CpmSimMonitorAlgorithm Class Reference

#include <CpmSimMonitorAlgorithm.h>

Inheritance diagram for CpmSimMonitorAlgorithm:

Public Types
enum class	Environment_t {   user = 0 , online , tier0 , tier0Raw ,   tier0ESD , AOD , altprod }
	Specifies the processing environment. More...
enum class	DataType_t {   userDefined = 0 , monteCarlo , collisions , cosmics ,   heavyIonCollisions }
	Specifies what type of input data is being monitored. More...

Public Member Functions
	CpmSimMonitorAlgorithm (const std::string &name, ISvcLocator *pSvcLocator)
virtual	~CpmSimMonitorAlgorithm ()=default
virtual StatusCode	initialize () override
	initialize
virtual StatusCode	fillHistograms (const EventContext &ctx) const override
	adds event to the monitoring histograms
virtual StatusCode	execute (const EventContext &ctx) const override
	Applies filters and trigger requirements.
void	fill (const ToolHandle< GenericMonitoringTool > &groupHandle, std::vector< std::reference_wrapper< Monitored::IMonitoredVariable > > &&variables) const
	Fills a vector of variables to a group by reference.
void	fill (const ToolHandle< GenericMonitoringTool > &groupHandle, const std::vector< std::reference_wrapper< Monitored::IMonitoredVariable > > &variables) const
	Fills a vector of variables to a group by reference.
template<typename... T>
void	fill (const ToolHandle< GenericMonitoringTool > &groupHandle, T &&... variables) const
	Fills a variadic list of variables to a group by reference.
void	fill (const std::string &groupName, std::vector< std::reference_wrapper< Monitored::IMonitoredVariable > > &&variables) const
	Fills a vector of variables to a group by name.
void	fill (const std::string &groupName, const std::vector< std::reference_wrapper< Monitored::IMonitoredVariable > > &variables) const
	Fills a vector of variables to a group by name.
template<typename... T>
void	fill (const std::string &groupName, T &&... variables) const
	Fills a variadic list of variables to a group by name.
Environment_t	environment () const
	Accessor functions for the environment.
Environment_t	envStringToEnum (const std::string &str) const
	Convert the environment string from the python configuration to an enum object.
DataType_t	dataType () const
	Accessor functions for the data type.
DataType_t	dataTypeStringToEnum (const std::string &str) const
	Convert the data type string from the python configuration to an enum object.
const ToolHandle< GenericMonitoringTool > &	getGroup (const std::string &name) const
	Get a specific monitoring tool from the tool handle array.
const ToolHandle< Trig::TrigDecisionTool > &	getTrigDecisionTool () const
	Get the trigger decision tool member.
bool	trigChainsArePassed (const std::vector< std::string > &vTrigNames) const
	Check whether triggers are passed.
SG::ReadHandle< xAOD::EventInfo >	GetEventInfo (const EventContext &) const
	Return a ReadHandle for an EventInfo object (get run/event numbers, etc.)
virtual float	lbAverageInteractionsPerCrossing (const EventContext &ctx=Gaudi::Hive::currentContext()) const
	Calculate the average mu, i.e.
virtual float	lbInteractionsPerCrossing (const EventContext &ctx=Gaudi::Hive::currentContext()) const
	Calculate instantaneous number of interactions, i.e.
virtual float	lbAverageLuminosity (const EventContext &ctx=Gaudi::Hive::currentContext()) const
	Calculate average luminosity (in ub-1 s-1 => 10^30 cm-2 s-1).
virtual float	lbLuminosityPerBCID (const EventContext &ctx=Gaudi::Hive::currentContext()) const
	Calculate the instantaneous luminosity per bunch crossing.
virtual double	lbDuration (const EventContext &ctx=Gaudi::Hive::currentContext()) const
	Calculate the duration of the luminosity block (in seconds)
virtual float	lbAverageLivefraction (const EventContext &ctx=Gaudi::Hive::currentContext()) const
	Calculate the average luminosity livefraction.
virtual float	livefractionPerBCID (const EventContext &ctx=Gaudi::Hive::currentContext()) const
	Calculate the live fraction per bunch crossing ID.
virtual double	lbLumiWeight (const EventContext &ctx=Gaudi::Hive::currentContext()) const
	Calculate the average integrated luminosity multiplied by the live fraction.
virtual StatusCode	parseList (const std::string &line, std::vector< std::string > &result) const
	Parse a string into a vector.
virtual StatusCode	sysInitialize () override
	Override sysInitialize.
virtual bool	isClonable () const override
	Specify if the algorithm is clonable.
virtual unsigned int	cardinality () const override
	Cardinality (Maximum number of clones that can exist) special value 0 means that algorithm is reentrant.
virtual StatusCode	sysExecute (const EventContext &ctx) override
	Execute an algorithm.
virtual const DataObjIDColl &	extraOutputDeps () const override
	Return the list of extra output dependencies.
virtual bool	filterPassed (const EventContext &ctx) const
virtual void	setFilterPassed (bool state, const EventContext &ctx) const
ServiceHandle< StoreGateSvc > &	evtStore ()
	The standard StoreGateSvc (event store) Returns (kind of) a pointer to the StoreGateSvc.
const ServiceHandle< StoreGateSvc > &	detStore () const
	The standard StoreGateSvc/DetectorStore Returns (kind of) a pointer to the StoreGateSvc.
virtual StatusCode	sysStart () override
	Handle START transition.
virtual std::vector< Gaudi::DataHandle * >	inputHandles () const override
	Return this algorithm's input handles.
virtual std::vector< Gaudi::DataHandle * >	outputHandles () const override
	Return this algorithm's output handles.
Gaudi::Details::PropertyBase &	declareProperty (Gaudi::Property< T, V, H > &t)
void	updateVHKA (Gaudi::Details::PropertyBase &)
MsgStream &	msg () const
bool	msgLvl (const MSG::Level lvl) const

Public Attributes
	inputs = glob.glob('/eos/atlas/atlascerngroupdisk/data-art/build-output/master/Athena/x86_64-centos7-gcc8-opt/2020-04-06T2139/TrigP1Test/test_trigP1_v1PhysP1_T0Mon_build/ESD.pool.root')
	flags = initConfigFlags()
	Files
	HISTFileName
	cfg = MainServicesSerialCfg()
	CpmSimMonitorCfg = CpmSimMonitoringConfig(flags)
	OutputLevel
	withDetails
	False
	summariseProps
int	nevents = -1

Protected Member Functions
void	renounceArray (SG::VarHandleKeyArray &handlesArray)
	remove all handles from I/O resolution
std::enable_if_t< std::is_void_v< std::result_of_t< decltype(&T::renounce)(T)> > &&!std::is_base_of_v< SG::VarHandleKeyArray, T > &&std::is_base_of_v< Gaudi::DataHandle, T >, void >	renounce (T &h)
void	extraDeps_update_handler (Gaudi::Details::PropertyBase &ExtraDeps)
	Add StoreName to extra input/output deps as needed.

Protected Attributes
ToolHandleArray< GenericMonitoringTool >	m_tools {this,"GMTools",{}}
	Array of Generic Monitoring Tools.
PublicToolHandle< Trig::TrigDecisionTool >	m_trigDecTool
	Tool to tell whether a specific trigger is passed.
ToolHandleArray< IDQFilterTool >	m_DQFilterTools {this,"FilterTools",{}}
	Array of Data Quality filter tools.
SG::ReadCondHandleKey< LuminosityCondData >	m_lumiDataKey {this,"LuminosityCondDataKey","LuminosityCondData","SG Key of LuminosityCondData object"}
SG::ReadCondHandleKey< LBDurationCondData >	m_lbDurationDataKey {this,"LBDurationCondDataKey","LBDurationCondData","SG Key of LBDurationCondData object"}
SG::ReadCondHandleKey< TrigLiveFractionCondData >	m_trigLiveFractionDataKey {this,"TrigLiveFractionCondDataKey","TrigLiveFractionCondData", "SG Key of TrigLiveFractionCondData object"}
AthMonitorAlgorithm::Environment_t	m_environment
	Instance of the Environment_t enum.
AthMonitorAlgorithm::DataType_t	m_dataType
	Instance of the DataType_t enum.
Gaudi::Property< std::string >	m_environmentStr {this,"Environment","user"}
	Environment string pulled from the job option and converted to enum.
Gaudi::Property< std::string >	m_dataTypeStr {this,"DataType","userDefined"}
	DataType string pulled from the job option and converted to enum.
Gaudi::Property< std::string >	m_triggerChainString {this,"TriggerChain",""}
	Trigger chain string pulled from the job option and parsed into a vector.
std::vector< std::string >	m_vTrigChainNames
	Vector of trigger chain names parsed from trigger chain string.
Gaudi::Property< std::string >	m_fileKey {this,"FileKey",""}
	Internal Athena name for file.
Gaudi::Property< bool >	m_useLumi {this,"EnableLumi",false}
	Allows use of various luminosity functions.
Gaudi::Property< float >	m_defaultLBDuration {this,"DefaultLBDuration",60.}
	Default duration of one lumi block.
Gaudi::Property< int >	m_detailLevel {this,"DetailLevel",0}
	Sets the level of detail used in the monitoring.
SG::ReadHandleKey< xAOD::EventInfo >	m_EventInfoKey {this,"EventInfoKey","EventInfo"}
	Key for retrieving EventInfo from StoreGate.

Private Types
enum	SummaryErrors {   EMTowerMismatch , HadTowerMismatch , EMRoIMismatch , TauRoIMismatch ,   LeftCMXTobMismatch , RightCMXTobMismatch , LocalSumMismatch , RemoteSumMismatch ,   TotalSumMismatch , TopoMismatch , NumberOfSummaryBins }
typedef std::vector< int >	ErrorVector
typedef std::map< int, const xAOD::TriggerTower * >	TriggerTowerMapEm
typedef std::map< int, const xAOD::TriggerTower * >	TriggerTowerMapHad
typedef xAOD::CPMTowerMap_t	CpmTowerMap
typedef std::map< int, const xAOD::CMXCPTob * >	CmxCpTobMap
typedef std::map< int, const xAOD::CMXCPHits * >	CmxCpHitsMap
typedef xAOD::CPMTobRoIMap_t	CpmTobRoiMap
typedef std::vector< std::reference_wrapper< Monitored::IMonitoredVariable > >	MonVarVec_t
typedef ServiceHandle< StoreGateSvc >	StoreGateSvc_t

Private Member Functions
const TrigConf::L1Menu *	getL1Menu (const EventContext &ctx) const
StatusCode	setupMap (const xAOD::TriggerTowerContainer *coll, TriggerTowerMapEm &emmap, TriggerTowerMapHad &hadmap) const
StatusCode	setupMap (const xAOD::CPMTowerContainer *coll, CpmTowerMap &map) const
StatusCode	setupMap (const xAOD::CPMTobRoIContainer *coll, CpmTobRoiMap &map) const
StatusCode	setupMap (const xAOD::CMXCPTobContainer *coll, CmxCpTobMap &map, std::vector< int > *parityMap=0) const
StatusCode	setupMap (const xAOD::CMXCPHitsContainer *coll, CmxCpHitsMap &map) const
bool	compareEm (const TriggerTowerMapEm &ttMap, const CpmTowerMap &cpMap, ErrorVector &errors, bool overlap) const
bool	compareHad (const TriggerTowerMapHad &ttMap, const CpmTowerMap &cpMap, ErrorVector &errors, bool overlap) const
void	compare (const CpmTobRoiMap &roiSimMap, const CpmTobRoiMap &roiMap, ErrorVector &errors, const xAOD::RODHeaderContainer *rodTES) const
void	compare (const CmxCpTobMap &simMap, const CmxCpTobMap &datMap, const std::vector< int > &parityMap, ErrorVector &errorsCPM, ErrorVector &errorsCMX, const xAOD::RODHeaderContainer *rodTES) const
void	compare (const CmxCpHitsMap &cmxSimMap, const CmxCpHitsMap &cmxMap, ErrorVector &errors, int selection) const
void	simulate (const CpmTowerMap *towers, const CpmTowerMap *towersOv, xAOD::CPMTobRoIContainer *rois, const EventContext &ctx) const
void	simulate (const CpmTowerMap *towers, xAOD::CPMTobRoIContainer *rois, const EventContext &ctx) const
void	simulate (const xAOD::CPMTobRoIContainer *rois, xAOD::CMXCPTobContainer *tobs) const
void	simulate (const xAOD::CMXCPTobContainer *tobs, xAOD::CMXCPHitsContainer *hits, int selection, const EventContext &ctx) const
void	simulate (const xAOD::CMXCPHitsContainer *hitsIn, xAOD::CMXCPHitsContainer *hitsOut) const
int	fpga (int crate, double phi) const
CpmTowerMap::mapped_type	ttCheck (CpmTowerMap::mapped_type tt, xAOD::CPMTowerContainer *coll) const
bool	limitedRoiSet (int crate, SG::ReadHandle< xAOD::RODHeaderContainer > &rodTES) const
bool	limitedRoiSet (int crate, const xAOD::RODHeaderContainer *rodTES) const
int	thresholdsSame (int val1, int val2, int nThresh, int nBits) const
int	thresholdsDiff (int val1, int val2, int nThresh, int nBits) const
void	fillXVsThresholds (Monitored::Scalar< int > &xitem, Monitored::Scalar< int > &yitem, Monitored::Scalar< int > &witem, int x, int val, int nThresh, int nBits, int offset=0) const
Gaudi::Details::PropertyBase &	declareGaudiProperty (Gaudi::Property< T, V, H > &hndl, const SG::VarHandleKeyType &)
	specialization for handling Gaudi::Property<SG::VarHandleKey>

Private Attributes
ServiceHandle< TrigConf::ITrigConfigSvc >	m_configSvc {this, "TrigConfigSvc", "TrigConf::xAODConfigSvc/xAODConfigSvc"}
StringProperty	m_packageName {this,"PackageName","CpmSimMonitor","group name for histograming"}
SG::WriteHandleKey< std::vector< int > >	m_errorLocation {this,"ErrorLocation","L1CaloCPMMismatchVector","ErrorVector"}
Gaudi::Property< int >	m_crates {this,"s_crates", 4, "Number of CPM crates"}
Gaudi::Property< int >	m_modules {this,"s_modules", 14, "Number of modules per crate (modules numbered 1-14)"}
Gaudi::Property< int >	m_maxSlices {this,"s_maxSlices", 5, "Maximum number of slices"}
Gaudi::Property< int >	m_cmxs {this,"s_cmxs", 2, "Number of CMXs"}
Gaudi::Property< bool >	m_legacyCpHadInputsDisabled {this,"s_legacyCpHadInputsDisabled", false, "Status of the L1Calo Legacy CP hadronic inputs"}
bool	m_overlapPresent
SG::ReadHandleKey< xAOD::TriggerTowerContainer >	m_triggerTowerLocation {this, "BS_xAODTriggerTowerContainer",LVL1::TrigT1CaloDefs::xAODTriggerTowerLocation,"TriggerTower Location"}
SG::ReadHandleKey< xAOD::CPMTowerContainer >	m_cpmTowerLocation {this, "CPMTowerLocation", LVL1::TrigT1CaloDefs::CPMTowerLocation, "CPM container"}
SG::ReadHandleKey< xAOD::CPMTowerContainer >	m_cpmTowerLocationOverlap {this, "CPMTowerLocationOverlap",LVL1::TrigT1CaloDefs::CPMTowerLocation + "Overlap", "CPM Overlap container"}
SG::ReadHandleKey< xAOD::CPMTobRoIContainer >	m_cpmTobRoiLocation {this, "CPMTobRoILocation", LVL1::TrigT1CaloDefs::CPMTobRoILocation, "CPM RoI container"}
SG::ReadHandleKey< xAOD::CMXCPTobContainer >	m_cmxCpTobLocation {this, "CMXCPTobLocation", LVL1::TrigT1CaloDefs::CMXCPTobLocation, "CMX CP Tob container"}
SG::ReadHandleKey< xAOD::CMXCPHitsContainer >	m_cmxCpHitsLocation {this, "CMXCPHitsLocation", LVL1::TrigT1CaloDefs::CMXCPHitsLocation, "CMX CP Hits container"}
SG::ReadHandleKey< xAOD::RODHeaderContainer >	m_rodHeaderLocation {this, "RodHeaderLocation", LVL1::TrigT1CaloDefs::RODHeaderLocation, "Rod header container"}
SG::ReadHandleKey< TrigConf::L1Menu >	m_L1MenuKey { this, "L1TriggerMenu", "DetectorStore+L1TriggerMenu", "L1 Menu" }
ToolHandle< LVL1::IL1CPCMXTools >	m_cpCmxTool
ToolHandle< LVL1::IL1CPMTools >	m_cpmTool
ToolHandle< LVL1::ITrigT1CaloMonErrorTool >	m_errorTool
std::mutex	m_mutex {}
std::map< uint32_t, int > m_errorLB_tt_counter	ATLAS_THREAD_SAFE
std::map< uint32_t, int > m_errorLB_roi_counter	ATLAS_THREAD_SAFE
std::map< uint32_t, int > m_errorLB_tob_counter	ATLAS_THREAD_SAFE
std::map< uint32_t, int > m_errorLB_thresh_counter	ATLAS_THREAD_SAFE
std::string	m_name
std::unordered_map< std::string, size_t >	m_toolLookupMap
const ToolHandle< GenericMonitoringTool >	m_dummy
Gaudi::Property< bool >	m_enforceExpressTriggers
DataObjIDColl	m_extendedExtraObjects
	Extra output dependency collection, extended by AthAlgorithmDHUpdate to add symlinks.
StoreGateSvc_t	m_evtStore
	Pointer to StoreGate (event store by default)
StoreGateSvc_t	m_detStore
	Pointer to StoreGate (detector store by default)
std::vector< SG::VarHandleKeyArray * >	m_vhka
bool	m_varHandleArraysDeclared

Detailed Description

Definition at line 40 of file CpmSimMonitorAlgorithm.h.

Member Typedef Documentation

CmxCpHitsMap

typedef std::map<int, const xAOD::CMXCPHits*> CpmSimMonitorAlgorithm::CmxCpHitsMap

private

Definition at line 99 of file CpmSimMonitorAlgorithm.h.

CmxCpTobMap

typedef std::map<int, const xAOD::CMXCPTob*> CpmSimMonitorAlgorithm::CmxCpTobMap

private

Definition at line 98 of file CpmSimMonitorAlgorithm.h.

CpmTobRoiMap

typedef xAOD::CPMTobRoIMap_t CpmSimMonitorAlgorithm::CpmTobRoiMap

private

Definition at line 100 of file CpmSimMonitorAlgorithm.h.

CpmTowerMap

typedef xAOD::CPMTowerMap_t CpmSimMonitorAlgorithm::CpmTowerMap

private

Definition at line 97 of file CpmSimMonitorAlgorithm.h.

ErrorVector

typedef std::vector<int> CpmSimMonitorAlgorithm::ErrorVector

private

Definition at line 73 of file CpmSimMonitorAlgorithm.h.

MonVarVec_t

typedef std::vector<std::reference_wrapper<Monitored::IMonitoredVariable> > AthMonitorAlgorithm::MonVarVec_t

privateinherited

Definition at line 370 of file AthMonitorAlgorithm.h.

StoreGateSvc_t

typedef ServiceHandle<StoreGateSvc> AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::StoreGateSvc_t

privateinherited

Definition at line 388 of file AthCommonDataStore.h.

TriggerTowerMapEm

typedef std::map<int, const xAOD::TriggerTower*> CpmSimMonitorAlgorithm::TriggerTowerMapEm

private

Definition at line 95 of file CpmSimMonitorAlgorithm.h.

TriggerTowerMapHad

typedef std::map<int, const xAOD::TriggerTower*> CpmSimMonitorAlgorithm::TriggerTowerMapHad

private

Definition at line 96 of file CpmSimMonitorAlgorithm.h.

Member Enumeration Documentation

DataType_t

enum class AthMonitorAlgorithm::DataType_t

stronginherited

Specifies what type of input data is being monitored.

An enumeration of the different types of data the monitoring application may be running over. This can be used to select which histograms to produce, e.g. to prevent the production of colliding-beam histograms when running on cosmic-ray data. Strings of the same names may be given as jobOptions.

Enumerator
userDefined
monteCarlo
collisions
cosmics
heavyIonCollisions

Definition at line 194 of file AthMonitorAlgorithm.h.

                          {
        userDefined = 0, 
        monteCarlo, 
        collisions, 
        cosmics, 
        heavyIonCollisions, 
    };

Environment_t

enum class AthMonitorAlgorithm::Environment_t

stronginherited

Specifies the processing environment.

The running environment may be used to select which histograms are produced, and where they are located in the output. For example, the output paths of the histograms are different for the "user", "online" and the various offline flags. Strings of the same names may be given as jobOptions.

Enumerator
user
online
tier0
tier0Raw
tier0ESD
AOD
altprod

Definition at line 175 of file AthMonitorAlgorithm.h.

                             {
        user = 0, 
        online, 
        tier0, 
        tier0Raw, 
        tier0ESD, 
        AOD, 
        altprod, 
    };

SummaryErrors

enum CpmSimMonitorAlgorithm::SummaryErrors

private

Enumerator
EMTowerMismatch
HadTowerMismatch
EMRoIMismatch
TauRoIMismatch
LeftCMXTobMismatch
RightCMXTobMismatch
LocalSumMismatch
RemoteSumMismatch
TotalSumMismatch
TopoMismatch
NumberOfSummaryBins

Definition at line 68 of file CpmSimMonitorAlgorithm.h.

                     { EMTowerMismatch, HadTowerMismatch, EMRoIMismatch,
               TauRoIMismatch, LeftCMXTobMismatch, RightCMXTobMismatch,
                       LocalSumMismatch, RemoteSumMismatch, TotalSumMismatch,
               TopoMismatch, NumberOfSummaryBins };

Constructor & Destructor Documentation

CpmSimMonitorAlgorithm()

CpmSimMonitorAlgorithm::CpmSimMonitorAlgorithm	(	const std::string &	name,
		ISvcLocator *	pSvcLocator )

Definition at line 9 of file CpmSimMonitorAlgorithm.cxx.

  : AthMonitorAlgorithm(name,pSvcLocator),
    m_overlapPresent(true), //fill histograms is a const - this variable is read only anyhow
    m_cpCmxTool("LVL1::L1CPCMXTools/L1CPCMXTools"),
    m_cpmTool("LVL1::L1CPMTools/L1CPMTools"),
    m_errorTool("LVL1::TrigT1CaloMonErrorTool/TrigT1CaloMonErrorTool")
{
}

~CpmSimMonitorAlgorithm()

virtual CpmSimMonitorAlgorithm::~CpmSimMonitorAlgorithm ( )

virtualdefault

Member Function Documentation

cardinality()

unsigned int AthCommonReentrantAlgorithm< Gaudi::Algorithm >::cardinality ( ) const

overridevirtualinherited

Cardinality (Maximum number of clones that can exist) special value 0 means that algorithm is reentrant.

Override this to return 0 for reentrant algorithms.

Definition at line 75 of file AthCommonReentrantAlgorithm.cxx.

{
  return 0;
}

compare() [1/3]

void CpmSimMonitorAlgorithm::compare ( const CmxCpHitsMap & cmxSimMap, const CmxCpHitsMap & cmxMap, ErrorVector & errors, int selection ) const

private

Definition at line 1391 of file CpmSimMonitorAlgorithm.cxx.

                                            {
 
  ATH_MSG_DEBUG("Compare Simulated CMX Hit Sums and Data CMX Hit Sums");
 
  const bool local = (selection == xAOD::CMXCPHits::LOCAL);
  const bool remote = (selection == xAOD::CMXCPHits::REMOTE_0);
  const bool total = (selection == xAOD::CMXCPHits::TOTAL);
  const bool topo = (selection == xAOD::CMXCPHits::TOPO_CHECKSUM);
 
  if (!local && !remote && !total /* && !topo*/)
    return;
 
  Monitored::Scalar<int> cmx_sum_loc_SimEqData = Monitored::Scalar<int>("cmx_sum_loc_SimEqData", 0);
  Monitored::Scalar<int> cmx_sum_loc_SimNeData = Monitored::Scalar<int>("cmx_sum_loc_SimNeData", 0);
  Monitored::Scalar<int> cmx_sum_loc_SimNoData = Monitored::Scalar<int>("cmx_sum_loc_SimNoData", 0);
  Monitored::Scalar<int> cmx_sum_loc_DataNoSim = Monitored::Scalar<int>("cmx_sum_loc_DataNoSim", 0);
 
  //
  Monitored::Scalar<int> cmxTopoLocXSimEqData = Monitored::Scalar<int>("cmxTopoLocXSimEqData", 0);
  Monitored::Scalar<int> cmxTopoLocYSimEqData = Monitored::Scalar<int>("cmxTopoLocYSimEqData", 0);
  Monitored::Scalar<int> cmxTopoLocXSimNeData = Monitored::Scalar<int>("cmxTopoLocXSimNeData", 0);
  Monitored::Scalar<int> cmxTopoLocYSimNeData = Monitored::Scalar<int>("cmxTopoLocYSimNeData", 0);
  Monitored::Scalar<int> cmxTopoLocXSimNoData = Monitored::Scalar<int>("cmxTopoLocXSimNoData", 0);
  Monitored::Scalar<int> cmxTopoLocYSimNoData = Monitored::Scalar<int>("cmxTopoLocYSimNoData", 0);
  Monitored::Scalar<int> cmxTopoLocXDataNoSim = Monitored::Scalar<int>("cmxTopoLocXDataNoSim", 0);
  Monitored::Scalar<int> cmxTopoLocYDataNoSim = Monitored::Scalar<int>("cmxTopoLocYDataNoSim", 0);
 
  // 
  Monitored::Scalar<int> cmx_x_leftsums_SimEqData = Monitored::Scalar<int>("cmx_x_leftsums_SimEqData", 0);
  Monitored::Scalar<int> cmx_y_leftsums_SimEqData = Monitored::Scalar<int>("cmx_y_leftsums_SimEqData", 0);
  Monitored::Scalar<int> cmx_w_leftsums_SimEqData = Monitored::Scalar<int>("cmx_w_leftsums_SimEqData", 0);
  Monitored::Scalar<int> cmx_x_rightsums_SimEqData = Monitored::Scalar<int>("cmx_x_rightsums_SimEqData", 0);
  Monitored::Scalar<int> cmx_y_rightsums_SimEqData = Monitored::Scalar<int>("cmx_y_rightsums_SimEqData", 0);
  Monitored::Scalar<int> cmx_w_rightsums_SimEqData = Monitored::Scalar<int>("cmx_w_rightsums_SimEqData", 0);
 
  Monitored::Scalar<int> cmx_x_leftsums_SimNeData = Monitored::Scalar<int>("cmx_x_leftsums_SimNeData", 0);
  Monitored::Scalar<int> cmx_y_leftsums_SimNeData = Monitored::Scalar<int>("cmx_y_leftsums_SimNeData", 0);
  Monitored::Scalar<int> cmx_w_leftsums_SimNeData = Monitored::Scalar<int>("cmx_w_leftsums_SimNeData", 0);
  Monitored::Scalar<int> cmx_x_rightsums_SimNeData = Monitored::Scalar<int>("cmx_x_rightsums_SimNeData", 0);
  Monitored::Scalar<int> cmx_y_rightsums_SimNeData = Monitored::Scalar<int>("cmx_y_rightsums_SimNeData", 0);
  Monitored::Scalar<int> cmx_w_rightsums_SimNeData = Monitored::Scalar<int>("cmx_w_rightsums_SimNeData", 0);
 
 
  std::vector<unsigned int> hits0Sim(m_crates * m_cmxs);
  std::vector<unsigned int> hits1Sim(m_crates * m_cmxs);
  std::vector<unsigned int> hits0(m_crates * m_cmxs);
  std::vector<unsigned int> hits1(m_crates * m_cmxs);
  CmxCpHitsMap::const_iterator cmxSimMapIter = cmxSimMap.begin();
  CmxCpHitsMap::const_iterator cmxSimMapIterEnd = cmxSimMap.end();
  CmxCpHitsMap::const_iterator cmxMapIter = cmxMap.begin();
  CmxCpHitsMap::const_iterator cmxMapIterEnd = cmxMap.end();
 
  while (cmxSimMapIter != cmxSimMapIterEnd || cmxMapIter != cmxMapIterEnd) {
 
    int cmxSimKey = 0;
    int cmxKey = 0;
    unsigned int cmxSimHits0 = 0;
    unsigned int cmxSimHits1 = 0;
    unsigned int cmxHits0 = 0;
    unsigned int cmxHits1 = 0;
    int crate = 0;
    int cmx = 0;
    int source = 0;
 
    if (cmxSimMapIter != cmxSimMapIterEnd)
      cmxSimKey = cmxSimMapIter->first;
    if (cmxMapIter != cmxMapIterEnd)
      cmxKey = cmxMapIter->first;
 
    if ((cmxMapIter == cmxMapIterEnd) ||
        ((cmxSimMapIter != cmxSimMapIterEnd) && (cmxKey > cmxSimKey))) {
 
      // Sim CMX Hits but no Data CMX Hits
 
      const xAOD::CMXCPHits *cmxS = cmxSimMapIter->second;
      ++cmxSimMapIter;
      source = cmxS->sourceComponent();
      if (local && source != xAOD::CMXCPHits::LOCAL)
        continue;
      if (remote && source != xAOD::CMXCPHits::LOCAL)
        continue;
      if (total && source != xAOD::CMXCPHits::TOTAL)
        continue;
      //coverity[dead_error_line]
      if (topo && source != xAOD::CMXCPHits::TOPO_CHECKSUM &&
          source != xAOD::CMXCPHits::TOPO_OCCUPANCY_MAP &&
          source != xAOD::CMXCPHits::TOPO_OCCUPANCY_COUNTS)
        continue;
      cmxSimHits0 = cmxS->hits0();
      cmxSimHits1 = cmxS->hits1();
      crate = cmxS->crate();
      cmx = cmxS->cmx();
 
    } else if ((cmxSimMapIter == cmxSimMapIterEnd) ||
               ((cmxMapIter != cmxMapIterEnd) && (cmxSimKey > cmxKey))) {
 
      // Data CMX Hits but no Sim CMX Hits
 
      const xAOD::CMXCPHits *cmxD = cmxMapIter->second;
      ++cmxMapIter;
      source = cmxD->sourceComponent();
      if (local && source != xAOD::CMXCPHits::LOCAL)
        continue;
      if (remote && source != xAOD::CMXCPHits::REMOTE_0 &&
          source != xAOD::CMXCPHits::REMOTE_1 &&
          source != xAOD::CMXCPHits::REMOTE_2)
        continue;
      if (total && source != xAOD::CMXCPHits::TOTAL)
        continue;
      //coverity[dead_error_line]
      if (topo && source != xAOD::CMXCPHits::TOPO_CHECKSUM &&
          source != xAOD::CMXCPHits::TOPO_OCCUPANCY_MAP &&
          source != xAOD::CMXCPHits::TOPO_OCCUPANCY_COUNTS)
        continue;
      cmxHits0 = cmxD->hits0();
      cmxHits1 = cmxD->hits1();
      crate = cmxD->crate();
      cmx = cmxD->cmx();
 
    } else {
 
      // Have both
 
      const xAOD::CMXCPHits *cmxS = cmxSimMapIter->second;
      const xAOD::CMXCPHits *cmxD = cmxMapIter->second;
      ++cmxSimMapIter;
      ++cmxMapIter;
      source = cmxS->sourceComponent();
      if (local && source != xAOD::CMXCPHits::LOCAL)
        continue;
      if (remote && source != xAOD::CMXCPHits::LOCAL &&
          source != xAOD::CMXCPHits::REMOTE_0 &&
          source != xAOD::CMXCPHits::REMOTE_1 &&
          source != xAOD::CMXCPHits::REMOTE_2)
        continue;
      if (total && source != xAOD::CMXCPHits::TOTAL)
        continue;
      //coverity[dead_error_line]
      if (topo && source != xAOD::CMXCPHits::TOPO_CHECKSUM &&
          source != xAOD::CMXCPHits::TOPO_OCCUPANCY_MAP &&
          source != xAOD::CMXCPHits::TOPO_OCCUPANCY_COUNTS)
        continue;
      cmxSimHits0 = cmxS->hits0();
      cmxSimHits1 = cmxS->hits1();
      cmxHits0 = cmxD->hits0();
      cmxHits1 = cmxD->hits1();
      crate = cmxS->crate();
      cmx = cmxS->cmx();
    }
 
    if (!cmxSimHits0 && !cmxSimHits1 && !cmxHits0 && !cmxHits1)
      continue;
 
    //  Fill in error plots
 
    if (local || total) {
      int loc = crate * m_cmxs + cmx;
      const int cmxBins = m_crates * m_cmxs;
      const int bit =
          (local) ? (1 << LocalSumMismatch) : (1 << TotalSumMismatch);
      // loc for the histogram filling
      int loc_fill = (local) ? loc : 14 + cmx;
      if (cmxSimHits0 == cmxHits0 && cmxSimHits1 == cmxHits1) {
        errors[loc] |= bit;
    cmx_sum_loc_SimEqData=loc_fill;
    fill(m_packageName,cmx_sum_loc_SimEqData);    
      } else {
        errors[loc + cmxBins] |= bit; 
        if ((cmxSimHits0 || cmxSimHits1) && (cmxHits0 || cmxHits1)) {
      cmx_sum_loc_SimNeData=loc_fill;
      fill(m_packageName,cmx_sum_loc_SimNeData);      
        } else if (!cmxHits0 && !cmxHits1) {
      cmx_sum_loc_SimNoData=loc_fill;
      fill(m_packageName,cmx_sum_loc_SimNoData);      
        } else {
      cmx_sum_loc_DataNoSim=loc_fill;
      fill(m_packageName,cmx_sum_loc_SimEqData);          
    }
      }
      // the loc used for filling histograms
      loc = (local) ? loc : 14 + cmx;
      // now divide it by 2
      loc /= 2;
      const int nThresh = 8;
      const int thrLen = 3;
      int same0 = thresholdsSame(cmxHits0, cmxSimHits0, nThresh, thrLen);
      int diff0 = thresholdsDiff(cmxHits0, cmxSimHits0, nThresh, thrLen);
      int same1 = thresholdsSame(cmxHits1, cmxSimHits1, nThresh, thrLen);
      int diff1 = thresholdsDiff(cmxHits1, cmxSimHits1, nThresh, thrLen);
      if (cmx) {
      fillXVsThresholds(cmx_x_rightsums_SimEqData,cmx_y_rightsums_SimEqData,cmx_w_rightsums_SimEqData,
                loc, same0, nThresh, 1);
      fillXVsThresholds(cmx_x_rightsums_SimNeData,cmx_y_rightsums_SimNeData,cmx_w_rightsums_SimNeData,
                loc, diff0, nThresh, 1);
      const int offset = nThresh;
      fillXVsThresholds(cmx_x_rightsums_SimEqData,cmx_y_rightsums_SimEqData,cmx_w_rightsums_SimEqData,
                loc, same1, nThresh, 1, offset);
      fillXVsThresholds(cmx_x_rightsums_SimNeData,cmx_y_rightsums_SimNeData,cmx_w_rightsums_SimNeData,
                loc, diff1, nThresh, 1, offset);
      } else {
      fillXVsThresholds(cmx_x_leftsums_SimEqData,cmx_y_leftsums_SimEqData,cmx_w_leftsums_SimEqData,
                loc, same0, nThresh, 1);
      fillXVsThresholds(cmx_x_leftsums_SimNeData,cmx_y_leftsums_SimNeData,cmx_w_leftsums_SimNeData,
                loc, diff0, nThresh, 1);
      const int offset = nThresh;
      fillXVsThresholds(cmx_x_leftsums_SimEqData,cmx_y_leftsums_SimEqData,cmx_w_leftsums_SimEqData,
                loc, same1, nThresh, 1, offset);
      fillXVsThresholds(cmx_x_leftsums_SimNeData,cmx_y_leftsums_SimNeData,cmx_w_leftsums_SimNeData,
                loc, diff1, nThresh, 1, offset);
      }
    //coverity[dead_error_line]
    } else if (remote) {
      if (source == xAOD::CMXCPHits::LOCAL) {
        if (crate != m_crates - 1) {
          hits0Sim[crate * m_cmxs + cmx] = cmxSimHits0;
          hits1Sim[crate * m_cmxs + cmx] = cmxSimHits1;
        }
      } else {
        const int remCrate = source - xAOD::CMXCPHits::REMOTE_0;
        hits0[remCrate * m_cmxs + cmx] = cmxHits0;
        hits1[remCrate * m_cmxs + cmx] = cmxHits1;
      }
    } else {
      //coverity[dead_error_begin]
      const int locX = crate * m_cmxs + cmx;
      const int locY = source - xAOD::CMXCPHits::TOPO_CHECKSUM;
      const int cmxBins = m_crates * m_cmxs;
      const int bit = (1 << TopoMismatch);
      if (cmxSimHits0 == cmxHits0 && cmxSimHits1 == cmxHits1) {
        errors[locX] |= bit;
    cmxTopoLocXSimEqData=locX;
    cmxTopoLocYSimEqData=locY;
    fill(m_packageName,cmxTopoLocXSimEqData,cmxTopoLocYSimEqData);
      } else {
        errors[locX + cmxBins] |= bit;
        if ((cmxSimHits0 || cmxSimHits1) && (cmxHits0 || cmxHits1)) {
      cmxTopoLocXSimNeData=locX;
      cmxTopoLocYSimNeData=locY;
      fill(m_packageName,cmxTopoLocXSimNeData,cmxTopoLocYSimNeData);
        } else if (!cmxHits0 && !cmxHits1) {
      cmxTopoLocXSimNoData=locX;
      cmxTopoLocYSimNoData=locY;
      fill(m_packageName,cmxTopoLocXSimNoData,cmxTopoLocYSimNoData);
        } else {
      cmxTopoLocXDataNoSim=locX;
      cmxTopoLocYDataNoSim=locY;
      fill(m_packageName,cmxTopoLocXDataNoSim,cmxTopoLocYDataNoSim);
    }
      }
    }
  }
  if (remote) {
    for (int crate = 0; crate < m_crates - 1; ++crate) {
      for (int cmx = 0; cmx < m_cmxs; ++cmx) {
        int loc = crate * m_cmxs + cmx;
        const int cmxBins = m_crates * m_cmxs;
        const int bit = (1 << RemoteSumMismatch);
        const unsigned int hd0 = hits0[loc];
        const unsigned int hd1 = hits1[loc];
        const unsigned int hs0 = hits0Sim[loc];
        const unsigned int hs1 = hits1Sim[loc];
 
        if (!hd0 && !hd1 && !hs0 && !hs1)
          continue;
 
    int loc_fill = loc + 8;
        if (hs0 == hd0 && hs1 == hd1) {
          errors[loc] |= bit;
      cmx_sum_loc_SimEqData=loc_fill;
      fill(m_packageName,cmx_sum_loc_SimEqData);      
        } else {
          errors[loc + cmxBins] |= bit;     
          if ((hs0 || hs1) && (hd0 || hd1)) {
        cmx_sum_loc_SimNeData=loc_fill;
        fill(m_packageName,cmx_sum_loc_SimNeData);    
          } else if (!hd0 && !hd1) {
        cmx_sum_loc_SimNoData=loc_fill;
        fill(m_packageName,cmx_sum_loc_SimNoData);    
          } else {
        cmx_sum_loc_DataNoSim=loc_fill;
        fill(m_packageName,cmx_sum_loc_DataNoSim);    
      }
        }
    // this is the loc used for filling
        loc = loc_fill;
    // and to be used for the rest of the filling
        loc /= 2;
        const int nThresh = 8;
        const int thrLen = 3;
        int same0 = thresholdsSame(hd0, hs0, nThresh, thrLen);
        int diff0 =  thresholdsDiff(hd0, hs0, nThresh, thrLen);
        int same1 = thresholdsSame(hd1, hs1, nThresh, thrLen);
        int diff1 = thresholdsDiff(hd1, hs1, nThresh, thrLen);
    if (cmx) {
      fillXVsThresholds(cmx_x_rightsums_SimEqData,cmx_y_rightsums_SimEqData,cmx_w_rightsums_SimEqData,
                loc, same0, nThresh, 1);
      fillXVsThresholds(cmx_x_rightsums_SimNeData,cmx_y_rightsums_SimNeData,cmx_w_rightsums_SimNeData,
                loc, diff0, nThresh, 1);
      const int offset = nThresh;
      fillXVsThresholds(cmx_x_rightsums_SimEqData,cmx_y_rightsums_SimEqData,cmx_w_rightsums_SimEqData,
                loc, same1, nThresh, 1, offset);
      fillXVsThresholds(cmx_x_rightsums_SimNeData,cmx_y_rightsums_SimNeData,cmx_w_rightsums_SimNeData,
                loc, diff1, nThresh, 1, offset);
    } else {
      fillXVsThresholds(cmx_x_leftsums_SimEqData,cmx_y_leftsums_SimEqData,cmx_w_leftsums_SimEqData,
                loc, same0, nThresh, 1);
      fillXVsThresholds(cmx_x_leftsums_SimNeData,cmx_y_leftsums_SimNeData,cmx_w_leftsums_SimNeData,
                loc, diff0, nThresh, 1);
      const int offset = nThresh;
      fillXVsThresholds(cmx_x_leftsums_SimEqData,cmx_y_leftsums_SimEqData,cmx_w_leftsums_SimEqData,
                loc, same1, nThresh, 1, offset);
      fillXVsThresholds(cmx_x_leftsums_SimNeData,cmx_y_leftsums_SimNeData,cmx_w_leftsums_SimNeData,
                loc, diff1, nThresh, 1, offset);
    }
      }
    }
  }
}

compare() [2/3]

void CpmSimMonitorAlgorithm::compare ( const CmxCpTobMap & simMap, const CmxCpTobMap & datMap, const std::vector< int > & parityMap, ErrorVector & errorsCPM, ErrorVector & errorsCMX, const xAOD::RODHeaderContainer * rodTES ) const

private

Definition at line 1090 of file CpmSimMonitorAlgorithm.cxx.

                                                                 {
 
  ATH_MSG_DEBUG("Compare simulated CMX TOBs with data");
 
  //
  Monitored::Scalar<int> cmxLeftEnerSimEqDataLocX = Monitored::Scalar<int>("cmxLeftEnerSimEqDataLocX", 0);
  Monitored::Scalar<int> cmxLeftEnerSimEqDataLocY = Monitored::Scalar<int>("cmxLeftEnerSimEqDataLocY", 0);
  Monitored::Scalar<int> cmxRightEnerSimEqDataLocX = Monitored::Scalar<int>("cmxRightEnerSimEqDataLocX", 0);
  Monitored::Scalar<int> cmxRightEnerSimEqDataLocY = Monitored::Scalar<int>("cmxRightEnerSimEqDataLocY", 0);
 
  Monitored::Scalar<int> cmxLeftEnerSimNeDataLocX = Monitored::Scalar<int>("cmxLeftEnerSimNeDataLocX", 0);
  Monitored::Scalar<int> cmxLeftEnerSimNeDataLocY = Monitored::Scalar<int>("cmxLeftEnerSimNeDataLocY", 0);
  Monitored::Scalar<int> cmxRightEnerSimNeDataLocX = Monitored::Scalar<int>("cmxRightEnerSimNeDataLocX", 0);
  Monitored::Scalar<int> cmxRightEnerSimNeDataLocY = Monitored::Scalar<int>("cmxRightEnerSimNeDataLocY", 0);
 
  Monitored::Scalar<int> cmxLeftEnerSimNoDataLocX = Monitored::Scalar<int>("cmxLeftEnerSimNoDataLocX", 0);
  Monitored::Scalar<int> cmxLeftEnerSimNoDataLocY = Monitored::Scalar<int>("cmxLeftEnerSimNoDataLocY", 0);
  Monitored::Scalar<int> cmxRightEnerSimNoDataLocX = Monitored::Scalar<int>("cmxRightEnerSimNoDataLocX", 0);
  Monitored::Scalar<int> cmxRightEnerSimNoDataLocY = Monitored::Scalar<int>("cmxRightEnerSimNoDataLocY", 0);
 
  Monitored::Scalar<int> cmxLeftEnerDataNoSimLocX = Monitored::Scalar<int>("cmxLeftEnerDataNoSimLocX", 0);
  Monitored::Scalar<int> cmxLeftEnerDataNoSimLocY = Monitored::Scalar<int>("cmxLeftEnerDataNoSimLocY", 0);
  Monitored::Scalar<int> cmxRightEnerDataNoSimLocX = Monitored::Scalar<int>("cmxRightEnerDataNoSimLocX", 0);
  Monitored::Scalar<int> cmxRightEnerDataNoSimLocY = Monitored::Scalar<int>("cmxRightEnerDataNoSimLocY", 0);
 
  Monitored::Scalar<int> cmxLeftIsolSimEqDataLocX = Monitored::Scalar<int>("cmxLeftIsolSimEqDataLocX", 0);
  Monitored::Scalar<int> cmxLeftIsolSimEqDataLocY = Monitored::Scalar<int>("cmxLeftIsolSimEqDataLocY", 0);
  Monitored::Scalar<int> cmxRightIsolSimEqDataLocX = Monitored::Scalar<int>("cmxRightIsolSimEqDataLocX", 0);
  Monitored::Scalar<int> cmxRightIsolSimEqDataLocY = Monitored::Scalar<int>("cmxRightIsolSimEqDataLocY", 0);
 
  Monitored::Scalar<int> cmxLeftIsolSimNeDataLocX = Monitored::Scalar<int>("cmxLeftIsolSimNeDataLocX", 0);
  Monitored::Scalar<int> cmxLeftIsolSimNeDataLocY = Monitored::Scalar<int>("cmxLeftIsolSimNeDataLocY", 0);
  Monitored::Scalar<int> cmxRightIsolSimNeDataLocX = Monitored::Scalar<int>("cmxRightIsolSimNeDataLocX", 0);
  Monitored::Scalar<int> cmxRightIsolSimNeDataLocY = Monitored::Scalar<int>("cmxRightIsolSimNeDataLocY", 0);
 
  Monitored::Scalar<int> cmxLeftIsolSimNoDataLocX = Monitored::Scalar<int>("cmxLeftIsolSimNoDataLocX", 0);
  Monitored::Scalar<int> cmxLeftIsolSimNoDataLocY = Monitored::Scalar<int>("cmxLeftIsolSimNoDataLocY", 0);
  Monitored::Scalar<int> cmxRightIsolSimNoDataLocX = Monitored::Scalar<int>("cmxRightIsolSimNoDataLocX", 0);
  Monitored::Scalar<int> cmxRightIsolSimNoDataLocY = Monitored::Scalar<int>("cmxRightIsolSimNoDataLocY", 0);
 
  Monitored::Scalar<int> cmxLeftIsolDataNoSimLocX = Monitored::Scalar<int>("cmxLeftIsolDataNoSimLocX", 0);
  Monitored::Scalar<int> cmxLeftIsolDataNoSimLocY = Monitored::Scalar<int>("cmxLeftIsolDataNoSimLocY", 0);
  Monitored::Scalar<int> cmxRightIsolDataNoSimLocX = Monitored::Scalar<int>("cmxRightIsolDataNoSimLocX", 0);
  Monitored::Scalar<int> cmxRightIsolDataNoSimLocY = Monitored::Scalar<int>("cmxRightIsolDataNoSimLocY", 0);
 
  Monitored::Scalar<float> cmxEtaSimEqData = Monitored::Scalar<float>("cmxEtaSimEqData", 0.);
  Monitored::Scalar<float> cmxPhiSimEqData = Monitored::Scalar<float>("cmxPhiSimEqData", 0.);
 
  Monitored::Scalar<float> cmxEtaSimNeData = Monitored::Scalar<float>("cmxEtaSimNeData", 0.);
  Monitored::Scalar<float> cmxPhiSimNeData = Monitored::Scalar<float>("cmxPhiSimNeData", 0.);
 
  Monitored::Scalar<float> cmxEtaDataNoSim = Monitored::Scalar<float>("cmxEtaDataNoSim", 0.);
  Monitored::Scalar<float> cmxPhiDataNoSim = Monitored::Scalar<float>("cmxPhiDataNoSim", 0.);
 
  Monitored::Scalar<float> cmxEtaSimNoData = Monitored::Scalar<float>("cmxEtaSimNoData", 0.);
  Monitored::Scalar<float> cmxPhiSimNoData = Monitored::Scalar<float>("cmxPhiSimNoData", 0.);
 
  Monitored::Scalar<int> cmxOverLocXSimEqData = Monitored::Scalar<int>("cmxOverLocXSimEqData", 0);
  Monitored::Scalar<int> cmxOverCmxSimEqData = Monitored::Scalar<int>("cmxOverCmxSimEqData", 0);
 
  Monitored::Scalar<int> cmxOverLocXSimNeData = Monitored::Scalar<int>("cmxOverLocXSimNeData", 0);
  Monitored::Scalar<int> cmxOverCmxSimNeData = Monitored::Scalar<int>("cmxOverCmxSimNeData", 0);
 
 
  LVL1::CPRoIDecoder decoder;
  CmxCpTobMap::const_iterator simMapIter = simMap.begin();
  CmxCpTobMap::const_iterator simMapIterEnd = simMap.end();
  CmxCpTobMap::const_iterator datMapIter = datMap.begin();
  CmxCpTobMap::const_iterator datMapIterEnd = datMap.end();
 
  while (simMapIter != simMapIterEnd || datMapIter != datMapIterEnd) {
    
    int simKey = 0;
    int datKey = 0;
    int simEnergy = 0;
    int simIsol = 0;
    int simOvf = 0;
    int datEnergy = 0;
    int datIsol = 0;
    int datOvf = 0;
    
    const xAOD::CMXCPTob *tob = 0;
    if (simMapIter != simMapIterEnd)
      simKey = simMapIter->first;
    if (datMapIter != datMapIterEnd)
      datKey = datMapIter->first;
    
    if ((datMapIter == datMapIterEnd) ||
        ((simMapIter != simMapIterEnd) && (datKey > simKey))) {
      
      // Simulated TOB but no data TOB
 
      tob = simMapIter->second;
      simEnergy = tob->energy();
      simIsol = tob->isolation();
      simOvf = (LVL1::DataError(tob->error())).get(LVL1::DataError::Overflow);
      ++simMapIter;
 
    } else if ((simMapIter == simMapIterEnd) ||
               ((datMapIter != datMapIterEnd) && (simKey > datKey))) {
      
      // Data TOB but no simulated TOB
 
      tob = datMapIter->second;
      datEnergy = tob->energy();
      datIsol = tob->isolation();
      datOvf = (LVL1::DataError(tob->error())).get(LVL1::DataError::Overflow);
      ++datMapIter;
      
    } else {
      
      // Have both
      
      const xAOD::CMXCPTob *tobS = simMapIter->second;
      tob = datMapIter->second;
      simEnergy = tobS->energy();
      simIsol = tobS->isolation();
      simOvf = (LVL1::DataError(tobS->error())).get(LVL1::DataError::Overflow);
      datEnergy = tob->energy();
      datIsol = tob->isolation();
      datOvf = (LVL1::DataError(tob->error())).get(LVL1::DataError::Overflow);
      ++simMapIter;
      ++datMapIter;
    }
 
    if (!simEnergy && !simIsol && !datEnergy && !datIsol)
      continue;
 
    //  Check LimitedRoISet bit and ParityMerge bit
 
    const int crate = tob->crate();
    if (!simEnergy && !simIsol && limitedRoiSet(crate, rodTES))
      continue;
    const int cpm = tob->cpm();
    const int cmx = tob->cmx();
    if (!datEnergy && !datIsol) {
      const int index = (crate * m_cmxs + cmx) * m_modules + cpm - 1;
      if (parityMap[index])
        continue;
    }
 
    //  Fill in error plots
 
    const int chip = tob->chip();
    const int loc = tob->location();
    const int locX = crate * m_modules + cpm - 1;
    const int locY = chip * 4 + loc;
    const int loc2 = crate * m_cmxs + cmx;
    const int cpmBins = m_crates * m_modules;
    const int cmxBins = m_crates * m_cmxs;
    const int bit = (1 << ((cmx) ? RightCMXTobMismatch : LeftCMXTobMismatch));
    const uint32_t roiWord = ((((((crate << 4) + cpm) << 4) + chip) << 2) + loc)
                             << 18;
    const LVL1::CoordinateRange coord(
        decoder.coordinate(roiWord)); // hack till updated
    const double eta = coord.eta();
    const double phi = coord.phi();
 
    if (simEnergy || datEnergy) {
      if (simEnergy == datEnergy) {
        errorsCPM[locX] |= bit;
        errorsCMX[loc2] |= bit;
    if (cmx) {
      cmxRightEnerSimEqDataLocX=locX;
      cmxRightEnerSimEqDataLocY=locY;
      fill(m_packageName,cmxRightEnerSimEqDataLocX,cmxRightEnerSimEqDataLocY);
    } else {
      cmxLeftEnerSimEqDataLocX=locX;
      cmxLeftEnerSimEqDataLocY=locY;
      fill(m_packageName,cmxLeftEnerSimEqDataLocX,cmxLeftEnerSimEqDataLocY);
    }
      } else {
        errorsCPM[locX + cpmBins] |= bit;
        errorsCMX[loc2 + cmxBins] |= bit;
        if (simEnergy && datEnergy) {
      if (cmx) {
        cmxRightEnerSimNeDataLocX=locX;
        cmxRightEnerSimNeDataLocY=locY;
        fill(m_packageName,cmxRightEnerSimNeDataLocX,cmxRightEnerSimNeDataLocY);
      } else {
        cmxLeftEnerSimNeDataLocX=locX;
        cmxLeftEnerSimNeDataLocY=locY;
        fill(m_packageName,cmxLeftEnerSimNeDataLocX,cmxLeftEnerSimNeDataLocY);
      }
        } else if (simEnergy && !datEnergy) {
      if (cmx) {
        cmxRightEnerSimNoDataLocX=locX;
        cmxRightEnerSimNoDataLocY=locY;
        fill(m_packageName,cmxRightEnerSimNoDataLocX,cmxRightEnerSimNoDataLocY);
      } else {
        cmxLeftEnerSimNoDataLocX=locX;
        cmxLeftEnerSimNoDataLocY=locY;
        fill(m_packageName,cmxLeftEnerSimNoDataLocX,cmxLeftEnerSimNoDataLocY);
      }
        } else {
      if (cmx) {
        cmxRightEnerDataNoSimLocX=locX;
        cmxRightEnerDataNoSimLocY=locY;
        fill(m_packageName,cmxRightEnerDataNoSimLocX,cmxRightEnerDataNoSimLocY);
      } else {
        cmxLeftEnerDataNoSimLocX=locX;
        cmxLeftEnerDataNoSimLocY=locY;
        fill(m_packageName,cmxLeftEnerDataNoSimLocX,cmxLeftEnerDataNoSimLocY);
      }
        }
      }
    }
    if (simIsol || datIsol) {
      if (simIsol == datIsol) {
        errorsCPM[locX] |= bit;
        errorsCMX[loc2] |= bit;
    if (cmx) {
      cmxRightIsolSimEqDataLocX=locX;
      cmxRightIsolSimEqDataLocY=locY;
      fill(m_packageName,cmxRightIsolSimEqDataLocX,cmxRightIsolSimEqDataLocY);
    } else {
      cmxLeftIsolSimEqDataLocX=locX;
      cmxLeftIsolSimEqDataLocY=locY;
      fill(m_packageName,cmxLeftIsolSimEqDataLocX,cmxLeftIsolSimEqDataLocY);
    }
      } else {
        errorsCPM[locX + cpmBins] |= bit;
        errorsCMX[loc2 + cmxBins] |= bit;
        if (simIsol && datIsol) {
      if (cmx) {
        cmxRightIsolSimNeDataLocX=locX;
        cmxRightIsolSimNeDataLocY=locY;
        fill(m_packageName,cmxRightIsolSimNeDataLocX,cmxRightIsolSimNeDataLocY);
      } else {
        cmxLeftIsolSimNeDataLocX=locX;
        cmxLeftIsolSimNeDataLocY=locY;
        fill(m_packageName,cmxLeftIsolSimNeDataLocX,cmxLeftIsolSimNeDataLocY);
      }
        } else if (simIsol && !datIsol) {
      if (cmx) {
        cmxRightIsolSimNoDataLocX=locX;
        cmxRightIsolSimNoDataLocY=locY;
        fill(m_packageName,cmxRightIsolSimNoDataLocX,cmxRightIsolSimNoDataLocY);
      } else {
        cmxLeftIsolSimNoDataLocX=locX;
        cmxLeftIsolSimNoDataLocY=locY;
        fill(m_packageName,cmxLeftIsolSimNoDataLocX,cmxLeftIsolSimNoDataLocY);
      }
        } else {
      if (cmx) {
        cmxRightIsolDataNoSimLocX=locX;
        cmxRightIsolDataNoSimLocY=locY;
        fill(m_packageName,cmxRightIsolDataNoSimLocX,cmxRightIsolDataNoSimLocY);
      } else {
        cmxLeftIsolDataNoSimLocX=locX;
        cmxLeftIsolDataNoSimLocY=locY;
        fill(m_packageName,cmxLeftIsolDataNoSimLocX,cmxLeftIsolDataNoSimLocY);
      }
        }
      }
    }
    if (simOvf || datOvf) {
      if (simOvf == datOvf) {
        errorsCPM[locX] |= bit;
        errorsCMX[loc2] |= bit;
    cmxOverLocXSimEqData = locX;
    cmxOverCmxSimEqData = cmx;
    fill(m_packageName,cmxOverLocXSimEqData,cmxOverCmxSimEqData);
      } else {
        errorsCPM[locX + cpmBins] |= bit;
        errorsCMX[loc2 + cmxBins] |= bit;
    cmxOverLocXSimNeData = locX;
    cmxOverCmxSimNeData = cmx;
    fill(m_packageName,cmxOverLocXSimNeData,cmxOverCmxSimNeData);
      }
    }
    const double phiMod = phi * (32./M_PI) - 0.5;
    double etaMod = eta - 0.05;
    if (simEnergy == datEnergy && simIsol == datIsol) {
      cmxEtaSimEqData=etaMod;
      cmxPhiSimEqData=phiMod;
      fill(m_packageName,cmxEtaSimEqData,cmxPhiSimEqData);    
    } else {
      if ((simEnergy || simIsol) && (datEnergy || datIsol)) {
    cmxEtaSimNeData=etaMod;
    cmxPhiSimNeData=phiMod;
    fill(m_packageName,cmxEtaSimNeData,cmxPhiSimNeData);      
      } else if (!datEnergy && !datIsol) {
    cmxEtaSimNoData=etaMod;
    cmxPhiSimNoData=phiMod;
    fill(m_packageName,cmxEtaSimNoData,cmxPhiSimNoData);      
      } else {
    cmxEtaDataNoSim=etaMod;
    cmxPhiDataNoSim=phiMod;
    fill(m_packageName,cmxEtaDataNoSim,cmxPhiDataNoSim);      
      }
    }
    //  
  }
}

compare() [3/3]

void CpmSimMonitorAlgorithm::compare ( const CpmTobRoiMap & roiSimMap, const CpmTobRoiMap & roiMap, ErrorVector & errors, const xAOD::RODHeaderContainer * rodTES ) const

private

Definition at line 830 of file CpmSimMonitorAlgorithm.cxx.

                                                                 {
  
  ATH_MSG_DEBUG("Compare Simulated RoIs with data");
 
  LVL1::CPRoIDecoder decoder;
  CpmTobRoiMap::const_iterator simMapIter = roiSimMap.begin();
  CpmTobRoiMap::const_iterator simMapIterEnd = roiSimMap.end();
  CpmTobRoiMap::const_iterator datMapIter = roiMap.begin();
  CpmTobRoiMap::const_iterator datMapIterEnd = roiMap.end();
 
  // scalars to fill bitwise histograms directly
  Monitored::Scalar<int> emEnerSimEqDataLocX = Monitored::Scalar<int>("emEnerSimEqDataLocX", 0);
  Monitored::Scalar<int> emEnerSimEqDataLocY = Monitored::Scalar<int>("emEnerSimEqDataLocY", 0);
  Monitored::Scalar<int> tauEnerSimEqDataLocX = Monitored::Scalar<int>("tauEnerSimEqDataLocX", 0);
  Monitored::Scalar<int> tauEnerSimEqDataLocY = Monitored::Scalar<int>("tauEnerSimEqDataLocY", 0);
 
  Monitored::Scalar<int> emEnerSimNeDataLocX = Monitored::Scalar<int>("emEnerSimNeDataLocX", 0);
  Monitored::Scalar<int> emEnerSimNeDataLocY = Monitored::Scalar<int>("emEnerSimNeDataLocY", 0);
  Monitored::Scalar<int> tauEnerSimNeDataLocX = Monitored::Scalar<int>("tauEnerSimNeDataLocX", 0);
  Monitored::Scalar<int> tauEnerSimNeDataLocY = Monitored::Scalar<int>("tauEnerSimNeDataLocY", 0);
 
  Monitored::Scalar<int> emEnerDataNoSimLocX = Monitored::Scalar<int>("emEnerDataNoSimLocX", 0);
  Monitored::Scalar<int> emEnerDataNoSimLocY = Monitored::Scalar<int>("emEnerDataNoSimLocY", 0);
  Monitored::Scalar<int> tauEnerDataNoSimLocX = Monitored::Scalar<int>("tauEnerDataNoSimLocX", 0);
  Monitored::Scalar<int> tauEnerDataNoSimLocY = Monitored::Scalar<int>("tauEnerDataNoSimLocY", 0);
 
  Monitored::Scalar<int> emEnerSimNoDataLocX = Monitored::Scalar<int>("emEnerSimNoDataLocX", 0);
  Monitored::Scalar<int> emEnerSimNoDataLocY = Monitored::Scalar<int>("emEnerSimNoDataLocY", 0);
  Monitored::Scalar<int> tauEnerSimNoDataLocX = Monitored::Scalar<int>("tauEnerSimNoDataLocX", 0);
  Monitored::Scalar<int> tauEnerSimNoDataLocY = Monitored::Scalar<int>("tauEnerSimNoDataLocY", 0);
 
  Monitored::Scalar<int> emIsolSimEqDataLocX = Monitored::Scalar<int>("emIsolSimEqDataLocX", 0);
  Monitored::Scalar<int> emIsolSimEqDataLocY = Monitored::Scalar<int>("emIsolSimEqDataLocY", 0);
  Monitored::Scalar<int> tauIsolSimEqDataLocX = Monitored::Scalar<int>("tauIsolSimEqDataLocX", 0);
  Monitored::Scalar<int> tauIsolSimEqDataLocY = Monitored::Scalar<int>("tauIsolSimEqDataLocY", 0);
 
  Monitored::Scalar<int> emIsolSimNeDataLocX = Monitored::Scalar<int>("emIsolSimNeDataLocX", 0);
  Monitored::Scalar<int> emIsolSimNeDataLocY = Monitored::Scalar<int>("emIsolSimNeDataLocY", 0);
  Monitored::Scalar<int> tauIsolSimNeDataLocX = Monitored::Scalar<int>("tauIsolSimNeDataLocX", 0);
  Monitored::Scalar<int> tauIsolSimNeDataLocY = Monitored::Scalar<int>("tauIsolSimNeDataLocY", 0);
 
  Monitored::Scalar<int> emIsolDataNoSimLocX = Monitored::Scalar<int>("emIsolDataNoSimLocX", 0);
  Monitored::Scalar<int> emIsolDataNoSimLocY = Monitored::Scalar<int>("emIsolDataNoSimLocY", 0);
  Monitored::Scalar<int> tauIsolDataNoSimLocX = Monitored::Scalar<int>("tauIsolDataNoSimLocX", 0);
  Monitored::Scalar<int> tauIsolDataNoSimLocY = Monitored::Scalar<int>("tauIsolDataNoSimLocY", 0);
 
  Monitored::Scalar<int> emIsolSimNoDataLocX = Monitored::Scalar<int>("emIsolSimNoDataLocX", 0);
  Monitored::Scalar<int> emIsolSimNoDataLocY = Monitored::Scalar<int>("emIsolSimNoDataLocY", 0);
  Monitored::Scalar<int> tauIsolSimNoDataLocX = Monitored::Scalar<int>("tauIsolSimNoDataLocX", 0);
  Monitored::Scalar<int> tauIsolSimNoDataLocY = Monitored::Scalar<int>("tauIsolSimNoDataLocY", 0);
 
  Monitored::Scalar<float> roiEtaSimEqData = Monitored::Scalar<float>("roiEtaSimEqData", 0.);
  Monitored::Scalar<float> roiPhiSimEqData = Monitored::Scalar<float>("roiPhiSimEqData", 0.);
 
  Monitored::Scalar<float> roiEtaSimNeData = Monitored::Scalar<float>("roiEtaSimNeData", 0.);
  Monitored::Scalar<float> roiPhiSimNeData = Monitored::Scalar<float>("roiPhiSimNeData", 0.);
 
  Monitored::Scalar<float> roiEtaDataNoSim = Monitored::Scalar<float>("roiEtaDataNoSim", 0.);
  Monitored::Scalar<float> roiPhiDataNoSim = Monitored::Scalar<float>("roiPhiDataNoSim", 0.);
 
  Monitored::Scalar<float> roiEtaSimNoData = Monitored::Scalar<float>("roiEtaSimNoData", 0.);
  Monitored::Scalar<float> roiPhiSimNoData = Monitored::Scalar<float>("roiPhiSimNoData", 0.);
 
  while (simMapIter != simMapIterEnd || datMapIter != datMapIterEnd) {
 
    int simKey = 0;
    int datKey = 0;
    unsigned int simEnergy = 0;
    unsigned int datEnergy = 0;
    unsigned int simIsol = 0;
    unsigned int datIsol = 0;
    const xAOD::CPMTobRoI *roi = 0;
 
    if (simMapIter != simMapIterEnd)
      simKey = simMapIter->first;
    if (datMapIter != datMapIterEnd)
      datKey = datMapIter->first;
 
    if ((datMapIter == datMapIterEnd) ||
        ((simMapIter != simMapIterEnd) && (datKey > simKey))) {
 
      // Simulated RoI but no data RoI
 
      roi = simMapIter->second;
      simEnergy = roi->energy();
      simIsol = roi->isolation();
      ++simMapIter;
 
    } else if ((simMapIter == simMapIterEnd) ||
               ((datMapIter != datMapIterEnd) && (simKey > datKey))) {
 
      // Data RoI but no simulated RoI
 
      roi = datMapIter->second;
      datEnergy = roi->energy();
      datIsol = roi->isolation();
      ++datMapIter;
 
    } else {
 
      // Have both
 
      const xAOD::CPMTobRoI *roiS = simMapIter->second;
      roi = datMapIter->second;
      simEnergy = roiS->energy();
      simIsol = roiS->isolation();
      datEnergy = roi->energy();
      datIsol = roi->isolation();
      ++simMapIter;
      ++datMapIter;
    }
 
    if (!simEnergy && !simIsol && !datEnergy && !datIsol)
      continue;
 
    //  Check LimitedRoISet bit
 
    const int crate = roi->crate();
    if (!datEnergy && !datIsol && limitedRoiSet(crate,rodTES))
      continue;
 
    //  Fill in error plots
 
    const int cpm = roi->cpm();
    const int chip = roi->chip();
    const int local = roi->location();
    const int type = roi->type();
    const int locX = crate * m_modules + cpm - 1;
    const int locY = chip * 8 + local;
    const int cpmBins = m_crates * m_modules;
    const int bit = (1 << ((type) ? TauRoIMismatch : EMRoIMismatch));
    const LVL1::CoordinateRange coord(
                      decoder.coordinate((roi->roiWord()))
                      ); // hack till updated
    const double eta = coord.eta();
    const double phi = coord.phi();
 
    if (simEnergy || datEnergy) {
      if (simEnergy == datEnergy) {
        errors[locX] |= bit;
    if (type) {
      tauEnerSimEqDataLocX=locX;
      tauEnerSimEqDataLocY=locY;
      fill(m_packageName,tauEnerSimEqDataLocX,tauEnerSimEqDataLocY);
    } else {
      emEnerSimEqDataLocX=locX;
      emEnerSimEqDataLocY=locY;
      fill(m_packageName,emEnerSimEqDataLocX,emEnerSimEqDataLocY);
    }
      } else {
        errors[locX + cpmBins] |= bit;
        if (simEnergy && datEnergy) {
      if (type) {
        tauEnerSimNeDataLocX=locX;
        tauEnerSimNeDataLocY=locY;
        fill(m_packageName,tauEnerSimNeDataLocX,tauEnerSimNeDataLocY);    
      } else {
        emEnerSimNeDataLocX=locX;
        emEnerSimNeDataLocY=locY;
        fill(m_packageName,emEnerSimNeDataLocX,emEnerSimNeDataLocY);
      }
        } else if (simEnergy && !datEnergy) {
      if (type) {
        tauEnerSimNoDataLocX=locX;
        tauEnerSimNoDataLocY=locY;
        fill(m_packageName,tauEnerSimNoDataLocX,tauEnerSimNoDataLocY);    
      } else {
        emEnerSimNoDataLocX=locX;
        emEnerSimNoDataLocY=locY;
        fill(m_packageName,emEnerSimNoDataLocX,emEnerSimNoDataLocY);
      }
        } else {
      if (type) {
        tauEnerDataNoSimLocX=locX;
        tauEnerDataNoSimLocY=locY;
        fill(m_packageName,tauEnerDataNoSimLocX,tauEnerDataNoSimLocY);    
      } else {
        emEnerDataNoSimLocX=locX;
        emEnerDataNoSimLocY=locY;
        fill(m_packageName,emEnerDataNoSimLocX,emEnerDataNoSimLocY);
      }
        }
      }
    }
    if (simIsol || datIsol) {
      if (simIsol == datIsol) {
        errors[locX] |= bit;
    if (type) {
      tauIsolSimEqDataLocX=locX;
      tauIsolSimEqDataLocY=locY;
      fill(m_packageName,tauIsolSimEqDataLocX,tauIsolSimEqDataLocY);
    } else {
      emIsolSimEqDataLocX=locX;
      emIsolSimEqDataLocY=locY;
      fill(m_packageName,emIsolSimEqDataLocX,emIsolSimEqDataLocY);
    }
 
      } else {
        errors[locX + cpmBins] |= bit;
        if (simIsol && datIsol) {
      if (type) {
        tauIsolSimNeDataLocX=locX;
        tauIsolSimNeDataLocY=locY;
        fill(m_packageName,tauIsolSimNeDataLocX,tauIsolSimNeDataLocY);    
      } else {
        emIsolSimNeDataLocX=locX;
        emIsolSimNeDataLocY=locY;
        fill(m_packageName,emIsolSimNeDataLocX,emIsolSimNeDataLocY);
      }
        } else if (simIsol && !datIsol) {
      if (type) {
        tauIsolSimNoDataLocX=locX;
        tauIsolSimNoDataLocY=locY;
        fill(m_packageName,tauIsolSimNoDataLocX,tauIsolSimNoDataLocY);    
      } else {
        emIsolSimNoDataLocX=locX;
        emIsolSimNoDataLocY=locY;
        fill(m_packageName,emIsolSimNoDataLocX,emIsolSimNoDataLocY);
      }
        } else {
      if (type) {
        tauIsolDataNoSimLocX=locX;
        tauIsolDataNoSimLocY=locY;
        fill(m_packageName,tauIsolDataNoSimLocX,tauIsolDataNoSimLocY);    
      } else {
        emIsolDataNoSimLocX=locX;
        emIsolDataNoSimLocY=locY;
        fill(m_packageName,emIsolDataNoSimLocX,emIsolDataNoSimLocY);
      }
        }
      }
    }
    const double phiMod = (phi * (32./M_PI)) - 0.5;
    double etaMod = eta - 0.05;
    if (simEnergy == datEnergy && simIsol == datIsol) {
      roiEtaSimEqData=etaMod;
      roiPhiSimEqData=phiMod;
      fill(m_packageName,roiEtaSimEqData,roiPhiSimEqData);    
    } else {
      if ((simEnergy || simIsol) && (datEnergy || datIsol)) {
    roiEtaSimNeData=etaMod;
    roiPhiSimNeData=phiMod;
    fill(m_packageName,roiEtaSimNeData,roiPhiSimNeData);      
      } else if (!datEnergy && !datIsol) {
    roiEtaSimNoData=etaMod;
    roiPhiSimNoData=phiMod;
    fill(m_packageName,roiEtaSimNoData,roiPhiSimNoData);      
      } else {
    roiEtaDataNoSim=etaMod;
    roiPhiDataNoSim=phiMod;
    fill(m_packageName,roiEtaDataNoSim,roiPhiDataNoSim);      
      }
    }
  } // end of iteration
}

compareEm()

bool CpmSimMonitorAlgorithm::compareEm ( const TriggerTowerMapEm & ttMap, const CpmTowerMap & cpMap, ErrorVector & errors, bool overlap ) const

private

Definition at line 387 of file CpmSimMonitorAlgorithm.cxx.

                                             {
 
  ATH_MSG_DEBUG("Compare Trigger Towers and CPM Towers");
 
  Monitored::Scalar<float> eta_em_PpmEqCor = Monitored::Scalar<float>("eta_em_PpmEqCor", 0.);
  Monitored::Scalar<float> phi_em_PpmEqCor = Monitored::Scalar<float>("phi_em_PpmEqCor", 0.);
 
  Monitored::Scalar<float> eta_em_PpmNeCor = Monitored::Scalar<float>("eta_em_PpmNeCor", 0.);
  Monitored::Scalar<float> phi_em_PpmNeCor = Monitored::Scalar<float>("phi_em_PpmNeCor", 0.);
 
  Monitored::Scalar<float> eta_em_PpmNoCor = Monitored::Scalar<float>("eta_em_PpmNoCor", 0.);
  Monitored::Scalar<float> phi_em_PpmNoCor = Monitored::Scalar<float>("phi_em_PpmNoCor", 0.);
 
  Monitored::Scalar<float> eta_em_CoreNoPpm = Monitored::Scalar<float>("eta_em_CoreNoPpm", 0.);
  Monitored::Scalar<float> phi_em_CoreNoPpm = Monitored::Scalar<float>("phi_em_CoreNoPpm", 0.);
 
  //
  Monitored::Scalar<float> eta_em_PpmEqOverlap = Monitored::Scalar<float>("eta_em_PpmEqOverlap", 0.);
  Monitored::Scalar<float> phi_em_PpmEqOverlap = Monitored::Scalar<float>("phi_em_PpmEqOverlap", 0.);
 
  Monitored::Scalar<float> eta_em_PpmNeOverlap = Monitored::Scalar<float>("eta_em_PpmNeOverlap", 0.);
  Monitored::Scalar<float> phi_em_PpmNeOverlap = Monitored::Scalar<float>("phi_em_PpmNeOverlap", 0.);
 
  Monitored::Scalar<float> eta_em_PpmNoOverlap = Monitored::Scalar<float>("eta_em_PpmNoOverlap", 0.);
  Monitored::Scalar<float> phi_em_PpmNoOverlap = Monitored::Scalar<float>("phi_em_PpmNoOverlap", 0.);
 
  Monitored::Scalar<float> eta_em_OverlapNoPpm = Monitored::Scalar<float>("eta_em_OverlapNoPpm", 0.);
  Monitored::Scalar<float> phi_em_OverlapNoPpm = Monitored::Scalar<float>("phi_em_OverlapNoPpm", 0.);
 
  //
  Monitored::Scalar<int> loc_PpmEqCpmFpga = Monitored::Scalar<int>("loc_PpmEqCpmFpga", 0.);
  Monitored::Scalar<int> loc_fpga_PpmEqCpmFpga = Monitored::Scalar<int>("loc_fpga_PpmEqCpmFpga", 0.);
 
  Monitored::Scalar<int> loc_PpmNeCpmFpga = Monitored::Scalar<int>("loc_PpmNeCpmFpga", 0.);
  Monitored::Scalar<int> loc_fpga_PpmNeCpmFpga = Monitored::Scalar<int>("loc_fpga_PpmNeCpmFpga", 0.);
 
  Monitored::Scalar<int> loc_PpmNoCpmFpga = Monitored::Scalar<int>("loc_PpmNoCpmFpga", 0.);
  Monitored::Scalar<int> loc_fpga_PpmNoCpmFpga = Monitored::Scalar<int>("loc_fpga_PpmNoCpmFpga", 0.);
 
  Monitored::Scalar<int> loc_CpmNoPpmFpga = Monitored::Scalar<int>("loc_CpmNoPpmFpga", 0.);
  Monitored::Scalar<int> loc_fpga_CpmNoPpmFpga = Monitored::Scalar<int>("loc_fpga_CpmNoPpmFpga", 0.);
 
  bool mismatch = false;
  LVL1::CoordToHardware converter;
  TriggerTowerMapEm::const_iterator ttMapIter = ttMap.begin();
  TriggerTowerMapEm::const_iterator ttMapIterEnd = ttMap.end();
  CpmTowerMap::const_iterator cpMapIter = cpMap.begin();
  CpmTowerMap::const_iterator cpMapIterEnd = cpMap.end();
 
  while (ttMapIter != ttMapIterEnd || cpMapIter != cpMapIterEnd) {
 
    int ttKey = 0;
    int cpKey = 0;
    int ttEm = 0;
    int cpEm = 0;
    double eta = 0.;
    double phi = 0.;
    int key = 0;
 
    if (ttMapIter != ttMapIterEnd)
      ttKey = ttMapIter->first;
    if (cpMapIter != cpMapIterEnd)
      cpKey = cpMapIter->first;
 
    if ((cpMapIter == cpMapIterEnd) ||
        ((ttMapIter != ttMapIterEnd) && (cpKey > ttKey))) {
 
      // TriggerTower but no CPMTower
 
      const xAOD::TriggerTower *tt = ttMapIter->second;
      ++ttMapIter;
      const int layer = tt->layer();
      eta = tt->eta();
      phi = tt->phi();
      if (overlap) { // skip non-overlap TTs
        const LVL1::Coordinate coord(phi, eta);
        const int crate = converter.cpCrateOverlap(coord);
        if (crate >= m_crates)
          continue;
      }
      // check if the TriggerTower is in EM or HAD layer
      if (layer == 0) { // EM
        ttEm = tt->cpET();
      }
      key = ttKey;
 
    } else if ((ttMapIter == ttMapIterEnd) ||
               ((cpMapIter != cpMapIterEnd) && (ttKey > cpKey))) {
 
      // CPMTower but no TriggerTower
 
      const xAOD::CPMTower *cp = cpMapIter->second;
      ++cpMapIter;
      eta = cp->eta();
      phi = cp->phi();
      cpEm = cp->emEnergy();
      key = cpKey;
 
    } else {
 
      // Have both
 
      const xAOD::TriggerTower *tt = ttMapIter->second;
      const xAOD::CPMTower *cp = cpMapIter->second;
      ++ttMapIter;
      ++cpMapIter;
      const int layer = tt->layer();
      eta = tt->eta();
      phi = tt->phi();
      // check if the TriggerTower is in EM or HAD layer
      if (layer == 0) { // EM
        ttEm = tt->cpET();
        ;
      }
      cpEm = cp->emEnergy();
      key = ttKey;
    }
 
    if (!ttEm && !cpEm)
      continue;
 
    //  Fill in error plots
    const LVL1::Coordinate coord(phi, eta);
    const int crate =
        (overlap) ? converter.cpCrateOverlap(coord) : converter.cpCrate(coord);
    const int cpm = (overlap) ? converter.cpModuleOverlap(coord)
                              : converter.cpModule(coord);
    if (crate >= m_crates || cpm > m_modules)
      continue;
    const int loc = crate * m_modules + cpm - 1;
    const int cpmBins = m_crates * m_modules;
    const int bitEm = (1 << EMTowerMismatch);
    double phiFPGA = phi;
    if (overlap) {
      const double twoPi = 2. * M_PI;
      const double piByFour = M_PI / 4.;
      if (phi > 7. * piByFour)
        phiFPGA -= twoPi;
      else if (phi < piByFour)
        phiFPGA += twoPi;
    }
    const int loc2 = fpga(crate, phiFPGA);
 
    const double phiMod = phi * (32./M_PI);
 
    if (ttEm && ttEm == cpEm) { // non-zero match
      errors[loc] |= bitEm;
      if (overlap) {
    eta_em_PpmEqOverlap=eta;
    phi_em_PpmEqOverlap=phiMod;
    fill(m_packageName,eta_em_PpmEqOverlap,phi_em_PpmEqOverlap);
      } else {
    eta_em_PpmEqCor=eta;
    phi_em_PpmEqCor=phiMod;
    fill(m_packageName,eta_em_PpmEqCor,phi_em_PpmEqCor);
      }
      loc_PpmEqCpmFpga=loc;
      loc_fpga_PpmEqCpmFpga=loc2;
      fill(m_packageName,loc_PpmEqCpmFpga,loc_fpga_PpmEqCpmFpga);
 
    } else if (ttEm != cpEm) { // mis-match
      mismatch = true;
      errors[loc + cpmBins] |= bitEm;
      if (ttEm && cpEm) { // non-zero mis-match
    if (overlap) {
      eta_em_PpmNeOverlap=eta;
      phi_em_PpmNeOverlap=phiMod;
      fill(m_packageName,eta_em_PpmNeOverlap,phi_em_PpmNeOverlap);
    } else {
      eta_em_PpmNeCor=eta;
      phi_em_PpmNeCor=phiMod;
      fill(m_packageName,eta_em_PpmNeCor,phi_em_PpmNeCor);
    }
    loc_PpmNeCpmFpga=loc;
    loc_fpga_PpmNeCpmFpga=loc2;
    fill(m_packageName,loc_PpmNeCpmFpga,loc_fpga_PpmNeCpmFpga);
 
      } else if (!cpEm) { // no cp
    if (overlap) {
      eta_em_PpmNoOverlap=eta;
      phi_em_PpmNoOverlap=phiMod;
      fill(m_packageName,eta_em_PpmNoOverlap,phi_em_PpmNoOverlap);
    } else {
      eta_em_PpmNoCor=eta;
      phi_em_PpmNoCor=phiMod;
      fill(m_packageName,eta_em_PpmNoCor,phi_em_PpmNoCor);
    }
    loc_PpmNoCpmFpga=loc;
    loc_fpga_PpmNoCpmFpga=loc2;
    fill(m_packageName,loc_PpmNoCpmFpga,loc_fpga_PpmNoCpmFpga);
 
      } else { // no tt
    if (overlap) {
      //
      eta_em_OverlapNoPpm=eta;
      phi_em_OverlapNoPpm=phiMod;
      fill(m_packageName,eta_em_OverlapNoPpm,phi_em_OverlapNoPpm);
    } else {
      eta_em_OverlapNoPpm=eta;
      phi_em_OverlapNoPpm=phiMod;
      fill(m_packageName,eta_em_OverlapNoPpm,phi_em_OverlapNoPpm);
    }
    loc_CpmNoPpmFpga=loc;
    loc_fpga_CpmNoPpmFpga=loc2;
    fill(m_packageName,loc_CpmNoPpmFpga,loc_fpga_CpmNoPpmFpga);
 
      }
      ATH_MSG_DEBUG(" EMTowerMismatch key/eta/phi/crate/cpm/tt/cp: "
            << key << "/" << eta << "/" << phi << "/" << crate
            << "/" << cpm << "/" << ttEm << "/" << cpEm);
    }
  }
 
  return mismatch;
}

compareHad()

bool CpmSimMonitorAlgorithm::compareHad ( const TriggerTowerMapHad & ttMap, const CpmTowerMap & cpMap, ErrorVector & errors, bool overlap ) const

private

Definition at line 605 of file CpmSimMonitorAlgorithm.cxx.

                                              {
 
  ATH_MSG_DEBUG("Compare Trigger Towers and CPM Towers");
 
 
  //
  Monitored::Scalar<float> eta_had_PpmEqCor = Monitored::Scalar<float>("eta_had_PpmEqCor", 0.);
  Monitored::Scalar<float> phi_had_PpmEqCor = Monitored::Scalar<float>("phi_had_PpmEqCor", 0.);
 
  Monitored::Scalar<float> eta_had_PpmNeCor = Monitored::Scalar<float>("eta_had_PpmNeCor", 0.);
  Monitored::Scalar<float> phi_had_PpmNeCor = Monitored::Scalar<float>("phi_had_PpmNeCor", 0.);
 
  Monitored::Scalar<float> eta_had_PpmNoCor = Monitored::Scalar<float>("eta_had_PpmNoCor", 0.);
  Monitored::Scalar<float> phi_had_PpmNoCor = Monitored::Scalar<float>("phi_had_PpmNoCor", 0.);
 
  Monitored::Scalar<float> eta_had_CoreNoPpm = Monitored::Scalar<float>("eta_had_CoreNoPpm", 0.);
  Monitored::Scalar<float> phi_had_CoreNoPpm = Monitored::Scalar<float>("phi_had_CoreNoPpm", 0.);
 
  //
  Monitored::Scalar<float> eta_had_PpmEqOverlap = Monitored::Scalar<float>("eta_had_PpmEqOverlap", 0.);
  Monitored::Scalar<float> phi_had_PpmEqOverlap = Monitored::Scalar<float>("phi_had_PpmEqOverlap", 0.);
 
  Monitored::Scalar<float> eta_had_PpmNeOverlap = Monitored::Scalar<float>("eta_had_PpmNeOverlap", 0.);
  Monitored::Scalar<float> phi_had_PpmNeOverlap = Monitored::Scalar<float>("phi_had_PpmNeOverlap", 0.);
 
  Monitored::Scalar<float> eta_had_PpmNoOverlap = Monitored::Scalar<float>("eta_had_PpmNoOverlap", 0.);
  Monitored::Scalar<float> phi_had_PpmNoOverlap = Monitored::Scalar<float>("phi_had_PpmNoOverlap", 0.);
 
  Monitored::Scalar<float> eta_had_OverlapNoPpm = Monitored::Scalar<float>("eta_had_OverlapNoPpm", 0.);
  Monitored::Scalar<float> phi_had_OverlapNoPpm = Monitored::Scalar<float>("phi_had_OverlapNoPpm", 0.);
 
  //
  Monitored::Scalar<int> loc_PpmEqCpmFpga = Monitored::Scalar<int>("loc_PpmEqCpmFpga", 0.);
  Monitored::Scalar<int> loc_fpga_PpmEqCpmFpga = Monitored::Scalar<int>("loc_fpga_PpmEqCpmFpga", 0.);
 
  Monitored::Scalar<int> loc_PpmNeCpmFpga = Monitored::Scalar<int>("loc_PpmNeCpmFpga", 0.);
  Monitored::Scalar<int> loc_fpga_PpmNeCpmFpga = Monitored::Scalar<int>("loc_fpga_PpmNeCpmFpga", 0.);
 
  Monitored::Scalar<int> loc_PpmNoCpmFpga = Monitored::Scalar<int>("loc_PpmNoCpmFpga", 0.);
  Monitored::Scalar<int> loc_fpga_PpmNoCpmFpga = Monitored::Scalar<int>("loc_fpga_PpmNoCpmFpga", 0.);
 
  Monitored::Scalar<int> loc_CpmNoPpmFpga = Monitored::Scalar<int>("loc_CpmNoPpmFpga", 0.);
  Monitored::Scalar<int> loc_fpga_CpmNoPpmFpga = Monitored::Scalar<int>("loc_fpga_CpmNoPpmFpga", 0.);
 
  bool mismatch = false;
  LVL1::CoordToHardware converter;
  TriggerTowerMapHad::const_iterator ttMapIter = ttMap.begin();
  TriggerTowerMapHad::const_iterator ttMapIterEnd = ttMap.end();
  CpmTowerMap::const_iterator cpMapIter = cpMap.begin();
  CpmTowerMap::const_iterator cpMapIterEnd = cpMap.end();
 
  while (ttMapIter != ttMapIterEnd || cpMapIter != cpMapIterEnd) {
 
    int ttKey = 0;
    int cpKey = 0;
    int ttHad = 0;
    int cpHad = 0;
    double eta = 0.;
    double phi = 0.;
    int key = 0;
 
    if (ttMapIter != ttMapIterEnd)
      ttKey = ttMapIter->first;
    if (cpMapIter != cpMapIterEnd)
      cpKey = cpMapIter->first;
 
    if ((cpMapIter == cpMapIterEnd) ||
        ((ttMapIter != ttMapIterEnd) && (cpKey > ttKey))) {
 
      // TriggerTower but no CPMTower
 
      const xAOD::TriggerTower *tt = ttMapIter->second;
      ++ttMapIter;
      const int layer = tt->layer();
      eta = tt->eta();
      phi = tt->phi();
      if (overlap) { // skip non-overlap TTs
        const LVL1::Coordinate coord(phi, eta);
        const int crate = converter.cpCrateOverlap(coord);
        if (crate >= m_crates)
          continue;
      }
      // check if the TriggerTower is in EM or HAD layer
      if (layer == 1) { // HAD
        if(m_legacyCpHadInputsDisabled){
          ttHad = 0;
        }else{
          ttHad = tt->cpET();
        }
      }
      key = ttKey;
 
    } else if ((ttMapIter == ttMapIterEnd) ||
               ((cpMapIter != cpMapIterEnd) && (ttKey > cpKey))) {
 
      // CPMTower but no TriggerTower
 
      const xAOD::CPMTower *cp = cpMapIter->second;
      ++cpMapIter;
      eta = cp->eta();
      phi = cp->phi();
      cpHad = cp->hadEnergy();
      key = cpKey;
 
    } else {
 
      // Have both
 
      const xAOD::TriggerTower *tt = ttMapIter->second;
      const xAOD::CPMTower *cp = cpMapIter->second;
      ++ttMapIter;
      ++cpMapIter;
      const int layer = tt->layer();
      eta = tt->eta();
      phi = tt->phi();
      // check if the TriggerTower is in EM or HAD layer
      if (layer == 1) { // HAD
        if(m_legacyCpHadInputsDisabled){
          ttHad = 0;
        }else{
          ttHad = tt->cpET();
        }
      }
      cpHad = cp->hadEnergy();
      key = ttKey;
    }
 
    if (!ttHad && !cpHad)
      continue;
 
    //  Fill in error plots
    const LVL1::Coordinate coord(phi, eta);
    const int crate =
        (overlap) ? converter.cpCrateOverlap(coord) : converter.cpCrate(coord);
    const int cpm = (overlap) ? converter.cpModuleOverlap(coord)
                              : converter.cpModule(coord);
    if (crate >= m_crates || cpm > m_modules)
      continue;
    const int loc = crate * m_modules + cpm - 1;
    const int cpmBins = m_crates * m_modules;
    const int bitHad = (1 << HadTowerMismatch);
    double phiFPGA = phi;
    if (overlap) {
      const double twoPi = 2. * M_PI;
      const double piByFour = M_PI / 4.;
      if (phi > 7. * piByFour)
        phiFPGA -= twoPi;
      else if (phi < piByFour)
        phiFPGA += twoPi;
    }
    const int loc2 = fpga(crate, phiFPGA);
    const int loc2Mod = loc2+1;
 
    const double phiMod = phi * (32./M_PI);
    if (ttHad && ttHad == cpHad) { // non-zero match
      errors[loc] |= bitHad;
      if (overlap) {
    eta_had_PpmEqOverlap=eta;
    phi_had_PpmEqOverlap=phiMod;
    fill(m_packageName,eta_had_PpmEqOverlap,phi_had_PpmEqOverlap);
      } else {
    eta_had_PpmEqCor=eta;
    phi_had_PpmEqCor=phiMod;
    fill(m_packageName,eta_had_PpmEqCor,phi_had_PpmEqCor);
      }
      loc_PpmEqCpmFpga=loc;
      loc_fpga_PpmEqCpmFpga=loc2Mod;
      fill(m_packageName,loc_PpmEqCpmFpga,loc_fpga_PpmEqCpmFpga);
 
 
    } else if (ttHad != cpHad) { // mis-match
      mismatch = true;
      errors[loc + cpmBins] |= bitHad;
      if (ttHad && cpHad) { // non-zero mis-match
    if (overlap) {
      eta_had_PpmNeOverlap=eta;
      phi_had_PpmNeOverlap=phiMod;
      fill(m_packageName,eta_had_PpmNeOverlap,phi_had_PpmNeOverlap);
    } else {
      eta_had_PpmNeCor=eta;
      phi_had_PpmNeCor=phiMod;
      fill(m_packageName,eta_had_PpmNeCor,phi_had_PpmNeCor);
    }
    loc_PpmNeCpmFpga=loc;
    loc_fpga_PpmNeCpmFpga=loc2Mod;
    fill(m_packageName,loc_PpmNeCpmFpga,loc_fpga_PpmNeCpmFpga);
      } else if (!cpHad) { // no cp
    if (overlap) {
      eta_had_PpmNoOverlap=eta;
      phi_had_PpmNoOverlap=phiMod;
      fill(m_packageName,eta_had_PpmNoOverlap,phi_had_PpmNoOverlap);
    } else {
      eta_had_PpmNoCor=eta;
      phi_had_PpmNoCor=phiMod;
      fill(m_packageName,eta_had_PpmNoCor,phi_had_PpmNoCor);
    }
    loc_PpmNoCpmFpga=loc;
    loc_fpga_PpmNoCpmFpga=loc2Mod;
    fill(m_packageName,loc_PpmNoCpmFpga,loc_fpga_PpmNoCpmFpga); 
 
      } else { // no tt
    
  eta_had_OverlapNoPpm=eta;
  phi_had_OverlapNoPpm=phiMod;
  fill(m_packageName,eta_had_OverlapNoPpm,phi_had_OverlapNoPpm);
    
    loc_CpmNoPpmFpga=loc;
    loc_fpga_CpmNoPpmFpga=loc2Mod;
    fill(m_packageName,loc_CpmNoPpmFpga,loc_fpga_CpmNoPpmFpga);
      }
 
      ATH_MSG_DEBUG(" HadTowerMismatch key/eta/phi/crate/cpm/tt/cp: "
            << key << "/" << eta << "/" << phi << "/" << crate
            << "/" << cpm << "/" << ttHad << "/" << cpHad);
      
    }
  }
  
  return mismatch;
}

dataType()

DataType_t AthMonitorAlgorithm::dataType ( ) const

inlineinherited

Accessor functions for the data type.

Returns

the current value of the class's DataType_t instance.

Definition at line 224 of file AthMonitorAlgorithm.h.

{ return m_dataType; }

dataTypeStringToEnum()

AthMonitorAlgorithm::DataType_t AthMonitorAlgorithm::dataTypeStringToEnum ( const std::string & str ) const

inherited

Convert the data type string from the python configuration to an enum object.

Returns

a value in the DataType_t enumeration which matches the input string.

Definition at line 144 of file AthMonitorAlgorithm.cxx.

                                                                                                    {
    // convert the string to all lowercase
    std::string lowerCaseStr = str;
    std::transform(lowerCaseStr.begin(), lowerCaseStr.end(), lowerCaseStr.begin(), ::tolower);
 
    // check if it matches one of the enum choices
    if( lowerCaseStr == "userdefined" ) {
        return DataType_t::userDefined;
    } else if( lowerCaseStr == "montecarlo" ) {
        return DataType_t::monteCarlo;
    } else if( lowerCaseStr == "collisions" ) {
        return DataType_t::collisions;
    } else if( lowerCaseStr == "cosmics" ) {
        return DataType_t::cosmics;
    } else if( lowerCaseStr == "heavyioncollisions" ) {
        return DataType_t::heavyIonCollisions;
    } else { // otherwise, warn the user and return "userDefined"
        ATH_MSG_WARNING("AthMonitorAlgorithm::dataTypeStringToEnum(): Unknown data type "
            <<str<<", returning userDefined.");
        return DataType_t::userDefined;
    }
}

declareGaudiProperty()

Gaudi::Details::PropertyBase & AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::declareGaudiProperty ( Gaudi::Property< T, V, H > & hndl, const SG::VarHandleKeyType &  )

inlineprivateinherited

specialization for handling Gaudi::Property<SG::VarHandleKey>

Definition at line 156 of file AthCommonDataStore.h.

  {
    return *AthCommonDataStore<PBASE>::declareProperty(hndl.name(),
                                                       hndl.value(), 
                                                       hndl.documentation());
 
  }

declareProperty()

Gaudi::Details::PropertyBase & AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::declareProperty ( Gaudi::Property< T, V, H > & t )

inlineinherited

Definition at line 145 of file AthCommonDataStore.h.

                                                                     {
    typedef typename SG::HandleClassifier<T>::type htype;
    return AthCommonDataStore<PBASE>::declareGaudiProperty(t, htype());
  }

detStore()

const ServiceHandle< StoreGateSvc > & AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::detStore ( ) const

inlineinherited

The standard StoreGateSvc/DetectorStore Returns (kind of) a pointer to the StoreGateSvc.

Definition at line 95 of file AthCommonDataStore.h.

{ return m_detStore; }

environment()

Environment_t AthMonitorAlgorithm::environment ( ) const

inlineinherited

Accessor functions for the environment.

Returns

the current value of the class's Environment_t instance.

Definition at line 208 of file AthMonitorAlgorithm.h.

{ return m_environment; }

envStringToEnum()

AthMonitorAlgorithm::Environment_t AthMonitorAlgorithm::envStringToEnum ( const std::string & str ) const

inherited

Convert the environment string from the python configuration to an enum object.

Returns

a value in the Environment_t enumeration which matches the input string.

Definition at line 116 of file AthMonitorAlgorithm.cxx.

                                                                                                  {
    // convert the string to all lowercase
    std::string lowerCaseStr = str;
    std::transform(lowerCaseStr.begin(), lowerCaseStr.end(), lowerCaseStr.begin(), ::tolower);
 
    // check if it matches one of the enum choices
    if( lowerCaseStr == "user" ) {
        return Environment_t::user;
    } else if( lowerCaseStr == "online" ) {
        return Environment_t::online;
    } else if( lowerCaseStr == "tier0" ) {
        return Environment_t::tier0;
    } else if( lowerCaseStr == "tier0raw" ) {
        return Environment_t::tier0Raw;
    } else if( lowerCaseStr == "tier0esd" ) {
        return Environment_t::tier0ESD;
    } else if( lowerCaseStr == "aod" ) {
        return Environment_t::AOD;
    } else if( lowerCaseStr == "altprod" ) {
        return Environment_t::altprod;
    } else { // otherwise, warn the user and return "user"
        ATH_MSG_WARNING("AthMonitorAlgorithm::envStringToEnum(): Unknown environment "
            <<str<<", returning user.");
        return Environment_t::user;
    }
}

evtStore()

ServiceHandle< StoreGateSvc > & AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::evtStore ( )

inlineinherited

The standard StoreGateSvc (event store) Returns (kind of) a pointer to the StoreGateSvc.

Definition at line 85 of file AthCommonDataStore.h.

{ return m_evtStore; }

execute()

StatusCode AthMonitorAlgorithm::execute ( const EventContext & ctx ) const

overridevirtualinherited

Applies filters and trigger requirements.

Then, calls fillHistograms().

Parameters

ctx	event context for reentrant Athena call

Returns

StatusCode

Definition at line 77 of file AthMonitorAlgorithm.cxx.

                                                                       {
 
    // Checks that all of the  DQ filters are passed. If any one of the filters
    // fails, return SUCCESS code and do not fill the histograms with the event.
    for ( const auto& filterItr : m_DQFilterTools ) {
        if (!filterItr->accept()) {
            ATH_MSG_DEBUG("Event rejected due to filter tool.");
            return StatusCode::SUCCESS;
        }
    }
 
    // Trigger: If there is a decision tool and the chains fail, skip the event.
    if ( !m_trigDecTool.empty() && !trigChainsArePassed(m_vTrigChainNames) ) {
        ATH_MSG_DEBUG("Event rejected due to trigger filter.");
        return StatusCode::SUCCESS;
    }
 
    ATH_MSG_DEBUG("Event accepted!");
    return fillHistograms(ctx);
}

extraDeps_update_handler()

void AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::extraDeps_update_handler ( Gaudi::Details::PropertyBase & ExtraDeps )

protectedinherited

Add StoreName to extra input/output deps as needed.

use the logic of the VarHandleKey to parse the DataObjID keys supplied via the ExtraInputs and ExtraOuputs Properties to add the StoreName if it's not explicitly given

extraOutputDeps()

const DataObjIDColl & AthCommonReentrantAlgorithm< Gaudi::Algorithm >::extraOutputDeps ( ) const

overridevirtualinherited

Return the list of extra output dependencies.

This list is extended to include symlinks implied by inheritance relations.

Definition at line 94 of file AthCommonReentrantAlgorithm.cxx.

{
  // If we didn't find any symlinks to add, just return the collection
  // from the base class.  Otherwise, return the extended collection.
  if (!m_extendedExtraObjects.empty()) {
    return m_extendedExtraObjects;
  }
  return BaseAlg::extraOutputDeps();
}

fillHistograms()

StatusCode CpmSimMonitorAlgorithm::fillHistograms ( const EventContext & ctx ) const

overridevirtual

adds event to the monitoring histograms

User will overwrite this function. Histogram booking is no longer done in C++. This function is called in execute once the filters are all passed.

Parameters

ctx	forwarded from execute

Returns

StatusCode

Implements AthMonitorAlgorithm.

Definition at line 59 of file CpmSimMonitorAlgorithm.cxx.

                                                                                 {
 
 
  ATH_MSG_DEBUG("CpmSimMonitorAlgorithm::fillHistograms");
 
  std::vector<std::reference_wrapper<Monitored::IMonitoredVariable>> variables;
 
  // to deal with trigger menu
  if (not m_configSvc.empty()) {
    ATH_CHECK(m_configSvc.retrieve());
  }
    
  //Retrieve Trigger Towers from SG
  SG::ReadHandle<xAOD::TriggerTowerContainer> triggerTowerTES(m_triggerTowerLocation, ctx);
  ATH_CHECK(triggerTowerTES.isValid());
 
  // Retrieve Core CPM Towers from SG
  SG::ReadHandle<xAOD::CPMTowerContainer> cpmTowerTES(m_cpmTowerLocation, ctx);
  ATH_CHECK(cpmTowerTES.isValid());
 
  // Retrieve Overlap CPM Towers from SG
  SG::ReadHandle<xAOD::CPMTowerContainer> cpmTowerOvTES(m_cpmTowerLocationOverlap, ctx);
  ATH_CHECK(cpmTowerOvTES.isValid());
 
  // Retrieve CPM TOB RoIs from SG
  SG::ReadHandle<xAOD::CPMTobRoIContainer> cpmRoiTES(m_cpmTobRoiLocation, ctx);
  ATH_CHECK(cpmRoiTES.isValid());
 
  // Retrieve ROD Headers from SG
  SG::ReadHandle<xAOD::RODHeaderContainer> rodTES(m_rodHeaderLocation, ctx);
  ATH_CHECK(rodTES.isValid());
 
  // Retrieve CMX-CP TOBs from SG
  SG::ReadHandle<xAOD::CMXCPTobContainer> cmxCpTobTES(m_cmxCpTobLocation, ctx);
  ATH_CHECK(cmxCpTobTES.isValid());
 
  // Retrieve CMX-CP Hits from SG
  SG::ReadHandle<xAOD::CMXCPHitsContainer> cmxCpHitsTES(m_cmxCpHitsLocation, ctx);
  ATH_CHECK(cmxCpHitsTES.isValid());
 
  // Maps to simplify comparisons
  TriggerTowerMapEm ttMapEm;
  TriggerTowerMapEm ttMapHad;
  CpmTowerMap cpMap;
  CpmTowerMap ovMap;
  CpmTobRoiMap crMap;
  CmxCpTobMap cbMap;
  CmxCpHitsMap cmMap;
 
  const xAOD::TriggerTowerContainer* triggerTowerTESptr = triggerTowerTES.cptr(); 
  ATH_CHECK(setupMap(triggerTowerTESptr, ttMapEm, ttMapHad));
 
  const xAOD::CPMTowerContainer* cpmTowerTESptr = cpmTowerTES.cptr();
  ATH_CHECK(setupMap(cpmTowerTESptr, cpMap));
 
  const xAOD::CPMTowerContainer* cpmTowerOvTESptr = cpmTowerOvTES.cptr();
  ATH_CHECK(setupMap(cpmTowerOvTESptr, ovMap));
 
  const xAOD::CPMTobRoIContainer* cpmRoiTESptr = cpmRoiTES.cptr();
  ATH_CHECK(setupMap(cpmRoiTESptr, crMap));
  std::vector<int> parityMap(m_crates * m_cmxs * m_modules);
 
  const xAOD::CMXCPTobContainer* cmxCpTobTESptr=cmxCpTobTES.cptr();
  ATH_CHECK(setupMap(cmxCpTobTESptr, cbMap, &parityMap));
 
  const xAOD::CMXCPHitsContainer* cmxCpHitsTESptr=cmxCpHitsTES.cptr();
  ATH_CHECK(setupMap(cmxCpHitsTESptr, cmMap));
 
  // Vectors for error overview bits;
  const int vecsizeCpm = 2 * m_crates * m_modules;
  const int vecsizeCmx = 2 * m_crates * m_cmxs;
  ErrorVector errorsCPM(vecsizeCpm);
  ErrorVector errorsCMX(vecsizeCmx);
 
  // Compare Trigger Towers and CPM Towers from data
  bool overlap = false;
  bool mismatchCoreEm = false;
  bool mismatchCoreHad = false;
  bool mismatchOverlapEm = false;
  bool mismatchOverlapHad = false;
 
  mismatchCoreEm = compareEm(ttMapEm, cpMap, errorsCPM, overlap);
  mismatchCoreHad = compareHad(ttMapHad, cpMap, errorsCPM, overlap);
  if (m_overlapPresent) {
    overlap = true;
    mismatchOverlapEm = compareEm(ttMapEm, ovMap, errorsCPM, overlap);
    mismatchOverlapHad = compareHad(ttMapHad, ovMap, errorsCPM, overlap); 
  }
 
  // Compare RoIs simulated from CPM Towers with CPM RoIs from data
 
 
  std::unique_ptr<xAOD::CPMTobRoIContainer> cpmRoiSIM = std::make_unique<xAOD::CPMTobRoIContainer>();
  std::unique_ptr<xAOD::CPMTobRoIAuxContainer> cpmRoiSIMAux = std::make_unique<xAOD::CPMTobRoIAuxContainer>();
 
  cpmRoiSIM.get()->setStore(cpmRoiSIMAux.get());
  if (mismatchCoreEm || mismatchCoreHad || mismatchOverlapEm ||
      mismatchOverlapHad) {
    simulate(&cpMap, &ovMap, cpmRoiSIM.get(), ctx);
  } else {
    simulate(&cpMap, cpmRoiSIM.get(), ctx);
  }
 
  CpmTobRoiMap crSimMap;
  ATH_CHECK(setupMap(cpmRoiSIM.get(), crSimMap));
  const xAOD::RODHeaderContainer* rodTESptr = rodTES.cptr();
  compare(crSimMap, crMap, errorsCPM, rodTESptr);
  crSimMap.clear();
 
  // Compare CMX-CP TOBs simulated from CPM RoIs with CMX-CP TOBs from data
 
  std::unique_ptr<xAOD::CMXCPTobContainer> cmxCpTobSIM = std::make_unique<xAOD::CMXCPTobContainer>();
  std::unique_ptr<xAOD::CMXCPTobAuxContainer> cmxCpTobSIMAux = std::make_unique<xAOD::CMXCPTobAuxContainer>();
 
  cmxCpTobSIM.get()->setStore(cmxCpTobSIMAux.get());
  simulate(cpmRoiTESptr, cmxCpTobSIM.get());
 
  CmxCpTobMap cbSimMap;
  ATH_CHECK(setupMap(cmxCpTobSIM.get(), cbSimMap));
  compare(cbSimMap, cbMap, parityMap, errorsCPM, errorsCMX, rodTESptr);
  cbSimMap.clear();
 
  // Compare Local sums simulated from CMX-CP TOBs with Local sums from data
 
  std::unique_ptr<xAOD::CMXCPHitsContainer> cmxLocalSIM = std::make_unique<xAOD::CMXCPHitsContainer>();
  std::unique_ptr<xAOD::CMXCPHitsAuxContainer> cmxLocalSIMAux = std::make_unique<xAOD::CMXCPHitsAuxContainer>();
  cmxLocalSIM.get()->setStore(cmxLocalSIMAux.get());
  simulate(cmxCpTobTESptr, cmxLocalSIM.get(), xAOD::CMXCPHits::LOCAL,ctx);
 
  CmxCpHitsMap cmxLocalSimMap;
  ATH_CHECK(setupMap(cmxLocalSIM.get(), cmxLocalSimMap));
  compare(cmxLocalSimMap, cmMap, errorsCMX, xAOD::CMXCPHits::LOCAL);
  cmxLocalSimMap.clear();
 
  // Compare Local sums with Remote sums from data
 
  compare(cmMap, cmMap, errorsCMX, xAOD::CMXCPHits::REMOTE_0);
 
  // Compare Total sums simulated from Remote sums with Total sums from data
 
 
  std::unique_ptr<xAOD::CMXCPHitsContainer> cmxTotalSIM = std::make_unique<xAOD::CMXCPHitsContainer>();
  std::unique_ptr<xAOD::CMXCPHitsAuxContainer> cmxTotalSIMAux = std::make_unique<xAOD::CMXCPHitsAuxContainer>();
 
  cmxTotalSIM->setStore(cmxTotalSIMAux.get());
  simulate(cmxCpHitsTESptr, cmxTotalSIM.get());
 
  CmxCpHitsMap cmxTotalSimMap;
  ATH_CHECK(setupMap(cmxTotalSIM.get(), cmxTotalSimMap));
  compare(cmxTotalSimMap, cmMap, errorsCMX, xAOD::CMXCPHits::TOTAL);
  cmxTotalSimMap.clear();
 
  // Compare Topo output information simulated from CMX-CP TOBs with Topo info
  // from data
 
  std::unique_ptr<xAOD::CMXCPHitsContainer> cmxTopoSIM = std::make_unique<xAOD::CMXCPHitsContainer>();
  std::unique_ptr<xAOD::CMXCPHitsAuxContainer> cmxTopoSIMAux = std::make_unique<xAOD::CMXCPHitsAuxContainer>();
  cmxTopoSIM.get()->setStore(cmxTopoSIMAux.get());
  simulate(cmxCpTobTESptr, cmxTopoSIM.get(), xAOD::CMXCPHits::TOPO_CHECKSUM, ctx);
 
  CmxCpHitsMap cmxTopoSimMap;
  ATH_CHECK(setupMap(cmxTopoSIM.get(), cmxTopoSimMap));
  compare(cmxTopoSimMap, cmMap, errorsCMX, xAOD::CMXCPHits::TOPO_CHECKSUM);
  cmxTopoSimMap.clear();
 
  // Update error summary plots
  Monitored::Scalar<int> cpmErrorLoc = Monitored::Scalar<int>("cpmErrorLoc", 0);
  Monitored::Scalar<int> cpmError = Monitored::Scalar<int>("cpmError", 0);
  Monitored::Scalar<int> cpmErrorLoc_SimNeData = Monitored::Scalar<int>("cpmErrorLoc_SimNeData", 0);
  Monitored::Scalar<int> cpmError_SimNeData = Monitored::Scalar<int>("cpmError_SimNeData", 0);
  Monitored::Scalar<int> cpmErrorSummary = Monitored::Scalar<int>("cpmErrorSummary", 0);
  // event numbers
  Monitored::Scalar<int> em_tt_y = Monitored::Scalar<int>("em_tt_y", 0);
  Monitored::Scalar<int> had_tt_y = Monitored::Scalar<int>("had_tt_y", 0);
  Monitored::Scalar<int> em_roi_y = Monitored::Scalar<int>("em_roi_y", 0);
  Monitored::Scalar<int> tau_roi_y = Monitored::Scalar<int>("tau_roi_y", 0);
  Monitored::Scalar<int> cmx_tob_left_y = Monitored::Scalar<int>("cmx_tob_left_y", 0);
  Monitored::Scalar<int> cmx_tob_right_y = Monitored::Scalar<int>("cmx_tob_right_y", 0);
  Monitored::Scalar<int> cmx_thresh_y = Monitored::Scalar<int>("cmx_thresh_y", 0);
 
  // set maximum number of error events per lumiblock(per type) to avoid histograms with many x-bins
  const int maxErrorsPerLB=10;
  bool error_tt{false}, error_roi{false}, error_tob{false}, error_thresh{false};
  auto lb = GetEventInfo(ctx)->lumiBlock();
  //
  ErrorVector crateErr(m_crates);
  const int cpmBins = m_crates * m_modules;
  const int cmxBins = m_crates * m_cmxs; 
  
  for (int err = 0; err < NumberOfSummaryBins; ++err) {
    int error = 0;
    for (int loc = 0; loc < cpmBins; ++loc) {
      if ((errorsCPM[loc] >> err) & 0x1) {
    cpmErrorLoc=loc;
    cpmError=err;
    fill(m_packageName,cpmErrorLoc,cpmError);
      }
      const long long eventNumber = ctx.eventID().event_number();
      if ((errorsCPM[loc + cpmBins] >> err) & 0x1) {
    cpmErrorLoc_SimNeData=loc;
    cpmError_SimNeData=err;
    fill(m_packageName,cpmErrorLoc_SimNeData,cpmError_SimNeData);
        error = 1;
        crateErr[loc / m_modules] |= (1 << err); 
    if (err<7) {
      if (err==0 || err==1) {
        // scope for mutable error event per lumi block tt counter
        {
          std::lock_guard<std::mutex> lock(m_mutex);
          if (!error_tt) {
            m_errorLB_tt_counter[lb]+=1;
            error_tt = true;
          }
          if (m_errorLB_tt_counter[lb]<=maxErrorsPerLB) {
        if (err==0) {
          auto em_tt_evtstr = Monitored::Scalar<std::string>("em_tt_evtstr", std::to_string(eventNumber));
          em_tt_y=loc;
          fill(m_packageName,em_tt_evtstr,em_tt_y);
        } else {
          auto had_tt_evtstr = Monitored::Scalar<std::string>("had_tt_evtstr", std::to_string(eventNumber));
          had_tt_y=loc;
          fill(m_packageName,had_tt_evtstr,had_tt_y);
        }
          }
        }
      } else if (err==2 || err==3) {
        // scope for mutable error event per lumi block roi counter
        {
          std::lock_guard<std::mutex> lock(m_mutex);    
          if (!error_roi) {
            m_errorLB_roi_counter[lb]+=1;
            error_roi = true;
          }
          if (m_errorLB_roi_counter[lb]<=maxErrorsPerLB) {
        if (err==2) {
          auto em_roi_evtstr = Monitored::Scalar<std::string>("em_roi_evtstr", std::to_string(eventNumber));
          em_roi_y=loc;
          fill(m_packageName,em_roi_evtstr,em_roi_y);
        } else {
          auto tau_roi_evtstr = Monitored::Scalar<std::string>("tau_roi_evtstr", std::to_string(eventNumber));
          tau_roi_y=loc;
          fill(m_packageName,tau_roi_evtstr,tau_roi_y);
        }
          }
        }
      } else if (err==4 || err==5) {
        // scope for mutable error event per lumi block tob counter
        {
          std::lock_guard<std::mutex> lock(m_mutex);
          if (!error_tob) {
            m_errorLB_tob_counter[lb]+=1;
            error_tob = true;
          }
          if(m_errorLB_tob_counter[lb]<=maxErrorsPerLB) {
        if (err==4) {
          auto cmx_tob_left_evtstr = Monitored::Scalar<std::string>("cmx_tob_left_evtstr", std::to_string(eventNumber));
          cmx_tob_left_y=loc;
          fill(m_packageName,cmx_tob_left_evtstr,cmx_tob_left_y);
        } else {
          auto cmx_tob_right_evtstr = Monitored::Scalar<std::string>("cmx_tob_right_evtstr", std::to_string(eventNumber));
          cmx_tob_right_y=loc;
          fill(m_packageName,cmx_tob_right_evtstr,cmx_tob_right_y);
        }
          }
        }
      }
    } // err<7
      }
      if (loc < cmxBins) {
        if ((errorsCMX[loc] >> err) & 0x1) {
      cpmErrorLoc=loc+cpmBins;
      cpmError=err;
      fill(m_packageName,cpmErrorLoc,cpmError);
        }
        if ((errorsCMX[loc + cmxBins] >> err) & 0x1) {
      cpmErrorLoc_SimNeData=loc+cpmBins;
      cpmError_SimNeData=err;
      fill(m_packageName,cpmErrorLoc_SimNeData,cpmError_SimNeData);
      //
          error = 1;
          crateErr[loc / m_cmxs] |= (1 << err);
          int offset = 0;
          if (err == RemoteSumMismatch || err == TotalSumMismatch)
            offset = 8;
          else if (err == TopoMismatch) {
            offset = 16;
      }
 
      // scope for mutable error event per lumi block threshold counter
      {
        std::lock_guard<std::mutex> lock(m_mutex);
        if (!error_thresh) {
            m_errorLB_thresh_counter[lb]+=1;
          error_thresh = true;
        }
        if(m_errorLB_thresh_counter[lb]<=maxErrorsPerLB) {
          auto cmx_thresh_evtstr = Monitored::Scalar<std::string>("cmx_thresh_evtstr", std::to_string(eventNumber));
          cmx_thresh_y=loc+offset;
          fill(m_packageName,cmx_thresh_evtstr,cmx_thresh_y);
        }
      }
        } 
      }
    }
    if (error) {
      cpmErrorSummary=err;
      fill(m_packageName,cpmErrorSummary);    
    }    
  } // summary bins
 
  //
  // Save error vector for global summary
  {
    auto save = std::make_unique<ErrorVector>(crateErr);
    auto* result = SG::makeHandle(m_errorLocation, ctx).put(std::move(save));
    if (!result) {
      ATH_MSG_ERROR("Error recording CPM mismatch vector in TES");
      return StatusCode::FAILURE;
    }
  }
 
  
  fill(m_packageName,variables);
  variables.clear();
 
  return StatusCode::SUCCESS;
}

fillXVsThresholds()

void CpmSimMonitorAlgorithm::fillXVsThresholds ( Monitored::Scalar< int > & xitem, Monitored::Scalar< int > & yitem, Monitored::Scalar< int > & witem, int x, int val, int nThresh, int nBits, int offset = 0 ) const

private

Definition at line 1715 of file CpmSimMonitorAlgorithm.cxx.

{
  if (val) {
    const int mask = (1 << nBits) - 1;
    for (int thr = 0; thr < nThresh; ++thr) {
      const int hit = (val >> (nBits*thr)) & mask;
      if (hit) {
    xitem=x;
    yitem=thr+offset;
    witem=hit;
    fill(m_packageName, xitem, yitem, witem);
      }
    }
  }
}

filterPassed()

virtual bool AthCommonReentrantAlgorithm< Gaudi::Algorithm >::filterPassed ( const EventContext & ctx ) const

inlinevirtualinherited

Definition at line 96 of file AthCommonReentrantAlgorithm.h.

                                                           {
    return execState( ctx ).filterPassed();
  }

fpga()

int CpmSimMonitorAlgorithm::fpga ( int crate, double phi ) const

private

Definition at line 1981 of file CpmSimMonitorAlgorithm.cxx.

                                                            {
  const double phiGran = M_PI / 32.;
  const double phiBase = M_PI / 2. * double(crate);
  const int phiBin = int(floor((phi - phiBase) / phiGran)) + 2;
  return 2 * (phiBin / 2);
}

GetEventInfo()

SG::ReadHandle< xAOD::EventInfo > AthMonitorAlgorithm::GetEventInfo ( const EventContext & ctx ) const

inherited

Return a ReadHandle for an EventInfo object (get run/event numbers, etc.)

Parameters

ctx	EventContext for the event

Returns

a SG::ReadHandle<xAOD::EventInfo>

Definition at line 111 of file AthMonitorAlgorithm.cxx.

                                                                                             {
    return SG::ReadHandle<xAOD::EventInfo>(m_EventInfoKey, ctx);
}

getGroup()

const ToolHandle< GenericMonitoringTool > & AthMonitorAlgorithm::getGroup ( const std::string & name ) const

inherited

Get a specific monitoring tool from the tool handle array.

Finds a specific GenericMonitoringTool instance from the list of monitoring tools (a ToolHandleArray). Throws a FATAL warning if the object found is empty.

Parameters

name	string name of the desired tool

Returns

reference to the desired monitoring tool

Definition at line 168 of file AthMonitorAlgorithm.cxx.

                                                                                                    {
    // get the pointer to the tool, and check that it exists
    auto idx = m_toolLookupMap.find(name);
    if (ATH_LIKELY(idx != m_toolLookupMap.end())) {
        return m_tools[idx->second];
    }
    else {
      // treat empty tool handle case as in Monitored::Group
      if (m_toolLookupMap.empty()) {
    return m_dummy;
      }
 
      if (!isInitialized()) {
        ATH_MSG_FATAL(
            "It seems that the AthMonitorAlgorithm::initialize was not called "
            "in derived class initialize method");
      } else {
        std::string available = std::accumulate(
            m_toolLookupMap.begin(), m_toolLookupMap.end(), std::string(""),
            [](const std::string& s, auto h) { return s + "," + h.first; });
        ATH_MSG_FATAL("The tool " << name << " could not be found in the tool array of the "
                      << "monitoring algorithm " << m_name << ". This probably reflects a discrepancy between "
                      << "your python configuration and c++ filling code. Note: your available groups are {"
                      << available << "}.");
        }
    }
    return m_dummy;
}

getL1Menu()

const TrigConf::L1Menu * CpmSimMonitorAlgorithm::getL1Menu ( const EventContext & ctx ) const

private

Definition at line 2052 of file CpmSimMonitorAlgorithm.cxx.

                                                                                     {
  const TrigConf::L1Menu* menu = nullptr;
  if (detStore()->contains<TrigConf::L1Menu>(m_L1MenuKey.key())) {
    SG::ReadHandle<TrigConf::L1Menu>  l1MenuHandle = SG::makeHandle( m_L1MenuKey, ctx );
    if( l1MenuHandle.isValid() ){
      menu=l1MenuHandle.cptr();
    }
  } else {
    menu = &(m_configSvc->l1Menu(ctx)); 
  }
 
  return menu;
}

getTrigDecisionTool()

const ToolHandle< Trig::TrigDecisionTool > & AthMonitorAlgorithm::getTrigDecisionTool ( ) const

inherited

Get the trigger decision tool member.

The trigger decision tool is used to check whether a specific trigger is passed by an event.

Returns

m_trigDecTool

Definition at line 198 of file AthMonitorAlgorithm.cxx.

                                                                                       {
    return m_trigDecTool;
}

initialize()

StatusCode CpmSimMonitorAlgorithm::initialize ( )

overridevirtual

initialize

Returns

StatusCode

Reimplemented from AthMonitorAlgorithm.

Definition at line 18 of file CpmSimMonitorAlgorithm.cxx.

                                              {
 
  ATH_MSG_DEBUG("CpmSimMonitorAlgorith::initialize");
  ATH_MSG_DEBUG("Package Name "<< m_packageName);
  
  // Container names
  ATH_MSG_DEBUG("m_TriggerTowerLocation"<< m_triggerTowerLocation); 
  ATH_MSG_DEBUG("m_cpmTowerLocation"<< m_cpmTowerLocation); 
  ATH_MSG_DEBUG("m_cpmTowerLocationOverlap"<< m_cpmTowerLocationOverlap); 
  ATH_MSG_DEBUG("m_cpmTobRoiLocation"<< m_cpmTobRoiLocation); 
 
  // Initialise all the readhandles that are needed
  ATH_CHECK(m_triggerTowerLocation.initialize());
  ATH_CHECK(m_cpmTowerLocation.initialize());
  ATH_CHECK(m_cpmTowerLocationOverlap.initialize());
  ATH_CHECK(m_cpmTobRoiLocation.initialize());
  ATH_CHECK(m_rodHeaderLocation.initialize());
  ATH_CHECK(m_cmxCpTobLocation.initialize());
  ATH_CHECK(m_cmxCpHitsLocation.initialize());
 
  ATH_CHECK(m_errorLocation.initialize());
  
  ATH_CHECK( m_L1MenuKey.initialize() );
  renounce(m_L1MenuKey); // Detector Store data - hide this Data Dependency from the MT Scheduler
 
  // retrieve any tools if needed
  ATH_CHECK(m_cpCmxTool.retrieve());
  ATH_CHECK(m_cpmTool.retrieve());
  ATH_CHECK(m_errorTool.retrieve());
 
  // steering parameters
  ATH_MSG_DEBUG("m_crates"<<m_crates ); 
  ATH_MSG_DEBUG("m_modules"<<m_modules ); 
  ATH_MSG_DEBUG("m_maxSlices"<<m_maxSlices );
  ATH_MSG_DEBUG("m_cmxs"<<m_cmxs ); 
  ATH_MSG_DEBUG("m_legacyCpHadInputsDisabled"<<m_legacyCpHadInputsDisabled );
 
  
  return AthMonitorAlgorithm::initialize();
}

inputHandles()

virtual std::vector< Gaudi::DataHandle * > AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::inputHandles ( ) const

overridevirtualinherited

Return this algorithm's input handles.

We override this to include handle instances from key arrays if they have not yet been declared. See comments on updateVHKA.

isClonable()

bool AthCommonReentrantAlgorithm< Gaudi::Algorithm >::isClonable ( ) const

overridevirtualinherited

Specify if the algorithm is clonable.

Reentrant algorithms are clonable.

Reimplemented in InDet::GNNSeedingTrackMaker, InDet::SCT_Clusterization, InDet::SiSPGNNTrackMaker, InDet::SiSPSeededTrackFinder, InDet::SiTrackerSpacePointFinder, ITkPixelCablingAlg, ITkStripCablingAlg, RoIBResultToxAOD, SCT_ByteStreamErrorsTestAlg, SCT_CablingCondAlgFromCoraCool, SCT_CablingCondAlgFromText, SCT_ConditionsParameterTestAlg, SCT_ConditionsSummaryTestAlg, SCT_ConfigurationConditionsTestAlg, SCT_FlaggedConditionTestAlg, SCT_LinkMaskingTestAlg, SCT_MajorityConditionsTestAlg, SCT_ModuleVetoTestAlg, SCT_MonitorConditionsTestAlg, SCT_PrepDataToxAOD, SCT_RawDataToxAOD, SCT_ReadCalibChipDataTestAlg, SCT_ReadCalibDataTestAlg, SCT_RODVetoTestAlg, SCT_SensorsTestAlg, SCT_SiliconConditionsTestAlg, SCT_StripVetoTestAlg, SCT_TdaqEnabledTestAlg, SCT_TestCablingAlg, SCTEventFlagWriter, SCTRawDataProvider, SCTSiLorentzAngleTestAlg, SCTSiPropertiesTestAlg, and Simulation::BeamEffectsAlg.

Definition at line 68 of file AthCommonReentrantAlgorithm.cxx.

{
  // Reentrant algorithms are clonable.
  return true;
}

limitedRoiSet() [1/2]

bool CpmSimMonitorAlgorithm::limitedRoiSet ( int crate, const xAOD::RODHeaderContainer * rodTES ) const

private

Definition at line 2018 of file CpmSimMonitorAlgorithm.cxx.

                                                                                                {
 
  int limitedRoi = 0;
  xAOD::RODHeaderContainer::const_iterator rodIter = rodTES->begin();
  xAOD::RODHeaderContainer::const_iterator rodIterE = rodTES->end();
  for (; rodIter != rodIterE; ++rodIter) {
    const xAOD::RODHeader *rod = *rodIter;
    const int rodCrate = rod->crate() - 8;
    if (rodCrate >= 0 && rodCrate < m_crates && rod->dataType() == 1 &&
    rod->limitedRoISet()) {
      limitedRoi |= (1 << rodCrate);
    }
  }
  return (((limitedRoi >> crate) & 0x1) == 1);
}

limitedRoiSet() [2/2]

bool CpmSimMonitorAlgorithm::limitedRoiSet ( int crate, SG::ReadHandle< xAOD::RODHeaderContainer > & rodTES ) const

private

Definition at line 2034 of file CpmSimMonitorAlgorithm.cxx.

                                                                                                        {
 
  int limitedRoi = 0;
  xAOD::RODHeaderContainer::const_iterator rodIter = (*rodTES).begin();
  xAOD::RODHeaderContainer::const_iterator rodIterE = (*rodTES).end();
  for (; rodIter != rodIterE; ++rodIter) {
    const xAOD::RODHeader *rod = *rodIter;
    const int rodCrate = rod->crate() - 8;
    if (rodCrate >= 0 && rodCrate < m_crates && rod->dataType() == 1 &&
    rod->limitedRoISet()) {
      limitedRoi |= (1 << rodCrate);
    }
  }
  return (((limitedRoi >> crate) & 0x1) == 1);
}

msg()

MsgStream & AthCommonMsg< Gaudi::Algorithm >::msg ( ) const

inlineinherited

Definition at line 24 of file AthCommonMsg.h.

                                {
    return this->msgStream();
  }

msgLvl()

bool AthCommonMsg< Gaudi::Algorithm >::msgLvl ( const MSG::Level lvl ) const

inlineinherited

Definition at line 30 of file AthCommonMsg.h.

                                               {
    return this->msgLevel(lvl);
  }

outputHandles()

virtual std::vector< Gaudi::DataHandle * > AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::outputHandles ( ) const

overridevirtualinherited

Return this algorithm's output handles.

We override this to include handle instances from key arrays if they have not yet been declared. See comments on updateVHKA.

parseList()

StatusCode AthMonitorAlgorithm::parseList ( const std::string & line, std::vector< std::string > & result ) const

virtualinherited

Parse a string into a vector.

The input string is a single long string of all of the trigger names. It parses this string and turns it into a vector, where each element is one trigger or trigger category.

Parameters

line	The input string.
result	The parsed output vector of strings.

Returns

StatusCode

Definition at line 345 of file AthMonitorAlgorithm.cxx.

                                                                                                   {
    std::string item;
    std::stringstream ss(line);
 
    ATH_MSG_DEBUG( "AthMonitorAlgorithm::parseList()" );
 
    while ( std::getline(ss, item, ',') ) {
        std::stringstream iss(item); // remove whitespace
        iss >> item;
        result.push_back(item);
    }
 
    return StatusCode::SUCCESS;
}

renounce()

std::enable_if_t< std::is_void_v< std::result_of_t< decltype(&T::renounce)(T)> > &&!std::is_base_of_v< SG::VarHandleKeyArray, T > &&std::is_base_of_v< Gaudi::DataHandle, T >, void > AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::renounce ( T & h )

inlineprotectedinherited

Definition at line 380 of file AthCommonDataStore.h.

  {
    h.renounce();
    PBASE::renounce (h);
  }

renounceArray()

void AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::renounceArray ( SG::VarHandleKeyArray & handlesArray )

inlineprotectedinherited

remove all handles from I/O resolution

Definition at line 364 of file AthCommonDataStore.h.

                                                          {
    handlesArray.renounce();
  }

setFilterPassed()

virtual void AthCommonReentrantAlgorithm< Gaudi::Algorithm >::setFilterPassed ( bool state, const EventContext & ctx ) const

inlinevirtualinherited

Definition at line 100 of file AthCommonReentrantAlgorithm.h.

                                                                            {
    execState( ctx ).setFilterPassed( state );
  }

setupMap() [1/5]

StatusCode CpmSimMonitorAlgorithm::setupMap ( const xAOD::CMXCPHitsContainer * coll, CmxCpHitsMap & map ) const

private

Definition at line 1869 of file CpmSimMonitorAlgorithm.cxx.

                                                 {
  xAOD::CMXCPHitsContainer::const_iterator pos = coll->begin();
  xAOD::CMXCPHitsContainer::const_iterator posE = coll->end();
  for (; pos != posE; ++pos) {
    const int crate = (*pos)->crate();
    const int cmx = (*pos)->cmx();
    const int source = (*pos)->sourceComponent();
    const int key = (crate * 2 + cmx) * 8 + source;
    map.insert(std::make_pair(key, *pos));
  }
  return StatusCode::SUCCESS;
}

setupMap() [2/5]

StatusCode CpmSimMonitorAlgorithm::setupMap ( const xAOD::CMXCPTobContainer * coll, CmxCpTobMap & map, std::vector< int > * parityMap = 0 ) const

private

Definition at line 1841 of file CpmSimMonitorAlgorithm.cxx.

                                                         {
 
  xAOD::CMXCPTobContainer::const_iterator pos = coll->begin();
  xAOD::CMXCPTobContainer::const_iterator posE = coll->end();
  for (; pos != posE; ++pos) {
    const int crate = (*pos)->crate();
    const int cpm = (*pos)->cpm();
    const int cmx = (*pos)->cmx();
    const int chip = (*pos)->chip();
    const int loc = (*pos)->location();
    const int key =
      (((((((crate << 1) | cmx) << 4) | cpm) << 4) | chip) << 2) | loc;
    map.insert(std::make_pair(key, *pos));
    if (parityMap) {
      LVL1::DataError err((*pos)->error());
      const int parity = err.get(LVL1::DataError::ParityMerge);
      if (parity) {
    const int index = (crate * m_cmxs + cmx) * m_modules + cpm - 1;
    (*parityMap)[index] = parity;
      }
    }
  }
  return StatusCode::SUCCESS;
}

setupMap() [3/5]

StatusCode CpmSimMonitorAlgorithm::setupMap ( const xAOD::CPMTobRoIContainer * coll, CpmTobRoiMap & map ) const

private

Definition at line 1820 of file CpmSimMonitorAlgorithm.cxx.

                                                 {
  if (coll) {
    xAOD::CPMTobRoIContainer::const_iterator pos = coll->begin();
    xAOD::CPMTobRoIContainer::const_iterator posE = coll->end();
    for (; pos != posE; ++pos) {
      const int crate = (*pos)->crate();
      const int cpm = (*pos)->cpm();
      const int chip = (*pos)->chip();
      const int loc = (*pos)->location();
      const int type = (*pos)->type();
      const int key =
          (((((((type << 2) | crate) << 4) | cpm) << 3) | chip) << 3) | loc;
      map.insert(std::make_pair(key, *pos));
    }
  }
  return StatusCode::SUCCESS;
}

setupMap() [4/5]

StatusCode CpmSimMonitorAlgorithm::setupMap ( const xAOD::CPMTowerContainer * coll, CpmTowerMap & map ) const

private

Definition at line 1803 of file CpmSimMonitorAlgorithm.cxx.

                                                                                                     {
 
  LVL1::TriggerTowerKey towerKey;
  xAOD::CPMTowerContainer::const_iterator pos = coll->begin();
  xAOD::CPMTowerContainer::const_iterator posE = coll->end();
  for (; pos != posE; ++pos) {
    CpmTowerMap::mapped_type cp = (*pos);
    const double eta = (*pos)->eta();
    const double phi = (*pos)->phi();
    const int key = towerKey.ttKey(phi, eta);
    map.insert(std::make_pair(key, cp));
  }
  return StatusCode::SUCCESS;
}

setupMap() [5/5]

StatusCode CpmSimMonitorAlgorithm::setupMap ( const xAOD::TriggerTowerContainer * coll, TriggerTowerMapEm & emmap, TriggerTowerMapHad & hadmap ) const

private

Definition at line 1768 of file CpmSimMonitorAlgorithm.cxx.

                                                          {
 
  LVL1::TriggerTowerKey towerKey;
  xAOD::TriggerTowerContainer::const_iterator pos = coll->begin();
  xAOD::TriggerTowerContainer::const_iterator posE = coll->end();
  int emE = 0;
  int hadE = 0;
  for (; pos != posE; ++pos) {
    const xAOD::TriggerTower *tt = (*pos);
    const int layer = (*pos)->layer();
    if (layer == 0)
      emE = (*pos)->cpET();
    ;
    if (layer == 1)
      hadE = (*pos)->cpET();
    ;
    const double eta = (*pos)->eta();
    if (eta > -2.5 && eta < 2.5 && (emE > 0 || hadE > 0)) {
      const double phi = (*pos)->phi();
      const int key = towerKey.ttKey(phi, eta);
      if (emE > 0)
    mapEm.insert(std::make_pair(key, tt));
      if (hadE > 0)
    mapHad.insert(std::make_pair(key, tt));
    }
  }
 
  return StatusCode::SUCCESS;
}

simulate() [1/5]

void CpmSimMonitorAlgorithm::simulate ( const CpmTowerMap * towers, const CpmTowerMap * towersOv, xAOD::CPMTobRoIContainer * rois, const EventContext & ctx ) const

private

Definition at line 1885 of file CpmSimMonitorAlgorithm.cxx.

                                                                                   {
 
  ATH_MSG_DEBUG("Simulate CPM TOB RoIs from CPM Towers");
 
  // Process a crate at a time to use overlap data
  std::vector<CpmTowerMap> crateMaps(m_crates);
  LVL1::CoordToHardware converter;
  std::unique_ptr<xAOD::CPMTowerContainer> tempColl = std::make_unique<xAOD::CPMTowerContainer>();
  std::unique_ptr<xAOD::CPMTowerAuxContainer> tempCollAux = std::make_unique<xAOD::CPMTowerAuxContainer>();
 
  tempColl.get()->setStore(tempCollAux.get());
  for (const auto& iter : *towers) {
    CpmTowerMap::mapped_type tt = ttCheck(iter.second, tempColl.get());
    const LVL1::Coordinate coord(tt->phi(), tt->eta());
    const int crate = converter.cpCrate(coord);
    if (crate >= m_crates)
      continue;
    crateMaps[crate].insert(std::make_pair(iter.first, tt));
  }
  // If overlap data not present take from core data
  for (const auto& iter : ((m_overlapPresent) ? *towersOv : *towers)) {
    CpmTowerMap::mapped_type tt = ttCheck(iter.second, tempColl.get());
    const LVL1::Coordinate coord(tt->phi(), tt->eta());
    const int crate = converter.cpCrateOverlap(coord);
    if (crate >= m_crates)
      continue;
    crateMaps[crate].insert(std::make_pair(iter.first, tt));
  }
  
  for (int crate = 0; crate < m_crates; ++crate) {
    xAOD::CPMTobRoIContainer *roiTemp =
        new xAOD::CPMTobRoIContainer(SG::VIEW_ELEMENTS);
 
    m_cpmTool->findCPMTobRoIs(getL1Menu(ctx), towers, roiTemp, 1);
 
    xAOD::CPMTobRoIContainer::iterator roiIter = roiTemp->begin();
    xAOD::CPMTobRoIContainer::iterator roiIterE = roiTemp->end();
    for (; roiIter != roiIterE; ++roiIter) {
      if ((*roiIter)->crate() == crate) {
        rois->push_back(*roiIter);
      }
    }
    delete roiTemp;
  }
}

simulate() [2/5]

void CpmSimMonitorAlgorithm::simulate ( const CpmTowerMap * towers, xAOD::CPMTobRoIContainer * rois, const EventContext & ctx ) const

private

Definition at line 1934 of file CpmSimMonitorAlgorithm.cxx.

                                                                                   {
 
  ATH_MSG_DEBUG("Simulate CPM TOB RoIs from CPM Towers");
  
  m_cpmTool->findCPMTobRoIs(getL1Menu(ctx), towers, rois, 1);
}

simulate() [3/5]

void CpmSimMonitorAlgorithm::simulate ( const xAOD::CMXCPHitsContainer * hitsIn, xAOD::CMXCPHitsContainer * hitsOut ) const

private

Definition at line 1972 of file CpmSimMonitorAlgorithm.cxx.

                                                             {
  
  ATH_MSG_DEBUG("Simulate CMX Total Hit sums from Remote/Local");
 
  m_cpCmxTool->formCMXCPHitsSystem(hitsIn, hitsOut);
}

simulate() [4/5]

void CpmSimMonitorAlgorithm::simulate ( const xAOD::CMXCPTobContainer * tobs, xAOD::CMXCPHitsContainer * hits, int selection, const EventContext & ctx ) const

private

Definition at line 1954 of file CpmSimMonitorAlgorithm.cxx.

                                                     {
 
  ATH_MSG_DEBUG("Simulate CMX Hit sums from CMX TOBs");
 
 
  if (selection == xAOD::CMXCPHits::LOCAL) {
    m_cpCmxTool->formCMXCPHitsCrate(getL1Menu(ctx), tobs, hits);
  } else if (selection == xAOD::CMXCPHits::TOPO_CHECKSUM) {
    m_cpCmxTool->formCMXCPHitsTopo(tobs, hits);
  }
 
}

simulate() [5/5]

void CpmSimMonitorAlgorithm::simulate ( const xAOD::CPMTobRoIContainer * rois, xAOD::CMXCPTobContainer * tobs ) const

private

Definition at line 1944 of file CpmSimMonitorAlgorithm.cxx.

                                                         {
 
  ATH_MSG_DEBUG("Simulate CMX TOBs from CPM TOB RoIs");
  
  m_cpCmxTool->formCMXCPTob(rois, tobs);
}

sysExecute()

StatusCode AthCommonReentrantAlgorithm< Gaudi::Algorithm >::sysExecute ( const EventContext & ctx )

overridevirtualinherited

Execute an algorithm.

We override this in order to work around an issue with the Algorithm base class storing the event context in a member variable that can cause crashes in MT jobs.

Definition at line 85 of file AthCommonReentrantAlgorithm.cxx.

{
  return BaseAlg::sysExecute (ctx);
}

sysInitialize()

StatusCode AthCommonReentrantAlgorithm< Gaudi::Algorithm >::sysInitialize ( )

overridevirtualinherited

Override sysInitialize.

Override sysInitialize from the base class.

Loop through all output handles, and if they're WriteCondHandles, automatically register them and this Algorithm with the CondSvc

Scan through all outputHandles, and if they're WriteCondHandles, register them with the CondSvc

Reimplemented from AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >.

Reimplemented in HypoBase, and InputMakerBase.

Definition at line 61 of file AthCommonReentrantAlgorithm.cxx.

                                                               {
  StatusCode sc=AthCommonDataStore<AthCommonMsg<BaseAlg>>::sysInitialize();
 
  if (sc.isFailure()) {
    return sc;
  }
  
  ServiceHandle<ICondSvc> cs("CondSvc",name());
  for (auto h : outputHandles()) {
    if (h->isCondition() && h->mode() == Gaudi::DataHandle::Writer) {
      // do this inside the loop so we don't create the CondSvc until needed
      if ( cs.retrieve().isFailure() ) {
        ATH_MSG_WARNING("no CondSvc found: won't autoreg WriteCondHandles");
        return StatusCode::SUCCESS;
      }      
      if (cs->regHandle(this,*h).isFailure()) {
        sc = StatusCode::FAILURE;
        ATH_MSG_ERROR("unable to register WriteCondHandle " << h->fullKey()
                      << " with CondSvc");
      }
    }
  }
  return sc;  
}

sysStart()

virtual StatusCode AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::sysStart ( )

overridevirtualinherited

Handle START transition.

We override this in order to make sure that conditions handle keys can cache a pointer to the conditions container.

thresholdsDiff()

int CpmSimMonitorAlgorithm::thresholdsDiff ( int val1, int val2, int nThresh, int nBits ) const

private

Definition at line 1751 of file CpmSimMonitorAlgorithm.cxx.

{
  int result = 0;
  const int mask = (1 << nBits) - 1;
  for (int thr = 0; thr < nThresh; ++thr) {
    const int hit1 = (val1 >> (nBits*thr)) & mask;
    const int hit2 = (val2 >> (nBits*thr)) & mask;
    if (hit1 != hit2) result |= (1 << thr);
  }
  return result;
}

thresholdsSame()

int CpmSimMonitorAlgorithm::thresholdsSame ( int val1, int val2, int nThresh, int nBits ) const

private

Definition at line 1736 of file CpmSimMonitorAlgorithm.cxx.

{
  int result = 0;
  const int mask = (1 << nBits) - 1;
  for (int thr = 0; thr < nThresh; ++thr) {
    const int hit1 = (val1 >> (nBits*thr)) & mask;
    const int hit2 = (val2 >> (nBits*thr)) & mask;
    if (hit1 && (hit1 == hit2)) result |= (1 << thr);
  }
  return result;
}

trigChainsArePassed()

bool AthMonitorAlgorithm::trigChainsArePassed ( const std::vector< std::string > & vTrigNames ) const

inherited

Check whether triggers are passed.

For the event, use the trigger decision tool to check that at least one of the triggers listed in the supplied vector is passed.

Parameters

vTrigNames

List of trigger names.

Returns

If empty input, default to true. If at least one trigger is specified, returns whether at least one trigger was passed.

Definition at line 203 of file AthMonitorAlgorithm.cxx.

                                                                                            {
 
  
  // If no triggers were given, return true.
  if (vTrigNames.empty()) return true;
  
  
  // Trigger: Check if this Algorithm is being run as an Express Stream job.
  // Events are entering the express stream are chosen randomly, and by chain,
  // Hence an additional check should be aplied to see if the chain(s)
  // monitored here are responsible for the event being selected for
  // the express stream.
 
  const auto group =  m_trigDecTool->getChainGroup(vTrigNames);
  if (m_enforceExpressTriggers){  
    const auto passedBits = m_trigDecTool->isPassedBits(group);
    bool expressPass = passedBits & TrigDefs::Express_passed; //bitwise AND
    if(!expressPass) {
      return false;
    }
  }
  
  // monitor the event if any of the chains in the chain group passes the event.
  return group->isPassed();
  
}

ttCheck()

CpmSimMonitorAlgorithm::CpmTowerMap::mapped_type CpmSimMonitorAlgorithm::ttCheck ( CpmTowerMap::mapped_type tt, xAOD::CPMTowerContainer * coll ) const

private

Definition at line 1992 of file CpmSimMonitorAlgorithm.cxx.

{
  const LVL1::DataError emError(tt->emError());
  const LVL1::DataError hadError(tt->hadError());
  const int emParity = emError.get(LVL1::DataError::Parity);
  const int hadParity = hadError.get(LVL1::DataError::Parity);
  if ((emParity && tt->emEnergy()) || (hadParity && tt->hadEnergy())) {
    const int peak = tt->peak();
    std::vector<uint8_t> emEnergyVec(tt->emEnergyVec());
    std::vector<uint8_t> hadEnergyVec(tt->hadEnergyVec());
    std::vector<uint32_t> emErrorVec(tt->emErrorVec());
    std::vector<uint32_t> hadErrorVec(tt->hadErrorVec());
    if (emParity)
      emEnergyVec[peak] = 0;
    if (hadParity)
      hadEnergyVec[peak] = 0;
    xAOD::CPMTower *ct = new xAOD::CPMTower();
    ct->makePrivateStore();
    ct->initialize(tt->eta(), tt->phi(), emEnergyVec, hadEnergyVec, emErrorVec,
                   hadErrorVec, peak);
    coll->push_back(ct);
    return ct;
  }
  return tt;
}

updateVHKA()

void AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::updateVHKA ( Gaudi::Details::PropertyBase & )

inlineinherited

Definition at line 308 of file AthCommonDataStore.h.

                                               {
    // debug() << "updateVHKA for property " << p.name() << " " << p.toString() 
    //         << "  size: " << m_vhka.size() << endmsg;
    for (auto &a : m_vhka) {
      std::vector<SG::VarHandleKey*> keys = a->keys();
      for (auto k : keys) {
        k->setOwner(this);
      }
    }
  }

Member Data Documentation

ATLAS_THREAD_SAFE [1/4]

std::map<uint32_t, int> m_errorLB_tt_counter CpmSimMonitorAlgorithm::ATLAS_THREAD_SAFE

mutableprivate

Definition at line 183 of file CpmSimMonitorAlgorithm.h.

ATLAS_THREAD_SAFE [2/4]

std::map<uint32_t, int> m_errorLB_roi_counter CpmSimMonitorAlgorithm::ATLAS_THREAD_SAFE

mutableprivate

Definition at line 184 of file CpmSimMonitorAlgorithm.h.

ATLAS_THREAD_SAFE [3/4]

std::map<uint32_t, int> m_errorLB_tob_counter CpmSimMonitorAlgorithm::ATLAS_THREAD_SAFE

mutableprivate

Definition at line 185 of file CpmSimMonitorAlgorithm.h.

ATLAS_THREAD_SAFE [4/4]

std::map<uint32_t, int> m_errorLB_thresh_counter CpmSimMonitorAlgorithm::ATLAS_THREAD_SAFE

mutableprivate

Definition at line 186 of file CpmSimMonitorAlgorithm.h.

cfg

CpmSimMonitorAlgorithm.cfg = MainServicesSerialCfg()

Definition at line 515 of file CpmSimMonitorAlgorithm.py.

CpmSimMonitorCfg

CpmSimMonitorAlgorithm.CpmSimMonitorCfg = CpmSimMonitoringConfig(flags)

Definition at line 518 of file CpmSimMonitorAlgorithm.py.

False

CpmSimMonitorAlgorithm.False

Definition at line 524 of file CpmSimMonitorAlgorithm.py.

Files

CpmSimMonitorAlgorithm.Files

Definition at line 507 of file CpmSimMonitorAlgorithm.py.

flags

CpmSimMonitorAlgorithm.flags = initConfigFlags()

Definition at line 506 of file CpmSimMonitorAlgorithm.py.

HISTFileName

CpmSimMonitorAlgorithm.HISTFileName

Definition at line 508 of file CpmSimMonitorAlgorithm.py.

inputs

CpmSimMonitorAlgorithm.inputs = glob.glob('/eos/atlas/atlascerngroupdisk/data-art/build-output/master/Athena/x86_64-centos7-gcc8-opt/2020-04-06T2139/TrigP1Test/test_trigP1_v1PhysP1_T0Mon_build/ESD.pool.root')

Definition at line 504 of file CpmSimMonitorAlgorithm.py.

m_cmxCpHitsLocation

SG::ReadHandleKey<xAOD::CMXCPHitsContainer> CpmSimMonitorAlgorithm::m_cmxCpHitsLocation {this, "CMXCPHitsLocation", LVL1::TrigT1CaloDefs::CMXCPHitsLocation, "CMX CP Hits container"}

private

Definition at line 81 of file CpmSimMonitorAlgorithm.h.

{this, "CMXCPHitsLocation", LVL1::TrigT1CaloDefs::CMXCPHitsLocation, "CMX CP Hits container"};

m_cmxCpTobLocation

SG::ReadHandleKey<xAOD::CMXCPTobContainer> CpmSimMonitorAlgorithm::m_cmxCpTobLocation {this, "CMXCPTobLocation", LVL1::TrigT1CaloDefs::CMXCPTobLocation, "CMX CP Tob container"}

private

Definition at line 80 of file CpmSimMonitorAlgorithm.h.

{this, "CMXCPTobLocation", LVL1::TrigT1CaloDefs::CMXCPTobLocation, "CMX CP Tob container"};

m_cmxs

Gaudi::Property<int> CpmSimMonitorAlgorithm::m_cmxs {this,"s_cmxs", 2, "Number of CMXs"}

private

Definition at line 60 of file CpmSimMonitorAlgorithm.h.

{this,"s_cmxs", 2,  "Number of CMXs"};

m_configSvc

ServiceHandle<TrigConf::ITrigConfigSvc> CpmSimMonitorAlgorithm::m_configSvc {this, "TrigConfigSvc", "TrigConf::xAODConfigSvc/xAODConfigSvc"}

private

Definition at line 49 of file CpmSimMonitorAlgorithm.h.

{this, "TrigConfigSvc", "TrigConf::xAODConfigSvc/xAODConfigSvc"};

m_cpCmxTool

ToolHandle<LVL1::IL1CPCMXTools> CpmSimMonitorAlgorithm::m_cpCmxTool

private

Definition at line 88 of file CpmSimMonitorAlgorithm.h.

m_cpmTobRoiLocation

SG::ReadHandleKey<xAOD::CPMTobRoIContainer> CpmSimMonitorAlgorithm::m_cpmTobRoiLocation {this, "CPMTobRoILocation", LVL1::TrigT1CaloDefs::CPMTobRoILocation, "CPM RoI container"}

private

Definition at line 79 of file CpmSimMonitorAlgorithm.h.

{this, "CPMTobRoILocation", LVL1::TrigT1CaloDefs::CPMTobRoILocation, "CPM RoI container"};

m_cpmTool

ToolHandle<LVL1::IL1CPMTools> CpmSimMonitorAlgorithm::m_cpmTool

private

Definition at line 90 of file CpmSimMonitorAlgorithm.h.

m_cpmTowerLocation

SG::ReadHandleKey<xAOD::CPMTowerContainer> CpmSimMonitorAlgorithm::m_cpmTowerLocation {this, "CPMTowerLocation", LVL1::TrigT1CaloDefs::CPMTowerLocation, "CPM container"}

private

Definition at line 77 of file CpmSimMonitorAlgorithm.h.

{this, "CPMTowerLocation", LVL1::TrigT1CaloDefs::CPMTowerLocation, "CPM container"};

m_cpmTowerLocationOverlap

SG::ReadHandleKey<xAOD::CPMTowerContainer> CpmSimMonitorAlgorithm::m_cpmTowerLocationOverlap {this, "CPMTowerLocationOverlap",LVL1::TrigT1CaloDefs::CPMTowerLocation + "Overlap", "CPM Overlap container"}

private

Definition at line 78 of file CpmSimMonitorAlgorithm.h.

{this, "CPMTowerLocationOverlap",LVL1::TrigT1CaloDefs::CPMTowerLocation + "Overlap", "CPM Overlap container"};

m_crates

Gaudi::Property<int> CpmSimMonitorAlgorithm::m_crates {this,"s_crates", 4, "Number of CPM crates"}

private

Definition at line 57 of file CpmSimMonitorAlgorithm.h.

{this,"s_crates", 4,  "Number of CPM crates"};

m_dataType

AthMonitorAlgorithm::DataType_t AthMonitorAlgorithm::m_dataType

protectedinherited

Instance of the DataType_t enum.

Definition at line 356 of file AthMonitorAlgorithm.h.

m_dataTypeStr

Gaudi::Property<std::string> AthMonitorAlgorithm::m_dataTypeStr {this,"DataType","userDefined"}

protectedinherited

DataType string pulled from the job option and converted to enum.

Definition at line 358 of file AthMonitorAlgorithm.h.

{this,"DataType","userDefined"}; 

m_defaultLBDuration

Gaudi::Property<float> AthMonitorAlgorithm::m_defaultLBDuration {this,"DefaultLBDuration",60.}

protectedinherited

Default duration of one lumi block.

Definition at line 365 of file AthMonitorAlgorithm.h.

{this,"DefaultLBDuration",60.}; 

m_detailLevel

Gaudi::Property<int> AthMonitorAlgorithm::m_detailLevel {this,"DetailLevel",0}

protectedinherited

Sets the level of detail used in the monitoring.

Definition at line 366 of file AthMonitorAlgorithm.h.

{this,"DetailLevel",0}; 

m_detStore

StoreGateSvc_t AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::m_detStore

privateinherited

Pointer to StoreGate (detector store by default)

Definition at line 393 of file AthCommonDataStore.h.

m_DQFilterTools

ToolHandleArray<IDQFilterTool> AthMonitorAlgorithm::m_DQFilterTools {this,"FilterTools",{}}

protectedinherited

Array of Data Quality filter tools.

Definition at line 346 of file AthMonitorAlgorithm.h.

{this,"FilterTools",{}}; 

m_dummy

const ToolHandle<GenericMonitoringTool> AthMonitorAlgorithm::m_dummy

privateinherited

Definition at line 374 of file AthMonitorAlgorithm.h.

m_enforceExpressTriggers

Gaudi::Property<bool> AthMonitorAlgorithm::m_enforceExpressTriggers

privateinherited

Initial value:

{this,
                          "EnforceExpressTriggers", false,
                          "Requires that matched triggers made the event enter the express stream"}

Definition at line 377 of file AthMonitorAlgorithm.h.

                                               {this,
                          "EnforceExpressTriggers", false,
                          "Requires that matched triggers made the event enter the express stream"};

m_environment

AthMonitorAlgorithm::Environment_t AthMonitorAlgorithm::m_environment

protectedinherited

Instance of the Environment_t enum.

Definition at line 355 of file AthMonitorAlgorithm.h.

m_environmentStr

Gaudi::Property<std::string> AthMonitorAlgorithm::m_environmentStr {this,"Environment","user"}

protectedinherited

Environment string pulled from the job option and converted to enum.

Definition at line 357 of file AthMonitorAlgorithm.h.

{this,"Environment","user"}; 

m_errorLocation

SG::WriteHandleKey<std::vector<int> > CpmSimMonitorAlgorithm::m_errorLocation {this,"ErrorLocation","L1CaloCPMMismatchVector","ErrorVector"}

private

Definition at line 55 of file CpmSimMonitorAlgorithm.h.

{this,"ErrorLocation","L1CaloCPMMismatchVector","ErrorVector"};

m_errorTool

ToolHandle<LVL1::ITrigT1CaloMonErrorTool> CpmSimMonitorAlgorithm::m_errorTool

private

Definition at line 92 of file CpmSimMonitorAlgorithm.h.

m_EventInfoKey

SG::ReadHandleKey<xAOD::EventInfo> AthMonitorAlgorithm::m_EventInfoKey {this,"EventInfoKey","EventInfo"}

protectedinherited

Key for retrieving EventInfo from StoreGate.

Definition at line 367 of file AthMonitorAlgorithm.h.

{this,"EventInfoKey","EventInfo"}; 

m_evtStore

StoreGateSvc_t AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::m_evtStore

privateinherited

Pointer to StoreGate (event store by default)

Definition at line 390 of file AthCommonDataStore.h.

m_extendedExtraObjects

DataObjIDColl AthCommonReentrantAlgorithm< Gaudi::Algorithm >::m_extendedExtraObjects

privateinherited

Extra output dependency collection, extended by AthAlgorithmDHUpdate to add symlinks.

Empty if no symlinks were found.

Definition at line 114 of file AthCommonReentrantAlgorithm.h.

m_fileKey

Gaudi::Property<std::string> AthMonitorAlgorithm::m_fileKey {this,"FileKey",""}

protectedinherited

Internal Athena name for file.

Definition at line 363 of file AthMonitorAlgorithm.h.

{this,"FileKey",""}; 

m_L1MenuKey

SG::ReadHandleKey<TrigConf::L1Menu> CpmSimMonitorAlgorithm::m_L1MenuKey { this, "L1TriggerMenu", "DetectorStore+L1TriggerMenu", "L1 Menu" }

private

Definition at line 84 of file CpmSimMonitorAlgorithm.h.

{ this, "L1TriggerMenu", "DetectorStore+L1TriggerMenu", "L1 Menu" };

m_lbDurationDataKey

SG::ReadCondHandleKey<LBDurationCondData> AthMonitorAlgorithm::m_lbDurationDataKey {this,"LBDurationCondDataKey","LBDurationCondData","SG Key of LBDurationCondData object"}

protectedinherited

Definition at line 350 of file AthMonitorAlgorithm.h.

{this,"LBDurationCondDataKey","LBDurationCondData","SG Key of LBDurationCondData object"};

m_legacyCpHadInputsDisabled

Gaudi::Property<bool> CpmSimMonitorAlgorithm::m_legacyCpHadInputsDisabled {this,"s_legacyCpHadInputsDisabled", false, "Status of the L1Calo Legacy CP hadronic inputs"}

private

Definition at line 62 of file CpmSimMonitorAlgorithm.h.

{this,"s_legacyCpHadInputsDisabled", false,  "Status of the L1Calo Legacy CP hadronic inputs"};

m_lumiDataKey

SG::ReadCondHandleKey<LuminosityCondData> AthMonitorAlgorithm::m_lumiDataKey {this,"LuminosityCondDataKey","LuminosityCondData","SG Key of LuminosityCondData object"}

protectedinherited

Definition at line 348 of file AthMonitorAlgorithm.h.

{this,"LuminosityCondDataKey","LuminosityCondData","SG Key of LuminosityCondData object"};

m_maxSlices

Gaudi::Property<int> CpmSimMonitorAlgorithm::m_maxSlices {this,"s_maxSlices", 5, "Maximum number of slices"}

private

Definition at line 59 of file CpmSimMonitorAlgorithm.h.

{this,"s_maxSlices", 5,  "Maximum number of slices"};

m_modules

Gaudi::Property<int> CpmSimMonitorAlgorithm::m_modules {this,"s_modules", 14, "Number of modules per crate (modules numbered 1-14)"}

private

Definition at line 58 of file CpmSimMonitorAlgorithm.h.

{this,"s_modules", 14, "Number of modules per crate (modules numbered 1-14)"};

m_mutex

std::mutex CpmSimMonitorAlgorithm::m_mutex {}

mutableprivate

Definition at line 182 of file CpmSimMonitorAlgorithm.h.

{};

m_name

std::string AthMonitorAlgorithm::m_name

privateinherited

Definition at line 371 of file AthMonitorAlgorithm.h.

m_overlapPresent

bool CpmSimMonitorAlgorithm::m_overlapPresent

private

Definition at line 65 of file CpmSimMonitorAlgorithm.h.

m_packageName

StringProperty CpmSimMonitorAlgorithm::m_packageName {this,"PackageName","CpmSimMonitor","group name for histograming"}

private

Definition at line 52 of file CpmSimMonitorAlgorithm.h.

{this,"PackageName","CpmSimMonitor","group name for histograming"};

m_rodHeaderLocation

SG::ReadHandleKey<xAOD::RODHeaderContainer> CpmSimMonitorAlgorithm::m_rodHeaderLocation {this, "RodHeaderLocation", LVL1::TrigT1CaloDefs::RODHeaderLocation, "Rod header container"}

private

Definition at line 82 of file CpmSimMonitorAlgorithm.h.

{this, "RodHeaderLocation", LVL1::TrigT1CaloDefs::RODHeaderLocation, "Rod header container"};

m_toolLookupMap

std::unordered_map<std::string, size_t> AthMonitorAlgorithm::m_toolLookupMap

privateinherited

Definition at line 372 of file AthMonitorAlgorithm.h.

m_tools

ToolHandleArray<GenericMonitoringTool> AthMonitorAlgorithm::m_tools {this,"GMTools",{}}

protectedinherited

Array of Generic Monitoring Tools.

Definition at line 341 of file AthMonitorAlgorithm.h.

{this,"GMTools",{}}; 

m_trigDecTool

PublicToolHandle<Trig::TrigDecisionTool> AthMonitorAlgorithm::m_trigDecTool

protectedinherited

Tool to tell whether a specific trigger is passed.

Definition at line 345 of file AthMonitorAlgorithm.h.

m_triggerChainString

Gaudi::Property<std::string> AthMonitorAlgorithm::m_triggerChainString {this,"TriggerChain",""}

protectedinherited

Trigger chain string pulled from the job option and parsed into a vector.

Definition at line 360 of file AthMonitorAlgorithm.h.

{this,"TriggerChain",""}; 

m_triggerTowerLocation

SG::ReadHandleKey<xAOD::TriggerTowerContainer> CpmSimMonitorAlgorithm::m_triggerTowerLocation {this, "BS_xAODTriggerTowerContainer",LVL1::TrigT1CaloDefs::xAODTriggerTowerLocation,"TriggerTower Location"}

private

Definition at line 76 of file CpmSimMonitorAlgorithm.h.

{this, "BS_xAODTriggerTowerContainer",LVL1::TrigT1CaloDefs::xAODTriggerTowerLocation,"TriggerTower Location"};

m_trigLiveFractionDataKey

SG::ReadCondHandleKey<TrigLiveFractionCondData> AthMonitorAlgorithm::m_trigLiveFractionDataKey {this,"TrigLiveFractionCondDataKey","TrigLiveFractionCondData", "SG Key of TrigLiveFractionCondData object"}

protectedinherited

Definition at line 352 of file AthMonitorAlgorithm.h.

{this,"TrigLiveFractionCondDataKey","TrigLiveFractionCondData", "SG Key of TrigLiveFractionCondData object"};

m_useLumi

Gaudi::Property<bool> AthMonitorAlgorithm::m_useLumi {this,"EnableLumi",false}

protectedinherited

Allows use of various luminosity functions.

Definition at line 364 of file AthMonitorAlgorithm.h.

{this,"EnableLumi",false}; 

m_varHandleArraysDeclared

bool AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::m_varHandleArraysDeclared

privateinherited

Definition at line 399 of file AthCommonDataStore.h.

m_vhka

std::vector<SG::VarHandleKeyArray*> AthCommonDataStore< AthCommonMsg< Gaudi::Algorithm > >::m_vhka

privateinherited

Definition at line 398 of file AthCommonDataStore.h.

m_vTrigChainNames

std::vector<std::string> AthMonitorAlgorithm::m_vTrigChainNames

protectedinherited

Vector of trigger chain names parsed from trigger chain string.

Definition at line 361 of file AthMonitorAlgorithm.h.

nevents

int CpmSimMonitorAlgorithm.nevents = -1

Definition at line 526 of file CpmSimMonitorAlgorithm.py.

OutputLevel

CpmSimMonitorAlgorithm.OutputLevel

Definition at line 522 of file CpmSimMonitorAlgorithm.py.

summariseProps

CpmSimMonitorAlgorithm.summariseProps

Definition at line 524 of file CpmSimMonitorAlgorithm.py.

withDetails

CpmSimMonitorAlgorithm.withDetails

Definition at line 524 of file CpmSimMonitorAlgorithm.py.

---

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

• CpmSimMonitorAlgorithm.h
• CpmSimMonitorAlgorithm.py
• CpmSimMonitorAlgorithm.cxx