| 125 |
|
//equal to the total number of atoms minus number of atoms belong to |
| 126 |
|
//cutoff group defined in meta-data file plus the number of cutoff |
| 127 |
|
//groups defined in meta-data file |
| 128 |
– |
std::cerr << "nGA = " << nGlobalAtoms_ << "\n"; |
| 129 |
– |
std::cerr << "nCA = " << nCutoffAtoms << "\n"; |
| 130 |
– |
std::cerr << "nG = " << nGroups << "\n"; |
| 128 |
|
|
| 129 |
|
nGlobalCutoffGroups_ = nGlobalAtoms_ - nCutoffAtoms + nGroups; |
| 133 |
– |
|
| 134 |
– |
std::cerr << "nGCG = " << nGlobalCutoffGroups_ << "\n"; |
| 130 |
|
|
| 131 |
|
//every free atom (atom does not belong to rigid bodies) is an |
| 132 |
|
//integrable object therefore the total number of integrable objects |
| 269 |
|
#endif |
| 270 |
|
return fdf_; |
| 271 |
|
} |
| 272 |
+ |
|
| 273 |
+ |
unsigned int SimInfo::getNLocalCutoffGroups(){ |
| 274 |
+ |
int nLocalCutoffAtoms = 0; |
| 275 |
+ |
Molecule* mol; |
| 276 |
+ |
MoleculeIterator mi; |
| 277 |
+ |
CutoffGroup* cg; |
| 278 |
+ |
Molecule::CutoffGroupIterator ci; |
| 279 |
|
|
| 280 |
+ |
for (mol = beginMolecule(mi); mol != NULL; mol = nextMolecule(mi)) { |
| 281 |
+ |
|
| 282 |
+ |
for (cg = mol->beginCutoffGroup(ci); cg != NULL; |
| 283 |
+ |
cg = mol->nextCutoffGroup(ci)) { |
| 284 |
+ |
nLocalCutoffAtoms += cg->getNumAtom(); |
| 285 |
+ |
|
| 286 |
+ |
} |
| 287 |
+ |
} |
| 288 |
+ |
|
| 289 |
+ |
return nAtoms_ - nLocalCutoffAtoms + nCutoffGroups_; |
| 290 |
+ |
} |
| 291 |
+ |
|
| 292 |
|
void SimInfo::calcNdfRaw() { |
| 293 |
|
int ndfRaw_local; |
| 294 |
|
|
| 694 |
|
Atom* atom; |
| 695 |
|
set<AtomType*> atomTypes; |
| 696 |
|
|
| 697 |
< |
for(mol = beginMolecule(mi); mol != NULL; mol = nextMolecule(mi)) { |
| 698 |
< |
for(atom = mol->beginAtom(ai); atom != NULL; atom = mol->nextAtom(ai)) { |
| 697 |
> |
for(mol = beginMolecule(mi); mol != NULL; mol = nextMolecule(mi)) { |
| 698 |
> |
for(atom = mol->beginAtom(ai); atom != NULL; |
| 699 |
> |
atom = mol->nextAtom(ai)) { |
| 700 |
|
atomTypes.insert(atom->getAtomType()); |
| 701 |
|
} |
| 702 |
|
} |
| 703 |
< |
|
| 703 |
> |
|
| 704 |
|
#ifdef IS_MPI |
| 705 |
|
|
| 706 |
|
// loop over the found atom types on this processor, and add their |
| 707 |
|
// numerical idents to a vector: |
| 708 |
< |
|
| 708 |
> |
|
| 709 |
|
vector<int> foundTypes; |
| 710 |
|
set<AtomType*>::iterator i; |
| 711 |
|
for (i = atomTypes.begin(); i != atomTypes.end(); ++i) |
| 714 |
|
// count_local holds the number of found types on this processor |
| 715 |
|
int count_local = foundTypes.size(); |
| 716 |
|
|
| 717 |
< |
// count holds the total number of found types on all processors |
| 703 |
< |
// (some will be redundant with the ones found locally): |
| 704 |
< |
int count; |
| 705 |
< |
MPI::COMM_WORLD.Allreduce(&count_local, &count, 1, MPI::INT, MPI::SUM); |
| 717 |
> |
int nproc = MPI::COMM_WORLD.Get_size(); |
| 718 |
|
|
| 719 |
< |
// create a vector to hold the globally found types, and resize it: |
| 720 |
< |
vector<int> ftGlobal; |
| 721 |
< |
ftGlobal.resize(count); |
| 722 |
< |
vector<int> counts; |
| 719 |
> |
// we need arrays to hold the counts and displacement vectors for |
| 720 |
> |
// all processors |
| 721 |
> |
vector<int> counts(nproc, 0); |
| 722 |
> |
vector<int> disps(nproc, 0); |
| 723 |
|
|
| 724 |
< |
int nproc = MPI::COMM_WORLD.Get_size(); |
| 725 |
< |
counts.resize(nproc); |
| 726 |
< |
vector<int> disps; |
| 727 |
< |
disps.resize(nproc); |
| 724 |
> |
// fill the counts array |
| 725 |
> |
MPI::COMM_WORLD.Allgather(&count_local, 1, MPI::INT, &counts[0], |
| 726 |
> |
1, MPI::INT); |
| 727 |
> |
|
| 728 |
> |
// use the processor counts to compute the displacement array |
| 729 |
> |
disps[0] = 0; |
| 730 |
> |
int totalCount = counts[0]; |
| 731 |
> |
for (int iproc = 1; iproc < nproc; iproc++) { |
| 732 |
> |
disps[iproc] = disps[iproc-1] + counts[iproc-1]; |
| 733 |
> |
totalCount += counts[iproc]; |
| 734 |
> |
} |
| 735 |
|
|
| 736 |
< |
// now spray out the foundTypes to all the other processors: |
| 736 |
> |
// we need a (possibly redundant) set of all found types: |
| 737 |
> |
vector<int> ftGlobal(totalCount); |
| 738 |
|
|
| 739 |
+ |
// now spray out the foundTypes to all the other processors: |
| 740 |
|
MPI::COMM_WORLD.Allgatherv(&foundTypes[0], count_local, MPI::INT, |
| 741 |
< |
&ftGlobal[0], &counts[0], &disps[0], MPI::INT); |
| 741 |
> |
&ftGlobal[0], &counts[0], &disps[0], |
| 742 |
> |
MPI::INT); |
| 743 |
|
|
| 744 |
+ |
vector<int>::iterator j; |
| 745 |
+ |
|
| 746 |
|
// foundIdents is a stl set, so inserting an already found ident |
| 747 |
|
// will have no effect. |
| 748 |
|
set<int> foundIdents; |
| 749 |
< |
vector<int>::iterator j; |
| 749 |
> |
|
| 750 |
|
for (j = ftGlobal.begin(); j != ftGlobal.end(); ++j) |
| 751 |
|
foundIdents.insert((*j)); |
| 752 |
|
|
| 753 |
|
// now iterate over the foundIdents and get the actual atom types |
| 754 |
|
// that correspond to these: |
| 755 |
|
set<int>::iterator it; |
| 756 |
< |
for (it = foundIdents.begin(); it != foundIdents.end(); ++it) |
| 756 |
> |
for (it = foundIdents.begin(); it != foundIdents.end(); ++it) |
| 757 |
|
atomTypes.insert( forceField_->getAtomType((*it)) ); |
| 758 |
|
|
| 759 |
|
#endif |
| 760 |
< |
|
| 760 |
> |
|
| 761 |
|
return atomTypes; |
| 762 |
|
} |
| 763 |
|
|
| 769 |
|
if ( simParams_->getAccumulateBoxDipole() ) { |
| 770 |
|
calcBoxDipole_ = true; |
| 771 |
|
} |
| 772 |
< |
|
| 772 |
> |
|
| 773 |
|
set<AtomType*>::iterator i; |
| 774 |
|
set<AtomType*> atomTypes; |
| 775 |
|
atomTypes = getSimulatedAtomTypes(); |
| 782 |
|
usesMetallic |= (*i)->isMetal(); |
| 783 |
|
usesDirectional |= (*i)->isDirectional(); |
| 784 |
|
} |
| 785 |
< |
|
| 785 |
> |
|
| 786 |
|
#ifdef IS_MPI |
| 787 |
|
int temp; |
| 788 |
|
temp = usesDirectional; |
| 789 |
|
MPI_Allreduce(&temp, &usesDirectionalAtoms_, 1, MPI_INT, MPI_LOR, MPI_COMM_WORLD); |
| 790 |
< |
|
| 790 |
> |
|
| 791 |
|
temp = usesMetallic; |
| 792 |
|
MPI_Allreduce(&temp, &usesMetallicAtoms_, 1, MPI_INT, MPI_LOR, MPI_COMM_WORLD); |
| 793 |
< |
|
| 793 |
> |
|
| 794 |
|
temp = usesElectrostatic; |
| 795 |
|
MPI_Allreduce(&temp, &usesElectrostaticAtoms_, 1, MPI_INT, MPI_LOR, MPI_COMM_WORLD); |
| 796 |
+ |
#else |
| 797 |
+ |
|
| 798 |
+ |
usesDirectionalAtoms_ = usesDirectional; |
| 799 |
+ |
usesMetallicAtoms_ = usesMetallic; |
| 800 |
+ |
usesElectrostaticAtoms_ = usesElectrostatic; |
| 801 |
+ |
|
| 802 |
|
#endif |
| 803 |
+ |
|
| 804 |
+ |
requiresPrepair_ = usesMetallicAtoms_ ? true : false; |
| 805 |
+ |
requiresSkipCorrection_ = usesElectrostaticAtoms_ ? true : false; |
| 806 |
+ |
requiresSelfCorrection_ = usesElectrostaticAtoms_ ? true : false; |
| 807 |
|
} |
| 808 |
|
|
| 809 |
|
|
| 819 |
|
|
| 820 |
|
for (atom = mol->beginAtom(ai); atom != NULL; atom = mol->nextAtom(ai)) { |
| 821 |
|
GlobalAtomIndices[atom->getLocalIndex()] = atom->getGlobalIndex(); |
| 822 |
+ |
cerr << "LI = " << atom->getLocalIndex() << "GAI = " << GlobalAtomIndices[atom->getLocalIndex()] << "\n"; |
| 823 |
|
} |
| 824 |
|
} |
| 825 |
|
return GlobalAtomIndices; |
| 841 |
|
for (cg = mol->beginCutoffGroup(ci); cg != NULL; |
| 842 |
|
cg = mol->nextCutoffGroup(ci)) { |
| 843 |
|
GlobalGroupIndices.push_back(cg->getGlobalIndex()); |
| 844 |
+ |
cerr << "LI, GGI = " << GlobalGroupIndices.size() << " " << cg->getGlobalIndex() << "\n"; |
| 845 |
|
} |
| 846 |
|
} |
| 847 |
|
return GlobalGroupIndices; |
| 860 |
|
Atom* atom; |
| 861 |
|
RealType totalMass; |
| 862 |
|
|
| 863 |
< |
//to avoid memory reallocation, reserve enough space for massFactors_ |
| 863 |
> |
/** |
| 864 |
> |
* The mass factor is the relative mass of an atom to the total |
| 865 |
> |
* mass of the cutoff group it belongs to. By default, all atoms |
| 866 |
> |
* are their own cutoff groups, and therefore have mass factors of |
| 867 |
> |
* 1. We need some special handling for massless atoms, which |
| 868 |
> |
* will be treated as carrying the entire mass of the cutoff |
| 869 |
> |
* group. |
| 870 |
> |
*/ |
| 871 |
|
massFactors_.clear(); |
| 872 |
< |
massFactors_.reserve(getNCutoffGroups()); |
| 872 |
> |
massFactors_.resize(getNAtoms(), 1.0); |
| 873 |
|
|
| 874 |
|
for(mol = beginMolecule(mi); mol != NULL; mol = nextMolecule(mi)) { |
| 875 |
|
for (cg = mol->beginCutoffGroup(ci); cg != NULL; |
| 878 |
|
totalMass = cg->getMass(); |
| 879 |
|
for(atom = cg->beginAtom(ai); atom != NULL; atom = cg->nextAtom(ai)) { |
| 880 |
|
// Check for massless groups - set mfact to 1 if true |
| 881 |
< |
if (totalMass != 0) |
| 882 |
< |
massFactors_.push_back(atom->getMass()/totalMass); |
| 881 |
> |
if (totalMass != 0) |
| 882 |
> |
massFactors_[atom->getLocalIndex()] = atom->getMass()/totalMass; |
| 883 |
|
else |
| 884 |
< |
massFactors_.push_back( 1.0 ); |
| 884 |
> |
massFactors_[atom->getLocalIndex()] = 1.0; |
| 885 |
|
} |
| 886 |
|
} |
| 887 |
|
} |
| 908 |
|
int* oneThreeList = oneThreeInteractions_.getPairList(); |
| 909 |
|
int* oneFourList = oneFourInteractions_.getPairList(); |
| 910 |
|
|
| 868 |
– |
//setFortranSim( &fInfo_, &nGlobalAtoms_, &nAtoms_, &identArray_[0], |
| 869 |
– |
// &nExclude, excludeList, |
| 870 |
– |
// &nOneTwo, oneTwoList, |
| 871 |
– |
// &nOneThree, oneThreeList, |
| 872 |
– |
// &nOneFour, oneFourList, |
| 873 |
– |
// &molMembershipArray[0], &mfact[0], &nCutoffGroups_, |
| 874 |
– |
// &fortranGlobalGroupMembership[0], &isError); |
| 875 |
– |
|
| 911 |
|
topologyDone_ = true; |
| 912 |
|
} |
| 913 |
|
|
