#include <ParallelTTracker.h>

Inheritance diagram for ParallelTTracker:

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Collaboration diagram for ParallelTTracker:

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Public Member Functions
	ParallelTTracker (const Beamline &bl, const PartData &data, bool revBeam, bool revTrack)
	Constructor. More...

	ParallelTTracker (const Beamline &bl, PartBunchBase< double, 3 > *bunch, DataSink &ds, const PartData &data, bool revBeam, bool revTrack, const std::vector< unsigned long long > &maxSTEPS, double zstart, const std::vector< double > &zstop, const std::vector< double > &dt)
	Constructor. More...

virtual	~ParallelTTracker ()

virtual void	execute ()
	Apply the algorithm to the top-level beamline. More...

virtual void	visitBeamline (const Beamline &)
	Apply the algorithm to a beam line. More...

virtual void	visitCCollimator (const CCollimator &)
	Apply the algorithm to a collimator. More...

virtual void	visitCorrector (const Corrector &)
	Apply the algorithm to a closed orbit corrector. More...

virtual void	visitDegrader (const Degrader &)
	Apply the algorithm to a degrader. More...

virtual void	visitDrift (const Drift &)
	Apply the algorithm to a drift space. More...

virtual void	visitFlexibleCollimator (const FlexibleCollimator &)
	Apply the algorithm to a flexible collimator. More...

virtual void	visitMarker (const Marker &)
	Apply the algorithm to a marker. More...

virtual void	visitMonitor (const Monitor &)
	Apply the algorithm to a beam position monitor. More...

virtual void	visitMultipole (const Multipole &)
	Apply the algorithm to a multipole. More...

virtual void	visitMultipoleT (const MultipoleT &)
	Apply the algorithm to an arbitrary multipole. More...

virtual void	visitProbe (const Probe &)
	Apply the algorithm to a probe. More...

virtual void	visitRBend (const RBend &)
	Apply the algorithm to a rectangular bend. More...

virtual void	visitRBend3D (const RBend3D &)
	Apply the algorithm to a rectangular bend. More...

virtual void	visitRFCavity (const RFCavity &)
	Apply the algorithm to a RF cavity. More...

virtual void	visitSBend (const SBend &)
	Apply the algorithm to a sector bend. More...

virtual void	visitSeptum (const Septum &)
	Apply the algorithm to a septum. More...

virtual void	visitSolenoid (const Solenoid &)
	Apply the algorithm to a solenoid. More...

virtual void	visitSource (const Source &)
	Apply the algorithm to a source. More...

virtual void	visitTravelingWave (const TravelingWave &)
	Apply the algorithm to a traveling wave. More...

virtual void	visitVacuum (const Vacuum &)
	Apply the algorithm to a vacuum space. More...

Public Member Functions inherited from Tracker
	Tracker (const Beamline &, const PartData &, bool backBeam, bool backTrack)
	Constructor. More...

	Tracker (const Beamline &, PartBunchBase< double, 3 > *bunch, const PartData &, bool backBeam, bool backTrack)
	Constructor. More...

virtual	~Tracker ()

const PartBunchBase< double, 3 > *	getBunch () const
	Return the current bunch. More...

void	addToBunch (const OpalParticle &)
	Add particle to bunch. More...

virtual void	visitComponent (const Component &)
	Store the bunch. More...

virtual void	setNumBunch (short)
	set total number of tracked bunches More...

virtual short	getNumBunch ()
	get total number of tracked bunches More...

Public Member Functions inherited from AbstractTracker
	AbstractTracker (const Beamline &, const PartData &, bool backBeam, bool backTrack)
	Constructor. More...

virtual	~AbstractTracker ()

Public Member Functions inherited from DefaultVisitor
	DefaultVisitor (const Beamline &beamline, bool backBeam, bool backTrack)
	Constructor. More...

virtual	~DefaultVisitor ()=0

virtual void	execute ()
	Apply the algorithm to the top-level beamline. More...

virtual void	visitBeamline (const Beamline &)
	Apply the algorithm to a beam line. More...

virtual void	visitCCollimator (const CCollimator &)
	Apply the algorithm to a collimator. More...

virtual void	visitComponent (const Component &)
	Apply the algorithm to an arbitrary component. More...

virtual void	visitCorrector (const Corrector &)
	Apply the algorithm to a closed orbit corrector. More...

virtual void	visitCyclotron (const Cyclotron &)
	Apply the algorithm to an cyclotron. More...

virtual void	visitDegrader (const Degrader &)
	Apply the algorithm to a degrader. More...

virtual void	visitDrift (const Drift &)
	Apply the algorithm to a drift space. More...

virtual void	visitFlaggedElmPtr (const FlaggedElmPtr &)
	Apply the algorithm to a FlaggedElmPtr. More...

virtual void	visitFlexibleCollimator (const FlexibleCollimator &)
	Apply the algorithm to a flexible collimator. More...

virtual void	visitMarker (const Marker &)
	Apply the algorithm to a marker. More...

virtual void	visitMonitor (const Monitor &)
	Apply the algorithm to a beam position monitor. More...

virtual void	visitMultipole (const Multipole &)
	Apply the algorithm to a multipole. More...

virtual void	visitMultipoleT (const MultipoleT &)
	Apply the algorithm to to an arbitrary multipole. More...

virtual void	visitMultipoleTStraight (const MultipoleTStraight &)
	Apply the algorithm to an arbitrary straight multipole. More...

virtual void	visitMultipoleTCurvedConstRadius (const MultipoleTCurvedConstRadius &)
	Apply the algorithm to an arbitrary curved multipole of constant radius. More...

virtual void	visitMultipoleTCurvedVarRadius (const MultipoleTCurvedVarRadius &)
	Apply the algorithm to an arbitrary curved multipole of variable radius. More...

virtual void	visitOffset (const Offset &)
	Apply the algorithm to an offset (placement). More...

virtual void	visitProbe (const Probe &prob)
	Apply the algorithm to a probe. More...

virtual void	visitRBend (const RBend &)
	Apply the algorithm to a rectangular bend. More...

virtual void	visitRBend3D (const RBend3D &)
	Apply the algorithm to a rectangular bend. More...

virtual void	visitRFCavity (const RFCavity &)
	Apply the algorithm to a RF cavity. More...

virtual void	visitRing (const Ring &)
	Apply the algorithm to a ring. More...

virtual void	visitSBend (const SBend &)
	Apply the algorithm to a sector bend. More...

virtual void	visitSBend3D (const SBend3D &)
	Apply the algorithm to a sector bend with 3D field map. More...

virtual void	visitScalingFFAMagnet (const ScalingFFAMagnet &)
	Apply the algorithm to a scaling FFA magnet. More...

virtual void	visitSeptum (const Septum &)
	Apply the algorithm to a septum. More...

virtual void	visitSolenoid (const Solenoid &)
	Apply the algorithm to a solenoid. More...

virtual void	visitSource (const Source &)
	Apply the algorithm to a source. More...

virtual void	visitStripper (const Stripper &)
	Apply the algorithm to a particle stripper. More...

virtual void	visitTravelingWave (const TravelingWave &)
	Apply the algorithm to a traveling wave. More...

virtual void	visitVacuum (const Vacuum &)
	Apply the algorithm to a vacuum space. More...

virtual void	visitVariableRFCavity (const VariableRFCavity &vcav)
	Apply the algorithm to a a variable RF cavity. More...

virtual void	visitVariableRFCavityFringeField (const VariableRFCavityFringeField &vcav)
	Apply the algorithm to a a variable RF cavity with Fringe Field. More...

virtual void	visitVerticalFFAMagnet (const VerticalFFAMagnet &)
	Apply the algorithm to a vertical FFA magnet. More...

Public Member Functions inherited from BeamlineVisitor
	BeamlineVisitor ()

virtual	~BeamlineVisitor ()

virtual void	execute ()=0
	Execute the algorithm on the attached beam line. More...

virtual void	visitBeamline (const Beamline &)=0
	Apply the algorithm to a beam line. More...

virtual void	visitCCollimator (const CCollimator &)=0
	Apply the algorithm to a collimator. More...

virtual void	visitComponent (const Component &)=0
	Apply the algorithm to an arbitrary component. More...

virtual void	visitCorrector (const Corrector &)=0
	Apply the algorithm to a closed orbit corrector. More...

virtual void	visitCyclotron (const Cyclotron &)=0
	Apply the algorithm to a cyclotron. More...

virtual void	visitDegrader (const Degrader &)=0
	Apply the algorithm to a degrader. More...

virtual void	visitDrift (const Drift &)=0
	Apply the algorithm to a drift space. More...

virtual void	visitFlaggedElmPtr (const FlaggedElmPtr &)=0
	Apply the algorithm to a FlaggedElmPtr. More...

virtual void	visitFlexibleCollimator (const FlexibleCollimator &)=0
	Apply the algorithm to a flexible collimator. More...

virtual void	visitMarker (const Marker &)=0
	Apply the algorithm to a marker. More...

virtual void	visitMonitor (const Monitor &)=0
	Apply the algorithm to a beam position monitor. More...

virtual void	visitMultipole (const Multipole &)=0
	Apply the algorithm to a multipole. More...

virtual void	visitMultipoleT (const MultipoleT &)=0
	Apply the algorithm to an arbitrary multipole. More...

virtual void	visitMultipoleTStraight (const MultipoleTStraight &)=0
	Apply the algorithm to an arbitrary straight multipole. More...

virtual void	visitMultipoleTCurvedConstRadius (const MultipoleTCurvedConstRadius &)=0
	Apply the algorithm to an arbitrary curved multipole of constant radius. More...

virtual void	visitMultipoleTCurvedVarRadius (const MultipoleTCurvedVarRadius &)=0
	Apply the algorithm to an arbitrary curved multipole of variable radius. More...

virtual void	visitOffset (const Offset &)=0
	Apply the algorithm to an offset (placement). More...

virtual void	visitProbe (const Probe &)=0
	Apply the algorithm to a probe. More...

virtual void	visitRBend (const RBend &)=0
	Apply the algorithm to a rectangular bend. More...

virtual void	visitRBend3D (const RBend3D &)
	Apply the algorithm to a rectangular bend. More...

virtual void	visitRFCavity (const RFCavity &)=0
	Apply the algorithm to a RF cavity. More...

virtual void	visitRing (const Ring &)=0
	Apply the algorithm to a ring. More...

virtual void	visitSBend (const SBend &)=0
	Apply the algorithm to a sector bend. More...

virtual void	visitSBend3D (const SBend3D &)=0
	Apply the algorithm to a sector bend with 3D field map. More...

virtual void	visitScalingFFAMagnet (const ScalingFFAMagnet &)=0
	Apply the algorithm to a scaling FFA magnet. More...

virtual void	visitSeptum (const Septum &)=0
	Apply the algorithm to a septum magnet. More...

virtual void	visitSolenoid (const Solenoid &)=0
	Apply the algorithm to a solenoid. More...

virtual void	visitSource (const Source &)=0
	Apply the algorithm to a source. More...

virtual void	visitStripper (const Stripper &)=0
	Apply the algorithm to a particle stripper. More...

virtual void	visitTravelingWave (const TravelingWave &)=0
	Apply the algorithm to a traveling wave. More...

virtual void	visitVacuum (const Vacuum &)=0
	Apply the algorithm to a vacuum space. More...

virtual void	visitVariableRFCavity (const VariableRFCavity &)=0
	Apply the algorithm to a variable RF cavity. More...

virtual void	visitVariableRFCavityFringeField (const VariableRFCavityFringeField &)=0
	Apply the algorithm to a variable RF cavity with Fringe Field. More...

virtual void	visitVerticalFFAMagnet (const VerticalFFAMagnet &)=0
	Apply the algorithm to a vertical FFA magnet. More...

Private Member Functions
	ParallelTTracker ()

	ParallelTTracker (const ParallelTTracker &)

void	operator= (const ParallelTTracker &)

void	kickParticles (const BorisPusher &pusher)

void	pushParticles (const BorisPusher &pusher)

void	updateReferenceParticle (const BorisPusher &pusher)

void	writePhaseSpace (const long long step, bool psDump, bool statDump)

void	updateRFElement (std::string elName, double maxPhi)

void	printRFPhases ()

void	saveCavityPhases ()

void	restoreCavityPhases ()

void	prepareSections ()

void	timeIntegration1 (BorisPusher &pusher)

void	timeIntegration2 (BorisPusher &pusher)

void	selectDT (bool backTrack=false)

void	changeDT (bool backTrack=false)

void	emitParticles (long long step)

void	computeExternalFields (OrbitThreader &oth)

void	computeWakefield (IndexMap::value_t &elements)

void	computeParticleMatterInteraction (IndexMap::value_t elements, OrbitThreader &oth)

void	computeSpaceChargeFields (unsigned long long step)

void	dumpStats (long long step, bool psDump, bool statDump)

void	setOptionalVariables ()

bool	hasEndOfLineReached (const BoundingBox &globalBoundingBox)

void	handleRestartRun ()

void	prepareEmission ()

void	setTime ()

void	doBinaryRepartition ()

void	transformBunch (const CoordinateSystemTrafo &trafo)

void	updateReference (const BorisPusher &pusher)

void	updateRefToLabCSTrafo ()

void	applyFractionalStep (const BorisPusher &pusher, double tau)

void	findStartPosition (const BorisPusher &pusher)

void	autophaseCavities (const BorisPusher &pusher)

void	evenlyDistributeParticles ()

Private Attributes
DataSink *	itsDataSink_m

OpalBeamline	itsOpalBeamline_m

bool	globalEOL_m

bool	wakeStatus_m

bool	deletedParticles_m

WakeFunction *	wakeFunction_m

double	pathLength_m

double	zstart_m
	where to start More...

StepSizeConfig	stepSizes_m

double	dtCurrentTrack_m

int	minStepforReBin_m

size_t	minBinEmitted_m

unsigned int	repartFreq_m

unsigned int	emissionSteps_m

size_t	numParticlesInSimulation_m

IpplTimings::TimerRef	timeIntegrationTimer1_m

IpplTimings::TimerRef	timeIntegrationTimer2_m

IpplTimings::TimerRef	fieldEvaluationTimer_m

IpplTimings::TimerRef	BinRepartTimer_m

IpplTimings::TimerRef	WakeFieldTimer_m

std::set< ParticleMatterInteractionHandler * >	activeParticleMatterInteractionHandlers_m

bool	particleMatterStatus_m

Additional Inherited Members
Public Types inherited from AbstractTracker
enum	{ X , PX , Y , PY , T , PT }

Public Attributes inherited from Tracker
FieldList	cavities_m

const Beamline &	itsBeamline_m

Protected Member Functions inherited from Tracker
void	applyDrift (double length)
	Apply a drift length. More...

void	applyThinMultipole (const BMultipoleField &field, double factor)

void	applyThinSBend (const BMultipoleField &field, double scale, double h)

void	applyTransform (const Euclid3D &, double refLength=0.0)
	Apply a geometric transformation. More...

FTps< double, 2 >	buildMultipoleVectorPotential2D (const BMultipoleField &)
	Construct vector potential for a Multipole. More...

FTps< double, 6 >	buildMultipoleVectorPotential (const BMultipoleField &)
	Construct vector potential for a Multipole. More...

FTps< double, 2 >	buildSBendVectorPotential2D (const BMultipoleField &, double h)
	Construct vector potential for a SBend. More...

FTps< double, 6 >	buildSBendVectorPotential (const BMultipoleField &, double h)
	Construct vector potential for a SBend. More...

Protected Attributes inherited from Tracker
PartBunchBase< double, 3 > *	itsBunch_m
	The bunch of particles to be tracked. More...

Protected Attributes inherited from AbstractTracker
const PartData	itsReference
	The reference information. More...

Protected Attributes inherited from DefaultVisitor
const Beamline &	itsLine

bool	back_beam

bool	back_track

bool	back_path

double	flip_B

double	flip_s

Detailed Description

Definition at line 69 of file ParallelTTracker.h.

Constructor & Destructor Documentation

◆ ParallelTTracker() [1/4]

ParallelTTracker::ParallelTTracker	(	const Beamline &	bl,
		const PartData &	data,
		bool	revBeam,
		bool	revTrack
	)

explicit

Constructor.

Definition at line 60 of file ParallelTTracker.cpp.

◆ ParallelTTracker() [2/4]

ParallelTTracker::ParallelTTracker	(	const Beamline &	bl,
		PartBunchBase< double, 3 > *	bunch,
		DataSink &	ds,
		const PartData &	data,
		bool	revBeam,
		bool	revTrack,
		const std::vector< unsigned long long > &	maxSTEPS,
		double	zstart,
		const std::vector< double > &	zstop,
		const std::vector< double > &	dt
	)

explicit

Constructor.

Definition at line 86 of file ParallelTTracker.cpp.

References StepSizeConfig::push_back(), StepSizeConfig::resetIterator(), StepSizeConfig::sortAscendingZStop(), and stepSizes_m.

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◆ ~ParallelTTracker()

ParallelTTracker::~ParallelTTracker ( )

virtual

Definition at line 125 of file ParallelTTracker.cpp.

◆ ParallelTTracker() [3/4]

ParallelTTracker::ParallelTTracker ( )

private

◆ ParallelTTracker() [4/4]

ParallelTTracker::ParallelTTracker ( const ParallelTTracker & )

private

Member Function Documentation

◆ applyFractionalStep()

void ParallelTTracker::applyFractionalStep	(	const BorisPusher &	pusher,
		double	tau
	)

private

Definition at line 1173 of file ParallelTTracker.cpp.

References Physics::c, getQuaternion(), PartBunchBase< T, Dim >::getT(), CoordinateSystemTrafo::inverted(), Tracker::itsBunch_m, pathLength_m, BorisPusher::push(), Attrib::Distribution::R, PartBunchBase< T, Dim >::RefPartP_m, PartBunchBase< T, Dim >::RefPartR_m, CoordinateSystemTrafo::rotateFrom(), PartBunchBase< T, Dim >::setT(), PartBunchBase< T, Dim >::toLabTrafo_m, CoordinateSystemTrafo::transformFrom(), and zstart_m.

Referenced by findStartPosition().

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◆ autophaseCavities()

void ParallelTTracker::autophaseCavities ( const BorisPusher & pusher )

private

Definition at line 1250 of file ParallelTTracker.cpp.

References Physics::c, RFCavity::getAutophaseVeto(), PartBunchBase< T, Dim >::getdT(), OpalBeamline::getElements(), CavityAutophaser::getPhaseAtMaxEnergy(), PartBunchBase< T, Dim >::getT(), Tracker::itsBunch_m, itsOpalBeamline_m, AbstractTracker::itsReference, BorisPusher::push(), PartBunchBase< T, Dim >::RefPartP_m, PartBunchBase< T, Dim >::RefPartR_m, RFCAVITY, OpalBeamline::rotateToLocalCS(), OpalBeamline::transformToLocalCS(), and TRAVELINGWAVE.

Referenced by findStartPosition().

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◆ changeDT()

void ParallelTTracker::changeDT ( bool backTrack = false )

private

Definition at line 437 of file ParallelTTracker.cpp.

References PartBunchBase< T, Dim >::dt, PartBunchBase< T, Dim >::getdT(), PartBunchBase< T, Dim >::getLocalNum(), Tracker::itsBunch_m, and selectDT().

Referenced by execute(), and findStartPosition().

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◆ computeExternalFields()

void ParallelTTracker::computeExternalFields ( OrbitThreader & oth )

private

Definition at line 527 of file ParallelTTracker.cpp.

Referenced by execute().

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◆ computeParticleMatterInteraction()

void ParallelTTracker::computeParticleMatterInteraction	(	IndexMap::value_t	elements,
		OrbitThreader &	oth
	)

private

all particles in material if max per node is 2 and other degraders have 0 particles

Definition at line 706 of file ParallelTTracker.cpp.

Referenced by computeExternalFields().

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◆ computeSpaceChargeFields()

void ParallelTTracker::computeSpaceChargeFields ( unsigned long long step )

private

Definition at line 479 of file ParallelTTracker.cpp.

Referenced by execute().

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◆ computeWakefield()

void ParallelTTracker::computeWakefield ( IndexMap::value_t & elements )

private

Definition at line 635 of file ParallelTTracker.cpp.

References WakeFunction::apply(), PartBunchBase< T, Dim >::calcBeamParameters(), CSRIGFWakeFunction, CSRWakeFunction, PartBunchBase< T, Dim >::Ef, end(), endl(), PartBunchBase< T, Dim >::get_pmean(), PartBunchBase< T, Dim >::getLocalNum(), getQuaternion(), gmsg, PartBunchBase< T, Dim >::hasFieldSolver(), WakeFunction::initialize(), CoordinateSystemTrafo::inverted(), Tracker::itsBunch_m, level2(), PartBunchBase< T, Dim >::P, PartBunchBase< T, Dim >::R, RBEND, CoordinateSystemTrafo::rotateTo(), SBEND, IpplTimings::startTimer(), IpplTimings::stopTimer(), CoordinateSystemTrafo::transformTo(), WakeFieldTimer_m, wakeFunction_m, and wakeStatus_m.

Referenced by computeExternalFields().

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◆ doBinaryRepartition()

void ParallelTTracker::doBinaryRepartition ( )

private

Definition at line 876 of file ParallelTTracker.cpp.

References Communicate::barrier(), BinRepartTimer_m, IpplInfo::Comm, PartBunchBase< T, Dim >::do_binaryRepart(), endl(), PartBunchBase< T, Dim >::hasFieldSolver(), INFOMSG, Tracker::itsBunch_m, max(), minBinEmitted_m, numParticlesInSimulation_m, IpplTimings::startTimer(), and IpplTimings::stopTimer().

Referenced by computeSpaceChargeFields().

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◆ dumpStats()

void ParallelTTracker::dumpStats	(	long long	step,
		bool	psDump,
		bool	statDump
	)

private

Definition at line 893 of file ParallelTTracker.cpp.

References PartBunchBase< T, Dim >::calcEMean(), endl(), PartBunchBase< T, Dim >::get_meanKineticEnergy(), Util::getEnergyString(), PartBunchBase< T, Dim >::getGlobalTrackStep(), Util::getLengthString(), PartBunchBase< T, Dim >::getT(), Util::getTimeString(), gmsg, matheval::detail::math::isinf(), matheval::detail::math::isnan(), Tracker::itsBunch_m, level1(), level2(), level3(), minBinEmitted_m, numParticlesInSimulation_m, pathLength_m, OPALTimer::Timer::time(), and writePhaseSpace().

Referenced by execute().

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◆ emitParticles()

void ParallelTTracker::emitParticles ( long long step )

private

Definition at line 445 of file ParallelTTracker.cpp.

Referenced by execute().

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◆ evenlyDistributeParticles()

void ParallelTTracker::evenlyDistributeParticles ( )

private

Definition at line 1286 of file ParallelTTracker.cpp.

Referenced by execute().

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◆ execute()

void ParallelTTracker::execute ( )

virtual

Apply the algorithm to the top-level beamline.

Reimplemented from DefaultVisitor.

Definition at line 178 of file ParallelTTracker.cpp.

◆ findStartPosition()

void ParallelTTracker::findStartPosition ( const BorisPusher & pusher )

private

Definition at line 1192 of file ParallelTTracker.cpp.

References abs(), applyFractionalStep(), autophaseCavities(), DefaultVisitor::back_track, PartData::beta, Physics::c, changeDT(), OpalBeamline::containsSource(), dtCurrentTrack_m, Physics::e, euclidean_norm(), PartData::gamma, StepSizeConfig::getdT(), PartBunchBase< T, Dim >::getdT(), Util::getGamma(), Util::getKineticEnergy(), PartBunchBase< T, Dim >::getM(), StepSizeConfig::getZStop(), Tracker::itsBunch_m, itsOpalBeamline_m, pathLength_m, pow(), StepSizeConfig::reachedEnd(), PartBunchBase< T, Dim >::RefPartP_m, PartBunchBase< T, Dim >::RefPartR_m, CoordinateSystemTrafo::rotateTo(), selectDT(), PartBunchBase< T, Dim >::setT(), StepSizeConfig::shiftZStopLeft(), sqrt(), stepSizes_m, PartBunchBase< T, Dim >::toLabTrafo_m, updateReferenceParticle(), and zstart_m.

Referenced by execute().

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◆ handleRestartRun()

void ParallelTTracker::handleRestartRun ( )

private

◆ hasEndOfLineReached()

bool ParallelTTracker::hasEndOfLineReached ( const BoundingBox & globalBoundingBox )

private

Definition at line 968 of file ParallelTTracker.cpp.

References globalEOL_m, BoundingBox::isOutside(), Tracker::itsBunch_m, reduce(), and PartBunchBase< T, Dim >::RefPartR_m.

Referenced by execute().

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◆ kickParticles()

void ParallelTTracker::kickParticles ( const BorisPusher & pusher )

inlineprivate

Definition at line 364 of file ParallelTTracker.h.

References PartBunchBase< T, Dim >::Bf, PartBunchBase< T, Dim >::dt, PartBunchBase< T, Dim >::Ef, PartBunchBase< T, Dim >::getLocalNum(), Tracker::itsBunch_m, BorisPusher::kick(), PartBunchBase< T, Dim >::P, and PartBunchBase< T, Dim >::R.

Referenced by timeIntegration2().

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◆ operator=()

void ParallelTTracker::operator= ( const ParallelTTracker & )

private

◆ prepareEmission()

void ParallelTTracker::prepareEmission ( )

private

Definition at line 981 of file ParallelTTracker.cpp.

References PartBunchBase< T, Dim >::doEmission(), emissionSteps_m, endl(), PartBunchBase< T, Dim >::getdT(), PartBunchBase< T, Dim >::getEmissionDeltaT(), PartBunchBase< T, Dim >::getNumberOfEmissionSteps(), PartBunchBase< T, Dim >::getNumberOfEnergyBins(), PartBunchBase< T, Dim >::getTEmission(), gmsg, Tracker::itsBunch_m, and level2().

Referenced by execute().

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◆ prepareSections()

void ParallelTTracker::prepareSections ( )

private

Definition at line 372 of file ParallelTTracker.cpp.

References ElementBase::accept(), OpalBeamline::compute3DLattice(), Tracker::itsBeamline_m, itsOpalBeamline_m, OpalBeamline::prepareSections(), OpalBeamline::save3DInput(), and OpalBeamline::save3DLattice().

Referenced by execute().

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◆ printRFPhases()

void ParallelTTracker::printRFPhases ( )

private

◆ pushParticles()

void ParallelTTracker::pushParticles ( const BorisPusher & pusher )

inlineprivate

Definition at line 370 of file ParallelTTracker.h.

References PartBunchBase< T, Dim >::dt, PartBunchBase< T, Dim >::getLocalNum(), Tracker::itsBunch_m, PartBunchBase< T, Dim >::P, BorisPusher::push(), PartBunchBase< T, Dim >::R, PartBunchBase< T, Dim >::switchOffUnitlessPositions(), and PartBunchBase< T, Dim >::switchToUnitlessPositions().

Referenced by timeIntegration1(), and timeIntegration2().

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◆ restoreCavityPhases()

void ParallelTTracker::restoreCavityPhases ( )

private

Definition at line 165 of file ParallelTTracker.cpp.

References end(), OpalData::getFirstMaxPhases(), OpalData::getInstance(), OpalData::getLastMaxPhases(), and updateRFElement().

Referenced by execute().

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◆ saveCavityPhases()

void ParallelTTracker::saveCavityPhases ( )

private

Definition at line 161 of file ParallelTTracker.cpp.

References itsDataSink_m, and DataSink::storeCavityInformation().

Referenced by execute().

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◆ selectDT()

void ParallelTTracker::selectDT ( bool backTrack = false )

private

Definition at line 423 of file ParallelTTracker.cpp.

References abs(), dtCurrentTrack_m, PartBunchBase< T, Dim >::getdT(), PartBunchBase< T, Dim >::getEmissionDeltaT(), PartBunchBase< T, Dim >::getIfBeamEmitting(), Tracker::itsBunch_m, and PartBunchBase< T, Dim >::setdT().

Referenced by changeDT(), execute(), and findStartPosition().

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◆ setOptionalVariables()

void ParallelTTracker::setOptionalVariables ( )

private

Definition at line 940 of file ParallelTTracker.cpp.

References endl(), OpalData::find(), OpalData::getInstance(), IpplInfo::getNodes(), RealVariable::getReal(), gmsg, level2(), max(), Options::minBinEmitted, minBinEmitted_m, Options::minStepForRebin, minStepforReBin_m, Options::repartFreq, and repartFreq_m.

Referenced by execute().

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◆ setTime()

void ParallelTTracker::setTime ( )

private

Definition at line 974 of file ParallelTTracker.cpp.

References PartBunchBase< T, Dim >::dt, PartBunchBase< T, Dim >::getdT(), PartBunchBase< T, Dim >::getLocalNum(), and Tracker::itsBunch_m.

Referenced by execute().

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◆ timeIntegration1()

void ParallelTTracker::timeIntegration1 ( BorisPusher & pusher )

private

Definition at line 383 of file ParallelTTracker.cpp.

References pushParticles(), IpplTimings::startTimer(), IpplTimings::stopTimer(), and timeIntegrationTimer1_m.

Referenced by execute().

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◆ timeIntegration2()

void ParallelTTracker::timeIntegration2 ( BorisPusher & pusher )

private

Definition at line 391 of file ParallelTTracker.cpp.

References PartBunchBase< T, Dim >::dt, PartBunchBase< T, Dim >::getdT(), PartBunchBase< T, Dim >::getLocalNum(), Tracker::itsBunch_m, kickParticles(), pushParticles(), IpplTimings::startTimer(), IpplTimings::stopTimer(), and timeIntegrationTimer2_m.

Referenced by execute().

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◆ transformBunch()

void ParallelTTracker::transformBunch ( const CoordinateSystemTrafo & trafo )

private

Definition at line 1150 of file ParallelTTracker.cpp.

References PartBunchBase< T, Dim >::Bf, PartBunchBase< T, Dim >::Ef, PartBunchBase< T, Dim >::getLocalNum(), Tracker::itsBunch_m, PartBunchBase< T, Dim >::P, PartBunchBase< T, Dim >::R, CoordinateSystemTrafo::rotateTo(), and CoordinateSystemTrafo::transformTo().

Referenced by emitParticles(), and updateRefToLabCSTrafo().

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◆ updateReference()

void ParallelTTracker::updateReference ( const BorisPusher & pusher )

private

Definition at line 1103 of file ParallelTTracker.cpp.

References updateReferenceParticle(), and updateRefToLabCSTrafo().

Referenced by computeParticleMatterInteraction(), and execute().

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◆ updateReferenceParticle()

void ParallelTTracker::updateReferenceParticle ( const BorisPusher & pusher )

private

Definition at line 1108 of file ParallelTTracker.cpp.

References DefaultVisitor::back_track, Physics::c, end(), endl(), OpalBeamline::getCSTrafoLab2Local(), PartBunchBase< T, Dim >::getdT(), OpalBeamline::getElements(), PartBunchBase< T, Dim >::getT(), globalEOL_m, gmsg, Tracker::itsBunch_m, itsOpalBeamline_m, BorisPusher::kick(), level1(), min(), BorisPusher::push(), PartBunchBase< T, Dim >::RefPartP_m, PartBunchBase< T, Dim >::RefPartR_m, CoordinateSystemTrafo::rotateFrom(), CoordinateSystemTrafo::rotateTo(), and CoordinateSystemTrafo::transformTo().

Referenced by findStartPosition(), and updateReference().

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◆ updateRefToLabCSTrafo()

void ParallelTTracker::updateRefToLabCSTrafo ( )

private

Definition at line 1160 of file ParallelTTracker.cpp.

References copysign(), euclidean_norm(), PartBunchBase< T, Dim >::getdT(), getQuaternion(), CoordinateSystemTrafo::inverted(), Tracker::itsBunch_m, pathLength_m, Attrib::Distribution::R, PartBunchBase< T, Dim >::RefPartP_m, PartBunchBase< T, Dim >::RefPartR_m, CoordinateSystemTrafo::rotateFrom(), PartBunchBase< T, Dim >::toLabTrafo_m, transformBunch(), and CoordinateSystemTrafo::transformFrom().

Referenced by updateReference().

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◆ updateRFElement()

void ParallelTTracker::updateRFElement	(	std::string	elName,
		double	maxPhi
	)

private

Definition at line 142 of file ParallelTTracker.cpp.

References endl(), OpalBeamline::getElementByType(), ElementBase::getName(), INFOMSG, itsOpalBeamline_m, RFCAVITY, RFCavity::setAutophaseVeto(), RFCavity::setPhasem(), and TRAVELINGWAVE.

Referenced by restoreCavityPhases().

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◆ visitBeamline()

void ParallelTTracker::visitBeamline ( const Beamline & bl )

virtual

Apply the algorithm to a beam line.

Reimplemented from DefaultVisitor.

Definition at line 127 of file ParallelTTracker.cpp.

References OpalBeamline::compute3DLattice(), TBeamline< T >::getInitialDirection(), TBeamline< T >::getOrigin3D(), TBeamline< T >::getRelativeFlag(), TBeamline< T >::iterate(), itsOpalBeamline_m, OpalBeamline::merge(), OpalBeamline::prepareSections(), and OpalBeamline::swap().

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◆ visitCCollimator()

void ParallelTTracker::visitCCollimator ( const CCollimator & coll )

inlinevirtual

Apply the algorithm to a collimator.

Reimplemented from DefaultVisitor.

Definition at line 282 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitCorrector()

void ParallelTTracker::visitCorrector ( const Corrector & corr )

inlinevirtual

Apply the algorithm to a closed orbit corrector.

Reimplemented from DefaultVisitor.

Definition at line 286 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitDegrader()

void ParallelTTracker::visitDegrader ( const Degrader & deg )

inlinevirtual

Apply the algorithm to a degrader.

Reimplemented from DefaultVisitor.

Definition at line 290 of file ParallelTTracker.h.

References matheval::detail::math::deg(), Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitDrift()

void ParallelTTracker::visitDrift ( const Drift & drift )

inlinevirtual

Apply the algorithm to a drift space.

Reimplemented from DefaultVisitor.

Definition at line 294 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitFlexibleCollimator()

void ParallelTTracker::visitFlexibleCollimator ( const FlexibleCollimator & coll )

inlinevirtual

Apply the algorithm to a flexible collimator.

Reimplemented from DefaultVisitor.

Definition at line 298 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitMarker()

void ParallelTTracker::visitMarker ( const Marker & marker )

inlinevirtual

Apply the algorithm to a marker.

Reimplemented from DefaultVisitor.

Definition at line 302 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitMonitor()

void ParallelTTracker::visitMonitor ( const Monitor & mon )

inlinevirtual

Apply the algorithm to a beam position monitor.

Reimplemented from DefaultVisitor.

Definition at line 306 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitMultipole()

void ParallelTTracker::visitMultipole ( const Multipole & mult )

inlinevirtual

Apply the algorithm to a multipole.

Reimplemented from DefaultVisitor.

Definition at line 310 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitMultipoleT()

void ParallelTTracker::visitMultipoleT ( const MultipoleT & mult )

inlinevirtual

Apply the algorithm to an arbitrary multipole.

Reimplemented from DefaultVisitor.

Definition at line 314 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitProbe()

void ParallelTTracker::visitProbe ( const Probe & prob )

inlinevirtual

Apply the algorithm to a probe.

Reimplemented from DefaultVisitor.

Definition at line 318 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitRBend()

void ParallelTTracker::visitRBend ( const RBend & bend )

inlinevirtual

Apply the algorithm to a rectangular bend.

Reimplemented from DefaultVisitor.

Definition at line 322 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitRBend3D()

void ParallelTTracker::visitRBend3D ( const RBend3D & bend )

inlinevirtual

Apply the algorithm to a rectangular bend.

Reimplemented from DefaultVisitor.

Definition at line 326 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitRFCavity()

void ParallelTTracker::visitRFCavity ( const RFCavity & as )

inlinevirtual

Apply the algorithm to a RF cavity.

Reimplemented from DefaultVisitor.

Definition at line 330 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitSBend()

void ParallelTTracker::visitSBend ( const SBend & bend )

inlinevirtual

Apply the algorithm to a sector bend.

Reimplemented from DefaultVisitor.

Definition at line 334 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitSeptum()

void ParallelTTracker::visitSeptum ( const Septum & sept )

inlinevirtual

Apply the algorithm to a septum.

Reimplemented from DefaultVisitor.

Definition at line 338 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitSolenoid()

void ParallelTTracker::visitSolenoid ( const Solenoid & solenoid )

inlinevirtual

Apply the algorithm to a solenoid.

Reimplemented from DefaultVisitor.

Definition at line 342 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitSource()

void ParallelTTracker::visitSource ( const Source & source )

inlinevirtual

Apply the algorithm to a source.

Reimplemented from DefaultVisitor.

Definition at line 346 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitTravelingWave()

void ParallelTTracker::visitTravelingWave ( const TravelingWave & as )

inlinevirtual

Apply the algorithm to a traveling wave.

Reimplemented from DefaultVisitor.

Definition at line 350 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ visitVacuum()

void ParallelTTracker::visitVacuum ( const Vacuum & vac )

inlinevirtual

Apply the algorithm to a vacuum space.

Reimplemented from DefaultVisitor.

Definition at line 360 of file ParallelTTracker.h.

References Tracker::itsBunch_m, itsOpalBeamline_m, and OpalBeamline::visit().

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◆ writePhaseSpace()

void ParallelTTracker::writePhaseSpace	(	const long long	step,
		bool	psDump,
		bool	statDump
	)

private

Definition at line 994 of file ParallelTTracker.cpp.

Referenced by dumpStats(), and execute().

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Member Data Documentation

◆ activeParticleMatterInteractionHandlers_m

std::set<ParticleMatterInteractionHandler*> ParallelTTracker::activeParticleMatterInteractionHandlers_m

private

Definition at line 229 of file ParallelTTracker.h.

Referenced by computeParticleMatterInteraction().

◆ BinRepartTimer_m

IpplTimings::TimerRef ParallelTTracker::BinRepartTimer_m

private

Definition at line 226 of file ParallelTTracker.h.

Referenced by doBinaryRepartition().

◆ deletedParticles_m

bool ParallelTTracker::deletedParticles_m

private

Definition at line 190 of file ParallelTTracker.h.

Referenced by computeExternalFields(), and execute().

◆ dtCurrentTrack_m

double ParallelTTracker::dtCurrentTrack_m

private

Definition at line 205 of file ParallelTTracker.h.

Referenced by execute(), findStartPosition(), and selectDT().

◆ emissionSteps_m

unsigned int ParallelTTracker::emissionSteps_m

private

Definition at line 219 of file ParallelTTracker.h.

Referenced by prepareEmission().

◆ fieldEvaluationTimer_m

IpplTimings::TimerRef ParallelTTracker::fieldEvaluationTimer_m

private

Definition at line 225 of file ParallelTTracker.h.

Referenced by computeExternalFields().

◆ globalEOL_m

bool ParallelTTracker::globalEOL_m

private

Definition at line 186 of file ParallelTTracker.h.

Referenced by computeExternalFields(), execute(), hasEndOfLineReached(), and updateReferenceParticle().

◆ itsDataSink_m

DataSink* ParallelTTracker::itsDataSink_m

private

Definition at line 182 of file ParallelTTracker.h.

Referenced by saveCavityPhases(), and writePhaseSpace().

◆ itsOpalBeamline_m

OpalBeamline ParallelTTracker::itsOpalBeamline_m

private

◆ minBinEmitted_m

size_t ParallelTTracker::minBinEmitted_m

private

Definition at line 214 of file ParallelTTracker.h.

Referenced by computeExternalFields(), computeParticleMatterInteraction(), doBinaryRepartition(), dumpStats(), execute(), and setOptionalVariables().

◆ minStepforReBin_m

int ParallelTTracker::minStepforReBin_m

private

Definition at line 209 of file ParallelTTracker.h.

Referenced by emitParticles(), and setOptionalVariables().

◆ numParticlesInSimulation_m

size_t ParallelTTracker::numParticlesInSimulation_m

private

Definition at line 221 of file ParallelTTracker.h.

Referenced by computeExternalFields(), doBinaryRepartition(), dumpStats(), emitParticles(), and execute().

◆ particleMatterStatus_m

bool ParallelTTracker::particleMatterStatus_m

private

Definition at line 230 of file ParallelTTracker.h.

Referenced by computeParticleMatterInteraction().

◆ pathLength_m

double ParallelTTracker::pathLength_m

private

Definition at line 194 of file ParallelTTracker.h.

Referenced by applyFractionalStep(), computeExternalFields(), computeParticleMatterInteraction(), computeSpaceChargeFields(), dumpStats(), execute(), findStartPosition(), updateRefToLabCSTrafo(), and writePhaseSpace().

◆ repartFreq_m

unsigned int ParallelTTracker::repartFreq_m

private

Definition at line 217 of file ParallelTTracker.h.

Referenced by computeSpaceChargeFields(), and setOptionalVariables().

◆ stepSizes_m

StepSizeConfig ParallelTTracker::stepSizes_m

private

stores informations where to change the time step and where to stop the simulation, the time step sizes and the number of time steps with each configuration

Definition at line 203 of file ParallelTTracker.h.

Referenced by execute(), findStartPosition(), ParallelTTracker(), and writePhaseSpace().

◆ timeIntegrationTimer1_m

IpplTimings::TimerRef ParallelTTracker::timeIntegrationTimer1_m

private

Definition at line 223 of file ParallelTTracker.h.

Referenced by timeIntegration1().

◆ timeIntegrationTimer2_m

IpplTimings::TimerRef ParallelTTracker::timeIntegrationTimer2_m

private

Definition at line 224 of file ParallelTTracker.h.

Referenced by timeIntegration2().

◆ WakeFieldTimer_m

IpplTimings::TimerRef ParallelTTracker::WakeFieldTimer_m

private

Definition at line 227 of file ParallelTTracker.h.

Referenced by computeWakefield().

◆ wakeFunction_m

WakeFunction* ParallelTTracker::wakeFunction_m

private

Definition at line 192 of file ParallelTTracker.h.

Referenced by computeWakefield().

◆ wakeStatus_m

bool ParallelTTracker::wakeStatus_m

private

Definition at line 188 of file ParallelTTracker.h.

Referenced by computeWakefield(), and execute().

◆ zstart_m

double ParallelTTracker::zstart_m

private

where to start

Definition at line 197 of file ParallelTTracker.h.

Referenced by applyFractionalStep(), execute(), and findStartPosition().

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

/Users/gsell/src/OPAL/src/src/Algorithms/ParallelTTracker.h
/Users/gsell/src/OPAL/src/src/Algorithms/ParallelTTracker.cpp

Public Member Functions

Private Member Functions

Private Attributes

Additional Inherited Members

Detailed Description

Constructor & Destructor Documentation

◆ ParallelTTracker() [1/4]

◆ ParallelTTracker() [2/4]

◆ ~ParallelTTracker()

◆ ParallelTTracker() [3/4]

◆ ParallelTTracker() [4/4]

Member Function Documentation

◆ applyFractionalStep()

◆ autophaseCavities()

◆ changeDT()

◆ computeExternalFields()

◆ computeParticleMatterInteraction()

◆ computeSpaceChargeFields()

◆ computeWakefield()

◆ doBinaryRepartition()

◆ dumpStats()

◆ emitParticles()

◆ evenlyDistributeParticles()

◆ execute()

◆ findStartPosition()

◆ handleRestartRun()

◆ hasEndOfLineReached()

◆ kickParticles()

◆ operator=()

◆ prepareEmission()

◆ prepareSections()

◆ printRFPhases()

◆ pushParticles()

◆ restoreCavityPhases()

◆ saveCavityPhases()

◆ selectDT()

◆ setOptionalVariables()

◆ setTime()

◆ timeIntegration1()

◆ timeIntegration2()

◆ transformBunch()

◆ updateReference()

◆ updateReferenceParticle()

◆ updateRefToLabCSTrafo()

◆ updateRFElement()

◆ visitBeamline()

◆ visitCCollimator()

◆ visitCorrector()

◆ visitDegrader()

◆ visitDrift()

◆ visitFlexibleCollimator()

◆ visitMarker()

◆ visitMonitor()

◆ visitMultipole()

◆ visitMultipoleT()

◆ visitProbe()

◆ visitRBend()

◆ visitRBend3D()

◆ visitRFCavity()

◆ visitSBend()

◆ visitSeptum()

◆ visitSolenoid()

◆ visitSource()

◆ visitTravelingWave()

◆ visitVacuum()

◆ writePhaseSpace()

Member Data Documentation

◆ activeParticleMatterInteractionHandlers_m

◆ BinRepartTimer_m

◆ deletedParticles_m

◆ dtCurrentTrack_m

◆ emissionSteps_m

◆ fieldEvaluationTimer_m

◆ globalEOL_m

◆ itsDataSink_m

◆ itsOpalBeamline_m

◆ minBinEmitted_m

◆ minStepforReBin_m

◆ numParticlesInSimulation_m

◆ particleMatterStatus_m