#include "DataFormats/FWLite/interface/Handle.h"
#include "DataFormats/PatCandidates/interface/Jet.h"
#include "DataFormats/PatCandidates/interface/Muon.h"
#include "DataFormats/HepMCCandidate/interface/FlavorHistory.h"
#include "DataFormats/HepMCCandidate/interface/GenParticle.h"
#include "Math/GenVector/PxPyPzM4D.h"
#include "PhysicsTools/FWLite/interface/EventContainer.h"
#include "PhysicsTools/FWLite/interface/CommandLineParser.h"
#include "TROOT.h"
#include "TH2F.h"

Enumerations
enum	{ kNormalMode, kVqqMode, kLFMode, kWcMode }

Functions
void	bookHistograms (fwlite::EventContainer &eventCont)

bool	calcSampleName (fwlite::EventContainer &eventCont, string &sampleName)

int	main (int argc, char *argv[])

void	outputNameTagFunc (string &tag)

Enumeration Type Documentation

◆ anonymous enum

anonymous enum

Enumerator
kNormalMode
kVqqMode
kLFMode
kWcMode

Definition at line 21 of file secvtxMassTemplates.cc.

 {
    kNormalMode,
    kVqqMode,
    kLFMode,
    kWcMode
 };

Function Documentation

◆ bookHistograms()

void bookHistograms ( fwlite::EventContainer & eventCont )

Definition at line 293 of file secvtxMassTemplates.cc.

References fwlite::EventContainer::add(), metsig::jet, kLFMode, kVqqMode, writedatasetfile::parser, fwlite::EventContainer::parser(), and makeGlobalPositionRcd_cfg::tag.

Referenced by main().

 {
    // First, come up with all possible base   //
    // names (E.g., Wbb, Wb2, etc.).           //
    CommandLineParser &parser = eventCont.parser();
    CommandLineParser::SVec baseNameVec;
    CommandLineParser::SVec beginningVec, endingVec;
    switch ( parser.integerValue ("mode") )
    {
       case kVqqMode:
          // We want Wbb, Wb2, .., Zbb, ..  In this case, we completely
          // ignore the sampleName that was passed in.
          // Starts with
          beginningVec.push_back ("X");
          beginningVec.push_back ("W");
          beginningVec.push_back ("Z");
          // Ends with
          endingVec.push_back( "bb" );
          endingVec.push_back( "b2" );
          endingVec.push_back( "cc" );
          endingVec.push_back( "c2" );
          for (CommandLineParser::SVecConstIter outerIter = beginningVec.begin();
               beginningVec.end() != outerIter;
               ++outerIter)
          {
             for (CommandLineParser::SVecConstIter innerIter = endingVec.begin();
                  endingVec.end() != innerIter;
                  ++innerIter)
             {
                baseNameVec.push_back( *outerIter + *innerIter);
             } // for innerIter
          } // for outerIter
          break;
       case kLFMode:
          // just like the default case, except that we do have some
          // heavy flavor pieces here, too.
          baseNameVec.push_back(parser.stringValue ("sampleName") + "b3");
          baseNameVec.push_back(parser.stringValue ("sampleName") + "c3");
          // no break because to add just the name as well
       default:
          // We just want to use the sample name as it was given to us.
          baseNameVec.push_back(parser.stringValue ("sampleName"));
    } // for switch
 
    // Now the different tagging endings. //
    CommandLineParser::SVec singleTagEndingVec, doubleTagEndingVec;
    singleTagEndingVec.push_back ("_b");
    singleTagEndingVec.push_back ("_c");
    singleTagEndingVec.push_back ("_q");
    doubleTagEndingVec.push_back ("_bb");
    doubleTagEndingVec.push_back ("_cc");
    doubleTagEndingVec.push_back ("_qq");
    doubleTagEndingVec.push_back ("_bc");
    doubleTagEndingVec.push_back ("_bq");
    doubleTagEndingVec.push_back ("_cq");
 
    // Finally, let's put it all together. //
    for (CommandLineParser::SVecConstIter baseIter = baseNameVec.begin();
         baseNameVec.end() != baseIter;
         ++baseIter)
    {
       // For each flavor, one jet/tag counting histogram. //
       TString histName = *baseIter + "_jettag";
       eventCont.add( new TH2F( histName, histName, 
                                6, -0.5, 5.5,
                                3, -0.5, 2.5) );
       for (int jet = 1; jet <= 5; ++jet)
       {
          for (int tag = 1; tag <= 2; ++tag)
          {
             // For each jet/tag, a single secvtx mass //
             if (tag > jet) continue;
             histName = *baseIter + Form ("_secvtxMass_%dj_%dt", jet, tag);
             eventCont.add( new TH1F( histName, histName, 40, 0, 10) );
             CommandLineParser::SVec *vecPtr = &singleTagEndingVec;
             if (2 == tag)
             {
                vecPtr = &doubleTagEndingVec;
             } // double tag
             for (CommandLineParser::SVecConstIter tagIter = vecPtr->begin();
                  vecPtr->end() != tagIter;
                  ++tagIter)
             {
                // And different secvtx mass for each tag ending. //
                histName = *baseIter + Form ("_secvtxMass_%dj_%dt", jet, tag)
                   + *tagIter;
                eventCont.add( new TH1F( histName, histName, 40, 0, 10) );
             } // for tagIter
          } // for tag
       } // for jet
    } // for baseIter
 }

◆ calcSampleName()

bool calcSampleName	(	fwlite::EventContainer &	eventCont,
		string &	sampleName
	)

Definition at line 399 of file secvtxMassTemplates.cc.

References funct::abs(), cms::cuda::assert(), ExoticaDQM_cfi::genParticleCollection, fwlite::Handle< T >::getByLabel(), fwlite::Handle< T >::isValid(), kLFMode, kNormalMode, kWcMode, ALCARECOPromptCalibProdSiPixelAli0T_cff::mode, writedatasetfile::parser, and fwlite::EventContainer::parser().

Referenced by main().

 {
    // calculate sample name
    CommandLineParser &parser = eventCont.parser();
    sampleName = parser.stringValue  ("sampleName");
    int mode   = parser.integerValue ("mode");
 
    // Normal Mode //
    if (kNormalMode == mode)
    {
       // all we want is the sample name, so in this case we're done.
       return true;
    }
    // Get the heavy flavor category
    fwlite::Handle< unsigned int > heavyFlavorCategory;
    heavyFlavorCategory.getByLabel (eventCont, "flavorHistoryFilter");
    assert ( heavyFlavorCategory.isValid() );
    int HFcat = (*heavyFlavorCategory);
 
    // Light Flavor Mode //
    if (kLFMode == mode)
    {
       // Wqq
       if (5 == HFcat)
       {
          sampleName += "b3";
       } else if (6 == HFcat)
       {
          sampleName += "c3";
       } else if (11 != HFcat)
       {
          // skip this event
          return false;
       } // else if ! 11
       return true;
    }
 
    // Wc Mode //
    if (kWcMode == mode)
    {
       // Wc
       if (4 != HFcat)
       {
          // skip this event
          return false;
       } // if not Wc
       return true;
    } // else if Wc
 
    // Vqq Mode //
    // MadGraph (at least as CMS has implemented it) has this _lovely_
    // feature that if the W or Z is far enough off-shell, it erases
    // the W or Z from the event record.  This means that in some
    // number of cases, we won't be able to tell whether this is a W or
    // Z event by looking for a W or Z in the GenParticle collection.
    // (We'll eventually have to be more clever).
    sampleName = "X";
    fwlite::Handle< vector< reco::GenParticle > > genParticleCollection;
    genParticleCollection.getByLabel (eventCont, "genParticles");
    assert ( genParticleCollection.isValid() );
    // We don't know if it is a W, a Z, or neither
    // Iterate over genParticles
    const vector< reco::GenParticle>::const_iterator 
       kGenPartEnd = genParticleCollection->end();
    for (vector< reco::GenParticle>::const_iterator gpIter =
            genParticleCollection->begin(); 
         gpIter != kGenPartEnd; ++gpIter ) 
    {
       if (gpIter->status() == 3 && std::abs(gpIter->pdgId()) == 23)
       {
          sampleName = "Z";
          break;
       }
       if (gpIter->status() == 3 && std::abs(gpIter->pdgId()) == 24)
       {
          sampleName = "W";
          break;
       }
    } // for  gpIter
    switch (HFcat)
    {
       // from:
       // https://twiki.cern.ch/twiki/bin/viewauth/CMS/SWGuideFlavorHistory
       //  1. W+bb with >= 2 jets from the ME (dr > 0.5)
       //  2. W+b or W+bb with 1 jet from the ME
       //  3. W+cc from the ME (dr > 0.5)
       //  4. W+c or W+cc with 1 jet from the ME
       //  5. W+bb with 1 jet from the parton shower (dr == 0.0)
       //  6. W+cc with 1 jet from the parton shower (dr == 0.0)
       //  7. W+bb with >= 2 partons but 1 jet from the ME (dr == 0.0)
       //  8. W+cc with >= 2 partons but 1 jet from the ME (dr == 0.0)
       //  9. W+bb with >= 2 partons but 2 jets from the PS (dr > 0.5)
       // 10. W+cc with >= 2 partons but 2 jets from the PS (dr > 0.5)
       // 11. Veto of all the previous (W+ light jets)
       case 1:
          sampleName += "bb";
          break;
       case 2:
          // Sometimes this is referred to as 'b' (e.g., 'Wb'), but I
          // am using the suffix '2' to keep this case clear for when
          // we have charm (see below).
          sampleName += "b2";
          break; 
       case 3:
          sampleName += "cc";
          break;
       case 4:
          // We want to keep this case clear from real W + single charm
          // produced (as opposed to two charm quarks produced and one
          // goes down the beampipe), so we use 'c2' instead of 'c'.
          sampleName += "c2";
          break;
       default:
          // we don't want the rest of the cases.  Return an empty
          // string so we know.
          return false;
    } // switch HFcat
    return true;
 }

◆ main()

int main	(	int	argc,
		char *	argv[]
	)

===============================================================================================================================================================================================

variant2: for each run define phi-averaged A for normalization channel (Dref,16) and then, divide Rijk on it, i.e. get RRijk

eta=27

eta=25

eta=23

eta=22

eta=21

eta=26

eta=24

eta=19

eta=17

eta=25

eta=23

eta=22

eta=21

eta=26

eta=24

eta=20

eta=19

eta=18

eta=27 L1=1

eta=25 L1=1

eta=23 L1=1

eta=22 L1=1

eta=21 L1=1

eta=29 L1=1

eta=26 L1=1

eta=24 L1=1

eta=20 L1=1

eta=19 L1=1

eta=18 L1=1

eta=17 L1=1

eta=28 L7=1

eta=27 L7=1

eta=25 L7=1

eta=23 L7=1

eta=22 L7=1

eta=21 L7=1

eta=26 L7=1

eta=24 L7=1

eta=20 L7=1

eta=19 L7=1

eta=18 L7=1

eta=17 L7=1

eta=27

eta=25

eta=23

eta=22

eta=21

eta=26

eta=24

eta=19

eta=17

eta=25

eta=23

eta=22

eta=21

eta=26

eta=24

eta=20

eta=19

eta=18

eta=27 L1=1

eta=25 L1=1

eta=23 L1=1

eta=22 L1=1

eta=21 L1=1

eta=26 L1=1

eta=24 L1=1

eta=20 L1=1

eta=19 L1=1

eta=18 L1=1

eta=17 L1=1

eta=28 L7=1

eta=27 L7=1

eta=25 L7=1

eta=23 L7=1

eta=22 L7=1

eta=21 L7=1

eta=26 L7=1

eta=24 L7=1

eta=20 L7=1

eta=19 L7=1

eta=18 L7=1

eta=17 L7=1

eta=27

eta=28

errA with average Amplitudes

Summed Amplitude Plots:

Summed Amplitude Plots:

Summed Amplitude Plots:

RBX:

errA with average Amplitudes

Summed Amplitude Plots:

Summed Amplitude Plots:

Summed Amplitude Plots:

RBX:

errA with average Amplitudes

Summed Amplitude Plots:

Summed Amplitude Plots:

Summed Amplitude Plots:

RBX:

Prepare maps of good/bad channels:

Definition at line 53 of file secvtxMassTemplates.cc.

References funct::abs(), dir2webdir::argc, GCPpyPlots::argv, cms::cuda::assert(), fwlite::EventContainer::atEnd(), bookHistograms(), calcSampleName(), fwlite::Handle< T >::getByLabel(), fwlite::EventContainer::hist(), jetfilter_cfi::jetCollection, SiStripPI::min, writedatasetfile::parser, HLT_2024v14_cff::svTagInfos, and fwlite::EventContainer::toBegin().

 {
    // ////////////////////////// //
    // // Command Line Options // //
    // ////////////////////////// //
 
    // Tell people what this analysis code does and setup default options.
    CommandLineParser parser ("Creates SecVtx Mass templates");
 
    // Add any command line options you would like here //
    parser.addOption ("mode",         CommandLineParser::kInteger, 
                      "Normal(0), VQQ(1), LF(2), Wc(3)", 
                      0);   
    parser.addOption ("sampleName",   CommandLineParser::kString, 
                      "Sample name (e.g., top, Wqq, etc.)");   
 
    parser.stringValue ("outputFile") = "jetPt"; // .root added automatically
 
    // Parse the command line arguments
    parser.parseArguments (argc, argv);
 
    // //////////////////////////// //
    // // Create Event Container // //
    // //////////////////////////// //
 
    // This object 'eventCont' is used both to get all information from the
    // eventCont as well as to store histograms, etc.
    // Parse the command line arguments
    parser.parseArguments (argc, argv);
 
    // //////////////////////////// //
    // // Create Event Container // //
    // //////////////////////////// //
 
    fwlite::EventContainer eventCont (parser);
 
    // ////////////////////////////////// //
    // //         Begin Run            // //
    // // (e.g., book histograms, etc) // //
    // ////////////////////////////////// //
 
    // Setup a style
    gROOT->SetStyle ("Plain");
 
    // Book those histograms!
    bookHistograms (eventCont);
 
    // //////////////// //
    // // Event Loop // //
    // //////////////// //
 
    for (eventCont.toBegin(); !eventCont.atEnd(); ++eventCont) 
    {
       // Take What We Need From Event //
       fwlite::Handle< vector< pat::Jet > > jetCollection;
       jetCollection.getByLabel (eventCont, "selectedLayer1Jets");
       assert ( jetCollection.isValid() );
                         
       fwlite::Handle< vector< pat::Muon > > goodMuonCollection;
       goodMuonCollection.getByLabel (eventCont, "goodLeptons");
       assert ( goodMuonCollection.isValid() );
             
       // If we don't have any good leptons, don't bother
       if (! goodMuonCollection->size() )
       {
          continue;
       }
 
       // get the sample name for this event
       string sampleName;
       if ( ! calcSampleName (eventCont, sampleName) )
       {
          // We don't want this one.
          continue;
       }
 
       // Tagged Jets and Flavor Separator //
       int numBottom = 0, numCharm = 0, numLight = 0;
       int numTags = 0;
       double sumVertexMass = 0.;
       // Loop over the jets and find out which are tagged
       const vector< pat::Jet >::const_iterator kJetEnd = jetCollection->end();
       for (vector< pat::Jet >::const_iterator jetIter = jetCollection->begin(); 
            kJetEnd != jetIter; 
            ++jetIter) 
       {
          // Is this jet tagged and does it have a good secondary vertex
          if( jetIter->bDiscriminator("simpleSecondaryVertexBJetTags") < 2.05 )
          {
             // This jet isn't tagged
             continue;
          }
          reco::SecondaryVertexTagInfo const * svTagInfos 
             = jetIter->tagInfoSecondaryVertex("secondaryVertex");
          if ( svTagInfos->nVertices() <= 0 ) 
          {
             // Given that we are using simple secondary vertex
             // tagging, I don't think this should ever happen.
             // Maybe we should put a counter here just to check.
             continue;
          } // if we have no secondary verticies
          
          // count it
          ++numTags;
 
          // What is the flavor of this jet
          int jetFlavor = std::abs( jetIter->partonFlavour() );
          if (5 == jetFlavor)
          {
             ++numBottom;
          } // if bottom 
          else if (4 == jetFlavor)
          {
             ++numCharm;
          } // if charm
          else
          {
             ++numLight;
          } // if light flavor
 
          // Calculate SecVtx Mass //
          ROOT::Math::LorentzVector< ROOT::Math::PxPyPzM4D<double> > sumVec;
          reco::CompositeCandidate vertexCand;
          reco::Vertex::trackRef_iterator 
             kEndTracks = svTagInfos->secondaryVertex(0).tracks_end();
          for (reco::Vertex::trackRef_iterator trackIter = 
                  svTagInfos->secondaryVertex(0).tracks_begin(); 
               trackIter != kEndTracks; 
               ++trackIter ) 
          {
             const double kPionMass = 0.13957018;
             ROOT::Math::LorentzVector< ROOT::Math::PxPyPzM4D<double> > vec;
             vec.SetPx( (*trackIter)->px() );
             vec.SetPy( (*trackIter)->py() );
             vec.SetPz( (*trackIter)->pz() );
             vec.SetM (kPionMass);
             sumVec += vec;
          } // for trackIter
          sumVertexMass += sumVec.M();
          if (2 == numTags)
          {
             // We've got enough.  Stop.
             break;
          } // if we have enough tags
       } // for jet
 
       // General Accounting //
       int numJets = std::min( (int) jetCollection->size(), 5 );
       eventCont.hist( sampleName + "_jettag")->Fill (numJets, numTags);
 
       // If we don't have any tags, don't bother going on
       if ( ! numTags)
       {
          continue;
       }
 
       // Calculate average SecVtx mass and //
       // fill appropriate histograms.      //
       sumVertexMass /= numTags;
       string whichtag = "";
       if (1 == numTags)
       {
          // single tag
          if      (numBottom)              whichtag = "_b";
          else if (numCharm)               whichtag = "_c";
          else if (numLight)               whichtag = "_q";
          else                             whichtag = "_X";
       } else {
          // double tags
          if      (2 == numBottom)         whichtag = "_bb";
          else if (2 == numCharm)          whichtag = "_cc";
          else if (2 == numLight)          whichtag = "_qq";
          else if (numBottom && numCharm)  whichtag = "_bc";
          else if (numBottom && numLight)  whichtag = "_bq";
          else if (numCharm  && numLight)  whichtag = "_bq";
          else                             whichtag = "_XX";
       } // if two tags
       string massName = sampleName 
          + Form("_secvtxMass_%dj_%dt", numJets, numTags);
       eventCont.hist(massName)->Fill (sumVertexMass);
       eventCont.hist(massName + whichtag)->Fill (sumVertexMass);
    } // for eventCont
       
    // ////////////////// //
    // // Clean Up Job // //
    // ////////////////// //
 
    // Histograms will be automatically written to the root file
    // specificed by command line options.
 
    // All done!  Bye bye.
    return 0;
 }

◆ outputNameTagFunc()

void outputNameTagFunc ( string & tag )

Definition at line 280 of file secvtxMassTemplates.cc.

 {
    // If you do not want to give you output filename any "tag" based
    // on the command line options, simply do nothing here.  This
    // function is designed to be called by fwlite::EventContainer constructor.
 
    // if ( boolValue ("someCondition") )
    // { 
    //    tag += "_someCond";
    // }
 }

Enumerations

Functions

Enumeration Type Documentation

◆ anonymous enum

Function Documentation

◆ bookHistograms()

◆ calcSampleName()

◆ main()

◆ outputNameTagFunc()