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// -*- C++ -*-
//
// Package: SiPixelMonitorCluster
// Class: SiPixelClusterSource
//
/**\class
Description: Pixel DQM source for Clusters
Implementation:
Note that the x- and y-directions referred to in the cluster description
refer to local x- and y-values given by the clusterizer. Local x corresponds
to row value and local y corresponds to column value.
*/
//
// Original Author: Vincenzo Chiochia & Andrew York
// Created:
//
//
// Updated by: Lukas Wehrli
// for pixel offline DQM
#include "DQM/SiPixelCommon/interface/SiPixelHistogramId.h"
#include "DQM/SiPixelMonitorCluster/interface/SiPixelClusterModule.h"
#include "DQMServices/Core/interface/DQMStore.h"
/// Framework
#include "FWCore/ServiceRegistry/interface/Service.h"
// STL
#include <cstdlib>
#include <iostream>
#include <memory>
#include <string>
#include <vector>
// Data Formats
#include "DataFormats/DetId/interface/DetId.h"
#include "DataFormats/TrackerCommon/interface/PixelBarrelName.h"
#include "DataFormats/SiPixelDetId/interface/PixelBarrelNameUpgrade.h"
#include "DataFormats/TrackerCommon/interface/PixelEndcapName.h"
#include "DataFormats/SiPixelDetId/interface/PixelEndcapNameUpgrade.h"
#include "DataFormats/SiPixelDetId/interface/PixelSubdetector.h"
#include "Geometry/Records/interface/TrackerTopologyRcd.h"
//
// Constructors
//
SiPixelClusterModule::SiPixelClusterModule() : id_(0), ncols_(416), nrows_(160) {}
///
SiPixelClusterModule::SiPixelClusterModule(const uint32_t &id) : id_(id), ncols_(416), nrows_(160) {}
///
SiPixelClusterModule::SiPixelClusterModule(const uint32_t &id, const int &ncols, const int &nrows)
: id_(id), ncols_(ncols), nrows_(nrows) {}
//
// Destructor
//
SiPixelClusterModule::~SiPixelClusterModule() {}
//
// Book histograms
//
void SiPixelClusterModule::book(const edm::ParameterSet &iConfig,
const TrackerTopology *pTT,
DQMStore::IBooker &iBooker,
int type,
bool twoD,
bool reducedSet,
bool isUpgrade) {
bool barrel = DetId(id_).subdetId() == static_cast<int>(PixelSubdetector::PixelBarrel);
bool endcap = DetId(id_).subdetId() == static_cast<int>(PixelSubdetector::PixelEndcap);
bool isHalfModule = false;
if (barrel) {
isHalfModule = PixelBarrelName(DetId(id_), pTT, isUpgrade).isHalfModule();
}
int nbinx = ncols_ / 2;
int nbiny = nrows_ / 2;
std::string hid;
// Get collection name and instantiate Histo Id builder
edm::InputTag src = iConfig.getParameter<edm::InputTag>("src");
if (type == 0) {
SiPixelHistogramId *theHistogramId = new SiPixelHistogramId(src.label());
// Number of clusters
hid = theHistogramId->setHistoId("nclusters", id_);
meNClusters_ = iBooker.book1D(hid, "Number of Clusters", 8, 0., 8.);
meNClusters_->setAxisTitle("Number of Clusters", 1);
// Total cluster charge in MeV
hid = theHistogramId->setHistoId("charge", id_);
meCharge_ = iBooker.book1D(hid, "Cluster charge", 100, 0., 200.);
meCharge_->setAxisTitle("Charge [kilo electrons]", 1);
// Total cluster size (in pixels)
hid = theHistogramId->setHistoId("size", id_);
meSize_ = iBooker.book1D(hid, "Total cluster size", 30, 0., 30.);
meSize_->setAxisTitle("Cluster size [number of pixels]", 1);
if (!reducedSet) {
// Lowest cluster row
hid = theHistogramId->setHistoId("minrow", id_);
meMinRow_ = iBooker.book1D(hid, "Lowest cluster row", 200, 0., 200.);
meMinRow_->setAxisTitle("Lowest cluster row", 1);
// Highest cluster row
hid = theHistogramId->setHistoId("maxrow", id_);
meMaxRow_ = iBooker.book1D(hid, "Highest cluster row", 200, 0., 200.);
meMaxRow_->setAxisTitle("Highest cluster row", 1);
// Lowest cluster column
hid = theHistogramId->setHistoId("mincol", id_);
meMinCol_ = iBooker.book1D(hid, "Lowest cluster column", 500, 0., 500.);
meMinCol_->setAxisTitle("Lowest cluster column", 1);
// Highest cluster column
hid = theHistogramId->setHistoId("maxcol", id_);
meMaxCol_ = iBooker.book1D(hid, "Highest cluster column", 500, 0., 500.);
meMaxCol_->setAxisTitle("Highest cluster column", 1);
// Cluster barycenter X position
hid = theHistogramId->setHistoId("x", id_);
meX_ = iBooker.book1D(hid, "Cluster barycenter X (row #)", 200, 0., 200.);
meX_->setAxisTitle("Barycenter x-position [row #]", 1);
// Cluster barycenter Y position
hid = theHistogramId->setHistoId("y", id_);
meY_ = iBooker.book1D(hid, "Cluster barycenter Y (column #)", 500, 0., 500.);
meY_->setAxisTitle("Barycenter y-position [column #]", 1);
// Cluster width on the x-axis
hid = theHistogramId->setHistoId("sizeX", id_);
meSizeX_ = iBooker.book1D(hid, "Cluster x-width (rows)", 10, 0., 10.);
meSizeX_->setAxisTitle("Cluster x-size [rows]", 1);
// Cluster width on the y-axis
hid = theHistogramId->setHistoId("sizeY", id_);
meSizeY_ = iBooker.book1D(hid, "Cluster y-width (columns)", 15, 0., 15.);
meSizeY_->setAxisTitle("Cluster y-size [columns]", 1);
int nbinx = ncols_ / 2;
int nbiny = nrows_ / 2;
hid = theHistogramId->setHistoId("hitmap", id_);
if (twoD) {
// 2D hit map
mePixClusters_ = iBooker.book2D(
hid, "Number of Clusters (1bin=four pixels)", nbinx, 0., float(ncols_), nbiny, 0., float(nrows_));
mePixClusters_->setAxisTitle("Columns", 1);
mePixClusters_->setAxisTitle("Rows", 2);
} else {
// projections of hitmap
mePixClusters_px_ =
iBooker.book1D(hid + "_px", "Number of Clusters (1bin=two columns)", nbinx, 0., float(ncols_));
mePixClusters_py_ = iBooker.book1D(hid + "_py", "Number of Clusters (1bin=two rows)", nbiny, 0., float(nrows_));
mePixClusters_px_->setAxisTitle("Columns", 1);
mePixClusters_py_->setAxisTitle("Rows", 1);
}
}
delete theHistogramId;
}
//**
if (barrel && type == 7) {
hid = src.label() + "_Barrel";
meSizeYvsEtaBarrel_ = iBooker.book2D(
"sizeYvsEta_" + hid, "Cluster size along beamline vs. Cluster position #eta", 60, -3., 3., 40, 0., 40.);
meSizeYvsEtaBarrel_->setAxisTitle("Cluster #eta", 1);
meSizeYvsEtaBarrel_->setAxisTitle("Cluster size along beamline [number of pixels]", 2);
}
if (type == 1 && barrel) {
uint32_t DBladder;
DBladder = PixelBarrelName(DetId(id_), pTT, isUpgrade).ladderName();
char sladder[80];
sprintf(sladder, "Ladder_%02i", DBladder);
hid = src.label() + "_" + sladder;
if (isHalfModule)
hid += "H";
else
hid += "F";
// Number of clusters
meNClustersLad_ = iBooker.book1D("nclusters_" + hid, "Number of Clusters", 8, 0., 8.);
meNClustersLad_->setAxisTitle("Number of Clusters", 1);
// Total cluster charge in MeV
meChargeLad_ = iBooker.book1D("charge_" + hid, "Cluster charge", 100, 0., 200.);
meChargeLad_->setAxisTitle("Charge [kilo electrons]", 1);
// Total cluster size (in pixels)
meSizeLad_ = iBooker.book1D("size_" + hid, "Total cluster size", 30, 0., 30.);
meSizeLad_->setAxisTitle("Cluster size [number of pixels]", 1);
if (!reducedSet) {
// Lowest cluster row
meMinRowLad_ = iBooker.book1D("minrow_" + hid, "Lowest cluster row", 200, 0., 200.);
meMinRowLad_->setAxisTitle("Lowest cluster row", 1);
// Highest cluster row
meMaxRowLad_ = iBooker.book1D("maxrow_" + hid, "Highest cluster row", 200, 0., 200.);
meMaxRowLad_->setAxisTitle("Highest cluster row", 1);
// Lowest cluster column
meMinColLad_ = iBooker.book1D("mincol_" + hid, "Lowest cluster column", 500, 0., 500.);
meMinColLad_->setAxisTitle("Lowest cluster column", 1);
// Highest cluster column
meMaxColLad_ = iBooker.book1D("maxcol_" + hid, "Highest cluster column", 500, 0., 500.);
meMaxColLad_->setAxisTitle("Highest cluster column", 1);
// Cluster barycenter X position
meXLad_ = iBooker.book1D("x_" + hid, "Cluster barycenter X (row #)", 200, 0., 200.);
meXLad_->setAxisTitle("Barycenter x-position [row #]", 1);
// Cluster barycenter Y position
meYLad_ = iBooker.book1D("y_" + hid, "Cluster barycenter Y (column #)", 500, 0., 500.);
meYLad_->setAxisTitle("Barycenter y-position [column #]", 1);
// Cluster width on the x-axis
meSizeXLad_ = iBooker.book1D("sizeX_" + hid, "Cluster x-width (rows)", 10, 0., 10.);
meSizeXLad_->setAxisTitle("Cluster x-size [rows]", 1);
// Cluster width on the y-axis
meSizeYLad_ = iBooker.book1D("sizeY_" + hid, "Cluster y-width (columns)", 15, 0., 15.);
meSizeYLad_->setAxisTitle("Cluster y-size [columns]", 1);
if (twoD) {
// 2D hit map
mePixClustersLad_ = iBooker.book2D("hitmap_" + hid,
"Number of Clusters (1bin=four pixels)",
nbinx,
0.,
float(ncols_),
nbiny,
0.,
float(nrows_));
mePixClustersLad_->setAxisTitle("Columns", 1);
mePixClustersLad_->setAxisTitle("Rows", 2);
} else {
// projections of hitmap
mePixClustersLad_px_ =
iBooker.book1D("hitmap_" + hid + "_px", "Number of Clusters (1bin=two columns)", nbinx, 0., float(ncols_));
mePixClustersLad_py_ =
iBooker.book1D("hitmap_" + hid + "_py", "Number of Clusters (1bin=two rows)", nbiny, 0., float(nrows_));
mePixClustersLad_px_->setAxisTitle("Columns", 1);
mePixClustersLad_py_->setAxisTitle("Rows", 1);
}
}
}
if (type == 2 && barrel) {
uint32_t DBlayer;
DBlayer = PixelBarrelName(DetId(id_), pTT, isUpgrade).layerName();
char slayer[80];
sprintf(slayer, "Layer_%i", DBlayer);
hid = src.label() + "_" + slayer;
// Number of clusters
meNClustersLay_ = iBooker.book1D("nclusters_" + hid, "Number of Clusters", 8, 0., 8.);
meNClustersLay_->setAxisTitle("Number of Clusters", 1);
// Total cluster charge in MeV
meChargeLay_ = iBooker.book1D("charge_" + hid, "Cluster charge", 100, 0., 200.);
meChargeLay_->setAxisTitle("Charge [kilo electrons]", 1);
// Total cluster size (in pixels)
meSizeLay_ = iBooker.book1D("size_" + hid, "Total cluster size", 30, 0., 30.);
meSizeLay_->setAxisTitle("Cluster size [in pixels]", 1);
if (!reducedSet) {
// Lowest cluster row
meMinRowLay_ = iBooker.book1D("minrow_" + hid, "Lowest cluster row", 200, 0., 200.);
meMinRowLay_->setAxisTitle("Lowest cluster row", 1);
// Highest cluster row
meMaxRowLay_ = iBooker.book1D("maxrow_" + hid, "Highest cluster row", 200, 0., 200.);
meMaxRowLay_->setAxisTitle("Highest cluster row", 1);
// Lowest cluster column
meMinColLay_ = iBooker.book1D("mincol_" + hid, "Lowest cluster column", 500, 0., 500.);
meMinColLay_->setAxisTitle("Lowest cluster column", 1);
// Highest cluster column
meMaxColLay_ = iBooker.book1D("maxcol_" + hid, "Highest cluster column", 500, 0., 500.);
meMaxColLay_->setAxisTitle("Highest cluster column", 1);
// Cluster barycenter X position
meXLay_ = iBooker.book1D("x_" + hid, "Cluster barycenter X (row #)", 200, 0., 200.);
meXLay_->setAxisTitle("Barycenter x-position [row #]", 1);
// Cluster barycenter Y position
meYLay_ = iBooker.book1D("y_" + hid, "Cluster barycenter Y (column #)", 500, 0., 500.);
meYLay_->setAxisTitle("Barycenter y-position [column #]", 1);
// Cluster width on the x-axis
meSizeXLay_ = iBooker.book1D("sizeX_" + hid, "Cluster x-width (rows)", 10, 0., 10.);
meSizeXLay_->setAxisTitle("Cluster x-size [rows]", 1);
// Cluster width on the y-axis
meSizeYLay_ = iBooker.book1D("sizeY_" + hid, "Cluster y-width (columns)", 15, 0., 15.);
meSizeYLay_->setAxisTitle("Cluster y-size [columns]", 1);
if (twoD) {
// 2D hit map
if (isHalfModule) {
mePixClustersLay_ = iBooker.book2D("hitmap_" + hid,
"Number of Clusters (1bin=four pixels)",
nbinx,
0.,
float(ncols_),
2 * nbiny,
0.,
float(2 * nrows_));
} else {
mePixClustersLay_ = iBooker.book2D("hitmap_" + hid,
"Number of Clusters (1bin=four pixels)",
nbinx,
0.,
float(ncols_),
nbiny,
0.,
float(nrows_));
}
mePixClustersLay_->setAxisTitle("Columns", 1);
mePixClustersLay_->setAxisTitle("Rows", 2);
} else {
// projections of hitmap
mePixClustersLay_px_ =
iBooker.book1D("hitmap_" + hid + "_px", "Number of Clusters (1bin=two columns)", nbinx, 0., float(ncols_));
if (isHalfModule) {
mePixClustersLay_py_ = iBooker.book1D(
"hitmap_" + hid + "_py", "Number of Clusters (1bin=two rows)", 2 * nbiny, 0., float(2 * nrows_));
} else {
mePixClustersLay_py_ =
iBooker.book1D("hitmap_" + hid + "_py", "Number of Clusters (1bin=two rows)", nbiny, 0., float(nrows_));
}
mePixClustersLay_px_->setAxisTitle("Columns", 1);
mePixClustersLay_py_->setAxisTitle("Rows", 1);
}
}
}
if (type == 3 && barrel) {
uint32_t DBmodule;
DBmodule = PixelBarrelName(DetId(id_), pTT, isUpgrade).moduleName();
char smodule[80];
sprintf(smodule, "Ring_%i", DBmodule);
hid = src.label() + "_" + smodule;
// Number of clusters
meNClustersPhi_ = iBooker.book1D("nclusters_" + hid, "Number of Clusters", 8, 0., 8.);
meNClustersPhi_->setAxisTitle("Number of Clusters", 1);
// Total cluster charge in MeV
meChargePhi_ = iBooker.book1D("charge_" + hid, "Cluster charge", 100, 0., 200.);
meChargePhi_->setAxisTitle("Charge [kilo electrons]", 1);
// Total cluster size (in pixels)
meSizePhi_ = iBooker.book1D("size_" + hid, "Total cluster size", 30, 0., 30.);
meSizePhi_->setAxisTitle("Cluster size [number of pixels]", 1);
if (!reducedSet) {
// Lowest cluster row
meMinRowPhi_ = iBooker.book1D("minrow_" + hid, "Lowest cluster row", 200, 0., 200.);
meMinRowPhi_->setAxisTitle("Lowest cluster row", 1);
// Highest cluster row
meMaxRowPhi_ = iBooker.book1D("maxrow_" + hid, "Highest cluster row", 200, 0., 200.);
meMaxRowPhi_->setAxisTitle("Highest cluster row", 1);
// Lowest cluster column
meMinColPhi_ = iBooker.book1D("mincol_" + hid, "Lowest cluster column", 500, 0., 500.);
meMinColPhi_->setAxisTitle("Lowest cluster column", 1);
// Highest cluster column
meMaxColPhi_ = iBooker.book1D("maxcol_" + hid, "Highest cluster column", 500, 0., 500.);
meMaxColPhi_->setAxisTitle("Highest cluster column", 1);
// Cluster barycenter X position
meXPhi_ = iBooker.book1D("x_" + hid, "Cluster barycenter X (row #)", 200, 0., 200.);
meXPhi_->setAxisTitle("Barycenter x-position [row #]", 1);
// Cluster barycenter Y position
meYPhi_ = iBooker.book1D("y_" + hid, "Cluster barycenter Y (column #)", 500, 0., 500.);
meYPhi_->setAxisTitle("Barycenter y-position [column #]", 1);
// Cluster width on the x-axis
meSizeXPhi_ = iBooker.book1D("sizeX_" + hid, "Cluster x-width (rows)", 10, 0., 10.);
meSizeXPhi_->setAxisTitle("Cluster x-size [rows]", 1);
// Cluster width on the y-axis
meSizeYPhi_ = iBooker.book1D("sizeY_" + hid, "Cluster y-width (columns)", 15, 0., 15.);
meSizeYPhi_->setAxisTitle("Cluster y-size [columns]", 1);
if (twoD) {
// 2D hit map
if (isHalfModule) {
mePixClustersPhi_ = iBooker.book2D("hitmap_" + hid,
"Number of Clusters (1bin=four pixels)",
nbinx,
0.,
float(ncols_),
2 * nbiny,
0.,
float(2 * nrows_));
} else {
mePixClustersPhi_ = iBooker.book2D("hitmap_" + hid,
"Number of Clusters (1bin=four pixels)",
nbinx,
0.,
float(ncols_),
nbiny,
0.,
float(nrows_));
}
mePixClustersPhi_->setAxisTitle("Columns", 1);
mePixClustersPhi_->setAxisTitle("Rows", 2);
} else {
// projections of hitmap
mePixClustersPhi_px_ =
iBooker.book1D("hitmap_" + hid + "_px", "Number of Clusters (1bin=two columns)", nbinx, 0., float(ncols_));
if (isHalfModule) {
mePixClustersPhi_py_ = iBooker.book1D(
"hitmap_" + hid + "_py", "Number of Clusters (1bin=two rows)", 2 * nbiny, 0., float(2 * nrows_));
} else {
mePixClustersPhi_py_ =
iBooker.book1D("hitmap_" + hid + "_py", "Number of Clusters (1bin=two rows)", nbiny, 0., float(nrows_));
}
mePixClustersPhi_px_->setAxisTitle("Columns", 1);
mePixClustersPhi_py_->setAxisTitle("Rows", 1);
}
}
}
if (type == 4 && endcap) {
uint32_t blade;
blade = PixelEndcapName(DetId(id_), pTT, isUpgrade).bladeName();
char sblade[80];
sprintf(sblade, "Blade_%02i", blade);
hid = src.label() + "_" + sblade;
// Number of clusters
meNClustersBlade_ = iBooker.book1D("nclusters_" + hid, "Number of Clusters", 8, 0., 8.);
meNClustersBlade_->setAxisTitle("Number of Clusters", 1);
// Total cluster charge in MeV
meChargeBlade_ = iBooker.book1D("charge_" + hid, "Cluster charge", 100, 0., 200.);
meChargeBlade_->setAxisTitle("Charge [kilo electrons]", 1);
// Total cluster size (in pixels)
meSizeBlade_ = iBooker.book1D("size_" + hid, "Total cluster size", 30, 0., 30.);
meSizeBlade_->setAxisTitle("Cluster size [number of pixels]", 1);
if (!reducedSet) {
// Lowest cluster row
meMinRowBlade_ = iBooker.book1D("minrow_" + hid, "Lowest cluster row", 200, 0., 200.);
meMinRowBlade_->setAxisTitle("Lowest cluster row", 1);
// Highest cluster row
meMaxRowBlade_ = iBooker.book1D("maxrow_" + hid, "Highest cluster row", 200, 0., 200.);
meMaxRowBlade_->setAxisTitle("Highest cluster row", 1);
// Lowest cluster column
meMinColBlade_ = iBooker.book1D("mincol_" + hid, "Lowest cluster column", 500, 0., 500.);
meMinColBlade_->setAxisTitle("Lowest cluster column", 1);
// Highest cluster column
meMaxColBlade_ = iBooker.book1D("maxcol_" + hid, "Highest cluster column", 500, 0., 500.);
meMaxColBlade_->setAxisTitle("Highest cluster column", 1);
// Cluster barycenter X position
meXBlade_ = iBooker.book1D("x_" + hid, "Cluster barycenter X (row #)", 200, 0., 200.);
meXBlade_->setAxisTitle("Barycenter x-position [row #]", 1);
// Cluster barycenter Y position
meYBlade_ = iBooker.book1D("y_" + hid, "Cluster barycenter Y (column #)", 500, 0., 500.);
meYBlade_->setAxisTitle("Barycenter y-position [column #]", 1);
// Cluster width on the x-axis
meSizeXBlade_ = iBooker.book1D("sizeX_" + hid, "Cluster x-width (rows)", 10, 0., 10.);
meSizeXBlade_->setAxisTitle("Cluster x-size [rows]", 1);
// Cluster width on the y-axis
meSizeYBlade_ = iBooker.book1D("sizeY_" + hid, "Cluster y-width (columns)", 15, 0., 15.);
meSizeYBlade_->setAxisTitle("Cluster y-size [columns]", 1);
}
}
if (type == 5 && endcap) {
uint32_t disk;
disk = PixelEndcapName(DetId(id_), pTT, isUpgrade).diskName();
char sdisk[80];
sprintf(sdisk, "Disk_%i", disk);
hid = src.label() + "_" + sdisk;
// Number of clusters
meNClustersDisk_ = iBooker.book1D("nclusters_" + hid, "Number of Clusters", 8, 0., 8.);
meNClustersDisk_->setAxisTitle("Number of Clusters", 1);
// Total cluster charge in MeV
meChargeDisk_ = iBooker.book1D("charge_" + hid, "Cluster charge", 100, 0., 200.);
meChargeDisk_->setAxisTitle("Charge [kilo electrons]", 1);
// Total cluster size (in pixels)
meSizeDisk_ = iBooker.book1D("size_" + hid, "Total cluster size", 30, 0., 30.);
meSizeDisk_->setAxisTitle("Cluster size [number of pixels]", 1);
if (!reducedSet) {
// Lowest cluster row
meMinRowDisk_ = iBooker.book1D("minrow_" + hid, "Lowest cluster row", 200, 0., 200.);
meMinRowDisk_->setAxisTitle("Lowest cluster row", 1);
// Highest cluster row
meMaxRowDisk_ = iBooker.book1D("maxrow_" + hid, "Highest cluster row", 200, 0., 200.);
meMaxRowDisk_->setAxisTitle("Highest cluster row", 1);
// Lowest cluster column
meMinColDisk_ = iBooker.book1D("mincol_" + hid, "Lowest cluster column", 500, 0., 500.);
meMinColDisk_->setAxisTitle("Lowest cluster column", 1);
// Highest cluster column
meMaxColDisk_ = iBooker.book1D("maxcol_" + hid, "Highest cluster column", 500, 0., 500.);
meMaxColDisk_->setAxisTitle("Highest cluster column", 1);
// Cluster barycenter X position
meXDisk_ = iBooker.book1D("x_" + hid, "Cluster barycenter X (row #)", 200, 0., 200.);
meXDisk_->setAxisTitle("Barycenter x-position [row #]", 1);
// Cluster barycenter Y position
meYDisk_ = iBooker.book1D("y_" + hid, "Cluster barycenter Y (column #)", 500, 0., 500.);
meYDisk_->setAxisTitle("Barycenter y-position [column #]", 1);
// Cluster width on the x-axis
meSizeXDisk_ = iBooker.book1D("sizeX_" + hid, "Cluster x-width (rows)", 10, 0., 10.);
meSizeXDisk_->setAxisTitle("Cluster x-size [rows]", 1);
// Cluster width on the y-axis
meSizeYDisk_ = iBooker.book1D("sizeY_" + hid, "Cluster y-width (columns)", 15, 0., 15.);
meSizeYDisk_->setAxisTitle("Cluster y-size [columns]", 1);
}
}
if (type == 6 && endcap) {
uint32_t panel;
uint32_t module;
panel = PixelEndcapName(DetId(id_), pTT, isUpgrade).pannelName();
module = PixelEndcapName(DetId(id_), pTT, isUpgrade).plaquetteName();
char slab[80];
sprintf(slab, "Panel_%i_Ring_%i", panel, module);
hid = src.label() + "_" + slab;
// Number of clusters
meNClustersRing_ = iBooker.book1D("nclusters_" + hid, "Number of Clusters", 8, 0., 8.);
meNClustersRing_->setAxisTitle("Number of Clusters", 1);
// Total cluster charge in MeV
meChargeRing_ = iBooker.book1D("charge_" + hid, "Cluster charge", 100, 0., 200.);
meChargeRing_->setAxisTitle("Charge [kilo electrons]", 1);
// Total cluster size (in pixels)
meSizeRing_ = iBooker.book1D("size_" + hid, "Total cluster size", 30, 0., 30.);
meSizeRing_->setAxisTitle("Cluster size [number of pixels]", 1);
if (!reducedSet) {
// Lowest cluster row
meMinRowRing_ = iBooker.book1D("minrow_" + hid, "Lowest cluster row", 200, 0., 200.);
meMinRowRing_->setAxisTitle("Lowest cluster row", 1);
// Highest cluster row
meMaxRowRing_ = iBooker.book1D("maxrow_" + hid, "Highest cluster row", 200, 0., 200.);
meMaxRowRing_->setAxisTitle("Highest cluster row", 1);
// Lowest cluster column
meMinColRing_ = iBooker.book1D("mincol_" + hid, "Lowest cluster column", 500, 0., 500.);
meMinColRing_->setAxisTitle("Lowest cluster column", 1);
// Highest cluster column
meMaxColRing_ = iBooker.book1D("maxcol_" + hid, "Highest cluster column", 500, 0., 500.);
meMaxColRing_->setAxisTitle("Highest cluster column", 1);
// Cluster barycenter X position
meXRing_ = iBooker.book1D("x_" + hid, "Cluster barycenter X (row #)", 200, 0., 200.);
meXRing_->setAxisTitle("Barycenter x-position [row #]", 1);
// Cluster barycenter Y position
meYRing_ = iBooker.book1D("y_" + hid, "Cluster barycenter Y (column #)", 500, 0., 500.);
meYRing_->setAxisTitle("Barycenter y-position [column #]", 1);
// Cluster width on the x-axis
meSizeXRing_ = iBooker.book1D("sizeX_" + hid, "Cluster x-width (rows)", 10, 0., 10.);
meSizeXRing_->setAxisTitle("Cluster x-size [rows]", 1);
// Cluster width on the y-axis
meSizeYRing_ = iBooker.book1D("sizeY_" + hid, "Cluster y-width (columns)", 15, 0., 15.);
meSizeYRing_->setAxisTitle("Cluster y-size [columns]", 1);
if (twoD) {
// 2D hit map
mePixClustersRing_ = iBooker.book2D("hitmap_" + hid,
"Number of Clusters (1bin=four pixels)",
nbinx,
0.,
float(ncols_),
nbiny,
0.,
float(nrows_));
mePixClustersRing_->setAxisTitle("Columns", 1);
mePixClustersRing_->setAxisTitle("Rows", 2);
} else {
// projections of hitmap
mePixClustersRing_px_ =
iBooker.book1D("hitmap_" + hid + "_px", "Number of Clusters (1bin=two columns)", nbinx, 0., float(ncols_));
mePixClustersRing_py_ =
iBooker.book1D("hitmap_" + hid + "_py", "Number of Clusters (1bin=two rows)", nbiny, 0., float(nrows_));
mePixClustersRing_px_->setAxisTitle("Columns", 1);
mePixClustersRing_py_->setAxisTitle("Rows", 1);
}
}
}
}
//
// Fill histograms
//
int SiPixelClusterModule::fill(const edmNew::DetSetVector<SiPixelCluster> &input,
const TrackerTopology *pTT,
const TrackerGeometry *tracker,
int *barrelClusterTotal,
int *fpixPClusterTotal,
int *fpixMClusterTotal,
std::vector<MonitorElement *> &layers,
std::vector<MonitorElement *> &diskspz,
std::vector<MonitorElement *> &disksmz,
bool modon,
bool ladon,
bool layon,
bool phion,
bool bladeon,
bool diskon,
bool ringon,
bool twoD,
bool reducedSet,
bool smileyon,
bool isUpgrade) {
bool barrel = DetId(id_).subdetId() == static_cast<int>(PixelSubdetector::PixelBarrel);
bool endcap = DetId(id_).subdetId() == static_cast<int>(PixelSubdetector::PixelEndcap);
edmNew::DetSetVector<SiPixelCluster>::const_iterator isearch = input.find(id_); // search clusters of detid
unsigned int numberOfClusters = 0;
unsigned int numberOfFpixClusters = 0;
if (isearch != input.end()) { // Not an empty iterator
// Look at clusters now
edmNew::DetSet<SiPixelCluster>::const_iterator di;
for (di = isearch->begin(); di != isearch->end(); di++) {
numberOfClusters++;
if (endcap)
numberOfFpixClusters++;
if (barrel)
(*barrelClusterTotal)++;
float charge = 0.001 * (di->charge()); // total charge of cluster
float x = di->x(); // barycenter x position
float y = di->y(); // barycenter y position
int size = di->size(); // total size of cluster (in pixels)
int sizeX = di->sizeX(); // size of cluster in x-direction
int sizeY = di->sizeY(); // size of cluster in y-direction
int minPixelRow = di->minPixelRow(); // min x index
int maxPixelRow = di->maxPixelRow(); // max x index
int minPixelCol = di->minPixelCol(); // min y index
int maxPixelCol = di->maxPixelCol(); // max y index
const PixelGeomDetUnit *theGeomDet = dynamic_cast<const PixelGeomDetUnit *>(tracker->idToDet(DetId(id_)));
const PixelTopology *topol = &(theGeomDet->specificTopology());
LocalPoint clustlp = topol->localPosition(MeasurementPoint(x, y));
GlobalPoint clustgp = theGeomDet->surface().toGlobal(clustlp);
if (modon)
meCharge_->Fill((float)charge);
if (modon)
meSize_->Fill((float)size);
if (barrel) {
uint32_t DBlayer = PixelBarrelName(DetId(id_), pTT, isUpgrade).layerName();
if (!(DBlayer > layers.size()) && (layers[DBlayer - 1]))
layers[DBlayer - 1]->Fill(clustgp.z(), clustgp.phi());
} else if (endcap) {
uint32_t DBdisk = PixelEndcapName(DetId(id_), pTT, isUpgrade).diskName();
if (clustgp.z() > 0) {
(*fpixPClusterTotal)++;
if (!(DBdisk > diskspz.size()) && (diskspz[DBdisk - 1]))
diskspz[DBdisk - 1]->Fill(clustgp.x(), clustgp.y());
} else {
(*fpixMClusterTotal)++;
if (!(DBdisk > disksmz.size()) && (disksmz[DBdisk - 1]))
disksmz[DBdisk - 1]->Fill(clustgp.x(), clustgp.y());
}
}
if (!reducedSet) {
(meMinRow_)->Fill((int)minPixelRow);
(meMaxRow_)->Fill((int)maxPixelRow);
(meMinCol_)->Fill((int)minPixelCol);
(meMaxCol_)->Fill((int)maxPixelCol);
(meSizeX_)->Fill((int)sizeX);
(meSizeY_)->Fill((int)sizeY);
(meX_)->Fill((float)x);
(meY_)->Fill((float)y);
if (twoD)
(mePixClusters_)->Fill((float)y, (float)x);
else {
(mePixClusters_px_)->Fill((float)y);
(mePixClusters_py_)->Fill((float)x);
}
}
if (barrel && smileyon) {
(meSizeYvsEtaBarrel_)->Fill(clustgp.eta(), sizeY);
// std::cout << "Cluster Global x y z theta eta " << clustgp.x() << " "
// << clustgp.y() << " " << clustgp.z() << " " << clustgp.theta() << " "
// << clustgp.eta() << std::endl;
}
if (ladon && barrel) {
(meChargeLad_)->Fill((float)charge);
(meSizeLad_)->Fill((int)size);
if (!reducedSet) {
(meMinRowLad_)->Fill((int)minPixelRow);
(meMaxRowLad_)->Fill((int)maxPixelRow);
(meMinColLad_)->Fill((int)minPixelCol);
(meMaxColLad_)->Fill((int)maxPixelCol);
(meXLad_)->Fill((float)x);
(meYLad_)->Fill((float)y);
(meSizeXLad_)->Fill((int)sizeX);
(meSizeYLad_)->Fill((int)sizeY);
if (twoD)
(mePixClustersLad_)->Fill((float)y, (float)x);
else {
(mePixClustersLad_px_)->Fill((float)y);
(mePixClustersLad_py_)->Fill((float)x);
}
}
}
if (layon && barrel) {
(meChargeLay_)->Fill((float)charge);
(meSizeLay_)->Fill((int)size);
if (!reducedSet) {
(meMinRowLay_)->Fill((int)minPixelRow);
(meMaxRowLay_)->Fill((int)maxPixelRow);
(meMinColLay_)->Fill((int)minPixelCol);
(meMaxColLay_)->Fill((int)maxPixelCol);
(meXLay_)->Fill((float)x);
(meYLay_)->Fill((float)y);
(meSizeXLay_)->Fill((int)sizeX);
(meSizeYLay_)->Fill((int)sizeY);
if (twoD)
(mePixClustersLay_)->Fill((float)y, (float)x);
else {
(mePixClustersLay_px_)->Fill((float)y);
(mePixClustersLay_py_)->Fill((float)x);
}
}
}
if (phion && barrel) {
(meChargePhi_)->Fill((float)charge);
(meSizePhi_)->Fill((int)size);
if (!reducedSet) {
(meMinRowPhi_)->Fill((int)minPixelRow);
(meMaxRowPhi_)->Fill((int)maxPixelRow);
(meMinColPhi_)->Fill((int)minPixelCol);
(meMaxColPhi_)->Fill((int)maxPixelCol);
(meXPhi_)->Fill((float)x);
(meYPhi_)->Fill((float)y);
(meSizeXPhi_)->Fill((int)sizeX);
(meSizeYPhi_)->Fill((int)sizeY);
if (twoD)
(mePixClustersPhi_)->Fill((float)y, (float)x);
else {
(mePixClustersPhi_px_)->Fill((float)y);
(mePixClustersPhi_py_)->Fill((float)x);
}
}
}
if (bladeon && endcap) {
(meChargeBlade_)->Fill((float)charge);
(meSizeBlade_)->Fill((int)size);
if (!reducedSet) {
(meMinRowBlade_)->Fill((int)minPixelRow);
(meMaxRowBlade_)->Fill((int)maxPixelRow);
(meMinColBlade_)->Fill((int)minPixelCol);
(meMaxColBlade_)->Fill((int)maxPixelCol);
(meXBlade_)->Fill((float)x);
(meYBlade_)->Fill((float)y);
(meSizeXBlade_)->Fill((int)sizeX);
(meSizeYBlade_)->Fill((int)sizeY);
}
}
if (diskon && endcap) {
(meChargeDisk_)->Fill((float)charge);
(meSizeDisk_)->Fill((int)size);
if (!reducedSet) {
(meMinRowDisk_)->Fill((int)minPixelRow);
(meMaxRowDisk_)->Fill((int)maxPixelRow);
(meMinColDisk_)->Fill((int)minPixelCol);
(meMaxColDisk_)->Fill((int)maxPixelCol);
(meXDisk_)->Fill((float)x);
(meYDisk_)->Fill((float)y);
(meSizeXDisk_)->Fill((int)sizeX);
(meSizeYDisk_)->Fill((int)sizeY);
}
}
if (ringon && endcap) {
(meChargeRing_)->Fill((float)charge);
(meSizeRing_)->Fill((int)size);
if (!reducedSet) {
(meMinRowRing_)->Fill((int)minPixelRow);
(meMaxRowRing_)->Fill((int)maxPixelRow);
(meMinColRing_)->Fill((int)minPixelCol);
(meMaxColRing_)->Fill((int)maxPixelCol);
(meXRing_)->Fill((float)x);
(meYRing_)->Fill((float)y);
(meSizeXRing_)->Fill((int)sizeX);
(meSizeYRing_)->Fill((int)sizeY);
if (twoD)
(mePixClustersRing_)->Fill((float)y, (float)x);
else {
(mePixClustersRing_px_)->Fill((float)y);
(mePixClustersRing_py_)->Fill((float)x);
}
}
}
}
if (modon)
(meNClusters_)->Fill((float)numberOfClusters);
if (ladon && barrel)
(meNClustersLad_)->Fill((float)numberOfClusters);
if (layon && barrel)
(meNClustersLay_)->Fill((float)numberOfClusters);
if (phion && barrel)
(meNClustersPhi_)->Fill((float)numberOfClusters);
if (bladeon && endcap)
(meNClustersBlade_)->Fill((float)numberOfClusters);
if (diskon && endcap)
(meNClustersDisk_)->Fill((float)numberOfClusters);
if (ringon && endcap)
(meNClustersRing_)->Fill((float)numberOfClusters);
}
// std::cout<<"number of detector units="<<numberOfDetUnits<<std::endl;
return numberOfFpixClusters;
}
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