Monitor PF candidates, their ID, and the match to truth. More...

#include <ParticleFlowDQM.h>

Public Member Functions
	ParticleFlowDQM (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	analyze (const framework::Event &event) override
	Process the event and make histograms or summaries.

Public Member Functions inherited from framework::Analyzer
	Analyzer (const std::string &name, Process &process)
	Class constructor.

virtual void	process (Event &event) final
	Processing an event for an Analyzer is calling analyze.

virtual void	beforeNewRun (ldmx::RunHeader &run_header) final
	Don't allow Analyzers to add parameters to the run header.

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	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.

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

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

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
void	analyzeTruth (const framework::Event &event, std::vector< ldmx::PFCandidate > &cands)

bool	reconstructable (int pdg, double px, double py, double pz, double ke) const

int	interactionRegion (const std::vector< double > &end) const

Private Attributes
std::string	pf_cand_coll_name_ {"PFCandidates"}

std::string	pf_cand_pass_name_ {""}

std::string	ecal_sp_coll_name_ {"EcalScoringPlaneHits"}

std::string	ecal_sp_pass_name_ {""}

std::string	sim_particles_coll_name_ {"SimParticles"}

std::string	sim_particles_pass_name_ {""}

double	truth_min_energy_ {50.}

double	neutral_match_dist_ {30.}

double	neutral_match_max_ratio_ {2.}

double	neutral_hcal_match_angle_ {30.}

double	reco_max_theta_ {80.}

double	reco_min_p_pion_ {100.}

double	reco_min_p_heavy_ {800.}

double	reco_min_ke_neutral_ {1000.}

double	reco_min_ke_pi0_ {2000.}

double	ecal_back_z_ {760.}

double	ecal_half_xy_ {300.}

double	hcal_max_z_ {4000.}

double	hcal_max_xy_ {1600.}

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

Monitor PF candidates, their ID, and the match to truth.

Truth is every particle entering the Ecal front face. Charged candidates match by track ID, neutral ones by position.

Definition at line 20 of file ParticleFlowDQM.h.

Constructor & Destructor Documentation

◆ ParticleFlowDQM()

dqm::ParticleFlowDQM::ParticleFlowDQM	(	const std::string &	name,
		framework::Process &	process )

inline

Definition at line 22 of file ParticleFlowDQM.h.

23 : Analyzer(name, process) {}

framework::Analyzer::process

virtual void process(Event &event) final

Processing an event for an Analyzer is calling analyze.

Definition EventProcessor.h:314

framework::Analyzer::Analyzer

Analyzer(const std::string &name, Process &process)

Class constructor.

Definition EventProcessor.cxx:56

Member Function Documentation

◆ analyze()

void dqm::ParticleFlowDQM::analyze ( const framework::Event & event )

overridevirtual

Process the event and make histograms or summaries.

Parameters

event The Event to analyze

Implements framework::Analyzer.

Definition at line 188 of file ParticleFlowDQM.cxx.

                                                         {
  if (!event.exists(pf_cand_coll_name_, pf_cand_pass_name_)) {
    ldmx_log(debug) << "No collection " << pf_cand_coll_name_;
    return;
  }
  auto cands = event.getCollection<ldmx::PFCandidate>(pf_cand_coll_name_,
                                                      pf_cand_pass_name_);
  histograms_.fill("n_cands", cands.size());
 
  int n_charged = 0, n_neutral = 0;
  double charged_p = 0, neutral_e = 0, pf_e = 0;
  for (auto& cand : cands) {
    int pid = cand.getPID();
    histograms_.fill("pid", pid);
    histograms_.fill("reco_type", pfType(cand.getPdgId()));
    if (pfType(cand.getPdgId()) == kPFH) {
      histograms_.fill("charged_hadron_mass", massColumn(cand.getMass()));
    }
    pf_e += cand.getEnergy();
    double ecal_e = cand.getEcalEnergy();
    double hcal_e = cand.getHcalEnergy();
 
    if (pid & 1) {
      n_charged++;
      auto p = cand.getTrackPxPyPz();
      double trk_p = std::hypot(p[0], p[1], p[2]);
      charged_p += trk_p;
      histograms_.fill("charged_track_p", trk_p);
      histograms_.fill("charged_is_ecal_linked", (pid & 2) ? 1 : 0);
      if (cand.getDeDxNhits() > 0) {
        histograms_.fill("charged_dedx_mass2_vs_p", trk_p,
                         cand.getDeDxMassSquared());
      }
      if ((pid & 2) && trk_p > 0) {
        histograms_.fill("charged_ecal_e_over_p", ecal_e / trk_p);
        histograms_.fill("charged_ecal_raw_e_over_p",
                         cand.getEcalRawEnergy() / trk_p);
        // track at Ecal face vs linked cluster centroid
        auto trk_pos = cand.getEcalPositionXYZ();
        auto cl_pos = cand.getEcalClusterXYZ();
        histograms_.fill("charged_cluster_dx", cl_pos[0] - trk_pos[0]);
        histograms_.fill("charged_cluster_dy", cl_pos[1] - trk_pos[1]);
      }
      if (cand.getTruthPdgId() != 0) {
        histograms_.fill("charged_truth_pdg", cand.getTruthPdgId());
        auto tp = cand.getTruthPxPyPz();
        double true_p = std::hypot(tp[0], tp[1], tp[2]);
        if (true_p > 0) {
          histograms_.fill("charged_dp_over_p", (trk_p - true_p) / true_p);
          histograms_.fill("charged_p_vs_truth_p", true_p, trk_p);
        }
        auto t_pos = cand.getTruthEcalXYZ();
        auto r_pos = cand.getEcalPositionXYZ();
        histograms_.fill("charged_dx_truth", r_pos[0] - t_pos[0]);
        histograms_.fill("charged_dy_truth", r_pos[1] - t_pos[1]);
        int t_cat = category(cand.getTruthPdgId());
        if ((pid & 2) && trk_p > 0) {
          histograms_.fill("charged_e_over_p_vs_truth", t_cat, ecal_e / trk_p);
        }
        if (cand.getDeDxNhits() > 0) {
          histograms_.fill("charged_dedx_mass2_vs_truth", t_cat,
                           cand.getDeDxMassSquared());
        }
      }
    } else {
      n_neutral++;
      neutral_e += cand.getEnergy();
      if (pid == 2) histograms_.fill("neutral_ecal_only_e", ecal_e);
      if (pid == 6) {
        histograms_.fill("neutral_ecal_hcal_ecal_e", ecal_e);
        histograms_.fill("neutral_ecal_hcal_hcal_e", hcal_e);
      }
      if (pid == 4) histograms_.fill("neutral_hcal_only_e", hcal_e);
    }
  }
  histograms_.fill("n_charged", n_charged);
  histograms_.fill("n_neutral", n_neutral);
  histograms_.fill("sum_charged_p", charged_p);
  histograms_.fill("sum_neutral_e", neutral_e);
  histograms_.fill("sum_pf_e", pf_e);
 
  // reco diphoton mass, directions from the target
  std::vector<int> photons;
  for (int i = 0; i < static_cast<int>(cands.size()); i++) {
    if (cands[i].getPdgId() == 22) photons.push_back(i);
  }
  for (size_t a = 0; a < photons.size(); a++) {
    for (size_t b = a + 1; b < photons.size(); b++) {
      const auto& c1 = cands[photons[a]];
      const auto& c2 = cands[photons[b]];
      auto d1 = direction(c1);
      auto d2 = direction(c2);
      double cos12 = d1[0] * d2[0] + d1[1] * d2[1] + d1[2] * d2[2];
      double m2 = 2 * c1.getEnergy() * c2.getEnergy() * (1 - cos12);
      histograms_.fill("mgg", std::sqrt(std::max(0., m2)));
    }
  }
 
  analyzeTruth(event, cands);
}

References framework::Event::exists(), framework::HistogramPool::fill(), and framework::EventProcessor::histograms_.

◆ analyzeTruth()

void dqm::ParticleFlowDQM::analyzeTruth	(	const framework::Event &	event,
		std::vector< ldmx::PFCandidate > &	cands )

private

Definition at line 289 of file ParticleFlowDQM.cxx.

                                                                      {
  if (!event.exists(ecal_sp_coll_name_, ecal_sp_pass_name_)) return;
  const auto& sp_hits = event.getCollection<ldmx::SimTrackerHit>(
      ecal_sp_coll_name_, ecal_sp_pass_name_);
 
  // particles entering the Ecal front face, highest energy per track
  std::map<int, TruthParticle> by_id;
  for (const auto& sp : sp_hits) {
    auto pos = sp.getPosition();
    auto mom = sp.getMomentum();
    if (std::abs(240 - pos[2]) > 0.1 || mom[2] <= 0) continue;
    double e = sp.getEnergy();
    int apdg = std::abs(sp.getPdgID());
    double vis = (apdg == 11 || apdg == 22)
                     ? e
                     : e - std::sqrt(std::max(0., e * e - mom[0] * mom[0] -
                                                      mom[1] * mom[1] -
                                                      mom[2] * mom[2]));
    if (vis < truth_min_energy_) continue;
    auto it = by_id.find(sp.getTrackID());
    if (it != by_id.end() && it->second.visible_e_ >= vis) continue;
    by_id[sp.getTrackID()] = {sp.getTrackID(), sp.getPdgID(), vis,    e,
                              pos[0],          pos[1],        pos[2], mom[0],
                              mom[1],          mom[2]};
  }
  std::vector<TruthParticle> truth;
  double truth_e = 0;
  // same convention as PF: total for charged, visible for neutral
  for (auto& [id, t] : by_id) {
    truth.push_back(t);
    int cat = category(t.pdg_);
    truth_e += (cat <= kP) ? t.total_e_ : t.visible_e_;
  }
  histograms_.fill("sum_truth_e", truth_e);
  double pf_e = 0;
  for (const auto& c : cands) pf_e += c.getEnergy();
  if (truth_e > 0) histograms_.fill("sum_pf_e_over_truth", pf_e / truth_e);
 
  // charged candidates match by track ID
  std::vector<int> cand_truth(cands.size(), -1);
  for (size_t i = 0; i < cands.size(); i++) {
    if (!(cands[i].getPID() & 1)) continue;
    for (size_t j = 0; j < truth.size(); j++) {
      if (!truth[j].matched_ &&
          truth[j].track_id_ == cands[i].getTruthTrackId()) {
        truth[j].matched_ = true;
        cand_truth[i] = j;
        break;
      }
    }
  }
 
  // neutral candidates match by position, highest energy first
  std::vector<size_t> neutral;
  for (size_t i = 0; i < cands.size(); i++) {
    if (!(cands[i].getPID() & 1)) neutral.push_back(i);
  }
  std::sort(neutral.begin(), neutral.end(), [&cands](size_t a, size_t b) {
    return cands[a].getEnergy() > cands[b].getEnergy();
  });
  for (size_t i : neutral) {
    bool has_ecal = cands[i].getPID() & 2;
    auto xyz =
        has_ecal ? cands[i].getEcalClusterXYZ() : cands[i].getHcalClusterXYZ();
    // Ecal: distance at the cluster [mm]; Hcal only: angle from the target
    // [rad], hadron showers are wide and the side Hcal is not along z
    auto cand_dir = direction(cands[i]);
    int best = -1;
    double best_d = has_ecal ? neutral_match_dist_
                             : neutral_hcal_match_angle_ * M_PI / 180.;
    for (size_t j = 0; j < truth.size(); j++) {
      if (truth[j].matched_) continue;
      // fragments must not count as found particles
      double ratio = cands[i].getEnergy() / truth[j].visible_e_;
      if (ratio < 1. / neutral_match_max_ratio_ ||
          ratio > neutral_match_max_ratio_)
        continue;
      double d;
      if (has_ecal) {
        auto [tx, ty] = project(truth[j], xyz[2]);
        d = std::hypot(tx - xyz[0], ty - xyz[1]);
      } else {
        const auto& t = truth[j];
        double pt = std::hypot(t.px_, t.py_, t.pz_);
        double c =
            (t.px_ * cand_dir[0] + t.py_ * cand_dir[1] + t.pz_ * cand_dir[2]) /
            pt;
        d = std::acos(std::clamp(c, -1., 1.));
      }
      if (d < best_d) {
        best_d = d;
        best = j;
      }
    }
    if (best >= 0) {
      truth[best].matched_ = true;
      cand_truth[i] = best;
    }
  }
 
  // unmatched candidates and energy response
  std::vector<int> truth_cand(truth.size(), -1);
  for (size_t i = 0; i < cands.size(); i++) {
    int r_type = pfType(cands[i].getPdgId());
    if (cand_truth[i] < 0) {
      // last truth bin: candidates without a truth particle
      histograms_.fill("pf_confusion", kPFNotFound, r_type);
      if (r_type == kPFH) {
        histograms_.fill("charged_hadron_confusion", 3,
                         massColumn(cands[i].getMass()));
      }
      if (!(cands[i].getPID() & 1)) {
        histograms_.fill("unmatched_neutral_e", cands[i].getEnergy());
      }
      continue;
    }
    truth_cand[cand_truth[i]] = i;
    const auto& t = truth[cand_truth[i]];
    // charged energy includes the mass, calorimeters see the visible part
    double ref = (cands[i].getPID() & 1) ? t.total_e_ : t.visible_e_;
    if (ref > 0) {
      histograms_.fill("response_vs_type", r_type, cands[i].getEnergy() / ref);
    }
  }
 
  // sim particles give where neutral hadrons interact, and pi0 parents
  bool has_particles =
      event.exists(sim_particles_coll_name_, sim_particles_pass_name_);
  std::map<int, ldmx::SimParticle> particles;
  if (has_particles) {
    particles = event.getMap<int, ldmx::SimParticle>(sim_particles_coll_name_,
                                                     sim_particles_pass_name_);
  }
 
  // unmatched truth with any candidate at its position: seen, but with the
  // wrong energy or merged into another particle ("other"), not lost
  std::vector<bool> seen(truth.size(), false);
  for (size_t j = 0; j < truth.size(); j++) {
    if (truth_cand[j] >= 0) continue;
    for (const auto& cand : cands) {
      int pid = cand.getPID();
      if (pid & 4 && !(pid & 2)) {
        auto d = direction(cand);
        const auto& t = truth[j];
        double pt = std::hypot(t.px_, t.py_, t.pz_);
        double cs = (t.px_ * d[0] + t.py_ * d[1] + t.pz_ * d[2]) / pt;
        if (cs > std::cos(neutral_hcal_match_angle_ * M_PI / 180.))
          seen[j] = true;
      } else {
        auto xyz =
            (pid & 2) ? cand.getEcalClusterXYZ() : cand.getEcalPositionXYZ();
        auto [tx, ty] = project(truth[j], xyz[2]);
        if (std::hypot(tx - xyz[0], ty - xyz[1]) < neutral_match_dist_)
          seen[j] = true;
      }
      if (seen[j]) break;
    }
  }
 
  // confusion per truth particle; last two reco bins: other (seen, wrong
  // energy or merged) and not found (nothing at its position)
  for (size_t j = 0; j < truth.size(); j++) {
    const auto& t = truth[j];
    int c = truth_cand[j];
    int r_type = c >= 0 ? pfType(cands[c].getPdgId())
                        : (seen[j] ? kPFOther : kPFNotFound);
    bool reco = reconstructable(t.pdg_, t.px_, t.py_, t.pz_, t.visible_e_);
    histograms_.fill("pf_confusion", truthPFType(t.pdg_), r_type);
    if (reco) {
      histograms_.fill("pf_confusion_reconstructable", truthPFType(t.pdg_),
                       r_type);
    }
    int sp = category(t.pdg_);
    if (sp == kPi || sp == kK || sp == kP) {
      // columns: h with pi, K, p hypothesis, other, not found
      int col = r_type == kPFH          ? massColumn(cands[c].getMass())
                : r_type == kPFNotFound ? 4
                                        : 3;
      histograms_.fill("charged_hadron_confusion", sp - kPi, col);
      if (reco) {
        histograms_.fill("charged_hadron_confusion_reconstructable", sp - kPi,
                         col);
      }
    }
    if (sp == kNHad) {
      // columns: h0, gamma, both gammas of a pi0, other, not found
      int col = r_type == kPFNotFound ? 4 : 3;
      if (r_type == kPFH0) col = 0;
      if (r_type == kPFGamma) col = 1;
      int region = kNoInteraction;
      if (auto it = particles.find(t.track_id_); it != particles.end()) {
        region = interactionRegion(it->second.getEndPoint());
      }
      int row = neutralRow(t.pdg_, region);
      histograms_.fill("neutral_confusion", row, col);
      if (reco) {
        histograms_.fill("neutral_confusion_reconstructable", row, col);
      }
    }
  }
  for (const auto& t : truth) {
    histograms_.fill("truth_type", category(t.pdg_));
    if (t.matched_) histograms_.fill("truth_type_matched", category(t.pdg_));
    if (t.pdg_ == 22) {
      histograms_.fill("truth_gamma_e", t.visible_e_);
      if (t.matched_) histograms_.fill("truth_gamma_e_matched", t.visible_e_);
    }
  }
 
  // diphoton mass of photon pairs from the same pi0
  if (!has_particles) return;
  auto pi0_parent = [&particles](int track_id) {
    auto it = particles.find(track_id);
    if (it == particles.end() || it->second.getParents().empty()) return -1;
    int parent = it->second.getParents()[0];
    auto pit = particles.find(parent);
    if (pit == particles.end() || pit->second.getPdgID() != 111) return -1;
    return parent;
  };
  for (size_t a = 0; a < cands.size(); a++) {
    if (cands[a].getPdgId() != 22 || cand_truth[a] < 0) continue;
    int pa = pi0_parent(truth[cand_truth[a]].track_id_);
    if (pa < 0) continue;
    for (size_t b = a + 1; b < cands.size(); b++) {
      if (cands[b].getPdgId() != 22 || cand_truth[b] < 0) continue;
      if (pi0_parent(truth[cand_truth[b]].track_id_) != pa) continue;
      auto d1 = direction(cands[a]);
      auto d2 = direction(cands[b]);
      double cos12 = d1[0] * d2[0] + d1[1] * d2[1] + d1[2] * d2[2];
      double m2 = 2 * cands[a].getEnergy() * cands[b].getEnergy() * (1 - cos12);
      histograms_.fill("mgg_pi0_matched", std::sqrt(std::max(0., m2)));
    }
  }
  // truth pi0 photons entering the Ecal, for the pair efficiency
  std::map<int, std::vector<int>> pi0_photons;
  for (size_t j = 0; j < truth.size(); j++) {
    if (truth[j].pdg_ != 22) continue;
    int pa = pi0_parent(truth[j].track_id_);
    if (pa >= 0) pi0_photons[pa].push_back(j);
  }
  for (const auto& [pa, photons] : pi0_photons) {
    histograms_.fill("truth_pi0_photons_in_ecal", photons.size());
    if (photons.size() < 2) continue;
    // pi0 row of the neutral matrix, both photons at the Ecal face
    int n_gamma = 0, n_h0 = 0, n_seen = 0;
    for (int j : photons) {
      int c = truth_cand[j];
      n_seen += c >= 0 || seen[j];
      if (c < 0) continue;
      int r_type = pfType(cands[c].getPdgId());
      n_gamma += r_type == kPFGamma;
      n_h0 += r_type == kPFH0;
    }
    int col = n_seen > 0 ? 3 : 4;
    if (n_gamma >= 2)
      col = 2;
    else if (n_h0 > 0)
      col = 0;
    else if (n_gamma == 1)
      col = 1;
    histograms_.fill("neutral_confusion", 6, col);
    const auto& pi0 = particles.at(pa);
    double pi0_ke = pi0.getEnergy() - pi0.getMass();
    double pi0_theta = std::acos(
        pi0.getMomentum()[2] /
        std::max(1e-9, std::hypot(pi0.getMomentum()[0], pi0.getMomentum()[1],
                                  pi0.getMomentum()[2])));
    if (pi0_ke > reco_min_ke_pi0_ &&
        pi0_theta < reco_max_theta_ * M_PI / 180.) {
      histograms_.fill("neutral_confusion_reconstructable", 6, col);
    }
  }
}

◆ configure()

void dqm::ParticleFlowDQM::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 166 of file ParticleFlowDQM.cxx.

                                                             {
  pf_cand_coll_name_ = ps.get<std::string>("pf_cand_coll_name");
  pf_cand_pass_name_ = ps.get<std::string>("pf_cand_pass_name");
  ecal_sp_coll_name_ = ps.get<std::string>("ecal_sp_coll_name");
  ecal_sp_pass_name_ = ps.get<std::string>("ecal_sp_pass_name");
  sim_particles_coll_name_ = ps.get<std::string>("sim_particles_coll_name");
  sim_particles_pass_name_ = ps.get<std::string>("sim_particles_pass_name");
  truth_min_energy_ = ps.get<double>("truth_min_energy");
  neutral_match_dist_ = ps.get<double>("neutral_match_dist");
  neutral_match_max_ratio_ = ps.get<double>("neutral_match_max_ratio");
  neutral_hcal_match_angle_ = ps.get<double>("neutral_hcal_match_angle");
  reco_max_theta_ = ps.get<double>("reco_max_theta");
  reco_min_p_pion_ = ps.get<double>("reco_min_p_pion");
  reco_min_p_heavy_ = ps.get<double>("reco_min_p_heavy");
  reco_min_ke_neutral_ = ps.get<double>("reco_min_ke_neutral");
  reco_min_ke_pi0_ = ps.get<double>("reco_min_ke_pi0");
  ecal_back_z_ = ps.get<double>("ecal_back_z");
  ecal_half_xy_ = ps.get<double>("ecal_half_xy");
  hcal_max_z_ = ps.get<double>("hcal_max_z");
  hcal_max_xy_ = ps.get<double>("hcal_max_xy");
}

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

◆ interactionRegion()

int dqm::ParticleFlowDQM::interactionRegion ( const std::vector< double > & end ) const

private

Definition at line 155 of file ParticleFlowDQM.cxx.

                                                                         {
  double x = std::abs(end[0]), y = std::abs(end[1]), z = end[2];
  if (x > hcal_max_xy_ || y > hcal_max_xy_ || z > hcal_max_z_ || z < 0)
    return kNoInteraction;
  if (z < ecal_back_z_) {
    return (x < ecal_half_xy_ && y < ecal_half_xy_) ? kRegionEcal
                                                    : kRegionSideHcal;
  }
  return kRegionBackHcal;
}

◆ reconstructable()

bool dqm::ParticleFlowDQM::reconstructable	(	int	pdg,
		double	px,
		double	py,
		double	pz,
		double	ke ) const

private

Definition at line 136 of file ParticleFlowDQM.cxx.

                                                       {
  double p = std::hypot(px, py, pz);
  if (p <= 0 || std::acos(pz / p) > reco_max_theta_ * M_PI / 180.) return false;
  switch (category(pdg)) {
    case kPi:
      return p > reco_min_p_pion_;
    case kK:
    case kP:
      return p > reco_min_p_heavy_;
    case kNHad:
      return ke > reco_min_ke_neutral_;
    default:
      return true;
  }
}

Member Data Documentation

◆ ecal_back_z_

double dqm::ParticleFlowDQM::ecal_back_z_ {760.}

private

Definition at line 59 of file ParticleFlowDQM.h.

59{760.};

◆ ecal_half_xy_

double dqm::ParticleFlowDQM::ecal_half_xy_ {300.}

private

Definition at line 60 of file ParticleFlowDQM.h.

60{300.};

◆ ecal_sp_coll_name_

std::string dqm::ParticleFlowDQM::ecal_sp_coll_name_ {"EcalScoringPlaneHits"}

private

Definition at line 38 of file ParticleFlowDQM.h.

38{"EcalScoringPlaneHits"};

◆ ecal_sp_pass_name_

std::string dqm::ParticleFlowDQM::ecal_sp_pass_name_ {""}

private

Definition at line 39 of file ParticleFlowDQM.h.

39{""};

◆ hcal_max_xy_

double dqm::ParticleFlowDQM::hcal_max_xy_ {1600.}

private

Definition at line 62 of file ParticleFlowDQM.h.

62{1600.};

◆ hcal_max_z_

double dqm::ParticleFlowDQM::hcal_max_z_ {4000.}

private

Definition at line 61 of file ParticleFlowDQM.h.

61{4000.};

◆ neutral_hcal_match_angle_

double dqm::ParticleFlowDQM::neutral_hcal_match_angle_ {30.}

private

Definition at line 49 of file ParticleFlowDQM.h.

49{30.};

◆ neutral_match_dist_

double dqm::ParticleFlowDQM::neutral_match_dist_ {30.}

private

Definition at line 45 of file ParticleFlowDQM.h.

45{30.};

◆ neutral_match_max_ratio_

double dqm::ParticleFlowDQM::neutral_match_max_ratio_ {2.}

private

Definition at line 47 of file ParticleFlowDQM.h.

47{2.};

◆ pf_cand_coll_name_

std::string dqm::ParticleFlowDQM::pf_cand_coll_name_ {"PFCandidates"}

private

Definition at line 36 of file ParticleFlowDQM.h.

36{"PFCandidates"};

◆ pf_cand_pass_name_

std::string dqm::ParticleFlowDQM::pf_cand_pass_name_ {""}

private

Definition at line 37 of file ParticleFlowDQM.h.

37{""};

◆ reco_max_theta_

double dqm::ParticleFlowDQM::reco_max_theta_ {80.}

private

Definition at line 52 of file ParticleFlowDQM.h.

52{80.};

◆ reco_min_ke_neutral_

double dqm::ParticleFlowDQM::reco_min_ke_neutral_ {1000.}

private

Definition at line 55 of file ParticleFlowDQM.h.

55{1000.};

◆ reco_min_ke_pi0_

double dqm::ParticleFlowDQM::reco_min_ke_pi0_ {2000.}

private

Definition at line 56 of file ParticleFlowDQM.h.

56{2000.};

◆ reco_min_p_heavy_

double dqm::ParticleFlowDQM::reco_min_p_heavy_ {800.}

private

Definition at line 54 of file ParticleFlowDQM.h.

54{800.};

◆ reco_min_p_pion_

double dqm::ParticleFlowDQM::reco_min_p_pion_ {100.}

private

Definition at line 53 of file ParticleFlowDQM.h.

53{100.};

◆ sim_particles_coll_name_

std::string dqm::ParticleFlowDQM::sim_particles_coll_name_ {"SimParticles"}

private

Definition at line 40 of file ParticleFlowDQM.h.

40{"SimParticles"};

◆ sim_particles_pass_name_

std::string dqm::ParticleFlowDQM::sim_particles_pass_name_ {""}

private

Definition at line 41 of file ParticleFlowDQM.h.

41{""};

◆ truth_min_energy_

double dqm::ParticleFlowDQM::truth_min_energy_ {50.}

private

Definition at line 43 of file ParticleFlowDQM.h.

43{50.};

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

DQM/include/DQM/ParticleFlowDQM.h
DQM/src/DQM/ParticleFlowDQM.cxx

Public Member Functions

Private Member Functions

Private Attributes

Additional Inherited Members

Detailed Description

Constructor & Destructor Documentation

◆ ParticleFlowDQM()

Member Function Documentation

◆ analyze()

◆ analyzeTruth()

◆ configure()

◆ interactionRegion()

◆ reconstructable()

Member Data Documentation

◆ ecal_back_z_

◆ ecal_half_xy_

◆ ecal_sp_coll_name_

◆ ecal_sp_pass_name_

◆ hcal_max_xy_

◆ hcal_max_z_

◆ neutral_hcal_match_angle_

◆ neutral_match_dist_

◆ neutral_match_max_ratio_

◆ pf_cand_coll_name_

◆ pf_cand_pass_name_

◆ reco_max_theta_

◆ reco_min_ke_neutral_

◆ reco_min_ke_pi0_

◆ reco_min_p_heavy_

◆ reco_min_p_pion_

◆ sim_particles_coll_name_

◆ sim_particles_pass_name_

◆ truth_min_energy_