#include <ICscCalibTool.h>

Inheritance diagram for ICscCalibTool:

Collaboration diagram for ICscCalibTool:

Public Member Functions
	DeclareInterfaceID (ICscCalibTool, 1, 0)

virtual int	femtoCoulombToADCCount (uint32_t stripHashId, const double femtoCoulombs) const =0
	given a charge on the CSC strip, convert that to ADC counts this is needed in the digitization for example where it is the charges on the strips that are simulated first and converter to AOD samples in a subsequent step. More...

virtual int	numberOfElectronsToADCCount (uint32_t stripHashId, const int numberOfElecEquiv) const =0
	Here the charge on the CSC strip is given in number of equivalent electrons; conversion to ADC counts. More...

virtual double	adcCountToFemtoCoulomb (const float adcValue, const float slope) const =0
	given one CSC ADC sample value, convert that to charge in femtoCoulomb More...

virtual double	adcCountToFemtoCoulomb (uint32_t stripHashId, const float adcValue) const =0

virtual double	adcCountToNumberOfElectrons (const float adcValue, const float slope) const =0
	given one CSC ADC sample value, convert that to charge in number of equivalent electrons More...

virtual double	adcCountToNumberOfElectrons (uint32_t stripHashId, const float adcValue) const =0

virtual bool	adcToCharge (const std::vector< uint16_t > &samples, uint32_t stripHashId, std::vector< float > &charges) const =0
	Conversion of ADC value to charge - Here the charges is returned in numbers of equivalent electrons. More...

virtual bool	findCharge (const float samplingTime, const unsigned int samplingPhase, const std::vector< float > &samples, double &charge, double &time) const =0
	Given sampling values for a CSC strip, find the corresponding charge by fitting the time samples. More...

virtual double	stripNoise (uint32_t stripHashId, const bool convert=true) const =0
	return the noise (sigma) on the readout strip in ADC counts or Number of Electrons More...

virtual double	stripRMS (uint32_t stripHashId, const bool convert=true) const =0
	return the RMS on the readout strip in ADC counts or Number of Electrons More...

virtual double	stripF001 (uint32_t stripHashId, const bool convert=true) const =0
	return the F001 on the readout strip in ADC counts or Number of Electrons More...

virtual double	stripPedestal (uint32_t stripHashId, const bool convert=true) const =0
	return the pedestal on the readout strip in ADC counts or Number of Electrons More...

virtual bool	isGood (uint32_t stripHashId) const =0
	return the status of this strip, good channel, dead channel, noisy channel - it will return true for strip that working fine, false is returned for dead/noisy channels More...

virtual int	stripStatusBit (uint32_t stripHashId) const =0

virtual double	func (const double x, const float slope) const =0
	these function used in the AOD <-> conversion; may not be needed once we integrate the calibration service More...

virtual double	func_prime (const double x, const float slope) const =0

virtual double	signal (const double z) const =0

virtual double	signal_amplitude (const double driftTime, const double samplingTime) const =0

virtual double	getZ0 () const =0

virtual double	getSamplingTime () const =0

virtual double	getSignalWidth () const =0

virtual double	getTimeOffset () const =0

virtual double	getNumberOfIntegration () const =0

virtual double	getNumberOfIntegration2 () const =0

virtual bool	stripT0phase (uint32_t stripHashId) const =0

virtual double	stripT0base (uint32_t stripHashId) const =0

virtual std::pair< double, double >	addBipfunc (const double driftTime0, const double stripCharge0, const double driftTime1, const double stripCharge1) const =0

virtual std::vector< float >	getSamplesFromBipolarFunc (const double driftTime0, const double stripCharge0) const =0

virtual double	getLatency () const =0

Detailed Description

Definition at line 24 of file ICscCalibTool.h.

Member Function Documentation

◆ adcCountToFemtoCoulomb() [1/2]

virtual double ICscCalibTool::adcCountToFemtoCoulomb	(	const float	adcValue,
		const float	slope
	)		const

pure virtual

given one CSC ADC sample value, convert that to charge in femtoCoulomb

◆ adcCountToFemtoCoulomb() [2/2]

virtual double ICscCalibTool::adcCountToFemtoCoulomb	(	uint32_t	stripHashId,
		const float	adcValue
	)		const

pure virtual

◆ adcCountToNumberOfElectrons() [1/2]

virtual double ICscCalibTool::adcCountToNumberOfElectrons	(	const float	adcValue,
		const float	slope
	)		const

pure virtual

given one CSC ADC sample value, convert that to charge in number of equivalent electrons

◆ adcCountToNumberOfElectrons() [2/2]

virtual double ICscCalibTool::adcCountToNumberOfElectrons	(	uint32_t	stripHashId,
		const float	adcValue
	)		const

pure virtual

◆ adcToCharge()

virtual bool ICscCalibTool::adcToCharge	(	const std::vector< uint16_t > &	samples,
		uint32_t	stripHashId,
		std::vector< float > &	charges
	)		const

pure virtual

Conversion of ADC value to charge - Here the charges is returned in numbers of equivalent electrons.

◆ addBipfunc()

virtual std::pair<double,double> ICscCalibTool::addBipfunc	(	const double	driftTime0,
		const double	stripCharge0,
		const double	driftTime1,
		const double	stripCharge1
	)		const

pure virtual

◆ DeclareInterfaceID()

ICscCalibTool::DeclareInterfaceID	(	ICscCalibTool	,
		1	,
		0
	)

◆ femtoCoulombToADCCount()

virtual int ICscCalibTool::femtoCoulombToADCCount	(	uint32_t	stripHashId,
		const double	femtoCoulombs
	)		const

pure virtual

given a charge on the CSC strip, convert that to ADC counts this is needed in the digitization for example where it is the charges on the strips that are simulated first and converter to AOD samples in a subsequent step.

◆ findCharge()

virtual bool ICscCalibTool::findCharge	(	const float	samplingTime,
		const unsigned int	samplingPhase,
		const std::vector< float > &	samples,
		double &	charge,
		double &	time
	)		const

pure virtual

Given sampling values for a CSC strip, find the corresponding charge by fitting the time samples.

By default, a parabolic fit is done. The charge and the time are returned. The time is calculated with respect to the time of the first sample

◆ func()

virtual double ICscCalibTool::func	(	const double	x,
		const float	slope
	)		const

pure virtual

these function used in the AOD <-> conversion; may not be needed once we integrate the calibration service

◆ func_prime()

virtual double ICscCalibTool::func_prime	(	const double	x,
		const float	slope
	)		const

pure virtual

◆ getLatency()

virtual double ICscCalibTool::getLatency ( ) const

pure virtual

◆ getNumberOfIntegration()

virtual double ICscCalibTool::getNumberOfIntegration ( ) const

pure virtual

◆ getNumberOfIntegration2()

virtual double ICscCalibTool::getNumberOfIntegration2 ( ) const

pure virtual

◆ getSamplesFromBipolarFunc()

virtual std::vector<float> ICscCalibTool::getSamplesFromBipolarFunc	(	const double	driftTime0,
		const double	stripCharge0
	)		const

pure virtual

◆ getSamplingTime()

virtual double ICscCalibTool::getSamplingTime ( ) const

pure virtual

◆ getSignalWidth()

virtual double ICscCalibTool::getSignalWidth ( ) const

pure virtual

◆ getTimeOffset()

virtual double ICscCalibTool::getTimeOffset ( ) const

pure virtual

◆ getZ0()

virtual double ICscCalibTool::getZ0 ( ) const

pure virtual

◆ isGood()

virtual bool ICscCalibTool::isGood ( uint32_t stripHashId ) const

pure virtual

return the status of this strip, good channel, dead channel, noisy channel - it will return true for strip that working fine, false is returned for dead/noisy channels

◆ numberOfElectronsToADCCount()

virtual int ICscCalibTool::numberOfElectronsToADCCount	(	uint32_t	stripHashId,
		const int	numberOfElecEquiv
	)		const

pure virtual

Here the charge on the CSC strip is given in number of equivalent electrons; conversion to ADC counts.

◆ signal()

virtual double ICscCalibTool::signal ( const double z ) const

pure virtual

◆ signal_amplitude()

virtual double ICscCalibTool::signal_amplitude	(	const double	driftTime,
		const double	samplingTime
	)		const

pure virtual

◆ stripF001()

virtual double ICscCalibTool::stripF001	(	uint32_t	stripHashId,
		const bool	convert = `true`
	)		const

pure virtual

return the F001 on the readout strip in ADC counts or Number of Electrons

number of electrons by default: convert=true

◆ stripNoise()

virtual double ICscCalibTool::stripNoise	(	uint32_t	stripHashId,
		const bool	convert = `true`
	)		const

pure virtual

return the noise (sigma) on the readout strip in ADC counts or Number of Electrons

number of electrons by default: convert=true

◆ stripPedestal()

virtual double ICscCalibTool::stripPedestal	(	uint32_t	stripHashId,
		const bool	convert = `true`
	)		const

pure virtual

return the pedestal on the readout strip in ADC counts or Number of Electrons

in number of electrons by default: convert=true

◆ stripRMS()

virtual double ICscCalibTool::stripRMS	(	uint32_t	stripHashId,
		const bool	convert = `true`
	)		const

pure virtual

return the RMS on the readout strip in ADC counts or Number of Electrons

number of electrons by default: convert=true

◆ stripStatusBit()

virtual int ICscCalibTool::stripStatusBit ( uint32_t stripHashId ) const

pure virtual

◆ stripT0base()

virtual double ICscCalibTool::stripT0base ( uint32_t stripHashId ) const

pure virtual

◆ stripT0phase()

virtual bool ICscCalibTool::stripT0phase ( uint32_t stripHashId ) const

pure virtual

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

ICscCalibTool.h

Public Member Functions

Detailed Description

Member Function Documentation

◆ adcCountToFemtoCoulomb() [1/2]

◆ adcCountToFemtoCoulomb() [2/2]

◆ adcCountToNumberOfElectrons() [1/2]

◆ adcCountToNumberOfElectrons() [2/2]

◆ adcToCharge()

◆ addBipfunc()

◆ DeclareInterfaceID()

◆ femtoCoulombToADCCount()

◆ findCharge()

◆ func()

◆ func_prime()

◆ getLatency()

◆ getNumberOfIntegration()

◆ getNumberOfIntegration2()

◆ getSamplesFromBipolarFunc()

◆ getSamplingTime()

◆ getSignalWidth()

◆ getTimeOffset()

◆ getZ0()

◆ isGood()

◆ numberOfElectronsToADCCount()

◆ signal()

◆ signal_amplitude()

◆ stripF001()

◆ stripNoise()

◆ stripPedestal()

◆ stripRMS()

◆ stripStatusBit()

◆ stripT0base()

◆ stripT0phase()