CDCSVGPlotter.cc

/**************************************************************************
 * basf2 (Belle II Analysis Software Framework)                           *
 * Author: The Belle II Collaboration                                     *
 *                                                                        *
 * See git log for contributors and copyright holders.                    *
 * This file is licensed under LGPL-3.0, see LICENSE.md.                  *
 **************************************************************************/
#include <tracking/trackFindingCDC/display/CDCSVGPlotter.h>
#include <tracking/trackFindingCDC/display/SVGPrimitivePlotter.h>
#include <tracking/trackFindingCDC/display/Styling.h>
 
#include <tracking/trackFindingCDC/rootification/StoreWrappedObjPtr.h>
 
#include <tracking/trackFindingCDC/filters/axialSegmentPair/MCAxialSegmentPairFilter.h>
#include <tracking/trackFindingCDC/filters/segmentPair/MCSegmentPairFilter.h>
#include <tracking/trackFindingCDC/filters/segmentTriple/MCSegmentTripleFilter.h>
#include <tracking/trackFindingCDC/mclookup/CDCMCSegment2DLookUp.h>
 
#include <tracking/trackFindingCDC/eventdata/tracks/CDCTrack.h>
#include <tracking/trackFindingCDC/eventdata/tracks/CDCSegmentTriple.h>
#include <tracking/trackFindingCDC/eventdata/tracks/CDCAxialSegmentPair.h>
#include <tracking/trackFindingCDC/eventdata/tracks/CDCSegmentPair.h>
#include <tracking/trackFindingCDC/eventdata/segments/CDCSegment2D.h>
#include <tracking/trackFindingCDC/eventdata/segments/CDCWireHitCluster.h>
#include <tracking/trackFindingCDC/eventdata/hits/CDCWireHit.h>
 
#include <tracking/trackFindingCDC/geometry/Vector3D.h>
#include <tracking/trackFindingCDC/geometry/Vector2D.h>
 
#include <tracking/trackFindingCDC/utilities/ReversedRange.h>
 
#include <tracking/dataobjects/RecoTrack.h>
 
#include <framework/datastore/StoreArray.h>
 
#include <cdc/dataobjects/CDCSimHit.h>
#include <cdc/dataobjects/CDCHit.h>
 
#include <mdst/dataobjects/MCParticle.h>
 
#include <cmath>
 
// for std::ignore
#include <utility>
 
using namespace Belle2;
using namespace TrackFindingCDC;
 
namespace {
  template<bool a_drawTrajectory, class AObject>
  struct DrawTrajectoryHelper;
 
  template<class AObject>
  struct DrawTrajectoryHelper<true, AObject> {
  public:
    static void draw(EventDataPlotter& plotter, AObject& object, const AttributeMap& attributeMap)
    {
      plotter.drawTrajectory(object, attributeMap);
    }
  };
 
  template<class AObject>
  struct DrawTrajectoryHelper<false, AObject> {
  public:
    static void draw(EventDataPlotter& plotter, AObject& object, const AttributeMap& attributeMap)
    {
      plotter.draw(object, attributeMap);
    }
  };
}
 
namespace {
  class FlightTimeOrder {
  public:
    bool operator()(const CDCSimHit* x, const CDCSimHit* y) const
    {
      return (x->getFlightTime() < y->getFlightTime());
    }
  };
}
 
static void printDataStoreContent()
{
  B2INFO("Current content of the DataStore:");
  B2INFO("StoreArrays:");
  for (auto n : DataStore::Instance().getListOfArrays(TObject::Class(), DataStore::EDurability(0))) {
    B2INFO(n);
  }
  B2INFO("");
  B2INFO("StoreObjPtr:");
  for (auto n : DataStore::Instance().getListOfObjects(TObject::Class(), DataStore::EDurability(0))) {
    B2INFO(n);
  }
}
 
const AttributeMap c_defaultSVGAttributes({
  {"stroke", "orange"},
  {"stroke-width", "0.55"},
  {"fill", "none"},
  {"transform", "translate(0, 1120) scale(1,-1)"}
});
 
CDCSVGPlotter::CDCSVGPlotter(bool animate, bool forwardFade) :
  m_eventdataPlotter(std::make_unique<SVGPrimitivePlotter>(c_defaultSVGAttributes), animate, forwardFade)
{
  int top = -112;
  int left = -112;
  int right = 112;
  int bottom = 112;
 
  TrackFindingCDC::BoundingBox default_bound(left, bottom, right, top);
  int default_width = 1120;
  int default_height = 1120;
 
  m_eventdataPlotter.setBoundingBox(default_bound);
  m_eventdataPlotter.setCanvasHeight(default_height);
  m_eventdataPlotter.setCanvasWidth(default_width);
}
 
CDCSVGPlotter* CDCSVGPlotter::clone()
{
  return (new CDCSVGPlotter(*this));
}
 
void CDCSVGPlotter::drawInteractionPoint()
{
  m_eventdataPlotter.drawInteractionPoint();
}
 
void CDCSVGPlotter::drawSuperLayerBoundaries(const std::string& stroke)
{
  AttributeMap attributeMap;
  attributeMap.emplace("stroke", stroke);
  m_eventdataPlotter.drawSuperLayerBoundaries(attributeMap);
}
 
void CDCSVGPlotter::drawOuterCDCWall(const std::string& stroke)
{
  AttributeMap attributeMap;
  attributeMap.emplace("stroke", stroke);
  m_eventdataPlotter.drawOuterCDCWall(attributeMap);
}
 
void CDCSVGPlotter::drawInnerCDCWall(const std::string& stroke)
{
  AttributeMap attributeMap;
  attributeMap.emplace("stroke", stroke);
  m_eventdataPlotter.drawInnerCDCWall(attributeMap);
}
 
void CDCSVGPlotter::drawWires(const CDCWireTopology& cdcWireTopology)
{
  m_eventdataPlotter.draw(cdcWireTopology);
}
 
void CDCSVGPlotter::drawHits(const std::string& storeArrayName,
                             const std::string& stroke,
                             const std::string& strokeWidth)
{
  ChooseableHitStyling styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStrokeWidth(strokeWidth);
  drawStoreArray<const CDCHit>(storeArrayName, styling);
}
 
void CDCSVGPlotter::drawSimHits(const std::string& storeArrayName,
                                const std::string& stroke,
                                const std::string& strokeWidth)
{
  B2INFO("Drawing simulated hits");
  StoreArray<CDCHit> storeArray(storeArrayName);
  if (not storeArray) {
    B2WARNING("StoreArray " << storeArrayName << " not present");
    printDataStoreContent();
    return;
  }
  std::vector<CDCSimHit> simHitsRelatedToHits;
  for (const CDCHit& hit : storeArray) {
    simHitsRelatedToHits.push_back(*hit.getRelated<CDCSimHit>("CDCSimHits"));
  }
  B2INFO("#CDCSimHits: " << storeArray.getEntries());
  FixedStyling<const CDCSimHit> styling;
  if (stroke != "") {
    styling.setStroke("orange");
  } else {
    styling.setStroke(stroke);
  }
  styling.setStrokeWidth(strokeWidth);
  drawIterable(simHitsRelatedToHits, styling);
}
 
void CDCSVGPlotter::drawClusters(const std::string& storeObjName,
                                 const std::string& stroke,
                                 const std::string& strokeWidth)
{
  DefaultColorCycleStyling<const CDCWireHitCluster> styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStrokeWidth(strokeWidth);
  drawStoreVector<const CDCWireHitCluster>(storeObjName, styling);
}
 
void CDCSVGPlotter::drawSegments(const std::string& storeObjName,
                                 const std::string& stroke,
                                 const std::string& strokeWidth)
{
  ChooseableSegmentStyling styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStrokeWidth(strokeWidth);
  drawStoreVector<const CDCSegment2D>(storeObjName, styling);
}
 
void CDCSVGPlotter::drawSegmentTrajectories(const std::string& storeObjName,
                                            const std::string& stroke,
                                            const std::string& strokeWidth)
{
  FixedStyling<const CDCSegment2D> styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStrokeWidth(strokeWidth);
  const bool drawTrajectories = true;
  drawStoreVector<const CDCSegment2D, drawTrajectories>(storeObjName, styling);
}
 
void CDCSVGPlotter::drawAxialSegmentPairs(const std::string& storeObjName,
                                          const std::string& stroke,
                                          const std::string& strokeWidth)
{
  DefaultColorCycleStyling<const CDCAxialSegmentPair> styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStrokeWidth(strokeWidth);
  drawStoreVector<const CDCAxialSegmentPair>(storeObjName, styling);
}
 
void CDCSVGPlotter::drawSegmentPairs(const std::string& storeObjName,
                                     const std::string& stroke,
                                     const std::string& strokeWidth)
{
  DefaultColorCycleStyling<const CDCSegmentPair> styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStrokeWidth(strokeWidth);
  drawStoreVector<const CDCSegmentPair>(storeObjName, styling);
}
 
void CDCSVGPlotter::drawSegmentTriples(const std::string& storeObjName,
                                       const std::string& stroke,
                                       const std::string& strokeWidth)
{
  DefaultColorCycleStyling<const CDCSegmentTriple> styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStrokeWidth(strokeWidth);
  drawStoreVector<const CDCSegmentTriple>(storeObjName, styling);
}
 
void CDCSVGPlotter::drawSegmentTripleTrajectories(const std::string& storeObjName,
                                                  const std::string& stroke,
                                                  const std::string& strokeWidth)
{
  DefaultColorCycleStyling<const CDCSegmentTriple> styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStrokeWidth(strokeWidth);
  const bool drawTrajectories = true;
  drawStoreVector<const CDCSegmentTriple, drawTrajectories>(storeObjName, styling);
}
 
void CDCSVGPlotter::drawTracks(const std::string& storeObjName,
                               const std::string& stroke,
                               const std::string& strokeWidth)
{
  DefaultColorCycleStyling<const CDCTrack> styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStrokeWidth(strokeWidth);
  drawStoreVector<const CDCTrack>(storeObjName, styling);
}
 
void CDCSVGPlotter::drawTrackTrajectories(const std::string& storeObjName,
                                          const std::string& stroke,
                                          const std::string& strokeWidth)
{
  DefaultColorCycleStyling<const CDCTrack> styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStrokeWidth(strokeWidth);
  const bool drawTrajectories = true;
  drawStoreVector<const CDCTrack, drawTrajectories>(storeObjName, styling);
}
 
void CDCSVGPlotter::drawRecoTracks(const std::string& storeArrayName,
                                   const std::string& stroke,
                                   const std::string& strokeWidth)
{
  ChooseableRecoTrackStyling styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStrokeWidth(strokeWidth);
  drawStoreArray<const RecoTrack>(storeArrayName, styling);
}
 
void CDCSVGPlotter::drawRecoTrackTrajectories(const std::string& storeArrayName,
                                              const std::string& stroke,
                                              const std::string& strokeWidth)
{
  DefaultColorCycleStyling<const RecoTrack> styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStrokeWidth(strokeWidth);
  const bool drawTrajectories = true;
  drawStoreArray<const RecoTrack, drawTrajectories>(storeArrayName, styling);
}
 
void CDCSVGPlotter::drawMCParticleTrajectories(const std::string& storeArrayName,
                                               const std::string& stroke,
                                               const std::string& strokeWidth)
{
  DefaultColorCycleStyling<const MCParticle> styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStrokeWidth(strokeWidth);
  const bool drawTrajectories = true;
  drawStoreArray<const MCParticle, drawTrajectories>(storeArrayName, styling);
}
 
void CDCSVGPlotter::drawSimHitsConnectByToF(const std::string& hitStoreArrayName,
                                            const std::string& stroke,
                                            const std::string& strokeWidth)
{
  B2INFO("Drawing simulated hits connected by tof");
  StoreArray<CDCHit> hitStoreArray(hitStoreArrayName);
  if (not hitStoreArray) {
    B2WARNING("StoreArray " << hitStoreArrayName << " not present");
    printDataStoreContent();
    return;
  }
  std::vector<CDCSimHit*> simHits;
  for (const CDCHit& hit : hitStoreArray) {
    simHits.push_back(hit.getRelated<CDCSimHit>());
  }
 
  // group them by their mcparticle id
  std::map<int, std::set<CDCSimHit*, FlightTimeOrder>> simHitsByMcParticleId;
  for (CDCSimHit* simHit : simHits) {
    MCParticle* mcParticle = simHit->getRelated<MCParticle>();
    if (mcParticle != nullptr) {
      int mcTrackId = mcParticle->getArrayIndex();
      simHitsByMcParticleId[mcTrackId].insert(simHit);
    }
  }
 
  AttributeMap defaultAttributeMap = {{"stroke", stroke}, {"stroke-width", strokeWidth}};
 
  for (const auto& mcParticleIdAndSimHits : simHitsByMcParticleId) {
    const std::set<CDCSimHit*, FlightTimeOrder>& simHitsForMcParticle =
      mcParticleIdAndSimHits.second;
 
    auto drawConnectSimHits = [this, &defaultAttributeMap](CDCSimHit * fromSimHit, CDCSimHit * toSimHit) {
 
      CDCHit* fromHit = fromSimHit->getRelated<CDCHit>();
      CDCHit* toHit = toSimHit->getRelated<CDCHit>();
      if (fromHit == nullptr) return false;
      if (toHit == nullptr) return false;
 
      CDCWireHit fromWireHit(fromHit);
      CDCWireHit toWireHit(toHit);
 
      CDCRLWireHit fromRLWireHit(&fromWireHit);
      CDCRLWireHit toRLWireHit(&toWireHit);
 
      Vector3D fromDisplacement(fromSimHit->getPosTrack() - fromSimHit->getPosWire());
      Vector3D toDisplacement(toSimHit->getPosTrack() - toSimHit->getPosWire());
 
      CDCRecoHit2D fromRecoHit2D(fromRLWireHit, fromDisplacement.xy());
      CDCRecoHit2D toRecoHit2D(toRLWireHit, toDisplacement.xy());
 
      bool falseOrder = false;
      if (fromSimHit->getArrayIndex() > toSimHit->getArrayIndex()) {
        bool fromReassigned = fromHit->getRelatedWithWeight<MCParticle>().second < 0;
        bool toReassigned = toHit->getRelatedWithWeight<MCParticle>().second < 0;
        if (not fromReassigned and not toReassigned) {
          falseOrder = true;
        }
      }
 
      AttributeMap attributeMap = defaultAttributeMap;
      if (falseOrder) {
        attributeMap["stroke"] = "red";
        attributeMap["stroke-width"] = "1.0";
      }
      draw(fromRecoHit2D, attributeMap);
      draw(toRecoHit2D, attributeMap);
 
      const Vector2D fromPos = fromRecoHit2D.getRecoPos2D();
      const float fromX = fromPos.x();
      const float fromY = fromPos.y();
 
      const Vector2D toPos = toRecoHit2D.getRecoPos2D();
      const float toX = toPos.x();
      const float toY = toPos.y();
 
      m_eventdataPlotter.drawLine(fromX, fromY, toX, toY, attributeMap);
      return false;
    };
 
    std::ignore = std::adjacent_find(simHitsForMcParticle.begin(),
                                     simHitsForMcParticle.end(),
                                     drawConnectSimHits);
  }
}
 
void CDCSVGPlotter::drawWrongRLHitsInSegments(const std::string& segmentsStoreObjName)
{
  this->drawWrongRLHits<CDCSegment2D>(segmentsStoreObjName);
}
 
void CDCSVGPlotter::drawWrongRLHitsInTracks(const std::string& tracksStoreObjName)
{
  this->drawWrongRLHits<CDCTrack>(tracksStoreObjName);
}
 
// doxygen really doesn't like these templated functions so shut it down
// @cond doxygen_ignore
template<class ACDCHitCollection>
void CDCSVGPlotter::drawWrongRLHits(const std::string& hitCollectionsStoreObjName)
{
  B2INFO("Draw wrong right left passage information from " << hitCollectionsStoreObjName);
  StoreWrappedObjPtr<std::vector<ACDCHitCollection>> storedHitCollections(hitCollectionsStoreObjName);
  if (not storedHitCollections) {
    B2WARNING(hitCollectionsStoreObjName << "does not exist in current DataStore");
    printDataStoreContent();
    return;
  }
 
  std::vector<ACDCHitCollection>& hitCollections = *storedHitCollections;
  B2INFO("#HitCollections: " << hitCollections.size());
 
  const CDCMCHitCollectionLookUp<ACDCHitCollection> mcHitCollectionLookUp;
  const CDCMCHitLookUp& mcHitLookUp = CDCMCHitLookUp::getInstance();
 
  for (const ACDCHitCollection& hitCollection : hitCollections) {
    EForwardBackward fbInfo = mcHitCollectionLookUp.isForwardOrBackwardToMCTrack(&hitCollection);
 
    double rlPurity = mcHitCollectionLookUp.getRLPurity(&hitCollection);
    int correctRLVote = mcHitCollectionLookUp.getCorrectRLVote(&hitCollection);
 
    // Skip the impure alias
    if (rlPurity < 0.5 and hitCollection.getAutomatonCell().hasAliasFlag()) continue;
 
    // Skip the bad reverse
    if (correctRLVote < 0 and hitCollection.getAutomatonCell().hasReverseFlag()) continue;
 
    m_eventdataPlotter.startGroup();
    for (const auto& recoHit : hitCollection) {
      ERightLeft rlInfo = recoHit.getRLInfo();
      const CDCHit* hit = recoHit.getWireHit().getHit();
      ERightLeft mcRLInfo = mcHitLookUp.getRLInfo(hit);
 
      if (fbInfo == EForwardBackward::c_Backward) {
        mcRLInfo = reversed(mcRLInfo);
      }
 
      std::string color = "orange";
      if (mcRLInfo != ERightLeft::c_Right and mcRLInfo != ERightLeft::c_Left) {
        color = "violet";
      } else if (mcRLInfo == rlInfo) {
        color = "green";
      } else if (mcRLInfo == -rlInfo) {
        color = "red";
      }
 
      AttributeMap attributeMap{{"stroke", color}};
      m_eventdataPlotter.draw(recoHit, attributeMap);
    }
    m_eventdataPlotter.endGroup();
  }
}
// @endcond
 
void CDCSVGPlotter::drawMCAxialSegmentPairs(const std::string& segmentsStoreObjName,
                                            const std::string& stroke,
                                            const std::string& strokeWidth)
{
  B2INFO("Draw axial to axial segment pairs");
  StoreWrappedObjPtr<std::vector<CDCSegment2D>> storedSegments(segmentsStoreObjName);
  if (not storedSegments) {
    B2WARNING(segmentsStoreObjName << "does not exist in current DataStore");
    printDataStoreContent();
    return;
  }
 
  std::vector<CDCSegment2D>& segments = *storedSegments;
  B2INFO("#Segments: " << segments.size());
 
  std::vector<const CDCAxialSegment2D*> axialSegments;
  for (const CDCAxialSegment2D& segment : segments) {
    if (segment.isAxial()) axialSegments.push_back(&segment);
  }
 
  MCAxialSegmentPairFilter mcAxialSegmentPairFilter;
  std::vector<CDCAxialSegmentPair> mcAxialSegmentPairs;
  for (const CDCAxialSegment2D* fromSegment : axialSegments) {
    for (const CDCAxialSegment2D* toSegment : axialSegments) {
      if (fromSegment == toSegment) continue;
      mcAxialSegmentPairs.emplace_back(fromSegment, toSegment);
      Weight mcWeight = mcAxialSegmentPairFilter(mcAxialSegmentPairs.back());
      // Remove segment pairs that are not true
      if (std::isnan(mcWeight)) {
        mcAxialSegmentPairs.pop_back();
      }
    }
  }
  B2INFO("# Axial segment pairs: " << mcAxialSegmentPairs.size());
  FixedStyling<const CDCAxialSegmentPair> styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStroke(strokeWidth);
  drawIterable(mcAxialSegmentPairs, styling);
}
 
void CDCSVGPlotter::drawMCSegmentPairs(const std::string& segmentsStoreObjName,
                                       const std::string& stroke,
                                       const std::string& strokeWidth)
{
  B2INFO("Draw axial to stero segment pairs");
  StoreWrappedObjPtr<std::vector<CDCSegment2D>> storedSegments(segmentsStoreObjName);
  if (not storedSegments) {
    B2WARNING(segmentsStoreObjName << "does not exist in current DataStore");
    printDataStoreContent();
    return;
  }
 
  std::vector<CDCSegment2D>& segments = *storedSegments;
  B2INFO("#Segments: " << segments.size());
 
  std::vector<const CDCAxialSegment2D*> axialSegments;
  std::vector<const CDCStereoSegment2D*> stereoSegments;
  for (const CDCAxialSegment2D& segment : segments) {
    if (segment.isAxial()) {
      axialSegments.push_back(&segment);
    } else {
      stereoSegments.push_back(&segment);
    }
  }
 
  MCSegmentPairFilter mcSegmentPairFilter;
  std::vector<CDCSegmentPair> mcSegmentPairs;
  for (const CDCAxialSegment2D* axialSegment : axialSegments) {
    for (const CDCStereoSegment2D* stereoSegment : stereoSegments) {
      // Axial first
      {
        mcSegmentPairs.emplace_back(axialSegment, stereoSegment);
        Weight mcWeight = mcSegmentPairFilter(mcSegmentPairs.back());
        // Remove segment pairs that are not true
        if (std::isnan(mcWeight)) {
          mcSegmentPairs.pop_back();
        }
      }
      // Stereo first
      {
        mcSegmentPairs.emplace_back(stereoSegment, axialSegment);
        Weight mcWeight = mcSegmentPairFilter(mcSegmentPairs.back());
        // Remove segment pairs that are not true
        if (std::isnan(mcWeight)) {
          mcSegmentPairs.pop_back();
        }
      }
    }
  }
  B2INFO("# Segment pairs: " << mcSegmentPairs.size());
  FixedStyling<const CDCSegmentPair> styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStroke(strokeWidth);
  drawIterable(mcSegmentPairs, styling);
}
 
void CDCSVGPlotter::drawMCSegmentTriples(const std::string& segmentsStoreObjName,
                                         const std::string& stroke,
                                         const std::string& strokeWidth)
{
  B2INFO("Draw segment triples");
  StoreWrappedObjPtr<std::vector<CDCSegment2D>> storedSegments(segmentsStoreObjName);
  if (not storedSegments) {
    B2WARNING(segmentsStoreObjName << "does not exist in current DataStore");
    printDataStoreContent();
    return;
  }
 
  std::vector<CDCSegment2D>& segments = *storedSegments;
  B2INFO("#Segment " << segments.size());
 
  std::vector<const CDCAxialSegment2D*> axialSegments;
  std::vector<const CDCStereoSegment2D*> stereoSegments;
  for (const CDCSegment2D& segment : segments) {
    if (segment.isAxial()) {
      axialSegments.push_back(&segment);
    } else {
      stereoSegments.push_back(&segment);
    }
  }
 
  MCSegmentTripleFilter mcSegmentTripleFilter;
  std::vector<CDCSegmentTriple> mcSegmentTriples;
  for (const CDCAxialSegment2D* startSegment : axialSegments) {
    for (const CDCStereoSegment2D* middleSegment : stereoSegments) {
      for (const CDCAxialSegment2D* endSegment : axialSegments) {
        if (startSegment == endSegment) continue;
        mcSegmentTriples.emplace_back(startSegment, middleSegment, endSegment);
        Weight mcWeight = mcSegmentTripleFilter(mcSegmentTriples.back());
        // Remove segment pairs that are not true
        if (std::isnan(mcWeight)) {
          mcSegmentTriples.pop_back();
        }
      }
    }
  }
  B2INFO("# Segment triples: " << mcSegmentTriples.size());
  FixedStyling<const CDCSegmentTriple> styling;
  if (stroke != "") styling.setStroke(stroke);
  if (strokeWidth != "") styling.setStroke(strokeWidth);
  drawIterable(mcSegmentTriples, styling);
}
 
std::string CDCSVGPlotter::saveFile(const std::string& fileName)
{
  TrackFindingCDC::BoundingBox boundingBox = m_eventdataPlotter.getBoundingBox();
 
  float height = boundingBox.getHeight();
  float width = boundingBox.getWidth();
 
  int totalPoints = 1120 * 1120;
  float svgHeight = roundf(sqrt(totalPoints * height / width));
  float svgWidth = roundf(sqrt(totalPoints * width / height));
 
  m_eventdataPlotter.setCanvasHeight(svgHeight);
  m_eventdataPlotter.setCanvasWidth(svgWidth);
 
  return (m_eventdataPlotter.save(fileName));
}
 
// doxygen really doesn't like these templated functions so shut it down
// @cond doxygen_ignore
template <class AItem, bool a_drawTrajectories>
void CDCSVGPlotter::drawStoreArray(const std::string& storeArrayName,
                                   Styling<AItem>& styling)
{
  if (a_drawTrajectories) {
    B2INFO("Drawing trajectories from StoreArray: " << storeArrayName);
  } else {
    B2INFO("Drawing StoreArray: " << storeArrayName);
  }
 
  using StoreItem = typename std::remove_cv<AItem>::type;
  StoreArray<StoreItem> storeArray(storeArrayName);
  if (not storeArray) {
    B2WARNING(storeArrayName << " not present in the DataStore");
    printDataStoreContent();
    return;
  }
 
  B2INFO("with " << storeArray.getEntries() << " entries");
  drawIterable<a_drawTrajectories>(storeArray, styling);
  B2INFO("Attributes are");
  B2INFO(styling.info());
}
 
template <class AItem, bool a_drawTrajectories>
void CDCSVGPlotter::drawStoreVector(const std::string& storeObjName,
                                    Styling<AItem>& styling)
{
  if (a_drawTrajectories) {
    B2INFO("Drawing trajectories for vector from DataStore: " << storeObjName);
  } else {
    B2INFO("Drawing vector from DataStore: " << storeObjName);
  }
 
  using StoreItem = typename std::remove_cv<AItem>::type;
  StoreWrappedObjPtr<std::vector<StoreItem>> storeVector(storeObjName);
  if (not storeVector) {
    B2WARNING(storeObjName << " not present in the DataStore");
    B2INFO("Current content of the DataStore:");
    printDataStoreContent();
    return;
  }
 
  const std::vector<StoreItem>& vector = *storeVector;
  B2INFO("with " << vector.size() << " entries");
  drawIterable<a_drawTrajectories>(reversedRange(vector), styling);
  B2INFO("Attributes are");
  B2INFO(styling.info());
}
 
template <bool a_drawTrajectory, class AIterable, class AStyling>
void CDCSVGPlotter::drawIterable(const AIterable& items, AStyling& styling)
{
  unsigned int index = -1;
  for (const auto& item : items) {
 
    ++index;
    AttributeMap attributeMap = styling.map(index, item);
    draw<a_drawTrajectory>(item, attributeMap);
  }
}
 
template <bool a_drawTrajectory, class AObject>
void CDCSVGPlotter::draw(const AObject& object, const AttributeMap& attributeMap)
{
  DrawTrajectoryHelper<a_drawTrajectory, const AObject>::draw(m_eventdataPlotter,
                                                              object,
                                                              attributeMap);
}
// @endcond