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Comparing branches/development/src/parallel/ForceMatrixDecomposition.cpp (file contents):
Revision 1760 by gezelter, Thu Jun 21 19:26:46 2012 UTC vs.
Revision 1855 by gezelter, Tue Apr 2 18:31:51 2013 UTC

# Line 35 | Line 35
35   *                                                                      
36   * [1]  Meineke, et al., J. Comp. Chem. 26, 252-271 (2005).            
37   * [2]  Fennell & Gezelter, J. Chem. Phys. 124, 234104 (2006).          
38 < * [3]  Sun, Lin & Gezelter, J. Chem. Phys. 128, 24107 (2008).          
38 > * [3]  Sun, Lin & Gezelter, J. Chem. Phys. 128, 234107 (2008).          
39   * [4]  Kuang & Gezelter,  J. Chem. Phys. 133, 164101 (2010).
40   * [5]  Vardeman, Stocker & Gezelter, J. Chem. Theory Comput. 7, 834 (2011).
41   */
# Line 310 | Line 310 | namespace OpenMD {
310      
311      RealType tol = 1e-6;
312      largestRcut_ = 0.0;
313 –    RealType rc;
313      int atid;
314      set<AtomType*> atypes = info_->getSimulatedAtomTypes();
315      
# Line 395 | Line 394 | namespace OpenMD {
394        }
395        
396        bool gTypeFound = false;
397 <      for (int gt = 0; gt < gTypeCutoffs.size(); gt++) {
397 >      for (unsigned int gt = 0; gt < gTypeCutoffs.size(); gt++) {
398          if (abs(groupCutoff[cg1] - gTypeCutoffs[gt]) < tol) {
399            groupToGtype[cg1] = gt;
400            gTypeFound = true;
# Line 420 | Line 419 | namespace OpenMD {
419      
420      RealType tradRcut = groupMax;
421  
422 <    for (int i = 0; i < gTypeCutoffs.size();  i++) {
423 <      for (int j = 0; j < gTypeCutoffs.size();  j++) {      
422 >    for (unsigned int i = 0; i < gTypeCutoffs.size();  i++) {
423 >      for (unsigned int j = 0; j < gTypeCutoffs.size();  j++) {      
424          RealType thisRcut;
425          switch(cutoffPolicy_) {
426          case TRADITIONAL:
# Line 477 | Line 476 | namespace OpenMD {
476    }
477  
478    int ForceMatrixDecomposition::getTopologicalDistance(int atom1, int atom2) {
479 <    for (int j = 0; j < toposForAtom[atom1].size(); j++) {
479 >    for (unsigned int j = 0; j < toposForAtom[atom1].size(); j++) {
480        if (toposForAtom[atom1][j] == atom2)
481          return topoDist[atom1][j];
482      }
# Line 488 | Line 487 | namespace OpenMD {
487      pairwisePot = 0.0;
488      embeddingPot = 0.0;
489      excludedPot = 0.0;
490 +    excludedSelfPot = 0.0;
491  
492   #ifdef IS_MPI
493      if (storageLayout_ & DataStorage::dslForce) {
# Line 559 | Line 559 | namespace OpenMD {
559             atomColData.electricField.end(), V3Zero);
560      }
561  
562 –    if (storageLayout_ & DataStorage::dslFlucQForce) {    
563 –      fill(atomRowData.flucQFrc.begin(), atomRowData.flucQFrc.end(),
564 –           0.0);
565 –      fill(atomColData.flucQFrc.begin(), atomColData.flucQFrc.end(),
566 –           0.0);
567 –    }
568 –
562   #endif
563      // even in parallel, we need to zero out the local arrays:
564  
# Line 639 | Line 632 | namespace OpenMD {
632        AtomPlanMatrixColumn->gather(snap_->atomData.aMat,
633                                     atomColData.aMat);
634      }
635 <    
636 <    // if needed, gather the atomic eletrostatic frames
637 <    if (storageLayout_ & DataStorage::dslElectroFrame) {
638 <      AtomPlanMatrixRow->gather(snap_->atomData.electroFrame,
639 <                                atomRowData.electroFrame);
640 <      AtomPlanMatrixColumn->gather(snap_->atomData.electroFrame,
641 <                                   atomColData.electroFrame);
635 >
636 >    // if needed, gather the atomic eletrostatic information
637 >    if (storageLayout_ & DataStorage::dslDipole) {
638 >      AtomPlanVectorRow->gather(snap_->atomData.dipole,
639 >                                atomRowData.dipole);
640 >      AtomPlanVectorColumn->gather(snap_->atomData.dipole,
641 >                                   atomColData.dipole);
642      }
643  
644 +    if (storageLayout_ & DataStorage::dslQuadrupole) {
645 +      AtomPlanMatrixRow->gather(snap_->atomData.quadrupole,
646 +                                atomRowData.quadrupole);
647 +      AtomPlanMatrixColumn->gather(snap_->atomData.quadrupole,
648 +                                   atomColData.quadrupole);
649 +    }
650 +        
651      // if needed, gather the atomic fluctuating charge values
652      if (storageLayout_ & DataStorage::dslFlucQPosition) {
653        AtomPlanRealRow->gather(snap_->atomData.flucQPos,
# Line 679 | Line 679 | namespace OpenMD {
679          snap_->atomData.density[i] += rho_tmp[i];
680      }
681  
682 +    // this isn't necessary if we don't have polarizable atoms, but
683 +    // we'll leave it here for now.
684      if (storageLayout_ & DataStorage::dslElectricField) {
685        
686        AtomPlanVectorRow->scatter(atomRowData.electricField,
# Line 686 | Line 688 | namespace OpenMD {
688        
689        int n = snap_->atomData.electricField.size();
690        vector<Vector3d> field_tmp(n, V3Zero);
691 <      AtomPlanVectorColumn->scatter(atomColData.electricField, field_tmp);
691 >      AtomPlanVectorColumn->scatter(atomColData.electricField,
692 >                                    field_tmp);
693        for (int i = 0; i < n; i++)
694          snap_->atomData.electricField[i] += field_tmp[i];
695      }
# Line 786 | Line 789 | namespace OpenMD {
789              
790      }
791  
792 +    if (storageLayout_ & DataStorage::dslElectricField) {
793 +
794 +      int nef = snap_->atomData.electricField.size();
795 +      vector<Vector3d> efield_tmp(nef, V3Zero);
796 +
797 +      AtomPlanVectorRow->scatter(atomRowData.electricField, efield_tmp);
798 +      for (int i = 0; i < nef; i++) {
799 +        snap_->atomData.electricField[i] += efield_tmp[i];
800 +        efield_tmp[i] = 0.0;
801 +      }
802 +      
803 +      AtomPlanVectorColumn->scatter(atomColData.electricField, efield_tmp);
804 +      for (int i = 0; i < nef; i++)
805 +        snap_->atomData.electricField[i] += efield_tmp[i];
806 +    }
807 +
808 +
809      nLocal_ = snap_->getNumberOfAtoms();
810  
811      vector<potVec> pot_temp(nLocal_,
# Line 907 | Line 927 | namespace OpenMD {
927        MPI::COMM_WORLD.Allreduce(&ploc1, &ploc2, 1, MPI::REALTYPE, MPI::SUM);
928        embeddingPot[ii] = ploc2;
929      }    
930 +    for (int ii = 0; ii < N_INTERACTION_FAMILIES; ii++) {
931 +      RealType ploc1 = excludedSelfPot[ii];
932 +      RealType ploc2 = 0.0;
933 +      MPI::COMM_WORLD.Allreduce(&ploc1, &ploc2, 1, MPI::REALTYPE, MPI::SUM);
934 +      excludedSelfPot[ii] = ploc2;
935 +    }    
936   #endif
937      
938    }
# Line 1036 | Line 1062 | namespace OpenMD {
1062     * the parallel decomposition.
1063     */
1064    bool ForceMatrixDecomposition::skipAtomPair(int atom1, int atom2, int cg1, int cg2) {
1065 <    int unique_id_1, unique_id_2, group1, group2;
1065 >    int unique_id_1, unique_id_2;
1066          
1067   #ifdef IS_MPI
1068      // in MPI, we have to look up the unique IDs for each atom
1069      unique_id_1 = AtomRowToGlobal[atom1];
1070      unique_id_2 = AtomColToGlobal[atom2];
1071 <    group1 = cgRowToGlobal[cg1];
1072 <    group2 = cgColToGlobal[cg2];
1071 >    // group1 = cgRowToGlobal[cg1];
1072 >    // group2 = cgColToGlobal[cg2];
1073   #else
1074      unique_id_1 = AtomLocalToGlobal[atom1];
1075      unique_id_2 = AtomLocalToGlobal[atom2];
1076 <    group1 = cgLocalToGlobal[cg1];
1077 <    group2 = cgLocalToGlobal[cg2];
1076 >    int group1 = cgLocalToGlobal[cg1];
1077 >    int group2 = cgLocalToGlobal[cg2];
1078   #endif  
1079  
1080      if (unique_id_1 == unique_id_2) return true;
# Line 1126 | Line 1152 | namespace OpenMD {
1152        idat.A2 = &(atomColData.aMat[atom2]);
1153      }
1154      
1129 –    if (storageLayout_ & DataStorage::dslElectroFrame) {
1130 –      idat.eFrame1 = &(atomRowData.electroFrame[atom1]);
1131 –      idat.eFrame2 = &(atomColData.electroFrame[atom2]);
1132 –    }
1133 –
1155      if (storageLayout_ & DataStorage::dslTorque) {
1156        idat.t1 = &(atomRowData.torque[atom1]);
1157        idat.t2 = &(atomColData.torque[atom2]);
1158      }
1159  
1160 +    if (storageLayout_ & DataStorage::dslDipole) {
1161 +      idat.dipole1 = &(atomRowData.dipole[atom1]);
1162 +      idat.dipole2 = &(atomColData.dipole[atom2]);
1163 +    }
1164 +
1165 +    if (storageLayout_ & DataStorage::dslQuadrupole) {
1166 +      idat.quadrupole1 = &(atomRowData.quadrupole[atom1]);
1167 +      idat.quadrupole2 = &(atomColData.quadrupole[atom2]);
1168 +    }
1169 +
1170      if (storageLayout_ & DataStorage::dslDensity) {
1171        idat.rho1 = &(atomRowData.density[atom1]);
1172        idat.rho2 = &(atomColData.density[atom2]);
# Line 1175 | Line 1206 | namespace OpenMD {
1206        idat.A2 = &(snap_->atomData.aMat[atom2]);
1207      }
1208  
1178 –    if (storageLayout_ & DataStorage::dslElectroFrame) {
1179 –      idat.eFrame1 = &(snap_->atomData.electroFrame[atom1]);
1180 –      idat.eFrame2 = &(snap_->atomData.electroFrame[atom2]);
1181 –    }
1182 –
1209      if (storageLayout_ & DataStorage::dslTorque) {
1210        idat.t1 = &(snap_->atomData.torque[atom1]);
1211        idat.t2 = &(snap_->atomData.torque[atom2]);
1212      }
1213  
1214 +    if (storageLayout_ & DataStorage::dslDipole) {
1215 +      idat.dipole1 = &(snap_->atomData.dipole[atom1]);
1216 +      idat.dipole2 = &(snap_->atomData.dipole[atom2]);
1217 +    }
1218 +
1219 +    if (storageLayout_ & DataStorage::dslQuadrupole) {
1220 +      idat.quadrupole1 = &(snap_->atomData.quadrupole[atom1]);
1221 +      idat.quadrupole2 = &(snap_->atomData.quadrupole[atom2]);
1222 +    }
1223 +
1224      if (storageLayout_ & DataStorage::dslDensity) {    
1225        idat.rho1 = &(snap_->atomData.density[atom1]);
1226        idat.rho2 = &(snap_->atomData.density[atom2]);
# Line 1289 | Line 1325 | namespace OpenMD {
1325   #endif
1326  
1327      RealType rList_ = (largestRcut_ + skinThickness_);
1292 –    RealType rl2 = rList_ * rList_;
1328      Snapshot* snap_ = sman_->getCurrentSnapshot();
1329      Mat3x3d Hmat = snap_->getHmat();
1330      Vector3d Hx = Hmat.getColumn(0);
# Line 1333 | Line 1368 | namespace OpenMD {
1368          for (int j = 0; j < 3; j++) {
1369            scaled[j] -= roundMe(scaled[j]);
1370            scaled[j] += 0.5;
1371 +          // Handle the special case when an object is exactly on the
1372 +          // boundary (a scaled coordinate of 1.0 is the same as
1373 +          // scaled coordinate of 0.0)
1374 +          if (scaled[j] >= 1.0) scaled[j] -= 1.0;
1375          }
1376          
1377          // find xyz-indices of cell that cutoffGroup is in.
# Line 1357 | Line 1396 | namespace OpenMD {
1396          for (int j = 0; j < 3; j++) {
1397            scaled[j] -= roundMe(scaled[j]);
1398            scaled[j] += 0.5;
1399 +          // Handle the special case when an object is exactly on the
1400 +          // boundary (a scaled coordinate of 1.0 is the same as
1401 +          // scaled coordinate of 0.0)
1402 +          if (scaled[j] >= 1.0) scaled[j] -= 1.0;
1403          }
1404          
1405          // find xyz-indices of cell that cutoffGroup is in.
# Line 1383 | Line 1426 | namespace OpenMD {
1426          for (int j = 0; j < 3; j++) {
1427            scaled[j] -= roundMe(scaled[j]);
1428            scaled[j] += 0.5;
1429 +          // Handle the special case when an object is exactly on the
1430 +          // boundary (a scaled coordinate of 1.0 is the same as
1431 +          // scaled coordinate of 0.0)
1432 +          if (scaled[j] >= 1.0) scaled[j] -= 1.0;
1433          }
1434          
1435          // find xyz-indices of cell that cutoffGroup is in.

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