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#include <cmath> |
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#include "nonbonded/EAM.hpp" |
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#include "utils/simError.h" |
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#include "types/NonBondedInteractionType.hpp" |
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namespace OpenMD { |
52 |
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|
53 |
< |
bool EAM::initialized_ = false; |
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< |
ForceField* EAM::forceField_ = NULL; |
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< |
std::map<int, AtomType*> EAM::EAMlist; |
55 |
< |
std::map<AtomType*, EAMAtomData> EAM::EAMMap; |
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< |
std::map<std::pair<AtomType*, AtomType*>, EAMInteractionData> EAM::MixingMap; |
53 |
> |
EAM::EAM() : name_("EAM"), initialized_(false), forceField_(NULL), |
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> |
mixMeth_(eamJohnson), eamRcut_(0.0) {} |
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|
58 |
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EAM* EAM::_instance = NULL; |
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|
60 |
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EAM* EAM::Instance() { |
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if (!_instance) { |
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_instance = new EAM(); |
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} |
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return _instance; |
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} |
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|
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EAMParam EAM::getEAMParam(AtomType* atomType) { |
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// Do sanity checking on the AtomType we were passed before |
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RealType dr = eamParam.dr; |
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vector<RealType> rvals; |
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|
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for (int i = 0; i < nr; i++) rvals.push_back(i * dr); |
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for (int i = 0; i < nr; i++) rvals.push_back(RealType(i) * dr); |
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|
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CubicSpline* cs = new CubicSpline(); |
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cs->addPoints(rvals, eamParam.Z); |
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return cs; |
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} |
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RealType EAM::getRcut(AtomType* atomType) { |
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EAMParam eamParam = getEAMParam(atomType); |
108 |
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return eamParam.rcut; |
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} |
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|
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CubicSpline* EAM::getRho(AtomType* atomType) { |
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EAMParam eamParam = getEAMParam(atomType); |
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int nr = eamParam.nr; |
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RealType dr = eamParam.dr; |
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vector<RealType> rvals; |
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|
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for (int i = 0; i < nr; i++) rvals.push_back(i * dr); |
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> |
for (int i = 0; i < nr; i++) rvals.push_back(RealType(i) * dr); |
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|
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CubicSpline* cs = new CubicSpline(); |
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cs->addPoints(rvals, eamParam.rho); |
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vector<RealType> scaledF; |
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|
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for (int i = 0; i < nrho; i++) { |
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rhovals.push_back(i * drho); |
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rhovals.push_back(RealType(i) * drho); |
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scaledF.push_back( eamParam.F[i] * 23.06054 ); |
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} |
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CubicSpline* cs = new CubicSpline(); |
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cs->addPoints(rhovals, eamParam.F); |
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cs->addPoints(rhovals, scaledF); |
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return cs; |
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} |
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// make the r grid: |
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// set rcut to be the smaller of the two atomic rcuts |
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|
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RealType rcut = eamParam1.rcut < eamParam2.rcut ? |
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eamParam1.rcut : eamParam2.rcut; |
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// we need phi out to the largest value we'll encounter in the radial space; |
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|
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RealType rmax = 0.0; |
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rmax = max(rmax, eamParam1.rcut); |
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rmax = max(rmax, eamParam1.nr * eamParam1.dr); |
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|
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// use the smallest dr (finest grid) to build our grid: |
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rmax = max(rmax, eamParam2.rcut); |
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rmax = max(rmax, eamParam2.nr * eamParam2.dr); |
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|
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RealType dr = eamParam1.dr < eamParam2.dr ? eamParam1.dr : eamParam2.dr; |
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int nr = int(rcut/dr); |
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// use the smallest dr (finest grid) to build our grid: |
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|
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RealType dr = min(eamParam1.dr, eamParam2.dr); |
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|
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int nr = int(rmax/dr + 0.5); |
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|
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vector<RealType> rvals; |
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for (int i = 0; i < nr; i++) rvals.push_back(i*dr); |
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for (int i = 0; i < nr; i++) rvals.push_back(RealType(i*dr)); |
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// construct the pair potential: |
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for (int i = 1; i < rvals.size(); i++ ) { |
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r = rvals[i]; |
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zi = z1->getValueAt(r); |
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zj = z2->getValueAt(r); |
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// only use z(r) if we're inside this atom's cutoff radius, |
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// otherwise, we'll use zero for the charge. This effectively |
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// means that our phi grid goes out beyond the cutoff of the |
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// pair potential |
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|
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zi = r <= eamParam1.rcut ? z1->getValueAt(r) : 0.0; |
186 |
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zj = r <= eamParam2.rcut ? z2->getValueAt(r) : 0.0; |
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|
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phi = 331.999296 * (zi * zj) / r; |
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|
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phivals.push_back(phi); |
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} |
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void EAM::initialize() { |
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|
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// set up the mixing method: |
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ForceFieldOptions ffo = forceField_->getForceFieldOptions(); |
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string EAMMixMeth = toUpperCopy(ffo.getEAMMixingMethod()); |
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|
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ForceFieldOptions& fopts = forceField_->getForceFieldOptions(); |
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> |
string EAMMixMeth = fopts.getEAMMixingMethod(); |
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toUpper(EAMMixMeth); |
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> |
|
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if (EAMMixMeth == "JOHNSON") |
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mixMeth_ = eamJohnson; |
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else if (EAMMixMeth == "DAW") |
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if (nbt->isEAM()) { |
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std::pair<AtomType*, AtomType*> atypes = nbt->getAtomTypes(); |
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> |
pair<AtomType*, AtomType*> atypes = nbt->getAtomTypes(); |
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GenericData* data = nbt->getPropertyByName("EAM"); |
237 |
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if (data == NULL) { |
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simError(); |
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} |
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259 |
< |
EAMMix eamParam = eamData->getData(); |
259 |
> |
EAMMixingParam eamParam = eamData->getData(); |
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|
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< |
vector<RealType> phiAB = eamParam.phiAB; |
261 |
> |
vector<RealType> phiAB = eamParam.phi; |
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RealType dr = eamParam.dr; |
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int nr = eamParam.nr; |
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void EAM::addType(AtomType* atomType){ |
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EAMAtomData eamAtomData; |
276 |
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|
276 |
> |
|
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eamAtomData.rho = getRho(atomType); |
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eamAtomData.F = getF(atomType); |
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eamAtomData.Z = getZ(atomType); |
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// add it to the map: |
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AtomTypeProperties atp = atomType->getATP(); |
284 |
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|
285 |
< |
std::pair<std::map<int,AtomType*>::iterator,bool> ret; |
286 |
< |
ret = EAMlist.insert( std::pair<int, AtomType*>(atp.ident, atomType) ); |
285 |
> |
pair<map<int,AtomType*>::iterator,bool> ret; |
286 |
> |
ret = EAMlist.insert( pair<int, AtomType*>(atp.ident, atomType) ); |
287 |
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if (ret.second == false) { |
288 |
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sprintf( painCave.errMsg, |
289 |
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"EAM already had a previous entry with ident %d\n", |
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// Now, iterate over all known types and add to the mixing map: |
299 |
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|
300 |
< |
std::map<int, AtomType*>::iterator it; |
300 |
> |
map<AtomType*, EAMAtomData>::iterator it; |
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for( it = EAMMap.begin(); it != EAMMap.end(); ++it) { |
302 |
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< |
AtomType* atype2 = (*it).second; |
303 |
> |
AtomType* atype2 = (*it).first; |
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EAMInteractionData mixer; |
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mixer.phi = getPhi(atomType, atype2); |
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mixer.explicitlySet = false; |
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< |
std::pair<AtomType*, AtomType*> key1, key2; |
310 |
< |
key1 = std::make_pair(atomType, atype2); |
311 |
< |
key2 = std::make_pair(atype2, atomType); |
309 |
> |
pair<AtomType*, AtomType*> key1, key2; |
310 |
> |
key1 = make_pair(atomType, atype2); |
311 |
> |
key2 = make_pair(atype2, atomType); |
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MixingMap[key1] = mixer; |
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if (key2 != key1) { |
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EAMInteractionData mixer; |
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CubicSpline* cs = new CubicSpline(); |
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< |
vector<RealType> rvals; |
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> |
vector<RealType> rVals; |
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|
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< |
for (int i = 0; i < nr; i++) rvals.push_back(i * dr); |
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> |
for (int i = 0; i < nr; i++) rVals.push_back(i * dr); |
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cs->addPoints(rVals, phiVals); |
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mixer.phi = cs; |
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mixer.explicitlySet = true; |
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< |
std::pair<AtomType*, AtomType*> key1, key2; |
340 |
< |
key1 = std::make_pair(atype1, atype2); |
341 |
< |
key2 = std::make_pair(atype2, atype1); |
339 |
> |
pair<AtomType*, AtomType*> key1, key2; |
340 |
> |
key1 = make_pair(atype1, atype2); |
341 |
> |
key2 = make_pair(atype2, atype1); |
342 |
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MixingMap[key1] = mixer; |
344 |
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if (key2 != key1) { |
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return; |
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} |
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< |
void EAM::calcDensity(AtomType* at1, AtomType* at2, Vector3d d, |
351 |
< |
RealType rij, RealType r2, RealType rho_i_at_j, |
343 |
< |
RealType rho_j_at_i) { |
344 |
< |
|
350 |
> |
void EAM::calcDensity(DensityData ddat) { |
351 |
> |
|
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if (!initialized_) initialize(); |
353 |
+ |
|
354 |
+ |
EAMAtomData data1 = EAMMap[ddat.atype1]; |
355 |
+ |
EAMAtomData data2 = EAMMap[ddat.atype2]; |
356 |
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|
357 |
< |
EAMAtomData data1 = EAMMap[at1]; |
358 |
< |
EAMAtomData data2 = EAMMap[at2]; |
357 |
> |
if (ddat.rij < data1.rcut) |
358 |
> |
ddat.rho_i_at_j = data1.rho->getValueAt(ddat.rij); |
359 |
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|
360 |
< |
if (rij < data1.rcut) rho_i_at_j = data1.rho->getValueAt(rij); |
361 |
< |
if (rij < data2.rcut) rho_j_at_i = data2.rho->getValueAt(rij); |
360 |
> |
if (ddat.rij < data2.rcut) |
361 |
> |
ddat.rho_j_at_i = data2.rho->getValueAt(ddat.rij); |
362 |
> |
|
363 |
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return; |
364 |
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} |
365 |
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|
366 |
< |
void EAM::calcFunctional(AtomType* at1, RealType rho, RealType frho, |
356 |
< |
RealType dfrhodrho) { |
366 |
> |
void EAM::calcFunctional(FunctionalData fdat) { |
367 |
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|
368 |
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if (!initialized_) initialize(); |
369 |
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|
370 |
< |
EAMAtomData data1 = EAMMap[at1]; |
370 |
> |
EAMAtomData data1 = EAMMap[fdat.atype]; |
371 |
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|
372 |
< |
pair<RealType, RealType> result = data1.F->getValueAndDerivativeAt(rho); |
372 |
> |
pair<RealType, RealType> result = data1.F->getValueAndDerivativeAt(fdat.rho); |
373 |
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|
374 |
< |
frho = result.first; |
375 |
< |
dfrhodrho = result.second; |
374 |
> |
fdat.frho = result.first; |
375 |
> |
fdat.dfrhodrho = result.second; |
376 |
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return; |
377 |
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} |
378 |
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379 |
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|
380 |
< |
void EAM::calcForce(AtomType* at1, AtomType* at2, Vector3d d, |
371 |
< |
RealType rij, RealType r2, RealType sw, |
372 |
< |
RealType &vpair, RealType &pot, Vector3d &f1, |
373 |
< |
RealType rho1, RealType rho2, RealType dfrho1, |
374 |
< |
RealType dfrho2, RealType fshift1, RealType fshift2) { |
380 |
> |
void EAM::calcForce(InteractionData idat) { |
381 |
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|
382 |
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if (!initialized_) initialize(); |
383 |
< |
|
383 |
> |
|
384 |
|
pair<RealType, RealType> res; |
385 |
|
|
386 |
< |
if (rij < eamRcut_) { |
386 |
> |
if (idat.rij < eamRcut_) { |
387 |
|
|
388 |
< |
EAMAtomData data1 = EAMMap[at1]; |
389 |
< |
EAMAtomData data2 = EAMMap[at2]; |
388 |
> |
EAMAtomData data1 = EAMMap[idat.atype1]; |
389 |
> |
EAMAtomData data2 = EAMMap[idat.atype2]; |
390 |
|
|
391 |
|
// get type-specific cutoff radii |
392 |
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|
398 |
|
RealType phab, dvpdr; |
399 |
|
RealType drhoidr, drhojdr, dudr; |
400 |
|
|
401 |
< |
if (rij < rci) { |
402 |
< |
res = data1.rho->getValueAndDerivativeAt(rij); |
401 |
> |
if (idat.rij < rci) { |
402 |
> |
res = data1.rho->getValueAndDerivativeAt(idat.rij); |
403 |
|
rha = res.first; |
404 |
|
drha = res.second; |
405 |
|
|
406 |
< |
res = MixingMap[make_pair(at1, at1)].phi->getValueAndDerivativeAt(rij); |
406 |
> |
res = MixingMap[make_pair(idat.atype1, idat.atype1)].phi->getValueAndDerivativeAt(idat.rij); |
407 |
|
pha = res.first; |
408 |
|
dpha = res.second; |
409 |
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} |
410 |
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|
411 |
< |
if (rij < rcj) { |
412 |
< |
res = data2.rho->getValueAndDerivativeAt(rij); |
411 |
> |
if (idat.rij < rcj) { |
412 |
> |
res = data2.rho->getValueAndDerivativeAt(idat.rij); |
413 |
|
rhb = res.first; |
414 |
|
drhb = res.second; |
415 |
|
|
416 |
< |
res = MixingMap[make_pair(at2, at2)].phi->getValueAndDerivativeAt(rij); |
416 |
> |
res = MixingMap[make_pair(idat.atype2, idat.atype2)].phi->getValueAndDerivativeAt(idat.rij); |
417 |
|
phb = res.first; |
418 |
|
dphb = res.second; |
419 |
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} |
424 |
|
switch(mixMeth_) { |
425 |
|
case eamJohnson: |
426 |
|
|
427 |
< |
if (rij < rci) { |
427 |
> |
if (idat.rij < rci) { |
428 |
|
phab = phab + 0.5 * (rhb / rha) * pha; |
429 |
|
dvpdr = dvpdr + 0.5*((rhb/rha)*dpha + |
430 |
|
pha*((drhb/rha) - (rhb*drha/rha/rha))); |
431 |
|
} |
432 |
|
|
433 |
< |
if (rij < rcj) { |
433 |
> |
if (idat.rij < rcj) { |
434 |
|
phab = phab + 0.5 * (rha / rhb) * phb; |
435 |
|
dvpdr = dvpdr + 0.5 * ((rha/rhb)*dphb + |
436 |
|
phb*((drha/rhb) - (rha*drhb/rhb/rhb))); |
439 |
|
break; |
440 |
|
|
441 |
|
case eamDaw: |
442 |
< |
|
437 |
< |
res = MixingMap[make_pair(at1,at2)].phi->getValueAndDerivativeAt(rij); |
442 |
> |
res = MixingMap[make_pair(idat.atype1,idat.atype2)].phi->getValueAndDerivativeAt(idat.rij); |
443 |
|
phab = res.first; |
444 |
|
dvpdr = res.second; |
445 |
|
|
459 |
|
drhoidr = drha; |
460 |
|
drhojdr = drhb; |
461 |
|
|
462 |
< |
dudr = drhojdr*dfrhodrho_i + drhoidr*dfrhodrho_j + dvpdr; |
462 |
> |
dudr = drhojdr*idat.dfrho1 + drhoidr*idat.dfrho2 + dvpdr; |
463 |
|
|
464 |
< |
f1 = d * dudr / rij; |
464 |
> |
idat.f1 = idat.d * dudr / idat.rij; |
465 |
|
|
466 |
|
// particle_pot is the difference between the full potential |
467 |
|
// and the full potential without the presence of a particular |
475 |
|
// Most of the particle_pot heavy lifting comes from the |
476 |
|
// pair interaction, and will be handled by vpair. |
477 |
|
|
478 |
< |
fshift_i = data1.F->getValueAt( rho_i - rhb ); |
479 |
< |
fshift_j = data1.F->getValueAt( rho_j - rha ); |
478 |
> |
idat.fshift1 = data1.F->getValueAt( idat.rho1 - rhb ); |
479 |
> |
idat.fshift2 = data1.F->getValueAt( idat.rho2 - rha ); |
480 |
|
|
481 |
< |
pot += phab; |
481 |
> |
idat.pot += phab; |
482 |
|
|
483 |
< |
vpair += phab; |
483 |
> |
idat.vpair += phab; |
484 |
|
} |
485 |
|
|
486 |
|
return; |
487 |
|
|
488 |
|
} |
489 |
|
|
490 |
+ |
RealType EAM::getSuggestedCutoffRadius(AtomType* at1, AtomType* at2) { |
491 |
+ |
if (!initialized_) initialize(); |
492 |
|
|
493 |
< |
void EAM::calc_eam_prepair_rho(int *atid1, int *atid2, RealType *d, |
487 |
< |
RealType *rij, RealType *r2, |
488 |
< |
RealType* rho_i_at_j, RealType* rho_j_at_i){ |
489 |
< |
if (!initialized_) initialize(); |
493 |
> |
RealType cut = 0.0; |
494 |
|
|
495 |
< |
AtomType* atype1 = EAMlist[*atid1]; |
492 |
< |
AtomType* atype2 = EAMlist[*atid2]; |
493 |
< |
|
494 |
< |
Vector3d disp(d[0], d[1], d[2]); |
495 |
> |
map<AtomType*, EAMAtomData>::iterator it; |
496 |
|
|
497 |
< |
calcDensity(atype1, atype2, disp, *rij, *r2, *rho_i_at_j, *rho_j_at_i); |
497 |
> |
it = EAMMap.find(at1); |
498 |
> |
if (it != EAMMap.end()) { |
499 |
> |
EAMAtomData data1 = (*it).second; |
500 |
> |
cut = data1.rcut; |
501 |
> |
} |
502 |
|
|
503 |
< |
return; |
504 |
< |
} |
503 |
> |
it = EAMMap.find(at2); |
504 |
> |
if (it != EAMMap.end()) { |
505 |
> |
EAMAtomData data2 = (*it).second; |
506 |
> |
if (data2.rcut > cut) |
507 |
> |
cut = data2.rcut; |
508 |
> |
} |
509 |
|
|
510 |
< |
void EAM::calc_eam_preforce_Frho(int *atid1, RealType *rho, RealType *frho, |
502 |
< |
RealType *dfrhodrho) { |
503 |
< |
|
504 |
< |
if (!initialized_) initialize(); |
505 |
< |
|
506 |
< |
AtomType* atype1 = EAMlist[*atid1]; |
507 |
< |
|
508 |
< |
calcFunctional(atype1, *rho, *frho, *dfrhodrho); |
509 |
< |
|
510 |
< |
return; |
510 |
> |
return cut; |
511 |
|
} |
512 |
– |
|
513 |
– |
void EAM::do_eam_pair(int *atid1, int *atid2, RealType *d, RealType *rij, |
514 |
– |
RealType *r2, RealType *sw, RealType *vpair, |
515 |
– |
RealType *pot, RealType *f1, RealType *rho1, |
516 |
– |
RealType *rho2, RealType *dfrho1, RealType *dfrho2, |
517 |
– |
RealType *fshift1, RealType *fshift2) { |
518 |
– |
|
519 |
– |
if (!initialized_) initialize(); |
520 |
– |
|
521 |
– |
AtomType* atype1 = EAMMap[*atid1]; |
522 |
– |
AtomType* atype2 = EAMMap[*atid2]; |
523 |
– |
|
524 |
– |
Vector3d disp(d[0], d[1], d[2]); |
525 |
– |
Vector3d frc(f1[0], f1[1], f1[2]); |
526 |
– |
|
527 |
– |
calcForce(atype1, atype2, disp, *rij, *r2, *sw, *vpair, *pot, frc, |
528 |
– |
*rho1, *rho2, *dfrho1, *dfrho2, *fshift1, *fshift2); |
529 |
– |
|
530 |
– |
f1[0] = frc.x(); |
531 |
– |
f1[1] = frc.y(); |
532 |
– |
f1[2] = frc.z(); |
533 |
– |
|
534 |
– |
return; |
535 |
– |
} |
536 |
– |
|
537 |
– |
void EAM::setCutoffEAM(RealType *thisRcut) { |
538 |
– |
eamRcut_ = thisRcut; |
539 |
– |
} |
512 |
|
} |
513 |
|
|
542 |
– |
extern "C" { |
543 |
– |
|
544 |
– |
#define fortranCalcDensity FC_FUNC(calc_eam_prepair_rho, CALC_EAM_PREPAIR_RHO) |
545 |
– |
#define fortranCalcFunctional FC_FUNC(calc_eam_preforce_frho, CALC_EAM_PREFORCE_FRHO) |
546 |
– |
#define fortranCalcForce FC_FUNC(do_eam_pair, DO_EAM_PAIR) |
547 |
– |
#define fortranSetCutoffEAM FC_FUNC(setcutoffeam, SETCUTOFFEAM) |
548 |
– |
|
549 |
– |
RealType fortranCalcDensity(int *atid1, int *atid2, RealType *d, |
550 |
– |
RealType *rij, RealType *r2, |
551 |
– |
RealType *rho_i_at_j, RealType *rho_j_at_i) { |
552 |
– |
|
553 |
– |
return OpenMD::EAM::Instance()->calc_eam_prepair_rho(*atid1, *atid2, *d, |
554 |
– |
*rij, *r2, |
555 |
– |
*rho_i_at_j, |
556 |
– |
*rho_j_at_i); |
557 |
– |
} |
558 |
– |
RealType fortranCalcFunctional(int *atid1, RealType *rho, RealType *frho, |
559 |
– |
RealType *dfrhodrho) { |
560 |
– |
|
561 |
– |
return OpenMD::EAM::Instance()->calc_eam_preforce_Frho(*atid1, |
562 |
– |
*rho, |
563 |
– |
*frho, |
564 |
– |
*dfrhodrho); |
565 |
– |
|
566 |
– |
} |
567 |
– |
void fortranSetEAMCutoff(RealType *rcut) { |
568 |
– |
return OpenMD::EAM::Instance()->setCutoffEAM(rcut); |
569 |
– |
} |
570 |
– |
void fortranDoEAMPair(int *atid1, int *atid2, RealType *d, RealType *rij, |
571 |
– |
RealType *r2, RealType *sw, RealType *vpair, |
572 |
– |
RealType *pot, RealType *f1, RealType *rho1, |
573 |
– |
RealType *rho2, RealType *dfrho1, RealType *dfrho2, |
574 |
– |
RealType *fshift1, RealType *fshift2){ |
575 |
– |
|
576 |
– |
return OpenMD::EAM::Instance()->do_eam_pair(*atid1, *atid2, *d, *rij, |
577 |
– |
*r2, *sw, *vpair, |
578 |
– |
*pot, *f1, *rho1, |
579 |
– |
*rho2, *dfrho1, *dfrho2, |
580 |
– |
*fshift1, *fshift2); |
581 |
– |
} |
582 |
– |
} |