GeometryComparisonPlotter Class Reference

#include <GeometryComparisonPlotter.h>

Public Member Functions
	GeometryComparisonPlotter (TString tree_file_name, TString outputDirname="output/", TString modulesToPlot="all", TString referenceName="Ideal", TString alignmentName="Alignment", bool plotOnlyGlobal=false, bool makeProfilePlots=false, int canvas_idx=0)
void	MakePlots (const std::vector< TString >, const std::vector< TString >, pt::ptree CFG)
void	MakeTables (const std::vector< TString >, const std::vector< TString >, pt::ptree CFG)
void	Set1dModule (const bool)
void	Set2dModule (const bool)
void	SetBatchMode (const bool)
void	SetBranchMax (const TString, const float)
void	SetBranchMin (const TString, const float)
void	SetBranchSF (const TString, const float)
void	SetBranchUnits (const TString, const TString)
void	SetCanvasSize (const int window_width=3508, const int window_height=2480)
void	SetGrid (const int, const int)
void	SetLegend (const bool)
void	SetLevelCut (const int)
void	SetOutputDirectoryName (const TString)
void	SetOutputFileName (const TString)
void	SetPrint (const bool)
void	SetPrintOption (const Option_t *)
void	SetWrite (const bool)
void	WriteTable (const std::vector< TString > x, unsigned int nLevelsTimesSlices, float meanValue[10][24], float RMS[10][24], const TString nDigits, const TString tableCaption, const TString tableFileName)
	~GeometryComparisonPlotter ()

Static Public Attributes
static int	canvas_profile_index

Private Member Functions
TString	ExtensionFromPrintOption (TString)
TString	LateXstyle (TString)
TString	LateXstyleTable (TString)
TLegend *	MakeLegend (double x1, double y1, double x2, double y2, int nPlottedSublevels, const TString title="")

Private Attributes
bool	_1dModule
bool	_2dModule
TString	_alignment_name
bool	_batchMode
int	_canvas_index
int	_grid_x
int	_grid_y
bool	_legend
int	_levelCut
bool	_make_profile_plots
std::map< TString, float >	_max
std::map< TString, float >	_min
TString	_module_plot_option
TString	_output_directory
TString	_output_filename
bool	_print
bool	_print_only_global
TString	_print_option
TString	_reference_name
std::map< TString, float >	_SF
TString	_sublevel_names [6]
std::map< TString, TString >	_units
int	_window_height
int	_window_width
bool	_write
std::map< TString, float >	branch_f
std::map< TString, int >	branch_i
TTree *	data
TFile *	output
TFile *	tree_file

Detailed Description

Definition at line 31 of file GeometryComparisonPlotter.h.

Constructor & Destructor Documentation

GeometryComparisonPlotter()

GeometryComparisonPlotter::GeometryComparisonPlotter	(	TString	tree_file_name,
		TString	outputDirname = "output/",
		TString	modulesToPlot = "all",
		TString	referenceName = "Ideal",
		TString	alignmentName = "Alignment",
		bool	plotOnlyGlobal = false,
		bool	makeProfilePlots = false,
		int	canvas_idx = 0
	)

Definition at line 51 of file GeometryComparisonPlotter.cc.

References _sublevel_names, branch_f, branch_i, gather_cfg::cout, data, and tree_file.

    : _output_directory(output_directory + TString(output_directory.EndsWith("/") ? "" : "/")),
      _output_filename("comparison.root"),
      _print_option("pdf"),
      _module_plot_option(modulesToPlot),
      _alignment_name(alignmentName),
      _reference_name(referenceName),
      _print(true),   // print the graphs in a file (e.g. pdf)
      _legend(true),  // print the graphs in a file (e.g. pdf)
      _write(true),   // write the graphs in a root file
      _print_only_global(printOnlyGlobal),
      _make_profile_plots(makeProfilePlots),
      _batchMode(
#ifdef DEBUG
          false  // false = display canvases (very time- and resource-consuming)
#else
          true  // true = no canvases
#endif
          ),
      _1dModule(true),           // cut on 1d modules
      _2dModule(true),           // cut on 2d modules
      _levelCut(DEFAULT_LEVEL),  // module level (see branch of same name)
      _grid_x(0),                // by default no display the grid in the canvases
      _grid_y(0),                // by default no display the grid in the canvases
      _window_width(DEFAULT_WINDOW_WIDTH),
      _window_height(DEFAULT_WINDOW_HEIGHT),
      _canvas_index(canvas_idx) {
#ifdef TALKATIVE
  std::cout << ">>> TALKATIVE MODE ACTIVATED <<<" << std::endl;
#endif
#ifdef DEBUG
  std::cout << ">>> DEBUG MODE ACTIVATED <<<" << std::endl;
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: inside constructor of GeometryComparisonPlotter utility"
            << std::endl;
#endif
  // _canvas_index
  //_canvas_index = 0;

  //_sublevel_names = {"PXB", "PXF", "TIB", "TID", "TOB", "TEC"}; // C++11
  _sublevel_names[0] = TString("PXB");
  _sublevel_names[1] = TString("PXF");
  _sublevel_names[2] = TString("TIB");
  _sublevel_names[3] = TString("TID");
  _sublevel_names[4] = TString("TOB");
  _sublevel_names[5] = TString("TEC");
  // TO DO: handle other structures

  // read tree
  tree_file = new TFile(tree_file_name, "UPDATE");
  data = (TTree *)tree_file->Get("alignTree");
  // int branches
  data->SetBranchAddress("id", &branch_i["id"]);
  data->SetBranchAddress("inModuleList", &branch_i["inModuleList"]);
  data->SetBranchAddress("badModuleQuality", &branch_i["badModuleQuality"]);
  data->SetBranchAddress("mid", &branch_i["mid"]);
  data->SetBranchAddress("level", &branch_i["level"]);
  data->SetBranchAddress("mlevel", &branch_i["mlevel"]);
  data->SetBranchAddress("sublevel", &branch_i["sublevel"]);
  data->SetBranchAddress("useDetId", &branch_i["useDetId"]);
  data->SetBranchAddress("detDim", &branch_i["detDim"]);
  // float branches
  data->SetBranchAddress("x", &branch_f["x"]);
  data->SetBranchAddress("y", &branch_f["y"]);
  data->SetBranchAddress("z", &branch_f["z"]);
  data->SetBranchAddress("alpha", &branch_f["alpha"]);
  data->SetBranchAddress("beta", &branch_f["beta"]);
  data->SetBranchAddress("gamma", &branch_f["gamma"]);
  data->SetBranchAddress("phi", &branch_f["phi"]);
  data->SetBranchAddress("eta", &branch_f["eta"]);
  data->SetBranchAddress("r", &branch_f["r"]);
  data->SetBranchAddress("dx", &branch_f["dx"]);
  data->SetBranchAddress("dy", &branch_f["dy"]);
  data->SetBranchAddress("dz", &branch_f["dz"]);
  data->SetBranchAddress("dphi", &branch_f["dphi"]);
  data->SetBranchAddress("dr", &branch_f["dr"]);
  data->SetBranchAddress("dalpha", &branch_f["dalpha"]);
  data->SetBranchAddress("dbeta", &branch_f["dbeta"]);
  data->SetBranchAddress("dgamma", &branch_f["dgamma"]);
  if (data->GetBranch("rdphi") ==
      nullptr)  // in the case of rdphi branch not existing, it is created from r and dphi branches
  {
#ifdef TALKATIVE
    std::cout << __FILE__ << ":" << __LINE__
              << ":Info: computing the rdphi branch from r and dphi branches (assuming they exist...)" << std::endl;
#endif
    TBranch *br_rdphi = data->Branch("rdphi", &branch_f["rdphi"], "rdphi/F");
    for (unsigned int ientry = 0; ientry < data->GetEntries(); ientry++) {
      data->GetEntry(ientry);
      branch_f["rdphi"] = branch_f["r"] * branch_f["dphi"];
      br_rdphi->Fill();
    }
  } else
    data->SetBranchAddress("rdphi", &branch_f["rdphi"]);

#ifdef DEBUG
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: branch addresses set" << std::endl;
#endif

  // style
  data->SetMarkerSize(0.5);
  data->SetMarkerStyle(6);

  gStyle->SetOptStat("emr");
  gStyle->SetTitleAlign(22);
  gStyle->SetTitleX(0.5);
  gStyle->SetTitleY(0.97);
  gStyle->SetTitleFont(62);
  //gStyle->SetOptTitle(0);

  gStyle->SetTextFont(132);
  gStyle->SetTextSize(0.08);
  gStyle->SetLabelFont(132, "x");
  gStyle->SetLabelFont(132, "y");
  gStyle->SetLabelFont(132, "z");
  gStyle->SetTitleSize(0.08, "x");
  gStyle->SetTitleSize(0.08, "y");
  gStyle->SetTitleSize(0.08, "z");
  gStyle->SetLabelSize(0.08, "x");
  gStyle->SetLabelSize(0.08, "y");
  gStyle->SetLabelSize(0.08, "z");

  gStyle->SetMarkerStyle(8);
  gStyle->SetHistLineWidth(2);
  gStyle->SetLineStyleString(2, "[12 12]");  // postscript dashes

  gStyle->SetFrameBorderMode(0);
  gStyle->SetCanvasBorderMode(0);
  gStyle->SetPadBorderMode(0);
  gStyle->SetPadColor(0);
  gStyle->SetCanvasColor(0);
  gStyle->SetTitleColor(1);
  gStyle->SetStatColor(0);
  gStyle->SetStatBorderSize(1);
  gStyle->SetFrameFillColor(0);

  gStyle->SetPadTickX(1);
  gStyle->SetPadTickY(1);

  gStyle->SetPadTopMargin(0.1);
  gStyle->SetPadRightMargin(0.05);
  gStyle->SetPadBottomMargin(0.16);
  gStyle->SetPadLeftMargin(0.18);

#ifdef DEBUG
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: end of constructor" << std::endl;
#endif
}

~GeometryComparisonPlotter()

GeometryComparisonPlotter::~GeometryComparisonPlotter

(

)

Definition at line 206 of file GeometryComparisonPlotter.cc.

References gather_cfg::cout, and tree_file.

                                                      {
#ifdef DEBUG
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: in destructor of the GeometryComparisonPlotter utility"
            << std::endl;
#endif
  tree_file->Close();
#ifdef DEBUG
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: ending." << std::endl;
#endif
}

Member Function Documentation

ExtensionFromPrintOption()

TString GeometryComparisonPlotter::ExtensionFromPrintOption ( TString  print_option )

private

Definition at line 1515 of file GeometryComparisonPlotter.cc.

References gather_cfg::cout.

Referenced by MakePlots().

                                                                                {
  if (print_option.Contains("pdf"))
    return TString(".pdf");
  else if (print_option.Contains("eps"))
    return TString(".eps");
  else if (print_option.Contains("ps"))
    return TString(".ps");
  else if (print_option.Contains("svg"))
    return TString(".svg");
  else if (print_option.Contains("tex"))
    return TString(".tex");
  else if (print_option.Contains("gif"))
    return TString(".gif");
  else if (print_option.Contains("xpm"))
    return TString(".xpm");
  else if (print_option.Contains("png"))
    return TString(".png");
  else if (print_option.Contains("jpg"))
    return TString(".jpg");
  else if (print_option.Contains("tiff"))
    return TString(".tiff");
  else if (print_option.Contains("cxx"))
    return TString(".cxx");
  else if (print_option.Contains("xml"))
    return TString(".xml");
  else if (print_option.Contains("root"))
    return TString(".root");
  else {
    std::cout << __FILE__ << ":" << __LINE__ << ":Warning: unknown format. Returning .pdf, but possibly wrong..."
              << std::endl;
    return TString(".pdf");
  }
}

LateXstyle()

TString GeometryComparisonPlotter::LateXstyle ( TString  word )

private

Definition at line 1477 of file GeometryComparisonPlotter.cc.

Referenced by MakePlots().

                                                          {
  word.ToLower();
  if (word.BeginsWith("d"))
    word.ReplaceAll("d", "#Delta");
  if (word == TString("rdphi"))
    word = "r#Delta#phi";  // TO DO: find something less ad hoc...
  else if (word.EndsWith("phi"))
    word.ReplaceAll("phi", "#phi");
  else if (word.EndsWith("alpha"))
    word.ReplaceAll("alpha", "#alpha");
  else if (word.EndsWith("beta"))
    word.ReplaceAll("beta", "#beta");
  else if (word.EndsWith("gamma"))
    word.ReplaceAll("gamma", "#gamma");
  else if (word.EndsWith("eta"))
    word.ReplaceAll("eta", "#eta");
  return word;
}

LateXstyleTable()

TString GeometryComparisonPlotter::LateXstyleTable ( TString  word )

private

Definition at line 1496 of file GeometryComparisonPlotter.cc.

Referenced by WriteTable().

                                                               {
  word.ToLower();
  if (word.BeginsWith("d"))
    word.ReplaceAll("d", "$\\Delta$");
  if (word == TString("rdphi"))
    word = "r$\\Delta\\phi$";  // TO DO: find something less ad hoc...
  else if (word.EndsWith("phi"))
    word.ReplaceAll("phi", "$\\phi$");
  else if (word.EndsWith("alpha"))
    word.ReplaceAll("alpha", "$\\alpha$");
  else if (word.EndsWith("beta"))
    word.ReplaceAll("beta", "$\\beta$");
  else if (word.EndsWith("gamma"))
    word.ReplaceAll("gamma", "#$\\gamma$");
  else if (word.EndsWith("eta"))
    word.ReplaceAll("eta", "$\\eta$");
  return word;
}

MakeLegend()

TLegend * GeometryComparisonPlotter::MakeLegend ( double  x1, double  y1, double  x2, double  y2, int  nPlottedSublevels, const TString  title = ""  )

private

Definition at line 1549 of file GeometryComparisonPlotter.cc.

References _sublevel_names, COLOR_CODE, g, compareTotals::legend, runGCPTkAlMap::title, testProducerWithPsetDescEmpty_cfi::x1, testProducerWithPsetDescEmpty_cfi::x2, testProducerWithPsetDescEmpty_cfi::y1, and testProducerWithPsetDescEmpty_cfi::y2.

Referenced by MakePlots().

                                                                                            {
  TLegend *legend = new TLegend(x1, y1, x2, y2, title.Data(), "NBNDC");
  legend->SetNColumns(nPlottedSublevels);
  legend->SetFillColor(0);
  legend->SetLineColor(0);  // redundant with option
  legend->SetLineWidth(0);  // redundant with option
  for (int isublevel = 0; isublevel < nPlottedSublevels;
       isublevel++)  // nPlottedSublevels is either NB_SUBLEVELS for the tracker or 2 for the pixel
  {
    TGraph *g = new TGraph(0);
    g->SetMarkerColor(COLOR_CODE(isublevel));
    g->SetFillColor(COLOR_CODE(isublevel));
    g->SetMarkerStyle(kFullSquare);
    g->SetMarkerSize(10);
    legend->AddEntry(g, _sublevel_names[isublevel], "p");
  }
  return legend;
}

MakePlots()

void GeometryComparisonPlotter::MakePlots	(	const std::vector< TString >	x,
		const std::vector< TString >	y,
		pt::ptree	CFG
	)

-1) check that only existing branches are called

0) min and max values

1) declare TGraphs and Histograms for profile plots if these are to be plotted

2) loop on the TTree data

3) merge TGraph objects into TMultiGraph objects, then draw, print and write (according to the options _batchMode, _print and _write respectively)

TRACKER and PIXEL

SUBLEVELS (1..6)

TRACKER

PIXEL

SUBLEVELS (1..6)

Definition at line 218 of file GeometryComparisonPlotter.cc.

References _1dModule, _2dModule, _alignment_name, _batchMode, _canvas_index, _grid_x, _grid_y, _legend, _levelCut, _make_profile_plots, _max, _min, _module_plot_option, _output_directory, _output_filename, _print, _print_only_global, _print_option, _reference_name, _SF, _sublevel_names, _units, _window_height, _window_width, _write, branch_f, branch_i, HltBtagPostValidation_cff::c, CHECK_BRANCHES, CHECK_MAP_CONTENT, COLOR_CODE, gather_cfg::cout, data, beamvalidation::exit(), ExtensionFromPrintOption(), cuy::graphs, combine::histos, INDEX_IN_GLOBAL_CANVAS, INSIDE_VECTOR, plotBeamSpotDB::ipoint, LateXstyle(), compareTotals::legend, LIMITS, MakeLegend(), NB_MODULE_QUALITY, NB_SUBLEVELS, NB_Z_SLICES, output, DiDispStaMuonMonitor_cfi::pt, cond::impl::to_string(), x, and y.

{
  // (we use a macro to avoid copy/paste)
#define CHECK_BRANCHES(branchname_vector)                                                       \
  for (unsigned int i = 0; i < branchname_vector.size(); i++) {                                 \
    if (branch_f.find(branchname_vector[i]) == branch_f.end()) {                                \
      std::cout << __FILE__ << ":" << __LINE__ << ":Error: The branch " << branchname_vector[i] \
                << " is not recognised." << std::endl;                                          \
      return;                                                                                   \
    }                                                                                           \
  }
  CHECK_BRANCHES(x);
  CHECK_BRANCHES(y);

  const unsigned int nentries = data->GetEntries();

#ifdef TALKATIVE
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: ";
  INSIDE_VECTOR(x);
  std::cout << std::endl << __FILE__ << ":" << __LINE__ << ":Info: ";
  INSIDE_VECTOR(y);
  std::cout << std::endl;
#endif

  // the max and min of the graphs are computed from the tree if they have not been manually input yet
  // (we use a macro to avoid copy/paste)
#define LIMITS(axes_vector)                                                          \
  for (unsigned int i = 0; i < axes_vector.size(); i++) {                            \
    if (_SF.find(axes_vector[i]) == _SF.end())                                       \
      _SF[axes_vector[i]] = 1.;                                                      \
    if (_min.find(axes_vector[i]) == _min.end())                                     \
      _min[axes_vector[i]] = _SF[axes_vector[i]] * data->GetMinimum(axes_vector[i]); \
    if (_max.find(axes_vector[i]) == _max.end())                                     \
      _max[axes_vector[i]] = _SF[axes_vector[i]] * data->GetMaximum(axes_vector[i]); \
  }
  LIMITS(x);
  LIMITS(y);

#ifdef TALKATIVE
  CHECK_MAP_CONTENT(_min, float);
  CHECK_MAP_CONTENT(_max, float);
  CHECK_MAP_CONTENT(_SF, float);
#endif

  // the idea is to produce at the end a table of 8 TMultiGraphs and histograms:
  // - 0=Tracker, with color code for the different sublevels
  // - 1..6=different sublevels, with color code for z < or > 0
  // - 7=only pixel with color code for BPIX and FPIX

  // (convention: the six first (resp. last) correspond to z>0 (resp. z<0))
  // Modules with bad quality and in a list of modules that is given
  // by the user (e.g. list of bad/untouched modules, default: empty list)
  // are stored in seperate graphs and might be plotted (depends on the module
  // plot option, default: all modules plotted)
  // This means that 3*2*6 TGraphs will be filled during the loop on the TTree,
  // and will be arranged differently with different color codes in the TMultiGraphs

  // For the profile plots
  // Either all modules, only good modules or good modules + those in a given list will be plotted
  // This means that 2*6 TH2F will be filled during the loop on the TTree,
  // and will be arranged differently with different color codes in the Histograms
#ifndef NB_SUBLEVELS
#define NB_SUBLEVELS 6
#endif
#define NB_Z_SLICES 2
#define NB_MODULE_QUALITY 3
#define COLOR_CODE(icolor) int(icolor / 4) + icolor + 1

  TGraph *graphs[x.size()][y.size()][NB_SUBLEVELS * NB_Z_SLICES * NB_MODULE_QUALITY];
  long int ipoint[x.size()][y.size()][NB_SUBLEVELS * NB_Z_SLICES * NB_MODULE_QUALITY];

  TMultiGraph
      *mgraphs[x.size()][y.size()]
              [2 + NB_SUBLEVELS];  // the 0th is for global plots, the 1..6th for sublevel plots, 7th for pixel only
  TCanvas *c[x.size()][y.size()][2 + NB_SUBLEVELS], *c_global[2 + NB_SUBLEVELS];
  _canvas_index++;  // this static index is a safety used in case the MakePlots method is used several times to avoid overloading

  // histograms for profile plots,
  // 2D-hists to store the data
  // 1D-hists to calculate mean and sigma of y-values for each x-bin of the 2D-hists and for the final profile hist
  TH2F *histos2D[x.size()][y.size()][NB_SUBLEVELS * NB_Z_SLICES];
  TH1F *histos[x.size()][y.size()][NB_SUBLEVELS * NB_Z_SLICES];
  TH1F *histosYValues[x.size()][y.size()]
                     [NB_SUBLEVELS * NB_Z_SLICES];  // Used to calculate the mean and RMS for each x-bin of the 2D-hist
  TH1F *histosTracker
      [x.size()][y.size()]
      [NB_SUBLEVELS *
       NB_Z_SLICES];  // for the tracker plots all histos are copied to avoid using the same hists in different canvas

  TCanvas *c_hist[x.size()][y.size()][2 + NB_SUBLEVELS], *c_global_hist[2 + NB_SUBLEVELS];

  unsigned int nXBins;  // Sensible number of x-bins differs depending on the variable

  for (unsigned int ic = 0; ic <= NB_SUBLEVELS + 1; ic++) {
    c_global[ic] = new TCanvas(
        TString::Format(
            "global_%s_%d", ic == 0 ? "tracker" : (ic == 7 ? "pixel" : _sublevel_names[ic - 1].Data()), _canvas_index),
        TString::Format("Global overview of the %s variables",
                        ic == 0 ? "tracker" : (ic == 7 ? "pixel" : _sublevel_names[ic - 1].Data())),
        _window_width,
        _window_height);
    c_global[ic]->Divide(x.size(), y.size());

    if (_make_profile_plots) {
      c_global_hist[ic] =
          new TCanvas(TString::Format("global_profile_plots_%s_%d",
                                      ic == 0 ? "tracker" : (ic == 7 ? "pixel" : _sublevel_names[ic - 1].Data()),
                                      _canvas_index),
                      TString::Format("Global overview profile plots of the %s variables",
                                      ic == 0 ? "tracker" : (ic == 7 ? "pixel" : _sublevel_names[ic - 1].Data())),
                      _window_width,
                      _window_height);
      c_global_hist[ic]->Divide(x.size(), y.size());
    }
  }

  for (unsigned int ix = 0; ix < x.size(); ix++) {
    for (unsigned int iy = 0; iy < y.size(); iy++) {
      //if (x[ix] == y[iy]) continue;       // do not plot graphs like (r,r) or (phi,phi)
      for (unsigned int igraph = 0; igraph < NB_SUBLEVELS * NB_Z_SLICES * NB_MODULE_QUALITY; igraph++) {
        // declaring
        ipoint[ix][iy][igraph] =
            0;  // the purpose of an index for every graph is to avoid thousands of points at the origin of each
        graphs[ix][iy][igraph] = new TGraph();

        graphs[ix][iy][igraph]->SetMarkerColor(COLOR_CODE(igraph));
        graphs[ix][iy][igraph]->SetMarkerStyle(6);
        // pimping
        graphs[ix][iy][igraph]->SetName(
            x[ix] + y[iy] + _sublevel_names[igraph % NB_SUBLEVELS] +
            TString(igraph % (NB_SUBLEVELS * NB_Z_SLICES) >= NB_SUBLEVELS ? "n"
                                                                          : "p")  // graphs for negative/positive  z
            + TString(igraph >= NB_SUBLEVELS * NB_Z_SLICES ? (igraph >= 2 * NB_SUBLEVELS * NB_Z_SLICES ? "bad" : "list")
                                                           : "good"));  // graphs for good, bad modules and from a list
        graphs[ix][iy][igraph]->SetTitle(
            _sublevel_names[igraph % NB_SUBLEVELS] +
            TString(igraph % (NB_SUBLEVELS * NB_Z_SLICES) >= NB_SUBLEVELS ? " at z<0" : " at z>=0") +
            TString(igraph >= NB_SUBLEVELS * NB_Z_SLICES
                        ? (igraph >= 2 * NB_SUBLEVELS * NB_Z_SLICES ? " bad modules" : " in list")
                        : " good modules") +
            TString(";") + LateXstyle(x[ix]) + " /" + _units[x[ix]] + TString(";") + LateXstyle(y[iy]) + " /" +
            _units[y[iy]]);
        graphs[ix][iy][igraph]->SetMarkerStyle(
            igraph >= NB_SUBLEVELS * NB_Z_SLICES
                ? (igraph >= 2 * NB_SUBLEVELS * NB_Z_SLICES ? 4 : 5)
                : 6);  // empty circle for bad modules, X for those in list, dot for good ones
      }
    }
  }

  // Use seperate loop for the profile histograms since we do not produce histograms for the different module qualities
  if (_make_profile_plots) {
    for (unsigned int ix = 0; ix < x.size(); ix++) {
      if (x[ix] == "phi")
        nXBins = 10;
      else
        nXBins = 40;

      for (unsigned int iy = 0; iy < y.size(); iy++) {
        for (unsigned int igraph = 0; igraph < NB_SUBLEVELS * NB_Z_SLICES; igraph++) {
          // declaring
          histos2D[ix][iy][igraph] =
              new TH2F("2Dhist" + x[ix] + y[iy] + _sublevel_names[igraph % NB_SUBLEVELS] +
                           TString(igraph % (NB_SUBLEVELS * NB_Z_SLICES) >= NB_SUBLEVELS ? "n" : "p") +
                           std::to_string(_canvas_index),
                       "",
                       nXBins,
                       _min[x[ix]],
                       _max[x[ix]],
                       1000,
                       _min[y[iy]],
                       _max[y[iy]] + 1.);
        }
      }
    }
  }

#ifdef DEBUG
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: Creation of the TGraph[" << x.size() << "][" << y.size() << "]["
            << NB_SUBLEVELS * NB_Z_SLICES * NB_MODULE_QUALITY << "] ended." << std::endl;
#endif

#ifdef DEBUG
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: Looping on the TTree" << std::endl;
#endif
#ifdef TALKATIVE
  unsigned int progress = 0;
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: 0%" << std::endl;
#endif
  for (unsigned int ientry = 0; ientry < nentries; ientry++) {
#ifdef TALKATIVE
    if (10 * ientry / nentries != progress) {
      progress = 10 * ientry / nentries;
      std::cout << __FILE__ << ":" << __LINE__ << ":Info: " << 10 * progress << "%" << std::endl;
    }
#endif
    // load current tree entry
    data->GetEntry(ientry);

    // CUTS on entry
    if (branch_i["level"] != _levelCut)
      continue;
    if (!_1dModule && branch_i["detDim"] == 1)
      continue;
    if (!_2dModule && branch_i["detDim"] == 2)
      continue;

    // loop on the different couples of variables to plot in a graph
    for (unsigned int ix = 0; ix < x.size(); ix++) {
      // CUTS on x[ix]
      if (_SF[x[ix]] * branch_f[x[ix]] > _max[x[ix]] || _SF[x[ix]] * branch_f[x[ix]] < _min[x[ix]]) {
        //#ifdef DEBUG
        //                std::cout << "branch_f[x[ix]]=" << branch_f[x[ix]] << std::endl;
        //#endif
        continue;
      }

      for (unsigned int iy = 0; iy < y.size(); iy++) {
        // CUTS on y[iy]
        //if (x[ix] == y[iy])                                                   continue; // TO DO: handle display when such a case occurs
        if (branch_i["sublevel"] < 1 || branch_i["sublevel"] > NB_SUBLEVELS)
          continue;

        // FILLING histograms take even those outside the plotted range into account
        if (_make_profile_plots) {
          if (_module_plot_option == "all") {
            const short int igraph = (branch_i["sublevel"] - 1) + (branch_f["z"] >= 0 ? 0 : NB_SUBLEVELS);
            histos2D[ix][iy][igraph]->Fill(_SF[x[ix]] * branch_f[x[ix]], _SF[y[iy]] * branch_f[y[iy]]);
          } else if (_module_plot_option == "good" && branch_i["badModuleQuality"] == 0) {
            const short int igraph = (branch_i["sublevel"] - 1) + (branch_f["z"] >= 0 ? 0 : NB_SUBLEVELS);
            histos2D[ix][iy][igraph]->Fill(_SF[x[ix]] * branch_f[x[ix]], _SF[y[iy]] * branch_f[y[iy]]);
          } else if (_module_plot_option == "list" &&
                     (branch_i["inModuleList"] == 1 || branch_i["badModuleQuality"] == 0)) {
            const short int igraph = (branch_i["sublevel"] - 1) + (branch_f["z"] >= 0 ? 0 : NB_SUBLEVELS);
            histos2D[ix][iy][igraph]->Fill(_SF[x[ix]] * branch_f[x[ix]], _SF[y[iy]] * branch_f[y[iy]]);
          }
        }

        // restrict scatter plots to chosen range
        if (_SF[y[iy]] * branch_f[y[iy]] > _max[y[iy]] || _SF[y[iy]] * branch_f[y[iy]] < _min[y[iy]]) {
          //#ifdef DEBUG
          //                    std::cout << "branch_f[y[iy]]=" << branch_f[y[iy]] << std::endl;
          //#endif
          continue;
        }

        // FILLING GRAPH
        if (y.size() >= x.size()) {
          if (branch_i["inModuleList"] == 0 && branch_i["badModuleQuality"] == 0) {
            const short int igraph = (branch_i["sublevel"] - 1) + (branch_f["z"] >= 0 ? 0 : NB_SUBLEVELS);
            graphs[ix][iy][igraph]->SetPoint(
                ipoint[ix][iy][igraph], _SF[x[ix]] * branch_f[x[ix]], _SF[y[iy]] * branch_f[y[iy]]);
            ipoint[ix][iy][igraph]++;
          }
          if (branch_i["inModuleList"] > 0) {
            const short int igraph =
                (branch_i["sublevel"] - 1) + (branch_f["z"] >= 0 ? 0 : NB_SUBLEVELS) + NB_SUBLEVELS * NB_Z_SLICES;
            graphs[ix][iy][igraph]->SetPoint(
                ipoint[ix][iy][igraph], _SF[x[ix]] * branch_f[x[ix]], _SF[y[iy]] * branch_f[y[iy]]);
            ipoint[ix][iy][igraph]++;
          }
          if (branch_i["badModuleQuality"] > 0) {
            const short int igraph =
                (branch_i["sublevel"] - 1) + (branch_f["z"] >= 0 ? 0 : NB_SUBLEVELS) + 2 * NB_SUBLEVELS * NB_Z_SLICES;
            graphs[ix][iy][igraph]->SetPoint(
                ipoint[ix][iy][igraph], _SF[x[ix]] * branch_f[x[ix]], _SF[y[iy]] * branch_f[y[iy]]);
            ipoint[ix][iy][igraph]++;
          }
        } else {
          if (branch_i["inModuleList"] == 0 && branch_i["badModuleQuality"] == 0) {
            const short int igraph = (branch_i["sublevel"] - 1) + (branch_f["z"] >= 0 ? 0 : NB_SUBLEVELS);
            graphs[iy][ix][igraph]->SetPoint(
                ipoint[iy][ix][igraph], _SF[x[ix]] * branch_f[x[ix]], _SF[y[iy]] * branch_f[y[iy]]);
            ipoint[iy][ix][igraph]++;
          }
          if (branch_i["inModuleList"] > 0) {
            const short int igraph =
                (branch_i["sublevel"] - 1) + (branch_f["z"] >= 0 ? 0 : NB_SUBLEVELS) + NB_SUBLEVELS * NB_Z_SLICES;
            graphs[iy][ix][igraph]->SetPoint(
                ipoint[iy][ix][igraph], _SF[x[ix]] * branch_f[x[ix]], _SF[y[iy]] * branch_f[y[iy]]);
            ipoint[iy][ix][igraph]++;
          }
          if (branch_i["badModuleQuality"] > 0) {
            const short int igraph =
                (branch_i["sublevel"] - 1) + (branch_f["z"] >= 0 ? 0 : NB_SUBLEVELS) + 2 * NB_SUBLEVELS * NB_Z_SLICES;
            graphs[iy][ix][igraph]->SetPoint(
                ipoint[ix][iy][igraph], _SF[x[ix]] * branch_f[x[ix]], _SF[y[iy]] * branch_f[y[iy]]);
            ipoint[iy][ix][igraph]++;
          }
        }
      }
    }
  }
#ifdef TALKATIVE
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: 100%\tLoop ended" << std::endl;
#endif

  gROOT->SetBatch(_batchMode);  // if true, then equivalent to "root -b", i.e. no canvas
  if (_write) {                 // opening the file to write the graphs
    output = new TFile(_output_directory + TString(_output_filename),
                       "UPDATE");  // possibly existing file will be updated, otherwise created
    if (output->IsZombie()) {
      std::cout << __FILE__ << ":" << __LINE__ << ":Error: Opening of " << _output_directory + TString(_output_filename)
                << " failed" << std::endl;
      exit(-1);
    }
#ifdef TALKATIVE
    std::cout << __FILE__ << ":" << __LINE__ << ":Info: output file is "
              << _output_directory + TString(_output_filename) << std::endl;
#endif
  }
  // declaring TMultiGraphs and TCanvas
  // Usually more y variables than x variables
  // creating TLegend
  TLegend *legend = MakeLegend(.1, .92, .9, 1., NB_SUBLEVELS);
  if (_write)
    legend->Write();

  // check which modules are supposed to be plotted
  unsigned int n_module_types = 1;
  if (_module_plot_option == "all") {
    n_module_types = 3;  //plot all modules (good, list and bad )
  } else if (_module_plot_option == "list") {
    n_module_types = 2;  // plot good modules and those in the list
  } else if (_module_plot_option == "good") {
    n_module_types = 1;  // only plot the modules that are neither bad or in the list
  }

#define INDEX_IN_GLOBAL_CANVAS(i1, i2) 1 + i1 + i2 *x.size()
  // running on the TGraphs to produce the TMultiGraph and draw/print them
  for (unsigned int ix = 0; ix < x.size(); ix++) {
#ifdef DEBUG
    std::cout << __FILE__ << ":" << __LINE__ << ":Info: x[" << ix << "]=" << x[ix] << std::endl;
#endif

    // looping on Y axes
    for (unsigned int iy = 0; iy < y.size(); iy++) {
      TString min_branch = TString::Format("%s_min", y[iy].Data());
      TString max_branch = TString::Format("%s_max", y[iy].Data());

#ifdef DEBUG
      std::cout << __FILE__ << ":" << __LINE__ << ":Info: x[" << ix << "]=" << x[ix] << " and y[" << iy << "]=" << y[iy]
                << "\t-> creating TMultiGraph" << std::endl;
#endif
      mgraphs[ix][iy][0] = new TMultiGraph(
          TString::Format("mgr_%s_vs_%s_tracker_%d",
                          x[ix].Data(),
                          y[iy].Data(),
                          _canvas_index),  // name
          //LateXstyle(x[ix]) + TString(" vs. ") + LateXstyle(y[iy]) + TString(" for Tracker") // graph title
          TString(";") + LateXstyle(x[ix]) + " /" + _units[x[ix]]          // x axis title
              + TString(";") + LateXstyle(y[iy]) + " /" + _units[y[iy]]);  // y axis title

      mgraphs[ix][iy][7] = new TMultiGraph(
          TString::Format("mgr_%s_vs_%s_pixel_%d",
                          x[ix].Data(),
                          y[iy].Data(),
                          _canvas_index),  // name
          //LateXstyle(x[ix]) + TString(" vs. ") + LateXstyle(y[iy]) + TString(" for Tracker") // graph title
          TString(";") + LateXstyle(x[ix]) + " /" + _units[x[ix]]          // x axis title
              + TString(";") + LateXstyle(y[iy]) + " /" + _units[y[iy]]);  // y axis title

      // fixing ranges and filling TMultiGraph
      // for (unsigned short int jgraph = NB_SUBLEVELS*NB_Z_SLICES-1 ; jgraph >= 0 ; --jgraph)
      for (unsigned short int jgraph = 0; jgraph < NB_SUBLEVELS * NB_Z_SLICES * n_module_types; jgraph++) {
        unsigned short int igraph =
            NB_SUBLEVELS * NB_Z_SLICES * n_module_types - jgraph -
            1;  // reverse counting for humane readability (one of the sublevel takes much more place than the others)

#ifdef DEBUG
        std::cout << __FILE__ << ":" << __LINE__ << ":Info: writing TGraph to file" << std::endl;
#endif
        // write into root file
        if (_write)
          graphs[ix][iy][igraph]->Write();
        if (graphs[ix][iy][igraph]->GetN() == 0) {
#ifdef TALKATIVE
          std::cout << __FILE__ << ":" << __LINE__ << ":Info: " << graphs[ix][iy][igraph]->GetName() << " is empty."
                    << std::endl;
#endif
          continue;
        }
#ifdef DEBUG
        std::cout << __FILE__ << ":" << __LINE__ << ":Info: cloning, coloring and adding TGraph "
                  << _sublevel_names[igraph % NB_SUBLEVELS] << (igraph >= NB_SUBLEVELS ? "(z<0)" : "(z>0)")
                  << " to global TMultiGraph" << std::endl;
#endif
        // clone to prevent any injure on the graph
        TGraph *gr = (TGraph *)graphs[ix][iy][igraph]->Clone();
        // color
        gr->SetMarkerColor(COLOR_CODE(igraph % NB_SUBLEVELS));
        mgraphs[ix][iy][0]->Add(gr, "P");  //, (mgraphs[ix][iy][0]->GetListOfGraphs()==0?"AP":"P"));

        if (igraph % NB_SUBLEVELS == 0 || igraph % NB_SUBLEVELS == 1)
          mgraphs[ix][iy][7]->Add(gr, "P");  // Add BPIX (0) and FPIX (1) to pixel plot
      }

      for (unsigned int isublevel = 1; isublevel <= NB_SUBLEVELS; isublevel++) {
#ifdef DEBUG
        std::cout << __FILE__ << ":" << __LINE__ << ":Info: cloning, coloring and adding TGraph "
                  << _sublevel_names[isublevel - 1] << " to sublevel TMultiGraph" << std::endl;
#endif
        mgraphs[ix][iy][isublevel] =
            new TMultiGraph(TString::Format("%s_vs_%s_%s_%d",
                                            x[ix].Data(),
                                            y[iy].Data(),
                                            _sublevel_names[isublevel - 1].Data(),
                                            _canvas_index),  // name
                            //LateXstyle(x[ix]) + TString(" vs. ") + LateXstyle(y[iy]) + TString(" for ") +
                            _sublevel_names[isublevel - 1]                                   // graph title
                                + TString(";") + LateXstyle(x[ix]) + " /" + _units[x[ix]]    // x axis title
                                + TString(";") + LateXstyle(y[iy]) + " /" + _units[y[iy]]);  // y axis title

        graphs[ix][iy][isublevel - 1]->SetMarkerColor(kBlack);
        graphs[ix][iy][NB_SUBLEVELS + isublevel - 1]->SetMarkerColor(kRed);
        graphs[ix][iy][2 * NB_SUBLEVELS + isublevel - 1]->SetMarkerColor(kGray + 1);
        graphs[ix][iy][3 * NB_SUBLEVELS + isublevel - 1]->SetMarkerColor(kRed - 7);
        graphs[ix][iy][4 * NB_SUBLEVELS + isublevel - 1]->SetMarkerColor(kGray + 1);
        graphs[ix][iy][5 * NB_SUBLEVELS + isublevel - 1]->SetMarkerColor(kRed - 7);
        if (graphs[ix][iy][isublevel - 1]->GetN() > 0)
          mgraphs[ix][iy][isublevel]->Add(
              graphs[ix][iy][isublevel - 1],
              "P");  //(mgraphs[ix][iy][isublevel-1]->GetListOfGraphs()==0?"AP":"P")); // z>0
#ifdef TALKATIVE
        else
          std::cout << __FILE__ << ":" << __LINE__
                    << ":Info: graphs[ix][iy][isublevel-1]=" << graphs[ix][iy][isublevel - 1]->GetName()
                    << " is empty -> not added into " << mgraphs[ix][iy][isublevel]->GetName() << std::endl;
#endif
        if (graphs[ix][iy][NB_SUBLEVELS + isublevel - 1]->GetN() > 0)
          mgraphs[ix][iy][isublevel]->Add(
              graphs[ix][iy][NB_SUBLEVELS + isublevel - 1],
              "P");  //(mgraphs[ix][iy][isublevel-1]->GetListOfGraphs()==0?"AP":"P")); // z<0
#ifdef TALKATIVE
        else
          std::cout << __FILE__ << ":" << __LINE__ << ":Info: graphs[ix][iy][NB_SUBLEVEL+isublevel-1]="
                    << graphs[ix][iy][NB_Z_SLICES + isublevel - 1]->GetName() << " is empty -> not added into "
                    << mgraphs[ix][iy][isublevel]->GetName() << std::endl;
#endif
#if NB_Z_SLICES != 2
        std::cout << __FILE__ << ":" << __LINE__ << ":Error: color code incomplete for Z slices..." << std::endl;
#endif
        if (_module_plot_option == "all") {
          if (graphs[ix][iy][2 * NB_SUBLEVELS + isublevel - 1]->GetN() > 0)
            mgraphs[ix][iy][isublevel]->Add(graphs[ix][iy][2 * NB_SUBLEVELS + isublevel - 1], "P");
          if (graphs[ix][iy][3 * NB_SUBLEVELS + isublevel - 1]->GetN() > 0)
            mgraphs[ix][iy][isublevel]->Add(graphs[ix][iy][3 * NB_SUBLEVELS + isublevel - 1], "P");
          if (graphs[ix][iy][4 * NB_SUBLEVELS + isublevel - 1]->GetN() > 0)
            mgraphs[ix][iy][isublevel]->Add(graphs[ix][iy][4 * NB_SUBLEVELS + isublevel - 1], "P");
          if (graphs[ix][iy][5 * NB_SUBLEVELS + isublevel - 1]->GetN() > 0)
            mgraphs[ix][iy][isublevel]->Add(graphs[ix][iy][5 * NB_SUBLEVELS + isublevel - 1], "P");
        }
        if (_module_plot_option == "list") {
          if (graphs[ix][iy][2 * NB_SUBLEVELS + isublevel - 1]->GetN() > 0)
            mgraphs[ix][iy][isublevel]->Add(graphs[ix][iy][2 * NB_SUBLEVELS + isublevel - 1], "P");
          if (graphs[ix][iy][3 * NB_SUBLEVELS + isublevel - 1]->GetN() > 0)
            mgraphs[ix][iy][isublevel]->Add(graphs[ix][iy][3 * NB_SUBLEVELS + isublevel - 1], "P");
        }
      }

      // fixing ranges, saving, and drawing of TMultiGraph (tracker AND sublevels AND pixel, i.e. 2+NB_SUBLEVELS objects)
      // the individual canvases are saved, but the global are just drawn and will be saved later
      for (unsigned short int imgr = 0; imgr <= NB_SUBLEVELS + 1; imgr++) {
#ifdef DEBUG
        std::cout << __FILE__ << ":" << __LINE__ << ":Info: treating individual canvases." << std::endl;
#endif
        // drawing into individual canvas and printing it (including a legend for the tracker canvas)
        c[ix][iy][imgr] = new TCanvas(
            TString::Format("c_%s_vs_%s_%s_%d",
                            x[ix].Data(),
                            y[iy].Data(),
                            imgr == 0 ? "tracker" : (imgr == 7 ? "pixel" : _sublevel_names[imgr - 1].Data()),
                            _canvas_index),
            TString::Format("%s vs. %s at %s level",
                            x[ix].Data(),
                            y[iy].Data(),
                            imgr == 0 ? "tracker" : (imgr == 7 ? "pixel" : _sublevel_names[imgr - 1].Data())),
            _window_width,
            _window_height);
        c[ix][iy][imgr]->SetGrid(_grid_x, _grid_y);  // grid

        if (mgraphs[ix][iy][imgr]->GetListOfGraphs() != nullptr) {
          if (CFG.count(min_branch.Data()) > 0) {
            mgraphs[ix][iy][imgr]->SetMinimum(CFG.get<float>(min_branch.Data()));
          }
          if (CFG.count(max_branch.Data()) > 0) {
            mgraphs[ix][iy][imgr]->SetMaximum(CFG.get<float>(max_branch.Data()));
          }
          mgraphs[ix][iy][imgr]->Draw("A");
        }
        if (imgr == 0 && _legend)
          legend->Draw();  // only for the tracker
        if (_print && !_print_only_global)
          c[ix][iy][imgr]->Print(
              _output_directory + mgraphs[ix][iy][imgr]->GetName() + ExtensionFromPrintOption(_print_option),
              _print_option);

        // writing into root file
        if (_write)
          mgraphs[ix][iy][imgr]->Write();

        // drawing into global canvas
        c_global[imgr]->cd(INDEX_IN_GLOBAL_CANVAS(ix, iy));
        c_global[imgr]->GetPad(INDEX_IN_GLOBAL_CANVAS(ix, iy))->SetFillStyle(4000);         //  make the pad transparent
        c_global[imgr]->GetPad(INDEX_IN_GLOBAL_CANVAS(ix, iy))->SetGrid(_grid_x, _grid_y);  // grid
        if (mgraphs[ix][iy][imgr]->GetListOfGraphs() != nullptr) {
          if (CFG.count(min_branch.Data()) > 0) {
            mgraphs[ix][iy][imgr]->SetMinimum(CFG.get<float>(min_branch.Data()));
          }
          if (CFG.count(max_branch.Data()) > 0) {
            mgraphs[ix][iy][imgr]->SetMaximum(CFG.get<float>(max_branch.Data()));
          }
          mgraphs[ix][iy][imgr]->Draw("A");
        }
        // printing will be performed after customisation (e.g. legend or title) just after the loops on ix and iy
      }
    }  // end of loop on y
  }    // end of loop on x

  // CUSTOMISATION
  gStyle->SetOptTitle(0);  // otherwise, the title is repeated in every pad of the global canvases
                           // -> instead, we will write it in the upper part in a TPaveText or in a TLegend
  for (unsigned int ic = 0; ic <= NB_SUBLEVELS + 1; ic++) {
    c_global[ic]->Draw();

    // setting legend to tracker canvases
    if (!_legend)
      break;
    TCanvas *c_temp = (TCanvas *)c_global[ic]->Clone(c_global[ic]->GetTitle() + TString("_sub"));
    c_temp->Draw();
    c_global[ic] = new TCanvas(
        c_temp->GetName() + TString("_final"), c_temp->GetTitle(), c_temp->GetWindowWidth(), c_temp->GetWindowHeight());
    c_global[ic]->Draw();
    TPad *p_up = new TPad(TString("legend_") + c_temp->GetName(),
                          "",
                          0.,
                          0.9,
                          1.,
                          1.,  // relative position
                          -1,
                          0,
                          0),  // display options
        *p_down = new TPad(TString("main_") + c_temp->GetName(), "", 0., 0., 1., 0.9, -1, 0, 0);
    // in the lower part, draw the plots
    p_down->Draw();
    p_down->cd();
    c_temp->DrawClonePad();
    c_global[ic]->cd();
    // in the upper part, pimp the canvas :p
    p_up->Draw();
    p_up->cd();
    if (ic == 0)  // tracker
    {
      TLegend *global_legend = MakeLegend(.05, .1, .7, .8, NB_SUBLEVELS);  //, "brNDC");
      global_legend->Draw();
      TPaveText *pt_geom = new TPaveText(.75, .1, .95, .8, "NB");
      pt_geom->SetFillColor(0);
      pt_geom->SetTextSize(0.25);
      pt_geom->AddText(TString("x: ") + _reference_name);
      pt_geom->AddText(TString("y: ") + _alignment_name + TString(" - ") + _reference_name);
      pt_geom->Draw();
    } else if (ic == 7)  // pixel
    {
      TLegend *global_legend = MakeLegend(.05, .1, .7, .8, 2);  //, "brNDC");
      global_legend->Draw();
      TPaveText *pt_geom = new TPaveText(.75, .1, .95, .8, "NB");
      pt_geom->SetFillColor(0);
      pt_geom->SetTextSize(0.25);
      pt_geom->AddText(TString("x: ") + _reference_name);
      pt_geom->AddText(TString("y: ") + _alignment_name + TString(" - ") + _reference_name);
      pt_geom->Draw();
    } else  // sublevels
    {
      TPaveText *pt = new TPaveText(.05, .1, .7, .8, "NB");
      pt->SetFillColor(0);
      pt->AddText(_sublevel_names[ic - 1]);
      pt->Draw();
      TPaveText *pt_geom = new TPaveText(.6, .1, .95, .8, "NB");
      pt_geom->SetFillColor(0);
      pt_geom->SetTextSize(0.3);
      pt_geom->AddText(TString("x: ") + _reference_name);
      pt_geom->AddText(TString("y: ") + _alignment_name + TString(" - ") + _reference_name);
      pt_geom->Draw();
    }
    // printing
    if (_print)
      c_global[ic]->Print(_output_directory + c_global[ic]->GetName() + ExtensionFromPrintOption(_print_option),
                          _print_option);
    if (_write)
      c_global[ic]->Write();
  }

  // printing global canvases
  if (_write)
    output->Close();

  // Now produce the profile plots if the option is chosen
  // Use seperate loops since no seperate plots are produced for different module qualities
  if (_make_profile_plots) {
    // Fill Content of 2D-hists into 1D-hists for the profile plots
    // Loop over all y-bins for a certain x-bin, calculate mean and RMS as entries of the 1D-hists
    bool entries = false;
    for (unsigned int ix = 0; ix < x.size(); ix++) {
      for (unsigned int iy = 0; iy < y.size(); iy++) {
        TString min_branch = TString::Format("%s_min", y[iy].Data());
        TString max_branch = TString::Format("%s_max", y[iy].Data());
        for (unsigned int igraph = 0; igraph < NB_SUBLEVELS * NB_Z_SLICES; igraph++) {
          // Declare hists which will be plotted for the profile plots
          histos[ix][iy][igraph] =
              new TH1F("1Dhist" + x[ix] + y[iy] + _sublevel_names[igraph % NB_SUBLEVELS] +
                           TString(igraph % (NB_SUBLEVELS * NB_Z_SLICES) >= NB_SUBLEVELS ? "n" : "p") +
                           std::to_string(_canvas_index),
                       "",
                       histos2D[ix][iy][igraph]->GetXaxis()->GetNbins(),
                       _min[x[ix]],
                       _max[x[ix]]);
          histos[ix][iy][igraph]->SetMarkerColor(COLOR_CODE(igraph));
          histos[ix][iy][igraph]->SetLineColor(COLOR_CODE(igraph));
          histos[ix][iy][igraph]->StatOverflows(kTRUE);

          // Loop over x bins
          for (int binx = 0; binx <= histos2D[ix][iy][igraph]->GetXaxis()->GetNbins(); binx++) {
            entries = false;
            // Declare y-histogram for each x bin
            histosYValues[ix][iy][igraph] =
                new TH1F("1Dhist_Y-Values" + x[ix] + y[iy] + _sublevel_names[igraph % NB_SUBLEVELS] +
                             TString(igraph % (NB_SUBLEVELS * NB_Z_SLICES) >= NB_SUBLEVELS ? "n" : "p") +
                             std::to_string(_canvas_index) + std::to_string(binx),
                         "",
                         histos2D[ix][iy][igraph]->GetYaxis()->GetNbins(),
                         _min[y[iy]],
                         _max[y[iy]] + 1.);
            histosYValues[ix][iy][igraph]->StatOverflows(kTRUE);
            // Loop over y-bins for each x-bin of the 2D histogram and put it into the 1-d y histograms
            // Take overflow bin into account
            for (int biny = 0; biny <= histos2D[ix][iy][igraph]->GetYaxis()->GetNbins() + 1; biny++) {
              if (histos2D[ix][iy][igraph]->GetBinContent(binx, biny) > 1.) {
                histosYValues[ix][iy][igraph]->SetBinContent(biny, histos2D[ix][iy][igraph]->GetBinContent(binx, biny));
                entries = true;
              }
            }
            if (entries) {
              histos[ix][iy][igraph]->SetBinContent(binx, histosYValues[ix][iy][igraph]->GetMean());
              histos[ix][iy][igraph]->SetBinError(binx, histosYValues[ix][iy][igraph]->GetRMS());
            } else
              histos[ix][iy][igraph]->SetBinContent(binx, -999999.);
          }
        }

        // Customize and print the histograms

        // fixing ranges and draw profile plot histos

        c_hist[ix][iy][0] =
            new TCanvas(TString::Format("c_hist_%s_vs_%s_tracker_%d", x[ix].Data(), y[iy].Data(), _canvas_index),
                        TString::Format("Profile plot %s vs. %s at tracker level", x[ix].Data(), y[iy].Data()),
                        _window_width,
                        _window_height);
        c_hist[ix][iy][0]->SetGrid(_grid_x, _grid_y);  // grid
        // Draw the frame that will contain the histograms
        // One needs to specify the binning and title
        c_hist[ix][iy][0]->GetPad(0)->DrawFrame(
            _min[x[ix]],
            CFG.count(min_branch.Data()) > 0 ? CFG.get<float>(min_branch.Data()) : _min[y[iy]],
            _max[x[ix]],
            CFG.count(max_branch.Data()) > 0 ? CFG.get<float>(max_branch.Data()) : _max[y[iy]],
            TString(";") + LateXstyle(x[ix]) + " /" + _units[x[ix]] + TString(";") + LateXstyle(y[iy]) + " /" +
                _units[y[iy]]);
        if (_legend)
          legend->Draw("same");

        for (unsigned short int jgraph = 0; jgraph < NB_SUBLEVELS * NB_Z_SLICES; jgraph++) {
          unsigned short int igraph =
              NB_SUBLEVELS * NB_Z_SLICES - jgraph -
              1;  // reverse counting for humane readability (one of the sublevel takes much more place than the others)

          // clone to prevent any injure on the graph
          histosTracker[ix][iy][igraph] = (TH1F *)histos[ix][iy][igraph]->Clone();
          // color
          histosTracker[ix][iy][igraph]->SetMarkerColor(COLOR_CODE(igraph % NB_SUBLEVELS));
          histosTracker[ix][iy][igraph]->SetLineColor(COLOR_CODE(igraph % NB_SUBLEVELS));
          histosTracker[ix][iy][igraph]->SetMarkerStyle(6);
          histosTracker[ix][iy][igraph]->Draw("same pe0");
        }

        if (_print && !_print_only_global)
          c_hist[ix][iy][0]->Print(
              _output_directory +
                  TString::Format("Profile_plot_%s_vs_%s_tracker_%d", x[ix].Data(), y[iy].Data(), _canvas_index) +
                  ExtensionFromPrintOption(_print_option),
              _print_option);

        //Draw into profile hists global tracker canvas
        c_global_hist[0]->cd(INDEX_IN_GLOBAL_CANVAS(ix, iy));
        c_global_hist[0]->GetPad(INDEX_IN_GLOBAL_CANVAS(ix, iy))->SetFillStyle(4000);  //  make the pad transparent
        c_global_hist[0]->GetPad(INDEX_IN_GLOBAL_CANVAS(ix, iy))->SetGrid(_grid_x, _grid_y);  // grid
        c_global_hist[0]
            ->GetPad(INDEX_IN_GLOBAL_CANVAS(ix, iy))
            ->DrawFrame(_min[x[ix]],
                        CFG.count(min_branch.Data()) > 0 ? CFG.get<float>(min_branch.Data()) : _min[y[iy]],
                        _max[x[ix]],
                        CFG.count(max_branch.Data()) > 0 ? CFG.get<float>(max_branch.Data()) : _max[y[iy]],
                        TString(";") + LateXstyle(x[ix]) + " /" + _units[x[ix]] + TString(";") + LateXstyle(y[iy]) +
                            " /" + _units[y[iy]]);

        for (unsigned short int jgraph = 0; jgraph < NB_SUBLEVELS * NB_Z_SLICES; jgraph++) {
          unsigned short int igraph =
              NB_SUBLEVELS * NB_Z_SLICES - jgraph -
              1;  // reverse counting for humane readability (one of the sublevel takes much more place than the others)
          histosTracker[ix][iy][igraph]->Draw("same pe0");
        }

        // fixing ranges and draw profile plot histos

        c_hist[ix][iy][7] =
            new TCanvas(TString::Format("c_hist_%s_vs_%s_pixel_%d", x[ix].Data(), y[iy].Data(), _canvas_index),
                        TString::Format("Profile plot %s vs. %s at pixel level", x[ix].Data(), y[iy].Data()),
                        _window_width,
                        _window_height);
        c_hist[ix][iy][7]->SetGrid(_grid_x, _grid_y);  // grid
        // Draw the frame that will contain the histograms
        // One needs to specify the binning and title
        c_hist[ix][iy][7]->GetPad(0)->DrawFrame(
            _min[x[ix]],
            CFG.count(min_branch.Data()) > 0 ? CFG.get<float>(min_branch.Data()) : _min[y[iy]],
            _max[x[ix]],
            CFG.count(max_branch.Data()) > 0 ? CFG.get<float>(max_branch.Data()) : _max[y[iy]],
            TString(";") + LateXstyle(x[ix]) + " /" + _units[x[ix]] + TString(";") + LateXstyle(y[iy]) + " /" +
                _units[y[iy]]);
        if (_legend)
          legend->Draw("same");

        for (unsigned short int jgraph = 0; jgraph < NB_SUBLEVELS * NB_Z_SLICES; jgraph++) {
          unsigned short int igraph =
              NB_SUBLEVELS * NB_Z_SLICES - jgraph -
              1;  // reverse counting for humane readability (one of the sublevel takes much more place than the others)

          if (igraph % NB_SUBLEVELS == 0 || igraph % NB_SUBLEVELS == 1)  //Only BPIX and FPIX
          {
            // clone to prevent any injure on the graph
            histosTracker[ix][iy][igraph] = (TH1F *)histos[ix][iy][igraph]->Clone();
            // color
            histosTracker[ix][iy][igraph]->SetMarkerColor(COLOR_CODE(igraph % NB_SUBLEVELS));
            histosTracker[ix][iy][igraph]->SetLineColor(COLOR_CODE(igraph % NB_SUBLEVELS));
            histosTracker[ix][iy][igraph]->SetMarkerStyle(6);
            histosTracker[ix][iy][igraph]->Draw("same pe0");
          }
        }

        if (_print && !_print_only_global)
          c_hist[ix][iy][7]->Print(
              _output_directory +
                  TString::Format("Profile_plot_%s_vs_%s_pixel_%d", x[ix].Data(), y[iy].Data(), _canvas_index) +
                  ExtensionFromPrintOption(_print_option),
              _print_option);

        //Draw into profile hists global tracker canvas
        c_global_hist[7]->cd(INDEX_IN_GLOBAL_CANVAS(ix, iy));
        c_global_hist[7]->GetPad(INDEX_IN_GLOBAL_CANVAS(ix, iy))->SetFillStyle(4000);  //  make the pad transparent
        c_global_hist[7]->GetPad(INDEX_IN_GLOBAL_CANVAS(ix, iy))->SetGrid(_grid_x, _grid_y);  // grid
        c_global_hist[7]
            ->GetPad(INDEX_IN_GLOBAL_CANVAS(ix, iy))
            ->DrawFrame(_min[x[ix]],
                        CFG.count(min_branch.Data()) > 0 ? CFG.get<float>(min_branch.Data()) : _min[y[iy]],
                        _max[x[ix]],
                        CFG.count(max_branch.Data()) > 0 ? CFG.get<float>(max_branch.Data()) : _max[y[iy]],
                        TString(";") + LateXstyle(x[ix]) + " /" + _units[x[ix]] + TString(";") + LateXstyle(y[iy]) +
                            " /" + _units[y[iy]]);

        for (unsigned short int jgraph = 0; jgraph < NB_SUBLEVELS * NB_Z_SLICES; jgraph++) {
          unsigned short int igraph =
              NB_SUBLEVELS * NB_Z_SLICES - jgraph -
              1;  // reverse counting for humane readability (one of the sublevel takes much more place than the others)
          histosTracker[ix][iy][igraph]->Draw("same pe0");
        }
        // printing will be performed after customisation (e.g. legend or title) just after the loops on ix and iy
        for (unsigned int isublevel = 1; isublevel <= NB_SUBLEVELS; isublevel++) {
          // Draw and print profile histograms
          c_hist[ix][iy][isublevel] =
              new TCanvas(TString::Format("c_hist_%s_vs_%s_%s_%d",
                                          x[ix].Data(),
                                          y[iy].Data(),
                                          isublevel == 0 ? "tracker" : _sublevel_names[isublevel - 1].Data(),
                                          _canvas_index),
                          TString::Format("Profile plot %s vs. %s at %s level",
                                          x[ix].Data(),
                                          y[iy].Data(),
                                          isublevel == 0 ? "tracker" : _sublevel_names[isublevel - 1].Data()),
                          _window_width,
                          _window_height);
          c_hist[ix][iy][isublevel]->SetGrid(_grid_x, _grid_y);  // grid
          c_hist[ix][iy][isublevel]->GetPad(0)->DrawFrame(
              _min[x[ix]],
              CFG.count(min_branch.Data()) > 0 ? CFG.get<float>(min_branch.Data()) : _min[y[iy]],
              _max[x[ix]],
              CFG.count(max_branch.Data()) > 0 ? CFG.get<float>(max_branch.Data()) : _max[y[iy]],
              TString(";") + LateXstyle(x[ix]) + " /" + _units[x[ix]] + TString(";") + LateXstyle(y[iy]) + " /" +
                  _units[y[iy]]);

          histos[ix][iy][isublevel - 1]->SetMarkerColor(kBlack);
          histos[ix][iy][isublevel - 1]->SetLineColor(kBlack);
          histos[ix][iy][NB_SUBLEVELS + isublevel - 1]->SetMarkerColor(kRed);
          histos[ix][iy][NB_SUBLEVELS + isublevel - 1]->SetLineColor(kRed);

          histos[ix][iy][isublevel - 1]->Draw("same pe0");
          histos[ix][iy][NB_SUBLEVELS + isublevel - 1]->Draw("same pe0");

          if (_print && !_print_only_global)
            c_hist[ix][iy][isublevel]->Print(_output_directory +
                                                 TString::Format("Profile_plot_%s_vs_%s_%s_%d",
                                                                 x[ix].Data(),
                                                                 y[iy].Data(),
                                                                 _sublevel_names[isublevel - 1].Data(),
                                                                 _canvas_index) +
                                                 ExtensionFromPrintOption(_print_option),
                                             _print_option);

          // draw into global canvas
          // printing will be performed after customisation (e.g. legend or title) just after the loops on ix and iy
          c_global_hist[isublevel]->cd(INDEX_IN_GLOBAL_CANVAS(ix, iy));
          c_global_hist[isublevel]
              ->GetPad(INDEX_IN_GLOBAL_CANVAS(ix, iy))
              ->SetFillStyle(4000);  //  make the pad transparent
          c_global_hist[isublevel]->GetPad(INDEX_IN_GLOBAL_CANVAS(ix, iy))->SetGrid(_grid_x, _grid_y);  // grid
          c_global_hist[isublevel]
              ->GetPad(INDEX_IN_GLOBAL_CANVAS(ix, iy))
              ->DrawFrame(_min[x[ix]],
                          CFG.count(min_branch.Data()) > 0 ? CFG.get<float>(min_branch.Data()) : _min[y[iy]],
                          _max[x[ix]],
                          CFG.count(max_branch.Data()) > 0 ? CFG.get<float>(max_branch.Data()) : _max[y[iy]],
                          TString(";") + LateXstyle(x[ix]) + " /" + _units[x[ix]] + TString(";") + LateXstyle(y[iy]) +
                              " /" + _units[y[iy]]);

          histos[ix][iy][isublevel - 1]->Draw("same pe0");
          histos[ix][iy][NB_SUBLEVELS + isublevel - 1]->Draw("same pe0");
        }

      }  // end of loop on y
    }    // end of loop on x

    // CUSTOMISATION
    gStyle->SetOptTitle(0);  // otherwise, the title is repeated in every pad of the global canvases
                             // -> instead, we will write it in the upper part in a TPaveText or in a TLegend
    for (unsigned int ic = 0; ic <= NB_SUBLEVELS; ic++) {
      // setting legend to tracker canvases
      if (!_legend)
        break;

      // setting legend to tracker canvases
      if (!_legend)
        break;
      TCanvas *c_temp_hist = (TCanvas *)c_global_hist[ic]->Clone(c_global_hist[ic]->GetTitle() + TString("_sub"));
      c_temp_hist->Draw();
      c_global_hist[ic] = new TCanvas(c_temp_hist->GetName() + TString("_final"),
                                      c_temp_hist->GetTitle(),
                                      c_temp_hist->GetWindowWidth(),
                                      c_temp_hist->GetWindowHeight());
      c_global_hist[ic]->Draw();
      TPad *p_up = new TPad(TString("legend_") + c_temp_hist->GetName(),
                            "",
                            0.,
                            0.9,
                            1.,
                            1.,  // relative position
                            -1,
                            0,
                            0),  // display options
          *p_down = new TPad(TString("main_") + c_temp_hist->GetName(), "", 0., 0., 1., 0.9, -1, 0, 0);
      // in the lower part, draw the plots
      p_down->Draw();
      p_down->cd();
      c_temp_hist->DrawClonePad();
      c_global_hist[ic]->cd();
      // in the upper part, pimp the canvas :p
      p_up->Draw();
      p_up->cd();
      if (ic == 0)  // tracker
      {
        TLegend *global_legend = MakeLegend(.05, .1, .7, .8, NB_SUBLEVELS);  //, "brNDC");
        global_legend->Draw();
        TPaveText *pt_geom = new TPaveText(.75, .1, .95, .8, "NB");
        pt_geom->SetFillColor(0);
        pt_geom->SetTextSize(0.25);
        pt_geom->AddText(TString("x: ") + _reference_name);
        pt_geom->AddText(TString("y: ") + _alignment_name + TString(" - ") + _reference_name);
        pt_geom->Draw();
      } else if (ic == 7)  // pixel
      {
        TLegend *global_legend = MakeLegend(.05, .1, .7, .8, 2);  //, "brNDC");
        global_legend->Draw();
        TPaveText *pt_geom = new TPaveText(.75, .1, .95, .8, "NB");
        pt_geom->SetFillColor(0);
        pt_geom->SetTextSize(0.25);
        pt_geom->AddText(TString("x: ") + _reference_name);
        pt_geom->AddText(TString("y: ") + _alignment_name + TString(" - ") + _reference_name);
        pt_geom->Draw();
      } else  // sublevels
      {
        TPaveText *pt = new TPaveText(.05, .1, .7, .8, "NB");
        pt->SetFillColor(0);
        pt->AddText(_sublevel_names[ic - 1]);
        pt->Draw();
        TPaveText *pt_geom = new TPaveText(.6, .1, .95, .8, "NB");
        pt_geom->SetFillColor(0);
        pt_geom->SetTextSize(0.3);
        pt_geom->AddText(TString("x: ") + _reference_name);
        pt_geom->AddText(TString("y: ") + _alignment_name + TString(" - ") + _reference_name);
        pt_geom->Draw();
      }
      // printing
      if (_print)
        c_global_hist[ic]->Print(
            _output_directory + c_global_hist[ic]->GetName() + ExtensionFromPrintOption(_print_option), _print_option);
    }
  }

#ifdef TALKATIVE
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: End of MakePlots method" << std::endl;
#endif
}

MakeTables()

void GeometryComparisonPlotter::MakeTables	(	const std::vector< TString >	x,
		const std::vector< TString >	y,
		pt::ptree	CFG
	)

-1) check that only existing branches are called

0) min and max values

1) declare histograms

2) loop on the TTree data

Definition at line 1153 of file GeometryComparisonPlotter.cc.

References _1dModule, _2dModule, _alignment_name, _levelCut, _max, _min, _module_plot_option, _reference_name, _SF, _sublevel_names, branch_f, branch_i, CHECK_BRANCHES, CHECK_MAP_CONTENT, gather_cfg::cout, data, combine::histos, INSIDE_VECTOR, LIMITS, NB_SUBLEVELS, NB_X_SLICES, NB_Z_SLICES, RMS, WriteTable(), x, and y.

{
  // (we use a macro to avoid copy/paste)
#define CHECK_BRANCHES(branchname_vector)                                                       \
  for (unsigned int i = 0; i < branchname_vector.size(); i++) {                                 \
    if (branch_f.find(branchname_vector[i]) == branch_f.end()) {                                \
      std::cout << __FILE__ << ":" << __LINE__ << ":Error: The branch " << branchname_vector[i] \
                << " is not recognised." << std::endl;                                          \
      return;                                                                                   \
    }                                                                                           \
  }
  CHECK_BRANCHES(x);
  CHECK_BRANCHES(y);

  const unsigned int nentries = data->GetEntries();

#ifdef TALKATIVE
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: ";
  INSIDE_VECTOR(x);
  std::cout << std::endl;
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: ";
  INSIDE_VECTOR(y);
  std::cout << std::endl;
#endif

  // the max and min of the graphs are computed from the tree if they have not been manually input yet
  // (we use a macro to avoid copy/paste)
#define LIMITS(axes_vector)                                                          \
  for (unsigned int i = 0; i < axes_vector.size(); i++) {                            \
    if (_SF.find(axes_vector[i]) == _SF.end())                                       \
      _SF[axes_vector[i]] = 1.;                                                      \
    if (_min.find(axes_vector[i]) == _min.end())                                     \
      _min[axes_vector[i]] = _SF[axes_vector[i]] * data->GetMinimum(axes_vector[i]); \
    if (_max.find(axes_vector[i]) == _max.end())                                     \
      _max[axes_vector[i]] = _SF[axes_vector[i]] * data->GetMaximum(axes_vector[i]); \
  }
  LIMITS(x);
  LIMITS(y);

#ifdef TALKATIVE
  CHECK_MAP_CONTENT(_min, float);
  CHECK_MAP_CONTENT(_max, float);
  CHECK_MAP_CONTENT(_SF, float);
#endif

  // the idea is to produce tables of the differences and the absolute positions containing mean and RMS values
  // for the different subdetectors - 0..5=different sublevels.
  // Values for each endcap detector are to be split in +/-z, for the barrel detectors in +/- x (half barrels)
  // Since it is easier to handle in the loops, all subdetectors will be split in
  // 4 parts at first: (+/-x)X(+/-z)
  // This means that 2*2*6 histograms will be filled during the loop on the TTree
  // Pairs of histograms need to be combined afterwards again
  // Histograms 0-5 are at +x and +z, 6-11 at +x and -z, 12-17 at -x and +z, and 18-23 at -x and -z
  //
  // Two version of the table containing the differences are produced. Once using Gaussian fits (more stable
  // vs single outliers but perform poorly if the distributions are non-Gaussian) and once using
  // the mean and RMS of the histograms (more stable but outliers have a strong impact on the RMS).
  // For the absolute positions, only mean+RMS are used since the detector layout is not Gaussian
  // (structures due to layers/rings etc)
#ifndef NB_SUBLEVELS
#define NB_SUBLEVELS 6
#endif
#define NB_Z_SLICES 2
#define NB_X_SLICES 2

  TH1F *histosx[x.size()][NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES];
  float meanValuex[x.size()][NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES];
  float RMSx[x.size()][NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES];

  TH1F *histos[y.size()][NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES];
  TF1 *gausFit[y.size()][NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES];
  float meanValue[y.size()][NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES];
  float meanValueGaussian[y.size()][NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES];
  float RMS[y.size()][NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES];
  float RMSGaussian[y.size()][NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES];

  for (unsigned int iy = 0; iy < y.size(); iy++) {
    for (unsigned int ihist = 0; ihist < NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES; ihist++) {
      // Create and correctly name a histogram for each subdetector*Z_Slice*X_Slice
      histos[iy][ihist] = new TH1F("hist" + y[iy] + _sublevel_names[ihist % NB_SUBLEVELS] +
                                       TString(ihist % (NB_SUBLEVELS * NB_Z_SLICES) >= NB_SUBLEVELS ? "zn" : "zp") +
                                       TString(ihist >= NB_SUBLEVELS * NB_Z_SLICES ? "xn" : "xp"),
                                   "",
                                   1000,
                                   _min[y[iy]],
                                   _max[y[iy]] + 1.);
      histos[iy][ihist]->StatOverflows(kTRUE);
    }
  }

  for (unsigned int ix = 0; ix < x.size(); ix++) {
    for (unsigned int ihist = 0; ihist < NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES; ihist++) {
      // Create and correctly name a histogram for each subdetector*Z_Slice*ModuleType
      histosx[ix][ihist] = new TH1F("histx" + x[ix] + _sublevel_names[ihist % NB_SUBLEVELS] +
                                        TString(ihist % (NB_SUBLEVELS * NB_Z_SLICES) >= NB_SUBLEVELS ? "zn" : "zp") +
                                        TString(ihist >= NB_SUBLEVELS * NB_Z_SLICES ? "xn" : "xp"),
                                    "",
                                    1000,
                                    _min[x[ix]],
                                    _max[x[ix]] + 1.);
      histosx[ix][ihist]->StatOverflows(kTRUE);
    }
  }

#ifdef DEBUG
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: Creation of the TH1F[" << y.size() << "]["
            << NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES << "] ended." << std::endl;
#endif

#ifdef DEBUG
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: Looping on the TTree" << std::endl;
#endif
#ifdef TALKATIVE
  unsigned int progress = 0;
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: 0%" << std::endl;
#endif
  for (unsigned int ientry = 0; ientry < nentries; ientry++) {
#ifdef TALKATIVE
    if (10 * ientry / nentries != progress) {
      progress = 10 * ientry / nentries;
      std::cout << __FILE__ << ":" << __LINE__ << ":Info: " << 10 * progress << "%" << std::endl;
    }
#endif
    // load current tree entry
    data->GetEntry(ientry);

    // CUTS on entry
    if (branch_i["level"] != _levelCut)
      continue;
    if (!_1dModule && branch_i["detDim"] == 1)
      continue;
    if (!_2dModule && branch_i["detDim"] == 2)
      continue;

    for (unsigned int iy = 0; iy < y.size(); iy++) {
      if (branch_i["sublevel"] < 1 || branch_i["sublevel"] > NB_SUBLEVELS)
        continue;
      if (_SF[y[iy]] * branch_f[y[iy]] > _max[y[iy]] || _SF[y[iy]] * branch_f[y[iy]] < _min[y[iy]]) {
        //#ifdef DEBUG
        //                    std::cout << "branch_f[y[iy]]=" << branch_f[y[iy]] << std::endl;
        //#endif
        continue;
      }

      // FILLING HISTOGRAMS

      // histogram for all modules
      const short int ihisto = (branch_i["sublevel"] - 1) + (branch_f["z"] >= 0 ? 0 : NB_SUBLEVELS) +
                               (branch_f["x"] >= 0 ? 0 : NB_SUBLEVELS * NB_Z_SLICES);

      if (_module_plot_option == "all")
        histos[iy][ihisto]->Fill(_SF[y[iy]] * branch_f[y[iy]]);

      // Only good modules
      else if (_module_plot_option == "good" && branch_i["badModuleQuality"] == 0)
        histos[iy][ihisto]->Fill(_SF[y[iy]] * branch_f[y[iy]]);

      // Only good modules and those in the list
      else if (_module_plot_option == "list" && (branch_i["inModuleList"] == 1 || branch_i["badModuleQuality"] == 0))
        histos[iy][ihisto]->Fill(_SF[y[iy]] * branch_f[y[iy]]);
    }

    for (unsigned int ix = 0; ix < x.size(); ix++) {
      if (branch_i["sublevel"] < 1 || branch_i["sublevel"] > NB_SUBLEVELS)
        continue;
      if (_SF[x[ix]] * branch_f[x[ix]] > _max[x[ix]] || _SF[x[ix]] * branch_f[x[ix]] < _min[x[ix]]) {
        //#ifdef DEBUG
        //                    std::cout << "branch_f[y[iy]]=" << branch_f[y[iy]] << std::endl;
        //#endif
        continue;
      }

      // FILLING HISTOGRAMS

      // histogram for all modules
      const short int ihistosx = (branch_i["sublevel"] - 1) + (branch_f["z"] >= 0 ? 0 : NB_SUBLEVELS) +
                                 (branch_f["x"] >= 0 ? 0 : NB_SUBLEVELS * NB_Z_SLICES);

      if (_module_plot_option == "all")
        histosx[ix][ihistosx]->Fill(_SF[x[ix]] * branch_f[x[ix]]);

      // Only good modules
      else if (_module_plot_option == "good" && branch_i["badModuleQuality"] == 0)
        histosx[ix][ihistosx]->Fill(_SF[x[ix]] * branch_f[x[ix]]);

      // Only good modules and those in the list
      else if (_module_plot_option == "list" && (branch_i["inModuleList"] == 1 || branch_i["badModuleQuality"] == 0))
        histosx[ix][ihistosx]->Fill(_SF[x[ix]] * branch_f[x[ix]]);
    }
  }
#ifdef TALKATIVE
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: 100%\tLoop ended" << std::endl;
#endif

  //~ TString rangeLabel = "";
  // Calculate mean and standard deviation for each histogram
  for (unsigned int iy = 0; iy < y.size(); iy++) {
    for (unsigned int ihist = 0; ihist < NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES; ihist++) {
      // combine +/-z histograms for barrel detectors
      if (ihist % (NB_SUBLEVELS * NB_Z_SLICES) == 0 || ihist % (NB_SUBLEVELS * NB_Z_SLICES) == 2 ||
          ihist % (NB_SUBLEVELS * NB_Z_SLICES) == 4) {
        histos[iy][ihist]->Add(histos[iy][ihist + NB_SUBLEVELS]);
      }
      // combine +/-x histograms for endcap detectors (only used for half shells in barrel)
      if (ihist < NB_SUBLEVELS * NB_Z_SLICES &&
          (ihist % NB_SUBLEVELS == 1 || ihist % NB_SUBLEVELS == 3 || ihist % NB_SUBLEVELS == 5)) {
        histos[iy][ihist]->Add(histos[iy][ihist + NB_SUBLEVELS * NB_Z_SLICES]);
      }
      meanValue[iy][ihist] = histos[iy][ihist]->GetMean();
      RMS[iy][ihist] = histos[iy][ihist]->GetRMS();

      histos[iy][ihist]->Fit("gaus");
      gausFit[iy][ihist] = histos[iy][ihist]->GetFunction("gaus");
      meanValueGaussian[iy][ihist] = gausFit[iy][ihist]->GetParameter(1);
      RMSGaussian[iy][ihist] = gausFit[iy][ihist]->GetParameter(2);
    }
  }

  for (unsigned int ix = 0; ix < x.size(); ix++) {
    for (unsigned int ihist = 0; ihist < NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES; ihist++) {
      // combine +/-z histograms for barrel detectors
      if (ihist % (NB_SUBLEVELS * NB_Z_SLICES) == 0 || ihist % (NB_SUBLEVELS * NB_Z_SLICES) == 2 ||
          ihist % (NB_SUBLEVELS * NB_Z_SLICES) == 4) {
        histosx[ix][ihist]->Add(histosx[ix][ihist + NB_SUBLEVELS]);
      }
      // combine +/-x histograms for endcap detectors (only used for half shells in barrel)
      if (ihist < NB_SUBLEVELS * NB_Z_SLICES &&
          (ihist % NB_SUBLEVELS == 1 || ihist % NB_SUBLEVELS == 3 || ihist % NB_SUBLEVELS == 5)) {
        histosx[ix][ihist]->Add(histosx[ix][ihist + NB_SUBLEVELS * NB_Z_SLICES]);
      }
      meanValuex[ix][ihist] = histosx[ix][ihist]->GetMean();
      RMSx[ix][ihist] = histosx[ix][ihist]->GetRMS();
    }
  }

  TString tableFileName, tableCaption, tableAlign, tableHeadline;
  TString PXBpLine, PXBmLine, PXFpLine, PXFmLine, TIBpLine, TIBmLine, TOBpLine, TOBmLine, TIDpLine, TIDmLine, TECpLine,
      TECmLine;

  // table using mean and RMS, round to integers in µm etc.
  tableFileName = "table_differences.tex";
  if (_module_plot_option == "all")
    tableCaption = "Means and standard deviations of " + _alignment_name + " - " + _reference_name +
                   " for each subdetector, all modules used.";
  else if (_module_plot_option == "good")
    tableCaption = "Means and standard deviations of " + _alignment_name + " - " + _reference_name +
                   " for each subdetector, only good modules used.";
  else if (_module_plot_option == "list")
    tableCaption = "Means and standard deviations of " + _alignment_name + " - " + _reference_name +
                   " for each subdetector, good modules and those in given list used.";

  WriteTable(y, NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES, meanValue, RMS, "0", tableCaption, tableFileName);

  //~ // table using  Gaussian fit, round to integers in µm etc.
  tableFileName = "table_differences_Gaussian.tex";
  if (_module_plot_option == "all")
    tableCaption = "Means and standard deviations for Gaussian fit of " + _alignment_name + " - " + _reference_name +
                   " for each subdetector, all modules used.";
  else if (_module_plot_option == "good")
    tableCaption = "Means and standard deviations for Gaussian fit of " + _alignment_name + " - " + _reference_name +
                   " for each subdetector, only good modules used.";
  else if (_module_plot_option == "list")
    tableCaption = "Means and standard deviations for Gaussian fit of " + _alignment_name + " - " + _reference_name +
                   " for each subdetector, good modules and those in given list used.";

  WriteTable(
      y, NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES, meanValueGaussian, RMSGaussian, "0", tableCaption, tableFileName);

  // Table for the mean positions on the x-axis, round to 3 digits in cm etc.
  tableFileName = "table_meanPos.tex";

  if (_module_plot_option == "all")
    tableCaption = "Mean positions and standard deviations in " + _reference_name +
                   " geometry for each subdetector, all modules used.";
  else if (_module_plot_option == "good")
    tableCaption = "Mean positions and standard deviations in " + _reference_name +
                   " geometry for each subdetector, only good modules used.";
  else if (_module_plot_option == "list")
    tableCaption = "Mean positions and standard deviations in " + _reference_name +
                   " geometry for each subdetector, good modules and those in given list used.";

  WriteTable(x, NB_SUBLEVELS * NB_Z_SLICES * NB_X_SLICES, meanValuex, RMSx, "3", tableCaption, tableFileName);

#ifdef TALKATIVE
  std::cout << __FILE__ << ":" << __LINE__ << ":Info: End of MakeLegends method" << std::endl;
#endif
}

Set1dModule()

void GeometryComparisonPlotter::Set1dModule

(

const bool

k1dModule

)

Definition at line 1452 of file GeometryComparisonPlotter.cc.

References _1dModule.

{ _1dModule = k1dModule; }

Set2dModule()

void GeometryComparisonPlotter::Set2dModule

(

const bool

k2dModule

)

Definition at line 1453 of file GeometryComparisonPlotter.cc.

References _2dModule.

{ _2dModule = k2dModule; }

SetBatchMode()

void GeometryComparisonPlotter::SetBatchMode

(

const bool

kBatchMode

)

Definition at line 1455 of file GeometryComparisonPlotter.cc.

References _batchMode.

{ _batchMode = kBatchMode; }

SetBranchMax()

void GeometryComparisonPlotter::SetBranchMax	(	const TString	branchname,
		const float	max
	)

Definition at line 1460 of file GeometryComparisonPlotter.cc.

References _max, and SiStripPI::max.

{ _max[branchname] = max; }

SetBranchMin()

void GeometryComparisonPlotter::SetBranchMin	(	const TString	branchname,
		const float	min
	)

Definition at line 1461 of file GeometryComparisonPlotter.cc.

References _min, and SiStripPI::min.

{ _min[branchname] = min; }

SetBranchSF()

void GeometryComparisonPlotter::SetBranchSF	(	const TString	branchname,
		const float	SF
	)

Definition at line 1462 of file GeometryComparisonPlotter.cc.

References _SF.

{ _SF[branchname] = SF; }

SetBranchUnits()

void GeometryComparisonPlotter::SetBranchUnits	(	const TString	branchname,
		const TString	units
	)

Definition at line 1463 of file GeometryComparisonPlotter.cc.

References _units, and units().

                                                                                            {
  _units[branchname] = units;
}

SetCanvasSize()

void GeometryComparisonPlotter::SetCanvasSize	(	const int	window_width = 3508,
		const int	window_height = 2480
	)

Definition at line 1467 of file GeometryComparisonPlotter.cc.

References _window_height, and _window_width.

                                                                                             {
  _window_width = window_width;
  _window_height = window_height;
}

SetGrid()

void GeometryComparisonPlotter::SetGrid	(	const int	kGridX,
		const int	kGridY
	)

Definition at line 1456 of file GeometryComparisonPlotter.cc.

References _grid_x, and _grid_y.

                                                                          {
  _grid_x = kGridX;
  _grid_y = kGridY;
}

SetLegend()

void GeometryComparisonPlotter::SetLegend

(

const bool

kLegend

)

Definition at line 1450 of file GeometryComparisonPlotter.cc.

References _legend.

{ _legend = kLegend; }

SetLevelCut()

void GeometryComparisonPlotter::SetLevelCut

(

const int

kLevelCut

)

Definition at line 1454 of file GeometryComparisonPlotter.cc.

References _levelCut.

{ _levelCut = kLevelCut; }

SetOutputDirectoryName()

void GeometryComparisonPlotter::SetOutputDirectoryName

(

const TString

name

)

Definition at line 1472 of file GeometryComparisonPlotter.cc.

References _output_directory, and Skims_PA_cff::name.

                                                                         {
  _output_directory = name + TString(name.EndsWith("/") ? "" : "/");
}

SetOutputFileName()

void GeometryComparisonPlotter::SetOutputFileName

(

const TString

name

)

Definition at line 1471 of file GeometryComparisonPlotter.cc.

References _output_filename, and Skims_PA_cff::name.

{ _output_filename = name; }

SetPrint()

void GeometryComparisonPlotter::SetPrint

(

const bool

kPrint

)

Definition at line 1449 of file GeometryComparisonPlotter.cc.

References _print.

{ _print = kPrint; }

SetPrintOption()

void GeometryComparisonPlotter::SetPrintOption

(

const Option_t *

print_option

)

Definition at line 1466 of file GeometryComparisonPlotter.cc.

References _print_option.

{ _print_option = print_option; }

SetWrite()

void GeometryComparisonPlotter::SetWrite

(

const bool

kWrite

)

Definition at line 1451 of file GeometryComparisonPlotter.cc.

References _write.

{ _write = kWrite; }

WriteTable()

void GeometryComparisonPlotter::WriteTable	(	const std::vector< TString >	x,
		unsigned int	nLevelsTimesSlices,
		float	meanValue[10][24],
		float	RMS[10][24],
		const TString	nDigits,
		const TString	tableCaption,
		const TString	tableFileName
	)

Definition at line 1569 of file GeometryComparisonPlotter.cc.

References _output_directory, _units, LateXstyleTable(), output, RMS, and x.

Referenced by MakeTables().

                                                                        {
  std::ofstream output(_output_directory + tableFileName);

  TString tableAlign, tableHeadline;
  TString PXBpLine, PXBmLine, PXFpLine, PXFmLine, TIBpLine, TIBmLine, TOBpLine, TOBmLine, TIDpLine, TIDmLine, TECpLine,
      TECmLine;
  char meanChar[x.size()][nLevelsTimesSlices][10];
  char RMSChar[x.size()][nLevelsTimesSlices][10];

  tableAlign = "l";
  tableHeadline = "";
  PXBpLine = "PXB x$+$";
  PXBmLine = "PXB x$-$";
  PXFpLine = "PXF z$+$";
  PXFmLine = "PXF z$-$";
  TIBpLine = "TIB x$+$";
  TIBmLine = "TIB x$-$";
  TIDpLine = "TID z$+$";
  TIDmLine = "TID z$-$";
  TOBpLine = "TOB x$+$";
  TOBmLine = "TOB x$-$";
  TECpLine = "TEC z$+$";
  TECmLine = "TEC z$-$";

  for (unsigned int ix = 0; ix < x.size(); ix++) {
    for (unsigned int isubDet = 0; isubDet < nLevelsTimesSlices; isubDet++) {
      sprintf(meanChar[ix][isubDet], "%." + nDigits + "f", meanValue[ix][isubDet]);
      sprintf(RMSChar[ix][isubDet], "%." + nDigits + "f", RMS[ix][isubDet]);
    }
    tableAlign += "|c";
    tableHeadline += " & " + LateXstyleTable(x[ix]) + " / " + _units[x[ix]].ReplaceAll("#mum", "$\\mu$m");

    PXBpLine += " & $";
    PXBpLine += meanChar[ix][0];
    PXBpLine += "\\pm";
    PXBpLine += RMSChar[ix][0];
    PXBpLine += " $";
    PXBmLine += " & $";
    PXBmLine += meanChar[ix][12];
    PXBmLine += "\\pm";
    PXBmLine += RMSChar[ix][12];
    PXBmLine += " $";
    PXFpLine += " & $";
    PXFpLine += meanChar[ix][1];
    PXFpLine += "\\pm";
    PXFpLine += RMSChar[ix][1];
    PXFpLine += " $";
    PXFmLine += " & $";
    PXFmLine += meanChar[ix][7];
    PXFmLine += "\\pm";
    PXFmLine += RMSChar[ix][7];
    PXFmLine += " $";
    TIBpLine += " & $";
    TIBpLine += meanChar[ix][2];
    TIBpLine += "\\pm";
    TIBpLine += RMSChar[ix][2];
    TIBpLine += " $";
    TIBmLine += " & $";
    TIBmLine += meanChar[ix][14];
    TIBmLine += "\\pm";
    TIBmLine += RMSChar[ix][14];
    TIBmLine += " $";
    TIDpLine += " & $";
    TIDpLine += meanChar[ix][3];
    TIDpLine += "\\pm";
    TIDpLine += RMSChar[ix][3];
    TIDpLine += " $";
    TIDmLine += " & $";
    TIDmLine += meanChar[ix][9];
    TIDmLine += "\\pm";
    TIDmLine += RMSChar[ix][9];
    TIDmLine += " $";
    TOBpLine += " & $";
    TOBpLine += meanChar[ix][4];
    TOBpLine += "\\pm";
    TOBpLine += RMSChar[ix][4];
    TOBpLine += " $";
    TOBmLine += " & $";
    TOBmLine += meanChar[ix][16];
    TOBmLine += "\\pm";
    TOBmLine += RMSChar[ix][16];
    TOBmLine += " $";
    TECpLine += " & $";
    TECpLine += meanChar[ix][5];
    TECpLine += "\\pm";
    TECpLine += RMSChar[ix][5];
    TECpLine += " $";
    TECmLine += " & $";
    TECmLine += meanChar[ix][11];
    TECmLine += "\\pm";
    TECmLine += RMSChar[ix][11];
    TECmLine += " $";
  }

  // Write the table to the tex file
  output << "\\begin{table}" << std::endl;
  output << "\\caption{" << tableCaption << "}" << std::endl;
  output << "\\begin{tabular}{" << tableAlign << "}" << std::endl;
  output << "\\hline" << std::endl;
  output << tableHeadline << " \\\\" << std::endl;
  output << "\\hline" << std::endl;
  output << PXBpLine << " \\\\" << std::endl;
  output << PXBmLine << " \\\\" << std::endl;
  output << PXFpLine << " \\\\" << std::endl;
  output << PXFmLine << " \\\\" << std::endl;
  output << TIBpLine << " \\\\" << std::endl;
  output << TIBmLine << " \\\\" << std::endl;
  output << TIDpLine << " \\\\" << std::endl;
  output << TIDmLine << " \\\\" << std::endl;
  output << TOBpLine << " \\\\" << std::endl;
  output << TOBmLine << " \\\\" << std::endl;
  output << TECpLine << " \\\\" << std::endl;
  output << TECmLine << " \\\\" << std::endl;
  output << "\\hline" << std::endl;
  output << "\\end{tabular}" << std::endl;
  output << "\\end{table}" << std::endl;
}

Member Data Documentation

_1dModule

bool GeometryComparisonPlotter::_1dModule

private

Definition at line 38 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), MakeTables(), and Set1dModule().

_2dModule

bool GeometryComparisonPlotter::_2dModule

private

Definition at line 38 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), MakeTables(), and Set2dModule().

_alignment_name

TString GeometryComparisonPlotter::_alignment_name

private

Definition at line 36 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), and MakeTables().

_batchMode

bool GeometryComparisonPlotter::_batchMode

private

Definition at line 38 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), and SetBatchMode().

_canvas_index

int GeometryComparisonPlotter::_canvas_index

private

Definition at line 39 of file GeometryComparisonPlotter.h.

Referenced by MakePlots().

_grid_x

int GeometryComparisonPlotter::_grid_x

private

Definition at line 39 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), and SetGrid().

_grid_y

int GeometryComparisonPlotter::_grid_y

private

Definition at line 39 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), and SetGrid().

_legend

bool GeometryComparisonPlotter::_legend

private

Definition at line 38 of file GeometryComparisonPlotter.h.

Referenced by plotting.PlotGroup::_createLegend(), MakePlots(), and SetLegend().

_levelCut

int GeometryComparisonPlotter::_levelCut

private

Definition at line 39 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), MakeTables(), and SetLevelCut().

_make_profile_plots

bool GeometryComparisonPlotter::_make_profile_plots

private

Definition at line 38 of file GeometryComparisonPlotter.h.

Referenced by MakePlots().

_max

std::map<TString, float> GeometryComparisonPlotter::_max

private

Definition at line 44 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), MakeTables(), generateEDF.LumiInfoCont::max(), and SetBranchMax().

_min

std::map<TString, float> GeometryComparisonPlotter::_min

private

Definition at line 44 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), MakeTables(), generateEDF.LumiInfoCont::min(), and SetBranchMin().

_module_plot_option

TString GeometryComparisonPlotter::_module_plot_option

private

Definition at line 36 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), and MakeTables().

_output_directory

TString GeometryComparisonPlotter::_output_directory

private

Definition at line 36 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), SetOutputDirectoryName(), and WriteTable().

_output_filename

TString GeometryComparisonPlotter::_output_filename

private

Definition at line 36 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), and SetOutputFileName().

_print

bool GeometryComparisonPlotter::_print

private

Definition at line 38 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), and SetPrint().

_print_only_global

bool GeometryComparisonPlotter::_print_only_global

private

Definition at line 38 of file GeometryComparisonPlotter.h.

Referenced by MakePlots().

_print_option

TString GeometryComparisonPlotter::_print_option

private

Definition at line 36 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), and SetPrintOption().

_reference_name

TString GeometryComparisonPlotter::_reference_name

private

Definition at line 36 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), and MakeTables().

_SF

std::map<TString, float> GeometryComparisonPlotter::_SF

private

Definition at line 44 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), MakeTables(), and SetBranchSF().

_sublevel_names

TString GeometryComparisonPlotter::_sublevel_names[6]

private

Definition at line 36 of file GeometryComparisonPlotter.h.

Referenced by GeometryComparisonPlotter(), MakeLegend(), MakePlots(), and MakeTables().

_units

std::map<TString, TString> GeometryComparisonPlotter::_units

private

Definition at line 45 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), SetBranchUnits(), and WriteTable().

_window_height

int GeometryComparisonPlotter::_window_height

private

Definition at line 39 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), and SetCanvasSize().

_window_width

int GeometryComparisonPlotter::_window_width

private

Definition at line 39 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), and SetCanvasSize().

_write

bool GeometryComparisonPlotter::_write

private

Definition at line 38 of file GeometryComparisonPlotter.h.

Referenced by MakePlots(), and SetWrite().

branch_f

std::map<TString, float> GeometryComparisonPlotter::branch_f

private

Definition at line 44 of file GeometryComparisonPlotter.h.

Referenced by GeometryComparisonPlotter(), MakePlots(), and MakeTables().

branch_i

std::map<TString, int> GeometryComparisonPlotter::branch_i

private

Definition at line 43 of file GeometryComparisonPlotter.h.

Referenced by GeometryComparisonPlotter(), MakePlots(), and MakeTables().

canvas_profile_index

int GeometryComparisonPlotter::canvas_profile_index

static

Definition at line 59 of file GeometryComparisonPlotter.h.

data

TTree* GeometryComparisonPlotter::data

private

Definition at line 50 of file GeometryComparisonPlotter.h.

Referenced by data_sources.node::__str__(), confdb.HLTProcess::_fix_parameter(), confdb.HLTProcess::addEras(), confdb.HLTProcess::addGlobalOptions(), confdb.HLTProcess::append_filenames(), data_sources.json_list::as_dicts(), data_sources.json_list::as_table(), confdb.HLTProcess::build_source(), confdb.HLTProcess::customize(), confdb.HLTProcess::dump(), confdb.HLTProcess::fixPrescales(), GeometryComparisonPlotter(), data_sources.json_list::get_members(), confdb.HLTProcess::getRawConfigurationFromDB(), confdb.HLTProcess::instrumentDQM(), confdb.HLTProcess::instrumentOpenMode(), confdb.HLTProcess::instrumentTiming(), data_sources.json_list::last(), confdb.HLTProcess::loadAdditionalConditions(), confdb.HLTProcess::loadCff(), confdb.HLTProcess::loadSetupCff(), MakePlots(), MakeTables(), confdb.HLTProcess::overrideGlobalTag(), confdb.HLTProcess::overrideL1MenuXml(), confdb.HLTProcess::overrideOutput(), confdb.HLTProcess::overrideParameters(), confdb.HLTProcess::overrideProcessName(), confdb.HLTProcess::removeElementFromSequencesTasksAndPaths(), confdb.HLTProcess::runL1Emulator(), confdb.HLTProcess::specificCustomize(), cuy.FindIssue::startElement(), edmStreamStallGrapher.Stack::update(), and confdb.HLTProcess::updateMessageLogger().

output

TFile* GeometryComparisonPlotter::output

private

Definition at line 49 of file GeometryComparisonPlotter.h.

Referenced by personalPlayback.Playback::do_create_lumi(), personalPlayback.Playback::do_exec(), MakePlots(), and WriteTable().

tree_file

TFile* GeometryComparisonPlotter::tree_file

private

Definition at line 48 of file GeometryComparisonPlotter.h.

Referenced by GeometryComparisonPlotter(), and ~GeometryComparisonPlotter().