Inheritance diagram for Rivet::CMS_2011_I930319:

Public Member Functions
void	analyze (const Event &event) override

	CMS_2011_I930319 ()
	Constructor. More...

void	finalize () override

void	init () override

Public Attributes
double	evcounter_dijet

double	evcounter_mb

Private Attributes
AIDA::IHistogram1D *	_hist_dijet_09

AIDA::IHistogram1D *	_hist_dijet_7

AIDA::IHistogram1D *	_hist_mb_09

AIDA::IHistogram1D *	_hist_mb_7

Detailed Description

Definition at line 14 of file CMS_2011_I930319.cc.

Constructor & Destructor Documentation

Rivet::CMS_2011_I930319::CMS_2011_I930319 ( )

inline

Constructor.

Definition at line 21 of file CMS_2011_I930319.cc.

       : Analysis("CMS_2011_I930319")
       
       {
         setBeams(PROTON,PROTON);
       }

Member Function Documentation

void Rivet::CMS_2011_I930319::analyze ( const Event & event )

inlineoverride

Definition at line 65 of file CMS_2011_I930319.cc.

References _hist_dijet_09, _hist_dijet_7, _hist_mb_09, _hist_mb_7, Particle::E(), evcounter_dijet, evcounter_mb, event(), lumiContext::fill, GeV, METSkim_cff::Jets, fwrapper::jets, AlCaHLTBitMon_ParallelJobs::p, PI, and histoStyle::weight.

                                             {
     const double weight = event.weight();     
     
     // Skip if the event is empty
     const FinalState& fsv = applyProjection<FinalState>(event, "fsv");
     if (fsv.empty()) vetoEvent;
       
     
     
     // Veto diffraction according to defined hadron level.
     double count_chrg_forward = 0;
     double count_chrg_backward = 0;
     const FinalState& fschrgdv = applyProjection<FinalState>(event, "fschrgdv");
 
     foreach (const Particle& p, fschrgdv.particles()) {
       if( 3.9 < p.momentum().pseudorapidity() && 
           p.momentum().pseudorapidity() < 4.4){count_chrg_forward++;}
       if(-4.4 < p.momentum().pseudorapidity() && 
          p.momentum().pseudorapidity() < -3.9){count_chrg_backward++;}
       
     }   
 
     if(count_chrg_forward*count_chrg_backward==0) {
       vetoEvent;
     }
     
     const FastJets& jetpro = applyProjection<FastJets>(event, "Jets"); 
     const Jets& jets = jetpro.jetsByPt(7.0*GeV);
     
     
     //  ============================== MINIMUM BIAS EVENTS                  
   
     //loop over particles to calculate the energy
     evcounter_mb += weight;
     foreach (const Particle& p, fsv.particles()) {
 
       if(fuzzyEquals(sqrtS()/GeV, 900, 1E-3)) {_hist_mb_09 -> 
           fill(fabs(p.momentum().pseudorapidity()), weight * p.momentum().E()/GeV );}
 
       if(fuzzyEquals(sqrtS()/GeV, 7000, 1E-3)) {_hist_mb_7 -> 
           fill(fabs(p.momentum().pseudorapidity()), weight * p.momentum().E()/GeV );}  
 
     } 
     
     
     //  ============================== DIJET EVENTS  
          
     if(jets.size()>1){
       
       signed int index_1 = -1;  //for the jet with the 1.highest pT
       signed int index_2 = -1;  //for the jet with the 2.highest pT
       
       double tempmax_1 = -100;
       double tempmax_2 = -100;
       
       //jet with the 1.highest pt   
       for(signed int ijets = 0; ijets < (int)jets.size(); ijets++){
         if(tempmax_1 == -100 || tempmax_1 < jets[ijets].momentum().pT()/GeV)
           { 
             tempmax_1 = jets[ijets].momentum().pT()/GeV;
             index_1 = ijets;
           }     
       }
       
           
       //jet with the 2. highest pt  
       for(signed int ijets = 0; ijets < (int)jets.size(); ijets++){     
         if(tempmax_2 == -100 || tempmax_2 < jets[ijets].momentum().pT()/GeV){   
           if(jets[ijets].momentum().pT()/GeV < tempmax_1){
             tempmax_2 = jets[ijets].momentum().pT()/GeV;
             index_2 = ijets;
           }
         }               
       }
       
       
       if(index_1 != -1 && index_2 != -1){
  
         double diffphi = jets[index_2].momentum().phi() - jets[index_1].momentum().phi();                    
         if(diffphi < -PI){ diffphi += 2.0*PI; }
         if(diffphi > PI){ diffphi -= 2.0*PI; }
         diffphi = fabs(diffphi);
         
     
         // *******
         // 900 GeV 
         // *******
         
     if(fuzzyEquals(sqrtS()/GeV, 900, 1E-3)){    
 
           //pt cut
           if(jets[index_1].momentum().pT()/GeV > 8.0 && jets[index_2].momentum().pT()/GeV >8.0){                
 
             //eta cut for the central jets
             if(fabs(jets[index_1].momentum().pseudorapidity()) < 2.5 && 
                fabs(jets[index_2].momentum().pseudorapidity()) < 2.5){
               
               //back to back condition of the jets
               if(fabs(diffphi-PI) < 1.0){   
                 evcounter_dijet += weight;                      
                 
                 //  E-flow                      
                 foreach (const Particle& p, fsv.particles()){   
                   _hist_dijet_09->
                     fill(fabs(p.momentum().pseudorapidity()), weight*p.momentum().E()/GeV);
                 
                 }//foreach particle        
               }//if(dphi)                   
             }// else (eta cut central region)
           }//pt cut         
         }// energy 
         
               
                       
         // ******** 
         // 7000 GeV     
         // ********
        
         if(fuzzyEquals(sqrtS()/GeV, 7000, 1E-3)){
           
           //pt cut
           if(jets[index_1].momentum().pT()/GeV > 20.0 && jets[index_2].momentum().pT()/GeV > 20.0){ 
 
             //eta cut for the central jets
             if(fabs(jets[index_1].momentum().pseudorapidity()) < 2.5 && 
                fabs(jets[index_2].momentum().pseudorapidity()) < 2.5){
               
               //back to back condition of the jets
               if(fabs(diffphi-PI) < 1.0){   
                 evcounter_dijet += weight;
                 
                 //E-flow                                                                                                
                 foreach (const Particle& p, fsv.particles()){                               
                   _hist_dijet_7->
                     fill(fabs(p.momentum().pseudorapidity()), weight*p.momentum().E()/GeV);
     
                 }//foreach particle
               }//if(dphi)
             }// else (eta cut central region)
           }//pt cut
         }// energy          
     
       }// if index        
     }// analysis 
   }

void Rivet::CMS_2011_I930319::finalize ( void )

inlineoverride

Definition at line 212 of file CMS_2011_I930319.cc.

References _hist_dijet_09, _hist_dijet_7, _hist_mb_09, _hist_mb_7, evcounter_dijet, evcounter_mb, GeV, dtDQMClient_cfg::INFO, and pileupReCalc_HLTpaths::scale.

                            {      
       
     const double norm_dijet = evcounter_dijet*2.0 ; //AK norm factor 2 for the +/- region
     const double norm_mb = evcounter_mb*2.0 ;
     
     if(fuzzyEquals(sqrtS()/GeV, 900, 1E-3)){
         scale(_hist_mb_09, 1.0/norm_mb);
         scale(_hist_dijet_09, 1.0/norm_dijet);
     }
 
     if(fuzzyEquals(sqrtS()/GeV, 7000, 1E-3)){
       scale(_hist_dijet_7, 1.0/norm_dijet);
       scale(_hist_mb_7, 1.0/norm_mb);
     }          
     
     getLog() << Log::INFO << " " << endl;
     getLog() << Log::INFO << "Number of MB events:  " << norm_mb << endl;
     getLog() << Log::INFO << "Number of di-jet events :  " << norm_dijet  <<endl;
     
   }

void Rivet::CMS_2011_I930319::init ( void )

inlineoverride

Definition at line 33 of file CMS_2011_I930319.cc.

References _hist_dijet_09, _hist_dijet_7, _hist_mb_09, _hist_mb_7, evcounter_dijet, evcounter_mb, GeV, and pat::MUON.

                        {
     const FinalState fs(-6.0,6.0,0.0*GeV);             
     addProjection(fs, "FS"); 
     addProjection(FastJets(fs, FastJets::ANTIKT, 0.5), "Jets"); 
     
     VetoedFinalState fsv(fs);
     fsv.vetoNeutrinos();
     fsv.addVetoPairDetail(MUON, 0.0*GeV, 99999.9*GeV);
     addProjection(fsv, "fsv");
         
     // for the MB ND selection
     const ChargedFinalState fschrgd(-6.0,6.0,0.0*GeV);             
     addProjection(fschrgd, "fschrgd"); 
     VetoedFinalState fschrgdv(fschrgd);
     fschrgdv.vetoNeutrinos();
     addProjection(fschrgdv, "fschrgdv");
     
     evcounter_mb = 0;
     evcounter_dijet = 0;
     
     if(fuzzyEquals(sqrtS()/GeV, 900, 1E-3)){
       _hist_mb_09    = bookHistogram1D(1,1,1); // energy flow in MB, 0.9 TeV
       _hist_dijet_09     = bookHistogram1D(2,1,1); // energy flow in dijet events, 0.9 TeV
     }
 
     if(fuzzyEquals(sqrtS()/GeV, 7000, 1E-3)){     
       _hist_mb_7     = bookHistogram1D(3,1,1); // energy flow in MB, 7 TeV
       _hist_dijet_7      = bookHistogram1D(4,1,1); // energy flow in dijet events, 7 TeV
     }
 
   }