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#include <getopt.h>
#include <fstream>
#include <string>
#include "PwaUtils/EvtDataBaseListNew.hh"
#include "PwaUtils/AbsXdecAmp.hh"
#include "PwaUtils/FitParamsBaseNew.hh"
#include "PwaUtils/AbsXdecAmp.hh"
#include "ErrLogger/ErrLogger.hh"
#include <boost/bind.hpp>
#include <boost/numeric/ublas/matrix.hpp>
#include <boost/numeric/ublas/io.hpp>
PsiProdBaseLhNew::PsiProdBaseLhNew(boost::shared_ptr<const EvtDataBaseListNew> theEvtList, const std::vector<std::string>& hypVec, boost::shared_ptr<PsiToXGamStates> theStates) :
AbsLhNew(theEvtList)
,_hypVec(hypVec)
,_theStatesPtr(theStates)
,_GammaEtaKey("GammaEta_")
,_GammaEta2Key("GammaEta2_")
,_GammaF1Key("GammaF1_")
,_EtaKey("Eta_")
,_Eta2Key("Eta2_")
,_F1Key("F1_")
{
initializeHypothesis();
}
PsiProdBaseLhNew::PsiProdBaseLhNew( boost::shared_ptr<AbsLhNew> theLhPtr, const std::vector<std::string>& hypVec, boost::shared_ptr<PsiToXGamStates> theStates ) :
AbsLhNew(theLhPtr->getEventList())
,_hypVec(hypVec)
,_GammaEtaKey("GammaEta_")
,_GammaEta2Key("GammaEta2_")
,_GammaF1Key("GammaF1_")
,_EtaKey("Eta_")
,_Eta2Key("Eta2_")
,_F1Key("F1_")
double PsiProdBaseLhNew::calcEvtIntensity(EvtDataNew* theData, fitParamsNew& theParamVal){
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double result=0.;
complex<double> JmpGmp(0.,0.);
complex<double> JmpGmm(0.,0.);
complex<double> JmmGmp(0.,0.);
complex<double> JmmGmm(0.,0.);
//calculate gamma eta amplitudes
std::vector<std::string>::const_iterator itStr;
for (itStr= _GammaEtaHyps.begin(); itStr!= _GammaEtaHyps.end(); ++itStr){
std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess > PsiToEtaGamMag=theParamVal.MagLamLams[*itStr];
std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess > PsiToEtaGamPhi=theParamVal.PhiLamLams[*itStr];
std::map<Spin,std::map<Spin, double > > MagProdMap;
std::map<Spin,std::map<Spin, double > > PhiProdMap;
std::map<Spin,std::map<Spin, double > > ParityProdMap;
std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess >::iterator itMag;
for (itMag=PsiToEtaGamMag.begin(); itMag!=PsiToEtaGamMag.end(); ++itMag){
boost::shared_ptr<const JPClamlam> currentJPClamlam=itMag->first;
MagProdMap[currentJPClamlam->lam1][currentJPClamlam->lam2]=itMag->second;
ParityProdMap[currentJPClamlam->lam1][currentJPClamlam->lam2]=1.;
PhiProdMap[currentJPClamlam->lam1][currentJPClamlam->lam2]=PsiToEtaGamPhi[currentJPClamlam];
MagProdMap[-currentJPClamlam->lam1][-currentJPClamlam->lam2]=itMag->second;
ParityProdMap[-currentJPClamlam->lam1][-currentJPClamlam->lam2]=currentJPClamlam->parityFactor;
PhiProdMap[-currentJPClamlam->lam1][-currentJPClamlam->lam2]=PsiToEtaGamPhi[currentJPClamlam];
}
complex<double> JpGpTmp = ParityProdMap[0][1]*psiToXGammaAmp(1, 0, 0, 1, theData, MagProdMap[0][1], PhiProdMap[0][1]);
complex<double> JpGmTmp = ParityProdMap[0][-1]*psiToXGammaAmp(1, 0, 0, -1, theData, MagProdMap[0][-1], PhiProdMap[0][-1]);
complex<double> JmGpTmp = ParityProdMap[0][1]*psiToXGammaAmp(-1, 0, 0, 1, theData, MagProdMap[0][1], PhiProdMap[0][1]);
complex<double> JmGmTmp = ParityProdMap[0][-1]*psiToXGammaAmp(-1, 0, 0, -1, theData, MagProdMap[0][-1], PhiProdMap[0][-1]);
boost::shared_ptr<AbsXdecAmp> currentEtaDecAmp=_etaDecAmpMap[*itStr];
complex<double> TmpDecAmp=currentEtaDecAmp->XdecAmp(0, theData, theParamVal);
JmpGmp+=JpGpTmp*TmpDecAmp;
JmpGmm+=JpGmTmp*TmpDecAmp;
JmmGmp+=JmGpTmp*TmpDecAmp;
JmmGmm+=JmGmTmp*TmpDecAmp;
}
//calculate gamma f1 amplitudes
for (itStr= _GammaF1Hyps.begin(); itStr!= _GammaF1Hyps.end(); ++itStr){
std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess > PsiToF1GamMag=theParamVal.MagLamLams[*itStr];
std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess > PsiToF1GamPhi=theParamVal.PhiLamLams[*itStr];
std::map<Spin,std::map<Spin, double > > MagProdMap;
std::map<Spin,std::map<Spin, double > > PhiProdMap;
std::map<Spin,std::map<Spin, double > > ParityProdMap;
std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess >::iterator itMag;
for (itMag=PsiToF1GamMag.begin(); itMag!=PsiToF1GamMag.end(); ++itMag){
boost::shared_ptr<const JPClamlam> currentJPClamlam=itMag->first;
MagProdMap[currentJPClamlam->lam1][currentJPClamlam->lam2]=itMag->second;
ParityProdMap[currentJPClamlam->lam1][currentJPClamlam->lam2]=1.;
PhiProdMap[currentJPClamlam->lam1][currentJPClamlam->lam2]=PsiToF1GamPhi[currentJPClamlam];
MagProdMap[-currentJPClamlam->lam1][-currentJPClamlam->lam2]=itMag->second;
ParityProdMap[-currentJPClamlam->lam1][-currentJPClamlam->lam2]=currentJPClamlam->parityFactor;
PhiProdMap[-currentJPClamlam->lam1][-currentJPClamlam->lam2]=PsiToF1GamPhi[currentJPClamlam];
}
std::map<Spin,complex<double> > JpGpTmpMap;
std::map<Spin,complex<double> > JpGmTmpMap;
std::map<Spin,complex<double> > JmGpTmpMap;
std::map<Spin,complex<double> > JmGmTmpMap;
std::map<Spin,complex<double> > TmpDecAmp;
boost::shared_ptr<AbsXdecAmp> currentF1DecAmp=_f1DecAmpMap[*itStr];
for (Spin helf1=0; helf1<2; helf1++){
JpGpTmpMap[helf1]= ParityProdMap[helf1][1]*psiToXGammaAmp(1, 1, helf1, 1, theData, MagProdMap[helf1][1], PhiProdMap[helf1][1]);
JmGpTmpMap[helf1]= ParityProdMap[helf1][1]*psiToXGammaAmp(-1, 1, helf1, 1, theData, MagProdMap[helf1][1], PhiProdMap[helf1][1]);
TmpDecAmp[helf1] = currentF1DecAmp->XdecAmp(helf1, theData, theParamVal);
if(helf1>0){
JpGmTmpMap[-helf1]= ParityProdMap[-helf1][-1]*psiToXGammaAmp(1, 1, -helf1, -1, theData, MagProdMap[-helf1][-1], PhiProdMap[-helf1][-1]);
JmGmTmpMap[-helf1]= ParityProdMap[-helf1][-1]*psiToXGammaAmp(-1, 1, -helf1, -1, theData, MagProdMap[-helf1][-1], PhiProdMap[-helf1][-1]);
TmpDecAmp[-helf1] = currentF1DecAmp->XdecAmp(-helf1, theData, theParamVal);
}
}
for (Spin helf1=-1; helf1<2; helf1++){
JmpGmp+=JpGpTmpMap[helf1]*TmpDecAmp[helf1];
JmpGmm+=JpGmTmpMap[helf1]*TmpDecAmp[helf1];
JmmGmp+=JmGpTmpMap[helf1]*TmpDecAmp[helf1];
JmmGmm+=JmGmTmpMap[helf1]*TmpDecAmp[helf1];
}
}
//calculate gamma eta2 amplitudes
for (itStr= _GammaEta2Hyps.begin(); itStr!= _GammaEta2Hyps.end(); ++itStr){
std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess > PsiToEta2GamMag=theParamVal.MagLamLams[*itStr];
std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess > PsiToEta2GamPhi=theParamVal.PhiLamLams[*itStr];
std::map<Spin,std::map<Spin, double > > MagProdMap;
std::map<Spin,std::map<Spin, double > > PhiProdMap;
std::map<Spin,std::map<Spin, double > > ParityProdMap;
std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess >::iterator itMag;
for (itMag=PsiToEta2GamMag.begin(); itMag!=PsiToEta2GamMag.end(); ++itMag){
boost::shared_ptr<const JPClamlam> currentJPClamlam=itMag->first;
MagProdMap[currentJPClamlam->lam1][currentJPClamlam->lam2]=itMag->second;
ParityProdMap[currentJPClamlam->lam1][currentJPClamlam->lam2]=1.;
PhiProdMap[currentJPClamlam->lam1][currentJPClamlam->lam2]=PsiToEta2GamPhi[currentJPClamlam];
MagProdMap[-currentJPClamlam->lam1][-currentJPClamlam->lam2]=itMag->second;
ParityProdMap[-currentJPClamlam->lam1][-currentJPClamlam->lam2]=currentJPClamlam->parityFactor;
PhiProdMap[-currentJPClamlam->lam1][-currentJPClamlam->lam2]=PsiToEta2GamPhi[currentJPClamlam];
}
std::map<Spin,complex<double> > JpGpTmpMap;
std::map<Spin,complex<double> > JpGmTmpMap;
std::map<Spin,complex<double> > JmGpTmpMap;
std::map<Spin,complex<double> > JmGmTmpMap;
std::map<Spin,complex<double> > TmpDecAmp;
boost::shared_ptr<AbsXdecAmp> currentEta2DecAmp=_eta2DecAmpMap[*itStr];
for (Spin heleta2=0; heleta2<3; heleta2++){
JpGpTmpMap[heleta2]= ParityProdMap[heleta2][1]*psiToXGammaAmp(1, 2, heleta2, 1, theData, MagProdMap[heleta2][1], PhiProdMap[heleta2][1]);
JmGpTmpMap[heleta2]= ParityProdMap[heleta2][1]*psiToXGammaAmp(-1, 2, heleta2, 1, theData, MagProdMap[heleta2][1], PhiProdMap[heleta2][1]);
TmpDecAmp[heleta2] = currentEta2DecAmp->XdecAmp(heleta2, theData, theParamVal);
if(heleta2>0){
JpGmTmpMap[-heleta2]= ParityProdMap[-heleta2][-1]*psiToXGammaAmp(1, 2, -heleta2, -1, theData, MagProdMap[-heleta2][-1], PhiProdMap[-heleta2][-1]);
JmGmTmpMap[-heleta2]= ParityProdMap[-heleta2][-1]*psiToXGammaAmp(-1, 2, -heleta2, -1, theData, MagProdMap[-heleta2][-1], PhiProdMap[-heleta2][-1]);
TmpDecAmp[-heleta2] = currentEta2DecAmp->XdecAmp(-heleta2, theData, theParamVal);
}
}
for (Spin heleta2=-2; heleta2<3; heleta2++){
JmpGmp+=JpGpTmpMap[heleta2]*TmpDecAmp[heleta2];
JmpGmm+=JpGmTmpMap[heleta2]*TmpDecAmp[heleta2];
JmmGmp+=JmGpTmpMap[heleta2]*TmpDecAmp[heleta2];
JmmGmm+=JmGmTmpMap[heleta2]*TmpDecAmp[heleta2];
}
}
result=norm(JmpGmp)+norm(JmpGmm)+norm(JmmGmp)+norm(JmmGmm);
if(_usePhasespace){
result = result + theParamVal.otherParams[_phasespaceKey];
}
// Info << "result:\t" << result << endmsg;
return result;
}
complex<double> PsiProdBaseLhNew::psiToXGammaAmp(Spin Minit, Spin jX, Spin lamX, Spin lamGamma, EvtDataNew* theData,
double PsiToXGamMag, double PsiToXGamPhi ){
Spin lambda = lamX-lamGamma;
complex<double> expiphiPsi(cos(PsiToXGamPhi), sin(PsiToXGamPhi));
complex<double> result = PsiToXGamMag*expiphiPsi*conj( theData->WignerDsProd[enumProdDfunc::Psi][1][Minit][lambda] );
void PsiProdBaseLhNew::getDefaultParams(fitParamsNew& fitVal, fitParamsNew& fitErr){
if(_usePhasespace){
fitVal.otherParams[_phasespaceKey]=0.02;
fitErr.otherParams[_phasespaceKey]=0.015;
}
getDefaultLamLamParams(_GammaEtaHyps, _theStatesPtr->PsiToEtaGammaLamLamStates(), fitVal, fitErr);
getDefaultLamLamParams(_GammaEta2Hyps, _theStatesPtr->PsiToEta2GammaLamLamStates(), fitVal, fitErr);
getDefaultLamLamParams(_GammaF1Hyps, _theStatesPtr->PsiToF1GammaLamLamStates(), fitVal, fitErr);
std::map<std::string, boost::shared_ptr<AbsXdecAmp> >::const_iterator it1;
for (it1=_etaDecAmpMap.begin(); it1!=_etaDecAmpMap.end(); ++it1){
it1->second->getDefaultParams(fitVal, fitErr);
}
for (it1=_f1DecAmpMap.begin(); it1!=_f1DecAmpMap.end(); ++it1){
it1->second->getDefaultParams(fitVal, fitErr);
}
for (it1=_eta2DecAmpMap.begin(); it1!=_eta2DecAmpMap.end(); ++it1){
it1->second->getDefaultParams(fitVal, fitErr);
}
}
void PsiProdBaseLhNew::print(std::ostream& os) const{
void PsiProdBaseLhNew::initializeHypothesis(){
std::vector<std::string>::const_iterator it;
for (it=_hypVec.begin(); it!=_hypVec.end(); ++it){
if (it->compare(0, _GammaEtaKey.size(), _GammaEtaKey)== 0){
Info << "eta hypothesis\t" << (*it) << "\t found" << endmsg;
_GammaEtaHyps.push_back(*it);
}
else if (it->compare(0, _GammaF1Key.size(), _GammaF1Key)== 0){
Info << "f1 hypothesis\t" << (*it) << "\t found" << endmsg;
_GammaF1Hyps.push_back(*it);
}
else if (it->compare(0, _GammaEta2Key.size(), _GammaEta2Key)== 0){
Info << "eta2 hypothesis\t" << (*it) << "\t found" << endmsg;
_GammaEta2Hyps.push_back(*it);
}
else if (it->compare(0, _phasespaceKey.size(), _phasespaceKey)== 0){
Info << "hypothesis\t" << (*it) << "\t found" << endmsg;
_usePhasespace=true;
}
void PsiProdBaseLhNew::getDefaultLamLamParams(std::vector<std::string>& hyps, std::vector< boost::shared_ptr<const JPClamlam> > lamLamAmps, fitParamsNew& fitVal, fitParamsNew& fitErr){
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if (hyps.size()==0) return;
std::vector<std::string>::iterator it;
for (it=hyps.begin(); it!=hyps.end(); ++it){
//create std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess >
std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess > currentMagValMap;
std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess > currentPhiValMap;
std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess > currentMagErrMap;
std::map< boost::shared_ptr<const JPClamlam>, double, pawian::Collection::SharedPtrLess > currentPhiErrMap;
std::vector< boost::shared_ptr<const JPClamlam> >::const_iterator itLamLam;
for(itLamLam=lamLamAmps.begin(); itLamLam!=lamLamAmps.end(); ++itLamLam){
currentMagValMap[*itLamLam]=0.7;
currentPhiValMap[*itLamLam]=0.;
currentMagErrMap[*itLamLam]=0.6;
currentPhiErrMap[*itLamLam]=0.3;
}
fitVal.MagLamLams[*it]=currentMagValMap;
fitVal.PhiLamLams[*it]=currentPhiValMap;
fitErr.MagLamLams[*it]=currentMagErrMap;
fitErr.PhiLamLams[*it]=currentPhiErrMap;
}
}