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// system includes
#include <memory>
#include <string>
#include <iostream>
#include <fstream>
// user includes
#include "CLHEP/Random/RandGauss.h"
#include "CalibTracker/SiStripLorentzAngle/interface/SiStripCalibLorentzAngle.h"
#include "DQM/SiStripCommon/interface/ExtractTObject.h"
#include "DQM/SiStripCommon/interface/SiStripHistoId.h"
#include "DQMServices/Core/interface/DQMStore.h"
#include "DataFormats/SiStripDetId/interface/StripSubdetector.h"
#include "FWCore/ServiceRegistry/interface/Service.h"
#include "Geometry/CommonTopologies/interface/StripTopology.h"
#include "Geometry/TrackerGeometryBuilder/interface/StripGeomDetUnit.h"
SiStripCalibLorentzAngle::SiStripCalibLorentzAngle(edm::ParameterSet const& conf)
: ConditionDBWriter<SiStripLorentzAngle>(conf),
tTopoToken_(esConsumes<edm::Transition::BeginRun>()),
tkGeomToken_(esConsumes<edm::Transition::BeginRun>()),
magFieldToken_(esConsumes<edm::Transition::BeginRun>()),
lorentzAngleToken_(esConsumes<edm::Transition::BeginRun>()),
conf_(conf) {}
void SiStripCalibLorentzAngle::algoBeginJob(const edm::EventSetup& c) {
tTopo_ = &c.getData(tTopoToken_);
tkGeom_ = &c.getData(tkGeomToken_);
const auto& magField = c.getData(magFieldToken_);
detid_la = c.getData(lorentzAngleToken_).getLorentzAngles();
DQMStore* dbe_ = edm::Service<DQMStore>().operator->();
std::string inputFile_ = conf_.getUntrackedParameter<std::string>("fileName", "LAProfiles.root");
std::string LAreport_ = conf_.getUntrackedParameter<std::string>("LA_Report", "LA_Report.txt");
std::string NoEntriesHisto_ = conf_.getUntrackedParameter<std::string>("NoEntriesHisto", "NoEntriesHisto.txt");
std::string Dir_Name_ = conf_.getUntrackedParameter<std::string>("Dir_Name", "SiStrip");
LayerDB = conf_.getUntrackedParameter<bool>("LayerDB", false);
CalibByMC = conf_.getUntrackedParameter<bool>("CalibByMC", false);
dbe_->open(inputFile_);
// use SistripHistoId for producing histogram id (and title)
SiStripHistoId hidmanager;
edm::LogInfo("SiStripCalibLorentzAngle") << "### DIR-NAME = " << Dir_Name_;
histolist = dbe_->getAllContents(Dir_Name_);
std::vector<MonitorElement*>::iterator histo;
hFile = new TFile(conf_.getUntrackedParameter<std::string>("out_fileName").c_str(), "RECREATE");
LorentzAngle_Plots = hFile->mkdir("LorentzAngle_Plots");
Rootple = LorentzAngle_Plots->mkdir("Rootple");
MuH = LorentzAngle_Plots->mkdir("MuH");
TIB_MuH = MuH->mkdir("TIB_MuH");
TOB_MuH = MuH->mkdir("TOB_MuH");
MuH_vs_Phi = LorentzAngle_Plots->mkdir("MuH_vs_Phi");
TIB_Phi = MuH_vs_Phi->mkdir("TIB_Phi");
TOB_Phi = MuH_vs_Phi->mkdir("TOB_Phi");
MuH_vs_Eta = LorentzAngle_Plots->mkdir("MuH_vs_Eta");
TIB_Eta = MuH_vs_Eta->mkdir("TIB_Eta");
TOB_Eta = MuH_vs_Eta->mkdir("TOB_Eta");
FirstIT_GoodFit_Histos = LorentzAngle_Plots->mkdir("1IT_GoodFit_Histos");
TIB_1IT_GoodFit = FirstIT_GoodFit_Histos->mkdir("TIB_1IT_GoodFit");
TOB_1IT_GoodFit = FirstIT_GoodFit_Histos->mkdir("TOB_1IT_GoodFit");
SecondIT_GoodFit_Histos = LorentzAngle_Plots->mkdir("2IT_GoodFit_Histos");
TIB_2IT_GoodFit = SecondIT_GoodFit_Histos->mkdir("TIB_2IT_GoodFit");
TOB_2IT_GoodFit = SecondIT_GoodFit_Histos->mkdir("TOB_2IT_GoodFit");
SecondIT_BadFit_Histos = LorentzAngle_Plots->mkdir("2IT_BadFit_Histos");
TIB_2IT_BadFit = SecondIT_BadFit_Histos->mkdir("TIB_2IT_BadFit");
TOB_2IT_BadFit = SecondIT_BadFit_Histos->mkdir("TOB_2IT_BadFit");
TH1Ds["LA_TIB"] = new TH1D("TanLAPerTesla TIB", "TanLAPerTesla TIB", 1000, -0.5, 0.5);
TH1Ds["LA_TIB"]->SetDirectory(MuH);
TH1Ds["LA_TOB"] = new TH1D("TanLAPerTesla TOB", "TanLAPerTesla TOB", 1000, -0.5, 0.5);
TH1Ds["LA_TOB"]->SetDirectory(MuH);
TH1Ds["LA_err_TIB"] = new TH1D("TanLAPerTesla Error TIB", "TanLAPerTesla Error TIB", 1000, 0, 1);
TH1Ds["LA_err_TIB"]->SetDirectory(MuH);
TH1Ds["LA_err_TOB"] = new TH1D("TanLAPerTesla Error TOB", "TanLAPerTesla Error TOB", 1000, 0, 1);
TH1Ds["LA_err_TOB"]->SetDirectory(MuH);
TH1Ds["LA_chi2norm_TIB"] = new TH1D("TanLAPerTesla Chi2norm TIB", "TanLAPerTesla Chi2norm TIB", 2000, 0, 10);
TH1Ds["LA_chi2norm_TIB"]->SetDirectory(MuH);
TH1Ds["LA_chi2norm_TOB"] = new TH1D("TanLAPerTesla Chi2norm TOB", "TanLAPerTesla Chi2norm TOB", 2000, 0, 10);
TH1Ds["LA_chi2norm_TOB"]->SetDirectory(MuH);
TH1Ds["MagneticField"] = new TH1D("MagneticField", "MagneticField", 500, 0, 5);
TH1Ds["MagneticField"]->SetDirectory(MuH);
TH2Ds["LA_TIB_graph"] = new TH2D("TanLAPerTesla TIB Layers", "TanLAPerTesla TIB Layers", 60, 0, 5, 1000, -0.3, 0.3);
TH2Ds["LA_TIB_graph"]->SetDirectory(MuH);
TH2Ds["LA_TIB_graph"]->SetNdivisions(6);
TH2Ds["LA_TOB_graph"] = new TH2D("TanLAPerTesla TOB Layers", "TanLAPerTesla TOB Layers", 80, 0, 7, 1000, -0.3, 0.3);
TH2Ds["LA_TOB_graph"]->SetDirectory(MuH);
TH2Ds["LA_TOB_graph"]->SetNdivisions(8);
TH1Ds["LA_TIB_1"] = new TH1D("TanLAPerTesla TIB1", "TanLAPerTesla TIB1", 2000, -0.5, 0.5);
TH1Ds["LA_TIB_1"]->SetDirectory(TIB_MuH);
TH1Ds["LA_TIB_1_mono"] = new TH1D("TanLAPerTesla TIB1 MONO", "TanLAPerTesla TIB1 MONO", 2000, -0.5, 0.5);
TH1Ds["LA_TIB_1_mono"]->SetDirectory(TIB_MuH);
TH1Ds["LA_TIB_1_stereo"] = new TH1D("TanLAPerTesla TIB1 STEREO", "TanLAPerTesla TIB1 STEREO", 2000, -0.5, 0.5);
TH1Ds["LA_TIB_1_stereo"]->SetDirectory(TIB_MuH);
TH1Ds["LA_TIB_2"] = new TH1D("TanLAPerTesla TIB2", "TanLAPerTesla TIB2", 2000, -0.5, 0.5);
TH1Ds["LA_TIB_2"]->SetDirectory(TIB_MuH);
TH1Ds["LA_TIB_2_mono"] = new TH1D("TanLAPerTesla TIB2 MONO", "TanLAPerTesla TIB2 MONO", 2000, -0.5, 0.5);
TH1Ds["LA_TIB_2_mono"]->SetDirectory(TIB_MuH);
TH1Ds["LA_TIB_2_stereo"] = new TH1D("TanLAPerTesla TIB2 STEREO", "TanLAPerTesla TIB2 STEREO", 2000, -0.5, 0.5);
TH1Ds["LA_TIB_2_stereo"]->SetDirectory(TIB_MuH);
TH1Ds["LA_TIB_3"] = new TH1D("TanLAPerTesla_TIB 3", "TanLAPerTesla TIB3", 2000, -0.5, 0.5);
TH1Ds["LA_TIB_3"]->SetDirectory(TIB_MuH);
TH1Ds["LA_TIB_4"] = new TH1D("TanLAPerTesla_TIB 4", "TanLAPerTesla TIB4", 2000, -0.5, 0.5);
TH1Ds["LA_TIB_4"]->SetDirectory(TIB_MuH);
TH1Ds["LA_TOB_1"] = new TH1D("TanLAPerTesla TOB1", "TanLAPerTesla TOB1", 2000, -0.5, 0.5);
TH1Ds["LA_TOB_1"]->SetDirectory(TOB_MuH);
TH1Ds["LA_TOB_1_mono"] = new TH1D("TanLAPerTesla TOB1 MONO", "TanLAPerTesla TOB1 MONO", 2000, -0.5, 0.5);
TH1Ds["LA_TOB_1_mono"]->SetDirectory(TOB_MuH);
TH1Ds["LA_TOB_1_stereo"] = new TH1D("TanLAPerTesla TOB1 STEREO", "TanLAPerTesla TOB1 STEREO", 2000, -0.5, 0.5);
TH1Ds["LA_TOB_1_stereo"]->SetDirectory(TOB_MuH);
TH1Ds["LA_TOB_2"] = new TH1D("TanLAPerTesla TOB2", "TanLAPerTesla TOB2", 2000, -0.5, 0.5);
TH1Ds["LA_TOB_2"]->SetDirectory(TOB_MuH);
TH1Ds["LA_TOB_2_mono"] = new TH1D("TanLAPerTesla TOB2 MONO", "TanLAPerTesla TOB2 MONO", 2000, -0.5, 0.5);
TH1Ds["LA_TOB_2_mono"]->SetDirectory(TOB_MuH);
TH1Ds["LA_TOB_2_stereo"] = new TH1D("TanLAPerTesla TOB2 STEREO", "TanLAPerTesla TOB2 STEREO", 2000, -0.5, 0.5);
TH1Ds["LA_TOB_2_stereo"]->SetDirectory(TOB_MuH);
TH1Ds["LA_TOB_3"] = new TH1D("TanLAPerTesla TOB3", "TanLAPerTesla TOB3", 2000, -0.5, 0.5);
TH1Ds["LA_TOB_3"]->SetDirectory(TOB_MuH);
TH1Ds["LA_TOB_4"] = new TH1D("TanLAPerTesla TOB4", "TanLAPerTesla TOB4", 2000, -0.5, 0.5);
TH1Ds["LA_TOB_4"]->SetDirectory(TOB_MuH);
TH1Ds["LA_TOB_5"] = new TH1D("TanLAPerTesla TOB5", "TanLAPerTesla TOB5", 2000, -0.5, 0.5);
TH1Ds["LA_TOB_5"]->SetDirectory(TOB_MuH);
TH1Ds["LA_TOB_6"] = new TH1D("TanLAPerTesla TOB6", "TanLAPerTesla TOB6", 2000, -0.5, 0.5);
TH1Ds["LA_TOB_6"]->SetDirectory(TOB_MuH);
TH2Ds["LA_phi_TIB"] = new TH2D("TanLAPerTesla vs Phi TIB", "TanLAPerTesla vs Phi TIB", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TIB"]->SetDirectory(MuH_vs_Phi);
TH2Ds["LA_phi_TOB"] = new TH2D("TanLAPerTesla vs Phi TOB", "TanLAPerTesla vs Phi TOB", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TOB"]->SetDirectory(MuH_vs_Phi);
TH2Ds["LA_phi_TIB1"] = new TH2D("TanLAPerTesla vs Phi TIB1", "TanLAPerTesla vs Phi TIB1", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TIB1"]->SetDirectory(TIB_Phi);
TH2Ds["LA_phi_TIB1_mono"] =
new TH2D("TanLAPerTesla vs Phi TIB1 MONO", "TanLAPerTesla vs Phi TIB1 MONO", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TIB1_mono"]->SetDirectory(TIB_Phi);
TH2Ds["LA_phi_TIB1_stereo"] =
new TH2D("TanLAPerTesla vs Phi TIB1 STEREO", "TanLAPerTesla vs Phi TIB1 STEREO", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TIB1_stereo"]->SetDirectory(TIB_Phi);
TH2Ds["LA_phi_TIB2"] = new TH2D("TanLAPerTesla vs Phi TIB2", "TanLAPerTesla vs Phi TIB2", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TIB2"]->SetDirectory(TIB_Phi);
TH2Ds["LA_phi_TIB2_mono"] =
new TH2D("TanLAPerTesla vs Phi TIB2 MONO", "TanLAPerTesla vs Phi TIB2 MONO", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TIB2_mono"]->SetDirectory(TIB_Phi);
TH2Ds["LA_phi_TIB2_stereo"] =
new TH2D("TanLAPerTesla vs Phi TIB2 STEREO", "TanLAPerTesla vs Phi TIB2 STEREO", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TIB2_stereo"]->SetDirectory(TIB_Phi);
TH2Ds["LA_phi_TIB3"] = new TH2D("TanLAPerTesla vs Phi TIB3", "TanLAPerTesla vs Phi TIB3", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TIB3"]->SetDirectory(TIB_Phi);
TH2Ds["LA_phi_TIB4"] = new TH2D("TanLAPerTesla vs Phi TIB4", "TanLAPerTesla vs Phi TIB4", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TIB4"]->SetDirectory(TIB_Phi);
TH2Ds["LA_phi_TOB1"] = new TH2D("TanLAPerTesla vs Phi TOB1", "TanLAPerTesla vs Phi TOB1", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TOB1"]->SetDirectory(TOB_Phi);
TH2Ds["LA_phi_TOB1_mono"] =
new TH2D("TanLAPerTesla vs Phi TOB1 MONO", "TanLAPerTesla vs Phi TOB1 MONO", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TOB1_mono"]->SetDirectory(TOB_Phi);
TH2Ds["LA_phi_TOB1_stereo"] =
new TH2D("TanLAPerTesla vs Phi TOB1 STEREO", "TanLAPerTesla vs Phi TOB1 STEREO", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TOB1_stereo"]->SetDirectory(TOB_Phi);
TH2Ds["LA_phi_TOB2"] = new TH2D("TanLAPerTesla vs Phi TOB2", "TanLAPerTesla vs Phi TOB2", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TOB2"]->SetDirectory(TOB_Phi);
TH2Ds["LA_phi_TOB2_mono"] =
new TH2D("TanLAPerTesla vs Phi TOB2 MONO", "TanLAPerTesla vs Phi TOB2 MONO", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TOB2_mono"]->SetDirectory(TOB_Phi);
TH2Ds["LA_phi_TOB2_stereo"] =
new TH2D("TanLAPerTesla vs Phi TOB2 STEREO", "TanLAPerTesla vs Phi TOB2 STEREO", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TOB2_stereo"]->SetDirectory(TOB_Phi);
TH2Ds["LA_phi_TOB3"] = new TH2D("TanLAPerTesla vs Phi TOB3", "TanLAPerTesla vs Phi TOB3", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TOB3"]->SetDirectory(TOB_Phi);
TH2Ds["LA_phi_TOB4"] = new TH2D("TanLAPerTesla vs Phi TOB4", "TanLAPerTesla vs Phi TOB4", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TOB4"]->SetDirectory(TOB_Phi);
TH2Ds["LA_phi_TOB5"] = new TH2D("TanLAPerTesla vs Phi TOB5", "TanLAPerTesla vs Phi TOB5", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TOB5"]->SetDirectory(TOB_Phi);
TH2Ds["LA_phi_TOB6"] = new TH2D("TanLAPerTesla vs Phi TOB6", "TanLAPerTesla vs Phi TOB6", 800, -4, 4, 600, -0.3, 0.3);
TH2Ds["LA_phi_TOB6"]->SetDirectory(TOB_Phi);
TH2Ds["LA_eta_TIB"] =
new TH2D("TanLAPerTesla vs Eta TIB", "TanLAPerTesla vs Eta TIB", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TIB"]->SetDirectory(MuH_vs_Eta);
TH2Ds["LA_eta_TOB"] =
new TH2D("TanLAPerTesla vs Eta TOB", "TanLAPerTesla vs Eta TOB", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TOB"]->SetDirectory(MuH_vs_Eta);
TH2Ds["LA_eta_TIB1"] =
new TH2D("TanLAPerTesla vs Eta TIB1", "TanLAPerTesla vs Eta TIB1", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TIB1"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TIB1_mono"] =
new TH2D("TanLAPerTesla vs Eta TIB1 MONO", "TanLAPerTesla vs Eta TIB1 MONO", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TIB1_mono"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TIB1_stereo"] =
new TH2D("TanLAPerTesla vs Eta TIB1 STEREO", "TanLAPerTesla vs Eta TIB1 STEREO", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TIB1_stereo"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TIB2"] =
new TH2D("TanLAPerTesla vs Eta TIB2", "TanLAPerTesla vs Eta TIB2", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TIB2"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TIB2_mono"] =
new TH2D("TanLAPerTesla vs Eta TIB2 MONO", "TanLAPerTesla vs Eta TIB2 MONO", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TIB2_mono"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TIB2_stereo"] =
new TH2D("TanLAPerTesla vs Eta TIB2 STEREO", "TanLAPerTesla vs Eta TIB2 STEREO", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TIB2_stereo"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TIB3"] =
new TH2D("TanLAPerTesla vs Eta TIB3", "TanLAPerTesla vs Eta TIB3", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TIB3"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TIB4"] =
new TH2D("TanLAPerTesla vs Eta TIB4", "TanLAPerTesla vs Eta TIB4", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TIB4"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TOB1"] =
new TH2D("TanLAPerTesla vs Eta TOB1", "TanLAPerTesla vs Eta TOB1", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TOB1"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TOB1_mono"] =
new TH2D("TanLAPerTesla vs Eta TOB1 MONO", "TanLAPerTesla vs Eta TOB1 MONO", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TOB1_mono"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TOB1_stereo"] =
new TH2D("TanLAPerTesla vs Eta TOB1 STEREO", "TanLAPerTesla vs Eta TOB1 STEREO", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TOB1_stereo"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TOB2"] =
new TH2D("TanLAPerTesla vs Eta TOB2", "TanLAPerTesla vs Eta TOB2", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TOB2"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TOB2_mono"] =
new TH2D("TanLAPerTesla vs Eta TOB2 MONO", "TanLAPerTesla vs Eta TOB2 MONO", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TOB2_mono"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TOB2_stereo"] =
new TH2D("TanLAPerTesla vs Eta TOB2 STEREO", "TanLAPerTesla vs Eta TOB2 STEREO", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TOB2_stereo"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TOB3"] =
new TH2D("TanLAPerTesla vs Eta TOB3", "TanLAPerTesla vs Eta TOB3", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TOB3"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TOB4"] =
new TH2D("TanLAPerTesla vs Eta TOB4", "TanLAPerTesla vs Eta TOB4", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TOB4"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TOB5"] =
new TH2D("TanLAPerTesla vs Eta TOB5", "TanLAPerTesla vs Eta TOB5", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TOB5"]->SetDirectory(TIB_Eta);
TH2Ds["LA_eta_TOB6"] =
new TH2D("TanLAPerTesla vs Eta TOB6", "TanLAPerTesla vs Eta TOB6", 800, -2.6, 2.6, 600, -0.3, 0.3);
TH2Ds["LA_eta_TOB6"]->SetDirectory(TIB_Eta);
ModuleTree = new TTree("ModuleTree", "ModuleTree");
ModuleTree->Branch("histoEntries", &histoEntries, "histoEntries/F");
ModuleTree->Branch("globalX", &globalX, "globalX/F");
ModuleTree->Branch("globalY", &globalY, "globalY/F");
ModuleTree->Branch("globalZ", &globalZ, "globalZ/F");
ModuleTree->Branch("gphi", &gphi, "gphi/F");
ModuleTree->Branch("geta", &geta, "geta/F");
ModuleTree->Branch("gR", &gR, "gR/F");
ModuleTree->Branch("goodFit", &goodFit, "goodFit/I");
ModuleTree->Branch("goodFit1IT", &goodFit1IT, "goodFit1IT/I");
ModuleTree->Branch("badFit", &badFit, "badFit/I");
ModuleTree->Branch("TIB", &TIB, "TIB/I");
ModuleTree->Branch("TOB", &TOB, "TOB/I");
ModuleTree->Branch("Layer", &Layer, "Layer/I");
ModuleTree->Branch("MonoStereo", &MonoStereo, "MonoStereo/I");
ModuleTree->Branch("theBfield", &theBfield, "theBfield/F");
ModuleTree->Branch("muH", &muH, "muH/F");
ModuleTree->SetDirectory(Rootple);
int histocounter = 0;
int NotEnoughEntries = 0;
int ZeroEntries = 0;
int GoodFit = 0;
int FirstIT_goodfit = 0;
int FirstIT_badfit = 0;
int SecondIT_badfit = 0;
int SecondIT_goodfit = 0;
int no_mod_histo = 0;
float chi2norm = 0;
LocalPoint p = LocalPoint(0, 0, 0);
double ModuleRangeMin = conf_.getParameter<double>("ModuleFitXMin");
double ModuleRangeMax = conf_.getParameter<double>("ModuleFitXMax");
double ModuleRangeMin2IT = conf_.getParameter<double>("ModuleFit2ITXMin");
double ModuleRangeMax2IT = conf_.getParameter<double>("ModuleFit2ITXMax");
double FitCuts_Entries = conf_.getParameter<double>("FitCuts_Entries");
double FitCuts_p0 = conf_.getParameter<double>("FitCuts_p0");
double FitCuts_p1 = conf_.getParameter<double>("FitCuts_p1");
double FitCuts_p2 = conf_.getParameter<double>("FitCuts_p2");
double FitCuts_chi2 = conf_.getParameter<double>("FitCuts_chi2");
double FitCuts_ParErr_p0 = conf_.getParameter<double>("FitCuts_ParErr_p0");
double p0_guess = conf_.getParameter<double>("p0_guess");
double p1_guess = conf_.getParameter<double>("p1_guess");
double p2_guess = conf_.getParameter<double>("p2_guess");
double TIB1calib = 1.;
double TIB2calib = 1.;
double TIB3calib = 1.;
double TIB4calib = 1.;
double TOB1calib = 1.;
double TOB2calib = 1.;
double TOB3calib = 1.;
double TOB4calib = 1.;
double TOB5calib = 1.;
double TOB6calib = 1.;
if (CalibByMC == true) {
//Calibration factors evaluated by using MC analysis
TIB1calib = conf_.getParameter<double>("TIB1calib");
TIB2calib = conf_.getParameter<double>("TIB2calib");
TIB3calib = conf_.getParameter<double>("TIB3calib");
TIB4calib = conf_.getParameter<double>("TIB4calib");
TOB1calib = conf_.getParameter<double>("TOB1calib");
TOB2calib = conf_.getParameter<double>("TOB2calib");
TOB3calib = conf_.getParameter<double>("TOB3calib");
TOB4calib = conf_.getParameter<double>("TOB4calib");
TOB5calib = conf_.getParameter<double>("TOB5calib");
TOB6calib = conf_.getParameter<double>("TOB6calib");
}
auto fitfunc = std::make_unique<TF1>("fitfunc", "([4]/[3])*[1]*(TMath::Abs(x-[0]))+[2]", -1, 1);
auto fitfunc2IT = std::make_unique<TF1>("fitfunc2IT", "([4]/[3])*[1]*(TMath::Abs(x-[0]))+[2]", -1, 1);
std::ofstream NoEntries;
NoEntries.open(NoEntriesHisto_.c_str());
std::ofstream Rep;
Rep.open(LAreport_.c_str());
gStyle->SetOptStat(1110);
for (histo = histolist.begin(); histo != histolist.end(); ++histo) {
FitFunction = nullptr;
FitFunction2IT = nullptr;
bool Good2ITFit = false;
bool ModuleHisto = true;
histoEntries = -99;
gphi = -99;
geta = -99;
gz = -99;
gR = -1;
globalX = -99;
globalY = -99;
globalZ = -99;
goodFit = 0;
goodFit1IT = 0;
badFit = 0;
muH = -1;
TIB = 0;
TOB = 0;
MonoStereo = -1;
uint32_t id = hidmanager.getComponentId((*histo)->getName());
DetId detid(id);
StripSubdetector subid(id);
const GeomDetUnit* stripdet;
MonoStereo = subid.stereo();
if (!(stripdet = tkGeom_->idToDetUnit(subid))) {
no_mod_histo++;
ModuleHisto = false;
edm::LogInfo("SiStripCalibLorentzAngle") << "### NO MODULE HISTOGRAM";
}
if (stripdet != nullptr && ModuleHisto == true) {
if (subid.subdetId() == int(StripSubdetector::TIB)) {
Layer = tTopo_->tibLayer(detid);
TIB = 1;
}
if (subid.subdetId() == int(StripSubdetector::TOB)) {
Layer = tTopo_->tobLayer(detid);
TOB = 1;
}
//get module coordinates
const GlobalPoint gposition = (stripdet->surface()).toGlobal(p);
histoEntries = (*histo)->getEntries();
globalX = gposition.x();
globalY = gposition.y();
globalZ = gposition.z();
gphi = gposition.phi();
geta = gposition.eta();
gR = sqrt(pow(gposition.x(), 2) + pow(gposition.y(), 2));
gz = gposition.z();
//get magnetic field
const StripGeomDetUnit* det = dynamic_cast<const StripGeomDetUnit*>(tkGeom_->idToDetUnit(detid));
if (det == nullptr) {
edm::LogError("SiStripCalibLorentzAngle") << "[SiStripCalibLorentzAngle::getNewObject] the detID " << id
<< " doesn't seem to belong to Tracker" << std::endl;
continue;
}
LocalVector lbfield = (det->surface()).toLocal(magField.inTesla(det->surface().position()));
theBfield = lbfield.mag();
theBfield = (theBfield > 0) ? theBfield : 0.00001;
TH1Ds["MagneticField"]->Fill(theBfield);
}
if (stripdet == nullptr)
continue;
if (((*histo)->getEntries() <= FitCuts_Entries) && ModuleHisto == true) {
if (((*histo)->getEntries() == 0) && ModuleHisto == true) {
NoEntries << "NO ENTRIES MODULE, ID = " << id << std::endl;
edm::LogInfo("SiStripCalibLorentzAngle") << "### HISTOGRAM WITH 0 ENTRIES => TYPE:" << subid.subdetId();
ZeroEntries++;
} else {
edm::LogInfo("SiStripCalibLorentzAngle")
<< "### HISTOGRAM WITH NR. ENTRIES <= ENTRIES_CUT => TYPE:" << subid.subdetId();
NotEnoughEntries++;
}
}
std::string name;
if (TIB == 1) {
name += "TIB";
} else {
name += "TOB";
}
std::stringstream LayerStream;
LayerStream << Layer;
name += LayerStream.str();
std::stringstream idnum;
idnum << id;
name += "_Id_";
name += idnum.str();
gStyle->SetOptFit(111);
//Extract TProfile from Monitor Element to ProfileMap
Profiles[name] = new TProfile;
TProfile* theProfile = ExtractTObject<TProfile>().extract(*histo);
theProfile->Copy(*Profiles[name]);
Profiles[name]->SetName(name.c_str());
if (((*histo)->getEntries() > FitCuts_Entries) && ModuleHisto == true) {
histocounter++;
if (TIB == 1) {
edm::LogInfo("SiStripCalibLorentzAngle") << "TIB layer = " << Layer;
}
if (TOB == 1) {
edm::LogInfo("SiStripCalibLorentzAngle") << "TOB layer = " << Layer;
}
edm::LogInfo("SiStripCalibLorentzAngle") << "id: " << id;
float thickness = stripdet->specificSurface().bounds().thickness();
const StripTopology& topol = (const StripTopology&)stripdet->topology();
float pitch = topol.localPitch(p);
fitfunc->SetParameter(0, p0_guess);
fitfunc->SetParameter(1, p1_guess);
fitfunc->SetParameter(2, p2_guess);
fitfunc->FixParameter(3, pitch);
fitfunc->FixParameter(4, thickness);
Profiles[name]->Fit(fitfunc.get(), "E", "", ModuleRangeMin, ModuleRangeMax);
FitFunction = fitfunc.get();
chi2norm = FitFunction->GetChisquare() / FitFunction->GetNDF();
if (FitFunction->GetParameter(0) > FitCuts_p0 || FitFunction->GetParameter(1) < FitCuts_p1 ||
FitFunction->GetParameter(2) < FitCuts_p2 || chi2norm > FitCuts_chi2 ||
FitFunction->GetParError(0) < FitCuts_ParErr_p0) {
FirstIT_badfit++;
fitfunc2IT->SetParameter(0, p0_guess);
fitfunc2IT->SetParameter(1, p1_guess);
fitfunc2IT->SetParameter(2, p2_guess);
fitfunc2IT->FixParameter(3, pitch);
fitfunc2IT->FixParameter(4, thickness);
//2nd Iteration
Profiles[name]->Fit(fitfunc2IT.get(), "E", "", ModuleRangeMin2IT, ModuleRangeMax2IT);
FitFunction = fitfunc2IT.get();
chi2norm = FitFunction->GetChisquare() / FitFunction->GetNDF();
//2nd Iteration failed
if (FitFunction->GetParameter(0) > FitCuts_p0 || FitFunction->GetParameter(1) < FitCuts_p1 ||
FitFunction->GetParameter(2) < FitCuts_p2 || chi2norm > FitCuts_chi2 ||
FitFunction->GetParError(0) < FitCuts_ParErr_p0) {
if (subid.subdetId() == int(StripSubdetector::TIB)) {
Profiles[name]->SetDirectory(TIB_2IT_BadFit);
} else {
Profiles[name]->SetDirectory(TOB_2IT_BadFit);
}
SecondIT_badfit++;
badFit = 1;
}
//2nd Iteration ok
if (FitFunction->GetParameter(0) < FitCuts_p0 && FitFunction->GetParameter(1) > FitCuts_p1 &&
FitFunction->GetParameter(2) > FitCuts_p2 && chi2norm < FitCuts_chi2 &&
FitFunction->GetParError(0) > FitCuts_ParErr_p0) {
if (subid.subdetId() == int(StripSubdetector::TIB)) {
Profiles[name]->SetDirectory(TIB_2IT_GoodFit);
} else {
Profiles[name]->SetDirectory(TOB_2IT_GoodFit);
}
SecondIT_goodfit++;
Good2ITFit = true;
}
}
if (FitFunction->GetParameter(0) < FitCuts_p0 && FitFunction->GetParameter(1) > FitCuts_p1 &&
FitFunction->GetParameter(2) > FitCuts_p2 && chi2norm < FitCuts_chi2 &&
FitFunction->GetParError(0) > FitCuts_ParErr_p0) {
if (Good2ITFit == false) {
FirstIT_goodfit++;
goodFit1IT = 1;
if (subid.subdetId() == int(StripSubdetector::TIB)) {
Profiles[name]->SetDirectory(TIB_1IT_GoodFit);
} else {
Profiles[name]->SetDirectory(TOB_1IT_GoodFit);
}
}
GoodFit++;
goodFit = 1;
LorentzAngle_Plots->cd();
edm::LogInfo("SiStripCalibLorentzAngle") << FitFunction->GetParameter(0);
muH = -(FitFunction->GetParameter(0)) / theBfield;
if (TIB == 1) {
if (Layer == 1)
muH = muH / TIB1calib;
if (Layer == 2)
muH = muH / TIB2calib;
if (Layer == 3)
muH = muH / TIB3calib;
if (Layer == 4)
muH = muH / TIB4calib;
}
if (TOB == 1) {
if (Layer == 1)
muH = muH / TOB1calib;
if (Layer == 2)
muH = muH / TOB2calib;
if (Layer == 3)
muH = muH / TOB3calib;
if (Layer == 4)
muH = muH / TOB4calib;
if (Layer == 5)
muH = muH / TOB5calib;
if (Layer == 6)
muH = muH / TOB6calib;
}
detid_la[id] = muH;
if (TIB == 1) {
TH1Ds["LA_TIB"]->Fill(muH);
TH1Ds["LA_err_TIB"]->Fill(FitFunction->GetParError(0) / theBfield);
TH1Ds["LA_chi2norm_TIB"]->Fill(chi2norm);
TH2Ds["LA_phi_TIB"]->Fill(gphi, muH);
TH2Ds["LA_eta_TIB"]->Fill(geta, muH);
TH2Ds["LA_TIB_graph"]->Fill(Layer, muH);
if (Layer == 1) {
TH1Ds["LA_TIB_1"]->Fill(muH);
TH2Ds["LA_phi_TIB1"]->Fill(gphi, muH);
TH2Ds["LA_eta_TIB1"]->Fill(geta, muH);
if (MonoStereo == 0) {
TH1Ds["LA_TIB_1_mono"]->Fill(muH);
TH2Ds["LA_phi_TIB1_mono"]->Fill(gphi, muH);
TH2Ds["LA_eta_TIB1_mono"]->Fill(geta, muH);
}
if (MonoStereo == 1) {
TH1Ds["LA_TIB_1_stereo"]->Fill(muH);
TH2Ds["LA_phi_TIB1_stereo"]->Fill(gphi, muH);
TH2Ds["LA_eta_TIB1_stereo"]->Fill(geta, muH);
}
}
if (Layer == 2) {
TH1Ds["LA_TIB_2"]->Fill(muH);
TH2Ds["LA_phi_TIB2"]->Fill(gphi, muH);
TH2Ds["LA_eta_TIB2"]->Fill(geta, muH);
if (MonoStereo == 0) {
TH1Ds["LA_TIB_2_mono"]->Fill(muH);
TH2Ds["LA_phi_TIB2_mono"]->Fill(gphi, muH);
TH2Ds["LA_eta_TIB2_mono"]->Fill(geta, muH);
}
if (MonoStereo == 1) {
TH1Ds["LA_TIB_2_stereo"]->Fill(muH);
TH2Ds["LA_phi_TIB2_stereo"]->Fill(gphi, muH);
TH2Ds["LA_eta_TIB2_stereo"]->Fill(geta, muH);
}
}
if (Layer == 3) {
TH1Ds["LA_TIB_3"]->Fill(muH);
TH2Ds["LA_phi_TIB3"]->Fill(gphi, muH);
TH2Ds["LA_eta_TIB3"]->Fill(geta, muH);
}
if (Layer == 4) {
TH1Ds["LA_TIB_4"]->Fill(muH);
TH2Ds["LA_phi_TIB4"]->Fill(gphi, muH);
TH2Ds["LA_eta_TIB4"]->Fill(geta, muH);
}
}
if (TOB == 1) {
TH1Ds["LA_TOB"]->Fill(muH);
TH1Ds["LA_err_TOB"]->Fill(FitFunction->GetParError(0) / theBfield);
TH1Ds["LA_chi2norm_TOB"]->Fill(chi2norm);
TH2Ds["LA_phi_TOB"]->Fill(gphi, muH);
TH2Ds["LA_eta_TOB"]->Fill(geta, muH);
TH2Ds["LA_TOB_graph"]->Fill(Layer, muH);
if (Layer == 1) {
TH1Ds["LA_TOB_1"]->Fill(muH);
TH2Ds["LA_phi_TOB1"]->Fill(gphi, muH);
TH2Ds["LA_eta_TOB1"]->Fill(geta, muH);
if (MonoStereo == 0) {
TH1Ds["LA_TOB_1_mono"]->Fill(muH);
TH2Ds["LA_phi_TOB1_mono"]->Fill(gphi, muH);
TH2Ds["LA_eta_TOB1_mono"]->Fill(geta, muH);
}
if (MonoStereo == 1) {
TH1Ds["LA_TOB_1_stereo"]->Fill(muH);
TH2Ds["LA_phi_TOB1_stereo"]->Fill(gphi, muH);
TH2Ds["LA_eta_TOB1_stereo"]->Fill(geta, muH);
}
}
if (Layer == 2) {
TH1Ds["LA_TOB_2"]->Fill(muH);
TH2Ds["LA_phi_TOB2"]->Fill(gphi, muH);
TH2Ds["LA_eta_TOB2"]->Fill(geta, muH);
if (MonoStereo == 0) {
TH1Ds["LA_TOB_2_mono"]->Fill(muH);
TH2Ds["LA_phi_TOB2_mono"]->Fill(gphi, muH);
TH2Ds["LA_eta_TOB2_mono"]->Fill(geta, muH);
}
if (MonoStereo == 1) {
TH1Ds["LA_TOB_2_stereo"]->Fill(muH);
TH2Ds["LA_phi_TOB2_stereo"]->Fill(gphi, muH);
TH2Ds["LA_eta_TOB2_stereo"]->Fill(geta, muH);
}
}
if (Layer == 3) {
TH1Ds["LA_TOB_3"]->Fill(muH);
TH2Ds["LA_phi_TOB3"]->Fill(gphi, muH);
TH2Ds["LA_eta_TOB3"]->Fill(geta, muH);
}
if (Layer == 4) {
TH1Ds["LA_TOB_4"]->Fill(muH);
TH2Ds["LA_phi_TOB4"]->Fill(gphi, muH);
TH2Ds["LA_eta_TOB4"]->Fill(geta, muH);
}
if (Layer == 5) {
TH1Ds["LA_TOB_5"]->Fill(muH);
TH2Ds["LA_phi_TOB5"]->Fill(gphi, muH);
TH2Ds["LA_eta_TOB5"]->Fill(geta, muH);
}
if (Layer == 6) {
TH1Ds["LA_TOB_6"]->Fill(muH);
TH2Ds["LA_phi_TOB6"]->Fill(gphi, muH);
TH2Ds["LA_eta_TOB6"]->Fill(geta, muH);
}
}
}
}
ModuleTree->Fill();
}
double GaussFitRange = conf_.getParameter<double>("GaussFitRange");
auto gaus = std::make_unique<TF1>("gaus", "gaus");
TH1Ds["LA_TIB_1"]->Fit(gaus.get(), "", "", -GaussFitRange, GaussFitRange);
mean_TIB1 = gaus->GetParameter(1);
float err_mean_TIB1 = gaus->GetParError(1);
float rms_TIB1 = gaus->GetParameter(2);
TH1Ds["LA_TIB_2"]->Fit(gaus.get(), "", "", -GaussFitRange, GaussFitRange);
mean_TIB2 = gaus->GetParameter(1);
float err_mean_TIB2 = gaus->GetParError(1);
float rms_TIB2 = gaus->GetParameter(2);
TH1Ds["LA_TIB_3"]->Fit(gaus.get(), "", "", -GaussFitRange, GaussFitRange);
mean_TIB3 = gaus->GetParameter(1);
float err_mean_TIB3 = gaus->GetParError(1);
float rms_TIB3 = gaus->GetParameter(2);
TH1Ds["LA_TIB_4"]->Fit(gaus.get(), "", "", -GaussFitRange, GaussFitRange);
mean_TIB4 = gaus->GetParameter(1);
float err_mean_TIB4 = gaus->GetParError(1);
float rms_TIB4 = gaus->GetParameter(2);
TH1Ds["LA_TOB_1"]->Fit(gaus.get(), "", "", -GaussFitRange, GaussFitRange);
mean_TOB1 = gaus->GetParameter(1);
float err_mean_TOB1 = gaus->GetParError(1);
float rms_TOB1 = gaus->GetParameter(2);
TH1Ds["LA_TOB_2"]->Fit(gaus.get(), "", "", -GaussFitRange, GaussFitRange);
mean_TOB2 = gaus->GetParameter(1);
float err_mean_TOB2 = gaus->GetParError(1);
float rms_TOB2 = gaus->GetParameter(2);
TH1Ds["LA_TOB_3"]->Fit(gaus.get(), "", "", -GaussFitRange, GaussFitRange);
mean_TOB3 = gaus->GetParameter(1);
float err_mean_TOB3 = gaus->GetParError(1);
float rms_TOB3 = gaus->GetParameter(2);
TH1Ds["LA_TOB_4"]->Fit(gaus.get(), "", "", -GaussFitRange, GaussFitRange);
mean_TOB4 = gaus->GetParameter(1);
float err_mean_TOB4 = gaus->GetParError(1);
float rms_TOB4 = gaus->GetParameter(2);
TH1Ds["LA_TOB_5"]->Fit(gaus.get(), "", "", -GaussFitRange, GaussFitRange);
mean_TOB5 = gaus->GetParameter(1);
float err_mean_TOB5 = gaus->GetParError(1);
float rms_TOB5 = gaus->GetParameter(2);
TH1Ds["LA_TOB_6"]->Fit(gaus.get(), "", "", -GaussFitRange, GaussFitRange);
mean_TOB6 = gaus->GetParameter(1);
float err_mean_TOB6 = gaus->GetParError(1);
float rms_TOB6 = gaus->GetParameter(2);
int nlayersTIB = 4;
float TIBx[4] = {1, 2, 3, 4};
float TIBex[4] = {0, 0, 0, 0};
float TIBy[4] = {mean_TIB1, mean_TIB2, mean_TIB3, mean_TIB4};
float TIBey[4] = {err_mean_TIB1, err_mean_TIB2, err_mean_TIB3, err_mean_TIB4};
int nlayersTOB = 6;
float TOBx[6] = {1, 2, 3, 4, 5, 6};
float TOBex[6] = {0, 0, 0, 0, 0, 0};
float TOBy[6] = {mean_TOB1, mean_TOB2, mean_TOB3, mean_TOB4, mean_TOB5, mean_TOB6};
float TOBey[6] = {err_mean_TOB1, err_mean_TOB2, err_mean_TOB3, err_mean_TOB4, err_mean_TOB5, err_mean_TOB6};
TIB_graph = new TGraphErrors(nlayersTIB, TIBx, TIBy, TIBex, TIBey);
TOB_graph = new TGraphErrors(nlayersTOB, TOBx, TOBy, TOBex, TOBey);
//TF1 *fit_TIB= new TF1("fit_TIB","[0]",0,4);
//TF1 *fit_TOB= new TF1("fit_TOB","[0]",0,6);
gStyle->SetOptFit(111);
gStyle->SetOptStat(111);
TIB_graph->SetTitle("TIB Layers #mu_{H}");
TIB_graph->GetXaxis()->SetTitle("Layers");
TIB_graph->GetXaxis()->SetNdivisions(4);
TIB_graph->GetYaxis()->SetTitle("#mu_{H}");
TIB_graph->SetMarkerStyle(20);
TIB_graph->GetYaxis()->SetTitleOffset(1.3);
TIB_graph->Fit("fit_TIB", "E", "", 1, 4);
meanMobility_TIB = TIB_graph->GetFunction("fit_TIB")->GetParameter(0);
TOB_graph->SetTitle("TOB Layers #mu_{H}");
TOB_graph->GetXaxis()->SetTitle("Layers");
TOB_graph->GetXaxis()->SetNdivisions(6);
TOB_graph->GetYaxis()->SetTitle("#mu_{H}");
TOB_graph->SetMarkerStyle(20);
TOB_graph->GetYaxis()->SetTitleOffset(1.3);
TOB_graph->Fit("fit_TOB", "E", "", 1, 6);
meanMobility_TOB = TOB_graph->GetFunction("fit_TOB")->GetParameter(0);
TIB_graph->Write("TIB_graph");
TOB_graph->Write("TOB_graph");
Rep << "- NR.OF TIB AND TOB MODULES = 7932" << std::endl << std::endl << std::endl;
Rep << "- NO MODULE HISTOS FOUND = " << no_mod_histo << std::endl << std::endl;
Rep << "- NR.OF HISTOS WITH ENTRIES > " << FitCuts_Entries << " = " << histocounter << std::endl << std::endl;
Rep << "- NR.OF HISTOS WITH ENTRIES <= " << FitCuts_Entries << " (!=0) = " << NotEnoughEntries << std::endl
<< std::endl;
Rep << "- NR.OF HISTOS WITH 0 ENTRIES = " << ZeroEntries << std::endl << std::endl << std::endl;
Rep << "- NR.OF GOOD FIT (FIRST IT + SECOND IT GOOD FIT)= " << GoodFit << std::endl << std::endl;
Rep << "- NR.OF FIRST IT GOOD FIT = " << FirstIT_goodfit << std::endl << std::endl;
Rep << "- NR.OF SECOND IT GOOD FIT = " << SecondIT_goodfit << std::endl << std::endl;
Rep << "- NR.OF FIRST IT BAD FIT = " << FirstIT_badfit << std::endl << std::endl;
Rep << "- NR.OF SECOND IT BAD FIT = " << SecondIT_badfit << std::endl << std::endl << std::endl;
Rep << "--------------- Mean MuH values per Layer -------------------" << std::endl << std::endl << std::endl;
Rep << "TIB1 = " << mean_TIB1 << " +- " << err_mean_TIB1 << " RMS = " << rms_TIB1 << std::endl;
Rep << "TIB2 = " << mean_TIB2 << " +- " << err_mean_TIB2 << " RMS = " << rms_TIB2 << std::endl;
Rep << "TIB3 = " << mean_TIB3 << " +- " << err_mean_TIB3 << " RMS = " << rms_TIB3 << std::endl;
Rep << "TIB4 = " << mean_TIB4 << " +- " << err_mean_TIB4 << " RMS = " << rms_TIB4 << std::endl;
Rep << "TOB1 = " << mean_TOB1 << " +- " << err_mean_TOB1 << " RMS = " << rms_TOB1 << std::endl;
Rep << "TOB2 = " << mean_TOB2 << " +- " << err_mean_TOB2 << " RMS = " << rms_TOB2 << std::endl;
Rep << "TOB3 = " << mean_TOB3 << " +- " << err_mean_TOB3 << " RMS = " << rms_TOB3 << std::endl;
Rep << "TOB4 = " << mean_TOB4 << " +- " << err_mean_TOB4 << " RMS = " << rms_TOB4 << std::endl;
Rep << "TOB5 = " << mean_TOB5 << " +- " << err_mean_TOB5 << " RMS = " << rms_TOB5 << std::endl;
Rep << "TOB6 = " << mean_TOB6 << " +- " << err_mean_TOB6 << " RMS = " << rms_TOB6 << std::endl << std::endl;
Rep << "Mean Hall Mobility TIB = " << meanMobility_TIB << " +- " << TIB_graph->GetFunction("fit_TIB")->GetParError(0)
<< std::endl;
Rep << "Mean Hall Mobility TOB = " << meanMobility_TOB << " +- " << TOB_graph->GetFunction("fit_TOB")->GetParError(0)
<< std::endl
<< std::endl
<< std::endl;
Rep.close();
NoEntries.close();
hFile->Write();
hFile->Close();
}
// Virtual destructor needed.
SiStripCalibLorentzAngle::~SiStripCalibLorentzAngle() { delete hFile; }
// Analyzer: Functions that gets called by framework every event
std::unique_ptr<SiStripLorentzAngle> SiStripCalibLorentzAngle::getNewObject() {
auto LorentzAngle = std::make_unique<SiStripLorentzAngle>();
if (!LayerDB) {
for (std::map<uint32_t, float>::iterator it = detid_la.begin(); it != detid_la.end(); it++) {
float langle = it->second;
if (!LorentzAngle->putLorentzAngle(it->first, langle))
edm::LogError("SiStripCalibLorentzAngle")
<< "[SiStripCalibLorentzAngle::analyze] detid already exists" << std::endl;
}
}
else {
const TrackerGeometry::DetIdContainer& Id = tkGeom_->detIds();
TrackerGeometry::DetIdContainer::const_iterator Iditer;
for (Iditer = Id.begin(); Iditer != Id.end(); Iditer++) {
StripSubdetector subid(Iditer->rawId());
hallMobility = 0.;
if (subid.subdetId() == int(StripSubdetector::TIB)) {
uint32_t tibLayer = tTopo_->tibLayer(*Iditer);
if (tibLayer == 1) {
hallMobility = mean_TIB1;
}
if (tibLayer == 2) {
hallMobility = mean_TIB2;
}
if (tibLayer == 3) {
hallMobility = mean_TIB3;
}
if (tibLayer == 4) {
hallMobility = mean_TIB4;
}
if (!LorentzAngle->putLorentzAngle(Iditer->rawId(), hallMobility))
edm::LogError("SiStripLorentzAngleGenerator") << " detid already exists" << std::endl;
}
if (subid.subdetId() == int(StripSubdetector::TOB)) {
uint32_t tobLayer = tTopo_->tobLayer(*Iditer);
if (tobLayer == 1) {
hallMobility = mean_TOB1;
}
if (tobLayer == 2) {
hallMobility = mean_TOB2;
}
if (tobLayer == 3) {
hallMobility = mean_TOB3;
}
if (tobLayer == 4) {
hallMobility = mean_TOB4;
}
if (tobLayer == 5) {
hallMobility = mean_TOB5;
}
if (tobLayer == 6) {
hallMobility = mean_TOB6;
}
if (!LorentzAngle->putLorentzAngle(Iditer->rawId(), hallMobility))
edm::LogError("SiStripLorentzAngleGenerator") << " detid already exists" << std::endl;
}
if (subid.subdetId() == int(StripSubdetector::TID)) {
hallMobility = meanMobility_TIB;
if (!LorentzAngle->putLorentzAngle(Iditer->rawId(), hallMobility))
edm::LogError("SiStripLorentzAngleGenerator") << " detid already exists" << std::endl;
}
if (subid.subdetId() == int(StripSubdetector::TEC)) {
if (tTopo_->tecRing(subid) < 5) {
hallMobility = meanMobility_TIB;
} else {
hallMobility = meanMobility_TOB;
}
if (!LorentzAngle->putLorentzAngle(Iditer->rawId(), hallMobility))
edm::LogError("SiStripLorentzAngleGenerator") << " detid already exists" << std::endl;
}
}
}
return LorentzAngle;
}
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