void SerialBlockCommunicator2D::communicate (
std::vector<Overlap2D> const& overlaps,
MultiBlock2D const& originMultiBlock, MultiBlock2D& destinationMultiBlock,
modif::ModifT whichData ) const
{
for (pluint iOverlap=0; iOverlap<overlaps.size(); ++iOverlap) {
copyOverlap(overlaps[iOverlap], originMultiBlock, destinationMultiBlock, whichData);
}
}
void SerialBlockCommunicator2D::duplicateOverlaps(MultiBlock2D& multiBlock, modif::ModifT whichData) const
{
MultiBlockManagement2D const& multiBlockManagement = multiBlock.getMultiBlockManagement();
LocalMultiBlockInfo2D const& localInfo = multiBlockManagement.getLocalInfo();
// Non-periodic communication
for (pluint iOverlap=0; iOverlap<localInfo.getNormalOverlaps().size(); ++iOverlap) {
copyOverlap(localInfo.getNormalOverlaps()[iOverlap], multiBlock, multiBlock, whichData);
}
// Periodic communication
PeriodicitySwitch2D const& periodicity = multiBlock.periodicity();
for (pluint iOverlap=0; iOverlap<localInfo.getPeriodicOverlaps().size(); ++iOverlap) {
PeriodicOverlap2D const& pOverlap = localInfo.getPeriodicOverlaps()[iOverlap];
if (periodicity.get(pOverlap.normalX, pOverlap.normalY)) {
copyOverlap(pOverlap.overlap, multiBlock, multiBlock, whichData);
}
}
}
template <class T, typename S> T* ArrayBase<T,S>::replace(S start, S end, S size)
{
FW_ASSERT(start >= 0);
FW_ASSERT(start <= end);
FW_ASSERT(end <= m_size);
FW_ASSERT(size >= 0);
S tailSize = m_size - end;
S newEnd = start + size;
resize(m_size + newEnd - end);
copyOverlap(m_ptr + newEnd, m_ptr + end, tailSize);
return m_ptr + start;
}
