Uses of Interface
xal.model.IProbe

Packages that use IProbe

Package	Description
xal.extension.jels.model.alg
xal.extension.jels.model.elem	Combination of modeling elements from TraceWin documentation put into OpenXAL reference frame.
xal.extension.jels.model.probe
xal.model	The Online Model
xal.model.alg
xal.model.elem	Modeling Elements Package Library
xal.model.elem.sync
xal.model.probe
xal.tools.beam	Contains classes for representing particle beams and various aspects and properties of particle beams.
xal.tools.beam.optics

Uses of IProbe in xal.extension.jels.model.alg

Methods in xal.extension.jels.model.alg with parameters of type IProbe

Modifier and Type	Method	Description
protected void	ElsTracker.advanceState(IProbe ifcProbe, IElement ifcElem, double dblLen)	Advances the probe state through a subsection of the element with the specified length.
void	ElsTracker.doPropagation(IProbe probe, IElement elem)	Propagates the probe through the element.

Constructor parameters in xal.extension.jels.model.alg with type arguments of type IProbe

Modifier	Constructor	Description
protected	ElsTracker(String strType, int intVersion, Class<? extends IProbe> clsProbeType)	Creates a new, empty, instance of EnvelopeTracker.

Uses of IProbe in xal.extension.jels.model.elem

Methods in xal.extension.jels.model.elem with parameters of type IProbe

Modifier and Type	Method	Description
double	IdealMagSectorDipole.compProbeCurvature(IProbe probe)	Compute the path curvature within the dipole for the given probe.
void	ThickRfFieldMap.computePhaseDriftAndEnergyGain(IProbe probe, double dblLen)	Method calculates the phase drift and the energy gain on the current range (i.e from probe.getPosition, and for dblLength).
void	IdealRfGap.computeSynchronousPhaseAndEnergyGain(IProbe probe)
void	ThickRfFieldMap.computeSynchronousPhaseAndEnergyGain(IProbe probe)
void	ThinRfFieldMap.computeSynchronousPhaseAndEnergyGain(IProbe probe)
double	IdealMagDipoleFace.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	IdealMagSectorDipole.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for the probe to drift through part of the element.
double	IdealRfGap.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	RfqDummyModel.elapsedTime(IProbe probe, double dblLen)
double	ThickMagFieldMap.elapsedTime(IProbe probe, double dblLen)
double	ThickRfFieldMap.elapsedTime(IProbe probe, double dblLen)
protected double	ThinMagFieldMap.elapsedTime(IProbe probe)
protected double	ThinRfFieldMap.elapsedTime(IProbe probe)
double	IdealMagDipoleFace.energyGain(IProbe probe)	Return the energy gain for this Element.
double	IdealMagSectorDipole.energyGain(IProbe probe, double dblLen)	Return the energy gain imparted to a particular probe.
double	IdealRfGap.energyGain(IProbe probe)	Compute the energy gain of the RF gap for a probe including the effects of calculating the phase advance.
double	RfqDummyModel.energyGain(IProbe probe, double dblLen)
double	ThickMagFieldMap.energyGain(IProbe probe, double dblLen)
double	ThickRfFieldMap.energyGain(IProbe probe, double dblLen)
double	ThinMagFieldMap.energyGain(IProbe probe)
protected double	ThinRfFieldMap.energyGain(IProbe probe)	Calculate the energy gain for this element on the supplied probe.
double	TransferMapLoader.TransferMaps.energyGain(IProbe p, double l)
protected double	IdealRfGap.longitudinalPhaseAdvance(IProbe probe)
double	ThickRfFieldMap.longitudinalPhaseAdvance(IProbe probe, double dblLen)
protected double	ThinRfFieldMap.longitudinalPhaseAdvance(IProbe probe)
void	FieldMapIntegrator.timesKick(IProbe probe, double length, FieldMapPoint fieldMapPoint)
void	FieldMapIntegrator.timesKick(IProbe probe, double length, FieldMapPoint fieldMapPoint, double energyGain)
protected PhaseMap	IdealMagDipoleFace.transferMap(IProbe probe)	Compute and return the transfer map for this dipole magnet pole face element.
PhaseMap	IdealMagSectorDipole.transferMap(IProbe probe, double dblLen)	Compute the partial transfer map of an ideal sector magnet for the particular probe.
protected PhaseMap	IdealRfGap.transferMap(IProbe probe)	Compute the transfer map for an ideal RF gap.
PhaseMap	RfqDummyModel.transferMap(IProbe probe, double dblLen)
PhaseMap	ThickMagFieldMap.transferMap(IProbe probe, double dblLen)	Method calculates transfer matrix for the field map on the current range (i.e from probe.getPosition, and for dblLength).
PhaseMap	ThickRfFieldMap.transferMap(IProbe probe, double dblLen)	Method calculates transfer matrix for the field map on the current range (i.e from probe.getPosition, and for dblLength).
PhaseMap	ThinMagFieldMap.transferMap(IProbe probe)	Method calculates transfer matrix for the field map for a given data point in the field map.
PhaseMap	ThinRfFieldMap.transferMap(IProbe probe)	Method calculates transfer matrix for the field map for a given data point in the field map.Drift spaces are calculated separately.
PhaseMatrix	TransferMapLoader.TransferMaps.transferMap(IProbe p, double l)

Uses of IProbe in xal.extension.jels.model.probe

Classes in xal.extension.jels.model.probe that implement IProbe

Modifier and Type	Class	Description
class	ElsProbe	This is a probe ported from ELS implementation.

Uses of IProbe in xal.model

Methods in xal.model with parameters of type IProbe

Modifier and Type	Method	Description
void	IComponent.backPropagate(IProbe probe)	Propagates the Probe object through this component.
void	IComponent.backPropagate(IProbe probe, double d)	Position dependent tracking within an IElement
void	Lattice.backPropagate(IProbe probe)	Backward propagation of a probe through the lattice.
void	LineModel.backPropagate(IProbe probe)	Deprecated. Override of ElementSeq.backPropagate(xal.model.IProbe)
void	RingModel.backPropagate(IProbe probe)	Deprecated. Back propagation of a probe through the lattice.
double	IElement.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for the probe probe to propagate through a subsection of the element with length dblLen.
double	IElement.energyGain(IProbe probe, double dblLen)	Returns energy gain provided by a subsection of the element during the given length for the particular probe.
double	IElement.longitudinalPhaseAdvance(IProbe probe, double dblLen)	Returns the longitudinal phase advance of the given probe with respect to the RF phase while propagation through this element section.
void	IAlgorithm.propagate(IProbe probe, IElement elem)	Propagates the probe through the element.
void	IComponent.propagate(IProbe probe)	Propagates the Probe object through this component.
void	IComponent.propagate(IProbe probe, double d)	Position dependent tracking within an IElement
void	IComposite.propagate(IProbe probe)	Propagates the Probe object through this composite element sequentially element by element.
void	LineModel.propagate(IProbe probe)	Deprecated. Override of ElementSeq.propagate(xal.model.IProbe)
void	RingModel.propagate(IProbe probe)	Deprecated. Propagate a probe through the lattice.
PhaseMap	IElement.transferMap(IProbe probe, double dblLen)	Compute the transfer matrix for subsection of this element of length dblLen for the specified given probe.
boolean	IAlgorithm.validProbe(IProbe probe)	Check if probe can be handled by this algorithm.

Uses of IProbe in xal.model.alg

Methods in xal.model.alg that return types with arguments of type IProbe

Modifier and Type	Method	Description
Class<? extends IProbe>	Tracker.getProbeType()	The implementation must propagate the probe through the element according to the dynamics of the specific algorithm.

Methods in xal.model.alg with parameters of type IProbe

Modifier and Type	Method	Description
protected void	Tracker.advanceProbe(IProbe probe, IElement elem, double dblLen)	Convenience method for common propagation dynamics for all probes.
protected void	DiagnosticTracker.advanceState(IProbe probe, IElement elem, double dblLen)	Advance the supplied probe through a subsection of the specified length in the specified element.
protected void	EnsembleTracker.advanceState(IProbe probe, IElement elem, double dblLen)
protected void	EnvelopeTracker.advanceState(IProbe ifcProbe, IElement iElem, double dblLen)	Advances the probe state through a subsection of the element with the specified length.
protected void	SynchronousTracker.advanceState(IProbe ifcProbe, IElement elem)
protected void	Trace3dTracker.advanceState(IProbe ifcProbe, IElement ifcElem, double dblLen)	Advances the probe state through a subsection of the element with the specified length.
protected void	TwissTracker.advanceState(IProbe ifcProbe, IElement ifcElem, double dblLen)	Advances the probe state through a subsection of the element with the specified length.
void	DiagnosticTracker.doPropagation(IProbe probe, IElement elem)	Propagates the probe through the element.
void	EnsembleTracker.doPropagation(IProbe probe, IElement elem)	Propagates the probe through the element.
void	EnvelopeBacktracker.doPropagation(IProbe probe, IElement elem)	Implementation of Abstract Tracker#doPropagation(IProbe, IElement)
void	EnvelopeTracker.doPropagation(IProbe probe, IElement elem)	Propagates the probe through the element.
void	EnvelopeTrackerPmq.doPropagation(IProbe probe, IElement elem)	Propagates the probe through the element.
void	EnvelopeTrackerPmqDipole.doPropagation(IProbe probe, IElement elem)	Propagates the probe through the element.
void	EnvTrackerAdapt.doPropagation(IProbe ifcProbe, IElement elem)	Propagates the probe through the element using a second-order accurate adaptive step size algorithm for space charge calculations.
void	ParticleTracker.doPropagation(IProbe iProbe, IElement elem)	Propagates the probe through the element.
void	SynchronousTracker.doPropagation(IProbe probe, IElement elem)	Perform the actual probe propagation through the the modeling element.
void	Trace3dTracker.doPropagation(IProbe probe, IElement elem)	Propagates the probe through the element.
abstract void	Tracker.doPropagation(IProbe probe, IElement elem)	The implementation must propagate the probe through the element according to the dynamics of the specific algorithm.
void	TransferMapTracker.doPropagation(IProbe ifcProbe, IElement elem)	Perform the actual probe propagation through the the modeling element.
void	TwissTracker.doPropagation(IProbe probe, IElement elem)	Propagates the probe through the element.
void	TwissTrackerPmq.doPropagation(IProbe probe, IElement elem)	Propagates the probe through the element.
void	SynchronousTracker.propagate(IProbe probe, IComponent elem)	This method was included to deal with RfCavitie objects
void	Tracker.propagate(IProbe probe, IElement elem)	Propagates the probe through the element
protected void	Tracker.retractProbe(IProbe probe, IElement elem, double dblLen)	Override of xal.model.alg.Tracker#advanceProbe(xal.model.IProbe, xal.model.IElement, double)
protected void	EnvelopeBacktracker.retractState(IProbe ifcProbe, IElement ifcElem, double dblLen)	Back-propagates the Defining State of the Probe Object
boolean	Tracker.validProbe(IProbe ifcProbe)	Check if probe can be handled by this algorithm.

Method parameters in xal.model.alg with type arguments of type IProbe

Modifier and Type	Method	Description
protected void	Tracker.registerProbeType(Class<? extends IProbe> clsProbeType)	Register the class of a probe recognized by this algorithm.

Constructor parameters in xal.model.alg with type arguments of type IProbe

Modifier	Constructor	Description
protected	EnvelopeBacktracker(String strType, int intVersion, Class<? extends IProbe> clsProbeType)	This method is a protected constructor meant only for building child classes.
protected	EnvelopeTracker(String strType, int intVersion, Class<? extends IProbe> clsProbeType)	Creates a new, empty, instance of EnvelopeTracker.
protected	EnvelopeTrackerBase(String strType, int intVersion, Class<? extends IProbe> clsProbeType)	EnvelopeTrackerBase Constructor
protected	Tracker(String strType, int intVersion, Class<? extends IProbe> clsProbeType)	Creates a new, empty, instance of Tracker.
protected	TrackerAdaptive(String strType, int intVersion, Class<? extends IProbe> clsProbeType)	Deprecated.
protected	TwissTracker(String strType, int intVersion, Class<? extends IProbe> clsProbeType)	Creates a new, empty, instance of EnvelopeTracker.

Uses of IProbe in xal.model.elem

Methods in xal.model.elem with parameters of type IProbe

Modifier and Type	Method	Description
protected PhaseMatrix	ThickElement.applyErrors(PhaseMatrix matPhi, IProbe probe, double length)	Add Rotation and Displacement Error to Transfer Matrix
void	Element.backPropagate(IProbe probe)	Back propagates the Probe object through this element based on the associated algorithm.
void	Element.backPropagate(IProbe probe, double pos)	Back propagates the Probe object through this element based on the associated algorithm.
void	ElementSeq.backPropagate(IProbe probe)	Backward propagation of probe through sequence.
void	ElementSeq.backPropagate(IProbe probe, double pos)	Override of IComponent.propagate(xal.model.IProbe, double)
void	IdealRfCavity.backPropagate(IProbe probe)	I am overriding this method even though a proper back propagation is impossible.
double	IdealRfGap.betaMidGap(IProbe probe)	Compute and return the mid-gap normalized velocity for the given probe.
double	IdealPermMagQuad.calcK(IProbe probe, double dblLen)	Removed - Jan 2019 Natalia Milas private static PhaseMatrix applyAlignErrorStatic(PhaseMatrix matPhi, double delx, double dely, double delz) { if ((delx==0)&&(dely==0)&&(delz==0)) { return matPhi; } PhaseMatrix T = new PhaseMatrix(); //T = Translation Matrix by Chris Allen // |1 0 0 0 0 0 dx| // |0 1 0 0 0 0 0| // |0 0 1 0 0 0 dy| // |0 0 0 1 0 0 0| // |0 0 0 0 1 0 dz| // |0 0 0 0 0 1 0| // |0 0 0 0 0 0 1| // T(d)r = r+dr // where // r = |x | // |x'| // |y | // |y'| // |z | // |z'| // |1 | // dr = |dx | // |0 | // |dy | // |0 | // |dz | // |0 | // |0 | for (int i=0;i<7;i++) { T.setElem(i,i,1); } T.setElem(0,6,-delx); T.setElem(2,6,-dely); T.setElem(4,6,-delz); PhaseMatrix Phidx = T.inverse().times(matPhi).times(T); return Phidx; }
double	IdealMagSectorDipole.compCurvature(IProbe probe)	Deprecated. Compute the path curvature within the dipole for the given probe.
double	IdealMagWedgeDipole.compCurvature(IProbe probe)	Deprecated. Compute the path curvature within the dipole for the given probe.
double	Element.compDriftingTime(IProbe probe, double dblLen)	Compute the time the probe probe spends drifting a a distance dblLen.
double	IdealRfGapUpgraded.compEffectivePhaseAtGap(IProbe probe)	Provided for legacy calculations.
double	SpectrumMapRfGap.compEffectivePhaseAtGap(IProbe probe)	Provided for legacy calculations.
double	IdealRfGap.compLongFocusing(IProbe probe)	Get the longitudinal focusing constant for a particular probe.
double	IdealRfGapUpgraded.compLongFocusing(IProbe probe)	Get the longitudinal focusing constant for a particular probe.
double	SpectrumMapRfGap.compLongFocusing(IProbe probe)	Get the longitudinal focusing constant for a particular probe.
double	IdealRfGapUpgraded.compMidGapBeta(IProbe probe)	Compute and return the mid-gap normalized velocity for the given probe.
double	SpectrumMapRfGap.compMidGapBeta(IProbe probe)	Compute and return the mid-gap normalized velocity for the given probe.
double	IdealMagSectorDipole2.compPathLengthVariationFactor(IProbe probe)	Computes and returns the path length variation factor.
double	IdealMagSectorDipole2.compProbeCurvature(IProbe probe)	Compute the path curvature within the dipole for the given probe.
double	IdealMagWedgeDipole2.compProbeCurvature(IProbe probe)	Compute the path curvature within the dipole for the given probe.
double	Element.compProbeLocation(IProbe probe)
double	IdealMagSectorDipole2.compQuadrupoleConstant(IProbe probe)	Compute and return the quadrupole focusing constant for the current dipole settings and the given probe.
double	IdealRfGap.compTransFocusing(IProbe probe)	Get the transverse focusing constant for a particular probe.
double	IdealRfGapUpgraded.compTransFocusing(IProbe probe)	Get the transverse focusing constant for a particular probe.
double	SpectrumMapRfGap.compTransFocusing(IProbe probe)	Get the transverse focusing constant for a particular probe.
void	IdealRfGap.computeSynchronousPhaseAndEnergyGain(IProbe probe)
void	IdealRfGapUpgraded.computeSynchronousPhaseAndEnergyGain(IProbe probe)
void	SpectrumMapRfGap.computeSynchronousPhaseAndEnergyGain(IProbe probe)
double	ChargeExchangeFoil.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	Collimator.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
abstract double	Element.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for the probe probe to propagate through a subsection of the element with length dblLen.
double	IdealDrift.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for the probe to drift through part of the element.
double	IdealEDipole.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for the probe to drift through part of the element.
double	IdealEQuad.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for the probe to drift through part of the element.
double	IdealMagDipoleFace.elapsedTime(IProbe probe)	Deprecated. Returns the time taken for the probe to propagate through element.
double	IdealMagDipoleFace2.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	IdealMagFringeQuadFace.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	IdealMagOctupole.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	IdealMagQuad.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for the probe to drift through part of the element.
double	IdealMagSectorDipole.elapsedTime(IProbe probe, double dblLen)	Deprecated. Returns the time taken for the probe to drift through part of the element.
double	IdealMagSectorDipole2.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for the probe to drift through part of the element.
double	IdealMagSextupole.elapsedTime(IProbe probe, double length)	Determine the time taken for the probe to propagate through element.
double	IdealMagSkewQuad3.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for the probe to drift through part of the element.
double	IdealMagSolenoid.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for the probe to drift through part of the element.
double	IdealMagSteeringDipole.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	IdealPermMagQuad.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for the probe to drift through part of the element.
double	IdealRfGap.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	IdealRfGapUpgraded.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	Marker.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	SpectrumMapRfGap.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	ThickDipole.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for the probe to drift through part of the element.
abstract double	ThickElement.elapsedTime(IProbe probe, double dblLen)
double	ThickMatrix.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for any probe to drift through part of the element.
protected abstract double	ThinElement.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	ThinElement.elapsedTime(IProbe probe, double dblLen)	Returns the time taken for the probe to drift through part of the element.
double	ThinLens.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	ThinMatrix.elapsedTime(IProbe probe)	Returns the time taken for the probe to propagate through element.
double	ChargeExchangeFoil.energyGain(IProbe probe)	Returns energy gain which is zero.
double	Collimator.energyGain(IProbe probe)	Returns energy gain which is zero.
abstract double	Element.energyGain(IProbe probe, double dblLen)	Returns energy gain for subsection of this element of length dblLen for the specified given probe.
double	IdealDrift.energyGain(IProbe probe, double dblLen)	Return the energy gain imparted to a probe object.
double	IdealEDipole.energyGain(IProbe probe, double dblLen)	Returns the energy gain imparted to a particular probe.
double	IdealEQuad.energyGain(IProbe probe, double dblLen)	Return the energy gain imparted to a particular probe.
double	IdealMagDipoleFace.energyGain(IProbe probe)	Deprecated. Return the energy gain for this Element.
double	IdealMagDipoleFace2.energyGain(IProbe probe)	Return the energy gain for this Element.
double	IdealMagFringeQuadFace.energyGain(IProbe probe)	Return the energy gain for this Element.
double	IdealMagOctupole.energyGain(IProbe probe)	Returns energy gain which is zero.
double	IdealMagQuad.energyGain(IProbe probe, double dblLen)	Return the energy gain imparted to a particular probe.
double	IdealMagSectorDipole.energyGain(IProbe probe, double dblLen)	Deprecated. Return the energy gain imparted to a particular probe.
double	IdealMagSectorDipole2.energyGain(IProbe probe, double dblLen)	Return the energy gain imparted to a particular probe.
double	IdealMagSextupole.energyGain(IProbe probe, double length)	Determine energy gain which is zero.
double	IdealMagSkewQuad3.energyGain(IProbe probe, double dblLen)	Return the energy gain imparted to a particular probe.
double	IdealMagSolenoid.energyGain(IProbe probe, double dblLen)	Return the energy gain imparted to a particular probe.
double	IdealMagSteeringDipole.energyGain(IProbe probe)	Return the energy gain for this Element.
double	IdealPermMagQuad.energyGain(IProbe probe, double dblLen)	Return the energy ga in imparted to a particular probe.
double	IdealRfGap.energyGain(IProbe probe)	Compute the energy gain of the RF gap for a probe including the effects of calculating the phase advance.
double	IdealRfGapUpgraded.energyGain(IProbe probe)	Compute the energy gain of the RF gap for a probe including the effects of calculating the phase advance.
double	Marker.energyGain(IProbe probe)	Returns energy gain which is zero.
double	SpectrumMapRfGap.energyGain(IProbe probe)	Compute the energy gain of the RF gap for a probe including the effects of calculating the phase advance.
double	ThickDipole.energyGain(IProbe probe, double dblLen)	Return the energy gain imparted to a particular probe.
abstract double	ThickElement.energyGain(IProbe probe, double dblLen)	Return the energy gain of the beamline element over a subsection of the specified length.
double	ThickMatrix.energyGain(IProbe probe, double dblLen)	Returns the energy gain imparted to any probe when going through part of the element.
protected abstract double	ThinElement.energyGain(IProbe probe)	Calculate the energy gain for this element on the supplied probe.
double	ThinElement.energyGain(IProbe probe, double dblLen)	Calculate the energy gain for this element.
double	ThinLens.energyGain(IProbe probe)	Returns zero for the energy gain imparted to any probe by a thin lens.
double	ThinMatrix.energyGain(IProbe probe)	Returns the energy gain of this element, which is independent of all probe parameters.
double	ThickDipole.getFieldIndex(IProbe probe)	get field index nQ
double	IdealPermMagQuad.kFringe(IProbe probe, double dblLen)
protected double	IdealPermMagQuad.kFringeFromOthers(IProbe probe, double dblLen)
abstract double	Element.longitudinalPhaseAdvance(IProbe probe, double dblLen)	This is a kluge to make RF gaps work, since frequency is not defined for most modeling elements.
double	IdealRfCavityDrift.longitudinalPhaseAdvance(IProbe probe, double dblLen)	Computes and returns the phase advance of the probe while drifting through the given segment of this drift.
double	IdealRfGapUpgraded.longitudinalPhaseAdvance(IProbe probe)	Compute and return the longitudinal phase advance (w.r.t. the RF) for the given probe while propagating through this element.
double	SpectrumMapRfGap.longitudinalPhaseAdvance(IProbe probe)	Compute and return the longitudinal phase advance (w.r.t. the RF) for the given probe while propagating through this element.
double	ThickElement.longitudinalPhaseAdvance(IProbe probe, double dblLen)	This is a kluge to make RF gaps work, since frequency is not defined for modeling elements outside RF cavities.
protected double	ThinElement.longitudinalPhaseAdvance(IProbe probe)	Again, this is a kluge.
double	ThinElement.longitudinalPhaseAdvance(IProbe probe, double dblLen)	Calculate the longitudinal phase advance through this element ignoring the length parameter (or lack thereof).
void	Element.propagate(IProbe probe)	Override of IComponent.propagate(xal.model.IProbe, double) Propagates the Probe object through this element based on the associated algorithm.
void	Element.propagate(IProbe probe, double pos)	Override of IComponent.propagate(xal.model.IProbe, double) Propagates the Probe object through this element based on the associated algorithm.
void	ElementSeq.propagate(IProbe probe)	Propagate probe through sequence
void	ElementSeq.propagate(IProbe probe, double pos)	Override of IComponent.propagate(xal.model.IProbe, double)
void	IdealRfCavity.propagate(IProbe probe)	Sets the probes longitudinal phase to the phase of this cavity upon entrance.
double	IdealRfGap.simpleEnergyGain(IProbe probe)	Compute the energy gain of the RF gap for a probe assuming a fixed default phase at the gap center.
protected PhaseMap	ChargeExchangeFoil.transferMap(IProbe probe)	Returns the transfer map of this element which is the identity.
protected PhaseMap	Collimator.transferMap(IProbe probe)	Returns the transfer map of this element which is the identity.
abstract PhaseMap	Element.transferMap(IProbe probe, double dblLen)	Compute the transfer matrix for subsection of this element of length dblLen for the specified given probe.
PhaseMap	IdealDrift.transferMap(IProbe probe, double dblLen)	Computes the partial transfer map for an ideal drift space.
PhaseMap	IdealEDipole.transferMap(IProbe probe, double dL)	Computes the partial transfer map of an ideal dipole for the particular probe.
PhaseMap	IdealEQuad.transferMap(IProbe probe, double length)	Compute the partial transfer map of an ideal Equadrupole for the particular probe.
protected PhaseMap	IdealMagDipoleFace.transferMap(IProbe probe)	Deprecated.
protected PhaseMap	IdealMagDipoleFace2.transferMap(IProbe probe)	Compute and return the transfer map for this dipole magnet pole face element.
protected PhaseMap	IdealMagFringeQuadFace.transferMap(IProbe probe)	Compute and return the transfer map for this dipole magnet pole face element.
protected PhaseMap	IdealMagOctupole.transferMap(IProbe probe)	Returns the transfer map of this element which is the identity.
PhaseMap	IdealMagQuad.transferMap(IProbe probe, double length)	Compute the partial transfer map of an ideal quadrupole for the particular probe.
PhaseMap	IdealMagSectorDipole.transferMap(IProbe probe, double dL)	Deprecated. Compute the partial transfer map of an ideal sector magnet for the particular probe.
PhaseMap	IdealMagSectorDipole2.transferMap(IProbe probe, double dblLen)	Compute the partial transfer map of an ideal sector magnet for the particular probe.
PhaseMap	IdealMagSextupole.transferMap(IProbe probe, double length)	Determine the transfer map of this element which is simply treated as a drift.
PhaseMap	IdealMagSkewQuad.transferMap(IProbe probe, double length)	Deprecated. Compute the partial transfer map of an ideal skew quadrupole for the particular probe.
PhaseMap	IdealMagSkewQuad3.transferMap(IProbe probe, double length)	Compute the partial transfer map of an ideal quadrupole for the particular probe.
PhaseMap	IdealMagSolenoid.transferMap(IProbe probe, double length)	Compute the partial transfer map of an ideal solenoid for the particular probe.
protected PhaseMap	IdealMagSteeringDipole.transferMap(IProbe probe)	Computes the transfer map for an ideal magnetic dipole.
PhaseMap	IdealPermMagQuad.transferMap(IProbe probe, double dblLen)
PhaseMap	IdealPermMagQuad.transferMap(IProbe probe, double dL, double k, int orientation)	Compute the partial transfer map of an ideal permanent quadrupole for the particular probe.
protected PhaseMap	IdealRfGap.transferMap(IProbe probe)	Compute the transfer map for an ideal RF gap.
protected PhaseMap	IdealRfGapUpgraded.transferMap(IProbe probe)	Compute the transfer map for an ideal RF gap.
protected PhaseMap	Marker.transferMap(IProbe probe)	Returns the transfer map of this element which is the identity.
protected PhaseMap	SpectrumMapRfGap.transferMap(IProbe probe)	Compute the transfer map for an ideal RF gap.
PhaseMap	ThickDipole.transferMap(IProbe probe, double dL)	Compute the partial transfer map of an ideal quadrupole for the particular probe.
abstract PhaseMap	ThickElement.transferMap(IProbe probe, double dblLen)
PhaseMap	ThickMatrix.transferMap(IProbe probe, double dblLen)	Returns the transfer map produced by the generator matrix over the distance dblLen.
protected abstract PhaseMap	ThinElement.transferMap(IProbe probe)	Compute the transfer matrix of this element.
PhaseMap	ThinElement.transferMap(IProbe probe, double dblLen)	Compute the transfer matrix for subsection of this element of length dblLen for the specified given probe.
protected PhaseMap	ThinLens.transferMap(IProbe probe)	Compute and return the block-diagonal transfer matrix representing a thin lens in each phase plane.
protected PhaseMap	ThinMatrix.transferMap(IProbe probe)	Returns the transfer map of this element, which only has a linear component corresponding to the transfer matrix,
PhaseMap	IdealMagSectorDipole.transferMapThickDipole(IProbe probe, double dL)	Deprecated. A version from ThickDipole.

Uses of IProbe in xal.model.elem.sync

Methods in xal.model.elem.sync with parameters of type IProbe

Modifier and Type	Method	Description
void	IRfGap.computeSynchronousPhaseAndEnergyGain(IProbe probe)	Compute the synchronous phase and the energy gain for a cavity gap.

Uses of IProbe in xal.model.probe

Classes in xal.model.probe that implement IProbe

Modifier and Type	Class	Description
class	BunchProbe<S extends BunchProbeState<S>>	Abstract base class for all probes having beam properties.
class	DiagnosticProbe	Simple diagnostic probe for testing the Lattice framework.
class	EnsembleProbe	Represents an ensemble of particles.
class	EnvelopeProbe	EnvelopeProbe represents the RMS beam envelopes of a beam.
class	ParticleProbe	ParticleProbe extends the base BeamProbe to manage a particle state which is a Vector of homogeneous phase space variables.
class	Probe<S extends ProbeState<S>>	Provides a base class implementation of the IProbe interface that is useful for most standard probe types.
class	SynchronousProbe	This class represents the behavior of the synchronous particle of a particle beam bunch.
class	TransferMapProbe	Probe that tracks all the transfer maps between modeling elements.
class	TwissProbe	EnvelopeProbe represents the RMS beam envelopes of a beam.

Uses of IProbe in xal.tools.beam

Constructors in xal.tools.beam with parameters of type IProbe

Modifier	Constructor	Description
	EnergyFinder(IProbe probe, double freq)	constructor

Uses of IProbe in xal.tools.beam.optics

Methods in xal.tools.beam.optics with parameters of type IProbe

Modifier and Type	Method	Description
static double	BendingMagnet.compCurvature(IProbe probe, double dblFld)	Compute the path curvature of a magnetic dipole for the given probe.