trigscint::TrigScintTrackProducer Class Reference

making tracks from trigger scintillator clusters More...

#include <TrigScintTrackProducer.h>

Classes
struct	LUTKey
struct	LUTKeyHash

Public Member Functions
	TrigScintTrackProducer (const std::string &name, framework::Process &process)
void	configure (framework::config::Parameters &ps) override
	Callback for the EventProcessor to configure itself from the given set of parameters.
void	produce (framework::Event &event) override
	Process the event and put new data products into it.
void	onProcessStart () override
	Callback for the EventProcessor to take any necessary action when the processing of events starts, such as creating histograms.
void	onProcessEnd () override
	Callback for the EventProcessor to take any necessary action when the processing of events finishes, such as calculating job-summary quantities.
Public Member Functions inherited from framework::Producer
	Producer (const std::string &name, Process &process)
	Class constructor.
virtual void	process (Event &event) final
	Processing an event for a Producer is calling produce.
Public Member Functions inherited from framework::EventProcessor
	DECLARE_FACTORY (EventProcessor, EventProcessor *, const std::string &, Process &)
	declare that we have a factory for this class
	EventProcessor (const std::string &name, Process &process)
	Class constructor.
virtual	~EventProcessor ()=default
	Class destructor.
virtual void	beforeNewRun (ldmx::RunHeader &run_header)
	Callback for Producers to add parameters to the run header before conditions are initialized.
virtual void	onNewRun (const ldmx::RunHeader &run_header)
	Callback for the EventProcessor to take any necessary action when the run being processed changes.
virtual void	onFileOpen (EventFile &event_file)
	Callback for the EventProcessor to take any necessary action when a new event input ROOT file is opened.
virtual void	onFileClose (EventFile &event_file)
	Callback for the EventProcessor to take any necessary action when a event input ROOT file is closed.
template<class T >
const T &	getCondition (const std::string &condition_name)
	Access a conditions object for the current event.
TDirectory *	getHistoDirectory ()
	Access/create a directory in the histogram file for this event processor to create histograms and analysis tuples.
void	setStorageHint (framework::StorageControl::Hint hint)
	Mark the current event as having the given storage control hint from this module_.
void	setStorageHint (framework::StorageControl::Hint hint, const std::string &purposeString)
	Mark the current event as having the given storage control hint from this module and the given purpose string.
int	getLogFrequency () const
	Get the current logging frequency from the process.
int	getRunNumber () const
	Get the run number from the process.
std::string	getName () const
	Get the processor name.
void	createHistograms (const std::vector< framework::config::Parameters > &histos)
	Internal function which is used to create histograms passed from the python configuration @parma histos vector of Parameters that configure histograms to create.

Private Member Functions
ldmx::TrigScintTrack	makeTrack (std::vector< ldmx::TrigScintCluster > clusters)
void	matchXYTracks (std::vector< ldmx::TrigScintTrack > &tracks)

Private Attributes
std::vector< ldmx::TrigScintTrack >	tracks_
double	max_delta_ {0.}
double	max_delta_vert_ {0.}
double	bar_length_y_ {30.}
int	verbose_ {0}
std::string	seeding_collection_
std::vector< std::string >	input_collections_
std::string	output_collection_
std::string	pass_name_ {""}
bool	skip_last_ {false}
bool	lut_tracking_ {false}
int	vert_bar_start_idx_ {52}
int	n_bars_y_ {16}
int	n_bars_x_ {8}
std::unordered_set< LUTKey, LUTKeyHash >	lut_
float	bar_width_y_ {3.}
float	bar_gap_y_ {2.1}
float	bar_width_x_ {3.}
float	bar_gap_x_ {0.1}
float	x_conv_factor_
float	x_start_
float	y_conv_factor_
float	y_start_

Additional Inherited Members
Protected Member Functions inherited from framework::EventProcessor
void	abortEvent ()
	Abort the event immediately.
Protected Attributes inherited from framework::EventProcessor
HistogramPool	histograms_
	helper object for making and filling histograms
NtupleManager &	ntuple_ {NtupleManager::getInstance()}
	Manager for any ntuples.
logging::logger	the_log_
	The logger for this EventProcessor.

Detailed Description

making tracks from trigger scintillator clusters

Definition at line 21 of file TrigScintTrackProducer.h.

Constructor & Destructor Documentation

TrigScintTrackProducer()

trigscint::TrigScintTrackProducer::TrigScintTrackProducer ( const std::string & name, framework::Process & process )

inline

Definition at line 23 of file TrigScintTrackProducer.h.

      : Producer(name, process) {}

Member Function Documentation

configure()

void trigscint::TrigScintTrackProducer::configure ( framework::config::Parameters & parameters )

overridevirtual

Callback for the EventProcessor to configure itself from the given set of parameters.

The parameters a processor has access to are the member variables of the python class in the sequence that has class_name equal to the EventProcessor class name.

For an example, look at MyProcessor.

Parameters

parameters

Parameters for configuration.

Reimplemented from framework::EventProcessor.

Definition at line 11 of file TrigScintTrackProducer.cxx.

                                                                    {
  max_delta_ = ps.get<double>(
      "delta_max");  // max distance to consider adding in a cluster to track
  max_delta_vert_ = ps.get<double>(
      "delta_vert_max");  // max distance between pad 1/2 and 3 along the x axis
  // to consider make a track using the vertical bars
  seeding_collection_ = ps.get<std::string>(
      "seeding_collection");  // probably tagger pad, "TriggerPadTagClusters"
  input_collections_ = ps.get<std::vector<std::string>>(
      "further_input_collections");  // {"TriggerPadUpClusters" ,
                                     // "TriggerPadDnClusters" }
  output_collection_ = ps.get<std::string>("output_collection");
  pass_name_ = ps.get<std::string>("input_pass_name");
  verbose_ = ps.get<int>("verbosity");
  vert_bar_start_idx_ = ps.get<int>("vertical_bar_start_index");
  n_bars_y_ = ps.get<int>("number_horizontal_bars");
  bar_width_y_ = ps.get<double>("horizontal_bar_width");
  bar_gap_y_ = ps.get<double>("horizontal_bar_gap");
  n_bars_x_ = ps.get<int>("number_vertical_bars");
  bar_width_x_ = ps.get<double>("vertical_bar_width");
  bar_gap_x_ = ps.get<double>("vertical_bar_gap");
  skip_last_ = ps.get<bool>("allow_skip_last_collection");
  bar_length_y_ = ps.get<double>(
      "horizontal_bar_length");  // bar length of the horizontal bars
  lut_tracking_ = ps.get<bool>("lut_tracking");
  std::string lut_file =
      ps.get<std::string>("lut_file");  // from PatternLUTMaker
 
  // TO DO: allow any number of input collections
 
  if (verbose_) {
    ldmx_log(info) << "In TrigScintTrackProducer: configure done!" << std::endl;
    ldmx_log(info) << "Got parameters: \nSeeding:   " << seeding_collection_
                   << "\nTolerance: " << max_delta_
                   << "\nInput:     " << input_collections_.at(0) << " and "
                   << input_collections_.at(1)
                   << "\nInput pass name:     " << pass_name_
                   << "\nAllow tracks with no hit in last collection:     "
                   << skip_last_
                   << "\nUsing LUT Tracking Method:     " << lut_tracking_
                   << "\nIf using LUT Method, LUT from:  " << lut_file
                   << "\nVertical bar start index:     " << vert_bar_start_idx_
                   << "\nNumber of horizontal bars:     " << n_bars_y_
                   << "\nHorizontal bar width:     " << bar_width_y_
                   << "\nHorizontal bar gap:     " << bar_gap_y_
                   << "\nNumber of vertical bars:     " << n_bars_x_
                   << "\nVertical bar width:     " << bar_width_x_
                   << "\nVertical bar gap:     " << bar_gap_x_
                   << "\nOutput:    " << output_collection_
                   << "\nVerbosity: " << verbose_;
  }
  // each bar only goes half this distance up (overlap/zig-zag)
  y_conv_factor_ = (bar_width_y_ + bar_gap_y_) / 2.;
  // half height of pad
  y_start_ = -(n_bars_y_ * (bar_width_y_ + bar_gap_y_) - bar_gap_y_) / 2.;
  // each bar goes entire distance sideways (no overlap)
  x_conv_factor_ = bar_width_x_ + bar_gap_x_;
  // half width of pad
  x_start_ = -(n_bars_x_ * (bar_width_x_ + bar_gap_x_) - bar_gap_x_) / 2.;
 
  if (lut_tracking_) {
    std::ifstream file(lut_file);
    if (!file.good()) {
      EXCEPTION_RAISE("TrigScintTrackProducer",
                      "LUT file '" + lut_file + "' not found! Make sure it's in the directory from which just is executed!");
    }
 
    float a, b, c;
 
    while (file >> a >> b >> c) {
      float p1 = a;
      float p2 = b;
      float p3 = c;
      lut_.insert({p1, p2, p3});
    }
 
    ldmx_log(info) << "Loaded LUT with size: " << lut_.size();
  }
 
  return;
}

References framework::config::Parameters::get().

makeTrack()

ldmx::TrigScintTrack trigscint::TrigScintTrackProducer::makeTrack ( std::vector< ldmx::TrigScintCluster > clusters )

private

Definition at line 551 of file TrigScintTrackProducer.cxx.

                                              {
  // for now let's keep a straight, unweighted centroid
  // consider the possibility that at least one cluster has a centroid
  // identically == 0. then we need to shift them by 1 if we want to do energy
  // weighted track centroid later. but no need now
  ldmx::TrigScintTrack tr;
  float centroid = 0;
  float centroid_x = 0;
  float centroid_y = 0;
  float beam_efrac = 0;
  float pe = 0;
  for (uint i = 0; i < clusters.size(); i++) {
    centroid += (clusters.at(i)).getCentroid();
    centroid_x += (clusters.at(i)).getCentroidX();
    centroid_y += (clusters.at(i)).getCentroidY();
    tr.addConstituent(clusters.at(i));
    beam_efrac += (clusters.at(i)).getBeamEfrac();
    pe += (clusters.at(i)).getPE();
  }
  centroid /= clusters.size();
  centroid_x /= clusters.size();
  if (centroid >= vert_bar_start_idx_) {
    if (verbose_) {
      ldmx_log(debug)
          << " --  In makeTrack made vertical bar track with centroid  "
          << centroid << " and y flag sum " << centroid_y;
      // try commenting this to check if that helps with an out-of-bounds
      // problem
      //                    << " from clusters with y centroids";
      // for (uint i = 0; i < clusters.size(); i++)
      // ldmx_log(debug) << "\tpad " << i << ": centroidY "
      //                  << (clusters.at(i)).getCentroidY();
    }
    // then the sum of centroid y is 0, 2, 4 or 6
    // we have 4 divisions, so, the center of it should be divNb/8
    // (or rather, that's where channel nBars/8 begins)
    // and then a factor 2 for the zig-zag pattern
    centroid_y = (centroid_y + 1) * 2 * n_bars_y_ / 8.;
    // TODO: here we could instead just use quadrant indices 0-3 by dividing by
    // 2 but that would mean that in the raw, x and y track centroidY would mean
    // different things
    if (verbose_) ldmx_log(debug) << " --  new centroidY = " << centroid_y;
  } else
    centroid_y /= clusters.size();
 
  beam_efrac /= clusters.size();
  pe /= clusters.size();
 
  float residual = 0;
  for (uint i = 0; i < clusters.size(); i++)
    residual += ((clusters.at(i)).getCentroid() - centroid) *
                ((clusters.at(i)).getCentroid() - centroid);
  residual = sqrt(residual / clusters.size());
 
  float residual_x = 0;  // only for the vertical bars
  if (centroid >= vert_bar_start_idx_) {
    for (uint i = 0; i < clusters.size(); i++)
      residual_x += ((clusters.at(i)).getCentroidX() - centroid_x) *
                    ((clusters.at(i)).getCentroidX() - centroid_x);
    residual_x = sqrt(residual_x / clusters.size());
  }
 
  tr.setResidualX(residual_x);
  tr.setCentroid(centroid);
  tr.setCentroidX(centroid_x);
  tr.setCentroidY(centroid_y);
  tr.setResidual(residual);
  tr.setBeamEfrac(beam_efrac);
  tr.setPE(pe);
 
  if (verbose_) {
    ldmx_log(debug) << " --  In makeTrack made track with centroid  "
                    << centroid << " and residual " << residual << " and pe "
                    << pe << " from clusters with centroids";
    for (uint i = 0; i < clusters.size(); i++)
      ldmx_log(debug) << "\tpad " << i << ": centroid "
                      << (clusters.at(i)).getCentroid();
  }
 
  return tr;
}

matchXYTracks()

void trigscint::TrigScintTrackProducer::matchXYTracks ( std::vector< ldmx::TrigScintTrack > & tracks )

private

Definition at line 635 of file TrigScintTrackProducer.cxx.

                                           {
  // map quadrant nb to track (can be multiple per quadrant)
  std::multimap<int, int>
      y_idx_quad_map;  // key = quad, val = track index in collection
  std::multimap<int, int> x_idx_quad_map;
 
  std::multimap<int, ldmx::TrigScintTrack> y_quad_map;
  std::multimap<int, ldmx::TrigScintTrack> x_quad_map;
  // map track in quadrant back to index in entire track collection
  // used for updating collection track variables
  std::map<ldmx::TrigScintTrack, int> y_track_map;
  std::map<ldmx::TrigScintTrack, int> x_track_map;
 
  uint trk_idx = -1;
  for (auto trk : tracks) {
    trk_idx++;
    // 1. get the y bar tracks with centroidX = -1
    if (trk.getCentroidX() == -1) {
      if (verbose_)
        ldmx_log(debug) << " --  In matchXYTracks found y track at "
                        << trk.getCentroidY() << "; mapping to quad "
                        << (int)trk.getCentroidY() / (n_bars_y_ / 2)
                        << " with trk index " << trk_idx;
      // 2. order them... or map them to quadrants. note that there are 2 layers
      // so 2*n_bars_y_/4 channels per quadrant
      y_quad_map.insert(
          std::make_pair((int)(trk.getCentroidY() / (n_bars_y_ / 2)), trk));
      y_track_map[trk] = trk_idx;
      y_idx_quad_map.insert(
          std::make_pair((int)(trk.getCentroidY() / (n_bars_y_ / 2)), trk_idx));
 
    } else {  // 3. get the remaining tracks (from vertical bars) and map them
              // (back) to (middle of) quadrants
      x_quad_map.insert(
          std::make_pair((int)(trk.getCentroidY() / (n_bars_y_ / 2)), trk));
      x_track_map[trk] = trk_idx;
      x_idx_quad_map.insert(
          std::make_pair((int)(trk.getCentroidY() / (n_bars_y_ / 2)), trk_idx));
      if (verbose_)
        ldmx_log(debug) << " --  In matchXYTracks found x track at (x,y) = ("
                        << trk.getCentroidX() << ", " << trk.getCentroidY()
                        << "); mapping to quad "
                        << (int)trk.getCentroidY() / (n_bars_y_ / 2)
                        << " with trk index " << trk_idx;
    }
  }
 
  // 4a
  //
  // 1) here use the geometry? if we can assume perfect alignment we can take
  // width and nBars and take nBars/2 as origin
  // --- now do the matching ---
 
  // if there is no useful matching to be done: these are the pad width wide
  // numbers
  float x0 = 0;
  // this should be half the pad... could also set
  // it to full beam spot width
  float sx0 = fabs(x_start_);
  float sx0_vert = fabs(bar_length_y_ / 2);  // When there are no hits
  // along the vertical bars
 
  // y_start_ is half the pad, so this should be half a quadrant
  float sy0 = fabs(y_start_) / 4.;
 
  // assume at least one y track. will have to figure out if there is ever a
  // reason to use an isolated x track in its place.
  for (auto yitr = y_quad_map.begin(); yitr != y_quad_map.end(); ++yitr) {
    int n_yin_quad = y_quad_map.count((*yitr).first);
    int n_xin_quad = x_quad_map.count((*yitr).first);
    float y{-9999.}, sy{-9999.}, x{-9999.}, x1{-9999.}, x2{-9999.}, sx1{-9999.},
        sx2{-9999.}, y1{-9999.}, y2{-9999.}, sy1{-9999.}, sy2{-9999.};
    // quad midpoint:
    float y0 = (((*yitr).first * 8) * y_conv_factor_) + y_start_ + sy0;
    float sx = 1. / 2 *
               x_conv_factor_;  // rely on x precision being one single bar
                                // width; always used unless x is undeterminable
 
    // check all x first
    // do the easiest first:
    if (n_xin_quad == 0) {  // then there's no hope of setting a better x here
      // just use the beam spot width... and center of pad
      x = x0;
      sx = sx0_vert;
      if (verbose_)
        ldmx_log(debug) << "\t\t\t no x info in quad " << (*yitr).first
                        << "; will set x to middle of pad, pad half-width as "
                           "precision: set (x, sx)=("
                        << x << ", " << sx << ")";
    }  // 0 x tracks in quadrant
    else if (n_xin_quad ==
             1) {  // slightly harder: 1 x track -- might be easy if
                   // it's just one y track; if several, need to
                   // think about overlaps. but in overlap case, just
                   // revert to setting x0 and sx0, when we know
      auto xitr = x_quad_map.find((*yitr).first);
      x = ((*xitr).second).getCentroidX() * x_conv_factor_ + x_start_;
 
      if (verbose_)
        ldmx_log(debug) << "\t\t\t 1 x in quad " << (*yitr).first
                        << ", getting (x, sx)=(" << x << ", " << sx << ")";
    }  // 1 x track in quadrant
    else if (n_xin_quad == 2) {  // finally if we have two tracks, get x1 and x2
                                 // and decide later how to use them
      // don't think we want to experiment with discerning three overlapping
      // tracks, so not >= 2
      //          continue; //debugging: skip for now -- didn't help
      auto xitr1 = x_quad_map.lower_bound((*yitr).first);
      auto xitr2 = x_quad_map.upper_bound((*yitr).first);
      xitr2--;  // upper_bound points to next element
 
      if (xitr1 != xitr2) {  // should be true already but...
        x1 = ((*xitr1).second).getCentroidX() * x_conv_factor_ + x_start_;
        x2 = ((*xitr2).second).getCentroidX() * x_conv_factor_ + x_start_;
        sx1 = x_conv_factor_ / 2.;  // 1 bar width
        sx2 = sx1;
        x = (x1 + x2) / 2.;
        // rely on x precision being one single pad width
        sx = fabs(x1 - x2) /2;
        if (verbose_)
          ldmx_log(debug) << "\t\t -- 2 x in quad: setting y track x "
                             "coordinate to midpoint";
      }
    }  // if 2 x tracks in quad
 
    if (n_xin_quad >= 3) {  // no implementaion made so far
      x = x0;
      sx = sx0;
      if (verbose_)
        ldmx_log(debug)
            << "\t\t\t  currently no x info assigned in ambiguous case of "
            << n_xin_quad << "vertical bar track candidates in quad "
            << (*yitr).first
            << "; will set x to middle of pad, pad half-width as "
               "precision: set (x, sx)=("
            << x << ", " << sx << ")";
    }  // 3 x tracks in quadrant
 
    // ok! over y:
    // can skip 0 y case by construction
    if (n_yin_quad == 1) {  // we can already now tell what the y coordinate and
                            // its precision is
      y = ((*yitr).second).getCentroidY() * y_conv_factor_ + y_start_;
      sy = ((*yitr).second).getResidual() * y_conv_factor_;
      // if all clusters lined up, assign
      // precision of 1 bar width
      if (sy == 0) sy = 1. / 2 * y_conv_factor_;
 
      if (n_xin_quad <= 1) {
        // 4. every quadrant which just has one of each --> done ;
        // b) set the sx, sy of the x track now, using the residuals from the
        // other b1) special case: no x tracks; then x, sx have been set above
        if (n_xin_quad == 1) {
          auto xidx = x_idx_quad_map.find((*yitr).first);
          tracks.at((*xidx).second).setPosition(x, y);
          tracks.at((*xidx).second).setSigmaXY(sx, sy);
        }
        if (verbose_)
          ldmx_log(debug) << "\t\t\t in quad " << (*yitr).first
                          << ", set (x, y) = (" << x << ", " << y
                          << ") and (sx, sy) = " << sx << ", " << sy << ")";
        auto yidx = y_idx_quad_map.find((*yitr).first);
        tracks.at((*yidx).second).setPosition(x, y);
        tracks.at((*yidx).second).setSigmaXY(sx, sy);
        continue;
      }
    }  // 1 y, 0 or 1 or 3+ x track in quadrant
 
    if (verbose_)
      ldmx_log(debug) << "\t\t in quad " << (*yitr).first
                      << ", not single x,y tracks: " << n_xin_quad
                      << " of x and " << n_yin_quad << " of y";
 
    if (n_yin_quad == 2) {  // let's start here and see if we can do >= 2 later
      // here one could do sth to avoid checking the other y track again in the
      // outermost loop over y
      auto yitr1 = y_quad_map.lower_bound((*yitr).first);
      auto yitr2 = y_quad_map.upper_bound((*yitr).first);
      yitr2--;  // back up once
      y1 = ((*yitr1).second).getCentroidY() * y_conv_factor_ + y_start_;
      y2 = ((*yitr2).second).getCentroidY() * y_conv_factor_ + y_start_;
      sy1 = ((*yitr1).second).getResidual() * y_conv_factor_;
      sy2 = ((*yitr2).second).getResidual() * y_conv_factor_;
      if (sy1 == 0) sy1 = 1. / 2 * y_conv_factor_;
      if (sy2 == 0) sy2 = 1. / 2 * y_conv_factor_;
      y = (y1 + y2) / 2.;
      sy = fabs(y1 - y2) / 2;
      if (verbose_)
        ldmx_log(debug)
            << "\t\t -- 2 y in quad: setting x track y coordinate to midpoint";
    }  // 2y in quad
 
    if ((n_xin_quad == 0 || n_xin_quad >= 3) &&
        (n_yin_quad == 2)) {  // not using the X tracks for now for >=3
      if (n_xin_quad == 0) {
        if (verbose_)
          ldmx_log(debug) << "\t\t -- No x tracks but 2 y tracks in quad: "
                             "unusual behaviour";
      }
      auto yidx1 = y_idx_quad_map.lower_bound((*yitr).first);
      auto yidx2 = y_idx_quad_map.upper_bound((*yitr).first);
      yidx2--;
      tracks.at((*yidx1).second).setPosition(x, y1);
      tracks.at((*yidx1).second).setSigmaXY(sx, sy1);
      tracks.at((*yidx2).second).setPosition(x, y2);
      tracks.at((*yidx2).second).setSigmaXY(sx, sy2);
      continue;
    }
 
    if (n_yin_quad == 1 &&
        n_xin_quad == 2) {  // don't think we want to experiment with discerning
                            // three overlapping tracks, so not >= 2
 
      // first: set the y track coordinates to x  = the mid of x tracks, y = y
      // of y track
      auto yidx = y_idx_quad_map.find((*yitr).first);
      tracks.at((*yidx).second).setPosition(x, y);
      tracks.at((*yidx).second).setSigmaXY(sx, sy);
 
      int min_overlap_pe = 250;
      if (((*yitr).second).getPE() < min_overlap_pe) {
        // can't tell, really, that either of these belong to the y track. so.
        // let them keep their own x coordinate but set y to quadrant midpoint,
        // with uncertainty +/- half quadrant width (1/8 of pad height)
        y = y0;
        sy = sy0;
        if (verbose_)
          ldmx_log(debug) << "\t\t -- Can't tell which x track should be "
                             "matched to single y track. Setting both x track "
                             "coordinates to y quadrant value:";
      }  // if can't assume overlap
      else if (verbose_)
        ldmx_log(debug) << "\t\t -- Found large PE count ("
                        << ((*yitr).second).getPE() << " > " << min_overlap_pe
                        << "), suggesting overlap! Setting both x track "
                           "coordinates to y track value:";
 
      // consider making two x tracks out if this one, and, anyway have to set
      // their average as the y track x cocordinate
      // EXPERIMENTAL : apply only to x tracks, which can be disregarded for
      // electron counting
      if (verbose_)
        ldmx_log(debug) << "\t\t --  (x1, x2, y) = (" << x1 << ", " << x2
                        << ", " << y << ") and (sx1, sx2, sy) = " << sx1 << ", "
                        << sx2 << ", " << sy << ")";
 
      // now set x track coordinates according to overlap check result
      auto xidx1 = x_idx_quad_map.lower_bound((*yitr).first);
      auto xidx2 = x_idx_quad_map.upper_bound((*yitr).first);
      xidx2--;  // upper_bound points to (last+1) element
      tracks.at((*xidx1).second).setPosition(x1, y);
      tracks.at((*xidx1).second).setSigmaXY(sx1, sy);
      tracks.at((*xidx2).second).setPosition(x2, y);
      tracks.at((*xidx2).second).setSigmaXY(sx2, sy);
 
    }  // 1 y, 2 x tracks in the quadrant
    else if (n_yin_quad == 2 && n_xin_quad == 1) {
      // 5b) if there are more y than x: could be an overlap
 
      // first: set the x track coordinates to x = x of x track, y = the mid of
      // y tracks
      auto xidx = x_idx_quad_map.find((*yitr).first);
      tracks.at((*xidx).second).setPosition(x, y);
      tracks.at((*xidx).second).setSigmaXY(sx, sy);
 
      auto xitr = x_quad_map.lower_bound((*yitr).first);
      int min_overlap_pe = 300;
      if (((*xitr).second).getPE() < min_overlap_pe) {
        if (verbose_)
          ldmx_log(debug)
              << "\t\t just 1 x track with not-unusual PE in the quad -- can't "
                 "match; setting mid-point values for x ";
        x = x0;
        sx = sx0;
      }  // if can't assume overlap
      else {
        // consider making two x tracks out if this one, and, anyway have to set
        // their average as the y track x cocordinate
        // EXPERIMENTAL : apply only to x tracks, which can be disregarded for
        // electron counting
        if (verbose_)
          ldmx_log(debug) << "\t\t -- Found large PE count ("
                          << ((*xitr).second).getPE() << " > " << min_overlap_pe
                          << ") in x track, suggesting overlap! Setting both y "
                             "track coordinates to x track value:";
      }  // if can assume overlap
      if (verbose_)
        ldmx_log(debug) << "\t\t --  (x, y1, y2) = (" << x << ", " << y1 << ", "
                        << y2 << ") and (sx, sy1, sy2) = " << sx << ", " << sy1
                        << ", " << sy2 << ")";
 
      auto yidx1 = y_idx_quad_map.lower_bound((*yitr).first);
      auto yidx2 = y_idx_quad_map.upper_bound((*yitr).first);
      yidx2--;  // upper_bound points to next element
      tracks.at((*yidx1).second).setPosition(x, y1);
      tracks.at((*yidx1).second).setSigmaXY(sx, sy1);
      tracks.at((*yidx2).second).setPosition(x, y2);
      tracks.at((*yidx2).second).setSigmaXY(sx, sy2);
 
    }  // 2 y and 1 x track in quad
    else if (n_yin_quad == 2 && n_xin_quad == 2) {
      // MIDPONTS ALL OVER!
      auto xidx1 = x_idx_quad_map.lower_bound((*yitr).first);
      auto xidx2 = x_idx_quad_map.upper_bound((*yitr).first);
      xidx2--;
      auto yidx1 = y_idx_quad_map.lower_bound((*yitr).first);
      auto yidx2 = y_idx_quad_map.upper_bound((*yitr).first);
      yidx2--;
 
      if (y_idx_quad_map.find((*yitr).first) == y_idx_quad_map.end())
        ldmx_log(error) << "The two y tracks in the same quadrant at "
                        << (*yitr).first
                        << " appear to not be found in the y track map! "
                           "investigate. Note that yidx1.first = "
                        << (*yidx1).first
                        << " and  yidx2.first = " << (*yidx2).first;
      else {
        tracks.at((*xidx1).second).setPosition(x1, y);
        tracks.at((*xidx1).second).setSigmaXY(sx1, sy);
        tracks.at((*xidx2).second).setPosition(x2, y);
        tracks.at((*xidx2).second).setSigmaXY(sx2, sy);
 
        tracks.at((*yidx1).second).setPosition(x, y1);
        tracks.at((*yidx1).second).setSigmaXY(sx, sy1);
        tracks.at((*yidx2).second).setPosition(x, y2);
        tracks.at((*yidx2).second).setSigmaXY(sx, sy2);
 
        if (verbose_)
          ldmx_log(debug) << "\t\t -- in a 2 x 2 situaiton; midpoint y: " << y
                          << " for both x tracks, midpoint x: " << x
                          << " for both y tracks";
      }
    }  // if 2 y, 2 x tracks
 
    if (n_xin_quad > 2) {
      if (verbose_)
        ldmx_log(debug) << "\t\t -*-*-*- more than 2 x tracks in the same quad "
                           "-- nothing done about the x,y coordinates in this "
                           "situation -- implement if needed!!";
    }
    if (n_yin_quad > 2) {
      if (verbose_)
        ldmx_log(debug) << "\t\t -*-*-*- more than 2 y tracks in the same quad "
                           "-- nothing done about the x,y coordinates in this "
                           "situation -- implement if needed!!";
    }
 
  }  // over y tracks
 
  y_quad_map.clear();
  x_quad_map.clear();
 
  //  return tracks;
}

onProcessEnd()

void trigscint::TrigScintTrackProducer::onProcessEnd ( )

overridevirtual

Callback for the EventProcessor to take any necessary action when the processing of events finishes, such as calculating job-summary quantities.

Reimplemented from framework::EventProcessor.

Definition at line 997 of file TrigScintTrackProducer.cxx.

                                          {
  ldmx_log(debug) << "Process ends!";
 
  return;
}

onProcessStart()

void trigscint::TrigScintTrackProducer::onProcessStart ( )

overridevirtual

Callback for the EventProcessor to take any necessary action when the processing of events starts, such as creating histograms.

Reimplemented from framework::EventProcessor.

Definition at line 991 of file TrigScintTrackProducer.cxx.

                                            {
  ldmx_log(debug) << "Process starts!";
 
  return;
}

produce()

void trigscint::TrigScintTrackProducer::produce ( framework::Event & event )

overridevirtual

Process the event and put new data products into it.

Parameters

event

The Event to process.

Implements framework::Producer.

Definition at line 93 of file TrigScintTrackProducer.cxx.

                                                          {
  // parameters.
  // one pad cluster collection to use as seed
  // a vector with the other two
  // a maximum distance between seed centroid and other pad clusters
  //   allowed to belong to the same track
  // an output collection name a verbosity controller
 
  if (verbose_) {
    ldmx_log(debug)
        << "TrigScintTrackProducer: produce() starts! Event number: "
        << event.getEventHeader().getEventNumber();
  }
  if (!event.exists(seeding_collection_, pass_name_)) {
    ldmx_log(info) << "No collection called " << seeding_collection_
                   << "; skipping event";
    //                   << "; still, not skipping event";
    return;
  }
 
  if (!event.exists(seeding_collection_, pass_name_)) {
    ldmx_log(info) << "No collection called " << seeding_collection_
                   << "; skipping event";
    return;
  }
  const auto seeds{event.getCollection<ldmx::TrigScintCluster>(
      seeding_collection_, pass_name_)};
  uint num_seeds = seeds.size();
 
  if (verbose_) {
    ldmx_log(debug) << "Got track seeding cluster collection "
                    << seeding_collection_ << " with " << num_seeds
                    << " entries ";
  }
 
  if (!event.exists(input_collections_.at(0), pass_name_)) {
    ldmx_log(info) << "No collection called " << input_collections_.at(0)
                   << "; skipping event";
    //                   << "; still, not skipping event";
 
    return;
  }
  const auto clusters_pad1{event.getCollection<ldmx::TrigScintCluster>(
      input_collections_.at(0), pass_name_)};
 
  if (!event.exists(input_collections_.at(1), pass_name_)) {
    ldmx_log(info) << "No collection called "
                   << input_collections_.at(1)
                   //                   << "; still, not skipping event";
                   << "; skipping event";
    std::vector<ldmx::TrigScintTrack> empty{};
    event.add(output_collection_, empty);
    return;
  }
 
  const auto clusters_pad2{event.getCollection<ldmx::TrigScintCluster>(
      input_collections_.at(1), pass_name_)};
 
  if (verbose_) {
    ldmx_log(debug) << "Got the other two pad collections:"
                    << input_collections_.at(0) << " with "
                    << clusters_pad1.size() << " entries, and "
                    << input_collections_.at(1) << " with "
                    << clusters_pad2.size() << " entries.";
  }
  std::vector<ldmx::TrigScintTrack> cleaned_tracks;
  std::vector<ldmx::TrigScintTrack> cleaned_tracks_y;
  std::vector<ldmx::TrigScintTrack> cleaned_tracks_x;
 
  // loop over the clusters in the seeding pad collection, if there are clusters
  // in all pads
  // bool skipDn = false;
  if (num_seeds && clusters_pad1.size()) {
    // could check this explicitly here: and then just get out of all checks on
    // the dn pad immediately
    //  if (! clusters_pad2.size())
    // skipDn = true ;
    for (const auto& seed : seeds) {
      // for each seed, search through the other two pads to match all clusters
      // with centroids within tolerance to tracks
      float centroid = seed.getCentroid();
 
      std::vector<ldmx::TrigScintTrack> track_candidates;
 
      if (verbose_ > 1) {
        ldmx_log(debug) << "Got seed with centroid " << centroid;
      }
 
      // reset for each seed
      // bool madeTrack = false;
 
      if (lut_tracking_) {  // if using LUT method
        for (const auto &cluster1 : clusters_pad1) {
          for (const auto &cluster2 : clusters_pad2) {
            float seed_bin = seed.getCentroid();
            float pad1_bin = cluster1.getCentroid();
            float pad2_bin = cluster2.getCentroid();
 
            LUTKey key{seed_bin, pad1_bin,
                       pad2_bin};  // LUTKey defined in header file
 
            if (lut_.find(key) != lut_.end()) {
              std::vector<ldmx::TrigScintCluster> three_cluster_vec = {
                  seed, cluster1, cluster2};
 
              ldmx::TrigScintTrack track = makeTrack(three_cluster_vec);
              track_candidates.push_back(track);
            }
          }
        }
 
      }
 
      else {
        for (const auto &cluster1 : clusters_pad1) {
          if (verbose_ > 1) {
            ldmx_log(debug) << "\tGot pad1 cluster with centroid "
                            << cluster1.getCentroid();
          }
          if ((fabs(cluster1.getCentroid() - centroid) < max_delta_ &&
               centroid < vert_bar_start_idx_) ||
              (centroid >= vert_bar_start_idx_ &&
               cluster1.getCentroid() >= vert_bar_start_idx_ &&
               seed.getCentroidX() == cluster1.getCentroidX())) {
            // use geometry y overlap scheme to see if this is really a match in
            // x should be done in a map
 
            if (centroid >= vert_bar_start_idx_ &&
                seed.getCentroidY() < cluster1.getCentroidY()) {
              // impossible combination
              ldmx_log(warn)
                  << "\tSkipping impossible x cluster combination "
                     "with y flags (tag up) ("
                  << seed.getCentroidY() << " " << cluster1.getCentroidY()
                  << ")";
              continue;
            }
 
            // else: first (possible) match! loop through next pad too
 
            if (verbose_ > 1) {
              ldmx_log(debug) << "\t\tIt is close enough!. Check pad2";
            }
 
            // try making third pad clusters an optional part of track
 
            std::vector<ldmx::TrigScintCluster> cluster_vec = {seed, cluster1};
 
            bool has_match_dn = false;
 
            for (const auto &cluster2 : clusters_pad2) {
              if (verbose_ > 1) {
                ldmx_log(debug) << "\tGot pad2 cluster with centroid "
                                << cluster2.getCentroid();
              }
 
              if ((fabs(cluster2.getCentroid() - centroid) < max_delta_ &&
                   centroid < vert_bar_start_idx_) ||
                  (centroid >= vert_bar_start_idx_ &&
                   cluster2.getCentroid() >= vert_bar_start_idx_ &&
                   fabs(seed.getCentroidX() - cluster2.getCentroidX()) <=
                     max_delta_vert_)) {
 
                // use geometry y overlap scheme to see if this is really a
                // match
                // in x
 
                if (centroid >= vert_bar_start_idx_ &&
                    (seed.getCentroidY() < cluster2.getCentroidY() ||
                     cluster1.getCentroidY() >
                         cluster2.getCentroidY())) {  // impossible
                  ldmx_log(warn)
                      << "\tSkipping impossible x cluster combination with y "
                         "flags (tag up dn) ("
                      << seed.getCentroidY() << " " << cluster1.getCentroidY()
                      << " " << cluster2.getCentroidY() << ")";
                  continue;
                }
 
                // first match! loop through next pad too
 
                if (verbose_ > 1) {
                  ldmx_log(debug) << "\t\tIt is close enough!. Make a track";
                }
 
                // only make this vector now! this ensures against hanging
                // clusters with indices from earlier in the loop
                std::vector<ldmx::TrigScintCluster> three_cluster_vec = {
                    seed, cluster1, cluster2};
 
                /*
                // here we could break if we didn't want to allow all possible
                combinations madeTrack=true; break; //we're done with this
                iteration once there's a track made
                */
                // make a track
                ldmx::TrigScintTrack track = makeTrack(three_cluster_vec);
                track_candidates.push_back(track);
                has_match_dn = true;
              }  // if match in pad2
            }  // over clusters in pad2
            // if there was no match to this in pad 2, make a track with just
            // these two clusters
            if (!has_match_dn && skip_last_) {
              // we allow skipping last pad if needed
              ldmx::TrigScintTrack track = makeTrack(cluster_vec);
              track_candidates.push_back(track);
            }
 
          }  // if possible (x,)y match in pad1
          /*
//same here
if (madeTrack)
break;
*/
 
        }  // over clusters in pad1
      }
 
      // continue to next seed if 0 track candidates
      if (track_candidates.size() == 0) continue;
 
      int keep_idx = 0;
      float min_residual = 1000;  // some large number
 
      // no need to choose between only one candidate track
      if (track_candidates.size() > 1) {
        // now for each seed, pick only the track with the smallest residual.
 
        if (verbose_) {
          ldmx_log(debug) << "Got " << track_candidates.size()
                          << " tracks to check.";
        }
 
        for (uint idx = 0; idx < track_candidates.size(); idx++) {
          if ((track_candidates.at(idx)).getResidual() < min_residual) {
            keep_idx = (int)idx;
            min_residual =
                (track_candidates.at(idx)).getResidual();  // update minimum
 
            if (verbose_ > 1) {
              ldmx_log(debug)
                  << "Track at index " << idx
                  << " has smallest residual so far: " << min_residual;
            }
 
          }  // finding min residual
        }  // over track candidates
      }  // if more than 1 to choose from
 
      // store the track at keepIdx, if there was one we made it this far and
      // keepIdx is 0 or has been updated to the smallest residual track idx
      //    if (keepIdx >= 0) {
      tracks_.push_back(track_candidates.at(keep_idx));
      if (verbose_) {
        ldmx_log(debug) << "Kept track at index " << keep_idx;
        ldmx_log(trace) << track_candidates.at(keep_idx);
      }
      //}
    }  // over seeds
 
    // done here if there were no tracks found
    if (tracks_.size() == 0) {
      if (verbose_) {
        ldmx_log(debug) << "No tracks found!";
      }
      std::vector<ldmx::TrigScintTrack> empty{};
      event.add(output_collection_, empty);
      return;
    }
    // now, if there are multiple seeds sharing the same downstream hits, this
    // should also be remedied with a selection on min residual.
 
    // The logic of this loop kind of assumes I can remove tracks immediately --
    // that way I can do pairwise checks between more tracks within a single
    // loop. But for now I haven't figured out how to erase elements in a fool
    // proof way. So I iterate over a vector...
 
    std::vector keep_indices(tracks_.size(), 1);
    if (verbose_ > 1)
      ldmx_log(debug) << "vector of indices to keep has size "
                      << keep_indices.size();
 
    for (uint idx = tracks_.size() - 1; idx > 0; idx--) {
      // since we start in one end, we only have to check matches in one
      // direction
      ldmx::TrigScintTrack track = tracks_.at(idx);
      for (int idx_comp = idx - 1; idx_comp >= 0; idx_comp--) {
        if (verbose_ > 1)
          ldmx_log(debug) << "In track disambiguation loop, idx points at "
                          << idx << " and prev idx points at " << idx_comp;
 
        ldmx::TrigScintTrack next_track = tracks_.at(idx_comp);
 
        // no need to start pulling constituents from tracks that are
        // ridiculously far apart
        if (((fabs(track.getCentroid() - next_track.getCentroid()) <
              3 * max_delta_) && (track.getCentroid() 
              < vert_bar_start_idx_))  // for the horizontal bars
            || ((fabs(track.getCentroidX() - next_track.getCentroidX()) <
                 2 * max_delta_vert_) &&
                (track.getCentroidY() == next_track.getCentroidY()) &&
                (track.getCentroid() >= vert_bar_start_idx_))) {
          // and for the vertical bars, check if they are in the same quad and
          // close enough
          std::vector<ldmx::TrigScintCluster> consts_1 =
              track.getConstituents();
          std::vector<ldmx::TrigScintCluster> consts_2 =
              next_track.getConstituents();
          if (verbose_ > 1)
            ldmx_log(debug)
                << "In track disambiguation loop, got the two tracks, "
                   "with nConstituents "
                << consts_1.size() << " and " << consts_2.size()
                << ", respectively. ";
          // let's do "if either cluster is shared" right now... but could also
          // have it settable to use a stricter cut: an AND
          if (((consts_1[1].getCentroid() == consts_2[1].getCentroid() ||
                ((consts_1.size() > 2) && (consts_2.size() > 2) &&
                 (consts_1[2].getCentroid() == consts_2[2].getCentroid()))) &&
               (track.getCentroid() < vert_bar_start_idx_)) ||
              // horizontal bars
              ((track.getCentroid() >= vert_bar_start_idx_) &&
               ((consts_1[1].getCentroidX() == consts_2[1].getCentroidX()) ||
                (consts_1[2].getCentroidX() == consts_2[2].getCentroidX()) ||
                (consts_1[0].getCentroidX() ==
                 consts_2[0].getCentroidX())))) {  // and vertical bars
 
            if (verbose_ > 1) {
              ldmx_log(debug) << "Found overlap! Tracks at index " << idx
                              << " and " << idx_comp;
              ldmx_log(trace) << tracks_.at(idx);
              ldmx_log(trace) << tracks_.at(idx_comp);
            }
 
            if (((fabs((tracks_.at(idx)).getResidualX() -
                       (tracks_.at(idx_comp)).getResidualX())) < 0.01)  // it should be equal
                && (track.getCentroid() >= vert_bar_start_idx_)) {  // specific case for the vertical bars
              continue;                   // currently we can't do more here
            } else if (((tracks_.at(idx)).getResidual() <
                            (tracks_.at(idx_comp)).getResidual() &&
                        (track.getCentroid() < vert_bar_start_idx_)) ||
                       ((tracks_.at(idx)).getResidualX() <
                            (tracks_.at(idx_comp)).getResidualX() &&
                        (track.getCentroid() >= vert_bar_start_idx_))) {
              // next track (lower index) is a worse choice, remove its flag for
              // keeping
              keep_indices.at(idx_comp) = 0;
            } else  // prefer next track over current. remove current track's
                    // keep
              // flag
              keep_indices.at(idx) = 0;
            /*}
                  else {
                  tracks_.erase(itNext);
                  //        removeIdx.push_back(idx+1);
                  // we might see the same index two times in the loop in this
               case, if there are three seeds sharing the same clusters
               downstream.
                  // then the third only gets removed if it's even worse than
               the second.
                  // one could deal with this with an extra overlap check. not
               sure we will be in this situation any time soon though.
                  }*/
          }  // over matching/overlapping tracks
        }  // over tracks close enough to share constituents
      }  // over constructed tracks at other indices, to match
    }  // over constructed tracks
 
    for (uint idx = 0; idx < tracks_.size(); idx++) {
      if (verbose_ > 1) {
        ldmx_log(debug) << "keep flag for idx " << idx << " is "
                        << keep_indices.at(idx);
      }
      if (keep_indices.at(idx)) {  // this hasn't been flagged for removal
 
        cleaned_tracks.push_back(tracks_.at(idx));
 
        if (verbose_) {
          ldmx_log(debug) << "After cleaning, keeping track at index " << idx
                          << ": Centroid = " << (tracks_.at(idx)).getCentroid()
                          << "; CentroidX = "
                          << (tracks_.at(idx)).getCentroidX()
                          << "; CentroidY = "
                          << (tracks_.at(idx)).getCentroidY()
                          << "; track PE = " << (tracks_.at(idx)).getPE()
                          << tracks_.at(idx);
        }
      }  // if index flagged for keeping
    }  // over all (uniquely seeded) tracks in the event
 
    if (verbose_) {
      for (uint idx = 0; idx < tracks_.size(); idx++) {
        ldmx_log(debug) << "Keeping track at index " << idx << ":"
                        << tracks_.at(idx);
      }
    }
 
    if (verbose_) {
      ldmx_log(debug) << "Running track x,y matching ";
    }
 
    if (cleaned_tracks.size() > 0) {
      matchXYTracks(cleaned_tracks);
      std::vector<ldmx::TrigScintTrack> matched_tracks =
          cleaned_tracks;  // don't know why this copying needs to happen but it
                           // does
      //    std::vector<ldmx::TrigScintTrack>  matchXYTracks( cleanedTracks
      //);      std::vector<ldmx::TrigScintTrack> matchedTracks =
      // matchXYTracks( cleanedTracks );
      for (auto trk : matched_tracks) {
        /*  for (uint idx = 0; idx < tracks_.size(); idx++) {
                      if (verbose_ > 1) {
                      ldmx_log(debug) << "keep flag for idx " << idx << " is "
                                      << keepIndices.at(idx);
                                      }
                                      if (keepIndices.at(idx)) {  // this hasn't
      been flagged for removal
      //check if channel nb is above that of horizontal bars
      if (tracks_.at(idx).getCentroid() >= vert_bar_start_idx_)
        */
        if (trk.getCentroid() >= vert_bar_start_idx_)
          cleaned_tracks_x.push_back(trk);  // acks_.at(idx));
        else
          cleaned_tracks_y.push_back(trk);  // acks_.at(idx));
        //      cleanedTracksY.push_back(trk);
        if (verbose_ > 1) {
          float centr = trk.getCentroid();  // tracks_.at(idx).getCentroid(); //
          std::string coll_str = centr >= vert_bar_start_idx_ ? "X" : "Y";
          coll_str = output_collection_ + coll_str;
          ldmx_log(debug) << "saving track with centroid " << centr
                          << " to output track collection " << coll_str;
        }
        // }
      }
    }
 
  }  // if there are clusters in all pads
  else if (verbose_) {
    ldmx_log(info)
        << "Not all pads had clusters; (maybe) skipping tracking attempt";
  }
 
  if (verbose_) {
    ldmx_log(debug) << "Done with tracking step. ";
  }
 
  event.add(output_collection_, cleaned_tracks);
  //  event.add(output_collection_, matchedTracks);
 
  event.add(output_collection_ + "Y", cleaned_tracks_y);
  event.add(output_collection_ + "X", cleaned_tracks_x);
 
  tracks_.resize(0);
 
  return;
}

References framework::Event::exists(), ldmx::TrigScintTrack::getCentroid(), ldmx::TrigScintTrack::getCentroidX(), ldmx::TrigScintTrack::getCentroidY(), and ldmx::TrigScintTrack::getConstituents().

Member Data Documentation

bar_gap_x_

float trigscint::TrigScintTrackProducer::bar_gap_x_ {0.1}

private

Definition at line 116 of file TrigScintTrackProducer.h.

{0.1};   // mm

bar_gap_y_

float trigscint::TrigScintTrackProducer::bar_gap_y_ {2.1}

private

Definition at line 114 of file TrigScintTrackProducer.h.

{2.1};   // mm

bar_length_y_

double trigscint::TrigScintTrackProducer::bar_length_y_ {30.}

private

Definition at line 50 of file TrigScintTrackProducer.h.

{30.};

bar_width_x_

float trigscint::TrigScintTrackProducer::bar_width_x_ {3.}

private

Definition at line 115 of file TrigScintTrackProducer.h.

{3.};  // mm

bar_width_y_

float trigscint::TrigScintTrackProducer::bar_width_y_ {3.}

private

Definition at line 113 of file TrigScintTrackProducer.h.

{3.};  // mm

input_collections_

std::vector<std::string> trigscint::TrigScintTrackProducer::input_collections_

private

Definition at line 59 of file TrigScintTrackProducer.h.

lut_

std::unordered_set<LUTKey, LUTKeyHash> trigscint::TrigScintTrackProducer::lut_

private

Definition at line 111 of file TrigScintTrackProducer.h.

lut_tracking_

bool trigscint::TrigScintTrackProducer::lut_tracking_ {false}

private

Definition at line 71 of file TrigScintTrackProducer.h.

{false};

max_delta_

double trigscint::TrigScintTrackProducer::max_delta_ {0.}

private

Definition at line 47 of file TrigScintTrackProducer.h.

{0.};

max_delta_vert_

double trigscint::TrigScintTrackProducer::max_delta_vert_ {0.}

private

Definition at line 49 of file TrigScintTrackProducer.h.

{0.};

n_bars_x_

int trigscint::TrigScintTrackProducer::n_bars_x_ {8}

private

Definition at line 80 of file TrigScintTrackProducer.h.

{8};

n_bars_y_

int trigscint::TrigScintTrackProducer::n_bars_y_ {16}

private

Definition at line 77 of file TrigScintTrackProducer.h.

{16};

output_collection_

std::string trigscint::TrigScintTrackProducer::output_collection_

private

Definition at line 62 of file TrigScintTrackProducer.h.

pass_name_

std::string trigscint::TrigScintTrackProducer::pass_name_ {""}

private

Definition at line 65 of file TrigScintTrackProducer.h.

{""};

seeding_collection_

std::string trigscint::TrigScintTrackProducer::seeding_collection_

private

Definition at line 56 of file TrigScintTrackProducer.h.

skip_last_

bool trigscint::TrigScintTrackProducer::skip_last_ {false}

private

Definition at line 68 of file TrigScintTrackProducer.h.

{false};

tracks_

std::vector<ldmx::TrigScintTrack> trigscint::TrigScintTrackProducer::tracks_

private

Definition at line 35 of file TrigScintTrackProducer.h.

verbose_

int trigscint::TrigScintTrackProducer::verbose_ {0}

private

Definition at line 53 of file TrigScintTrackProducer.h.

{0};

vert_bar_start_idx_

int trigscint::TrigScintTrackProducer::vert_bar_start_idx_ {52}

private

Definition at line 74 of file TrigScintTrackProducer.h.

{52};

x_conv_factor_

float trigscint::TrigScintTrackProducer::x_conv_factor_

private

Definition at line 118 of file TrigScintTrackProducer.h.

x_start_

float trigscint::TrigScintTrackProducer::x_start_

private

Definition at line 119 of file TrigScintTrackProducer.h.

y_conv_factor_

float trigscint::TrigScintTrackProducer::y_conv_factor_

private

Definition at line 120 of file TrigScintTrackProducer.h.

y_start_

float trigscint::TrigScintTrackProducer::y_start_

private

Definition at line 121 of file TrigScintTrackProducer.h.

---

The documentation for this class was generated from the following files:

• TrigScint/include/TrigScint/TrigScintTrackProducer.h
• TrigScint/src/TrigScint/TrigScintTrackProducer.cxx