bool GoodRuns::processEvent(cafe::Event& event)
{
if (_useRuns)
return _goodRuns.find(event.getGlobal(_vars)->runno()) != _goodRuns.end();
else
return _goodRuns.find(event.getGlobal(_vars)->runno()) == _goodRuns.end();
}
//
// put pointers into event class
//
void VtxSelector::putPointers(cafe::Event& event) {
event.put("Primary vertexX", _event_vertex[0]);
event.put("Primary vertexY", _event_vertex[1]);
event.put("Primary vertexZ", _event_vertex[2]);
event.put("New primary vertexX", _track_vertex[0]);
event.put("New primary vertexY", _track_vertex[1]);
event.put("New primary vertexZ", _track_vertex[2]);
}
bool TriggerEpoch::isEpoch(const cafe::Event& event) const {
if (_trigVerMin <= 0) return event.isEpoch(_name) ;
float trigVer = _runnum_to_triggerversion.TriggerVersion(event.getGlobal()->runno());
if ( trigVer >= _trigVerMin && trigVer <= _trigVerMax) return true ;
return false ;
}
bool BadLBNs::processEvent(cafe::Event& event)
{
if(_MC) {
// Monte Carlo
return _badLBNs.find(event.getMCEventInfo(_vars)->overlaylumblk()) == _badLBNs.end();
} else {
// Data
return _badLBNs.find(event.getGlobal(_vars)->lumblk()) == _badLBNs.end();
}
}
bool L2RecoMatchTest::processEvent(cafe::Event &event)
{
// The vector of "Matches" and iterators of it are used with the _old_ interface
std::vector<Match< TMBL2Base, TMBLorentzVector> > test;
std::vector<Match< TMBL2Base, TMBLorentzVector> >::iterator match_it;
//The new interface uses a multimap and iterators thereof.
std::multimap<Collection<TMBL2Base>::iterator, Collection<TMBLorentzVector>::iterator> L2Reco;
std::multimap<Collection<TMBL2Base>::iterator, Collection<TMBLorentzVector>::iterator>::iterator L2Reco_it;
Collection<TMBL2Base>::iterator l2_it;
Collection<TMBLorentzVector>::iterator reco_it;
//Uncomment the following section to print a list of all triggers of the event
/*
Collection<TMBTrigger> triggers = event.getTriggers();
Collection<TMBTrigger>::iterator trigger_it=triggers.begin();
for(; trigger_it!=triggers.end(); trigger_it++) {
std::cout << (*trigger_it).getTrgName() << std::endl;
};
*/
//Example to access the matchings, old interface!
if(event.get(_matchname, test)) {
match_it=test.begin();
std::cout << "Found " << test.size() << " match(es) in the event." << std::endl;
for(; match_it!=test.end(); match_it++) {
std::cout << "dr = " << (*match_it).getdR() << std::endl;
std::cout << "Et = " << (*match_it).getObj1It()->Et() << std::endl;
};
}
//Example code to access the matchings, new interface!
if(event.get(_matchname+"MAP", L2Reco)) {
std::cout << "Matches in the event: " << L2Reco.size() << std::endl;
L2Reco_it = L2Reco.begin();
int i=0;
for(; L2Reco_it!=L2Reco.end(); L2Reco_it++) {
l2_it = (*L2Reco_it).first;
reco_it = (*L2Reco_it).second;
float dphi = kinem::delta_phi((*l2_it).Phi(), (*reco_it).Phi());
float deta = (*l2_it).Eta() - (*reco_it).Eta();
float dR = sqrt(dphi * dphi + deta * deta);
std::cout << "Distance of match: " << dR << std::endl;
std::cout << "Et of L2 object: " << (*l2_it).Et() << "; and pT of reco object: " << (*reco_it).Pt() << std::endl;
};
};
std::cout << "--------------------------------------------------------------------------" << std::endl;
return true;
};
bool RemoveObjects::processEvent(cafe::Event& event)
{
using namespace cafe;
using namespace std;
vector<TObjArray*> vars;
for(vector<string>::const_iterator it = _list.begin();
it != _list.end();
++it) {
TObjArray *ptr = 0;
if(event.get(*it, ptr) && ptr != 0) {
vars.push_back(ptr);
} else {
err() << "RemoveObjects[" << name() << "]: No such list:" << *it << endl;
}
}
if(TClonesArray *objects = const_cast<TClonesArray*>(event.getClonesArray(_branch))) {
unsigned int initial = objects->GetLast() + 1;
unsigned int count = 0;
// need non-const object since we modify it...
TIter iter(objects);
while(TObject *obj = iter.Next()) {
bool remove = true;
for(vector<TObjArray*>::const_iterator it = vars.begin();
it != vars.end();
++it) {
if((*it)->FindObject(obj) != 0) {
remove = false;
break;
}
}
if(remove) {
count++;
objects->Remove(obj);
}
}
objects->Compress();
} else {
err() << "RemoveObjects[" << name() << "]: No such branch: " << _branch << endl;
}
return true;
}
// process
bool FakeAnalysis::processEvent(cafe::Event& event) {
vector<CAFEMObj*> emobjs;
CAFMet met_corr;
int triglist_flag = -1;
vector<const TMBL1CalTower*> l1cal_vec;
vector<const TMBL1Cal2bEM*> l1cal2b_vec;
vector<const TMBL2GblEM*> l2cal_vec;
vector<const TMBL3Ele*> l3cal_vec;
float event_vertex;
int solpol = -999;
double instlumi = 0.;
if(event.get("Good EMObjs", emobjs) && event.get("EMCorr Met", met_corr) &&
event.get("L1CalTowers", l1cal_vec) && event.get("L1Cal2bTowers", l1cal2b_vec) &&
event.get("L2GblEMs", l2cal_vec) &&
event.get("L3Eles", l3cal_vec) && event.get("triglist flag", triglist_flag) &&
event.get("InstLumi", instlumi) && event.get("solenoid polarity", solpol) &&
event.get("Primary vertexZ", event_vertex)) {
if(instlumi > _InstLumi_lowcut && instlumi < _InstLumi_highcut){
double met = met_corr.met();
// require exactly one electron and this electron must pass trigger requirement
bool pass_trigger = false;
if(emobjs.size() == 1)
pass_trigger = emobjs[0]->PassTrigCMB(triglist_flag, 0.4, l1cal_vec, l1cal2b_vec, l2cal_vec, l3cal_vec);
// only look at the electron that passes trigger requirement
if(pass_trigger) {
// get primary vertex
double v_z = event_vertex;
char bins_Vtx[10];
int bin_Vtx_number;
bin_Vtx_number=int((v_z+60.)/20.);
sprintf(bins_Vtx, "%d", bin_Vtx_number);
// identify Zee candidates
// ************* code from WAnalysis *********************
// ************* for estimating zee bkgd *****************
// require no high pT isolated track back-to-back with the electron
bool EM_Track_backtoback = false;
// change solpol from 0/1 to -1/1
int polarity = 2*solpol -1;
// get all isolated tracks
vector<CAFTrack *> isolatedTrks;
if(event.get("Good Tracks", isolatedTrks)) {
for(int itrk=0; itrk<isolatedTrks.size(); itrk++) {
double em_trk_phidiff = kinem::delta_phi(emobjs[0]->Phi(), isolatedTrks[itrk]->Phi());
if(em_trk_phidiff > 2.5 && // back to back with the EM cluster
fabs(isolatedTrks[itrk]->TrackDetEta(polarity, false /*_MCStudy*/))>1.1 && // track in ICR
fabs(isolatedTrks[itrk]->TrackDetEta(polarity, false /*_MCStudy*/))<1.5 &&
fabs(isolatedTrks[itrk]->z()-v_z)<1. && // vertex close to each other
(isolatedTrks[itrk]->charge())*(emobjs[0]->charge())<0.) { // opposite charge
TLorentzVector vect_trk(isolatedTrks[itrk]->Px(),isolatedTrks[itrk]->Py(),isolatedTrks[itrk]->Pz(),isolatedTrks[itrk]->E());
TLorentzVector vect_emobj(emobjs[0]->Px(),emobjs[0]->Py(),emobjs[0]->Pz(),emobjs[0]->E());
TLorentzVector vect_Z=vect_trk+vect_emobj;
// invariant mass
if(vect_Z.M()>70. && vect_Z.M()<110.) EM_Track_backtoback = true;
}
}
}
// end of identify Zee candidates
if(EM_Track_backtoback==false) {
//get jets from the event
cafe::Collection<TMBJet> jets = event.getJCCB(_jccb_vars);
for(Collection<TMBJet>::iterator iter = jets.begin(); iter!= jets.end(); ++iter) {
if(GoodJet(*iter)) {
float dphi_jet_em = kinem::delta_phi(emobjs[0]->Phi(), (*iter).Phi());
//get rid of the jet if they are close to each other
//since EM cluster may also be reconstructed as a jet
if(fabs(dphi_jet_em) > _DPhi_Jet_EM_Cut) {
// determine whether electron in CC or EC region
int cal_region = -1;
if(emobjs[0]->IsCC(_DetEtaCC)) cal_region = 0;
if(emobjs[0]->IsEC(_DetEtaEC1, _DetEtaEC2)) cal_region = 1;
char region[10]; sprintf(region, "%d", cal_region);
float elec_deteta = emobjs[0]->CalDetectorEta();
float elec_eta = emobjs[0]->Eta();
float elec_pT = emobjs[0]->Pt();
_histos.Fill1D("Fake_Electron_DetEta", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta", elec_eta);
_histos.Fill1D("Fake_Electron_Pt", elec_pT);
_histos.Fill1D("Fake_Met", met);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_")+region, elec_pT);
_histos.Fill1D(string("Fake_Met_")+region, met);
if(met< 15. && cal_region==0){
_histos.Fill1D(string("Fake_Electron_DetEta_CCVtxBin_")+bins_Vtx, emobjs[0]->CalDetectorEta());
}
// spatial+E/P
if(emobjs[0]->has_track_match()) {
_histos.Fill1D("Fake_Electron_DetEta_Match", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_Match", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_Match", elec_pT);
_histos.Fill1D("Fake_Met_Match", met);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_Match_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_Match_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_Match_")+region, elec_pT);
_histos.Fill1D(string("Fake_Met_Match_")+region, met);
}
// spatial only
if(emobjs[0]->has_good_spatial_track_match()) {
_histos.Fill1D("Fake_Electron_DetEta_Spatial_Match", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_Spatial_Match", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_Spatial_Match", elec_pT);
_histos.Fill1D("Fake_Met_Spatial_Match", met);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_Spatial_Match_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_Spatial_Match_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_Spatial_Match_")+region, elec_pT);
_histos.Fill1D(string("Fake_Met_Spatial_Match_")+region, met);
if(met< 15. && cal_region==0){
_histos.Fill1D(string("Fake_Electron_DetEta_CCVtxBin_Spatial_Match_")+bins_Vtx, emobjs[0]->CalDetectorEta());
}
}
// spatial only+SMT,CFT
if(emobjs[0]->has_spatial_track_match(-0.5)) {
// check chi2 vs met
_histos.Fill2D("Fake_Electron_Chi2_V_Met_Spatial_Match", met, emobjs[0]->track_match_spatialchi2prob());
_histos.Fill2D(string("Fake_Electron_Chi2_V_Met_Spatial_Match_")+region, met, emobjs[0]->track_match_spatialchi2prob());
_histos.Fill1D("Fake_Electron_Chi2", emobjs[0]->track_match_spatialchi2prob());
_histos.Fill1D(string("Fake_Electron_Chi2_")+region, emobjs[0]->track_match_spatialchi2prob());
double ElecPt = emobjs[0]->Pt();
double TrkPt = emobjs[0]->getPtrSpatialChp()->Pt();
double EOverP = 0.;
if(TrkPt>0.) EOverP = ElecPt/TrkPt;
if(emobjs[0]->getPtrSpatialChp()->nsmt()>=1 && emobjs[0]->getPtrSpatialChp()->ncft()>=4) {
// check chi2 vs met
_histos.Fill2D("Fake_Electron_Chi2_V_Met_Spatial_Match_Tight", met, emobjs[0]->track_match_spatialchi2prob());
_histos.Fill2D(string("Fake_Electron_Chi2_V_Met_Spatial_Match_Tight_")+region, met, emobjs[0]->track_match_spatialchi2prob());
_histos.Fill1D("Fake_Electron_Chi2_Tight", emobjs[0]->track_match_spatialchi2prob());
_histos.Fill1D(string("Fake_Electron_Chi2_Tight_")+region, emobjs[0]->track_match_spatialchi2prob());
_histos.Fill1D("Fake_Electron_DetEta_Spatial_Match_Tight", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_Spatial_Match_Tight", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_Spatial_Match_Tight", elec_pT);
_histos.Fill1D("Fake_Met_Spatial_Match_Tight", met);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_Spatial_Match_Tight_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_Spatial_Match_Tight_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_Spatial_Match_Tight_")+region, elec_pT);
_histos.Fill1D(string("Fake_Met_Spatial_Match_Tight_")+region, met);
}
}
//#######################################################
// same histograms for met<_MetCut_FakeRate
//#######################################################
if( met < _MetCut_FakeRate ) {
_histos.Fill1D("Fake_Electron_DetEta_MetCut", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_MetCut", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_MetCut", elec_pT);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_MetCut_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_MetCut_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_MetCut_")+region, elec_pT);
// spatial+E/P
if(emobjs[0]->has_track_match()) {
_histos.Fill1D("Fake_Electron_DetEta_Match_MetCut", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_Match_MetCut", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_Match_MetCut", elec_pT);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_Match_MetCut_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_Match_MetCut_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_Match_MetCut_")+region, elec_pT);
}
// good spatial only
if(emobjs[0]->has_good_spatial_track_match()) {
_histos.Fill1D("Fake_Electron_DetEta_Spatial_Match_MetCut", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_Spatial_Match_MetCut", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_Spatial_Match_MetCut", elec_pT);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_Spatial_Match_MetCut_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_Spatial_Match_MetCut_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_Spatial_Match_MetCut_")+region, elec_pT);
}
// spatial only+SMT,CFT+E/p
if(emobjs[0]->has_spatial_track_match(-0.5)) {
double ElecPt = emobjs[0]->Pt();
double TrkPt = emobjs[0]->getPtrSpatialChp()->Pt();
double EOverP = 0.;
if(TrkPt>0.) EOverP = ElecPt/TrkPt;
if(emobjs[0]->getPtrSpatialChp()->nsmt()>=1 && emobjs[0]->getPtrSpatialChp()->ncft()>=4) {
_histos.Fill1D("Fake_Electron_DetEta_Spatial_Match_Tight_MetCut", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_Spatial_Match_Tight_MetCut", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_Spatial_Match_Tight_MetCut", elec_pT);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_Spatial_Match_Tight_MetCut_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_Spatial_Match_Tight_MetCut_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_Spatial_Match_Tight_MetCut_")+region, elec_pT);
}
}
} // missing Et cut
} // EM and Jet are back-to-back
}
} // loop over jets
}//if(EM_Track_backtoback==false) i.e. this is not zee event
}// exactly one good EM object and pass trigger
}//lumi cut
}
return true;
}
bool TopMuonPairSelector::processEvent(cafe::Event &event)
{
//get pointer to statistics collector
StatPointer stat ;
event.get("StatPointer", stat) ;
Collection<TMBEMCluster> em_from(event.getCollection<TMBEMCluster>(_electronBranch.c_str()));
Collection<TMBMuon> mu_from(event.getCollection<TMBMuon>(_muonBranch.c_str()));
Collection<TMBMuon> all_muons( event.getMuons() );
if (em_from.size() == 0 && mu_from.size() == 0 && debug ) {
out() << "PAIR SELECTOR WARNING! Electron/Muon branch "
<< _electronBranch << "/" << _muonBranch << " is empty or is not existing! "
<< endl ;
return true ;
}
if (em_from.size() >=2 && debug) {
out() << "PAIR SELECTOR ERROR! 2 electrons found in branch \""
<< _electronBranch << "\". Considering only leading electron outside of a jet!"
<< endl ;
// return false ;
}
l_mom.SetPxPyPzE( 0 , 0 , 0 , 0 );
lepton_charge = 0;
jet_array = event.getCollection<TMBJet>(_jet_branch.c_str());
if( em_from.size() == 0 )
{
for( int i = 0 ; i < mu_from.size() ; i++ )
{
bool is_in_jet = false;
if( dR_cut > 0 )
{
for( int j = 0 ; j < jet_array.size() ; j++ )
{
if( do_dr_mujet_lead_muon && mu_from[i].DeltaR( jet_array[j] ) < dR_cut )
is_in_jet = true;
}
}
if( use_only_leading_lepton && i > 0 )
is_in_jet = true;
if( mu_from[i].Pt() > l_mom.Pt() && mu_from[i].charge() != 0 && !is_in_jet )
{
l_mom = mu_from[i];
l_track = const_cast<TMBTrack*>(mu_from[i].GetChargedTrack());
lepton_charge = mu_from[i].charge();
}
}
}
else
{
for( int i = 0 ; i < em_from.size() ; i++ )
{
if( em_from[i].Pt() > l_mom.Pt() && em_from[i].charge() != 0 )
{
bool common_track = false;
for( int j = 0 ; j < all_muons.size() ; j++ )
{
if( remove_common_track && ( all_muons[j].GetChargedTrack() && all_muons[j].isLoose() == 1 )
&& ( em_from[i].getPtrChp()->DeltaR( *all_muons[j].GetChargedTrack() ) < 1e-4 ) )
common_track = true;
}
if( use_only_leading_lepton && i > 0 )
common_track = true;
if( !common_track )
{
l_mom = em_from[i];
l_track = const_cast<TMBTrack*>(em_from[i].getPtrChp());
lepton_charge = em_from[i].charge();
}
}
}
}
if (_selectSameSign)
{
stat.EventSelected("Same charge selection") ;
}
else
{
stat.EventSelected("Opposite charge selection") ;
}
SelectUserObjects<TMBMuon>::processEvent(event);
return true;
}
// process
bool FakeAnalysis_with_ej_tree::processEvent(cafe::Event& event) {
cout <<"in Fakeanalysis code"<<endl;
const TMBCellContainer *cells = event.get<TMBCellContainer>("CaloCells");
vector<CAFEMObj*> emobjs;
CAFMet met_corr;
CAFMet met_corricd;
CAFMet rawmet;
int triglist_flag = -1;
vector<const TMBL1CalTower*> l1cal_vec;
vector<const TMBL1Cal2bEM*> l1cal2b_vec;
vector<const TMBL2GblEM*> l2cal_vec;
vector<const TMBL3Ele*> l3cal_vec;
float event_vertex;
float v_x,v_y,v_z;
int solpol = -999;
double instlumi = 0.;
cout<<"Good EMObjs, emobjs " <<event.get("Good EMObjs", emobjs) << endl;
cout<<"EMCorr Met, met_cor " <<event.get("EMCorr Met", met_corr) << endl;
cout<<"Raw Met, rawmet) << " <<event.get("Raw Met", rawmet) << endl;
cout<<"EMCorr MetICD, met_ " <<event.get("EMCorr MetICD", met_corricd) << endl;
cout<<"L1CalTowers, l1cal_ " <<event.get("L1CalTowers", l1cal_vec) << endl;
cout<<"L1Cal2bTowers, l1ca " <<event.get("L1Cal2bTowers", l1cal2b_vec) << endl;
cout<<"L2GblEMs, l2cal_vec " <<event.get("L2GblEMs", l2cal_vec) << endl;
cout<<"L3Eles, l3cal_vec) " <<event.get("L3Eles", l3cal_vec) << endl;
cout<<"triglist flag, trig " <<event.get("triglist flag", triglist_flag) << endl;
cout<<"InstLumi, instlumi) " <<event.get("InstLumi", instlumi) << endl;
cout<<"solenoid polarity, " <<event.get("solenoid polarity", solpol) << endl;
cout<<"Best primary vertexZ " <<event.get("Best primary vertexZ", v_z) << endl;
cout<<"Best primary vertexX " <<event.get("Best primary vertexX", v_x) << endl;
cout<<"Best primary vertexY " <<event.get("Best primary vertexY", v_y) << endl;
cout<<" just before event.get loop"<<endl;
if(event.get("Good EMObjs", emobjs) &&
event.get("EMCorr Met", met_corr) &&
event.get("Raw Met", rawmet) &&
//event.get("EMCorr MetICD", met_corricd) &&
event.get("L1CalTowers", l1cal_vec) && event.get("L1Cal2bTowers", l1cal2b_vec) &&
event.get("L2GblEMs", l2cal_vec) &&
event.get("L3Eles", l3cal_vec) && event.get("triglist flag", triglist_flag) &&
event.get("InstLumi", instlumi) && event.get("solenoid polarity", solpol) &&
event.get("Best primary vertexZ", v_z) &&
event.get("Best primary vertexX", v_x) &&
event.get("Best primary vertexY", v_y)
) {
cout<<" just before inst lumi"<<endl;
if(instlumi > _InstLumi_lowcut && instlumi < _InstLumi_highcut){
double met = met_corr.met();
double set = met_corr.scalarEt();
double meticd = met_corricd.met();
double seticd = met_corricd.scalarEt();
// require exactly one electron and this electron must pass trigger requirement
bool pass_trigger = false;
if(emobjs.size() == 1)
pass_trigger = emobjs[0]->PassTrigCMB(triglist_flag, 0.4, l1cal_vec, l1cal2b_vec, l2cal_vec, l3cal_vec);
// only look at the electron that passes trigger requirement
if(pass_trigger) {
// get primary vertex
//double v_z = event_vertex;
char bins_Vtx[10];
int bin_Vtx_number;
bin_Vtx_number=int((v_z+60.)/20.);
sprintf(bins_Vtx, "%d", bin_Vtx_number);
// identify Zee candidates
// ************* code from WAnalysis *********************
// ************* for estimating zee bkgd *****************
// require no high pT isolated track back-to-back with the electron
bool EM_Track_backtoback = false;
// change solpol from 0/1 to -1/1
int polarity = 2*solpol -1;
// get all isolated tracks
vector<CAFTrack *> isolatedTrks;
if(event.get("Good Tracks", isolatedTrks)) {
for(int itrk=0; itrk<isolatedTrks.size(); itrk++) {
double em_trk_phidiff = kinem::delta_phi(emobjs[0]->Phi(), isolatedTrks[itrk]->Phi());
if(em_trk_phidiff > 2.5 && // back to back with the EM cluster
fabs(isolatedTrks[itrk]->TrackDetEta(polarity, false /*_MCStudy*/))>1.1 && // track in ICR
fabs(isolatedTrks[itrk]->TrackDetEta(polarity, false /*_MCStudy*/))<1.5 &&
fabs(isolatedTrks[itrk]->z()-v_z)<1. && // vertex close to each other
(isolatedTrks[itrk]->charge())*(emobjs[0]->charge())<0.) { // opposite charge
TLorentzVector vect_trk(isolatedTrks[itrk]->Px(),isolatedTrks[itrk]->Py(),isolatedTrks[itrk]->Pz(),isolatedTrks[itrk]->E());
TLorentzVector vect_emobj(emobjs[0]->Px(),emobjs[0]->Py(),emobjs[0]->Pz(),emobjs[0]->E());
TLorentzVector vect_Z=vect_trk+vect_emobj;
// invariant mass
if(vect_Z.M()>70. && vect_Z.M()<110.) EM_Track_backtoback = true;
}
}
}
// end of identify Zee candidates
if(EM_Track_backtoback==false) {
// construct W candidate
// primary vertex
float vtx[3]={v_x, v_y, v_z};
CAFWCand wcand;
CAFEMObj *emobj = 0;
double wScalarET = 0.;
if (emobjs.size()>=1) {
emobj = emobjs[0];
if(_dorawCellsRecoil) {
if (_useConsistentMET) {
wcand = CAFWCand(emobj, &rawmet, vtx, true);
} else {
wcand = CAFWCand(emobj, &met_corr, vtx);
}
} else {
wcand = CAFWCand(emobj, &met_corr);
}
if (_useConsistentMET) {
TVector2 consistMET=wcand.GetConsistentMET();
double dummySET=met_corr.scalarEt();
wScalarET = dummySET;
met_corr.SetMet(consistMET.X(),consistMET.Y(),consistMET.Mod(),dummySET);
}
}
// ejt tree code
//entry = -555;
run = -555;
evt = -555;
lumi = -555;
vtxz = -555;
evtmet = -555;
evtset = -555;
evtmeticd = -555;
evtseticd = -555;
wcandut = -555;
wcandmt = -555;
e_n = -555;
e_pt = -555;
e_e = -555;
e_eta = -555;
e_deta = -555;
e_phi = -555;
e_charge = -555;
e_spmtch = -555;
e_goodspmtch = -555;
e_id = -555;
j_n = -555;
j_pt = -555;
j_e = -555;
j_eta = -555;
j_deta = -555;
j_phi = -555;
j_trks = -555;
j_n90 = -555;
j_emf = -555;
j_chf = -555;
j_hcr = -555;
ej_deltaphi = -555;
ej_m = -555;
ej_angle = -555;
bool found_JET=false;
entry++;
run=event.getGlobal()->runno();
evt=event.getGlobal()->evtno();
lumi=instlumi*36.0;
vtxz=v_z;
evtmet = met;
evtset = set;
evtmeticd = meticd;
evtseticd = seticd;
wcandut = wcand.MagRecoil();
wcandmt = wcand.Mt();
if(emobjs[0]->has_spatial_track_match(-0.5)) e_spmtch=1;
if(emobjs[0]->has_good_spatial_track_match()) e_goodspmtch=1;
e_id=emobjs[0]->id();
e_pt=emobjs[0]->Pt();
e_e=emobjs[0]->E();
e_eta=emobjs[0]->Eta();
e_deta=emobjs[0]->CalDetectorEta();
e_phi=emobjs[0]->Phi();
e_charge=emobjs[0]->charge();
e_n=emobjs.size();
//loop over jets
cafe::Collection<TMBJet> jets_ejttree = event.getJCCB();
j_n = 0;
if(jets_ejttree.size() > 0) {
for(Collection<TMBJet>::iterator iter = jets_ejttree.begin(); iter != jets_ejttree.end(); ++iter) {
j_n++;
ej_deltaphi=kinem::delta_phi(e_phi, (*iter).Phi());
j_n90 = (*iter).n90();
j_pt = (*iter).Pt();
j_emf = (*iter).emf();
j_chf = (*iter).chf();
j_hcr = (*iter).hotcellratio();
j_trks = (*iter).Ntr();
j_eta = (*iter).Eta();
j_phi = (*iter).Phi();
j_deta = 0.1*((*iter).deta());
j_e = (*iter).E();
TLorentzVector vect_jet((*iter).Px(), (*iter).Py(),(*iter).Pz(),(*iter).E());
TLorentzVector vect_emobj(emobjs[0]->Px(),emobjs[0]->Py(),emobjs[0]->Pz(),emobjs[0]->E());
TLorentzVector vect_Z=vect_jet+vect_emobj;
ej_m=vect_Z.M();
TVector3 em_vect3 = emobjs[0]->vect3();
TVector3 jet_vect3( (*iter).Px(), (*iter).Py(), (*iter).Pz() );
ej_angle = em_vect3.Angle(jet_vect3);
found_JET = true;
ej->Fill();
}// for(Collection<TMBJet>
}//if(jets_ejttree.size() > 0)
// end of ejt tree code
//get jets from the event
cafe::Collection<TMBJet> jets = event.getJCCB(_jccb_vars);
for(Collection<TMBJet>::iterator iter = jets.begin(); iter!= jets.end(); ++iter) {
if(GoodJet(*iter)) {
float dphi_jet_em = kinem::delta_phi(emobjs[0]->Phi(), (*iter).Phi());
//get rid of the jet if they are close to each other
//since EM cluster may also be reconstructed as a jet
if(fabs(dphi_jet_em) > _DPhi_Jet_EM_Cut) {
// determine whether electron in CC or EC region
int cal_region = -1;
if(emobjs[0]->IsCC(_DetEtaCC)) cal_region = 0;
if(emobjs[0]->IsEC(_DetEtaEC1, _DetEtaEC2)) cal_region = 1;
char region[10]; sprintf(region, "%d", cal_region);
float elec_deteta = emobjs[0]->CalDetectorEta();
float elec_eta = emobjs[0]->Eta();
float elec_pT = emobjs[0]->Pt();
cout<<"Fake_Electron_DetEta "<<elec_deteta<<endl;
_histos.Fill1D("Fake_Electron_DetEta", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta", elec_eta);
_histos.Fill1D("Fake_Electron_Pt", elec_pT);
_histos.Fill1D("Fake_Met", met);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_")+region, elec_pT);
_histos.Fill1D(string("Fake_Met_")+region, met);
if(met< 15. && cal_region==0){
_histos.Fill1D(string("Fake_Electron_DetEta_CCVtxBin_")+bins_Vtx, emobjs[0]->CalDetectorEta());
}
// spatial+E/P
if(emobjs[0]->has_track_match()) {
_histos.Fill1D("Fake_Electron_DetEta_Match", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_Match", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_Match", elec_pT);
_histos.Fill1D("Fake_Met_Match", met);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_Match_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_Match_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_Match_")+region, elec_pT);
_histos.Fill1D(string("Fake_Met_Match_")+region, met);
}
// spatial only
if(emobjs[0]->has_good_spatial_track_match()) {
_histos.Fill1D("Fake_Electron_DetEta_Spatial_Match", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_Spatial_Match", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_Spatial_Match", elec_pT);
_histos.Fill1D("Fake_Met_Spatial_Match", met);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_Spatial_Match_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_Spatial_Match_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_Spatial_Match_")+region, elec_pT);
_histos.Fill1D(string("Fake_Met_Spatial_Match_")+region, met);
if(met< 15. && cal_region==0){
_histos.Fill1D(string("Fake_Electron_DetEta_CCVtxBin_Spatial_Match_")+bins_Vtx, emobjs[0]->CalDetectorEta());
}
}
// spatial only+SMT,CFT
if(emobjs[0]->has_spatial_track_match(-0.5)) {
// check chi2 vs met
_histos.Fill2D("Fake_Electron_Chi2_V_Met_Spatial_Match", met, emobjs[0]->track_match_spatialchi2prob());
_histos.Fill2D(string("Fake_Electron_Chi2_V_Met_Spatial_Match_")+region, met, emobjs[0]->track_match_spatialchi2prob());
_histos.Fill1D("Fake_Electron_Chi2", emobjs[0]->track_match_spatialchi2prob());
_histos.Fill1D(string("Fake_Electron_Chi2_")+region, emobjs[0]->track_match_spatialchi2prob());
double ElecPt = emobjs[0]->Pt();
double TrkPt = emobjs[0]->getPtrSpatialChp()->Pt();
double EOverP = 0.;
if(TrkPt>0.) EOverP = ElecPt/TrkPt;
if(emobjs[0]->getPtrSpatialChp()->nsmt()>=1 && emobjs[0]->getPtrSpatialChp()->ncft()>=4) {
// check chi2 vs met
_histos.Fill2D("Fake_Electron_Chi2_V_Met_Spatial_Match_Tight", met, emobjs[0]->track_match_spatialchi2prob());
_histos.Fill2D(string("Fake_Electron_Chi2_V_Met_Spatial_Match_Tight_")+region, met, emobjs[0]->track_match_spatialchi2prob());
_histos.Fill1D("Fake_Electron_Chi2_Tight", emobjs[0]->track_match_spatialchi2prob());
_histos.Fill1D(string("Fake_Electron_Chi2_Tight_")+region, emobjs[0]->track_match_spatialchi2prob());
_histos.Fill1D("Fake_Electron_DetEta_Spatial_Match_Tight", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_Spatial_Match_Tight", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_Spatial_Match_Tight", elec_pT);
_histos.Fill1D("Fake_Met_Spatial_Match_Tight", met);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_Spatial_Match_Tight_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_Spatial_Match_Tight_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_Spatial_Match_Tight_")+region, elec_pT);
_histos.Fill1D(string("Fake_Met_Spatial_Match_Tight_")+region, met);
}
}
//#######################################################
// same histograms for met<_MetCut_FakeRate
//#######################################################
if( met < _MetCut_FakeRate ) {
_histos.Fill1D("Fake_Electron_DetEta_MetCut", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_MetCut", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_MetCut", elec_pT);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_MetCut_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_MetCut_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_MetCut_")+region, elec_pT);
// spatial+E/P
if(emobjs[0]->has_track_match()) {
_histos.Fill1D("Fake_Electron_DetEta_Match_MetCut", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_Match_MetCut", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_Match_MetCut", elec_pT);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_Match_MetCut_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_Match_MetCut_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_Match_MetCut_")+region, elec_pT);
}
// good spatial only
if(emobjs[0]->has_good_spatial_track_match()) {
_histos.Fill1D("Fake_Electron_DetEta_Spatial_Match_MetCut", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_Spatial_Match_MetCut", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_Spatial_Match_MetCut", elec_pT);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_Spatial_Match_MetCut_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_Spatial_Match_MetCut_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_Spatial_Match_MetCut_")+region, elec_pT);
}
// spatial only+SMT,CFT+E/p
if(emobjs[0]->has_spatial_track_match(-0.5)) {
double ElecPt = emobjs[0]->Pt();
double TrkPt = emobjs[0]->getPtrSpatialChp()->Pt();
double EOverP = 0.;
if(TrkPt>0.) EOverP = ElecPt/TrkPt;
if(emobjs[0]->getPtrSpatialChp()->nsmt()>=1 && emobjs[0]->getPtrSpatialChp()->ncft()>=4) {
_histos.Fill1D("Fake_Electron_DetEta_Spatial_Match_Tight_MetCut", elec_deteta);
_histos.Fill1D("Fake_Electron_Eta_Spatial_Match_Tight_MetCut", elec_eta);
_histos.Fill1D("Fake_Electron_Pt_Spatial_Match_Tight_MetCut", elec_pT);
// fill distributions for CC or EC region
_histos.Fill1D(string("Fake_Electron_DetEta_Spatial_Match_Tight_MetCut_")+region, elec_deteta);
_histos.Fill1D(string("Fake_Electron_Eta_Spatial_Match_Tight_MetCut_")+region, elec_eta);
_histos.Fill1D(string("Fake_Electron_Pt_Spatial_Match_Tight_MetCut_")+region, elec_pT);
}
}
} // missing Et cut
} // EM and Jet are back-to-back
}
} // loop over jets
}//if(EM_Track_backtoback==false) i.e. this is not zee event
}// exactly one good EM object and pass trigger
}//lumi cut
}// if event.get loop
cout<<" end of process event" <<endl;
return true;
}
//
// extract event vertex and track vertex
//
void VtxSelector::extract(cafe::Event& event, const vector<CAFEMObj*>& emobjs, int& nvtx) {
// Primary Vertex
Collection<TMBPrimaryVertex> vertices = event.getPrimaryVertices(_PV_vars);
// event vertex from the first primary vertex
nvtx = vertices.size();
if(nvtx>0) {
_event_vertex[0] = vertices[0].vx();
_event_vertex[1] = vertices[0].vy();
_event_vertex[2] = vertices[0].vz();
} else {
_event_vertex[0] = 0.;
_event_vertex[1] = 0.;
_event_vertex[2] = 0.;
}
if(_debugLevel>=10) cout<<"Old primary vertex="<<_event_vertex[0]<<" "
<<_event_vertex[1]<<" "<<_event_vertex[2]<<endl;
//
// get beam spot position for this run
// and then correct for the beam spot position
// comment out by J. Zhu on Sep 17, 2006
// I do not really believe that we need to do this beam spot corrections
//
// int runno = event.getGlobal(_global_vars)->runno();
// float xoffset=0., yoffset=0., xslope=0., yslope=0.;
// BeamSpotManager *beamspot_manager = BeamSpotManager::get_instance();
// if(beamspot_manager){
// const map<int, BEAMSPOT_STRUCT>& beamspot_map = beamspot_manager->BeamSpotMap();
// map<int, BEAMSPOT_STRUCT>::const_iterator iter = beamspot_map.find(runno);
// if(iter != beamspot_map.end()){
// xoffset = (*iter).second.xoffset;
// yoffset = (*iter).second.yoffset;
// xslope = (*iter).second.xslope;
// yslope = (*iter).second.yslope;
// }
// }
// if no tracks found, Z of the track vertex will be the same as that of event vertex
float vtx_new_z = _event_vertex[2];
// if two EM clusters have track match, using the average track Z postion
// if only one EM cluster has track match, just use the track Z position
// if the track Z position and the D0reco primary vertex are far away from each,
// will modify met later in ObjSelector
if(emobjs.size() >= 1) { // at least one good EM cluster
bool has_trk1 = emobjs[0]->has_good_spatial_track_match();
if(emobjs.size() >= 2) { // at least two good EM clusters
bool has_trk2 = emobjs[1]->has_good_spatial_track_match();
if(has_trk1 && has_trk2) {
vtx_new_z = ( (emobjs[0]->getPtrSpatialChp())->z() + (emobjs[1]->getPtrSpatialChp())->z())/2.;
} else if(has_trk1 || has_trk2) {
if(has_trk1) vtx_new_z = (emobjs[0]->getPtrSpatialChp())->z();
else vtx_new_z = (emobjs[1]->getPtrSpatialChp())->z();
}
} else if (emobjs.size() == 1) // only one good EM cluster
if(has_trk1) vtx_new_z = (emobjs[0]->getPtrSpatialChp())->z();
}
// find corrected primary vertex
// _track_vertex[0] = xoffset + xslope * vtx_new_z;
// _track_vertex[1] = yoffset + yslope * vtx_new_z;
_track_vertex[0] = _event_vertex[0];
_track_vertex[1] = _event_vertex[1];
_track_vertex[2] = vtx_new_z;
if(_debugLevel>=10) cout<<"New primary vertex="<<_track_vertex[0]<<" "
<<_track_vertex[1]<<" "<<_track_vertex[2]<<endl;
}
void cafTriggerEfficiency::change_request( cafe::Event &event ){
cafe::Config config(name());
if (!MCREQID) throw runtime_error("ERROR: processor MCReqID is not initialized.") ;
// verify if request id is stay the same. In that case do nothing.
if ( MCREQID->reqid() == _reqid ) return ;
_reqid = MCREQID->reqid() ;
// verify data epochs associated to this MC
const vector<string>* epochs = MCREQID->current_data_epochs();
//------------------------------------
// Get the list of trigger versions
//
// Config should have trigger versions listed for each data epoch, like:
// caftrig.triglist_RunIIa: 08,09a,09b,10,11,12,13a,13b,13c,14
// caftrig.triglist_RunIIb1: 15a,15b
// caftrig.triglist_RunIIb2: 15c,16a,16b,16c
// caftrig.triglist_RunIIb3: 16d,16e
//
// And if more than one data epoch is used the lists will be concatinated here.
//------------------------------------
vector<string> triggerList;
if(debug()>0) cout<<"Get trigger versions."<<endl;
for (vector<string>::const_iterator eit=epochs->begin(); eit!=epochs->end(); eit++){
vector<string> tmp_versions = config.getVString(("triglist_"+ *eit),",");
triggerList.insert(triggerList.end(),tmp_versions.begin(),tmp_versions.end());
if(debug()>0) cout<<"Added "<<tmp_versions.size()<<" trigger versions for "<<*eit<<endl;
}
vector<float> lumi, lumi1, lumi2;
if (!_dqLumi) {
out() << "Luminosity for each trigger is read from the config file. " << endl ;
for (vector<string>::const_iterator eit=epochs->begin(); eit!=epochs->end(); eit++){
vector<float> tmp_lumi;
tmp_lumi = config.getVFloat(("lumi_"+ *eit),",");
lumi.insert(lumi.end(),tmp_lumi.begin(),tmp_lumi.end());
tmp_lumi.clear();
tmp_lumi = config.getVFloat(("lumi1_"+ *eit),",");
lumi1.insert(lumi1.end(),tmp_lumi.begin(),tmp_lumi.end());
tmp_lumi.clear();
tmp_lumi = config.getVFloat(("lumi2_"+ *eit),",");
lumi2.insert(lumi2.end(),tmp_lumi.begin(),tmp_lumi.end());
}
} else {
CafeDataQualityLuminosity* dq_lumi = CafeDataQualityLuminosityInstance() ;
if (!dq_lumi)
throw runtime_error("cafTriggerEfficiency ["+name()+"]: need DQ processor instantiated with lumicache file. No DQLuminosity object was found!") ;
// read file caf_trigger/parameters/trignames.txt with correspondence between
// trigger names and trigger versions
ifstream fnames("caf_trigger/parameters/trignames.txt") ;
if (!fnames)
throw runtime_error("Could not read file caf_trigger/parameters/trignames.txt") ;
map<string,pair<float, float> > trig_names ;
float t1=0, t2=0 ;
string in_string, tname ;
while ( getline(fnames,in_string) ) {
istringstream s(in_string) ;
s >> tname >> t1 >> t2 ;
if (!tname.empty()) trig_names[tname] = pair<float,float>(t1,t2) ;
}
fnames.close() ;
for (vector<string>::const_iterator it = triggerList.begin(); it != triggerList.end(); it++) {
pair<float,float> trs = trig_names[*it] ;
lumi.push_back(dq_lumi->integrateRecordedDqLuminosityByTriggerVersion(trs.first, trs.second));
}
}
if ( lumi.size() != triggerList.size() ) {
out() << "cafTriggerEfficiency::cafTriggerEfficiency" << endl ;
out() << "- Error: The triggerlist and luminosity vectors must be equal in number" << endl;
out() << endl;
out() << "Lumi vector:" << endl;
for(int i = 0; i < lumi.size(); ++i) {
out() << "Lumi[" << i << "] = " << lumi[i] << endl;
}
out() << "TriggerList vector:" << endl;
for(int i = 0; i < triggerList.size(); ++i) {
out() << "TriggerList[" << i << "] = " << triggerList[i] << endl;
}
exit(1);
}
if ( lumi1.size() == 0 ) lumi1=lumi;
if ( lumi2.size() == 0 ) lumi2=lumi;
if ( lumi.size() != lumi1.size() || lumi.size() != lumi2.size() ) {
err() << "cafTriggerEfficiency::cafTriggerEfficiency" << endl
<< "- Error: The luminosity vectors must be equal in number" << endl;
err() << endl;
err() << "Lumi vector" << endl;
for(int i = 0; i < lumi.size(); ++i) {
err() << "Lumi[" << i << "] = " << lumi[i] << endl;
}
for(int i = 0; i < lumi1.size(); ++i) {
err() << "Lumi1[" << i << "] = " << lumi1[i] << endl;
}
for(int i = 0; i < lumi2.size(); ++i) {
err() << "Lumi2[" << i << "] = " << lumi2[i] << endl;
}
exit(1);
}
//We place this information into a mapping for (triggerList, lumi)
for(int i = 0; i < lumi.size(); ++i) {
_mapVersionLumi[triggerList[i]] = lumi[i];
_mapVersionLumi1[triggerList[i]] = lumi1[i];
_mapVersionLumi2[triggerList[i]] = lumi2[i];
}
out() << endl << "////////////////////////////////////" << endl ;
out() << "TriggerEfficiency Calculations: Lumi information:" << endl ;
if (_dqLumi)
out() << "Read luminosity for each run range from lumicache file." << endl ;
else
out() << "Read luminosity from the configuration file" << endl ;
_lumi_tot = 0.0 ;
for(map<string, float>::iterator it = _mapVersionLumi.begin(); it != _mapVersionLumi.end(); ++it) {
out() << "Trigger version: " << (*it).first
<< " with lumi: " << (*it).second << endl;
_lumi_tot += (*it).second ;
}
out() << "Lumi total: " << _lumi_tot << " pb" << endl ;
/// What is this for? -Joe
//The sigma calculations
string sigma = config.get("sigma", "false");
if(sigma != "false") {
out() << "with Sigma +1, -1 calculations" << endl;
}
out() << "////////////////////////////////////" << endl;
// replace maps in event
event.put("passedVersionLumi", _mapVersionLumi);
event.put("passedVersionLumi1", _mapVersionLumi1);
event.put("passedVersionLumi2", _mapVersionLumi2);
}
