#include <STOFFluxAna.h>

Inheritance diagram for STOFFluxAna:

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Public Member Functions
	STOFFluxAna ()

void	setExitTOF (bool a_useExitTOF)

void	readConfig (std::string a_fileName)

void	addExpFile (std::string a_fileName)
	this function adds files from experiment More...

void	clearExpFiles ()
	this function clears the experiment data More...

void	addSimFile (std::string a_fileName)
	this function adds files from simulation of the experiment More...

void	addExpIncTimeDt (TH1 *a_hist)
	used to pass the incoming time of flight uncertainty hist to the class More...

void	addSimEnergyHist (TH1 *a_particleHistory)
	used to add the sim energy histogram to the class More...

void	setSimTOFSmearing (double a_exitTOFSmear, double a_incTOFSmear)

void	setSimTOFSmearing (double a_exitTOFSmear, TH1 *a_incTOFGammaFlashHistogram)

void	setCutState (std::string a_cutName, bool a_state)
	this sets the cuts for both classes More...

void	generateScatterLYCalibrationFiles (std::string a_outDataFileName, std::string a_outSimFileName, std::vector< std::pair< double, double > > a_ranges)

void	generateTargetLYCalibrationFiles (std::string a_outDataFileName, std::string a_outSimFileName, bool a_incTOF, std::vector< std::pair< double, double > > a_ranges)

void	setupModelDataComparisonPlotting ()

std::ostream &	printHistNames (std::ostream &a_stream=std::cout)

TCanvas *	plotComparison (std::string a_histName, int a_binProjection=-1)

void	setUpEffCalc ()

void	drawProjectionE (int a_binNumber, bool a_newCanvas=false)

std::vector< double >	getGaussSeedE (int a_proj)

void	checkGaussGuessE (int a_binNumber, bool a_newCanvas=false)

void	fitSliceWithGaussE (int a_binNumber, bool a_draw)

void	fitEfficiencySlices (int a_startBin, int a_stopBin)

void	calcPeakAreaE (int a_startBin, int a_stopBin)

TGraph *	plotPeakAreaE (int a_startBin, int a_stopBin)

void	calcEfficiency (int a_startBin, int a_stopBin)
	basically calcuation of the efficiency needs the transport history More...

TGraph *	plotEff (int a_startBin, int a_stopBin)

void	setUpICalc ()
	!!!!!~~~~~~~~~~~~~end largely related to the efficiency caculation More...

void	drawProjectionI (int a_binNumber, bool a_newCanvas=false)

std::vector< double >	getGaussSeedI (int a_proj)

void	checkGaussGuessI (int a_binNumber, bool a_newCanvas=false)

void	fitSliceWithGaussI (int a_binNumber, bool a_draw)

void	fitSlicesI (int a_startBin, int a_stopBin)

void	calcPeakAreaI (int a_startBin, int a_stopBin)

TGraph *	plotPeakAreaI (int a_startBin, int a_stopBin)

void	calcIntensity (int a_startBin, int a_stopBin)
	basically calcuation of the efficiency needs the transport history More...

TGraph *	plotI (int a_startBin, int a_stopBin)

void	setupUncertaintyWeighting ()
	!!!!!~~~~~~~~~~~~~end largely related to the intensity caculation More...

void	drawBinWeighting (int a_binNumber, bool a_newCanvas=false)

std::pair< double, double >	getDEWeigthedEfficiency (int a_binNumber, bool a_fluxConsidered=false)

void	calcFlux (int a_startBin, int a_stopBin)

void	iterativeFlux (int a_startBin, int a_stopBin, double a_maxDifference=0.01, double a_maxIterations=1000)

TGraph *	plotFlux ()

TGraph *	plotFluxPerSRmicroC ()

TH1 *	getFluxHistPerSRmicroC ()

std::vector< double >	getGaussSeed (TH1 *a_proj)

void	checkGaussGuess (TH1 *a_hist, bool a_newCanvas=false)

TFitResultPtr	fitSliceWithGauss (TH1 *a_hist, bool a_draw, bool a_rangeLimit=false)

void	calcPeakArea (std::vector< TFitResultPtr > &a_fitResVec, std::vector< TH1 * > &a_sliceVec, std::vector< double > &a_areaVec, std::vector< double > &a_dAreaVec, int a_startBin, int a_stopBin)

TGraph *	plotResVec (std::vector< double > &a_valVec, std::vector< double > &a_dValVec, int a_startBin, int a_stopBin)

STOFAna &	getSimAna ()

STOFAna &	getExpAna ()

void	setConfig (STOFConfig a_config)

STOFConfig	getConfig ()
	get config class stored in FluxAna More...

void	clearState ()
	clears histograms – to be used in-between MC trials More...

virtual std::ostream &	printVecsState (std::ostream &a_stream) const

	~STOFFluxAna ()

Protected Attributes
STOFAna	m_simResults
	used to fetch results from the simulation of the experimental setup More...

STOFAna	m_expResults
	used to fetch results from the experimental data More...

STOFConfig	m_config

std::map< std::string, TH2 * >	m_simHists

std::map< std::string, TH2 * >	m_expHists

std::vector< TH1 * >	m_effProj
	used to store projections of histograms More...

std::vector< std::pair< double, double > >	m_projEdges
	used to store the edges of projections More...

std::vector< TFitResultPtr >	m_effFitRes

std::vector< double >	m_effPeakArea
	used a derived result from a fit More...

std::vector< double >	m_dEffPeakArea
	used to store the error onthe above value More...

std::vector< double >	m_eff
	used to store the efficiency calculation More...

std::vector< double >	m_dEff
	uncertainty on the efficiency More...

TH1 *	m_transportedNeutrons

TF1 *	m_sliceFitFunc
	this function is a holder used for various slice fitting the efficiency More...

std::vector< TH1 * >	m_IProj
	!!!end eff calculation storage More...

std::vector< std::pair< double, double > >	m_IProjEdges
	used to store the edges of projections More...

std::vector< TFitResultPtr >	m_IFitRes

std::vector< double >	m_IPeakArea
	used a derived result from a fit More...

std::vector< double >	m_dIPeakArea
	used to store the error onthe above value More...

std::vector< double >	m_I
	used to store the efficiency calculation More...

std::vector< double >	m_dI
	uncertainty on the efficiency More...

std::vector< double >	m_flux

std::vector< double >	m_dFlux

std::vector< double >	m_eFlux

std::vector< double >	m_dEFlux

std::vector< double >	m_originalFlux
	used to store first calculated flux before iteration More...

std::vector< double >	m_originalDFlux

bool	m_binWeighHistPresent

std::vector< TH1 * >	m_rEnVTEnProj

std::vector< double >	m_binEdges
	used to store the edges of the bins generally? More...

double	m_charge

TH1 *	m_incTimeDt

bool	m_useExitTOF
	changes the loaded data types to be for the exit time of flight More...

bool	m_subtract

Detailed Description

this class is intended to manage the final stages of producing a nuetron spectrum from the kinematic neutron spectrometer developed at the 88". I primarily depends on the STOFAna class for histogram generation for data from the experimental configuration and the results of a simulation of the configuration

Constructor & Destructor Documentation

◆ STOFFluxAna()

STOFFluxAna::STOFFluxAna ( )

default constructor puts the class into a working but not that interesting state

◆ ~STOFFluxAna()

STOFFluxAna::~STOFFluxAna ( )

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Member Function Documentation

◆ addExpFile()

void STOFFluxAna::addExpFile ( std::string a_fileName )

this function adds files from experiment

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◆ addExpIncTimeDt()

void STOFFluxAna::addExpIncTimeDt ( TH1 * a_hist )

used to pass the incoming time of flight uncertainty hist to the class

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◆ addSimEnergyHist()

void STOFFluxAna::addSimEnergyHist ( TH1 * a_particleHistory )

used to add the sim energy histogram to the class

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◆ addSimFile()

void STOFFluxAna::addSimFile ( std::string a_fileName )

this function adds files from simulation of the experiment

this function adds files from experiment

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◆ calcEfficiency()

void STOFFluxAna::calcEfficiency	(	int	a_startBin,
		int	a_stopBin
	)

basically calcuation of the efficiency needs the transport history

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◆ calcFlux()

void STOFFluxAna::calcFlux	(	int	a_startBin,
		int	a_stopBin
	)

this requires that both intensities and the efficiency has been calculated, and that that neutron energy spreading histogram is present

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◆ calcIntensity()

void STOFFluxAna::calcIntensity	(	int	a_startBin,
		int	a_stopBin
	)

basically calcuation of the efficiency needs the transport history

◆ calcPeakArea()

void STOFFluxAna::calcPeakArea	(	std::vector< TFitResultPtr > &	a_fitResVec,
		std::vector< TH1 * > &	a_sliceVec,
		std::vector< double > &	a_areaVec,
		std::vector< double > &	a_dAreaVec,
		int	a_startBin,
		int	a_stopBin
	)

uses the results of the above fit to calculate the area ie call the above first

this assumes that there isn't some odd light binning and all bin widths are the same

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◆ calcPeakAreaE()

void STOFFluxAna::calcPeakAreaE	(	int	a_startBin,
		int	a_stopBin
	)

uses the results of the above fit to calculate the area ie call the above first

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◆ calcPeakAreaI()

void STOFFluxAna::calcPeakAreaI	(	int	a_startBin,
		int	a_stopBin
	)

uses the results of the above fit to calculate the area ie call the above first

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◆ checkGaussGuess()

void STOFFluxAna::checkGaussGuess	(	TH1 *	a_hist,
		bool	a_newCanvas = `false`
	)

this function gets the gaus seed parameters and plots them with the projecton they were estimate for

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◆ checkGaussGuessE()

void STOFFluxAna::checkGaussGuessE	(	int	a_binNumber,
		bool	a_newCanvas = `false`
	)

this function gets the gaus seed parameters and plots them with the projecton they were estimate for

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◆ checkGaussGuessI()

void STOFFluxAna::checkGaussGuessI	(	int	a_binNumber,
		bool	a_newCanvas = `false`
	)

this function gets the gaus seed parameters and plots them with the projecton they were estimate for

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◆ clearExpFiles()

void STOFFluxAna::clearExpFiles ( )

this function clears the experiment data

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◆ clearState()

void STOFFluxAna::clearState ( )

clears histograms – to be used in-between MC trials

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◆ drawBinWeighting()

void STOFFluxAna::drawBinWeighting	(	int	a_binNumber,
		bool	a_newCanvas = `false`
	)

◆ drawProjectionE()

void STOFFluxAna::drawProjectionE	(	int	a_binNumber,
		bool	a_newCanvas = `false`
	)

this function will draw a projection of a specified bin number from internal class memory

◆ drawProjectionI()

void STOFFluxAna::drawProjectionI	(	int	a_binNumber,
		bool	a_newCanvas = `false`
	)

this function will draw a projection of a specified bin number from internal class memory

◆ fitEfficiencySlices()

void STOFFluxAna::fitEfficiencySlices	(	int	a_startBin,
		int	a_stopBin
	)

loops over internally stored projections fitting them with gaus and store the fit results

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◆ fitSlicesI()

void STOFFluxAna::fitSlicesI	(	int	a_startBin,
		int	a_stopBin
	)

loops over internally stored projections fitting them with gaus and store the fit results

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◆ fitSliceWithGauss()

TFitResultPtr STOFFluxAna::fitSliceWithGauss	(	TH1 *	a_hist,
		bool	a_draw,
		bool	a_rangeLimit = `false`
	)

this function depends on the class being setup. It attemps to fit an intenally stored slice with a TF1 which the first three parameters should correspond to a normalized gaussian. The fit results will be stored in the class

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◆ fitSliceWithGaussE()

void STOFFluxAna::fitSliceWithGaussE	(	int	a_binNumber,
		bool	a_draw
	)

this function depends on the class being setup. It attemps to fit an intenally stored slice with a TF1 which the first three parameters should correspond to a normalized gaussian. The fit results will be stored in the class

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◆ fitSliceWithGaussI()

void STOFFluxAna::fitSliceWithGaussI	(	int	a_binNumber,
		bool	a_draw
	)

this function depends on the class being setup. It attemps to fit an intenally stored slice with a TF1 which the first three parameters should correspond to a normalized gaussian. The fit results will be stored in the class

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◆ generateScatterLYCalibrationFiles()

void STOFFluxAna::generateScatterLYCalibrationFiles	(	std::string	a_outDataFileName,
		std::string	a_outSimFileName,
		std::vector< std::pair< double, double > >	a_ranges
	)

this function generates histograms used for calibration of the experimental data to the simulation light axis

'''warning hard coded max eD'''

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◆ generateTargetLYCalibrationFiles()

void STOFFluxAna::generateTargetLYCalibrationFiles	(	std::string	a_outDataFileName,
		std::string	a_outSimFileName,
		bool	a_incTOF,
		std::vector< std::pair< double, double > >	a_ranges
	)

this function generates histograms used for calibration of the experimental data to the simulation light axis a_incTOF is set to chose either ranges in incoming TOF (true) or exitTOF (false)

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◆ getConfig()

STOFConfig STOFFluxAna::getConfig ( )

get config class stored in FluxAna

◆ getDEWeigthedEfficiency()

std::pair< double, double > STOFFluxAna::getDEWeigthedEfficiency	(	int	a_binNumber,
		bool	a_fluxConsidered = `false`
	)

calculates the average efficiency of a given bin and it's error if a fluxConsidered, using calculated flux in weighting the efficiency

not adding fluxError since it is calculated from previous two error

since the weighting histogram is normalized we have the appropriate efficiency and the variance

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◆ getExpAna()

STOFAna & STOFFluxAna::getExpAna ( )

this function allows access to the internal member class managing the simulation results

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◆ getFluxHistPerSRmicroC()

TH1 * STOFFluxAna::getFluxHistPerSRmicroC ( )

hard coded target ID

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◆ getGaussSeed()

std::vector< double > STOFFluxAna::getGaussSeed ( TH1 * a_hist )

this function looks at the values associated with a projection and attempts to guess the starting paramters for a fit

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◆ getGaussSeedE()

std::vector< double > STOFFluxAna::getGaussSeedE ( int a_proj )

this function looks at the values associated with a projection and attempts to guess the starting paramters for a fit

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◆ getGaussSeedI()

std::vector< double > STOFFluxAna::getGaussSeedI ( int a_proj )

this function looks at the values associated with a projection and attempts to guess the starting paramters for a fit

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◆ getSimAna()

STOFAna & STOFFluxAna::getSimAna ( )

this function allows access to the internal member class managing the simulation results

◆ iterativeFlux()

void STOFFluxAna::iterativeFlux	(	int	a_startBin,
		int	a_stopBin,
		double	a_maxDifference = `0.01`,
		double	a_maxIterations = `1000`
	)

this takes the result from calcFlux to update the distribution of neutron energies contributing to each bin weighted by the measured flux and iterates until convergence

storing original flux for comparisons

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◆ plotComparison()

TCanvas * STOFFluxAna::plotComparison	(	std::string	a_histName,
		int	a_binProjection = `-1`
	)

plots a comparison of the model and the data for the specified name specifying a bin number other than the default and withtin the range will also plot a projection of both on the same canvas.

◆ plotEff()

TGraph * STOFFluxAna::plotEff	(	int	a_startBin,
		int	a_stopBin
	)

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◆ plotFlux()

TGraph * STOFFluxAna::plotFlux ( )

◆ plotFluxPerSRmicroC()

TGraph * STOFFluxAna::plotFluxPerSRmicroC ( )

hard coded target ID

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◆ plotI()

TGraph * STOFFluxAna::plotI	(	int	a_startBin,
		int	a_stopBin
	)

◆ plotPeakAreaE()

TGraph * STOFFluxAna::plotPeakAreaE	(	int	a_startBin,
		int	a_stopBin
	)

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◆ plotPeakAreaI()

TGraph * STOFFluxAna::plotPeakAreaI	(	int	a_startBin,
		int	a_stopBin
	)

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◆ plotResVec()

TGraph * STOFFluxAna::plotResVec	(	std::vector< double > &	a_valVec,
		std::vector< double > &	a_dValVec,
		int	a_startBin,
		int	a_stopBin
	)

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◆ printHistNames()

std::ostream & STOFFluxAna::printHistNames ( std::ostream & a_stream = std::cout )

◆ printVecsState()

std::ostream & STOFFluxAna::printVecsState ( std::ostream & a_stream ) const

virtual

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◆ readConfig()

void STOFFluxAna::readConfig ( std::string a_fileName )

this function reads the config file for both the simulation and the experiment accumulator class

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◆ setConfig()

void STOFFluxAna::setConfig ( STOFConfig a_config )

this function allows to update the configuration in the Monte Carlo derived class

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◆ setCutState()

void STOFFluxAna::setCutState	(	std::string	a_cutName,
		bool	a_state
	)

this sets the cuts for both classes

◆ setExitTOF()

void STOFFluxAna::setExitTOF ( bool a_useExitTOF )

this function changes whether the class uses the incoming or exit time of flight to determine the incient neutron energy the default state is setup for incoming time of flight this needs to be called before any of the setup functions

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◆ setSimTOFSmearing() [1/2]

void STOFFluxAna::setSimTOFSmearing	(	double	a_exitTOFSmear,
		double	a_incTOFSmear
	)

this function turns on time smearing in the simulation using normal distributions with provided 1-sigma values for incTOF and exitTOF

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◆ setSimTOFSmearing() [2/2]

void STOFFluxAna::setSimTOFSmearing	(	double	a_exitTOFSmear,
		TH1 *	a_incTOFHistogram
	)

this function turns on time smearing in the simulation using a normal distribution with provided 1-sigma values for exitTOF and a histogram for the distribution of the gamma flash for incTOF

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◆ setUpEffCalc()

void STOFFluxAna::setUpEffCalc ( )

!!!!!~~~~~~~~~~~~~largely related to the efficiency caculation this function sets up the internal state of the class to consider the efficiency of the detector system using the simulation this includes building the 2D histogram of the observed pulse height of the target

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◆ setUpICalc()

void STOFFluxAna::setUpICalc ( )

!!!!!~~~~~~~~~~~~~end largely related to the efficiency caculation

!!!!!~~~~~~~~~~~~~largely related to the intesity caculation this function sets up the internal state of the class to consider the efficiency of the detector system using the simulation this includes building the 2D histogram of the observed pulse height of the target

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◆ setupModelDataComparisonPlotting()

void STOFFluxAna::setupModelDataComparisonPlotting ( )

this function loads the generated model and data histograms used in the comparison functions

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◆ setupUncertaintyWeighting()

void STOFFluxAna::setupUncertaintyWeighting ( )

!!!!!~~~~~~~~~~~~~end largely related to the intensity caculation

this vector populates the bin contribution slices and normalizes them if it is called a second time it doesn't recreate the 2d hist and just regenerates the slices it assumes the efficiency has already been calculated

this vector populates the bin contribution slices and normalizes them if it is called a second time it doesn't recreate the 2d hist and just regenerates the slices

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Member Data Documentation

◆ m_binEdges

std::vector<double> STOFFluxAna::m_binEdges

protected

used to store the edges of the bins generally?

◆ m_binWeighHistPresent

bool STOFFluxAna::m_binWeighHistPresent

protected

◆ m_charge

double STOFFluxAna::m_charge

protected

◆ m_config

STOFConfig STOFFluxAna::m_config

protected

used to dish information about the experimental configuratoin and calibrations. This config gets modified during the Monte Carlo of systematics

◆ m_dEff

std::vector<double> STOFFluxAna::m_dEff

protected

uncertainty on the efficiency

◆ m_dEffPeakArea

std::vector<double> STOFFluxAna::m_dEffPeakArea

protected

used to store the error onthe above value

◆ m_dEFlux

std::vector<double> STOFFluxAna::m_dEFlux

protected

◆ m_dFlux

std::vector<double> STOFFluxAna::m_dFlux

protected

◆ m_dI

std::vector<double> STOFFluxAna::m_dI

protected

uncertainty on the efficiency

◆ m_dIPeakArea

std::vector<double> STOFFluxAna::m_dIPeakArea

protected

used to store the error onthe above value

◆ m_eff

std::vector<double> STOFFluxAna::m_eff

protected

used to store the efficiency calculation

◆ m_effFitRes

std::vector<TFitResultPtr> STOFFluxAna::m_effFitRes

protected

◆ m_effPeakArea

std::vector<double> STOFFluxAna::m_effPeakArea

protected

used a derived result from a fit

◆ m_effProj

std::vector<TH1*> STOFFluxAna::m_effProj

protected

used to store projections of histograms

!!!eff calculation storage

◆ m_eFlux

std::vector<double> STOFFluxAna::m_eFlux

protected

◆ m_expHists

std::map<std::string,TH2*> STOFFluxAna::m_expHists

protected

used to store references to histograms used in the analysis with name based access

◆ m_expResults

STOFAna STOFFluxAna::m_expResults

protected

used to fetch results from the experimental data

◆ m_flux

std::vector<double> STOFFluxAna::m_flux

protected

◆ m_I

std::vector<double> STOFFluxAna::m_I

protected

used to store the efficiency calculation

◆ m_IFitRes

std::vector<TFitResultPtr> STOFFluxAna::m_IFitRes

protected

◆ m_incTimeDt

TH1* STOFFluxAna::m_incTimeDt

protected

◆ m_IPeakArea

std::vector<double> STOFFluxAna::m_IPeakArea

protected

used a derived result from a fit

◆ m_IProj

std::vector<TH1*> STOFFluxAna::m_IProj

protected

!!!end eff calculation storage

!!! intensity calcualtion storage

◆ m_IProjEdges

std::vector<std::pair<double,double> > STOFFluxAna::m_IProjEdges

protected

used to store the edges of projections

◆ m_originalDFlux

std::vector<double> STOFFluxAna::m_originalDFlux

protected

◆ m_originalFlux

std::vector<double> STOFFluxAna::m_originalFlux

protected

used to store first calculated flux before iteration

◆ m_projEdges

std::vector<std::pair<double,double> > STOFFluxAna::m_projEdges

protected

used to store the edges of projections

◆ m_rEnVTEnProj

std::vector<TH1*> STOFFluxAna::m_rEnVTEnProj

protected

◆ m_simHists

std::map<std::string,TH2*> STOFFluxAna::m_simHists

protected

used to store references to histograms used in the analysis with name based access

◆ m_simResults

STOFAna STOFFluxAna::m_simResults

protected

used to fetch results from the simulation of the experimental setup

◆ m_sliceFitFunc

TF1* STOFFluxAna::m_sliceFitFunc

protected

this function is a holder used for various slice fitting the efficiency

◆ m_subtract

bool STOFFluxAna::m_subtract

protected

subtracts background by looking at the inverse of the match window

◆ m_transportedNeutrons

TH1* STOFFluxAna::m_transportedNeutrons

protected

histogram for storing the efficiency this pointed is inteded for storing the particle history of the GEANT particles which contributed to the simulation being analyzed

◆ m_useExitTOF

bool STOFFluxAna::m_useExitTOF

protected

changes the loaded data types to be for the exit time of flight

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

CAENDataProcAna/STOFAna/include/STOFFluxAna.h
CAENDataProcAna/STOFAna/src/STOFFluxAna.cpp

Public Member Functions

Protected Attributes

Detailed Description

Constructor & Destructor Documentation

◆ STOFFluxAna()

◆ ~STOFFluxAna()

Member Function Documentation

◆ addExpFile()

◆ addExpIncTimeDt()

◆ addSimEnergyHist()

◆ addSimFile()

◆ calcEfficiency()

◆ calcFlux()

◆ calcIntensity()

◆ calcPeakArea()

◆ calcPeakAreaE()

◆ calcPeakAreaI()

◆ checkGaussGuess()

◆ checkGaussGuessE()

◆ checkGaussGuessI()

◆ clearExpFiles()

◆ clearState()

◆ drawBinWeighting()

◆ drawProjectionE()

◆ drawProjectionI()

◆ fitEfficiencySlices()

◆ fitSlicesI()

◆ fitSliceWithGauss()

◆ fitSliceWithGaussE()

◆ fitSliceWithGaussI()

◆ generateScatterLYCalibrationFiles()

◆ generateTargetLYCalibrationFiles()

◆ getConfig()

◆ getDEWeigthedEfficiency()

◆ getExpAna()

◆ getFluxHistPerSRmicroC()

◆ getGaussSeed()

◆ getGaussSeedE()

◆ getGaussSeedI()

◆ getSimAna()

◆ iterativeFlux()

◆ plotComparison()

◆ plotEff()

◆ plotFlux()

◆ plotFluxPerSRmicroC()

◆ plotI()

◆ plotPeakAreaE()

◆ plotPeakAreaI()

◆ plotResVec()

◆ printHistNames()

◆ printVecsState()

◆ readConfig()

◆ setConfig()

◆ setCutState()

◆ setExitTOF()

◆ setSimTOFSmearing() [1/2]

◆ setSimTOFSmearing() [2/2]

◆ setUpEffCalc()

◆ setUpICalc()

◆ setupModelDataComparisonPlotting()

◆ setupUncertaintyWeighting()

Member Data Documentation

◆ m_binEdges

◆ m_binWeighHistPresent

◆ m_charge

◆ m_config

◆ m_dEff

◆ m_dEffPeakArea

◆ m_dEFlux

◆ m_dFlux

◆ m_dI

◆ m_dIPeakArea

◆ m_eff

◆ m_effFitRes

◆ m_effPeakArea

◆ m_effProj

◆ m_eFlux

◆ m_expHists

◆ m_expResults

◆ m_flux