/* * Project: MoleCuilder * Description: creates and alters molecular systems * Copyright (C) 2012 University of Bonn. All rights reserved. * Copyright (C) 2013 Frederik Heber. All rights reserved. * * * This file is part of MoleCuilder. * * MoleCuilder is free software: you can redistribute it and/or modify * it under the terms of the GNU General Public License as published by * the Free Software Foundation, either version 2 of the License, or * (at your option) any later version. * * MoleCuilder is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the * GNU General Public License for more details. * * You should have received a copy of the GNU General Public License * along with MoleCuilder. If not, see . */ /* * VMGFragmentController.cpp * * Created on: Aug 27, 2012 * Author: heber */ // include config.h #ifdef HAVE_CONFIG_H #include #endif // boost asio needs specific operator new #include #include "CodePatterns/MemDebug.hpp" #include "VMGFragmentController.hpp" #include "Atom/atom.hpp" #include "Element/element.hpp" #include "Helpers/defs.hpp" #include "Jobs/VMGJob.hpp" #include "molecule.hpp" #include "Potentials/Particles/Particle.hpp" #include "Potentials/Particles/ParticleRegistry.hpp" #include "World.hpp" /** Helper function for the number of core electrons of a given element \a z. * * \param z atomic number of element * \return number of core electrons for this element */ static int getCoreElectrons(const int z) { int n=0; if (z > 2) n += 2; if (z > 10) n += 8; if (z > 18) n += 8; if (z > 30) n += 10; if (z > 36) n += 8; if (z > 48) n += 10; if (z > 54) n += 8; return n; } bool VMGFragmentController::createLongRangeJobs( const std::map &fragmentData, const std::vector &full_sampled_grid, const size_t near_field_cells, const size_t interpolation_degree, const SampleParticles_t _SampleParticles, const TreatGrid_t _TreatGrid, const MPQCData::DoValenceOnly_t _DoValenceOnly, const bool _DoPrintDebug, const bool _OpenBoundaryConditions, const bool _DoSmearCharges, const bool _UseImplicitCharges) { std::vector jobs; /// add one job for each fragment as the short-range correction which we need /// to subtract from the obtained full potential to get the long-range part only for (std::map::const_iterator iter = fragmentData.begin(); iter != fragmentData.end(); ++iter) { const JobId_t next_id = getAvailableId(); const MPQCData &data = iter->second; LOG(1, "INFO: Creating VMGJob with " << data.sampled_grid << " gridpoints and " << data.charges.size() << " particle charges."); FragmentJob::ptr testJob( new VMGJob( next_id, _TreatGrid == DoTreatGrid ? data.sampled_grid : SamplingGrid(data.sampled_grid.begin, data.sampled_grid.end, data.sampled_grid.level), data.positions, data.charges, near_field_cells, interpolation_degree, _SampleParticles == DoSampleParticles, _DoPrintDebug, _OpenBoundaryConditions, _DoSmearCharges) ); jobs.push_back(testJob); } /// prepare positions and charges of full system /// \note we cannot use the summed up Fragment here, as the saturation hydrogens /// are in the way and cannot be sorted out properly/in a simple fashion. std::vector< std::vector > positions; std::vector charges; const World &world = const_cast(World::getInstance()); const ParticleRegistry ®istry = const_cast(ParticleRegistry::getInstance()); { const World::ConstAtomComposite &atoms = world.getAllAtoms(); positions.reserve(atoms.size()); charges.reserve(atoms.size()); std::vector position(3, 0.); for (World::ConstAtomComposite::const_iterator iter = atoms.begin(); iter != atoms.end(); ++iter) { // set position for this atom const Vector &pos = (*iter)->getPosition(); // convert positions to atomic length units for (size_t i=0;i<3;++i) position[i] = pos[i]/AtomicLengthToAngstroem; // use partial charges ... const atomId_t atomid = (*iter)->getId(); if ((!world.isAtomSelected(atomid)) && (_UseImplicitCharges)) { // ... for all unselected particles ... std::string particlename = (*iter)->getParticleName(); if (particlename.empty()) particlename = (*iter)->getElement().getSymbol(); if (registry.isPresentByName(particlename)) { // ... that are present in ParticleRegistry const Particle * const particle = registry.getByName(particlename); LOG(3, "DEBUG: Using implicit charge " << particle->charge << " of particle " << particle->getName() << " for atom " << atomid); positions.push_back(position); charges.push_back(particle->charge); } } else { double charge = (*iter)->getElement().getAtomicNumber(); // subtract core electron charge from nuclei charge if only valence sampled if (_DoValenceOnly == MPQCData::DoSampleValenceOnly) charge -= getCoreElectrons(charge); positions.push_back(position); charges.push_back((double)charge); } } } /// and submit full job for(std::vector::const_iterator iter = full_sampled_grid.begin(); iter != full_sampled_grid.end(); ++iter) { const SamplingGrid &grid = *iter; const JobId_t next_id = getAvailableId(); LOG(1, "INFO: Creating full VMGJob with " << *iter << " gridpoints and " << charges.size() << " particle charges."); FragmentJob::ptr testJob( new VMGJob( next_id, _TreatGrid == DoTreatGrid ? grid : SamplingGrid(grid.begin, grid.end, grid.level), positions, charges, near_field_cells, interpolation_degree, _SampleParticles == DoSampleParticles, _DoPrintDebug, _OpenBoundaryConditions, _DoSmearCharges) ); jobs.push_back(testJob); } /// then send jobs to controller addJobs(jobs); sendJobs(host, port); RunService("Adding VMGJobs"); return true; }