Specific implementation of SensorInfo for PXD Sensors which provides additional pixel specific information. More...

#include <SensorInfo.h>

Inheritance diagram for SensorInfo:

Public Types
enum	SensorType { PXD = 0 , SVD = 1 , TEL = 2 , VXD = -1 }
	Enum specifing the type of sensor the SensorInfo represents. More...

Public Member Functions
	SensorInfo (VxdID id=0, float width=0, float length=0, float thickness=0, int uCells=0, int vCells=0, float splitLength=0, int vCells2=0)
	Constructor which automatically sets the SensorType.

void	setID (VxdID id)
	Change the SensorID, useful to copy the SensorInfo from one sensor and use it for another.

void	flipVSegmentation ()
	Flip the Pitch segmentation along v.

void	setDEPFETParams (double bulkDoping, double backVoltage, double topVoltage, double sourceBorderSmallPitch, double clearBorderSmallPitch, double drainBorderSmallPitch, double sourceBorderLargePitch, double clearBorderLargePitch, double drainBorderLargePitch, double gateDepth, bool doublePixel, double chargeThreshold, double noiseFraction)
	Set operation parameters like voltages.

void	cook ()
	calculate constants in advance

int	getTrappedID (double x, double y) const
	Get pixel number if the given coordinate is in the correspondin internal gate trapping region or -1 otherwise.

void	setIntegrationWindow (double start, double end)
	Set the time window in which the sensor is active.

double	getTemperature () const
	Return the temperature of the sensor.

double	getBulkDoping () const
	Return the bulk doping of the Silicon sensor.

double	getBackVoltage () const
	Return the voltage at the backside of the sensor.

double	getTopVoltage () const
	Return the voltage at the top of the sensor.

double	getSourceBorder (double v) const
	Return the distance between the source side of the pixel and the start of the Gate for a pixel at v.

double	getClearBorder (double v) const
	Return the distance between the clear side of the pixel and the start of the Gate for a pixel at v.

double	getDrainBorder (double v) const
	Return the distance between the drain side of the pixel and the start of the Gate for a pixel at v.

double	getGateDepth () const
	Return the gate depth for the sensor.

bool	getDoublePixel () const
	Return true if the Sensor is a double pixel structure: every other pixel is mirrored along v.

double	getChargeThreshold () const
	Get the charge threshold in ADU for the sensor.

double	getNoiseFraction () const
	Get the noise fraction for the sensor.

double	getIntegrationStart () const
	Return the start of the integration window, the timeframe the PXD is sensitive.

double	getIntegrationEnd () const
	Return the end of the integration window, the timeframe the PXD is sensitive.

double	getHallFactor () const
	Return the Hall factor for electrons at sensor temperature.

double	getElectronMobility (double E) const
	Calculate electron mobility at a given electric field.

const ROOT::Math::XYZVector	getEField (const ROOT::Math::XYZVector &point) const
	Model of the E field inside the sensor.

const ROOT::Math::XYZVector	getBField (const ROOT::Math::XYZVector &point) const
	Get B field value from the field map.

const ROOT::Math::XYZVector	getLorentzShift (double u, double v) const
	Calculate Lorentz shift.

const ROOT::Math::XYZVector	getDriftVelocity (const ROOT::Math::XYZVector &E, const ROOT::Math::XYZVector &B) const
	Calculate drift velocity of an electron.

int	getPixelKind (const VxdID sensorID, double v) const
	Return pixel kind ID.

int	getPixelKindNew (const VxdID &sensorID, int vID) const
	Return pixel kind ID.

SensorType	getType () const
	Return the Type of the Sensor.

VxdID	getID () const
	Return the ID of the Sensor.

double	getWidth (double v=0) const
	Return the width of the sensor.

double	getBackwardWidth () const
	Convinience Wrapper to return width at backward side.

double	getForwardWidth () const
	Convinience Wrapper to return width at forward side.

double	getLength () const
	Return the length of the sensor.

double	getThickness () const
	Return the thickness of the sensor.

double	getUSize (double v=0) const
	Return the width of the sensor.

double	getVSize () const
	Return the length of the sensor.

double	getWSize () const
	Return the thickness of the sensor.

double	getUPitch (double v=0) const
	Return the pitch of the sensor.

double	getVPitch (double v=0) const
	Return the pitch of the sensor.

int	getVPitchID (double v=0) const
	Return the pitch ID of the sensor.

double	getUCellPosition (int uID, int vID=-1) const
	Return the position of a specific strip/pixel in u direction.

double	getVCellPosition (int vID) const
	Return the position of a specific strip/pixel in v direction.

int	getUCellID (double u, double v=0, bool clamp=false) const
	Return the corresponding pixel/strip ID of a given u coordinate.

int	getVCellID (double v, bool clamp=false) const
	Return the corresponding pixel/strip ID of a given v coordinate.

int	getUCells () const
	Return number of pixel/strips in u direction.

int	getVCells () const
	Return number of pixel/strips in v direction.

int	getVCells2 () const
	Return number of pixel/strips in v direction up to change pitch.

bool	inside (double u, double v, double uTolerance=DBL_EPSILON, double vTolerance=DBL_EPSILON) const
	Check wether a given point is inside the active area.

bool	inside (const ROOT::Math::XYZVector &local, double uTolerance=DBL_EPSILON, double vTolerance=DBL_EPSILON, double wTolerance=DBL_EPSILON) const
	Check wether a given point is inside the active area.

void	forceInside (double &u, double &v) const
	Force a position to be inside the active area.

void	forceInside (ROOT::Math::XYZVector &local) const
	Force a given point inside the active area.

ROOT::Math::XYZVector	pointToGlobal (const ROOT::Math::XYZVector &local, bool reco=false) const
	Convert a point from local to global coordinates.

ROOT::Math::XYZVector	vectorToGlobal (const ROOT::Math::XYZVector &local, bool reco=false) const
	Convert a vector from local to global coordinates.

ROOT::Math::XYZVector	pointToLocal (const ROOT::Math::XYZVector &global, bool reco=false) const
	Convert a point from global to local coordinates.

ROOT::Math::XYZVector	vectorToLocal (const ROOT::Math::XYZVector &global, bool reco=false) const
	Convert a vector from global to local coordinates.

void	setTransformation (const TGeoHMatrix &transform, bool reco=false)
	Set the transformation matrix of the Sensor.

const TGeoHMatrix &	getTransformation (bool reco=false) const
	Return the transformation matrix of the Sensor.

void	setSurfaceParameters (const std::vector< double > &planarParameters)
	Fill parameters of planar deformation to vector.

const std::vector< double > &	getSurfaceParameters () const
	Return parameters of planar deformation.

Protected Member Functions
void	setLorentzFactor ()
	Calculate Lorentz shift factor.

Protected Attributes
double	m_temperature
	The temperature of the sensor.

double	m_hallFactor
	The bulk doping of the Silicon sensor.

double	m_bulkDoping
	Doping concentration of the silicon bulk.

double	m_backVoltage
	The voltage at the backside of the sensor.

double	m_topVoltage
	The voltate at the top of the sensor.

double	m_sourceBorderSmallPitch
	The distance between the source side of the pixel and the start of the Gate, small pitch area.

double	m_clearBorderSmallPitch
	The distance between the clear side of the pixel and the start of the Gate, small pitch area

double	m_drainBorderSmallPitch
	The distance between the drain side of the pixel and the start of the Gate, small pitch area

double	m_sourceBorderLargePitch
	The distance between the source side of the pixel and the start of the Gate, large pitch area.

double	m_clearBorderLargePitch
	The distance between the clear side of the pixel and the start of the Gate, large pitch area

double	m_drainBorderLargePitch
	The distance between the drain side of the pixel and the start of the Gate, large pitch area

double	m_gateDepth
	Return depth of the surface where the electrons will be collected.

bool	m_doublePixel
	True if the Sensor is a double pixel structure: every other pixel is mirrored along v.

double	m_chargeThreshold
	Charge threshold.

double	m_noiseFraction
	Fixed noise fraction.

double	m_integrationStart
	The start of the integration window, the timeframe the PXD is sensitive.

double	m_integrationEnd
	The end of the integration window, the timeframe the PXD is sensitive.

double	m_up
	pixel pitch in u direction

double	m_iup
	the reciprocal of the pixel pitch in u direction

double	m_vsplit
	v coordinate which splits small and large pixel regions

double	m_vp
	large pixel pitch in v direction

double	m_ivp
	the reciprocal of the large pixel pitch in v direction

double	m_vp2
	small pixel pitch in v direction

double	m_ivp2
	the reciprocal of the small pixel pitch in v direction

double	m_hxIG
	size in u direction of the internal gate trapping region

double	m_mIGL
	middle of the internal gate trapping region for large pixels

double	m_sIGL
	size in v direction of the internal gate trapping region for large pixels

double	m_mIGS
	middle of the internal gate trapping region for small pixels

double	m_sIGS
	size in v direction of the internal gate trapping region for small pixels

SensorType	m_type
	Type of the Sensor.

unsigned short	m_id
	ID of the Sensor.

double	m_width
	Width of the sensor.

double	m_length
	Length of the Sensor.

double	m_thickness
	Thickness of the Sensor.

double	m_deltaWidth
	Difference between backward and forward width, 0 for rectangular sensors.

double	m_splitLength
	Relative length at which second pixel size starts, 0 for only one pixel size.

int	m_uCells
	Number of strips/pixels in u direction.

int	m_vCells
	Number of strips/pixels in v direction (up to splitLength for two pixel sizes)

int	m_vCells2
	Number of strips/pixels in v direction after splitLength, 0 for only one pixel size.

TGeoHMatrix	m_transform
	Nominal transformation matrix of the Sensor.

TGeoHMatrix	m_recoTransform
	Alignment-corrected transformation matrix of the Sensor for use in reconstruction.

std::vector< double >	m_surfaceDeformationParameters = std::vector<double>(12, 0.0)
	Vector contains all parameter needed for description planar deformation of sensors.

Detailed Description

Specific implementation of SensorInfo for PXD Sensors which provides additional pixel specific information.

Definition at line 23 of file SensorInfo.h.

Member Enumeration Documentation

◆ SensorType

enum SensorType

inherited

Enum specifing the type of sensor the SensorInfo represents.

Enumerator
PXD	PXD Sensor.
SVD	SVD Sensor.
TEL	Testbeam telescope sensor.
VXD	Any type of VXD Sensor.

Definition at line 32 of file SensorInfoBase.h.

                      {
        PXD = 0,  
        SVD = 1,  
        TEL = 2,  
        VXD = -1, 
      };

Constructor & Destructor Documentation

◆ SensorInfo()

SensorInfo	(	VxdID	id = `0`,
		float	width = `0`,
		float	length = `0`,
		float	thickness = `0`,
		int	uCells = `0`,
		int	vCells = `0`,
		float	splitLength = `0`,
		int	vCells2 = `0`
	)

inline

Constructor which automatically sets the SensorType.

Definition at line 26 of file SensorInfo.h.

                                                        :
        VXD::SensorInfoBase(SensorInfo::PXD, id, width, length, thickness, uCells, vCells, 0, splitLength, vCells2), m_temperature(300),
        m_bulkDoping(0), m_backVoltage(0), m_topVoltage(0), m_sourceBorderSmallPitch(0), m_clearBorderSmallPitch(0),
        m_drainBorderSmallPitch(0), m_sourceBorderLargePitch(0), m_clearBorderLargePitch(0), m_drainBorderLargePitch(0),
        m_gateDepth(0), m_doublePixel(true), m_chargeThreshold(0), m_noiseFraction(0), m_integrationStart(0), m_integrationEnd(0)
      {
        m_hallFactor = (1.13 + 0.0008 * (m_temperature - 273));
        cook();
      }

Member Function Documentation

◆ cook()

void cook ( )

calculate constants in advance

Definition at line 130 of file SensorInfo.cc.

{
  m_iup = m_uCells / m_width;
  m_up = m_width / m_uCells;
 
  m_vsplit = m_length * (m_splitLength - 0.5);
 
  m_vp = m_length * m_splitLength / m_vCells;
  m_ivp = 1 / m_vp;
 
  m_vp2 = m_length * (1 - m_splitLength) / m_vCells2;
  m_ivp2 = 1 / m_vp2;
 
  m_hxIG = 0.5 * m_up  - m_clearBorderSmallPitch;
  m_mIGL = 0.5 * (m_vp - m_sourceBorderLargePitch + m_drainBorderLargePitch);
  m_sIGL = 0.5 * (m_vp - m_sourceBorderLargePitch - m_drainBorderLargePitch);
  m_mIGS = 0.5 * (m_vp2 - m_sourceBorderSmallPitch + m_drainBorderSmallPitch);
  m_sIGS = 0.5 * (m_vp2 - m_sourceBorderSmallPitch - m_drainBorderSmallPitch);
}

◆ flipVSegmentation()

void flipVSegmentation ( )

inline

Flip the Pitch segmentation along v.

If there are two different pixel sizes than mirror the segmentation along v.

Definition at line 43 of file SensorInfo.h.

      {
        if (m_splitLength <= 0) return;
        std::swap(m_vCells, m_vCells2);
        std::swap(m_sourceBorderSmallPitch, m_sourceBorderLargePitch);
        std::swap(m_clearBorderSmallPitch, m_clearBorderLargePitch);
        std::swap(m_drainBorderSmallPitch, m_drainBorderLargePitch);
        m_splitLength = (1 - m_splitLength);
        cook();
      }

◆ forceInside() [1/2]

void forceInside	(	double &	u,
		double &	v
	)		const

inlineinherited

Force a position to be inside the active area.

Parameters

u	u coordinate to be forced inside
v	v coordinate to be forced inside

Definition at line 255 of file SensorInfoBase.h.

      {
        double length = getLength() / 2.0;
        v = std::min(length, std::max(-length, v));
        double width = getWidth(v) / 2.0;
        u = std::min(width, std::max(-width, u));
      }

◆ forceInside() [2/2]

void forceInside ( ROOT::Math::XYZVector & local ) const

inlineinherited

Force a given point inside the active area.

Parameters

local point in local coordinates, will be modified to lie inside or at the border of the sensor

Definition at line 358 of file SensorInfoBase.h.

    {
      double u = local.X();
      double v = local.Y();
      double thickness = getThickness() / 2.0;
      forceInside(u, v);
      local.SetX(u);
      local.SetY(v);
      local.SetZ(std::min(thickness, std::max(-thickness, local.Z())));
    }

◆ getBackVoltage()

double getBackVoltage ( ) const

inline

Return the voltage at the backside of the sensor.

Definition at line 99 of file SensorInfo.h.

99{ return m_backVoltage; }

◆ getBackwardWidth()

double getBackwardWidth ( ) const

inlineinherited

Convinience Wrapper to return width at backward side.

Returns: width of the sensor at the backward side

Definition at line 89 of file SensorInfoBase.h.

      {
        return getWidth(-0.5 * m_length);
      }

◆ getBField()

const ROOT::Math::XYZVector getBField ( const ROOT::Math::XYZVector & point ) const

Get B field value from the field map.

Parameters

point Desired position in local coordinates.

Returns: The B field vector in local coordinates.

Definition at line 45 of file SensorInfo.cc.

{
  ROOT::Math::XYZVector pointGlobal = pointToGlobal(point, true);
  ROOT::Math::XYZVector bGlobal = BFieldManager::getField(pointGlobal);
  ROOT::Math::XYZVector bLocal = vectorToLocal(bGlobal, true);
  return bLocal;
}

◆ getBulkDoping()

double getBulkDoping ( ) const

inline

Return the bulk doping of the Silicon sensor.

Definition at line 97 of file SensorInfo.h.

97{ return m_bulkDoping; }

◆ getChargeThreshold()

double getChargeThreshold ( ) const

inline

Get the charge threshold in ADU for the sensor.

Definition at line 127 of file SensorInfo.h.

127{ return m_chargeThreshold; }

◆ getClearBorder()

double getClearBorder ( double v ) const

inline

Return the distance between the clear side of the pixel and the start of the Gate for a pixel at v.

Definition at line 111 of file SensorInfo.h.

      {
        if (v / m_length + 0.5 >= m_splitLength) return m_clearBorderSmallPitch;
        return m_clearBorderLargePitch;
      }

◆ getDoublePixel()

bool getDoublePixel ( ) const

inline

Return true if the Sensor is a double pixel structure: every other pixel is mirrored along v.

Definition at line 125 of file SensorInfo.h.

125{ return m_doublePixel; }

◆ getDrainBorder()

double getDrainBorder ( double v ) const

inline

Return the distance between the drain side of the pixel and the start of the Gate for a pixel at v.

Definition at line 117 of file SensorInfo.h.

      {
        if (v / m_length + 0.5 >= m_splitLength) return m_drainBorderSmallPitch;
        return m_drainBorderLargePitch;
      }

◆ getDriftVelocity()

const ROOT::Math::XYZVector getDriftVelocity	(	const ROOT::Math::XYZVector &	E,
		const ROOT::Math::XYZVector &	B
	)		const

Calculate drift velocity of an electron.

Parameters

E	Electric field vector
B	Magnetic field vector

Returns: drift velocity of an electron in the E+B field.

Definition at line 54 of file SensorInfo.cc.

{
  // Set mobility parameters
  double mobility = -getElectronMobility(E.R());
  double mobilityH = m_hallFactor * mobility;
  // Calculate products
  ROOT::Math::XYZVector EcrossB = E.Cross(B);
  ROOT::Math::XYZVector BEdotB = E.Dot(B) * B;
  ROOT::Math::XYZVector v = mobility * E + mobility * mobilityH * EcrossB
                            + mobility * mobilityH * mobilityH * BEdotB;
  v *= 1.0 / (1.0 + mobilityH * mobilityH * B.Mag2());
  return v;
}

◆ getEField()

const ROOT::Math::XYZVector getEField ( const ROOT::Math::XYZVector & point ) const

Model of the E field inside the sensor.

Parameters

point Desired position in local coordinates.

Returns: The E field vector in local coordinates.

Definition at line 33 of file SensorInfo.cc.

{
  // FIXME: Get rid of the gateDepth
  double depletionVoltage = 0.5 * Unit::e * m_bulkDoping
                            / Const::permSi * m_thickness * m_thickness;
  double gateZ = 0.5 * m_thickness - m_gateDepth;
  double Ez = 2 * depletionVoltage * (point.Z() - gateZ) / m_thickness
              / m_thickness;
  ROOT::Math::XYZVector E(0, 0, Ez);
  return E;
}

◆ getElectronMobility()

double getElectronMobility ( double E ) const

Calculate electron mobility at a given electric field.

Based on C. Canali et al., IEEE, ED-22, (1975) 1045

Parameters

E	Electric field, V/cm

Returns: electron mobility, cm*2/V.ns

Definition at line 20 of file SensorInfo.cc.

{
  // Electron parameters - maximum velocity, critical intensity, beta factor
  static double vmElec = 1.53 * pow(m_temperature, -0.87) * 1.E9 * Unit::cm
                         / Unit::s;
  static double EcElec = 1.01 * pow(m_temperature, +1.55) * Unit::V
                         / Unit::cm;
  static double betaElec = 2.57 * pow(m_temperature, +0.66) * 1.E-2;
 
  return (vmElec / EcElec * 1.
          / (pow(1. + pow((fabs(E) / EcElec), betaElec), (1. / betaElec))));
}

◆ getForwardWidth()

double getForwardWidth ( ) const

inlineinherited

Convinience Wrapper to return width at forward side.

Returns: width of the sensor at the forward side

Definition at line 97 of file SensorInfoBase.h.

      {
        return getWidth(0.5 * m_length);
      }

◆ getGateDepth()

double getGateDepth ( ) const

inline

Return the gate depth for the sensor.

Definition at line 123 of file SensorInfo.h.

123{ return m_gateDepth; }

◆ getHallFactor()

double getHallFactor ( ) const

inline

Return the Hall factor for electrons at sensor temperature.

Definition at line 135 of file SensorInfo.h.

135{ return m_hallFactor; }

◆ getID()

VxdID getID ( ) const

inlineinherited

Return the ID of the Sensor.

Definition at line 74 of file SensorInfoBase.h.

74{ return m_id; }

Belle2::VXD::SensorInfoBase::m_id

unsigned short m_id

ID of the Sensor.

Definition: SensorInfoBase.h:333

◆ getIntegrationEnd()

double getIntegrationEnd ( ) const

inline

Return the end of the integration window, the timeframe the PXD is sensitive.

Definition at line 133 of file SensorInfo.h.

133{ return m_integrationEnd; }

◆ getIntegrationStart()

double getIntegrationStart ( ) const

inline

Return the start of the integration window, the timeframe the PXD is sensitive.

Definition at line 131 of file SensorInfo.h.

131{ return m_integrationStart; }

◆ getLength()

double getLength ( ) const

inlineinherited

Return the length of the sensor.

Returns: length of the sensor

Definition at line 105 of file SensorInfoBase.h.

105{ return m_length; }

◆ getLorentzShift()

const ROOT::Math::XYZVector getLorentzShift	(	double	u,
		double	v
	)		const

Calculate Lorentz shift.

Parameters

u	Local u coordinate
v	Local v coordinate

Returns: 3-vector (du, dv, 0) of Lorentz shifts.

Definition at line 99 of file SensorInfo.cc.

{
  // Constants for the 5-point Gauss quadrature formula
  const double alphaGL = 1.0 / 3.0 * sqrt(5.0 + 2.0 * sqrt(10.0 / 7.0));
  const double betaGL = 1.0 / 3.0 * sqrt(5.0 - 2.0 * sqrt(10.0 / 7.0));
  const double walpha = (322 - 13.0 * sqrt(70)) / 900;
  const double wbeta = (322 + 13.0 * sqrt(70)) / 900;
  const double distanceToPlane = 0.5 * m_thickness - m_gateDepth;
  const double midpoint = 0.5 * distanceToPlane;
  const double h = 0.5 * distanceToPlane;
  const double weightGL[5] = {
    h * walpha, h * wbeta, h * 128.0 / 225.0, h * wbeta, h* walpha
  };
  const double zKnots[5] = {
    midpoint - alphaGL * h, midpoint - betaGL * h, midpoint, midpoint + betaGL * h, midpoint + alphaGL* h
  };
  // Integrate v/v_z from z = 0 to z = distanceToPlane
  ROOT::Math::XYZVector position(u, v, 0);
  ROOT::Math::XYZVector currentBField = getBField(position);
  for (int iz = 0; iz < 5; ++iz) {
    // This is OK as long as E only depends on z
    ROOT::Math::XYZVector currentEField = getEField(ROOT::Math::XYZVector(0, 0, zKnots[iz]));
    ROOT::Math::XYZVector velocity = getDriftVelocity(currentEField, currentBField);
    position += weightGL[iz] / velocity.Z() * velocity;
  } // for knots
  position.SetZ(0);
  position.SetX(position.X() - u);
  position.SetY(position.Y() - v);
  return position;
}

◆ getNoiseFraction()

double getNoiseFraction ( ) const

inline

Get the noise fraction for the sensor.

Definition at line 129 of file SensorInfo.h.

129{ return m_noiseFraction; }

◆ getPixelKind()

int getPixelKind	(	const VxdID	sensorID,
		double	v
	)		const

Return pixel kind ID.

Parameters

sensorID	the sensor identification
v	Local v coordinate

Returns: pixel kind ID in range 0..7, 0-3 for Layer=1, 4-7 for Layer=2

Definition at line 69 of file SensorInfo.cc.

{
  const SensorInfo& Info = dynamic_cast<const SensorInfo&>(VXD::GeoCache::getInstance().getSensorInfo(sensorID));
  int i_pixelKind = Info.getVPitchID(v);
  if (Info.getID().getLayerNumber() == 2) i_pixelKind += 4;
  if (Info.getID().getSensorNumber() == 2) i_pixelKind += 2;
  return i_pixelKind;
}

◆ getPixelKindNew()

int getPixelKindNew	(	const VxdID &	sensorID,
		int	vID
	)		const

Return pixel kind ID.

Parameters

sensorID	the sensor identification
vID	Local vcell ID

Returns: pixel kind ID in range 0, 1, 2, 3 for z55, z60, z70, z85 pixels

Definition at line 78 of file SensorInfo.cc.

{
  const SensorInfo& Info = dynamic_cast<const SensorInfo&>(VXD::GeoCache::getInstance().getSensorInfo(sensorID));
  double v = Info.getVCellPosition(vID);
  double vPitch = Info.getVPitch(v);
  int  i_pixelKind = 0;
 
  if (std::fabs(vPitch - 0.0055) < 0.0001)
    i_pixelKind = 0;
  else if (std::fabs(vPitch - 0.0060) < 0.0001)
    i_pixelKind = 1;
  else if (std::fabs(vPitch - 0.0070) < 0.0001)
    i_pixelKind = 2;
  else if (std::fabs(vPitch - 0.0085) < 0.0001)
    i_pixelKind = 3;
  else
    B2FATAL("Unexpected pixel vPitch.");
  return i_pixelKind;
}

◆ getSourceBorder()

double getSourceBorder ( double v ) const

inline

Return the distance between the source side of the pixel and the start of the Gate for a pixel at v.

For these functions to work, the small pitch and large pitch values have to be correctly swapped with the flipVSegmentation method. FIXME: flip... is never called!

Definition at line 105 of file SensorInfo.h.

      {
        if (v / m_length + 0.5 >= m_splitLength) return m_sourceBorderSmallPitch;
        return m_sourceBorderLargePitch;
      }

◆ getSurfaceParameters()

const std::vector< double > & getSurfaceParameters ( ) const

inlineinherited

Return parameters of planar deformation.

Definition at line 324 of file SensorInfoBase.h.

      {
        return m_surfaceDeformationParameters;
      }

◆ getTemperature()

double getTemperature ( ) const

inline

Return the temperature of the sensor.

Definition at line 95 of file SensorInfo.h.

95{return m_temperature;}

◆ getThickness()

double getThickness ( ) const

inlineinherited

Return the thickness of the sensor.

Returns: thickness of the sensor

Definition at line 110 of file SensorInfoBase.h.

110{ return m_thickness; }

◆ getTopVoltage()

double getTopVoltage ( ) const

inline

Return the voltage at the top of the sensor.

Definition at line 101 of file SensorInfo.h.

101{ return m_topVoltage; }

◆ getTransformation()

const TGeoHMatrix & getTransformation ( bool reco = false ) const

inlineinherited

Return the transformation matrix of the Sensor.

Returns: Transformation matrix of the Sensor

Parameters

reco	Get transformation for reconstruction (true) or nominal (false)

Definition at line 311 of file SensorInfoBase.h.

      {
        if (reco) return m_recoTransform;
        else return m_transform;
      }

◆ getTrappedID()

int getTrappedID	(	double	x,
		double	y
	)		const

Get pixel number if the given coordinate is in the correspondin internal gate trapping region or -1 otherwise.

Parameters

x	u-coordinate in the local system
y	v-coordinate in the local system

Returns: pixel number id = ix + 250*iy, or -1

Definition at line 150 of file SensorInfo.cc.

{
  double huCells = 0.5 * m_uCells;
  double ix = floor(x * m_iup + huCells);
  int jx = ix;
  double x0 = (ix + 0.5 - huCells) * m_up;
 
  if (fabs(x - x0) < m_hxIG) {
    if ((unsigned)jx >= (unsigned)m_uCells) return -1;
    double ys = y - m_vsplit;
    if (ys >= 0) {
      double iy = floor(ys * m_ivp2);
      int jy = iy;
      iy = jy / 2;
      double y0 = iy * m_vp2 * 2 + m_vp2;
      double yl = fabs(ys - y0);
      if (fabs(yl - m_mIGS) < m_sIGS) {
        if ((unsigned)jy >= (unsigned)m_vCells2) return -1;
        return jx + m_uCells * (jy + m_vCells);
      }
      return -1;
    } else {
      ys = y + 0.5 * m_length;
      double iy = floor(ys * m_ivp);
      int jy = iy;
      iy = jy / 2;
      double y0 = iy * m_vp * 2 + m_vp;
      double yl = fabs(ys - y0);
      if (fabs(yl - m_mIGL) < m_sIGL) {
        if ((unsigned)jy >= (unsigned)m_vCells) return -1;
        return jx + m_uCells * jy;
      }
      return -1;
    }
  }
  return -1;
}

◆ getType()

SensorType getType ( ) const

inlineinherited

Return the Type of the Sensor.

Definition at line 72 of file SensorInfoBase.h.

72{ return m_type; }

Belle2::VXD::SensorInfoBase::m_type

SensorType m_type

Type of the Sensor.

Definition: SensorInfoBase.h:331

◆ getUCellID()

int getUCellID	(	double	u,
		double	v = `0`,
		bool	clamp = `false`
	)		const

inlineinherited

Return the corresponding pixel/strip ID of a given u coordinate.

Parameters

u	u coordinate of the pixel/strip
v	v coordinate of the pixel/strip, ignored for rectangular sensors
clamp	flag for clamp

Returns: ID of the pixel/strip covering the given coordinate

Definition at line 193 of file SensorInfoBase.h.

      {
        if (clamp) return std::min(getUCells() - 1, std::max(0, getUCellID(u, v, false)));
        return static_cast<int>((u / getWidth(v) + 0.5) * m_uCells);
      }

◆ getUCellPosition()

double getUCellPosition	(	int	uID,
		int	vID = `-1`
	)		const

inlineinherited

Return the position of a specific strip/pixel in u direction.

Parameters

uID	id of the strip/pixel in u coordinates
vID	id of the strip/pixel in v coordinates, ignored for rectangular sensors

Returns: Pixel/Strip position in u direction

Definition at line 168 of file SensorInfoBase.h.

      {
        if (m_deltaWidth == 0) return ((uID + 0.5) / m_uCells - 0.5) * m_width;
        double v = 0;
        if (vID >= 0) v = getVCellPosition(vID);
        return ((uID + 0.5) / m_uCells - 0.5) * getWidth(v);
      }

◆ getUCells()

int getUCells ( ) const

inlineinherited

Return number of pixel/strips in u direction.

Definition at line 214 of file SensorInfoBase.h.

214{ return m_uCells; }

◆ getUPitch()

double getUPitch ( double v = 0 ) const

inlineinherited

Return the pitch of the sensor.

Parameters

v	v-coordinate where to determine the pitch, ignored for rectangular sensors

Returns: Pixel/Strip size in u direction

Definition at line 132 of file SensorInfoBase.h.

132{ return getWidth(v) / m_uCells; }

◆ getUSize()

double getUSize ( double v = 0 ) const

inlineinherited

Return the width of the sensor.

Parameters

v	v-coordinate where to determine the width, ignored for recangular sensors

Returns: width of the Sensor

Definition at line 116 of file SensorInfoBase.h.

116{ return getWidth(v); }

◆ getVCellID()

int getVCellID	(	double	v,
		bool	clamp = `false`
	)		const

inlineinherited

Return the corresponding pixel/strip ID of a given v coordinate.

Parameters

v	v coordinate of the pixel/strip
clamp	flag for clamp

Returns: ID of the pixel/strip covering the given coordinate

Definition at line 204 of file SensorInfoBase.h.

      {
        if (clamp) return std::min(getVCells() - 1, std::max(0, getVCellID(v, false)));
        double nv = v / m_length + 0.5;
        if (m_splitLength <= 0) return static_cast<int>(nv * m_vCells);
        if (nv >= m_splitLength) return static_cast<int>((nv - m_splitLength) / (1 - m_splitLength) * m_vCells2) + m_vCells;
        return static_cast<int>(nv / m_splitLength * m_vCells);
      }

◆ getVCellPosition()

double getVCellPosition ( int vID ) const

inlineinherited

Return the position of a specific strip/pixel in v direction.

Parameters

vID	id of the strip/pixel in v coordinates

Returns: Pixel/Strip position in v direction

Definition at line 180 of file SensorInfoBase.h.

      {
        if (m_splitLength <= 0) return ((vID + 0.5) / m_vCells - 0.5) * m_length;
        if (vID >= m_vCells) return ((vID - m_vCells + 0.5) / m_vCells2 * (1 - m_splitLength) - 0.5 + m_splitLength) * m_length;
        return ((vID + 0.5) / m_vCells * m_splitLength - 0.5) * m_length;
      }

◆ getVCells()

int getVCells ( ) const

inlineinherited

Return number of pixel/strips in v direction.

Definition at line 216 of file SensorInfoBase.h.

216{ return m_vCells + m_vCells2; }

◆ getVCells2()

int getVCells2 ( ) const

inlineinherited

Return number of pixel/strips in v direction up to change pitch.

Definition at line 218 of file SensorInfoBase.h.

218{ return m_vCells2; }

◆ getVPitch()

double getVPitch ( double v = 0 ) const

inlineinherited

Return the pitch of the sensor.

Parameters

v	v-coordinate where to determine the pitch, only used for sensors with two different pixel sizes along v

Returns: Pixel/Strip size in v direction

Definition at line 139 of file SensorInfoBase.h.

      {
        if (m_splitLength <= 0) return m_length / m_vCells;
        if (v / m_length + 0.5 >= m_splitLength) return m_length * (1 - m_splitLength) / m_vCells2;
        return m_length * m_splitLength / m_vCells;
      }

◆ getVPitchID()

int getVPitchID ( double v = 0 ) const

inlineinherited

Return the pitch ID of the sensor.

Parameters

v	v-coordinate where to determine the pitchID only used for PXD sensors with two different pixel sizes along v

Returns: Pixel/Strip ID in v direction: 0 for pitch at smaller v, 1 for bigger v Attention: Pitch ID depend from sensor position For PXD it swap for sensor=1 vs. seensor=2 Sensor=1: bigger pitch = 0, smaller = 1 Sensor=2: smaller pitch = 0, bigger = 1

Definition at line 156 of file SensorInfoBase.h.

      {
        if (m_splitLength <= 0) return 0;
        if (v / m_length + 0.5 >= m_splitLength) return 0;
        return 1;
      }

◆ getVSize()

double getVSize ( ) const

inlineinherited

Return the length of the sensor.

Returns: length of the sensor

Definition at line 121 of file SensorInfoBase.h.

121{ return getLength(); }

◆ getWidth()

double getWidth ( double v = 0 ) const

inlineinherited

Return the width of the sensor.

Parameters

v	v-coordinate where to determine the width, ignored for recangular sensors

Returns: width of the Sensor

Definition at line 80 of file SensorInfoBase.h.

      {
        if (m_deltaWidth == 0) return m_width;
        return m_width + (v / m_length + 0.5) * m_deltaWidth;
      }

◆ getWSize()

double getWSize ( ) const

inlineinherited

Return the thickness of the sensor.

Returns: thickness of the sensor

Definition at line 126 of file SensorInfoBase.h.

126{ return getThickness(); }

◆ inside() [1/2]

bool inside	(	const ROOT::Math::XYZVector &	local,
		double	uTolerance = `DBL_EPSILON`,
		double	vTolerance = `DBL_EPSILON`,
		double	wTolerance = `DBL_EPSILON`
	)		const

inlineinherited

Check wether a given point is inside the active area.

Parameters

local	point in local coordinates
uTolerance	tolerance to be added on each side of the sensor in u direction
vTolerance	tolerance to be added on each side of the sensor in v direction
wTolerance	tolerance to be added on each side of the sensor in w direction

Returns: true if inside active area, false otherwise

Definition at line 243 of file SensorInfoBase.h.

      {
        double nw = local.Z() / (getThickness() + 2 * wTolerance) + 0.5;
 
        return inside(local.X(), local.Y(), uTolerance, vTolerance) && 0 <= nw && nw <= 1;
      }

◆ inside() [2/2]

bool inside	(	double	u,
		double	v,
		double	uTolerance = `DBL_EPSILON`,
		double	vTolerance = `DBL_EPSILON`
	)		const

inlineinherited

Check wether a given point is inside the active area.

Optionally, one can specify a tolerance which should be added to the sensor edges to still be considered inside

Parameters

u	u coordinate to check, supply 0 if not interested
v	v coordinate to check, supply 0 if not interested
uTolerance	tolerance to be added on each side of the sensor in u direction
vTolerance	tolerance to be added on each side of the sensor in v direction

Returns: true if inside active area, false otherwise

Definition at line 229 of file SensorInfoBase.h.

      {
        double nu = u / (getWidth(v) + 2 * uTolerance) + 0.5;
        double nv = v / (getLength() + 2 * vTolerance) + 0.5;
        return 0 <= nu && nu <= 1 && 0 <= nv && nv <= 1;
      }

◆ pointToGlobal()

ROOT::Math::XYZVector pointToGlobal	(	const ROOT::Math::XYZVector &	local,
		bool	reco = `false`
	)		const

inlineinherited

Convert a point from local to global coordinates.

Parameters

local	point in local coordinates
reco	Use sensor position in reconstruction (true) or in nominal geometry (false)

Returns: point in global coordinates

Definition at line 369 of file SensorInfoBase.h.

    {
      double clocal[3];
      double cmaster[3];
      local.GetCoordinates(clocal);
      if (reco) m_recoTransform.LocalToMaster(clocal, cmaster);
      else m_transform.LocalToMaster(clocal, cmaster);
      return ROOT::Math::XYZVector(cmaster[0], cmaster[1], cmaster[2]);
    }

◆ pointToLocal()

ROOT::Math::XYZVector pointToLocal	(	const ROOT::Math::XYZVector &	global,
		bool	reco = `false`
	)		const

inlineinherited

Convert a point from global to local coordinates.

Parameters

global	point in global coordinates
reco	Use sensor position in reconstruction (true) or in nominal geometry (false)

Returns: point in local coordinates

Definition at line 389 of file SensorInfoBase.h.

    {
      double clocal[3];
      double cmaster[3];
      global.GetCoordinates(cmaster);
      if (reco) m_recoTransform.MasterToLocal(cmaster, clocal);
      else m_transform.MasterToLocal(cmaster, clocal);
      return ROOT::Math::XYZVector(clocal[0], clocal[1], clocal[2]);
    }

◆ setDEPFETParams()

void setDEPFETParams	(	double	bulkDoping,
		double	backVoltage,
		double	topVoltage,
		double	sourceBorderSmallPitch,
		double	clearBorderSmallPitch,
		double	drainBorderSmallPitch,
		double	sourceBorderLargePitch,
		double	clearBorderLargePitch,
		double	drainBorderLargePitch,
		double	gateDepth,
		bool	doublePixel,
		double	chargeThreshold,
		double	noiseFraction
	)

inline

Set operation parameters like voltages.

Definition at line 55 of file SensorInfo.h.

      {
        m_bulkDoping = bulkDoping;
        m_backVoltage = backVoltage;
        m_topVoltage = topVoltage;
        m_sourceBorderSmallPitch = sourceBorderSmallPitch;
        m_clearBorderSmallPitch = clearBorderSmallPitch;
        m_drainBorderSmallPitch = drainBorderSmallPitch;
        m_sourceBorderLargePitch = sourceBorderLargePitch;
        m_clearBorderLargePitch = clearBorderLargePitch;
        m_drainBorderLargePitch = drainBorderLargePitch;
        m_gateDepth = gateDepth;
        m_doublePixel = doublePixel;
        m_chargeThreshold = chargeThreshold;
        m_noiseFraction = noiseFraction;
        cook();
      }

◆ setID()

void setID ( VxdID id )

inline

Change the SensorID, useful to copy the SensorInfo from one sensor and use it for another.

Definition at line 37 of file SensorInfo.h.

37{ m_id = id; }

◆ setIntegrationWindow()

void setIntegrationWindow	(	double	start,
		double	end
	)

inline

Set the time window in which the sensor is active.

Definition at line 88 of file SensorInfo.h.

      {
        m_integrationStart = start;
        m_integrationEnd = end;
      }

◆ setLorentzFactor()

void setLorentzFactor ( )

protected

Calculate Lorentz shift factor.

This factor is constant for a sensor; the actual, position-dependent Lorentz shift is factor cross B.

◆ setSurfaceParameters()

void setSurfaceParameters ( const std::vector< double > & planarParameters )

inlineinherited

Fill parameters of planar deformation to vector.

Definition at line 318 of file SensorInfoBase.h.

      {
        m_surfaceDeformationParameters = planarParameters;
      }

◆ setTransformation()

void setTransformation	(	const TGeoHMatrix &	transform,
		bool	reco = `false`
	)

inlineinherited

Set the transformation matrix of the Sensor.

Parameters

transform	Transformation matrix of the Sensor
reco	Set transformation for reconstruction (true) or nominal (false)

Definition at line 301 of file SensorInfoBase.h.

      {
        if (reco) m_recoTransform = transform;
        else m_transform = transform;
      }

◆ vectorToGlobal()

ROOT::Math::XYZVector vectorToGlobal	(	const ROOT::Math::XYZVector &	local,
		bool	reco = `false`
	)		const

inlineinherited

Convert a vector from local to global coordinates.

Parameters

local	vector in local coordinates
reco	Use sensor position in reconstruction (true) or in nominal geometry (false)

Returns: vector in global coordinates

Definition at line 379 of file SensorInfoBase.h.

    {
      double clocal[3];
      double cmaster[3];
      local.GetCoordinates(clocal);
      if (reco) m_recoTransform.LocalToMasterVect(clocal, cmaster);
      else m_transform.LocalToMasterVect(clocal, cmaster);
      return ROOT::Math::XYZVector(cmaster[0], cmaster[1], cmaster[2]);
    }

◆ vectorToLocal()

ROOT::Math::XYZVector vectorToLocal	(	const ROOT::Math::XYZVector &	global,
		bool	reco = `false`
	)		const

inlineinherited

Convert a vector from global to local coordinates.

Parameters

global	vector in global coordinates
reco	Use sensor position in reconstruction (true) or in nominal geometry (false)

Returns: vector in local coordinates

Definition at line 399 of file SensorInfoBase.h.

    {
      double clocal[3];
      double cmaster[3];
      global.GetCoordinates(cmaster);
      if (reco) m_recoTransform.MasterToLocalVect(cmaster, clocal);
      else m_transform.MasterToLocalVect(cmaster, clocal);
      return ROOT::Math::XYZVector(clocal[0], clocal[1], clocal[2]);
    }

Member Data Documentation

◆ m_backVoltage

double m_backVoltage

protected

The voltage at the backside of the sensor.

Definition at line 190 of file SensorInfo.h.

◆ m_bulkDoping

double m_bulkDoping

protected

Doping concentration of the silicon bulk.

Definition at line 188 of file SensorInfo.h.

◆ m_chargeThreshold

double m_chargeThreshold

protected

Charge threshold.

Definition at line 210 of file SensorInfo.h.

◆ m_clearBorderLargePitch

double m_clearBorderLargePitch

protected

The distance between the clear side of the pixel and the start of the Gate, large pitch area

Definition at line 202 of file SensorInfo.h.

◆ m_clearBorderSmallPitch

double m_clearBorderSmallPitch

protected

The distance between the clear side of the pixel and the start of the Gate, small pitch area

Definition at line 196 of file SensorInfo.h.

◆ m_deltaWidth

double m_deltaWidth

protectedinherited

Difference between backward and forward width, 0 for rectangular sensors.

Definition at line 341 of file SensorInfoBase.h.

◆ m_doublePixel

bool m_doublePixel

protected

True if the Sensor is a double pixel structure: every other pixel is mirrored along v.

Definition at line 208 of file SensorInfo.h.

◆ m_drainBorderLargePitch

double m_drainBorderLargePitch

protected

The distance between the drain side of the pixel and the start of the Gate, large pitch area

Definition at line 204 of file SensorInfo.h.

◆ m_drainBorderSmallPitch

double m_drainBorderSmallPitch

protected

The distance between the drain side of the pixel and the start of the Gate, small pitch area

Definition at line 198 of file SensorInfo.h.

◆ m_gateDepth

double m_gateDepth

protected

Return depth of the surface where the electrons will be collected.

Definition at line 206 of file SensorInfo.h.

◆ m_hallFactor

double m_hallFactor

protected

The bulk doping of the Silicon sensor.

Definition at line 186 of file SensorInfo.h.

◆ m_hxIG

double m_hxIG

protected

size in u direction of the internal gate trapping region

Definition at line 230 of file SensorInfo.h.

◆ m_id

unsigned short m_id

protectedinherited

ID of the Sensor.

Definition at line 333 of file SensorInfoBase.h.

◆ m_integrationEnd

double m_integrationEnd

protected

The end of the integration window, the timeframe the PXD is sensitive.

Definition at line 217 of file SensorInfo.h.

◆ m_integrationStart

double m_integrationStart

protected

The start of the integration window, the timeframe the PXD is sensitive.

Definition at line 215 of file SensorInfo.h.

◆ m_iup

double m_iup

protected

the reciprocal of the pixel pitch in u direction

Definition at line 220 of file SensorInfo.h.

◆ m_ivp

double m_ivp

protected

the reciprocal of the large pixel pitch in v direction

Definition at line 225 of file SensorInfo.h.

◆ m_ivp2

double m_ivp2

protected

the reciprocal of the small pixel pitch in v direction

Definition at line 228 of file SensorInfo.h.

◆ m_length

double m_length

protectedinherited

Length of the Sensor.

Definition at line 337 of file SensorInfoBase.h.

◆ m_mIGL

double m_mIGL

protected

middle of the internal gate trapping region for large pixels

Definition at line 231 of file SensorInfo.h.

◆ m_mIGS

double m_mIGS

protected

middle of the internal gate trapping region for small pixels

Definition at line 233 of file SensorInfo.h.

◆ m_noiseFraction

double m_noiseFraction

protected

Fixed noise fraction.

Definition at line 212 of file SensorInfo.h.

◆ m_recoTransform

TGeoHMatrix m_recoTransform

protectedinherited

Alignment-corrected transformation matrix of the Sensor for use in reconstruction.

Definition at line 353 of file SensorInfoBase.h.

◆ m_sIGL

double m_sIGL

protected

size in v direction of the internal gate trapping region for large pixels

Definition at line 232 of file SensorInfo.h.

◆ m_sIGS

double m_sIGS

protected

size in v direction of the internal gate trapping region for small pixels

Definition at line 234 of file SensorInfo.h.

◆ m_sourceBorderLargePitch

double m_sourceBorderLargePitch

protected

The distance between the source side of the pixel and the start of the Gate, large pitch area.

Definition at line 200 of file SensorInfo.h.

◆ m_sourceBorderSmallPitch

double m_sourceBorderSmallPitch

protected

The distance between the source side of the pixel and the start of the Gate, small pitch area.

Definition at line 194 of file SensorInfo.h.

◆ m_splitLength

double m_splitLength

protectedinherited

Relative length at which second pixel size starts, 0 for only one pixel size.

Definition at line 343 of file SensorInfoBase.h.

◆ m_surfaceDeformationParameters

std::vector<double> m_surfaceDeformationParameters = std::vector<double>(12, 0.0)

protectedinherited

Vector contains all parameter needed for description planar deformation of sensors.

Definition at line 355 of file SensorInfoBase.h.

◆ m_temperature

double m_temperature

protected

The temperature of the sensor.

Definition at line 184 of file SensorInfo.h.

◆ m_thickness

double m_thickness

protectedinherited

Thickness of the Sensor.

Definition at line 339 of file SensorInfoBase.h.

◆ m_topVoltage

double m_topVoltage

protected

The voltate at the top of the sensor.

Definition at line 192 of file SensorInfo.h.

◆ m_transform

TGeoHMatrix m_transform

protectedinherited

Nominal transformation matrix of the Sensor.

Definition at line 351 of file SensorInfoBase.h.

◆ m_type

SensorType m_type

protectedinherited

Type of the Sensor.

Definition at line 331 of file SensorInfoBase.h.

◆ m_uCells

int m_uCells

protectedinherited

Number of strips/pixels in u direction.

Definition at line 345 of file SensorInfoBase.h.

◆ m_up

double m_up

protected

pixel pitch in u direction

Definition at line 219 of file SensorInfo.h.

◆ m_vCells

int m_vCells

protectedinherited

Number of strips/pixels in v direction (up to splitLength for two pixel sizes)

Definition at line 347 of file SensorInfoBase.h.

◆ m_vCells2

int m_vCells2

protectedinherited

Number of strips/pixels in v direction after splitLength, 0 for only one pixel size.

Definition at line 349 of file SensorInfoBase.h.

◆ m_vp

double m_vp

protected

large pixel pitch in v direction

Definition at line 224 of file SensorInfo.h.

◆ m_vp2

double m_vp2

protected

small pixel pitch in v direction

Definition at line 227 of file SensorInfo.h.

◆ m_vsplit

double m_vsplit

protected

v coordinate which splits small and large pixel regions

Definition at line 222 of file SensorInfo.h.

◆ m_width

double m_width

protectedinherited

Width of the sensor.

Definition at line 335 of file SensorInfoBase.h.

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

pxd/geometry/include/SensorInfo.h
pxd/geometry/src/SensorInfo.cc

Public Types

Public Member Functions

Protected Member Functions

Protected Attributes

Detailed Description

Member Enumeration Documentation

◆ SensorType

Constructor & Destructor Documentation

◆ SensorInfo()

Member Function Documentation

◆ cook()

◆ flipVSegmentation()

◆ forceInside() [1/2]

◆ forceInside() [2/2]

◆ getBackVoltage()

◆ getBackwardWidth()

◆ getBField()

◆ getBulkDoping()

◆ getChargeThreshold()

◆ getClearBorder()

◆ getDoublePixel()

◆ getDrainBorder()

◆ getDriftVelocity()

◆ getEField()

◆ getElectronMobility()

◆ getForwardWidth()

◆ getGateDepth()

◆ getHallFactor()

◆ getID()

◆ getIntegrationEnd()

◆ getIntegrationStart()

◆ getLength()

◆ getLorentzShift()

◆ getNoiseFraction()

◆ getPixelKind()

◆ getPixelKindNew()

◆ getSourceBorder()

◆ getSurfaceParameters()

◆ getTemperature()

◆ getThickness()

◆ getTopVoltage()

◆ getTransformation()

◆ getTrappedID()

◆ getType()

◆ getUCellID()

◆ getUCellPosition()

◆ getUCells()

◆ getUPitch()

◆ getUSize()

◆ getVCellID()

◆ getVCellPosition()

◆ getVCells()

◆ getVCells2()

◆ getVPitch()

◆ getVPitchID()

◆ getVSize()

◆ getWidth()

◆ getWSize()

◆ inside() [1/2]

◆ inside() [2/2]

◆ pointToGlobal()

◆ pointToLocal()

◆ setDEPFETParams()

◆ setID()

◆ setIntegrationWindow()

◆ setLorentzFactor()

◆ setSurfaceParameters()

◆ setTransformation()

◆ vectorToGlobal()

◆ vectorToLocal()

Member Data Documentation

◆ m_backVoltage

◆ m_bulkDoping

◆ m_chargeThreshold

◆ m_clearBorderLargePitch

◆ m_clearBorderSmallPitch

◆ m_deltaWidth

◆ m_doublePixel

◆ m_drainBorderLargePitch

◆ m_drainBorderSmallPitch