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Commit 237a393a authored by Whitney Armstrong's avatar Whitney Armstrong Committed by Sylvester Joosten
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Acts 8 update

parent d1c055eb
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JugTrack/CMakeLists.txt
View file @ 237a393a
......@@ -33,8 +33,8 @@ gaudi_add_module(JugTrackPlugins
src/components/TrackerSourcesLinker.cpp
src/components/TrackFindingAlgorithm.cpp
src/components/TrackFindingAlgorithmFunction.cpp
#src/components/TrackFittingAlgorithm.cpp
#src/components/TrackFittingFunction.cpp
src/components/TrackFittingAlgorithm.cpp
src/components/TrackFittingFunction.cpp
src/components/TestACTSLogger.cpp
src/components/TrackParamTruthInit.cpp
src/components/TrackParamClusterInit.cpp
......
JugTrack/JugTrack/SimMultiTrajectory.hpp deleted 100644 → 0
View file @ d1c055eb
// This file is part of the Acts project.
//
// Copyright (C) 2019 CERN for the benefit of the Acts project
//
// This Source Code Form is subject to the terms of the Mozilla Public
// License, v. 2.0. If a copy of the MPL was not distributed with this
// file, You can obtain one at http://mozilla.org/MPL/2.0/.
#pragma once
//#include "ACTFW/Validation/ProtoTrackClassification.hpp"
#include "Acts/EventData/MultiTrajectory.hpp"
#include "Acts/EventData/TrackParameters.hpp"
#include "JugTrack/IndexSourceLink.hpp"
#include <unordered_map>
#include <utility>
namespace Jug {
/// Associate a particle to its hit count within a proto track.
struct ParticleHitCount {
uint64_t particleId;
std::size_t hitCount;
};
using IndexedParams = std::unordered_map<size_t, Acts::BoundTrackParameters>;
/// @brief Struct for truth track fitting/finding result with
/// Acts::KalmanFitter/Acts::CombinatorialKalmanFilter
///
/// It contains a MultiTrajectory with a vector of entry indices for individual
/// trajectories, and a map of fitted parameters indexed by the entry index.
/// In case of track fitting, there is at most one trajectory in the
/// MultiTrajectory; In case of track finding, there could be multiple
/// trajectories in the MultiTrajectory.
///
/// @note The MultiTrajectory is thought to be empty if there is no entry index
struct SimMultiTrajectory {
public:
/// @brief Default constructor
///
SimMultiTrajectory() = default;
/// @brief Constructor from multiTrajectory and fitted track parameters
///
/// @param multiTraj The multiTrajectory
/// @param tTips The entry indices for trajectories in multiTrajectory
/// @param parameters The fitted track parameters indexed by trajectory entry
/// index
SimMultiTrajectory(const Acts::MultiTrajectory<IndexSourceLink>& multiTraj,
const std::vector<size_t>& tTips,
const IndexedParams& parameters)
: m_multiTrajectory(multiTraj),
m_trackTips(tTips),
m_trackParameters(parameters) {}
/// @brief Copy constructor
///
/// @param rhs The source SimMultiTrajectory
SimMultiTrajectory(const SimMultiTrajectory& rhs)
: m_multiTrajectory(rhs.m_multiTrajectory),
m_trackTips(rhs.m_trackTips),
m_trackParameters(rhs.m_trackParameters) {}
/// @brief Copy move constructor
///
/// @param rhs The source SimMultiTrajectory
SimMultiTrajectory(SimMultiTrajectory&& rhs)
: m_multiTrajectory(std::move(rhs.m_multiTrajectory)),
m_trackTips(std::move(rhs.m_trackTips)),
m_trackParameters(std::move(rhs.m_trackParameters)) {}
/// @brief Default destructor
///
~SimMultiTrajectory() = default;
/// @brief assignment operator
///
/// @param rhs The source SimMultiTrajectory
SimMultiTrajectory& operator=(const SimMultiTrajectory& rhs) {
m_multiTrajectory = rhs.m_multiTrajectory;
m_trackTips = rhs.m_trackTips;
m_trackParameters = rhs.m_trackParameters;
return *this;
}
/// @brief assignment move operator
///
/// @param rhs The source SimMultiTrajectory
SimMultiTrajectory& operator=(SimMultiTrajectory&& rhs) {
m_multiTrajectory = std::move(rhs.m_multiTrajectory);
m_trackTips = std::move(rhs.m_trackTips);
m_trackParameters = std::move(rhs.m_trackParameters);
return *this;
}
/// @brief Indicator if a trajectory exists
///
/// @param entryIndex The trajectory entry index
///
/// @return Whether there is trajectory with provided entry index
bool hasTrajectory(const size_t& entryIndex) const {
return std::count(m_trackTips.begin(), m_trackTips.end(), entryIndex) > 0;
}
/// @brief Indicator if there is fitted track parameters for one trajectory
///
/// @param entryIndex The trajectory entry index
///
/// @return Whether having fitted track parameters or not
bool hasTrackParameters(const size_t& entryIndex) const {
return m_trackParameters.count(entryIndex) > 0;
}
/// @brief Getter for multiTrajectory
///
/// @return The multiTrajectory with trajectory entry indices
///
/// @note It could return an empty multiTrajectory
std::pair<std::vector<size_t>, Acts::MultiTrajectory<IndexSourceLink>>
trajectory() const {
return std::make_pair(m_trackTips, m_multiTrajectory);
}
/// @brief Getter of fitted track parameters for one trajectory
///
/// @param entryIndex The trajectory entry index
///
/// @return The fitted track parameters of the trajectory
const Acts::BoundTrackParameters& trackParameters(const size_t& entryIndex) const {
auto it = m_trackParameters.find(entryIndex);
if (it != m_trackParameters.end()) {
return it->second;
} else {
throw std::runtime_error(
"No fitted track parameters for trajectory with entry index = " +
std::to_string(entryIndex));
}
}
/// @brief Counter of associated truth particles for one trajectory
///
/// @param entryIndex The trajectory entry index
///
/// @return The truth particle counts in ascending order
std::vector<ParticleHitCount> identifyMajorityParticle(
const size_t& entryIndex) const;
private:
// The multiTrajectory
Acts::MultiTrajectory<IndexSourceLink> m_multiTrajectory;
// The entry indices of trajectories stored in multiTrajectory
std::vector<size_t> m_trackTips = {};
// The fitted parameters at the provided surface for individual trajectories
IndexedParams m_trackParameters = {};
};
} // namespace FW
JugTrack/JugTrack/Track.hpp
View file @ 237a393a
// This file is part of the Acts project.
//
// Copyright (C) 2019 CERN for the benefit of the Acts project
// Copyright (C) 2019-2020 CERN for the benefit of the Acts project
//
// This Source Code Form is subject to the terms of the Mozilla Public
// License, v. 2.0. If a copy of the MPL was not distributed with this
// file, You can obtain one at http://mozilla.org/MPL/2.0/.
/// @file
/// @brief All track-related shared types.
#pragma once
#include "JugTrack/SimMultiTrajectory.hpp"
//#include "ACTFW/EventData/SimSourceLink.hpp"
#include "Acts/EventData/MultiTrajectory.hpp"
#include "Acts/EventData/TrackParameters.hpp"
#include "JugTrack/IndexSourceLink.hpp"
#include <vector>
namespace Jug {
/// (Reconstructed) track parameters e.g. close to the vertex.
using TrackParameters = ::Acts::BoundTrackParameters;
/// Container of reconstructed track states for multiple tracks.
using TrackParametersContainer = std::vector<TrackParameters>;
/// MultiTrajectory definition
using Trajectory = Acts::MultiTrajectory<IndexSourceLink>;
/// Container for the truth fitting/finding track(s)
using TrajectoryContainer = std::vector<SimMultiTrajectory>;
/// (Reconstructed) track parameters e.g. close to the vertex.
using TrackParameters = ::Acts::BoundTrackParameters;
/// Container of reconstructed track states for multiple tracks.
using TrackParametersContainer = std::vector<TrackParameters>;
} // namespace Jug
} // namespace ActsExamples
JugTrack/JugTrack/Trajectories.hpp 0 → 100644
View file @ 237a393a
#ifndef JugTrack_Trajectories_HH
#define JugTrack_Trajectories_HH
#include "Acts/EventData/MultiTrajectory.hpp"
#include "JugTrack/IndexSourceLink.hpp"
#include "JugTrack/Track.hpp"
#include <algorithm>
#include <unordered_map>
#include <vector>
namespace Jug {
/// Store reconstructed trajectories from track finding/fitting.
///
/// It contains a MultiTrajectory with a vector of entry indices for
/// individual trajectories, and a map of fitted parameters indexed by the
/// entry index. In case of track fitting, there is at most one trajectory
/// in the MultiTrajectory; In case of track finding, there could be
/// multiple trajectories in the MultiTrajectory.
struct Trajectories final {
public:
/// (Reconstructed) trajectory with multiple states.
using MultiTrajectory = ::Acts::MultiTrajectory<IndexSourceLink>;
/// Fitted parameters identified by indices in the multi trajectory.
using IndexedParameters = std::unordered_map<size_t, TrackParameters>;
/// Default construct an empty object. Required for container compatibility
/// and to signal an error.
Trajectories() = default;
/// Construct from fitted multi trajectory and parameters.
///
/// @param multiTraj The multi trajectory
/// @param tTips Tip indices that identify valid trajectories
/// @param parameters Fitted track parameters indexed by trajectory index
Trajectories(const MultiTrajectory& multiTraj,
const std::vector<size_t>& tTips,
const IndexedParameters& parameters)
: m_multiTrajectory(multiTraj),
m_trackTips(tTips),
m_trackParameters(parameters) {}
/// Return true if there exists no valid trajectory.
bool empty() const { return m_trackTips.empty(); }
/// Access the underlying multi trajectory.
const MultiTrajectory& multiTrajectory() const { return m_multiTrajectory; }
/// Access the tip indices that identify valid trajectories.
const std::vector<size_t>& tips() const { return m_trackTips; }
/// Check if a trajectory exists for the given index.
///
/// @param entryIndex The trajectory entry index
/// @return Whether there is trajectory with provided entry index
bool hasTrajectory(size_t entryIndex) const {
return (0 < std::count(m_trackTips.begin(), m_trackTips.end(), entryIndex));
}
/// Check if fitted track parameters exists for the given index.
///
/// @param entryIndex The trajectory entry index
/// @return Whether having fitted track parameters or not
bool hasTrackParameters(size_t entryIndex) const {
return (0 < m_trackParameters.count(entryIndex));
}
/// Access the fitted track parameters for the given index.
///
/// @param entryIndex The trajectory entry index
/// @return The fitted track parameters of the trajectory
const TrackParameters& trackParameters(size_t entryIndex) const {
auto it = m_trackParameters.find(entryIndex);
if (it == m_trackParameters.end()) {
throw std::runtime_error(
"No fitted track parameters for trajectory with entry index = " +
std::to_string(entryIndex));
}
return it->second;
}
private:
// The multiTrajectory
MultiTrajectory m_multiTrajectory;
// The entry indices of trajectories stored in multiTrajectory
std::vector<size_t> m_trackTips = {};
// The fitted parameters at the provided surface for individual trajectories
IndexedParameters m_trackParameters = {};
};
/// Container for multiple trajectories.
using TrajectoriesContainer = std::vector<Trajectories>;
} // namespace Jug
#endif
JugTrack/src/components/ParticlesFromTrackFit.cpp
View file @ 237a393a
......@@ -24,6 +24,7 @@
#include "eicd/TrackParametersCollection.h"
#include "JugTrack/IndexSourceLink.hpp"
#include "JugTrack/Track.hpp"
#include "JugTrack/Trajectories.hpp"
#include "Acts/Utilities/Helpers.hpp"
......@@ -37,7 +38,7 @@ namespace Jug {
class ParticlesFromTrackFit : public GaudiAlgorithm {
public:
//DataHandle<eic::RawTrackerHitCollection> m_inputHitCollection{"inputHitCollection", Gaudi::DataHandle::Reader, this};
DataHandle<TrajectoryContainer> m_inputTrajectories{"inputTrajectories", Gaudi::DataHandle::Reader, this};
DataHandle<TrajectoriesContainer> m_inputTrajectories{"inputTrajectories", Gaudi::DataHandle::Reader, this};
DataHandle<eic::ParticleCollection> m_outputParticles{"outputParticles", Gaudi::DataHandle::Writer, this};
DataHandle<eic::TrackParametersCollection> m_outputTrackParameters{"outputTrackParameters", Gaudi::DataHandle::Writer, this};
......@@ -58,92 +59,105 @@ namespace Jug {
StatusCode execute() override {
// input collection
const TrajectoryContainer* trajectories = m_inputTrajectories.get();
const TrajectoriesContainer* trajectories = m_inputTrajectories.get();
// create output collections
auto rec_parts = m_outputParticles.createAndPut();
auto track_pars = m_outputTrackParameters.createAndPut();
debug() << std::size(*trajectories) << " trajectories " << endmsg;
for(const auto& traj : *trajectories) {
//traj.trajectory().first
const auto& [trackTips, mj] = traj.trajectory();
if (trackTips.empty()) {
debug() << "Empty multiTrajectory." << endmsg;
continue;
}
// Get the entry index for the single trajectory
auto& trackTip = trackTips.front();
// Collect the trajectory summary info
auto trajState = Acts::MultiTrajectoryHelpers::trajectoryState(mj, trackTip);
int m_nMeasurements = trajState.nMeasurements;
int m_nStates = trajState.nStates;
// Get the fitted track parameter
bool m_hasFittedParams = false;
if (traj.hasTrackParameters(trackTip)) {
m_hasFittedParams = true;
const auto& boundParam = traj.trackParameters(trackTip);
const auto& parameter = boundParam.parameters();
const auto& covariance = *boundParam.covariance();
debug() << "loc 0 = " << parameter[Acts::eBoundLoc0] << endmsg;
debug() << "loc 1 = " << parameter[Acts::eBoundLoc1] << endmsg;
debug() << "phi = " << parameter[Acts::eBoundPhi] << endmsg;
debug() << "theta = " << parameter[Acts::eBoundTheta] << endmsg;
debug() << "q/p = " << parameter[Acts::eBoundQOverP] << endmsg;
debug() << "p = " << 1.0/parameter[Acts::eBoundQOverP] << endmsg;
debug() << "err phi = " << sqrt(covariance(Acts::eBoundPhi, Acts::eBoundPhi)) << endmsg;
debug() << "err th = " << sqrt(covariance(Acts::eBoundTheta, Acts::eBoundTheta)) << endmsg;
debug() << "err q/p = " << sqrt(covariance(Acts::eBoundQOverP, Acts::eBoundQOverP))<< endmsg;
debug() << " chi2 = " << trajState.chi2Sum << endmsg;
eic::TrackParameters pars({
parameter[Acts::eBoundLoc0], parameter[Acts::eBoundLoc1], parameter[Acts::eBoundPhi],
parameter[Acts::eBoundTheta], parameter[Acts::eBoundQOverP],parameter[Acts::eBoundTime],
sqrt(covariance(Acts::eBoundLoc0, Acts::eBoundLoc0)), sqrt(covariance(Acts::eBoundLoc1, Acts::eBoundLoc1)),
sqrt(covariance(Acts::eBoundPhi, Acts::eBoundPhi)), sqrt(covariance(Acts::eBoundTheta, Acts::eBoundTheta)),
sqrt(covariance(Acts::eBoundQOverP, Acts::eBoundQOverP)),sqrt(covariance(Acts::eBoundTime, Acts::eBoundTime))});
track_pars->push_back(pars);
//m_ePHI_fit = parameter[Acts::eBoundPhi];
//m_eTHETA_fit = parameter[Acts::eBoundTheta];
//m_eQOP_fit = parameter[Acts::eBoundQOverP];
//m_eT_fit = parameter[Acts::eBoundTime];
//m_err_eLOC0_fit = sqrt(covariance(Acts::eBoundLoc0, Acts::eBoundLoc0));
//m_err_eLOC1_fit = sqrt(covariance(Acts::eBoundLoc1, Acts::eBoundLoc1));
//m_err_ePHI_fit = sqrt(covariance(Acts::eBoundPhi, Acts::eBoundPhi));
//m_err_eTHETA_fit = sqrt(covariance(Acts::eBoundTheta, Acts::eBoundTheta));
//m_err_eQOP_fit = sqrt(covariance(Acts::eBoundQOverP, Acts::eBoundQOverP));
//m_err_eT_fit = sqrt(covariance(Acts::eBoundTime, Acts::eBoundTime));
}
// Loop over the trajectories
for (size_t itraj = 0; itraj < trajectories->size(); ++itraj) {
const auto& traj = (*trajectories)[itraj];
auto tsize = traj.trajectory().first.size();
debug() << "# fitted parameters : " << tsize << endmsg;
if(tsize == 0 ) continue;
traj.trajectory().second.visitBackwards(tsize-1, [&](auto&& trackstate) {
//debug() << trackstate.hasPredicted() << endmsg;
//debug() << trackstate.predicted() << endmsg;
auto params = trackstate.predicted() ;//<< endmsg;
double p0 = (1.0 / params[Acts::eBoundQOverP]) / Acts::UnitConstants::GeV;
debug() << "track predicted p = " << p0 << " GeV" << endmsg;
if ( std::abs(p0) > 500) {
debug() << "skipping" << endmsg;
return;
// Get the entry index for the single trajectory
// The trajectory entry indices and the multiTrajectory
const auto& mj = traj.multiTrajectory();
const auto& trackTips = traj.tips();
if (trackTips.empty()) {
debug() << "Empty multiTrajectory." << endmsg;
continue;
}
eic::Particle p({params[Acts::eBoundPhi], params[Acts::eBoundTheta], 1.0 / std::abs(params[Acts::eBoundQOverP]), 0.000511},
{0.0, 0.0, 0.0, params[Acts::eBoundTime]},
(long long)11 * params[Acts::eBoundQOverP] / std::abs(params[Acts::eBoundQOverP]), 0);
//debug() << p << endmsg;
rec_parts->push_back(p);
});
auto& trackTip = trackTips.front();
// Collect the trajectory summary info
auto trajState = Acts::MultiTrajectoryHelpers::trajectoryState(mj, trackTip);
int m_nMeasurements = trajState.nMeasurements;
int m_nStates = trajState.nStates;
// Get the fitted track parameter
bool m_hasFittedParams = false;
if (traj.hasTrackParameters(trackTip)) {
m_hasFittedParams = true;
const auto& boundParam = traj.trackParameters(trackTip);
const auto& parameter = boundParam.parameters();
const auto& covariance = *boundParam.covariance();
debug() << "loc 0 = " << parameter[Acts::eBoundLoc0] << endmsg;
debug() << "loc 1 = " << parameter[Acts::eBoundLoc1] << endmsg;
debug() << "phi = " << parameter[Acts::eBoundPhi] << endmsg;
debug() << "theta = " << parameter[Acts::eBoundTheta] << endmsg;
debug() << "q/p = " << parameter[Acts::eBoundQOverP] << endmsg;
debug() << "p = " << 1.0 / parameter[Acts::eBoundQOverP] << endmsg;
debug() << "err phi = " << sqrt(covariance(Acts::eBoundPhi, Acts::eBoundPhi)) << endmsg;
debug() << "err th = " << sqrt(covariance(Acts::eBoundTheta, Acts::eBoundTheta))
<< endmsg;
debug() << "err q/p = " << sqrt(covariance(Acts::eBoundQOverP, Acts::eBoundQOverP))
<< endmsg;
debug() << " chi2 = " << trajState.chi2Sum << endmsg;
eic::TrackParameters pars({parameter[Acts::eBoundLoc0], parameter[Acts::eBoundLoc1],
parameter[Acts::eBoundPhi], parameter[Acts::eBoundTheta],
parameter[Acts::eBoundQOverP], parameter[Acts::eBoundTime],
sqrt(covariance(Acts::eBoundLoc0, Acts::eBoundLoc0)),
sqrt(covariance(Acts::eBoundLoc1, Acts::eBoundLoc1)),
sqrt(covariance(Acts::eBoundPhi, Acts::eBoundPhi)),
sqrt(covariance(Acts::eBoundTheta, Acts::eBoundTheta)),
sqrt(covariance(Acts::eBoundQOverP, Acts::eBoundQOverP)),
sqrt(covariance(Acts::eBoundTime, Acts::eBoundTime))});
track_pars->push_back(pars);
// m_ePHI_fit = parameter[Acts::eBoundPhi];
// m_eTHETA_fit = parameter[Acts::eBoundTheta];
// m_eQOP_fit = parameter[Acts::eBoundQOverP];
// m_eT_fit = parameter[Acts::eBoundTime];
// m_err_eLOC0_fit = sqrt(covariance(Acts::eBoundLoc0, Acts::eBoundLoc0));
// m_err_eLOC1_fit = sqrt(covariance(Acts::eBoundLoc1, Acts::eBoundLoc1));
// m_err_ePHI_fit = sqrt(covariance(Acts::eBoundPhi, Acts::eBoundPhi));
// m_err_eTHETA_fit = sqrt(covariance(Acts::eBoundTheta, Acts::eBoundTheta));
// m_err_eQOP_fit = sqrt(covariance(Acts::eBoundQOverP, Acts::eBoundQOverP));
// m_err_eT_fit = sqrt(covariance(Acts::eBoundTime, Acts::eBoundTime));
}
auto tsize = trackTips.size();
debug() << "# fitted parameters : " << tsize << endmsg;
if (tsize == 0)
continue;
mj.visitBackwards(tsize - 1, [&](auto&& trackstate) {
// debug() << trackstate.hasPredicted() << endmsg;
// debug() << trackstate.predicted() << endmsg;
auto params = trackstate.predicted(); //<< endmsg;
double p0 = (1.0 / params[Acts::eBoundQOverP]) / Acts::UnitConstants::GeV;
debug() << "track predicted p = " << p0 << " GeV" << endmsg;
if (std::abs(p0) > 500) {
debug() << "skipping" << endmsg;
return;
}
eic::Particle p({params[Acts::eBoundPhi], params[Acts::eBoundTheta],
1.0 / std::abs(params[Acts::eBoundQOverP]), 0.000511},
{0.0, 0.0, 0.0, params[Acts::eBoundTime]},
(long long)11 * params[Acts::eBoundQOverP] /
std::abs(params[Acts::eBoundQOverP]),
0);
// debug() << p << endmsg;
rec_parts->push_back(p);
});
}
return StatusCode::SUCCESS;
}
......
JugTrack/src/components/TrackFindingAlgorithm.cpp
View file @ 237a393a
......@@ -47,6 +47,7 @@
#include <random>
#include <stdexcept>
namespace Jug::Reco {
using namespace Acts::UnitLiterals;
......
JugTrack/src/components/TrackFindingAlgorithm.h
View file @ 237a393a
......@@ -21,6 +21,7 @@
#include "JugTrack/IndexSourceLink.hpp"
#include "JugTrack/Measurement.hpp"
#include "JugTrack/Track.hpp"
#include "JugTrack/Trajectories.hpp"
#include "eicd/TrackerHitCollection.h"
......@@ -59,7 +60,7 @@ namespace Jug::Reco {
Gaudi::DataHandle::Reader, this};
DataHandle<TrackParametersContainer> m_inputInitialTrackParameters{
"inputInitialTrackParameters", Gaudi::DataHandle::Reader, this};
DataHandle<TrajectoryContainer> m_outputTrajectories{"outputTrajectories",
DataHandle<TrajectoriesContainer> m_outputTrajectories{"outputTrajectories",
Gaudi::DataHandle::Writer, this};
TrackFinderFunction m_trackFinderFunc;
SmartIF<IGeoSvc> m_geoSvc;
......
JugTrack/src/components/TrackFittingAlgorithm.cpp
View file @ 237a393a
......@@ -30,11 +30,10 @@
#include "JugBase/DataHandle.h"
#include "JugBase/IGeoSvc.h"
#include "JugTrack/GeometryContainers.hpp"
#include "JugTrack/SourceLinks.h"
#include "JugTrack/IndexSourceLink.hpp"
#include "JugTrack/Track.hpp"
#include "JugTrack/BField.h"
#include "JugTrack/Measurement.hpp"
#include "JugTrack/SourceLinks.h"
#include "eicd/TrackerHitCollection.h"
......@@ -53,6 +52,7 @@ namespace Jug::Reco {
{
declareProperty("inputSourceLinks", m_inputSourceLinks, "");
declareProperty("initialTrackParameters", m_initialTrackParameters, "");
declareProperty("inputMeasurements", m_inputMeasurements, "");
declareProperty("foundTracks", m_foundTracks, "");
declareProperty("outputTrajectories", m_outputTrajectories, "");
}
......@@ -80,8 +80,9 @@ namespace Jug::Reco {
StatusCode TrackFittingAlgorithm::execute()
{
// Read input data
const SourceLinkContainer* src_links = m_inputSourceLinks.get();
const IndexSourceLinkContainer* src_links = m_inputSourceLinks.get();
const TrackParametersContainer* init_trk_params = m_initialTrackParameters.get();
const MeasurementContainer* measurements = m_inputMeasurements.get();
// TrajectoryContainer trajectories;
auto trajectories = m_outputTrajectories.createAndPut();
......@@ -91,39 +92,83 @@ namespace Jug::Reco {
auto pSurface = Acts::Surface::makeShared<Acts::PerigeeSurface>(Acts::Vector3{0., 0., 0.});
ACTS_LOCAL_LOGGER(Acts::getDefaultLogger("TrackFittingAlgorithm Logger", Acts::Logging::INFO));
std::vector<IndexSourceLink> trackSourceLinks;
// Perform the track finding for each starting parameter
// @TODO: use seeds from track seeding algorithm as starting parameter
// initial track params and proto tracks might likely have the same size.
for (std::size_t iseed = 0; iseed < init_trk_params->size(); ++iseed) {
// this will eventually be per-track. for now we assume all src links are from the same single track!
for (auto& lnk : (*src_links)) {
// auto sourceLink = sourceLinks.nth(hitIndex);
trackSourceLinks.push_back(lnk);
}
const auto& initialParams = (*init_trk_params)[iseed];
Acts::PropagatorPlainOptions pOptions;
pOptions.maxSteps = 10000;
Acts::KalmanFitterOptions<Acts::VoidOutlierFinder> kfOptions(
m_geoctx, m_fieldctx, m_calibctx,
Acts::VoidOutlierFinder(), Acts::LoggerWrapper{logger()}, Acts::PropagatorPlainOptions(), &(*pSurface));
//Acts::KalmanFitterOptions<Acts::VoidOutlierFinder> kfOptions(
// m_geoctx, m_fieldctx, m_calibctx, Acts::VoidOutlierFinder(),
// Acts::LoggerWrapper{logger()}, Acts::PropagatorPlainOptions(), &(*pSurface));
// // Set the KalmanFitter options
Acts::KalmanFitterOptions<MeasurementCalibrator, Acts::VoidOutlierFinder> kfOptions(