/*!
*/
void clearMoleculeComplexIds(System *s) {
for(int i=0; i<s->getNumOfMoleculeTypes(); i++) {
MoleculeType *mt = s->getMoleculeType(i);
for(int j=0; j<mt->getMoleculeCount(); j++) {
mt->getMolecule(j)->setComplexID(-1);
}
}
}
void DumpSystem::dumpMoleculeTypeFiles(double dumpTime) {
double complexCount = 0;
for(int i=0; i<s->getNumOfMoleculeTypes(); i++) {
MoleculeType *mt = s->getMoleculeType(i);
string dumpFileName = pathToFolder+s->getName() + "_nf."+Util::toString(dumpTime)+".dump."+Util::toString(i);
ofstream ofs;
//ios_base::out -- Set for output only, instead of for input/output
//ios_base::binary -- Set output to binary
//ios_base::trunc -- Truncate the file - that is overwrite anything that was already there
ofs.open((dumpFileName).c_str(), ios_base::out | ios_base::binary | ios_base::trunc);
//Make sure we could open the stream (this is really the only thing that can go around)
if(!ofs.is_open()) {
cout<<"--------"<<endl;
cout<<"-Error dumping header file.";
cout<<"-Could not open stream to file: '"<<dumpFileName<<"'"<<endl;
cout<<"-The path is probably incorrect or does not exist."<<endl;
return;
}
double NOBOND = -1;
list <Molecule *> molList; list <Molecule *>::iterator molIter;
for(int j=0; j<mt->getMoleculeCount(); j++) {
//First, write out this molecules unique ID
Molecule *m=mt->getMolecule(j);
double uId = (double)m->getUniqueID();
ofs.write((char *)&uId,sizeof(double));
//Second, output the complex number so we can quickly recover
//the complexes
if(!s->isUsingComplex()) {
if(m->getComplexID()==-1) { //if we haven't visited this guy yet...
m->traverseBondedNeighborhood(molList,ReactionClass::NO_LIMIT);
for(molIter=molList.begin(); molIter!=molList.end(); molIter++) {
(*molIter)->setComplexID((int)complexCount);
}
ofs.write((char *)&complexCount,sizeof(double));
complexCount++;
molList.clear();
} else {
double thisUid = m->getComplexID();
ofs.write((char *)&thisUid,sizeof(double));
}
} else {
complexCount = m->getComplexID();
ofs.write((char *)&complexCount,sizeof(double));
}
//Now export all the components, marking its state and
//binding partner if any
for(int k=0; k<mt->getNumOfComponents(); k++) {
double stateValue = (double)m->getComponentState(k);
ofs.write((char *)&stateValue,sizeof(double));
if(!m->isBindingSiteBonded(k)) {
ofs.write((char *)&NOBOND,sizeof(double));
} else {
Molecule *m2=m->getBondedMolecule(k);
double uId2 = (double)m2->getUniqueID();
ofs.write((char *)&uId2,sizeof(double));
}
}
for(int k=0; k<mt->getNumOfTypeIFunctions(); k++) {
double val = m->getLocalFunctionValue(k);
LocalFunction *lf = m->getLocalFunction(k);
double localValue = lf->evaluateOn(m,LocalFunction::MOLECULE);
ofs.write((char *)&val,sizeof(double));
ofs.write((char *)&localValue,sizeof(double));
// ofs<<"\t"<<i<<"\t"<<k<<"\t"<<mt->getTypeIILocalFunction(k)->getName()<<"\n";
}
}
ofs.flush();
ofs.close();
}
}
bool System::saveSpecies(string filename)
{
bool debugOut = false;
//open the output filestream
ofstream speciesFile;
speciesFile.open(filename.c_str());
if(!speciesFile.is_open()) {
cerr<<"Error in System when calling System::saveSpecies(string)! Cannot open output stream to file "<<filename<<". "<<endl;
cerr<<"quitting."<<endl;
exit(1);
}
cout<<"\n\nsaving list of final molecular species..."<<endl;
// create a couple data structures to store results as we go
list <Molecule *> molecules;
list <Molecule *>::iterator iter;
map <int,bool> reportedMolecules;
map <string,int> reportedSpecies;
// loop over all the types of molecules that exist
for( unsigned int k=0; k<allMoleculeTypes.size(); k++)
{
// retrieve the MoleculeType
MoleculeType *mt = allMoleculeTypes.at(k);
// loop over every individual molecule
for(int j=0; j<mt->getMoleculeCount(); j++)
{
// check if we have looked this molecule before, and skip it if we have
if(reportedMolecules.find(mt->getMolecule(j)->getUniqueID())!=reportedMolecules.end()) {
continue;
}
//otherwise, we have not visited this particular species before, so loop over the molecules
//that make up the species
string speciesString = "";
molecules.clear();
mt->getMolecule(j)->traverseBondedNeighborhood(molecules,ReactionClass::NO_LIMIT);
// key: partnerID1, bsiteID1, partnerID2, bsiteID2
vector <vector <int> * > bondNumberMap;
bool isFirst = true;
for( iter = molecules.begin(); iter != molecules.end(); iter++ )
{
Molecule *m = (*iter);
reportedMolecules.insert(pair <int,bool> (m->getUniqueID(),true));
//Fist, output the molecule name
if(isFirst) { speciesString += m->getMoleculeTypeName()+"("; isFirst=false; }
else { speciesString += "."+m->getMoleculeTypeName()+"("; }
//Go through each component of the molecule
for(int s=0; s<m->getMoleculeType()->getNumOfComponents(); s++)
{
// output the component name
string compName = m->getMoleculeType()->getComponentName(s);
if(m->getMoleculeType()->isEquivalentComponent(s)) {
// symmetric site, so we need to look up its sym name
compName = m->getMoleculeType()->getEquivalenceClassComponentNameFromComponentIndex(s);
}
if(s==0) speciesString += compName;
else speciesString += ","+compName;
//output the state of the component, if it is set
if(m->getComponentState(s)>=0) {
speciesString += "~" + m->getMoleculeType()->getComponentStateName(s,m->getComponentState(s));
}
// check if the component is bound, if so we have to output a bond
// we will label the bond incrementally, but we have to check to make
// sure the bond wasn't declared earlier. that's what the vector of int vectors is for.
if(m->isBindingSiteBonded(s)) {
if(debugOut) cout<<"binding site is bonded"<<endl;
int partnerID = m->getBondedMolecule(s)->getUniqueID();
int partnerSite = m->getBondedMoleculeBindingSiteIndex(s);
int thisBondNumber = -1;
// create the key
vector <int> *key = new vector<int>(4);
if(partnerID<m->getUniqueID()) {
key->at(0) = partnerID; key->at(1) = partnerSite;
key->at(2) = m->getUniqueID(); key->at(3)=s;
} else {
key->at(2) = partnerID; key->at(3) = partnerSite;
key->at(0) = m->getUniqueID(); key->at(1)=s;
}
//search if that key was already inserted
bool foundExistingBond = false;
for(unsigned int bnmIndex =0; bnmIndex < bondNumberMap.size(); bnmIndex++) {
if( key->at(0)==bondNumberMap.at(bnmIndex)->at(0) &&
key->at(1)==bondNumberMap.at(bnmIndex)->at(1) &&
key->at(2)==bondNumberMap.at(bnmIndex)->at(2) &&
key->at(3)==bondNumberMap.at(bnmIndex)->at(3) ) {
thisBondNumber = bnmIndex+1;
foundExistingBond = true;
if(debugOut) cout<<"Found bond number: "<<thisBondNumber<<endl;
break;
}
}
//If it was not found, then insert it
if(!foundExistingBond) {
bondNumberMap.push_back(key);
thisBondNumber = bondNumberMap.size();
if(debugOut) cout<<"Creating bond number: "<<bondNumberMap.size()<<endl;
}
speciesString += "!" + NFutil::toString(thisBondNumber);
}
}
speciesString += ")";
}
if(reportedSpecies.find(speciesString) != reportedSpecies.end()) {
reportedSpecies[speciesString] = reportedSpecies[speciesString] + mt->getMolecule(j)->getPopulation();
} else {
reportedSpecies.insert(pair <string,int> (speciesString, mt->getMolecule(j)->getPopulation()));
}
//speciesString += " 1";
//cout<<speciesString<<endl;
if(debugOut) cout<<endl<<endl;
//delete elements of the map
while(bondNumberMap.size()>0) {
vector <int> *v = bondNumberMap.at(bondNumberMap.size()-1);
bondNumberMap.pop_back();
delete v;
}
if(debugOut) cout<<endl<<endl;
}
}
speciesFile<<"# nfsim generated species list for system: '"<< this->name <<"'\n";
speciesFile<<"# warning! this feature is not yet fully tested! \n";
for ( map<string,int>::iterator it=reportedSpecies.begin() ; it != reportedSpecies.end(); it++ )
speciesFile << (*it).first << " " << (*it).second << "\n";
speciesFile.flush();
speciesFile.close();
return true;
}