OverlapResidualsModule Class Reference

The module studies VXD hits from overlapping sensors of a same VXD layer. More...

#include <OverlapResidualsModule.h>

Inheritance diagram for OverlapResidualsModule:

Public Types
enum	EModulePropFlags {   c_Input = 1 ,   c_Output = 2 ,   c_ParallelProcessingCertified = 4 ,   c_HistogramManager = 8 ,   c_InternalSerializer = 16 ,   c_TerminateInAllProcesses = 32 ,   c_DontCollectStatistics = 64 }
	Each module can be tagged with property flags, which indicate certain features of the module. More...
typedef ModuleCondition::EAfterConditionPath	EAfterConditionPath
	Forward the EAfterConditionPath definition from the ModuleCondition.

Public Member Functions
	OverlapResidualsModule ()
	Constructor.
void	initialize () override
	Register input and output data.
void	event () override
	Compute the difference of coordinate residuals between two hits in overlapping sensors of a same VXD layer.
void	defineHisto () override
	Histogram definitions such as TH1(), TH2(), TNtuple(), TTree()....
virtual void	beginRun () override
	Function to process begin_run record.
virtual void	endRun () override
	Function to process end_run record.
virtual void	terminate () override
	Function to terminate module.
virtual std::vector< std::string >	getFileNames (bool outputFiles)
	Return a list of output filenames for this modules.
const std::string &	getName () const
	Returns the name of the module.
const std::string &	getType () const
	Returns the type of the module (i.e.
const std::string &	getPackage () const
	Returns the package this module is in.
const std::string &	getDescription () const
	Returns the description of the module.
void	setName (const std::string &name)
	Set the name of the module.
void	setPropertyFlags (unsigned int propertyFlags)
	Sets the flags for the module properties.
LogConfig &	getLogConfig ()
	Returns the log system configuration.
void	setLogConfig (const LogConfig &logConfig)
	Set the log system configuration.
void	setLogLevel (int logLevel)
	Configure the log level.
void	setDebugLevel (int debugLevel)
	Configure the debug messaging level.
void	setAbortLevel (int abortLevel)
	Configure the abort log level.
void	setLogInfo (int logLevel, unsigned int logInfo)
	Configure the printed log information for the given level.
void	if_value (const std::string &expression, const std::shared_ptr< Path > &path, EAfterConditionPath afterConditionPath=EAfterConditionPath::c_End)
	Add a condition to the module.
void	if_false (const std::shared_ptr< Path > &path, EAfterConditionPath afterConditionPath=EAfterConditionPath::c_End)
	A simplified version to add a condition to the module.
void	if_true (const std::shared_ptr< Path > &path, EAfterConditionPath afterConditionPath=EAfterConditionPath::c_End)
	A simplified version to set the condition of the module.
bool	hasCondition () const
	Returns true if at least one condition was set for the module.
const ModuleCondition *	getCondition () const
	Return a pointer to the first condition (or nullptr, if none was set)
const std::vector< ModuleCondition > &	getAllConditions () const
	Return all set conditions for this module.
bool	evalCondition () const
	If at least one condition was set, it is evaluated and true returned if at least one condition returns true.
std::shared_ptr< Path >	getConditionPath () const
	Returns the path of the last true condition (if there is at least one, else reaturn a null pointer).
Module::EAfterConditionPath	getAfterConditionPath () const
	What to do after the conditional path is finished.
std::vector< std::shared_ptr< Path > >	getAllConditionPaths () const
	Return all condition paths currently set (no matter if the condition is true or not).
bool	hasProperties (unsigned int propertyFlags) const
	Returns true if all specified property flags are available in this module.
bool	hasUnsetForcedParams () const
	Returns true and prints error message if the module has unset parameters which the user has to set in the steering file.
const ModuleParamList &	getParamList () const
	Return module param list.
template<typename T >
ModuleParam< T > &	getParam (const std::string &name) const
	Returns a reference to a parameter.
bool	hasReturnValue () const
	Return true if this module has a valid return value set.
int	getReturnValue () const
	Return the return value set by this module.
std::shared_ptr< PathElement >	clone () const override
	Create an independent copy of this module.
std::shared_ptr< boost::python::list >	getParamInfoListPython () const
	Returns a python list of all parameters.

Static Public Member Functions
static void	exposePythonAPI ()
	Exposes methods of the Module class to Python.

Protected Member Functions
virtual void	def_initialize ()
	Wrappers to make the methods without "def_" prefix callable from Python.
virtual void	def_beginRun ()
	Wrapper method for the virtual function beginRun() that has the implementation to be used in a call from Python.
virtual void	def_event ()
	Wrapper method for the virtual function event() that has the implementation to be used in a call from Python.
virtual void	def_endRun ()
	This method can receive that the current run ends as a call from the Python side.
virtual void	def_terminate ()
	Wrapper method for the virtual function terminate() that has the implementation to be used in a call from Python.
void	setDescription (const std::string &description)
	Sets the description of the module.
void	setType (const std::string &type)
	Set the module type.
template<typename T >
void	addParam (const std::string &name, T &paramVariable, const std::string &description, const T &defaultValue)
	Adds a new parameter to the module.
template<typename T >
void	addParam (const std::string &name, T &paramVariable, const std::string &description)
	Adds a new enforced parameter to the module.
void	setReturnValue (int value)
	Sets the return value for this module as integer.
void	setReturnValue (bool value)
	Sets the return value for this module as bool.
void	setParamList (const ModuleParamList &params)
	Replace existing parameter list.

Private Member Functions
std::list< ModulePtr >	getModules () const override
	no submodules, return empty list
std::string	getPathString () const override
	return the module name.
void	setParamPython (const std::string &name, const boost::python::object &pyObj)
	Implements a method for setting boost::python objects.
void	setParamPythonDict (const boost::python::dict &dictionary)
	Implements a method for reading the parameter values from a boost::python dictionary.

Private Attributes
bool	m_ExpertLevel
	Expert level switch.
std::string	m_recoTracksStoreArrayName {"RecoTracks"}
	StoreArray name of the input and output RecoTracks.
StoreArray< PXDCluster >	m_pxdcluster
	Array storing PXD clusters.
StoreArray< SVDCluster >	m_svdcluster
	Array storing SVD clusters.
TH1F *	h_U_DeltaRes = nullptr
	Histogram of VXD ( PXD + SVD ) differences of u-coordinate residuals.
TH1F *	h_V_DeltaRes = nullptr
	Histogram of VXD ( PXD + SVD ) differences of v-coordinate residuals.
TH1F *	h_U_DeltaRes_PXD = nullptr
	Histogram of PXD u-coordinate differences of residuals.
TH1F *	h_U_DeltaRes_PXD_Lyr1 = nullptr
	Histogram of PXD layer-1 u-coordinate differences of residuals.
TH1F *	h_U_DeltaRes_PXD_Lyr2 = nullptr
	Histogram of PXD layer-2 u-coordinate differences of residuals.
TH1F *	h_V_DeltaRes_PXD = nullptr
	Histogram of PXD v-coordinate differences of residuals.
TH1F *	h_V_DeltaRes_PXD_Lyr1 = nullptr
	Histogram of PXD layer-1 v-coordinate differences of residuals.
TH1F *	h_V_DeltaRes_PXD_Lyr2 = nullptr
	Histogram of PXD layer-2 v-coordinate differences of residuals.
TH1F *	h_U_DeltaRes_SVD = nullptr
	Histogram of SVD u-coordinate differences of residuals.
TH1F *	h_U_DeltaRes_SVD_Lyr3 = nullptr
	Histogram of SVD layer-3 u-coordinate differences of residuals.
TH1F *	h_U_DeltaRes_SVD_Lyr4 = nullptr
	Histogram of SVD layer-4 u-coordinate differences of residuals.
TH1F *	h_U_DeltaRes_SVD_Lyr5 = nullptr
	Histogram of SVD layer-5 u-coordinate differences of residuals.
TH1F *	h_U_DeltaRes_SVD_Lyr6 = nullptr
	Histogram of SVD layer-6 u-coordinate differences of residuals.
TH1F *	h_V_DeltaRes_SVD = nullptr
	Histogram of SVD v-coordinate differences of residuals.
TH1F *	h_V_DeltaRes_SVD_Lyr3 = nullptr
	Histogram of SVD layer-3 v-coordinate differences of residuals.
TH1F *	h_V_DeltaRes_SVD_Lyr4 = nullptr
	Histogram of SVD layer-4 v-coordinate differences of residuals.
TH1F *	h_V_DeltaRes_SVD_Lyr5 = nullptr
	Histogram of SVD layer-5 v-coordinate differences of residuals.
TH1F *	h_V_DeltaRes_SVD_Lyr6 = nullptr
	Histogram of SVD layer-6 v-coordinate differences of residuals.
TH2F *	h_DeltaResUPhi_Lyr6 = nullptr
	2D histogram of DeltaRes_u vs phi of VXD overlaps for layer 6
TH2F *	h_DeltaResUPhi_Lyr5 = nullptr
	2D histogram of DeltaRes_u vs phi of VXD overlaps for layer 5
TH2F *	h_DeltaResUPhi_Lyr4 = nullptr
	2D histogram of DeltaRes_u vs phi of VXD overlaps for layer 4
TH2F *	h_DeltaResUPhi_Lyr3 = nullptr
	2D histogram of DeltaRes_u vs phi of VXD overlaps for layer 3
TH2F *	h_DeltaResUPhi_Lyr2 = nullptr
	2D histogram of DeltaRes_u vs phi of VXD overlaps for layer 2
TH2F *	h_DeltaResUPhi_Lyr1 = nullptr
	2D Histogram of DeltaRes_u vs phi of VXD overlaps for layer 1
TH2F *	h_DeltaResUz_Lyr6 = nullptr
	2D histogram of DeltaRes_u vs z of VXD overlaps for layer 6
TH2F *	h_DeltaResUz_Lyr5 = nullptr
	2D histogram of DeltaRes_u vs z of VXD overlaps for layer 5
TH2F *	h_DeltaResUz_Lyr4 = nullptr
	2D histogram of DeltaRes_u vs z of VXD overlaps for layer 4
TH2F *	h_DeltaResUz_Lyr3 = nullptr
	2D histogram of DeltaRes_u vs z of VXD overlaps for layer 3
TH2F *	h_DeltaResUz_Lyr2 = nullptr
	2D histogram of DeltaRes_u vs z of VXD overlaps for layer 2
TH2F *	h_DeltaResUz_Lyr1 = nullptr
	2D histogram of DeltaRes_u vs z of VXD overlaps for layer 1
TH2F *	h_DeltaResVz_Lyr6 = nullptr
	2D histogram of DeltaRes_v vs z of VXD overlaps for layer 6
TH2F *	h_DeltaResVz_Lyr5 = nullptr
	2D histogram of DeltaRes_v vs z of VXD overlaps for layer 5
TH2F *	h_DeltaResVz_Lyr4 = nullptr
	2D histogram of DeltaRes_v vs z of VXD overlaps for layer 4
TH2F *	h_DeltaResVz_Lyr3 = nullptr
	2D histogram of DeltaRes_v vs z of VXD overlaps for layer 3
TH2F *	h_DeltaResVz_Lyr2 = nullptr
	2D histogram of DeltaRes_v vs z of VXD overlaps for layer 2
TH2F *	h_DeltaResVz_Lyr1 = nullptr
	2D histogram of DeltaRes_v vs z of VXD overlaps for layer 1
TH2F *	h_DeltaResVPhi_Lyr6 = nullptr
	2D histogram of DeltaRes_v vs phi of VXD overlaps for layer 6
TH2F *	h_DeltaResVPhi_Lyr5 = nullptr
	2D histogram of DeltaRes_v vs phi of VXD overlaps for layer 5
TH2F *	h_DeltaResVPhi_Lyr4 = nullptr
	2D histogram of DeltaRes_v vs phi of VXD overlaps for layer 4
TH2F *	h_DeltaResVPhi_Lyr3 = nullptr
	2D histogram of DeltaRes_v vs phi of VXD overlaps for layer 3
TH2F *	h_DeltaResVPhi_Lyr2 = nullptr
	2D histogram of DeltaRes_v vs phi of VXD overlaps for layer 2
TH2F *	h_DeltaResVPhi_Lyr1 = nullptr
	2D histogram of DeltaRes_v vs phi of VXD overlaps for layer 1
TH1F *	h_SVDstrips_Mult = nullptr
	Histogram of SVD strips multiplicity.
TH1F *	h_U_Cl1Cl2_DeltaRes [5] = {nullptr}
	Histogram of SVD differences of u-coordinate residuals grouped by clusters sizes.
TH1F *	h_V_Cl1Cl2_DeltaRes [5] = {nullptr}
	Histogram of SVD differences of v-coordinate residuals grouped by clusters sizes.
TH2F *	h_Lyr6 [17][6] = {{nullptr}}
	Sensor hit-map for layer 6 from reconstructed u and v coordinates.
TH2F *	h_Lyr5 [13][5] = {{nullptr}}
	Sensor hit-map for layer 5 from reconstructed u and v coordinates.
TH2F *	h_Lyr4 [11][4] = {{nullptr}}
	Sensor hit-map for layer 4 from reconstructed u and v coordinates.
TH2F *	h_Lyr3 [8][3] = {{nullptr}}
	Sensor hit-map for layer 3 from reconstructed u and v coordinates.
TH2F *	h_Lyr2 [13][3] = {{nullptr}}
	Sensor hit-map for layer 2 from reconstructed u and v coordinates.
TH2F *	h_Lyr1 [9][3] = {{nullptr}}
	Sensor hit-map for layer 1 from reconstructed u and v coordinates.
TTree *	t_PXD = nullptr
	Tree containing global information on PXD overlaps.
TTree *	t_SVD_U = nullptr
	Tree containing global information on SVD u-coordinate overlaps.
TTree *	t_SVD_V = nullptr
	Tree containing global information on SVD v-coordinate overlaps.
float	deltaResU_PXD = 0
	tree t_PXD branch deltaResU/F
float	intResU_PXD = 0
	tree t_PXD branch intResU_PXD/F
float	intResV_PXD = 0
	tree t_PXD branch intResV/PXD/F
float	intU_PXD = 0
	tree t_PXD branch intU_PXD/F
float	intV_PXD = 0
	tree t_PXD branch intV_PXD/F
float	intPhi_PXD = 0
	tree t_PXD branch intPhi_PXD/F
float	intZ_PXD = 0
	tree t_PXD branch intZ_PXD/F
float	extResU_PXD = 0
	tree t_PXD branch extResU_PXD/F
float	extResV_PXD = 0
	tree t_PXD branch extResV_PXD/F
float	extU_PXD = 0
	tree t_PXD branch extU_PXD/F
float	extV_PXD = 0
	tree t_PXD branch extV_PXD/F
float	extPhi_PXD = 0
	tree t_PXD branch extPhi/PXD/F
float	extZ_PXD = 0
	tree t_PXD branch extZ_PXD/F
unsigned int	intLayer_PXD = 0
	tree t_PXD branch intLayer_PXD/i
unsigned int	intLadder_PXD = 0
	tree t_PXD branch intLadder_PXD/i
unsigned int	intSensor_PXD = 0
	tree t_PXD branch intSensor_PXD/i
unsigned int	extLayer_PXD = 0
	tree t_PXD branch extLayer_PXD/i
unsigned int	extLadder_PXD = 0
	tree t_PXD branch extLadder_PXD/i
unsigned int	extSensor_PXD = 0
	tree t_PXD branch extSensor_PXD/i
float	svdDeltaRes_U = 0
	U difference between external and internal residual.
float	svdClCharge_U_int = 0
	U internal cluster charge.
float	svdClSNR_U_int = 0
	U internal cluster SNR.
float	svdClTime_U_int = 0
	U internal cluster time.
float	svdRes_U_int = 0
	U internal residual computed by genfit.
float	svdClIntStrPos_U_int = 0
	U internal cluster interstrip position.
float	svdClPos_U_int = 0
	U internal cluster position.
float	svdClPosErr_U_int = 0
	U internal cluster position error.
float	svdTruePos_U_int = -99
	U internal true position.
float	svdClPhi_U_int = 0
	U internal cluster global phi.
float	svdClZ_U_int = 0
	U internal cluster global Z.
float	svdTrkd0 = 0
	d0 of the track
float	svdTrkz0 = 0
	z0 of the track
float	svdTrkpT = 0
	pT of the track
float	svdTrkpCM = 0
	pCM of the track
float	svdTrkTraversedLength_U_int = 0
	U internal traversed length of the track in the sensor.
float	svdTrkPos_U_int = 0
	U internal track position.
float	svdTrkPosOS_U_int = 0
	U internal track position on the other side.
float	svdTrkPosErr_U_int = 0
	U internal track position error.
float	svdTrkPosErrOS_U_int = 0
	U internal track position error on the other side.
float	svdTrkQoP_U_int = 0
	U internal track q/p.
float	svdTrkPrime_U_int = 0
	U internal tan of incident angle projected on u,w.
float	svdTrkPrimeOS_U_int = 0
	U internal tan of incident angle projected on v/u,w (other side)
float	svdTrkPosUnbiased_U_int = 0
	U internal unbiased track position.
float	svdTrkPosErrUnbiased_U_int = 0
	U internal unbiased track position error.
float	svdTrkQoPUnbiased_U_int = 0
	U internal unbiased track q/p.
float	svdTrkPrimeUnbiased_U_int = 0
	U internal unbiased tan of incident angle projected on u,w.
float	svdClCharge_U_ext = 0
	U external cluster charge.
float	svdClSNR_U_ext = 0
	U external cluster SNR.
float	svdClTime_U_ext = 0
	U external cluster time.
float	svdRes_U_ext = 0
	U external residual computed by genfit.
float	svdClIntStrPos_U_ext = 0
	U external cluster interstrip position.
float	svdClPos_U_ext = 0
	U external cluster position.
float	svdClPosErr_U_ext = 0
	U external cluster position error.
float	svdTruePos_U_ext = -99
	U external true position.
float	svdClPhi_U_ext = 0
	U external cluster global phi.
float	svdClZ_U_ext = 0
	U external cluster global Z.
float	svdTrkTraversedLength_U_ext = 0
	U external traversed length of the track in the sensor.
float	svdTrkPos_U_ext = 0
	U external track position.
float	svdTrkPosOS_U_ext = 0
	U external track position on the other side.
float	svdTrkPosErr_U_ext = 0
	U external track position error.
float	svdTrkPosErrOS_U_ext = 0
	U external track position error on the other side.
float	svdTrkQoP_U_ext = 0
	U external track q/p.
float	svdTrkPrime_U_ext = 0
	U external tan of incident angle projected on u,w.
float	svdTrkPrimeOS_U_ext = 0
	U external tan of incident angle projected on v/u,w (other side)
float	svdTrkPosUnbiased_U_ext = 0
	U external unbiased track position.
float	svdTrkPosErrUnbiased_U_ext = 0
	U external unbiased track position error.
float	svdTrkQoPUnbiased_U_ext = 0
	U external unbiased track q/p.
float	svdTrkPrimeUnbiased_U_ext = 0
	U external unbiased tan of incident angle projected on u,w.
int	svdTrkPXDHits = 0
	number of PXD hits on the track
int	svdTrkSVDHits = 0
	number of PXD hits on the track
int	svdTrkCDCHits = 0
	number of PXD hits on the track
unsigned int	svdLayer_U_int = 0
	U internal layer.
unsigned int	svdLadder_U_int = 0
	U internal ladder.
unsigned int	svdSensor_U_int = 0
	U internal sensor.
unsigned int	svdSize_U_int = 0
	U internal size.
unsigned int	svdLayer_U_ext = 0
	U external layer.
unsigned int	svdLadder_U_ext = 0
	U external ladder.
unsigned int	svdSensor_U_ext = 0
	U external sensor.
unsigned int	svdSize_U_ext = 0
	U external size.
std::vector< float >	svdStripCharge_U_int
	U internal charge of the strips of the cluster.
std::vector< float >	svdStrip6Samples_U_int
	U internal 6 samples of the strips of the cluster.
std::vector< float >	svdStripTime_U_int
	U internal time of the strips of the cluster.
std::vector< float >	svdStripPosition_U_int
	U internal position of the strips of the cluster.
std::vector< float >	svdStripCharge_U_ext
	U external charge of the strips of the cluster.
std::vector< float >	svdStrip6Samples_U_ext
	U external 6 samples of the strips of the cluster.
std::vector< float >	svdStripTime_U_ext
	U external time of the strips of the cluster.
std::vector< float >	svdStripPosition_U_ext
	U external position of the strips of the cluster.
float	svdDeltaRes_V = 0
	V difference between external and internal residual.
float	svdClCharge_V_int = 0
	V internal cluster charge.
float	svdClSNR_V_int = 0
	V internal cluster SNR.
float	svdClTime_V_int = 0
	V internal cluster time.
float	svdRes_V_int = 0
	V internal residual computed by genfit.
float	svdClIntStrPos_V_int = 0
	V internal cluster interstrip position.
float	svdClPos_V_int = 0
	V internal cluster position.
float	svdClPosErr_V_int = 0
	V internal cluster position error.
float	svdTruePos_V_int = -99
	V internal true position.
float	svdClPhi_V_int = 0
	V internal cluster global phi.
float	svdClZ_V_int = 0
	V internal cluster global Z.
float	svdTrkTraversedLength_V_int = 0
	V internal traversed length of the track in the sensor.
float	svdTrkPos_V_int = 0
	V internal track position.
float	svdTrkPosOS_V_int = 0
	V internal track position on the other side.
float	svdTrkPosErr_V_int = 0
	V internal track position error.
float	svdTrkPosErrOS_V_int = 0
	V internal track position error on the other side.
float	svdTrkQoP_V_int = 0
	V internal track q/p.
float	svdTrkPrime_V_int = 0
	V internal tan of incident angle projected on u,w.
float	svdTrkPrimeOS_V_int = 0
	V internal tan of incident angle projected on v/u,w (other side)
float	svdTrkPosUnbiased_V_int = 0
	V internal unbiased track position.
float	svdTrkPosErrUnbiased_V_int = 0
	V internal unbiased track position error.
float	svdTrkQoPUnbiased_V_int = 0
	V internal unbiased track q/p.
float	svdTrkPrimeUnbiased_V_int = 0
	V internal unbiased tan of incident angle projected on u,w.
float	svdClCharge_V_ext = 0
	V external cluster charge.
float	svdClSNR_V_ext = 0
	V external cluster SNR.
float	svdClTime_V_ext = 0
	V external cluster time.
float	svdRes_V_ext = 0
	V external residual computed by genfit.
float	svdClIntStrPos_V_ext = 0
	V external cluster interstrip position.
float	svdClPos_V_ext = 0
	V external cluster position.
float	svdClPosErr_V_ext = 0
	V external cluster position error.
float	svdTruePos_V_ext = -99
	V external true position.
float	svdClPhi_V_ext = 0
	V external cluster global phi.
float	svdClZ_V_ext = 0
	V external cluster global Z.
float	svdTrkTraversedLength_V_ext = 0
	V external traversed length of the track in the sensor.
float	svdTrkPos_V_ext = 0
	V external track position.
float	svdTrkPosOS_V_ext = 0
	V external track position on the other side.
float	svdTrkPosErr_V_ext = 0
	V external track position error.
float	svdTrkPosErrOS_V_ext = 0
	V external track position error on the other side.
float	svdTrkQoP_V_ext = 0
	V external track q/p.
float	svdTrkPrime_V_ext = 0
	V external tan of incident angle projected on u,w.
float	svdTrkPrimeOS_V_ext = 0
	V external tan of incident angle projected on v/u,w (other side)
float	svdTrkPosUnbiased_V_ext = 0
	V external unbiased track position.
float	svdTrkPosErrUnbiased_V_ext = 0
	V external unbiased track position error.
float	svdTrkQoPUnbiased_V_ext = 0
	V external unbiased track q/p.
float	svdTrkPrimeUnbiased_V_ext = 0
	V external unbiased tan of incident angle projected on u,w.
unsigned int	svdLayer_V_int = 0
	V internal layer.
unsigned int	svdLadder_V_int = 0
	V internal ladder.
unsigned int	svdSensor_V_int = 0
	V internal sensor.
unsigned int	svdSize_V_int = 0
	V internal size.
unsigned int	svdLayer_V_ext = 0
	V external layer.
unsigned int	svdLadder_V_ext = 0
	V external ladder.
unsigned int	svdSensor_V_ext = 0
	V external sensor.
unsigned int	svdSize_V_ext = 0
	V external size.
std::vector< float >	svdStripCharge_V_int
	V internal charge of the strips of the cluster.
std::vector< float >	svdStrip6Samples_V_int
	V internal 6 samples of the strips of the cluster.
std::vector< float >	svdStripTime_V_int
	V internal time of the strips of the cluster.
std::vector< float >	svdStripPosition_V_int
	V internal position of the strips of the cluster.
std::vector< float >	svdStripCharge_V_ext
	V external charge of the strips of the cluster.
std::vector< float >	svdStrip6Samples_V_ext
	V external 6 samples of the strips of the cluster.
std::vector< float >	svdStripTime_V_ext
	V external time of the strips of the cluster.
std::vector< float >	svdStripPosition_V_ext
	V external position of the strips of the cluster.
std::string	m_name
	The name of the module, saved as a string (user-modifiable)
std::string	m_type
	The type of the module, saved as a string.
std::string	m_package
	Package this module is found in (may be empty).
std::string	m_description
	The description of the module.
unsigned int	m_propertyFlags
	The properties of the module as bitwise or (with |) of EModulePropFlags.
LogConfig	m_logConfig
	The log system configuration of the module.
ModuleParamList	m_moduleParamList
	List storing and managing all parameter of the module.
bool	m_hasReturnValue
	True, if the return value is set.
int	m_returnValue
	The return value.
std::vector< ModuleCondition >	m_conditions
	Module condition, only non-null if set.

Detailed Description

The module studies VXD hits from overlapping sensors of a same VXD layer.

In particular, it computes residuals differences sensitive to possible detector misalignments.

Overlapping residuals

Definition at line 31 of file OverlapResidualsModule.h.

Member Typedef Documentation

EAfterConditionPath

typedef ModuleCondition::EAfterConditionPath EAfterConditionPath

inherited

Forward the EAfterConditionPath definition from the ModuleCondition.

Definition at line 88 of file Module.h.

Member Enumeration Documentation

EModulePropFlags

enum EModulePropFlags

inherited

Each module can be tagged with property flags, which indicate certain features of the module.

Enumerator
c_Input	This module is an input module (reads data).
c_Output	This module is an output module (writes data).
c_ParallelProcessingCertified	This module can be run in parallel processing mode safely (All I/O must be done through the data store, in particular, the module must not write any files.)
c_HistogramManager	This module is used to manage histograms accumulated by other modules.
c_InternalSerializer	This module is an internal serializer/deserializer for parallel processing.
c_TerminateInAllProcesses	When using parallel processing, call this module's terminate() function in all processes(). This will also ensure that there is exactly one process (single-core if no parallel modules found) or at least one input, one main and one output process.
c_DontCollectStatistics	No statistics is collected for this module.

Definition at line 77 of file Module.h.

                          {
      c_Input                       = 1,  
      c_Output                      = 2,  
      c_ParallelProcessingCertified = 4,  
      c_HistogramManager            = 8, 
      c_InternalSerializer          = 16,  
      c_TerminateInAllProcesses     = 32,  
      c_DontCollectStatistics       = 64,  
    };

Constructor & Destructor Documentation

OverlapResidualsModule()

OverlapResidualsModule

(

)

Constructor.

Definition at line 44 of file OverlapResidualsModule.cc.

                                               : HistoModule()
{
  //Set module properties
  setDescription("The module studies consecutive hits in overlapping sensors of a same VXD layer, and the differences of their residuals, to monitor the detector alignment.");
  //Parameter to take only specific RecoTracks as input
  addParam("recoTracksStoreArrayName", m_recoTracksStoreArrayName, "StoreArray name of the input and output RecoTracks.",
           m_recoTracksStoreArrayName);
  //Parameter to produce TTrees storing global information on VXD overlaps
  addParam("ExpertLevel", m_ExpertLevel,
           "If set, enables the production of TTrees containing low level information on PXD and SVD overlaps", false);
}

Member Function Documentation

beginRun()

virtual void beginRun ( void  )

inlineoverridevirtualinherited

Function to process begin_run record.

Reimplemented from Module.

Reimplemented in CalibrationCollectorModule, ARICHDQMModule, ARICHRateCalModule, B2BIIMCParticlesMonitorModule, AnalysisPhase1StudyModule, BeamabortStudyModule, BgoStudyModule, ClawStudyModule, ClawsStudyModule, CsiStudy_v2Module, CsIStudyModule, DosiStudyModule, FANGSStudyModule, He3tubeStudyModule, MicrotpcStudyModule, PindiodeStudyModule, QcsmonitorStudyModule, CDCCRTestModule, cdcDQM7Module, CDCDQMModule, MonitorDataModule, TrackAnaModule, IPDQMModule, PhysicsObjectsDQMModule, PhysicsObjectsMiraBelleBhabhaModule, PhysicsObjectsMiraBelleDst2Module, PhysicsObjectsMiraBelleDstModule, PhysicsObjectsMiraBelleHadronModule, PhysicsObjectsMiraBelleModule, ECLBackgroundModule, ECLDQMModule, ECLDQMConnectedRegionsModule, ECLDQMEXTENDEDModule, ECLDQMOutOfTimeDigitsModule, SoftwareTriggerHLTDQMModule, StatisticsTimingHLTDQMModule, KLMDQMModule, KLMDQM2Module, PXDRawDQMChipsModule, CDCDedxDQMModule, CDCDedxValidationModule, EventT0DQMModule, SVDDQMHitTimeModule, TOPDQMModule, TOPGainEfficiencyCalculatorModule, TOPLaserHitSelectorModule, TOPInterimFENtupleModule, TOPTBCComparatorModule, DQMHistoModuleBase, CDCTriggerNeuroDQMModule, CDCTriggerNeuroDQMOnlineModule, TRGCDCT2DDQMModule, TRGCDCT3DDQMModule, TRGCDCTSFDQMModule, TRGECLDQMModule, TRGECLEventTimingDQMModule, TRGGDLModule, TRGEFFDQMModule, TRGGDLDQMModule, TRGGRLDQMModule, TRGTOPDQMModule, TRGRAWDATAModule, DAQMonitorModule, DelayDQMModule, V0ObjectsDQMModule, ECLDQMInjectionModule, PXDDAQDQMModule, PXDDQMClustersModule, PXDDQMCorrModule, PXDDQMEfficiencyModule, PXDDQMEfficiencySelftrackModule, PXDDQMExpressRecoModule, PXDGatedDHCDQMModule, PXDGatedModeDQMModule, PXDInjectionDQMModule, PXDRawDQMCorrModule, PXDRawDQMModule, PXDROIDQMModule, PXDTrackClusterDQMModule, TTDDQMModule, DetectorOccupanciesDQMModule, SVDDQMClustersOnTrackModule, SVDDQMDoseModule, SVDDQMExpressRecoModule, SVDDQMInjectionModule, SVDUnpackerDQMModule, TrackingAbortDQMModule, VXDDQMExpressRecoModule, and vxdDigitMaskingModule.

Definition at line 40 of file HistoModule.h.

{};

clone()

std::shared_ptr< PathElement > clone ( ) const

overridevirtualinherited

Create an independent copy of this module.

Note that parameters are shared, so changing them on a cloned module will also affect the original module.

Implements PathElement.

Definition at line 179 of file Module.cc.

{
  ModulePtr newModule = ModuleManager::Instance().registerModule(getType());
  newModule->m_moduleParamList.setParameters(getParamList());
  newModule->setName(getName());
  newModule->m_package = m_package;
  newModule->m_propertyFlags = m_propertyFlags;
  newModule->m_logConfig = m_logConfig;
  newModule->m_conditions = m_conditions;
 
  return newModule;
}

def_beginRun()

virtual void def_beginRun ( )

inlineprotectedvirtualinherited

Wrapper method for the virtual function beginRun() that has the implementation to be used in a call from Python.

Reimplemented in PyModule.

Definition at line 426 of file Module.h.

{ beginRun(); }

def_endRun()

virtual void def_endRun ( )

inlineprotectedvirtualinherited

This method can receive that the current run ends as a call from the Python side.

For regular C++-Modules that forwards the call to the regular endRun() method.

Reimplemented in PyModule.

Definition at line 439 of file Module.h.

{ endRun(); }

def_event()

virtual void def_event ( )

inlineprotectedvirtualinherited

Wrapper method for the virtual function event() that has the implementation to be used in a call from Python.

Reimplemented in PyModule.

Definition at line 432 of file Module.h.

{ event(); }

def_initialize()

virtual void def_initialize ( )

inlineprotectedvirtualinherited

Wrappers to make the methods without "def_" prefix callable from Python.

Overridden in PyModule. Wrapper method for the virtual function initialize() that has the implementation to be used in a call from Python.

Reimplemented in PyModule.

Definition at line 420 of file Module.h.

{ initialize(); }

def_terminate()

virtual void def_terminate ( )

inlineprotectedvirtualinherited

Wrapper method for the virtual function terminate() that has the implementation to be used in a call from Python.

Reimplemented in PyModule.

Definition at line 445 of file Module.h.

{ terminate(); }

defineHisto()

void defineHisto ( )

overridevirtual

Histogram definitions such as TH1(), TH2(), TNtuple(), TTree()....

are supposed to be placed in this function

Reimplemented from HistoModule.

Definition at line 64 of file OverlapResidualsModule.cc.

{
  //Create directory to store monitoring histograms
  TDirectory* oldDir = gDirectory;
  TDirectory* ResDir = oldDir->mkdir("Monitoring_VXDOverlaps");
  ResDir->cd();
  //Define histograms of residuals differences
  h_U_DeltaRes = new TH1F("h_U_DeltaRes", "Histrogram of residual difference #Delta res_{u} for overlapping hits", 100, -1000, 1000);
  h_U_DeltaRes->GetXaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_U_DeltaRes->GetYaxis()->SetTitle("counts");
  h_V_DeltaRes = new TH1F("h_V_DeltaRes", "Histrogram of residual difference #Delta res_{v} for overlapping hits", 100, -1000, 1000);
  h_V_DeltaRes->GetXaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_V_DeltaRes->GetYaxis()->SetTitle("counts");
  h_U_DeltaRes_PXD = new TH1F("h_U_DeltaRes_PXD", "Histrogram of residual difference #Delta res_{u} for overlapping PXD hits", 100,
                              -1000, 1000);
  h_U_DeltaRes_PXD->GetXaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_U_DeltaRes_PXD->GetYaxis()->SetTitle("counts");
  h_U_DeltaRes_PXD_Lyr1 = new TH1F("h_U_DeltaRes_PXD_Lyr1",
                                   "Layer1: histrogram of residual difference #Delta res_{u} for overlapping PXD hits", 100, -1000, 1000);
  h_U_DeltaRes_PXD_Lyr1->GetXaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_U_DeltaRes_PXD_Lyr1->GetYaxis()->SetTitle("counts");
  h_U_DeltaRes_PXD_Lyr2 = new TH1F("h_U_DeltaRes_PXD_Lyr2",
                                   "Layer 2: hstrogram of residual difference #Delta res_{u} for overlapping PXD hits", 100, -1000, 1000);
  h_U_DeltaRes_PXD_Lyr2->GetXaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_U_DeltaRes_PXD_Lyr2->GetYaxis()->SetTitle("counts");
  h_V_DeltaRes_PXD = new TH1F("h_V_DeltaRes_PXD", "Histrogram of residual difference #Delta res_{v} for overlapping PXD hits", 100,
                              -1000, 1000);
  h_V_DeltaRes_PXD->GetXaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_V_DeltaRes_PXD->GetYaxis()->SetTitle("counts");
  h_V_DeltaRes_PXD_Lyr1 = new TH1F("h_V_DeltaRes_PXD_Lyr1",
                                   "Layer 1: histrogram of residual difference #Delta res_{v} for overlapping PXD hits", 100, -1000, 1000);
  h_V_DeltaRes_PXD_Lyr1->GetXaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_V_DeltaRes_PXD_Lyr1->GetYaxis()->SetTitle("counts");
  h_V_DeltaRes_PXD_Lyr2 = new TH1F("h_V_DeltaRes_PXD_Lyr2",
                                   "Layer 2: histrogram of residual difference #Delta res_{v} for overlapping PXD hits", 100, -1000, 1000);
  h_V_DeltaRes_PXD_Lyr2->GetXaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_V_DeltaRes_PXD_Lyr2->GetYaxis()->SetTitle("counts");
  h_U_DeltaRes_SVD = new TH1F("h_U_DeltaRes_SVD", "Histrogram of residual difference #Delta res_{u} for overlapping SVD hits", 100,
                              -1000, 1000);
  h_U_DeltaRes_SVD->GetXaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_U_DeltaRes_SVD->GetYaxis()->SetTitle("counts");
  h_U_DeltaRes_SVD_Lyr3 = new TH1F("h_U_DeltaRes_SVD_Lyr3",
                                   "Layer 3: histrogram of residual difference #Delta res_{u} for overlapping SVD hits", 100, -1000, 1000);
  h_U_DeltaRes_SVD_Lyr3->GetXaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_U_DeltaRes_SVD_Lyr3->GetYaxis()->SetTitle("counts");
  h_U_DeltaRes_SVD_Lyr4 = new TH1F("h_U_DeltaRes_SVD_Lyr4",
                                   "Layer 4: histrogram of residual difference #Delta res_{u} for overlapping SVD hits", 100, -1000, 1000);
  h_U_DeltaRes_SVD_Lyr4->GetXaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_U_DeltaRes_SVD_Lyr4->GetYaxis()->SetTitle("counts");
  h_U_DeltaRes_SVD_Lyr5 = new TH1F("h_U_DeltaRes_SVD_Lyr5",
                                   "Layer 5: histrogram of residual difference #Delta res_{u} for overlapping SVD hits", 100, -1000, 1000);
  h_U_DeltaRes_SVD_Lyr5->GetXaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_U_DeltaRes_SVD_Lyr5->GetYaxis()->SetTitle("counts");
  h_U_DeltaRes_SVD_Lyr6 = new TH1F("h_U_DeltaRes_SVD_Lyr6",
                                   "Layer 6: histrogram of residual difference #Delta res_{u} for overlapping SVD hits", 100, -1000, 1000);
  h_U_DeltaRes_SVD_Lyr6->GetXaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_U_DeltaRes_SVD_Lyr6->GetYaxis()->SetTitle("counts");
  h_V_DeltaRes_SVD = new TH1F("h_V_DeltaRes_SVD", "Histrogram of residual difference #Delta res_{v} for overlapping SVD hits", 100,
                              -1000, 1000);
  h_V_DeltaRes_SVD->GetXaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_V_DeltaRes_SVD->GetYaxis()->SetTitle("counts");
  h_V_DeltaRes_SVD_Lyr3 = new TH1F("h_V_DeltaRes_SVD_Lyr3",
                                   "Layer 3: histrogram of residual difference #Delta res_{v} for overlapping SVD hits", 100, -1000, 1000);
  h_V_DeltaRes_SVD_Lyr3->GetXaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_V_DeltaRes_SVD_Lyr3->GetYaxis()->SetTitle("counts");
  h_V_DeltaRes_SVD_Lyr4 = new TH1F("h_V_DeltaRes_SVD_Lyr4",
                                   "Layer 4: histrogram of residual difference #Delta res_{v} for overlapping SVD hits", 100, -1000, 1000);
  h_V_DeltaRes_SVD_Lyr4->GetXaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_V_DeltaRes_SVD_Lyr4->GetYaxis()->SetTitle("counts");
  h_V_DeltaRes_SVD_Lyr5 = new TH1F("h_V_DeltaRes_SVD_Lyr5",
                                   "Layer 5: histrogram of residual difference #Delta res_{v} for overlapping SVD hits", 100, -1000, 1000);
  h_V_DeltaRes_SVD_Lyr5->GetXaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_V_DeltaRes_SVD_Lyr5->GetYaxis()->SetTitle("counts");
  h_V_DeltaRes_SVD_Lyr6 = new TH1F("h_V_DeltaRes_SVD_Lyr6",
                                   "Layer 6: histrogram of residual difference #Delta res_{v} for overlapping SVD hits", 100, -1000, 1000);
  h_V_DeltaRes_SVD_Lyr6->GetXaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_V_DeltaRes_SVD_Lyr6->GetYaxis()->SetTitle("counts");
  h_SVDstrips_Mult = new TH1F("h_SVDstrips_Mult", "SVD strips multiplicity for SVD clusters in overlapping sensors", 15, 0.5, 15.5);
  h_SVDstrips_Mult->GetXaxis()->SetTitle("N. of SVD strips contributing to the cluster");
  h_SVDstrips_Mult->GetYaxis()->SetTitle("counts");
  //Define 2D histograms: difference of u-residuals vs phi of VXD overlaps for each layer (1 to 6)
  h_DeltaResUPhi_Lyr1 = new TH2F("h_DeltaResUPhi_Lyr1", "Layer 1: #Delta res_{u} vs #phi", 200, -3.4, 3.4, 100, -200, 200);
  h_DeltaResUPhi_Lyr1->GetXaxis()->SetTitle("#phi(rad)");
  h_DeltaResUPhi_Lyr1->GetYaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_DeltaResUPhi_Lyr2 = new TH2F("h_DeltaResUPhi_Lyr2", "Layer 2: #Delta res_{u} vs #phi", 200, -3.4, 3.4, 100, -200, 200);
  h_DeltaResUPhi_Lyr2->GetXaxis()->SetTitle("#phi(rad)");
  h_DeltaResUPhi_Lyr2->GetYaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_DeltaResUPhi_Lyr3 = new TH2F("h_DeltaResUPhi_Lyr3", "Layer 3: #Delta res_{u} vs #phi", 200, -3.4, 3.4, 100, -1000, 1000);
  h_DeltaResUPhi_Lyr3->GetXaxis()->SetTitle("#phi(rad)");
  h_DeltaResUPhi_Lyr3->GetYaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_DeltaResUPhi_Lyr4 = new TH2F("h_DeltaResUPhi_Lyr4", "Layer 4: #Delta res_{u} vs #phi", 200, -3.4, 3.4, 100, -1000, 1000);
  h_DeltaResUPhi_Lyr4->GetXaxis()->SetTitle("#phi(rad)");
  h_DeltaResUPhi_Lyr4->GetYaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_DeltaResUPhi_Lyr5 = new TH2F("h_DeltaResUPhi_Lyr5", "Layer 5: #Delta res_{u} vs #phi", 200, -3.4, 3.4, 100, -1000, 1000);
  h_DeltaResUPhi_Lyr5->GetXaxis()->SetTitle("#phi(rad)");
  h_DeltaResUPhi_Lyr5->GetYaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_DeltaResUPhi_Lyr6 = new TH2F("h_DeltaResUPhi_Lyr6", "Layer 6: #Delta res_{u} vs #phi", 200, -3.4, 3.4, 100, -1000, 1000);
  h_DeltaResUPhi_Lyr6->GetXaxis()->SetTitle("#phi(rad)");
  h_DeltaResUPhi_Lyr6->GetYaxis()->SetTitle("#Delta res_{u} (#mum)");
  //Define 2D histograms: difference of u-residuals vs z of VXD overlaps for each layer (1 to 6)
  h_DeltaResUz_Lyr1 = new TH2F("h_DeltaResUz_Lyr1", "Layer 1: #Delta res_{u} vs z", 100, -4, 8, 100, -200, 200);
  h_DeltaResUz_Lyr1->GetXaxis()->SetTitle("z (cm)");
  h_DeltaResUz_Lyr1->GetYaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_DeltaResUz_Lyr2 = new TH2F("h_DeltaResUz_Lyr2", "Layer 2: #Delta res_{u} vs z", 100, -10, 15, 100, -200, 200);
  h_DeltaResUz_Lyr2->GetXaxis()->SetTitle("z (cm)");
  h_DeltaResUz_Lyr2->GetYaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_DeltaResUz_Lyr3 = new TH2F("h_DeltaResUz_Lyr3", "Layer 3: #Delta res_{u} vs z", 250, -15, 20, 100, -1000, 1000);
  h_DeltaResUz_Lyr3->GetXaxis()->SetTitle("z (cm)");
  h_DeltaResUz_Lyr3->GetYaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_DeltaResUz_Lyr4 = new TH2F("h_DeltaResUz_Lyr4", "Layer 4: #Delta res_{u} vs z", 250, -20, 25, 100, -1000, 1000);
  h_DeltaResUz_Lyr4->GetXaxis()->SetTitle("z (cm)");
  h_DeltaResUz_Lyr4->GetYaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_DeltaResUz_Lyr5 = new TH2F("h_DeltaResUz_Lyr5", "Layer 5: #Delta res_{u} vs z", 250, -25, 35, 100, -1000, 1000);
  h_DeltaResUz_Lyr5->GetXaxis()->SetTitle("z (cm)");
  h_DeltaResUz_Lyr5->GetYaxis()->SetTitle("#Delta res_{u} (#mum)");
  h_DeltaResUz_Lyr6 = new TH2F("h_DeltaResUz_Lyr6", "Layer 6: #Delta res_{u} vs z", 250, -30, 45, 100, -1000, 1000);
  h_DeltaResUz_Lyr6->GetXaxis()->SetTitle("z (cm)");
  h_DeltaResUz_Lyr6->GetYaxis()->SetTitle("#Delta res_{u} (#mum)");
  //Define 2D histograms: difference of u-residuals vs phi of VXD overlaps for each layer (1 to 6)
  h_DeltaResVPhi_Lyr1 = new TH2F("h_DeltaResVPhi_Lyr1", "Layer 1: #Delta res_{v} vs #phi", 200, -3.4, 3.4, 100, -200, 200);
  h_DeltaResVPhi_Lyr1->GetXaxis()->SetTitle("#phi(rad)");
  h_DeltaResVPhi_Lyr1->GetYaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_DeltaResVPhi_Lyr2 = new TH2F("h_DeltaResVPhi_Lyr2", "Layer 2: #Delta res_{v} vs #phi", 200, -3.4, 3.4, 100, -200, 200);
  h_DeltaResVPhi_Lyr2->GetXaxis()->SetTitle("#phi(rad)");
  h_DeltaResVPhi_Lyr2->GetYaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_DeltaResVPhi_Lyr3 = new TH2F("h_DeltaResVPhi_Lyr3", "Layer 3: #Delta res_{v} vs #phi", 200, -3.4, 3.4, 100, -1000, 1000);
  h_DeltaResVPhi_Lyr3->GetXaxis()->SetTitle("#phi(rad)");
  h_DeltaResVPhi_Lyr3->GetYaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_DeltaResVPhi_Lyr4 = new TH2F("h_DeltaResVPhi_Lyr4", "Layer 4: #Delta res_{v} vs #phi", 200, -3.4, 3.4, 100, -1000, 1000);
  h_DeltaResVPhi_Lyr4->GetXaxis()->SetTitle("#phi(rad)");
  h_DeltaResVPhi_Lyr4->GetYaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_DeltaResVPhi_Lyr5 = new TH2F("h_DeltaResVPhi_Lyr5", "Layer 5: #Delta res_{v} vs #phi", 200, -3.4, 3.4, 100, -1000, 1000);
  h_DeltaResVPhi_Lyr5->GetXaxis()->SetTitle("#phi(rad)");
  h_DeltaResVPhi_Lyr5->GetYaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_DeltaResVPhi_Lyr6 = new TH2F("h_DeltaResVPhi_Lyr6", "Layer 6: #Delta res_{v} vs #phi", 200, -3.4, 3.4, 100, -1000, 1000);
  h_DeltaResVPhi_Lyr6->GetXaxis()->SetTitle("#phi(rad)");
  h_DeltaResVPhi_Lyr6->GetYaxis()->SetTitle("#Delta res_{v} (#mum)");
  //Define 2D histograms: difference of v-residuals vs z of VXD overlaps for each layer (1 to 6)
  h_DeltaResVz_Lyr1 = new TH2F("h_DeltaResVz_Lyr1", "Layer 1: #Delta res_{v} vs z", 100, -4, 8, 100, -200, 200);
  h_DeltaResVz_Lyr1->GetXaxis()->SetTitle("z (cm)");
  h_DeltaResVz_Lyr1->GetYaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_DeltaResVz_Lyr2 = new TH2F("h_DeltaResVz_Lyr2", "Layer 2: #Delta res_{v} vs z", 100, -10, 15, 100, -200, 200);
  h_DeltaResVz_Lyr2->GetXaxis()->SetTitle("z (cm)");
  h_DeltaResVz_Lyr2->GetYaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_DeltaResVz_Lyr3 = new TH2F("h_DeltaResVz_Lyr3", "Layer 3: #Delta res_{v} vs z", 250, -15, 20, 100, -1000, 1000);
  h_DeltaResVz_Lyr3->GetXaxis()->SetTitle("z (cm)");
  h_DeltaResVz_Lyr3->GetYaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_DeltaResVz_Lyr4 = new TH2F("h_DeltaResVz_Lyr4", "Layer 4: #Delta res_{v} vs z", 250, -20, 25, 100, -1000, 1000);
  h_DeltaResVz_Lyr4->GetXaxis()->SetTitle("z (cm)");
  h_DeltaResVz_Lyr4->GetYaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_DeltaResVz_Lyr5 = new TH2F("h_DeltaResVz_Lyr5", "Layer 5: #Delta res_{v} vs z", 250, -25, 35, 100, -1000, 1000);
  h_DeltaResVz_Lyr5->GetXaxis()->SetTitle("z (cm)");
  h_DeltaResVz_Lyr5->GetYaxis()->SetTitle("#Delta res_{v} (#mum)");
  h_DeltaResVz_Lyr6 = new TH2F("h_DeltaResVz_Lyr6", "Layer 6: #Delta res_{v} vs z", 250, -30, 45, 100, -1000, 1000);
  h_DeltaResVz_Lyr6->GetXaxis()->SetTitle("z (cm)");
  h_DeltaResVz_Lyr6->GetYaxis()->SetTitle("#Delta res_{v} (#mum)");
  //Restricting to SVD clusters sizes
  for (int i = 1; i < 5; i++) {
    //The name is the product of cluster sizes for 2 consecutive hits (maximum size considered is 2)
    TString h_name_U = "h_U_Cl1Cl2_" + std::to_string(i);
    TString h_name_V = "h_V_Cl1Cl2_" + std::to_string(i);
    TString title_U = "#Delta res_{u}: SVDClusterSize_1 x SVDClusterSize_2 = " + std::to_string(i);
    TString title_V = "#Delta res_{v}: SVDClusterSize_1 x SVDClusterSize_2 = " + std::to_string(i);
    h_U_Cl1Cl2_DeltaRes[i] = new TH1F(h_name_U, title_U, 100, -1000, 1000);
    h_U_Cl1Cl2_DeltaRes[i]->GetXaxis()->SetTitle("#Delta res_{u} (#mum)");
    h_U_Cl1Cl2_DeltaRes[i]->GetYaxis()->SetTitle("counts");
    h_V_Cl1Cl2_DeltaRes[i] = new TH1F(h_name_V, title_V, 100, -1000, 1000);
    h_V_Cl1Cl2_DeltaRes[i]->GetXaxis()->SetTitle("#Delta res_{v} (#mum)");
    h_V_Cl1Cl2_DeltaRes[i]->GetYaxis()->SetTitle("counts");
  }
 
  //Special case of ExpertLevel option enabled
  if (m_ExpertLevel) {
    //Create directory to store PXD and SVD hitmaps for overlapping hits
    TDirectory* HMDir = oldDir->mkdir("HitMaps_VXDOverlaps");
    HMDir->cd();
    //Define 2D sensor hit-maps for reconstructed hits
    for (int i = 1; i <= 5; i++) {
      for (int j = 1; j <= 16; j++) {
        TString h_name = "h_6" + std::to_string(j) + std::to_string(i);
        TString title = "Layer:Ladder:Sensor = 6:" + std::to_string(j) + ":" + std::to_string(i);
        h_Lyr6[j][i] = new TH2F(h_name, title, 100, -2.88, 2.88, 100, -6.14, 6.14);
        h_Lyr6[j][i]->GetXaxis()->SetTitle("u (cm)");
        h_Lyr6[j][i]->GetYaxis()->SetTitle("v (cm)");
      }
    }
    for (int i = 1; i <= 4; i++) {
      for (int j = 1; j <= 12; j++) {
        TString h_name = "h_5" + std::to_string(j) + std::to_string(i);
        TString title = "Layer:Ladder:Sensor = 5:" + std::to_string(j) + ":" + std::to_string(i);
        h_Lyr5[j][i] = new TH2F(h_name, title, 100, -2.88, 2.88, 100, -6.14, 6.14);
        h_Lyr5[j][i]->GetXaxis()->SetTitle("u (cm)");
        h_Lyr5[j][i]->GetYaxis()->SetTitle("v (cm)");
      }
    }
    for (int i = 1; i <= 3; i++) {
      for (int j = 1; j <= 10; j++) {
        TString h_name = "h_4" + std::to_string(j) + std::to_string(i);
        TString title = "Layer:Ladder:Sensor = 4:" + std::to_string(j) + ":" + std::to_string(i);
        h_Lyr4[j][i] = new TH2F(h_name, title, 100, -2.88, 2.88, 100, -6.14, 6.14);
        h_Lyr4[j][i]->GetXaxis()->SetTitle("u (cm)");
        h_Lyr4[j][i]->GetYaxis()->SetTitle("v (cm)");
      }
    }
    for (int i = 1; i <= 2; i++) {
      for (int j = 1; j <= 7; j++) {
        TString h_name = "h_3" + std::to_string(j) + std::to_string(i);
        TString title = "Layer:Ladder:Sensor = 3:" + std::to_string(j) + ":" + std::to_string(i);
        h_Lyr3[j][i] = new TH2F(h_name, title, 100, -1.92, 1.92, 100, -6.14, 6.14);
        h_Lyr3[j][i]->GetXaxis()->SetTitle("u (cm)");
        h_Lyr3[j][i]->GetYaxis()->SetTitle("v (cm)");
      }
    }
    for (int i = 1; i <= 2; i++) {
      for (int j = 1; j <= 12; j++) {
        TString h_name = "h_2" + std::to_string(j) + std::to_string(i);
        TString title = "Layer:Ladder:Sensor = 2:" + std::to_string(j) + ":" + std::to_string(i);
        h_Lyr2[j][i] = new TH2F(h_name, title, 100, -0.625, 0.625, 100, -3.072, 3.072);
        h_Lyr2[j][i]->GetXaxis()->SetTitle("u (cm)");
        h_Lyr2[j][i]->GetYaxis()->SetTitle("v (cm)");
      }
    }
    for (int i = 1; i <= 2; i++) {
      for (int j = 1; j <= 8; j++) {
        TString h_name = "h_1" + std::to_string(j) + std::to_string(i);
        TString title = "Layer:Ladder:Sensor = 1:" + std::to_string(j) + ":" + std::to_string(i);
        h_Lyr1[j][i] = new TH2F(h_name, title, 100, -0.625, 0.625, 100, -2.24, 2.24);
        h_Lyr1[j][i]->GetXaxis()->SetTitle("u (cm)");
        h_Lyr1[j][i]->GetYaxis()->SetTitle("v (cm)");
      }
    }
    //Create directory to store PXD and SVD trees
    TDirectory* TreeDir = oldDir->mkdir("Trees_VXDOverlaps");
    TreeDir->cd();
    //Tree for PXD
    t_PXD = new TTree("t_PXD", "Tree for PXD overlaps");
    t_PXD->Branch("deltaResU_PXD", &deltaResU_PXD, "deltaResU_PXD/F");
    t_PXD->Branch("intResU_PXD", &intResU_PXD, "intResU_PXD/F");
    t_PXD->Branch("intResV_PXD", &intResV_PXD, "intResV_PXD/F");
    t_PXD->Branch("intU_PXD", &intU_PXD, "intU_PXD/F");
    t_PXD->Branch("intV_PXD", &intV_PXD, "intV_PXD/F");
    t_PXD->Branch("intPhi_PXD", &intPhi_PXD, "intPhi_PXD/F");
    t_PXD->Branch("intZ_PXD", &intZ_PXD, "intZ_PXD/F");
    t_PXD->Branch("intLayer_PXD", &intLayer_PXD, "intLayer_PXD/i");
    t_PXD->Branch("intLadder_PXD", &intLadder_PXD, "intLadder_PXD/i");
    t_PXD->Branch("intSensor_PXD", &intSensor_PXD, "intSensor_PXD/i");
    t_PXD->Branch("extResU_PXD", &extResU_PXD, "extResU_PXD/F");
    t_PXD->Branch("extResV_PXD", &extResV_PXD, "extResV_PXD/F");
    t_PXD->Branch("extU_PXD", &extU_PXD, "extU_PXD/F");
    t_PXD->Branch("extV_PXD", &extV_PXD, "extV_PXD/F");
    t_PXD->Branch("extPhi_PXD", &extPhi_PXD, "extPhi_PXD/F");
    t_PXD->Branch("extZ_PXD", &extZ_PXD, "extZ_PXD/F");
    t_PXD->Branch("extLayer_PXD", &extLayer_PXD, "extLayer_PXD/i");
    t_PXD->Branch("extLadder_PXD", &extLadder_PXD, "extLadder_PXD/i");
    t_PXD->Branch("extSensor_PXD", &extSensor_PXD, "extSensor_PXD/i");
    //Tree for SVD u overlapping clusters
    t_SVD_U = new TTree("t_SVD_U", "Tree for SVD u-overlaps");
    t_SVD_U->Branch("svdDeltaRes", &svdDeltaRes_U, "svdDeltaRes/F");
    t_SVD_U->Branch("svdTrkPXDHits", &svdTrkPXDHits, "svdTrkPXDHits/i");
    t_SVD_U->Branch("svdTrkSVDHits", &svdTrkSVDHits, "svdTrkSVDHits/i");
    t_SVD_U->Branch("svdTrkCDCHits", &svdTrkCDCHits, "svdTrkCDCHits/i");
    t_SVD_U->Branch("svdTrkd0", &svdTrkd0, "svdTrkd0/F");
    t_SVD_U->Branch("svdTrkz0", &svdTrkz0, "svdTrkz0/F");
    t_SVD_U->Branch("svdTrkpT", &svdTrkpT, "svdTrkpT/F");
    t_SVD_U->Branch("svdTrkpCM", &svdTrkpCM, "svdTrkpCM/F");
    // Internal ladder variables
    t_SVD_U->Branch("svdClSNR_int", &svdClSNR_U_int, "svdClSNR_int/F");
    t_SVD_U->Branch("svdClCharge_int", &svdClCharge_U_int, "svdClCharge_int/F");
    t_SVD_U->Branch("svdStripCharge_int", &svdStripCharge_U_int);
    t_SVD_U->Branch("svdStrip6Samples_int", &svdStrip6Samples_U_int);
    t_SVD_U->Branch("svdClTime_int", &svdClTime_U_int, "svdClTime_int/F");
    t_SVD_U->Branch("svdStripTime_int", &svdStripTime_U_int);
    t_SVD_U->Branch("svdStripPosition_int", &svdStripPosition_U_int);
    t_SVD_U->Branch("svdRes_int", &svdRes_U_int, "svdRes_int/F");
    t_SVD_U->Branch("svdClIntStrPos_int", &svdClIntStrPos_U_int, "svdClIntStrPos_int/F");
    t_SVD_U->Branch("svdClPos_int", &svdClPos_U_int, "svdClPos_int/F");
    t_SVD_U->Branch("svdClPosErr_int", &svdClPosErr_U_int, "svdClPosErr_int/F");
    t_SVD_U->Branch("svdTruePos_int", &svdTruePos_U_int, "svdTruePos_int/F");
    t_SVD_U->Branch("svdClPhi_int", &svdClPhi_U_int, "svdClPhi_int/F");
    t_SVD_U->Branch("svdClZ_int", &svdClZ_U_int, "svdClZ_int/F");
    t_SVD_U->Branch("svdTrkTraversedLength_int", &svdTrkTraversedLength_U_int, "svdTrkTraversedLength_int/F");
    t_SVD_U->Branch("svdTrkPos_int", &svdTrkPos_U_int, "svdTrkPos_int/F");
    t_SVD_U->Branch("svdTrkPosOS_int", &svdTrkPosOS_U_int, "svdTrkPosOS_int/F");
    t_SVD_U->Branch("svdTrkPosErr_int", &svdTrkPosErr_U_int, "svdTrkPosErr_int/F");
    t_SVD_U->Branch("svdTrkPosErrOS_int", &svdTrkPosErrOS_U_int, "svdTrkPosErrOS_int/F");
    t_SVD_U->Branch("svdTrkQoP_int", &svdTrkQoP_U_int, "svdTrkQoP_int/F");
    t_SVD_U->Branch("svdTrkPrime_int", &svdTrkPrime_U_int, "svdTrkPrime_int/F");
    t_SVD_U->Branch("svdTrkPrimeOS_int", &svdTrkPrimeOS_U_int, "svdTrkPrimeOS_int/F");
    t_SVD_U->Branch("svdTrkPosUnbiased_int", &svdTrkPosUnbiased_U_int, "svdTrkPosUnbiased_int/F");
    t_SVD_U->Branch("svdTrkPosErrUnbiased_int", &svdTrkPosErrUnbiased_U_int, "svdTrkPosErrUnbiased_int/F");
    t_SVD_U->Branch("svdTrkQoPUnbiased_int", &svdTrkQoPUnbiased_U_int, "svdTrkQoPUnbiased_int/F");
    t_SVD_U->Branch("svdTrkPrimeUnbiased_int", &svdTrkPrimeUnbiased_U_int, "svdTrkPrimeUnbiased_int/F");
    t_SVD_U->Branch("svdLayer_int", &svdLayer_U_int, "svdLayer_int/i");
    t_SVD_U->Branch("svdLadder_int", &svdLadder_U_int, "svdLadder_int/i");
    t_SVD_U->Branch("svdSensor_int", &svdSensor_U_int, "svdSensor_int/i");
    t_SVD_U->Branch("svdSize_int", &svdSize_U_int, "svdSize_int/i");
    // External ladder variables
    t_SVD_U->Branch("svdClSNR_ext", &svdClSNR_U_ext, "svdClSNR_ext/F");
    t_SVD_U->Branch("svdClCharge_ext", &svdClCharge_U_ext, "svdClCharge_ext/F");
    t_SVD_U->Branch("svdStripCharge_ext", &svdStripCharge_U_ext);
    t_SVD_U->Branch("svdStrip6Samples_ext", &svdStrip6Samples_U_ext);
    t_SVD_U->Branch("svdClTime_ext", &svdClTime_U_ext, "svdClTime_ext/F");
    t_SVD_U->Branch("svdStripTime_ext", &svdStripTime_U_ext);
    t_SVD_U->Branch("svdStripPosition_ext", &svdStripPosition_U_ext);
    t_SVD_U->Branch("svdRes_ext", &svdRes_U_ext, "svdRes_ext/F");
    t_SVD_U->Branch("svdClIntStrPos_ext", &svdClIntStrPos_U_ext, "svdClIntStrPos_ext/F");
    t_SVD_U->Branch("svdClPos_ext", &svdClPos_U_ext, "svdClPos_ext/F");
    t_SVD_U->Branch("svdClPosErr_ext", &svdClPosErr_U_ext, "svdClPosErr_ext/F");
    t_SVD_U->Branch("svdTruePos_ext", &svdTruePos_U_ext, "svdTruePos_ext/F");
    t_SVD_U->Branch("svdClPhi_ext", &svdClPhi_U_ext, "svdClPhi_ext/F");
    t_SVD_U->Branch("svdClZ_ext", &svdClZ_U_ext, "svdClZ_ext/F");
    t_SVD_U->Branch("svdTrkTraversedLength_ext", &svdTrkTraversedLength_U_ext, "svdTrkTraversedLength_ext/F");
    t_SVD_U->Branch("svdTrkPos_ext", &svdTrkPos_U_ext, "svdTrkPos_ext/F");
    t_SVD_U->Branch("svdTrkPosOS_ext", &svdTrkPosOS_U_ext, "svdTrkPosOS_ext/F");
    t_SVD_U->Branch("svdTrkPosErr_ext", &svdTrkPosErr_U_ext, "svdTrkPosErr_ext/F");
    t_SVD_U->Branch("svdTrkPosErrOS_ext", &svdTrkPosErrOS_U_ext, "svdTrkPosErrOS_ext/F");
    t_SVD_U->Branch("svdTrkQoP_ext", &svdTrkQoP_U_ext, "svdTrkQoP_ext/F");
    t_SVD_U->Branch("svdTrkPrime_ext", &svdTrkPrime_U_ext, "svdTrkPrime_ext/F");
    t_SVD_U->Branch("svdTrkPrimeOS_ext", &svdTrkPrimeOS_U_ext, "svdTrkPrimeOS_ext/F");
    t_SVD_U->Branch("svdTrkPosUnbiased_ext", &svdTrkPosUnbiased_U_ext, "svdTrkPosUnbiased_ext/F");
    t_SVD_U->Branch("svdTrkPosErrUnbiased_ext", &svdTrkPosErrUnbiased_U_ext, "svdTrkPosErrUnbiased_ext/F");
    t_SVD_U->Branch("svdTrkQoPUnbiased_ext", &svdTrkQoPUnbiased_U_ext, "svdTrkQoPUnbiased_ext/F");
    t_SVD_U->Branch("svdTrkPrimeUnbiased_ext", &svdTrkPrimeUnbiased_U_ext, "svdTrkPrimeUnbiased_ext/F");
    t_SVD_U->Branch("svdLayer_ext", &svdLayer_U_ext, "svdLayer_ext/i");
    t_SVD_U->Branch("svdLadder_ext", &svdLadder_U_ext, "svdLadder_ext/i");
    t_SVD_U->Branch("svdSensor_ext", &svdSensor_U_ext, "svdSensor_ext/i");
    t_SVD_U->Branch("svdSize_ext", &svdSize_U_ext, "svdSize_ext/i");
    //Tree for SVD v overlapping clusters
    t_SVD_V = new TTree("t_SVD_V", "Tree for SVD v-overlaps");
    t_SVD_V->Branch("svdDeltaRes", &svdDeltaRes_V, "svdDeltaRes/F");
    t_SVD_V->Branch("svdTrkPXDHits", &svdTrkPXDHits, "svdTrkPXDHits/i");
    t_SVD_V->Branch("svdTrkSVDHits", &svdTrkSVDHits, "svdTrkSVDHits/i");
    t_SVD_V->Branch("svdTrkCDCHits", &svdTrkCDCHits, "svdTrkCDCHits/i");
    t_SVD_V->Branch("svdTrkd0", &svdTrkd0, "svdTrkd0/F");
    t_SVD_V->Branch("svdTrkz0", &svdTrkz0, "svdTrkz0/F");
    t_SVD_V->Branch("svdTrkpT", &svdTrkpT, "svdTrkpT/F");
    t_SVD_V->Branch("svdTrkpCM", &svdTrkpCM, "svdTrkpCM/F");
    // Internal ladder variables
    t_SVD_V->Branch("svdClSNR_int", &svdClSNR_V_int, "svdClSNR_int/F");
    t_SVD_V->Branch("svdClCharge_int", &svdClCharge_V_int, "svdClCharge_int/F");
    t_SVD_V->Branch("svdStripCharge_int", &svdStripCharge_V_int);
    t_SVD_V->Branch("svdStrip6Samples_int", &svdStrip6Samples_V_int);
    t_SVD_V->Branch("svdClTime_int", &svdClTime_V_int, "svdClTime_int/F");
    t_SVD_V->Branch("svdStripTime_int", &svdStripTime_V_int);
    t_SVD_V->Branch("svdStripPosition_int", &svdStripPosition_V_int);
    t_SVD_V->Branch("svdRes_int", &svdRes_V_int, "svdRes_int/F");
    t_SVD_V->Branch("svdClIntStrPos_int", &svdClIntStrPos_V_int, "svdClIntStrPos_int/F");
    t_SVD_V->Branch("svdClPos_int", &svdClPos_V_int, "svdClPos_int/F");
    t_SVD_V->Branch("svdClPosErr_int", &svdClPosErr_V_int, "svdClPosErr_int/F");
    t_SVD_V->Branch("svdTruePos_int", &svdTruePos_V_int, "svdTruePos_int/F");
    t_SVD_V->Branch("svdClPhi_int", &svdClPhi_V_int, "svdClPhi_int/F");
    t_SVD_V->Branch("svdClZ_int", &svdClZ_V_int, "svdClZ_int/F");
    t_SVD_V->Branch("svdTrkTraversedLength_int", &svdTrkTraversedLength_V_int, "svdTrkTraversedLength_int/F");
    t_SVD_V->Branch("svdTrkPos_int", &svdTrkPos_V_int, "svdTrkPos_int/F");
    t_SVD_V->Branch("svdTrkPosOS_int", &svdTrkPosOS_V_int, "svdTrkPosOS_int/F");
    t_SVD_V->Branch("svdTrkPosErr_int", &svdTrkPosErr_V_int, "svdTrkPosErr_int/F");
    t_SVD_V->Branch("svdTrkPosErrOS_int", &svdTrkPosErrOS_V_int, "svdTrkPosErrOS_int/F");
    t_SVD_V->Branch("svdTrkQoP_int", &svdTrkQoP_V_int, "svdTrkQoP_int/F");
    t_SVD_V->Branch("svdTrkPrime_int", &svdTrkPrime_V_int, "svdTrkPrime_int/F");
    t_SVD_V->Branch("svdTrkPrimeOS_int", &svdTrkPrimeOS_V_int, "svdTrkPrimeOS_int/F");
    t_SVD_V->Branch("svdTrkPosUnbiased_int", &svdTrkPosUnbiased_V_int, "svdTrkPosUnbiased_int/F");
    t_SVD_V->Branch("svdTrkPosErrUnbiased_int", &svdTrkPosErrUnbiased_V_int, "svdTrkPosErrUnbiased_int/F");
    t_SVD_V->Branch("svdTrkQoPUnbiased_int", &svdTrkQoPUnbiased_V_int, "svdTrkQoPUnbiased_int/F");
    t_SVD_V->Branch("svdTrkPrimeUnbiased_int", &svdTrkPrimeUnbiased_V_int, "svdTrkPrimeUnbiased_int/F");
    t_SVD_V->Branch("svdLayer_int", &svdLayer_V_int, "svdLayer_int/i");
    t_SVD_V->Branch("svdLadder_int", &svdLadder_V_int, "svdLadder_int/i");
    t_SVD_V->Branch("svdSensor_int", &svdSensor_V_int, "svdSensor_int/i");
    t_SVD_V->Branch("svdSize_int", &svdSize_V_int, "svdSize_int/i");
    // External ladder variables
    t_SVD_V->Branch("svdClSNR_ext", &svdClSNR_V_ext, "svdClSNR_ext/F");
    t_SVD_V->Branch("svdClCharge_ext", &svdClCharge_V_ext, "svdClCharge_ext/F");
    t_SVD_V->Branch("svdStripCharge_ext", &svdStripCharge_V_ext);
    t_SVD_V->Branch("svdStrip6Samples_ext", &svdStrip6Samples_V_ext);
    t_SVD_V->Branch("svdClTime_ext", &svdClTime_V_ext, "svdClTime_ext/F");
    t_SVD_V->Branch("svdStripTime_ext", &svdStripTime_V_ext);
    t_SVD_V->Branch("svdStripPosition_ext", &svdStripPosition_V_ext);
    t_SVD_V->Branch("svdRes_ext", &svdRes_V_ext, "svdRes_ext/F");
    t_SVD_V->Branch("svdClIntStrPos_ext", &svdClIntStrPos_V_ext, "svdClIntStrPos_ext/F");
    t_SVD_V->Branch("svdClPos_ext", &svdClPos_V_ext, "svdClPos_ext/F");
    t_SVD_V->Branch("svdClPosErr_ext", &svdClPosErr_V_ext, "svdClPosErr_ext/F");
    t_SVD_V->Branch("svdTruePos_ext", &svdTruePos_V_ext, "svdTruePos_ext/F");
    t_SVD_V->Branch("svdClPhi_ext", &svdClPhi_V_ext, "svdClPhi_ext/F");
    t_SVD_V->Branch("svdClZ_ext", &svdClZ_V_ext, "svdClZ_ext/F");
    t_SVD_V->Branch("svdTrkTraversedLength_ext", &svdTrkTraversedLength_V_ext, "svdTrkTraversedLength_ext/F");
    t_SVD_V->Branch("svdTrkPos_ext", &svdTrkPos_V_ext, "svdTrkPos_ext/F");
    t_SVD_V->Branch("svdTrkPosOS_ext", &svdTrkPosOS_V_ext, "svdTrkPosOS_ext/F");
    t_SVD_V->Branch("svdTrkPosErr_ext", &svdTrkPosErr_V_ext, "svdTrkPosErr_ext/F");
    t_SVD_V->Branch("svdTrkPosErrOS_ext", &svdTrkPosErrOS_V_ext, "svdTrkPosErrOS_ext/F");
    t_SVD_V->Branch("svdTrkQoP_ext", &svdTrkQoP_V_ext, "svdTrkQoP_ext/F");
    t_SVD_V->Branch("svdTrkPrime_ext", &svdTrkPrime_V_ext, "svdTrkPrime_ext/F");
    t_SVD_V->Branch("svdTrkPrimeOS_ext", &svdTrkPrimeOS_V_ext, "svdTrkPrimeOS_ext/F");
    t_SVD_V->Branch("svdTrkPosUnbiased_ext", &svdTrkPosUnbiased_V_ext, "svdTrkPosUnbiased_ext/F");
    t_SVD_V->Branch("svdTrkPosErrUnbiased_ext", &svdTrkPosErrUnbiased_V_ext, "svdTrkPosErrUnbiased_ext/F");
    t_SVD_V->Branch("svdTrkQoPUnbiased_ext", &svdTrkQoPUnbiased_V_ext, "svdTrkQoPUnbiased_ext/F");
    t_SVD_V->Branch("svdTrkPrimeUnbiased_ext", &svdTrkPrimeUnbiased_V_ext, "svdTrkPrimeUnbiased_ext/F");
    t_SVD_V->Branch("svdLayer_ext", &svdLayer_V_ext, "svdLayer_ext/i");
    t_SVD_V->Branch("svdLadder_ext", &svdLadder_V_ext, "svdLadder_ext/i");
    t_SVD_V->Branch("svdSensor_ext", &svdSensor_V_ext, "svdSensor_ext/i");
    t_SVD_V->Branch("svdSize_ext", &svdSize_V_ext, "svdSize_ext/i");
  }
  //Go back to the default output directory
  oldDir->cd();
}

endRun()

virtual void endRun ( void  )

inlineoverridevirtualinherited

Function to process end_run record.

Reimplemented from Module.

Reimplemented in CalibrationCollectorModule, AlignDQMModule, ARICHDQMModule, B2BIIMCParticlesMonitorModule, AnalysisPhase1StudyModule, BeamabortStudyModule, BgoStudyModule, ClawStudyModule, ClawsStudyModule, CsiStudy_v2Module, CsIStudyModule, DosiStudyModule, FANGSStudyModule, He3tubeStudyModule, MicrotpcStudyModule, TPCStudyModule, PindiodeStudyModule, QcsmonitorStudyModule, CDCCRTestModule, cdcDQM7Module, CDCDQMModule, MonitorDataModule, TrackAnaModule, PhysicsObjectsDQMModule, PhysicsObjectsMiraBelleBhabhaModule, PhysicsObjectsMiraBelleDst2Module, PhysicsObjectsMiraBelleDstModule, PhysicsObjectsMiraBelleHadronModule, PhysicsObjectsMiraBelleModule, ECLBackgroundModule, ECLDQMModule, ECLDQMEXTENDEDModule, KLMDQMModule, KLMDQM2Module, CDCDedxDQMModule, CDCDedxValidationModule, TOPGainEfficiencyCalculatorModule, TOPLaserHitSelectorModule, TOPInterimFENtupleModule, TOPTBCComparatorModule, TOPWaveformQualityPlotterModule, SVDROIDQMModule, CDCTriggerNeuroDQMModule, CDCTriggerNeuroDQMOnlineModule, TRGCDCT2DDQMModule, TRGCDCT3DDQMModule, TRGCDCTSFDQMModule, TRGECLDQMModule, TRGGDLModule, TRGEFFDQMModule, TRGGDLDQMModule, TRGGRLDQMModule, TRGTOPDQMModule, TRGRAWDATAModule, SVDUnpackerDQMModule, and vxdDigitMaskingModule.

Definition at line 44 of file HistoModule.h.

{};

evalCondition()

bool evalCondition ( ) const

inherited

If at least one condition was set, it is evaluated and true returned if at least one condition returns true.

If no condition or result value was defined, the method returns false. Otherwise, the condition is evaluated and true returned, if at least one condition returns true. To speed up the evaluation, the condition strings were already parsed in the method if_value().

Returns

True if at least one condition and return value exists and at least one condition expression was evaluated to true.

Definition at line 96 of file Module.cc.

{
  if (m_conditions.empty()) return false;
 
  //okay, a condition was set for this Module...
  if (!m_hasReturnValue) {
    B2FATAL("A condition was set for '" << getName() << "', but the module did not set a return value!");
  }
 
  for (const auto& condition : m_conditions) {
    if (condition.evaluate(m_returnValue)) {
      return true;
    }
  }
  return false;
}

event()

void event ( void  )

overridevirtual

Compute the difference of coordinate residuals between two hits in overlapping sensors of a same VXD layer.

Reimplemented from HistoModule.

Definition at line 468 of file OverlapResidualsModule.cc.

{
  bool isMC = Environment::Instance().isMC();
 
  static VXD::GeoCache& geo = VXD::GeoCache::getInstance();
  StoreArray<RecoTrack> recoTracks(m_recoTracksStoreArrayName);
  for (const auto& trk : recoTracks) {
    if (! trk.wasFitSuccessful()) {
      continue;
    }
    const std::vector<PXDCluster* > pxdClusters = trk.getPXDHitList();
    const std::vector<SVDCluster* > svdClusters = trk.getSVDHitList();
    B2DEBUG(29, "FITTED TRACK:   NUMBER OF PXD HITS = " << pxdClusters.size() << "    NUMBER OF SVD HITS = " << svdClusters.size());
    //LOOKING FOR 2 CONSECUTIVE PXD HITS IN OVERLAPPING MODULES OF A SAME LAYER
    for (unsigned int i = 0; i < pxdClusters.size(); i++) {
      const PXDCluster* pxd_1 = pxdClusters[i];
      const RecoHitInformation* infoPXD_1 = trk.getRecoHitInformation(pxd_1);
      if (!infoPXD_1) {
        continue;
      }
      const auto* hitTrackPoint_1 = trk.getCreatedTrackPoint(infoPXD_1);
      const auto* fittedResult_1 = hitTrackPoint_1->getFitterInfo();
      if (!fittedResult_1) {
        continue;
      }
      const VxdID pxd_id_1 = pxd_1->getSensorID();
      const unsigned short pxd_Layer_1 = pxd_id_1.getLayerNumber();
      const unsigned short pxd_Ladder_1 = pxd_id_1.getLadderNumber();
      const unsigned short pxd_Sensor_1 = pxd_id_1.getSensorNumber();
      for (unsigned int l = i + 1; l < pxdClusters.size(); l++) {
        const PXDCluster* pxd_2 = pxdClusters[l];
        const RecoHitInformation* infoPXD_2 = trk.getRecoHitInformation(pxd_2);
        if (!infoPXD_2) {
          continue;
        }
        const auto* hitTrackPoint_2 = trk.getCreatedTrackPoint(infoPXD_2);
        const auto* fittedResult_2 = hitTrackPoint_2->getFitterInfo();
        if (!fittedResult_2) {
          continue;
        }
        const VxdID pxd_id_2 = pxd_2->getSensorID();
        const unsigned short pxd_Layer_2 = pxd_id_2.getLayerNumber();
        const unsigned short pxd_Ladder_2 = pxd_id_2.getLadderNumber();
        const unsigned short pxd_Sensor_2 = pxd_id_2.getSensorNumber();
        if (pxd_Layer_1 == pxd_Layer_2 && ((pxd_Ladder_2 - pxd_Ladder_1) == -1.0 || (pxd_Ladder_2 - pxd_Ladder_1) == 7.0
                                           || (pxd_Ladder_2 - pxd_Ladder_1) == 11.0)) {
          B2DEBUG(29, " ============= 2 hits in a PXD overlap ============= ");
          const TVectorD resUnBias_PXD_1 = fittedResult_1->getResidual(0, false).getState();
          const TVectorD resUnBias_PXD_2 = fittedResult_2->getResidual(0, false).getState();
          const float res_U_1 = resUnBias_PXD_1.GetMatrixArray()[0] * Unit::convertValueToUnit(1.0, "um");
          const float res_V_1 = resUnBias_PXD_1.GetMatrixArray()[1] * Unit::convertValueToUnit(1.0, "um");
          const double res_U_2 = resUnBias_PXD_2.GetMatrixArray()[0] * Unit::convertValueToUnit(1.0, "um");
          const double res_V_2 = resUnBias_PXD_2.GetMatrixArray()[1] * Unit::convertValueToUnit(1.0, "um");
          const float over_U_PXD = res_U_2 - res_U_1;
          const float over_V_PXD = res_V_2 - res_V_1;
          const ROOT::Math::XYZVector pxdLocal_1(pxd_1->getU(), pxd_1->getV(), 0.);
          const ROOT::Math::XYZVector pxdLocal_2(pxd_2->getU(), pxd_2->getV(), 0.);
          const VXD::SensorInfoBase& pxdSensor_1 = geo.getSensorInfo(pxd_id_1);
          const VXD::SensorInfoBase& pxdSensor_2 = geo.getSensorInfo(pxd_id_2);
          const ROOT::Math::XYZVector& pxdGlobal_1 = pxdSensor_1.pointToGlobal(pxdLocal_1);
          const ROOT::Math::XYZVector& pxdGlobal_2 = pxdSensor_2.pointToGlobal(pxdLocal_2);
          double pxdPhi_1 = atan2(pxdGlobal_1.Y(), pxdGlobal_1.X());  // maybe use pxdGlobal_1.Phi() instead
          double pxdPhi_2 = atan2(pxdGlobal_2.Y(), pxdGlobal_2.X());  // maybe use pxdGlobal_2.Phi() instead
          double pxdZ_1 = pxdGlobal_1.Z();
          double pxdZ_2 = pxdGlobal_2.Z();
          B2DEBUG(29, "PXD: difference of residuals " << over_U_PXD << "   " << over_V_PXD);
          //Fill PXD tree for overlaps if required by the user
          if (m_ExpertLevel) {
            deltaResU_PXD = over_U_PXD;
            intResU_PXD = res_U_1;
            intResV_PXD = res_V_1;
            intU_PXD = pxd_1->getU();
            intV_PXD = pxd_1->getV();
            intPhi_PXD = pxdPhi_1;
            intZ_PXD = pxdZ_1;
            intLayer_PXD = pxd_Layer_1;
            intLadder_PXD = pxd_Ladder_1;
            intSensor_PXD = pxd_Sensor_1;
            extResU_PXD = res_U_2;
            extResV_PXD = res_V_2;
            extU_PXD = pxd_2->getU();
            extV_PXD = pxd_2->getV();
            extPhi_PXD = pxdPhi_2;
            extZ_PXD = pxdZ_2;
            extLayer_PXD = pxd_Layer_2;
            extLadder_PXD = pxd_Ladder_2;
            extSensor_PXD = pxd_Sensor_2;
            t_PXD->Fill();
          }
          //Fill histograms of residuals differences with PXD clusters
          h_U_DeltaRes->Fill(over_U_PXD);
          h_V_DeltaRes->Fill(over_V_PXD);
          h_U_DeltaRes_PXD->Fill(over_U_PXD);
          h_V_DeltaRes_PXD->Fill(over_V_PXD);
          //Fill sensor hit-maps and 2D histograms with PXD clusters
          if (pxd_Layer_1 == 1 && pxd_Layer_2 == 1) {
            if (m_ExpertLevel) {
              h_Lyr1[pxd_Ladder_1][pxd_Sensor_1]->Fill(pxd_1->getU(), pxd_1->getV());
              h_Lyr1[pxd_Ladder_2][pxd_Sensor_2]->Fill(pxd_2->getU(), pxd_2->getV());
            }
            h_U_DeltaRes_PXD_Lyr1->Fill(over_U_PXD);
            h_V_DeltaRes_PXD_Lyr1->Fill(over_V_PXD);
            h_DeltaResUPhi_Lyr1->Fill(pxdPhi_1, over_U_PXD);
            h_DeltaResUPhi_Lyr1->Fill(pxdPhi_2, over_U_PXD);
            h_DeltaResVPhi_Lyr1->Fill(pxdPhi_1, over_V_PXD);
            h_DeltaResVPhi_Lyr1->Fill(pxdPhi_2, over_V_PXD);
            h_DeltaResVz_Lyr1->Fill(pxdZ_1, over_V_PXD);
            h_DeltaResVz_Lyr1->Fill(pxdZ_2, over_V_PXD);
            h_DeltaResUz_Lyr1->Fill(pxdZ_1, over_U_PXD);
            h_DeltaResUz_Lyr1->Fill(pxdZ_2, over_U_PXD);
          }
          if (pxd_Layer_1 == 2 && pxd_Layer_2 == 2) {
            if (m_ExpertLevel) {
              h_Lyr2[pxd_Ladder_1][pxd_Sensor_1]->Fill(pxd_1->getU(), pxd_1->getV());
              h_Lyr2[pxd_Ladder_2][pxd_Sensor_2]->Fill(pxd_2->getU(), pxd_2->getV());
            }
            h_U_DeltaRes_PXD_Lyr2->Fill(over_U_PXD);
            h_V_DeltaRes_PXD_Lyr2->Fill(over_V_PXD);
            h_DeltaResUPhi_Lyr2->Fill(pxdPhi_1, over_U_PXD);
            h_DeltaResUPhi_Lyr2->Fill(pxdPhi_2, over_U_PXD);
            h_DeltaResVPhi_Lyr2->Fill(pxdPhi_1, over_V_PXD);
            h_DeltaResVPhi_Lyr2->Fill(pxdPhi_2, over_V_PXD);
            h_DeltaResVz_Lyr2->Fill(pxdZ_1, over_V_PXD);
            h_DeltaResVz_Lyr2->Fill(pxdZ_2, over_V_PXD);
            h_DeltaResUz_Lyr2->Fill(pxdZ_1, over_U_PXD);
            h_DeltaResUz_Lyr2->Fill(pxdZ_2, over_U_PXD);
          }
        }
      }
 
    }
 
    //LOOKING FOR 2 CONSECUTIVE SVD HITS IN OVERLAPPING MODULES OF A SAME LAYER
    RelationVector<Track> theTK = DataStore::getRelationsWithObj<Track>(&trk);
 
    const TrackFitResult*  tfr = theTK[0]->getTrackFitResultWithClosestMass(Const::pion);
    if (tfr) {
      svdTrkd0 = tfr->getD0();
      svdTrkz0 = tfr->getZ0();
      svdTrkpT = tfr->getMomentum().Rho();
      ROOT::Math::PxPyPzEVector pStar = tfr->get4Momentum();
      ROOT::Math::BoostZ boost(3. / 11);
      pStar = boost(pStar);
      svdTrkpCM = pStar.P();
    }
 
    svdTrkPXDHits = (trk.getPXDHitList()).size();
    svdTrkSVDHits = (trk.getSVDHitList()).size();
    svdTrkCDCHits = (trk.getCDCHitList()).size();
 
    for (unsigned int i = 0; i < svdClusters.size(); i++) {
      const SVDCluster* svd_1 = svdClusters[i];
 
      //get true hits, used only if isMC
      RelationVector<SVDTrueHit> trueHit_1 = DataStore::getRelationsWithObj<SVDTrueHit>(svd_1);
 
      const RecoHitInformation* infoSVD_1 = trk.getRecoHitInformation(svd_1);
      if (!infoSVD_1) {
        continue;
      }
      const auto* hitTrackPoint_1 = trk.getCreatedTrackPoint(infoSVD_1);
      const auto* fittedResult_1 = hitTrackPoint_1->getFitterInfo();
      if (!fittedResult_1) {
        continue;
      }
      const VxdID svd_id_1 = svd_1->getSensorID();
      const unsigned short svd_Layer_1 = svd_id_1.getLayerNumber();
      const unsigned short svd_Ladder_1 = svd_id_1.getLadderNumber();
      const unsigned short svd_Sensor_1 = svd_id_1.getSensorNumber();
      for (unsigned int l = i + 1; l < svdClusters.size(); l++) {
        const SVDCluster* svd_2 = svdClusters[l];
 
        //get true hits, used only if isMC
        RelationVector<SVDTrueHit> trueHit_2 = DataStore::getRelationsWithObj<SVDTrueHit>(svd_2);
 
        const RecoHitInformation* infoSVD_2 = trk.getRecoHitInformation(svd_2);
        if (!infoSVD_2) {
          continue;
        }
        const auto* hitTrackPoint_2 = trk.getCreatedTrackPoint(infoSVD_2);
        const auto* fittedResult_2 = hitTrackPoint_2->getFitterInfo();
        if (!fittedResult_2) {
          continue;
        }
        const VxdID svd_id_2 = svd_2->getSensorID();
        const unsigned short svd_Layer_2 = svd_id_2.getLayerNumber();
        const unsigned short svd_Ladder_2 = svd_id_2.getLadderNumber();
        const unsigned short svd_Sensor_2 = svd_id_2.getSensorNumber();
        if (svd_Layer_1 == svd_Layer_2 && ((svd_Ladder_2 - svd_Ladder_1) == 1.0 || (svd_Ladder_2 - svd_Ladder_1) == -6.0
                                           || (svd_Ladder_2 - svd_Ladder_1) == -9.0 || (svd_Ladder_2 - svd_Ladder_1) == -11.0 || (svd_Ladder_2 - svd_Ladder_1) == -15.0)) {
          B2DEBUG(29, " ============= 2 hits in a SVD overlap ============= ");
          const TVectorD resUnBias_SVD_1 =  fittedResult_1->getResidual(0, false).getState();
          const TVectorD resUnBias_SVD_2 =  fittedResult_2->getResidual(0, false).getState();
          genfit::MeasuredStateOnPlane state_unbiased_1 = fittedResult_1->getFittedState(false);
          genfit::MeasuredStateOnPlane state_unbiased_2 = fittedResult_2->getFittedState(false);
          const TVectorD& svd_predIntersect_unbiased_1 = state_unbiased_1.getState();
          const TVectorD& svd_predIntersect_unbiased_2 = state_unbiased_2.getState();
          const TMatrixDSym& covMatrix_unbiased_1 = state_unbiased_1.getCov();
          const TMatrixDSym& covMatrix_unbiased_2 = state_unbiased_2.getCov();
          genfit::MeasuredStateOnPlane state_1 = trk.getMeasuredStateOnPlaneFromRecoHit(infoSVD_1);
          genfit::MeasuredStateOnPlane state_2 = trk.getMeasuredStateOnPlaneFromRecoHit(infoSVD_2);
          const TVectorD& svd_predIntersect_1 = state_1.getState();
          const TVectorD& svd_predIntersect_2 = state_2.getState();
          const TMatrixDSym& covMatrix_1 = state_1.getCov();
          const TMatrixDSym& covMatrix_2 = state_2.getCov();
          //Restricting to consecutive SVD u-clusters
          if (svd_1->isUCluster() == true && svd_2->isUCluster() == true) {
            const int strips_1 = svd_1->getSize();
            h_SVDstrips_Mult->Fill(strips_1);
            const int strips_2 = svd_2->getSize();
            h_SVDstrips_Mult->Fill(strips_2);
            const double res_U_1 = resUnBias_SVD_1.GetMatrixArray()[0] * Unit::convertValueToUnit(1.0, "um");
            const double res_U_2 = resUnBias_SVD_2.GetMatrixArray()[0] * Unit::convertValueToUnit(1.0, "um");
            const float over_U_SVD = res_U_2 - res_U_1;
            const ROOT::Math::XYZVector svdLocal_1(svd_1->getPosition(), svd_predIntersect_1[4], 0.);
            const ROOT::Math::XYZVector svdLocal_2(svd_2->getPosition(), svd_predIntersect_2[4], 0.);
            const VXD::SensorInfoBase& svdSensor_1 = geo.getSensorInfo(svd_id_1);
            const VXD::SensorInfoBase& svdSensor_2 = geo.getSensorInfo(svd_id_2);
            const ROOT::Math::XYZVector& svdGlobal_1 = svdSensor_1.pointToGlobal(svdLocal_1);
            const ROOT::Math::XYZVector& svdGlobal_2 = svdSensor_2.pointToGlobal(svdLocal_2);
            double svdPhi_1 = atan2(svdGlobal_1.Y(), svdGlobal_1.X());  // maybe use svdGlobal_1.Phi() instead
            double svdPhi_2 = atan2(svdGlobal_2.Y(), svdGlobal_2.X());  // maybe use svdGlobal_2.Phi() instead
            double svdZ_1 = svdGlobal_1.Z();
            double svdZ_2 = svdGlobal_2.Z();
            B2DEBUG(29, "SVD: difference of u-residuals =========> " << over_U_SVD);
            //Fill SVD tree for u-overlaps if required by the user
            if (m_ExpertLevel) {
              svdDeltaRes_U = over_U_SVD;
              svdRes_U_int = res_U_1;
              svdClTime_U_int = svd_1->getClsTime();
              svdClSNR_U_int = svd_1->getSNR();
              svdClCharge_U_int = svd_1->getCharge();
              svdClPosErr_U_int = svd_1->getPositionSigma();
              if (isMC && trueHit_1.size() > 0)
                svdTruePos_U_int = trueHit_1[0]->getU();
              else
                svdTruePos_U_int = -99;
              svdClPhi_U_int = svdPhi_1;
              svdClZ_U_int = svdZ_1;
              svdTrkPos_U_int = svd_predIntersect_1[3];
              svdTrkPosOS_U_int = svd_predIntersect_1[4];
              svdTrkPosErr_U_int = sqrt(covMatrix_1[3][3]);
              svdTrkPosErrOS_U_int = sqrt(covMatrix_1[4][4]);
              svdTrkQoP_U_int = svd_predIntersect_1[0];
              svdTrkPrime_U_int = svd_predIntersect_1[1];
              svdTrkPrimeOS_U_int = svd_predIntersect_1[2];
              svdTrkTraversedLength_U_int = svdSensor_1.getThickness() * sqrt(1 + svdTrkPrimeOS_U_int * svdTrkPrimeOS_U_int + svdTrkPrime_U_int *
                                            svdTrkPrime_U_int);
              svdTrkPosUnbiased_U_int = svd_predIntersect_unbiased_1[3];
              svdClPos_U_int = svdRes_U_int / 1e4 + svdTrkPosUnbiased_U_int;
              svdTrkPosErrUnbiased_U_int = sqrt(covMatrix_unbiased_1[3][3]);
              svdTrkQoPUnbiased_U_int = svd_predIntersect_unbiased_1[0];
              svdTrkPrimeUnbiased_U_int = svd_predIntersect_unbiased_1[1];
              svdLayer_U_int = svd_Layer_1;
              svdLadder_U_int = svd_Ladder_1;
              svdSensor_U_int = svd_Sensor_1;
              svdSize_U_int = strips_1;
 
              float pitch = 50e-4;
              float halfLength = 1.92;
              if (svdLayer_U_int > 3) {
                pitch = 75e-4;
                halfLength = 2.88;
              }
              svdClIntStrPos_U_int = fmod(svdClPos_U_int + halfLength, pitch) / pitch;
 
              svdStripCharge_U_int.clear();
              svdStrip6Samples_U_int.clear();
              svdStripTime_U_int.clear();
              svdStripPosition_U_int.clear();
              //retrieve relations and set strip charges and times
              RelationVector<SVDRecoDigit> theRecoDigits_1 = DataStore::getRelationsWithObj<SVDRecoDigit>(svd_1);
              if ((theRecoDigits_1.size() != svdSize_U_int) && (svdSize_U_int != 128)) //virtual cluster
                B2ERROR(" Inconsistency with cluster size! # recoDigits = " << theRecoDigits_1.size() << " != " << svdSize_U_int <<
                        " cluster size");
 
              //skip clusters created because of missing APV
              if (svdSize_U_int < 128)
                for (unsigned int d = 0; d < svdSize_U_int; d++) {
                  svdStripCharge_U_int.push_back(theRecoDigits_1[d]->getCharge());
                  SVDShaperDigit* ShaperDigit_1 = theRecoDigits_1[d]->getRelated<SVDShaperDigit>();
                  std::array<float, 6> Samples_1 = ShaperDigit_1->getSamples();
                  std::copy(std::begin(Samples_1), std::end(Samples_1), std::back_inserter(svdStrip6Samples_U_int));
                  svdStripTime_U_int.push_back(theRecoDigits_1[d]->getTime());
                  double misalignedStripPos = svdSensor_1.getUCellPosition(theRecoDigits_1[d]->getCellID());
                  //aligned strip pos = misaligned strip - ( misaligned cluster - aligned cluster)
                  svdStripPosition_U_int.push_back(misalignedStripPos - svd_1->getPosition() + svdClPos_U_int);
                }
 
              svdRes_U_ext = res_U_2;
              svdClTime_U_ext = svd_2->getClsTime();
              svdClSNR_U_ext = svd_2->getSNR();
              svdClCharge_U_ext = svd_2->getCharge();
              svdClPosErr_U_ext = svd_2->getPositionSigma();
              if (isMC && trueHit_2.size() > 0)
                svdTruePos_U_ext = trueHit_2[0]->getU();
              else
                svdTruePos_U_ext = -99;
              svdClPhi_U_ext = svdPhi_2;
              svdClZ_U_ext = svdZ_2;
              svdTrkPos_U_ext = svd_predIntersect_2[3];
              svdTrkPosOS_U_ext = svd_predIntersect_2[4];
              svdTrkPosErr_U_ext = sqrt(covMatrix_2[3][3]);
              svdTrkPosErrOS_U_ext = sqrt(covMatrix_2[4][4]);
              svdTrkQoP_U_ext = svd_predIntersect_2[0];
              svdTrkPrime_U_ext = svd_predIntersect_2[1];
              svdTrkPrimeOS_U_ext = svd_predIntersect_2[2];
              svdTrkTraversedLength_U_ext = svdSensor_2.getThickness() * sqrt(1 + svdTrkPrimeOS_U_ext * svdTrkPrimeOS_U_ext + svdTrkPrime_U_ext *
                                            svdTrkPrime_U_ext);
              svdTrkPosUnbiased_U_ext = svd_predIntersect_unbiased_2[3];
              svdClPos_U_ext = svdRes_U_ext / 1e4 + svdTrkPosUnbiased_U_ext;
              svdTrkPosErrUnbiased_U_ext = sqrt(covMatrix_unbiased_2[3][3]);
              svdTrkQoPUnbiased_U_ext = svd_predIntersect_unbiased_2[0];
              svdTrkPrimeUnbiased_U_ext = svd_predIntersect_unbiased_2[1];
              svdLayer_U_ext = svd_Layer_2;
              svdLadder_U_ext = svd_Ladder_2;
              svdSensor_U_ext = svd_Sensor_2;
              svdSize_U_ext = strips_2;
 
              svdClIntStrPos_U_ext = fmod(svdClPos_U_ext + halfLength, pitch) / pitch;
 
              svdStripCharge_U_ext.clear();
              svdStrip6Samples_U_ext.clear();
              svdStripTime_U_ext.clear();
              svdStripPosition_U_ext.clear();
              //retrieve relations and set strip charges and times
              RelationVector<SVDRecoDigit> theRecoDigits_2 = DataStore::getRelationsWithObj<SVDRecoDigit>(svd_2);
              if ((theRecoDigits_2.size() != svdSize_U_ext) && (svdSize_U_ext != 128)) //virtual cluster
                B2ERROR(" Inconsistency with cluster size! # recoDigits = " << theRecoDigits_2.size() << " != " << svdSize_U_ext <<
                        " cluster size");
              //skip clusters created because of missing APV
              if (svdSize_U_ext < 128)
                for (unsigned int d = 0; d < svdSize_U_ext; d++) {
                  svdStripCharge_U_ext.push_back(theRecoDigits_2[d]->getCharge());
                  SVDShaperDigit* ShaperDigit_2 = theRecoDigits_2[d]->getRelated<SVDShaperDigit>();
                  std::array<float, 6> Samples_2 = ShaperDigit_2->getSamples();
                  std::copy(std::begin(Samples_2), std::end(Samples_2), std::back_inserter(svdStrip6Samples_U_ext));
                  svdStripTime_U_ext.push_back(theRecoDigits_2[d]->getTime());
                  double misalignedStripPos = svdSensor_2.getUCellPosition(theRecoDigits_2[d]->getCellID());
                  //aligned strip pos = misaligned strip - ( misaligned cluster - aligned cluster)
                  svdStripPosition_U_ext.push_back(misalignedStripPos - svd_2->getPosition() + svdClPos_U_ext);
                }
              t_SVD_U->Fill();
            }
            //Fill histograms of residuals differences with SVD u clusters
            h_U_DeltaRes->Fill(over_U_SVD);
            h_U_DeltaRes_SVD->Fill(over_U_SVD);
            if (svd_1->getSize() < 3 && svd_2->getSize() < 3) { //Consider only clusters with 3 or less strips involved
              h_U_Cl1Cl2_DeltaRes[svd_1->getSize() * svd_2->getSize()]->Fill(over_U_SVD);
            }
            //Fill sensor hit-maps and 2D histograms with SVD u clusters
            if (svd_Layer_1 == 3 && svd_Layer_2 == 3) {
              if (m_ExpertLevel) {
                h_Lyr3[svd_Ladder_1][svd_Sensor_1]->Fill(svd_1->getPosition(), 0.);
                h_Lyr3[svd_Ladder_2][svd_Sensor_2]->Fill(svd_2->getPosition(), 0.);
              }
              h_U_DeltaRes_SVD_Lyr3->Fill(over_U_SVD);
              h_DeltaResUPhi_Lyr3->Fill(svdPhi_1, over_U_SVD);
              h_DeltaResUPhi_Lyr3->Fill(svdPhi_2, over_U_SVD);
              h_DeltaResUz_Lyr3->Fill(svdZ_1, over_U_SVD);
              h_DeltaResUz_Lyr3->Fill(svdZ_2, over_U_SVD);
            }
            if (svd_Layer_1 == 4 && svd_Layer_2 == 4) {
              if (m_ExpertLevel) {
                h_Lyr4[svd_Ladder_1][svd_Sensor_1]->Fill(svd_1->getPosition(), 0.);
                h_Lyr4[svd_Ladder_2][svd_Sensor_2]->Fill(svd_2->getPosition(), 0.);
              }
              h_U_DeltaRes_SVD_Lyr4->Fill(over_U_SVD);
              h_DeltaResUPhi_Lyr4->Fill(svdPhi_1, over_U_SVD);
              h_DeltaResUPhi_Lyr4->Fill(svdPhi_2, over_U_SVD);
              h_DeltaResUz_Lyr4->Fill(svdZ_1, over_U_SVD);
              h_DeltaResUz_Lyr4->Fill(svdZ_2, over_U_SVD);
            }
            if (svd_Layer_1 == 5 && svd_Layer_2 == 5) {
              if (m_ExpertLevel) {
                h_Lyr5[svd_Ladder_1][svd_Sensor_1]->Fill(svd_1->getPosition(), 0.);
                h_Lyr5[svd_Ladder_2][svd_Sensor_1]->Fill(svd_1->getPosition(), 0.);
              }
              h_U_DeltaRes_SVD_Lyr5->Fill(over_U_SVD);
              h_DeltaResUPhi_Lyr5->Fill(svdPhi_1, over_U_SVD);
              h_DeltaResUPhi_Lyr5->Fill(svdPhi_2, over_U_SVD);
              h_DeltaResUz_Lyr5->Fill(svdZ_1, over_U_SVD);
              h_DeltaResUz_Lyr5->Fill(svdZ_2, over_U_SVD);
            }
            if (svd_Layer_1 == 6 && svd_Layer_2 == 6) {
              if (m_ExpertLevel) {
                h_Lyr6[svd_Ladder_1][svd_Sensor_1]->Fill(svd_1->getPosition(), 0.);
                h_Lyr6[svd_Ladder_2][svd_Sensor_2]->Fill(svd_2->getPosition(), 0.);
              }
              h_U_DeltaRes_SVD_Lyr6->Fill(over_U_SVD);
              h_DeltaResUPhi_Lyr6->Fill(svdPhi_1, over_U_SVD);
              h_DeltaResUPhi_Lyr6->Fill(svdPhi_2, over_U_SVD);
              h_DeltaResUz_Lyr6->Fill(svdZ_1, over_U_SVD);
              h_DeltaResUz_Lyr6->Fill(svdZ_2, over_U_SVD);
            }
          }
          //Restricting to consecutive SVD v-clusters
          if (svd_1->isUCluster() != true && svd_2->isUCluster() != true) {
            const int strips_1 = svd_1->getSize();
            h_SVDstrips_Mult->Fill(strips_1);
            const int strips_2 = svd_2->getSize();
            h_SVDstrips_Mult->Fill(strips_2);
            const double res_V_1 = resUnBias_SVD_1.GetMatrixArray()[0] * Unit::convertValueToUnit(1.0, "um");
            const double res_V_2 = resUnBias_SVD_2.GetMatrixArray()[0] * Unit::convertValueToUnit(1.0, "um");
            const float over_V_SVD = res_V_2 - res_V_1;
            const ROOT::Math::XYZVector svdLocal_1(svd_predIntersect_1[3], svd_1->getPosition(), 0.);
            const ROOT::Math::XYZVector svdLocal_2(svd_predIntersect_2[3], svd_2->getPosition(), 0.);
            const VXD::SensorInfoBase& svdSensor_1 = geo.getSensorInfo(svd_id_1);
            const VXD::SensorInfoBase& svdSensor_2 = geo.getSensorInfo(svd_id_2);
            const ROOT::Math::XYZVector& svdGlobal_1 = svdSensor_1.pointToGlobal(svdLocal_1);
            const ROOT::Math::XYZVector& svdGlobal_2 = svdSensor_2.pointToGlobal(svdLocal_2);
            double svdPhi_1 = atan2(svdGlobal_1.Y(), svdGlobal_1.X());  // maybe use svdGlobal_1.Phi() instead
            double svdPhi_2 = atan2(svdGlobal_2.Y(), svdGlobal_2.X());  // maybe use svdGlobal_2.Phi() instead
            double svdZ_1 = svdGlobal_1.Z();
            double svdZ_2 = svdGlobal_2.Z();
            B2DEBUG(29, "SVD: difference of v-residuals =========> " << over_V_SVD);
            //Fill SVD tree for v-overlaps if required by the user
            if (m_ExpertLevel) {
              svdDeltaRes_V = over_V_SVD;
              svdRes_V_int = res_V_1;
              svdClTime_V_int = svd_1->getClsTime();
              svdClSNR_V_int = svd_1->getSNR();
              svdClCharge_V_int = svd_1->getCharge();
              svdClPosErr_V_int = svd_1->getPositionSigma();
              if (isMC && trueHit_1.size() > 0)
                svdTruePos_V_int = trueHit_1[0]->getV();
              else
                svdTruePos_V_int = -99;
              svdClPhi_V_int = svdPhi_1;
              svdClZ_V_int = svdZ_1;
              svdTrkPos_V_int = svd_predIntersect_1[4];
              svdTrkPosOS_V_int = svd_predIntersect_1[3];
              svdTrkPosErr_V_int = sqrt(covMatrix_1[4][4]);
              svdTrkPosErrOS_V_int = sqrt(covMatrix_1[3][3]);
              svdTrkQoP_V_int = svd_predIntersect_1[0];
              svdTrkPrime_V_int = svd_predIntersect_1[2];
              svdTrkPrimeOS_V_int = svd_predIntersect_1[1];
              svdTrkTraversedLength_V_int = svdSensor_1.getThickness() * sqrt(1 + svdTrkPrimeOS_V_int * svdTrkPrimeOS_V_int + svdTrkPrime_V_int *
                                            svdTrkPrime_V_int);
              svdTrkPosUnbiased_V_int = svd_predIntersect_unbiased_1[4];
              svdClPos_V_int = svdRes_V_int / 1e4 + svdTrkPosUnbiased_V_int;
              svdTrkPosErrUnbiased_V_int = sqrt(covMatrix_unbiased_1[4][4]);
              svdTrkQoPUnbiased_V_int = svd_predIntersect_unbiased_1[0];
              svdTrkPrimeUnbiased_V_int = svd_predIntersect_unbiased_1[2];
              svdLayer_V_int = svd_Layer_1;
              svdLadder_V_int = svd_Ladder_1;
              svdSensor_V_int = svd_Sensor_1;
              svdSize_V_int = strips_1;
 
              float pitch = 160e-4;
              float halfLength = 6.144;
              if (svdLayer_V_int > 3) {
                pitch = 240e-4;
              }
              svdClIntStrPos_V_int = fmod(svdClPos_V_int + halfLength, pitch) / pitch;
 
              svdStripCharge_V_int.clear();
              svdStrip6Samples_V_int.clear();
              svdStripTime_V_int.clear();
              svdStripPosition_V_int.clear();
              //retrieve relations and set strip charges and times
              RelationVector<SVDRecoDigit> theRecoDigits_1 = DataStore::getRelationsWithObj<SVDRecoDigit>(svd_1);
              if ((theRecoDigits_1.size() != svdSize_V_int) && (svdSize_V_int != 128)) //virtual cluster
                B2ERROR(" Inconsistency with cluster size! # recoDigits = " << theRecoDigits_1.size() << " != " << svdSize_V_int <<
                        " cluster size");
              //skip clusters created because of missing APV
              if (svdSize_V_int < 128)
                for (unsigned int d = 0; d < svdSize_V_int; d++) {
                  svdStripCharge_V_int.push_back(theRecoDigits_1[d]->getCharge());
                  SVDShaperDigit* ShaperDigit_1 = theRecoDigits_1[d]->getRelated<SVDShaperDigit>();
                  std::array<float, 6> Samples_1 = ShaperDigit_1->getSamples();
                  std::copy(std::begin(Samples_1), std::end(Samples_1), std::back_inserter(svdStrip6Samples_V_int));
                  svdStripTime_V_int.push_back(theRecoDigits_1[d]->getTime());
                  double misalignedStripPos = svdSensor_1.getVCellPosition(theRecoDigits_1[d]->getCellID());
                  //aligned strip pos = misaligned strip - ( misaligned cluster - aligned cluster)
                  svdStripPosition_V_int.push_back(misalignedStripPos - svd_1->getPosition() + svdClPos_V_int);
                }
 
              svdRes_V_ext = res_V_2;
              svdClTime_V_ext = svd_2->getClsTime();
              svdClSNR_V_ext = svd_2->getSNR();
              svdClCharge_V_ext = svd_2->getCharge();
              svdClPosErr_V_ext = svd_2->getPositionSigma();
              if (isMC && trueHit_2.size() > 0)
                svdTruePos_V_ext = trueHit_2[0]->getV();
              else
                svdTruePos_V_ext = -99;
              svdClPhi_V_ext = svdPhi_2;
              svdClZ_V_ext = svdZ_2;
              svdTrkPos_V_ext = svd_predIntersect_2[4];
              svdTrkPosOS_V_ext = svd_predIntersect_2[3];
              svdTrkPosErr_V_ext = sqrt(covMatrix_2[4][4]);
              svdTrkPosErrOS_V_ext = sqrt(covMatrix_1[3][3]);
              svdTrkQoP_V_ext = svd_predIntersect_2[0];
              svdTrkPrime_V_ext = svd_predIntersect_2[2];
              svdTrkPrimeOS_V_ext = svd_predIntersect_2[1];
              svdTrkTraversedLength_V_ext = svdSensor_2.getThickness() * sqrt(1 + svdTrkPrimeOS_V_ext * svdTrkPrimeOS_V_ext + svdTrkPrime_V_ext *
                                            svdTrkPrime_V_ext);
              svdTrkPosUnbiased_V_ext = svd_predIntersect_unbiased_2[4];
              svdClPos_V_ext = svdRes_V_ext / 1e4 + svdTrkPosUnbiased_V_ext;
              svdTrkPosErrUnbiased_V_ext = sqrt(covMatrix_unbiased_2[4][4]);
              svdTrkQoPUnbiased_V_ext = svd_predIntersect_unbiased_2[0];
              svdTrkPrimeUnbiased_V_ext = svd_predIntersect_unbiased_2[2];
              svdLayer_V_ext = svd_Layer_2;
              svdLadder_V_ext = svd_Ladder_2;
              svdSensor_V_ext = svd_Sensor_2;
              svdSize_V_ext = strips_2;
 
              svdClIntStrPos_V_ext = fmod(svdClPos_V_ext + halfLength, pitch) / pitch;
 
              svdStripCharge_V_ext.clear();
              svdStrip6Samples_V_ext.clear();
              svdStripTime_V_ext.clear();
              svdStripPosition_V_ext.clear();
              //retrieve relations and set strip charges and times
              RelationVector<SVDRecoDigit> theRecoDigits_2 = DataStore::getRelationsWithObj<SVDRecoDigit>(svd_2);
              if ((theRecoDigits_2.size() != svdSize_V_ext) && (svdSize_V_ext != 128)) //virtual cluster
                B2ERROR(" Inconsistency with cluster size! # recoDigits = " << theRecoDigits_2.size() << " != " << svdSize_V_ext <<
                        " cluster size");
              //skip clusters created because of missing APV
              if (svdSize_V_ext < 128)
                for (unsigned int d = 0; d < svdSize_V_ext; d++) {
                  svdStripCharge_V_ext.push_back(theRecoDigits_2[d]->getCharge());
                  SVDShaperDigit* ShaperDigit_2 = theRecoDigits_2[d]->getRelated<SVDShaperDigit>();
                  std::array<float, 6> Samples_2 = ShaperDigit_2->getSamples();
                  std::copy(std::begin(Samples_2), std::end(Samples_2), std::back_inserter(svdStrip6Samples_V_ext));
                  svdStripTime_V_ext.push_back(theRecoDigits_2[d]->getTime());
                  double misalignedStripPos = svdSensor_2.getVCellPosition(theRecoDigits_2[d]->getCellID());
                  //aligned strip pos = misaligned strip - ( misaligned cluster - aligned cluster)
                  svdStripPosition_V_ext.push_back(misalignedStripPos - svd_2->getPosition() + svdClPos_V_ext);
                }
 
              t_SVD_V->Fill();
            }
            //Fill histograms of residuals differences with SVD v clusters
            h_V_DeltaRes->Fill(over_V_SVD);
            h_V_DeltaRes_SVD->Fill(over_V_SVD);
            if (svd_1->getSize() < 3 && svd_2->getSize() < 3) {  //Consider only clusters with 3 or less strips involved
              h_V_Cl1Cl2_DeltaRes[svd_1->getSize() * svd_2->getSize()]->Fill(over_V_SVD);
            }
            //Fill sensor hit-maps and 2D histograms with SVD v clusters
            if (svd_Layer_1 == 3 && svd_Layer_2 == 3) {
              if (m_ExpertLevel) {
                h_Lyr3[svd_Ladder_1][svd_Sensor_1]->Fill(0., svd_1->getPosition());
                h_Lyr3[svd_Ladder_2][svd_Sensor_2]->Fill(0., svd_2->getPosition());
              }
              h_V_DeltaRes_SVD_Lyr3->Fill(over_V_SVD);
              h_DeltaResVPhi_Lyr3->Fill(svdPhi_1, over_V_SVD);
              h_DeltaResVPhi_Lyr3->Fill(svdPhi_2, over_V_SVD);
              h_DeltaResVz_Lyr3->Fill(svdZ_1, over_V_SVD);
              h_DeltaResVz_Lyr3->Fill(svdZ_2, over_V_SVD);
            }
            if (svd_Layer_1 == 4 && svd_Layer_2 == 4) {
              if (m_ExpertLevel) {
                h_Lyr4[svd_Ladder_1][svd_Sensor_1]->Fill(0., svd_1->getPosition());
                h_Lyr4[svd_Ladder_2][svd_Sensor_2]->Fill(0., svd_2->getPosition());
              }
              h_V_DeltaRes_SVD_Lyr4->Fill(over_V_SVD);
              h_DeltaResVPhi_Lyr4->Fill(svdPhi_1, over_V_SVD);
              h_DeltaResVPhi_Lyr4->Fill(svdPhi_2, over_V_SVD);
              h_DeltaResVz_Lyr4->Fill(svdZ_1, over_V_SVD);
              h_DeltaResVz_Lyr4->Fill(svdZ_2, over_V_SVD);
            }
            if (svd_Layer_1 == 5 && svd_Layer_2 == 5) {
              if (m_ExpertLevel) {
                h_Lyr5[svd_Ladder_1][svd_Sensor_1]->Fill(0., svd_1->getPosition());
                h_Lyr6[svd_Ladder_2][svd_Sensor_2]->Fill(0., svd_2->getPosition());
              }
              h_V_DeltaRes_SVD_Lyr5->Fill(over_V_SVD);
              h_DeltaResVPhi_Lyr5->Fill(svdPhi_1, over_V_SVD);
              h_DeltaResVPhi_Lyr5->Fill(svdPhi_2, over_V_SVD);
              h_DeltaResVz_Lyr5->Fill(svdZ_1, over_V_SVD);
              h_DeltaResVz_Lyr5->Fill(svdZ_2, over_V_SVD);
            }
            if (svd_Layer_1 == 6 && svd_Layer_2 == 6) {
              if (m_ExpertLevel) {
                h_Lyr6[svd_Ladder_1][svd_Sensor_1]->Fill(0., svd_1->getPosition());
                h_Lyr6[svd_Ladder_2][svd_Sensor_2]->Fill(0., svd_2->getPosition());
              }
              h_V_DeltaRes_SVD_Lyr6->Fill(over_V_SVD);
              h_DeltaResVPhi_Lyr6->Fill(svdPhi_1, over_V_SVD);
              h_DeltaResVPhi_Lyr6->Fill(svdPhi_2, over_V_SVD);
              h_DeltaResVz_Lyr6->Fill(svdZ_1, over_V_SVD);
              h_DeltaResVz_Lyr6->Fill(svdZ_2, over_V_SVD);
            }
          }
        }
      }
    }
  }
}

exposePythonAPI()

void exposePythonAPI ( )

staticinherited

Exposes methods of the Module class to Python.

Definition at line 325 of file Module.cc.

{
  // to avoid confusion between std::arg and boost::python::arg we want a shorthand namespace as well
  namespace bp = boost::python;
 
  docstring_options options(true, true, false); //userdef, py sigs, c++ sigs
 
  void (Module::*setReturnValueInt)(int) = &Module::setReturnValue;
 
  enum_<Module::EAfterConditionPath>("AfterConditionPath",
                                     R"(Determines execution behaviour after a conditional path has been executed:
 
.. attribute:: END
 
  End processing of this path after the conditional path. (this is the default for if_value() etc.)
 
.. attribute:: CONTINUE
 
  After the conditional path, resume execution after this module.)")
  .value("END", Module::EAfterConditionPath::c_End)
  .value("CONTINUE", Module::EAfterConditionPath::c_Continue)
  ;
 
  /* Do not change the names of >, <, ... we use them to serialize conditional pathes */
  enum_<Belle2::ModuleCondition::EConditionOperators>("ConditionOperator")
  .value(">", Belle2::ModuleCondition::EConditionOperators::c_GT)
  .value("<", Belle2::ModuleCondition::EConditionOperators::c_ST)
  .value(">=", Belle2::ModuleCondition::EConditionOperators::c_GE)
  .value("<=", Belle2::ModuleCondition::EConditionOperators::c_SE)
  .value("==", Belle2::ModuleCondition::EConditionOperators::c_EQ)
  .value("!=", Belle2::ModuleCondition::EConditionOperators::c_NE)
  ;
 
  enum_<Module::EModulePropFlags>("ModulePropFlags",
                                  R"(Flags to indicate certain low-level features of modules, see :func:`Module.set_property_flags()`, :func:`Module.has_properties()`. Most useful flags are:
 
.. attribute:: PARALLELPROCESSINGCERTIFIED
 
    This module can be run in parallel processing mode safely (All I/O must be done through the data store, in particular, the module must not write any files.)
 
.. attribute:: HISTOGRAMMANAGER
 
  This module is used to manage histograms accumulated by other modules
 
.. attribute:: TERMINATEINALLPROCESSES
 
  When using parallel processing, call this module's terminate() function in all processes. This will also ensure that there is exactly one process (single-core if no parallel modules found) or at least one input, one main and one output process.
)")
  .value("INPUT", Module::EModulePropFlags::c_Input)
  .value("OUTPUT", Module::EModulePropFlags::c_Output)
  .value("PARALLELPROCESSINGCERTIFIED", Module::EModulePropFlags::c_ParallelProcessingCertified)
  .value("HISTOGRAMMANAGER", Module::EModulePropFlags::c_HistogramManager)
  .value("INTERNALSERIALIZER", Module::EModulePropFlags::c_InternalSerializer)
  .value("TERMINATEINALLPROCESSES", Module::EModulePropFlags::c_TerminateInAllProcesses)
  ;
 
  //Python class definition
  class_<Module, PyModule> module("Module", R"(
Base class for Modules.
 
A module is the smallest building block of the framework.
A typical event processing chain consists of a Path containing
modules. By inheriting from this base class, various types of
modules can be created. To use a module, please refer to
:func:`Path.add_module()`.  A list of modules is available by running
``basf2 -m`` or ``basf2 -m package``, detailed information on parameters is
given by e.g. ``basf2 -m RootInput``.
 
The 'Module Development' section in the manual provides detailed information
on how to create modules, setting parameters, or using return values/conditions:
https://xwiki.desy.de/xwiki/rest/p/f4fa4/#HModuleDevelopment
 
)");
  module
  .def("__str__", &Module::getPathString)
  .def("name", &Module::getName, return_value_policy<copy_const_reference>(),
       "Returns the name of the module. Can be changed via :func:`set_name() <Module.set_name()>`, use :func:`type() <Module.type()>` for identifying a particular module class.")
  .def("type", &Module::getType, return_value_policy<copy_const_reference>(),
       "Returns the type of the module (i.e. class name minus 'Module')")
  .def("set_name", &Module::setName, args("name"), R"(
Set custom name, e.g. to distinguish multiple modules of the same type.
 
>>> path.add_module('EventInfoSetter')
>>> ro = path.add_module('RootOutput', branchNames=['EventMetaData'])
>>> ro.set_name('RootOutput_metadata_only')
>>> print(path)
[EventInfoSetter -> RootOutput_metadata_only]
 
)")
  .def("description", &Module::getDescription, return_value_policy<copy_const_reference>(),
       "Returns the description of this module.")
  .def("package", &Module::getPackage, return_value_policy<copy_const_reference>(),
       "Returns the package this module belongs to.")
  .def("available_params", &_getParamInfoListPython,
       "Return list of all module parameters as `ModuleParamInfo` instances")
  .def("has_properties", &Module::hasProperties, (bp::arg("properties")),
       R"DOCSTRING(Allows to check if the module has the given properties out of `ModulePropFlags` set.
 
>>> if module.has_properties(ModulePropFlags.PARALLELPROCESSINGCERTIFIED):
>>>     ...
 
Parameters:
  properties (int): bitmask of `ModulePropFlags` to check for.
)DOCSTRING")
  .def("set_property_flags", &Module::setPropertyFlags, args("property_mask"),
       "Set module properties in the form of an OR combination of `ModulePropFlags`.");
  {
    // python signature is too crowded, make ourselves
    docstring_options subOptions(true, false, false); //userdef, py sigs, c++ sigs
    module
    .def("if_value", &Module::if_value,
         (bp::arg("expression"), bp::arg("condition_path"), bp::arg("after_condition_path")= Module::EAfterConditionPath::c_End),
         R"DOCSTRING(if_value(expression, condition_path, after_condition_path=AfterConditionPath.END)
 
Sets a conditional sub path which will be executed after this
module if the return value set in the module passes the given ``expression``.
 
Modules can define a return value (int or bool) using ``setReturnValue()``,
which can be used in the steering file to split the Path based on this value, for example
 
>>> module_with_condition.if_value("<1", another_path)
 
In case the return value of the ``module_with_condition`` for a given event is
less than 1, the execution will be diverted into ``another_path`` for this event.
 
You could for example set a special return value if an error occurs, and divert
the execution into a path containing :b2:mod:`RootOutput` if it is found;
saving only the data producing/produced by the error.
 
After a conditional path has executed, basf2 will by default stop processing
the path for this event. This behaviour can be changed by setting the
``after_condition_path`` argument.
 
Parameters:
  expression (str): Expression to determine if the conditional path should be executed.
      This should be one of the comparison operators ``<``, ``>``, ``<=``,
      ``>=``, ``==``, or ``!=`` followed by a numerical value for the return value
  condition_path (Path): path to execute in case the expression is fulfilled
  after_condition_path (AfterConditionPath): What to do once the ``condition_path`` has been executed.
)DOCSTRING")
    .def("if_false", &Module::if_false,
         (bp::arg("condition_path"), bp::arg("after_condition_path")= Module::EAfterConditionPath::c_End),
         R"DOC(if_false(condition_path, after_condition_path=AfterConditionPath.END)
 
Sets a conditional sub path which will be executed after this module if
the return value of the module evaluates to False. This is equivalent to
calling `if_value` with ``expression=\"<1\"``)DOC")
    .def("if_true", &Module::if_true,
         (bp::arg("condition_path"), bp::arg("after_condition_path")= Module::EAfterConditionPath::c_End),
         R"DOC(if_true(condition_path, after_condition_path=AfterConditionPath.END)
 
Sets a conditional sub path which will be executed after this module if
the return value of the module evaluates to True. It is equivalent to
calling `if_value` with ``expression=\">=1\"``)DOC");
  }
  module
  .def("has_condition", &Module::hasCondition,
       "Return true if a conditional path has been set for this module "
       "using `if_value`, `if_true` or `if_false`")
  .def("get_all_condition_paths", &_getAllConditionPathsPython,
       "Return a list of all conditional paths set for this module using "
       "`if_value`, `if_true` or `if_false`")
  .def("get_all_conditions", &_getAllConditionsPython,
       "Return a list of all conditional path expressions set for this module using "
       "`if_value`, `if_true` or `if_false`")
  .add_property("logging", make_function(&Module::getLogConfig, return_value_policy<reference_existing_object>()),
                &Module::setLogConfig)

getAfterConditionPath()

Module::EAfterConditionPath getAfterConditionPath ( ) const

inherited

What to do after the conditional path is finished.

(defaults to c_End if no condition is set)

Definition at line 133 of file Module.cc.

{
  if (m_conditions.empty()) return EAfterConditionPath::c_End;
 
  //okay, a condition was set for this Module...
  if (!m_hasReturnValue) {
    B2FATAL("A condition was set for '" << getName() << "', but the module did not set a return value!");
  }
 
  for (const auto& condition : m_conditions) {
    if (condition.evaluate(m_returnValue)) {
      return condition.getAfterConditionPath();
    }
  }
 
  return EAfterConditionPath::c_End;
}

getAllConditionPaths()

std::vector< std::shared_ptr< Path > > getAllConditionPaths ( ) const

inherited

Return all condition paths currently set (no matter if the condition is true or not).

Definition at line 150 of file Module.cc.

{
  std::vector<std::shared_ptr<Path>> allConditionPaths;
  for (const auto& condition : m_conditions) {
    allConditionPaths.push_back(condition.getPath());
  }
 
  return allConditionPaths;
}

getAllConditions()

const std::vector< ModuleCondition > & getAllConditions ( ) const

inlineinherited

Return all set conditions for this module.

Definition at line 324 of file Module.h.

    {
      return m_conditions;
    }

getCondition()

const ModuleCondition * getCondition ( ) const

inlineinherited

Return a pointer to the first condition (or nullptr, if none was set)

Definition at line 314 of file Module.h.

    {
      if (m_conditions.empty()) {
        return nullptr;
      } else {
        return &m_conditions.front();
      }
    }

getConditionPath()

std::shared_ptr< Path > getConditionPath ( ) const

inherited

Returns the path of the last true condition (if there is at least one, else reaturn a null pointer).

Definition at line 113 of file Module.cc.

{
  PathPtr p;
  if (m_conditions.empty()) return p;
 
  //okay, a condition was set for this Module...
  if (!m_hasReturnValue) {
    B2FATAL("A condition was set for '" << getName() << "', but the module did not set a return value!");
  }
 
  for (const auto& condition : m_conditions) {
    if (condition.evaluate(m_returnValue)) {
      return condition.getPath();
    }
  }
 
  // if none of the conditions were true, return a null pointer.
  return p;
}

getDescription()

const std::string & getDescription ( ) const

inlineinherited

Returns the description of the module.

Definition at line 202 of file Module.h.

{return m_description;}

getFileNames()

virtual std::vector< std::string > getFileNames ( bool  outputFiles )

inlinevirtualinherited

Return a list of output filenames for this modules.

This will be called when basf2 is run with "--dry-run" if the module has set either the c_Input or c_Output properties.

If the parameter outputFiles is false (for modules with c_Input) the list of input filenames should be returned (if any). If outputFiles is true (for modules with c_Output) the list of output files should be returned (if any).

If a module has sat both properties this member is called twice, once for each property.

The module should return the actual list of requested input or produced output filenames (including handling of input/output overrides) so that the grid system can handle input/output files correctly.

This function should return the same value when called multiple times. This is especially important when taking the input/output overrides from Environment as they get consumed when obtained so the finalized list of output files should be stored for subsequent calls.

Reimplemented in RootInputModule, StorageRootOutputModule, and RootOutputModule.

Definition at line 134 of file Module.h.

    {
      return std::vector<std::string>();
    }

getLogConfig()

LogConfig & getLogConfig ( )

inlineinherited

Returns the log system configuration.

Definition at line 225 of file Module.h.

{return m_logConfig;}

getModules()

std::list< ModulePtr > getModules ( ) const

inlineoverrideprivatevirtualinherited

no submodules, return empty list

Implements PathElement.

Definition at line 506 of file Module.h.

{ return std::list<ModulePtr>(); }

getName()

const std::string & getName ( ) const

inlineinherited

Returns the name of the module.

This can be changed via e.g. set_name() in the steering file to give more useful names if there is more than one module of the same type.

For identifying the type of a module, using getType() (or type() in Python) is recommended.

Definition at line 187 of file Module.h.

{return m_name;}

getPackage()

const std::string & getPackage ( ) const

inlineinherited

Returns the package this module is in.

Definition at line 197 of file Module.h.

{return m_package;}

getParamInfoListPython()

std::shared_ptr< boost::python::list > getParamInfoListPython ( ) const

inherited

Returns a python list of all parameters.

Each item in the list consists of the name of the parameter, a string describing its type, a python list of all default values and the description of the parameter.

Returns

A python list containing the parameters of this parameter list.

Definition at line 279 of file Module.cc.

{
  return m_moduleParamList.getParamInfoListPython();
}

getParamList()

const ModuleParamList & getParamList ( ) const

inlineinherited

Return module param list.

Definition at line 363 of file Module.h.

{ return m_moduleParamList; }

getPathString()

std::string getPathString ( ) const

overrideprivatevirtualinherited

return the module name.

Implements PathElement.

Definition at line 192 of file Module.cc.

{
 
  std::string output = getName();
 
  for (const auto& condition : m_conditions) {
    output += condition.getString();
  }
 
  return output;
}

getReturnValue()

int getReturnValue ( ) const

inlineinherited

Return the return value set by this module.

This value is only meaningful if hasReturnValue() is true

Definition at line 381 of file Module.h.

{ return m_returnValue; }

getType()

const std::string & getType ( ) const

inherited

Returns the type of the module (i.e.

class name minus 'Module')

Definition at line 41 of file Module.cc.

{
  if (m_type.empty())
    B2FATAL("Module type not set for " << getName());
  return m_type;
}

hasCondition()

bool hasCondition ( ) const

inlineinherited

Returns true if at least one condition was set for the module.

Definition at line 311 of file Module.h.

{ return not m_conditions.empty(); };

hasProperties()

bool hasProperties ( unsigned int  propertyFlags ) const

inherited

Returns true if all specified property flags are available in this module.

Parameters

propertyFlags

Ored EModulePropFlags which should be compared with the module flags.

Definition at line 160 of file Module.cc.

{
  return (propertyFlags & m_propertyFlags) == propertyFlags;
}

hasReturnValue()

bool hasReturnValue ( ) const

inlineinherited

Return true if this module has a valid return value set.

Definition at line 378 of file Module.h.

{ return m_hasReturnValue; }

hasUnsetForcedParams()

bool hasUnsetForcedParams ( ) const

inherited

Returns true and prints error message if the module has unset parameters which the user has to set in the steering file.

Definition at line 166 of file Module.cc.

{
  auto missing = m_moduleParamList.getUnsetForcedParams();
  std::string allMissing = "";
  for (const auto& s : missing)
    allMissing += s + " ";
  if (!missing.empty())
    B2ERROR("The following required parameters of Module '" << getName() << "' were not specified: " << allMissing <<
            "\nPlease add them to your steering file.");
  return !missing.empty();
}

if_false()

void if_false ( const std::shared_ptr< Path > &  path, EAfterConditionPath  afterConditionPath = EAfterConditionPath::c_End  )

inherited

A simplified version to add a condition to the module.

Please note that successive calls of this function will add more than one condition to the module. If more than one condition results in true, only the last of them will be used.

Please be careful: Avoid creating cyclic paths, e.g. by linking a condition to a path which is processed before the path where this module is located in.

It is equivalent to the if_value() method, using the expression "<1". This method is meant to be used together with the setReturnValue(bool value) method.

Parameters

path	Shared pointer to the Path which will be executed if the return value is false.
afterConditionPath	What to do after executing 'path'.

Definition at line 85 of file Module.cc.

{
  if_value("<1", path, afterConditionPath);
}

if_true()

void if_true ( const std::shared_ptr< Path > &  path, EAfterConditionPath  afterConditionPath = EAfterConditionPath::c_End  )

inherited

A simplified version to set the condition of the module.

Please note that successive calls of this function will add more than one condition to the module. If more than one condition results in true, only the last of them will be used.

Please be careful: Avoid creating cyclic paths, e.g. by linking a condition to a path which is processed before the path where this module is located in.

It is equivalent to the if_value() method, using the expression ">=1". This method is meant to be used together with the setReturnValue(bool value) method.

Parameters

path	Shared pointer to the Path which will be executed if the return value is true.
afterConditionPath	What to do after executing 'path'.

Definition at line 90 of file Module.cc.

{
  if_value(">=1", path, afterConditionPath);
}

if_value()

void if_value ( const std::string &  expression, const std::shared_ptr< Path > &  path, EAfterConditionPath  afterConditionPath = EAfterConditionPath::c_End  )

inherited

Add a condition to the module.

Please note that successive calls of this function will add more than one condition to the module. If more than one condition results in true, only the last of them will be used.

See https://xwiki.desy.de/xwiki/rest/p/a94f2 or ModuleCondition for a description of the syntax.

Please be careful: Avoid creating cyclic paths, e.g. by linking a condition to a path which is processed before the path where this module is located in.

Parameters

expression	The expression of the condition.
path	Shared pointer to the Path which will be executed if the condition is evaluated to true.
afterConditionPath	What to do after executing 'path'.

Definition at line 79 of file Module.cc.

{
  m_conditions.emplace_back(expression, path, afterConditionPath);
}

initialize()

void initialize ( void  )

overridevirtual

Register input and output data.

Reimplemented from HistoModule.

Definition at line 56 of file OverlapResidualsModule.cc.

{
  StoreArray<RecoTrack> recoTracks(m_recoTracksStoreArrayName);
  recoTracks.isOptional();
  //Register histograms (calls back defineHisto)
  REG_HISTOGRAM
}

setAbortLevel()

void setAbortLevel ( int  abortLevel )

inherited

Configure the abort log level.

Definition at line 67 of file Module.cc.

{
  m_logConfig.setAbortLevel(static_cast<LogConfig::ELogLevel>(abortLevel));
}

setDebugLevel()

void setDebugLevel ( int  debugLevel )

inherited

Configure the debug messaging level.

Definition at line 61 of file Module.cc.

{
  m_logConfig.setDebugLevel(debugLevel);
}

setDescription()

void setDescription ( const std::string &  description )

protectedinherited

Sets the description of the module.

Parameters

description

A description of the module.

Definition at line 214 of file Module.cc.

{
  m_description = description;
}

setLogConfig()

void setLogConfig ( const LogConfig &  logConfig )

inlineinherited

Set the log system configuration.

Definition at line 230 of file Module.h.

{m_logConfig = logConfig;}

setLogInfo()

void setLogInfo ( int  logLevel, unsigned int  logInfo  )

inherited

Configure the printed log information for the given level.

Parameters

logLevel	The log level (one of LogConfig::ELogLevel)
logInfo	What kind of info should be printed? ORed combination of LogConfig::ELogInfo flags.

Definition at line 73 of file Module.cc.

{
  m_logConfig.setLogInfo(static_cast<LogConfig::ELogLevel>(logLevel), logInfo);
}

setLogLevel()

void setLogLevel ( int  logLevel )

inherited

Configure the log level.

Definition at line 55 of file Module.cc.

{
  m_logConfig.setLogLevel(static_cast<LogConfig::ELogLevel>(logLevel));
}

setName()

void setName ( const std::string &  name )

inlineinherited

Set the name of the module.

Note

The module name is set when using the REG_MODULE macro, but the module can be renamed before calling process() using the set_name() function in your steering file.

Parameters

name	The name of the module

Definition at line 214 of file Module.h.

{ m_name = name; };

setParamList()

void setParamList ( const ModuleParamList &  params )

inlineprotectedinherited

Replace existing parameter list.

Definition at line 501 of file Module.h.

{ m_moduleParamList = params; }

setParamPython()

void setParamPython ( const std::string &  name, const boost::python::object &  pyObj  )

privateinherited

Implements a method for setting boost::python objects.

The method supports the following types: list, dict, int, double, string, bool The conversion of the python object to the C++ type and the final storage of the parameter value is done in the ModuleParam class.

Parameters

name	The unique name of the parameter.
pyObj	The object which should be converted and stored as the parameter value.

Definition at line 234 of file Module.cc.

{
  LogSystem& logSystem = LogSystem::Instance();
  logSystem.updateModule(&(getLogConfig()), getName());
  try {
    m_moduleParamList.setParamPython(name, pyObj);
  } catch (std::runtime_error& e) {
    throw std::runtime_error("Cannot set parameter '" + name + "' for module '"
                             + m_name + "': " + e.what());
  }
 
  logSystem.updateModule(nullptr);
}

setParamPythonDict()

void setParamPythonDict ( const boost::python::dict &  dictionary )

privateinherited

Implements a method for reading the parameter values from a boost::python dictionary.

The key of the dictionary has to be the name of the parameter and the value has to be of one of the supported parameter types.

Parameters

dictionary

The python dictionary from which the parameter values are read.

Definition at line 249 of file Module.cc.

{
 
  LogSystem& logSystem = LogSystem::Instance();
  logSystem.updateModule(&(getLogConfig()), getName());
 
  boost::python::list dictKeys = dictionary.keys();
  int nKey = boost::python::len(dictKeys);
 
  //Loop over all keys in the dictionary
  for (int iKey = 0; iKey < nKey; ++iKey) {
    boost::python::object currKey = dictKeys[iKey];
    boost::python::extract<std::string> keyProxy(currKey);
 
    if (keyProxy.check()) {
      const boost::python::object& currValue = dictionary[currKey];
      setParamPython(keyProxy, currValue);
    } else {
      B2ERROR("Setting the module parameters from a python dictionary: invalid key in dictionary!");
    }
  }
 
  logSystem.updateModule(nullptr);
}

setPropertyFlags()

void setPropertyFlags ( unsigned int  propertyFlags )

inherited

Sets the flags for the module properties.

Parameters

propertyFlags

bitwise OR of EModulePropFlags

Definition at line 208 of file Module.cc.

{
  m_propertyFlags = propertyFlags;
}

setReturnValue() [1/2]

void setReturnValue ( bool  value )

protectedinherited

Sets the return value for this module as bool.

The bool value is saved as an integer with the convention 1 meaning true and 0 meaning false. The value can be used in the steering file to divide the analysis chain into several paths.

Parameters

value

The value of the return value.

Definition at line 227 of file Module.cc.

{
  m_hasReturnValue = true;
  m_returnValue = value;
}

setReturnValue() [2/2]

void setReturnValue ( int  value )

protectedinherited

Sets the return value for this module as integer.

The value can be used in the steering file to divide the analysis chain into several paths.

Parameters

value

The value of the return value.

Definition at line 220 of file Module.cc.

{
  m_hasReturnValue = true;
  m_returnValue = value;
}

setType()

void setType ( const std::string &  type )

protectedinherited

Set the module type.

Only for use by internal modules (which don't use the normal REG_MODULE mechanism).

Definition at line 48 of file Module.cc.

{
  if (!m_type.empty())
    B2FATAL("Trying to change module type from " << m_type << " is not allowed, the value is assumed to be fixed.");
  m_type = type;
}

terminate()

virtual void terminate ( void  )

inlineoverridevirtualinherited

Function to terminate module.

Reimplemented from Module.

Reimplemented in CalibrationCollectorModule, B2BIIMCParticlesMonitorModule, AnalysisPhase1StudyModule, BeamabortStudyModule, BgoStudyModule, ClawStudyModule, ClawsStudyModule, CsiStudy_v2Module, CsIStudyModule, DosiStudyModule, FANGSStudyModule, He3tubeStudyModule, MicrotpcStudyModule, PindiodeStudyModule, QcsmonitorStudyModule, CDCCRTestModule, cdcDQM7Module, CDCDQMModule, MonitorDataModule, TrackAnaModule, PhysicsObjectsDQMModule, PhysicsObjectsMiraBelleBhabhaModule, PhysicsObjectsMiraBelleDst2Module, PhysicsObjectsMiraBelleDstModule, PhysicsObjectsMiraBelleHadronModule, PhysicsObjectsMiraBelleModule, ECLBackgroundModule, ECLDQMModule, ECLDQMEXTENDEDModule, KLMDQMModule, KLMDQM2Module, CDCDedxDQMModule, CDCDedxValidationModule, TOPGainEfficiencyCalculatorModule, TOPLaserHitSelectorModule, TOPInterimFENtupleModule, TOPPDFCheckerModule, TOPTBCComparatorModule, CDCTriggerNeuroDQMModule, CDCTriggerNeuroDQMOnlineModule, TRGCDCT2DDQMModule, TRGCDCT3DDQMModule, TRGCDCTSFDQMModule, TRGECLDQMModule, TRGGDLModule, TRGEFFDQMModule, TRGGDLDQMModule, TRGGRLDQMModule, TRGTOPDQMModule, TRGRAWDATAModule, SVDDQMClustersOnTrackModule, SVDDQMExpressRecoModule, and ROIDQMModule.

Definition at line 46 of file HistoModule.h.

{};

Member Data Documentation

deltaResU_PXD

float deltaResU_PXD = 0

private

tree t_PXD branch deltaResU/F

Definition at line 161 of file OverlapResidualsModule.h.

extLadder_PXD

unsigned int extLadder_PXD = 0

private

tree t_PXD branch extLadder_PXD/i

Definition at line 178 of file OverlapResidualsModule.h.

extLayer_PXD

unsigned int extLayer_PXD = 0

private

tree t_PXD branch extLayer_PXD/i

Definition at line 177 of file OverlapResidualsModule.h.

extPhi_PXD

float extPhi_PXD = 0

private

tree t_PXD branch extPhi/PXD/F

Definition at line 172 of file OverlapResidualsModule.h.

extResU_PXD

float extResU_PXD = 0

private

tree t_PXD branch extResU_PXD/F

Definition at line 168 of file OverlapResidualsModule.h.

extResV_PXD

float extResV_PXD = 0

private

tree t_PXD branch extResV_PXD/F

Definition at line 169 of file OverlapResidualsModule.h.

extSensor_PXD

unsigned int extSensor_PXD = 0

private

tree t_PXD branch extSensor_PXD/i

Definition at line 179 of file OverlapResidualsModule.h.

extU_PXD

float extU_PXD = 0

private

tree t_PXD branch extU_PXD/F

Definition at line 170 of file OverlapResidualsModule.h.

extV_PXD

float extV_PXD = 0

private

tree t_PXD branch extV_PXD/F

Definition at line 171 of file OverlapResidualsModule.h.

extZ_PXD

float extZ_PXD = 0

private

tree t_PXD branch extZ_PXD/F

Definition at line 173 of file OverlapResidualsModule.h.

h_DeltaResUPhi_Lyr1

TH2F* h_DeltaResUPhi_Lyr1 = nullptr

private

2D Histogram of DeltaRes_u vs phi of VXD overlaps for layer 1

Definition at line 99 of file OverlapResidualsModule.h.

h_DeltaResUPhi_Lyr2

TH2F* h_DeltaResUPhi_Lyr2 = nullptr

private

2D histogram of DeltaRes_u vs phi of VXD overlaps for layer 2

Definition at line 97 of file OverlapResidualsModule.h.

h_DeltaResUPhi_Lyr3

TH2F* h_DeltaResUPhi_Lyr3 = nullptr

private

2D histogram of DeltaRes_u vs phi of VXD overlaps for layer 3

Definition at line 95 of file OverlapResidualsModule.h.

h_DeltaResUPhi_Lyr4

TH2F* h_DeltaResUPhi_Lyr4 = nullptr

private

2D histogram of DeltaRes_u vs phi of VXD overlaps for layer 4

Definition at line 93 of file OverlapResidualsModule.h.

h_DeltaResUPhi_Lyr5

TH2F* h_DeltaResUPhi_Lyr5 = nullptr

private

2D histogram of DeltaRes_u vs phi of VXD overlaps for layer 5

Definition at line 91 of file OverlapResidualsModule.h.

h_DeltaResUPhi_Lyr6

TH2F* h_DeltaResUPhi_Lyr6 = nullptr

private

2D histogram of DeltaRes_u vs phi of VXD overlaps for layer 6

Definition at line 89 of file OverlapResidualsModule.h.

h_DeltaResUz_Lyr1

TH2F* h_DeltaResUz_Lyr1 = nullptr

private

2D histogram of DeltaRes_u vs z of VXD overlaps for layer 1

Definition at line 111 of file OverlapResidualsModule.h.

h_DeltaResUz_Lyr2

TH2F* h_DeltaResUz_Lyr2 = nullptr

private

2D histogram of DeltaRes_u vs z of VXD overlaps for layer 2

Definition at line 109 of file OverlapResidualsModule.h.

h_DeltaResUz_Lyr3

TH2F* h_DeltaResUz_Lyr3 = nullptr

private

2D histogram of DeltaRes_u vs z of VXD overlaps for layer 3

Definition at line 107 of file OverlapResidualsModule.h.

h_DeltaResUz_Lyr4

TH2F* h_DeltaResUz_Lyr4 = nullptr

private

2D histogram of DeltaRes_u vs z of VXD overlaps for layer 4

Definition at line 105 of file OverlapResidualsModule.h.

h_DeltaResUz_Lyr5

TH2F* h_DeltaResUz_Lyr5 = nullptr

private

2D histogram of DeltaRes_u vs z of VXD overlaps for layer 5

Definition at line 103 of file OverlapResidualsModule.h.

h_DeltaResUz_Lyr6

TH2F* h_DeltaResUz_Lyr6 = nullptr

private

2D histogram of DeltaRes_u vs z of VXD overlaps for layer 6

Definition at line 101 of file OverlapResidualsModule.h.

h_DeltaResVPhi_Lyr1

TH2F* h_DeltaResVPhi_Lyr1 = nullptr

private

2D histogram of DeltaRes_v vs phi of VXD overlaps for layer 1

Definition at line 135 of file OverlapResidualsModule.h.

h_DeltaResVPhi_Lyr2

TH2F* h_DeltaResVPhi_Lyr2 = nullptr

private

2D histogram of DeltaRes_v vs phi of VXD overlaps for layer 2

Definition at line 133 of file OverlapResidualsModule.h.

h_DeltaResVPhi_Lyr3

TH2F* h_DeltaResVPhi_Lyr3 = nullptr

private

2D histogram of DeltaRes_v vs phi of VXD overlaps for layer 3

Definition at line 131 of file OverlapResidualsModule.h.

h_DeltaResVPhi_Lyr4

TH2F* h_DeltaResVPhi_Lyr4 = nullptr

private

2D histogram of DeltaRes_v vs phi of VXD overlaps for layer 4

Definition at line 129 of file OverlapResidualsModule.h.

h_DeltaResVPhi_Lyr5

TH2F* h_DeltaResVPhi_Lyr5 = nullptr

private

2D histogram of DeltaRes_v vs phi of VXD overlaps for layer 5

Definition at line 127 of file OverlapResidualsModule.h.

h_DeltaResVPhi_Lyr6

TH2F* h_DeltaResVPhi_Lyr6 = nullptr

private

2D histogram of DeltaRes_v vs phi of VXD overlaps for layer 6

Definition at line 125 of file OverlapResidualsModule.h.

h_DeltaResVz_Lyr1

TH2F* h_DeltaResVz_Lyr1 = nullptr

private

2D histogram of DeltaRes_v vs z of VXD overlaps for layer 1

Definition at line 123 of file OverlapResidualsModule.h.

h_DeltaResVz_Lyr2

TH2F* h_DeltaResVz_Lyr2 = nullptr

private

2D histogram of DeltaRes_v vs z of VXD overlaps for layer 2

Definition at line 121 of file OverlapResidualsModule.h.

h_DeltaResVz_Lyr3

TH2F* h_DeltaResVz_Lyr3 = nullptr

private

2D histogram of DeltaRes_v vs z of VXD overlaps for layer 3

Definition at line 119 of file OverlapResidualsModule.h.

h_DeltaResVz_Lyr4

TH2F* h_DeltaResVz_Lyr4 = nullptr

private

2D histogram of DeltaRes_v vs z of VXD overlaps for layer 4

Definition at line 117 of file OverlapResidualsModule.h.

h_DeltaResVz_Lyr5

TH2F* h_DeltaResVz_Lyr5 = nullptr

private

2D histogram of DeltaRes_v vs z of VXD overlaps for layer 5

Definition at line 115 of file OverlapResidualsModule.h.

h_DeltaResVz_Lyr6

TH2F* h_DeltaResVz_Lyr6 = nullptr

private

2D histogram of DeltaRes_v vs z of VXD overlaps for layer 6

Definition at line 113 of file OverlapResidualsModule.h.

h_Lyr1

TH2F* h_Lyr1[9][3] = {{nullptr}}

private

Sensor hit-map for layer 1 from reconstructed u and v coordinates.

Definition at line 153 of file OverlapResidualsModule.h.

h_Lyr2

TH2F* h_Lyr2[13][3] = {{nullptr}}

private

Sensor hit-map for layer 2 from reconstructed u and v coordinates.

Definition at line 151 of file OverlapResidualsModule.h.

h_Lyr3

TH2F* h_Lyr3[8][3] = {{nullptr}}

private

Sensor hit-map for layer 3 from reconstructed u and v coordinates.

Definition at line 149 of file OverlapResidualsModule.h.

h_Lyr4

TH2F* h_Lyr4[11][4] = {{nullptr}}

private

Sensor hit-map for layer 4 from reconstructed u and v coordinates.

Definition at line 147 of file OverlapResidualsModule.h.

h_Lyr5

TH2F* h_Lyr5[13][5] = {{nullptr}}

private

Sensor hit-map for layer 5 from reconstructed u and v coordinates.

Definition at line 145 of file OverlapResidualsModule.h.

h_Lyr6

TH2F* h_Lyr6[17][6] = {{nullptr}}

private

Sensor hit-map for layer 6 from reconstructed u and v coordinates.

Definition at line 143 of file OverlapResidualsModule.h.

h_SVDstrips_Mult

TH1F* h_SVDstrips_Mult = nullptr

private

Histogram of SVD strips multiplicity.

Definition at line 137 of file OverlapResidualsModule.h.

h_U_Cl1Cl2_DeltaRes

TH1F* h_U_Cl1Cl2_DeltaRes[5] = {nullptr}

private

Histogram of SVD differences of u-coordinate residuals grouped by clusters sizes.

Definition at line 139 of file OverlapResidualsModule.h.

h_U_DeltaRes

TH1F* h_U_DeltaRes = nullptr

private

Histogram of VXD ( PXD + SVD ) differences of u-coordinate residuals.

Definition at line 53 of file OverlapResidualsModule.h.

h_U_DeltaRes_PXD

TH1F* h_U_DeltaRes_PXD = nullptr

private

Histogram of PXD u-coordinate differences of residuals.

Definition at line 57 of file OverlapResidualsModule.h.

h_U_DeltaRes_PXD_Lyr1

TH1F* h_U_DeltaRes_PXD_Lyr1 = nullptr

private

Histogram of PXD layer-1 u-coordinate differences of residuals.

Definition at line 59 of file OverlapResidualsModule.h.

h_U_DeltaRes_PXD_Lyr2

TH1F* h_U_DeltaRes_PXD_Lyr2 = nullptr

private

Histogram of PXD layer-2 u-coordinate differences of residuals.

Definition at line 61 of file OverlapResidualsModule.h.

h_U_DeltaRes_SVD

TH1F* h_U_DeltaRes_SVD = nullptr

private

Histogram of SVD u-coordinate differences of residuals.

Definition at line 69 of file OverlapResidualsModule.h.

h_U_DeltaRes_SVD_Lyr3

TH1F* h_U_DeltaRes_SVD_Lyr3 = nullptr

private

Histogram of SVD layer-3 u-coordinate differences of residuals.

Definition at line 71 of file OverlapResidualsModule.h.

h_U_DeltaRes_SVD_Lyr4

TH1F* h_U_DeltaRes_SVD_Lyr4 = nullptr

private

Histogram of SVD layer-4 u-coordinate differences of residuals.

Definition at line 73 of file OverlapResidualsModule.h.

h_U_DeltaRes_SVD_Lyr5

TH1F* h_U_DeltaRes_SVD_Lyr5 = nullptr

private

Histogram of SVD layer-5 u-coordinate differences of residuals.

Definition at line 75 of file OverlapResidualsModule.h.

h_U_DeltaRes_SVD_Lyr6

TH1F* h_U_DeltaRes_SVD_Lyr6 = nullptr

private

Histogram of SVD layer-6 u-coordinate differences of residuals.

Definition at line 77 of file OverlapResidualsModule.h.

h_V_Cl1Cl2_DeltaRes

TH1F* h_V_Cl1Cl2_DeltaRes[5] = {nullptr}

private

Histogram of SVD differences of v-coordinate residuals grouped by clusters sizes.

Definition at line 141 of file OverlapResidualsModule.h.

h_V_DeltaRes

TH1F* h_V_DeltaRes = nullptr

private

Histogram of VXD ( PXD + SVD ) differences of v-coordinate residuals.

Definition at line 55 of file OverlapResidualsModule.h.

h_V_DeltaRes_PXD

TH1F* h_V_DeltaRes_PXD = nullptr

private

Histogram of PXD v-coordinate differences of residuals.

Definition at line 63 of file OverlapResidualsModule.h.

h_V_DeltaRes_PXD_Lyr1

TH1F* h_V_DeltaRes_PXD_Lyr1 = nullptr

private

Histogram of PXD layer-1 v-coordinate differences of residuals.

Definition at line 65 of file OverlapResidualsModule.h.

h_V_DeltaRes_PXD_Lyr2

TH1F* h_V_DeltaRes_PXD_Lyr2 = nullptr

private

Histogram of PXD layer-2 v-coordinate differences of residuals.

Definition at line 67 of file OverlapResidualsModule.h.

h_V_DeltaRes_SVD

TH1F* h_V_DeltaRes_SVD = nullptr

private

Histogram of SVD v-coordinate differences of residuals.

Definition at line 79 of file OverlapResidualsModule.h.

h_V_DeltaRes_SVD_Lyr3

TH1F* h_V_DeltaRes_SVD_Lyr3 = nullptr

private

Histogram of SVD layer-3 v-coordinate differences of residuals.

Definition at line 81 of file OverlapResidualsModule.h.

h_V_DeltaRes_SVD_Lyr4

TH1F* h_V_DeltaRes_SVD_Lyr4 = nullptr

private

Histogram of SVD layer-4 v-coordinate differences of residuals.

Definition at line 83 of file OverlapResidualsModule.h.

h_V_DeltaRes_SVD_Lyr5

TH1F* h_V_DeltaRes_SVD_Lyr5 = nullptr

private

Histogram of SVD layer-5 v-coordinate differences of residuals.

Definition at line 85 of file OverlapResidualsModule.h.

h_V_DeltaRes_SVD_Lyr6

TH1F* h_V_DeltaRes_SVD_Lyr6 = nullptr

private

Histogram of SVD layer-6 v-coordinate differences of residuals.

Definition at line 87 of file OverlapResidualsModule.h.

intLadder_PXD

unsigned int intLadder_PXD = 0

private

tree t_PXD branch intLadder_PXD/i

Definition at line 175 of file OverlapResidualsModule.h.

intLayer_PXD

unsigned int intLayer_PXD = 0

private

tree t_PXD branch intLayer_PXD/i

Definition at line 174 of file OverlapResidualsModule.h.

intPhi_PXD

float intPhi_PXD = 0

private

tree t_PXD branch intPhi_PXD/F

Definition at line 166 of file OverlapResidualsModule.h.

intResU_PXD

float intResU_PXD = 0

private

tree t_PXD branch intResU_PXD/F

Definition at line 162 of file OverlapResidualsModule.h.

intResV_PXD

float intResV_PXD = 0

private

tree t_PXD branch intResV/PXD/F

Definition at line 163 of file OverlapResidualsModule.h.

intSensor_PXD

unsigned int intSensor_PXD = 0

private

tree t_PXD branch intSensor_PXD/i

Definition at line 176 of file OverlapResidualsModule.h.

intU_PXD

float intU_PXD = 0

private

tree t_PXD branch intU_PXD/F

Definition at line 164 of file OverlapResidualsModule.h.

intV_PXD

float intV_PXD = 0

private

tree t_PXD branch intV_PXD/F

Definition at line 165 of file OverlapResidualsModule.h.

intZ_PXD

float intZ_PXD = 0

private

tree t_PXD branch intZ_PXD/F

Definition at line 167 of file OverlapResidualsModule.h.

m_conditions

std::vector<ModuleCondition> m_conditions

privateinherited

Module condition, only non-null if set.

Definition at line 521 of file Module.h.

m_description

std::string m_description

privateinherited

The description of the module.

Definition at line 511 of file Module.h.

m_ExpertLevel

bool m_ExpertLevel

private

Expert level switch.

Definition at line 45 of file OverlapResidualsModule.h.

m_hasReturnValue

bool m_hasReturnValue

privateinherited

True, if the return value is set.

Definition at line 518 of file Module.h.

m_logConfig

LogConfig m_logConfig

privateinherited

The log system configuration of the module.

Definition at line 514 of file Module.h.

m_moduleParamList

ModuleParamList m_moduleParamList

privateinherited

List storing and managing all parameter of the module.

Definition at line 516 of file Module.h.

m_name

std::string m_name

privateinherited

The name of the module, saved as a string (user-modifiable)

Definition at line 508 of file Module.h.

m_package

std::string m_package

privateinherited

Package this module is found in (may be empty).

Definition at line 510 of file Module.h.

m_propertyFlags

unsigned int m_propertyFlags

privateinherited

The properties of the module as bitwise or (with |) of EModulePropFlags.

Definition at line 512 of file Module.h.

m_pxdcluster

StoreArray<PXDCluster> m_pxdcluster

private

Array storing PXD clusters.

Definition at line 49 of file OverlapResidualsModule.h.

m_recoTracksStoreArrayName

std::string m_recoTracksStoreArrayName {"RecoTracks"}

private

StoreArray name of the input and output RecoTracks.

Definition at line 47 of file OverlapResidualsModule.h.

m_returnValue

int m_returnValue

privateinherited

The return value.

Definition at line 519 of file Module.h.

m_svdcluster

StoreArray<SVDCluster> m_svdcluster

private

Array storing SVD clusters.

Definition at line 51 of file OverlapResidualsModule.h.

m_type

std::string m_type

privateinherited

The type of the module, saved as a string.

Definition at line 509 of file Module.h.

svdClCharge_U_ext

float svdClCharge_U_ext = 0

private

U external cluster charge.

Definition at line 208 of file OverlapResidualsModule.h.

svdClCharge_U_int

float svdClCharge_U_int = 0

private

U internal cluster charge.

Definition at line 182 of file OverlapResidualsModule.h.

svdClCharge_V_ext

float svdClCharge_V_ext = 0

private

V external cluster charge.

Definition at line 273 of file OverlapResidualsModule.h.

svdClCharge_V_int

float svdClCharge_V_int = 0

private

V internal cluster charge.

Definition at line 251 of file OverlapResidualsModule.h.

svdClIntStrPos_U_ext

float svdClIntStrPos_U_ext = 0

private

U external cluster interstrip position.

Definition at line 212 of file OverlapResidualsModule.h.

svdClIntStrPos_U_int

float svdClIntStrPos_U_int = 0

private

U internal cluster interstrip position.

Definition at line 186 of file OverlapResidualsModule.h.

svdClIntStrPos_V_ext

float svdClIntStrPos_V_ext = 0

private

V external cluster interstrip position.

Definition at line 277 of file OverlapResidualsModule.h.

svdClIntStrPos_V_int

float svdClIntStrPos_V_int = 0

private

V internal cluster interstrip position.

Definition at line 255 of file OverlapResidualsModule.h.

svdClPhi_U_ext

float svdClPhi_U_ext = 0

private

U external cluster global phi.

Definition at line 216 of file OverlapResidualsModule.h.

svdClPhi_U_int

float svdClPhi_U_int = 0

private

U internal cluster global phi.

Definition at line 190 of file OverlapResidualsModule.h.

svdClPhi_V_ext

float svdClPhi_V_ext = 0

private

V external cluster global phi.

Definition at line 281 of file OverlapResidualsModule.h.

svdClPhi_V_int

float svdClPhi_V_int = 0

private

V internal cluster global phi.

Definition at line 259 of file OverlapResidualsModule.h.

svdClPos_U_ext

float svdClPos_U_ext = 0

private

U external cluster position.

Definition at line 213 of file OverlapResidualsModule.h.

svdClPos_U_int

float svdClPos_U_int = 0

private

U internal cluster position.

Definition at line 187 of file OverlapResidualsModule.h.

svdClPos_V_ext

float svdClPos_V_ext = 0

private

V external cluster position.

Definition at line 278 of file OverlapResidualsModule.h.

svdClPos_V_int

float svdClPos_V_int = 0

private

V internal cluster position.

Definition at line 256 of file OverlapResidualsModule.h.

svdClPosErr_U_ext

float svdClPosErr_U_ext = 0

private

U external cluster position error.

Definition at line 214 of file OverlapResidualsModule.h.

svdClPosErr_U_int

float svdClPosErr_U_int = 0

private

U internal cluster position error.

Definition at line 188 of file OverlapResidualsModule.h.

svdClPosErr_V_ext

float svdClPosErr_V_ext = 0

private

V external cluster position error.

Definition at line 279 of file OverlapResidualsModule.h.

svdClPosErr_V_int

float svdClPosErr_V_int = 0

private

V internal cluster position error.

Definition at line 257 of file OverlapResidualsModule.h.

svdClSNR_U_ext

float svdClSNR_U_ext = 0

private

U external cluster SNR.

Definition at line 209 of file OverlapResidualsModule.h.

svdClSNR_U_int

float svdClSNR_U_int = 0

private

U internal cluster SNR.

Definition at line 183 of file OverlapResidualsModule.h.

svdClSNR_V_ext

float svdClSNR_V_ext = 0

private

V external cluster SNR.

Definition at line 274 of file OverlapResidualsModule.h.

svdClSNR_V_int

float svdClSNR_V_int = 0

private

V internal cluster SNR.

Definition at line 252 of file OverlapResidualsModule.h.

svdClTime_U_ext

float svdClTime_U_ext = 0

private

U external cluster time.

Definition at line 210 of file OverlapResidualsModule.h.

svdClTime_U_int

float svdClTime_U_int = 0

private

U internal cluster time.

Definition at line 184 of file OverlapResidualsModule.h.

svdClTime_V_ext

float svdClTime_V_ext = 0

private

V external cluster time.

Definition at line 275 of file OverlapResidualsModule.h.

svdClTime_V_int

float svdClTime_V_int = 0

private

V internal cluster time.

Definition at line 253 of file OverlapResidualsModule.h.

svdClZ_U_ext

float svdClZ_U_ext = 0

private

U external cluster global Z.

Definition at line 217 of file OverlapResidualsModule.h.

svdClZ_U_int

float svdClZ_U_int = 0

private

U internal cluster global Z.

Definition at line 191 of file OverlapResidualsModule.h.

svdClZ_V_ext

float svdClZ_V_ext = 0

private

V external cluster global Z.

Definition at line 282 of file OverlapResidualsModule.h.

svdClZ_V_int

float svdClZ_V_int = 0

private

V internal cluster global Z.

Definition at line 260 of file OverlapResidualsModule.h.

svdDeltaRes_U

float svdDeltaRes_U = 0

private

U difference between external and internal residual.

Definition at line 181 of file OverlapResidualsModule.h.

svdDeltaRes_V

float svdDeltaRes_V = 0

private

V difference between external and internal residual.

Definition at line 250 of file OverlapResidualsModule.h.

svdLadder_U_ext

unsigned int svdLadder_U_ext = 0

private

U external ladder.

Definition at line 238 of file OverlapResidualsModule.h.

svdLadder_U_int

unsigned int svdLadder_U_int = 0

private

U internal ladder.

Definition at line 234 of file OverlapResidualsModule.h.

svdLadder_V_ext

unsigned int svdLadder_V_ext = 0

private

V external ladder.

Definition at line 300 of file OverlapResidualsModule.h.

svdLadder_V_int

unsigned int svdLadder_V_int = 0

private

V internal ladder.

Definition at line 296 of file OverlapResidualsModule.h.

svdLayer_U_ext

unsigned int svdLayer_U_ext = 0

private

U external layer.

Definition at line 237 of file OverlapResidualsModule.h.

svdLayer_U_int

unsigned int svdLayer_U_int = 0

private

U internal layer.

Definition at line 233 of file OverlapResidualsModule.h.

svdLayer_V_ext

unsigned int svdLayer_V_ext = 0

private

V external layer.

Definition at line 299 of file OverlapResidualsModule.h.

svdLayer_V_int

unsigned int svdLayer_V_int = 0

private

V internal layer.

Definition at line 295 of file OverlapResidualsModule.h.

svdRes_U_ext

float svdRes_U_ext = 0

private

U external residual computed by genfit.

Definition at line 211 of file OverlapResidualsModule.h.

svdRes_U_int

float svdRes_U_int = 0

private

U internal residual computed by genfit.

Definition at line 185 of file OverlapResidualsModule.h.

svdRes_V_ext

float svdRes_V_ext = 0

private

V external residual computed by genfit.

Definition at line 276 of file OverlapResidualsModule.h.

svdRes_V_int

float svdRes_V_int = 0

private

V internal residual computed by genfit.

Definition at line 254 of file OverlapResidualsModule.h.

svdSensor_U_ext

unsigned int svdSensor_U_ext = 0

private

U external sensor.

Definition at line 239 of file OverlapResidualsModule.h.

svdSensor_U_int

unsigned int svdSensor_U_int = 0

private

U internal sensor.

Definition at line 235 of file OverlapResidualsModule.h.

svdSensor_V_ext

unsigned int svdSensor_V_ext = 0

private

V external sensor.

Definition at line 301 of file OverlapResidualsModule.h.

svdSensor_V_int

unsigned int svdSensor_V_int = 0

private

V internal sensor.

Definition at line 297 of file OverlapResidualsModule.h.

svdSize_U_ext

unsigned int svdSize_U_ext = 0

private

U external size.

Definition at line 240 of file OverlapResidualsModule.h.

svdSize_U_int

unsigned int svdSize_U_int = 0

private

U internal size.

Definition at line 236 of file OverlapResidualsModule.h.

svdSize_V_ext

unsigned int svdSize_V_ext = 0

private

V external size.

Definition at line 302 of file OverlapResidualsModule.h.

svdSize_V_int

unsigned int svdSize_V_int = 0

private

V internal size.

Definition at line 298 of file OverlapResidualsModule.h.

svdStrip6Samples_U_ext

std::vector<float> svdStrip6Samples_U_ext

private

U external 6 samples of the strips of the cluster.

For the nth strip of a given cluster the samples are the 6 elements of indices 6*n to (6*n)+5

Definition at line 246 of file OverlapResidualsModule.h.

svdStrip6Samples_U_int

std::vector<float> svdStrip6Samples_U_int

private

U internal 6 samples of the strips of the cluster.

For the nth strip of a given cluster the samples are the 6 elements of indices 6*n to (6*n)+5

Definition at line 242 of file OverlapResidualsModule.h.

svdStrip6Samples_V_ext

std::vector<float> svdStrip6Samples_V_ext

private

V external 6 samples of the strips of the cluster.

For the nth strip of a given cluster the samples are the 6 elements of indices 6*n to (6*n)+5

Definition at line 308 of file OverlapResidualsModule.h.

svdStrip6Samples_V_int

std::vector<float> svdStrip6Samples_V_int

private

V internal 6 samples of the strips of the cluster.

For the nth strip of a given cluster the samples are the 6 elements of indices 6*n to (6*n)+5

Definition at line 304 of file OverlapResidualsModule.h.

svdStripCharge_U_ext

std::vector<float> svdStripCharge_U_ext

private

U external charge of the strips of the cluster.

Definition at line 245 of file OverlapResidualsModule.h.

svdStripCharge_U_int

std::vector<float> svdStripCharge_U_int

private

U internal charge of the strips of the cluster.

Definition at line 241 of file OverlapResidualsModule.h.

svdStripCharge_V_ext

std::vector<float> svdStripCharge_V_ext

private

V external charge of the strips of the cluster.

Definition at line 307 of file OverlapResidualsModule.h.

svdStripCharge_V_int

std::vector<float> svdStripCharge_V_int

private

V internal charge of the strips of the cluster.

Definition at line 303 of file OverlapResidualsModule.h.

svdStripPosition_U_ext

std::vector<float> svdStripPosition_U_ext

private

U external position of the strips of the cluster.

Definition at line 248 of file OverlapResidualsModule.h.

svdStripPosition_U_int

std::vector<float> svdStripPosition_U_int

private

U internal position of the strips of the cluster.

Definition at line 244 of file OverlapResidualsModule.h.

svdStripPosition_V_ext

std::vector<float> svdStripPosition_V_ext

private

V external position of the strips of the cluster.

Definition at line 310 of file OverlapResidualsModule.h.

svdStripPosition_V_int

std::vector<float> svdStripPosition_V_int

private

V internal position of the strips of the cluster.

Definition at line 306 of file OverlapResidualsModule.h.

svdStripTime_U_ext

std::vector<float> svdStripTime_U_ext

private

U external time of the strips of the cluster.

Definition at line 247 of file OverlapResidualsModule.h.

svdStripTime_U_int

std::vector<float> svdStripTime_U_int

private

U internal time of the strips of the cluster.

Definition at line 243 of file OverlapResidualsModule.h.

svdStripTime_V_ext

std::vector<float> svdStripTime_V_ext

private

V external time of the strips of the cluster.

Definition at line 309 of file OverlapResidualsModule.h.

svdStripTime_V_int

std::vector<float> svdStripTime_V_int

private

V internal time of the strips of the cluster.

Definition at line 305 of file OverlapResidualsModule.h.

svdTrkCDCHits

int svdTrkCDCHits = 0

private

number of PXD hits on the track

Definition at line 232 of file OverlapResidualsModule.h.

svdTrkd0

float svdTrkd0 = 0

private

d0 of the track

Definition at line 192 of file OverlapResidualsModule.h.

svdTrkpCM

float svdTrkpCM = 0

private

pCM of the track

Definition at line 195 of file OverlapResidualsModule.h.

svdTrkPos_U_ext

float svdTrkPos_U_ext = 0

private

U external track position.

Definition at line 219 of file OverlapResidualsModule.h.

svdTrkPos_U_int

float svdTrkPos_U_int = 0

private

U internal track position.

Definition at line 197 of file OverlapResidualsModule.h.

svdTrkPos_V_ext

float svdTrkPos_V_ext = 0

private

V external track position.

Definition at line 284 of file OverlapResidualsModule.h.

svdTrkPos_V_int

float svdTrkPos_V_int = 0

private

V internal track position.

Definition at line 262 of file OverlapResidualsModule.h.

svdTrkPosErr_U_ext

float svdTrkPosErr_U_ext = 0

private

U external track position error.

Definition at line 221 of file OverlapResidualsModule.h.

svdTrkPosErr_U_int

float svdTrkPosErr_U_int = 0

private

U internal track position error.

Definition at line 199 of file OverlapResidualsModule.h.

svdTrkPosErr_V_ext

float svdTrkPosErr_V_ext = 0

private

V external track position error.

Definition at line 286 of file OverlapResidualsModule.h.

svdTrkPosErr_V_int

float svdTrkPosErr_V_int = 0

private

V internal track position error.

Definition at line 264 of file OverlapResidualsModule.h.

svdTrkPosErrOS_U_ext

float svdTrkPosErrOS_U_ext = 0

private

U external track position error on the other side.

Definition at line 222 of file OverlapResidualsModule.h.

svdTrkPosErrOS_U_int

float svdTrkPosErrOS_U_int = 0

private

U internal track position error on the other side.

Definition at line 200 of file OverlapResidualsModule.h.

svdTrkPosErrOS_V_ext

float svdTrkPosErrOS_V_ext = 0

private

V external track position error on the other side.

Definition at line 287 of file OverlapResidualsModule.h.

svdTrkPosErrOS_V_int

float svdTrkPosErrOS_V_int = 0

private

V internal track position error on the other side.

Definition at line 265 of file OverlapResidualsModule.h.

svdTrkPosErrUnbiased_U_ext

float svdTrkPosErrUnbiased_U_ext = 0

private

U external unbiased track position error.

Definition at line 227 of file OverlapResidualsModule.h.

svdTrkPosErrUnbiased_U_int

float svdTrkPosErrUnbiased_U_int = 0

private

U internal unbiased track position error.

Definition at line 205 of file OverlapResidualsModule.h.

svdTrkPosErrUnbiased_V_ext

float svdTrkPosErrUnbiased_V_ext = 0

private

V external unbiased track position error.

Definition at line 292 of file OverlapResidualsModule.h.

svdTrkPosErrUnbiased_V_int

float svdTrkPosErrUnbiased_V_int = 0

private

V internal unbiased track position error.

Definition at line 270 of file OverlapResidualsModule.h.

svdTrkPosOS_U_ext

float svdTrkPosOS_U_ext = 0

private

U external track position on the other side.

Definition at line 220 of file OverlapResidualsModule.h.

svdTrkPosOS_U_int

float svdTrkPosOS_U_int = 0

private

U internal track position on the other side.

Definition at line 198 of file OverlapResidualsModule.h.

svdTrkPosOS_V_ext

float svdTrkPosOS_V_ext = 0

private

V external track position on the other side.

Definition at line 285 of file OverlapResidualsModule.h.

svdTrkPosOS_V_int

float svdTrkPosOS_V_int = 0

private

V internal track position on the other side.

Definition at line 263 of file OverlapResidualsModule.h.

svdTrkPosUnbiased_U_ext

float svdTrkPosUnbiased_U_ext = 0

private

U external unbiased track position.

Definition at line 226 of file OverlapResidualsModule.h.

svdTrkPosUnbiased_U_int

float svdTrkPosUnbiased_U_int = 0

private

U internal unbiased track position.

Definition at line 204 of file OverlapResidualsModule.h.

svdTrkPosUnbiased_V_ext

float svdTrkPosUnbiased_V_ext = 0

private

V external unbiased track position.

Definition at line 291 of file OverlapResidualsModule.h.

svdTrkPosUnbiased_V_int

float svdTrkPosUnbiased_V_int = 0

private

V internal unbiased track position.

Definition at line 269 of file OverlapResidualsModule.h.

svdTrkPrime_U_ext

float svdTrkPrime_U_ext = 0

private

U external tan of incident angle projected on u,w.

Definition at line 224 of file OverlapResidualsModule.h.

svdTrkPrime_U_int

float svdTrkPrime_U_int = 0

private

U internal tan of incident angle projected on u,w.

Definition at line 202 of file OverlapResidualsModule.h.

svdTrkPrime_V_ext

float svdTrkPrime_V_ext = 0

private

V external tan of incident angle projected on u,w.

Definition at line 289 of file OverlapResidualsModule.h.

svdTrkPrime_V_int

float svdTrkPrime_V_int = 0

private

V internal tan of incident angle projected on u,w.

Definition at line 267 of file OverlapResidualsModule.h.

svdTrkPrimeOS_U_ext

float svdTrkPrimeOS_U_ext = 0

private

U external tan of incident angle projected on v/u,w (other side)

Definition at line 225 of file OverlapResidualsModule.h.

svdTrkPrimeOS_U_int

float svdTrkPrimeOS_U_int = 0

private

U internal tan of incident angle projected on v/u,w (other side)

Definition at line 203 of file OverlapResidualsModule.h.

svdTrkPrimeOS_V_ext

float svdTrkPrimeOS_V_ext = 0

private

V external tan of incident angle projected on v/u,w (other side)

Definition at line 290 of file OverlapResidualsModule.h.

svdTrkPrimeOS_V_int

float svdTrkPrimeOS_V_int = 0

private

V internal tan of incident angle projected on v/u,w (other side)

Definition at line 268 of file OverlapResidualsModule.h.

svdTrkPrimeUnbiased_U_ext

float svdTrkPrimeUnbiased_U_ext = 0

private

U external unbiased tan of incident angle projected on u,w.

Definition at line 229 of file OverlapResidualsModule.h.

svdTrkPrimeUnbiased_U_int

float svdTrkPrimeUnbiased_U_int = 0

private

U internal unbiased tan of incident angle projected on u,w.

Definition at line 207 of file OverlapResidualsModule.h.

svdTrkPrimeUnbiased_V_ext

float svdTrkPrimeUnbiased_V_ext = 0

private

V external unbiased tan of incident angle projected on u,w.

Definition at line 294 of file OverlapResidualsModule.h.

svdTrkPrimeUnbiased_V_int

float svdTrkPrimeUnbiased_V_int = 0

private

V internal unbiased tan of incident angle projected on u,w.

Definition at line 272 of file OverlapResidualsModule.h.

svdTrkpT

float svdTrkpT = 0

private

pT of the track

Definition at line 194 of file OverlapResidualsModule.h.

svdTrkPXDHits

int svdTrkPXDHits = 0

private

number of PXD hits on the track

Definition at line 230 of file OverlapResidualsModule.h.

svdTrkQoP_U_ext

float svdTrkQoP_U_ext = 0

private

U external track q/p.

Definition at line 223 of file OverlapResidualsModule.h.

svdTrkQoP_U_int

float svdTrkQoP_U_int = 0

private

U internal track q/p.

Definition at line 201 of file OverlapResidualsModule.h.

svdTrkQoP_V_ext

float svdTrkQoP_V_ext = 0

private

V external track q/p.

Definition at line 288 of file OverlapResidualsModule.h.

svdTrkQoP_V_int

float svdTrkQoP_V_int = 0

private

V internal track q/p.

Definition at line 266 of file OverlapResidualsModule.h.

svdTrkQoPUnbiased_U_ext

float svdTrkQoPUnbiased_U_ext = 0

private

U external unbiased track q/p.

Definition at line 228 of file OverlapResidualsModule.h.

svdTrkQoPUnbiased_U_int

float svdTrkQoPUnbiased_U_int = 0

private

U internal unbiased track q/p.

Definition at line 206 of file OverlapResidualsModule.h.

svdTrkQoPUnbiased_V_ext

float svdTrkQoPUnbiased_V_ext = 0

private

V external unbiased track q/p.

Definition at line 293 of file OverlapResidualsModule.h.

svdTrkQoPUnbiased_V_int

float svdTrkQoPUnbiased_V_int = 0

private

V internal unbiased track q/p.

Definition at line 271 of file OverlapResidualsModule.h.

svdTrkSVDHits

int svdTrkSVDHits = 0

private

number of PXD hits on the track

Definition at line 231 of file OverlapResidualsModule.h.

svdTrkTraversedLength_U_ext

float svdTrkTraversedLength_U_ext = 0

private

U external traversed length of the track in the sensor.

Definition at line 218 of file OverlapResidualsModule.h.

svdTrkTraversedLength_U_int

float svdTrkTraversedLength_U_int = 0

private

U internal traversed length of the track in the sensor.

Definition at line 196 of file OverlapResidualsModule.h.

svdTrkTraversedLength_V_ext

float svdTrkTraversedLength_V_ext = 0

private

V external traversed length of the track in the sensor.

Definition at line 283 of file OverlapResidualsModule.h.

svdTrkTraversedLength_V_int

float svdTrkTraversedLength_V_int = 0

private

V internal traversed length of the track in the sensor.

Definition at line 261 of file OverlapResidualsModule.h.

svdTrkz0

float svdTrkz0 = 0

private

z0 of the track

Definition at line 193 of file OverlapResidualsModule.h.

svdTruePos_U_ext

float svdTruePos_U_ext = -99

private

U external true position.

Definition at line 215 of file OverlapResidualsModule.h.

svdTruePos_U_int

float svdTruePos_U_int = -99

private

U internal true position.

Definition at line 189 of file OverlapResidualsModule.h.

svdTruePos_V_ext

float svdTruePos_V_ext = -99

private

V external true position.

Definition at line 280 of file OverlapResidualsModule.h.

svdTruePos_V_int

float svdTruePos_V_int = -99

private

V internal true position.

Definition at line 258 of file OverlapResidualsModule.h.

t_PXD

TTree* t_PXD = nullptr

private

Tree containing global information on PXD overlaps.

Definition at line 155 of file OverlapResidualsModule.h.

t_SVD_U

TTree* t_SVD_U = nullptr

private

Tree containing global information on SVD u-coordinate overlaps.

Definition at line 157 of file OverlapResidualsModule.h.

t_SVD_V

TTree* t_SVD_V = nullptr

private

Tree containing global information on SVD v-coordinate overlaps.

Definition at line 159 of file OverlapResidualsModule.h.

---

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

• tracking/modules/VXDOverlaps/include/OverlapResidualsModule.h
• tracking/modules/VXDOverlaps/src/OverlapResidualsModule.cc