HBHEMuonOfflineAnalyzer.C

CMSSW/Calibration/HcalCalibAlgos/macros/HBHEMuonOfflineAnalyzer.C

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1822 1823 1824 1825 1826 1827 1828 1829 1830 1831 1832 1833 1834 1835 1836 1837 1838 1839 1840 1841 1842 1843 1844 1845 1846 1847 1848 1849 1850 1851 1852 1853 1854 1855 1856 1857 1858 1859 1860 1861 1862 1863 1864 1865 1866 1867 1868 1869 1870 1871 1872 1873 1874 1875 1876 1877 1878 1879 1880 1881 1882 1883 1884 1885 1886 1887 1888 1889 1890 1891 1892 1893 1894 1895 1896 1897 1898 1899 1900 1901 1902 1903 1904 1905 1906 1907 1908 1909 1910 1911 1912 1913 1914 1915 1916 1917 1918 1919 1920 1921 1922 1923 1924 1925 1926 1927 1928 1929 1930 1931 1932 1933 1934 1935 1936 1937 1938 1939 1940 1941 1942 1943 1944 1945 1946 1947 1948 1949 1950 1951 1952 1953 1954 1955 1956 1957 1958 1959 1960 1961 1962	`///////////////////////////////////////////////////////////////////////////////` `//` `// HBHEMuonOfflineAnalyzer h1(tree, outfile, rcorFile, flag, mode, maxDHB,` `// maxDHE, cutMu, cutP, nevMax, over, runLo,` `// runHi, etaMin, etaMax, debug);` `// HBHEMuonOfflineAnalyzer h1(infile, outfile, rcorFile, flag, mode, maxDHB,` `// maxDHE, cutMu, cutP, nevMax, over, runLo,` `// runHi, etaMin, etaMax, debug);` `// h1.Loop()` `//` `// tree TTree* Pointer to the tree chain` `// infile const char* Name of the input file` `// outfile const char* Name of the output file` `// (dyll_PU20_25_output_10.root)` `// rcorFile consr char* name of the text file having the correction factors` `// as a function of run numbers to be used for raddam` `// correction (default="", no corr.)` `// flag int Flag of 2 digits ("to"): to where "o" decides if` `// corrected (1) or default (0) energy to be used;` `// "t" decides if all depths to be merged (1) or not` `// (0) (default is 0)` `// mode int Geometry file used 0:(defined by maxDHB/HE);` `// 1 (Run 1; valid till 2016); 2 (Run 2; 2018);` `// 3 (Run 3; post LS2); 4 (2017 Plan 1);` `// 5 (Run 4; post LS3); default (3)` `// maxDHB int Maximum number of depths for HB (4)` `// maxDHE int Maximum number of depths for HE (7)` `// cutMu int Selection of muon type:` `// (tight:0; medium:1; loose:2) default (0)` `// cutP float Minimum muon momentum; default (10)` `// nevMax int Maximum # oe entries to be processed; -1 means` `// all entries (-1)` `// over int Override some of the selection` `// (0: not to override; 1: override) default (0)` `// runLO int Minimum run number (1)` `// runHI int Maximum run number (99999999)` `// etaMin int Minimum (absolute) eta value (1)` `// etaMax int Maximum (absolute) eta value (29)` `//` `///////////////////////////////////////////////////////////////////////////////` `#include <algorithm>` `#include <cmath>` `#include <fstream>` `#include <iostream>` `#include <sstream>` `#include <vector>` `#include <string>` `#include <TCanvas.h>` `#include <TChain.h>` `#include <TFile.h>` `#include <TH1.h>` `#include <TH1D.h>` `#include <TH2.h>` `#include <TH2D.h>` `#include <TProfile.h>` `#include <TROOT.h>` `#include <TStyle.h>` `#include <TString.h>` `#include <TTree.h>` `class HBHEMuonOfflineAnalyzer {` `public:` `TChain fChain; //!pointer to the analyzed TTree/TChain` `Int_t fCurrent; //!current Tree number in a TChain` `// Fixed size dimensions of array or collections stored in the TTree if any.` `// Declaration of leaf types` `UInt_t Event_No;` `UInt_t Run_No;` `UInt_t LumiNumber;` `UInt_t BXNumber;` `UInt_t GoodVertex;` `bool PF_Muon;` `bool Global_Muon;` `bool Tracker_muon;` `bool MuonIsTight;` `bool MuonIsMedium;` `double pt_of_muon;` `double eta_of_muon;` `double phi_of_muon;` `double energy_of_muon;` `double p_of_muon;` `float muon_trkKink;` `float muon_chi2LocalPosition;` `float muon_segComp;` `int TrackerLayer;` `int NumPixelLayers;` `int InnerTrackPixelHits;` `bool innerTrack;` `double chiTracker;` `double DxyTracker;` `double DzTracker;` `double innerTrackpt;` `double innerTracketa;` `double innerTrackphi;` `double tight_validFraction;` `bool OuterTrack;` `double OuterTrackPt;` `double OuterTrackEta;` `double OuterTrackPhi;` `double OuterTrackChi;` `int OuterTrackHits;` `int OuterTrackRHits;` `bool GlobalTrack;` `double GlobalTrckPt;` `double GlobalTrckEta;` `double GlobalTrckPhi;` `int Global_Muon_Hits;` `int MatchedStations;` `double GlobTrack_Chi;` `double Tight_LongitudinalImpactparameter;` `double Tight_TransImpactparameter;` `double IsolationR04;` `double IsolationR03;` `double ecal_3into3;` `double hcal_3into3;` `double tracker_3into3;` `bool matchedId;` `bool hcal_cellHot;` `double ecal_3x3;` `double hcal_1x1;` `unsigned int ecal_detID;` `unsigned int hcal_detID;` `unsigned int ehcal_detID;` `int hcal_ieta;` `int hcal_iphi;` `double hcal_edepth1;` `double hcal_activeL1;` `double hcal_edepthHot1;` `double hcal_activeHotL1;` `double hcal_edepthCorrect1;` `double hcal_edepthHotCorrect1;` `double hcal_cdepthHot1;` `double hcal_cdepthHotBG1;` `bool hcal_depthMatch1;` `bool hcal_depthMatchHot1;` `double hcal_edepth2;` `double hcal_activeL2;` `double hcal_edepthHot2;` `double hcal_activeHotL2;` `double hcal_edepthCorrect2;` `double hcal_edepthHotCorrect2;` `double hcal_cdepthHot2;` `double hcal_cdepthHotBG2;` `bool hcal_depthMatch2;` `bool hcal_depthMatchHot2;` `double hcal_edepth3;` `double hcal_activeL3;` `double hcal_edepthHot3;` `double hcal_activeHotL3;` `double hcal_edepthCorrect3;` `double hcal_edepthHotCorrect3;` `double hcal_cdepthHot3;` `double hcal_cdepthHotBG3;` `bool hcal_depthMatch3;` `bool hcal_depthMatchHot3;` `double hcal_edepth4;` `double hcal_activeL4;` `double hcal_edepthHot4;` `double hcal_activeHotL4;` `double hcal_edepthCorrect4;` `double hcal_edepthHotCorrect4;` `double hcal_cdepthHot4;` `double hcal_cdepthHotBG4;` `bool hcal_depthMatch4;` `bool hcal_depthMatchHot4;` `double hcal_edepth5;` `double hcal_activeL5;` `double hcal_edepthHot5;` `double hcal_activeHotL5;` `double hcal_edepthCorrect5;` `double hcal_edepthHotCorrect5;` `double hcal_cdepthHot5;` `double hcal_cdepthHotBG5;` `bool hcal_depthMatch5;` `bool hcal_depthMatchHot5;` `double hcal_edepth6;` `double hcal_activeL6;` `double hcal_edepthHot6;` `double hcal_activeHotL6;` `double hcal_edepthCorrect6;` `double hcal_edepthHotCorrect6;` `double hcal_cdepthHot6;` `double hcal_cdepthHotBG6;` `bool hcal_depthMatch6;` `bool hcal_depthMatchHot6;` `double hcal_edepth7;` `double hcal_activeL7;` `double hcal_edepthHot7;` `double hcal_activeHotL7;` `double hcal_edepthCorrect7;` `double hcal_edepthHotCorrect7;` `double hcal_cdepthHot7;` `double hcal_cdepthHotBG7;` `bool hcal_depthMatch7;` `bool hcal_depthMatchHot7;` `double activeLength;` `double activeLengthHot;` `std::vector<int> hltresults;` `std::vector<std::string> all_triggers;` `// List of branches` `TBranch b_Event_No; //!` `TBranch b_Run_No; //!` `TBranch b_LumiNumber; //!` `TBranch b_BXNumber; //!` `TBranch b_GoodVertex; //!` `TBranch b_PF_Muon; //!` `TBranch b_Global_Muon; //!` `TBranch b_Tracker_muon; //!` `TBranch b_MuonIsTight; //!` `TBranch b_MuonIsMedium; //!` `TBranch b_pt_of_muon; //!` `TBranch b_eta_of_muon; //!` `TBranch b_phi_of_muon; //!` `TBranch b_energy_of_muon; //!` `TBranch b_p_of_muon; //!` `TBranch b_muon_trkKink; //!` `TBranch b_muon_chi2LocalPosition; //!` `TBranch b_muon_segComp; //!` `TBranch b_TrackerLayer; //!` `TBranch b_NumPixelLayers; //!` `TBranch b_InnerTrackPixelHits; //!` `TBranch b_innerTrack; //!` `TBranch b_chiTracker; //!` `TBranch b_DxyTracker; //!` `TBranch b_DzTracker; //!` `TBranch b_innerTrackpt; //!` `TBranch b_innerTracketa; //!` `TBranch b_innerTrackphi; //!` `TBranch b_tight_validFraction; //!` `TBranch b_OuterTrack; //!` `TBranch b_OuterTrackPt; //!` `TBranch b_OuterTrackEta; //!` `TBranch b_OuterTrackPhi; //!` `TBranch b_OuterTrackChi; //!` `TBranch b_OuterTrackHits; //!` `TBranch b_OuterTrackRHits; //!` `TBranch b_GlobalTrack; //!` `TBranch b_GlobalTrckPt; //!` `TBranch b_GlobalTrckEta; //!` `TBranch b_GlobalTrckPhi; //!` `TBranch b_Global_Muon_Hits; //!` `TBranch b_MatchedStations; //!` `TBranch b_GlobTrack_Chi; //!` `TBranch b_Tight_LongitudinalImpactparameter; //!` `TBranch b_Tight_TransImpactparameter; //!` `TBranch b_IsolationR04; //!` `TBranch b_IsolationR03; //!` `TBranch b_ecal_3into3; //!` `TBranch b_hcal_3into3; //!` `TBranch b_tracker_3into3; //!` `TBranch b_matchedId; //!` `TBranch b_hcal_cellHot; //!` `TBranch b_ecal_3x3; //!` `TBranch b_hcal_1x1; //!` `TBranch b_hcal_detID; //!` `TBranch b_ecal_detID; //!` `TBranch b_ehcal_detID; //!` `TBranch b_hcal_ieta; //!` `TBranch b_hcal_iphi; //!` `TBranch b_hcal_edepth1; //!` `TBranch b_hcal_activeL1; //!` `TBranch b_hcal_edepthHot1; //!` `TBranch b_hcal_activeHotL1; //!` `TBranch b_hcal_edepthCorrect1; //!` `TBranch b_hcal_edepthHotCorrect1; //!` `TBranch b_hcal_cdepthHot1; //!` `TBranch b_hcal_cdepthHotBG1; //!` `TBranch b_hcal_depthMatch1; //!` `TBranch b_hcal_depthMatchHot1; //!` `TBranch b_hcal_edepth2; //!` `TBranch b_hcal_activeL2; //!` `TBranch b_hcal_edepthHot2; //!` `TBranch b_hcal_activeHotL2; //!` `TBranch b_hcal_edepthCorrect2; //!` `TBranch b_hcal_edepthHotCorrect2; //!` `TBranch b_hcal_cdepthHot2; //!` `TBranch b_hcal_cdepthHotBG2; //!` `TBranch b_hcal_depthMatch2; //!` `TBranch b_hcal_depthMatchHot2; //!` `TBranch b_hcal_edepth3; //!` `TBranch b_hcal_activeL3; //!` `TBranch b_hcal_edepthHot3; //!` `TBranch b_hcal_activeHotL3; //!` `TBranch b_hcal_edepthCorrect3; //!` `TBranch b_hcal_edepthHotCorrect3; //!` `TBranch b_hcal_cdepthHot3; //!` `TBranch b_hcal_cdepthHotBG3; //!` `TBranch b_hcal_depthMatch3; //!` `TBranch b_hcal_depthMatchHot3; //!` `TBranch b_hcal_edepth4; //!` `TBranch b_hcal_activeL4; //!` `TBranch b_hcal_edepthHot4; //!` `TBranch b_hcal_activeHotL4; //!` `TBranch b_hcal_edepthCorrect4; //!` `TBranch b_hcal_edepthHotCorrect4; //!` `TBranch b_hcal_cdepthHot4; //!` `TBranch b_hcal_cdepthHotBG4; //!` `TBranch b_hcal_depthMatch4; //!` `TBranch b_hcal_depthMatchHot4; //!` `TBranch b_hcal_edepth5; //!` `TBranch b_hcal_activeL5; //!` `TBranch b_hcal_edepthHot5; //!` `TBranch b_hcal_activeHotL5; //!` `TBranch b_hcal_edepthCorrect5; //!` `TBranch b_hcal_edepthHotCorrect5; //!` `TBranch b_hcal_cdepthHot5; //!` `TBranch b_hcal_cdepthHotBG5; //!` `TBranch b_hcal_depthMatch5; //!` `TBranch b_hcal_depthMatchHot5; //!` `TBranch b_hcal_edepth6; //!` `TBranch b_hcal_activeL6; //!` `TBranch b_hcal_edepthHot6; //!` `TBranch b_hcal_activeHotL6; //!` `TBranch b_hcal_edepthCorrect6; //!` `TBranch b_hcal_edepthHotCorrect6; //!` `TBranch b_hcal_cdepthHot6; //!` `TBranch b_hcal_cdepthHotBG6; //!` `TBranch b_hcal_depthMatch6; //!` `TBranch b_hcal_depthMatchHot6; //!` `TBranch b_hcal_edepth7; //!` `TBranch b_hcal_activeL7; //!` `TBranch b_hcal_edepthHot7; //!` `TBranch b_hcal_activeHotL7; //!` `TBranch b_hcal_edepthCorrect7; //!` `TBranch b_hcal_edepthHotCorrect7; //!` `TBranch b_hcal_cdepthHot7; //!` `TBranch b_hcal_cdepthHotBG7; //!` `TBranch b_hcal_depthMatch7; //!` `TBranch b_hcal_depthMatchHot7; //!` `TBranch b_activeLength; //!` `TBranch b_activeLengthHot; //!` `TBranch b_hltresults; //!` `TBranch b_all_triggers; //!` `HBHEMuonOfflineAnalyzer(TChain tree = 0,` `const char outfile = "dyll_PU20_25_output_10.root",` `const char rcorFileName = "",` `int flag = 0,` `int mode = 3,` `int maxDHB = 4,` `int maxDHE = 7,` `int cutMu = 0,` `float cutP = 5,` `int nevMax = -1,` `int over = 0,` `int runLo = 1,` `int runHi = 99999999,` `int etaMin = 1,` `int etaMax = 29,` `bool debug = false);` `HBHEMuonOfflineAnalyzer(const char infile,` `const char outfile = "dyll_PU20_25_output_10.root",` `const char rcorFileName = "",` `int flag = 0,` `int mode = 3,` `int maxDHB = 4,` `int maxDHE = 7,` `int cutMu = 0,` `float cutP = 5,` `int nevMax = -1,` `int over = 0,` `int runLo = 1,` `int runHi = 99999999,` `int etaMin = 1,` `int etaMax = 29,` `bool debug = false);` `// mode of LHC is kept 1 for 2017 scenario as no change in depth segmentation` `// mode of LHC is 3 for 2021` `virtual ~HBHEMuonOfflineAnalyzer();` `virtual Int_t Cut(Long64_t entry);` `virtual Int_t GetEntry(Long64_t entry);` `virtual Long64_t LoadTree(Long64_t entry);` `virtual void Init(TChain tree,` `const char rcorFileName,` `int flag,` `int mode,` `int maxDHB,` `int maxDHE,` `int runLo,` `int runHi,` `int etaMin,` `int etaMax);` `virtual void Loop();` `virtual Bool_t Notify();` `virtual void Show(Long64_t entry = -1);` `bool fillChain(TChain chain, const char inputFileList);` `bool readCorr(const char rcorFileName);` `void bookHistograms(const char );` `bool getEnergy(int dep, double &enb, double &enu, double &enh, double &enc, double &chgS, double &chgB, double &actL);` `void writeHistograms();` `bool looseMuon();` `bool tightMuon();` `bool softMuon();` `bool mediumMuon2016();` `void etaPhiHcal(unsigned int detId, int &eta, int &phi, int &depth);` `void etaPhiEcal(unsigned int detId, int &type, int &zside, int &etaX, int &phiY, int &plane, int &strip);` `void calculateP(double pt, double eta, double &pM);` `void close();` `int nDepthBins(int ieta, int iphi);` `int nPhiBins(int ieta);` `float getCorr(int run, unsigned int id);` `std::vector<std::string> splitString(const std::string &);` `unsigned int getDetIdHBHE(int ieta, int iphi, int depth);` `unsigned int getDetId(int subdet, int ieta, int iphi, int depth);` `unsigned int correctDetId(const unsigned int &detId);` `void unpackDetId(unsigned int detId, int &subdet, int &zside, int &ieta, int &iphi, int &depth);` `private:` `static const int maxDep_ = 7;` `static const int maxEta_ = 29;` `static const int maxPhi_ = 72;` `//3x16x72x2 + 5x4x72x2 + 5x9x36x2` `static const int maxHist_ = 20000; //13032;` `static const unsigned int nmax_ = 10;` `int nCut_;` `const double cutP_;` `const int nevMax_;` `const bool over_, debug_;` `int modeLHC_, maxDepthHB_, maxDepthHE_, maxDepth_;` `int runLo_, runHi_, etaMin_, etaMax_;` `bool cFactor_, useCorrect_, mergeDepth_;` `int nHist, nDepths[maxEta_], nDepthsPhi[maxEta_];` `int indxEta[maxEta_][maxDep_][maxPhi_];` `TFile output_file;` `std::map<unsigned int, float> corrFac_[nmax_];` `std::vector<int> runlow_;` `TTree outtree_;` `int t_ieta, t_iphi, t_nvtx;` `double t_p, t_ediff;` `std::vector<double> t_ene, t_enec, t_actln, t_charge;` `std::vector<int> t_depth;` `TH1D h_evtype, h_Pt_Muon, h_Eta_Muon, h_Phi_Muon, h_P_Muon;` `TH1D h_PF_Muon, h_GlobTrack_Chi, h_Global_Muon_Hits;` `TH1D h_MatchedStations, h_Tight_TransImpactparameter;` `TH1D h_Tight_LongitudinalImpactparameter, h_InnerTrackPixelHits;` `TH1D h_TrackerLayer, h_IsolationR04, h_Global_Muon;` `TH1D h_LongImpactParameter, h_LongImpactParameterBin1, h_LongImpactParameterBin2;` `TH1D h_TransImpactParameter, h_TransImpactParameterBin1, h_TransImpactParameterBin2;` `TH1D h_Hot_MuonEnergy_hcal_ClosestCell[maxHist_], h_Hot_MuonEnergy_hcal_HotCell[maxHist_],` `h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[maxHist_], h_HotCell_MuonEnergy_phi[maxHist_],` `h_active_length_Fill[maxHist_], h_p_muon_ineta[maxHist_], h_charge_signal[maxHist_], h_charge_bg[maxHist_];` `TH2D h_2D_Bin1, h_2D_Bin2;` `TH1D h_ecal_energy, h_hcal_energy, h_3x3_ecal, h_1x1_hcal;` `TH1D h_MuonHittingEcal, h_HotCell, h_MuonEnergy_hcal[maxHist_];` `TH1D h_Hot_MuonEnergy_hcal[maxHist_];` `TH2D hcal_ietaVsEnergy;` `TProfile h_EtaX_hcal, h_PhiY_hcal, h_EtaX_ecal, h_PhiY_ecal;` `TProfile h_Eta_ecal, h_Phi_ecal;` `TProfile h_MuonEnergy_eta[maxDep_], h_MuonEnergy_phi[maxDep_], h_MuonEnergy_muon_eta[maxDep_];` `TProfile h_Hot_MuonEnergy_eta[maxDep_], h_Hot_MuonEnergy_phi[maxDep_], h_Hot_MuonEnergy_muon_eta[maxDep_];` `TProfile h_IsoHot_MuonEnergy_eta[maxDep_], h_IsoHot_MuonEnergy_phi[maxDep_], h_IsoHot_MuonEnergy_muon_eta[maxDep_];` `TProfile h_IsoWithoutHot_MuonEnergy_eta[maxDep_], h_IsoWithoutHot_MuonEnergy_phi[maxDep_],` `h_IsoWithoutHot_MuonEnergy_muon_eta[maxDep_];` `TProfile h_HotWithoutIso_MuonEnergy_eta[maxDep_], h_HotWithoutIso_MuonEnergy_phi[maxDep_],` `h_HotWithoutIso_MuonEnergy_muon_eta[maxDep_];` `};` `HBHEMuonOfflineAnalyzer::HBHEMuonOfflineAnalyzer(TChain tree,` `const char outFileName,` `const char rcorFileName,` `int flag,` `int mode,` `int maxDHB,` `int maxDHE,` `int cutMu,` `float cutP,` `int nevMax,` `int over,` `int runLo,` `int runHi,` `int etaMin,` `int etaMax,` `bool deb)` `: nCut_(cutMu), cutP_(cutP), nevMax_(nevMax), over_(over == 1), debug_(deb), cFactor_(false) {` `if ((nCut_ < 0) \|\| (nCut_ > 2))` `nCut_ = 0;` `Init(tree, rcorFileName, flag, mode, maxDHB, maxDHE, runLo, runHi, etaMin, etaMax);` `//Now book histograms` `bookHistograms(outFileName);` `}` `HBHEMuonOfflineAnalyzer::HBHEMuonOfflineAnalyzer(const char infile,` `const char outFileName,` `const char rcorFileName,` `int flag,` `int mode,` `int maxDHB,` `int maxDHE,` `int cutMu,` `float cutP,` `int nevMax,` `int over,` `int runLo,` `int runHi,` `int etaMin,` `int etaMax,` `bool deb)` `: nCut_(cutMu), cutP_(cutP), nevMax_(nevMax), over_(over == 1), debug_(deb), cFactor_(false) {` `if ((nCut_ < 0) \|\| (nCut_ > 2))` `nCut_ = 0;` `TChain chain = new TChain("hcalHBHEMuon/TREE");` `if (!fillChain(chain, infile)) {` `std::cout << "***No valid tree chain can be obtained**" << std::endl;` `} else {` `std::cout << "Proceed with a tree chain with " << chain->GetEntries() << " entries" << std::endl;` `Init(chain, rcorFileName, flag, mode, maxDHB, maxDHE, runLo, runHi, etaMin, etaMax);` `//Now book histograms` `bookHistograms(outFileName);` `}` `}` `HBHEMuonOfflineAnalyzer::~HBHEMuonOfflineAnalyzer() {` `if (!fChain)` `return;` `delete fChain->GetCurrentFile();` `}` `Int_t HBHEMuonOfflineAnalyzer::Cut(Long64_t) {` `// This function may be called from Loop.` `// returns 1 if entry is accepted.` `// returns -1 otherwise.` `return 1;` `}` `Int_t HBHEMuonOfflineAnalyzer::GetEntry(Long64_t entry) {` `// Read contents of entry.` `if (!fChain)` `return 0;` `return fChain->GetEntry(entry);` `}` `Long64_t HBHEMuonOfflineAnalyzer::LoadTree(Long64_t entry) {` `// Set the environment to read one entry` `if (!fChain)` `return -5;` `Long64_t centry = fChain->LoadTree(entry);` `if (centry < 0)` `return centry;` `if (fChain->GetTreeNumber() != fCurrent) {` `fCurrent = fChain->GetTreeNumber();` `Notify();` `}` `return centry;` `}` `void HBHEMuonOfflineAnalyzer::Init(TChain tree,` `const char rcorFileName,` `int flag,` `int mode,` `int maxDHB,` `int maxDHE,` `int runLo,` `int runHi,` `int etaMin,` `int etaMax) {` `modeLHC_ = mode;` `maxDepthHB_ = maxDHB;` `maxDepthHE_ = maxDHE;` `maxDepth_ = (maxDepthHB_ > maxDepthHE_) ? maxDepthHB_ : maxDepthHE_;` `runLo_ = runLo;` `runHi_ = runHi;` `etaMin_ = (etaMin > 0) ? etaMin : 1;` `etaMax_ = (etaMax <= 29) ? etaMax : 29;` `if (etaMax_ <= etaMin_) {` `if (etaMax_ == 29)` `etaMin_ = etaMax_ - 1;` `else` `etaMax_ = etaMin_ + 1;` `}` `useCorrect_ = ((flag % 10) > 0);` `mergeDepth_ = (((flag / 10) % 10) > 0);` `if (std::string(rcorFileName) != "")` `cFactor_ = readCorr(rcorFileName);` `// The Init() function is called when the selector needs to initialize` `// a new tree or chain. Typically here the branch addresses and branch` `// pointers of the tree will be set.` `// It is normally not necessary to make changes to the generated` `// code, but the routine can be extended by the user if needed.` `// Init() will be called many times when running on PROOF` `// (once per file to be processed).` `// Set object pointer` `PF_Muon = 0;` `Global_Muon = 0;` `Tracker_muon = 0;` `pt_of_muon = 0;` `eta_of_muon = 0;` `phi_of_muon = 0;` `energy_of_muon = 0;` `p_of_muon = 0;` `muon_trkKink = 0;` `muon_chi2LocalPosition = 0;` `muon_segComp = 0;` `TrackerLayer = 0;` `NumPixelLayers = 0;` `InnerTrackPixelHits = 0;` `innerTrack = 0;` `chiTracker = 0;` `DxyTracker = 0;` `DzTracker = 0;` `innerTrackpt = 0;` `innerTracketa = 0;` `innerTrackphi = 0;` `tight_validFraction = 0;` `OuterTrack = 0;` `OuterTrackPt = 0;` `OuterTrackEta = 0;` `OuterTrackPhi = 0;` `OuterTrackHits = 0;` `OuterTrackRHits = 0;` `OuterTrackChi = 0;` `GlobalTrack = 0;` `GlobalTrckPt = 0;` `GlobalTrckEta = 0;` `GlobalTrckPhi = 0;` `Global_Muon_Hits = 0;` `MatchedStations = 0;` `GlobTrack_Chi = 0;` `Tight_LongitudinalImpactparameter = 0;` `Tight_TransImpactparameter = 0;` `IsolationR04 = 0;` `IsolationR03 = 0;` `ecal_3into3 = 0;` `hcal_3into3 = 0;` `tracker_3into3 = 0;` `matchedId = 0;` `hcal_cellHot = 0;` `ecal_3x3 = 0;` `hcal_1x1 = 0;` `ecal_detID = 0;` `hcal_detID = 0;` `ehcal_detID = 0;` `hcal_edepth1 = 0;` `hcal_activeL1 = 0;` `hcal_edepthHot1 = 0;` `hcal_activeHotL1 = 0;` `hcal_edepthCorrect1 = 0;` `hcal_edepthHotCorrect1 = 0;` `hcal_cdepthHot1 = 0;` `hcal_cdepthHotBG1 = 0;` `hcal_depthMatch1 = 0;` `hcal_depthMatchHot1 = 0;` `hcal_edepth2 = 0;` `hcal_activeL2 = 0;` `hcal_edepthHot2 = 0;` `hcal_activeHotL2 = 0;` `hcal_edepthCorrect2 = 0;` `hcal_edepthHotCorrect2 = 0;` `hcal_cdepthHot2 = 0;` `hcal_cdepthHotBG2 = 0;` `hcal_depthMatch2 = 0;` `hcal_depthMatchHot2 = 0;` `hcal_edepth3 = 0;` `hcal_activeL3 = 0;` `hcal_edepthHot3 = 0;` `hcal_activeHotL3 = 0;` `hcal_edepthCorrect3 = 0;` `hcal_edepthHotCorrect3 = 0;` `hcal_cdepthHot3 = 0;` `hcal_cdepthHotBG3 = 0;` `hcal_depthMatch3 = 0;` `hcal_depthMatchHot3 = 0;` `hcal_edepth4 = 0;` `hcal_activeL4 = 0;` `hcal_edepthHot4 = 0;` `hcal_activeHotL4 = 0;` `hcal_edepthCorrect4 = 0;` `hcal_edepthHotCorrect4 = 0;` `hcal_cdepthHot4 = 0;` `hcal_cdepthHotBG4 = 0;` `hcal_depthMatch4 = 0;` `hcal_depthMatchHot4 = 0;` `hcal_edepth5 = 0;` `hcal_activeL5 = 0;` `hcal_edepthHot5 = 0;` `hcal_activeHotL5 = 0;` `hcal_edepthCorrect5 = 0;` `hcal_edepthHotCorrect5 = 0;` `hcal_cdepthHot5 = 0;` `hcal_cdepthHotBG5 = 0;` `hcal_depthMatch5 = 0;` `hcal_depthMatchHot5 = 0;` `hcal_edepth6 = 0;` `hcal_activeL6 = 0;` `hcal_edepthHot6 = 0;` `hcal_activeHotL6 = 0;` `hcal_edepthCorrect6 = 0;` `hcal_edepthHotCorrect6 = 0;` `hcal_cdepthHot6 = 0;` `hcal_cdepthHotBG6 = 0;` `hcal_depthMatch6 = 0;` `hcal_depthMatchHot6 = 0;` `hcal_edepth7 = 0;` `hcal_activeL7 = 0;` `hcal_edepthHot7 = 0;` `hcal_activeHotL7 = 0;` `hcal_edepthCorrect7 = 0;` `hcal_edepthHotCorrect7 = 0;` `hcal_cdepthHot7 = 0;` `hcal_cdepthHotBG7 = 0;` `hcal_depthMatch7 = 0;` `hcal_depthMatchHot7 = 0;` `activeLength = 0;` `activeLengthHot = 0;` `hltresults = 0;` `all_triggers = 0;` `// Set branch addresses and branch pointers` `if (!tree)` `return;` `fChain = tree;` `fCurrent = -1;` `fChain->SetMakeClass(1);` `fChain->SetBranchAddress("Event_No", &Event_No, &b_Event_No);` `fChain->SetBranchAddress("Run_No", &Run_No, &b_Run_No);` `fChain->SetBranchAddress("LumiNumber", &LumiNumber, &b_LumiNumber);` `fChain->SetBranchAddress("BXNumber", &BXNumber, &b_BXNumber);` `fChain->SetBranchAddress("GoodVertex", &GoodVertex, &b_GoodVertex);` `fChain->SetBranchAddress("PF_Muon", &PF_Muon, &b_PF_Muon);` `fChain->SetBranchAddress("Global_Muon", &Global_Muon, &b_Global_Muon);` `fChain->SetBranchAddress("Tracker_muon", &Tracker_muon, &b_Tracker_muon);` `fChain->SetBranchAddress("MuonIsTight", &MuonIsTight, &b_MuonIsTight);` `fChain->SetBranchAddress("MuonIsMedium", &MuonIsMedium, &b_MuonIsMedium);` `fChain->SetBranchAddress("pt_of_muon", &pt_of_muon, &b_pt_of_muon);` `fChain->SetBranchAddress("eta_of_muon", &eta_of_muon, &b_eta_of_muon);` `fChain->SetBranchAddress("phi_of_muon", &phi_of_muon, &b_phi_of_muon);` `fChain->SetBranchAddress("energy_of_muon", &energy_of_muon, &b_energy_of_muon);` `fChain->SetBranchAddress("p_of_muon", &p_of_muon, &b_p_of_muon);` `fChain->SetBranchAddress("muon_trkKink", &muon_trkKink, &b_muon_trkKink);` `fChain->SetBranchAddress("muon_chi2LocalPosition", &muon_chi2LocalPosition, &b_muon_chi2LocalPosition);` `fChain->SetBranchAddress("muon_segComp", &muon_segComp, &b_muon_segComp);` `fChain->SetBranchAddress("TrackerLayer", &TrackerLayer, &b_TrackerLayer);` `fChain->SetBranchAddress("NumPixelLayers", &NumPixelLayers, &b_NumPixelLayers);` `fChain->SetBranchAddress("InnerTrackPixelHits", &InnerTrackPixelHits, &b_InnerTrackPixelHits);` `fChain->SetBranchAddress("innerTrack", &innerTrack, &b_innerTrack);` `fChain->SetBranchAddress("chiTracker", &chiTracker, &b_chiTracker);` `fChain->SetBranchAddress("DxyTracker", &DxyTracker, &b_DxyTracker);` `fChain->SetBranchAddress("DzTracker", &DzTracker, &b_DzTracker);` `fChain->SetBranchAddress("innerTrackpt", &innerTrackpt, &b_innerTrackpt);` `fChain->SetBranchAddress("innerTracketa", &innerTracketa, &b_innerTracketa);` `fChain->SetBranchAddress("innerTrackphi", &innerTrackphi, &b_innerTrackphi);` `fChain->SetBranchAddress("tight_validFraction", &tight_validFraction, &b_tight_validFraction);` `fChain->SetBranchAddress("OuterTrack", &OuterTrack, &b_OuterTrack);` `fChain->SetBranchAddress("OuterTrackPt", &OuterTrackPt, &b_OuterTrackPt);` `fChain->SetBranchAddress("OuterTrackEta", &OuterTrackEta, &b_OuterTrackEta);` `fChain->SetBranchAddress("OuterTrackPhi", &OuterTrackPhi, &b_OuterTrackPhi);` `fChain->SetBranchAddress("OuterTrackChi", &OuterTrackChi, &b_OuterTrackChi);` `fChain->SetBranchAddress("OuterTrackHits", &OuterTrackHits, &b_OuterTrackHits);` `fChain->SetBranchAddress("OuterTrackRHits", &OuterTrackRHits, &b_OuterTrackRHits);` `fChain->SetBranchAddress("GlobalTrack", &GlobalTrack, &b_GlobalTrack);` `fChain->SetBranchAddress("GlobalTrckPt", &GlobalTrckPt, &b_GlobalTrckPt);` `fChain->SetBranchAddress("GlobalTrckEta", &GlobalTrckEta, &b_GlobalTrckEta);` `fChain->SetBranchAddress("GlobalTrckPhi", &GlobalTrckPhi, &b_GlobalTrckPhi);` `fChain->SetBranchAddress("Global_Muon_Hits", &Global_Muon_Hits, &b_Global_Muon_Hits);` `fChain->SetBranchAddress("MatchedStations", &MatchedStations, &b_MatchedStations);` `fChain->SetBranchAddress("GlobTrack_Chi", &GlobTrack_Chi, &b_GlobTrack_Chi);` `fChain->SetBranchAddress(` `"Tight_LongitudinalImpactparameter", &Tight_LongitudinalImpactparameter, &b_Tight_LongitudinalImpactparameter);` `fChain->SetBranchAddress("Tight_TransImpactparameter", &Tight_TransImpactparameter, &b_Tight_TransImpactparameter);` `fChain->SetBranchAddress("IsolationR04", &IsolationR04, &b_IsolationR04);` `fChain->SetBranchAddress("IsolationR03", &IsolationR03, &b_IsolationR03);` `fChain->SetBranchAddress("ecal_3into3", &ecal_3into3, &b_ecal_3into3);` `fChain->SetBranchAddress("hcal_3into3", &hcal_3into3, &b_hcal_3into3);` `fChain->SetBranchAddress("tracker_3into3", &tracker_3into3, &b_tracker_3into3);` `fChain->SetBranchAddress("matchedId", &matchedId, &b_matchedId);` `fChain->SetBranchAddress("hcal_cellHot", &hcal_cellHot, &b_hcal_cellHot);` `fChain->SetBranchAddress("ecal_3x3", &ecal_3x3, &b_ecal_3x3);` `fChain->SetBranchAddress("hcal_1x1", &hcal_1x1, &b_hcal_1x1);` `fChain->SetBranchAddress("ecal_detID", &ecal_detID, &b_ecal_detID);` `fChain->SetBranchAddress("hcal_detID", &hcal_detID, &b_hcal_detID);` `fChain->SetBranchAddress("ehcal_detID", &ehcal_detID, &b_ehcal_detID);` `fChain->SetBranchAddress("hcal_ieta", &hcal_ieta, &b_hcal_ieta);` `fChain->SetBranchAddress("hcal_iphi", &hcal_iphi, &b_hcal_iphi);` `fChain->SetBranchAddress("hcal_edepth1", &hcal_edepth1, &b_hcal_edepth1);` `fChain->SetBranchAddress("hcal_activeL1", &hcal_activeL1, &b_hcal_activeL1);` `fChain->SetBranchAddress("hcal_edepthHot1", &hcal_edepthHot1, &b_hcal_edepthHot1);` `fChain->SetBranchAddress("hcal_activeHotL1", &hcal_activeHotL1, &b_hcal_activeHotL1);` `fChain->SetBranchAddress("hcal_edepthCorrect1", &hcal_edepthCorrect1, &b_hcal_edepthCorrect1);` `fChain->SetBranchAddress("hcal_edepthHotCorrect1", &hcal_edepthHotCorrect1, &b_hcal_edepthHotCorrect1);` `fChain->SetBranchAddress("hcal_cdepthHot1", &hcal_cdepthHot1, &b_hcal_cdepthHot1);` `fChain->SetBranchAddress("hcal_cdepthHotBG1", &hcal_cdepthHotBG1, &b_hcal_cdepthHotBG1);` `fChain->SetBranchAddress("hcal_depthMatch1", &hcal_depthMatch1, &b_hcal_depthMatch1);` `fChain->SetBranchAddress("hcal_depthMatchHot1", &hcal_depthMatchHot1, &b_hcal_depthMatchHot1);` `fChain->SetBranchAddress("hcal_edepth2", &hcal_edepth2, &b_hcal_edepth2);` `fChain->SetBranchAddress("hcal_activeL2", &hcal_activeL2, &b_hcal_activeL2);` `fChain->SetBranchAddress("hcal_edepthHot2", &hcal_edepthHot2, &b_hcal_edepthHot2);` `fChain->SetBranchAddress("hcal_activeHotL2", &hcal_activeHotL2, &b_hcal_activeHotL2);` `fChain->SetBranchAddress("hcal_edepthCorrect2", &hcal_edepthCorrect2, &b_hcal_edepthCorrect2);` `fChain->SetBranchAddress("hcal_edepthHotCorrect2", &hcal_edepthHotCorrect2, &b_hcal_edepthHotCorrect2);` `fChain->SetBranchAddress("hcal_cdepthHot2", &hcal_cdepthHot2, &b_hcal_cdepthHot2);` `fChain->SetBranchAddress("hcal_cdepthHotBG2", &hcal_cdepthHotBG2, &b_hcal_cdepthHotBG2);` `fChain->SetBranchAddress("hcal_depthMatch2", &hcal_depthMatch2, &b_hcal_depthMatch2);` `fChain->SetBranchAddress("hcal_depthMatchHot2", &hcal_depthMatchHot2, &b_hcal_depthMatchHot2);` `fChain->SetBranchAddress("hcal_edepth3", &hcal_edepth3, &b_hcal_edepth3);` `fChain->SetBranchAddress("hcal_activeL3", &hcal_activeL3, &b_hcal_activeL3);` `fChain->SetBranchAddress("hcal_edepthHot3", &hcal_edepthHot3, &b_hcal_edepthHot3);` `fChain->SetBranchAddress("hcal_activeHotL3", &hcal_activeHotL3, &b_hcal_activeHotL3);` `fChain->SetBranchAddress("hcal_edepthCorrect3", &hcal_edepthCorrect3, &b_hcal_edepthCorrect3);` `fChain->SetBranchAddress("hcal_edepthHotCorrect3", &hcal_edepthHotCorrect3, &b_hcal_edepthHotCorrect3);` `fChain->SetBranchAddress("hcal_cdepthHot3", &hcal_cdepthHot3, &b_hcal_cdepthHot3);` `fChain->SetBranchAddress("hcal_cdepthHotBG3", &hcal_cdepthHotBG3, &b_hcal_cdepthHotBG3);` `fChain->SetBranchAddress("hcal_depthMatch3", &hcal_depthMatch3, &b_hcal_depthMatch3);` `fChain->SetBranchAddress("hcal_depthMatchHot3", &hcal_depthMatchHot3, &b_hcal_depthMatchHot3);` `fChain->SetBranchAddress("hcal_edepth4", &hcal_edepth4, &b_hcal_edepth4);` `fChain->SetBranchAddress("hcal_activeL4", &hcal_activeL4, &b_hcal_activeL4);` `fChain->SetBranchAddress("hcal_edepthHot4", &hcal_edepthHot4, &b_hcal_edepthHot4);` `fChain->SetBranchAddress("hcal_activeHotL4", &hcal_activeHotL4, &b_hcal_activeHotL4);` `fChain->SetBranchAddress("hcal_edepthCorrect4", &hcal_edepthCorrect4, &b_hcal_edepthCorrect4);` `fChain->SetBranchAddress("hcal_edepthHotCorrect4", &hcal_edepthHotCorrect4, &b_hcal_edepthHotCorrect4);` `fChain->SetBranchAddress("hcal_cdepthHot4", &hcal_cdepthHot4, &b_hcal_cdepthHot4);` `fChain->SetBranchAddress("hcal_cdepthHotBG4", &hcal_cdepthHotBG4, &b_hcal_cdepthHotBG4);` `fChain->SetBranchAddress("hcal_depthMatch4", &hcal_depthMatch4, &b_hcal_depthMatch4);` `fChain->SetBranchAddress("hcal_depthMatchHot4", &hcal_depthMatchHot4, &b_hcal_depthMatchHot4);` `fChain->SetBranchAddress("hcal_edepth5", &hcal_edepth5, &b_hcal_edepth5);` `fChain->SetBranchAddress("hcal_activeL5", &hcal_activeL5, &b_hcal_activeL5);` `fChain->SetBranchAddress("hcal_edepthHot5", &hcal_edepthHot5, &b_hcal_edepthHot5);` `fChain->SetBranchAddress("hcal_activeHotL5", &hcal_activeHotL5, &b_hcal_activeHotL5);` `fChain->SetBranchAddress("hcal_edepthCorrect5", &hcal_edepthCorrect5, &b_hcal_edepthCorrect5);` `fChain->SetBranchAddress("hcal_edepthHotCorrect5", &hcal_edepthHotCorrect5, &b_hcal_edepthHotCorrect5);` `fChain->SetBranchAddress("hcal_cdepthHot5", &hcal_cdepthHot5, &b_hcal_cdepthHot5);` `fChain->SetBranchAddress("hcal_cdepthHotBG5", &hcal_cdepthHotBG5, &b_hcal_cdepthHotBG5);` `fChain->SetBranchAddress("hcal_depthMatch5", &hcal_depthMatch5, &b_hcal_depthMatch5);` `fChain->SetBranchAddress("hcal_depthMatchHot5", &hcal_depthMatchHot5, &b_hcal_depthMatchHot5);` `fChain->SetBranchAddress("hcal_edepth6", &hcal_edepth6, &b_hcal_edepth6);` `fChain->SetBranchAddress("hcal_activeL6", &hcal_activeL6, &b_hcal_activeL6);` `fChain->SetBranchAddress("hcal_edepthHot6", &hcal_edepthHot6, &b_hcal_edepthHot6);` `fChain->SetBranchAddress("hcal_activeHotL6", &hcal_activeHotL6, &b_hcal_activeHotL6);` `fChain->SetBranchAddress("hcal_edepthCorrect6", &hcal_edepthCorrect6, &b_hcal_edepthCorrect6);` `fChain->SetBranchAddress("hcal_edepthHotCorrect6", &hcal_edepthHotCorrect6, &b_hcal_edepthHotCorrect6);` `fChain->SetBranchAddress("hcal_cdepthHot6", &hcal_cdepthHot6, &b_hcal_cdepthHot6);` `fChain->SetBranchAddress("hcal_cdepthHotBG6", &hcal_cdepthHotBG6, &b_hcal_cdepthHotBG6);` `fChain->SetBranchAddress("hcal_depthMatch6", &hcal_depthMatch6, &b_hcal_depthMatch6);` `fChain->SetBranchAddress("hcal_depthMatchHot6", &hcal_depthMatchHot6, &b_hcal_depthMatchHot6);` `fChain->SetBranchAddress("hcal_edepth7", &hcal_edepth7, &b_hcal_edepth7);` `fChain->SetBranchAddress("hcal_activeL7", &hcal_activeL7, &b_hcal_activeL7);` `fChain->SetBranchAddress("hcal_edepthHot7", &hcal_edepthHot7, &b_hcal_edepthHot7);` `fChain->SetBranchAddress("hcal_activeHotL7", &hcal_activeHotL7, &b_hcal_activeHotL7);` `fChain->SetBranchAddress("hcal_edepthCorrect7", &hcal_edepthCorrect7, &b_hcal_edepthCorrect7);` `fChain->SetBranchAddress("hcal_edepthHotCorrect7", &hcal_edepthHotCorrect7, &b_hcal_edepthHotCorrect7);` `fChain->SetBranchAddress("hcal_cdepthHot7", &hcal_cdepthHot7, &b_hcal_cdepthHot7);` `fChain->SetBranchAddress("hcal_cdepthHotBG7", &hcal_cdepthHotBG7, &b_hcal_cdepthHotBG7);` `fChain->SetBranchAddress("hcal_depthMatch7", &hcal_depthMatch7, &b_hcal_depthMatch7);` `fChain->SetBranchAddress("hcal_depthMatchHot7", &hcal_depthMatchHot7, &b_hcal_depthMatchHot7);` `fChain->SetBranchAddress("activeLength", &activeLength, &b_activeLength);` `fChain->SetBranchAddress("activeLengthHot", &activeLengthHot, &b_activeLengthHot);` `fChain->SetBranchAddress("hltresults", &hltresults, &b_hltresults);` `fChain->SetBranchAddress("all_triggers", &all_triggers, &b_all_triggers);` `Notify();` `}` `void HBHEMuonOfflineAnalyzer::Loop() {` `//declarations` `if (fChain == 0)` `return;` `Long64_t nentries = fChain->GetEntriesFast();` `if (debug_)` `std::cout << "nevent = " << nentries << std::endl;` `if (nevMax_ > 0)` `nentries = nevMax_;` `Long64_t nbytes = 0, nb = 0, nsel1 = 0, nsel2 = 0;` `Long64_t nstep1 = 0, nstep2 = 0, nstep3 = 0, nstep4 = 0;` `for (Long64_t jentry = 0; jentry < nentries; jentry++) {` `Long64_t ientry = LoadTree(jentry);` `if (ientry < 0)` `break;` `nb = fChain->GetEntry(jentry);` `nbytes += nb;` `if ((int)(Run_No) < runLo_ \|\| (int)(Run_No) > runHi_)` `continue;` `++nstep1;` `if (debug_)` `std::cout << "Run " << Run_No << " Event " << Event_No << " Muon pt " << pt_of_muon << std::endl;` `bool loose(false), soft(false), tight(false), pcut(false), ptcut(false);` `t_ene.clear();` `t_enec.clear();` `t_charge.clear();` `t_actln.clear();` `t_depth.clear();` `if (debug_)` `std::cout << "ecal_det_id " << ecal_detID << std::endl;` `int typeEcal, etaXEcal, phiYEcal, zsideEcal, planeEcal, stripEcal;` `etaPhiEcal(ecal_detID, typeEcal, zsideEcal, etaXEcal, phiYEcal, planeEcal, stripEcal);` `double etaEcal = (etaXEcal - 0.5) zsideEcal;` `double phiEcal = phiYEcal - 0.5;` `if (debug_)` `std::cout << "hcal_det_id " << std::hex << hcal_detID << std::dec;` `int etaHcal, phiHcal, depthHcal;` `etaPhiHcal(hcal_detID, etaHcal, phiHcal, depthHcal);` `int eta = (etaHcal > 0) ? etaHcal - 1 : -etaHcal - 1;` `double etaXHcal = (etaHcal > 0) ? etaHcal - 0.5 : etaHcal + 0.5;` `int nDepth = nDepthBins(eta + 1, phiHcal);` `int nPhi = nPhiBins(eta + 1);` `int PHI = (nPhi > 36) ? (phiHcal - 1) : (phiHcal - 1) / 2;` `double phiYHcal = (phiHcal - 0.5);` `t_ieta = etaHcal;` `t_iphi = PHI;` `t_p = p_of_muon;` `t_ediff = hcal_3into3 - hcal_1x1;` `t_nvtx = GoodVertex;` `if (p_of_muon > cutP_)` `pcut = true;` `if (pt_of_muon > cutP_)` `ptcut = true;` `if (looseMuon())` `loose = true;` `if (softMuon())` `soft = true;` `if (tightMuon())` `tight = true;` `if (debug_)` `std::cout << " etaHcal " << etaHcal << ":" << etaXHcal << " phiHcal " << phiHcal << ":" << phiYHcal << ":" << PHI` `<< " Depth " << nDepth << " Muon Pt " << pt_of_muon << " Isol " << IsolationR04 << std::endl;` `int cut(nCut_);` `bool select(false);` `if (cut == 0)` `select = tightMuon();` `else if (cut == 1)` `select = softMuon();` `else` `select = looseMuon();` `if (select)` `++nstep2;` `if (select && ((eta + 1) >= etaMin_) && ((eta + 1) <= etaMax_)) {` `++nstep3;` `h_Pt_Muon->Fill(pt_of_muon);` `h_Eta_Muon->Fill(eta_of_muon);` `h_Phi_Muon->Fill(phi_of_muon);` `h_PF_Muon->Fill(PF_Muon);` `h_GlobTrack_Chi->Fill(GlobTrack_Chi);` `h_Global_Muon_Hits->Fill(Global_Muon_Hits);` `h_MatchedStations->Fill(MatchedStations);` `h_Tight_TransImpactparameter->Fill(Tight_TransImpactparameter);` `h_Tight_LongitudinalImpactparameter->Fill(Tight_LongitudinalImpactparameter);` `h_InnerTrackPixelHits->Fill(InnerTrackPixelHits);` `h_TrackerLayer->Fill(TrackerLayer);` `h_IsolationR04->Fill(IsolationR04);` `h_Global_Muon->Fill(Global_Muon);` `h_TransImpactParameter->Fill(Tight_TransImpactparameter);` `h_LongImpactParameter->Fill(Tight_LongitudinalImpactparameter);` `//in Phi Bins` `if (((phi_of_muon) >= -1.5) \|\| ((phi_of_muon) <= 0.5)) {` `h_TransImpactParameterBin1->Fill(Tight_TransImpactparameter);` `h_LongImpactParameterBin1->Fill(Tight_LongitudinalImpactparameter);` `h_2D_Bin1->Fill(Tight_TransImpactparameter, Tight_LongitudinalImpactparameter);` `}` `if ((phi_of_muon > 0.5) \|\| (phi_of_muon < -1.5)) {` `h_TransImpactParameterBin2->Fill(Tight_TransImpactparameter);` `h_LongImpactParameterBin2->Fill(Tight_LongitudinalImpactparameter);` `h_2D_Bin2->Fill(Tight_TransImpactparameter, Tight_LongitudinalImpactparameter);` `}` `h_ecal_energy->Fill(ecal_3into3);` `h_3x3_ecal->Fill(ecal_3x3);` `h_Eta_ecal->Fill(eta_of_muon, ecal_3x3);` `h_Phi_ecal->Fill(phi_of_muon, ecal_3x3);` `h_MuonHittingEcal->Fill(typeEcal);` `if (typeEcal == 1) {` `h_EtaX_ecal->Fill(etaEcal, ecal_3x3);` `h_PhiY_ecal->Fill(phiEcal, ecal_3x3);` `}` `h_hcal_energy->Fill(hcal_3into3);` `h_1x1_hcal->Fill(hcal_1x1);` `h_EtaX_hcal->Fill(etaXHcal, hcal_1x1);` `h_PhiY_hcal->Fill(phiYHcal, hcal_1x1);` `h_HotCell->Fill(hcal_cellHot);` `if (mergeDepth_) {` `double en1(0), en2(0), actLTot(0), chargeS(0), chargeBG(0);` `double enh(0), enc(0);` `for (int dep = 0; dep < nDepth; ++dep) {` `double enb(0), enu(0), eh0(0), ec0(0), chgS(0), chgB(0), actL(0);` `getEnergy(dep, enb, enu, eh0, ec0, chgS, chgB, actL);` `en1 += ((useCorrect_) ? enu : enb);` `en2 += ((useCorrect_) ? ec0 : eh0);` `enh += (eh0);` `enc += (ec0);` `actLTot += (actL);` `chargeS += (chgS);` `chargeBG += (chgB);` `}` `int ind = (etaHcal > 0) ? indxEta[eta][0][PHI] : 1 + indxEta[eta][0][PHI];` `if (debug_) // \|\| eta==15 \|\| eta==17)` `std::cout << "Matched Id " << matchedId << " Hot " << hcal_cellHot << " eta " << etaHcal << ":" << eta` `<< " phi " << phiHcal << ":" << PHI << " Index " << ind << " E " << en1 << ":" << en2 << ":" << enh` `<< ":" << enc << " L " << actLTot << " Charge " << chargeS << ":" << chargeBG << std::endl;` `if (!(matchedId) && !(over_))` `continue;` `if ((hcal_cellHot == 1) \|\| over_) {` `if (actLTot > 0) {` `h_Hot_MuonEnergy_hcal_HotCell[ind]->Fill(en2);` `h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ind]->Fill(en2 / actLTot);` `h_active_length_Fill[ind]->Fill(actLTot);` `h_p_muon_ineta[ind]->Fill(p_of_muon);` `h_charge_signal[ind]->Fill(chargeS);` `h_charge_bg[ind]->Fill(chargeBG);` `t_ene.push_back(enh);` `t_enec.push_back(enc);` `t_charge.push_back(chargeS);` `t_actln.push_back(actLTot);` `t_depth.push_back(0);` `outtree_->Fill();` `++nsel1;` `}` `}` `} else {` `bool fillTree(false);` `++nstep4;` `for (int dep = 0; dep < nDepth; ++dep) {` `if (debug_)` `std::cout << "dep:" << dep << std::endl;` `double actL(0), chargeS(-9999), chargeBG(-9999);` `double enh(-9999), enc(-9999), enb(0), enu(0);` `bool ok1 = getEnergy(dep, enb, enu, enh, enc, chargeS, chargeBG, actL);` `double en1 = ((useCorrect_) ? enu : enb);` `double en2 = ((useCorrect_) ? enc : enh);` `if (debug_)` `std::cout << "Hello in " << dep + 1 << " " << en1 << ":" << en2 << ":" << actL << std::endl;` `bool ok2 = ok1;` `if (debug_)` `std::cout << "Before Index " << ok1 << ":" << ok2 << std::endl;` `int ind = (etaHcal > 0) ? indxEta[eta][dep][PHI] : 1 + indxEta[eta][dep][PHI];` `if (debug_) // \|\| eta==15 \|\| eta==17)` `std::cout << "Matched Id " << matchedId << " Hot " << hcal_cellHot << " eta " << etaHcal << ":" << eta` `<< " phi " << phiHcal << ":" << PHI << " depth " << dep << " Index " << ind << " E " << en1 << ":"` `<< en2 << ":" << enh << ":" << enc << " L " << actL << " Charge " << chargeS << ":" << chargeBG` `<< std::endl;` `if (debug_)` `std::cout << "matchedId " << matchedId << " Over " << over_ << " OK " << ok1 << ":" << ok2 << " cellHot "` `<< (hcal_cellHot == 1) << std::endl;` `if (!(matchedId) && !(over_))` `continue;` `if (ok1 \|\| over_) {` `if (debug_)` `std::cout << "enter ok1" << std::endl;` `if ((hcal_cellHot == 1) \|\| (over_)) {` `if (actL > 0) {` `h_Hot_MuonEnergy_hcal_HotCell[ind]->Fill(en2);` `h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ind]->Fill(en2 / actL);` `h_active_length_Fill[ind]->Fill(actL);` `h_p_muon_ineta[ind]->Fill(p_of_muon);` `h_charge_signal[ind]->Fill(chargeS);` `h_charge_bg[ind]->Fill(chargeBG);` `t_ene.push_back(enh);` `t_enec.push_back(enc);` `t_charge.push_back(chargeS);` `t_actln.push_back(actL);` `// added depth vector AmanKalsi` `t_depth.push_back(dep);` `fillTree = true;` `} else {` `t_ene.push_back(-999.0);` `t_enec.push_back(-999.0);` `t_charge.push_back(-999.0);` `t_actln.push_back(-999.0);` `t_depth.push_back(-999.0);` `}` `if (debug_)` `std::cout << "enter hot cell" << std::endl;` `}` `}` `if (ok2) {` `if (debug_)` `std::cout << "enter ok2" << std::endl;` `if (hcal_cellHot != 1) {` `}` `}` `if (debug_)` `std::cout << "ETA \t" << eta << "DEPTH \t" << dep << std::endl;` `}` `if (fillTree) {` `outtree_->Fill();` `++nsel2;` `}` `}` `}` `int evtype(0);` `if (pcut)` `evtype += 1;` `if (ptcut)` `evtype += 2;` `if (loose)` `evtype += 4;` `if (soft)` `evtype += 8;` `if (tight)` `evtype += 16;` `h_evtype->Fill(evtype);` `}` `std::cout << "Number of events in the output root tree: " << nsel1 << ":" << nsel2 << ":" << nstep1 << ":" << nstep2` `<< ":" << nstep3 << ":" << nstep4 << std::endl;` `close();` `}` `Bool_t HBHEMuonOfflineAnalyzer::Notify() {` `// The Notify() function is called when a new file is opened. This` `// can be either for a new TTree in a TChain or when when a new TTree` `// is started when using PROOF. It is normally not necessary to make changes` `// to the generated code, but the routine can be extended by the` `// user if needed. The return value is currently not used.` `return kTRUE;` `}` `void HBHEMuonOfflineAnalyzer::Show(Long64_t entry) {` `// Print contents of entry.` `// If entry is not specified, print current entry` `if (!fChain)` `return;` `fChain->Show(entry);` `}` `bool HBHEMuonOfflineAnalyzer::fillChain(TChain chain, const char inputFileList) {` `std::string fname(inputFileList);` `if (fname.substr(fname.size() - 5, 5) == ".root") {` `chain->Add(fname.c_str());` `} else {` `std::ifstream infile(inputFileList);` `if (!infile.is_open()) {` `std::cout << "** ERROR: Can't open '" << inputFileList << "' for input" << std::endl;` `return false;` `}` `while (1) {` `infile >> fname;` `if (!infile.good())` `break;` `chain->Add(fname.c_str());` `}` `infile.close();` `}` `std::cout << "No. of Entries in this tree : " << chain->GetEntries() << std::endl;` `return true;` `}` `bool HBHEMuonOfflineAnalyzer::readCorr(const char infile) {` `std::ifstream fInput(infile);` `unsigned int ncorr(0), all(0), good(0);` `if (!fInput.good()) {` `std::cout << "Cannot open file " << infile << std::endl;` `} else {` `char buffer[1024];` `while (fInput.getline(buffer, 1024)) {` `++all;` `std::string bufferString(buffer);` `if (bufferString.substr(0, 5) == "#IOVs") {` `std::vector<std::string> items = splitString(bufferString.substr(6));` `ncorr = items.size() - 1;` `for (unsigned int n = 0; n < ncorr; ++n) {` `int run = std::atoi(items[n].c_str());` `runlow_.push_back(run);` `}` `std::cout << ncorr << ":" << runlow_.size() << " Run ranges" << std::endl;` `for (unsigned int n = 0; n < runlow_.size(); ++n)` `std::cout << " [" << n << "] " << runlow_[n];` `std::cout << std::endl;` `} else if (buffer[0] == '#') {` `continue; //ignore other comments` `} else {` `std::vector<std::string> items = splitString(bufferString);` `if (items.size() != ncorr + 3) {` `std::cout << "Ignore line: " << buffer << std::endl;` `} else {` `++good;` `int ieta = std::atoi(items[0].c_str());` `int iphi = std::atoi(items[1].c_str());` `int depth = std::atoi(items[2].c_str());` `unsigned int id = getDetIdHBHE(ieta, iphi, depth);` `for (unsigned int n = 0; n < ncorr; ++n) {` `float corrf = std::atof(items[n + 3].c_str());` `if (n < nmax_)` `corrFac_[n][id] = corrf;` `}` `if (debug_) {` `std::cout << "ID " << std::hex << id << std::dec << ":" << id << " (eta " << ieta << " phi " << iphi` `<< " depth " << depth << ")";` `for (unsigned int n = 0; n < ncorr; ++n)` `std::cout << " " << corrFac_[n][id];` `std::cout << std::endl;` `}` `}` `}` `}` `fInput.close();` `std::cout << "Reads total of " << all << " and " << good << " good records" << std::endl;` `}` `return (good > 0);` `}` `void HBHEMuonOfflineAnalyzer::bookHistograms(const char fname) {` `std::cout << "BookHistograms" << std::endl;` `output_file = TFile::Open(fname, "RECREATE");` `output_file->cd();` `outtree_ = new TTree("Lep_Tree", "Lep_Tree");` `outtree_->Branch("t_ieta", &t_ieta);` `outtree_->Branch("t_iphi", &t_iphi);` `outtree_->Branch("t_nvtx", &t_nvtx);` `outtree_->Branch("t_p", &t_p);` `outtree_->Branch("t_ediff", &t_ediff);` `outtree_->Branch("t_ene", &t_ene);` `outtree_->Branch("t_enec", &t_enec);` `outtree_->Branch("t_charge", &t_charge);` `outtree_->Branch("t_actln", &t_actln);` `outtree_->Branch("t_depth", &t_depth);` `std::string type[] = {"tight", "soft", "loose"};` `char name[128], title[500];` `nHist = 0;` `for (int eta = etaMin_; eta <= etaMax_; ++eta) {` `int nDepth = nDepthBins(eta, -1);` `int nPhi = nPhiBins(eta);` `for (int depth = 0; depth < nDepth; depth++) {` `for (int PHI = 0; PHI < nPhi; ++PHI) {` `indxEta[eta - 1][depth][PHI] = nHist;` `nHist += 2;` `}` `}` `}` `if (nHist >= maxHist_) {` `std::cout << "Problem here " << nHist << ":" << maxHist_ << std::endl;` `}` `// TDirectory d_output_file[nCut_][29];` `//output_file->cd();` `h_evtype = new TH1D("EvType", "Event Type", 100, 0, 100);` `int i(nCut_);` `sprintf(name, "h_Pt_Muon_%s", type[i].c_str());` `sprintf(title, "p_{T} of %s muons (GeV)", type[i].c_str());` `h_Pt_Muon = new TH1D(name, title, 100, 0, 200);` `sprintf(name, "h_Eta_Muon_%s", type[i].c_str());` `sprintf(title, "#eta of %s muons", type[i].c_str());` `h_Eta_Muon = new TH1D(name, title, 50, -2.5, 2.5);` `sprintf(name, "h_Phi_Muon_%s", type[i].c_str());` `sprintf(title, "#phi of %s muons", type[i].c_str());` `h_Phi_Muon = new TH1D(name, title, 100, -3.1415926, 3.1415926);` `sprintf(name, "h_P_Muon_%s", type[i].c_str());` `sprintf(title, "p of %s muons (GeV)", type[i].c_str());` `h_P_Muon = new TH1D(name, title, 100, 0, 200);` `sprintf(name, "h_PF_Muon_%s", type[i].c_str());` `sprintf(title, "PF %s muons (GeV)", type[i].c_str());` `h_PF_Muon = new TH1D(name, title, 2, 0, 2);` `sprintf(name, "h_Global_Muon_Chi2_%s", type[i].c_str());` `sprintf(title, "Chi2 Global %s muons (GeV)", type[i].c_str());` `h_GlobTrack_Chi = new TH1D(name, title, 15, 0, 15);` `sprintf(name, "h_Global_Muon_Hits_%s", type[i].c_str());` `sprintf(title, "Global Hits %s muons (GeV)", type[i].c_str());` `h_Global_Muon_Hits = new TH1D(name, title, 10, 0, 10);` `sprintf(name, "h_Matched_Stations_%s", type[i].c_str());` `sprintf(title, "Matched Stations %s muons (GeV)", type[i].c_str());` `h_MatchedStations = new TH1D(name, title, 10, 0, 10);` `sprintf(name, "h_Transverse_ImpactParameter_%s", type[i].c_str());` `sprintf(title, "Transverse_ImpactParameter of %s muons (GeV)", type[i].c_str());` `h_Tight_TransImpactparameter = new TH1D(name, title, 50, 0, 10);` `sprintf(name, "h_Longitudinal_ImpactParameter_%s", type[i].c_str());` `sprintf(title, "Longitudinal_ImpactParameter of %s muons (GeV)", type[i].c_str());` `h_Tight_LongitudinalImpactparameter = new TH1D(name, title, 20, 0, 10);` `sprintf(name, "h_InnerTrack_PixelHits_%s", type[i].c_str());` `sprintf(title, "InnerTrack_PixelHits of %s muons (GeV)", type[i].c_str());` `h_InnerTrackPixelHits = new TH1D(name, title, 20, 0, 20);` `sprintf(name, "h_TrackLayers_%s", type[i].c_str());` `sprintf(title, "No. of Tracker Layers of %s muons (GeV)", type[i].c_str());` `h_TrackerLayer = new TH1D(name, title, 20, 0, 20);` `sprintf(name, "h_IsolationR04_%s", type[i].c_str());` `sprintf(title, "IsolationR04 %s muons (GeV)", type[i].c_str());` `h_IsolationR04 = new TH1D(name, title, 45, 0, 5);` `sprintf(name, "h_Global_Muon_%s", type[i].c_str());` `sprintf(title, "Global %s muons (GeV)", type[i].c_str());` `h_Global_Muon = new TH1D(name, title, 2, 0, 2);` `sprintf(name, "h_TransImpactParameter_%s", type[i].c_str());` `sprintf(title, "TransImpactParameter of %s muons (GeV)", type[i].c_str());` `h_TransImpactParameter = new TH1D(name, title, 100, 0, 0.5);` `sprintf(name, "h_TransImpactParameterBin1_%s", type[i].c_str());` `sprintf(title, "TransImpactParameter of %s muons (GeV) in -1.5 <= #phi <= 0.5", type[i].c_str());` `h_TransImpactParameterBin1 = new TH1D(name, title, 100, 0, 0.5);` `sprintf(name, "h_TransImpactParameterBin2_%s", type[i].c_str());` `sprintf(title, "TransImpactParameter of %s muons (GeV) in #phi> 0.5 and #phi< -1.5 ", type[i].c_str());` `h_TransImpactParameterBin2 = new TH1D(name, title, 100, 0, 0.5);` `sprintf(name, "h_LongImpactParameter_%s", type[i].c_str());` `sprintf(title, "LongImpactParameter of %s muons (GeV)", type[i].c_str());` `h_LongImpactParameter = new TH1D(name, title, 100, 0, 30);` `sprintf(name, "h_LongImpactParameterBin1_%s", type[i].c_str());` `sprintf(title, "LongImpactParameter of %s muons (GeV) in -1.5 <= #phi <= 0.5", type[i].c_str());` `h_LongImpactParameterBin1 = new TH1D(name, title, 100, 0, 30);` `sprintf(name, "h_LongImpactParameterBin2_%s", type[i].c_str());` `sprintf(title, "LongImpactParameter of %s muons (GeV) in #phi> 0.5 and #phi< -1.5 ", type[i].c_str());` `h_LongImpactParameterBin2 = new TH1D(name, title, 100, 0, 30);` `sprintf(name, "h_2D_Bin1_%s", type[i].c_str());` `sprintf(title, "Trans/Long ImpactParameter of %s muons (GeV) in -1.5 <= #phi< 0.5 ", type[i].c_str());` `h_2D_Bin1 = new TH2D(name, title, 100, 0, 0.5, 100, 0, 30);` `sprintf(name, "h_2D_Bin2_%s", type[i].c_str());` `sprintf(title, "Trans/Long ImpactParameter of %s muons (GeV) in #phi> 0.5 and #phi< -1.5 ", type[i].c_str());` `h_2D_Bin2 = new TH2D(name, title, 100, 0, 0.5, 100, 0, 30);` `sprintf(name, "h_ecal_energy_%s", type[i].c_str());` `sprintf(title, "ECAL energy for %s muons", type[i].c_str());` `h_ecal_energy = new TH1D(name, title, 1000, -10.0, 90.0);` `sprintf(name, "h_hcal_energy_%s", type[i].c_str());` `sprintf(title, "HCAL energy for %s muons", type[i].c_str());` `h_hcal_energy = new TH1D(name, title, 500, -10.0, 90.0);` `sprintf(name, "h_3x3_ecal_%s", type[i].c_str());` `sprintf(title, "ECAL energy in 3x3 for %s muons", type[i].c_str());` `h_3x3_ecal = new TH1D(name, title, 1000, -10.0, 90.0);` `sprintf(name, "h_1x1_hcal_%s", type[i].c_str());` `sprintf(title, "HCAL energy in 1x1 for %s muons", type[i].c_str());` `h_1x1_hcal = new TH1D(name, title, 500, -10.0, 90.0);` `sprintf(name, "h_EtaX_hcal_%s", type[i].c_str());` `sprintf(title, "HCAL energy as a function of i#eta for %s muons", type[i].c_str());` `h_EtaX_hcal = new TProfile(name, title, 60, -30.0, 30.0);` `sprintf(name, "h_PhiY_hcal_%s", type[i].c_str());` `sprintf(title, "HCAL energy as a function of i#phi for %s muons", type[i].c_str());` `h_PhiY_hcal = new TProfile(name, title, 72, 0, 72);` `sprintf(name, "h_EtaX_ecal_%s", type[i].c_str());` `sprintf(title, "EB energy as a function of i#eta for %s muons", type[i].c_str());` `h_EtaX_ecal = new TProfile(name, title, 170, -85.0, 85.0);` `sprintf(name, "h_PhiY_ecal_%s", type[i].c_str());` `sprintf(title, "EB energy as a function of i#phi for %s muons", type[i].c_str());` `h_PhiY_ecal = new TProfile(name, title, 360, 0, 360);` `sprintf(name, "h_Eta_ecal_%s", type[i].c_str());` `sprintf(title, "ECAL energy as a function of #eta for %s muons", type[i].c_str());` `h_Eta_ecal = new TProfile(name, title, 100, -2.5, 2.5);` `sprintf(name, "h_Phi_ecal_%s", type[i].c_str());` `sprintf(title, "ECAL energy as a function of #phi for %s muons", type[i].c_str());` `h_Phi_ecal = new TProfile(name, title, 100, -3.1415926, 3.1415926);` `sprintf(name, "h_MuonHittingEcal_%s", type[i].c_str());` `sprintf(title, "%s muons hitting ECAL", type[i].c_str());` `h_MuonHittingEcal = new TH1D(name, title, 100, 0, 5.0);` `sprintf(name, "h_HotCell_%s", type[i].c_str());` `sprintf(title, "Hot cell for %s muons", type[i].c_str());` `h_HotCell = new TH1D(name, title, 100, 0, 2);` `// output_file->cd();` `for (int eta = etaMin_; eta <= etaMax_; ++eta) {` `int nDepth = nDepthBins(eta, -1);` `int nPhi = nPhiBins(eta);` `//sprintf(name, "Dir_muon_type_%s_ieta%d",type[i].c_str(), eta);` `//d_output_file[i][eta]= output_file->mkdir(name);` `//output_file->cd(name);` `//d_output_file[i][eta]->cd();` `for (int depth = 0; depth < nDepth; ++depth) {` `for (int PHI = 0; PHI < nPhi; ++PHI) {` `int PHI0 = (nPhi == 72) ? PHI + 1 : 2 PHI + 1;` `int ih = indxEta[eta - 1][depth][PHI];` `if (debug_)` `std::cout << "eta:" << eta << " depth:" << depth << " PHI:" << PHI << ":" << PHI0 << " ih:" << ih` `<< std::endl;` `sprintf(name, "h_Hot_MuonEnergy_hc_%d_%d_%d_%s_HotCell", eta, (depth + 1), PHI0, type[i].c_str());` `sprintf(title,` `"HCAL energy in hot tower (i#eta=%d, depth=%d, i#phi = %d) for extrapolated %s muons (Hot Cell)",` `eta,` `(depth + 1),` `PHI0,` `type[i].c_str());` `h_Hot_MuonEnergy_hcal_HotCell[ih] = new TH1D(name, title, 4000, 0.0, 10.0);` `h_Hot_MuonEnergy_hcal_HotCell[ih]->Sumw2();` `sprintf(` `name, "h_Hot_MuonEnergy_hc_%d_%d_%d_%s_HotCell_ByActiveLength", eta, (depth + 1), PHI0, type[i].c_str());` `sprintf(title,` `"HCAL energy in hot tower (i#eta=%d, depth=%d, i#phi = %d) for extrapolated %s muons (Hot Cell) "` `"divided by Active Length",` `eta,` `(depth + 1),` `PHI0,` `type[i].c_str());` `h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ih] = new TH1D(name, title, 4000, 0.0, 10.0);` `h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ih]->Sumw2();` `sprintf(name, "h_active_length_Fill_%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());` `sprintf(title, "active_length%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());` `h_active_length_Fill[ih] = new TH1D(name, title, 20, 0, 20);` `h_active_length_Fill[ih]->Sumw2();` `sprintf(name, "h_p_muon_in_%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());` `sprintf(title, "p_muon_in%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());` `h_p_muon_ineta[ih] = new TH1D(name, title, 500, 0, 500);` `h_p_muon_ineta[ih]->Sumw2();` `sprintf(name, "h_charge_signal_in_%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());` `sprintf(name, "charge_signal_in_%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());` `h_charge_signal[ih] = new TH1D(name, title, 500, 0, 500);` `h_charge_signal[ih]->Sumw2();` `sprintf(name, "h_charge_bg_in_%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());` `sprintf(name, "charge_bg_in_%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());` `h_charge_bg[ih] = new TH1D(name, title, 500, 0, 500);` `h_charge_bg[ih]->Sumw2();` `ih++;` `sprintf(name, "h_Hot_MuonEnergy_hc_%d_%d_%d_%s_HotCell", -eta, (depth + 1), PHI0, type[i].c_str());` `sprintf(title,` `"HCAL energy in hot tower (i#eta=%d, depth=%d, i#phi = %d) for extrapolated %s muons (Hot Cell)",` `-eta,` `(depth + 1),` `PHI0,` `type[i].c_str());` `h_Hot_MuonEnergy_hcal_HotCell[ih] = new TH1D(name, title, 4000, 0.0, 10.0);` `h_Hot_MuonEnergy_hcal_HotCell[ih]->Sumw2();` `sprintf(` `name, "h_Hot_MuonEnergy_hc_%d_%d_%d_%s_HotCell_ByActiveLength", -eta, (depth + 1), PHI0, type[i].c_str());` `sprintf(title,` `"HCAL energy in hot tower (i#eta=%d, depth=%d, i#phi=%d) for extrapolated %s muons (Hot Cell) "` `"divided by Active Length",` `-eta,` `(depth + 1),` `PHI0,` `type[i].c_str());` `h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ih] = new TH1D(name, title, 4000, 0.0, 10.0);` `h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ih]->Sumw2();` `sprintf(name, "h_active_length_Fill_%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());` `sprintf(title, "active_length%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());` `h_active_length_Fill[ih] = new TH1D(name, title, 20, 0, 20);` `h_active_length_Fill[ih]->Sumw2();` `sprintf(name, "h_p_muon_in_%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());` `sprintf(title, "p_muon_in%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());` `h_p_muon_ineta[ih] = new TH1D(name, title, 500, 0, 500);` `h_p_muon_ineta[ih]->Sumw2();` `sprintf(name, "h_charge_signal_in_%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());` `sprintf(name, "charge_signal_in_%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());` `h_charge_signal[ih] = new TH1D(name, title, 500, 0, 500);` `h_charge_signal[ih]->Sumw2();` `sprintf(name, "h_charge_bg_in_%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());` `sprintf(name, "charge_bg_in_%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());` `h_charge_bg[ih] = new TH1D(name, title, 500, 0, 500);` `h_charge_bg[ih]->Sumw2();` `}` `}` `//output_file->cd();` `}` `//output_file->cd();` `}` `bool HBHEMuonOfflineAnalyzer::getEnergy(` `int dep, double &enb, double &enu, double &enh, double &enc, double &chgS, double &chgB, double &actL) {` `double cfac(1.0);` `bool flag(true);` `if (cFactor_) {` `int ieta = hcal_ieta;` `int iphi = hcal_iphi;` `unsigned int detId = getDetIdHBHE(ieta, iphi, dep + 1);` `cfac = getCorr(Run_No, detId);` `}` `if (dep == 0) {` `enb = cfac * hcal_edepth1;` `enu = cfac * hcal_edepthCorrect1;` `enh = cfac * hcal_edepthHot1;` `enc = cfac * hcal_edepthHotCorrect1;` `chgS = hcal_cdepthHot1;` `actL = hcal_activeHotL1;` `chgB = hcal_cdepthHotBG1;` `} else if (dep == 1) {` `enb = cfac * hcal_edepth2;` `enu = cfac * hcal_edepthCorrect2;` `enh = cfac * hcal_edepthHot2;` `enc = cfac * hcal_edepthHotCorrect2;` `chgS = hcal_cdepthHot2;` `actL = hcal_activeHotL2;` `chgB = hcal_cdepthHotBG2;` `} else if (dep == 2) {` `enb = cfac * hcal_edepth3;` `enu = cfac * hcal_edepthCorrect3;` `enh = cfac * hcal_edepthHot3;` `enc = cfac * hcal_edepthHotCorrect3;` `chgS = hcal_cdepthHot3;` `actL = hcal_activeHotL3;` `chgB = hcal_cdepthHotBG3;` `} else if (dep == 3) {` `enb = cfac * hcal_edepth4;` `enu = cfac * hcal_edepthCorrect4;` `enh = cfac * hcal_edepthHot4;` `enc = cfac * hcal_edepthHotCorrect4;` `chgS = hcal_cdepthHot4;` `actL = hcal_activeHotL4;` `chgB = hcal_cdepthHotBG4;` `} else if (dep == 4) {` `enb = cfac * hcal_edepth5;` `enu = cfac * hcal_edepthCorrect5;` `enh = cfac * hcal_edepthHot5;` `enc = cfac * hcal_edepthHotCorrect5;` `chgS = hcal_cdepthHot5;` `actL = hcal_activeHotL5;` `chgB = hcal_cdepthHotBG5;` `} else if (dep == 5) {` `if (dep <= maxDepth_) {` `enb = cfac * hcal_edepth6;` `enu = cfac * hcal_edepthCorrect6;` `enh = cfac * hcal_edepthHot6;` `enc = cfac * hcal_edepthHotCorrect6;` `chgS = hcal_cdepthHot6;` `actL = hcal_activeHotL6;` `chgB = hcal_cdepthHotBG6;` `} else {` `enb = enu = enh = enc = chgS = actL = chgB = 0;` `flag = false;` `}` `} else if (dep == 6) {` `if (dep <= maxDepth_) {` `enb = cfac * hcal_edepth7;` `enu = cfac * hcal_edepthCorrect7;` `enh = cfac * hcal_edepthHot7;` `enc = cfac * hcal_edepthHotCorrect7;` `chgS = hcal_cdepthHot7;` `actL = hcal_activeHotL7;` `chgB = hcal_cdepthHotBG7;` `} else {` `enb = enu = enh = enc = chgS = actL = chgB = 0;` `flag = false;` `}` `} else {` `enb = enu = enh = enc = chgS = actL = chgB = 0;` `flag = false;` `}` `return flag;` `}` `bool HBHEMuonOfflineAnalyzer::looseMuon() {` `if (pt_of_muon > 20.) {` `if (mediumMuon2016()) {` `if (IsolationR04 < 0.25) {` `return true;` `}` `}` `}` `return false;` `}` `bool HBHEMuonOfflineAnalyzer::softMuon() {` `if (pt_of_muon > 20.) {` `if (mediumMuon2016()) {` `if (IsolationR03 < 0.10) {` `return true;` `}` `}` `}` `return false;` `}` `bool HBHEMuonOfflineAnalyzer::tightMuon() {` `if (pt_of_muon > 20.) {` `if (mediumMuon2016()) {` `if (IsolationR04 < 0.15) {` `return true;` `}` `}` `}` `return false;` `}` `bool HBHEMuonOfflineAnalyzer::mediumMuon2016() {` `bool medium16 = (((PF_Muon) && (Global_Muon \|\| Tracker_muon)) && (tight_validFraction > 0.49));` `if (!medium16)` `return medium16;` `bool goodGlob = (Global_Muon && GlobTrack_Chi < 3 && muon_chi2LocalPosition < 12 && muon_trkKink < 20);` `medium16 = muon_segComp > (goodGlob ? 0.303 : 0.451);` `return medium16;` `}` `void HBHEMuonOfflineAnalyzer::etaPhiHcal(unsigned int detId, int &eta, int &phi, int &depth) {` `int zside, etaAbs;` `if ((detId & 0x1000000) == 0) {` `zside = (detId & 0x2000) ? (1) : (-1);` `etaAbs = (detId >> 7) & 0x3F;` `phi = detId & 0x7F;` `depth = (detId >> 14) & 0x1F;` `} else {` `zside = (detId & 0x80000) ? (1) : (-1);` `etaAbs = (detId >> 10) & 0x1FF;` `phi = detId & 0x3FF;` `depth = (detId >> 20) & 0xF;` `}` `eta = etaAbs * zside;` `}` `void HBHEMuonOfflineAnalyzer::etaPhiEcal(` `unsigned int detId, int &type, int &zside, int &etaX, int &phiY, int &plane, int &strip) {` `type = ((detId >> 25) & 0x7);` `// std::cout<<"type"<<type<<std::endl;` `plane = strip = 0;` `if (type == 1) {` `//Ecal Barrel` `zside = (detId & 0x10000) ? (1) : (-1);` `etaX = (detId >> 9) & 0x7F;` `phiY = detId & 0x1FF;` `} else if (type == 2) {` `zside = (detId & 0x4000) ? (1) : (-1);` `etaX = (detId >> 7) & 0x7F;` `phiY = (detId & 0x7F);` `} else if (type == 3) {` `zside = (detId & 0x80000) ? (1) : (-1);` `etaX = (detId >> 6) & 0x3F;` `/** get the sensor iy /` `phiY = (detId >> 12) & 0x3F;` `/* get the strip /` `plane = ((detId >> 18) & 0x1) + 1;` `strip = detId & 0x3F;` `} else {` `zside = etaX = phiY = 0;` `}` `}` `void HBHEMuonOfflineAnalyzer::calculateP(double pt, double eta, double &pM) {` `pM = (pt cos(2 * (1 / atan(exp(eta)))));` `}` `void HBHEMuonOfflineAnalyzer::close() {` `output_file->cd();` `std::cout << "file yet to be Written" << std::endl;` `outtree_->Write();` `writeHistograms();` `std::cout << "file Written" << std::endl;` `output_file->Close();` `std::cout << "now doing return" << std::endl;` `}` `void HBHEMuonOfflineAnalyzer::writeHistograms() {` `//output_file->cd();` `std::string type[] = {"tight", "soft", "loose"};` `char name[128];` `std::cout << "WriteHistograms" << std::endl;` `nHist = 0;` `for (int eta = etaMin_; eta <= etaMax_; ++eta) {` `int nDepth = nDepthBins(eta, -1);` `int nPhi = nPhiBins(eta);` `if (debug_)` `std::cout << "Eta:" << eta << " nDepths " << nDepth << " nPhis " << nPhi << std::endl;` `for (int depth = 0; depth < nDepth; ++depth) {` `if (debug_)` `std::cout << "Eta:" << eta << "Depth:" << depth << std::endl;` `for (int PHI = 0; PHI < nPhi; ++PHI) {` `indxEta[eta - 1][depth][PHI] = nHist;` `nHist += 2;` `}` `}` `}` `TDirectory d_output_file[29];` `h_evtype->Write();` `//output_file->cd();` `int i(nCut_);` `h_Pt_Muon->Write();` `h_Eta_Muon->Write();` `h_Phi_Muon->Write();` `h_P_Muon->Write();` `h_PF_Muon->Write();` `h_GlobTrack_Chi->Write();` `h_Global_Muon_Hits->Write();` `h_MatchedStations->Write();` `h_Tight_TransImpactparameter->Write();` `h_Tight_LongitudinalImpactparameter->Write();` `h_InnerTrackPixelHits->Write();` `h_TrackerLayer->Write();` `h_IsolationR04->Write();` `h_Global_Muon->Write();` `h_TransImpactParameter->Write();` `h_TransImpactParameterBin1->Write();` `h_TransImpactParameterBin2->Write();` `h_LongImpactParameter->Write();` `h_LongImpactParameterBin1->Write();` `h_LongImpactParameterBin2->Write();` `h_ecal_energy->Write();` `h_hcal_energy->Write();` `h_3x3_ecal->Write();` `h_1x1_hcal->Write();` `h_EtaX_hcal->Write();` `h_PhiY_hcal->Write();` `h_EtaX_ecal->Write();` `h_PhiY_ecal->Write();` `h_Eta_ecal->Write();` `h_Phi_ecal->Write();` `h_MuonHittingEcal->Write();` `h_HotCell->Write();` `output_file->cd();` `for (int eta = etaMin_; eta <= etaMax_; ++eta) {` `int nDepth = nDepthBins(eta, -1);` `int nPhi = nPhiBins(eta);` `sprintf(name, "Dir_muon_type_%s_ieta%d", type[i].c_str(), eta);` `d_output_file[eta - 1] = output_file->mkdir(name);` `//output_file->cd(name);` `d_output_file[eta - 1]->cd();` `for (int depth = 0; depth < nDepth; ++depth) {` `for (int PHI = 0; PHI < nPhi; ++PHI) {` `// std::cout<<"eta:"<<eta<<"depth:"<<depth<<"PHI:"<<PHI<<std::endl;` `int ih = indxEta[eta - 1][depth][PHI];` `// std::cout<<"ih:"<<ih<<std::endl;` `h_Hot_MuonEnergy_hcal_HotCell[ih]->Write();` `h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ih]->Write();` `h_active_length_Fill[ih]->Write();` `h_p_muon_ineta[ih]->Write();` `h_charge_signal[ih]->Write();` `h_charge_bg[ih]->Write();` `ih++;` `h_Hot_MuonEnergy_hcal_HotCell[ih]->Write();` `h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ih]->Write();` `h_active_length_Fill[ih]->Write();` `h_p_muon_ineta[ih]->Write();` `h_charge_signal[ih]->Write();` `h_charge_bg[ih]->Write();` `}` `}` `output_file->cd();` `}` `output_file->cd();` `}` `int HBHEMuonOfflineAnalyzer::nDepthBins(int eta, int phi) {` `// Run 1 scenario` `int nDepthR1[29] = {1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 2, 3, 1, 2, 2, 2, 2, 2, 2, 2, 2, 2, 3, 3, 2};` `// Run 2 scenario from 2018` `int nDepthR2[29] = {1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 2, 4, 3, 5, 6, 6, 6, 6, 6, 6, 6, 7, 7, 7, 3};` `// Run 3 scenario` `int nDepthR3[29] = {4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 3, 5, 6, 6, 6, 6, 6, 6, 6, 7, 7, 7, 3};` `// Run 4 scenario` `int nDepthR4[29] = {4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 7, 7, 7, 7, 7, 7, 7, 7, 7, 7, 7, 7, 7};` `// for a test scenario with multi depth segmentation considered during Run 1` `// int nDepth[29]={3,3,3,3,3,3,3,3,3,3,3,3,3,3,3,3,5,5,5,5,5,5,5,5,5,5,5,5,5};` `// modeLHC_ = 0 --> nbin defined maxDepthHB/HE` `// = 1 --> corresponds to Run 1 (valid till 2016)` `// = 2 --> corresponds to Run 2 (2018 geometry)` `// = 3 --> corresponds to Run 3 (post LS2)` `// = 4 --> corresponds to 2017 (Plan 1)` `// = 5 --> corresponds to Run 4 (post LS3)` `int nbin(0);` `if (modeLHC_ == 0) {` `if (eta <= 15) {` `nbin = maxDepthHB_;` `} else if (eta == 16) {` `nbin = 4;` `} else {` `nbin = maxDepthHE_;` `}` `} else if (modeLHC_ == 1) {` `nbin = nDepthR1[eta - 1];` `} else if (modeLHC_ == 2) {` `nbin = nDepthR2[eta - 1];` `} else if (modeLHC_ == 3) {` `nbin = nDepthR3[eta - 1];` `} else if (modeLHC_ == 4) {` `if (phi > 0) {` `if (eta >= 16 && phi >= 63 && phi <= 66) {` `nbin = nDepthR2[eta - 1];` `} else {` `nbin = nDepthR1[eta - 1];` `}` `} else {` `if (eta >= 16) {` `nbin = (nDepthR2[eta - 1] > nDepthR1[eta - 1]) ? nDepthR2[eta - 1] : nDepthR1[eta - 1];` `} else {` `nbin = nDepthR1[eta - 1];` `}` `}` `} else {` `if (eta > 0 && eta < 30) {` `nbin = nDepthR4[eta - 1];` `} else {` `nbin = nDepthR4[28];` `}` `}` `return nbin;` `}` `int HBHEMuonOfflineAnalyzer::nPhiBins(int eta) {` `int nphi = (eta <= 20) ? 72 : 36;` `if (modeLHC_ == 5 && eta > 16)` `nphi = 360;` `return nphi;` `}` `float HBHEMuonOfflineAnalyzer::getCorr(int run, unsigned int id) {` `float cfac(1.0);` `int ip(-1);` `for (unsigned int k = 0; k < runlow_.size(); ++k) {` `unsigned int i = runlow_.size() - k - 1;` `if (run >= runlow_[i]) {` `ip = (int)(i);` `break;` `}` `}` `if (debug_) {` `std::cout << "Run " << run << " Perdiod " << ip << std::endl;` `}` `unsigned idx = correctDetId(id);` `if (ip >= 0) {` `std::map<unsigned int, float>::iterator itr = corrFac_[ip].find(idx);` `if (itr != corrFac_[ip].end())` `cfac = itr->second;` `}` `if (debug_) {` `int subdet, zside, ieta, iphi, depth;` `unpackDetId(idx, subdet, zside, ieta, iphi, depth);` `std::cout << "ID " << std::hex << id << std::dec << " (Sub " << subdet << " eta " << zside ieta << " phi " << iphi` `<< " depth " << depth << ") Factor " << cfac << std::endl;` `}` `return cfac;` `}` `std::vector<std::string> HBHEMuonOfflineAnalyzer::splitString(const std::string &fLine) {` `std::vector<std::string> result;` `int start = 0;` `bool empty = true;` `for (unsigned i = 0; i <= fLine.size(); i++) {` `if (fLine[i] == ' ' \|\| i == fLine.size()) {` `if (!empty) {` `std::string item(fLine, start, i - start);` `result.push_back(item);` `empty = true;` `}` `start = i + 1;` `} else {` `if (empty)` `empty = false;` `}` `}` `return result;` `}` `unsigned int HBHEMuonOfflineAnalyzer::getDetIdHBHE(int ieta, int iphi, int depth) {` `int eta = std::abs(ieta);` `int subdet(0);` `if (eta > 16)` `subdet = 2;` `else if (eta == 16 && depth > 2)` `subdet = 2;` `else` `subdet = 1;` `return getDetId(subdet, ieta, iphi, depth);` `}` `unsigned int HBHEMuonOfflineAnalyzer::getDetId(int subdet, int ieta, int iphi, int depth) {` `// All numbers used here are described as masks/offsets in` `// DataFormats/HcalDetId/interface/HcalDetId.h` `unsigned int id = ((4 << 28) \| ((subdet & 0x7) << 25));` `id \|= ((0x1000000) \| ((depth & 0xF) << 20) \| ((ieta > 0) ? (0x80000 \| (ieta << 10)) : ((-ieta) << 10)) \|` `(iphi & 0x3FF));` `return id;` `}` `unsigned int HBHEMuonOfflineAnalyzer::correctDetId(const unsigned int &detId) {` `int subdet, ieta, zside, depth, iphi;` `unpackDetId(detId, subdet, zside, ieta, iphi, depth);` `if (subdet == 0) {` `if (ieta > 16)` `subdet = 2;` `else if (ieta == 16 && depth > 2)` `subdet = 2;` `else` `subdet = 1;` `}` `unsigned int id = getDetId(subdet, ieta * zside, iphi, depth);` `if ((id != detId) && debug_) {` `std::cout << "Correct Id " << std::hex << detId << " to " << id << std::dec << "(Sub " << subdet << " eta "` `<< ieta * zside << " phi " << iphi << " depth " << depth << ")" << std::endl;` `}` `return id;` `}` `void HBHEMuonOfflineAnalyzer::unpackDetId(` `unsigned int detId, int &subdet, int &zside, int &ieta, int &iphi, int &depth) {` `// The maskings are defined in DataFormats/DetId/interface/DetId.h` `// and in DataFormats/HcalDetId/interface/HcalDetId.h` `// The macro does not invoke the classes there and use them` `subdet = ((detId >> 25) & (0x7));` `if ((detId & 0x1000000) == 0) {` `ieta = ((detId >> 7) & 0x3F);` `zside = (detId & 0x2000) ? (1) : (-1);` `depth = ((detId >> 14) & 0x1F);` `iphi = (detId & 0x3F);` `} else {` `ieta = ((detId >> 10) & 0x1FF);` `zside = (detId & 0x80000) ? (1) : (-1);` `depth = ((detId >> 20) & 0xF);` `iphi = (detId & 0x3FF);` `}` `}`

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///////////////////////////////////////////////////////////////////////////////
//
//  HBHEMuonOfflineAnalyzer h1(tree, outfile, rcorFile, flag, mode, maxDHB,
//                             maxDHE, cutMu, cutP, nevMax, over, runLo,
//                             runHi, etaMin, etaMax, debug);
//  HBHEMuonOfflineAnalyzer h1(infile, outfile, rcorFile, flag, mode, maxDHB,
//                             maxDHE, cutMu, cutP, nevMax, over, runLo,
//                             runHi, etaMin, etaMax, debug);
//   h1.Loop()
//
//   tree       TTree*       Pointer to the tree chain
//   infile     const char*  Name of the input file
//   outfile    const char*  Name of the output file
//                           (dyll_PU20_25_output_10.root)
//   rcorFile   consr char*  name of the text file having the correction factors
//                           as a function of run numbers to be used for raddam
//                           correction (default="", no corr.)
//   flag       int          Flag of 2 digits ("to"): to where "o" decides if
//                           corrected (1) or default (0) energy to be used;
//                           "t" decides if all depths to be merged (1) or not
//                           (0) (default is 0)
//   mode       int          Geometry file used 0:(defined by maxDHB/HE);
//                           1 (Run 1; valid till 2016); 2 (Run 2; 2018);
//                           3 (Run 3; post LS2); 4 (2017 Plan 1);
//                           5 (Run 4; post LS3); default (3)
//   maxDHB     int          Maximum number of depths for HB (4)
//   maxDHE     int          Maximum number of depths for HE (7)
//   cutMu      int          Selection of muon type:
//                           (tight:0; medium:1; loose:2) default (0)
//   cutP       float        Minimum muon momentum; default (10)
//   nevMax     int          Maximum # oe entries to be processed; -1 means
//                           all entries (-1)
//   over       int          Override some of the selection
//                           (0: not to override; 1: override) default (0)
//   runLO      int          Minimum run number (1)
//   runHI      int          Maximum run number (99999999)
//   etaMin     int          Minimum (absolute) eta value (1)
//   etaMax     int          Maximum (absolute) eta value (29)
//
///////////////////////////////////////////////////////////////////////////////

#include <algorithm>
#include <cmath>
#include <fstream>
#include <iostream>
#include <sstream>
#include <vector>
#include <string>
#include <TCanvas.h>
#include <TChain.h>
#include <TFile.h>
#include <TH1.h>
#include <TH1D.h>
#include <TH2.h>
#include <TH2D.h>
#include <TProfile.h>
#include <TROOT.h>
#include <TStyle.h>
#include <TString.h>
#include <TTree.h>

class HBHEMuonOfflineAnalyzer {
public:
  TChain *fChain;  //!pointer to the analyzed TTree/TChain
  Int_t fCurrent;  //!current Tree number in a TChain

  // Fixed size dimensions of array or collections stored in the TTree if any.
  // Declaration of leaf types

  UInt_t Event_No;
  UInt_t Run_No;
  UInt_t LumiNumber;
  UInt_t BXNumber;
  UInt_t GoodVertex;
  bool PF_Muon;
  bool Global_Muon;
  bool Tracker_muon;
  bool MuonIsTight;
  bool MuonIsMedium;
  double pt_of_muon;
  double eta_of_muon;
  double phi_of_muon;
  double energy_of_muon;
  double p_of_muon;
  float muon_trkKink;
  float muon_chi2LocalPosition;
  float muon_segComp;
  int TrackerLayer;
  int NumPixelLayers;
  int InnerTrackPixelHits;
  bool innerTrack;
  double chiTracker;
  double DxyTracker;
  double DzTracker;
  double innerTrackpt;
  double innerTracketa;
  double innerTrackphi;
  double tight_validFraction;
  bool OuterTrack;
  double OuterTrackPt;
  double OuterTrackEta;
  double OuterTrackPhi;
  double OuterTrackChi;
  int OuterTrackHits;
  int OuterTrackRHits;
  bool GlobalTrack;
  double GlobalTrckPt;
  double GlobalTrckEta;
  double GlobalTrckPhi;
  int Global_Muon_Hits;
  int MatchedStations;
  double GlobTrack_Chi;
  double Tight_LongitudinalImpactparameter;
  double Tight_TransImpactparameter;
  double IsolationR04;
  double IsolationR03;
  double ecal_3into3;
  double hcal_3into3;
  double tracker_3into3;
  bool matchedId;
  bool hcal_cellHot;
  double ecal_3x3;
  double hcal_1x1;
  unsigned int ecal_detID;
  unsigned int hcal_detID;
  unsigned int ehcal_detID;
  int hcal_ieta;
  int hcal_iphi;
  double hcal_edepth1;
  double hcal_activeL1;
  double hcal_edepthHot1;
  double hcal_activeHotL1;
  double hcal_edepthCorrect1;
  double hcal_edepthHotCorrect1;
  double hcal_cdepthHot1;
  double hcal_cdepthHotBG1;
  bool hcal_depthMatch1;
  bool hcal_depthMatchHot1;
  double hcal_edepth2;
  double hcal_activeL2;
  double hcal_edepthHot2;
  double hcal_activeHotL2;
  double hcal_edepthCorrect2;
  double hcal_edepthHotCorrect2;
  double hcal_cdepthHot2;
  double hcal_cdepthHotBG2;
  bool hcal_depthMatch2;
  bool hcal_depthMatchHot2;
  double hcal_edepth3;
  double hcal_activeL3;
  double hcal_edepthHot3;
  double hcal_activeHotL3;
  double hcal_edepthCorrect3;
  double hcal_edepthHotCorrect3;
  double hcal_cdepthHot3;
  double hcal_cdepthHotBG3;
  bool hcal_depthMatch3;
  bool hcal_depthMatchHot3;
  double hcal_edepth4;
  double hcal_activeL4;
  double hcal_edepthHot4;
  double hcal_activeHotL4;
  double hcal_edepthCorrect4;
  double hcal_edepthHotCorrect4;
  double hcal_cdepthHot4;
  double hcal_cdepthHotBG4;
  bool hcal_depthMatch4;
  bool hcal_depthMatchHot4;
  double hcal_edepth5;
  double hcal_activeL5;
  double hcal_edepthHot5;
  double hcal_activeHotL5;
  double hcal_edepthCorrect5;
  double hcal_edepthHotCorrect5;
  double hcal_cdepthHot5;
  double hcal_cdepthHotBG5;
  bool hcal_depthMatch5;
  bool hcal_depthMatchHot5;
  double hcal_edepth6;
  double hcal_activeL6;
  double hcal_edepthHot6;
  double hcal_activeHotL6;
  double hcal_edepthCorrect6;
  double hcal_edepthHotCorrect6;
  double hcal_cdepthHot6;
  double hcal_cdepthHotBG6;
  bool hcal_depthMatch6;
  bool hcal_depthMatchHot6;
  double hcal_edepth7;
  double hcal_activeL7;
  double hcal_edepthHot7;
  double hcal_activeHotL7;
  double hcal_edepthCorrect7;
  double hcal_edepthHotCorrect7;
  double hcal_cdepthHot7;
  double hcal_cdepthHotBG7;
  bool hcal_depthMatch7;
  bool hcal_depthMatchHot7;
  double activeLength;
  double activeLengthHot;
  std::vector<int> *hltresults;
  std::vector<std::string> *all_triggers;

  // List of branches
  TBranch *b_Event_No;                           //!
  TBranch *b_Run_No;                             //!
  TBranch *b_LumiNumber;                         //!
  TBranch *b_BXNumber;                           //!
  TBranch *b_GoodVertex;                         //!
  TBranch *b_PF_Muon;                            //!
  TBranch *b_Global_Muon;                        //!
  TBranch *b_Tracker_muon;                       //!
  TBranch *b_MuonIsTight;                        //!
  TBranch *b_MuonIsMedium;                       //!
  TBranch *b_pt_of_muon;                         //!
  TBranch *b_eta_of_muon;                        //!
  TBranch *b_phi_of_muon;                        //!
  TBranch *b_energy_of_muon;                     //!
  TBranch *b_p_of_muon;                          //!
  TBranch *b_muon_trkKink;                       //!
  TBranch *b_muon_chi2LocalPosition;             //!
  TBranch *b_muon_segComp;                       //!
  TBranch *b_TrackerLayer;                       //!
  TBranch *b_NumPixelLayers;                     //!
  TBranch *b_InnerTrackPixelHits;                //!
  TBranch *b_innerTrack;                         //!
  TBranch *b_chiTracker;                         //!
  TBranch *b_DxyTracker;                         //!
  TBranch *b_DzTracker;                          //!
  TBranch *b_innerTrackpt;                       //!
  TBranch *b_innerTracketa;                      //!
  TBranch *b_innerTrackphi;                      //!
  TBranch *b_tight_validFraction;                //!
  TBranch *b_OuterTrack;                         //!
  TBranch *b_OuterTrackPt;                       //!
  TBranch *b_OuterTrackEta;                      //!
  TBranch *b_OuterTrackPhi;                      //!
  TBranch *b_OuterTrackChi;                      //!
  TBranch *b_OuterTrackHits;                     //!
  TBranch *b_OuterTrackRHits;                    //!
  TBranch *b_GlobalTrack;                        //!
  TBranch *b_GlobalTrckPt;                       //!
  TBranch *b_GlobalTrckEta;                      //!
  TBranch *b_GlobalTrckPhi;                      //!
  TBranch *b_Global_Muon_Hits;                   //!
  TBranch *b_MatchedStations;                    //!
  TBranch *b_GlobTrack_Chi;                      //!
  TBranch *b_Tight_LongitudinalImpactparameter;  //!
  TBranch *b_Tight_TransImpactparameter;         //!
  TBranch *b_IsolationR04;                       //!
  TBranch *b_IsolationR03;                       //!
  TBranch *b_ecal_3into3;                        //!
  TBranch *b_hcal_3into3;                        //!
  TBranch *b_tracker_3into3;                     //!
  TBranch *b_matchedId;                          //!
  TBranch *b_hcal_cellHot;                       //!
  TBranch *b_ecal_3x3;                           //!
  TBranch *b_hcal_1x1;                           //!
  TBranch *b_hcal_detID;                         //!
  TBranch *b_ecal_detID;                         //!
  TBranch *b_ehcal_detID;                        //!
  TBranch *b_hcal_ieta;                          //!
  TBranch *b_hcal_iphi;                          //!
  TBranch *b_hcal_edepth1;                       //!
  TBranch *b_hcal_activeL1;                      //!
  TBranch *b_hcal_edepthHot1;                    //!
  TBranch *b_hcal_activeHotL1;                   //!
  TBranch *b_hcal_edepthCorrect1;                //!
  TBranch *b_hcal_edepthHotCorrect1;             //!
  TBranch *b_hcal_cdepthHot1;                    //!
  TBranch *b_hcal_cdepthHotBG1;                  //!
  TBranch *b_hcal_depthMatch1;                   //!
  TBranch *b_hcal_depthMatchHot1;                //!
  TBranch *b_hcal_edepth2;                       //!
  TBranch *b_hcal_activeL2;                      //!
  TBranch *b_hcal_edepthHot2;                    //!
  TBranch *b_hcal_activeHotL2;                   //!
  TBranch *b_hcal_edepthCorrect2;                //!
  TBranch *b_hcal_edepthHotCorrect2;             //!
  TBranch *b_hcal_cdepthHot2;                    //!
  TBranch *b_hcal_cdepthHotBG2;                  //!
  TBranch *b_hcal_depthMatch2;                   //!
  TBranch *b_hcal_depthMatchHot2;                //!
  TBranch *b_hcal_edepth3;                       //!
  TBranch *b_hcal_activeL3;                      //!
  TBranch *b_hcal_edepthHot3;                    //!
  TBranch *b_hcal_activeHotL3;                   //!
  TBranch *b_hcal_edepthCorrect3;                //!
  TBranch *b_hcal_edepthHotCorrect3;             //!
  TBranch *b_hcal_cdepthHot3;                    //!
  TBranch *b_hcal_cdepthHotBG3;                  //!
  TBranch *b_hcal_depthMatch3;                   //!
  TBranch *b_hcal_depthMatchHot3;                //!
  TBranch *b_hcal_edepth4;                       //!
  TBranch *b_hcal_activeL4;                      //!
  TBranch *b_hcal_edepthHot4;                    //!
  TBranch *b_hcal_activeHotL4;                   //!
  TBranch *b_hcal_edepthCorrect4;                //!
  TBranch *b_hcal_edepthHotCorrect4;             //!
  TBranch *b_hcal_cdepthHot4;                    //!
  TBranch *b_hcal_cdepthHotBG4;                  //!
  TBranch *b_hcal_depthMatch4;                   //!
  TBranch *b_hcal_depthMatchHot4;                //!
  TBranch *b_hcal_edepth5;                       //!
  TBranch *b_hcal_activeL5;                      //!
  TBranch *b_hcal_edepthHot5;                    //!
  TBranch *b_hcal_activeHotL5;                   //!
  TBranch *b_hcal_edepthCorrect5;                //!
  TBranch *b_hcal_edepthHotCorrect5;             //!
  TBranch *b_hcal_cdepthHot5;                    //!
  TBranch *b_hcal_cdepthHotBG5;                  //!
  TBranch *b_hcal_depthMatch5;                   //!
  TBranch *b_hcal_depthMatchHot5;                //!
  TBranch *b_hcal_edepth6;                       //!
  TBranch *b_hcal_activeL6;                      //!
  TBranch *b_hcal_edepthHot6;                    //!
  TBranch *b_hcal_activeHotL6;                   //!
  TBranch *b_hcal_edepthCorrect6;                //!
  TBranch *b_hcal_edepthHotCorrect6;             //!
  TBranch *b_hcal_cdepthHot6;                    //!
  TBranch *b_hcal_cdepthHotBG6;                  //!
  TBranch *b_hcal_depthMatch6;                   //!
  TBranch *b_hcal_depthMatchHot6;                //!
  TBranch *b_hcal_edepth7;                       //!
  TBranch *b_hcal_activeL7;                      //!
  TBranch *b_hcal_edepthHot7;                    //!
  TBranch *b_hcal_activeHotL7;                   //!
  TBranch *b_hcal_edepthCorrect7;                //!
  TBranch *b_hcal_edepthHotCorrect7;             //!
  TBranch *b_hcal_cdepthHot7;                    //!
  TBranch *b_hcal_cdepthHotBG7;                  //!
  TBranch *b_hcal_depthMatch7;                   //!
  TBranch *b_hcal_depthMatchHot7;                //!
  TBranch *b_activeLength;                       //!
  TBranch *b_activeLengthHot;                    //!
  TBranch *b_hltresults;                         //!
  TBranch *b_all_triggers;                       //!

  HBHEMuonOfflineAnalyzer(TChain *tree = 0,
                          const char *outfile = "dyll_PU20_25_output_10.root",
                          const char *rcorFileName = "",
                          int flag = 0,
                          int mode = 3,
                          int maxDHB = 4,
                          int maxDHE = 7,
                          int cutMu = 0,
                          float cutP = 5,
                          int nevMax = -1,
                          int over = 0,
                          int runLo = 1,
                          int runHi = 99999999,
                          int etaMin = 1,
                          int etaMax = 29,
                          bool debug = false);
  HBHEMuonOfflineAnalyzer(const char *infile,
                          const char *outfile = "dyll_PU20_25_output_10.root",
                          const char *rcorFileName = "",
                          int flag = 0,
                          int mode = 3,
                          int maxDHB = 4,
                          int maxDHE = 7,
                          int cutMu = 0,
                          float cutP = 5,
                          int nevMax = -1,
                          int over = 0,
                          int runLo = 1,
                          int runHi = 99999999,
                          int etaMin = 1,
                          int etaMax = 29,
                          bool debug = false);
  // mode of LHC is kept 1 for 2017 scenario as no change in depth segmentation
  // mode of LHC is 3 for 2021
  virtual ~HBHEMuonOfflineAnalyzer();

  virtual Int_t Cut(Long64_t entry);
  virtual Int_t GetEntry(Long64_t entry);
  virtual Long64_t LoadTree(Long64_t entry);
  virtual void Init(TChain *tree,
                    const char *rcorFileName,
                    int flag,
                    int mode,
                    int maxDHB,
                    int maxDHE,
                    int runLo,
                    int runHi,
                    int etaMin,
                    int etaMax);
  virtual void Loop();
  virtual Bool_t Notify();
  virtual void Show(Long64_t entry = -1);

  bool fillChain(TChain *chain, const char *inputFileList);
  bool readCorr(const char *rcorFileName);
  void bookHistograms(const char *);
  bool getEnergy(int dep, double &enb, double &enu, double &enh, double &enc, double &chgS, double &chgB, double &actL);
  void writeHistograms();
  bool looseMuon();
  bool tightMuon();
  bool softMuon();
  bool mediumMuon2016();
  void etaPhiHcal(unsigned int detId, int &eta, int &phi, int &depth);
  void etaPhiEcal(unsigned int detId, int &type, int &zside, int &etaX, int &phiY, int &plane, int &strip);
  void calculateP(double pt, double eta, double &pM);
  void close();
  int nDepthBins(int ieta, int iphi);
  int nPhiBins(int ieta);
  float getCorr(int run, unsigned int id);
  std::vector<std::string> splitString(const std::string &);
  unsigned int getDetIdHBHE(int ieta, int iphi, int depth);
  unsigned int getDetId(int subdet, int ieta, int iphi, int depth);
  unsigned int correctDetId(const unsigned int &detId);
  void unpackDetId(unsigned int detId, int &subdet, int &zside, int &ieta, int &iphi, int &depth);

private:
  static const int maxDep_ = 7;
  static const int maxEta_ = 29;
  static const int maxPhi_ = 72;
  //3x16x72x2 + 5x4x72x2 + 5x9x36x2
  static const int maxHist_ = 20000;  //13032;
  static const unsigned int nmax_ = 10;
  int nCut_;
  const double cutP_;
  const int nevMax_;
  const bool over_, debug_;
  int modeLHC_, maxDepthHB_, maxDepthHE_, maxDepth_;
  int runLo_, runHi_, etaMin_, etaMax_;
  bool cFactor_, useCorrect_, mergeDepth_;
  int nHist, nDepths[maxEta_], nDepthsPhi[maxEta_];
  int indxEta[maxEta_][maxDep_][maxPhi_];
  TFile *output_file;
  std::map<unsigned int, float> corrFac_[nmax_];
  std::vector<int> runlow_;

  TTree *outtree_;
  int t_ieta, t_iphi, t_nvtx;
  double t_p, t_ediff;
  std::vector<double> t_ene, t_enec, t_actln, t_charge;
  std::vector<int> t_depth;

  TH1D *h_evtype, *h_Pt_Muon, *h_Eta_Muon, *h_Phi_Muon, *h_P_Muon;
  TH1D *h_PF_Muon, *h_GlobTrack_Chi, *h_Global_Muon_Hits;
  TH1D *h_MatchedStations, *h_Tight_TransImpactparameter;
  TH1D *h_Tight_LongitudinalImpactparameter, *h_InnerTrackPixelHits;
  TH1D *h_TrackerLayer, *h_IsolationR04, *h_Global_Muon;
  TH1D *h_LongImpactParameter, *h_LongImpactParameterBin1, *h_LongImpactParameterBin2;

  TH1D *h_TransImpactParameter, *h_TransImpactParameterBin1, *h_TransImpactParameterBin2;
  TH1D *h_Hot_MuonEnergy_hcal_ClosestCell[maxHist_], *h_Hot_MuonEnergy_hcal_HotCell[maxHist_],
      *h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[maxHist_], *h_HotCell_MuonEnergy_phi[maxHist_],
      *h_active_length_Fill[maxHist_], *h_p_muon_ineta[maxHist_], *h_charge_signal[maxHist_], *h_charge_bg[maxHist_];
  TH2D *h_2D_Bin1, *h_2D_Bin2;
  TH1D *h_ecal_energy, *h_hcal_energy, *h_3x3_ecal, *h_1x1_hcal;
  TH1D *h_MuonHittingEcal, *h_HotCell, *h_MuonEnergy_hcal[maxHist_];
  TH1D *h_Hot_MuonEnergy_hcal[maxHist_];
  TH2D *hcal_ietaVsEnergy;
  TProfile *h_EtaX_hcal, *h_PhiY_hcal, *h_EtaX_ecal, *h_PhiY_ecal;
  TProfile *h_Eta_ecal, *h_Phi_ecal;
  TProfile *h_MuonEnergy_eta[maxDep_], *h_MuonEnergy_phi[maxDep_], *h_MuonEnergy_muon_eta[maxDep_];
  TProfile *h_Hot_MuonEnergy_eta[maxDep_], *h_Hot_MuonEnergy_phi[maxDep_], *h_Hot_MuonEnergy_muon_eta[maxDep_];
  TProfile *h_IsoHot_MuonEnergy_eta[maxDep_], *h_IsoHot_MuonEnergy_phi[maxDep_], *h_IsoHot_MuonEnergy_muon_eta[maxDep_];
  TProfile *h_IsoWithoutHot_MuonEnergy_eta[maxDep_], *h_IsoWithoutHot_MuonEnergy_phi[maxDep_],
      *h_IsoWithoutHot_MuonEnergy_muon_eta[maxDep_];
  TProfile *h_HotWithoutIso_MuonEnergy_eta[maxDep_], *h_HotWithoutIso_MuonEnergy_phi[maxDep_],
      *h_HotWithoutIso_MuonEnergy_muon_eta[maxDep_];
};

HBHEMuonOfflineAnalyzer::HBHEMuonOfflineAnalyzer(TChain *tree,
                                                 const char *outFileName,
                                                 const char *rcorFileName,
                                                 int flag,
                                                 int mode,
                                                 int maxDHB,
                                                 int maxDHE,
                                                 int cutMu,
                                                 float cutP,
                                                 int nevMax,
                                                 int over,
                                                 int runLo,
                                                 int runHi,
                                                 int etaMin,
                                                 int etaMax,
                                                 bool deb)
    : nCut_(cutMu), cutP_(cutP), nevMax_(nevMax), over_(over == 1), debug_(deb), cFactor_(false) {
  if ((nCut_ < 0) || (nCut_ > 2))
    nCut_ = 0;
  Init(tree, rcorFileName, flag, mode, maxDHB, maxDHE, runLo, runHi, etaMin, etaMax);

  //Now book histograms
  bookHistograms(outFileName);
}

HBHEMuonOfflineAnalyzer::HBHEMuonOfflineAnalyzer(const char *infile,
                                                 const char *outFileName,
                                                 const char *rcorFileName,
                                                 int flag,
                                                 int mode,
                                                 int maxDHB,
                                                 int maxDHE,
                                                 int cutMu,
                                                 float cutP,
                                                 int nevMax,
                                                 int over,
                                                 int runLo,
                                                 int runHi,
                                                 int etaMin,
                                                 int etaMax,
                                                 bool deb)
    : nCut_(cutMu), cutP_(cutP), nevMax_(nevMax), over_(over == 1), debug_(deb), cFactor_(false) {
  if ((nCut_ < 0) || (nCut_ > 2))
    nCut_ = 0;
  TChain *chain = new TChain("hcalHBHEMuon/TREE");
  if (!fillChain(chain, infile)) {
    std::cout << "*****No valid tree chain can be obtained*****" << std::endl;
  } else {
    std::cout << "Proceed with a tree chain with " << chain->GetEntries() << " entries" << std::endl;
    Init(chain, rcorFileName, flag, mode, maxDHB, maxDHE, runLo, runHi, etaMin, etaMax);

    //Now book histograms
    bookHistograms(outFileName);
  }
}

HBHEMuonOfflineAnalyzer::~HBHEMuonOfflineAnalyzer() {
  if (!fChain)
    return;
  delete fChain->GetCurrentFile();
}

Int_t HBHEMuonOfflineAnalyzer::Cut(Long64_t) {
  // This function may be called from Loop.
  // returns  1 if entry is accepted.
  // returns -1 otherwise.
  return 1;
}

Int_t HBHEMuonOfflineAnalyzer::GetEntry(Long64_t entry) {
  // Read contents of entry.
  if (!fChain)
    return 0;
  return fChain->GetEntry(entry);
}

Long64_t HBHEMuonOfflineAnalyzer::LoadTree(Long64_t entry) {
  // Set the environment to read one entry
  if (!fChain)
    return -5;
  Long64_t centry = fChain->LoadTree(entry);
  if (centry < 0)
    return centry;
  if (fChain->GetTreeNumber() != fCurrent) {
    fCurrent = fChain->GetTreeNumber();
    Notify();
  }
  return centry;
}

void HBHEMuonOfflineAnalyzer::Init(TChain *tree,
                                   const char *rcorFileName,
                                   int flag,
                                   int mode,
                                   int maxDHB,
                                   int maxDHE,
                                   int runLo,
                                   int runHi,
                                   int etaMin,
                                   int etaMax) {
  modeLHC_ = mode;
  maxDepthHB_ = maxDHB;
  maxDepthHE_ = maxDHE;
  maxDepth_ = (maxDepthHB_ > maxDepthHE_) ? maxDepthHB_ : maxDepthHE_;
  runLo_ = runLo;
  runHi_ = runHi;
  etaMin_ = (etaMin > 0) ? etaMin : 1;
  etaMax_ = (etaMax <= 29) ? etaMax : 29;
  if (etaMax_ <= etaMin_) {
    if (etaMax_ == 29)
      etaMin_ = etaMax_ - 1;
    else
      etaMax_ = etaMin_ + 1;
  }
  useCorrect_ = ((flag % 10) > 0);
  mergeDepth_ = (((flag / 10) % 10) > 0);
  if (std::string(rcorFileName) != "")
    cFactor_ = readCorr(rcorFileName);

  // The Init() function is called when the selector needs to initialize
  // a new tree or chain. Typically here the branch addresses and branch
  // pointers of the tree will be set.
  // It is normally not necessary to make changes to the generated
  // code, but the routine can be extended by the user if needed.
  // Init() will be called many times when running on PROOF
  // (once per file to be processed).

  // Set object pointer

  PF_Muon = 0;
  Global_Muon = 0;
  Tracker_muon = 0;
  pt_of_muon = 0;
  eta_of_muon = 0;
  phi_of_muon = 0;
  energy_of_muon = 0;
  p_of_muon = 0;
  muon_trkKink = 0;
  muon_chi2LocalPosition = 0;
  muon_segComp = 0;
  TrackerLayer = 0;
  NumPixelLayers = 0;
  InnerTrackPixelHits = 0;
  innerTrack = 0;
  chiTracker = 0;
  DxyTracker = 0;
  DzTracker = 0;
  innerTrackpt = 0;
  innerTracketa = 0;
  innerTrackphi = 0;
  tight_validFraction = 0;
  OuterTrack = 0;
  OuterTrackPt = 0;
  OuterTrackEta = 0;
  OuterTrackPhi = 0;
  OuterTrackHits = 0;
  OuterTrackRHits = 0;
  OuterTrackChi = 0;
  GlobalTrack = 0;
  GlobalTrckPt = 0;
  GlobalTrckEta = 0;
  GlobalTrckPhi = 0;
  Global_Muon_Hits = 0;
  MatchedStations = 0;
  GlobTrack_Chi = 0;
  Tight_LongitudinalImpactparameter = 0;
  Tight_TransImpactparameter = 0;
  IsolationR04 = 0;
  IsolationR03 = 0;
  ecal_3into3 = 0;
  hcal_3into3 = 0;
  tracker_3into3 = 0;
  matchedId = 0;
  hcal_cellHot = 0;
  ecal_3x3 = 0;
  hcal_1x1 = 0;
  ecal_detID = 0;
  hcal_detID = 0;
  ehcal_detID = 0;
  hcal_edepth1 = 0;
  hcal_activeL1 = 0;
  hcal_edepthHot1 = 0;
  hcal_activeHotL1 = 0;
  hcal_edepthCorrect1 = 0;
  hcal_edepthHotCorrect1 = 0;
  hcal_cdepthHot1 = 0;
  hcal_cdepthHotBG1 = 0;
  hcal_depthMatch1 = 0;
  hcal_depthMatchHot1 = 0;
  hcal_edepth2 = 0;
  hcal_activeL2 = 0;
  hcal_edepthHot2 = 0;
  hcal_activeHotL2 = 0;
  hcal_edepthCorrect2 = 0;
  hcal_edepthHotCorrect2 = 0;
  hcal_cdepthHot2 = 0;
  hcal_cdepthHotBG2 = 0;
  hcal_depthMatch2 = 0;
  hcal_depthMatchHot2 = 0;
  hcal_edepth3 = 0;
  hcal_activeL3 = 0;
  hcal_edepthHot3 = 0;
  hcal_activeHotL3 = 0;
  hcal_edepthCorrect3 = 0;
  hcal_edepthHotCorrect3 = 0;
  hcal_cdepthHot3 = 0;
  hcal_cdepthHotBG3 = 0;
  hcal_depthMatch3 = 0;
  hcal_depthMatchHot3 = 0;
  hcal_edepth4 = 0;
  hcal_activeL4 = 0;
  hcal_edepthHot4 = 0;
  hcal_activeHotL4 = 0;
  hcal_edepthCorrect4 = 0;
  hcal_edepthHotCorrect4 = 0;
  hcal_cdepthHot4 = 0;
  hcal_cdepthHotBG4 = 0;
  hcal_depthMatch4 = 0;
  hcal_depthMatchHot4 = 0;
  hcal_edepth5 = 0;
  hcal_activeL5 = 0;
  hcal_edepthHot5 = 0;
  hcal_activeHotL5 = 0;
  hcal_edepthCorrect5 = 0;
  hcal_edepthHotCorrect5 = 0;
  hcal_cdepthHot5 = 0;
  hcal_cdepthHotBG5 = 0;
  hcal_depthMatch5 = 0;
  hcal_depthMatchHot5 = 0;
  hcal_edepth6 = 0;
  hcal_activeL6 = 0;
  hcal_edepthHot6 = 0;
  hcal_activeHotL6 = 0;
  hcal_edepthCorrect6 = 0;
  hcal_edepthHotCorrect6 = 0;
  hcal_cdepthHot6 = 0;
  hcal_cdepthHotBG6 = 0;
  hcal_depthMatch6 = 0;
  hcal_depthMatchHot6 = 0;
  hcal_edepth7 = 0;
  hcal_activeL7 = 0;
  hcal_edepthHot7 = 0;
  hcal_activeHotL7 = 0;
  hcal_edepthCorrect7 = 0;
  hcal_edepthHotCorrect7 = 0;
  hcal_cdepthHot7 = 0;
  hcal_cdepthHotBG7 = 0;
  hcal_depthMatch7 = 0;
  hcal_depthMatchHot7 = 0;
  activeLength = 0;
  activeLengthHot = 0;
  hltresults = 0;
  all_triggers = 0;
  // Set branch addresses and branch pointers
  if (!tree)
    return;
  fChain = tree;
  fCurrent = -1;
  fChain->SetMakeClass(1);

  fChain->SetBranchAddress("Event_No", &Event_No, &b_Event_No);
  fChain->SetBranchAddress("Run_No", &Run_No, &b_Run_No);
  fChain->SetBranchAddress("LumiNumber", &LumiNumber, &b_LumiNumber);
  fChain->SetBranchAddress("BXNumber", &BXNumber, &b_BXNumber);
  fChain->SetBranchAddress("GoodVertex", &GoodVertex, &b_GoodVertex);
  fChain->SetBranchAddress("PF_Muon", &PF_Muon, &b_PF_Muon);
  fChain->SetBranchAddress("Global_Muon", &Global_Muon, &b_Global_Muon);
  fChain->SetBranchAddress("Tracker_muon", &Tracker_muon, &b_Tracker_muon);
  fChain->SetBranchAddress("MuonIsTight", &MuonIsTight, &b_MuonIsTight);
  fChain->SetBranchAddress("MuonIsMedium", &MuonIsMedium, &b_MuonIsMedium);
  fChain->SetBranchAddress("pt_of_muon", &pt_of_muon, &b_pt_of_muon);
  fChain->SetBranchAddress("eta_of_muon", &eta_of_muon, &b_eta_of_muon);
  fChain->SetBranchAddress("phi_of_muon", &phi_of_muon, &b_phi_of_muon);
  fChain->SetBranchAddress("energy_of_muon", &energy_of_muon, &b_energy_of_muon);
  fChain->SetBranchAddress("p_of_muon", &p_of_muon, &b_p_of_muon);
  fChain->SetBranchAddress("muon_trkKink", &muon_trkKink, &b_muon_trkKink);
  fChain->SetBranchAddress("muon_chi2LocalPosition", &muon_chi2LocalPosition, &b_muon_chi2LocalPosition);
  fChain->SetBranchAddress("muon_segComp", &muon_segComp, &b_muon_segComp);
  fChain->SetBranchAddress("TrackerLayer", &TrackerLayer, &b_TrackerLayer);
  fChain->SetBranchAddress("NumPixelLayers", &NumPixelLayers, &b_NumPixelLayers);
  fChain->SetBranchAddress("InnerTrackPixelHits", &InnerTrackPixelHits, &b_InnerTrackPixelHits);
  fChain->SetBranchAddress("innerTrack", &innerTrack, &b_innerTrack);
  fChain->SetBranchAddress("chiTracker", &chiTracker, &b_chiTracker);
  fChain->SetBranchAddress("DxyTracker", &DxyTracker, &b_DxyTracker);
  fChain->SetBranchAddress("DzTracker", &DzTracker, &b_DzTracker);
  fChain->SetBranchAddress("innerTrackpt", &innerTrackpt, &b_innerTrackpt);
  fChain->SetBranchAddress("innerTracketa", &innerTracketa, &b_innerTracketa);
  fChain->SetBranchAddress("innerTrackphi", &innerTrackphi, &b_innerTrackphi);
  fChain->SetBranchAddress("tight_validFraction", &tight_validFraction, &b_tight_validFraction);
  fChain->SetBranchAddress("OuterTrack", &OuterTrack, &b_OuterTrack);
  fChain->SetBranchAddress("OuterTrackPt", &OuterTrackPt, &b_OuterTrackPt);
  fChain->SetBranchAddress("OuterTrackEta", &OuterTrackEta, &b_OuterTrackEta);
  fChain->SetBranchAddress("OuterTrackPhi", &OuterTrackPhi, &b_OuterTrackPhi);
  fChain->SetBranchAddress("OuterTrackChi", &OuterTrackChi, &b_OuterTrackChi);
  fChain->SetBranchAddress("OuterTrackHits", &OuterTrackHits, &b_OuterTrackHits);
  fChain->SetBranchAddress("OuterTrackRHits", &OuterTrackRHits, &b_OuterTrackRHits);
  fChain->SetBranchAddress("GlobalTrack", &GlobalTrack, &b_GlobalTrack);
  fChain->SetBranchAddress("GlobalTrckPt", &GlobalTrckPt, &b_GlobalTrckPt);
  fChain->SetBranchAddress("GlobalTrckEta", &GlobalTrckEta, &b_GlobalTrckEta);
  fChain->SetBranchAddress("GlobalTrckPhi", &GlobalTrckPhi, &b_GlobalTrckPhi);
  fChain->SetBranchAddress("Global_Muon_Hits", &Global_Muon_Hits, &b_Global_Muon_Hits);
  fChain->SetBranchAddress("MatchedStations", &MatchedStations, &b_MatchedStations);
  fChain->SetBranchAddress("GlobTrack_Chi", &GlobTrack_Chi, &b_GlobTrack_Chi);
  fChain->SetBranchAddress(
      "Tight_LongitudinalImpactparameter", &Tight_LongitudinalImpactparameter, &b_Tight_LongitudinalImpactparameter);
  fChain->SetBranchAddress("Tight_TransImpactparameter", &Tight_TransImpactparameter, &b_Tight_TransImpactparameter);
  fChain->SetBranchAddress("IsolationR04", &IsolationR04, &b_IsolationR04);
  fChain->SetBranchAddress("IsolationR03", &IsolationR03, &b_IsolationR03);
  fChain->SetBranchAddress("ecal_3into3", &ecal_3into3, &b_ecal_3into3);
  fChain->SetBranchAddress("hcal_3into3", &hcal_3into3, &b_hcal_3into3);
  fChain->SetBranchAddress("tracker_3into3", &tracker_3into3, &b_tracker_3into3);
  fChain->SetBranchAddress("matchedId", &matchedId, &b_matchedId);
  fChain->SetBranchAddress("hcal_cellHot", &hcal_cellHot, &b_hcal_cellHot);
  fChain->SetBranchAddress("ecal_3x3", &ecal_3x3, &b_ecal_3x3);
  fChain->SetBranchAddress("hcal_1x1", &hcal_1x1, &b_hcal_1x1);
  fChain->SetBranchAddress("ecal_detID", &ecal_detID, &b_ecal_detID);
  fChain->SetBranchAddress("hcal_detID", &hcal_detID, &b_hcal_detID);
  fChain->SetBranchAddress("ehcal_detID", &ehcal_detID, &b_ehcal_detID);
  fChain->SetBranchAddress("hcal_ieta", &hcal_ieta, &b_hcal_ieta);
  fChain->SetBranchAddress("hcal_iphi", &hcal_iphi, &b_hcal_iphi);
  fChain->SetBranchAddress("hcal_edepth1", &hcal_edepth1, &b_hcal_edepth1);
  fChain->SetBranchAddress("hcal_activeL1", &hcal_activeL1, &b_hcal_activeL1);
  fChain->SetBranchAddress("hcal_edepthHot1", &hcal_edepthHot1, &b_hcal_edepthHot1);
  fChain->SetBranchAddress("hcal_activeHotL1", &hcal_activeHotL1, &b_hcal_activeHotL1);
  fChain->SetBranchAddress("hcal_edepthCorrect1", &hcal_edepthCorrect1, &b_hcal_edepthCorrect1);
  fChain->SetBranchAddress("hcal_edepthHotCorrect1", &hcal_edepthHotCorrect1, &b_hcal_edepthHotCorrect1);
  fChain->SetBranchAddress("hcal_cdepthHot1", &hcal_cdepthHot1, &b_hcal_cdepthHot1);
  fChain->SetBranchAddress("hcal_cdepthHotBG1", &hcal_cdepthHotBG1, &b_hcal_cdepthHotBG1);
  fChain->SetBranchAddress("hcal_depthMatch1", &hcal_depthMatch1, &b_hcal_depthMatch1);
  fChain->SetBranchAddress("hcal_depthMatchHot1", &hcal_depthMatchHot1, &b_hcal_depthMatchHot1);
  fChain->SetBranchAddress("hcal_edepth2", &hcal_edepth2, &b_hcal_edepth2);
  fChain->SetBranchAddress("hcal_activeL2", &hcal_activeL2, &b_hcal_activeL2);
  fChain->SetBranchAddress("hcal_edepthHot2", &hcal_edepthHot2, &b_hcal_edepthHot2);
  fChain->SetBranchAddress("hcal_activeHotL2", &hcal_activeHotL2, &b_hcal_activeHotL2);
  fChain->SetBranchAddress("hcal_edepthCorrect2", &hcal_edepthCorrect2, &b_hcal_edepthCorrect2);
  fChain->SetBranchAddress("hcal_edepthHotCorrect2", &hcal_edepthHotCorrect2, &b_hcal_edepthHotCorrect2);
  fChain->SetBranchAddress("hcal_cdepthHot2", &hcal_cdepthHot2, &b_hcal_cdepthHot2);
  fChain->SetBranchAddress("hcal_cdepthHotBG2", &hcal_cdepthHotBG2, &b_hcal_cdepthHotBG2);
  fChain->SetBranchAddress("hcal_depthMatch2", &hcal_depthMatch2, &b_hcal_depthMatch2);
  fChain->SetBranchAddress("hcal_depthMatchHot2", &hcal_depthMatchHot2, &b_hcal_depthMatchHot2);
  fChain->SetBranchAddress("hcal_edepth3", &hcal_edepth3, &b_hcal_edepth3);
  fChain->SetBranchAddress("hcal_activeL3", &hcal_activeL3, &b_hcal_activeL3);
  fChain->SetBranchAddress("hcal_edepthHot3", &hcal_edepthHot3, &b_hcal_edepthHot3);
  fChain->SetBranchAddress("hcal_activeHotL3", &hcal_activeHotL3, &b_hcal_activeHotL3);
  fChain->SetBranchAddress("hcal_edepthCorrect3", &hcal_edepthCorrect3, &b_hcal_edepthCorrect3);
  fChain->SetBranchAddress("hcal_edepthHotCorrect3", &hcal_edepthHotCorrect3, &b_hcal_edepthHotCorrect3);
  fChain->SetBranchAddress("hcal_cdepthHot3", &hcal_cdepthHot3, &b_hcal_cdepthHot3);
  fChain->SetBranchAddress("hcal_cdepthHotBG3", &hcal_cdepthHotBG3, &b_hcal_cdepthHotBG3);
  fChain->SetBranchAddress("hcal_depthMatch3", &hcal_depthMatch3, &b_hcal_depthMatch3);
  fChain->SetBranchAddress("hcal_depthMatchHot3", &hcal_depthMatchHot3, &b_hcal_depthMatchHot3);
  fChain->SetBranchAddress("hcal_edepth4", &hcal_edepth4, &b_hcal_edepth4);
  fChain->SetBranchAddress("hcal_activeL4", &hcal_activeL4, &b_hcal_activeL4);
  fChain->SetBranchAddress("hcal_edepthHot4", &hcal_edepthHot4, &b_hcal_edepthHot4);
  fChain->SetBranchAddress("hcal_activeHotL4", &hcal_activeHotL4, &b_hcal_activeHotL4);
  fChain->SetBranchAddress("hcal_edepthCorrect4", &hcal_edepthCorrect4, &b_hcal_edepthCorrect4);
  fChain->SetBranchAddress("hcal_edepthHotCorrect4", &hcal_edepthHotCorrect4, &b_hcal_edepthHotCorrect4);
  fChain->SetBranchAddress("hcal_cdepthHot4", &hcal_cdepthHot4, &b_hcal_cdepthHot4);
  fChain->SetBranchAddress("hcal_cdepthHotBG4", &hcal_cdepthHotBG4, &b_hcal_cdepthHotBG4);
  fChain->SetBranchAddress("hcal_depthMatch4", &hcal_depthMatch4, &b_hcal_depthMatch4);
  fChain->SetBranchAddress("hcal_depthMatchHot4", &hcal_depthMatchHot4, &b_hcal_depthMatchHot4);
  fChain->SetBranchAddress("hcal_edepth5", &hcal_edepth5, &b_hcal_edepth5);
  fChain->SetBranchAddress("hcal_activeL5", &hcal_activeL5, &b_hcal_activeL5);
  fChain->SetBranchAddress("hcal_edepthHot5", &hcal_edepthHot5, &b_hcal_edepthHot5);
  fChain->SetBranchAddress("hcal_activeHotL5", &hcal_activeHotL5, &b_hcal_activeHotL5);
  fChain->SetBranchAddress("hcal_edepthCorrect5", &hcal_edepthCorrect5, &b_hcal_edepthCorrect5);
  fChain->SetBranchAddress("hcal_edepthHotCorrect5", &hcal_edepthHotCorrect5, &b_hcal_edepthHotCorrect5);
  fChain->SetBranchAddress("hcal_cdepthHot5", &hcal_cdepthHot5, &b_hcal_cdepthHot5);
  fChain->SetBranchAddress("hcal_cdepthHotBG5", &hcal_cdepthHotBG5, &b_hcal_cdepthHotBG5);
  fChain->SetBranchAddress("hcal_depthMatch5", &hcal_depthMatch5, &b_hcal_depthMatch5);
  fChain->SetBranchAddress("hcal_depthMatchHot5", &hcal_depthMatchHot5, &b_hcal_depthMatchHot5);
  fChain->SetBranchAddress("hcal_edepth6", &hcal_edepth6, &b_hcal_edepth6);
  fChain->SetBranchAddress("hcal_activeL6", &hcal_activeL6, &b_hcal_activeL6);
  fChain->SetBranchAddress("hcal_edepthHot6", &hcal_edepthHot6, &b_hcal_edepthHot6);
  fChain->SetBranchAddress("hcal_activeHotL6", &hcal_activeHotL6, &b_hcal_activeHotL6);
  fChain->SetBranchAddress("hcal_edepthCorrect6", &hcal_edepthCorrect6, &b_hcal_edepthCorrect6);
  fChain->SetBranchAddress("hcal_edepthHotCorrect6", &hcal_edepthHotCorrect6, &b_hcal_edepthHotCorrect6);
  fChain->SetBranchAddress("hcal_cdepthHot6", &hcal_cdepthHot6, &b_hcal_cdepthHot6);
  fChain->SetBranchAddress("hcal_cdepthHotBG6", &hcal_cdepthHotBG6, &b_hcal_cdepthHotBG6);
  fChain->SetBranchAddress("hcal_depthMatch6", &hcal_depthMatch6, &b_hcal_depthMatch6);
  fChain->SetBranchAddress("hcal_depthMatchHot6", &hcal_depthMatchHot6, &b_hcal_depthMatchHot6);
  fChain->SetBranchAddress("hcal_edepth7", &hcal_edepth7, &b_hcal_edepth7);
  fChain->SetBranchAddress("hcal_activeL7", &hcal_activeL7, &b_hcal_activeL7);
  fChain->SetBranchAddress("hcal_edepthHot7", &hcal_edepthHot7, &b_hcal_edepthHot7);
  fChain->SetBranchAddress("hcal_activeHotL7", &hcal_activeHotL7, &b_hcal_activeHotL7);
  fChain->SetBranchAddress("hcal_edepthCorrect7", &hcal_edepthCorrect7, &b_hcal_edepthCorrect7);
  fChain->SetBranchAddress("hcal_edepthHotCorrect7", &hcal_edepthHotCorrect7, &b_hcal_edepthHotCorrect7);
  fChain->SetBranchAddress("hcal_cdepthHot7", &hcal_cdepthHot7, &b_hcal_cdepthHot7);
  fChain->SetBranchAddress("hcal_cdepthHotBG7", &hcal_cdepthHotBG7, &b_hcal_cdepthHotBG7);
  fChain->SetBranchAddress("hcal_depthMatch7", &hcal_depthMatch7, &b_hcal_depthMatch7);
  fChain->SetBranchAddress("hcal_depthMatchHot7", &hcal_depthMatchHot7, &b_hcal_depthMatchHot7);
  fChain->SetBranchAddress("activeLength", &activeLength, &b_activeLength);
  fChain->SetBranchAddress("activeLengthHot", &activeLengthHot, &b_activeLengthHot);
  fChain->SetBranchAddress("hltresults", &hltresults, &b_hltresults);
  fChain->SetBranchAddress("all_triggers", &all_triggers, &b_all_triggers);

  Notify();
}

void HBHEMuonOfflineAnalyzer::Loop() {
  //declarations
  if (fChain == 0)
    return;

  Long64_t nentries = fChain->GetEntriesFast();
  if (debug_)
    std::cout << "nevent = " << nentries << std::endl;
  if (nevMax_ > 0)
    nentries = nevMax_;

  Long64_t nbytes = 0, nb = 0, nsel1 = 0, nsel2 = 0;
  Long64_t nstep1 = 0, nstep2 = 0, nstep3 = 0, nstep4 = 0;

  for (Long64_t jentry = 0; jentry < nentries; jentry++) {
    Long64_t ientry = LoadTree(jentry);
    if (ientry < 0)
      break;
    nb = fChain->GetEntry(jentry);
    nbytes += nb;
    if ((int)(Run_No) < runLo_ || (int)(Run_No) > runHi_)
      continue;
    ++nstep1;
    if (debug_)
      std::cout << "Run " << Run_No << " Event " << Event_No << " Muon pt " << pt_of_muon << std::endl;

    bool loose(false), soft(false), tight(false), pcut(false), ptcut(false);
    t_ene.clear();
    t_enec.clear();
    t_charge.clear();
    t_actln.clear();
    t_depth.clear();

    if (debug_)
      std::cout << "ecal_det_id " << ecal_detID << std::endl;

    int typeEcal, etaXEcal, phiYEcal, zsideEcal, planeEcal, stripEcal;
    etaPhiEcal(ecal_detID, typeEcal, zsideEcal, etaXEcal, phiYEcal, planeEcal, stripEcal);
    double etaEcal = (etaXEcal - 0.5) * zsideEcal;
    double phiEcal = phiYEcal - 0.5;

    if (debug_)
      std::cout << "hcal_det_id " << std::hex << hcal_detID << std::dec;

    int etaHcal, phiHcal, depthHcal;
    etaPhiHcal(hcal_detID, etaHcal, phiHcal, depthHcal);

    int eta = (etaHcal > 0) ? etaHcal - 1 : -etaHcal - 1;
    double etaXHcal = (etaHcal > 0) ? etaHcal - 0.5 : etaHcal + 0.5;
    int nDepth = nDepthBins(eta + 1, phiHcal);
    int nPhi = nPhiBins(eta + 1);
    int PHI = (nPhi > 36) ? (phiHcal - 1) : (phiHcal - 1) / 2;
    double phiYHcal = (phiHcal - 0.5);
    t_ieta = etaHcal;
    t_iphi = PHI;
    t_p = p_of_muon;
    t_ediff = hcal_3into3 - hcal_1x1;
    t_nvtx = GoodVertex;
    if (p_of_muon > cutP_)
      pcut = true;
    if (pt_of_muon > cutP_)
      ptcut = true;
    if (looseMuon())
      loose = true;
    if (softMuon())
      soft = true;
    if (tightMuon())
      tight = true;

    if (debug_)
      std::cout << " etaHcal " << etaHcal << ":" << etaXHcal << " phiHcal " << phiHcal << ":" << phiYHcal << ":" << PHI
                << " Depth " << nDepth << " Muon Pt " << pt_of_muon << " Isol " << IsolationR04 << std::endl;

    int cut(nCut_);
    bool select(false);
    if (cut == 0)
      select = tightMuon();
    else if (cut == 1)
      select = softMuon();
    else
      select = looseMuon();

    if (select)
      ++nstep2;
    if (select && ((eta + 1) >= etaMin_) && ((eta + 1) <= etaMax_)) {
      ++nstep3;
      h_Pt_Muon->Fill(pt_of_muon);
      h_Eta_Muon->Fill(eta_of_muon);
      h_Phi_Muon->Fill(phi_of_muon);
      h_PF_Muon->Fill(PF_Muon);
      h_GlobTrack_Chi->Fill(GlobTrack_Chi);
      h_Global_Muon_Hits->Fill(Global_Muon_Hits);
      h_MatchedStations->Fill(MatchedStations);
      h_Tight_TransImpactparameter->Fill(Tight_TransImpactparameter);
      h_Tight_LongitudinalImpactparameter->Fill(Tight_LongitudinalImpactparameter);
      h_InnerTrackPixelHits->Fill(InnerTrackPixelHits);
      h_TrackerLayer->Fill(TrackerLayer);
      h_IsolationR04->Fill(IsolationR04);
      h_Global_Muon->Fill(Global_Muon);

      h_TransImpactParameter->Fill(Tight_TransImpactparameter);
      h_LongImpactParameter->Fill(Tight_LongitudinalImpactparameter);

      //in Phi Bins
      if (((phi_of_muon) >= -1.5) || ((phi_of_muon) <= 0.5)) {
        h_TransImpactParameterBin1->Fill(Tight_TransImpactparameter);
        h_LongImpactParameterBin1->Fill(Tight_LongitudinalImpactparameter);
        h_2D_Bin1->Fill(Tight_TransImpactparameter, Tight_LongitudinalImpactparameter);
      }

      if ((phi_of_muon > 0.5) || (phi_of_muon < -1.5)) {
        h_TransImpactParameterBin2->Fill(Tight_TransImpactparameter);
        h_LongImpactParameterBin2->Fill(Tight_LongitudinalImpactparameter);
        h_2D_Bin2->Fill(Tight_TransImpactparameter, Tight_LongitudinalImpactparameter);
      }

      h_ecal_energy->Fill(ecal_3into3);
      h_3x3_ecal->Fill(ecal_3x3);
      h_Eta_ecal->Fill(eta_of_muon, ecal_3x3);
      h_Phi_ecal->Fill(phi_of_muon, ecal_3x3);
      h_MuonHittingEcal->Fill(typeEcal);
      if (typeEcal == 1) {
        h_EtaX_ecal->Fill(etaEcal, ecal_3x3);
        h_PhiY_ecal->Fill(phiEcal, ecal_3x3);
      }

      h_hcal_energy->Fill(hcal_3into3);
      h_1x1_hcal->Fill(hcal_1x1);
      h_EtaX_hcal->Fill(etaXHcal, hcal_1x1);
      h_PhiY_hcal->Fill(phiYHcal, hcal_1x1);
      h_HotCell->Fill(hcal_cellHot);
      if (mergeDepth_) {
        double en1(0), en2(0), actLTot(0), chargeS(0), chargeBG(0);
        double enh(0), enc(0);
        for (int dep = 0; dep < nDepth; ++dep) {
          double enb(0), enu(0), eh0(0), ec0(0), chgS(0), chgB(0), actL(0);
          getEnergy(dep, enb, enu, eh0, ec0, chgS, chgB, actL);
          en1 += ((useCorrect_) ? enu : enb);
          en2 += ((useCorrect_) ? ec0 : eh0);
          enh += (eh0);
          enc += (ec0);
          actLTot += (actL);
          chargeS += (chgS);
          chargeBG += (chgB);
        }
        int ind = (etaHcal > 0) ? indxEta[eta][0][PHI] : 1 + indxEta[eta][0][PHI];
        if (debug_)  // || eta==15 || eta==17)
          std::cout << "Matched Id " << matchedId << " Hot " << hcal_cellHot << " eta " << etaHcal << ":" << eta
                    << " phi " << phiHcal << ":" << PHI << " Index " << ind << " E " << en1 << ":" << en2 << ":" << enh
                    << ":" << enc << " L " << actLTot << " Charge " << chargeS << ":" << chargeBG << std::endl;
        if (!(matchedId) && !(over_))
          continue;
        if ((hcal_cellHot == 1) || over_) {
          if (actLTot > 0) {
            h_Hot_MuonEnergy_hcal_HotCell[ind]->Fill(en2);
            h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ind]->Fill(en2 / actLTot);
            h_active_length_Fill[ind]->Fill(actLTot);
            h_p_muon_ineta[ind]->Fill(p_of_muon);
            h_charge_signal[ind]->Fill(chargeS);
            h_charge_bg[ind]->Fill(chargeBG);

            t_ene.push_back(enh);
            t_enec.push_back(enc);
            t_charge.push_back(chargeS);
            t_actln.push_back(actLTot);
            t_depth.push_back(0);

            outtree_->Fill();
            ++nsel1;
          }
        }
      } else {
        bool fillTree(false);
        ++nstep4;
        for (int dep = 0; dep < nDepth; ++dep) {
          if (debug_)
            std::cout << "dep:" << dep << std::endl;

          double actL(0), chargeS(-9999), chargeBG(-9999);
          double enh(-9999), enc(-9999), enb(0), enu(0);
          bool ok1 = getEnergy(dep, enb, enu, enh, enc, chargeS, chargeBG, actL);
          double en1 = ((useCorrect_) ? enu : enb);
          double en2 = ((useCorrect_) ? enc : enh);
          if (debug_)
            std::cout << "Hello in " << dep + 1 << " " << en1 << ":" << en2 << ":" << actL << std::endl;

          bool ok2 = ok1;

          if (debug_)
            std::cout << "Before Index " << ok1 << ":" << ok2 << std::endl;

          int ind = (etaHcal > 0) ? indxEta[eta][dep][PHI] : 1 + indxEta[eta][dep][PHI];
          if (debug_)  // || eta==15 || eta==17)
            std::cout << "Matched Id " << matchedId << " Hot " << hcal_cellHot << " eta " << etaHcal << ":" << eta
                      << " phi " << phiHcal << ":" << PHI << " depth " << dep << " Index " << ind << " E " << en1 << ":"
                      << en2 << ":" << enh << ":" << enc << " L " << actL << " Charge " << chargeS << ":" << chargeBG
                      << std::endl;
          if (debug_)
            std::cout << "matchedId " << matchedId << " Over " << over_ << " OK " << ok1 << ":" << ok2 << " cellHot "
                      << (hcal_cellHot == 1) << std::endl;
          if (!(matchedId) && !(over_))
            continue;
          if (ok1 || over_) {
            if (debug_)
              std::cout << "enter ok1" << std::endl;

            if ((hcal_cellHot == 1) || (over_)) {
              if (actL > 0) {
                h_Hot_MuonEnergy_hcal_HotCell[ind]->Fill(en2);
                h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ind]->Fill(en2 / actL);
                h_active_length_Fill[ind]->Fill(actL);
                h_p_muon_ineta[ind]->Fill(p_of_muon);
                h_charge_signal[ind]->Fill(chargeS);
                h_charge_bg[ind]->Fill(chargeBG);
                t_ene.push_back(enh);
                t_enec.push_back(enc);
                t_charge.push_back(chargeS);
                t_actln.push_back(actL);
                // added depth vector AmanKalsi
                t_depth.push_back(dep);
                fillTree = true;
              } else {
                t_ene.push_back(-999.0);
                t_enec.push_back(-999.0);
                t_charge.push_back(-999.0);
                t_actln.push_back(-999.0);
                t_depth.push_back(-999.0);
              }
              if (debug_)
                std::cout << "enter hot cell" << std::endl;
            }
          }

          if (ok2) {
            if (debug_)
              std::cout << "enter ok2" << std::endl;
            if (hcal_cellHot != 1) {
            }
          }

          if (debug_)
            std::cout << "ETA \t" << eta << "DEPTH \t" << dep << std::endl;
        }
        if (fillTree) {
          outtree_->Fill();
          ++nsel2;
        }
      }
    }
    int evtype(0);
    if (pcut)
      evtype += 1;
    if (ptcut)
      evtype += 2;
    if (loose)
      evtype += 4;
    if (soft)
      evtype += 8;
    if (tight)
      evtype += 16;
    h_evtype->Fill(evtype);
  }
  std::cout << "Number of events in the output root tree: " << nsel1 << ":" << nsel2 << ":" << nstep1 << ":" << nstep2
            << ":" << nstep3 << ":" << nstep4 << std::endl;
  close();
}

Bool_t HBHEMuonOfflineAnalyzer::Notify() {
  // The Notify() function is called when a new file is opened. This
  // can be either for a new TTree in a TChain or when when a new TTree
  // is started when using PROOF. It is normally not necessary to make changes
  // to the generated code, but the routine can be extended by the
  // user if needed. The return value is currently not used.

  return kTRUE;
}

void HBHEMuonOfflineAnalyzer::Show(Long64_t entry) {
  // Print contents of entry.
  // If entry is not specified, print current entry
  if (!fChain)
    return;
  fChain->Show(entry);
}

bool HBHEMuonOfflineAnalyzer::fillChain(TChain *chain, const char *inputFileList) {
  std::string fname(inputFileList);
  if (fname.substr(fname.size() - 5, 5) == ".root") {
    chain->Add(fname.c_str());
  } else {
    std::ifstream infile(inputFileList);
    if (!infile.is_open()) {
      std::cout << "** ERROR: Can't open '" << inputFileList << "' for input" << std::endl;
      return false;
    }
    while (1) {
      infile >> fname;
      if (!infile.good())
        break;
      chain->Add(fname.c_str());
    }
    infile.close();
  }
  std::cout << "No. of Entries in this tree : " << chain->GetEntries() << std::endl;
  return true;
}

bool HBHEMuonOfflineAnalyzer::readCorr(const char *infile) {
  std::ifstream fInput(infile);
  unsigned int ncorr(0), all(0), good(0);
  if (!fInput.good()) {
    std::cout << "Cannot open file " << infile << std::endl;
  } else {
    char buffer[1024];
    while (fInput.getline(buffer, 1024)) {
      ++all;
      std::string bufferString(buffer);
      if (bufferString.substr(0, 5) == "#IOVs") {
        std::vector<std::string> items = splitString(bufferString.substr(6));
        ncorr = items.size() - 1;
        for (unsigned int n = 0; n < ncorr; ++n) {
          int run = std::atoi(items[n].c_str());
          runlow_.push_back(run);
        }
        std::cout << ncorr << ":" << runlow_.size() << " Run ranges" << std::endl;
        for (unsigned int n = 0; n < runlow_.size(); ++n)
          std::cout << " [" << n << "] " << runlow_[n];
        std::cout << std::endl;
      } else if (buffer[0] == '#') {
        continue;  //ignore other comments
      } else {
        std::vector<std::string> items = splitString(bufferString);
        if (items.size() != ncorr + 3) {
          std::cout << "Ignore  line: " << buffer << std::endl;
        } else {
          ++good;
          int ieta = std::atoi(items[0].c_str());
          int iphi = std::atoi(items[1].c_str());
          int depth = std::atoi(items[2].c_str());
          unsigned int id = getDetIdHBHE(ieta, iphi, depth);
          for (unsigned int n = 0; n < ncorr; ++n) {
            float corrf = std::atof(items[n + 3].c_str());
            if (n < nmax_)
              corrFac_[n][id] = corrf;
          }
          if (debug_) {
            std::cout << "ID " << std::hex << id << std::dec << ":" << id << " (eta " << ieta << " phi " << iphi
                      << " depth " << depth << ")";
            for (unsigned int n = 0; n < ncorr; ++n)
              std::cout << " " << corrFac_[n][id];
            std::cout << std::endl;
          }
        }
      }
    }
    fInput.close();
    std::cout << "Reads total of " << all << " and " << good << " good records" << std::endl;
  }
  return (good > 0);
}

void HBHEMuonOfflineAnalyzer::bookHistograms(const char *fname) {
  std::cout << "BookHistograms" << std::endl;
  output_file = TFile::Open(fname, "RECREATE");
  output_file->cd();
  outtree_ = new TTree("Lep_Tree", "Lep_Tree");
  outtree_->Branch("t_ieta", &t_ieta);
  outtree_->Branch("t_iphi", &t_iphi);
  outtree_->Branch("t_nvtx", &t_nvtx);
  outtree_->Branch("t_p", &t_p);
  outtree_->Branch("t_ediff", &t_ediff);
  outtree_->Branch("t_ene", &t_ene);
  outtree_->Branch("t_enec", &t_enec);
  outtree_->Branch("t_charge", &t_charge);
  outtree_->Branch("t_actln", &t_actln);
  outtree_->Branch("t_depth", &t_depth);

  std::string type[] = {"tight", "soft", "loose"};
  char name[128], title[500];

  nHist = 0;
  for (int eta = etaMin_; eta <= etaMax_; ++eta) {
    int nDepth = nDepthBins(eta, -1);
    int nPhi = nPhiBins(eta);
    for (int depth = 0; depth < nDepth; depth++) {
      for (int PHI = 0; PHI < nPhi; ++PHI) {
        indxEta[eta - 1][depth][PHI] = nHist;
        nHist += 2;
      }
    }
  }
  if (nHist >= maxHist_) {
    std::cout << "Problem here " << nHist << ":" << maxHist_ << std::endl;
  }
  //	TDirectory *d_output_file[nCut_][29];
  //output_file->cd();
  h_evtype = new TH1D("EvType", "Event Type", 100, 0, 100);
  int i(nCut_);
  sprintf(name, "h_Pt_Muon_%s", type[i].c_str());
  sprintf(title, "p_{T} of %s muons (GeV)", type[i].c_str());
  h_Pt_Muon = new TH1D(name, title, 100, 0, 200);

  sprintf(name, "h_Eta_Muon_%s", type[i].c_str());
  sprintf(title, "#eta of %s muons", type[i].c_str());
  h_Eta_Muon = new TH1D(name, title, 50, -2.5, 2.5);

  sprintf(name, "h_Phi_Muon_%s", type[i].c_str());
  sprintf(title, "#phi of %s muons", type[i].c_str());
  h_Phi_Muon = new TH1D(name, title, 100, -3.1415926, 3.1415926);

  sprintf(name, "h_P_Muon_%s", type[i].c_str());
  sprintf(title, "p of %s muons (GeV)", type[i].c_str());
  h_P_Muon = new TH1D(name, title, 100, 0, 200);

  sprintf(name, "h_PF_Muon_%s", type[i].c_str());
  sprintf(title, "PF %s muons (GeV)", type[i].c_str());
  h_PF_Muon = new TH1D(name, title, 2, 0, 2);

  sprintf(name, "h_Global_Muon_Chi2_%s", type[i].c_str());
  sprintf(title, "Chi2 Global %s muons (GeV)", type[i].c_str());
  h_GlobTrack_Chi = new TH1D(name, title, 15, 0, 15);

  sprintf(name, "h_Global_Muon_Hits_%s", type[i].c_str());
  sprintf(title, "Global Hits %s muons (GeV)", type[i].c_str());
  h_Global_Muon_Hits = new TH1D(name, title, 10, 0, 10);

  sprintf(name, "h_Matched_Stations_%s", type[i].c_str());
  sprintf(title, "Matched Stations %s muons (GeV)", type[i].c_str());
  h_MatchedStations = new TH1D(name, title, 10, 0, 10);

  sprintf(name, "h_Transverse_ImpactParameter_%s", type[i].c_str());
  sprintf(title, "Transverse_ImpactParameter of %s muons (GeV)", type[i].c_str());
  h_Tight_TransImpactparameter = new TH1D(name, title, 50, 0, 10);

  sprintf(name, "h_Longitudinal_ImpactParameter_%s", type[i].c_str());
  sprintf(title, "Longitudinal_ImpactParameter of %s muons (GeV)", type[i].c_str());
  h_Tight_LongitudinalImpactparameter = new TH1D(name, title, 20, 0, 10);

  sprintf(name, "h_InnerTrack_PixelHits_%s", type[i].c_str());
  sprintf(title, "InnerTrack_PixelHits of %s muons (GeV)", type[i].c_str());
  h_InnerTrackPixelHits = new TH1D(name, title, 20, 0, 20);

  sprintf(name, "h_TrackLayers_%s", type[i].c_str());
  sprintf(title, "No. of Tracker Layers of %s muons (GeV)", type[i].c_str());
  h_TrackerLayer = new TH1D(name, title, 20, 0, 20);

  sprintf(name, "h_IsolationR04_%s", type[i].c_str());
  sprintf(title, "IsolationR04 %s muons (GeV)", type[i].c_str());
  h_IsolationR04 = new TH1D(name, title, 45, 0, 5);

  sprintf(name, "h_Global_Muon_%s", type[i].c_str());
  sprintf(title, "Global %s muons (GeV)", type[i].c_str());
  h_Global_Muon = new TH1D(name, title, 2, 0, 2);

  sprintf(name, "h_TransImpactParameter_%s", type[i].c_str());
  sprintf(title, "TransImpactParameter of %s muons (GeV)", type[i].c_str());
  h_TransImpactParameter = new TH1D(name, title, 100, 0, 0.5);

  sprintf(name, "h_TransImpactParameterBin1_%s", type[i].c_str());
  sprintf(title, "TransImpactParameter of %s muons (GeV) in -1.5 <= #phi <= 0.5", type[i].c_str());
  h_TransImpactParameterBin1 = new TH1D(name, title, 100, 0, 0.5);

  sprintf(name, "h_TransImpactParameterBin2_%s", type[i].c_str());
  sprintf(title, "TransImpactParameter of %s muons (GeV) in #phi> 0.5 and #phi< -1.5 ", type[i].c_str());
  h_TransImpactParameterBin2 = new TH1D(name, title, 100, 0, 0.5);

  sprintf(name, "h_LongImpactParameter_%s", type[i].c_str());
  sprintf(title, "LongImpactParameter of %s muons (GeV)", type[i].c_str());
  h_LongImpactParameter = new TH1D(name, title, 100, 0, 30);

  sprintf(name, "h_LongImpactParameterBin1_%s", type[i].c_str());
  sprintf(title, "LongImpactParameter of %s muons (GeV) in -1.5 <= #phi <= 0.5", type[i].c_str());
  h_LongImpactParameterBin1 = new TH1D(name, title, 100, 0, 30);

  sprintf(name, "h_LongImpactParameterBin2_%s", type[i].c_str());
  sprintf(title, "LongImpactParameter of %s muons (GeV) in #phi> 0.5 and #phi< -1.5 ", type[i].c_str());
  h_LongImpactParameterBin2 = new TH1D(name, title, 100, 0, 30);

  sprintf(name, "h_2D_Bin1_%s", type[i].c_str());
  sprintf(title, "Trans/Long ImpactParameter of %s muons (GeV) in -1.5 <= #phi< 0.5 ", type[i].c_str());
  h_2D_Bin1 = new TH2D(name, title, 100, 0, 0.5, 100, 0, 30);

  sprintf(name, "h_2D_Bin2_%s", type[i].c_str());
  sprintf(title, "Trans/Long ImpactParameter of %s muons (GeV) in #phi> 0.5 and #phi< -1.5 ", type[i].c_str());
  h_2D_Bin2 = new TH2D(name, title, 100, 0, 0.5, 100, 0, 30);

  sprintf(name, "h_ecal_energy_%s", type[i].c_str());
  sprintf(title, "ECAL energy for %s muons", type[i].c_str());
  h_ecal_energy = new TH1D(name, title, 1000, -10.0, 90.0);

  sprintf(name, "h_hcal_energy_%s", type[i].c_str());
  sprintf(title, "HCAL energy for %s muons", type[i].c_str());
  h_hcal_energy = new TH1D(name, title, 500, -10.0, 90.0);

  sprintf(name, "h_3x3_ecal_%s", type[i].c_str());
  sprintf(title, "ECAL energy in 3x3 for %s muons", type[i].c_str());
  h_3x3_ecal = new TH1D(name, title, 1000, -10.0, 90.0);

  sprintf(name, "h_1x1_hcal_%s", type[i].c_str());
  sprintf(title, "HCAL energy in 1x1 for %s muons", type[i].c_str());
  h_1x1_hcal = new TH1D(name, title, 500, -10.0, 90.0);

  sprintf(name, "h_EtaX_hcal_%s", type[i].c_str());
  sprintf(title, "HCAL energy as a function of i#eta for %s muons", type[i].c_str());
  h_EtaX_hcal = new TProfile(name, title, 60, -30.0, 30.0);

  sprintf(name, "h_PhiY_hcal_%s", type[i].c_str());
  sprintf(title, "HCAL energy as a function of i#phi for %s muons", type[i].c_str());
  h_PhiY_hcal = new TProfile(name, title, 72, 0, 72);

  sprintf(name, "h_EtaX_ecal_%s", type[i].c_str());
  sprintf(title, "EB energy as a function of i#eta for %s muons", type[i].c_str());
  h_EtaX_ecal = new TProfile(name, title, 170, -85.0, 85.0);

  sprintf(name, "h_PhiY_ecal_%s", type[i].c_str());
  sprintf(title, "EB energy as a function of i#phi for %s muons", type[i].c_str());
  h_PhiY_ecal = new TProfile(name, title, 360, 0, 360);

  sprintf(name, "h_Eta_ecal_%s", type[i].c_str());
  sprintf(title, "ECAL energy as a function of #eta for %s muons", type[i].c_str());
  h_Eta_ecal = new TProfile(name, title, 100, -2.5, 2.5);

  sprintf(name, "h_Phi_ecal_%s", type[i].c_str());
  sprintf(title, "ECAL energy as a function of #phi for %s muons", type[i].c_str());
  h_Phi_ecal = new TProfile(name, title, 100, -3.1415926, 3.1415926);

  sprintf(name, "h_MuonHittingEcal_%s", type[i].c_str());
  sprintf(title, "%s muons hitting ECAL", type[i].c_str());
  h_MuonHittingEcal = new TH1D(name, title, 100, 0, 5.0);

  sprintf(name, "h_HotCell_%s", type[i].c_str());
  sprintf(title, "Hot cell for %s muons", type[i].c_str());
  h_HotCell = new TH1D(name, title, 100, 0, 2);

  //		output_file->cd();
  for (int eta = etaMin_; eta <= etaMax_; ++eta) {
    int nDepth = nDepthBins(eta, -1);
    int nPhi = nPhiBins(eta);
    //sprintf(name, "Dir_muon_type_%s_ieta%d",type[i].c_str(), eta);
    //d_output_file[i][eta]= output_file->mkdir(name);
    //output_file->cd(name);
    //d_output_file[i][eta]->cd();
    for (int depth = 0; depth < nDepth; ++depth) {
      for (int PHI = 0; PHI < nPhi; ++PHI) {
        int PHI0 = (nPhi == 72) ? PHI + 1 : 2 * PHI + 1;
        int ih = indxEta[eta - 1][depth][PHI];
        if (debug_)
          std::cout << "eta:" << eta << " depth:" << depth << " PHI:" << PHI << ":" << PHI0 << " ih:" << ih
                    << std::endl;

        sprintf(name, "h_Hot_MuonEnergy_hc_%d_%d_%d_%s_HotCell", eta, (depth + 1), PHI0, type[i].c_str());
        sprintf(title,
                "HCAL energy in hot tower (i#eta=%d, depth=%d, i#phi = %d) for extrapolated %s muons (Hot Cell)",
                eta,
                (depth + 1),
                PHI0,
                type[i].c_str());
        h_Hot_MuonEnergy_hcal_HotCell[ih] = new TH1D(name, title, 4000, 0.0, 10.0);
        h_Hot_MuonEnergy_hcal_HotCell[ih]->Sumw2();

        sprintf(
            name, "h_Hot_MuonEnergy_hc_%d_%d_%d_%s_HotCell_ByActiveLength", eta, (depth + 1), PHI0, type[i].c_str());
        sprintf(title,
                "HCAL energy in hot tower (i#eta=%d, depth=%d, i#phi = %d) for extrapolated %s muons (Hot Cell) "
                "divided by Active Length",
                eta,
                (depth + 1),
                PHI0,
                type[i].c_str());
        h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ih] = new TH1D(name, title, 4000, 0.0, 10.0);
        h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ih]->Sumw2();

        sprintf(name, "h_active_length_Fill_%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());
        sprintf(title, "active_length%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());
        h_active_length_Fill[ih] = new TH1D(name, title, 20, 0, 20);
        h_active_length_Fill[ih]->Sumw2();

        sprintf(name, "h_p_muon_in_%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());
        sprintf(title, "p_muon_in%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());
        h_p_muon_ineta[ih] = new TH1D(name, title, 500, 0, 500);
        h_p_muon_ineta[ih]->Sumw2();

        sprintf(name, "h_charge_signal_in_%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());
        sprintf(name, "charge_signal_in_%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());
        h_charge_signal[ih] = new TH1D(name, title, 500, 0, 500);
        h_charge_signal[ih]->Sumw2();

        sprintf(name, "h_charge_bg_in_%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());
        sprintf(name, "charge_bg_in_%d_%d_%d_%s", eta, (depth + 1), PHI0, type[i].c_str());
        h_charge_bg[ih] = new TH1D(name, title, 500, 0, 500);
        h_charge_bg[ih]->Sumw2();

        ih++;

        sprintf(name, "h_Hot_MuonEnergy_hc_%d_%d_%d_%s_HotCell", -eta, (depth + 1), PHI0, type[i].c_str());
        sprintf(title,
                "HCAL energy in hot tower (i#eta=%d, depth=%d, i#phi = %d) for extrapolated %s muons (Hot Cell)",
                -eta,
                (depth + 1),
                PHI0,
                type[i].c_str());
        h_Hot_MuonEnergy_hcal_HotCell[ih] = new TH1D(name, title, 4000, 0.0, 10.0);
        h_Hot_MuonEnergy_hcal_HotCell[ih]->Sumw2();

        sprintf(
            name, "h_Hot_MuonEnergy_hc_%d_%d_%d_%s_HotCell_ByActiveLength", -eta, (depth + 1), PHI0, type[i].c_str());
        sprintf(title,
                "HCAL energy in hot tower (i#eta=%d, depth=%d, i#phi=%d) for extrapolated %s muons (Hot Cell) "
                "divided by Active Length",
                -eta,
                (depth + 1),
                PHI0,
                type[i].c_str());
        h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ih] = new TH1D(name, title, 4000, 0.0, 10.0);
        h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ih]->Sumw2();

        sprintf(name, "h_active_length_Fill_%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());
        sprintf(title, "active_length%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());
        h_active_length_Fill[ih] = new TH1D(name, title, 20, 0, 20);
        h_active_length_Fill[ih]->Sumw2();

        sprintf(name, "h_p_muon_in_%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());
        sprintf(title, "p_muon_in%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());
        h_p_muon_ineta[ih] = new TH1D(name, title, 500, 0, 500);
        h_p_muon_ineta[ih]->Sumw2();

        sprintf(name, "h_charge_signal_in_%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());
        sprintf(name, "charge_signal_in_%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());
        h_charge_signal[ih] = new TH1D(name, title, 500, 0, 500);
        h_charge_signal[ih]->Sumw2();

        sprintf(name, "h_charge_bg_in_%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());
        sprintf(name, "charge_bg_in_%d_%d_%d_%s", -eta, (depth + 1), PHI0, type[i].c_str());
        h_charge_bg[ih] = new TH1D(name, title, 500, 0, 500);
        h_charge_bg[ih]->Sumw2();
      }
    }
    //output_file->cd();
  }
  //output_file->cd();
}

bool HBHEMuonOfflineAnalyzer::getEnergy(
    int dep, double &enb, double &enu, double &enh, double &enc, double &chgS, double &chgB, double &actL) {
  double cfac(1.0);
  bool flag(true);
  if (cFactor_) {
    int ieta = hcal_ieta;
    int iphi = hcal_iphi;
    unsigned int detId = getDetIdHBHE(ieta, iphi, dep + 1);
    cfac = getCorr(Run_No, detId);
  }
  if (dep == 0) {
    enb = cfac * hcal_edepth1;
    enu = cfac * hcal_edepthCorrect1;
    enh = cfac * hcal_edepthHot1;
    enc = cfac * hcal_edepthHotCorrect1;
    chgS = hcal_cdepthHot1;
    actL = hcal_activeHotL1;
    chgB = hcal_cdepthHotBG1;
  } else if (dep == 1) {
    enb = cfac * hcal_edepth2;
    enu = cfac * hcal_edepthCorrect2;
    enh = cfac * hcal_edepthHot2;
    enc = cfac * hcal_edepthHotCorrect2;
    chgS = hcal_cdepthHot2;
    actL = hcal_activeHotL2;
    chgB = hcal_cdepthHotBG2;
  } else if (dep == 2) {
    enb = cfac * hcal_edepth3;
    enu = cfac * hcal_edepthCorrect3;
    enh = cfac * hcal_edepthHot3;
    enc = cfac * hcal_edepthHotCorrect3;
    chgS = hcal_cdepthHot3;
    actL = hcal_activeHotL3;
    chgB = hcal_cdepthHotBG3;
  } else if (dep == 3) {
    enb = cfac * hcal_edepth4;
    enu = cfac * hcal_edepthCorrect4;
    enh = cfac * hcal_edepthHot4;
    enc = cfac * hcal_edepthHotCorrect4;
    chgS = hcal_cdepthHot4;
    actL = hcal_activeHotL4;
    chgB = hcal_cdepthHotBG4;
  } else if (dep == 4) {
    enb = cfac * hcal_edepth5;
    enu = cfac * hcal_edepthCorrect5;
    enh = cfac * hcal_edepthHot5;
    enc = cfac * hcal_edepthHotCorrect5;
    chgS = hcal_cdepthHot5;
    actL = hcal_activeHotL5;
    chgB = hcal_cdepthHotBG5;
  } else if (dep == 5) {
    if (dep <= maxDepth_) {
      enb = cfac * hcal_edepth6;
      enu = cfac * hcal_edepthCorrect6;
      enh = cfac * hcal_edepthHot6;
      enc = cfac * hcal_edepthHotCorrect6;
      chgS = hcal_cdepthHot6;
      actL = hcal_activeHotL6;
      chgB = hcal_cdepthHotBG6;
    } else {
      enb = enu = enh = enc = chgS = actL = chgB = 0;
      flag = false;
    }
  } else if (dep == 6) {
    if (dep <= maxDepth_) {
      enb = cfac * hcal_edepth7;
      enu = cfac * hcal_edepthCorrect7;
      enh = cfac * hcal_edepthHot7;
      enc = cfac * hcal_edepthHotCorrect7;
      chgS = hcal_cdepthHot7;
      actL = hcal_activeHotL7;
      chgB = hcal_cdepthHotBG7;
    } else {
      enb = enu = enh = enc = chgS = actL = chgB = 0;
      flag = false;
    }
  } else {
    enb = enu = enh = enc = chgS = actL = chgB = 0;
    flag = false;
  }
  return flag;
}

bool HBHEMuonOfflineAnalyzer::looseMuon() {
  if (pt_of_muon > 20.) {
    if (mediumMuon2016()) {
      if (IsolationR04 < 0.25) {
        return true;
      }
    }
  }
  return false;
}

bool HBHEMuonOfflineAnalyzer::softMuon() {
  if (pt_of_muon > 20.) {
    if (mediumMuon2016()) {
      if (IsolationR03 < 0.10) {
        return true;
      }
    }
  }
  return false;
}

bool HBHEMuonOfflineAnalyzer::tightMuon() {
  if (pt_of_muon > 20.) {
    if (mediumMuon2016()) {
      if (IsolationR04 < 0.15) {
        return true;
      }
    }
  }
  return false;
}

bool HBHEMuonOfflineAnalyzer::mediumMuon2016() {
  bool medium16 = (((PF_Muon) && (Global_Muon || Tracker_muon)) && (tight_validFraction > 0.49));
  if (!medium16)
    return medium16;

  bool goodGlob = (Global_Muon && GlobTrack_Chi < 3 && muon_chi2LocalPosition < 12 && muon_trkKink < 20);
  medium16 = muon_segComp > (goodGlob ? 0.303 : 0.451);
  return medium16;
}

void HBHEMuonOfflineAnalyzer::etaPhiHcal(unsigned int detId, int &eta, int &phi, int &depth) {
  int zside, etaAbs;
  if ((detId & 0x1000000) == 0) {
    zside = (detId & 0x2000) ? (1) : (-1);
    etaAbs = (detId >> 7) & 0x3F;
    phi = detId & 0x7F;
    depth = (detId >> 14) & 0x1F;
  } else {
    zside = (detId & 0x80000) ? (1) : (-1);
    etaAbs = (detId >> 10) & 0x1FF;
    phi = detId & 0x3FF;
    depth = (detId >> 20) & 0xF;
  }
  eta = etaAbs * zside;
}

void HBHEMuonOfflineAnalyzer::etaPhiEcal(
    unsigned int detId, int &type, int &zside, int &etaX, int &phiY, int &plane, int &strip) {
  type = ((detId >> 25) & 0x7);
  // std::cout<<"type"<<type<<std::endl;
  plane = strip = 0;
  if (type == 1) {
    //Ecal Barrel
    zside = (detId & 0x10000) ? (1) : (-1);
    etaX = (detId >> 9) & 0x7F;
    phiY = detId & 0x1FF;
  } else if (type == 2) {
    zside = (detId & 0x4000) ? (1) : (-1);
    etaX = (detId >> 7) & 0x7F;
    phiY = (detId & 0x7F);
  } else if (type == 3) {
    zside = (detId & 0x80000) ? (1) : (-1);
    etaX = (detId >> 6) & 0x3F;
    /** get the sensor iy */
    phiY = (detId >> 12) & 0x3F;
    /** get the strip */
    plane = ((detId >> 18) & 0x1) + 1;
    strip = detId & 0x3F;
  } else {
    zside = etaX = phiY = 0;
  }
}

void HBHEMuonOfflineAnalyzer::calculateP(double pt, double eta, double &pM) {
  pM = (pt * cos(2 * (1 / atan(exp(eta)))));
}

void HBHEMuonOfflineAnalyzer::close() {
  output_file->cd();
  std::cout << "file yet to be Written" << std::endl;
  outtree_->Write();
  writeHistograms();
  std::cout << "file Written" << std::endl;
  output_file->Close();
  std::cout << "now doing return" << std::endl;
}

void HBHEMuonOfflineAnalyzer::writeHistograms() {
  //output_file->cd();
  std::string type[] = {"tight", "soft", "loose"};
  char name[128];

  std::cout << "WriteHistograms" << std::endl;
  nHist = 0;
  for (int eta = etaMin_; eta <= etaMax_; ++eta) {
    int nDepth = nDepthBins(eta, -1);
    int nPhi = nPhiBins(eta);
    if (debug_)
      std::cout << "Eta:" << eta << " nDepths " << nDepth << " nPhis " << nPhi << std::endl;
    for (int depth = 0; depth < nDepth; ++depth) {
      if (debug_)
        std::cout << "Eta:" << eta << "Depth:" << depth << std::endl;
      for (int PHI = 0; PHI < nPhi; ++PHI) {
        indxEta[eta - 1][depth][PHI] = nHist;
        nHist += 2;
      }
    }
  }

  TDirectory *d_output_file[29];
  h_evtype->Write();
  //output_file->cd();
  int i(nCut_);
  h_Pt_Muon->Write();
  h_Eta_Muon->Write();
  h_Phi_Muon->Write();

  h_P_Muon->Write();
  h_PF_Muon->Write();
  h_GlobTrack_Chi->Write();
  h_Global_Muon_Hits->Write();

  h_MatchedStations->Write();
  h_Tight_TransImpactparameter->Write();
  h_Tight_LongitudinalImpactparameter->Write();

  h_InnerTrackPixelHits->Write();
  h_TrackerLayer->Write();
  h_IsolationR04->Write();

  h_Global_Muon->Write();
  h_TransImpactParameter->Write();

  h_TransImpactParameterBin1->Write();
  h_TransImpactParameterBin2->Write();

  h_LongImpactParameter->Write();
  h_LongImpactParameterBin1->Write();
  h_LongImpactParameterBin2->Write();

  h_ecal_energy->Write();
  h_hcal_energy->Write();

  h_3x3_ecal->Write();
  h_1x1_hcal->Write();

  h_EtaX_hcal->Write();
  h_PhiY_hcal->Write();

  h_EtaX_ecal->Write();
  h_PhiY_ecal->Write();

  h_Eta_ecal->Write();
  h_Phi_ecal->Write();
  h_MuonHittingEcal->Write();
  h_HotCell->Write();

  output_file->cd();
  for (int eta = etaMin_; eta <= etaMax_; ++eta) {
    int nDepth = nDepthBins(eta, -1);
    int nPhi = nPhiBins(eta);
    sprintf(name, "Dir_muon_type_%s_ieta%d", type[i].c_str(), eta);
    d_output_file[eta - 1] = output_file->mkdir(name);
    //output_file->cd(name);
    d_output_file[eta - 1]->cd();
    for (int depth = 0; depth < nDepth; ++depth) {
      for (int PHI = 0; PHI < nPhi; ++PHI) {
        //	std::cout<<"eta:"<<eta<<"depth:"<<depth<<"PHI:"<<PHI<<std::endl;
        int ih = indxEta[eta - 1][depth][PHI];
        //	std::cout<<"ih:"<<ih<<std::endl;
        h_Hot_MuonEnergy_hcal_HotCell[ih]->Write();

        h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ih]->Write();
        h_active_length_Fill[ih]->Write();
        h_p_muon_ineta[ih]->Write();
        h_charge_signal[ih]->Write();
        h_charge_bg[ih]->Write();
        ih++;
        h_Hot_MuonEnergy_hcal_HotCell[ih]->Write();
        h_Hot_MuonEnergy_hcal_HotCell_VsActiveLength[ih]->Write();
        h_active_length_Fill[ih]->Write();
        h_p_muon_ineta[ih]->Write();
        h_charge_signal[ih]->Write();
        h_charge_bg[ih]->Write();
      }
    }
    output_file->cd();
  }
  output_file->cd();
}

int HBHEMuonOfflineAnalyzer::nDepthBins(int eta, int phi) {
  // Run 1 scenario
  int nDepthR1[29] = {1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 2, 3, 1, 2, 2, 2, 2, 2, 2, 2, 2, 2, 3, 3, 2};
  // Run 2 scenario from 2018
  int nDepthR2[29] = {1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 2, 4, 3, 5, 6, 6, 6, 6, 6, 6, 6, 7, 7, 7, 3};
  // Run 3 scenario
  int nDepthR3[29] = {4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 3, 5, 6, 6, 6, 6, 6, 6, 6, 7, 7, 7, 3};
  // Run 4 scenario
  int nDepthR4[29] = {4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 4, 7, 7, 7, 7, 7, 7, 7, 7, 7, 7, 7, 7, 7};
  // for a test scenario with multi depth segmentation considered during Run 1
  //    int  nDepth[29]={3,3,3,3,3,3,3,3,3,3,3,3,3,3,3,3,5,5,5,5,5,5,5,5,5,5,5,5,5};
  // modeLHC_ = 0 --> nbin defined maxDepthHB/HE
  //          = 1 -->      corresponds to Run 1 (valid till 2016)
  //          = 2 -->      corresponds to Run 2 (2018 geometry)
  //          = 3 -->      corresponds to Run 3 (post LS2)
  //          = 4 -->      corresponds to 2017 (Plan 1)
  //          = 5 -->      corresponds to Run 4 (post LS3)
  int nbin(0);
  if (modeLHC_ == 0) {
    if (eta <= 15) {
      nbin = maxDepthHB_;
    } else if (eta == 16) {
      nbin = 4;
    } else {
      nbin = maxDepthHE_;
    }
  } else if (modeLHC_ == 1) {
    nbin = nDepthR1[eta - 1];
  } else if (modeLHC_ == 2) {
    nbin = nDepthR2[eta - 1];
  } else if (modeLHC_ == 3) {
    nbin = nDepthR3[eta - 1];
  } else if (modeLHC_ == 4) {
    if (phi > 0) {
      if (eta >= 16 && phi >= 63 && phi <= 66) {
        nbin = nDepthR2[eta - 1];
      } else {
        nbin = nDepthR1[eta - 1];
      }
    } else {
      if (eta >= 16) {
        nbin = (nDepthR2[eta - 1] > nDepthR1[eta - 1]) ? nDepthR2[eta - 1] : nDepthR1[eta - 1];
      } else {
        nbin = nDepthR1[eta - 1];
      }
    }
  } else {
    if (eta > 0 && eta < 30) {
      nbin = nDepthR4[eta - 1];
    } else {
      nbin = nDepthR4[28];
    }
  }
  return nbin;
}

int HBHEMuonOfflineAnalyzer::nPhiBins(int eta) {
  int nphi = (eta <= 20) ? 72 : 36;
  if (modeLHC_ == 5 && eta > 16)
    nphi = 360;
  return nphi;
}

float HBHEMuonOfflineAnalyzer::getCorr(int run, unsigned int id) {
  float cfac(1.0);
  int ip(-1);
  for (unsigned int k = 0; k < runlow_.size(); ++k) {
    unsigned int i = runlow_.size() - k - 1;
    if (run >= runlow_[i]) {
      ip = (int)(i);
      break;
    }
  }
  if (debug_) {
    std::cout << "Run " << run << " Perdiod " << ip << std::endl;
  }
  unsigned idx = correctDetId(id);
  if (ip >= 0) {
    std::map<unsigned int, float>::iterator itr = corrFac_[ip].find(idx);
    if (itr != corrFac_[ip].end())
      cfac = itr->second;
  }
  if (debug_) {
    int subdet, zside, ieta, iphi, depth;
    unpackDetId(idx, subdet, zside, ieta, iphi, depth);
    std::cout << "ID " << std::hex << id << std::dec << " (Sub " << subdet << " eta " << zside * ieta << " phi " << iphi
              << " depth " << depth << ")  Factor " << cfac << std::endl;
  }
  return cfac;
}

std::vector<std::string> HBHEMuonOfflineAnalyzer::splitString(const std::string &fLine) {
  std::vector<std::string> result;
  int start = 0;
  bool empty = true;
  for (unsigned i = 0; i <= fLine.size(); i++) {
    if (fLine[i] == ' ' || i == fLine.size()) {
      if (!empty) {
        std::string item(fLine, start, i - start);
        result.push_back(item);
        empty = true;
      }
      start = i + 1;
    } else {
      if (empty)
        empty = false;
    }
  }
  return result;
}

unsigned int HBHEMuonOfflineAnalyzer::getDetIdHBHE(int ieta, int iphi, int depth) {
  int eta = std::abs(ieta);
  int subdet(0);
  if (eta > 16)
    subdet = 2;
  else if (eta == 16 && depth > 2)
    subdet = 2;
  else
    subdet = 1;
  return getDetId(subdet, ieta, iphi, depth);
}

unsigned int HBHEMuonOfflineAnalyzer::getDetId(int subdet, int ieta, int iphi, int depth) {
  // All numbers used here are described as masks/offsets in
  // DataFormats/HcalDetId/interface/HcalDetId.h
  unsigned int id = ((4 << 28) | ((subdet & 0x7) << 25));
  id |= ((0x1000000) | ((depth & 0xF) << 20) | ((ieta > 0) ? (0x80000 | (ieta << 10)) : ((-ieta) << 10)) |
         (iphi & 0x3FF));
  return id;
}

unsigned int HBHEMuonOfflineAnalyzer::correctDetId(const unsigned int &detId) {
  int subdet, ieta, zside, depth, iphi;
  unpackDetId(detId, subdet, zside, ieta, iphi, depth);
  if (subdet == 0) {
    if (ieta > 16)
      subdet = 2;
    else if (ieta == 16 && depth > 2)
      subdet = 2;
    else
      subdet = 1;
  }
  unsigned int id = getDetId(subdet, ieta * zside, iphi, depth);
  if ((id != detId) && debug_) {
    std::cout << "Correct Id " << std::hex << detId << " to " << id << std::dec << "(Sub " << subdet << " eta "
              << ieta * zside << " phi " << iphi << " depth " << depth << ")" << std::endl;
  }
  return id;
}

void HBHEMuonOfflineAnalyzer::unpackDetId(
    unsigned int detId, int &subdet, int &zside, int &ieta, int &iphi, int &depth) {
  // The maskings are defined in DataFormats/DetId/interface/DetId.h
  //                      and in DataFormats/HcalDetId/interface/HcalDetId.h
  // The macro does not invoke the classes there and use them
  subdet = ((detId >> 25) & (0x7));
  if ((detId & 0x1000000) == 0) {
    ieta = ((detId >> 7) & 0x3F);
    zside = (detId & 0x2000) ? (1) : (-1);
    depth = ((detId >> 14) & 0x1F);
    iphi = (detId & 0x3F);
  } else {
    ieta = ((detId >> 10) & 0x1FF);
    zside = (detId & 0x80000) ? (1) : (-1);
    depth = ((detId >> 20) & 0xF);
    iphi = (detId & 0x3FF);
  }
}