SpacePoint typically is build from 1 PXDCluster or 1-2 SVDClusters. More...

#include <SpacePoint.h>

Inheritance diagram for SpacePoint:

Public Member Functions
	SpacePoint (const PXDCluster pxdCluster, const VXD::SensorInfoBase aSensorInfo=nullptr)
	Constructor SpacePoint from one PXD Hit.

	SpacePoint (std::vector< SVDCluster const * > &clusters, VXD::SensorInfoBase const *aSensorInfo=nullptr)
	Constructor SpacePoint from ONE or TWO SVDClusters.

	SpacePoint ()
	Default constructor for the ROOT IO.

	SpacePoint (const B2Vector3D &pos, const B2Vector3D &posError, std::pair< double, double > normalizedLocal, std::pair< bool, bool > clustersAssigned, VxdID sensorID, Belle2::VXD::SensorInfoBase::SensorType detID, double UClusterTime=0., double VClusterTime=0.)
	Constructor for debugging or other special purposes.

virtual	~SpacePoint ()
	Currently SpacePoint is used as base class for test beam related TBSpacePoint.

bool	operator== (const SpacePoint &b) const
	Compare, if two SpacePoints are the same one.

bool	operator!= (const SpacePoint &b) const
	Comparison for inequality with another SpacePoint.

std::string	getName () const override
	Print out some info for this SpacePoint.

double	X () const
	return the x-value of the global position of the SpacePoint

double	Y () const
	return the y-value of the global position of the SpacePoint

double	Z () const
	return the z-value of the global position of the SpacePoint

double	TimeU () const
	return the time in ns of the cluster on the U side

double	TimeV () const
	return the time in ns of the cluster on the V side

const B2Vector3D &	getPosition () const
	return the position vector in global coordinates

const B2Vector3D &	getPositionError () const
	return the hitErrors in sigma of the global position

Belle2::VXD::SensorInfoBase::SensorType	getType () const
	Return SensorType (PXD, SVD, ...) on which the SpacePoint lives.

VxdID	getVxdID () const
	Return the VxdID of the sensor on which the the cluster of the SpacePoint lives.

double	getNormalizedLocalU () const
	Return normalized local coordinates of the cluster in u (0 <= posU <= 1).

double	getNormalizedLocalV () const
	Return normalized local coordinates of the cluster in v (0 <= posV <= 1).

std::pair< bool, bool >	getIfClustersAssigned () const
	Returns, if u(v)-coordinate is based on cluster information.

unsigned short	getNClustersAssigned () const
	Returns the number of Clusters assigned to this SpacePoint.

void	setAssignmentState (bool isAssigned) const
	Setter for association with a track.

bool	isUOnly () const
	Returns true if the SP is single clustered and the cluster is a u cluster.

bool	isVOnly () const
	Returns true if the SP is single clustered and the cluster is a v cluster.

bool	isUAndV () const
	Returns true if the SP is not single clustered.

bool	getAssignmentState () const
	Getter for status of assignment to a track.

void	setQualityEstimation (float qualityIndicator)
	Setter for the quality of this SpacePoint.

float	getQualityEstimation () const
	Getter for the quality of this SpacePoint.

void	setQualityEstimationError (double qualityIndicatorError)
	Setter for the spacePoint quality index error.

float	getQualityEstimationError () const
	Getter for the spacePoint quality index error.

virtual std::vector< genfit::PlanarMeasurement >	getGenfitCompatible () const
	returns a vector of genfit::PlanarMeasurement, which is needed for genfit::track.

void	addRelationTo (const RelationsInterface< BASE > *object, float weight=1.0, const std::string &namedRelation="") const
	Add a relation from this object to another object (with caching).

void	addRelationTo (const TObject *object, float weight=1.0, const std::string &namedRelation="") const
	Add a relation from this object to another object (no caching, can be quite slow).

void	copyRelations (const RelationsInterface< BASE > *sourceObj)
	Copies all relations of sourceObj (pointing from or to sourceObj) to this object (including weights).

template<class TO >
RelationVector< TO >	getRelationsTo (const std::string &name="", const std::string &namedRelation="") const
	Get the relations that point from this object to another store array.

template<class FROM >
RelationVector< FROM >	getRelationsFrom (const std::string &name="", const std::string &namedRelation="") const
	Get the relations that point from another store array to this object.

template<class T >
RelationVector< T >	getRelationsWith (const std::string &name="", const std::string &namedRelation="") const
	Get the relations between this object and another store array.

template<class TO >
TO *	getRelatedTo (const std::string &name="", const std::string &namedRelation="") const
	Get the object to which this object has a relation.

template<class FROM >
FROM *	getRelatedFrom (const std::string &name="", const std::string &namedRelation="") const
	Get the object from which this object has a relation.

template<class T >
T *	getRelated (const std::string &name="", const std::string &namedRelation="") const
	Get the object to or from which this object has a relation.

template<class TO >
std::pair< TO *, float >	getRelatedToWithWeight (const std::string &name="", const std::string &namedRelation="") const
	Get first related object & weight of relation pointing to an array.

template<class FROM >
std::pair< FROM *, float >	getRelatedFromWithWeight (const std::string &name="", const std::string &namedRelation="") const
	Get first related object & weight of relation pointing from an array.

template<class T >
std::pair< T *, float >	getRelatedWithWeight (const std::string &name="", const std::string &namedRelation="") const
	Get first related object & weight of relation pointing from/to an array.

virtual std::string	getInfoHTML () const
	Return a short summary of this object's contents in HTML format.

std::string	getInfo () const
	Return a short summary of this object's contents in raw text format.

std::string	getArrayName () const
	Get name of array this object is stored in, or "" if not found.

int	getArrayIndex () const
	Returns this object's array index (in StoreArray), or -1 if not found.

Static Public Member Functions
static B2Vector3D	getGlobalCoordinates (const std::pair< double, double > &hitLocal, VxdID vxdID, const VXD::SensorInfoBase *aSensorInfo=nullptr)
	converts a local hit on a given sensor into global coordinates.

static std::pair< double, double >	convertLocalToNormalizedCoordinates (const std::pair< double, double > &hitLocal, VxdID vxdID, const VXD::SensorInfoBase *aSensorInfo=nullptr)
	converts a local hit into sensor-independent relative coordinates.

static std::pair< double, double >	convertNormalizedToLocalCoordinates (const std::pair< double, double > &hitNormalized, Belle2::VxdID vxdID, const Belle2::VXD::SensorInfoBase *aSensorInfo=nullptr)
	converts a hit in sensor-independent relative coordinates into local coordinate of given sensor.

static double	getUWedged (const std::pair< double, double > &hitLocalUnwedged, VxdID vxdID, const VXD::SensorInfoBase *aSensorInfo=nullptr)
	takes a general uCoordinate, and transforms it to corrected uCoordinate for wedged sensors.

static double	getUUnwedged (const std::pair< double, double > &hitLocalWedged, VxdID::baseType vxdID, const VXD::SensorInfoBase *aSensorInfo=nullptr)
	takes a wedged uCoordinate, and transforms it to general uCoordinate.

static void	boundaryEnforce (double &value, const double &otherValue, double lower=0, double higher=1, unsigned int side=0, VxdID vxdID=VxdID())
	Enforce 'value' in the range ['lower', 'higher'].

Protected Member Functions
void	setPositionError (double uSigma, double vSigma, const VXD::SensorInfoBase *aSensorInfo)
	Setter for global position error from on-sensor sigmas.

TClonesArray *	getArrayPointer () const
	Returns the pointer to the raw DataStore array holding this object (protected since these arrays are easy to misuse).

Protected Attributes
B2Vector3D	m_position
	Global position vector.

B2Vector3D	m_positionError
	Global position error vector in sigma.

std::pair< double, double >	m_normalizedLocal
	Local position vector normalized to sensor size (0 <= x <= 1).

double	m_UClusterTime
	Time of the cluster on the U side in ns.

double	m_VClusterTime
	Time of the cluster on the V side in ns.

std::pair< bool, bool >	m_clustersAssigned {false, false}
	The bool value is true, when correct information of the coordinate exists.

VxdID::baseType	m_vxdID
	Stores the VxdID.

VXD::SensorInfoBase::SensorType	m_sensorType
	Stores the SensorType using the scheme of SensorInfoBase.

float	m_qualityIndicator {0.5}
	Stores a quality indicator.

float	m_qualityIndicatorError {0.5}
	Stores the error on the quality indicator.

bool	m_isAssigned {false}
	Stores whether this SpacePoint is connected to a track.

Private Member Functions
	ClassDef (RelationsInterface, 0)
	defines interface for accessing relations of objects in StoreArray.

Private Attributes
DataStore::StoreEntry *	m_cacheDataStoreEntry
	Cache of the data store entry to which this object belongs.

int	m_cacheArrayIndex
	Cache of the index in the TClonesArray to which this object belongs.

Friends
std::ostream &	operator<< (std::ostream &out, const SpacePoint &aSP)
	overloaded '<<' stream operator.

Detailed Description

SpacePoint typically is build from 1 PXDCluster or 1-2 SVDClusters.

It stores a global space point with its position error and some extra infos, such as a flag, if it is already assigned.

For SVD only:
If relations to its attached Clusters are set, these have got the following meaning:

relationweights code the type of the cluster. +1 for u and -1 for v clusters.

Definition at line 42 of file SpacePoint.h.

Constructor & Destructor Documentation

◆ SpacePoint() [1/4]

SpacePoint	(	const PXDCluster *	pxdCluster,
		const VXD::SensorInfoBase *	aSensorInfo = `nullptr`
	)

explicit

Constructor SpacePoint from one PXD Hit.

Parameters

pxdCluster	Pointer to PXDCluster (typically owned by the DataStore).
aSensorInfo	Only for testing purposes.

Definition at line 17 of file SpacePoint.cc.

                                                             :  m_clustersAssigned({true, true}), m_vxdID(pxdCluster->getSensorID())
{
  //We need some handle to translate IDs to local and global coordinates.
  //aSensorInfo exists only for testing purposes, so this is the relevant case!
  if (aSensorInfo == nullptr) {
    aSensorInfo = &VXD::GeoCache::getInstance().getSensorInfo(m_vxdID);
  }
 
  // the second parameter set to true results in alignment constants being applied
  m_position = aSensorInfo->pointToGlobal(ROOT::Math::XYZVector(pxdCluster->getU(), pxdCluster->getV(), 0), true);
 
  setPositionError(pxdCluster->getUSigma(), pxdCluster->getVSigma(), aSensorInfo);
 
  m_normalizedLocal = convertLocalToNormalizedCoordinates({ pxdCluster->getU(), pxdCluster->getV() },
                                                          m_vxdID, aSensorInfo);
 
  m_sensorType = aSensorInfo->getType();
}

◆ SpacePoint() [2/4]

SpacePoint	(	std::vector< SVDCluster const * > &	clusters,
		VXD::SensorInfoBase const *	aSensorInfo = `nullptr`
	)

explicit

Constructor SpacePoint from ONE or TWO SVDClusters.

Parameters

clusters	container carrying pointers to SVDCluster (1 or 2 (u+v), must not be nullptr).
aSensorInfo	SensorInfoBase for testing purposes, usually derived from first cluster.

Definition at line 39 of file SpacePoint.cc.

{
  //---The following contains only sanity checks without effect, if nobody gave buggy information---
  //We have 1 or two SVD Clusters.
  B2ASSERT("You have to insert 1 or two SVD Clusters, but gave: " << clusters.size(), ((clusters.size() == 1)
           || (clusters.size() == 2)));
 
  //No cluster pointer is a nullptr.
  for (auto&& cluster : clusters) {
    B2ASSERT("An SVDCluster Pointer is a nullptr!", cluster != nullptr);
  }
 
  //In case of 2 clusters, they are compatible with each other.
  if (clusters.size() == 2) {
    B2ASSERT("Clusters are on different Sensors.",   clusters[0]->getSensorID() == clusters[1]->getSensorID());
    B2ASSERT("Clusters are of same direction type.", clusters[0]->isUCluster()  != clusters[1]->isUCluster());
  }
  //---End sanity checks---
 
  m_vxdID = clusters[0]->getSensorID();
 
  //We need some handle to translate IDs to local and global coordinates.
  if (aSensorInfo == nullptr) {
    aSensorInfo = &VXD::GeoCache::getInstance().getSensorInfo(m_vxdID);
  }
 
  m_sensorType = aSensorInfo->getType();
 
  // retrieve position and sigma-values
  double uCoord =  0; // 0 = center of Sensor
  double vCoord =  0; // 0 = center of Sensor
  double uSigma = -1; // negative sigmas are not possible, setting to -1 for catching cases of missing Cluster
  double vSigma = -1; // negative sigmas are not possible, setting to -1 for catching cases of missing Cluster
 
  const SVDCluster* vCluster(nullptr), *uCluster(nullptr);
  for (const SVDCluster* aCluster : clusters) {
    if (aCluster->isUCluster() == true) {
      m_clustersAssigned.first = true;
      uCoord = aCluster->getPosition();
      uSigma = aCluster->getPositionSigma();
      uCluster = aCluster;
    } else {
      m_clustersAssigned.second = true;
      vCoord = aCluster->getPosition();
      vSigma = aCluster->getPositionSigma();
      vCluster = aCluster;
    }
  }
 
  if (aSensorInfo->getBackwardWidth() > aSensorInfo->getForwardWidth() &&
      vCluster != nullptr && uCluster != nullptr) // is a WedgeSensor and we do have a vCluster
    uCoord = uCluster->getPosition(vCoord);
 
  // the second parameter set to true results in alignment constants being applied
  m_position = aSensorInfo->pointToGlobal(ROOT::Math::XYZVector(uCoord, vCoord, 0), true);
  m_normalizedLocal = convertLocalToNormalizedCoordinates({ uCoord, vCoord }, m_vxdID, aSensorInfo);
 
  // if sigma for a coordinate is not known, a uniform distribution over the whole sensor is assumed:
  if (uSigma < 0) {
    uSigma = aSensorInfo->getUSize(vCoord) / sqrt(12.);
  }
  if (vSigma < 0) {
    vSigma = aSensorInfo->getVSize() / sqrt(12.);
  }
 
  setPositionError(uSigma, vSigma, aSensorInfo);
 
  //retrieve and set hit times
  for (const SVDCluster* aCluster : clusters)
    if (aCluster->isUCluster() == true)
      m_UClusterTime = aCluster->getClsTime();
    else
      m_VClusterTime = aCluster->getClsTime();
 
}

◆ SpacePoint() [3/4]

SpacePoint ( )

inline

Default constructor for the ROOT IO.

Definition at line 63 of file SpacePoint.h.

                 :
      m_positionError(1., 1., 1.), //TODO: Describe Design Decision for not using the default (0.,0.,0.)
      m_UClusterTime(0.), m_VClusterTime(0.),
      m_vxdID(0), m_sensorType(VXD::SensorInfoBase::SensorType::VXD) // type is set to generic VXD
    {}

◆ SpacePoint() [4/4]

SpacePoint	(	const B2Vector3D &	pos,
		const B2Vector3D &	posError,
		std::pair< double, double >	normalizedLocal,
		std::pair< bool, bool >	clustersAssigned,
		VxdID	sensorID,
		Belle2::VXD::SensorInfoBase::SensorType	detID,
		double	UClusterTime = `0.`,
		double	VClusterTime = `0.`
	)

inline

Constructor for debugging or other special purposes.

Parameters

pos	global SpacePoint position.
posError	uncertainty on position.
normalizedLocal	coordinates (element: [0;1]) of SP on given sensorID (.first "=" u, .second "=" v).
clustersAssigned	states, if u (.first) or v (.second) is assigned.
sensorID	VxdID of sensor the SpacePoint shall be on.
detID	SensorType detector-type (PXD, SVD, ...) to be used.
UClusterTime	Time in ns of the cluster on the U side
VClusterTime	Time in ns of the cluster on the V side

Definition at line 80 of file SpacePoint.h.

                                                                   :
      m_position(pos), m_positionError(posError),
      m_normalizedLocal(normalizedLocal),
      m_UClusterTime(UClusterTime), m_VClusterTime(VClusterTime),
      m_clustersAssigned(clustersAssigned),
      m_vxdID(sensorID), m_sensorType(detID)
    {}

◆ ~SpacePoint()

virtual ~SpacePoint ( )

inlinevirtual

Currently SpacePoint is used as base class for test beam related TBSpacePoint.

Definition at line 91 of file SpacePoint.h.

91{}

Member Function Documentation

◆ addRelationTo() [1/2]

void addRelationTo	(	const RelationsInterface< BASE > *	object,
		float	weight = `1.0`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Add a relation from this object to another object (with caching).

Parameters

object	The object to which the relation should point.
weight	The weight of the relation.
namedRelation	Additional name for the relation, or "" for the default naming

Definition at line 142 of file RelationsObject.h.

    {
      if (object)
        DataStore::Instance().addRelation(this, m_cacheDataStoreEntry, m_cacheArrayIndex,
                                          object, object->m_cacheDataStoreEntry, object->m_cacheArrayIndex, weight, namedRelation);
    }

◆ addRelationTo() [2/2]

void addRelationTo	(	const TObject *	object,
		float	weight = `1.0`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Add a relation from this object to another object (no caching, can be quite slow).

Parameters

object	The object to which the relation should point.
weight	The weight of the relation.
namedRelation	Additional name for the relation, or "" for the default naming

Definition at line 155 of file RelationsObject.h.

    {
      StoreEntry* toEntry = nullptr;
      int toIndex = -1;
      DataStore::Instance().addRelation(this, m_cacheDataStoreEntry, m_cacheArrayIndex, object, toEntry, toIndex, weight, namedRelation);
    }

◆ boundaryEnforce()

static void boundaryEnforce	(	double &	value,
		const double &	otherValue,
		double	lower = `0`,
		double	higher = `1`,
		unsigned int	side = `0`,
		VxdID	vxdID = `VxdID()`
	)

inlinestatic

Enforce 'value' in the range ['lower', 'higher'].

param = min(max(param,lower),higher)

Parameters

value	is the coordinate that must be constrained in the range
otherValue	is for debugging and logging purposes
lower	is the lower limit of the prescribed range
higher	is the upper limit of the prescribed range
side	is for debugging purposes: 0 for U side 1 for V side
vxdID	is for debugging purposes

Definition at line 296 of file SpacePoint.h.

    {
      // Times to times there are normalized coordinates that are out of the boundaries.
      // We do apply a small sloppiness here
 
      double sloppyTerm = 1e-3;
      if (value < lower - sloppyTerm) {
        B2WARNING("SpacePoint::boundaryEnforce: value had to be moved (lowerCheck)! old: " << value << ", new: " << lower);
        B2WARNING("On sensor: " << vxdID << " side: " << (side == 0 ? " U " : " V") <<
                  " when the other coordinate is: " << otherValue);
 
        value = lower;
      }
      if (value > higher + sloppyTerm) {
        B2WARNING("SpacePoint::boundaryEnforce: value had to be moved (higherCheck)! old: " << value << ", new: " << higher);
        B2WARNING("On sensor: " << vxdID << " side: " << (side == 0 ? " U " : " V") <<
                  " when the other coordinate is: " << otherValue);
        value = higher;
      }
 
    }

◆ convertLocalToNormalizedCoordinates()

std::pair< double, double > convertLocalToNormalizedCoordinates	(	const std::pair< double, double > &	hitLocal,
		VxdID	vxdID,
		const VXD::SensorInfoBase *	aSensorInfo = `nullptr`
	)

static

converts a local hit into sensor-independent relative coordinates.

first parameter is the local hit (as provided by SpacePoint::getUWedged(...) and Cluster::getV!) stored as a pair of doubles. second parameter is the coded vxdID, which carries the sensorID. third parameter, a sensorInfo can be passed for testing purposes. If no sensorInfo is passed, the member gets its own pointer to it.

ATTENTION: this function assumes, that for wedged sensors, the uCoordinate is already adapted to the vCoordinate! The normalized coordinates are independent of wedged-sensor-issues

Definition at line 149 of file SpacePoint.cc.

{
  //We need some handle to translate IDs to local and global
  // coordinates.
  if (aSensorInfo == nullptr) {
    aSensorInfo = &VXD::GeoCache::getInstance().getSensorInfo(vxdID);
  }
 
  //As the 0 is in the middle of sensor in the geometry, and we want
  // to normalize all positions to numbers between [0,1],
  // where the middle will be 0.5,
  // we need to do some calculation.
  double sensorSizeU =  aSensorInfo->getUSize(hitLocal.second); // this deals with the case of trapezoidal sensors too
  double sensorSizeV =  aSensorInfo->getVSize();
 
  double normalizedUPosition = (hitLocal.first +  0.5 * sensorSizeU) /
                               sensorSizeU; // independent of the trapezoidal sensor-issue by definition
  double normalizedVPosition = (hitLocal.second +  0.5 * sensorSizeV) / sensorSizeV;
 
  boundaryEnforce(normalizedUPosition, normalizedVPosition, 0, 1, 0, vxdID);
  boundaryEnforce(normalizedVPosition, normalizedUPosition, 0, 1, 1, vxdID);
 
  return { normalizedUPosition, normalizedVPosition };
}

◆ convertNormalizedToLocalCoordinates()

std::pair< double, double > convertNormalizedToLocalCoordinates	(	const std::pair< double, double > &	hitNormalized,
		Belle2::VxdID	vxdID,
		const Belle2::VXD::SensorInfoBase *	aSensorInfo = `nullptr`
	)

static

converts a hit in sensor-independent relative coordinates into local coordinate of given sensor.

first parameter is the hit in sensor-independent normalized ! coordinates stored as a pair of floats. second parameter is the coded vxdID, which carries the sensorID. third parameter, a sensorInfo can be passed for testing purposes. If no sensorInfo is passed, the member gets its own pointer to it.

Definition at line 178 of file SpacePoint.cc.

{
  //We need some handle to translate IDs to local and global
  // coordinates.
  if (aSensorInfo == nullptr) {
    aSensorInfo = &VXD::GeoCache::getInstance().getSensorInfo(vxdID);
  }
 
  // normalized coordinate range is from 0 to 1
  // local coordinate range is from - halfSensorSize to + halfSensorSize
  double localVPosition = (hitNormalized.second - 0.5) * aSensorInfo->getVSize();
  double uSizeAtHit = aSensorInfo->getUSize(localVPosition);
  double localUPosition = (hitNormalized.first - 0.5) * uSizeAtHit;
 
  boundaryEnforce(localVPosition, localUPosition,
                  -0.5 * aSensorInfo->getVSize(), 0.5 * aSensorInfo->getVSize(), 1, vxdID); // restrain hits to sensor boundaries
 
  boundaryEnforce(localUPosition, localVPosition, -0.5 * uSizeAtHit, 0.5 * uSizeAtHit,
                  0, vxdID); // restrain hits to sensor boundaries
 
  return { localUPosition, localVPosition };
}

◆ copyRelations()

void copyRelations ( const RelationsInterface< BASE > * sourceObj )

inlineinherited

Copies all relations of sourceObj (pointing from or to sourceObj) to this object (including weights).

Useful if you want to make a complete copy of a StoreArray object to make modifications to it, but retain all information on linked objects.

Note: this only works if sourceObj inherits from the same base (e.g. RelationsObject), and only for related objects that also inherit from the same base.

Definition at line 170 of file RelationsObject.h.

    {
      if (!sourceObj)
        return;
      auto fromRels = sourceObj->getRelationsFrom<RelationsInterface<BASE>>("ALL");
      for (unsigned int iRel = 0; iRel < fromRels.size(); iRel++) {
        fromRels.object(iRel)->addRelationTo(this, fromRels.weight(iRel));
      }
 
      auto toRels = sourceObj->getRelationsTo<RelationsInterface<BASE>>("ALL");
      for (unsigned int iRel = 0; iRel < toRels.size(); iRel++) {
        this->addRelationTo(toRels.object(iRel), toRels.weight(iRel));
      }
    }

◆ getArrayIndex()

int getArrayIndex ( ) const

inlineinherited

Returns this object's array index (in StoreArray), or -1 if not found.

Definition at line 385 of file RelationsObject.h.

    {
      DataStore::Instance().findStoreEntry(this, m_cacheDataStoreEntry, m_cacheArrayIndex);
      return m_cacheArrayIndex;
    }

◆ getArrayName()

std::string getArrayName ( ) const

inlineinherited

Get name of array this object is stored in, or "" if not found.

Definition at line 377 of file RelationsObject.h.

    {
      DataStore::Instance().findStoreEntry(this, m_cacheDataStoreEntry, m_cacheArrayIndex);
      return m_cacheDataStoreEntry ? m_cacheDataStoreEntry->name : "";
    }

◆ getArrayPointer()

TClonesArray * getArrayPointer ( ) const

inlineprotectedinherited

Returns the pointer to the raw DataStore array holding this object (protected since these arrays are easy to misuse).

Definition at line 418 of file RelationsObject.h.

    {
      DataStore::Instance().findStoreEntry(this, m_cacheDataStoreEntry, m_cacheArrayIndex);
      if (!m_cacheDataStoreEntry)
        return nullptr;
      return m_cacheDataStoreEntry->getPtrAsArray();
    }

◆ getAssignmentState()

bool getAssignmentState ( ) const

inline

Getter for status of assignment to a track.

Definition at line 185 of file SpacePoint.h.

185{ return m_isAssigned; }

Belle2::SpacePoint::m_isAssigned

bool m_isAssigned

Stores whether this SpacePoint is connected to a track.

Definition: SpacePoint.h:396

◆ getGenfitCompatible()

std::vector< genfit::PlanarMeasurement > getGenfitCompatible ( ) const

virtual

returns a vector of genfit::PlanarMeasurement, which is needed for genfit::track.

This member ensures compatibility with genfit2. The return type is detector independent, but each entry will be of the same detector type, since a spacePoint can not contain clusters of different sensors and therefore of different detector types.

Definition at line 117 of file SpacePoint.cc.

{
  // XYRecoHit will be stored as their base-class, which is detector-independent.
  std::vector< genfit::PlanarMeasurement > collectedMeasurements;
 
 
  // get the related clusters to this spacePoint and create a genfit::PlanarMeasurement for each of them:
  if (getType() == VXD::SensorInfoBase::SensorType::SVD) {
 
    auto relatedClusters = this->getRelationsTo<SVDCluster>("ALL");
    for (unsigned i = 0; i < relatedClusters.size(); i++) {
      collectedMeasurements.push_back(SVDRecoHit(relatedClusters[i]));
    }
 
  } else if (getType() == VXD::SensorInfoBase::SensorType::PXD) {
 
    // since we do not know the name of the attached PXDCluster, getRelatedTo does not work, however, getRelationsTo seems to be less sensible and therefore can be used, but in this case, one has to loop over the entries (which should be only one in this case)
    auto relatedClusters = this->getRelationsTo<PXDCluster>("ALL");
    for (unsigned i = 0; i < relatedClusters.size(); i++) {
      collectedMeasurements.push_back(PXDRecoHit(relatedClusters[i]));
    }
 
  } else {
    B2FATAL("unknown detector type");
  }
 
  B2DEBUG(20, "SpacePoint::getGenfitCompatible(): collected " << collectedMeasurements.size() << " meaturements");
 
  return collectedMeasurements;
}

◆ getGlobalCoordinates()

B2Vector3D getGlobalCoordinates	(	const std::pair< double, double > &	hitLocal,
		VxdID	vxdID,
		const VXD::SensorInfoBase *	aSensorInfo = `nullptr`
	)

static

converts a local hit on a given sensor into global coordinates.

so this practically does what sensorInfo::pointToGlobal is doing, the difference is, that you do not need to have the sensorInfo beforehand (it will be retrieved using the VxdID) first parameter is the local hit (as provided by getU and getV!) stored as a pair of doubles. second parameter is the coded vxdID, which carries the sensorID. third parameter, a sensorInfo can be passed for testing purposes. If no sensorInfo is passed, the member gets its own pointer to it.

ATTENTION: this function assumes, that for wedged sensors, the uCoordinate is already adapted to the vCoordinate!

Definition at line 204 of file SpacePoint.cc.

{
  //We need some handle to translate IDs to local and global coordinates.
  if (aSensorInfo == nullptr) {
    aSensorInfo = &VXD::GeoCache::getInstance().getSensorInfo(vxdID);
  }
 
  // the second parameter set to true results in alignment constants being applied
  return aSensorInfo->pointToGlobal(ROOT::Math::XYZVector(hitLocal.first, hitLocal.second, 0), true);
}

◆ getIfClustersAssigned()

std::pair< bool, bool > getIfClustersAssigned ( ) const

inline

Returns, if u(v)-coordinate is based on cluster information.

.first is true, if u-cluster information is present
.second is true, if v-cluster information is present.

Definition at line 162 of file SpacePoint.h.

162{ return m_clustersAssigned; }

◆ getInfo()

std::string getInfo ( ) const

inlineinherited

Return a short summary of this object's contents in raw text format.

Returns the contents of getInfoHTML() while translating line-breaks etc.

Note: : You don't need to implement this function (it's not virtual), getInfoHTML() is enough.

Definition at line 370 of file RelationsObject.h.

    {
      return _RelationsInterfaceImpl::htmlToPlainText(getInfoHTML());
    }

◆ getInfoHTML()

virtual std::string getInfoHTML ( ) const

inlinevirtualinherited

Return a short summary of this object's contents in HTML format.

Reimplement this in your own class to provide useful output for display or debugging purposes. For example, you might do something like:

std::stringstream out;
out << "<b>PDG</b>: " << m_pdg << "<br>";
out << "<b>Covariance Matrix</b>: " << HTML::getString(getCovariance5()) << "<br>";
return out.str();

See also: Particle::getInfoHTML() for a more complex example.; HTML for some utility functions.; Use getInfo() to get a raw text version of this output.

Reimplemented in Particle, Cluster, MCParticle, PIDLikelihood, SoftwareTriggerResult, Track, TrackFitResult, TRGSummary, and RecoTrack.

Definition at line 362 of file RelationsObject.h.

362{ return ""; }

◆ getName()

std::string getName ( ) const

inlineoverridevirtual

Print out some info for this SpacePoint.

Reimplemented from RelationsInterface< BASE >.

Definition at line 115 of file SpacePoint.h.

    {
      return "SpacePoint with index: " + std::to_string(getArrayIndex()) +
             "and VxdID: " + std::to_string(VxdID(m_vxdID));
    }

◆ getNClustersAssigned()

unsigned short getNClustersAssigned ( ) const

inline

Returns the number of Clusters assigned to this SpacePoint.

Definition at line 165 of file SpacePoint.h.

    {
      if (m_sensorType == VXD::SensorInfoBase::SensorType::SVD &&
          m_clustersAssigned.first && m_clustersAssigned.second) {
        return 2;
      }
      return 1;
    }

◆ getNormalizedLocalU()

double getNormalizedLocalU ( ) const

inline

Return normalized local coordinates of the cluster in u (0 <= posU <= 1).

Definition at line 151 of file SpacePoint.h.

151{ return m_normalizedLocal.first; }

◆ getNormalizedLocalV()

double getNormalizedLocalV ( ) const

inline

Return normalized local coordinates of the cluster in v (0 <= posV <= 1).

Definition at line 154 of file SpacePoint.h.

154{ return m_normalizedLocal.second; }

◆ getPosition()

const B2Vector3D & getPosition ( ) const

inline

return the position vector in global coordinates

Definition at line 138 of file SpacePoint.h.

138{ return m_position; }

◆ getPositionError()

const B2Vector3D & getPositionError ( ) const

inline

return the hitErrors in sigma of the global position

Definition at line 141 of file SpacePoint.h.

141{ return m_positionError; }

◆ getQualityEstimation()

float getQualityEstimation ( ) const

inline

Getter for the quality of this SpacePoint.

Definition at line 191 of file SpacePoint.h.

191{ return m_qualityIndicator; }

Belle2::SpacePoint::m_qualityIndicator

float m_qualityIndicator

Stores a quality indicator.

Definition: SpacePoint.h:381

◆ getQualityEstimationError()

float getQualityEstimationError ( ) const

inline

Getter for the spacePoint quality index error.

Definition at line 197 of file SpacePoint.h.

197{return m_qualityIndicatorError;}

Belle2::SpacePoint::m_qualityIndicatorError

float m_qualityIndicatorError

Stores the error on the quality indicator.

Definition: SpacePoint.h:388

◆ getRelated()

T * getRelated	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get the object to or from which this object has a relation.

Template Parameters

T	The class of objects to or from which the relation points.

Parameters

name	The name of the store array to or from which the relation points. If empty the default store array name for class T will be used. If the special name "ALL" is given all store arrays containing objects of type T are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: The first related object or a null pointer.

Definition at line 278 of file RelationsObject.h.

    {
      return static_cast<T*>(DataStore::Instance().getRelationWith(DataStore::c_BothSides, this, m_cacheDataStoreEntry, m_cacheArrayIndex,
                             T::Class(), name, namedRelation).object);
    }

◆ getRelatedFrom()

FROM * getRelatedFrom	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get the object from which this object has a relation.

Template Parameters

FROM	The class of objects from which the relation points.

Parameters

name	The name of the store array from which the relation points. If empty the default store array name for class FROM will be used. If the special name "ALL" is given all store arrays containing objects of type FROM are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: The first related object or a null pointer.

Definition at line 263 of file RelationsObject.h.

    {
      return static_cast<FROM*>(DataStore::Instance().getRelationWith(DataStore::c_FromSide, this, m_cacheDataStoreEntry,
                                m_cacheArrayIndex, FROM::Class(), name, namedRelation).object);
    }

◆ getRelatedFromWithWeight()

std::pair< FROM *, float > getRelatedFromWithWeight	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get first related object & weight of relation pointing from an array.

Template Parameters

FROM	The class of objects from which the relation points.

Parameters

name	The name of the store array from which the relation points. If empty the default store array name for class FROM will be used. If the special name "ALL" is given all store arrays containing objects of type FROM are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: Pair of first related object and the relation weight, or (NULL, 1.0) if none found.

Definition at line 314 of file RelationsObject.h.

    {
      RelationEntry entry = DataStore::Instance().getRelationWith(DataStore::c_FromSide, this, m_cacheDataStoreEntry, m_cacheArrayIndex,
                                                                  FROM::Class(), name, namedRelation);
      return std::make_pair(static_cast<FROM*>(entry.object), entry.weight);
    }

◆ getRelatedTo()

TO * getRelatedTo	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get the object to which this object has a relation.

Template Parameters

TO	The class of objects to which the relation points.

Parameters

name	The name of the store array to which the relation points. If empty the default store array name for class TO will be used. If the special name "ALL" is given all store arrays containing objects of type TO are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: The first related object or a null pointer.

Definition at line 248 of file RelationsObject.h.

    {
      return static_cast<TO*>(DataStore::Instance().getRelationWith(DataStore::c_ToSide, this, m_cacheDataStoreEntry, m_cacheArrayIndex,
                              TO::Class(), name, namedRelation).object);
    }

◆ getRelatedToWithWeight()

std::pair< TO *, float > getRelatedToWithWeight	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get first related object & weight of relation pointing to an array.

Template Parameters

TO	The class of objects to which the relation points.

Parameters

name	The name of the store array to which the relation points. If empty the default store array name for class TO will be used. If the special name "ALL" is given all store arrays containing objects of type TO are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: Pair of first related object and the relation weight, or (NULL, 1.0) if none found.

Definition at line 297 of file RelationsObject.h.

    {
      RelationEntry entry = DataStore::Instance().getRelationWith(DataStore::c_ToSide, this, m_cacheDataStoreEntry, m_cacheArrayIndex,
                                                                  TO::Class(), name, namedRelation);
      return std::make_pair(static_cast<TO*>(entry.object), entry.weight);
    }

◆ getRelatedWithWeight()

std::pair< T *, float > getRelatedWithWeight	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get first related object & weight of relation pointing from/to an array.

Template Parameters

T	The class of objects to or from which the relation points.

Parameters

name	The name of the store array to or from which the relation points. If empty the default store array name for class T will be used. If the special name "ALL" is given all store arrays containing objects of type T are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: Pair of first related object and the relation weight, or (NULL, 1.0) if none found.

Definition at line 331 of file RelationsObject.h.

    {
      RelationEntry entry = DataStore::Instance().getRelationWith(DataStore::c_BothSides, this, m_cacheDataStoreEntry, m_cacheArrayIndex,
                                                                  T::Class(), name, namedRelation);
      return std::make_pair(static_cast<T*>(entry.object), entry.weight);
    }

◆ getRelationsFrom()

RelationVector< FROM > getRelationsFrom	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get the relations that point from another store array to this object.

Template Parameters

FROM	The class of objects from which the relations point.

Parameters

name	The name of the store array from which the relations point. If empty the default store array name for class FROM will be used. If the special name "ALL" is given all store arrays containing objects of type FROM are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: A vector of relations.

Definition at line 212 of file RelationsObject.h.

    {
      return RelationVector<FROM>(DataStore::Instance().getRelationsWith(DataStore::c_FromSide, this, m_cacheDataStoreEntry,
                                  m_cacheArrayIndex, FROM::Class(), name, namedRelation));
    }

◆ getRelationsTo()

RelationVector< TO > getRelationsTo	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get the relations that point from this object to another store array.

Template Parameters

TO	The class of objects to which the relations point.

Parameters

name	The name of the store array to which the relations point. If empty the default store array name for class TO will be used. If the special name "ALL" is given all store arrays containing objects of type TO are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: A vector of relations.

Definition at line 197 of file RelationsObject.h.

    {
      return RelationVector<TO>(DataStore::Instance().getRelationsWith(DataStore::c_ToSide, this, m_cacheDataStoreEntry,
                                m_cacheArrayIndex, TO::Class(), name, namedRelation));
    }

◆ getRelationsWith()

RelationVector< T > getRelationsWith	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get the relations between this object and another store array.

Relations in both directions are returned.

Template Parameters

T	The class of objects to or from which the relations point.

Parameters

name	The name of the store array to or from which the relations point. If empty the default store array name for class T will be used. If the special name "ALL" is given all store arrays containing objects of type T are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: A vector of relations.

Definition at line 230 of file RelationsObject.h.

    {
      return RelationVector<T>(DataStore::Instance().getRelationsWith(DataStore::c_BothSides, this, m_cacheDataStoreEntry,
                               m_cacheArrayIndex, T::Class(), name, namedRelation));
    }

◆ getType()

Belle2::VXD::SensorInfoBase::SensorType getType ( ) const

inline

Return SensorType (PXD, SVD, ...) on which the SpacePoint lives.

Definition at line 145 of file SpacePoint.h.

145{ return m_sensorType; }

◆ getUUnwedged()

static double getUUnwedged	(	const std::pair< double, double > &	hitLocalWedged,
		VxdID::baseType	vxdID,
		const VXD::SensorInfoBase *	aSensorInfo = `nullptr`
	)

inlinestatic

takes a wedged uCoordinate, and transforms it to general uCoordinate.

Use this if you want to "unwedge" your u-coordinate. The returned value shall be like the value delivered by a uCluster without information of v (== aCluster.getPosition() ). This is only relevant for wedged/slanted sensors because of their trapezoidal shape, for rectangular shapes, the value does not change

Definition at line 278 of file SpacePoint.h.

    {
      if (aSensorInfo == nullptr) { aSensorInfo = &VXD::GeoCache::getInstance().getSensorInfo(vxdID); }
      return (aSensorInfo->getWidth() / aSensorInfo->getWidth(hitLocalWedged.second)) * hitLocalWedged.first;
    }

◆ getUWedged()

static double getUWedged	(	const std::pair< double, double > &	hitLocalUnwedged,
		VxdID	vxdID,
		const VXD::SensorInfoBase *	aSensorInfo = `nullptr`
	)

inlinestatic

takes a general uCoordinate, and transforms it to corrected uCoordinate for wedged sensors.

Use this if you want to add the information of the vCluster to the local uPosition. The returned value is now dependent of vCluster and valid only for this cluster! This is only relevant for wedged/slanted sensors because of their trapezoidal shape, for rectangular shapes, the value does not change

function kept only for backward compatibility with VXDTF1

Definition at line 263 of file SpacePoint.h.

    {
      if (aSensorInfo == nullptr) { aSensorInfo = &VXD::GeoCache::getInstance().getSensorInfo(vxdID); }
      return (aSensorInfo->getWidth(hitLocalUnwedged.second) / aSensorInfo->getWidth()) * hitLocalUnwedged.first;
    }

◆ getVxdID()

VxdID getVxdID ( ) const

inline

Return the VxdID of the sensor on which the the cluster of the SpacePoint lives.

Definition at line 148 of file SpacePoint.h.

148{ return m_vxdID; }

◆ isUAndV()

bool isUAndV ( ) const

inline

Returns true if the SP is not single clustered.

Definition at line 182 of file SpacePoint.h.

182{ return m_clustersAssigned.first and m_clustersAssigned.second; }

◆ isUOnly()

bool isUOnly ( ) const

inline

Returns true if the SP is single clustered and the cluster is a u cluster.

Definition at line 178 of file SpacePoint.h.

178{ return m_clustersAssigned.first and not m_clustersAssigned.second; }

◆ isVOnly()

bool isVOnly ( ) const

inline

Returns true if the SP is single clustered and the cluster is a v cluster.

Definition at line 180 of file SpacePoint.h.

180{ return not m_clustersAssigned.first and m_clustersAssigned.second; }

◆ operator!=()

bool operator!= ( const SpacePoint & b ) const

inline

Comparison for inequality with another SpacePoint.

Definition at line 109 of file SpacePoint.h.

    {
      return !(*this == b);
    }

◆ operator==()

bool operator== ( const SpacePoint & b ) const

inline

Compare, if two SpacePoints are the same one.

As SpacePoints should live in the DataStore and comparing positions doesn't guarantee, that different underlying clusters are used, we compare here only the indices of the SpacePoint within their StoreArray --> SpacePoints are equal, if the share the index.

Definition at line 103 of file SpacePoint.h.

    {
      return getArrayIndex() == b.getArrayIndex();
    }

◆ setAssignmentState()

void setAssignmentState ( bool isAssigned ) const

inline

Setter for association with a track.

Definition at line 175 of file SpacePoint.h.

175{ m_isAssigned = isAssigned; }

◆ setPositionError()

void setPositionError	(	double	uSigma,
		double	vSigma,
		const VXD::SensorInfoBase *	aSensorInfo
	)

inlineprotected

Setter for global position error from on-sensor sigmas.

Definition at line 322 of file SpacePoint.h.

    {
      //As only variances, but not the sigmas transform linearly, we need to use some acrobatics.
      m_positionError = aSensorInfo->vectorToGlobal(ROOT::Math::XYZVector(uSigma * uSigma, vSigma * vSigma, 0),
                                                    true // use alignment in transformation
                                                   );
      m_positionError.Sqrt();
    }

◆ setQualityEstimation()

void setQualityEstimation ( float qualityIndicator )

inline

Setter for the quality of this SpacePoint.

Definition at line 188 of file SpacePoint.h.

188{m_qualityIndicator = qualityIndicator; }

◆ setQualityEstimationError()

void setQualityEstimationError ( double qualityIndicatorError )

inline

Setter for the spacePoint quality index error.

Definition at line 194 of file SpacePoint.h.

194{m_qualityIndicatorError = qualityIndicatorError;}

◆ TimeU()

double TimeU ( ) const

inline

return the time in ns of the cluster on the U side

Definition at line 132 of file SpacePoint.h.

132{ return m_UClusterTime; }

◆ TimeV()

double TimeV ( ) const

inline

return the time in ns of the cluster on the V side

Definition at line 135 of file SpacePoint.h.

135{ return m_VClusterTime; }

◆ X()

double X ( ) const

inline

return the x-value of the global position of the SpacePoint

Definition at line 123 of file SpacePoint.h.

123{ return m_position.X(); }

Belle2::B2Vector3::X

DataType X() const

access variable X (= .at(0) without boundary check)

Definition: B2Vector3.h:431

◆ Y()

double Y ( ) const

inline

return the y-value of the global position of the SpacePoint

Definition at line 126 of file SpacePoint.h.

126{ return m_position.Y(); }

Belle2::B2Vector3::Y

DataType Y() const

access variable Y (= .at(1) without boundary check)

Definition: B2Vector3.h:433

◆ Z()

double Z ( ) const

inline

return the z-value of the global position of the SpacePoint

Definition at line 129 of file SpacePoint.h.

129{ return m_position.Z(); }

Belle2::B2Vector3::Z

DataType Z() const

access variable Z (= .at(2) without boundary check)

Definition: B2Vector3.h:435

Friends And Related Function Documentation

◆ operator<<

std::ostream & operator<<	(	std::ostream &	out,
		const SpacePoint &	aSP
	)

friend

overloaded '<<' stream operator.

Print secID to stream by converting it to string

Definition at line 95 of file SpacePoint.h.

95{ return out << aSP.getName();}

Member Data Documentation

◆ m_cacheArrayIndex

int m_cacheArrayIndex

mutableprivateinherited

Cache of the index in the TClonesArray to which this object belongs.

Definition at line 432 of file RelationsObject.h.

◆ m_cacheDataStoreEntry

DataStore::StoreEntry* m_cacheDataStoreEntry

mutableprivateinherited

Cache of the data store entry to which this object belongs.

Definition at line 429 of file RelationsObject.h.

◆ m_clustersAssigned

std::pair<bool, bool> m_clustersAssigned {false, false}

protected

The bool value is true, when correct information of the coordinate exists.

.first is true, if this SpacePoint has a UCluster (only relevant for SVD, PXD always true), .second is true, if this SpacePoint has a VCluster (only relevant for SVD, PXD always true),

Definition at line 365 of file SpacePoint.h.

◆ m_isAssigned

bool m_isAssigned {false}

mutableprotected

Stores whether this SpacePoint is connected to a track.

We assume, that const for SpacePoint means, things like position et cetera remain constant. The assignment status is therefore a mutable on purpose and SpacePoints can be const during tracking.

Definition at line 396 of file SpacePoint.h.

◆ m_normalizedLocal

std::pair<double, double> m_normalizedLocal

protected

Local position vector normalized to sensor size (0 <= x <= 1).

.first: u, .second: v

Definition at line 349 of file SpacePoint.h.

◆ m_position

B2Vector3D m_position

protected

Global position vector.

[0]: x, [1] : y, [2] : z

Definition at line 336 of file SpacePoint.h.

◆ m_positionError

B2Vector3D m_positionError

protected

Global position error vector in sigma.

[0]: x-uncertainty, [1] : y-uncertainty, [2] : z-uncertainty

Definition at line 342 of file SpacePoint.h.

◆ m_qualityIndicator

float m_qualityIndicator {0.5}

protected

Stores a quality indicator.

The value shall be between 0. and 1., where 1. means "good" and 0. means "bad".

Definition at line 381 of file SpacePoint.h.

◆ m_qualityIndicatorError

float m_qualityIndicatorError {0.5}

protected

Stores the error on the quality indicator.

The value comes from the binning error on the pdfs from which the QI is derived.

Definition at line 388 of file SpacePoint.h.

◆ m_sensorType

VXD::SensorInfoBase::SensorType m_sensorType

protected

Stores the SensorType using the scheme of SensorInfoBase.

Currently there are the following types possible:
PXD, SVD, TEL, VXD

Definition at line 375 of file SpacePoint.h.

◆ m_UClusterTime

double m_UClusterTime

protected

Time of the cluster on the U side in ns.

Definition at line 353 of file SpacePoint.h.

◆ m_VClusterTime

double m_VClusterTime

protected

Time of the cluster on the V side in ns.

Definition at line 357 of file SpacePoint.h.

◆ m_vxdID

VxdID::baseType m_vxdID

protected

Stores the VxdID.

Definition at line 368 of file SpacePoint.h.

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

tracking/spacePointCreation/include/SpacePoint.h
tracking/spacePointCreation/src/SpacePoint.cc

Public Member Functions

Static Public Member Functions

Protected Member Functions

Protected Attributes

Private Member Functions

Private Attributes

Friends

Detailed Description

Constructor & Destructor Documentation

◆ SpacePoint() [1/4]

◆ SpacePoint() [2/4]

◆ SpacePoint() [3/4]

◆ SpacePoint() [4/4]

◆ ~SpacePoint()

Member Function Documentation

◆ addRelationTo() [1/2]

◆ addRelationTo() [2/2]

◆ boundaryEnforce()

◆ convertLocalToNormalizedCoordinates()

◆ convertNormalizedToLocalCoordinates()

◆ copyRelations()

◆ getArrayIndex()

◆ getArrayName()

◆ getArrayPointer()

◆ getAssignmentState()

◆ getGenfitCompatible()

◆ getGlobalCoordinates()

◆ getIfClustersAssigned()

◆ getInfo()

◆ getInfoHTML()

◆ getName()

◆ getNClustersAssigned()

◆ getNormalizedLocalU()

◆ getNormalizedLocalV()

◆ getPosition()

◆ getPositionError()

◆ getQualityEstimation()

◆ getQualityEstimationError()

◆ getRelated()

◆ getRelatedFrom()

◆ getRelatedFromWithWeight()

◆ getRelatedTo()

◆ getRelatedToWithWeight()

◆ getRelatedWithWeight()

◆ getRelationsFrom()

◆ getRelationsTo()

◆ getRelationsWith()

◆ getType()

◆ getUUnwedged()

◆ getUWedged()

◆ getVxdID()

◆ isUAndV()

◆ isUOnly()

◆ isVOnly()

◆ operator!=()

◆ operator==()

◆ setAssignmentState()

◆ setPositionError()

◆ setQualityEstimation()

◆ setQualityEstimationError()

◆ TimeU()

◆ TimeV()

◆ X()

◆ Y()

◆ Z()

Friends And Related Function Documentation

◆ operator<<

Member Data Documentation

◆ m_cacheArrayIndex

◆ m_cacheDataStoreEntry

◆ m_clustersAssigned

◆ m_isAssigned

◆ m_normalizedLocal

◆ m_position

◆ m_positionError

◆ m_qualityIndicator

◆ m_qualityIndicatorError

◆ m_sensorType

◆ m_UClusterTime

◆ m_VClusterTime