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Comparing UserCode/Jeng/PVStudy/plugins/PVStudy.cc (file contents):
Revision 1.5 by jengbou, Wed Sep 9 05:56:50 2009 UTC vs.
Revision 1.22 by yygao, Mon Mar 29 15:27:24 2010 UTC

# Line 12 | Line 12 | Implementation:
12   */
13   //
14   // Original Author:  "Geng-yuan Jeng/UC Riverside"
15 + //                    "Yanyan Gao/Fermilab ygao@fnal.gov"
16   //         Created:  Thu Aug 20 11:55:40 CDT 2009
17   // $Id$
18   //
# Line 37 | Line 38 | Implementation:
38   #include "DataFormats/TrackReco/interface/Track.h"
39   #include "DataFormats/TrackReco/interface/TrackFwd.h"
40   #include "FWCore/ServiceRegistry/interface/Service.h"
41 < #include "PhysicsTools/UtilAlgos/interface/TFileService.h"
41 > #include "CommonTools/UtilAlgos/interface/TFileService.h"
42   #include "UserCode/PVStudy/interface/PVStudy.h"
43   //
44   #include "DataFormats/VertexReco/interface/Vertex.h"
# Line 48 | Line 49 | Implementation:
49   #include <SimDataFormats/Vertex/interface/SimVertexContainer.h>
50   #include <SimDataFormats/Track/interface/SimTrack.h>
51   #include <SimDataFormats/Track/interface/SimTrackContainer.h>
52 + // BeamSpot
53 + #include "DataFormats/BeamSpot/interface/BeamSpot.h"
54  
55   //root
56   #include <TROOT.h>
# Line 58 | Line 61 | Implementation:
61   #include <TPad.h>
62  
63   using namespace std;
64 + typedef math::XYZTLorentzVectorF LorentzVector;
65 + typedef math::XYZPoint Point;
66  
67 < PVStudy::PVStudy(const edm::ParameterSet& iConfig):
63 <  nTrkMin_(10),nTrkMax_(100)
67 > PVStudy::PVStudy(const edm::ParameterSet& iConfig)
68   {
69 <  simG4_           = iConfig.getParameter<edm::InputTag>( "simG4" );
70 <  tracksLabel_     = iConfig.getUntrackedParameter<edm::InputTag>("tracks");
71 <  vtxSample_       = iConfig.getUntrackedParameter<edm::InputTag>("vtxSample");
72 <  verbose_         = iConfig.getUntrackedParameter<bool>("verbose", false);
73 <  realData_        = iConfig.getUntrackedParameter<bool>("realData",false);
74 <  analyze_         = iConfig.getUntrackedParameter<bool>("analyzeOnTheFly",false);
75 <  outputfilename_  = iConfig.getUntrackedParameter<string>("OutputFileName");
76 <
69 >  //=======================================================================
70 >  // Get configuration for TrackTupleMaker
71 >  //=======================================================================
72 >  simG4_                     = iConfig.getParameter<edm::InputTag>( "simG4" );
73 >  trackCollectionTag_        = iConfig.getUntrackedParameter<edm::InputTag>("trackCollection");  
74 >  splitTrackCollection1Tag_  = iConfig.getUntrackedParameter<edm::InputTag>("splitTrackCollection1");
75 >  splitTrackCollection2Tag_  = iConfig.getUntrackedParameter<edm::InputTag>("splitTrackCollection2");
76 >  vertexCollectionTag_       = iConfig.getUntrackedParameter<edm::InputTag>("vertexCollection");
77 >  splitVertexCollection1Tag_ = iConfig.getUntrackedParameter<edm::InputTag>("splitVertexCollection1");
78 >  splitVertexCollection2Tag_ = iConfig.getUntrackedParameter<edm::InputTag>("splitVertexCollection2");
79 >  verbose_                   = iConfig.getUntrackedParameter<bool>("verbose",false);
80 >  realData_                  = iConfig.getUntrackedParameter<bool>("realData",false);
81 >  analyze_                   = iConfig.getUntrackedParameter<bool>("analyzeOnTheFly",false);
82 >  saventuple_                = iConfig.getUntrackedParameter<bool>("saventuple",false);  
83 >  outputfilename_            = iConfig.getUntrackedParameter<string>("OutputFileName");  
84 >  histoFileName_             = iConfig.getUntrackedParameter<std::string> ("histoFileName");
85 >  ntrkdiffcut_               = iConfig.getUntrackedParameter<double>("ntrkdiffcut");
86 >  nTrkMin_                   = iConfig.getUntrackedParameter<int>("nTrkMin");
87 >  nTrkMax_                   = iConfig.getUntrackedParameter<int>("nTrkMax");
88 >  zsigncut_                  = iConfig.getUntrackedParameter<int>("zsigncut");
89 >  fHighPuritycut_            = iConfig.getUntrackedParameter<double>("fHighPuritycut");  
90 >  useHWTrk_                  = iConfig.getUntrackedParameter<bool>("useHWTrk",false);
91 >  bsSrc = iConfig.getParameter< edm::InputTag >("beamSpot");
92 >  
93    //now do what ever initialization is needed
94    pvinfo.clear();
95  
96 <  file_ = TFile::Open(outputfilename_.c_str(),"RECREATE");
97 <  ftree_ = new TTree("mytree","mytree");
98 <  ftree_->AutoSave();
99 <  ftree_->Branch("residual",&fres,"fres[3]/D");
100 <  ftree_->Branch("error",&ferror,"ferror[3]/D");
101 <  ftree_->Branch("nTrk",&fntrk,"fntrk/I");
102 <  
103 <  edm::Service<TFileService> fs;
104 <  TFileDirectory subDir = fs->mkdir( "Summary" );
105 <  TFileDirectory subDir1 = fs->mkdir( "Others" );
106 <  //   TFileDirectory subSubDir = subDir.mkdir( "mySubSubDirectory" );
96 >  // Specify the data mode vector
97 >  if(realData_) datamode.push_back(0);
98 >  else {
99 >    datamode.push_back(0);
100 >    datamode.push_back(1);
101 >    datamode.push_back(2);
102 >    datamode.push_back(3);
103 >  }
104 > // Create ntuple files if needed
105 >  if(saventuple_) {
106 >    file_ = TFile::Open(outputfilename_.c_str(),"RECREATE");
107 >    ftree_ = new TTree("mytree","mytree");
108 >    ftree_->AutoSave();
109 >    ftree_->Branch("residual",&fres_,"fres_[3]/D");
110 >    ftree_->Branch("error",&ferror_,"ferror_[3]/D");
111 >    ftree_->Branch("nTrkPV",&fntrk_,"fntrk_/I");
112 >
113 >    // pvtxtree_ analyzing the pvtxs ootb
114 >    pvtxtree_ = new TTree("pvtxtree","pvtxtree");
115 >
116 >    // Event information for the data
117 >    pvtxtree_->Branch("glob_runno",&glob_runno_,"glob_runno/I");
118 >    pvtxtree_->Branch("glob_evtno",&glob_evtno_,"glob_evtno/I");
119 >    pvtxtree_->Branch("glob_ls",&glob_ls_,"glob_ls/I");
120 >    pvtxtree_->Branch("glob_bx",&glob_bx_,"glob_bx/I");  
121 >    
122 >
123 >    pvtxtree_->Branch("nrecPV",&nrecPV_,"nrecPV/I");
124 >    pvtxtree_->Branch("nrecPV1_spl",&nrecPV1_spl_,"nrecPV1_spl/I");
125 >    pvtxtree_->Branch("nrecPV2_spl",&nrecPV2_spl_,"nrecPV2_spl/I");
126 >    // Event level information
127 >    pvtxtree_->Branch("min_zsep",&min_zsep_,"min_zsep/D");
128 >    pvtxtree_->Branch("min_ntrksep",&min_ntrksep_,"min_ntrksep/D");
129 >    pvtxtree_->Branch("min_sumpt2sep",&min_sumpt2sep_,"min_sumpt2sep/D");
130 >
131 >    //Fill the variables in the twovtx pair (recvtx1, recvtx2)  
132 >    // Information related to the analyzing the two-vertex method
133 >
134 >
135  
136 +    pvtxtree_->Branch("nrecPV_twovtx",&nrecPV_twovtx_,"nrecPV_twovtx/I");
137 +    pvtxtree_->Branch("nTrkPV_twovtx",&nTrkPV_twovtx_,"nTrkPV_twovtx[nrecPV_twovtx]/I");
138 +    pvtxtree_->Branch("deltax_twovtx",&deltax_twovtx_,"deltax_twovtx[nrecPV_twovtx]/D");
139 +    pvtxtree_->Branch("deltay_twovtx",&deltay_twovtx_,"deltay_twovtx[nrecPV_twovtx]/D");
140 +    pvtxtree_->Branch("deltaz_twovtx",&deltaz_twovtx_,"deltaz_twovtx[nrecPV_twovtx]/D");
141 +    pvtxtree_->Branch("errx_twovtx",&errx_twovtx_,"errx_twovtx[nrecPV_twovtx]/D");
142 +    pvtxtree_->Branch("erry_twovtx",&erry_twovtx_,"erry_twovtx[nrecPV_twovtx]/D");
143 +    pvtxtree_->Branch("errz_twovtx",&errz_twovtx_,"errz_twovtx[nrecPV_twovtx]/D");
144 +    pvtxtree_->Branch("pullx_twovtx",&pullx_twovtx_,"pullx_twovtx[nrecPV_twovtx]/D");
145 +    pvtxtree_->Branch("pully_twovtx",&pully_twovtx_,"pully_twovtx[nrecPV_twovtx]/D");
146 +    pvtxtree_->Branch("pullz_twovtx",&pullz_twovtx_,"pullz_twovtx[nrecPV_twovtx]/D");
147 +
148 +    // Information for the splitVertexColl1
149 +    pvtxtree_->Branch("nTrkPV1_spl_twovtx",&nTrkPV1_spl_twovtx_,"nTrkPV1_spl_twovtx[nrecPV_twovtx]/I");
150 +    pvtxtree_->Branch("ndofPV1_spl_twovtx",&ndofPV1_spl_twovtx_,"ndofPV1_spl_twovtx[nrecPV_twovtx]/D");
151 +    pvtxtree_->Branch("normchi2PV1_spl_twovtx",&normchi2PV1_spl_twovtx_,"normchi2PV1_spl_twovtx[nrecPV_twovtx]/D");
152 +    pvtxtree_->Branch("avgPtPV1_spl_twovtx",&avgPtPV1_spl_twovtx_,"avgPtPV1_spl_twovtx[nrecPV_twovtx]/D");
153 +    pvtxtree_->Branch("errx1_spl_twovtx",&errx1_spl_twovtx_,"errx1_spl_twovtx[nrecPV_twovtx]/D");
154 +    pvtxtree_->Branch("erry1_spl_twovtx",&erry1_spl_twovtx_,"erry1_spl_twovtx[nrecPV_twovtx]/D");
155 +    pvtxtree_->Branch("errz1_spl_twovtx",&errz1_spl_twovtx_,"errz1_spl_twovtx[nrecPV_twovtx]/D");
156 +  
157 +    
158 +    // Information for the splitVertexColl2
159 +    pvtxtree_->Branch("nTrkPV2_spl_twovtx",&nTrkPV2_spl_twovtx_,"nTrkPV2_spl_twovtx[nrecPV_twovtx]/I");
160 +    pvtxtree_->Branch("ndofPV2_spl_twovtx",&ndofPV2_spl_twovtx_,"ndofPV2_spl_twovtx[nrecPV_twovtx]/D");
161 +    pvtxtree_->Branch("normchi2PV2_spl_twovtx",&normchi2PV2_spl_twovtx_,"normchi2PV2_spl_twovtx[nrecPV_twovtx]/D");
162 +    pvtxtree_->Branch("avgPtPV2_spl_twovtx",&avgPtPV2_spl_twovtx_,"avgPtPV2_spl_twovtx[nrecPV_twovtx]/D");
163 +    pvtxtree_->Branch("errx2_spl_twovtx",&errx2_spl_twovtx_,"errx2_spl_twovtx[nrecPV_twovtx]/D");
164 +    pvtxtree_->Branch("erry2_spl_twovtx",&erry2_spl_twovtx_,"erry2_spl_twovtx[nrecPV_twovtx]/D");
165 +    pvtxtree_->Branch("errz2_spl_twovtx",&errz2_spl_twovtx_,"errz2_spl_twovtx[nrecPV_twovtx]/D");
166 +  
167 +    
168 +    // MC variables
169 +    if(!realData_) {  
170 +      pvtxtree_->Branch("nsimPV",&nsimPV_,"nsimPV/I");
171 +      pvtxtree_->Branch("nsimTrkPV",&nsimTrkPV_,"nsimTrkPV[nsimPV]/I");
172 +      pvtxtree_->Branch("simx",&simx_,"simx[nsimPV]/D");
173 +      pvtxtree_->Branch("simy",&simy_,"simy[nsimPV]/D");
174 +      pvtxtree_->Branch("simz",&simz_,"simz[nsimPV]/D");
175 +      pvtxtree_->Branch("simptsq",&simptsq_,"simptsq[nsimPV]/D");
176 +
177 +      // For pvtxs with all the tracks
178 +      pvtxtree_->Branch("nrecPV_mct",&nrecPV_mct_,"nrecPV_mct/I");
179 +      pvtxtree_->Branch("deltax_mct",&deltax_mct_,"deltax_mct[nrecPV_mct]/D");
180 +      pvtxtree_->Branch("deltay_mct",&deltay_mct_,"deltay_mct[nrecPV_mct]/D");
181 +      pvtxtree_->Branch("deltaz_mct",&deltaz_mct_,"deltaz_mct[nrecPV_mct]/D");
182 +      pvtxtree_->Branch("pullx_mct",&pullx_mct_,"pullx_mct[nrecPV_mct]/D");
183 +      pvtxtree_->Branch("pully_mct",&pully_mct_,"pully_mct[nrecPV_mct]/D");
184 +      pvtxtree_->Branch("pullz_mct",&pullz_mct_,"pullz_mct[nrecPV_mct]/D");    
185 +      pvtxtree_->Branch("errx_mct",&errx_mct_,"errx_mct[nrecPV_mct]/D");
186 +      pvtxtree_->Branch("erry_mct",&erry_mct_,"erry_mct[nrecPV_mct]/D");
187 +      pvtxtree_->Branch("errz_mct",&errz_mct_,"errz_mct[nrecPV_mct]/D");
188 +      pvtxtree_->Branch("nTrkPV_mct",&nTrkPV_mct_,"nTrkPV_mct[nrecPV_mct]/I");
189 +      pvtxtree_->Branch("ndofPV_mct",&ndofPV_mct_,"ndofPV_mct[nrecPV_mct]/D");
190 +      pvtxtree_->Branch("normchi2PV_mct",&normchi2PV_mct_,"normchi2PV_mct[nrecPV_mct]/D");
191 +      pvtxtree_->Branch("avgPtPV_mct",&avgPtPV_mct_,"avgPtPV_mct[nrecPV_mct]/D");
192 +
193 +      // For pvtxs with splittracks1
194 +      pvtxtree_->Branch("nrecPV_spl1_mct",&nrecPV_spl1_mct_,"nrecPV_spl1_mct/I");
195 +      pvtxtree_->Branch("deltax_spl1_mct",&deltax_spl1_mct_,"deltax_spl1_mct[nrecPV_spl1_mct]/D");
196 +      pvtxtree_->Branch("deltay_spl1_mct",&deltay_spl1_mct_,"deltay_spl1_mct[nrecPV_spl1_mct]/D");
197 +      pvtxtree_->Branch("deltaz_spl1_mct",&deltaz_spl1_mct_,"deltaz_spl1_mct[nrecPV_spl1_mct]/D");
198 +      pvtxtree_->Branch("pullx_spl1_mct",&pullx_spl1_mct_,"pullx_spl1_mct[nrecPV_spl1_mct]/D");
199 +      pvtxtree_->Branch("pully_spl1_mct",&pully_spl1_mct_,"pully_spl1_mct[nrecPV_spl1_mct]/D");
200 +      pvtxtree_->Branch("pullz_spl1_mct",&pullz_spl1_mct_,"pullz_spl1_mct[nrecPV_spl1_mct]/D");
201 +      pvtxtree_->Branch("errx_spl1_mct",&errx_spl1_mct_,"errx_spl1_mct[nrecPV_spl1_mct]/D");
202 +      pvtxtree_->Branch("erry_spl1_mct",&erry_spl1_mct_,"erry_spl1_mct[nrecPV_spl1_mct]/D");
203 +      pvtxtree_->Branch("errz_spl1_mct",&errz_spl1_mct_,"errz_spl1_mct[nrecPV_spl1_mct]/D");
204 +      pvtxtree_->Branch("nTrkPV_spl1_mct",&nTrkPV_spl1_mct_,"nTrkPV_spl1_mct[nrecPV_spl1_mct]/I");
205 +      pvtxtree_->Branch("ndofPV_spl1_mct",&ndofPV_spl1_mct_,"ndofPV_spl1_mct[nrecPV_spl1_mct]/D");
206 +      pvtxtree_->Branch("normchi2PV_spl1_mct",&normchi2PV_spl1_mct_,"normchi2PV_spl1_mct[nrecPV_spl1_mct]/D");
207 +      pvtxtree_->Branch("avgPtPV_spl1_mct",&avgPtPV_spl1_mct_,"avgPtPV_spl1_mct[nrecPV_spl1_mct]/D");
208 +        
209 +      // For pvtxs with splittracks1
210 +      pvtxtree_->Branch("nrecPV_spl2_mct",&nrecPV_spl2_mct_,"nrecPV_spl2_mct/I");
211 +      pvtxtree_->Branch("deltax_spl2_mct",&deltax_spl2_mct_,"deltax_spl2_mct[nrecPV_spl2_mct]/D");
212 +      pvtxtree_->Branch("deltay_spl2_mct",&deltay_spl2_mct_,"deltay_spl2_mct[nrecPV_spl2_mct]/D");
213 +      pvtxtree_->Branch("deltaz_spl2_mct",&deltaz_spl2_mct_,"deltaz_spl2_mct[nrecPV_spl2_mct]/D");
214 +      pvtxtree_->Branch("pullx_spl2_mct",&pullx_spl2_mct_,"pullx_spl2_mct[nrecPV_spl2_mct]/D");
215 +      pvtxtree_->Branch("pully_spl2_mct",&pully_spl2_mct_,"pully_spl2_mct[nrecPV_spl2_mct]/D");
216 +      pvtxtree_->Branch("pullz_spl2_mct",&pullz_spl2_mct_,"pullz_spl2_mct[nrecPV_spl2_mct]/D");  
217 +      pvtxtree_->Branch("errx_spl2_mct",&errx_spl2_mct_,"errx_spl2_mct[nrecPV_spl2_mct]/D");
218 +      pvtxtree_->Branch("erry_spl2_mct",&erry_spl2_mct_,"erry_spl2_mct[nrecPV_spl2_mct]/D");
219 +      pvtxtree_->Branch("errz_spl2_mct",&errz_spl2_mct_,"errz_spl2_mct[nrecPV_spl2_mct]/D");  
220 +      pvtxtree_->Branch("nTrkPV_spl2_mct",&nTrkPV_spl2_mct_,"nTrkPV_spl2_mct[nrecPV_spl2_mct]/I");
221 +      pvtxtree_->Branch("ndofPV_spl2_mct",&ndofPV_spl2_mct_,"ndofPV_spl2_mct[nrecPV_spl2_mct]/D");
222 +      pvtxtree_->Branch("normchi2PV_spl2_mct",&normchi2PV_spl2_mct_,"normchi2PV_spl2_mct[nrecPV_spl2_mct]/D");
223 +      pvtxtree_->Branch("avgPtPV_spl2_mct",&avgPtPV_spl2_mct_,"avgPtPV_spl2_mct[nrecPV_spl2_mct]/D");
224 +
225 +    }
226 +  }
227 +  
228    setRootStyle();
229  
230 <  h["nTrk"]           = subDir.make<TH1F>("nTrk","Num of total tracks",300,0,300);
231 <  h["nTrkPV"]         = subDir.make<TH1F>("nTrkPV","Num of Tracks from PV",300,0,300);
232 <  h["trkPt"]          = subDir.make<TH1D>("trkPt","Pt of all tracks",100,0,100);
233 <  h["trkPtPV"]        = subDir.make<TH1D>("trkPtPV","Pt dist of tracks from PV",100,0,100);
230 >  //========================================
231 >  // Booking histograms
232 >  //========================================
233 >  
234 >  // Create a root file for histograms
235 >  theFile = new TFile(histoFileName_.c_str(), "RECREATE");
236 >  // make diretories
237 >  theFile->mkdir("Summary");
238 >  theFile->cd();
239 >  theFile->mkdir("Others");
240 >  theFile->cd();
241 >  if (analyze_) {
242 >    theFile->mkdir("Results");
243 >    theFile->cd();
244 >  }
245  
246 +  // Book Histograms:
247 +  h_pvtrk   = new PVHistograms();
248 +  h_misc    = new PVHistograms();
249 +  h_summary = new PVHistograms();
250 +  h_others  = new PVHistograms();
251 +
252 +  for(int i=0;i<3;i++) {  
253 +    if(i == 0) h_pvtrk->Init("pvTrk");
254 +    else {
255 +      stringstream ss;
256 +      ss << i;
257 +      h_pvtrk->Init("pvTrk", ss.str(),"spl");
258 +    }
259 +  }
260 +  h_misc->Init("misc");
261 +
262 +  // Book MC only plots
263    if (!realData_) {
264 <    h["deltax"]       = subDir.make<TH1D>("deltax","x-distance (Rec - Sim)",800,-0.04,0.04);
265 <    h["deltay"]       = subDir.make<TH1D>("deltay","y-distance (Rec - Sim)",800,-0.04,0.04);
266 <    h["deltaz"]       = subDir.make<TH1D>("deltaz","z-distance (Rec - Sim)",800,-0.04,0.04);
267 <    h["pullx"]        = subDir.make<TH1D>("pullx","x-pull (Rec - Sim)",1000,-25.,25.);
268 <    h["pully"]        = subDir.make<TH1D>("pully","y-pull (Rec - Sim)",1000,-25.,25.);
269 <    h["pullz"]        = subDir.make<TH1D>("pullz","z-pull (Rec - Sim)",1000,-25.,25.);
270 <    h["errPVx"]       = subDir.make<TH1D>("errPVx","X vertex error",100,0.,0.02);
271 <    h["errPVy"]       = subDir.make<TH1D>("errPVy","Y vertex error",100,0.,0.02);
272 <    h["errPVz"]       = subDir.make<TH1D>("errPVz","Z vertex error",100,0.,0.02);
273 <
274 <    // Summary of analysis:
275 <    if (analyze_) {
276 <      h2["resx_nTrk"]= subDir.make<TH2D>("resx_ntrk","x-resolution (Rec - Sim) vs number of tracks",150,0,150,400,0.,200);
277 <      h2["resx_nTrk"]->SetMarkerStyle(21);
278 <      h2["resx_nTrk"]->SetMarkerColor(4);
279 <      h2["resx_nTrk"]->GetXaxis()->SetTitle("Num of tracks");
280 <      h2["resx_nTrk"]->GetYaxis()->SetTitle("#mum");
281 <      h2["resy_nTrk"]= subDir.make<TH2D>("resy_ntrk","y-resolution (Rec - Sim) vs number of tracks",150,0,150,400,0.,200);
114 <      h2["resy_nTrk"]->SetMarkerStyle(21);
115 <      h2["resy_nTrk"]->SetMarkerColor(4);
116 <      h2["resy_nTrk"]->GetXaxis()->SetTitle("Num of tracks");
117 <      h2["resy_nTrk"]->GetYaxis()->SetTitle("#mum");
118 <      h2["resz_nTrk"]= subDir.make<TH2D>("resz_ntrk","z-resolution (Rec - Sim) vs number of tracks",150,0,150,400,0.,200);
119 <      h2["resz_nTrk"]->SetMarkerStyle(21);
120 <      h2["resz_nTrk"]->SetMarkerColor(4);
121 <      h2["resz_nTrk"]->GetXaxis()->SetTitle("Num of tracks");
122 <      h2["resz_nTrk"]->GetYaxis()->SetTitle("#mum");
123 <      h2["pullx_nTrk"]= subDir.make<TH2D>("pullx_ntrk","x-pull (Rec - Sim) vs number of tracks",150,0,150,100,0.,2.);
124 <      h2["pullx_nTrk"]->SetMarkerStyle(21);
125 <      h2["pullx_nTrk"]->SetMarkerColor(4);
126 <      h2["pullx_nTrk"]->SetBit(TH1::kCanRebin);
127 <      h2["pullx_nTrk"]->GetXaxis()->SetTitle("Num of tracks");
128 <      h2["pully_nTrk"]= subDir.make<TH2D>("pully_ntrk","y-pull (Rec - Sim) vs number of tracks",150,0,150,100,0.,2.);
129 <      h2["pully_nTrk"]->SetMarkerStyle(21);
130 <      h2["pully_nTrk"]->SetMarkerColor(4);
131 <      h2["pully_nTrk"]->SetBit(TH1::kCanRebin);
132 <      h2["pully_nTrk"]->GetXaxis()->SetTitle("Num of tracks");
133 <      h2["pullz_nTrk"]= subDir.make<TH2D>("pullz_ntrk","z-pull (Rec - Sim) vs number of tracks",150,0,150,100,0.,2.);
134 <      h2["pullz_nTrk"]->SetMarkerStyle(21);
135 <      h2["pullz_nTrk"]->SetMarkerColor(4);
136 <      h2["pullz_nTrk"]->SetBit(TH1::kCanRebin);
137 <      h2["pullz_nTrk"]->GetXaxis()->SetTitle("Num of tracks");
264 >    h_gen = new PVHistograms();
265 >    h_gen->Init("generator");
266 >  }
267 >  if (analyze_) h_ana = new PVHistograms();
268 >
269 >  //Book histograms sensitive to data/mc
270 >  for (vector<int>::const_iterator it= datamode.begin(); it != datamode.end() ; ++it) {
271 >    string suffix;
272 >    edm::LogInfo("Debug")<<"datamode = "<< *it<<endl;
273 >    switch(*it) {
274 >    case 0: suffix = "";
275 >      break;
276 >    case 1: suffix = "_spl1_mct";
277 >      break;
278 >    case 2: suffix = "_spl2_mct";      
279 >      break;
280 >    case 3: suffix = "_mct";
281 >      break;
282      }
283 +    h_summary->Init("summary",suffix);
284 +    
285 +    // Book residual, error and pull histograms for each nTrk bin
286      for (int ntrk=nTrkMin_;ntrk<=nTrkMax_;++ntrk) {
287        stringstream ss;
288        ss << ntrk;
289 <      string suffix = ss.str();
143 <      h["resx_"+suffix]  = fs->make<TH1D>(TString("deltax_"+suffix),"x-distance (Rec - Sim)",100,-0.02,0.02);
144 <      h["resx_"+suffix]->GetXaxis()->SetTitle("cm");
145 <      h["resy_"+suffix]  = fs->make<TH1D>(TString("deltay_"+suffix),"y-distance (Rec - Sim)",100,-0.02,0.02);
146 <      h["resy_"+suffix]->GetXaxis()->SetTitle("cm");
147 <      h["resz_"+suffix]  = fs->make<TH1D>(TString("deltaz_"+suffix),"z-distance (Rec - Sim)",100,-0.02,0.02);
148 <      h["resz_"+suffix]->GetXaxis()->SetTitle("cm");
149 <      h["pullx_"+suffix] = fs->make<TH1D>(TString("pullx_"+suffix),"x-pull (Rec - Sim)",100,-10.,10.);
150 <      h["pully_"+suffix] = fs->make<TH1D>(TString("pully_"+suffix),"y-pull (Rec - Sim)",100,-10.,10.);
151 <      h["pullz_"+suffix] = fs->make<TH1D>(TString("pullz_"+suffix),"z-pull (Rec - Sim)",100,-10.,10.);
152 <      h["errPVx_"+suffix]  = subDir1.make<TH1D>(TString("errPVx_"+suffix),"X vertex error",100,0.,0.02);
153 <      h["errPVy_"+suffix]  = subDir1.make<TH1D>(TString("errPVy_"+suffix),"Y vertex error",100,0.,0.02);
154 <      h["errPVz_"+suffix]  = subDir1.make<TH1D>(TString("errPVz_"+suffix),"Z vertex error",100,0.,0.02);
155 <      suffix.clear();
289 >      h_others->Init("others",suffix,ss.str());
290      }
157  }
158 }
291  
292 +    // Book residual and pull histograms only when analyzeOntheFly is enabled
293 +    if(analyze_) h_ana->InitA("analysis",suffix,"nTrk",nTrkMin_,nTrkMax_);
294 +    suffix.clear();
295 +  } // End of Book histograms sensitive to data/mc    
296 +  
297 +
298 + }
299  
300   PVStudy::~PVStudy()
301   {
302  
303    // do anything here that needs to be done at desctruction time
304    // (e.g. close files, deallocate resources etc.)
305 +  theFile->cd();
306 +  theFile->cd("Summary");
307 +  h_pvtrk->Save();
308 +  h_misc->Save();
309 +  h_summary->Save();
310 +  if (!realData_)
311 +    h_gen->Save();
312 +  if (analyze_) {
313 +    theFile->cd();
314 +    theFile->cd("Results");
315 +    h_ana->Save();
316 +  }
317 +  theFile->cd();
318 +  theFile->cd("Others");
319 +  h_others->Save();
320  
321 +  theFile->Close();
322   }
323  
324   void PVStudy::setRootStyle() {
# Line 187 | Line 342 | void PVStudy::setRootStyle() {
342    gStyle->SetTitleSize(0.055, "");    // size for pad title; default is 0.02
343    gStyle->SetLabelSize(0.03, "XYZ");  // size for axis labels; default is 0.04
344    gStyle->SetStatFontSize(0.08);      // size for stat. box
345 <  gStyle->SetTitleFont(32, "XYZ");    // times-bold-italic font (p. 153) for axes
346 <  gStyle->SetTitleFont(32, "");       // same for pad title
347 <  gStyle->SetLabelFont(32, "XYZ");    // same for axis labels
348 <  gStyle->SetStatFont(32);            // same for stat. box
345 >  gStyle->SetTitleFont(42, "XYZ");    // times-bold-italic font (p. 153) for axes
346 >  gStyle->SetTitleFont(42, "");       // same for pad title
347 >  gStyle->SetLabelFont(42, "XYZ");    // same for axis labels
348 >  gStyle->SetStatFont(42);            // same for stat. box
349    gStyle->SetLabelOffset(0.006, "Y"); // default is 0.005
350    //
351    return;
# Line 200 | Line 355 | void PVStudy::setRootStyle() {
355   //
356   std::vector<PVStudy::simPrimaryVertex> PVStudy::getSimPVs(const Handle<HepMCProduct> evtMC, std::string suffix="")
357   {
358 <  std::vector<PVStudy::simPrimaryVertex> simpv;
358 > std::vector<PVStudy::simPrimaryVertex> simpv;
359    const HepMC::GenEvent* evt=evtMC->GetEvent();
360    if (evt) {
361 <    if(verbose_) {
362 <      cout << "process id " << evt->signal_process_id()<<endl;
363 <      cout << "signal process vertex " << ( evt->signal_process_vertex() ?
364 <                                            evt->signal_process_vertex()->barcode() : 0 )   <<endl;
210 <      cout << "number of vertices " << evt->vertices_size() << endl;
211 <    }
361 >    edm::LogInfo("SimPVs") << "[getSimPVs] process id " << evt->signal_process_id()<<endl;
362 >    edm::LogInfo("SimPVs") << "[getSimPVs] signal process vertex " << ( evt->signal_process_vertex() ?
363 >                                                                        evt->signal_process_vertex()->barcode() : 0 ) <<endl;
364 >    edm::LogInfo("SimPVs") << "[getSimPVs] number of vertices " << evt->vertices_size() << endl;
365  
366 <    int idx=0;
366 >    int idx=0; int npv=0;
367      for(HepMC::GenEvent::vertex_const_iterator vitr= evt->vertices_begin();
368 <        vitr != evt->vertices_end(); ++vitr )
369 <      { // loop for vertex ...
370 <        HepMC::FourVector pos = (*vitr)->position();
371 <        //HepLorentzVector pos = (*vitr)->position();
372 <        if (pos.t()>0) { continue;} // ?
368 >        vitr != evt->vertices_end(); ++vitr ) { // loop for vertex ...
369 >      HepMC::FourVector pos = (*vitr)->position();
370 >      //HepLorentzVector pos = (*vitr)->position();
371 >
372 >      // t component of PV:
373 >      for ( HepMC::GenVertex::particle_iterator mother  = (*vitr)->particles_begin(HepMC::parents);
374 >            mother != (*vitr)->particles_end(HepMC::parents); ++mother ) {
375 >        //        edm::LogInfo("SimPVs") << "Status = " << (*mother)->status() << endl;
376 >        HepMC::GenVertex * mv=(*mother)->production_vertex();
377 >        if( ((*mother)->status() == 3) && (!mv)) {
378 >          //        edm::LogInfo("SimPVs") << "npv= " << npv << endl;
379 >          if (npv == 0) {
380 >            h_gen->Fill1d("genPart_cT", pos.t()); // mm
381 >            h_gen->Fill1d("genPart_T", pos.t()/299.792458); // ns
382 >          }
383 >          npv++;
384 >        }
385 >      }
386 >      //       if (pos.t()>0) { continue;} // for 22X when t of PV was not smeared
387          
388 <        bool hasMotherVertex=false;
389 <        //      if(verbose_) cout << "mothers" << endl;
390 <        for ( HepMC::GenVertex::particle_iterator mother  = (*vitr)->particles_begin(HepMC::parents);
391 <              mother != (*vitr)->particles_end(HepMC::parents); ++mother ) {
392 <          HepMC::GenVertex * mv=(*mother)->production_vertex();
393 <          if (mv) {hasMotherVertex=true;}
394 <          //      if(verbose_) {
395 <          //        cout << "\t";
396 <          //        (*mother)->print();
397 <          //      }
388 >      bool hasMotherVertex=false;
389 >      if (verbose_) cout << "[getSimPVs] mothers of vertex[" << ++idx << "]: " << endl;
390 >      for ( HepMC::GenVertex::particle_iterator mother  = (*vitr)->particles_begin(HepMC::parents);
391 >            mother != (*vitr)->particles_end(HepMC::parents); ++mother ) {
392 >        HepMC::GenVertex * mv=(*mother)->production_vertex();
393 >        // if (verbose_) cout << "Status = " << (*mother)->status() << endl;
394 >        if (mv) {
395 >          hasMotherVertex=true;
396 >          if(!verbose_) break; //if verbose_, print all particles of gen vertices
397 >        }
398 >        if(verbose_) {
399 >          cout << "\t";
400 >          (*mother)->print();
401          }
402 +      }
403  
404 <        if(hasMotherVertex) {continue;}
404 >      if(hasMotherVertex) continue;
405  
406 <        // could be a new vertex, check  all primaries found so far to avoid multiple entries
407 <        const double mm2cm=0.1;
408 <        simPrimaryVertex sv(pos.x()*mm2cm,pos.y()*mm2cm,pos.z()*mm2cm); // sim unit mm, rec unit cm
409 <        simPrimaryVertex *vp=NULL;  // will become non-NULL if a vertex is found and then point to it
410 <        for(vector<simPrimaryVertex>::iterator v0=simpv.begin();
411 <            v0!=simpv.end(); v0++){
412 <          if( (fabs(sv.x-v0->x)<1e-5) && (fabs(sv.y-v0->y)<1e-5) && (fabs(sv.z-v0->z)<1e-5)){
413 <            vp=&(*v0);
414 <            break;
244 <          }
406 >      // could be a new vertex, check  all primaries found so far to avoid multiple entries
407 >      const double mm2cm=0.1;
408 >      simPrimaryVertex sv(pos.x()*mm2cm,pos.y()*mm2cm,pos.z()*mm2cm); // sim unit mm, rec unit cm
409 >      simPrimaryVertex *vp=NULL;  // will become non-NULL if a vertex is found and then point to it
410 >      for(vector<simPrimaryVertex>::iterator v0=simpv.begin();
411 >          v0!=simpv.end(); v0++){
412 >        if( (fabs(sv.x-v0->x)<1e-5) && (fabs(sv.y-v0->y)<1e-5) && (fabs(sv.z-v0->z)<1e-5)){
413 >          vp=&(*v0);
414 >          break;
415          }
416 +      }
417  
418 <        if(!vp){
419 <          // this is a new vertex
420 <          if(verbose_) cout << "this is a new vertex " << sv.x << " " << sv.y << " " << sv.z << endl;
421 <          simpv.push_back(sv);
422 <          vp=&simpv.back();
423 <        }else{
424 <          if(verbose_) cout << "this is not a new vertex " << sv.x << " " << sv.y << " " << sv.z << endl;
425 <        }
426 <        vp->genVertex.push_back((*vitr)->barcode());
427 <        // collect final state descendants
428 <        for ( HepMC::GenVertex::particle_iterator
429 <                daughter  = (*vitr)->particles_begin(HepMC::descendants);
430 <              daughter != (*vitr)->particles_end(HepMC::descendants);
431 <              ++daughter ) {
432 <          if (isFinalstateParticle(*daughter)){
433 <            if ( find(vp->finalstateParticles.begin(), vp->finalstateParticles.end(),(*daughter)->barcode())
434 <                 == vp->finalstateParticles.end()){
435 <              vp->finalstateParticles.push_back((*daughter)->barcode());
436 <              HepMC::FourVector m=(*daughter)->momentum();
437 <              // the next four lines used to be "vp->ptot+=m;" in the days of CLHEP::HepLorentzVector
438 <              // but adding FourVectors seems not to be foreseen
439 <              vp->ptot.setPx(vp->ptot.px()+m.px());
440 <              vp->ptot.setPy(vp->ptot.py()+m.py());
441 <              vp->ptot.setPz(vp->ptot.pz()+m.pz());
442 <              vp->ptot.setE(vp->ptot.e()+m.e());
443 <              vp->ptsq+=(m.perp())*(m.perp());
444 <              if ( (m.perp()>0.8) && (fabs(m.pseudoRapidity())<2.5) && isCharged( *daughter ) ){
274 <                vp->nGenTrk++;
275 <              }
418 >      if(!vp){
419 >        // this is a new vertex
420 >        edm::LogInfo("SimPVs") << "[getSimPVs] this is a new vertex " << sv.x << " " << sv.y << " " << sv.z << endl;
421 >        simpv.push_back(sv);
422 >        vp=&simpv.back();
423 >      }else{
424 >        edm::LogInfo("SimPVs") << "[getSimPVs] this is not a new vertex " << sv.x << " " << sv.y << " " << sv.z << endl;
425 >      }
426 >      vp->genVertex.push_back((*vitr)->barcode());
427 >      // collect final state descendants
428 >      for ( HepMC::GenVertex::particle_iterator daughter  = (*vitr)->particles_begin(HepMC::descendants);
429 >            daughter != (*vitr)->particles_end(HepMC::descendants);
430 >            ++daughter ) {
431 >        if (isFinalstateParticle(*daughter)){
432 >          if ( find(vp->finalstateParticles.begin(), vp->finalstateParticles.end(),(*daughter)->barcode())
433 >               == vp->finalstateParticles.end()){
434 >            vp->finalstateParticles.push_back((*daughter)->barcode());
435 >            HepMC::FourVector m=(*daughter)->momentum();
436 >            // the next four lines used to be "vp->ptot+=m;" in the days of CLHEP::HepLorentzVector
437 >            // but adding FourVectors seems not to be foreseen
438 >            vp->ptot.setPx(vp->ptot.px()+m.px());
439 >            vp->ptot.setPy(vp->ptot.py()+m.py());
440 >            vp->ptot.setPz(vp->ptot.pz()+m.pz());
441 >            vp->ptot.setE(vp->ptot.e()+m.e());
442 >            vp->ptsq+=(m.perp())*(m.perp());
443 >            if ( (m.perp()>0.8) && (fabs(m.pseudoRapidity())<2.5) && isCharged( *daughter ) ){
444 >              vp->nGenTrk++;
445              }
446            }
447          }
448 <        idx++;
449 <      }
448 >      }//loop MC vertices daughters
449 >    }//loop MC vertices
450    }
451    return simpv;
452   }
# Line 310 | Line 479 | std::vector<PVStudy::simPrimaryVertex> P
479                ptsq+=(*daughter)->momentum().perp()*(*daughter)->momentum().perp();
480              }
481            }
482 <          primary =  ( gv->position().t()==0);
482 >          //primary =  ( gv->position().t()==0 );
483 >          primary = true;
484 >          h_gen->Fill1d("genPart_cT", gv->position().t()); // mm
485 >          h_gen->Fill1d("genPart_T", gv->position().t()/299.792458); // ns
486 >
487            //resonance= ( gp->mother() && isResonance(gp->mother()));  // in CLHEP/HepMC days
488            // no more mother pointer in the improved HepMC GenParticle
489            resonance= ( isResonance(*(gp->production_vertex()->particles_in_const_begin())));
# Line 357 | Line 530 | void
530   PVStudy::analyze(const edm::Event& iEvent, const edm::EventSetup& iSetup)
531   {
532    using namespace edm;
533 <  using reco::TrackCollection;
534 <
535 <  ftree_->SetBranchAddress("residual",&fres);
536 <  ftree_->SetBranchAddress("error",&ferror);
537 <  ftree_->SetBranchAddress("nTrk",&fntrk);
538 <
539 <  Handle<TrackCollection> tracks;
540 <  iEvent.getByLabel(tracksLabel_,tracks);
541 <
542 <  Handle<reco::VertexCollection> recVtxs;
543 <  iEvent.getByLabel(vtxSample_, recVtxs);
533 >  using namespace reco;
534 >  
535 >  //========================================================================
536 >  // Step 0: Prepare root variables and get information from the Event
537 >  //========================================================================
538 >  
539 >  edm::LogInfo("Debug")<<"[PVStudy]"<<endl;
540 >  // Initialize Root-tuple variables if needed
541 >  SetVarToZero();
542 >  
543 >  // ====== TrackCollection
544 >  static const reco::TrackCollection s_empty_trackColl;
545 >  const reco::TrackCollection *trackColl = &s_empty_trackColl;
546 >  edm::Handle<reco::TrackCollection> trackCollectionHandle;
547 >  iEvent.getByLabel(trackCollectionTag_, trackCollectionHandle);
548 >  if( iEvent.getByLabel(trackCollectionTag_, trackCollectionHandle)) {
549 >    trackColl = trackCollectionHandle.product();
550 >  } else {
551 >    edm::LogInfo("Debug") << "[PVStudy] trackCollection cannot be found -> using empty collection of same type." <<endl;
552 >  }
553 >  // ====== splitTrackCollection1
554 >  static const reco::TrackCollection s_empty_splitTrackColl1;
555 >  const reco::TrackCollection *splitTrackColl1 = &s_empty_splitTrackColl1;
556 >  edm::Handle<reco::TrackCollection> splitTrackCollection1Handle;
557 >  iEvent.getByLabel(splitTrackCollection1Tag_, splitTrackCollection1Handle);
558 >  if( iEvent.getByLabel(splitTrackCollection1Tag_, splitTrackCollection1Handle)) {
559 >    splitTrackColl1 = splitTrackCollection1Handle.product();
560 >  } else {
561 >    edm::LogInfo("Debug") << "[PVStudy] splitTrackCollection1 cannot be found -> using empty collection of same type." <<endl;
562 >  }
563 >  // ====== splitTrackCollection2
564 >  static const reco::TrackCollection s_empty_splitTrackColl2;
565 >  const reco::TrackCollection *splitTrackColl2 = &s_empty_splitTrackColl2;
566 >  edm::Handle<reco::TrackCollection> splitTrackCollection2Handle;
567 >  iEvent.getByLabel(splitTrackCollection2Tag_, splitTrackCollection2Handle);
568 >  if( iEvent.getByLabel(splitTrackCollection2Tag_, splitTrackCollection2Handle)) {
569 >    splitTrackColl2 = splitTrackCollection2Handle.product();
570 >  } else {
571 >   edm::LogInfo("Debug") << "[PVStudy] splitTrackCollection2 cannot be found -> using empty collection of same type." <<endl;
572 >  }
573 >  
574 >  // ======= PrimaryVertexCollection
575 >  static const reco::VertexCollection s_empty_vertexColl;
576 >  const reco::VertexCollection *vertexColl = &s_empty_vertexColl;
577 >  edm::Handle<reco::VertexCollection> vertexCollectionHandle;
578 >  iEvent.getByLabel(vertexCollectionTag_, vertexCollectionHandle);
579 >  if( iEvent.getByLabel(vertexCollectionTag_, vertexCollectionHandle)) {
580 >    vertexColl = vertexCollectionHandle.product();
581 >  } else {
582 >   edm::LogInfo("Debug") << "[PVStudy] vertexCollection cannot be found -> using empty collection of same type." <<endl;
583 >  }
584 >  // ====== splitVertexCollection1
585 >  static const reco::VertexCollection s_empty_splitVertexColl1;
586 >  const reco::VertexCollection *splitVertexColl1 = &s_empty_splitVertexColl1;
587 >  edm::Handle<reco::VertexCollection> splitVertexCollection1Handle;
588 >  iEvent.getByLabel(splitVertexCollection1Tag_, splitVertexCollection1Handle);
589 >  if( iEvent.getByLabel(splitVertexCollection1Tag_, splitVertexCollection1Handle)) {
590 >    splitVertexColl1 = splitVertexCollection1Handle.product();
591 >  } else {
592 >    edm::LogInfo("Debug") << "[PVStudy] splitVertexCollection1 cannot be found -> using empty collection of same type." <<endl;
593 >  }
594 >  // ====== splitVertexCollection2
595 >  static const reco::VertexCollection s_empty_splitVertexColl2;
596 >  const reco::VertexCollection *splitVertexColl2 = &s_empty_splitVertexColl2;
597 >  edm::Handle<reco::VertexCollection> splitVertexCollection2Handle;
598 >  iEvent.getByLabel(splitVertexCollection2Tag_, splitVertexCollection2Handle);
599 >  if( iEvent.getByLabel(splitVertexCollection2Tag_, splitVertexCollection2Handle)) {
600 >    splitVertexColl2 = splitVertexCollection2Handle.product();
601 >  } else {
602 >    edm::LogInfo("Debug") << "[PVStudy] splitVertexCollection2 cannot be found -> using empty collection of same type." <<endl;
603 >  }
604  
605 +  
606 +  // ======== BeamSpot accessors
607 +  edm::Handle<reco::BeamSpot> recoBeamSpotHandle;
608 +  iEvent.getByLabel(bsSrc,recoBeamSpotHandle);
609 +  reco::BeamSpot bs = *recoBeamSpotHandle;    
610 +  const Point beamSpot = recoBeamSpotHandle.isValid() ? Point(recoBeamSpotHandle->x0(), recoBeamSpotHandle->y0(), recoBeamSpotHandle->z0()) : Point(0, 0, 0);
611 +  
612 +  edm::LogInfo("Debug")<<"[PVStudy] End accessing the track, beamSpot, primary vertex collections"<<endl;
613 +  
614 +  // ========== MC simvtx accessor
615    if (!realData_) {
616 <    Handle<SimVertexContainer> simVtxs;
616 >    edm::Handle<SimVertexContainer> simVtxs;
617      iEvent.getByLabel( simG4_, simVtxs);
618      
619 <    Handle<SimTrackContainer> simTrks;
619 >    edm::Handle<SimTrackContainer> simTrks;
620      iEvent.getByLabel( simG4_, simTrks);
621    }
622  
623 <  if(verbose_) printRecVtxs(recVtxs);
381 <
623 >  // ========== GET PDT
624    try{
625      iSetup.getData(pdt);
626    }catch(const Exception&){
627 <    cout << "Some problem occurred with the particle data table. This may not work !." <<endl;
627 >    edm::LogInfo("Debug") << "[PVStudy] Some problem occurred with the particle data table. This may not work !." <<endl;
628    }
629 <
629 >  
630 >  // ======= Get MC information if needed
631 >  bool MC=false;  
632 >  Handle<HepMCProduct> evtMC;
633    if (!realData_) {
389    bool MC=false;
390    Handle<HepMCProduct> evtMC;
634      iEvent.getByLabel("generator",evtMC);
635      if (!evtMC.isValid()) {
636        MC=false;
637 <      if(verbose_){
395 <        cout << "no HepMCProduct found"<< endl;
396 <      }
637 >      edm::LogInfo("Debug") << "[PVStudy] no HepMCProduct found"<< endl;
638      } else {
639 <      if(verbose_){
399 <        cout << "generator HepMCProduct found"<< endl;
400 <      }
639 >      edm::LogInfo("Debug") << "[PVStudy] generator HepMCProduct found"<< endl;
640        MC=true;
641      }
642 +  }
643  
644 <    if(MC){
645 <      // make a list of primary vertices:
646 <      std::vector<simPrimaryVertex> simpv;
647 <      simpv=getSimPVs(evtMC,"");
648 <      //     simpv=getSimPVs(evtMC, simVtxs, simTrks);
644 >  //========================================================================
645 >  // Step 1:  Apply event cleaning for data and MC
646 >  //          WARNING: event selection cut are hard coded!!
647 >  //========================================================================
648 >  // =====Loop over the trackColl to get the fraction of HighPurity tracks
649 >  int nTracks = 0;
650 >  int nHighPurityTracks=0;
651 >  double fHighPurity=0;
652 >
653 >  for (unsigned int i=0; i<trackCollectionHandle->size(); i++, nTracks++) {
654 >    TrackRef tkref(trackCollectionHandle,i);
655 >    if(tkref->quality(reco::TrackBase::highPurity)) ++nHighPurityTracks;
656 >  }
657 >  if(nTracks>0)
658 >    fHighPurity =  double(nHighPurityTracks)/double(nTracks);
659 >  if(verbose_)
660 >    cout<<"fraction of HighPurity track is "<<fHighPurity<<endl;  
661      
662 <      int nsimtrk=0;
663 <      int nrectrk=0;
664 <      for(std::vector<simPrimaryVertex>::iterator vsim=simpv.begin();
665 <          vsim!=simpv.end(); vsim++){
666 <        nsimtrk+=vsim->nGenTrk;
667 <        // look for a matching reconstructed vertex
668 <        vsim->recVtx=NULL;
669 <        for(reco::VertexCollection::const_iterator vrec=recVtxs->begin();
670 <            vrec!=recVtxs->end(); ++vrec){
671 <          nrectrk=vrec->tracksSize();
672 <          if(verbose_){
673 <            cout << "sim primary vertex x = " << vsim->x << "; y = " << vsim->y << "; z = " << vsim->z <<  endl;
674 <            cout << "Is matched? " << (matchVertex(*vsim,*vrec)?"Yes":"No") << endl;
675 <          }
676 <          if ( matchVertex(*vsim,*vrec) ){
677 <            // if the matching critera are fulfilled, accept the rec-vertex that is closest in z
678 <            if(    ((vsim->recVtx) && (fabs(vsim->recVtx->position().z()-vsim->z)>fabs(vrec->z()-vsim->z)))
679 <                   || (!vsim->recVtx) )
680 <              {
681 <                vsim->recVtx=&(*vrec);
682 <              }
683 <          }
684 <        }
685 <        if (vsim->recVtx){
686 <          if(verbose_) {
687 <            cout <<"primary matched " << vsim->x << " " << vsim->y << " " << vsim->z <<  endl;
688 <          }
689 <          fres[0] = vsim->recVtx->x()-vsim->x;
690 <          fres[1] = vsim->recVtx->y()-vsim->y;
691 <          fres[2] = vsim->recVtx->z()-vsim->z;
692 <          ferror[0] = vsim->recVtx->xError();
441 <          ferror[1] = vsim->recVtx->yError();
442 <          ferror[2] = vsim->recVtx->zError();
443 <          fntrk = nrectrk;
444 <
445 <          h["deltax"]->Fill( fres[0] );
446 <          h["deltay"]->Fill( fres[1] );
447 <          h["deltaz"]->Fill( fres[2] );
448 <          h["pullx"]->Fill( fres[0]/ferror[0] );
449 <          h["pully"]->Fill( fres[1]/ferror[1] );
450 <          h["pullz"]->Fill( fres[2]/ferror[2] );
451 <          h["errPVx"]->Fill( ferror[0] );
452 <          h["errPVy"]->Fill( ferror[1] );
453 <          h["errPVz"]->Fill( ferror[2] );
454 <          pvinfo.push_back(PVStudy::PVInfo(res(fres[0], fres[1], fres[2]),
455 <                                           error(ferror[0], ferror[1], ferror[2]),
456 <                                           nrectrk));
457 <          // Fill histo according to its track multiplicity
458 <          fillHisto(res(fres[0], fres[1], fres[2]),
459 <                    error(ferror[0], ferror[1], ferror[2]),
460 <                    nrectrk);
662 >  if( (fHighPurity<fHighPuritycut_ && nTracks>10) || vertexColl->begin()->isFake())  return;
663 >  
664 >  glob_runno_ = iEvent.id().run();
665 >  glob_evtno_ = iEvent.id().event();
666 >  glob_ls_   = iEvent.luminosityBlock();
667 >  glob_bx_  = iEvent.bunchCrossing();  
668 >  
669 >  //========================================================================
670 >  // Step 2: Fill histograms for the splitting consistency checks
671 >  //========================================================================
672 >  
673 >  // === Fill trackparameters of the input tracks to pvtx fitter
674 >  edm::LogInfo("Debug")<<"[PVStudy] Start filling track parameters of the input tracks to pvtx fitter."<<endl;
675 >  //fillTrackHisto(const reco::TrackCollection *trackColl, int datatype, const Point & bs)
676 >  // datatype: unsplittracks (0); splittracks1 (1);  splittracks2 (2);
677 >  fillTrackHisto(trackColl, 0, beamSpot);
678 >  fillTrackHisto(splitTrackColl1, 1, beamSpot);
679 >  fillTrackHisto(splitTrackColl2, 2, beamSpot);
680 >  edm::LogInfo("Debug")<<"[PVStudy] End filling track parameters of the input tracks to pvtx fitter."<<endl;
681 >  
682 >  
683 >  // ==== Fill number of reconstructed vertices
684 >  edm::LogInfo("Debug")<<"[PVStudy] Printing vertexCollection: "<<endl;
685 >  edm::LogInfo("Debug")<<"[PVStudy] Printing splitVertexCollection1: "<<endl;
686 >  edm::LogInfo("Debug")<<"[PVStudy] Printing splitVertexCollection2: "<<endl;
687 >  edm::LogInfo("Debug")<<"[PVStudy] Start filling pvtx parameters."<<endl;
688 >  if (verbose_) {
689 >    printRecVtxs(vertexCollectionHandle);
690 >    printRecVtxs(splitVertexCollection1Handle);
691 >    printRecVtxs(splitVertexCollection2Handle);
692 >  }
693  
694 <          ftree_->Fill();
695 <        }
696 <        else{  // no rec vertex found for this simvertex
697 <          if(verbose_) {
698 <            cout <<"primary not found " << vsim->x << " " << vsim->y << " " << vsim->z << " nGenTrk=" << vsim->nGenTrk << endl;
699 <          }
700 <        }
694 >  nrecPV_ = int (vertexColl->size());
695 >  nrecPV1_spl_ = int (splitVertexColl1->size());
696 >  nrecPV2_spl_ = int (splitVertexColl2->size());
697 >
698 >  h_pvtrk->Fill1d("nrecPV", nrecPV_);
699 >  h_pvtrk->Fill1d("nrecPV1_spl", nrecPV1_spl_);
700 >  h_pvtrk->Fill1d("nrecPV2_spl", nrecPV2_spl_);
701 >  h_misc->Fill1d("nrecPVDiff", double(nrecPV1_spl_)-double(nrecPV2_spl_));
702 >  
703 >  
704 >  // ======= Fill track parameter ntuple/hist for tracks used in recoVertices
705 >  //fillTrackHistoInPV(const reco::VertexCollection *vertexColl, int datatype, const Point & bs) {
706 >  if(vertexColl->size() > 0 && vertexColl->begin()->isValid() && !(vertexColl->begin()->isFake()))
707 >    fillTrackHistoInPV(vertexColl, 0, beamSpot);
708 >  
709 >  // ======= Fill secondary/primary min separations for multi-vertices
710 >  if(vertexColl->size()>1 && vertexColl->begin()->isValid() && !(vertexColl->begin()->isFake()) ) {  
711 >    double min_xsep = 9999.0;
712 >    double min_ysep = 9999.0;
713 >    double min_zsep = 9999.0;    
714 >    double min_xsep_sign = 9999.0;
715 >    double min_ysep_sign = 9999.0;
716 >    double min_zsep_sign = 9999.0;
717 >    double min_ntrksep = 9999.0;
718 >    double min_sumpt2sep = 9999999.0;
719 >    
720 >    edm::LogInfo("Debug")<<"[PVStudy] leading pvtx z = "<< vertexColl->begin()->z() <<endl;
721 >
722 >    // Looping through the secondary vertices to find the mininum separation to the primary
723 >    for(reco::VertexCollection::const_iterator v=vertexColl->begin() + 1 ;
724 >        v!=vertexColl->end(); ++v) {  
725 >      if(v->isValid() && ! v->isFake()) {
726 >        // xsep
727 >        if(fabs(v->x()- vertexColl->begin()->x())<min_xsep)
728 >          min_xsep = fabs(v->x()- vertexColl->begin()->x());
729 >        // ysep
730 >        if(fabs(v->y()- vertexColl->begin()->y())<min_ysep)
731 >          min_ysep = fabs(v->y()- vertexColl->begin()->y());
732 >        // zsep
733 >        if(fabs(v->z()- vertexColl->begin()->z())<min_zsep)
734 >          min_zsep = fabs(v->z()- vertexColl->begin()->z());
735 >        // xsep_sign
736 >        double xsep_sign = fabs(v->x()- vertexColl->begin()->x())/max(v->xError(), vertexColl->begin()->xError());
737 >        if(xsep_sign < min_xsep_sign)
738 >          min_xsep_sign = xsep_sign;
739 >        // ysep_sign
740 >        double ysep_sign = fabs(v->y()- vertexColl->begin()->y())/max(v->yError(), vertexColl->begin()->yError());
741 >        if(ysep_sign < min_ysep_sign)
742 >          min_ysep_sign = ysep_sign;
743 >        // zsep_sign
744 >        double zsep_sign = fabs(v->z()- vertexColl->begin()->z())/max(v->zError(), vertexColl->begin()->zError());
745 >        if(zsep_sign < min_zsep_sign)
746 >          min_zsep_sign = zsep_sign;
747 >        // ntrksep
748 >        if( (double(vertexColl->begin()->tracksSize()) - double(v->tracksSize())) < min_ntrksep)
749 >          min_ntrksep = double(vertexColl->begin()->tracksSize()) - double(v->tracksSize());
750 >        // sumpt2sep
751 >        if(fabs(sumPtSquared(*v) - sumPtSquared(*(vertexColl->begin()))) < min_sumpt2sep)
752 >          min_sumpt2sep = fabs(sumPtSquared(*v) - sumPtSquared(*(vertexColl->begin())));
753        }
754      }
755 <  }// With MC
755 >    h_misc->Fill1d("min_xsep", min_xsep);
756 >    h_misc->Fill1d("min_ysep", min_ysep);
757 >    h_misc->Fill1d("min_zsep", min_zsep);
758 >    h_misc->Fill1d("min_xsep_sign", min_xsep_sign);
759 >    h_misc->Fill1d("min_ysep_sign", min_ysep_sign);
760 >    h_misc->Fill1d("min_zsep_sign", min_zsep_sign);
761 >    h_misc->Fill1d("min_ntrksep", min_ntrksep);
762 >    h_misc->Fill1d("min_sumpt2sep", min_sumpt2sep);
763 >
764 >    min_zsep_ = min_zsep;
765 >    min_ntrksep_ = min_ntrksep;
766 >    min_sumpt2sep_ = min_sumpt2sep;
767 >  } // End of  if(vertexColl->size()>1) {
768    
769 <  // Loop RecVtxs and find matched SimVtxs
770 <  for(reco::VertexCollection::const_iterator v=recVtxs->begin();
771 <      v!=recVtxs->end(); ++v){
772 <    try {
773 <      for(reco::Vertex::trackRef_iterator t = v->tracks_begin();
774 <          t!=v->tracks_end(); t++) {
775 <        // illegal charge
776 <        if ( (**t).charge() < -1 || (**t).charge() > 1 ) {
777 <          //      h["trkPtPV"]->Fill(0.);
769 >  edm::LogInfo("Debug")<<"[PVStudy] End filling pvtx parameters."<<endl;
770 >
771 >  //========================================================================
772 >  // Step 3:  PrimaryVertex Matching
773 >  //   1. In z  |z1-z2|< zsigncut * max(sigmaz1, sigmaz2)
774 >  //   2. |(nTrkPV1 - nTrkPV2)/(nTrkPV1+nTrkPV2)|<ntrkdiffcut_
775 >  //   3. The first match is the primary vertex, which has largest sum(pT^2)
776 >  //========================================================================
777 >  
778 >  edm::LogInfo("Debug")<<"[PVStudy] matching pvtxs "<<endl;
779 >  reco::VertexCollection s_empty_matchedVertexColl1;
780 >  reco::VertexCollection *matchedVertexColl1 = &s_empty_matchedVertexColl1;
781 >  matchedVertexColl1->reserve(splitVertexColl1->size());
782 >  reco::VertexCollection s_empty_matchedVertexColl2;
783 >  reco::VertexCollection *matchedVertexColl2 = &s_empty_matchedVertexColl2;
784 >  matchedVertexColl2->reserve(splitVertexColl2->size());
785 >  
786 >  bool stopmatching = false;
787 >  for (size_t ivtx = 0; ivtx<splitVertexCollection1Handle->size() && !stopmatching; ++ivtx) {
788 >    reco::VertexRef recvtx1(splitVertexCollection1Handle, ivtx);
789 >    if( !(recvtx1->isValid()) || recvtx1->isFake()) break;
790 >    for (size_t jvtx = ivtx; jvtx < splitVertexCollection2Handle->size(); ++jvtx) {    
791 >      //------------------------------------------------------------------------
792 >      //== If only considering matching the first vertex of the splitVertexColl
793 >      //------------------------------------------------------------------------
794 >      if (ivtx!=0 || jvtx!=0) { stopmatching = true; break; }
795 >      reco::VertexRef recvtx2(splitVertexCollection2Handle, jvtx);
796 >      if( !(recvtx2->isValid()) || recvtx2->isFake()) break;
797 >      edm::LogInfo("Debug")<<"[PVStudy] Matching splitVertexColl1: #  "<< ivtx<< " and splitVertexColl1: # "<<jvtx<<endl;
798 >      edm::LogInfo("Debug")<<"[PVStudy] recvtx1->z() = " << recvtx1->z() << "+/- "<< recvtx1->zError() << "." << endl;
799 >      edm::LogInfo("Debug")<<"[PVStudy] recvtx2->z() = " << recvtx2->z() << "+/- "<< recvtx2->zError() << "." << endl;
800 >      
801 >      double twovtxsig = (recvtx1->z()-recvtx2->z())/max(recvtx1->zError(), recvtx2->zError());
802 >      h_misc->Fill1d("twovtxzsign", twovtxsig);
803 >      if(matchVertex(recvtx1, recvtx2, zsigncut_)) {
804 >        edm::LogInfo("Debug")<<"[PVStudy] The two splitted vertices match in Z. "<<endl;
805 >
806 >        int nTrkPV1, nTrkPV2;
807 >        if(useHWTrk_) {
808 >          nTrkPV1 = nHWTrkRecVtx(*recvtx1);
809 >          nTrkPV2 = nHWTrkRecVtx(*recvtx2);
810          }
811          else {
812 <          h["trkPtPV"]->Fill((**t).pt());
812 >          nTrkPV1 = recvtx1->tracksSize();
813 >          nTrkPV2 = recvtx2->tracksSize();
814 >        }
815 >        double ntrkreldiff = double(nTrkPV1-nTrkPV2)/double(nTrkPV1+nTrkPV2);
816 >        h_misc->Fill1d("nTrkPVDiff", nTrkPV1-nTrkPV2);
817 >        h_misc->Fill1d("nTrkPVRelDiff", ntrkreldiff);
818 >        if(fabs(ntrkreldiff)<ntrkdiffcut_) {    
819 >          edm::LogInfo("Debug")<<"[PVStudy] (nTrkPV1-nTrkPV2)/(nTrkPV1+nTrkPV2) = " << ntrkreldiff<<endl;
820 >
821 >          matchedVertexColl1->push_back(*recvtx1);
822 >          matchedVertexColl2->push_back(*recvtx2);
823 >          stopmatching = true; // stop the matching when the first match is found!
824 >          break;
825          }
826 +        else
827 +          edm::LogInfo("Debug")<<"WARNING: (nTrkPV1-nTrkPV2)/(nTrkPV1+nTrkPV2) = " << ntrkreldiff<<", exceeding cut "<<ntrkdiffcut_<<endl;
828 +      }
829 +      else {
830 +        edm::LogInfo("Debug")<<"WARNING: The two reconstructed vertices do not match in z: "<<endl;
831 +        edm::LogInfo("Debug")<<"recvtx1->z() = " << recvtx1->z() << "+/- "<< recvtx1->zError() << "." << endl;
832 +        edm::LogInfo("Debug")<<"recvtx2->z() = " << recvtx2->z() << "+/- "<< recvtx2->zError() << "." << endl;  
833        }
834      }
835 <    catch (...) {
836 <      // exception thrown when trying to use linked track
837 <      //          h["trkPtPV"]->Fill(0.);
835 >  }
836 >  edm::LogInfo("Debug")<<"[PVStudy] End matching pvtxs"<<endl;
837 >
838 >  //========================================================================
839 >  // Step 4: Analyze matchedVertexColls
840 >  //========================================================================
841 >  edm::LogInfo("Debug")<<"[PVStudy] Begin analyzing the matchedVertexColl with size = "<< matchedVertexColl1->size()<< endl;
842 >  
843 >  // ==== If it is MC, analyze the res/pull of the unsplit vertexColl first
844 >  if(MC){
845 >    // make a list of primary vertices:
846 >    std::vector<simPrimaryVertex> simpv;
847 >    simpv=getSimPVs(evtMC,"");
848 >    //     simpv=getSimPVs(evtMC, simVtxs, simTrks);
849 >    h_gen->Fill1d("nsimPV", simpv.size());
850 >    nsimPV_ = simpv.size();
851 >    int isimpv = 0;
852 >    for(std::vector<simPrimaryVertex>::iterator vsim=simpv.begin();
853 >        vsim!=simpv.end(); vsim++, isimpv++){
854 >      nsimTrkPV_[isimpv]  =vsim->nGenTrk;
855 >      simx_[isimpv] = vsim->x;
856 >      simy_[isimpv] = vsim->y;
857 >      simz_[isimpv] = vsim->y;
858 >      simptsq_[isimpv] = vsim->ptsq;
859 >      //fillMCHisto((std::vector<simPrimaryVertex>::iterator vsim, int isimpv, const reco::VertexCollection *vtxColl, int datatype) {
860 >      fillMCHisto(vsim, isimpv, vertexColl, 3);
861      }
862 <    
493 <    h["nTrkPV"]->Fill(v->tracksSize());
494 <    
495 <  }
862 >  }
863    
864 <  h["nTrk"]->Fill(tracks->size());
864 >  // Compare the reconstructed vertex position and calculate resolution/pulls
865 >  if(matchedVertexColl1->size() != 0 && matchedVertexColl2->size() != 0) {  
866 >    // ==== Analyze the splitted vtx using MC method
867 >    if(MC){
868 >      // make a list of primary vertices:
869 >      std::vector<simPrimaryVertex> simpv;
870 >      simpv=getSimPVs(evtMC,"");
871 >      //     simpv=getSimPVs(evtMC, simVtxs, simTrks);
872 >      int isimpv = 0;
873 >      for(std::vector<simPrimaryVertex>::iterator vsim=simpv.begin();
874 >          vsim!=simpv.end(); vsim++, isimpv++){
875 >        //fillMCHisto((std::vector<simPrimaryVertex>::iterator vsim, int isimpv, const reco::VertexCollection *vtxColl, int datatype) {
876 >        fillMCHisto(vsim, isimpv, matchedVertexColl1, 1);
877 >        fillMCHisto(vsim, isimpv, matchedVertexColl2, 2);
878 >      }
879 >    }
880 >
881 >    // ==== Analyze res/pull two-vertex method
882 >    //fillPvtxHisto(const reco::VertexCollection *vertexColl, int datatype)
883 >    fillTrackHistoInPV(matchedVertexColl1, 1, beamSpot);
884 >    fillTrackHistoInPV(matchedVertexColl2, 2, beamSpot);
885 >
886 >    reco::VertexCollection::const_iterator v1;
887 >    reco::VertexCollection::const_iterator v2;
888 >
889 >    nrecPV_twovtx_ = 0;
890 >    for(v1 = matchedVertexColl1->begin(), v2 = matchedVertexColl2->begin();
891 >        v1!=matchedVertexColl1->end(), v2 != matchedVertexColl2->end();
892 >        ++v1, ++v2) {
893 >      h_misc->Fill1d("ndofPVDiff", v1->ndof() - v2->ndof());
894 >      h_misc->Fill1d("ndofPVRelDiff", (v1->ndof()-v2->ndof())/(v1->ndof()+v2->ndof()));
895 >      fres_[0] = (v1->x()-v2->x())/sqrt(2.0);
896 >      fres_[1] = (v1->y()-v2->y())/sqrt(2.0);
897 >      fres_[2] = (v1->z()-v2->z())/sqrt(2.0);
898 >      ferror_[0] = sqrt(pow(v1->xError(),2)+pow(v2->xError(),2))/sqrt(2);
899 >      ferror_[1] = sqrt(pow(v1->yError(),2)+pow(v2->yError(),2))/sqrt(2);
900 >      ferror_[2] = sqrt(pow(v1->zError(),2)+pow(v2->zError(),2))/sqrt(2);
901 >      
902 >      int nTrkPV1, nTrkPV2;
903 >      if(useHWTrk_) {
904 >        nTrkPV1 = nHWTrkRecVtx(*v1);
905 >        nTrkPV2 = nHWTrkRecVtx(*v2);
906 >      }
907 >      else {
908 >        nTrkPV1 = v1->tracksSize();
909 >        nTrkPV2 = v2->tracksSize();
910 >      }
911 >      
912 >      fntrk_ = (nTrkPV1 + nTrkPV2)/2;
913 >
914 >      h_summary->Fill1d("deltax", fres_[0] );
915 >      h_summary->Fill1d("deltay", fres_[1] );
916 >      h_summary->Fill1d("deltaz", fres_[2] );
917 >      h_summary->Fill1d("pullx", fres_[0]/ferror_[0]);
918 >      h_summary->Fill1d("pully", fres_[1]/ferror_[1]);
919 >      h_summary->Fill1d("pullz", fres_[2]/ferror_[2]);
920 >      h_summary->Fill1d("errPVx", ferror_[0] );
921 >      h_summary->Fill1d("errPVy", ferror_[1] );
922 >      h_summary->Fill1d("errPVz", ferror_[2] );
923 >      pvinfo.push_back(PVStudy::PVInfo(res(fres_[0], fres_[1], fres_[2]),
924 >                                       error(ferror_[0], ferror_[1], ferror_[2]),
925 >                                       fntrk_));
926 >      // Fill histo according to its track multiplicity, set datamode = 0 for pvtx using all tracks
927 >      fillHisto(res(fres_[0], fres_[1], fres_[2]),
928 >                error(ferror_[0], ferror_[1], ferror_[2]),
929 >                fntrk_,0);  
930 >
931 >      // Fill the ntuple variables
932 >      nTrkPV_twovtx_[nrecPV_twovtx_] = fntrk_;
933 >      deltax_twovtx_[nrecPV_twovtx_] = fres_[0];
934 >      deltay_twovtx_[nrecPV_twovtx_] = fres_[1];
935 >      deltaz_twovtx_[nrecPV_twovtx_] = fres_[2];
936 >      errx_twovtx_[nrecPV_twovtx_] = ferror_[0];
937 >      erry_twovtx_[nrecPV_twovtx_] = ferror_[1];
938 >      errz_twovtx_[nrecPV_twovtx_] = ferror_[2];
939 >      pullx_twovtx_[nrecPV_twovtx_] = fres_[0]/ferror_[0];
940 >      pully_twovtx_[nrecPV_twovtx_] = fres_[1]/ferror_[1];
941 >      pullz_twovtx_[nrecPV_twovtx_] = fres_[2]/ferror_[2];    
942 >
943 >
944 >      //SplittedVertex
945 >      nTrkPV1_spl_twovtx_[nrecPV_twovtx_] = nTrkPV1;
946 >      ndofPV1_spl_twovtx_[nrecPV_twovtx_] = v1->ndof();
947 >      normchi2PV1_spl_twovtx_[nrecPV_twovtx_] = v1->normalizedChi2();
948 >      avgPtPV1_spl_twovtx_[nrecPV_twovtx_] = avgPtRecVtx(*v1);
949 >      errx1_spl_twovtx_[nrecPV_twovtx_] = v1->xError();
950 >      erry1_spl_twovtx_[nrecPV_twovtx_] = v1->yError();
951 >      errz1_spl_twovtx_[nrecPV_twovtx_] = v1->zError();
952 >      
953 >      nTrkPV2_spl_twovtx_[nrecPV_twovtx_] = nTrkPV2;
954 >      ndofPV2_spl_twovtx_[nrecPV_twovtx_] = v2->ndof();
955 >      normchi2PV2_spl_twovtx_[nrecPV_twovtx_] = v2->normalizedChi2();
956 >      avgPtPV2_spl_twovtx_[nrecPV_twovtx_] = avgPtRecVtx(*v2);
957 >      errx2_spl_twovtx_[nrecPV_twovtx_] = v2->xError();
958 >      erry2_spl_twovtx_[nrecPV_twovtx_] = v2->yError();
959 >      errz2_spl_twovtx_[nrecPV_twovtx_] = v2->zError();
960    
961 <  for(TrackCollection::const_iterator itTrack = tracks->begin();
962 <      itTrack != tracks->end();                      
963 <      ++itTrack) {
964 <    int charge = 0;
965 <    charge = itTrack->charge();
966 <    h["trkPt"]->Fill(itTrack->pt());
967 <  }
961 >      nrecPV_twovtx_++;
962 >      
963 >      // Print some information of the two tracks events
964 >      if(verbose_ && fntrk_ < 4) {
965 >        cout<<"Printing matchedVertexColl1 for low ntrack bins"<<endl;
966 >        printRecVtx(*v1);
967 >        cout<<"Printing matchedVertexColl1 for low ntrack bins"<<endl;
968 >        printRecVtx(*v2);
969 >      }
970 >    } // End of analyzing res/pull
971 >  } // End of  if(matchedVertexColl1->size() == 1 && matchedVertexColl2->size() == 1 ) {
972 >  else
973 >    edm::LogInfo("Debug")<<"[PVStudy] WARNING: Cannot find matching pvtxs"<<endl;
974    
975 +  edm::LogInfo("Debug")<<"[PVStudy] End analyzing the matchedVertexColl"<<endl;
976 +
977 +
978 +  //========================================================================
979 +  // Step 5: Fill ntuple if saventuple_ is on
980 +  //========================================================================
981 +  if(saventuple_) {
982 +    ftree_->Fill();
983 +    pvtxtree_->Fill();
984 +  }
985 +  
986   }
987  
988  
989 +  
990   // ------------ method called once each job just before starting event loop  ------------
991   void
992   PVStudy::beginJob()
# Line 516 | Line 996 | PVStudy::beginJob()
996   // ------------ method called once each job just after ending the event loop  ------------
997   void
998   PVStudy::endJob() {
999 <  double sqt2 = sqrt(2.);
1000 <  if (!realData_) {
1001 <    if (verbose_) cout << "Analyzing PV info" << endl;
1002 <    for (int ntrk=nTrkMin_;ntrk<=nTrkMax_;++ntrk) {
1003 <      if (verbose_) cout << "Fill point of ntrk = " << ntrk << endl;
1004 <      PVStudy::PVAnaInfo ipv = GetPVAnaInfo(ntrk);
1005 <      if (analyze_) {
1006 < //      if ( ipv.res_.x() > 0 ) h2["resx_nTrk"]->Fill(ntrk,ipv.res_.x()/sqt2, 1.);
1007 < //      if ( ipv.res_.y() > 0 ) h2["resy_nTrk"]->Fill(ntrk,ipv.res_.y()/sqt2, 1.);
1008 < //      if ( ipv.res_.z() > 0 ) h2["resz_nTrk"]->Fill(ntrk,ipv.res_.z()/sqt2, 1.);
1009 <        if ( ipv.res_.x() > 0 ) h2["resx_nTrk"]->Fill(ntrk,ipv.res_.x(), 1.);
1010 <        if ( ipv.res_.y() > 0 ) h2["resy_nTrk"]->Fill(ntrk,ipv.res_.y(), 1.);
1011 <        if ( ipv.res_.z() > 0 ) h2["resz_nTrk"]->Fill(ntrk,ipv.res_.z(), 1.);
1012 <        if ( ipv.pull_.x() > 0 ) h2["pullx_nTrk"]->Fill(ntrk,ipv.pull_.x(), 1.);
1013 <        if ( ipv.pull_.y() > 0 ) h2["pully_nTrk"]->Fill(ntrk,ipv.pull_.y(), 1.);
1014 <        if ( ipv.pull_.z() > 0 ) h2["pullz_nTrk"]->Fill(ntrk,ipv.pull_.z(), 1.);
999 >  edm::LogInfo("Analysis") << "[endJob] Analyzing PV info" << endl;
1000 >  // Looping through the datamodes available
1001 >  for (vector<int>::const_iterator it= datamode.begin(); it != datamode.end() ; ++it) {  
1002 >    string suffix;
1003 >    edm::LogInfo("Analysis")<<"[endJob] datamode = "<< *it<<endl;
1004 >    switch(*it) {
1005 >    case 0: suffix = "";
1006 >      break;
1007 >    case 1: suffix = "_spl1_mct";
1008 >      break;
1009 >    case 2: suffix = "_spl2_mct";      
1010 >      break;
1011 >    case 3: suffix = "_mct";
1012 >      break;
1013 >    }
1014 >    suffix += "_nTrk";
1015 >    if(analyze_) {
1016 >      for (int ntrk=nTrkMin_;ntrk<=nTrkMax_;++ntrk) {
1017 >        edm::LogInfo("Analysis") << "[endJob] ntrk = " << ntrk << endl;
1018 >        PVStudy::PVAnaInfo ipv = GetPVAnaInfo(ntrk,*it);
1019 >        if ( ipv.res_.x() > 0 ) h_ana->Fill2d("resx"+suffix, ntrk,ipv.res_.x());
1020 >        if ( ipv.res_.y() > 0 ) h_ana->Fill2d("resy"+suffix, ntrk,ipv.res_.y());
1021 >        if ( ipv.res_.z() > 0 ) h_ana->Fill2d("resz"+suffix, ntrk,ipv.res_.z());
1022 >        if ( ipv.pull_.x() > 0 ) h_ana->Fill2d("pullx"+suffix, ntrk,ipv.pull_.x());
1023 >        if ( ipv.pull_.y() > 0 ) h_ana->Fill2d("pully"+suffix, ntrk,ipv.pull_.y());
1024 >        if ( ipv.pull_.z() > 0 ) h_ana->Fill2d("pullz"+suffix, ntrk,ipv.pull_.z());
1025        }
1026      }
1027 +    suffix.clear();
1028 +  }
1029 +  if(saventuple_) {
1030 +    file_->cd();
1031 +    ftree_->Write();
1032 +    pvtxtree_->Write();
1033 +    file_->Close();
1034    }
1035 <  file_->cd();
1036 <  ftree_->Write();
540 <  file_->Close();
1035 >  
1036 >
1037   }
1038  
1039 + // Match a recovertex with a simvertex
1040 + // ? Should the cut be parameter dependent?
1041 + // cut can be within n sigma of the vertex.zerror()
1042   bool PVStudy::matchVertex(const PVStudy::simPrimaryVertex & vsim,
1043                            const reco::Vertex & vrec)
1044   {
1045 <  return (fabs(vsim.z-vrec.z())<0.0500); // =500um
1045 >  if(vrec.isFake() || !vrec.isValid()) return false;
1046 >  else
1047 >    return true;
1048 >    //return (fabs(vsim.z-vrec.z())<0.0500); // =500um // remove this hard cut
1049   }
1050  
1051 + // Match two reconstructed vertices
1052 + bool PVStudy::matchVertex( const reco::VertexRef & vrec1,
1053 +                           const reco::VertexRef & vrec2,
1054 +                           int zsigncut)
1055 + {
1056 +  double cut = zsigncut*max(vrec1->zError(), vrec2->zError());
1057 +  edm::LogInfo("Debug")<<"[matchVertex] The matching criteria in z is "<<cut<<endl;
1058 +  return (fabs(vrec1->z()-vrec2->z())<cut);
1059 + }
1060 +
1061 +
1062   bool PVStudy::isResonance(const HepMC::GenParticle * p){
1063    double ctau=(pdt->particle( abs(p->pdg_id()) ))->lifetime();
1064 <  if(verbose_) cout << "isResonance   " << p->pdg_id() << " " << ctau << endl;
1064 >  edm::LogInfo("Debug") << "[isResonance] isResonance   " << p->pdg_id() << " " << ctau << endl;
1065    return  ctau >0 && ctau <1e-6;
1066   }
1067  
# Line 599 | Line 1112 | void PVStudy::printRecVtxs(const Handle<
1112    }
1113   }
1114  
1115 + void PVStudy::printRecVtx(const reco::Vertex & v){
1116 +
1117 +  cout << "#trk " << std::setw(3) << v.tracksSize()
1118 +         << " chi2 " << std::setw(4) << v.chi2()
1119 +         << " ndof " << std::setw(3) << v.ndof() << endl
1120 +         << " x "  << std::setw(8) <<std::fixed << std::setprecision(4) << v.x()
1121 +         << " dx " << std::setw(8) << v.xError()<< endl
1122 +         << " y "  << std::setw(8) << v.y()
1123 +         << " dy " << std::setw(8) << v.yError()<< endl
1124 +         << " z "  << std::setw(8) << v.z()
1125 +         << " dz " << std::setw(8) << v.zError()
1126 +         << endl;
1127 + }
1128 +
1129   void PVStudy::printSimTrks(const Handle<SimTrackContainer> simTrks){
1130    cout <<  " simTrks   type, (momentum), vertIndex, genpartIndex"  << endl;
1131    int i=1;
# Line 617 | Line 1144 | void PVStudy::printSimTrks(const Handle<
1144    }
1145   }
1146  
1147 < void PVStudy::fillHisto(res r, error er, int ntk){
1147 > void PVStudy::fillHisto(res r, error er, int ntk, int datamode){
1148    stringstream ss;
1149    ss << ntk;
1150 <  string suffix = ss.str();
1150 >  string suffix;
1151 >  if(datamode == 0 )  suffix = "_" + ss.str();
1152 >  if(datamode == 1 )  suffix = "_spl1_mct_" + ss.str();
1153 >  if(datamode == 2 )  suffix = "_spl2_mct_" + ss.str();
1154 >  if(datamode == 3 )  suffix = "_mct_" + ss.str();
1155 >  
1156    if (ntk < nTrkMin_ || ntk > nTrkMax_ ) return;
1157    // Fill histograms of res and pull of ntk
1158 <  h["resx_"+suffix]->Fill(r.x());
1159 <  h["resy_"+suffix]->Fill(r.y());
1160 <  h["resz_"+suffix]->Fill(r.z());
1161 <  h["pullx_"+suffix]->Fill(r.x()/er.x());
1162 <  h["pully_"+suffix]->Fill(r.y()/er.y());
1163 <  h["pullz_"+suffix]->Fill(r.z()/er.z());
1164 <  h["errPVx_"+suffix]->Fill(er.x());
1165 <  h["errPVy_"+suffix]->Fill(er.y());
1166 <  h["errPVz_"+suffix]->Fill(er.z());
1158 >  h_others->Fill1d("deltax"+suffix, r.x());
1159 >  h_others->Fill1d("deltay"+suffix, r.y());
1160 >  h_others->Fill1d("deltaz"+suffix, r.z());
1161 >  h_others->Fill1d("pullx"+suffix, r.x()/er.x());
1162 >  h_others->Fill1d("pully"+suffix, r.y()/er.y());
1163 >  h_others->Fill1d("pullz"+suffix, r.z()/er.z());  
1164 >  h_others->Fill1d("errPVx"+suffix, er.x());
1165 >  h_others->Fill1d("errPVy"+suffix, er.y());
1166 >  h_others->Fill1d("errPVz"+suffix, er.z());
1167   }
1168  
1169 < PVStudy::PVAnaInfo PVStudy::GetPVAnaInfo(int ntk) {
1169 >
1170 > PVStudy::PVAnaInfo PVStudy::GetPVAnaInfo(int ntk, int datamode) {
1171    map<int,double> data;
1172    data.clear();
1173    double fpar[2] = {-999,-999};
1174    double cm2um = 10000;
1175    stringstream ss;
1176    ss << ntk;
1177 <  string suffix = ss.str();
1178 <
1177 >  string suffix = ss.str();
1178 >  if(datamode == 0 )  suffix = "_" + suffix;
1179 >  if(datamode == 1 )  suffix = "_spl1_mct_" + suffix;
1180 >  if(datamode == 2 )  suffix = "_spl2_mct_" + suffix;
1181 >  if(datamode == 3 )  suffix = "_mct_" + suffix;
1182 >  
1183    if(analyze_) {
1184      for ( int i = 0; i < 6; ++i) {
1185        switch (i) {
1186        case 0:
1187 <        fit(h["resx_"+suffix], fpar);
1187 >        if (!h_others->ReadHisto1D("deltax"+suffix)) break;
1188 >        fit(h_others->ReadHisto1D("deltax"+suffix), fpar);
1189          data[i] = fpar[0]*cm2um;
1190          break;
1191        case 1:
1192 <        fit(h["resy_"+suffix], fpar);
1192 >        if (!h_others->ReadHisto1D("deltay"+suffix)) break;
1193 >        fit(h_others->ReadHisto1D("deltay"+suffix), fpar);
1194          data[i] = fpar[0]*cm2um;
1195          break;
1196        case 2:
1197 <        fit(h["resz_"+suffix], fpar);
1197 >        if (!h_others->ReadHisto1D("deltaz"+suffix)) break;
1198 >        fit(h_others->ReadHisto1D("deltaz"+suffix), fpar);
1199          data[i] = fpar[0]*cm2um;
1200          break;
1201        case 3:
1202 <        fit(h["pullx_"+suffix], fpar);
1202 >        if (!h_others->ReadHisto1D("pullx"+suffix)) break;
1203 >        fit(h_others->ReadHisto1D("pullx"+suffix), fpar);
1204          data[i] = fpar[0];
1205          break;
1206        case 4:
1207 <        fit(h["pully_"+suffix], fpar);
1207 >        if (!h_others->ReadHisto1D("pully"+suffix)) break;
1208 >        fit(h_others->ReadHisto1D("pully"+suffix), fpar);
1209          data[i] = fpar[0];
1210          break;
1211        case 5:
1212 <        fit(h["pullz_"+suffix], fpar);
1212 >        if (!h_others->ReadHisto1D("pullz"+suffix)) break;
1213 >        fit(h_others->ReadHisto1D("pullz"+suffix), fpar);
1214          data[i] = fpar[0];
1215          break;
1216        }
1217 <      if (verbose_ && data[i] > 0) cout << "data[" << i << "] = " << data[i] << (i<3?" micro m":" ") << endl;
1217 >      if (data[i] > 0) edm::LogInfo("Analysis") << "[Analysis] data[" << i << "] = " << data[i] << (i<3?" micro m":" ") << endl;
1218      }
1219    }
1220    else
# Line 686 | Line 1229 | PVStudy::PVAnaInfo PVStudy::GetPVAnaInfo
1229                              ntk);
1230   }
1231  
1232 < void PVStudy::fit(TH1 *&hdist, double fitPars[]){
1232 >
1233 > void PVStudy::fit(TH1 *hdist, double fitPars[]){
1234    TAxis *axis0 = hdist->GetXaxis();
1235    int nbin = axis0->GetLast();
1236    double nOF = hdist->GetBinContent(nbin+1);
1237    double nUF = hdist->GetBinContent(0);
1238    //   double fitRange = axis0->GetBinUpEdge(nbin);
1239 <  double fitRange = axis0->GetXmax();
1239 >  // double fitRange = axis0->GetXmax();
1240 >  double fitRange = 2*hdist->GetRMS();
1241    double sigMax[2] = {0.,0.};
1242  
1243 <  if ( verbose_ ){
1244 <    cout << "Last bin = " << nbin;
1245 <    cout << "; hdist: Overflow Entries = " << nOF;
1246 <    cout << "; Underflow Entries = " << nUF;
1247 <    cout << "; hdist->GetEntries() = " << hdist->GetEntries();
1248 <    cout << "; fitting range = " << -fitRange << " to " << fitRange << endl;
704 <  }
1243 >  edm::LogInfo("Analysis") << "[Fit] Last bin = " << nbin
1244 >                           << "; hdist: Overflow Entries = " << nOF
1245 >                           << "; Underflow Entries = " << nUF
1246 >                           << "; hdist->GetEntries() = " << hdist->GetEntries()
1247 >                           << "; fitting range = " << -fitRange << " to " << fitRange << endl;
1248 >
1249    if (hdist->GetEntries() - nOF - nUF >= 10) { // FIXME: for reasonable Gaussian fit
1250      for (int bi = 0; bi < nbin; bi++) {
1251        if ( (axis0->GetBinLowEdge(bi) < 0) && (hdist->GetBinContent(bi) > 0) ) {
# Line 713 | Line 1257 | void PVStudy::fit(TH1 *&hdist, double fi
1257          if ( abs(sigMax[0]) > abs(sigMax[1]) ) sigMax[1] = abs(sigMax[0]);
1258        }
1259      }
1260 <    if (verbose_) cout << "Fit sigMax = " << sqrt(2.)*sigMax[1] << endl;
1260 >    //edm::LogInfo("Analysis") << "[Fit] Fit sigMax = " << sqrt(2.)*sigMax[1] << endl;
1261  
1262      TF1 *fgaus = new TF1("fgaus","gaus",-fitRange, fitRange);
1263      fgaus->SetParameter(1, 0.);
1264 <    fgaus->SetParLimits(1, -fitRange/40., fitRange/40.);
1264 >    fgaus->SetParLimits(1, -fitRange/10., fitRange/10.);
1265      fgaus->SetParLimits(2, 0., sqrt(2.)*sigMax[1]);
1266      fgaus->SetLineColor(4);
1267 <    hdist->Fit(fgaus,"Q");
1267 >    hdist->Fit(fgaus,"QLRM");
1268      gPad->Update();
1269      TPaveStats *s = (TPaveStats*) hdist->GetListOfFunctions()->FindObject("stats");
1270      s->SetOptStat(1111111);
1271      s->SetOptFit(0111);
1272      gPad->Update();
1273 <    if (verbose_) cout << "got function" << endl;
1273 >    //edm::LogInfo("Analysis") << "[Fit] got function" << endl;
1274      fitPars[0] = ((fgaus->GetParameter(2))?fgaus->GetParameter(2):-999);
1275    }
1276    else
1277      fitPars[0] = -999;
1278   }
1279  
1280 < //define this as a plug-in
1281 < DEFINE_FWK_MODULE(PVStudy);
1280 >
1281 > void PVStudy::fillTrackHisto(const reco::TrackCollection *trackColl, int datatype, const Point & bs) {
1282 >  string suffix;
1283 >  suffix = ""; // for unsplit tracks
1284 >  if(datatype == 1) suffix = "1_spl"; // for splittracks 1
1285 >  if(datatype == 2) suffix = "2_spl"; // for splittracks 2
1286 >  
1287 >  h_pvtrk->Fill1d("nTrk"+suffix, trackColl->size());
1288 >  for(reco::TrackCollection::const_iterator itTrack = trackColl->begin();
1289 >      itTrack != trackColl->end();                      
1290 >      ++itTrack) {
1291 >    h_pvtrk->Fill1d("trkPt"+suffix, itTrack->pt());
1292 >    h_pvtrk->Fill1d("trkDxy"+suffix, itTrack->dxy());
1293 >    h_pvtrk->Fill1d("trkDxyCorr"+suffix, itTrack->dxy(bs));
1294 >    h_pvtrk->Fill1d("trkDz"+suffix, itTrack->dz());
1295 >    h_pvtrk->Fill1d("trkEta"+suffix, itTrack->eta());
1296 >    h_pvtrk->Fill1d("trkPhi"+suffix, itTrack->phi());
1297 >  }
1298 > }
1299 >
1300 > void PVStudy::fillTrackHistoInPV(const reco::VertexCollection *vertexColl, int datatype, const Point & bs) {
1301 >  string suffix;
1302 >  suffix = ""; // for unsplit tracks
1303 >  if(datatype == 1) suffix = "1_spl"; // for splittracks 1
1304 >  if(datatype == 2) suffix = "2_spl"; // for splittracks 2
1305 >  int ivtx = 0;
1306 >  for(reco::VertexCollection::const_iterator v=vertexColl->begin();
1307 >      v!=vertexColl->end(); ++v, ++ivtx) {  
1308 >    if(!v->isFake()) {
1309 >      h_pvtrk->Fill1d("nTrkPV"+suffix, vertexColl->begin()->tracksSize());
1310 >      h_pvtrk->Fill1d("ndofPV"+suffix, vertexColl->begin()->ndof());  
1311 >      h_pvtrk->Fill1d("nHWTrkPV"+suffix, nHWTrkRecVtx(*v));
1312 >      try {
1313 >        for(reco::Vertex::trackRef_iterator t = vertexColl->begin()->tracks_begin();
1314 >            t!=vertexColl->begin()->tracks_end(); t++) {
1315 >          // illegal charge
1316 >          if ( (**t).charge() < -1 || (**t).charge() > 1 ) {
1317 >            //    h_pvtrk->Fill1d("trkPtPV", 0.);
1318 >          }
1319 >          else {
1320 >            h_pvtrk->Fill1d("trkPtPV"+suffix, (**t).pt());
1321 >            h_pvtrk->Fill1d("trkDxyPV"+suffix, (**t).dxy());  
1322 >            h_pvtrk->Fill1d("trkDxyCorrPV"+suffix, (**t).dxy(bs));
1323 >            h_pvtrk->Fill1d("trkDzPV"+suffix, (**t).dz());
1324 >            h_pvtrk->Fill1d("trkEtaPV"+suffix, (**t).eta());
1325 >            h_pvtrk->Fill1d("trkPhiPV"+suffix, (**t).phi());
1326 >          }
1327 >        }
1328 >      }
1329 >      catch (...) {
1330 >        // exception thrown when trying to use linked track
1331 >        //        h_pvtrk->Fill1d("trkPtPV", 0.);
1332 >      }
1333 >    }
1334 >  }
1335 > }
1336 >
1337 > void PVStudy::fillMCHisto(std::vector<simPrimaryVertex>::iterator vsim, int isimpv, const reco::VertexCollection *vtxColl, int datatype)
1338 > {
1339 >  std::string suffix;
1340 >  // Set the vertexColl and histogram suffix according to datamode
1341 >  if (datatype == 1) {
1342 >    suffix = "_spl1_mct";
1343 >    nrecPV_spl1_mct_ = 0;  
1344 >  }
1345 >  if (datatype == 2) {
1346 >    suffix = "_spl2_mct";
1347 >    nrecPV_spl2_mct_ = 0;    
1348 >  }
1349 >  if (datatype == 3) {
1350 >    suffix = "_mct";
1351 >    nrecPV_mct_ = 0;  
1352 >  }
1353 >
1354 >  //========================================================
1355 >  //  For each simulated vertex, look for a match in the vertexColl
1356 >  //  If more than 1 recVtx is found, use the one with closest in Z
1357 >  //========================================================  
1358 >    
1359 >  // === look for a matching reconstructed vertex in vertexColl
1360 >  for(reco::VertexCollection::const_iterator vrec=vtxColl->begin();
1361 >      vrec!=vtxColl->end(); ++vrec){
1362 >    vsim->recVtx=NULL;  
1363 >    edm::LogInfo("Debug") << "[fillMCHisto] sim primary vertex x = " << vsim->x << "; y = " << vsim->y << "; z = " << vsim->z <<  endl;
1364 >    edm::LogInfo("Debug") << "[fillMCHisto] Is matched? " << (matchVertex(*vsim,*vrec)?"Yes":"No") << endl;
1365 >    
1366 >    if ( matchVertex(*vsim,*vrec)  ) {
1367 >      vsim->recVtx=&(*vrec);
1368 >      //if the matching critera are fulfilled, accept the rec-vertex that is closest in z
1369 >      //if(    ((vsim->recVtx) && (fabs(vsim->recVtx->position().z()-vsim->z)>fabs(vrec->z()-vsim->z)))
1370 >      //|| (!vsim->recVtx) )
1371 >      //vsim->recVtx=&(*vrec);
1372 >    }
1373 >  }
1374 >  
1375 >  // === If match found fill the residual and pulls
1376 >  if(vsim->recVtx) {
1377 >    edm::LogInfo("Debug") <<"[fillMCHisto] primary matched in vertexColl" << vsim->x << " " << vsim->y << " " << vsim->z <<  endl;
1378 >    // if study the resolution/pull for all tracks in the PVtx
1379 >    int nrectrk;
1380 >    
1381 >    if(useHWTrk_)
1382 >      nrectrk=nHWTrkRecVtx(*(vsim->recVtx));
1383 >    else
1384 >      nrectrk =  int(vsim->recVtx->tracksSize());
1385 >
1386 >    double fres_mct[3];
1387 >    double ferror_mct[3];
1388 >    
1389 >    double ndofPV = vsim->recVtx->ndof();
1390 >    double normchi2PV =  vsim->recVtx->normalizedChi2();
1391 >    double avgPtPV = avgPtRecVtx(*(vsim->recVtx));
1392 >    
1393 >    fres_mct[0] = vsim->recVtx->x()-vsim->x;
1394 >    fres_mct[1] = vsim->recVtx->y()-vsim->y;
1395 >    fres_mct[2] = vsim->recVtx->z()-vsim->z;
1396 >    ferror_mct[0] = vsim->recVtx->xError();
1397 >    ferror_mct[1] = vsim->recVtx->yError();
1398 >    ferror_mct[2] = vsim->recVtx->zError();
1399 >    
1400 >    h_summary->Fill1d("deltax"+suffix, fres_mct[0] );
1401 >    h_summary->Fill1d("deltay"+suffix, fres_mct[1] );
1402 >    h_summary->Fill1d("deltaz"+suffix, fres_mct[2] );
1403 >    h_summary->Fill1d("pullx"+suffix, fres_mct[0]/ferror_mct[0] );
1404 >    h_summary->Fill1d("pully"+suffix, fres_mct[1]/ferror_mct[1] );
1405 >    h_summary->Fill1d("pullz"+suffix, fres_mct[2]/ferror_mct[2] );
1406 >    h_summary->Fill1d("errPVx"+suffix, ferror_mct[0] );
1407 >    h_summary->Fill1d("errPVy"+suffix, ferror_mct[1] );
1408 >    h_summary->Fill1d("errPVz"+suffix, ferror_mct[2] );
1409 >    pvinfo.push_back(PVStudy::PVInfo(res(fres_mct[0], fres_mct[1], fres_mct[2]),
1410 >                                     error(ferror_mct[0], ferror_mct[1], ferror_mct[2]),
1411 >                                     nrectrk));
1412 >    // Fill histo according to its track multiplicity
1413 >    fillHisto(res(fres_mct[0], fres_mct[1], fres_mct[2]),
1414 >              error(ferror_mct[0], ferror_mct[1], ferror_mct[2]),
1415 >              nrectrk, datatype);
1416 >    
1417 >    if(saventuple_) {
1418 >      //Fill the values for variables in pvtxtree_  
1419 >      if(datatype == 1) {
1420 >        nTrkPV_spl1_mct_[nrecPV_spl1_mct_] =   nrectrk;
1421 >        ndofPV_spl1_mct_[nrecPV_spl1_mct_] =  ndofPV;
1422 >        normchi2PV_spl1_mct_[nrecPV_spl1_mct_] =  normchi2PV;
1423 >        avgPtPV_spl1_mct_[nrecPV_spl1_mct_] = avgPtPV;
1424 >        deltax_spl1_mct_[nrecPV_spl1_mct_] =  fres_mct[0];
1425 >        deltay_spl1_mct_[nrecPV_spl1_mct_] =  fres_mct[1];
1426 >        deltaz_spl1_mct_[nrecPV_spl1_mct_] =  fres_mct[2];
1427 >        pullx_spl1_mct_[nrecPV_spl1_mct_] = fres_mct[0]/ferror_mct[0];  
1428 >        pully_spl1_mct_[nrecPV_spl1_mct_] = fres_mct[1]/ferror_mct[1];
1429 >        pullz_spl1_mct_[nrecPV_spl1_mct_] =  fres_mct[2]/ferror_mct[2];
1430 >        errx_spl1_mct_[nrecPV_spl1_mct_] =  ferror_mct[0];
1431 >        erry_spl1_mct_[nrecPV_spl1_mct_] =  ferror_mct[1];
1432 >        errz_spl1_mct_[nrecPV_spl1_mct_] =  ferror_mct[2];
1433 >        nrecPV_spl1_mct_++;
1434 >      }
1435 >      if(datatype == 2) {
1436 >        nTrkPV_spl2_mct_[nrecPV_spl2_mct_] = nrectrk;      
1437 >        ndofPV_spl2_mct_[nrecPV_spl2_mct_] =  ndofPV;
1438 >        normchi2PV_spl2_mct_[nrecPV_spl2_mct_] =  normchi2PV;
1439 >        avgPtPV_spl2_mct_[nrecPV_spl2_mct_] = avgPtPV;
1440 >        deltax_spl2_mct_[nrecPV_spl2_mct_] =  fres_mct[0];
1441 >        deltay_spl2_mct_[nrecPV_spl2_mct_] =  fres_mct[1];
1442 >        deltaz_spl2_mct_[nrecPV_spl2_mct_] =  fres_mct[2];
1443 >        pullx_spl2_mct_[nrecPV_spl2_mct_] = fres_mct[0]/ferror_mct[0];  
1444 >        pully_spl2_mct_[nrecPV_spl2_mct_] = fres_mct[1]/ferror_mct[1];
1445 >        pullz_spl2_mct_[nrecPV_spl2_mct_] =  fres_mct[2]/ferror_mct[2];          
1446 >        errx_spl2_mct_[nrecPV_spl2_mct_] =  ferror_mct[0];
1447 >        erry_spl2_mct_[nrecPV_spl2_mct_] =  ferror_mct[1];
1448 >        errz_spl2_mct_[nrecPV_spl2_mct_] =  ferror_mct[2];
1449 >        nrecPV_spl2_mct_++;
1450 >      }
1451 >      if(datatype == 3) {      
1452 >        nTrkPV_mct_[nrecPV_mct_] = nrectrk;
1453 >        ndofPV_mct_[nrecPV_mct_] =  ndofPV;
1454 >        normchi2PV_mct_[nrecPV_mct_] =  normchi2PV;
1455 >        avgPtPV_mct_[nrecPV_mct_] = avgPtPV;
1456 >        deltax_mct_[nrecPV_mct_] =  fres_mct[0];
1457 >        deltay_mct_[nrecPV_mct_] =  fres_mct[0];
1458 >        deltaz_mct_[nrecPV_mct_] =  fres_mct[0];
1459 >        pullx_mct_[nrecPV_mct_] = fres_mct[0]/ferror_mct[0];  
1460 >        pully_mct_[nrecPV_mct_] = fres_mct[1]/ferror_mct[1];
1461 >        pullz_mct_[nrecPV_mct_] =  fres_mct[2]/ferror_mct[2];
1462 >        errx_mct_[nrecPV_mct_] =  ferror_mct[0];
1463 >        erry_mct_[nrecPV_mct_] =  ferror_mct[1];
1464 >        errz_mct_[nrecPV_mct_] =  ferror_mct[2];          
1465 >        nrecPV_mct_++;
1466 >      }
1467 >    } // End of  if(saventuple_) {
1468 >  } //  if ( matchVertex(*vsim,*vrec) ) {
1469 >  else {  // no rec vertex found for this simvertex
1470 >    edm::LogInfo("Debug") <<"[fillMCHisto] primary not found " << vsim->x << " " << vsim->y << " " << vsim->z << " nGenTrk=" << vsim->nGenTrk << endl;
1471 >  }
1472 > }
1473 >
1474 >                                                                                                                  
1475 > void PVStudy::SetVarToZero() {
1476 >  fntrk_ = 0;
1477 >  //pvtx position (x,y,z) residual and error
1478 >  for(int i = 0; i<3;i++)    {
1479 >    fres_[i] = 0;
1480 >    ferror_[i] = 0;
1481 >  }
1482 >  
1483 >  // Event level information
1484 >  glob_runno_ = 0;
1485 >  glob_evtno_ = 0;
1486 >  glob_ls_ = 0;
1487 >  glob_bx_ = 0;
1488 >  nrecPV_ = 0;
1489 >  nrecPV1_spl_ = 0;
1490 >  nrecPV2_spl_ = 0;
1491 >  nrecPV_twovtx_ = 0;
1492 >  nsimPV_ = 0;
1493 >
1494 >  nrecPV_mct_ = 0;
1495 >  nrecPV_spl1_mct_ = 0;
1496 >  nrecPV_spl2_mct_ = 0;
1497 >
1498 >  // Mininum separation between the secondary pvtxes and leading pvtx
1499 >  min_zsep_ = 9999.0;
1500 >  min_ntrksep_ = 9999.0;
1501 >  min_sumpt2sep_ = -9999.0;
1502 >  
1503 >  // Variables filled per Vertex
1504 >  for (int i = 0; i < nMaxPVs_; i++) {
1505 >    // matched two-vertices
1506 >    nTrkPV1_spl_twovtx_[i] = 0;
1507 >    ndofPV1_spl_twovtx_[i] = 0;
1508 >    normchi2PV1_spl_twovtx_[i] = 0;
1509 >    avgPtPV1_spl_twovtx_[i] = 0;
1510 >    errx1_spl_twovtx_[i] = 0;
1511 >    erry1_spl_twovtx_[i] = 0;
1512 >    errz1_spl_twovtx_[i] = 0;
1513 >
1514 >    nTrkPV2_spl_twovtx_[i] = 0;
1515 >    ndofPV2_spl_twovtx_[i] = 0;
1516 >    normchi2PV2_spl_twovtx_[i] = 0;
1517 >    avgPtPV2_spl_twovtx_[i] = 0;
1518 >    errx2_spl_twovtx_[i] = 0;
1519 >    erry2_spl_twovtx_[i] = 0;
1520 >    errz2_spl_twovtx_[i] = 0;
1521 >    
1522 >    deltax_twovtx_[i] = 0;
1523 >    deltay_twovtx_[i] = 0;
1524 >    deltaz_twovtx_[i] = 0;
1525 >    errx_twovtx_[i] = 0;
1526 >    erry_twovtx_[i] = 0;
1527 >    errz_twovtx_[i] = 0;
1528 >    pullx_twovtx_[i] = 0;
1529 >    pully_twovtx_[i] = 0;
1530 >    pullz_twovtx_[i] = 0;
1531 >    
1532 >    //simpv
1533 >    nsimTrkPV_[i] = 0;
1534 >    simx_[i] = 0;
1535 >    simy_[i] = 0;
1536 >    simz_[i] = 0;
1537 >    simptsq_[i] = 0;
1538 >    
1539 >    // residual and pulls with mc truth required
1540 >    deltax_mct_[i] = 0;
1541 >    deltay_mct_[i] = 0;
1542 >    deltaz_mct_[i] = 0;
1543 >    pullx_mct_[i] = 0;
1544 >    pully_mct_[i] = 0;
1545 >    pullz_mct_[i] = 0;
1546 >    nTrkPV_mct_[i] = 0;
1547 >    ndofPV_mct_[i] = 0;
1548 >    normchi2PV_mct_[i] = 0;
1549 >    avgPtPV_mct_[i] = 0;
1550 >    errx_mct_[i] = 0;
1551 >    erry_mct_[i] = 0;
1552 >    errz_mct_[i] = 0;
1553 >    
1554 >    deltax_spl1_mct_[i] = 0;
1555 >    deltay_spl1_mct_[i] = 0;
1556 >    deltaz_spl1_mct_[i] = 0;
1557 >    pullx_spl1_mct_[i] = 0;
1558 >    pully_spl1_mct_[i] = 0;
1559 >    pullz_spl1_mct_[i] = 0;
1560 >    nTrkPV_spl1_mct_[i] = 0;
1561 >    ndofPV_spl1_mct_[i] = 0;
1562 >    normchi2PV_spl1_mct_[i] = 0;
1563 >    avgPtPV_spl1_mct_[i] = 0;
1564 >    errx_spl1_mct_[i] = 0;
1565 >    erry_spl1_mct_[i] = 0;
1566 >    errz_spl1_mct_[i] = 0;
1567 >
1568 >    deltax_spl2_mct_[i] = 0;
1569 >    deltay_spl2_mct_[i] = 0;
1570 >    deltaz_spl2_mct_[i] = 0;
1571 >    pullx_spl2_mct_[i] = 0;
1572 >    pully_spl2_mct_[i] = 0;
1573 >    pullz_spl2_mct_[i] = 0;
1574 >    nTrkPV_spl2_mct_[i] = 0;
1575 >    ndofPV_spl2_mct_[i] = 0;
1576 >    normchi2PV_spl2_mct_[i] = 0;
1577 >    avgPtPV_spl2_mct_[i] = 0;
1578 >    errx_spl2_mct_[i] = 0;
1579 >    erry_spl2_mct_[i] = 0;
1580 >    errz_spl2_mct_[i] = 0;
1581 >
1582 >  }
1583 > }
1584 >
1585 > double PVStudy::sumPtSquared(const reco::Vertex & v)  {
1586 >  if(v.isFake() || (!v.isValid()) || v.tracksSize() == 0) return 0.0;
1587 >  else {
1588 >    double sum = 0.;
1589 >    double pT;
1590 >    for (reco::Vertex::trackRef_iterator it = v.tracks_begin(); it != v.tracks_end(); it++) {
1591 >      pT = (**it).pt();
1592 >      sum += pT*pT;
1593 >    }
1594 >    return sum;
1595 >  }
1596 > }
1597 >
1598 >
1599 >
1600 > double PVStudy::avgPtRecVtx(const reco::Vertex & v)  {
1601 >
1602 >  if(v.isFake() || !v.isValid() || v.tracksSize()==0 ) return 0;
1603 >  else {
1604 >    int nHWTrk = 0;
1605 >    double sumpT = 0.;
1606 >    for (reco::Vertex::trackRef_iterator it = v.tracks_begin(); it != v.tracks_end(); it++) {
1607 >      if(v.trackWeight(*it) > 0.5 ) {
1608 >        sumpT +=  (**it).pt();
1609 >        nHWTrk++;
1610 >      }
1611 >  }
1612 >    if(nHWTrk > 0)
1613 >      return sumpT/double(nHWTrk);
1614 >    else
1615 >      return 0;
1616 >  }
1617 > }
1618 >
1619 > int PVStudy::nHWTrkRecVtx(const reco::Vertex & v)  {
1620 >  int nHWTrkPV = 0;
1621 >  for (reco::Vertex::trackRef_iterator it = v.tracks_begin(); it != v.tracks_end(); it++) {
1622 >    if(v.trackWeight(*it) > 0.5)
1623 >      nHWTrkPV++;
1624 >  }
1625 >  return nHWTrkPV;
1626 > }

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