       if (this->i_index.isEmpty())
       {
          int globalDomainSize = ni_glo * nj_glo;
          if (globalDomainSize <= nbLocalDomain)
          {
            for (int idx = 0; idx < nbLocalDomain; ++idx)
            {
              if (rankOnDomain < globalDomainSize)
              {
                int iIdx = rankOnDomain % ni_glo;
                int jIdx = rankOnDomain / ni_glo;
                ibegin.setValue(iIdx); jbegin.setValue(jIdx);
                ni.setValue(1); nj.setValue(1);
              }
              else
              {
                ibegin.setValue(0); jbegin.setValue(0);
                ni.setValue(0); nj.setValue(0);
              }
            }
          }
          else
          {
            float njGlo = nj_glo.getValue();
            float niGlo = ni_glo.getValue();
            std::vector<int> ibeginVec(nbLocalDomain,0);
            std::vector<int> niVec(nbLocalDomain);
            for (int i = 1; i < nbLocalDomain; ++i)
            {
              int range = ni_glo / nbLocalDomain;
              if (i < (ni_glo%nbLocalDomain)) ++range;
              niVec[i-1] = range;
              ibeginVec[i] = ibeginVec[i-1] + niVec[i-1];
            }
            niVec[nbLocalDomain-1] = ni_glo - ibeginVec[nbLocalDomain-1];

            int iIdx = rankOnDomain % nbLocalDomain;
            ibegin.setValue(ibeginVec[iIdx]);
            jbegin.setValue(0);
            ni.setValue(niVec[iIdx]);
            nj.setValue(1);
          }
        }
        else
        {
          ibegin.setValue(this->i_index(0));
          jbegin.setValue(0);
          ni.setValue(this->i_index.numElements());
          nj.setValue(1);
        }
     }

     checkDomain();
   }

   /*!
     Fill in the values for lonvalue_1d and latvalue_1d of rectilinear domain
     Range of longitude value from 0 - 360
     Range of latitude value from -90 - +90
   */
   void CDomain::fillInRectilinearLonLat()
   {
     if (!lonvalue_rectilinear_read_from_file.isEmpty())
     {
       lonvalue_1d.resize(ni);
       for (int idx = 0; idx < ni; ++idx)
         lonvalue_1d(idx) = lonvalue_rectilinear_read_from_file(idx+ibegin);
       lon_start.setValue(lonvalue_rectilinear_read_from_file(0));
       lon_end.setValue(lonvalue_rectilinear_read_from_file(ni_glo-1));
     }
     else
     {
       if (!lonvalue_2d.isEmpty()) lonvalue_2d.free();
       lonvalue_1d.resize(ni);
       double lonRange = lon_end - lon_start;
       double lonStep = (1 == ni_glo.getValue()) ? lonRange : lonRange/double(ni_glo.getValue()-1);

        // Assign lon value
       for (int i = 0; i < ni; ++i)
       {
         if (0 == (ibegin + i))
         {
           lonvalue_1d(i) = lon_start;
         }
         else if (ni_glo == (ibegin + i + 1))
         {
           lonvalue_1d(i) = lon_end;
         }
         else
         {
           lonvalue_1d(i) = (ibegin + i) * lonStep  + lon_start;
         }
       }
     }


     if (!latvalue_rectilinear_read_from_file.isEmpty())
     {
       latvalue_1d.resize(nj);
       for (int idx = 0; idx < nj; ++idx)
         latvalue_1d(idx) = latvalue_rectilinear_read_from_file(idx+jbegin);
       lat_start.setValue(latvalue_rectilinear_read_from_file(0));
       lat_end.setValue(latvalue_rectilinear_read_from_file(nj_glo-1));
     }
     else
     {
       if (!latvalue_2d.isEmpty()) latvalue_1d.free();
       latvalue_1d.resize(nj);

       double latRange = lat_end - lat_start;
       double latStep = (1 == nj_glo.getValue()) ? latRange : latRange/double(nj_glo.getValue()-1);

       for (int j = 0; j < nj; ++j)
       {
         if (0 == (jbegin + j))
         {
            latvalue_1d(j) = lat_start;
         }
         else if (nj_glo == (jbegin + j + 1))
         {
            latvalue_1d(j) = lat_end;
         }
         else
         {
           latvalue_1d(j) =  (jbegin + j) * latStep + lat_start;
         }
       }
     }
   }



   void CDomain::AllgatherRectilinearLonLat(CArray<double,1>& lon, CArray<double,1>& lat, CArray<double,1>& lon_g, CArray<double,1>& lat_g)
   {
          CContext* context = CContext::getCurrent();
      CContextClient* client = context->client;
          lon_g.resize(ni_glo) ;
          lat_g.resize(nj_glo) ;


          int* ibegin_g = new int[client->clientSize] ;
          int* jbegin_g = new int[client->clientSize] ;
          int* ni_g = new int[client->clientSize] ;
          int* nj_g = new int[client->clientSize] ;
          int v ;
          v=ibegin ;
          MPI_Allgather(&v,1,MPI_INT,ibegin_g,1,MPI_INT,client->intraComm) ;
          v=jbegin ;
          MPI_Allgather(&v,1,MPI_INT,jbegin_g,1,MPI_INT,client->intraComm) ;
          v=ni ;
          MPI_Allgather(&v,1,MPI_INT,ni_g,1,MPI_INT,client->intraComm) ;
          v=nj ;
          MPI_Allgather(&v,1,MPI_INT,nj_g,1,MPI_INT,client->intraComm) ;

          MPI_Allgatherv(lon.dataFirst(),ni,MPI_DOUBLE,lon_g.dataFirst(),ni_g, ibegin_g,MPI_DOUBLE,client->intraComm) ;
          MPI_Allgatherv(lat.dataFirst(),nj,MPI_DOUBLE,lat_g.dataFirst(),nj_g, jbegin_g,MPI_DOUBLE,client->intraComm) ;

      delete[] ibegin_g ;
      delete[] jbegin_g ;
      delete[] ni_g ;
      delete[] nj_g ;
   }

   void CDomain::fillInRectilinearBoundLonLat(CArray<double,1>& lon, CArray<double,1>& lat,
                                              CArray<double,2>& boundsLon, CArray<double,2>& boundsLat)
   {
     int i,j,k;

     const int nvertexValue = 4;
     boundsLon.resize(nvertexValue,ni*nj);

     if (ni_glo>1)
     {
       double lonStepStart = lon(1)-lon(0);
       bounds_lon_start=lon(0) - lonStepStart/2;
       double lonStepEnd = lon(ni_glo-1)-lon(ni_glo-2);
       bounds_lon_end=lon(ni_glo-1) + lonStepEnd/2;
       double errorBoundsLon = std::abs(360-std::abs(bounds_lon_end-bounds_lon_start));

       // if errorBoundsLon is reasonably small (0.1 x cell size) consider it as closed in longitude
       if (errorBoundsLon < std::abs(lonStepStart)*1e-1 || errorBoundsLon < std::abs(lonStepEnd)*1e-1 )
       {
         bounds_lon_start= (lon(0) + lon(ni_glo-1)-360)/2 ;
         bounds_lon_end= (lon(0) +360 + lon(ni_glo-1))/2 ;
       }
     }
     else
     {
       if (bounds_lon_start.isEmpty()) bounds_lon_start=-180. ;
       if (bounds_lon_end.isEmpty()) bounds_lon_end=180.-1e-8 ;
     }

     for(j=0;j<nj;++j)
       for(i=0;i<ni;++i)
       {
         k=j*ni+i;
         boundsLon(0,k) = boundsLon(1,k) = (0 == (ibegin + i)) ? bounds_lon_start
                                                               : (lon(ibegin + i)+lon(ibegin + i-1))/2;
         boundsLon(2,k) = boundsLon(3,k) = ((ibegin + i + 1) == ni_glo) ? bounds_lon_end
                                                                        : (lon(ibegin + i + 1)+lon(ibegin + i))/2;
       }


    boundsLat.resize(nvertexValue,nj*ni);
    bool isNorthPole=false ;
    bool isSouthPole=false ;
    if (std::abs(90 - std::abs(lat(0))) < NumTraits<double>::epsilon()) isNorthPole = true;
    if (std::abs(90 - std::abs(lat(nj_glo-1))) < NumTraits<double>::epsilon()) isSouthPole = true;

    // lat boundaries beyond pole the assimilate it to pole
    // lat boundarie is relativelly close to pole (0.1 x cell size) assimilate it to pole
    if (nj_glo>1)
    {
      double latStepStart = lat(1)-lat(0);
      if (isNorthPole) bounds_lat_start=lat(0);
      else
      {
        bounds_lat_start=lat(0)-latStepStart/2;
        if (bounds_lat_start >= 90 ) bounds_lat_start=90 ;
        else if (bounds_lat_start <= -90 ) bounds_lat_start=-90 ;
        else if (bounds_lat_start <= 90 && bounds_lat_start >= lat(0))
        {
          if ( std::abs(90-bounds_lat_start) <= 0.1*std::abs(latStepStart)) bounds_lat_start=90 ;
        }
        else if (bounds_lat_start >= -90 && bounds_lat_start <= lat(0))
        {
          if ( std::abs(-90 - bounds_lat_start) <= 0.1*std::abs(latStepStart)) bounds_lat_start=-90 ;
        }
      }

      double latStepEnd = lat(nj_glo-1)-lat(nj_glo-2);
      if (isSouthPole) bounds_lat_end=lat(nj_glo-1);
      else
      {
        bounds_lat_end=lat(nj_glo-1)+latStepEnd/2;

        if (bounds_lat_end >= 90 ) bounds_lat_end=90 ;
        else if (bounds_lat_end <= -90 ) bounds_lat_end=-90 ;
        else if (bounds_lat_end <= 90 && bounds_lat_end >= lat(nj_glo-1))
        {
          if ( std::abs(90-bounds_lat_end) <= 0.1*std::abs(latStepEnd)) bounds_lat_end=90 ;
        }
        else if (bounds_lat_end >= -90 && bounds_lat_end <= lat(nj_glo-1))
        {
          if ( std::abs(-90 - bounds_lat_end) <= 0.1*std::abs(latStepEnd)) bounds_lat_end=-90 ;
        }
      }
    }
    else
    {
      if (bounds_lat_start.isEmpty()) bounds_lon_start=-90. ;
      if (bounds_lat_end.isEmpty()) bounds_lat_end=90 ;
    }

    for(j=0;j<nj;++j)
      for(i=0;i<ni;++i)
      {
        k=j*ni+i;
        boundsLat(1,k) = boundsLat(2,k) = (0 == (jbegin + j)) ? bounds_lat_start
                                                              : (lat(jbegin + j)+lat(jbegin + j-1))/2;
        boundsLat(0,k) = boundsLat(3,k) = ((jbegin + j +1) == nj_glo) ? bounds_lat_end
                                                                      : (lat(jbegin + j + 1)+lat(jbegin + j))/2;
      }
   }

   void CDomain::checkDomain(void)
   {
     if (type.isEmpty())
     {
       ERROR("CDomain::checkDomain(void)",
             << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
             << "The domain type is mandatory, "
             << "please define the 'type' attribute.")
     }

     if (type == type_attr::gaussian) 
     {
           hasPole=true ;
             type.setValue(type_attr::unstructured) ;
           }
           else if (type == type_attr::rectilinear) hasPole=true ;
         
     if (type == type_attr::unstructured)
     {
        if (ni_glo.isEmpty())
        {
          ERROR("CDomain::checkDomain(void)",
                << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                << "The global domain is badly defined, "
                << "the mandatory 'ni_glo' attribute is missing.")
        }
        else if (ni_glo <= 0)
        {
          ERROR("CDomain::checkDomain(void)",
                << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                << "The global domain is badly defined, "
                << "'ni_glo' attribute should be strictly positive so 'ni_glo = " << ni_glo.getValue() << "' is invalid.")
        }
        isUnstructed_ = true;
        nj_glo = 1;
        nj = 1;
        jbegin = 0;
        if (!i_index.isEmpty()) ni = i_index.numElements();
        j_index.resize(ni);
        for(int i=0;i<ni;++i) j_index(i)=0;

        if (!area.isEmpty())
          area.transposeSelf(1, 0);
     }

     if (ni_glo.isEmpty())
     {
       ERROR("CDomain::checkDomain(void)",
             << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
             << "The global domain is badly defined, "
             << "the mandatory 'ni_glo' attribute is missing.")
     }
     else if (ni_glo <= 0)
     {
       ERROR("CDomain::checkDomain(void)",
             << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
             << "The global domain is badly defined, "
             << "'ni_glo' attribute should be strictly positive so 'ni_glo = " << ni_glo.getValue() << "' is invalid.")
     }

     if (nj_glo.isEmpty())
     {
       ERROR("CDomain::checkDomain(void)",
             << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
             << "The global domain is badly defined, "
             << "the mandatory 'nj_glo' attribute is missing.")
     }
     else if (nj_glo <= 0)
     {
       ERROR("CDomain::checkDomain(void)",
             << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
             << "The global domain is badly defined, "
             << "'nj_glo' attribute should be strictly positive so 'nj_glo = " << nj_glo.getValue() << "' is invalid.")
     }

     checkLocalIDomain();
     checkLocalJDomain();

     if (i_index.isEmpty())
     {
       i_index.resize(ni*nj);
       for (int j = 0; j < nj; ++j)
         for (int i = 0; i < ni; ++i) i_index(i+j*ni) = i+ibegin;
     }

     if (j_index.isEmpty())
     {
       j_index.resize(ni*nj);
       for (int j = 0; j < nj; ++j)
         for (int i = 0; i < ni; ++i) j_index(i+j*ni) = j+jbegin;
     }     
     checkZoom();

     isDistributed_ = !((!ni.isEmpty() && (ni == ni_glo) && !nj.isEmpty() && (nj == nj_glo)) ||
                        (!i_index.isEmpty() && i_index.numElements() == ni_glo*nj_glo));
   }

   // Check global zoom of a domain
   // If there is no zoom defined for the domain, zoom will have value of global doamin
   void CDomain::checkZoom(void)
   {
     if (global_zoom_ibegin.isEmpty())
      global_zoom_ibegin.setValue(0);
     if (global_zoom_ni.isEmpty())
      global_zoom_ni.setValue(ni_glo);
     if (global_zoom_jbegin.isEmpty())
      global_zoom_jbegin.setValue(0);
     if (global_zoom_nj.isEmpty())
      global_zoom_nj.setValue(nj_glo);
    if (zoom_i_index.isEmpty()) zoom_i_index.setValue(i_index.getValue());
    if (zoom_j_index.isEmpty()) zoom_j_index.setValue(j_index.getValue());
   }

   //----------------------------------------------------------------

   // Check validity of local domain on using the combination of 3 parameters: ibegin, ni and i_index
   void CDomain::checkLocalIDomain(void)
   {
      // If ibegin and ni are provided then we use them to check the validity of local domain
      if (i_index.isEmpty() && !ibegin.isEmpty() && !ni.isEmpty())
      {
        if ((ni.getValue() < 0 || ibegin.getValue() < 0) || ((ibegin.getValue() + ni.getValue()) > ni_glo.getValue()))
        {
          ERROR("CDomain::checkLocalIDomain(void)",
                << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                << "The local domain is wrongly defined,"
                << " check the attributes 'ni_glo' (" << ni_glo.getValue() << "), 'ni' (" << ni.getValue() << ") and 'ibegin' (" << ibegin.getValue() << ")");
        }
      }

      // i_index has higher priority than ibegin and ni
      if (!i_index.isEmpty())
      {
        int minIIndex = (0 < i_index.numElements()) ? i_index(0) : 0;
        if (ni.isEmpty()) 
        {          
         // No information about ni
          int minIndex = ni_glo - 1;
          int maxIndex = 0;
          for (int idx = 0; idx < i_index.numElements(); ++idx)
          {
            if (i_index(idx) < minIndex) minIndex = i_index(idx);
            if (i_index(idx) > maxIndex) maxIndex = i_index(idx);
          }
          ni = maxIndex - minIndex + 1; 
          minIIndex = minIIndex;          
        }

        // It's not so correct but if ibegin is not the first value of i_index 
        // then data on local domain has user-defined distribution. In this case, ibegin, ni have no meaning.
        if (ibegin.isEmpty()) ibegin = minIIndex;
      }
      else if (ibegin.isEmpty() && ni.isEmpty())
      {
        ibegin = 0;
        ni = ni_glo;
      }
      else if ((!ibegin.isEmpty() && ni.isEmpty()) || (ibegin.isEmpty() && !ni.isEmpty()))
      {
        ERROR("CDomain::checkLocalIDomain(void)",
              << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
              << "The local domain is wrongly defined," << endl
              << "i_index is empty and either 'ni' or 'ibegin' is not defined. " 
              << "If 'ni' and 'ibegin' are used to define a domain, both of them must not be empty.");
      }
       

      if ((ni.getValue() < 0 || ibegin.getValue() < 0))
      {
        ERROR("CDomain::checkLocalIDomain(void)",
              << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
              << "The local domain is wrongly defined,"
              << " check the attributes 'ni_glo' (" << ni_glo.getValue() << "), 'ni' (" << ni.getValue() << ") and 'ibegin' (" << ibegin.getValue() << ")");
      }
   }

   // Check validity of local domain on using the combination of 3 parameters: jbegin, nj and j_index
   void CDomain::checkLocalJDomain(void)
   {
    // If jbegin and nj are provided then we use them to check the validity of local domain
     if (j_index.isEmpty() && !jbegin.isEmpty() && !nj.isEmpty())
     {
       if ((nj.getValue() < 0 || jbegin.getValue() < 0) || (jbegin.getValue() + nj.getValue()) > nj_glo.getValue())
       {
         ERROR("CDomain::checkLocalJDomain(void)",
                << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                << "The local domain is wrongly defined,"
                << " check the attributes 'nj_glo' (" << nj_glo.getValue() << "), 'nj' (" << nj.getValue() << ") and 'jbegin' (" << jbegin.getValue() << ")");
       }
     }

     if (!j_index.isEmpty())
     {
        int minJIndex = (0 < j_index.numElements()) ? j_index(0) : 0;
        if (nj.isEmpty()) 
        {
          // No information about nj
          int minIndex = nj_glo - 1;
          int maxIndex = 0;
          for (int idx = 0; idx < j_index.numElements(); ++idx)
          {
            if (j_index(idx) < minIndex) minIndex = j_index(idx);
            if (j_index(idx) > maxIndex) maxIndex = j_index(idx);
          }
          nj = maxIndex - minIndex + 1;
          minJIndex = minIndex; 
        }  
        // It's the same as checkLocalIDomain. It's not so correct but if jbegin is not the first value of j_index 
        // then data on local domain has user-defined distribution. In this case, jbegin has no meaning.
       if (jbegin.isEmpty()) jbegin = minJIndex;       
     }
     else if (jbegin.isEmpty() && nj.isEmpty())
     {
       jbegin = 0;
       nj = nj_glo;
     }      


     if ((nj.getValue() < 0 || jbegin.getValue() < 0))
     {
       ERROR("CDomain::checkLocalJDomain(void)",
              << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
              << "The local domain is wrongly defined,"
              << " check the attributes 'nj_glo' (" << nj_glo.getValue() << "), 'nj' (" << nj.getValue() << ") and 'jbegin' (" << jbegin.getValue() << ")");
     }
   }

   //----------------------------------------------------------------

   void CDomain::checkMask(void)
   {
      if (!mask_1d.isEmpty() && !mask_2d.isEmpty())
        ERROR("CDomain::checkMask(void)",
              << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
              << "Both mask_1d and mask_2d are defined but only one can be used at the same time." << std::endl
              << "Please define only one mask: 'mask_1d' or 'mask_2d'.");

      if (!mask_1d.isEmpty() && mask_2d.isEmpty())
      {
        if (mask_1d.numElements() != i_index.numElements())
          ERROR("CDomain::checkMask(void)",
                << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                << "'mask_1d' does not have the same size as the local domain." << std::endl
                << "Local size is " << i_index.numElements() << "." << std::endl
                << "Mask size is " << mask_1d.numElements() << ".");
      }

      if (mask_1d.isEmpty() && !mask_2d.isEmpty())
      {
        if (mask_2d.extent(0) != ni || mask_2d.extent(1) != nj)
          ERROR("CDomain::checkMask(void)",
                << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                << "The mask does not have the same size as the local domain." << std::endl
                << "Local size is " << ni.getValue() << " x " << nj.getValue() << "." << std::endl
                << "Mask size is " << mask_2d.extent(0) << " x " << mask_2d.extent(1) << ".");
      }

      if (!mask_2d.isEmpty())
      {
        mask_1d.resize(mask_2d.extent(0) * mask_2d.extent(1));
        for (int j = 0; j < nj; ++j)
          for (int i = 0; i < ni; ++i) mask_1d(i+j*ni) = mask_2d(i,j);
        mask_2d.reset();
      }
      else if (mask_1d.isEmpty())
      {
        mask_1d.resize(i_index.numElements());
        for (int i = 0; i < i_index.numElements(); ++i) mask_1d(i) = true;
      }
   }

   //----------------------------------------------------------------

   void CDomain::checkDomainData(void)
   {
      if (data_dim.isEmpty())
      {
        data_dim.setValue(1);
      }
      else if (!(data_dim.getValue() == 1 || data_dim.getValue() == 2))
      {
        ERROR("CDomain::checkDomainData(void)",
              << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
              << "The data dimension is invalid, 'data_dim' must be 1 or 2 not << " << data_dim.getValue() << ".");
      }

      if (data_ibegin.isEmpty())
         data_ibegin.setValue(0);
      if (data_jbegin.isEmpty())
         data_jbegin.setValue(0);

      if (data_ni.isEmpty())
      {
        data_ni.setValue((data_dim == 1) ? (ni.getValue() * nj.getValue()) : ni.getValue());
      }
      else if (data_ni.getValue() < 0)
      {
        ERROR("CDomain::checkDomainData(void)",
              << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
              << "The data size cannot be negative ('data_ni' = " << data_ni.getValue() << ").");
      }

      if (data_nj.isEmpty())
      {
        data_nj.setValue((data_dim.getValue() == 1) ? (ni.getValue() * nj.getValue()) : nj.getValue());
      }
      else if (data_nj.getValue() < 0)
      {
        ERROR("CDomain::checkDomainData(void)",
              << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
              << "The data size cannot be negative ('data_nj' = " << data_nj.getValue() << ").");
      }
   }

   //----------------------------------------------------------------

   void CDomain::checkCompression(void)
   {
      if (!data_i_index.isEmpty())
      {
        if (!data_j_index.isEmpty() &&
            data_j_index.numElements() != data_i_index.numElements())
        {
           ERROR("CDomain::checkCompression(void)",
                 << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                 << "'data_i_index' and 'data_j_index' arrays must have the same size." << std::endl
                 << "'data_i_index' size = " << data_i_index.numElements() << std::endl
                 << "'data_j_index' size = " << data_j_index.numElements());
        }

        if (2 == data_dim)
        {
          if (data_j_index.isEmpty())
          {
             ERROR("CDomain::checkCompression(void)",
                   << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                   << "'data_j_index' must be defined when 'data_i_index' is set and 'data_dim' is 2.");
          }
        }
        else // (1 == data_dim)
        {
          if (data_j_index.isEmpty())
          {
            data_j_index.resize(data_ni);
            for (int j = 0; j < data_ni; ++j) data_j_index(j) = 0;
          }
        }
      }
      else
      {
        if (data_dim == 2 && !data_j_index.isEmpty())
          ERROR("CDomain::checkCompression(void)",
                << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                << "'data_i_index' must be defined when 'data_j_index' is set and 'data_dim' is 2.");

        if (1 == data_dim)
        {
          data_i_index.resize(data_ni);
          data_j_index.resize(data_ni);

          for (int i = 0; i < data_ni; ++i)
          {
            data_i_index(i) = i;
            data_j_index(i) = 0;
          }
        }
        else // (data_dim == 2)
        {
          const int dsize = data_ni * data_nj;
          data_i_index.resize(dsize);
          data_j_index.resize(dsize);

          for(int count = 0, j = 0; j < data_nj; ++j)
          {
            for(int i = 0; i < data_ni; ++i, ++count)
            {
              data_i_index(count) = i;
              data_j_index(count) = j;
            }
          }
        }
      }
   }

   //----------------------------------------------------------------
   void CDomain::computeLocalMask(void)
   {
     localMask.resize(ni*nj) ;
     localMask=false ;
     size_t zoom_ibegin= global_zoom_ibegin ;
     size_t zoom_iend= global_zoom_ibegin+global_zoom_ni-1 ;
     size_t zoom_jbegin= global_zoom_jbegin ;
     size_t zoom_jend= global_zoom_jbegin+global_zoom_nj-1 ;


     size_t dn=data_i_index.numElements() ;
     int i,j ;
     size_t k,ind ;

     for(k=0;k<dn;k++)
     {
       if (data_dim==2)
       {
          i=data_i_index(k)+data_ibegin ;
          j=data_j_index(k)+data_jbegin ;
       }
       else
       {
          i=(data_i_index(k)+data_ibegin)%ni ;
          j=(data_i_index(k)+data_ibegin)/ni ;
       }

       if (i>=0 && i<ni && j>=0 && j<nj)
         if (i+ibegin>=zoom_ibegin && i+ibegin<=zoom_iend && j+jbegin>=zoom_jbegin && j+jbegin<=zoom_jend)
         {
           ind=i+ni*j ;
           localMask(ind)=mask_1d(ind) ;
         }
     }
   }

   void CDomain::checkEligibilityForCompressedOutput(void)
   {
     // We don't check if the mask or the indexes are valid here, just if they have been defined at this point.
     isCompressible_ = !mask_1d.isEmpty() || !mask_2d.isEmpty() || !data_i_index.isEmpty();
   }

   //----------------------------------------------------------------

   void CDomain::completeLonLatClient(void)
   {
     if (!lonvalue_2d.isEmpty())
     {
       lonvalue.resize(ni * nj);
       latvalue.resize(ni * nj);
       if (hasBounds)
       {
         bounds_lonvalue.resize(nvertex, ni * nj);
         bounds_latvalue.resize(nvertex, ni * nj);
       }

       for (int j = 0; j < nj; ++j)
       {
         for (int i = 0; i < ni; ++i)
         {
           int k = j * ni + i;

           lonvalue(k) = lonvalue_2d(i,j);
           latvalue(k) = latvalue_2d(i,j);

           if (hasBounds)
           {
             for (int n = 0; n < nvertex; ++n)
             {
               bounds_lonvalue(n,k) = bounds_lon_2d(n,i,j);
               bounds_latvalue(n,k) = bounds_lat_2d(n,i,j);
             }
           }
         }
       }
     }
     else if (!lonvalue_1d.isEmpty())
     {
       if (type_attr::rectilinear == type)
       {
         if (ni == lonvalue_1d.numElements() && nj == latvalue_1d.numElements())
         {
           lonvalue.resize(ni * nj);
           latvalue.resize(ni * nj);
           if (hasBounds)
           {
             bounds_lonvalue.resize(nvertex, ni * nj);
             bounds_latvalue.resize(nvertex, ni * nj);
           }

           for (int j = 0; j < nj; ++j)
           {
             for (int i = 0; i < ni; ++i)
             {
               int k = j * ni + i;

               lonvalue(k) = lonvalue_1d(i);
               latvalue(k) = latvalue_1d(j);

               if (hasBounds)
               {
                 for (int n = 0; n < nvertex; ++n)
                 {
                   bounds_lonvalue(n,k) = bounds_lon_1d(n,i);
                   bounds_latvalue(n,k) = bounds_lat_1d(n,j);
                 }
               }
             }
           }
         }
         else if (i_index.numElements() == lonvalue_1d.numElements() && j_index.numElements() == latvalue_1d.numElements())
         {
           lonvalue.reference(lonvalue_1d);
           latvalue.reference(latvalue_1d);
            if (hasBounds)
           {
             bounds_lonvalue.reference(bounds_lon_1d);
             bounds_latvalue.reference(bounds_lat_1d);
           }
         }
         else
           ERROR("CDomain::completeLonClient(void)",
                 << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                 << "'lonvalue_1d' and 'latvalue_1d' does not have the same size as the local domain." << std::endl
                 << "'lonvalue_1d' size is " << lonvalue_1d.numElements() 
                 << " and 'latvalue_1d' size is " << latvalue_1d.numElements() << std::endl 
                 << " They should be correspondingly " << ni.getValue() << " and "  << nj.getValue() << " or " << std::endl
                 << i_index.numElements() << " and "  << j_index.numElements() << ".");
       }
       else if (type == type_attr::curvilinear || type == type_attr::unstructured)
       {
         lonvalue.reference(lonvalue_1d);
         latvalue.reference(latvalue_1d);
         if (hasBounds)
         {
           bounds_lonvalue.reference(bounds_lon_1d);
           bounds_latvalue.reference(bounds_lat_1d);
         }
       }
     }
   }

   void CDomain::checkBounds(void)
   {
     if (!nvertex.isEmpty() && nvertex > 0)
     {
       if (!bounds_lon_1d.isEmpty() && !bounds_lon_2d.isEmpty())
         ERROR("CDomain::checkBounds(void)",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "Only one longitude boundary attribute can be used but both 'bounds_lon_1d' and 'bounds_lon_2d' are defined." << std::endl
               << "Define only one longitude boundary attribute: 'bounds_lon_1d' or 'bounds_lon_2d'.");

       if (!bounds_lat_1d.isEmpty() && !bounds_lat_2d.isEmpty())
         ERROR("CDomain::checkBounds(void)",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "Only one latitude boundary attribute can be used but both 'bounds_lat_1d' and 'bounds_lat_2d' are defined." << std::endl
               << "Define only one latitude boundary attribute: 'bounds_lat_1d' or 'bounds_lat_2d'.");

       if ((!bounds_lon_1d.isEmpty() && bounds_lat_1d.isEmpty()) || (bounds_lon_1d.isEmpty() && !bounds_lat_1d.isEmpty()))
       {
         ERROR("CDomain::checkBounds(void)",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "Only 'bounds_lon_1d' or 'bounds_lat_1d' is defined." << std::endl
               << "Please define either both attributes or none.");
       }

       if ((!bounds_lon_2d.isEmpty() && bounds_lat_2d.isEmpty()) || (bounds_lon_2d.isEmpty() && !bounds_lat_2d.isEmpty()))
       {
         ERROR("CDomain::checkBounds(void)",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "Only 'bounds_lon_2d' or 'bounds_lat_2d' is defined." << std::endl
               << "Please define either both attributes or none.");
       }

       if (!bounds_lon_1d.isEmpty() && nvertex.getValue() != bounds_lon_1d.extent(0))
         ERROR("CDomain::checkBounds(void)",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "'bounds_lon_1d' dimension is not compatible with 'nvertex'." << std::endl
               << "'bounds_lon_1d' dimension is " << bounds_lon_1d.extent(1)
               << " but nvertex is " << nvertex.getValue() << ".");

       if (!bounds_lon_2d.isEmpty() && nvertex.getValue() != bounds_lon_2d.extent(0))
         ERROR("CDomain::checkBounds(void)",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "'bounds_lon_2d' dimension is not compatible with 'nvertex'." << std::endl
               << "'bounds_lon_2d' dimension is " << bounds_lon_2d.extent(2)
               << " but nvertex is " << nvertex.getValue() << ".");

       if (!bounds_lon_1d.isEmpty() && lonvalue_1d.isEmpty())
         ERROR("CDomain::checkBounds(void)",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "Since 'bounds_lon_1d' is defined, 'lonvalue_1d' must be defined too." << std::endl);

       if (!bounds_lon_2d.isEmpty() && lonvalue_2d.isEmpty())
         ERROR("CDomain::checkBounds(void)",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "Since 'bounds_lon_2d' is defined, 'lonvalue_2d' must be defined too." << std::endl);

       if (!bounds_lat_1d.isEmpty() && nvertex.getValue() != bounds_lat_1d.extent(0))
         ERROR("CDomain::checkBounds(void)",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "'bounds_lat_1d' dimension is not compatible with 'nvertex'." << std::endl
               << "'bounds_lat_1d' dimension is " << bounds_lat_1d.extent(1)
               << " but nvertex is " << nvertex.getValue() << ".");

       if (!bounds_lat_2d.isEmpty() && nvertex.getValue() != bounds_lat_2d.extent(0))
         ERROR("CDomain::checkBounds(void)",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "'bounds_lat_2d' dimension is not compatible with 'nvertex'." << std::endl
               << "'bounds_lat_2d' dimension is " << bounds_lat_2d.extent(2)
               << " but nvertex is " << nvertex.getValue() << ".");

       if (!bounds_lat_1d.isEmpty() && latvalue_1d.isEmpty())
         ERROR("CDomain::checkBounds(void)",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "Since 'bounds_lat_1d' is defined, 'latvalue_1d' must be defined too." << std::endl);

       if (!bounds_lat_2d.isEmpty() && latvalue_2d.isEmpty())
         ERROR("CDomain::checkBounds(void)",
               << "Since 'bounds_lat_2d' is defined, 'latvalue_2d' must be defined too." << std::endl);

       hasBounds = true;
     }
     else
     {
       hasBounds = false;
       nvertex = 0;
     }
   }

   void CDomain::checkArea(void)
   {
     hasArea = !area.isEmpty() || !areavalue.isEmpty();
     if (hasArea)
     {
       if (area.extent(0) != ni || area.extent(1) != nj)
       {
         ERROR("CDomain::checkArea(void)",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "The area does not have the same size as the local domain." << std::endl
               << "Local size is " << ni.getValue() << " x " << nj.getValue() << "." << std::endl
               << "Area size is " << area.extent(0) << " x " << area.extent(1) << ".");
       }
       if (areavalue.isEmpty())
       {
          areavalue.resize(ni*nj);
         for (int j = 0; j < nj; ++j)
         {
           for (int i = 0; i < ni; ++i)
           {
             int k = j * ni + i;
             areavalue(k) = area(i,j);
           }
         }
       }
     }
   }

   void CDomain::checkLonLat()
   {
     hasLonLat = (!latvalue_1d.isEmpty() && !lonvalue_1d.isEmpty()) ||
                 (!latvalue_2d.isEmpty() && !lonvalue_2d.isEmpty());
     if (hasLonLat)
     {
       if (!lonvalue_1d.isEmpty() && !lonvalue_2d.isEmpty())
         ERROR("CDomain::checkLonLat()",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "Only one longitude attribute can be used but both 'lonvalue_1d' and 'lonvalue_2d' are defined." << std::endl
               << "Define only one longitude attribute: 'lonvalue_1d' or 'lonvalue_2d'.");

       if (!lonvalue_1d.isEmpty() && lonvalue_2d.isEmpty())
       {
         if ((type_attr::rectilinear != type) && (lonvalue_1d.numElements() != i_index.numElements()))
           ERROR("CDomain::checkLonLat()",
                 << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                 << "'lonvalue_1d' does not have the same size as the local domain." << std::endl
                 << "Local size is " << i_index.numElements() << "." << std::endl
                 << "'lonvalue_1d' size is " << lonvalue_1d.numElements() << ".");
       }

       if (lonvalue_1d.isEmpty() && !lonvalue_2d.isEmpty())
       {
         if (lonvalue_2d.extent(0) != ni || lonvalue_2d.extent(1) != nj)
           ERROR("CDomain::checkLonLat()",
                 << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                 << "'lonvalue_2d' does not have the same size as the local domain." << std::endl
                 << "Local size is " << ni.getValue() << " x " << nj.getValue() << "." << std::endl
                 << "'lonvalue_2d' size is " << lonvalue_2d.extent(0) << " x " << lonvalue_2d.extent(1) << ".");
       }

       if (!latvalue_1d.isEmpty() && !latvalue_2d.isEmpty())
         ERROR("CDomain::checkLonLat()",
               << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
               << "Only one latitude attribute can be used but both 'latvalue_1d' and 'latvalue_2d' are defined." << std::endl
               << "Define only one latitude attribute: 'latvalue_1d' or 'latvalue_2d'.");

       if (!latvalue_1d.isEmpty() && latvalue_2d.isEmpty())
       {
         if ((type_attr::rectilinear != type) && (latvalue_1d.numElements() != i_index.numElements()))
           ERROR("CDomain::checkLonLat()",
                 << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                 << "'latvalue_1d' does not have the same size as the local domain." << std::endl
                 << "Local size is " << i_index.numElements() << "." << std::endl
                 << "'latvalue_1d' size is " << latvalue_1d.numElements() << ".");
       }

       if (latvalue_1d.isEmpty() && !latvalue_2d.isEmpty())
       {
         if (latvalue_2d.extent(0) != ni || latvalue_2d.extent(1) != nj)
           ERROR("CDomain::checkLonLat()",
                 << "[ id = " << this->getId() << " , context = '" << CObjectFactory::GetCurrentContextId() << " ] "
                 << "'latvalue_2d' does not have the same size as the local domain." << std::endl
                 << "Local size is " << ni.getValue() << " x " << nj.getValue() << "." << std::endl
                 << "'latvalue_2d' size is " << latvalue_2d.extent(0) << " x " << latvalue_2d.extent(1) << ".");
       }
     }
   }

   void CDomain::checkAttributesOnClientAfterTransformation()
   {
     CContext* context=CContext::getCurrent() ;

     if (this->isClientAfterTransformationChecked) return;
     if (context->hasClient)
     {
       // this->checkMask();
      this->computeConnectedClients();
       // if (hasLonLat || hasArea || isCompressible_) this->computeConnectedClients();
       if (hasLonLat) this->completeLonLatClient();
     }

     this->isClientAfterTransformationChecked = true;
   }

   //----------------------------------------------------------------
   // Divide function checkAttributes into 2 seperate ones
   // This function only checks all attributes of current domain
   void CDomain::checkAttributesOnClient()
   {
     if (this->isClientChecked) return;
     CContext* context=CContext::getCurrent();

      if (context->hasClient && !context->hasServer)
      {
        this->checkDomain();
        this->checkBounds();
        this->checkArea();
        this->checkLonLat();
      }

      if (context->hasClient && !context->hasServer)
      { // CÎté client uniquement
         this->checkMask();
         this->checkDomainData();
         this->checkCompression();
         this->computeLocalMask() ;
      }
      else
      { // CÎté serveur uniquement
      }

      this->isClientChecked = true;
   }

   // Send all checked attributes to server
   void CDomain::sendCheckedAttributes()
   {
     if (!this->isClientChecked) checkAttributesOnClient();
     if (!this->isClientAfterTransformationChecked) checkAttributesOnClientAfterTransformation();
     CContext* context=CContext::getCurrent() ;

     if (this->isChecked) return;
     if (context->hasClient)
     {
       sendAttributes();
     }
     this->isChecked = true;
   }

   void CDomain::checkAttributes(void)
   {
      if (this->isChecked) return;
      CContext* context=CContext::getCurrent() ;

      this->checkDomain();
      this->checkLonLat();
      this->checkBounds();
      this->checkArea();

      if (context->hasClient)
      { // CÎté client uniquement
         this->checkMask();
         this->checkDomainData();
         this->checkCompression();
         this->computeLocalMask() ;

      }
      else
      { // CÎté serveur uniquement
      }

      if (context->hasClient)
      {
        this->computeConnectedClients();
        this->completeLonLatClient();
      }

      this->isChecked = true;
   }

  /*!
    Send distribution from client to other clients
    Because a client in a level knows correctly the grid distribution of client on the next level
    it calculates this distribution then sends it to the corresponding clients on the next level
  */
  void CDomain::sendDistributionAttributes(void)
  {
    CContext* context = CContext::getCurrent();
     // Use correct context client to send message
    int nbSrvPools = (context->hasServer) ? context->clientPrimServer.size() : 1;
    for (int i = 0; i < nbSrvPools; ++i)
    {
       CContextClient* contextClientTmp = (context->hasServer) ? context->clientPrimServer[i]
                                                                         : context->client;    
      int nbServer = contextClientTmp->serverSize;
    std::vector<int> nGlobDomain(2);
    nGlobDomain[0] = this->ni_glo;
    nGlobDomain[1] = this->nj_glo;

    CServerDistributionDescription serverDescription(nGlobDomain, nbServer);
      if (isUnstructed_) serverDescription.computeServerDistribution(false, 0);
      else serverDescription.computeServerDistribution(false, 1);

      std::vector<std::vector<int> > serverIndexBegin = serverDescription.getServerIndexBegin();
      std::vector<std::vector<int> > serverDimensionSizes = serverDescription.getServerDimensionSizes();

      CEventClient event(getType(),EVENT_ID_SERVER_ATTRIBUT);
      if (contextClientTmp->isServerLeader())
      {
        std::list<CMessage> msgs;

        const std::list<int>& ranks = contextClientTmp->getRanksServerLeader();
        for (std::list<int>::const_iterator itRank = ranks.begin(), itRankEnd = ranks.end(); itRank != itRankEnd; ++itRank)
        {
          // Use const int to ensure CMessage holds a copy of the value instead of just a reference
          const int ibegin_srv = serverIndexBegin[*itRank][0];
          const int jbegin_srv = serverIndexBegin[*itRank][1];
          const int ni_srv = serverDimensionSizes[*itRank][0];
          const int nj_srv = serverDimensionSizes[*itRank][1];

          msgs.push_back(CMessage());
          CMessage& msg = msgs.back();
          msg << this->getId() ;
        msg << ni_srv << ibegin_srv << nj_srv << jbegin_srv;        
          msg << isCompressible_;

          event.push(*itRank,1,msg);
        }
        contextClientTmp->sendEvent(event);
      }
      else contextClientTmp->sendEvent(event);
    }
  }

  // void CDomain::computeConnectedClients(const std::vector<int>& globalDim, int orderPositionInGrid,
  //                                     CServerDistributionDescription::ServerDistributionType distType)
  /*!
     Compute the connection of a client to other clients to determine which clients to send attributes to
  */
  void CDomain::computeConnectedClients()
  {
    CContext* context=CContext::getCurrent() ;
    CContextClient* client = (0 != context->clientPrimServer) ? context->clientPrimServer : context->client;
    int nbServer=client->serverSize;
    int rank = client->clientRank;
    bool doComputeGlobalIndexServer = true;

    int i,j,i_ind,j_ind, nbIndex, nbIndexZoom;
    int global_zoom_iend=global_zoom_ibegin+global_zoom_ni-1 ;
    int global_zoom_jend=global_zoom_jbegin+global_zoom_nj-1 ;

    // Precompute number of index
    int globalIndexCountZoom = 0;
    nbIndex = i_index.numElements();
    // for (i = 0; i < nbIndex; ++i)
    // {
    //   i_ind=i_index(i);
    //   j_ind=j_index(i);

    //   if (i_ind >= global_zoom_ibegin && i_ind <= global_zoom_iend && j_ind >= global_zoom_jbegin && j_ind <= global_zoom_jend)
    //   {
    //     ++globalIndexCountZoom;
    //   }
    // }

    // int globalIndexWrittenCount = 0;
    // if (isCompressible_)
    // {
    //   for (i = 0; i < data_i_index.numElements(); ++i)
    //   {
    //     i_ind = CDistributionClient::getDomainIndex(data_i_index(i), data_j_index(i),
    //                                                 data_ibegin, data_jbegin, data_dim, ni,
    //                                                 j_ind);
    //     if (i_ind >= 0 && i_ind < ni && j_ind >= 0 && j_ind < nj && mask_1d(i_ind + j_ind * ni))
    //     {
    //       i_ind += ibegin;
    //       j_ind += jbegin;
    //       if (i_ind >= global_zoom_ibegin && i_ind <= global_zoom_iend && j_ind >= global_zoom_jbegin && j_ind <= global_zoom_jend)
    //         ++globalIndexWrittenCount;
    //     }
    //   }
    // }

    // Fill in index
    
    CArray<size_t,1> localIndexDomainZoom(globalIndexCountZoom);
    CArray<size_t,1> globalIndexDomain(nbIndex);
    size_t globalIndex;
    int globalIndexCount = 0;
    

    for (i = 0; i < nbIndex; ++i)
    {
      i_ind=i_index(i);
      j_ind=j_index(i);
      globalIndex = i_ind + j_ind * ni_glo;
      globalIndexDomain(globalIndexCount) = globalIndex;
      globalLocalIndexMap_[globalIndex] = i;
      ++globalIndexCount;
    }

    nbIndexZoom = zoom_i_index.numElements();
    CArray<size_t,1> globalIndexDomainZoom(nbIndexZoom);
    globalIndexCountZoom = 0;
    for (i = 0; i < nbIndexZoom; ++i)
    {
      i_ind=zoom_i_index(i);
      j_ind=zoom_j_index(i);
      globalIndex = i_ind + j_ind * ni_glo;
      globalIndexDomainZoom(globalIndexCountZoom) = globalIndex;

      ++globalIndexCountZoom;
      // if (i_ind >= global_zoom_ibegin && i_ind <= global_zoom_iend && j_ind >= global_zoom_jbegin && j_ind <= global_zoom_jend)
      // {
      //   globalIndexDomainZoom(globalIndexCountZoom) = globalIndex;
      //   localIndexDomainZoom(globalIndexCountZoom) = i;
      //   ++globalIndexCountZoom;
      // }
    }

    // CArray<int,1> globalIndexWrittenDomain(globalIndexWrittenCount);
    // if (isCompressible_)
    // {
    //   globalIndexWrittenCount = 0;
    //   for (i = 0; i < data_i_index.numElements(); ++i)
    //   {
    //     i_ind = CDistributionClient::getDomainIndex(data_i_index(i), data_j_index(i),
    //                                                 data_ibegin, data_jbegin, data_dim, ni,
    //                                                 j_ind);
    //     if (i_ind >= 0 && i_ind < ni && j_ind >= 0 && j_ind < nj && mask_1d(i_ind + j_ind * ni))
    //     {
    //       i_ind += ibegin;
    //       j_ind += jbegin;
    //       if (i_ind >= global_zoom_ibegin && i_ind <= global_zoom_iend && j_ind >= global_zoom_jbegin && j_ind <= global_zoom_jend)
    //       {
    //         globalIndexWrittenDomain(globalIndexWrittenCount) = i_ind + j_ind * ni_glo;
    //         ++globalIndexWrittenCount;
    //       }
    //     }
    //   }
    // }

    size_t globalSizeIndex = 1, indexBegin, indexEnd;
    int range, clientSize = client->clientSize;
    std::vector<int> nGlobDomain(2);
    nGlobDomain[0] = this->ni_glo;
    nGlobDomain[1] = this->nj_glo;
    for (int i = 0; i < nGlobDomain.size(); ++i) globalSizeIndex *= nGlobDomain[i];
    indexBegin = 0;
    if (globalSizeIndex <= clientSize)
    {
      indexBegin = rank%globalSizeIndex;
      indexEnd = indexBegin;
    }
    else
    {
      for (int i = 0; i < clientSize; ++i)
      {
        range = globalSizeIndex / clientSize;
        if (i < (globalSizeIndex%clientSize)) ++range;
        if (i == client->clientRank) break;
        indexBegin += range;
      }
      indexEnd = indexBegin + range - 1;
    }

    CServerDistributionDescription serverDescription(nGlobDomain, nbServer);
    if (isUnstructed_) serverDescription.computeServerGlobalIndexInRange(std::make_pair<size_t,size_t>(indexBegin, indexEnd), 0);
    else serverDescription.computeServerGlobalIndexInRange(std::make_pair<size_t,size_t>(indexBegin, indexEnd), 1);

    CClientServerMapping* clientServerMap = new CClientServerMappingDistributed(serverDescription.getGlobalIndexRange(),
                                                                                client->intraComm);
    clientServerMap->computeServerIndexMapping(globalIndexDomain);
    CClientServerMapping::GlobalIndexMap& globalIndexDomainOnServer = clientServerMap->getGlobalIndexOnServer();

    CClientServerMapping::GlobalIndexMap::const_iterator it  = globalIndexDomainOnServer.begin(),
                                                         ite = globalIndexDomainOnServer.end();
    // typedef XIOSBinarySearchWithIndex<size_t> BinarySearch;
    // std::vector<int>::iterator itVec;
    
    // indSrv_.clear();
    // indWrittenSrv_.clear();
    // for (; it != ite; ++it)
    // {
    //   int rank = it->first;
    //   int indexSize = it->second.size();
    //   std::vector<int> permutIndex(indexSize);
    //   XIOSAlgorithms::fillInIndex(indexSize, permutIndex);
    //   XIOSAlgorithms::sortWithIndex<size_t, CVectorStorage>(it->second, permutIndex);
    //   BinarySearch binSearch(it->second);
    //   int nb = globalIndexDomainZoom.numElements();
    //   for (int i = 0; i < nb; ++i)
    //   {
    //     if (binSearch.search(permutIndex.begin(), permutIndex.end(), globalIndexDomainZoom(i), itVec))
    //     {
    //       indSrv_[rank].push_back(localIndexDomainZoom(i));
    //     }
    //   }
    //   for (int i = 0; i < globalIndexWrittenDomain.numElements(); ++i)
    //   {
    //     if (binSearch.search(permutIndex.begin(), permutIndex.end(), globalIndexWrittenDomain(i), itVec))
    //     {
    //       indWrittenSrv_[rank].push_back(globalIndexWrittenDomain(i));
    //     }
    //   }
    // }

    connectedServerRank_.clear();
    for (it = globalIndexDomainOnServer.begin(); it != ite; ++it) {
      connectedServerRank_.push_back(it->first);
    }

    indSrv_.swap(globalIndexDomainOnServer);
    nbConnectedClients_ = clientServerMap->computeConnectedClients(client->serverSize, client->clientSize, client->intraComm, connectedServerRank_);

    clientServerMap->computeServerIndexMapping(globalIndexDomainZoom);
    CClientServerMapping::GlobalIndexMap& globalIndexDomainZoomOnServer = clientServerMap->getGlobalIndexOnServer();
    indZoomSrv_.swap(globalIndexDomainZoomOnServer);
    std::vector<int> connectedServerZoomRank(indZoomSrv_.size());
    for (it = indZoomSrv_.begin(); it != indZoomSrv_.end(); ++it)
      connectedServerZoomRank.push_back(it->first);
    nbConnectedClientsZoom_ = clientServerMap->computeConnectedClients(client->serverSize, client->clientSize, client->intraComm, connectedServerZoomRank);       

    delete clientServerMap;
  }

  const boost::unordered_map<int, vector<size_t> >& CDomain::getIndexServer() const
  {
    return indSrv_;
  }

  /*!
    Send all attributes from client to connected clients
    The attributes will be rebuilt on receiving side
  */
  void CDomain::sendAttributes()
  {
    sendIndex();
    sendDistributionAttributes();
    sendMask();
    sendLonLat();
    sendArea();    
    sendDataIndex();
  }

  /*!
    Send global index and zoom index from client to connected client(s)
    zoom index can be smaller than global index
  */
  void CDomain::sendIndex()
  {
    int ns, n, i, j, ind, nv, idx;
    CContext* context = CContext::getCurrent();
    CContextClient* client = (0 != context->clientPrimServer) ? context->clientPrimServer : context->client;

    CEventClient eventIndex(getType(), EVENT_ID_INDEX);

    list<CMessage> list_msgsIndex;
    list<CArray<int,1> > list_indZoom, list_writtenInd, list_indGlob;

    boost::unordered_map<int, vector<size_t> >::const_iterator itIndex, iteIndex, itZoom, iteZoom;
    iteIndex = indSrv_.end(); iteZoom = indZoomSrv_.end();
    for (int k = 0; k < connectedServerRank_.size(); ++k)
    {
      int nbIndGlob = 0;
      int rank = connectedServerRank_[k];
      itIndex = indSrv_.find(rank);
      if (iteIndex != itIndex)
        nbIndGlob = itIndex->second.size();
      int nbIndZoom = 0;
      itZoom = indZoomSrv_.find(rank);
      if (iteZoom != itZoom)
        nbIndZoom = itZoom->second.size(); 

      list_indGlob.push_back(CArray<int,1>(nbIndGlob));
      list_indZoom.push_back(CArray<int,1>(nbIndZoom));

      CArray<int,1>& indZoom = list_indZoom.back();
      CArray<int,1>& indGlob = list_indGlob.back();      
      for (n = 0; n < nbIndGlob; ++n)
      {
        indGlob(n) = static_cast<int>(itIndex->second[n]);        
      }

      for (n = 0; n < nbIndZoom; ++n)
      {
        indZoom(n) = static_cast<int>(itZoom->second[n]);        
      }

      list_msgsIndex.push_back(CMessage());
      list_msgsIndex.back() << this->getId() << (int)type; // enum ne fonctionne pour les message => ToFix
      list_msgsIndex.back() << isCurvilinear;
      list_msgsIndex.back() << list_indGlob.back() << list_indZoom.back(); //list_indi.back() << list_indj.back();

      // if (isCompressible_)
      // {
      //   std::vector<int>& writtenIndSrc = indWrittenSrv_[rank];
      //   list_writtenInd.push_back(CArray<int,1>(writtenIndSrc.size()));
      //   CArray<int,1>& writtenInd = list_writtenInd.back();

      //   for (n = 0; n < writtenInd.numElements(); ++n)
      //     writtenInd(n) = writtenIndSrc[n];

      //   list_msgsIndex.back() << writtenInd;
      // }

      eventIndex.push(rank, nbConnectedClients_[rank], list_msgsIndex.back());
    }

    client->sendEvent(eventIndex);
  }

  /*!
    Send mask index from client to connected(s)
  */
  void CDomain::sendMask()
  {
    int ns, n, i, j, ind, nv, idx;
    CContext* context = CContext::getCurrent();
    CContextClient* client = (0 != context->clientPrimServer) ? context->clientPrimServer : context->client;

    // send area for each connected server
    CEventClient eventMask(getType(), EVENT_ID_MASK);

    list<CMessage> list_msgsMask;
    list<CArray<bool,1> > list_mask;

    boost::unordered_map<int, vector<size_t> >::const_iterator it, iteMap;
    iteMap = indSrv_.end();
    for (int k = 0; k < connectedServerRank_.size(); ++k)
    {
      int nbData = 0;
      int rank = connectedServerRank_[k];
      it = indSrv_.find(rank);
      if (iteMap != it)
        nbData = it->second.size();
      list_mask.push_back(CArray<bool,1>(nbData));

      const std::vector<size_t>& temp = it->second;
      for (n = 0; n < nbData; ++n)
      {
        idx = static_cast<int>(it->second[n]);
        list_mask.back()(n) = mask_1d(globalLocalIndexMap_[idx]);          
      }

      list_msgsMask.push_back(CMessage());
      list_msgsMask.back() << this->getId() << list_mask.back();
      eventMask.push(rank, nbConnectedClients_[rank], list_msgsMask.back());
    }
    client->sendEvent(eventMask);
  }

  /*!
    Send area from client to connected client(s)
  */
  void CDomain::sendArea()
  {
    if (!hasArea) return;

    int ns, n, i, j, ind, nv, idx;
    CContext* context = CContext::getCurrent();
    CContextClient* client = (0 != context->clientPrimServer) ? context->clientPrimServer : context->client;

    // send area for each connected server
    CEventClient eventArea(getType(), EVENT_ID_AREA);

    list<CMessage> list_msgsArea;
    list<CArray<double,1> > list_area;

    boost::unordered_map<int, vector<size_t> >::const_iterator it, iteMap;
    iteMap = indSrv_.end();
    for (int k = 0; k < connectedServerRank_.size(); ++k)
    {
      int nbData = 0;
      int rank = connectedServerRank_[k];
      it = indSrv_.find(rank);
      if (iteMap != it)
        nbData = it->second.size();
      list_area.push_back(CArray<double,1>(nbData));

      const std::vector<size_t>& temp = it->second;
      for (n = 0; n < nbData; ++n)
      {
        idx = static_cast<int>(it->second[n]);
        list_area.back()(n) = areavalue(globalLocalIndexMap_[idx]); 
      }

      list_msgsArea.push_back(CMessage());
      list_msgsArea.back() << this->getId() << hasArea;
      list_msgsArea.back() << list_area.back();
      eventArea.push(rank, nbConnectedClients_[rank], list_msgsArea.back());
    }
    client->sendEvent(eventArea);
  }

  /*!
    Send longitude and latitude from client to servers
    Each client send long and lat information to corresponding connected server(s).
    Because longitude and latitude are optional, this function only called if latitude and longitude exist
  */
  void CDomain::sendLonLat()
  {
    if (!hasLonLat) return;

    int ns, n, i, j, ind, nv, idx;
    CContext* context = CContext::getCurrent();
    CContextClient* client = (0 != context->clientPrimServer) ? context->clientPrimServer : context->client;

    // send lon lat for each connected server
    CEventClient eventLon(getType(), EVENT_ID_LON);
    CEventClient eventLat(getType(), EVENT_ID_LAT);

    list<CMessage> list_msgsLon, list_msgsLat;
    list<CArray<double,1> > list_lon, list_lat;
    list<CArray<double,2> > list_boundslon, list_boundslat;

    boost::unordered_map<int, vector<size_t> >::const_iterator it, iteMap;
    iteMap = indSrv_.end();
    for (int k = 0; k < connectedServerRank_.size(); ++k)
    {
      int nbData = 0;
      int rank = connectedServerRank_[k];
      it = indSrv_.find(rank);
      if (iteMap != it)
        nbData = it->second.size();

      list_lon.push_back(CArray<double,1>(nbData));
      list_lat.push_back(CArray<double,1>(nbData));

      if (hasBounds)
      {
        list_boundslon.push_back(CArray<double,2>(nvertex, nbData));
        list_boundslat.push_back(CArray<double,2>(nvertex, nbData));
      }

      CArray<double,1>& lon = list_lon.back();
      CArray<double,1>& lat = list_lat.back();
      const std::vector<size_t>& temp = it->second;
      for (n = 0; n < nbData; ++n)
      {
        idx = static_cast<int>(it->second[n]);
        int localInd = globalLocalIndexMap_[idx];
        lon(n) = lonvalue(localInd);
        lat(n) = latvalue(localInd);

        if (hasBounds)
        {
          CArray<double,2>& boundslon = list_boundslon.back();
          CArray<double,2>& boundslat = list_boundslat.back();

          for (nv = 0; nv < nvertex; ++nv)
          {
            boundslon(nv, n) = bounds_lonvalue(nv, localInd);
            boundslat(nv, n) = bounds_latvalue(nv, localInd);
          }
        }
      }

      list_msgsLon.push_back(CMessage());
      list_msgsLat.push_back(CMessage());

      list_msgsLon.back() << this->getId() << hasLonLat << list_lon.back() << hasBounds;
      list_msgsLat.back() << this->getId() << hasLonLat << list_lat.back() << hasBounds;

      if (hasBounds)
      {
        list_msgsLon.back() << list_boundslon.back();
        list_msgsLat.back() << list_boundslat.back();
      }

      eventLon.push(rank, nbConnectedClients_[rank], list_msgsLon.back());
      eventLat.push(rank, nbConnectedClients_[rank], list_msgsLat.back());
    }

    client->sendEvent(eventLon);
    client->sendEvent(eventLat);
  }

  /*!
    Send data index to corresponding connected clients.
    Data index can be compressed however, we always send decompressed data index
    and they will be compressed on receiving.
  */
  void CDomain::sendDataIndex()
  {
    int ns, n, i, j, ind, nv, idx;
    CContext* context = CContext::getCurrent();
    CContextClient* client = (0 != context->clientPrimServer) ? context->clientPrimServer : context->client;

    // send area for each connected server
    CEventClient eventDataIndex(getType(), EVENT_ID_DATA_INDEX);

    list<CMessage> list_msgsDataIndex;
    list<CArray<int,1> > list_data_i_index, list_data_j_index;

    int nbIndex = i_index.numElements();
    CArray<int,1> dataIIndex(nbIndex), dataJIndex(nbIndex);
    dataIIndex = -1; dataJIndex = -1, ind = 0;
    for (idx = 0; idx < data_i_index.numElements(); ++idx)
    {
      if ((0 <= data_i_index(idx)) && (data_i_index(idx) < ni) && (ind < nbIndex))
      {
        dataIIndex(ind) = data_i_index(idx);
        dataJIndex(ind) = data_j_index(idx);
        ++ind;
      }
    }

    boost::unordered_map<int, vector<size_t> >::const_iterator it, iteMap;
    iteMap = indSrv_.end();
    for (int k = 0; k < connectedServerRank_.size(); ++k)
    {
      int nbData = 0;
      int rank = connectedServerRank_[k];
      it = indSrv_.find(rank);
      if (iteMap != it)
        nbData = it->second.size();
      list_data_i_index.push_back(CArray<int,1>(nbData));
      list_data_j_index.push_back(CArray<int,1>(nbData));

      const std::vector<size_t>& temp = it->second;
      for (n = 0; n < nbData; ++n)
      {
        idx = static_cast<int>(it->second[n]);
        i = globalLocalIndexMap_[idx];
        list_data_i_index.back()(n) = dataIIndex(i);
        list_data_j_index.back()(n) = dataJIndex(i);          
      }

      list_msgsDataIndex.push_back(CMessage());
      list_msgsDataIndex.back() << this->getId();
      list_msgsDataIndex.back() << list_data_i_index.back() << list_data_j_index.back();
      eventDataIndex.push(rank, nbConnectedClients_[rank], list_msgsDataIndex.back());
    }
    client->sendEvent(eventDataIndex);
  }
  
  bool CDomain::dispatchEvent(CEventServer& event)
  {
    if (SuperClass::dispatchEvent(event)) return true;
    else
    {
      switch(event.type)
      {
        case EVENT_ID_SERVER_ATTRIBUT:
          recvDistributionAttributes(event);
          return true;
          break;
        case EVENT_ID_INDEX:
          recvIndex(event);
          return true;
          break;
        case EVENT_ID_MASK:
          recvMask(event);
          return true;
          break;
        case EVENT_ID_LON:
          recvLon(event);
          return true;
          break;
        case EVENT_ID_LAT:
          recvLat(event);
          return true;
          break;
        case EVENT_ID_AREA:
          recvArea(event);
          return true;
          break;  
        case EVENT_ID_DATA_INDEX:
          recvDataIndex(event);
          return true;
          break;
        default:
          ERROR("bool CDomain::dispatchEvent(CEventServer& event)",
                << "Unknown Event");
          return false;
       }
    }
  }

  /*!
    Receive attributes event from clients(s)
    \param[in] event event contain info about rank and associated attributes
  */
  void CDomain::recvDistributionAttributes(CEventServer& event)
  {
    CBufferIn* buffer=event.subEvents.begin()->buffer;
    string domainId ;
    *buffer>>domainId ;
    get(domainId)->recvDistributionAttributes(*buffer) ;
  }

  /*!
    Receive attributes from client(s): zoom info and begin and n of each server
    \param[in] rank rank of client source
    \param[in] buffer message containing attributes info
  */
  void CDomain::recvDistributionAttributes(CBufferIn& buffer)
  {
    int ni_tmp, ibegin_tmp, nj_tmp, jbegin_tmp;
    buffer >> ni_tmp >> ibegin_tmp >> nj_tmp >> jbegin_tmp           
           >> isCompressible_;
    ni.setValue(ni_tmp);
    ibegin.setValue(ibegin_tmp);
    nj.setValue(nj_tmp);
    jbegin.setValue(jbegin_tmp);
  }

  /*!
    Receive index event from clients(s)
    \param[in] event event contain info about rank and associated index
  */
  void CDomain::recvIndex(CEventServer& event)
  {
    string domainId;
    std::map<int, CBufferIn*> rankBuffers;

    list<CEventServer::SSubEvent>::iterator it;
    for (it = event.subEvents.begin(); it != event.subEvents.end(); ++it)
    {      
      CBufferIn* buffer = it->buffer;
      *buffer >> domainId;
      rankBuffers[it->rank] = buffer;        
    }
    get(domainId)->recvIndex(rankBuffers);

    // if (domain->isCompressible_)
    // {
    //   std::sort(domain->indexesToWrite.begin(), domain->indexesToWrite.end());

    //   CContextServer* server = CContext::getCurrent()->server;
    //   domain->numberWrittenIndexes_ = domain->indexesToWrite.size();
    //   MPI_Allreduce(&domain->numberWrittenIndexes_, &domain->totalNumberWrittenIndexes_, 1, MPI_INT, MPI_SUM, server->intraComm);
    //   MPI_Scan(&domain->numberWrittenIndexes_, &domain->offsetWrittenIndexes_, 1, MPI_INT, MPI_SUM, server->intraComm);
    //   domain->offsetWrittenIndexes_ -= domain->numberWrittenIndexes_;
    // }
  }

  /*!
    Receive index information from client(s)
    \param[in] rankBuffers rank of sending client and the corresponding receive buffer  
  */
  void CDomain::recvIndex(std::map<int, CBufferIn*>& rankBuffers)
  {
    int nbReceived = rankBuffers.size(), i, ind, index, type_int;
    recvClientRanks_.resize(nbReceived);
    vector<CArray<int,1> > recvZoomInd(nbReceived);

    std::map<int, CBufferIn*>::iterator it = rankBuffers.begin(), ite = rankBuffers.end();
    ind = 0;
    for (ind = 0; it != ite; ++it, ++ind)
    {       
       recvClientRanks_[ind] = it->first;
       CBufferIn& buffer = *(it->second);
       buffer >> type_int >> isCurvilinear >> indGlob_[it->first] >> recvZoomInd[ind]; //recvIndGlob[ind];
       type.setValue((type_attr::t_enum)type_int); // probleme des type enum avec les buffers : ToFix
    }
    int nbIndGlob = 0;
    for (i = 0; i < nbReceived; ++i)
    {
      nbIndGlob += indGlob_[recvClientRanks_[i]].numElements();
    }
    
    i_index.resize(nbIndGlob);
    j_index.resize(nbIndGlob);

    nbIndGlob = 0;
    for (i = 0; i < nbReceived; ++i)
    {
      CArray<int,1>& tmp = indGlob_[recvClientRanks_[i]];
      for (ind = 0; ind < tmp.numElements(); ++ind)
      {
         index = tmp(ind);
         i_index(nbIndGlob) = index / ni_glo;
         j_index(nbIndGlob) = index % ni_glo;
         ++nbIndGlob;
      } 
    }

    int nbZoomInd = 0;
    for (i = 0; i < nbReceived; ++i)
    {
      nbZoomInd += recvZoomInd[i].numElements();
    }

    zoom_i_index.resize(nbZoomInd);
    zoom_j_index.resize(nbZoomInd);
    
    nbZoomInd = 0;
    for (i = 0; i < nbReceived; ++i)
    {
      CArray<int,1>& tmp = recvZoomInd[i];
      for (ind = 0; ind < tmp.numElements(); ++ind)
      {
         index = tmp(ind);
         zoom_i_index(nbZoomInd) = index / ni_glo;
         zoom_j_index(nbZoomInd) = index % ni_glo;
         ++nbZoomInd;
      } 
    }    

    {
      CContextServer* server = CContext::getCurrent()->server;
      count_write_index_.resize(2);
      start_write_index_.resize(2);
      local_write_size_.resize(2);
      global_write_size_.resize(2);
      if ((this->type) == CDomain::type_attr::unstructured)
      {
        count_write_index_[0] = zoom_i_index.numElements();
        count_write_index_[1] = 0;
      }
      else
      {
        int ni_zoom = zoom_i_index.numElements(), idx, nbIZoom = 0, nbJZoom = 0;
        for (idx =0; idx < ni_zoom; ++idx)
        {
           if ((ibegin <= zoom_i_index(idx)) && (zoom_i_index(idx) < ibegin+ni) && (nbIZoom < ni))
            ++nbIZoom;
           if ((jbegin <= zoom_j_index(idx)) && (zoom_j_index(idx) < jbegin+nj) && (nbJZoom < nj))
            ++nbJZoom;
        }
        count_write_index_[0] = nbIZoom;
        count_write_index_[1] = nbJZoom;
      }
            
      MPI_Scan(&count_write_index_[0], &start_write_index_[0], 2, MPI_INT, MPI_SUM, server->intraComm);      
      start_write_index_[0] = 0; 
      start_write_index_[1] -= count_write_index_[1];
      local_write_size_[0] = count_write_index_[0];
      local_write_size_[1] = count_write_index_[1];
      MPI_Allreduce(&count_write_index_[0], &global_write_size_[0], 2, MPI_INT, MPI_SUM, server->intraComm);
      global_write_size_[0] = count_write_index_[0];
      global_write_size_[1] = (global_write_size_[1] > nj_glo) ? nj_glo : global_write_size_[1];
         
    }

    // int type_int;
    // buffer >> type_int >> isCurvilinear >> indiSrv[rank] >> indjSrv[rank];
    // type.setValue((type_attr::t_enum)type_int); // probleme des type enum avec les buffers : ToFix

    // if (isCompressible_)
    // {
    //   CArray<int, 1> writtenIndexes;
    //   buffer >> writtenIndexes;
    //   indexesToWrite.reserve(indexesToWrite.size() + writtenIndexes.numElements());
    //   for (int i = 0; i < writtenIndexes.numElements(); ++i)
    //     indexesToWrite.push_back(writtenIndexes(i));
    // }
  }

  /*!
    Receive area event from clients(s)
    \param[in] event event contain info about rank and associated area
  */
  void CDomain::recvMask(CEventServer& event)
  {
    string domainId;
    std::map<int, CBufferIn*> rankBuffers;

    list<CEventServer::SSubEvent>::iterator it;
    for (it = event.subEvents.begin(); it != event.subEvents.end(); ++it)
    {      
      CBufferIn* buffer = it->buffer;
      *buffer >> domainId;
      rankBuffers[it->rank] = buffer;     
    }
    get(domainId)->recvMask(rankBuffers);
  }


  /*!
    Receive mask information from client(s)
    \param[in] rankBuffers rank of sending client and the corresponding receive buffer  
  */
  void CDomain::recvMask(std::map<int, CBufferIn*>& rankBuffers)
  {
    int nbReceived = rankBuffers.size(), i, ind, index;
    if (nbReceived != recvClientRanks_.size())
      ERROR("void CDomain::recvArea(std::map<int, CBufferIn*>& rankBuffers)",
           << "The number of sending clients is not correct."
           << "Expected number: " << recvClientRanks_.size() << " but received " << nbReceived);

    vector<CArray<bool,1> > recvMaskValue(nbReceived);      
    for (i = 0; i < recvClientRanks_.size(); ++i)
    {
      int rank = recvClientRanks_[i];
      CBufferIn& buffer = *(rankBuffers[rank]);      
      buffer >> recvMaskValue[i];
    }

    int nbMaskInd = 0;
    for (i = 0; i < nbReceived; ++i)
    {
      nbMaskInd += recvMaskValue[i].numElements();
    }
  
    mask_1d.resize(nbMaskInd);
    nbMaskInd = 0;
    for (i = 0; i < nbReceived; ++i)
    {
      CArray<bool,1>& tmp = recvMaskValue[i];
      for (ind = 0; ind < tmp.numElements(); ++ind)
      {
        mask_1d(nbMaskInd) = tmp(ind);      
        ++nbMaskInd;
      }
    }    
  }

  /*!
    Receive longitude event from clients(s)
    \param[in] event event contain info about rank and associated longitude
  */
  void CDomain::recvLon(CEventServer& event)
  {
    string domainId;
    std::map<int, CBufferIn*> rankBuffers;

    list<CEventServer::SSubEvent>::iterator it;
    for (it = event.subEvents.begin(); it != event.subEvents.end(); ++it)
    {      
      CBufferIn* buffer = it->buffer;
      *buffer >> domainId;
      rankBuffers[it->rank] = buffer;        
    }
    get(domainId)->recvLon(rankBuffers);
  }

  /*!
    Receive longitude information from client(s)
    \param[in] rankBuffers rank of sending client and the corresponding receive buffer  
  */
  void CDomain::recvLon(std::map<int, CBufferIn*>& rankBuffers)
  {
    int nbReceived = rankBuffers.size(), i, ind, index;
    if (nbReceived != recvClientRanks_.size())
      ERROR("void CDomain::recvLon(std::map<int, CBufferIn*>& rankBuffers)",
           << "The number of sending clients is not correct."
           << "Expected number: " << recvClientRanks_.size() << " but received " << nbReceived);

    vector<CArray<double,1> > recvLonValue(nbReceived);
    vector<CArray<double,2> > recvBoundsLonValue(nbReceived);    
    for (i = 0; i < recvClientRanks_.size(); ++i)
    {
      int rank = recvClientRanks_[i];
      CBufferIn& buffer = *(rankBuffers[rank]);
      buffer >> hasLonLat;
      buffer >> recvLonValue[i];
      buffer >> hasBounds;
      if (hasBounds)
        buffer >> recvBoundsLonValue[i];
    }

    int nbLonInd = 0;
    for (i = 0; i < nbReceived; ++i)
    {
      nbLonInd += recvLonValue[i].numElements();
    }

    lonvalue.resize(nbLonInd);
    if (hasBounds)
    {
      bounds_lonvalue.resize(nvertex, nbLonInd);
    }

    nbLonInd = 0;
    for (i = 0; i < nbReceived; ++i)
    {
      CArray<double,1>& tmp = recvLonValue[i];
      for (ind = 0; ind < tmp.numElements(); ++ind)
      {
         lonvalue(nbLonInd) = tmp(ind);
         if (hasBounds)
         {
          CArray<double,2>& tmpBnds = recvBoundsLonValue[i];
          for (int nv = 0; nv < nvertex; ++nv)
            bounds_lonvalue(nv, nbLonInd) = tmpBnds(nv, ind);
         }       
         ++nbLonInd;
      }
    }
  }

  /*!
    Receive latitude event from clients(s)
    \param[in] event event contain info about rank and associated latitude
  */
  void CDomain::recvLat(CEventServer& event)
  {
    string domainId;
    std::map<int, CBufferIn*> rankBuffers;

    list<CEventServer::SSubEvent>::iterator it;
    for (it = event.subEvents.begin(); it != event.subEvents.end(); ++it)
    {      
      CBufferIn* buffer = it->buffer;
      *buffer >> domainId;
      rankBuffers[it->rank] = buffer;    
    }
    get(domainId)->recvLat(rankBuffers);
  }

  /*!
    Receive latitude information from client(s)
    \param[in] rankBuffers rank of sending client and the corresponding receive buffer  
  */
  void CDomain::recvLat(std::map<int, CBufferIn*>& rankBuffers)
  {
    int nbReceived = rankBuffers.size(), i, ind, index;
    if (nbReceived != recvClientRanks_.size())
      ERROR("void CDomain::recvLat(std::map<int, CBufferIn*>& rankBuffers)",
           << "The number of sending clients is not correct."
           << "Expected number: " << recvClientRanks_.size() << " but received " << nbReceived);

    vector<CArray<double,1> > recvLatValue(nbReceived);
    vector<CArray<double,2> > recvBoundsLatValue(nbReceived);    
    for (i = 0; i < recvClientRanks_.size(); ++i)
    {
      int rank = recvClientRanks_[i];
      CBufferIn& buffer = *(rankBuffers[rank]);
      buffer >> hasLonLat;
      buffer >> recvLatValue[i];
      buffer >> hasBounds;
      if (hasBounds)
        buffer >> recvBoundsLatValue[i];
    }

    int nbLatInd = 0;
    for (i = 0; i < nbReceived; ++i)
    {
      nbLatInd += recvLatValue[i].numElements();
    }

    latvalue.resize(nbLatInd);
    if (hasBounds)
    {
      bounds_latvalue.resize(nvertex, nbLatInd);
    }
    
    nbLatInd = 0;
    for (i = 0; i < nbReceived; ++i)
    {
      CArray<double,1>& tmp = recvLatValue[i];
      for (ind = 0; ind < tmp.numElements(); ++ind)
      {         
         latvalue(nbLatInd) = tmp(ind);
         if (hasBounds)
         {
          CArray<double,2>& tmpBnds = recvBoundsLatValue[i];
          for (int nv = 0; nv < nvertex; ++nv)
            bounds_latvalue(nv, nbLatInd) = tmpBnds(nv, ind);
         }       
         ++nbLatInd;
      }
    }
  }

  /*!
    Receive area event from clients(s)
    \param[in] event event contain info about rank and associated area
  */
  void CDomain::recvArea(CEventServer& event)
  {
    string domainId;
    std::map<int, CBufferIn*> rankBuffers;

    list<CEventServer::SSubEvent>::iterator it;
    for (it = event.subEvents.begin(); it != event.subEvents.end(); ++it)
    {      
      CBufferIn* buffer = it->buffer;
      *buffer >> domainId;
      rankBuffers[it->rank] = buffer;     
    }
    get(domainId)->recvArea(rankBuffers);
  }


  /*!
    Receive area information from client(s)
    \param[in] rankBuffers rank of sending client and the corresponding receive buffer     
  */
  void CDomain::recvArea(std::map<int, CBufferIn*>& rankBuffers)
  {
    int nbReceived = rankBuffers.size(), i, ind, index;
    if (nbReceived != recvClientRanks_.size())
      ERROR("void CDomain::recvArea(std::map<int, CBufferIn*>& rankBuffers)",
           << "The number of sending clients is not correct."
           << "Expected number: " << recvClientRanks_.size() << " but received " << nbReceived);

    vector<CArray<double,1> > recvAreaValue(nbReceived);      
    for (i = 0; i < recvClientRanks_.size(); ++i)
    {
      int rank = recvClientRanks_[i];
      CBufferIn& buffer = *(rankBuffers[rank]);      
      buffer >> hasArea;
      if (hasArea)
        buffer >> recvAreaValue[i];
    }

    int nbAreaInd = 0;
    for (i = 0; i < nbReceived; ++i)
    {
      if (hasArea)
        nbAreaInd += recvAreaValue[i].numElements();
    }
  
    areavalue.resize(nbAreaInd);
    nbAreaInd = 0;
    if (hasArea)
    {
      for (i = 0; i < nbReceived; ++i)
      {
        CArray<double,1>& tmp = recvAreaValue[i];
        for (ind = 0; ind < tmp.numElements(); ++ind)
        {
          area(nbAreaInd) = tmp(ind);      
          ++nbAreaInd;
        }
      }
    }
  }

  /*!
    Receive data index event from clients(s)
    \param[in] event event contain info about rank and associated index
  */
  void CDomain::recvDataIndex(CEventServer& event)
  {
    string domainId;
    std::map<int, CBufferIn*> rankBuffers;

    list<CEventServer::SSubEvent>::iterator it;
    for (it = event.subEvents.begin(); it != event.subEvents.end(); ++it)
    {      
      CBufferIn* buffer = it->buffer;
      *buffer >> domainId;
      rankBuffers[it->rank] = buffer;        
    }
    get(domainId)->recvDataIndex(rankBuffers);

    // if (domain->isCompressible_)
    // {
    //   std::sort(domain->indexesToWrite.begin(), domain->indexesToWrite.end());

    //   CContextServer* server = CContext::getCurrent()->server;
    //   domain->numberWrittenIndexes_ = domain->indexesToWrite.size();
    //   MPI_Allreduce(&domain->numberWrittenIndexes_, &domain->totalNumberWrittenIndexes_, 1, MPI_INT, MPI_SUM, server->intraComm);
    //   MPI_Scan(&domain->numberWrittenIndexes_, &domain->offsetWrittenIndexes_, 1, MPI_INT, MPI_SUM, server->intraComm);
    //   domain->offsetWrittenIndexes_ -= domain->numberWrittenIndexes_;
    // }
  }

  /*!
    Receive data index information from client(s)
    A client receives data index from different clients to rebuild its own data index.
    Because the data index is local, to rebuild data index of received client, we should use global index along with. 
    \param[in] rankBuffers rank of sending client and the corresponding receive buffer     
  */
  void CDomain::recvDataIndex(std::map<int, CBufferIn*>& rankBuffers)
  {
    int nbReceived = rankBuffers.size(), i, ind, index, indexI, type_int;    
    if (nbReceived != recvClientRanks_.size())
      ERROR("void CDomain::recvLat(std::map<int, CBufferIn*>& rankBuffers)",
           << "The number of sending clients is not correct."
           << "Expected number: " << recvClientRanks_.size() << " but received " << nbReceived);

    vector<CArray<int,1> > recvDataIIndex(nbReceived),recvDataJIndex(nbReceived);     
    for (i = 0; i < recvClientRanks_.size(); ++i)
    {
      int rank = recvClientRanks_[i];
      CBufferIn& buffer = *(rankBuffers[rank]);
      buffer >> recvDataIIndex[i];
      buffer >> recvDataJIndex[i];
    }
   
    int nbCompressedData = 0; 
    for (i = 0; i < nbReceived; ++i)
    {
      CArray<int,1>& tmp = recvDataIIndex[i];
      for (ind = 0; ind < tmp.numElements(); ++ind)
      {
         index = tmp(ind);
         if (0 <= index)
           ++nbCompressedData;
      }        
    }

    data_i_index.resize(nbCompressedData);
    data_j_index.resize(nbCompressedData);

    nbCompressedData = 0;
    for (i = 0; i < nbReceived; ++i)
    {
      CArray<int,1>& tmpI = recvDataIIndex[i];      
      CArray<int,1>& tmpIndex = indGlob_[recvClientRanks_[i]];
      for (ind = 0; ind < tmpI.numElements(); ++ind)
      {
         indexI = tmpI(ind);
         index  = tmpIndex(ind);
         if (0 <= indexI)
         {
          data_i_index(nbCompressedData) = index % ni_glo - ibegin;
          data_j_index(nbCompressedData) = index / ni_glo - jbegin;
          ++nbCompressedData;
         }         
      } 
    }
  }

  CTransformation<CDomain>* CDomain::addTransformation(ETranformationType transType, const StdString& id)
  {
    transformationMap_.push_back(std::make_pair(transType, CTransformation<CDomain>::createTransformation(transType,id)));
    return transformationMap_.back().second;
  }

  /*!
    Check whether a domain has transformation
    \return true if domain has transformation
  */
  bool CDomain::hasTransformation()
  {
    return (!transformationMap_.empty());
  }

  /*!
    Set transformation for current domain. It's the method to move transformation in hierarchy
    \param [in] domTrans transformation on domain
  */
  void CDomain::setTransformations(const TransMapTypes& domTrans)
  {
    transformationMap_ = domTrans;
  }

  /*!
    Get all transformation current domain has
    \return all transformation
  */
  CDomain::TransMapTypes CDomain::getAllTransformations(void)
  {
    return transformationMap_;
  }

  void CDomain::duplicateTransformation(CDomain* src)
  {
    if (src->hasTransformation())
    {
      this->setTransformations(src->getAllTransformations());
    }
  }

  /*!
   * Go through the hierarchy to find the domain from which the transformations must be inherited
   */
  void CDomain::solveInheritanceTransformation()
  {
    if (hasTransformation() || !hasDirectDomainReference())
      return;

    CDomain* domain = this;
    std::vector<CDomain*> refDomains;
    while (!domain->hasTransformation() && domain->hasDirectDomainReference())
    {
      refDomains.push_back(domain);
      domain = domain->getDirectDomainReference();
    }

    if (domain->hasTransformation())
      for (size_t i = 0; i < refDomains.size(); ++i)
        refDomains[i]->setTransformations(domain->getAllTransformations());
  }

  /*!
    Parse children nodes of a domain in xml file.
    Whenver there is a new transformation, its type and name should be added into this function
    \param node child node to process
  */
  void CDomain::parse(xml::CXMLNode & node)
  {
    SuperClass::parse(node);

    if (node.goToChildElement())
    {
      StdString nodeElementName;
      do
      {
        StdString nodeId("");
        if (node.getAttributes().end() != node.getAttributes().find("id"))
        { nodeId = node.getAttributes()["id"]; }

        nodeElementName = node.getElementName();
        std::map<StdString, ETranformationType>::const_iterator ite = transformationMapList_.end(), it;
        it = transformationMapList_.find(nodeElementName);
        if (ite != it)
        {
          transformationMap_.push_back(std::make_pair(it->second, CTransformation<CDomain>::createTransformation(it->second,
                                                                                                                nodeId,
                                                                                                                &node)));
        }
        else
        {
          ERROR("void CDomain::parse(xml::CXMLNode & node)",
                << "The transformation " << nodeElementName << " has not been supported yet.");
        }
      } while (node.goToNextElement()) ;
      node.goToParentElement();
    }
  }
   //----------------------------------------------------------------

   DEFINE_REF_FUNC(Domain,domain)

   ///---------------------------------------------------------------

} // namespace xios