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TileROD_Decoder Class Reference

Decodes the different TileCal ROD subfragment types in bytestream data and fills TileDigitsContainer, TileRawChannelContainer or TileL2Container. More...

#include <TileROD_Decoder.h>

Inheritance diagram for TileROD_Decoder:
Collaboration diagram for TileROD_Decoder:

Classes

struct  D0CellsHLT
 

Public Types

enum  TileFragStatus {
  ALL_OK =0, CRC_ERR =1, ALL_FF =0x10, ALL_00 =0x20,
  NO_FRAG =0x40, NO_ROB =0x80
}
 
typedef eformat::ROBFragment< const uint32_t * > ROBData
 convert ROD Data words into either TileCell or TileRawChannel. More...
 

Public Member Functions

 TileROD_Decoder (const std::string &type, const std::string &name, const IInterface *parent)
 constructor More...
 
virtual ~TileROD_Decoder ()
 destructor More...
 
virtual StatusCode initialize ()
 
virtual StatusCode finalize ()
 
template<class COLLECTION >
void fillCollection (const ROBData *rob, COLLECTION &v, typename TileROD_Helper::ContainerForCollection< COLLECTION >::type *container=nullptr) const
 This method calls the unpacking methods to decode the ROD data and fills the TileDigitsContainer and/or the TileRawChannelContainer. More...
 
uint32_t fillCollectionHLT (const ROBData *rob, TileCellCollection &v, D0CellsHLT &d0cells, TileCellCollection *MBTS, const TileHid2RESrcID *hid2reHLT) const
 
void fillCollectionL2 (const ROBData *rob, TileL2Container &v) const
 
void fillCollectionL2ROS (const ROBData *rob, TileL2Container &v) const
 
void fillTileLaserObj (const ROBData *rob, TileLaserObject &v) const
 
void fillCollection_TileMuRcv_RawChannel (const ROBData *rob, TileRawChannelCollection &v) const
 
void fillCollection_TileMuRcv_Digi (const ROBData *rob, TileDigitsCollection &v) const
 
void fillContainer_TileMuRcv_Decision (const ROBData *rob, TileMuonReceiverContainer &v) const
 
void fillCollection_FELIX_Digi (const ROBData *rob, TileDigitsCollection &v) const
 
void setLaserVersion (TileLaserObject &laserObject) const
 
void loadRw2Cell (const int section, const std::vector< int > &vec)
 
void loadMBTS (std::map< unsigned int, unsigned int > &mapMBTS, int MBTS_channel)
 
const TileHWID * getTileHWID () const
 
const TileFragHash * hashFunc () const
 
StatusCode convert (const RawEvent *re, TileL2Container *L2Cnt) const
 
StatusCode convertLaser (const RawEvent *re, TileLaserObject *TileLaserObj) const
 
StatusCode convertTMDBDecision (const RawEvent *re, TileMuonReceiverContainer *tileMuRcv) const
 
void mergeD0cellsHLT (const D0CellsHLT &d0cells, TileCellCollection &) const
 
void loadRw2Pmt (const int section, const std::vector< int > &vec)
 
void printErrorCounter (bool printIfNoError)
 
int getErrorCounter ()
 
void printWarningCounter (bool printIfNoWarning)
 
int getWarningCounter ()
 
const TileHid2RESrcID * getHid2reHLT ()
 
const TileHid2RESrcID * getHid2re ()
 
void setUseFrag0 (bool f)
 
void setUseFrag1 (bool f)
 
void setUseFrag4 (bool f)
 
void setUseFrag5Raw (bool f)
 
void setUseFrag5Reco (bool f)
 
ServiceHandle< StoreGateSvc > & evtStore ()
 The standard StoreGateSvc (event store) Returns (kind of) a pointer to the StoreGateSvc. More...
 
const ServiceHandle< StoreGateSvc > & evtStore () const
 The standard StoreGateSvc (event store) Returns (kind of) a pointer to the StoreGateSvc. More...
 
const ServiceHandle< StoreGateSvc > & detStore () const
 The standard StoreGateSvc/DetectorStore Returns (kind of) a pointer to the StoreGateSvc. More...
 
virtual StatusCode sysInitialize () override
 Perform system initialization for an algorithm. More...
 
virtual StatusCode sysStart () override
 Handle START transition. More...
 
virtual std::vector< Gaudi::DataHandle * > inputHandles () const override
 Return this algorithm's input handles. More...
 
virtual std::vector< Gaudi::DataHandle * > outputHandles () const override
 Return this algorithm's output handles. More...
 
Gaudi::Details::PropertyBase & declareProperty (Gaudi::Property< T > &t)
 
Gaudi::Details::PropertyBase * declareProperty (const std::string &name, SG::VarHandleKey &hndl, const std::string &doc, const SG::VarHandleKeyType &)
 Declare a new Gaudi property. More...
 
Gaudi::Details::PropertyBase * declareProperty (const std::string &name, SG::VarHandleBase &hndl, const std::string &doc, const SG::VarHandleType &)
 Declare a new Gaudi property. More...
 
Gaudi::Details::PropertyBase * declareProperty (const std::string &name, SG::VarHandleKeyArray &hndArr, const std::string &doc, const SG::VarHandleKeyArrayType &)
 
Gaudi::Details::PropertyBase * declareProperty (const std::string &name, T &property, const std::string &doc, const SG::NotHandleType &)
 Declare a new Gaudi property. More...
 
Gaudi::Details::PropertyBase * declareProperty (const std::string &name, T &property, const std::string &doc="none")
 Declare a new Gaudi property. More...
 
void updateVHKA (Gaudi::Details::PropertyBase &)
 
MsgStream & msg () const
 
MsgStream & msg (const MSG::Level lvl) const
 
bool msgLvl (const MSG::Level lvl) const
 

Static Public Member Functions

static const InterfaceID & interfaceID ()
 AlgTool InterfaceID. More...
 

Protected Member Functions

void renounceArray (SG::VarHandleKeyArray &handlesArray)
 remove all handles from I/O resolution More...
 
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. More...
 

Private Types

typedef std::vector< TileCell * > pCellVec
 
typedef std::vector< TileDigits * > pDigiVec
 
typedef std::vector< TileBeamElem * > pBeamVec
 
typedef std::vector< TileRawChannel * > pRwChVec
 
typedef std::vector< TileFastRawChannel > FRwChVec
 
typedef std::vector< std::vector< uint32_t > > DigitsMetaData_t
 
typedef std::vector< std::vector< uint32_t > > RawChannelMetaData_t
 
typedef ServiceHandle< StoreGateSvc > StoreGateSvc_t
 

Private Member Functions

const uint32_t * getOFW (int fragId, int unit) const
 getOFW returns Optimal Filtering Weights for Frag5 decoder loaded from COOL for correspondent units. More...
 
void unpack_frag0 (uint32_t version, uint32_t sizeOverhead, DigitsMetaData_t &digitsMetaData, const uint32_t *p, pDigiVec &pDigits, int fragID, int demoType) const
 unpack_frag0 decodes tile subfragment type 0x0. More...
 
void unpack_frag1 (uint32_t version, uint32_t sizeOverhead, DigitsMetaData_t &digitsMetaData, const uint32_t *p, pDigiVec &pDigits, int fragID, int demoType) const
 unpack_frag1 decodes tile subfragment type 0x1. More...
 
void unpack_frag2 (uint32_t version, uint32_t sizeOverhead, const uint32_t *p, pRwChVec &pChannel, int fragID, int demoType) const
 unpack_frag2 decodes tile subfragment type 0x2. More...
 
void unpack_frag3 (uint32_t version, uint32_t sizeOverhead, const uint32_t *p, pRwChVec &pChannel, int fragID, int demoType) const
 unpack_frag3 decodes tile subfragment type 0x3. More...
 
void unpack_frag4 (uint32_t version, uint32_t sizeOverhead, unsigned int unit, RawChannelMetaData_t &rawchannelMetaData, const uint32_t *p, pRwChVec &pChannel, int fragID, int demoType) const
 unpack_frag4 decodes tile subfragment type 0x4. More...
 
void unpack_frag5 (uint32_t version, uint32_t sizeOverhead, unsigned int unit, DigitsMetaData_t &digitsMetaData, const uint32_t *p, pDigiVec &pDigits, pRwChVec &pChannel, int fragID, int demoType) const
 unpack_frag5 decodes tile subfragment type 0x4. More...
 
void unpack_frag6 (uint32_t version, uint32_t sizeOverhead, DigitsMetaData_t &digitsMetaData, const uint32_t *p, pDigiVec &pDigits, int fragID, int demoType) const
 unpack_frag6 decodes tile subfragment type 0x6. More...
 
void unpack_frag3HLT (uint32_t version, uint32_t sizeOverhead, const uint32_t *p, FRwChVec &pChannel, int fragID, int demoType) const
 unpack_frag3HLT decodes tile subfragment type 0x3 for the high level trigger (HLT). More...
 
void unpack_frag2HLT (uint32_t version, uint32_t sizeOverhead, const uint32_t *p, FRwChVec &pChannel, int fragID, int demoType) const
 unpack_frag2HLT decodes tile subfragment type 0x2 for the high level trigger (HLT). More...
 
void unpack_frag4HLT (uint32_t version, uint32_t sizeOverhead, unsigned int unit, const uint32_t *p, FRwChVec &pChannel, int fragID, int demoType) const
 unpack_frag4HLT decodes tile subfragment type 0x4 for the high level trigger (HLT). More...
 
void unpack_frag5HLT (uint32_t version, uint32_t sizeOverhead, unsigned int unit, const uint32_t *p, FRwChVec &pChannel, int fragID, int demoType) const
 unpack_frag5HLT decodes tile subfragment type 0x5 for the high level trigger (HLT). More...
 
void unpack_fragA (uint32_t version, RawChannelMetaData_t &rawchannelMetaData, const uint32_t *p, pRwChVec &pChannel, int fragID, int demoType) const
 unpack_fragA decodes tile subfragment type 0XA. More...
 
void unpack_fragAHLT (uint32_t version, const uint32_t *p, uint16_t rob_bcid, uint16_t &mask, int fragID, int demoType) const
 unpack_fragAHLT decodes tile subfragment type 0XA. More...
 
void unpack_frag10 (uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
 unpack_frag10 decodes tile subfragment type 0x10. More...
 
void unpack_frag11 (uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
 unpack_frag11 decodes tile subfragment type 0x11. More...
 
void unpack_frag12 (uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
 unpack_frag12 decodes tile subfragment type 0x12. More...
 
void unpack_frag13 (uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
 unpack_frag13 decodes tile subfragment type 0x13. More...
 
void unpack_frag14 (uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
 unpack_frag14 decodes tile subfragment type 0x14. More...
 
void unpack_frag15 (uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
 unpack_frag15 decodes tile subfragment type 0x15. More...
 
bool unpack_frag4L2 (uint32_t version, uint32_t sizeOverhead, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
 unpack_frag4L2 decodes tile subfragment type 0x4 and extract transverse energy from this fragment More...
 
bool unpack_frag5L2 (uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
 unpack_frag5L2 decodes tile subfragment type 0x5 and extract transverse energy from this fragment More...
 
void unpack_frag16 (uint32_t version, const uint32_t *p, TileLaserObject &v) const
 unpack_frag16 decodes tile subfragment type 0x16 or 0x20. More...
 
void unpack_frag17 (uint32_t version, uint32_t sizeOverhead, const uint32_t *p, TileLaserObject &v) const
 unpack_frag17 decodes tile subfragment type 0x17 or 0x20. More...
 
void unpack_brod (uint32_t version, uint32_t sizeOverhead, const uint32_t *p, pBeamVec &pBeam, int fragID) const
 unpack_brod decodes all ancillary tile subfragments coming from beam ROD at the testbeam or LASTROD in normal ATLAS configuration More...
 
void unpack_frag40 (uint32_t collid, uint32_t version, const uint32_t *p, int size, TileDigitsCollection &coll) const
 unpacking methods dedicated to the TMDB ROD format sub-fragments 0x40 0x41 0x42 More...
 
void unpack_frag41 (uint32_t collid, uint32_t version, const uint32_t *p, int size, TileRawChannelCollection &coll) const
 
void unpack_frag42 (uint32_t sourceid, uint32_t version, const uint32_t *p, int size, TileMuonReceiverContainer &v) const
 
void make_copy (uint32_t bsflags, TileFragHash::TYPE rChType, TileRawChannelUnit::UNIT rChUnit, DigitsMetaData_t &digitsMetaData, RawChannelMetaData_t &rawchannelMetaData, const ROBData *rob, pDigiVec &pDigits, pRwChVec &pChannel, TileBeamElemCollection &v, TileBeamElemContainer *container) const
 
void make_copy (uint32_t bsflags, TileFragHash::TYPE rChType, TileRawChannelUnit::UNIT rChUnit, DigitsMetaData_t &digitsMetaData, RawChannelMetaData_t &rawchannelMetaData, const ROBData *rob, pDigiVec &pDigits, pRwChVec &pChannel, TileDigitsCollection &v, TileDigitsContainer *container) const
 
void make_copy (uint32_t bsflags, TileFragHash::TYPE rChType, TileRawChannelUnit::UNIT rChUnit, DigitsMetaData_t &digitsMetaData, RawChannelMetaData_t &rawchannelMetaData, const ROBData *rob, pDigiVec &pDigits, pRwChVec &pChannel, TileRawChannelCollection &v, TileRawChannelContainer *container) const
 
uint32_t make_copyHLT (bool of2, TileRawChannelUnit::UNIT rChUnit, bool correctAmplitude, const FRwChVec &pChannel, TileCellCollection &v, const uint16_t DQuality, D0CellsHLT &d0cells, TileCellCollection *MBTS) const
 
std::vector< uint32_t > get_correct_data (const uint32_t *p) const
 
void make_copy (const ROBData *rob, pBeamVec &pBeam, TileBeamElemCollection &v) const
 
void make_copy (const ROBData *rob, pBeamVec &pBeam, TileDigitsCollection &v) const
 
void make_copy (const ROBData *rob, pBeamVec &pBeam, TileRawChannelCollection &v) const
 
void make_copy (const ROBData *rob, pBeamVec &pBeam, TileCellCollection &v) const
 
template<typename ELEMENT >
void delete_vec (std::vector< ELEMENT * > &v) const
 
template<typename ELEMENT , class COLLECTION >
void copy_vec (std::vector< ELEMENT * > &v, COLLECTION &coll) const
 
bool checkBit (const uint32_t *p, int chan) const
 check the bitmap for a channel More...
 
void updateAmpThreshold (int run=-1)
 
void initHid2re ()
 
void initHid2reHLT ()
 
const uint32_t * get_data (const ROBData *rob) const
 
uint32_t data_size (const ROBData *rob, uint32_t &error) const
 
Gaudi::Details::PropertyBase & declareGaudiProperty (Gaudi::Property< T > &hndl, const SG::VarHandleKeyType &)
 specialization for handling Gaudi::Property<SG::VarHandleKey> More...
 
Gaudi::Details::PropertyBase & declareGaudiProperty (Gaudi::Property< T > &hndl, const SG::VarHandleKeyArrayType &)
 specialization for handling Gaudi::Property<SG::VarHandleKeyArray> More...
 
Gaudi::Details::PropertyBase & declareGaudiProperty (Gaudi::Property< T > &hndl, const SG::VarHandleType &)
 specialization for handling Gaudi::Property<SG::VarHandleBase> More...
 
Gaudi::Details::PropertyBase & declareGaudiProperty (Gaudi::Property< T > &t, const SG::NotHandleType &)
 specialization for handling everything that's not a Gaudi::Property<SG::VarHandleKey> or a <SG::VarHandleKeyArray> More...
 

Private Attributes

TileRawChannel2Bytes5 m_rc2bytes5
 
TileRawChannel2Bytes4 m_rc2bytes4
 
TileRawChannel2Bytes2 m_rc2bytes2
 
TileRawChannel2Bytes m_rc2bytes
 
TileDigits2Bytes m_d2Bytes
 
const TileHWID * m_tileHWID = nullptr
 
Gaudi::Property< bool > m_useFrag0 {this, "useFrag0", true, "Use frag0"}
 
Gaudi::Property< bool > m_useFrag1 {this, "useFrag1", true, "Use frag1"}
 
Gaudi::Property< bool > m_useFrag4 {this, "useFrag4", true, "User frag4"}
 
Gaudi::Property< bool > m_useFrag5Raw {this, "useFrag5Raw", false, "Use frag5 raw"}
 
Gaudi::Property< bool > m_useFrag5Reco {this, "useFrag5Reco", false, "Use frag5 reco"}
 
Gaudi::Property< bool > m_ignoreFrag4HLT {this, "ignoreFrag4HLT", false, "Ignore frag4 HLT"}
 
Gaudi::Property< float > m_allowedTimeMin
 
Gaudi::Property< float > m_allowedTimeMax
 
Gaudi::Property< float > m_ampMinThresh
 
Gaudi::Property< float > m_timeMinThresh
 
Gaudi::Property< float > m_timeMaxThresh
 
Gaudi::Property< unsigned int > m_fullTileRODs
 
Gaudi::Property< std::vector< int > > m_demoFragIDs
 
Gaudi::Property< bool > m_verbose {this, "VerboseOutput", false, "Print extra information"}
 
Gaudi::Property< bool > m_calibrateEnergy {this, "calibrateEnergy", true, "Convert ADC counts to pCb for RawChannels"}
 
Gaudi::Property< bool > m_suppressDummyFragments {this, "suppressDummyFragments", false, "Suppress dummy fragments"}
 
Gaudi::Property< bool > m_maskBadDigits
 
Gaudi::Property< int > m_maxWarningPrint {this, "MaxWarningPrint", 1000, "Maximum warning messages to print"}
 
Gaudi::Property< int > m_maxErrorPrint {this, "MaxErrorPrint", 1000, "Maximum error messages to print"}
 
SG::ReadCondHandleKey< TileHid2RESrcID > m_hid2RESrcIDKey
 
ToolHandle< TileCondToolTiming > m_tileToolTiming
 
ToolHandle< TileCondToolOfcCool > m_tileCondToolOfcCool
 
ToolHandle< TileCondToolEmscale > m_tileToolEmscale
 
ToolHandle< ITileBadChanTool > m_tileBadChanTool
 
ToolHandle< TileL2Builder > m_L2Builder
 
ServiceHandle< TileCablingSvc > m_cablingSvc
 
float m_ampMinThresh_pC
 correct amplitude if it's above amplitude threshold (in pC) More...
 
float m_ampMinThresh_MeV
 correct amplitude if it's above amplitude threshold (in MeV) More...
 
std::vector< uint32_t > m_OFWeights[4 *TileCalibUtils::MAX_DRAWERIDX] ATLAS_THREAD_SAFE
 
std::atomic< const uint32_t * > m_OFPtrs[4 *TileCalibUtils::MAX_DRAWERIDX] ATLAS_THREAD_SAFE
 
std::mutex m_OFWeightMutex
 
std::mutex m_HidMutex
 
std::vector< int > m_Rw2Cell [4]
 
std::vector< int > m_Rw2Pmt [4]
 
TileFragHash m_hashFunc
 
bool m_of2Default
 
std::map< unsigned int, unsigned int > m_mapMBTS
 
int m_MBTS_channel = 0
 
std::atomic< int > m_WarningCounter
 
std::atomic< int > m_ErrorCounter
 
TileHid2RESrcID * m_hid2re
 
TileHid2RESrcID * m_hid2reHLT
 
std::vector< int > m_list_of_masked_drawers
 
unsigned int m_maxChannels
 
bool m_checkMaskedDrawers
 
int m_runPeriod
 
std::vector< int > m_demoChanLB
 
std::vector< int > m_demoChanEB
 
StoreGateSvc_t m_evtStore
 Pointer to StoreGate (event store by default) More...
 
StoreGateSvc_t m_detStore
 Pointer to StoreGate (detector store by default) More...
 
std::vector< SG::VarHandleKeyArray * > m_vhka
 
bool m_varHandleArraysDeclared
 

Friends

class TileHid2RESrcID
 

Detailed Description

Decodes the different TileCal ROD subfragment types in bytestream data and fills TileDigitsContainer, TileRawChannelContainer or TileL2Container.

Author
A. Solodkov
Version
0-0-1 , Oct 17, 2002

Modified, Dec 20, 2002 Create either TileRawChannel or TileCell.

Modified, Jan 15, 2003 Moved Encoding part to TileROD_Encoder.

Modified, Sep 7, 2003 Decoding of Testbeam data added

Definition at line 119 of file TileROD_Decoder.h.

Member Typedef Documentation

◆ DigitsMetaData_t

typedef std::vector<std::vector<uint32_t> > TileROD_Decoder::DigitsMetaData_t
private

Definition at line 242 of file TileROD_Decoder.h.

◆ FRwChVec

typedef std::vector<TileFastRawChannel> TileROD_Decoder::FRwChVec
private

Definition at line 235 of file TileROD_Decoder.h.

◆ pBeamVec

typedef std::vector<TileBeamElem *> TileROD_Decoder::pBeamVec
private

Definition at line 233 of file TileROD_Decoder.h.

◆ pCellVec

typedef std::vector<TileCell *> TileROD_Decoder::pCellVec
private

Definition at line 231 of file TileROD_Decoder.h.

◆ pDigiVec

typedef std::vector<TileDigits *> TileROD_Decoder::pDigiVec
private

Definition at line 232 of file TileROD_Decoder.h.

◆ pRwChVec

typedef std::vector<TileRawChannel *> TileROD_Decoder::pRwChVec
private

Definition at line 234 of file TileROD_Decoder.h.

◆ RawChannelMetaData_t

typedef std::vector<std::vector<uint32_t> > TileROD_Decoder::RawChannelMetaData_t
private

Definition at line 244 of file TileROD_Decoder.h.

◆ ROBData

typedef eformat::ROBFragment<const uint32_t*> TileROD_Decoder::ROBData

convert ROD Data words into either TileCell or TileRawChannel.

Definition at line 153 of file TileROD_Decoder.h.

◆ StoreGateSvc_t

typedef ServiceHandle<StoreGateSvc> AthCommonDataStore< AthCommonMsg< AlgTool > >::StoreGateSvc_t
privateinherited

Definition at line 388 of file AthCommonDataStore.h.

Member Enumeration Documentation

◆ TileFragStatus

enum TileROD_Decoder::TileFragStatus
Enumerator
ALL_OK 
CRC_ERR 
ALL_FF 
ALL_00 
NO_FRAG 
NO_ROB 

Definition at line 226 of file TileROD_Decoder.h.

226 {ALL_OK=0, CRC_ERR=1, ALL_FF=0x10, ALL_00=0x20, NO_FRAG=0x40, NO_ROB=0x80};

Constructor & Destructor Documentation

◆ TileROD_Decoder()

TileROD_Decoder::TileROD_Decoder ( const std::string &  type,
const std::string &  name,
const IInterface *  parent 
)

constructor

Definition at line 39 of file TileROD_Decoder.cxx.

41  : AthAlgTool(type, name, parent)
42  , m_ampMinThresh_pC(-1.)
43  , m_ampMinThresh_MeV(-1.)
44  , m_of2Default(true)
45  , m_WarningCounter (0)
46  , m_ErrorCounter (0)
47  , m_hid2re(nullptr)
48  , m_hid2reHLT(nullptr)
49  , m_maxChannels(TileCalibUtils::MAX_CHAN)
50  , m_checkMaskedDrawers(false)
51  , m_runPeriod(0){
52 
53  declareInterface<TileROD_Decoder>(this);
54 
55  for (std::atomic<const uint32_t*>& p : m_OFPtrs) {
56  p = nullptr;
57  }
58 }

◆ ~TileROD_Decoder()

TileROD_Decoder::~TileROD_Decoder ( )
virtual

destructor

Definition at line 78 of file TileROD_Decoder.cxx.

78  {
79  if (m_hid2re) delete m_hid2re;
80  if (m_hid2reHLT) delete m_hid2reHLT;
81 }

Member Function Documentation

◆ checkBit()

bool TileROD_Decoder::checkBit ( const uint32_t *  p,
int  chan 
) const
private

check the bitmap for a channel

Definition at line 232 of file TileROD_Decoder.cxx.

232  {
233  // chan = (0,47)
234  int a = chan / 32;
235  int r = chan % 32;
236  // a = (0,1), r = ( 0, 31 )
237  return *(p + a) & (1 << r);
238 
239 }

◆ convert()

StatusCode TileROD_Decoder::convert ( const RawEvent *  re,
TileL2Container *  L2Cnt 
) const

Definition at line 3027 of file TileROD_Decoder.cxx.

3027  {
3028 
3029  ATH_MSG_DEBUG( "Reading L2 data from ByteStream" );
3030 
3031  if (!re) {
3032  ATH_MSG_FATAL( "RawEvent passed to 'convert'-function is a null pointer!" );
3033  return StatusCode::FAILURE;
3034  }
3035 
3036  //bool eValid = re->check_tree();
3037  //if (! eValid) return StatusCode::FAILURE;
3038 
3039  // const VDETF& vdetf = re->compounds(); //Get subdetector fragements from the raw event.
3040  uint32_t total_sub = re->nchildren();
3041 
3042  if (msgLvl(MSG::VERBOSE)) {
3043  msg(MSG::VERBOSE) << "Full Event: " << endmsg;
3044  msg(MSG::VERBOSE) << MSG::hex << "Full source ID: " << re->source_id()
3045  << MSG::dec << endmsg;
3046  msg(MSG::VERBOSE) << "Fragment size in words: " << re->fragment_size_word() << endmsg;
3047  msg(MSG::VERBOSE)<< "# of rob frags: " << total_sub << endmsg;
3048  }
3049 
3050  for (uint32_t i_rob = 0; i_rob < total_sub; ++i_rob) {
3051  const uint32_t* p_rob;
3052  re->child(p_rob, i_rob);
3053  const eformat::ROBFragment<const uint32_t*> robFrag(p_rob);
3054 
3055  eformat::helper::SourceIdentifier id = eformat::helper::SourceIdentifier(robFrag.source_id());
3056  unsigned int subDetId = id.subdetector_id();
3057 
3058  if (subDetId >= 0x50 && subDetId < 0x60) { //Select Tile-Subdetectors
3059  fillCollectionL2(&robFrag, *L2Cnt);
3060  }
3061  }
3062 
3063  // Debug
3064 
3065  if (msgLvl(MSG::VERBOSE)) {
3066  msg(MSG::VERBOSE) << "convertL2: " << L2Cnt->size()
3067  << " TileL2 objects created" << endmsg;
3068  TileL2Container::const_iterator ind = L2Cnt->begin();
3069  TileL2Container::const_iterator last = L2Cnt->end();
3070 
3071  int num = 0;
3072  for (; ind != last; ++ind) {
3073  msg(MSG::VERBOSE) << "Ind " << num++ << " " << (std::string) (*(*ind)) << endmsg;
3074  }
3075  }
3076 
3077  return StatusCode::SUCCESS;
3078 }

◆ convertLaser()

StatusCode TileROD_Decoder::convertLaser ( const RawEvent *  re,
TileLaserObject *  TileLaserObj 
) const

Definition at line 3261 of file TileROD_Decoder.cxx.

3261  {
3262 
3263  ATH_MSG_DEBUG( "Reading TileLaser data from ByteStream" );
3264 
3265  setLaserVersion(*laserObject);
3266 
3267  if (!re) {
3268  ATH_MSG_FATAL( "RawEvent passed to 'convert'-function is a null pointer!" );
3269  return StatusCode::FAILURE;
3270  }
3271 
3272  //bool eValid = re->check_tree();
3273  //if (! eValid) return StatusCode::FAILURE;
3274 
3275  // const VDETF& vdetf = re->compounds(); //Get subdetector fragments from the raw event.
3276  uint32_t total_sub = re->nchildren();
3277 
3278  if (msgLvl(MSG::VERBOSE)) {
3279  msg(MSG::VERBOSE) << "Full Event: " << endmsg;
3280  msg(MSG::VERBOSE) << MSG::hex << "Full source ID: " << re->source_id() << MSG::dec << endmsg;
3281  msg(MSG::VERBOSE) << "Fragment size in words: " << re->fragment_size_word() << endmsg;
3282  msg(MSG::VERBOSE) << "# of rob frags: " << total_sub << endmsg;
3283  }
3284 
3285  for (uint32_t i_rob = 0; i_rob < total_sub; ++i_rob) {
3286  const uint32_t* p_rob;
3287  re->child(p_rob, i_rob);
3288  const eformat::ROBFragment<const uint32_t*> robFrag(p_rob);
3289 
3290  eformat::helper::SourceIdentifier id = eformat::helper::SourceIdentifier(
3291  robFrag.rod_source_id());
3292  unsigned int subDetId = id.subdetector_id();
3293 
3294  if (subDetId >= 0x50 && subDetId < 0x60) { //Select Tile-Subdetectors
3295  fillTileLaserObj(&robFrag, *laserObject);
3296  }
3297  }
3298 
3299  return StatusCode::SUCCESS;
3300 } // end of convertLaser()

◆ convertTMDBDecision()

StatusCode TileROD_Decoder::convertTMDBDecision ( const RawEvent *  re,
TileMuonReceiverContainer *  tileMuRcv 
) const

Definition at line 4593 of file TileROD_Decoder.cxx.

4594 {
4595 
4596  ATH_MSG_DEBUG( " TileROD_Decoder::convertTMDBDecision " );
4597 
4598  if (!re) {
4599  ATH_MSG_FATAL( "RawEvent passed to 'convert'-function is a null pointer!" );
4600  return StatusCode::FAILURE;
4601  }
4602 
4603  uint32_t total_sub = re->nchildren();
4604 
4605  for (uint32_t i_rob = 0; i_rob < total_sub; ++i_rob) {
4606  const uint32_t* p_rob;
4607  re->child(p_rob, i_rob);
4608  const eformat::ROBFragment<const uint32_t*> robFrag(p_rob);
4609 
4610  //eformat::helper::SourceIdentifier id = eformat::helper::SourceIdentifier(robFrag.source_id());
4611  uint32_t sourceid = robFrag.source_id();
4612  uint32_t modid = sourceid >> 16;
4613  //ATH_MSG_VERBOSE( MSG::hex<<" sourceId: 0x"<< robFrag.source_id() <<MSG::dec );
4614 
4615  if ((modid == 0x51 || modid == 0x52 || modid == 0x53 || modid == 0x54) && (sourceid & 0xf00)) {
4616  fillContainer_TileMuRcv_Decision(&robFrag, *tileMuRcv);
4617  }
4618  }
4619 
4620  return StatusCode::SUCCESS;
4621 }

◆ copy_vec()

template<typename ELEMENT , class COLLECTION >
void TileROD_Decoder::copy_vec ( std::vector< ELEMENT * > &  v,
COLLECTION &  coll 
) const
inlineprivate

Definition at line 696 of file TileROD_Decoder.h.

696  {
697  typedef typename std::vector<ELEMENT *>::const_iterator ELEMENT_const_iterator;
698 
699  ELEMENT_const_iterator iCh = v.begin();
700  ELEMENT_const_iterator iEnd = v.end();
701  for (; iCh != iEnd; ++iCh) coll.push_back(*iCh);
702 }

◆ data_size()

uint32_t TileROD_Decoder::data_size ( const ROBData *  rob,
uint32_t &  error 
) const
inlineprivate

Definition at line 620 of file TileROD_Decoder.h.

620  {
621  uint32_t size = rob->rod_ndata();
622  uint32_t max_allowed_size = rob->rod_fragment_size_word();
623  uint32_t delta = rob->rod_header_size_word() + rob->rod_trailer_size_word();
624  if (max_allowed_size > delta)
625  max_allowed_size -= delta;
626  else
627  max_allowed_size = 0;
628  if (size < 3 && size > 0) {
629  if (rob->rod_source_id() > 0x50ffff) error |= 0x10000; // indicate error in frag size, but ignore error in laser ROD
630  if (m_WarningCounter++ < m_maxWarningPrint) {
631  ATH_MSG_WARNING("ROB " << MSG::hex << rob->source_id()
632  << " ROD " << rob->rod_source_id() << MSG::dec
633  << " has unexpected data size: " << size << " - assuming zero size " );
634  }
635  return 0;
636  } else if (rob->rod_header_size_word() >= rob->rod_fragment_size_word()) {
637  if (rob->rod_source_id() > 0x50ffff) error |= 0x10000; // indicate error in frag size, but ignore error in laser ROD
638  if (m_WarningCounter++ < m_maxWarningPrint) {
639  ATH_MSG_WARNING("ROB " << MSG::hex << rob->source_id()
640  << " ROD " << rob->rod_source_id() << MSG::dec
641  << " has unexpected header size: " << rob->rod_header_size_word()
642  << " bigger than full size " << rob->rod_fragment_size_word()
643  << " - assuming no data " );
644  }
645  return 0;
646  } else if (size > max_allowed_size) {
647  if (rob->rod_source_id() > 0x50ffff) error |= 0x10000; // indicate error in frag size, but ignore error in laser ROD
648 
649  if (size - rob->rod_trailer_size_word() < max_allowed_size) {
650  if ((m_WarningCounter++) < m_maxWarningPrint) {
651  ATH_MSG_WARNING("ROB " << MSG::hex << rob->source_id()
652  << " ROD " << rob->rod_source_id() << MSG::dec
653  << " data size " << size << " is longer than allowed size " << max_allowed_size
654  << " - assuming that ROD trailer is shorter: "
655  << rob->rod_trailer_size_word()-(size-max_allowed_size)
656  << " words instead of " << rob->rod_trailer_size_word());
657  }
658  max_allowed_size = size;
659  } else if (size - rob->rod_trailer_size_word() == max_allowed_size) {
660  if ((m_WarningCounter++) < m_maxWarningPrint) {
661  ATH_MSG_WARNING("ROB " << MSG::hex << rob->source_id()
662  << " ROD " << rob->rod_source_id() << MSG::dec
663  << " data size " << size << " is longer than allowed size " << max_allowed_size
664  << " - assuming that ROD trailer ("
665  << rob->rod_trailer_size_word()
666  << " words) is absent");
667  }
668  max_allowed_size = size;
669  } else {
670  max_allowed_size += rob->rod_trailer_size_word();
671  if ((m_WarningCounter++) < m_maxWarningPrint) {
672  ATH_MSG_WARNING("ROB " << MSG::hex << rob->source_id()
673  << " ROD " << rob->rod_source_id() << MSG::dec
674  << " has unexpected data size: " << size
675  << " - assuming data size = " << max_allowed_size << " words and no ROD trailer at all" );
676  }
677  }
678  return max_allowed_size;
679  } else {
680  return size;
681  }
682  }

◆ declareGaudiProperty() [1/4]

Gaudi::Details::PropertyBase& AthCommonDataStore< AthCommonMsg< AlgTool > >::declareGaudiProperty ( Gaudi::Property< T > &  hndl,
const SG::VarHandleKeyArrayType &   
)
inlineprivateinherited

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

Definition at line 170 of file AthCommonDataStore.h.

172  {
173  return *AthCommonDataStore<PBASE>::declareProperty(hndl.name(),
174  hndl.value(),
175  hndl.documentation());
176 
177  }

◆ declareGaudiProperty() [2/4]

Gaudi::Details::PropertyBase& AthCommonDataStore< AthCommonMsg< AlgTool > >::declareGaudiProperty ( Gaudi::Property< T > &  hndl,
const SG::VarHandleKeyType &   
)
inlineprivateinherited

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

Definition at line 156 of file AthCommonDataStore.h.

158  {
159  return *AthCommonDataStore<PBASE>::declareProperty(hndl.name(),
160  hndl.value(),
161  hndl.documentation());
162 
163  }

◆ declareGaudiProperty() [3/4]

Gaudi::Details::PropertyBase& AthCommonDataStore< AthCommonMsg< AlgTool > >::declareGaudiProperty ( Gaudi::Property< T > &  hndl,
const SG::VarHandleType &   
)
inlineprivateinherited

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

Definition at line 184 of file AthCommonDataStore.h.

186  {
187  return *AthCommonDataStore<PBASE>::declareProperty(hndl.name(),
188  hndl.value(),
189  hndl.documentation());
190  }

◆ declareGaudiProperty() [4/4]

Gaudi::Details::PropertyBase& AthCommonDataStore< AthCommonMsg< AlgTool > >::declareGaudiProperty ( Gaudi::Property< T > &  t,
const SG::NotHandleType &   
)
inlineprivateinherited

specialization for handling everything that's not a Gaudi::Property<SG::VarHandleKey> or a <SG::VarHandleKeyArray>

Definition at line 199 of file AthCommonDataStore.h.

200  {
201  return PBASE::declareProperty(t);
202  }

◆ declareProperty() [1/6]

Gaudi::Details::PropertyBase* AthCommonDataStore< AthCommonMsg< AlgTool > >::declareProperty ( const std::string &  name,
SG::VarHandleBase &  hndl,
const std::string &  doc,
const SG::VarHandleType &   
)
inlineinherited

Declare a new Gaudi property.

Parameters
nameName of the property.
hndlObject holding the property value.
docDocumentation string for the property.

This is the version for types that derive from SG::VarHandleBase. The property value object is put on the input and output lists as appropriate; then we forward to the base class.

Definition at line 245 of file AthCommonDataStore.h.

249  {
250  this->declare(hndl.vhKey());
251  hndl.vhKey().setOwner(this);
252 
253  return PBASE::declareProperty(name,hndl,doc);
254  }

◆ declareProperty() [2/6]

Gaudi::Details::PropertyBase* AthCommonDataStore< AthCommonMsg< AlgTool > >::declareProperty ( const std::string &  name,
SG::VarHandleKey &  hndl,
const std::string &  doc,
const SG::VarHandleKeyType &   
)
inlineinherited

Declare a new Gaudi property.

Parameters
nameName of the property.
hndlObject holding the property value.
docDocumentation string for the property.

This is the version for types that derive from SG::VarHandleKey. The property value object is put on the input and output lists as appropriate; then we forward to the base class.

Definition at line 221 of file AthCommonDataStore.h.

225  {
226  this->declare(hndl);
227  hndl.setOwner(this);
228 
229  return PBASE::declareProperty(name,hndl,doc);
230  }

◆ declareProperty() [3/6]

Gaudi::Details::PropertyBase* AthCommonDataStore< AthCommonMsg< AlgTool > >::declareProperty ( const std::string &  name,
SG::VarHandleKeyArray &  hndArr,
const std::string &  doc,
const SG::VarHandleKeyArrayType &   
)
inlineinherited

Definition at line 259 of file AthCommonDataStore.h.

263  {
264 
265  // std::ostringstream ost;
266  // ost << Algorithm::name() << " VHKA declareProp: " << name
267  // << " size: " << hndArr.keys().size()
268  // << " mode: " << hndArr.mode()
269  // << " vhka size: " << m_vhka.size()
270  // << "\n";
271  // debug() << ost.str() << endmsg;
272 
273  hndArr.setOwner(this);
274  m_vhka.push_back(&hndArr);
275 
276  Gaudi::Details::PropertyBase* p = PBASE::declareProperty(name, hndArr, doc);
277  if (p != 0) {
278  p->declareUpdateHandler(&AthCommonDataStore<PBASE>::updateVHKA, this);
279  } else {
280  ATH_MSG_ERROR("unable to call declareProperty on VarHandleKeyArray "
281  << name);
282  }
283 
284  return p;
285 
286  }

◆ declareProperty() [4/6]

Gaudi::Details::PropertyBase* AthCommonDataStore< AthCommonMsg< AlgTool > >::declareProperty ( const std::string &  name,
T &  property,
const std::string &  doc,
const SG::NotHandleType &   
)
inlineinherited

Declare a new Gaudi property.

Parameters
nameName of the property.
propertyObject holding the property value.
docDocumentation string for the property.

This is the generic version, for types that do not derive from SG::VarHandleKey. It just forwards to the base class version of declareProperty.

Definition at line 333 of file AthCommonDataStore.h.

337  {
338  return PBASE::declareProperty(name, property, doc);
339  }

◆ declareProperty() [5/6]

Gaudi::Details::PropertyBase* AthCommonDataStore< AthCommonMsg< AlgTool > >::declareProperty ( const std::string &  name,
T &  property,
const std::string &  doc = "none" 
)
inlineinherited

Declare a new Gaudi property.

Parameters
nameName of the property.
propertyObject holding the property value.
docDocumentation string for the property.

This dispatches to either the generic declareProperty or the one for VarHandle/Key/KeyArray.

Definition at line 352 of file AthCommonDataStore.h.

355  {
356  typedef typename SG::HandleClassifier<T>::type htype;
357  return declareProperty (name, property, doc, htype());
358  }

◆ declareProperty() [6/6]

Gaudi::Details::PropertyBase& AthCommonDataStore< AthCommonMsg< AlgTool > >::declareProperty ( Gaudi::Property< T > &  t)
inlineinherited

Definition at line 145 of file AthCommonDataStore.h.

145  {
146  typedef typename SG::HandleClassifier<T>::type htype;
147  return AthCommonDataStore<PBASE>::declareGaudiProperty(t, htype());
148  }

◆ delete_vec()

template<typename ELEMENT >
void TileROD_Decoder::delete_vec ( std::vector< ELEMENT * > &  v) const
inlineprivate

Definition at line 686 of file TileROD_Decoder.h.

686  {
687  typedef typename std::vector<ELEMENT *>::const_iterator ELEMENT_const_iterator;
688 
689  ELEMENT_const_iterator iCh = v.begin();
690  ELEMENT_const_iterator iEnd = v.end();
691  for (; iCh != iEnd; ++iCh) delete (*iCh);
692  v.clear();
693 }

◆ detStore()

const ServiceHandle<StoreGateSvc>& AthCommonDataStore< AthCommonMsg< AlgTool > >::detStore ( ) const
inlineinherited

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

Definition at line 95 of file AthCommonDataStore.h.

95 { return m_detStore; }

◆ evtStore() [1/2]

ServiceHandle<StoreGateSvc>& AthCommonDataStore< AthCommonMsg< AlgTool > >::evtStore ( )
inlineinherited

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

Definition at line 85 of file AthCommonDataStore.h.

85 { return m_evtStore; }

◆ evtStore() [2/2]

const ServiceHandle<StoreGateSvc>& AthCommonDataStore< AthCommonMsg< AlgTool > >::evtStore ( ) const
inlineinherited

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

Definition at line 90 of file AthCommonDataStore.h.

90 { return m_evtStore; }

◆ extraDeps_update_handler()

void AthCommonDataStore< AthCommonMsg< AlgTool > >::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

◆ fillCollection()

template<class COLLECTION >
void TileROD_Decoder::fillCollection ( const ROBData *  rob,
COLLECTION &  v,
typename TileROD_Helper::ContainerForCollection< COLLECTION >::type *  container = nullptr 
) const

This method calls the unpacking methods to decode the ROD data and fills the TileDigitsContainer and/or the TileRawChannelContainer.

fill either TileDigitsCollection or TileRawChannelCollection or TileCellCollection or TileBeamElemCollection from a BLOCK of integers

Definition at line 904 of file TileROD_Decoder.h.

907 {
908  //
909  // get info from ROD header
910  //
911  // if (msgLvl(MSG::VERBOSE)) {
912  // msg(MSG::VERBOSE) << "ROD header info: " << endmsg
913  // msg(MSG::VERBOSE) << " Format Vers. " << MSG::hex << "0x" << rob->rod_version() << MSG::dec << endmsg;
914  // msg(MSG::VERBOSE) << " Source ID " << MSG::hex << "0x" << rob->rod_source_id() << MSG::dec << endmsg;
915  // msg(MSG::VERBOSE) << " Source ID str " << eformat::helper::SourceIdentifier(rob->source_id()).human().c_str() << endmsg;
916  // msg(MSG::VERBOSE) << " Run number " << (int) rob->rod_run_no() << endmsg;
917  // msg(MSG::VERBOSE) << " Level1 ID " << rob->rod_lvl1_id() << endmsg;
918  // msg(MSG::VERBOSE) << " BCID " << rob->rod_bc_id() << endmsg;
919  // msg(MSG::VERBOSE) << " Lvl1 TrigType " << rob->rod_lvl1_trigger_type() << endmsg;
920  // msg(MSG::VERBOSE) << " Event Type " << rob->rod_detev_type() << endmsg;
921  // msg(MSG::VERBOSE) << " Fragment size " << rob->rod_fragment_size_word() << endmsg;
922  // msg(MSG::VERBOSE) << " Header size " << rob->rod_header_size_word() << endmsg;
923  // msg(MSG::VERBOSE) << " Trailer size " << rob->rod_trailer_size_word() << endmsg;
924  // msg(MSG::VERBOSE) << " N data " << rob->rod_ndata() << endmsg;
925  // msg(MSG::VERBOSE) << " N status " << rob->rod_nstatus() << endmsg;
926  // msg(MSG::VERBOSE) << " Status pos " << rob->rod_status_position() << endmsg;
927  // }
928 
929  uint32_t version = rob->rod_version() & 0xFFFF;
930 
931  bool isBeamROD = false;
932  // figure out which fragment we want to unpack
933  TileRawChannelCollection::ID frag_id = v.identify();
934  SG::ReadCondHandle<TileHid2RESrcID> hid2re{m_hid2RESrcIDKey};
935  const std::vector<uint32_t> & drawer_info = hid2re->getDrawerInfo(frag_id);
936  int bs_frag_id = drawer_info.size()>1 ? drawer_info[1] : frag_id;
937  int drawer_type = drawer_info.size()>2 ? drawer_info[2] : -1;
938 
939  uint32_t mask = 0xFFFF;
940 
941  // special conversion for sub-fragments in beam ROD
942  if (frag_id < 0x100) {
943  isBeamROD = true;
944  mask = 0xFF; // this is needed for TB 2003, when beam frag_id >= 0x400
945  }
946 
947  // find all fragments with given Fragment ID
948  // and possibly with different types
949  std::vector<const uint32_t *> pFrag;
950  pFrag.reserve(5);
951 
952  uint32_t error = 0;
953  uint32_t wc = 0;
954  uint32_t size = data_size(rob, error);
955  const uint32_t * p = get_data(rob);
956 
957  // 2 extra words in every frag by default (frag id + frag size)
958  // but for all data after 2005 it is set to 3 later in the code
959  uint32_t sizeOverhead = 2;
960 
961  // bool skipWords = ( ! isBeamROD && version == 0x1 );
962  // std::cout << " *(p) = 0x" << std::hex << (*(p)) << std::dec << std::endl;
963  if (size) {
964  bool V3format = (*(p) == 0xff1234ff); // additional frag marker since Sep 2005
965  V3format |= (*(p) == 0x00123400); // additional frag marker since Sep 2005 (can appear in buggy ROD frags)
966  if (!V3format && version>0xff) {
967  V3format = true;
968  if ((m_WarningCounter++) < m_maxWarningPrint)
969  ATH_MSG_WARNING("fillCollection: corrupted frag separator 0x" << MSG::hex << (*p) << " instead of 0xff1234ff in ROB 0x" << rob->rod_source_id() << MSG::dec );
970  }
971  if (V3format) {
972  ++p; // skip frag marker
973  sizeOverhead = 3;
974  } else {
975  sizeOverhead = 2;
976  }
977  }
978 
979  //std::cout << std::hex << " frag_id " << frag_id << " mask " << mask
980  // << " version " << version << " sizeOverhead " << sizeOverhead
981  // << " skipWords " << skipWords << " V3format " << V3format
982  // << std::dec << std::endl;
983  //std::cout << " size is "<< size << std::endl;
984 
985  while (wc < size) { // iterator over all words in a ROD
986 
987  // first word is frag size
988  uint32_t count = *(p);
989  // second word is frag ID (16 bits) frag type (8 bits) and additional flags
990  uint32_t idAndType = *(p + 1);
991  int frag = (idAndType & mask);
992  int type = (idAndType & 0xF00000) >> 16; // note special mask, we ignore one digit, keep only 0x10, 0x20, 0x30, ...
993 
994  if (count < sizeOverhead || count > size - wc) {
995  int cnt = 0;
996  for (; wc < size; ++wc, ++cnt, ++p) {
997  if ((*p) == 0xff1234ff) {
998  ++cnt;
999  ++wc;
1000  ++p;
1001  break;
1002  }
1003  }
1004  if ((m_ErrorCounter++) < m_maxErrorPrint) {
1005  msg(MSG::WARNING) << "Frag 0x" << MSG::hex << frag << MSG::dec
1006  << " has unexpected size: " << count;
1007  if (wc < size) {
1008  msg(MSG::WARNING) << " skipping " << cnt << " words to the next frag" << endmsg;
1009  } else {
1010  msg(MSG::WARNING) << " ignoring " << cnt << " words till the end of ROD frag" << endmsg;
1011  }
1012  }
1013  continue;
1014  }
1015 
1016  if (type != 0x10 && frag == bs_frag_id) pFrag.push_back(p);
1017 
1018  p += count;
1019  wc += count;
1020 
1021  //std::cout << " frag ="<<frag<<" type = "<<type<<" count="<<count<<std::endl;
1022 
1023  // this is not needed anymore, since we can't read very old BS files anyhow.
1024  //if ( skipWords && type == 0 && wc < size ) { // special treatment of preROD output with digits
1025  // wc+=7; p+=7; // skip extra header
1026  //}
1027  }
1028 
1029  if (wc != size) {
1030  // check word count
1031  if ((m_ErrorCounter++) < m_maxErrorPrint) {
1032  ATH_MSG_WARNING( "Incorrect ROD size: " << wc << " words instead of " << size );
1033  }
1034  assert(0);
1035  // return;
1036  }
1037 
1038  static const bool unpackDigits = std::is_same_v<COLLECTION, TileDigitsCollection>;
1039  static const bool unpackChannels = std::is_same_v<COLLECTION, TileRawChannelCollection>;
1040 
1041  if (isBeamROD) {
1042 
1043  pBeamVec pBeam;
1044  pBeam.reserve(16);
1045 
1046  std::vector<const uint32_t *>::const_iterator it = pFrag.begin();
1047  std::vector<const uint32_t *>::const_iterator itEnd = pFrag.end();
1048 
1049  for (; it != itEnd; ++it) {
1050 
1051  p = (*it);
1052 
1053  unpack_brod(version, sizeOverhead, p, pBeam, frag_id);
1054  }
1055 
1056  make_copy(rob, pBeam, v);
1057 
1058  } else {
1059 
1060  pDigiVec pDigits;
1061  pRwChVec pChannel;
1062  pChannel.reserve(48);
1063 
1064  // initialize meta data storage
1065  DigitsMetaData_t digitsMetaData (7);
1066  RawChannelMetaData_t rawchannelMetaData (7);
1067  for (unsigned int i = 0; i < 7; ++i) {
1068  digitsMetaData[i].reserve(16);
1069  rawchannelMetaData[i].reserve(2);
1070  }
1071 
1072  // now unpack all channels in all fragments
1073  // and fill temporary array of TileDigits and/or TileRawChannels
1074 
1075  std::vector<const uint32_t *>::const_iterator it = pFrag.begin();
1076  std::vector<const uint32_t *>::const_iterator itEnd = pFrag.end();
1077 
1078  uint32_t bsflags = 0;
1079  TileFragHash::TYPE rChType = TileFragHash::Digitizer;
1080  TileRawChannelUnit::UNIT rChUnit = TileRawChannelUnit::ADCcounts;
1081 
1082  for (; it != itEnd; ++it) {
1083 
1084  p = (*it);
1085  // first word is frag size
1086  // uint32_t count = *(p);
1087  // second word is frag ID (16 bits) frag type (8 bits) and additional flags
1088  uint32_t idAndType = *(p + 1);
1089  int type = (idAndType & 0x00FF0000) >> 16;
1090 
1091  ATH_MSG_VERBOSE( "Unpacking frag: 0x" << MSG::hex << (idAndType & 0xFFFF)
1092  << " type " << type << MSG::dec );
1093 
1094  switch (type) {
1095  case 0:
1096  if (unpackDigits && m_useFrag0) unpack_frag0(version, sizeOverhead, digitsMetaData, p, pDigits, frag_id, drawer_type);
1097  break;
1098  case 1:
1099  if (unpackDigits && m_useFrag1) unpack_frag1(version, sizeOverhead, digitsMetaData, p, pDigits, frag_id, drawer_type);
1100  break;
1101  case 2:
1102  if (unpackChannels && m_useFrag4) unpack_frag2(version, sizeOverhead, p, pChannel, frag_id, drawer_type);
1103  break;
1104  case 3:
1105  if (unpackChannels && m_useFrag4) unpack_frag3(version, sizeOverhead, p, pChannel, frag_id, drawer_type);
1106  break;
1107  case 4:
1108  if (unpackChannels && m_useFrag4) {
1109  bsflags = idAndType & 0xFFFF0000; // ignore frag num, keep all the rest
1110  int unit = (idAndType & 0xC0000000) >> 30;
1111 
1112  int DataType = (idAndType & 0x30000000) >> 28;
1113 
1114  if (DataType < 3) { // real data
1115 
1116  // only one bit for type and next 2 bits for number of iterations
1117  //int AlgoType = (idAndType & 0x4000000) >> 26;
1118  //if (AlgoType == 0) rChType = TileFragHash::OF1Filter;
1119  //else rChType = TileFragHash::OF2Filter;
1120  // always set special type, which means now that OF is done inside DSP
1121  rChType = TileFragHash::OptFilterDsp;
1122 
1123  // Attention! Switching to Online Units for release 14.2.0
1124  rChUnit = (TileRawChannelUnit::UNIT) (unit + TileRawChannelUnit::OnlineOffset); // Online units in real data
1125  // rChUnit = (TileRawChannelUnit::UNIT) ( unit );
1126 
1127  } else { // simulated data
1128 
1129  // all 3 bits for type
1130  int AlgoType = (idAndType & 0x7000000) >> 24;
1131  rChType = (TileFragHash::TYPE) AlgoType;
1132 
1133  rChUnit = (TileRawChannelUnit::UNIT) (unit); // Offline units in simulated data
1134 
1135  if (!m_demoFragIDs.empty()) {
1136  const_cast<Gaudi::Property<std::vector<int>> &> ( m_demoFragIDs ) = {}; // No demonstator cabling in MC
1137  ATH_MSG_INFO("Disable channel remapping for demonstrator in MC");
1138  }
1139  }
1140 
1141  unpack_frag4(version, sizeOverhead, unit, rawchannelMetaData, p, pChannel, frag_id, drawer_type);
1142  }
1143  break;
1144 
1145  case 5:
1146  if (m_useFrag5Raw || m_useFrag5Reco) {
1147  bsflags = idAndType & 0xFFFF0000; // ignore frag num, keep all the rest
1148  int unit = (idAndType & 0xC0000000) >> 30;
1149 
1150  // always set special type, which means now that OF is done inside DSP
1151  rChType = TileFragHash::OptFilterDspCompressed;
1152 
1153  rChUnit = (TileRawChannelUnit::UNIT) (unit + TileRawChannelUnit::OnlineOffset);
1154  unpack_frag5(version, sizeOverhead, unit,
1155  digitsMetaData,
1156  p, pDigits, pChannel, frag_id, drawer_type);
1157  }
1158  break;
1159 
1160  case 6:
1161  break;
1162 
1163  case 0xA:
1164  if (unpackChannels) unpack_fragA(version, rawchannelMetaData, p, pChannel, frag_id, drawer_type);
1165  break;
1166 
1167  default:
1168  int frag = idAndType & 0xFFFF;
1169  ATH_MSG_WARNING( "Unknown frag type=" << type << " for frag=" << frag );
1170  assert(0);
1171  break;
1172  }
1173  } // end of all frags
1174 
1175  make_copy(bsflags, rChType, rChUnit, digitsMetaData, rawchannelMetaData,
1176  rob, pDigits, pChannel, v, container);
1177  }
1178 
1179  return;
1180 }

◆ fillCollection_FELIX_Digi()

void TileROD_Decoder::fillCollection_FELIX_Digi ( const ROBData *  rob,
TileDigitsCollection &  v 
) const

Definition at line 4528 of file TileROD_Decoder.cxx.

4528  {
4529 
4530  ATH_MSG_DEBUG( "TileROD_Decoder::fillCollection_FELIX_Digi" );
4531 
4532  uint32_t version = rob->rod_version() & 0xFFFF;
4533  uint32_t sizeOverhead = 3; // Sub fragment marker, size, and (id + type)
4534 
4535  SG::ReadCondHandle<TileHid2RESrcID> hid2re{m_hid2RESrcIDKey};
4536 
4537  // initialize meta data storage
4538  DigitsMetaData_t digitsMetaData(9);
4539  RawChannelMetaData_t rawchannelMetaData;
4540 
4541  pDigiVec pDigits;
4542  pRwChVec pChannel;
4543 
4544  uint32_t error = 0;
4545  uint32_t size = data_size(rob, error);
4546  const uint32_t* data = get_data(rob);
4547  const uint32_t* const end_data = data + size;
4548 
4549  int frag_id = coll.identify();
4550  const std::vector<uint32_t> & drawer_info = hid2re->getDrawerInfo(frag_id);
4551  int bs_frag_id = drawer_info.size()>1 ? drawer_info[1] : frag_id;
4552  int drawer_type = drawer_info.size()>2 ? drawer_info[2] : -1;
4553 
4554  while (data < end_data) { // iterator over all words for a robid
4555  // first word is the start of the tile subfragment in v3format it is 0xff1234ff
4556  if ((*data) == 0xff1234ff) {
4557  uint32_t count = *(data + 1); // first word is frag size
4558  uint32_t idAndType = *(data + 2); // second word is frag ID and frag type
4559  int frag = (idAndType & 0x0FFF); // remove the offset
4560  int type = (idAndType>>16)& 0xFF; // note special mask, we ignore one digit, keep only 0x10, 0x20, 0x30, ...
4561  if (type == 0x06 && (frag == bs_frag_id)) {
4562  ++data;
4563  ATH_MSG_DEBUG( MSG::hex << "Found FELIX sub-fragment ID=0x" << frag
4564  <<" type=0x" << type << MSG::dec
4565  << " size=" << count );
4566  std::vector<uint32_t> correct_data = get_correct_data(data);
4567  unpack_frag6(version, sizeOverhead, digitsMetaData, correct_data.data(), pDigits, frag_id, drawer_type);
4568  // store metadata for this collection
4569  // size, fragID, BCID
4570  digitsMetaData[0].push_back(count);
4571  digitsMetaData[0].push_back(frag);
4572  digitsMetaData[0].push_back(0);
4573  break;
4574  } else {
4575  // carry on looping to search for 0x60
4576  data += count;
4577  }
4578  }
4579  ++data;
4580  }
4581 
4582  uint32_t bsflags = 0;
4583  TileFragHash::TYPE rChType = TileFragHash::Digitizer;
4584  TileRawChannelUnit::UNIT rChUnit = TileRawChannelUnit::ADCcounts;
4585 
4586  make_copy(bsflags, rChType, rChUnit, digitsMetaData, rawchannelMetaData,
4587  rob, pDigits, pChannel, coll, nullptr);
4588 
4589 }

◆ fillCollection_TileMuRcv_Digi()

void TileROD_Decoder::fillCollection_TileMuRcv_Digi ( const ROBData *  rob,
TileDigitsCollection &  v 
) const

Definition at line 4398 of file TileROD_Decoder.cxx.

4398  {
4399 
4400  ATH_MSG_DEBUG( " TileROD_Decoder::fillCollection_TileMuRcv_Digi " );
4401 
4402  int wc = 0;
4403  bool b_sof = false;
4404  bool b_digiTmdb = false;
4405 
4406  uint32_t version = rob->rod_version() & 0xFFFF;
4407  uint32_t sourceid = rob->rod_source_id();
4408  int size = rob->rod_ndata();
4409 
4410  uint32_t sfrag_version = 0x0;
4411  uint32_t sfrag_type = 0x0;
4412  int sfrag_size = 0;
4413 
4414  const uint32_t *p = get_data(rob);
4415 
4416  ATH_MSG_DEBUG( " Trying DECODER over source ID: "<<MSG::hex<<" 0x"<<sourceid<<MSG::dec<<" size of full fragment: "<<size );
4417 
4418  while ( wc < size ) { // iterator over all words for a robid
4419  // first word is the start of the tile subfragment in v3format it is 0xff1234ff
4420  if ((*p) == 0xff1234ff) b_sof=true;
4421 
4422  ATH_MSG_DEBUG( " Start of sub-fragment word: "<<MSG::hex<<(*p)<<MSG::dec<<" false/true: "<<b_sof );
4423 
4424  if (b_sof) {
4425  // second word is frag size
4426  sfrag_size = *(p+1);
4427  // third word is frag version (16-bits) + type (16-bits)
4428  sfrag_version = *(p+2) & 0xFFFF;
4429  sfrag_type = *(p+2) >> 16;
4430  b_sof = false;
4431  }
4432 
4433  if (sfrag_type==0x40) {
4434  b_digiTmdb = true;
4435  ATH_MSG_DEBUG( MSG::hex<<" DECODER sub-fragment VERSION= 0x"<<sfrag_version<<" TYPE= 0x"<<sfrag_type<< MSG::dec<<" SIZE="<<sfrag_size<<" FOUND! " );
4436  // type and version are identified and we move to the end of the loop
4437  wc += size-wc;
4438  p += 3;
4439  } else {
4440  // carry on looping to search for 0x40
4441  wc++;
4442  p++;
4443  }
4444  }
4445 
4446  if ( b_digiTmdb ) {
4447  // the TMDB raw channel 0x40
4448  uint32_t collID = coll.identify();
4449  unpack_frag40( collID, version, p, sfrag_size-3, coll);
4450  }
4451 
4452  //delete_vec(digi);
4453 
4454  return;
4455 
4456 }

◆ fillCollection_TileMuRcv_RawChannel()

void TileROD_Decoder::fillCollection_TileMuRcv_RawChannel ( const ROBData *  rob,
TileRawChannelCollection &  v 
) const

Definition at line 4458 of file TileROD_Decoder.cxx.

4458  {
4459 
4460  ATH_MSG_DEBUG( " TileROD_Decoder::fillCollection_TileMuRcv_RawChannel " );
4461 
4462  int wc = 0;
4463  bool b_sof = false;
4464  bool b_rcTmdb = false;
4465 
4466  uint32_t version = rob->rod_version() & 0xFFFF;
4467  uint32_t sourceid = rob->rod_source_id();
4468  int size = rob->rod_ndata();
4469  int offset = 0;
4470 
4471  uint32_t sfrag_version = 0x0;
4472  uint32_t sfrag_type = 0x0;
4473  int sfrag_size = 0;
4474 
4475  const uint32_t *p = get_data(rob);
4476 
4477  ATH_MSG_DEBUG( " Trying DECODER over source ID: "<<MSG::hex<<" 0x"<<sourceid<<MSG::dec<<" size of full fragment: "<<size );
4478 
4479  while ( wc < size ) { // iterator over all words in a robid
4480  // first word is the start of the tile subfragment in v3format it is 0xff1234ff
4481  if ((*p) == 0xff1234ff) b_sof=true;
4482  ATH_MSG_DEBUG( " Start of sub-fragment word : "<<MSG::hex<< (*p)<<MSG::dec<<" false/true : "<<b_sof );
4483  // if at the start of the fragment than we should find more information about this (sub-)fragment in the following two words
4484  if (b_sof) {
4485  // second word is frag size
4486  sfrag_size = *(p+1);
4487  // third word is frag version (16-bits) + type (16-bits)
4488  sfrag_version = *(p+2) & 0xFFFF;
4489  sfrag_type = *(p+2) >> 16;
4490  b_sof=false;
4491  }
4492  // for tmdb we will start to have a fragment with three sub-fragments ordered as 0x40 0x41 0x42
4493  // we investigate if there are any of type 0x40 before going on 0x41
4494  // like this the loop is faster since we can access the size of this sub-fragment
4495  //
4496  if (sfrag_type==0x40) {
4497  ATH_MSG_DEBUG(MSG::hex<<" DECODER sub-fragment VERSION= 0x"<<sfrag_version<<" TYPE= 0x"<<sfrag_type<<MSG::dec<<" SIZE="<<sfrag_size<<" FOUND! Keep on looking for 0x41.");
4498  offset = sfrag_size;
4499  wc += offset;
4500  p += offset;
4501  } else if (sfrag_type==0x41) {
4502  b_rcTmdb = true;
4503  ATH_MSG_DEBUG(MSG::hex<<" DECODER sub-fragment VERSION= 0x"<<sfrag_version<<" TYPE= 0x"<<sfrag_type<<MSG::dec<<" SIZE="<<sfrag_size<<" FOUND!");
4504  // type and version are identified and we move to the end of the loop
4505  wc += size-wc;
4506  p+=3;
4507  } else {
4508  ATH_MSG_DEBUG(MSG::hex<<" DECODER sub-fragment VERSION= 0x"<<sfrag_version<<" TYPE= 0x"<<sfrag_type<<MSG::dec<<" SIZE="<<sfrag_size<<" FOUND!");
4509  // carry on looping to search for 0x41
4510  wc++;
4511  p++;
4512  }
4513  }
4514 
4515  if ( b_rcTmdb ) {
4516  // the TMDB raw channel 0x41
4517  //
4518  uint32_t collID = coll.identify();
4519  unpack_frag41( collID, version, p, sfrag_size-3, coll);
4520  }
4521 
4522  //delete_vec(rc);
4523 
4524 return;
4525 }

◆ fillCollectionHLT()

uint32_t TileROD_Decoder::fillCollectionHLT ( const ROBData *  rob,
TileCellCollection &  v,
D0CellsHLT &  d0cells,
TileCellCollection *  MBTS,
const TileHid2RESrcID *  hid2reHLT 
) const

Definition at line 3410 of file TileROD_Decoder.cxx.

3415 {
3416  uint32_t version = rob->rod_version() & 0xFFFF;
3417  // Resets error flag
3418  uint32_t error = 0x0;
3419 
3420  // figure out which fragment we want to unpack
3421  TileRawChannelCollection::ID frag_id = v.identify();
3422  const std::vector<uint32_t> & drawer_info = hid2reHLT->getDrawerInfo(frag_id);
3423  int bs_frag_id = drawer_info.size()>1 ? drawer_info[1] : frag_id;
3424  int drawer_type = drawer_info.size()>2 ? drawer_info[2] : -1;
3425 
3426  /*
3427  if (frag_id < 0x100) { // BEAM ROD frag - nothing to do
3428  m_error|=0x10000;
3429  return;
3430  }
3431  */
3432 
3433  uint32_t wc = 0;
3434  uint32_t size = data_size(rob, error);
3435  const uint32_t * p = get_data(rob);
3436  // prepare bcid with one extra bit set for comparison with bcid in DQ fragment
3437  uint16_t rob_bcid = ((rob->rod_bc_id() & 0x7FFF) | 0x8000);
3438 
3439  uint32_t sizeOverhead = 2;
3440  if (size) {
3441  bool V3format = (*(p) == 0xff1234ff); // additional frag marker since Sep 2005
3442  if (!V3format && version>0xff) {
3443  V3format = true;
3444  if ((m_WarningCounter++) < m_maxWarningPrint)
3445  ATH_MSG_WARNING("fillCollectionHLT: corrupted frag separator 0x" << MSG::hex << (*p) << " instead of 0xff1234ff in ROB 0x" << rob->rod_source_id() << MSG::dec );
3446  }
3447  if (V3format) {
3448  ++p; // skip frag marker
3449  sizeOverhead = 3;
3450  } else {
3451  sizeOverhead = 2;
3452  }
3453  }
3454  bool of2 = m_of2Default;
3455  bool correctAmplitude = false;
3456  TileRawChannelUnit::UNIT rChUnit = TileRawChannelUnit::ADCcounts;
3457  uint16_t DQuality = 0x0;
3458  bool fragFound = false;
3459  bool DQfragMissing = true;
3460 
3461  FRwChVec pChannel;
3462  pChannel.reserve (m_maxChannels);
3463 
3464  while (wc < size) { // iterator over all words in a ROD
3465 
3466  // first word is frag size
3467  uint32_t count = *(p);
3468  // second word is frag ID (16 bits) frag type (8 bits) and additional flags
3469  uint32_t idAndType = *(p + 1);
3470  int frag = (idAndType & 0xFFFF);
3471  int type = (idAndType & 0xFF0000) >> 16;
3472 
3473  if (count < sizeOverhead || count > size - wc) {
3474  int cnt = 0;
3475  for (; wc < size; ++wc, ++cnt, ++p) {
3476  if ((*p) == 0xff1234ff) {
3477  ++cnt;
3478  ++wc;
3479  ++p;
3480  break;
3481  }
3482  }
3483  if ((m_ErrorCounter++) < m_maxErrorPrint) {
3484  msg(MSG::WARNING) << "Frag: " << MSG::hex << "0x" << frag << MSG::dec
3485  << " has unexpected size: " << count;
3486  if (wc < size) {
3487  msg(MSG::WARNING) << " skipping " << cnt << " words to the next frag" << endmsg;
3488  } else {
3489  msg(MSG::WARNING) << " ignoring " << cnt << " words till the end of ROD frag" << endmsg;
3490  }
3491  }
3492  error |= 0x10000;
3493  continue;
3494  }
3495 
3496  //if (frag == frag_id && ((type > 1 && type < 6) || type==0xa)) { // proper fragment found - unpack it
3497  if (frag == bs_frag_id) { // proper fragment found - unpack it
3498 
3499  switch (type) {
3500  case 2:
3501  fragFound = true;
3502  DQfragMissing = false;
3503  correctAmplitude = false;
3504  unpack_frag2HLT(version, sizeOverhead, p, pChannel, frag_id, drawer_type);
3505  break;
3506  case 3:
3507  fragFound = true;
3508  DQfragMissing = false;
3509  correctAmplitude = false;
3510  unpack_frag3HLT(version, sizeOverhead, p, pChannel, frag_id, drawer_type);
3511  break;
3512  case 4:
3513  if (!m_ignoreFrag4HLT && !fragFound) {
3514  fragFound = true;
3515  int unit = (idAndType & 0xC0000000) >> 30;
3516 
3517  int DataType = (idAndType & 0x30000000) >> 28;
3518 
3519  if (DataType < 3) { // real data
3520 
3521  of2 = ((idAndType & 0x4000000) != 0);
3522  int nIter = (idAndType & 0x3000000) >> 24;
3523  correctAmplitude = (!nIter); // automatic detection of nIter
3524  rChUnit = (TileRawChannelUnit::UNIT) (unit + TileRawChannelUnit::OnlineOffset); // Online units in real data
3525 
3526  } else { // simulated data
3527 
3528  DQfragMissing = false;
3529  correctAmplitude = false;
3530  rChUnit = (TileRawChannelUnit::UNIT) (unit); // Offline units in simulated data
3531  if (!m_demoFragIDs.empty()) {
3532  const_cast<Gaudi::Property<std::vector<int>> &> ( m_demoFragIDs ) = {}; // No demonstator cabling in MC
3533  ATH_MSG_INFO("Disable channel remapping for demonstrator in MC");
3534  }
3535  }
3536 
3537  unpack_frag4HLT(version, sizeOverhead, unit, p, pChannel, frag_id, drawer_type);
3538  }
3539  break;
3540 
3541  case 5:
3542  if (!fragFound) {
3543  fragFound = true;
3544  int unit = (idAndType & 0xC0000000) >> 30;
3545 
3546  of2 = ((idAndType & 0x4000000) != 0);
3547  correctAmplitude = true; // fragment 5 will appear only if there is no iterations, so correction required
3548  rChUnit = (TileRawChannelUnit::UNIT) (unit + TileRawChannelUnit::OnlineOffset);
3549 
3550  unpack_frag5HLT(version, sizeOverhead, unit, p, pChannel, frag_id, drawer_type);
3551  }
3552  break;
3553 
3554  case 0xa:
3555  DQfragMissing = false;
3556  unpack_fragAHLT(version, p, rob_bcid, DQuality, frag_id, drawer_type);
3557  break;
3558 
3559  default:
3560  // Just ignore it
3561  break;
3562  }
3563  }
3564  p += count;
3565  wc += count;
3566  }
3567 
3568  bool masked_drawer = m_checkMaskedDrawers ? m_tileBadChanTool->isDrawerMasked(frag_id) : false;
3569 
3570  if (DQfragMissing && !masked_drawer) error |= 0x40000;
3571 
3572  if (fragFound) {
3573  if (masked_drawer) DQuality = 0x0;
3574  error |= make_copyHLT(of2, rChUnit, correctAmplitude,
3575  pChannel, v, DQuality, d0cells, MBTS);
3576  } else if (!masked_drawer) error |= 0x20000;
3577 
3578  return error;
3579 }

◆ fillCollectionL2()

void TileROD_Decoder::fillCollectionL2 ( const ROBData *  rob,
TileL2Container &  v 
) const

Definition at line 3080 of file TileROD_Decoder.cxx.

3080  {
3081  uint32_t version = rob->rod_version() & 0xFFFF;
3082 
3083  uint32_t error = 0;
3084  uint32_t wc = 0;
3085  uint32_t size = data_size(rob, error);
3086  const uint32_t * p = get_data(rob);
3087  int fragmin = 0xFFF, fragmax = -1;
3088 
3089  int counter = 0;
3090 
3091  uint32_t sizeOverhead = 2;
3092  if (size) {
3093  bool V3format = (*(p) == 0xff1234ff); // additional frag marker since Sep 2005
3094  if (!V3format && version>0xff) {
3095  V3format = true;
3096  if ((m_WarningCounter++) < m_maxWarningPrint)
3097  ATH_MSG_WARNING("fillCollectionL2( corrupted frag separator 0x" << MSG::hex << (*p) << " instead of 0xff1234ff in ROB 0x" << rob->rod_source_id() << MSG::dec );
3098  }
3099  if (V3format) {
3100  ++p; // skip frag marker
3101  sizeOverhead = 3;
3102  } else {
3103  sizeOverhead = 2;
3104  }
3105  }
3106 
3107  SG::ReadCondHandle<TileHid2RESrcID> hid2re{m_hid2RESrcIDKey};
3108 
3109  int DataType = 0;
3110  while (wc < size) { // iterator over all words in a ROD
3111 
3112  // first word is frag size
3113  uint32_t count = *(p);
3114  // second word is frag ID and frag type
3115  uint32_t idAndType = *(p + 1);
3116  uint32_t bs_frag_id = idAndType & 0xFFFF;
3117  int frag = hid2re->getOfflineFragID(bs_frag_id);
3118  if (frag<0) frag = bs_frag_id;
3119  const std::vector<uint32_t> & drawer_info = hid2re->getDrawerInfo(frag);
3120  int drawer_type = drawer_info.size()>2 ? drawer_info[2] : -1;
3121  if (frag < fragmin) fragmin = frag;
3122  if (frag > fragmax) fragmax = frag;
3123  DataType = (idAndType & 0x30000000) >> 28;
3124 
3125  int type = (*(p + 1) >> 16) & 0xFF;
3126 
3127  if (count < sizeOverhead || count > size - wc) {
3128  int cnt = 0;
3129  for (; wc < size; ++wc, ++cnt, ++p) {
3130  if ((*p) == 0xff1234ff) {
3131  ++cnt;
3132  ++wc;
3133  ++p;
3134  break;
3135  }
3136  }
3137  if ((m_ErrorCounter++) < m_maxErrorPrint) {
3138  msg(MSG::WARNING) << "Frag " << MSG::hex << "0x" << frag
3139  << MSG::dec << " has unexpected size: " << count;
3140  if (wc < size) {
3141  msg(MSG::WARNING) << " skipping " << cnt << " words to the next frag" << endmsg;
3142  } else {
3143  msg(MSG::WARNING) << " ignoring " << cnt << " words till the end of ROD frag" << endmsg;
3144  }
3145  }
3146  continue;
3147  }
3148 
3149  if (type == 4) { // frag4 which contains sum Et at the end
3150 
3151  if (unpack_frag4L2(version, sizeOverhead, p, v, frag, drawer_type)) {
3152  counter++;
3153  }
3154 
3155  } else if (type == 5 && m_useFrag5Reco) { // new fragment which contains sum Et
3156 
3157  if (unpack_frag5L2(version, p, v, frag, drawer_type)) {
3158  counter++;
3159  }
3160 
3161  } else if ((type >> 4) == 1) { // all frags 0x10-0x15 are MET or MTag frags
3162 
3163  counter++;
3164 
3165  switch (type) {
3166 
3167  case 0x10:
3168  unpack_frag10(version, p, v, frag, drawer_type);
3169  break;
3170  case 0x11:
3171  unpack_frag11(version, p, v, frag, drawer_type);
3172  break;
3173  case 0x12:
3174  unpack_frag12(version, p, v, frag, drawer_type);
3175  break;
3176  case 0x13:
3177  unpack_frag13(version, p, v, frag, drawer_type);
3178  break;
3179  case 0x14:
3180  unpack_frag14(version, p, v, frag, drawer_type);
3181  break;
3182  case 0x15:
3183  unpack_frag15(version, p, v, frag, drawer_type);
3184  break;
3185 
3186  default:
3187  int frag = *(p + 1) & 0xFFFF;
3188  ATH_MSG_WARNING( "Unknown frag type=" << type << " for frag=" << frag << " bs_frag=" << bs_frag_id);
3189  assert(0);
3190  break;
3191  }
3192  }
3193 
3194  p += count;
3195  wc += count;
3196  }
3197 
3198  if (wc != size) {
3199  // check word count
3200  if ((m_ErrorCounter++) < m_maxErrorPrint) {
3201  ATH_MSG_WARNING( "Incorrect ROD size: " << wc << " words instead of " << size );
3202  }
3203  assert(0);
3204  // return;
3205  }
3206 
3207  if (DataType >= 3 && counter == 0 && !m_L2Builder.empty()) {
3208  if (m_L2Builder->process(fragmin, fragmax, &v).isFailure()) {
3209  ATH_MSG_ERROR( "Failure in " << m_L2Builder );
3210  return;
3211  }
3212  }
3213 
3214  return;
3215 }

◆ fillCollectionL2ROS()

void TileROD_Decoder::fillCollectionL2ROS ( const ROBData *  rob,
TileL2Container &  v 
) const

Definition at line 3217 of file TileROD_Decoder.cxx.

3217  {
3218  uint32_t error = 0;
3219  uint32_t size = data_size(rob, error);
3220  const uint32_t * p = get_data(rob);
3221  const uint32_t ROB_to_decode = ((*p) & 0xFFFF); // Multiply by two
3222  const uint32_t virtualROBJump = ((*p) >> 16) >> 2; // Divide by four (four drawer-1ROB)
3223  if (size < ROB_to_decode * virtualROBJump + 1) {
3224  ATH_MSG_ERROR( "Declared size =" << size
3225  << "; virtualROBJump=" << virtualROBJump
3226  << "; ROB_to_decode=" << ROB_to_decode );
3227  return;
3228  }
3229  p++; // Jump first word
3230 
3231  SG::ReadCondHandle<TileHid2RESrcID> hid2re{m_hid2RESrcIDKey};
3232 
3233  std::vector<float> sumE(3, 0.0);
3234  uint32_t idAndType, bs_frag_id;
3235  int frag, hash, unit;
3236 
3237  for (size_t irob = 0; irob < ROB_to_decode; ++irob) {
3238  for (size_t drawInRob = 0; drawInRob < virtualROBJump; ++drawInRob) {
3239 
3240  idAndType = *(p++);
3241  bs_frag_id = idAndType & 0xFFF;
3242  frag = hid2re->getOfflineFragID(bs_frag_id);
3243  if (frag<0) frag = bs_frag_id;
3244 
3245  hash = m_hashFunc(frag);
3246  if (hash > -1) {
3247  unit = (idAndType >> (32 - 2)) & 0x3;
3248  sumE[0] = Frag5_unpack_bin2sum(unit, (int)(*(p++)));
3249  sumE[1] = Frag5_unpack_bin2sum(unit, (int)(*(p++)));
3250  sumE[2] = Frag5_unpack_bin2sum(unit, (int)(*(p++)));
3251 
3252  (v[hash])->setEt(std::vector<float>(sumE)); //copy since looping
3253  } else {
3254  p += 3;
3255  }
3256  } // End of drawInRob loop
3257  } // End of rob loop
3258 
3259 }

◆ fillContainer_TileMuRcv_Decision()

void TileROD_Decoder::fillContainer_TileMuRcv_Decision ( const ROBData *  rob,
TileMuonReceiverContainer &  v 
) const

Definition at line 4623 of file TileROD_Decoder.cxx.

4623  {
4624 
4625  ATH_MSG_DEBUG( "TileROD_Decoder::fillContainer_TileMuRcv_Decision" );
4626 
4627  int wc = 0;
4628  bool b_sof = false;
4629  bool b_deciTmdb = false;
4630 
4631  uint32_t version = rob->rod_version() & 0xFFFF;
4632  uint32_t sourceid = rob->rod_source_id();
4633  int size = rob->rod_ndata();
4634  int offset = 0;
4635 
4636  uint32_t sfrag_version = 0x0;
4637  uint32_t sfrag_type = 0x0;
4638  int sfrag_size = 0;
4639 
4640  const uint32_t *p = get_data(rob);
4641  std::vector<const uint32_t *> pFragTmdb;
4642 
4643  ATH_MSG_DEBUG( " Trying DECODER over source ID: " << MSG::hex
4644  << " 0x" << sourceid << MSG::dec
4645  << " full fragment size " << size );
4646 
4647  while ( wc < size ) { // iterator over all words in a ROD
4648  // first word is the start of the tile subfragment in v3format it is 0xff1234ff
4649  if ((*p) == 0xff1234ff) b_sof=true;
4650 
4651  ATH_MSG_DEBUG( " start of sub-fragment word : " << MSG::hex << (*p) << MSG::dec << " false/true : " << b_sof );
4652 
4653  if (b_sof) {
4654  // second word is frag size
4655  sfrag_size = *(p + 1);
4656  // third word is frag version [31-16] and type [15-0]
4657  sfrag_version = *(p + 2) & 0xFFFF;
4658  sfrag_type = *(p + 2) >> 16;
4659  b_sof = false;
4660  }
4661  // for tmdb we will start to have three sub-fragments ordered as 0x40 0x41 0x42
4662  // we investigate if there are any of type 0x40,0x41 before going on 0x42
4663  // like this the loop is faster since we can access the size of this two sub-fragments
4664  if (sfrag_type == 0x40) {
4665  ATH_MSG_DEBUG( MSG::hex << " DECODER sub-fragment VERSION=" << sfrag_version
4666  << " TYPE=" << sfrag_type << MSG::dec
4667  << " SIZE=" << sfrag_size
4668  << " FOUND! Keep on looking for 0x42.");
4669  offset = sfrag_size;
4670  wc += offset;
4671  p += offset;
4672  } else if (sfrag_type == 0x41) {
4673  ATH_MSG_DEBUG( MSG::hex << " DECODER sub-fragment VERSION=" << sfrag_version
4674  << " TYPE=" << sfrag_type << MSG::dec
4675  <<" SIZE=" << sfrag_size
4676  << " FOUND! Keep on looking for 0x42.");
4677  offset = sfrag_size;
4678  wc += offset;
4679  p += offset;
4680  } else if (sfrag_type == 0x42) {
4681  b_deciTmdb = true;
4682  ATH_MSG_DEBUG( MSG::hex << " DECODER sub-fragment VERSION=" << sfrag_version
4683  << " TYPE=" << sfrag_type << MSG::dec
4684  << " SIZE=" <<sfrag_size << " FOUND!");
4685  wc += size - wc;
4686  p += 3;
4687  } else {
4688  ++p;
4689  ++wc;
4690  }
4691  }
4692  // the TMDB result 0x42
4693  //
4694  if (b_deciTmdb) unpack_frag42( sourceid, version, p, sfrag_size-3, cont);
4695 
4696 return;
4697 }

◆ fillTileLaserObj()

void TileROD_Decoder::fillTileLaserObj ( const ROBData *  rob,
TileLaserObject &  v 
) const

Definition at line 3302 of file TileROD_Decoder.cxx.

3302  {
3303  // v.setBCID(-999); // TileLaserObject default tag -> Laser only if BCID != -999
3304 
3305  uint32_t version = rob->rod_version() & 0xFFFF;
3306 
3307  uint32_t error = 0;
3308  uint32_t wc = 0;
3309  uint32_t size = data_size(rob, error);
3310  const uint32_t * p = get_data(rob);
3311 
3312  ATH_MSG_DEBUG(" Version = " << version <<
3313  " wc = " << wc <<
3314  " size = " << size <<
3315  " pointer = " << p );
3316 
3317  if (!size) {
3318  ATH_MSG_DEBUG(" Nothing to unpack");
3319  return;
3320  }
3321 
3322  uint32_t sizeOverhead = 2;
3323  bool V3format = (*(p) == 0xff1234ff); // additional frag marker since Sep 2005
3324  if (!V3format && version>0) {
3325  V3format = true;
3326  if ((m_WarningCounter++) < m_maxWarningPrint)
3327  ATH_MSG_WARNING("fillTileLaserObj: corrupted frag separator 0x" << MSG::hex << (*p) << " instead of 0xff1234ff in ROB 0x" << rob->rod_source_id() << MSG::dec );
3328  }
3329  if (V3format) {
3330  ++p; // skip frag marker
3331  sizeOverhead = 3;
3332  } else {
3333  sizeOverhead = 2;
3334  }
3335 
3336  if(V3format) ATH_MSG_DEBUG("tile flag found! size overhead = " << sizeOverhead);
3337  else ATH_MSG_DEBUG("tile flag not found! size overhead = " << sizeOverhead);
3338 
3339  while (wc < size) { // iterator over all words in a ROD
3340  // first word is frag size
3341  uint32_t count = *(p);
3342  // second word is frag ID and frag type
3343  int frag = *(p + 1) & 0xFFFF;
3344  int type = *(p + 1) >> 16;
3345 
3346  ATH_MSG_DEBUG( wc << " / " << size << " HEX = 0x" << MSG::hex << count << " DEC = " << MSG::dec << count << " ( FRAG , TYPE ) = " << frag << " , " << type );
3347 
3348  if (count < sizeOverhead || count > size - wc) {
3349  int cnt = 0;
3350  for (; wc < size; ++wc, ++cnt, ++p) {
3351  if ((*p) == 0xff1234ff) {
3352  ATH_MSG_DEBUG( "DATA POINTER: HEX = " << MSG::hex << (*p) << " DEC = " << MSG::dec << (*p) );
3353  ++cnt;
3354  ++wc;
3355  ++p;
3356  break;
3357  }
3358  }
3359  if ((m_ErrorCounter++) < m_maxErrorPrint) {
3360  msg(MSG::WARNING) << "Frag: " << MSG::hex << "0x" << frag << MSG::dec
3361  << " has unexpected size: " << count;
3362  if (wc < size) {
3363  msg(MSG::WARNING) << " skiping " << cnt << " words to the next frag" << endmsg;
3364  } else {
3365  msg(MSG::WARNING) << " ignoring " << cnt << " words till the end of ROD frag" << endmsg;
3366  }
3367  }
3368  continue;
3369  }
3370 
3371  ATH_MSG_DEBUG( "DECODER" << " " << "FRAG=" << frag << " TYPE=" << type << " SIZE=" << size << " FOUND!" );
3372 
3373  if (frag == 0x16 && type == 0x20){
3374 
3375  const int LASTROD_BCID = rob->rod_bc_id();
3376  v.setBCID(LASTROD_BCID);
3377 
3378  if (size>29){
3379  ATH_MSG_DEBUG("UNPACKING FRAG16");
3380  unpack_frag16(version, p, v);
3381  } else if (size>24) {
3382  ATH_MSG_DEBUG("UNPACKING NEW FRAG16");
3383  unpack_frag17(version, sizeOverhead, p, v);
3384  }
3385  }
3386 
3387  if (frag == 0x17 && type == 0x20){
3388 
3389  const int LASTROD_BCID = rob->rod_bc_id();
3390  v.setBCID(LASTROD_BCID);
3391 
3392  ATH_MSG_DEBUG("UNPACKING FRAG17");
3393  unpack_frag17(version, sizeOverhead, p, v);
3394  } // IF
3395 
3396  p += count;
3397  wc += count;
3398  }
3399 
3400  if (wc != size) {
3401  // check word count
3402  if ((m_ErrorCounter++) < m_maxErrorPrint) {
3403  ATH_MSG_WARNING("Incorrect ROD size: " << wc << " words instead of " << size );
3404  }
3405  assert(0);
3406  // return;
3407  }
3408 } //end of FillLaserObj

◆ finalize()

StatusCode TileROD_Decoder::finalize ( )
virtual

Definition at line 220 of file TileROD_Decoder.cxx.

220  {
221  for (unsigned int i = 0; i < 4; ++i) {
222  m_Rw2Cell[i].clear();
223  m_Rw2Pmt[i].clear();
224  }
225  m_list_of_masked_drawers.clear();
226  if (m_WarningCounter != 0) printWarningCounter(1);
227  if (m_ErrorCounter != 0) printErrorCounter(1);
228  return StatusCode::SUCCESS;
229 }

◆ get_correct_data()

std::vector< uint32_t > TileROD_Decoder::get_correct_data ( const uint32_t *  p) const
private

Definition at line 1083 of file TileROD_Decoder.cxx.

1083  {
1084 
1085  uint32_t size = (*p) - 1; // The size of fragment - start of the Tile subfragment (in v3format it is 0xff1234ff)
1086 
1087  std::vector<uint32_t> data;
1088  data.reserve(size);
1089  const uint32_t* data_end = p + size;
1090 
1091  // The first 2 words (size and fragmentID with type) are correct (just copy)
1092  data.push_back(*p);
1093  data.push_back(*(++p));
1094 
1095  ++p;
1096  while (p < data_end) {
1097  uint32_t ppr_size = (*p) - 2; // The size of PPr packet
1098  // The first 2 words (FELIX header) of each MD fragment are correct (just copy)
1099  data.push_back(*(p));
1100  data.push_back(*(++p));
1101 
1102  ++p;
1103  std::for_each(p, p + ppr_size, [&data] (uint32_t v) {
1104  data.push_back((ntohs(v >> 16) << 16) | (ntohs(v & 0xFFFF)));
1105  });
1106 
1107  p += ppr_size;
1108  }
1109 
1110  return data;
1111 }

◆ get_data()

const uint32_t* TileROD_Decoder::get_data ( const ROBData *  rob) const
inlineprivate

Definition at line 609 of file TileROD_Decoder.h.

609  {
610  const uint32_t * p;
611  if (rob->rod_status_position()==0 &&
612  rob->rod_nstatus() + rob->rod_header_size_word() + rob->rod_trailer_size_word() >= rob->rod_fragment_size_word()) {
613  rob->rod_status(p);
614  } else {
615  rob->rod_data(p);
616  }
617  return p;
618  }

◆ getErrorCounter()

int TileROD_Decoder::getErrorCounter ( )

Definition at line 103 of file TileROD_Decoder.cxx.

103  {
104  return m_ErrorCounter;
105 }

◆ getHid2re()

const TileHid2RESrcID* TileROD_Decoder::getHid2re ( )
inline

Definition at line 214 of file TileROD_Decoder.h.

214  {
215  std::lock_guard<std::mutex> lock (m_HidMutex);
216  if (!m_hid2re) initHid2re();
217  return m_hid2re;
218  }

◆ getHid2reHLT()

const TileHid2RESrcID* TileROD_Decoder::getHid2reHLT ( )
inline

Definition at line 210 of file TileROD_Decoder.h.

210  {
211  return m_hid2reHLT;
212  }

◆ getOFW()

const uint32_t * TileROD_Decoder::getOFW ( int  fragId,
int  unit 
) const
private

getOFW returns Optimal Filtering Weights for Frag5 decoder loaded from COOL for correspondent units.

Coefficients automatically stored in memory, thus for next calls nothing loaded again. Once loaded in memory coefficients will be kept there and freed only by destructor method.

Definition at line 4322 of file TileROD_Decoder.cxx.

4323 {
4324  if (unit >> 2) {
4325  ATH_MSG_WARNING( "Wrong online reconstruction units for getOFW: unit=" << unit
4326  << " => assume unit=" << (unit & 3) );
4327  unit &= 3;
4328  }
4329 
4330  uint32_t drawerIdx = TileCalibUtils::getDrawerIdxFromFragId(fragId);
4331  size_t id = (drawerIdx << 2 | unit);
4332  const uint32_t* ofptr = m_OFPtrs[id];
4333  if (ofptr) {
4334  return ofptr;
4335  }
4336 
4337  std::lock_guard<std::mutex> lock (m_OFWeightMutex);
4338  ofptr = m_OFPtrs[id];
4339  if (ofptr) {
4340  return ofptr;
4341  }
4342 
4343  const EventContext &ctx = Gaudi::Hive::currentContext();
4344 
4345  std::vector<uint32_t>& ofw = m_OFWeights[id];
4346 
4347  ATH_MSG_DEBUG("getOFC fragId: 0x" << MSG::hex << fragId << MSG::dec << " Unit: " << unit);
4348  TileRawChannelUnit::UNIT chan_unit = (TileRawChannelUnit::UNIT) (unit
4349  + TileRawChannelUnit::OnlineOffset);
4350 
4351  bool of2 = true;
4352  std::vector<double> a(7), b(7), c(7), g(7), dg(7);
4353 
4354  for (int ch = 0; ch < 48; ++ch) {
4355  for (int gain = 0; gain < 2; ++gain) {
4356  float phase = -m_tileToolTiming->getSignalPhase(drawerIdx, ch, gain);
4357  TileOfcWeightsStruct weights;
4358  if (m_tileCondToolOfcCool->getOfcWeights(drawerIdx, ch, gain, phase, of2, weights, ctx).isFailure())
4359  {
4360  ATH_MSG_ERROR( "getOfcWeights fails" );
4361  return nullptr;
4362  }
4363 
4364  double calib = m_tileToolEmscale->channelCalibOnl(drawerIdx, ch, gain, 1.0, chan_unit);
4365 
4366  if (unit != 0 && gain) calib *= 64.0;
4367 
4368  for (int i = 0; i < 7; ++i) {
4369  a[i] = weights.w_a[i];
4370  b[i] = weights.w_b[i];
4371  c[i] = weights.w_c[i];
4372  g[i] = weights.g[i];
4373  dg[i] = weights.dg[i];
4374  }
4375  Format6(a, b, c, g, dg
4376  , ch // channel
4377  , 0 // phase = 0 poskol'ku ne ponyal kak okruglyat'
4378  , calib // calibration
4379  , ofw
4380  , false // verbose
4381  );
4382  } // gain
4383  } // ch
4384 
4385  ofptr = m_OFPtrs[id] = ofw.data();
4386 
4387  return ofptr;
4388 }

◆ getTileHWID()

const TileHWID* TileROD_Decoder::getTileHWID ( ) const
inline

Definition at line 187 of file TileROD_Decoder.h.

187 { return m_tileHWID;}

◆ getWarningCounter()

int TileROD_Decoder::getWarningCounter ( )

Definition at line 99 of file TileROD_Decoder.cxx.

99  {
100  return m_WarningCounter;
101 }

◆ hashFunc()

const TileFragHash* TileROD_Decoder::hashFunc ( ) const
inline

Definition at line 188 of file TileROD_Decoder.h.

188 { return &m_hashFunc; }

◆ initHid2re()

void TileROD_Decoder::initHid2re ( )
private

Definition at line 4267 of file TileROD_Decoder.cxx.

4267  {
4268  if (m_hid2re) return;
4269 
4270  ATH_MSG_DEBUG( "initHid2re() for run " << m_fullTileRODs );
4271 
4272  m_hid2re = new TileHid2RESrcID(m_tileHWID,m_fullTileRODs); // setting normal frag2RODmap and map dedicated to TMDB
4273 
4274  // Check whether we want to overwrite default ROB IDs
4275 
4276  IProperty* propertyServer(0);
4277  if (serviceLocator()->service("ByteStreamCnvSvc", propertyServer).isSuccess()) {
4278 
4279  std::vector<std::string> vecProp;
4280  StringArrayProperty vecProperty("ROD2ROBmap", vecProp);
4281 
4282  if (propertyServer->getProperty(&vecProperty).isSuccess()) {
4283 
4284  if (vecProperty.value().size() % 2 == 1) {
4285  ATH_MSG_DEBUG( "Length of ROD2ROBmap is and odd value, "
4286  << " means that we'll scan event for all fragments to create proper map" );
4287 
4288  IROBDataProviderSvc* robSvc;
4289  if (service("ROBDataProviderSvc", robSvc).isSuccess()) {
4290  const eformat::FullEventFragment<const uint32_t*> * event = robSvc->getEvent();
4291  try {
4292  event->check_tree();
4293  m_hid2re->setROD2ROBmap(event, m_of2Default, msg());
4294  } catch (...) {
4295  ATH_MSG_DEBUG( "Bad event, mapping might be incomplete! " );
4296  // bad event, but process anyhow (well, till next bug report )
4297  m_hid2re->setROD2ROBmap(event, m_of2Default, msg());
4298  }
4299  }
4300  } else if (vecProperty.value().size() == 0) {
4301  ATH_MSG_DEBUG( "Length of ROD2ROBmap vector is zero, "
4302  << " means that predefined mapping for run " << m_fullTileRODs << " will be used " );
4303  } else {
4304  ATH_MSG_DEBUG( "Apply additional remapping for " << vecProperty.value().size()/2 << " fragments from jobOptions ");
4305  m_hid2re->setROD2ROBmap(vecProperty.value(), msg());
4306  }
4307  }
4308  }
4309 
4310  m_hid2re->printSpecial(msg());
4311 }

◆ initHid2reHLT()

void TileROD_Decoder::initHid2reHLT ( )
private

Definition at line 4313 of file TileROD_Decoder.cxx.

4313  {
4314  if (m_hid2reHLT) return;
4315 
4316  ATH_MSG_DEBUG( "initHid2reHLT() for run " << m_fullTileRODs );
4317 
4318  m_hid2reHLT = new TileHid2RESrcID(m_tileHWID,m_fullTileRODs); // setting a frag2RODmap and map dedicated to TMDB
4319 }

◆ initialize()

StatusCode TileROD_Decoder::initialize ( )
virtual

Definition at line 107 of file TileROD_Decoder.cxx.

107  {
108 
109  m_rc2bytes5.setVerbose(m_verbose);
110  m_rc2bytes2.setVerbose(m_verbose);
111  m_rc2bytes.setVerbose(m_verbose);
112  m_d2Bytes.setVerbose(m_verbose);
113 
114  // retrieve TileHWID helper from det store
115  ATH_CHECK( detStore()->retrieve(m_tileHWID, "TileHWID") );
116  ATH_CHECK( m_hid2RESrcIDKey.initialize() );
117 
118  if (m_useFrag5Raw || m_useFrag5Reco) {
119  //=== get TileCondToolOfcCool
120  ATH_CHECK( m_tileCondToolOfcCool.retrieve() );
121 
122  //=== get TileToolTiming
123  ATH_CHECK( m_tileToolTiming.retrieve() );
124  }
125  else {
126  m_tileCondToolOfcCool.disable();
127  m_tileToolTiming.disable();
128  }
129 
130  //=== get TileCondToolEmscale
131  ATH_CHECK( m_tileToolEmscale.retrieve(DisableTool{m_tileToolEmscale.empty()}) );
132 
133  //=== get TileBadChanTool
134  if ( m_tileBadChanTool.empty() ) {
135  m_tileBadChanTool.disable();
136  } else {
137  ATH_CHECK( m_tileBadChanTool.retrieve() );
138  }
139 
140  // Tile cabling service
141  ATH_CHECK( m_cablingSvc.retrieve() );
142  const TileCablingService *cablingService = m_cablingSvc->cablingService();
143  m_maxChannels = cablingService->getMaxChannels();
144  m_runPeriod = cablingService->runPeriod();
145  std::ostringstream os;
146  if (m_runPeriod==3) {
147  if ( m_demoFragIDs.empty() ) {
148  std::vector<int> v = { 0x10d }; // LBA14 is demonstrator in RUN3
149  m_demoFragIDs = v;
150  }
151  os << " in RUN3";
152  }
153 
154  if ( !m_demoFragIDs.empty() ) {
155  std::sort(m_demoFragIDs.begin(),m_demoFragIDs.end());
156  os << " (frag IDs):";
157  for (int fragID : m_demoFragIDs) {
158  if (fragID>0)
159  os << " 0x" << std::hex << fragID << std::dec;
160  else
161  os << " " << fragID;
162  }
163  ATH_MSG_INFO("Enable channel remapping for demonstrator modules" << os.str());
164  }
165 
166  m_Rw2Cell[0].reserve(m_maxChannels);
167  m_Rw2Cell[1].reserve(m_maxChannels);
168  m_Rw2Cell[2].reserve(m_maxChannels * TileCalibUtils::MAX_DRAWER);
169  m_Rw2Cell[3].reserve(m_maxChannels * TileCalibUtils::MAX_DRAWER);
170  m_Rw2Pmt[0].reserve(m_maxChannels);
171  m_Rw2Pmt[1].reserve(m_maxChannels);
172  m_Rw2Pmt[2].reserve(m_maxChannels * TileCalibUtils::MAX_DRAWER);
173  m_Rw2Pmt[3].reserve(m_maxChannels * TileCalibUtils::MAX_DRAWER);
174 
175 
176  ATH_CHECK( m_L2Builder.retrieve(DisableTool{m_L2Builder.empty()}) );
177 
178  updateAmpThreshold();
179 
180  // Initialize
181  this->m_hashFunc.initialize(m_tileHWID);
182 
183  this->initHid2reHLT();
184 
185  // prepare remapping from channel numbers in demonstrator to channel numbers in legacy drawers
186  if (!m_demoFragIDs.empty()) {
187  for (int i=0; i<24; ++i) {
188  m_demoChanLB.push_back(i);
189  m_demoChanEB.push_back(i);
190  }
191  for (int i=24; i<48; i+=3) {
192  m_demoChanLB.push_back(i+2);
193  m_demoChanLB.push_back(i+1);
194  m_demoChanLB.push_back(i);
195  }
196  m_demoChanEB.push_back(31);
197  m_demoChanEB.push_back(32);
198  m_demoChanEB.push_back(30);
199  m_demoChanEB.push_back(35);
200  m_demoChanEB.push_back(33);
201  m_demoChanEB.push_back(34);
202  m_demoChanEB.push_back(38);
203  m_demoChanEB.push_back(37);
204  m_demoChanEB.push_back(41);
205  m_demoChanEB.push_back(40);
206  m_demoChanEB.push_back(39);
207  m_demoChanEB.push_back(36);
208  for (int i=24; i<30; ++i) {
209  m_demoChanEB.push_back(i);
210  }
211  for (int i=42; i<48; ++i) {
212  m_demoChanEB.push_back(i);
213  }
214  }
215 
216  return StatusCode::SUCCESS;
217 }

◆ inputHandles()

virtual std::vector<Gaudi::DataHandle*> AthCommonDataStore< AthCommonMsg< AlgTool > >::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.

◆ interfaceID()

const InterfaceID & TileROD_Decoder::interfaceID ( )
static

AlgTool InterfaceID.

Definition at line 83 of file TileROD_Decoder.cxx.

83  {
84  return IID_ITileROD_Decoder;
85 }

◆ loadMBTS()

void TileROD_Decoder::loadMBTS ( std::map< unsigned int, unsigned int > &  mapMBTS,
int  MBTS_channel 
)

Definition at line 4261 of file TileROD_Decoder.cxx.

4261  {
4262  m_mapMBTS = mapMBTS;
4263  m_MBTS_channel = MBTS_channel;
4264  return;
4265 }

◆ loadRw2Cell()

void TileROD_Decoder::loadRw2Cell ( const int  section,
const std::vector< int > &  vec 
)
inline

Definition at line 179 of file TileROD_Decoder.h.

179  {
180  // std::cout << vec.size() << std::endl;
181  for (unsigned int i = 0; i < vec.size(); ++i) {
182  // std::cout << vec[i] << std::endl;
183  m_Rw2Cell[section].push_back(vec[i]);
184  }
185  }

◆ loadRw2Pmt()

void TileROD_Decoder::loadRw2Pmt ( const int  section,
const std::vector< int > &  vec 
)
inline

Definition at line 196 of file TileROD_Decoder.h.

196  {
197  for (unsigned int i = 0; i < vec.size(); ++i) {
198  // std::cout << vec[i] << std::endl;
199  m_Rw2Pmt[section].push_back(vec[i]);
200  }
201  }

◆ make_copy() [1/7]

void TileROD_Decoder::make_copy ( const ROBData *  rob,
pBeamVec &  pBeam,
TileBeamElemCollection &  v 
) const
inlineprivate

Definition at line 865 of file TileROD_Decoder.h.

866  {
867  copy_vec(pBeam, v);
868 
869  v.setLvl1Id(rob->rod_lvl1_id());
870  v.setLvl1Type(rob->rod_lvl1_trigger_type());
871  v.setDetEvType(rob->rod_detev_type());
872  v.setRODBCID(rob->rod_bc_id());
873 }

◆ make_copy() [2/7]

void TileROD_Decoder::make_copy ( const ROBData *  rob,
pBeamVec &  pBeam,
TileCellCollection &  v 
) const
inlineprivate

Definition at line 890 of file TileROD_Decoder.h.

891  {
892  // do nothing
893  delete_vec(pBeam);
894 }

◆ make_copy() [3/7]

void TileROD_Decoder::make_copy ( const ROBData *  rob,
pBeamVec &  pBeam,
TileDigitsCollection &  v 
) const
inlineprivate

Definition at line 876 of file TileROD_Decoder.h.

877  {
878  // do nothing
879  delete_vec(pBeam);
880 }

◆ make_copy() [4/7]

void TileROD_Decoder::make_copy ( const ROBData *  rob,
pBeamVec &  pBeam,
TileRawChannelCollection &  v 
) const
inlineprivate

Definition at line 883 of file TileROD_Decoder.h.

884  {
885  // do nothing
886  delete_vec(pBeam);
887 }

◆ make_copy() [5/7]

void TileROD_Decoder::make_copy ( uint32_t  bsflags,
TileFragHash::TYPE  rChType,
TileRawChannelUnit::UNIT  rChUnit,
DigitsMetaData_t &  digitsMetaData,
RawChannelMetaData_t &  rawchannelMetaData,
const ROBData *  rob,
pDigiVec &  pDigits,
pRwChVec &  pChannel,
TileBeamElemCollection &  v,
TileBeamElemContainer *  container 
) const
inlineprivate

Definition at line 850 of file TileROD_Decoder.h.

858 {
859  // do nothing
860  delete_vec(pDigits);
861  delete_vec(pChannel);
862 }

◆ make_copy() [6/7]

void TileROD_Decoder::make_copy ( uint32_t  bsflags,
TileFragHash::TYPE  rChType,
TileRawChannelUnit::UNIT  rChUnit,
DigitsMetaData_t &  digitsMetaData,
RawChannelMetaData_t &  rawchannelMetaData,
const ROBData *  rob,
pDigiVec &  pDigits,
pRwChVec &  pChannel,
TileDigitsCollection &  v,
TileDigitsContainer *  container 
) const
inlineprivate

Definition at line 705 of file TileROD_Decoder.h.

715 {
716  copy_vec(pDigits, v); // Digits stored
717 
718  if (pChannel.size() > 0) { // RawChannels deleted
719  delete_vec(pChannel);
720  }
721 
722  v.setLvl1Id(rob->rod_lvl1_id());
723  v.setLvl1Type(rob->rod_lvl1_trigger_type());
724  v.setDetEvType(rob->rod_detev_type());
725  v.setRODBCID(rob->rod_bc_id());
726 
727  uint32_t status = TileFragStatus::ALL_OK;
728  for (size_t j=0; j<digitsMetaData[6].size(); ++j) {
729  status |= digitsMetaData[6][j];
730  }
731 
732  if (v.size() > 0) {
733  // Set meta data
734  v.setFragSize(digitsMetaData[0][0]);
735  v.setFragBCID(digitsMetaData[0][2] | (status<<16));
736 
737  v.setFragExtraWords(digitsMetaData[1]);
738 
739  v.setFragChipHeaderWords(digitsMetaData[2]);
740  v.setFragChipCRCWords(digitsMetaData[3]);
741 
742  if (v.isCalibMode()) {
743  v.setFragChipHeaderWordsHigh(digitsMetaData[4]);
744  v.setFragChipCRCWordsHigh(digitsMetaData[5]);
745  }
746  if (m_verbose) v.printExtra();
747  } else if ( digitsMetaData[0].size() == 0 ) {
748  // no useful digi fragment or no data inside fragment
749  status |= TileFragStatus::NO_FRAG;
750  v.setFragBCID(0xDEAD | (status<<16));
751  v.setFragSize(0);
752  }
753 
754  if (status!=TileFragStatus::ALL_OK)
755  ATH_MSG_DEBUG( "Status for drawer 0x" << MSG::hex << v.identify() << " in Digi frag is 0x" << status << MSG::dec);
756 }

◆ make_copy() [7/7]

void TileROD_Decoder::make_copy ( uint32_t  bsflags,
TileFragHash::TYPE  rChType,
TileRawChannelUnit::UNIT  rChUnit,
DigitsMetaData_t &  digitsMetaData,
RawChannelMetaData_t &  rawchannelMetaData,
const ROBData *  rob,
pDigiVec &  pDigits,
pRwChVec &  pChannel,
TileRawChannelCollection &  v,
TileRawChannelContainer *  container 
) const
inlineprivate

Definition at line 759 of file TileROD_Decoder.h.

769 {
770  if (pChannel.size() > 0) { // take available raw channels
771  // and store in collection
772  if (container) {
773  ATH_MSG_VERBOSE( "RawChannel unit is " << rChUnit
774  << " - setting unit in TileRawChannelContainer " );
775  container->set_unit(rChUnit);
776  container->set_type(rChType);
777  container->set_bsflags(bsflags);
778  } else {
779  ATH_MSG_ERROR( "Can't set unit=" << rChUnit << " in TileRawChannelContainer" );
780  }
781 
782  copy_vec(pChannel, v);
783 
784  if (pDigits.size() > 0) delete_vec(pDigits); // Digits deleted
785 
786  } else {
787 
788  if (pDigits.size() > 0) { // convert digits to raw channels
789  // and store directly in collection
790  ATH_MSG_VERBOSE( " No reco frag in BS " );
791  //m_RCBuilder->build(pDigits.begin(),pDigits.end(),(&v));
792 
793  delete_vec(pDigits); // Digits deleted
794 
795  } else {
796  ATH_MSG_DEBUG( "data for drawer 0x" << MSG::hex << v.identify() << MSG::dec << " not found in BS" );
797  }
798  rawchannelMetaData[6].push_back(TileFragStatus::NO_FRAG);
799  HWIdentifier drawerID = m_tileHWID->drawer_id(v.identify());
800  for (unsigned int ch = 0; ch < m_maxChannels; ++ch) {
801  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, ch, 0);
802  v.push_back(new TileRawChannel(adcID, 0.0, -100.0, 31));
803  }
804 
805  }
806 
807  v.setLvl1Id(rob->rod_lvl1_id());
808  v.setLvl1Type(rob->rod_lvl1_trigger_type());
809  v.setDetEvType(rob->rod_detev_type());
810  v.setRODBCID(rob->rod_bc_id());
811 
812  if (rChUnit < TileRawChannelUnit::OnlineOffset && rChType > TileFragHash::OptFilterDsp) { // set good status for BS from MC
813  rawchannelMetaData[0].push_back(0);
814  rawchannelMetaData[0].push_back(0xDEAD);
815  rawchannelMetaData[5].push_back(0xFFFF);
816  rawchannelMetaData[5].push_back(0xFFFF);
817  }
818 
819  for (unsigned int i = 0; i < 6; ++i) {
820  for (size_t j=rawchannelMetaData[i].size(); j<2; ++j) {
821  rawchannelMetaData[i].push_back(0);
822  }
823  }
824 
825  uint32_t status = (rawchannelMetaData[0][0] & 0x1) ? TileFragStatus::CRC_ERR : TileFragStatus::ALL_OK ;
826  for (size_t j=0; j<rawchannelMetaData[6].size(); ++j) {
827  status |= rawchannelMetaData[6][j];
828  }
829  if (status>TileFragStatus::CRC_ERR)
830  ATH_MSG_DEBUG( "Status for drawer 0x" << MSG::hex << v.identify() << " is 0x" << status << MSG::dec);
831 
832  v.setFragGlobalCRC(status);
833  v.setFragDSPBCID(rawchannelMetaData[0][1]);
834  v.setFragBCID(rawchannelMetaData[1][0]);
835  v.setFragMemoryPar(rawchannelMetaData[1][1]);
836  v.setFragSstrobe(rawchannelMetaData[2][0]);
837  v.setFragDstrobe(rawchannelMetaData[2][1]);
838  v.setFragHeaderBit(rawchannelMetaData[3][0]);
839  v.setFragHeaderPar(rawchannelMetaData[3][1]);
840  v.setFragSampleBit(rawchannelMetaData[4][0]);
841  v.setFragSamplePar(rawchannelMetaData[4][1]);
842  v.setFragFEChipMask(rawchannelMetaData[5][0]);
843  if (std::binary_search(m_demoFragIDs.begin(), m_demoFragIDs.end(), v.identify()))
844  v.setFragRODChipMask(rawchannelMetaData[5][0]);
845  else
846  v.setFragRODChipMask(rawchannelMetaData[5][1]);
847 }

◆ make_copyHLT()

uint32_t TileROD_Decoder::make_copyHLT ( bool  of2,
TileRawChannelUnit::UNIT  rChUnit,
bool  correctAmplitude,
const FRwChVec &  pChannel,
TileCellCollection &  v,
const uint16_t  DQuality,
D0CellsHLT &  d0cells,
TileCellCollection *  MBTS 
) const
private

Definition at line 3581 of file TileROD_Decoder.cxx.

3589 {
3590  typedef FRwChVec::const_iterator ITERATOR;
3591  // int gain = 0;
3592  float ener, time, qual = 0;
3593  TileCell* pCell;
3594  std::vector<TileCell*> cell2Double;
3595  cell2Double.reserve(23);
3596 
3597  uint32_t error = 0;
3598 
3599  if (DQuality == 0xffff) error |= 0x80000;
3600 
3601  TileRawChannelCollection::ID frag_id = (v.identify() & 0x0FFF);
3602  int ros = (frag_id >> 8);
3603  int drawer = (frag_id & 0x3F);
3604  int drawerIdx = TileCalibUtils::getDrawerIdx(ros, drawer);
3605  unsigned int channelIdx;
3606  unsigned int adcIdx;
3607  bool recalibrate = (rChUnit != TileRawChannelUnit::OnlineMegaElectronVolts && rChUnit != TileRawChannelUnit::MegaElectronVolts);
3608 
3609  int sec = ros - 1; // 0-3 for barrel +/- and EB +/-
3610 
3611  if (pChannel.size() > 0) { // convert raw channels to cells
3612 
3613  // Zero all cell energies
3614  /*
3615  for (unsigned int cell = 0; cell < v.size(); ++cell) {
3616  ((TileCell*) v[cell])->setEnergy_nonvirt(0.0F, 0.0F, 0, CaloGain::INVALIDGAIN);
3617  ((TileCell*) v[cell])->setTime_nonvirt(-100.0F); // Just to mark a non-initialized cell
3618  ((TileCell*) v[cell])->setQuality_nonvirt(static_cast<unsigned char>(255), 0, 0);
3619  ((TileCell*) v[cell])->setQuality_nonvirt(static_cast<unsigned char>(255), 0, 1);
3620  }
3621  */
3622 
3623  for (TileCell* cell : v) {
3624  cell->setEnergy_nonvirt(0.0F, 0.0F, 0, CaloGain::INVALIDGAIN);
3625  cell->setTime_nonvirt(-100.0F); // Just to mark a non-initialized cell
3626  cell->setQuality_nonvirt(static_cast<unsigned char>(255), 0, 0);
3627  cell->setQuality_nonvirt(static_cast<unsigned char>(255), 0, 1);
3628  }
3629 
3630 
3631  int idxraw = drawer * m_maxChannels;
3632 
3633  ITERATOR rawItr = pChannel.begin();
3634  ITERATOR end = pChannel.end();
3635 
3636  if (sec < 2) { // special treatment of first PMT in pos/neg barrel which belongs to D0 cell
3637  idxraw = 0;
3638  channelIdx = rawItr->channel();
3639  bool no_dmu_mask = true;
3640  if (DQuality) {
3641  if (DQuality >> (channelIdx / 3) & 0x1) no_dmu_mask = false;
3642  }
3643 
3644  adcIdx = rawItr->adc();
3645  qual = rawItr->quality();
3646  bool do_mask = false;
3647  if ((qual < QUALITY_THRESHOLD) && no_dmu_mask) {
3648  ener = rawItr->amplitude();
3649  time = rawItr->time();
3650  // FIXME:: To speed up HLT processing we keep OnlineMegaElectronVolts
3651  // but this means that we can end up with different units (online or offline)
3652  if (recalibrate && ener!=0.0F) {
3653  ener = m_tileToolEmscale->channelCalib(drawerIdx, channelIdx, adcIdx, ener, rChUnit,
3654  TileRawChannelUnit::MegaElectronVolts);
3655  }
3656  // parabolic correction for good but slightly out-of-time signals
3657  if (correctAmplitude) {
3658  if (time<m_allowedTimeMin || time>m_allowedTimeMax) {
3659  ener = 0.0F;
3660  time = 0.0F;
3661  } else if (ener > m_ampMinThresh_MeV
3662  && time > m_timeMinThresh
3663  && time < m_timeMaxThresh) {
3664  ener *= TileRawChannelBuilder::correctAmp(time,of2);
3665  }
3666  }
3667  } else {
3668  // ignore energy from bad channel
3669  ener = 0.0F;
3670  time = 0.0F;
3671  do_mask = true;
3672  }
3673 
3674  if (sec > 0) { // sec=1 - negative
3675  d0cells.m_D0channeg[drawer].set(channelIdx, adcIdx, ener, time, qual);
3676  d0cells.m_D0Existneg[drawer] = true;
3677  d0cells.m_D0Maskneg[drawer] = do_mask;
3678  } else { // sec=0 - positive
3679  d0cells.m_D0chanpos[drawer].set(channelIdx, adcIdx, ener, time, qual);
3680  d0cells.m_D0Existpos[drawer] = true;
3681  d0cells.m_D0Maskpos[drawer] = do_mask;
3682  }
3683  ++rawItr; // done with first channel in barrel, go to second
3684  ++idxraw;
3685  }
3686 
3687  int MBTS_chan=((ros>2)?-1:43);
3688 
3689  for (; rawItr != end; ++rawItr) {
3690  const TileFastRawChannel* rawPtr = &*rawItr;
3691  const int rw2cell = m_Rw2Cell[sec][idxraw];
3692  if (rw2cell != -1) {
3693  // Get Variables
3694  pCell = v[rw2cell];
3695  channelIdx = rawPtr->channel();
3696  bool no_dmu_mask = true;
3697  if (DQuality) {
3698  if (DQuality >> (channelIdx / 3) & 0x1) no_dmu_mask = false;
3699  }
3700  adcIdx = rawPtr->adc();
3701  qual = rawPtr->quality();
3702  time = 0.0F;
3703  if (no_dmu_mask && (qual < QUALITY_THRESHOLD)) {
3704  // gain = adcIdx;
3705  ener = rawPtr->amplitude();
3706  time = rawPtr->time();
3707  // FIXME:: To speed up HLT processing we keep OnlineMegaElectronVolts
3708  // but this means that we can end up with different units (online or offline)
3709  if (recalibrate && ener!=0.0F) {
3710  ener = m_tileToolEmscale->channelCalib(drawerIdx, channelIdx, adcIdx, ener, rChUnit,
3711  TileRawChannelUnit::MegaElectronVolts);
3712  }
3713  // parabolic correction for good but slightly out-of-time signals
3714  if (correctAmplitude) {
3715  if (time<m_allowedTimeMin || time>m_allowedTimeMax) {
3716  ener = 0.0F;
3717  time = 0.0F;
3718  } else if (ener > m_ampMinThresh_MeV
3719  && time > m_timeMinThresh
3720  && time < m_timeMaxThresh) {
3721  ener *= TileRawChannelBuilder::correctAmp(time,of2);
3722  }
3723  }
3724  unsigned char qbit = qbitfun(time,m_allowedTimeMin,m_allowedTimeMax);
3725  if (pCell->time() != -100.0F) pCell->setTime(time, m_Rw2Pmt[sec][idxraw]);
3726  else pCell->setTime_nonvirt(time);
3727 
3728  pCell->setQuality_nonvirt(std::min(255, abs((int) qual)), qbit, m_Rw2Pmt[sec][idxraw]);
3729  pCell->addEnergy(ener, m_Rw2Pmt[sec][idxraw], adcIdx);
3730 
3731  if (pCell->caloDDE()->onl2() == TileHWID::NOT_VALID_HASH)
3732  pCell->setQuality_nonvirt(0, 0, 1);
3733 
3734  } else if (pCell->caloDDE()->onl2() != TileHWID::NOT_VALID_HASH) {
3735  pCell->addEnergy(0.0F, m_Rw2Pmt[sec][idxraw], 0U);
3736  pCell->setQuality_nonvirt((unsigned char) 255, 0, m_Rw2Pmt[sec][idxraw]);
3737  cell2Double.push_back(pCell); // have to double later
3738  } else { // Mask it here for Gap
3739  // (pCell)->setEnergy_nonvirt(0.0F, 0.0F, 0, CaloGain::INVALIDGAIN);
3740  pCell->setTime_nonvirt(0.0F);
3741  pCell->setQuality_nonvirt(static_cast<unsigned char>(qual), 0, 1);
3742  }
3743  } else if (MBTS_chan<0) MBTS_chan=rawPtr->channel();// end of if
3744  ++idxraw;
3745  //if ( DQuality ) idxraw1++;
3746  } // End of for TileRawChannel
3747 
3748  if (MBTS_chan==4) { // assign zero energy and high gain to second PMT in special C10
3749  pCell = v[m_Rw2Cell[sec][5]]; // find cell with channel 5 connected
3750  pCell->addEnergy(0., 1-m_Rw2Pmt[sec][5], 1);
3751  }
3752 
3753  if (MBTS && MBTS_chan >= 0) {
3754  auto it = m_mapMBTS.find (frag_id);
3755  unsigned int idx = it != m_mapMBTS.end() ? it->second : 0u;
3756  if (idx < (*MBTS).size()) { // MBTS present (always last channel)
3757  TileCell* pCell = (*MBTS)[idx];
3758  const TileFastRawChannel& rawCh = pChannel[MBTS_chan];
3759  channelIdx = rawCh.channel();
3760  adcIdx = rawCh.adc();
3761  float ener = rawCh.amplitude();
3762  float time = rawCh.time();
3763  float qual = rawCh.quality();
3764  if (qual < QUALITY_THRESHOLD) {
3765  if (rChUnit==TileRawChannelUnit::MegaElectronVolts) { // go back to pC - not standard configuration
3766  ener /= m_tileToolEmscale->channelCalib(drawerIdx, channelIdx, adcIdx, 1.0, // calibrate to PicoCoulombs
3767  TileRawChannelUnit::PicoCoulombs, rChUnit);
3768  } else {
3769  ener = m_tileToolEmscale->channelCalib(drawerIdx, channelIdx, adcIdx, ener, // calibrate to PicoCoulombs
3770  rChUnit, TileRawChannelUnit::PicoCoulombs);
3771  }
3772  // parabolic correction for good but slightly out-of-time signals
3773  if (correctAmplitude) {
3774  if (time<m_allowedTimeMin || time>m_allowedTimeMax) {
3775  ener = 0.0F;
3776  time = 0.0F;
3777  } else if (ener > m_ampMinThresh_pC
3778  && time > m_timeMinThresh
3779  && time < m_timeMaxThresh) {
3780  ener *= TileRawChannelBuilder::correctAmp(time,of2);
3781  }
3782  }
3783  } else {
3784  // ignore energy from bad channel
3785  ener = 0.0F;
3786  time = -100.0F;
3787  }
3788  pCell->setEnergy(ener, 0.0F);
3789  pCell->setTime_nonvirt(time);
3790  unsigned char qbit = qbitfun(time,m_allowedTimeMin,m_allowedTimeMax);
3791  pCell->setQuality_nonvirt(std::min(255, abs((int) qual)), qbit, 0);
3792  } // End of if idx
3793 
3794  } // End of if MBTS
3795 
3796  } // end of if vec<TileRawChannel>::size > 0)
3797 
3798  for (std::vector<TileCell*>::const_iterator d_it = cell2Double.begin();
3799  d_it != cell2Double.end(); ++d_it) {
3800 
3801  // int gain = 0;
3802  // if ((*d_it)->gain1() == 1 || (*d_it)->gain2() == 1) gain = 1;
3803  int gain = (*d_it)->gain1() | (*d_it)->gain2();
3804  unsigned char qual = (*d_it)->qual1() & (*d_it)->qual2();
3805 
3806  float ener = (*d_it)->e();
3807  float time = (*d_it)->time();
3808  unsigned char qbit = qbitfun(time,m_allowedTimeMin,m_allowedTimeMax);
3809 
3810  (*d_it)->setEnergy_nonvirt(ener, ener, gain, gain);
3811  (*d_it)->setQuality_nonvirt(qual, qbit, 0);
3812  (*d_it)->setQuality_nonvirt(qual, qbit, 1);
3813  if (time == -100.0F) (*d_it)->setTime_nonvirt(0.0F);
3814  }
3815 
3816  return error;
3817 }

◆ mergeD0cellsHLT()

void TileROD_Decoder::mergeD0cellsHLT ( const D0CellsHLT &  d0cells,
TileCellCollection &  v 
) const

Definition at line 4192 of file TileROD_Decoder.cxx.

4194 {
4195  TileRawChannelCollection::ID frag_id = (v.identify() & 0x0FFF);
4196  int ros = (frag_id >> 8);
4197  bool barrel ( (ros==1) || (ros==2) );
4198  if ( !barrel ) return; // Only in barrel
4199  int drawer = (frag_id & 0xFF);
4200  TileCell* pCell = d0cells.m_cells[drawer];
4201  if ( !pCell ) return;
4202 
4203  if (d0cells.m_D0Maskpos[drawer] && d0cells.m_D0Maskneg[drawer]) {
4204 
4205  // both channels are bad - mask whole cell
4206  (pCell)->setEnergy_nonvirt(0.0F, 0.0F, 0, 0);
4207  (pCell)->setTime_nonvirt(0.0F);
4208  (pCell)->setQuality_nonvirt(static_cast<unsigned char>(255), 0, 0);
4209  (pCell)->setQuality_nonvirt(static_cast<unsigned char>(255), 0, 1);
4210 
4211  } else if (d0cells.m_D0Maskpos[drawer]) {
4212 
4213  // first(positive) channel is bad, second(negative) is good
4214  float amp2 = d0cells.m_D0channeg[drawer].amplitude();
4215  float time2 = d0cells.m_D0channeg[drawer].time();
4216  int gain2 = d0cells.m_D0channeg[drawer].adc();
4217  unsigned char qual2 = d0cells.m_D0channeg[drawer].quality();
4218  unsigned char qbit2 = qbitfun(time2,m_allowedTimeMin,m_allowedTimeMax);
4219 
4220  (pCell)->setEnergy(amp2, amp2, gain2, gain2);
4221  (pCell)->setTime(time2);
4222  (pCell)->setQuality(qual2, qbit2, 0);
4223  (pCell)->setQuality(qual2, qbit2, 1);
4224 
4225  } else {
4226 
4227  // first(positive) channel is good
4228  float amp1 = d0cells.m_D0chanpos[drawer].amplitude();
4229  float time1 = d0cells.m_D0chanpos[drawer].time();
4230  int gain1 = d0cells.m_D0chanpos[drawer].adc();
4231  unsigned char qual1 = d0cells.m_D0chanpos[drawer].quality();
4232  unsigned char qbit1 = qbitfun(time1,m_allowedTimeMin,m_allowedTimeMax);
4233 
4234  if (d0cells.m_D0Maskneg[drawer]) {
4235 
4236  // second channel is bad, first is good
4237  (pCell)->setEnergy(amp1, amp1, gain1, gain1);
4238  (pCell)->setTime(time1);
4239  (pCell)->setQuality(qual1, qbit1, 0);
4240  (pCell)->setQuality(qual1, qbit1, 1);
4241 
4242  } else {
4243 
4244  // second(negative) channel is good
4245  float amp2 = d0cells.m_D0channeg[drawer].amplitude();
4246  float time2 = d0cells.m_D0channeg[drawer].time();
4247  int gain2 = d0cells.m_D0channeg[drawer].adc();
4248  unsigned char qual2 = d0cells.m_D0channeg[drawer].quality();
4249  unsigned char qbit2 = qbitfun(time2,m_allowedTimeMin,m_allowedTimeMax);
4250 
4251  // both channels are good
4252  (pCell)->setEnergy(amp1, amp2, gain1, gain2);
4253  (pCell)->setTime(time1);
4254  (pCell)->setTime(time2, 1);
4255  (pCell)->setQuality(qual1, qbit1, 0);
4256  (pCell)->setQuality(qual2, qbit2, 1);
4257  }
4258  }
4259 }

◆ msg() [1/2]

MsgStream& AthCommonMsg< AlgTool >::msg ( ) const
inlineinherited

Definition at line 24 of file AthCommonMsg.h.

24  {
25  return this->msgStream();
26  }

◆ msg() [2/2]

MsgStream& AthCommonMsg< AlgTool >::msg ( const MSG::Level  lvl) const
inlineinherited

Definition at line 27 of file AthCommonMsg.h.

27  {
28  return this->msgStream(lvl);
29  }

◆ msgLvl()

bool AthCommonMsg< AlgTool >::msgLvl ( const MSG::Level  lvl) const
inlineinherited

Definition at line 30 of file AthCommonMsg.h.

30  {
31  return this->msgLevel(lvl);
32  }

◆ outputHandles()

virtual std::vector<Gaudi::DataHandle*> AthCommonDataStore< AthCommonMsg< AlgTool > >::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.

◆ printErrorCounter()

void TileROD_Decoder::printErrorCounter ( bool  printIfNoError)

Definition at line 93 of file TileROD_Decoder.cxx.

93  {
94  if (printIfNoError || m_ErrorCounter > 0) {
95  ATH_MSG_WARNING( "Found " << m_ErrorCounter << " errors in decoding words");
96  }
97 }

◆ printWarningCounter()

void TileROD_Decoder::printWarningCounter ( bool  printIfNoWarning)

Definition at line 87 of file TileROD_Decoder.cxx.

87  {
88  if (printIfNoWarning || m_WarningCounter > 0) {
89  ATH_MSG_WARNING( "Found " << m_WarningCounter << " warnings in decoding words");
90  }
91 }

◆ 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< AlgTool > >::renounce ( T &  h)
inlineprotectedinherited

Definition at line 380 of file AthCommonDataStore.h.

381  {
382  h.renounce();
383  PBASE::renounce (h);
384  }

◆ renounceArray()

void AthCommonDataStore< AthCommonMsg< AlgTool > >::renounceArray ( SG::VarHandleKeyArray &  handlesArray)
inlineprotectedinherited

remove all handles from I/O resolution

Definition at line 364 of file AthCommonDataStore.h.

364  {
365  handlesArray.renounce();
366  }

◆ setLaserVersion()

void TileROD_Decoder::setLaserVersion ( TileLaserObject &  laserObject) const
inline

Definition at line 175 of file TileROD_Decoder.h.

175  {
176  laserObject.setVersion((m_runPeriod >= 2) ? -2 : -1);
177  }

◆ setUseFrag0()

void TileROD_Decoder::setUseFrag0 ( bool  f)
inline

Definition at line 220 of file TileROD_Decoder.h.

220 { m_useFrag0 = f; }

◆ setUseFrag1()

void TileROD_Decoder::setUseFrag1 ( bool  f)
inline

Definition at line 221 of file TileROD_Decoder.h.

221 { m_useFrag1 = f; }

◆ setUseFrag4()

void TileROD_Decoder::setUseFrag4 ( bool  f)
inline

Definition at line 222 of file TileROD_Decoder.h.

222 { m_useFrag4 = f; }

◆ setUseFrag5Raw()

void TileROD_Decoder::setUseFrag5Raw ( bool  f)
inline

Definition at line 223 of file TileROD_Decoder.h.

223 { m_useFrag5Raw = f; }

◆ setUseFrag5Reco()

void TileROD_Decoder::setUseFrag5Reco ( bool  f)
inline

Definition at line 224 of file TileROD_Decoder.h.

224 { m_useFrag5Reco = f; }

◆ sysInitialize()

virtual StatusCode AthCommonDataStore< AthCommonMsg< AlgTool > >::sysInitialize ( )
overridevirtualinherited

Perform system initialization for an algorithm.

We override this to declare all the elements of handle key arrays at the end of initialization. See comments on updateVHKA.

Reimplemented in DerivationFramework::CfAthAlgTool, AthCheckedComponent< AthAlgTool >, AthCheckedComponent<::AthAlgTool >, and asg::AsgMetadataTool.

◆ sysStart()

virtual StatusCode AthCommonDataStore< AthCommonMsg< AlgTool > >::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.

◆ unpack_brod()

void TileROD_Decoder::unpack_brod ( uint32_t  version,
uint32_t  sizeOverhead,
const uint32_t *  p,
pBeamVec &  pBeam,
int  fragID 
) const
private

unpack_brod decodes all ancillary tile subfragments coming from beam ROD at the testbeam or LASTROD in normal ATLAS configuration

Definition at line 2788 of file TileROD_Decoder.cxx.

2793 {
2794  // first word is frag size
2795  int count = *(p);
2796  // second word is frag ID and frag type
2797  uint32_t idAndType = *(p + 1);
2798  int bs_frag = idAndType & 0xFFFF;
2799  bool is16ChannelType = (idAndType >> 16) & 1; // V775N, V792N
2800  bool is32ChannelType = (idAndType >> 17) & 1; // V775, V792
2801 
2802  p += 2; // 2 words so far
2803  int datasize = count - sizeOverhead; // can be 2 or 3 words less
2804 
2805  if (msgLvl(MSG::VERBOSE)) {
2806  msg(MSG::VERBOSE) << "Unpacking Beam Elements, ID=0x" << MSG::hex << frag_id << " BS frag=0x" << bs_frag
2807  << ", size=" << MSG::dec << datasize;
2808  for (int ch = 0; ch < datasize; ++ch) {
2809  if (0 == ch % 8) msg(MSG::VERBOSE) << endmsg;
2810  msg(MSG::VERBOSE) << p[ch] << " ";
2811  }
2812  msg(MSG::VERBOSE) << endmsg;
2813  }
2814 
2815  if (datasize <= 0) return;
2816 
2817  int frag = (frag_id>=0) ? frag_id : bs_frag;
2818  frag &= 0xff; // reset upper byte, because it's different in 2003 and 2004
2819  HWIdentifier drawerID = m_tileHWID->drawer_id(frag);
2820  TileBeamElem* rc;
2821 
2822  switch (bs_frag) {
2823 
2824  /* ************************************************************************************* */
2825  /* LeCroy 1176 16bit 1ns TDC FRAG in Tile Beam crate or in Common Beam crate */
2826  case BEAM_TDC_FRAG:
2827  case COMMON_TDC1_FRAG:
2828  case COMMON_TDC2_FRAG: {
2829  if (!(is16ChannelType || is32ChannelType)) {
2830  uint32_t prev = 0xFF;
2831  std::vector<uint32_t> adc;
2832  for (int c = 0; c < datasize; ++c) {
2833  uint32_t time = *p & 0xFFFF;
2834  uint32_t flag = *p >> 16;
2835  uint32_t chan = (flag >> 1) & 0x0F;
2836  uint32_t bad = (flag >> 5) & 0x01;
2837  if (!bad) {
2838  if (prev != 0xFF) {
2839  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, prev, 0);
2840  rc = new TileBeamElem(adcID, adc);
2841  pBeam.push_back(rc);
2842  adc.clear();
2843  }
2844  prev = chan;
2845  }
2846  adc.push_back(time);
2847  ++p;
2848  }
2849  if (prev != 0xFF) {
2850  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, prev, 0);
2851  rc = new TileBeamElem(adcID, adc);
2852  pBeam.push_back(rc);
2853  }
2854  break;
2855  }
2856  // Fall through to default
2857  [[fallthrough]]; // silent the warning on fall through
2858  }
2859 
2860  /* ************************************************************************************* */
2861  /* CAEN V775 or V775N 12 bit TDC (1count=35psec) in common beam crate */
2862  case COMMON_TOF_FRAG: {
2863 
2864  uint32_t prev = 0xFF;
2865  std::vector<uint32_t> adc;
2866  for (int c = 0; c < datasize; ++c) {
2867  uint32_t chan = is16ChannelType ? (*p >> 17) & 0x3FF // take 10 bits, but 6 upper bits should be 0
2868  : (*p >> 16) & 0x7FF; // take 11 bits, but 6 upper bits should be 0
2869  if (chan > 31) {
2870  continue; // skip header or end of block
2871  }
2872  uint32_t time = *p & 0x1FFF; // uppermost bit is overflow flag
2873  if (prev != chan && ((is16ChannelType && chan < 16) || (is32ChannelType && chan < 32))) {
2874  if (prev != 0xFF) { // channel >= 32 can be only in corrupted data
2875  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, prev, 0);
2876  rc = new TileBeamElem(adcID, adc);
2877  pBeam.push_back(rc);
2878  adc.clear();
2879  }
2880  prev = chan;
2881  }
2882  adc.push_back(time);
2883  ++p;
2884  }
2885  if ((is16ChannelType && prev < 16) || (is32ChannelType && prev < 32)) {
2886  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, prev, 0);
2887  rc = new TileBeamElem(adcID, adc);
2888  pBeam.push_back(rc);
2889  }
2890  }
2891  break;
2892 
2893  /* ************************************************************************************* */
2894  /* ADDERS FRAG */
2895  case ADD_FADC_FRAG: {
2896 
2897  uint32_t val, channel[16][16];
2898  int nmodule = 4, nchan, nsamp, ch;
2899 
2900  nchan = nmodule * 4;
2901  nsamp = datasize / nmodule;
2902 
2903  ATH_MSG_VERBOSE(" Adders: nmod=" << nmodule << ", nchan=" << nchan
2904  << ", nsamp=" << nsamp);
2905 
2906  if (nmodule * nsamp == datasize) {
2907  /* Unpack DATA */
2908  for (int m = 0; m < nmodule; ++m) {
2909  /* extract all samples for 4 channels in the module */
2910  for (int s = 0; s < nsamp; ++s) {
2911  val = *p;
2912  for (int c = 0; c < 4; ++c) {
2913  ch = m * 4 + c;
2914  if (ch < nchan)
2915  channel[ch][s] = val & 0xFF;
2916  val >>= 8;
2917  }
2918  ++p;
2919  }
2920  }
2921  /* ***** */
2922  for (ch = 0; ch < nchan; ++ch) {
2923  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, ch, 0);
2924  std::vector<uint32_t> adc;
2925  adc.reserve(nsamp);
2926  for (int s = 0; s < nsamp; ++s) {
2927  adc.push_back(channel[ch][s]);
2928  }
2929  rc = new TileBeamElem(adcID, adc);
2930  pBeam.push_back(rc);
2931  }
2932  } else {
2933  ATH_MSG_WARNING("unpack_brod => Unexpected Adders size: " << MSG::dec
2934  << datasize);
2935  return;
2936  }
2937  } break;
2938 
2939 #ifndef LASER_OBJ_FRAG
2940 #define LASER_OBJ_FRAG 0x016
2941 #endif
2942 #ifndef LASER2_OBJ_FRAG
2943 #define LASER2_OBJ_FRAG 0x017
2944 #endif
2945 
2946  case LASER_OBJ_FRAG:
2947  case LASER2_OBJ_FRAG: {
2948 
2949  std::vector<uint32_t> digits;
2950  for (int ch = 0; ch < datasize; ++ch) {
2951  digits.push_back((*p));
2952  ++p;
2953  }
2954  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, 0, 0);
2955  rc = new TileBeamElem(adcID, digits);
2956  pBeam.push_back(rc);
2957  }
2958  break;
2959 
2960  /* ************************************************************************************* */
2961  /* CAEN V792 or V792N 12 bit ADC in common beam crate */
2962  case COMMON_ADC1_FRAG:
2963  case COMMON_ADC2_FRAG: {
2964 
2965  if (is16ChannelType || is32ChannelType) {
2966  uint32_t prev = 0xFF;
2967  std::vector<uint32_t> adc;
2968  for (int c = 0; c < datasize; ++c) {
2969  uint32_t chan = is16ChannelType ? (*p >> 17) & 0x3FF // take 10 bits, but 6 upper bits should be 0
2970  : (*p >> 16) & 0x7FF; // take 11 bits, but 6 upper bits should be 0
2971 
2972  if (chan > 31) {
2973  continue; // skip header or end of block
2974  }
2975  uint32_t amplitude = *p & 0x1FFF; // uppermost bit is overflow flag
2976  if (prev != chan && ((is16ChannelType && chan < 16) || (is32ChannelType && chan < 32))) {
2977  if (prev != 0xFF) { // channel >= 32 can be only in corrupted data
2978  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, prev, 0);
2979  rc = new TileBeamElem(adcID, adc);
2980  pBeam.push_back(rc);
2981  adc.clear();
2982  }
2983  prev = chan;
2984  }
2985  adc.push_back(amplitude);
2986  ++p;
2987  }
2988  if ((is16ChannelType && prev < 16) || (is32ChannelType && prev < 32)) {
2989  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, prev, 0);
2990  rc = new TileBeamElem(adcID, adc);
2991  pBeam.push_back(rc);
2992  }
2993  break;
2994  }
2995  // Fall through to default
2996  [[fallthrough]]; // silent the warning on fall through
2997  }
2998 
2999  /* ************************************************************************************* */
3000  /* OTHER FRAGS: ONE WORD = ONE CHANNEL */
3001  default: {
3002 
3003  int chmax = (datasize > 16) ? 15 : datasize;
3004  for (int ch = 0; ch < chmax; ++ch) {
3005  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, ch, 0);
3006  rc = new TileBeamElem(adcID, (*p));
3007  pBeam.push_back(rc);
3008  ++p;
3009  }
3010  if (chmax != datasize) {
3011  std::vector<uint32_t> digits;
3012  for (int ch = chmax; ch < datasize; ++ch) {
3013  digits.push_back((*p));
3014  ++p;
3015  }
3016  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, chmax, 0);
3017  rc = new TileBeamElem(adcID, digits);
3018  pBeam.push_back(rc);
3019  }
3020  }
3021  break;
3022  }
3023 
3024  return;
3025 }

◆ unpack_frag0()

void TileROD_Decoder::unpack_frag0 ( uint32_t  version,
uint32_t  sizeOverhead,
DigitsMetaData_t &  digitsMetaData,
const uint32_t *  p,
pDigiVec &  pDigits,
int  frag_id,
int  drawer_type 
) const
private

unpack_frag0 decodes tile subfragment type 0x0.

Unpack TileDigits stored in ROD.

This subfragment contains the tile raw digits from the 48 read-out channels of a tilecal module.

Assume that mode (calib/normal) is the same for every invocation.

Definition at line 246 of file TileROD_Decoder.cxx.

250  {
251  int gain = 0;
252  int n;
253 
254  // pointer to current data word
255  const uint32_t *data;
256  // current chip #
257  int chip;
258  // channel #
259  int channel;
260 
261  // first word is full frag size, first two words are not data
262  int size = *(p) - sizeOverhead;
263  // second word is frag ID (0x100-0x4ff) and frag type
264  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
265  bool remap = (drawer_type > 0) || std::binary_search(m_demoFragIDs.begin(), m_demoFragIDs.end(), frag);
266  const std::vector<int> & chmap = (frag<0x300) ? m_demoChanLB : m_demoChanEB;
267 
268  // Position of first data word, ignore 2 frag header words
269  data = p + 2;
270 
271  uint32_t all00 = TileFragStatus::ALL_00;
272  uint32_t allFF = TileFragStatus::ALL_FF;
273 
274  for (int i = 0; i < size; ++i) {
275  uint32_t w = data[i];
276  if (allFF && w!=0xFFFFFFFF) {
277  allFF = TileFragStatus::ALL_OK;
278  if (all00 == TileFragStatus::ALL_OK) break;
279  }
280  if (all00 && w != 0) {
281  all00 = TileFragStatus::ALL_OK;
282  if (allFF == TileFragStatus::ALL_OK) break;
283  }
284  }
285 
286  uint32_t status = (all00 | allFF);
287  digitsMetaData[6].push_back( status );
288 
289  // check that fragment is not dummy
290  if (m_suppressDummyFragments && status != TileFragStatus::ALL_OK) {
291  return; // nothing reasonable found
292  }
293 
294  // if (msgLvl(MSG::VERBOSE))
295  // msg(MSG::VERBOSE) << "version=" << version << " size: " << (*p) << " " << size;
296  if (sizeOverhead == 2 && (version == 0x2 || version == 0x1)) { /* can not guess number of samples from size */
297  if (size > 178 && size < 205)
298  size = 179; /* we expect this number (9+2)*16+2 */
299  else if (size > 274 && size < 405) size = 275; /* we expect this number (7*2+3)*16+2 */
300  ++data; // ignore first word coming from drawer
301  }
302 
303  // if (msgLvl(MSG::VERBOSE))
304  // msg(MSG::VERBOSE) << size << endmsg;
305 
306  // number of chips in the data, only 16 is expected
307  int chipCount = 16;
308  // one chip contains 3 channels
309  int channelCount = chipCount * 3;
310  // size of 'block'. In normal mode one block is header and chipCount words with samples and CRC word
311  // In calib mode one block is header word, <chipCount> low gain samples, header, <chipCount> high gain and CRC word
312  int blockSize = size / chipCount;
313  // deplacement of high gain samples in calib mode
314  int gainOffset = 0;
315  // calculate number of words per chip including header and excluding CRC
316  int wordsPerChip = 0;
317  // number of data words per chip, excluding header and CRC
318  int dataWordsPerChip = 0;
319  // real number of channels and chips
320  // int channelCountReal,chipCountReal;
321 
322  // Digitizer mode doesn't change between events
323  static std::atomic<int> savedDigiMode = -1;
324 
325  int digiMode = savedDigiMode;
326 
327  if (digiMode < 0 && size > 0) { // try to find digi mode until good mode is found
328  digiMode = m_d2Bytes.getDigiMode(data, chipCount, blockSize);
329  savedDigiMode = digiMode;
330  }
331 
332  if (digiMode > 0 || (digiMode < 0 && blockSize == 17)) {
333  // calibration mode
334  // 2X number of chips
335  // chipCount <<= 1;
336  // channelCount = chipCount*3;
337 
338  // lengt with header and without CRC
339  wordsPerChip = (blockSize - 1) / 2;
340  // lengt without header and CRC
341  dataWordsPerChip = wordsPerChip - 1;
342 
343  //channelCountReal = channelCount/2;
344  //chipCountReal = chipCount/2;
345 
346  gainOffset = wordsPerChip;
347  } else {
348  // assume normal mode
349  // block contains one CRC word
350  wordsPerChip = blockSize - 1;
351  // one header word
352  dataWordsPerChip = wordsPerChip - 1;
353 
354  // channelCountReal = channelCount;
355  // chipCountReal = chipCount;
356  }
357 
358  if (msgLvl(MSG::VERBOSE)) {
359  msg(MSG::VERBOSE) << "Unpacking TileDigits, ID=0x" << MSG::hex << frag
360  << ", size=" << MSG::dec << size << endmsg;
361 
362  msg(MSG::VERBOSE) << " chips=" << chipCount << endmsg;
363  msg(MSG::VERBOSE) << " channels=" << channelCount << endmsg;
364  msg(MSG::VERBOSE) << " block size=" << blockSize << endmsg;
365  msg(MSG::VERBOSE) << " words/chip=" << wordsPerChip << endmsg;
366  msg(MSG::VERBOSE) << " data/chip=" << dataWordsPerChip << endmsg;
367  msg(MSG::VERBOSE) << " gain offs=" << gainOffset << endmsg;
368  msg(MSG::VERBOSE) << " mode=" << digiMode << endmsg;
369  }
370 
371  if (size == 0) {
372  ATH_MSG_VERBOSE( "Size is 0, no digits extracted" );
373  return;
374  }
375 
376  TileDigits *td;
377  HWIdentifier drawerID = m_tileHWID->drawer_id(frag);
378  HWIdentifier adcID;
379  std::array< std::vector<float>, 3 > digiVec;
380 
381  // take BCID from chip header with good parity
382  uint32_t bcid = m_d2Bytes.getBCID(data, chipCount, blockSize);
383 
384  if (gainOffset > 0) {
385  // calibration mode
386  pDigits.reserve(96);
387  std::vector<uint32_t>& chipHeaderLow = digitsMetaData[2];
388  std::vector<uint32_t>& chipCRCLow = digitsMetaData[3];
389  std::vector<uint32_t>& chipHeaderHigh = digitsMetaData[4];
390  std::vector<uint32_t>& chipCRCHigh = digitsMetaData[5];
391 
392  // loop through all chips
393  for (chip = 0; chip < chipCount; ++chip) {
394  ATH_MSG_VERBOSE( "Unpacking calib data for chip " << chip );
395 
396  // Extract low gain digits for fragment
397  digiVec = m_d2Bytes.getDigits(data + 1, dataWordsPerChip);
398 
399  for (n = 0; n < 3; ++n) {
400  // calc channel #
401  channel = chip * 3 + n;
402  if (remap) channel = chmap[channel];
403  // create ID
404  adcID = m_tileHWID->adc_id(drawerID, channel, TileHWID::LOWGAIN);
405 
406  td = new TileDigits(adcID, digiVec[n]);
407  pDigits.push_back(td);
408 
409  }
410  if (remap) std::sort(pDigits.end()-3,pDigits.end(),chan_order);
411 
412  // Extract high gain digits for fragment
413  digiVec = m_d2Bytes.getDigits(data + 1 + gainOffset, dataWordsPerChip);
414 
415  for (n = 0; n < 3; ++n) {
416  // calc channel #
417  channel = chip * 3 + n;
418  if (remap) channel = chmap[channel];
419  // create ID
420  adcID = m_tileHWID->adc_id(drawerID, channel, TileHWID::HIGHGAIN);
421 
422  td = new TileDigits(adcID, digiVec[n]);
423  pDigits.push_back(td);
424 
425  }
426  if (remap) std::sort(pDigits.end()-3,pDigits.end(),chan_order);
427 
428  // store metadata
429  chipHeaderLow.push_back(*data);
430  chipCRCLow.push_back(*(data + gainOffset - 1));
431  chipHeaderHigh.push_back(*(data + gainOffset));
432  chipCRCHigh.push_back(*(data + blockSize - 1));
433 
434  // next block
435  data += blockSize;
436  }
437  } else {
438  // Normal mode
439  pDigits.reserve(pDigits.size() + 48);
440  std::vector<uint32_t>& chipHeader = digitsMetaData[2];
441  std::vector<uint32_t>& chipCRC = digitsMetaData[3];
442 
443  // loop through all chips
444  for (chip = 0; chip < chipCount; ++chip) {
445  // Extract digits for fragment
446  digiVec = m_d2Bytes.getDigits(data + 1, dataWordsPerChip);
447 
448  ATH_MSG_VERBOSE( "Header $" << MSG::hex << (*data)
449  << " CRC $" << *(data + blockSize - 1) );
450 
451  for (n = 0; n < 3; ++n) {
452  // calc channel #
453  channel = chip * 3 + n;
454  if (remap) channel = chmap[channel];
455  // get gain from chip header
456  gain = m_d2Bytes.getGain(data, n);
457  // create ID
458  adcID = m_tileHWID->adc_id(drawerID, channel, gain);
459  td = new TileDigits(adcID, digiVec[n]);
460 
461  ATH_MSG_VERBOSE( "Frag: $" << MSG::hex << frag << MSG::dec
462  << " G:" << gain
463  << " C:" << channel
464  << " BCID: " << MSG::hex << m_d2Bytes.getBCID(data, chipCount, blockSize) << MSG::dec
465  << " Data={" << (int) digiVec[n][0]
466  << "," << (int) digiVec[n][1]
467  << "," << (int) digiVec[n][2]
468  << "," << (int) digiVec[n][3]
469  << "," << (int) digiVec[n][4]
470  << "," << (int) digiVec[n][5]
471  << "," << (int) digiVec[n][6] << "}" );
472 
473 
474  pDigits.push_back(td);
475 
476  }
477 
478  // store some metadata, first word in chip is header, last is CRC
479  chipHeader.push_back(*data);
480  chipCRC.push_back(*(data + blockSize - 1));
481 
482  // go to next block
483  data += blockSize;
484  }
485  if (remap) std::sort(pDigits.end()-channelCount,pDigits.end(),chan_order);
486  }
487 
488  int extra = size - (data - p) + 2;
489 
490  // check size of fragment - we expect 2 extra words (DMU mask and CRC) or more!
491  if (extra < 2) {
492  if ((m_ErrorCounter++) < m_maxErrorPrint) {
493  ATH_MSG_WARNING( "Too short fragment ! Expected at least " << MSG::dec << (data - p)
494  << " data words, while size from header is " << size
495  << " data words (plus " << sizeOverhead << " words overhead)" );
496  }
497  }
498 
499  if (msgLvl(MSG::VERBOSE)) {
500  msg(MSG::VERBOSE) << "Trailer 0x" << MSG::hex
501  << data[0] << " 0x" << data[1];
502  for (int i = 2; i < extra; ++i) {
503  msg(MSG::VERBOSE) << " 0x" << data[i];
504  }
505  msg(MSG::VERBOSE) << MSG::dec << endmsg;
506 
507  // check frag trailer
508  if (extra > 0) {
509  if ((data[0] & 0xffff) != (data[0] >> 16)) {
510  msg(MSG::VERBOSE) << MSG::hex << "Trailer numbers do not match: "
511  << data[0] << MSG::dec << endmsg;
512  } else {
513  if ((data[0] & 0xffff) == 0xffff)
514  msg(MSG::VERBOSE) << "Found barrel trailer" << endmsg;
515  else if ((data[0] & 0xffff) == 0xfff)
516  msg(MSG::VERBOSE) << "Found extended barrel trailer" << endmsg;
517  else
518  msg(MSG::VERBOSE) << MSG::hex << "Unexpected trailer number: "
519  << (data[0] & 0xffff) << MSG::dec << endmsg;
520  }
521  }
522 
523  // check CRC trailer
524  if (extra > 1) {
525  if ((data[1] & 0xffff) != (data[1] >> 16)) {
526  msg(MSG::VERBOSE) << "Trailer CRC numbers do not match" << endmsg;
527  } else {
528  msg(MSG::VERBOSE) << MSG::hex << "Found CRC 0x" << (data[1] & 0xffff)
529  << MSG::dec << endmsg;
530  }
531  }
532  }
533 
534  // store metadata for this collection
535  // size, fragID, BCID, DMU Mask, CRC and other extra words
536  digitsMetaData[0].push_back(size);
537  digitsMetaData[0].push_back(frag);
538  digitsMetaData[0].push_back(bcid);
539  for (int i = 0; i < extra; ++i) {
540  digitsMetaData[1].push_back(data[i]);
541  }
542  if (sizeOverhead == 2 && (version == 0x2 || version == 0x1)) { // keep also first skipped word
543  digitsMetaData[1].push_back(p[2]);
544  }
545 
546  if (dataWordsPerChip > 15) { // can not be true !!!
547  savedDigiMode = -1; // check again digiMode in next fragment
548  }
549 }

◆ unpack_frag1()

void TileROD_Decoder::unpack_frag1 ( uint32_t  version,
uint32_t  sizeOverhead,
DigitsMetaData_t &  digitsMetaData,
const uint32_t *  p,
pDigiVec &  pDigits,
int  fragID,
int  demoType 
) const
private

unpack_frag1 decodes tile subfragment type 0x1.

This subfragment contains the tile raw digits ONLY from the existing channels of a tilecal module.

(not implemented yet).

Definition at line 551 of file TileROD_Decoder.cxx.

556  {
557  // first word is full frag size, first two words are not data
558  int size = *(p) - sizeOverhead;
559  // second word is frag ID (0x100-0x4ff) and frag1 type (old and new version).
560  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
561  bool remap = (drawer_type > 0) || std::binary_search(m_demoFragIDs.begin(), m_demoFragIDs.end(), frag);
562  const std::vector<int> & chmap = (frag<0x300) ? m_demoChanLB : m_demoChanEB;
563  int frag1version = (*(p + 1) >> 31) & 0x1;
564  int nbchanformat1 = ((*(p + 1)) >> 24) & 0x3F;
565 
566  // store metadata for this collection
567  // size, fragID, BCID
568  digitsMetaData[0].push_back(size);
569  digitsMetaData[0].push_back(frag);
570  digitsMetaData[0].push_back(0);
571 
572  if (frag1version == 0) { //Old version
573  p += 2; // 2 words so far
574 
575  int nsamp = (*(p) >> 8) & 0x0F; // find number of samples in first data word
576  int words_per_chan = nsamp + 1; // one extra 16bit word with channel number
577  int nchan = 2 * size / words_per_chan;
578 
579  if (2 * size != nchan * words_per_chan || nchan <= 0 || nchan > 48) {
580  if ((m_ErrorCounter++) < m_maxErrorPrint) {
581  ATH_MSG_WARNING( "Digi frag type=1 fragId=0x" << MSG::hex << frag << MSG::dec
582  << " Nsamp=" << nsamp
583  << " Nchan=" << nchan
584  << " Wrong Size=" << size );
585  }
586  return;
587  }
588 
589  HWIdentifier drawerID = m_tileHWID->drawer_id(frag);
590  std::vector<float> digiVec(nsamp);
591  pDigits.reserve(nchan);
592 
593  const uint16_t* p16 = (const uint16_t *) p;
594 
595  for (int ch = 0; ch < nchan; ++ch) {
596 
597  int channel = (*p16) & 0xFF;
598  if (remap) channel = chmap[channel];
599  int nsamp1 = (*(p16) >> 8) & 0x0F;
600  int gain = (*p16) >> 15;
601  ++p16;
602 
603  for (int samp = 0; samp < nsamp; ++samp) {
604  digiVec[samp] = *p16++;
605  }
606 
607  if (channel < 48 && nsamp1 == nsamp) {
608  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, channel, gain);
609  TileDigits * td = new TileDigits(adcID, digiVec);
610  pDigits.push_back(td);
611  } else {
612  if ((m_ErrorCounter++) < m_maxErrorPrint) {
613  ATH_MSG_WARNING( "Digi frag type=1 fragId=0x" << MSG::hex << frag << MSG::dec
614  << " CHind=" << ch
615  << " channel=" << channel
616  << " nsamp=" << nsamp1 << "/" << nsamp );
617  }
618  }
619 
620  if (msgLvl(MSG::VERBOSE)) {
621  msg(MSG::VERBOSE) << MSG::hex << "Frag: $" << frag << MSG::dec
622  << " G:" << gain
623  << " C:" << channel
624  << " Data={";
625  for (int samp = 0; samp < nsamp; ++samp) {
626  msg(MSG::VERBOSE) << " " << (int) digiVec[samp];
627  }
628  msg(MSG::VERBOSE) << "} " << MSG::hex;
629  for (int samp = 0; samp < nsamp / 2 + 1; ++samp) {
630  msg(MSG::VERBOSE) << (int) *p++ << " ";
631  }
632  msg(MSG::VERBOSE) << MSG::dec << endmsg;
633  }
634  }
635  } //End of old version
636 
637  else if (frag1version == 1) { //New version
638  p += 2; // 2 words so far
639 
640  int nsamp = 7; // New frag1 only for 7 samples
641  int SizeOfFrag1 = size * 2; // Number of 16 bit words
642  int nbchanformat2 = (SizeOfFrag1 - (3 * nbchanformat1)) / 5;
643 
644  int nchan = nbchanformat1 + nbchanformat2;
645 
646  if ((nchan) > 48 || ((nbchanformat1 * 3) + (nbchanformat2 * 5) > SizeOfFrag1)) {
647  if ((m_ErrorCounter++) < m_maxErrorPrint) {
648  ATH_MSG_WARNING( "Digi frag type=1 fragId=0x" << MSG::hex << frag << MSG::dec
649  << " frag1Version=" << frag1version
650  << " Nsamp=" << nsamp
651  << " NchanFormat1=" << nbchanformat1
652  << " NchanFormat2=" << nbchanformat2
653  << " Wrong Size=" << size);
654  }
655  return;
656  }
657 
658  HWIdentifier drawerID = m_tileHWID->drawer_id(frag);
659  std::vector<float> digiVec(nsamp);
660  pDigits.reserve(nchan);
661  pDigiVec sDigits(48);
662 
663  int ptr16index = 1;
664  int channel = 0;
665  uint16_t word1 = 0;
666  uint16_t word2 = 0;
667  uint16_t word3 = 0;
668  uint16_t word4 = 0;
669  uint16_t word5 = 0;
670 
671  for (int chf1 = 0; chf1 < nbchanformat1; ++chf1) {
672  if (ptr16index == 1)
673  channel = ((*p >> 26) & 0x3F);
674  else
675  channel = ((*p >> 10) & 0x3F);
676  if (remap) channel = chmap[channel];
677 
678  int gain = 1;
679 
680  if (ptr16index == 1) {
681  word1 = (uint16_t) ((*p >> 16) & 0xFFFF);
682  word2 = (uint16_t) (*p & 0xFFFF);
683  word3 = (uint16_t) ((*(p + 1) >> 16) & 0xFFFF);
684  ptr16index = 0;
685  }
686 
687  else if (ptr16index == 0) {
688  word1 = (uint16_t) (*p & 0xFFFF);
689  word2 = (uint16_t) ((*(p + 1) >> 16) & 0xFFFF);
690  word3 = (uint16_t) (*(p + 1) & 0xFFFF);
691  ptr16index = 1;
692  }
693 
694  uint16_t Smin = (word1 & 0x3FF);
695 
696  digiVec[0] = ((word3 >> 4) & 0xF) + Smin;
697  digiVec[1] = ((word3 >> 0) & 0xF) + Smin;
698  digiVec[2] = ((word3 >> 8) & 0xF) + Smin;
699  digiVec[3] = ((word3 >> 12) & 0xF) + Smin;
700  digiVec[4] = ((word2 >> 4) & 0xF) + Smin;
701  digiVec[5] = ((word2 >> 0) & 0xF) + Smin;
702  digiVec[6] = ((word2 >> 8) & 0xF) + Smin;
703 
704  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, channel, gain);
705  TileDigits * td = new TileDigits(adcID, digiVec);
706  sDigits.at(channel) = td;
707  p += 1 + ptr16index;
708 
709  if (msgLvl(MSG::VERBOSE)) {
710  msg(MSG::VERBOSE) << MSG::hex << "Frag: $" << frag << MSG::dec
711  << " G:" << gain
712  << " C:" << channel
713  << " Data={";
714  for (int samp = 0; samp < 7; ++samp) {
715  msg(MSG::VERBOSE) << " " << (int) digiVec[samp];
716  }
717  msg(MSG::VERBOSE) << "} " << MSG::hex
718  << " WORD1: " << word1
719  << " WORD2: " << word2
720  << " WORD3: " << word3 << MSG::dec << endmsg;
721  }
722  }
723 
724  for (int chf2 = 0; chf2 < nbchanformat2; ++chf2) {
725  if (ptr16index == 1)
726  channel = ((*p) & 0x3F);
727  else
728  channel = ((*(p + 1) >> 16) & 0x3F);
729  if (remap) channel = chmap[channel];
730 
731  if (ptr16index == 1) {
732  word1 = (uint16_t) ((*p >> 16) & 0xFFFF);
733  word2 = (uint16_t) ((*p) & 0xFFFF);
734  word3 = (uint16_t) ((*(p + 1) >> 16) & 0xFFFF);
735  word4 = (uint16_t) (*(p + 1) & 0xFFFF);
736  word5 = (uint16_t) ((*(p + 2) >> 16) & 0xFFFF);
737  ptr16index = 0;
738  } else if (ptr16index == 0) {
739  word1 = (uint16_t) ((*p) & 0xFFFF);
740  word2 = (uint16_t) ((*(p + 1) >> 16) & 0xFFFF);
741  word3 = (uint16_t) (*(p + 1) & 0xFFFF);
742  word4 = (uint16_t) ((*(p + 2) >> 16) & 0xFFFF);
743  word5 = (uint16_t) (*(p + 2) & 0xFFFF);
744  ptr16index = 1;
745  }
746 
747  int gain = ((word2 >> 6) & 0x1);
748 
749  digiVec[0] = ((word1 << 9) & 0x200) + ((word2 >> 7) & 0x1FF);
750  digiVec[1] = (word1 >> 1) & 0x3FF;
751  digiVec[2] = (word4 << 5 & 0x3E0) + ((word1 >> 11) & 0x1F);
752  digiVec[3] = (word4 >> 5) & 0x3FF;
753  digiVec[4] = ((word3 << 1) & 0x3FE) + ((word4 >> 15) & 0x1);
754  digiVec[5] = ((word5 << 7) & 0x380) + ((word3 >> 9) & 0x7F);
755  digiVec[6] = (word5 >> 3) & 0x3FF;
756 
757  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, channel, gain);
758  TileDigits * td = new TileDigits(adcID, digiVec);
759  sDigits.at(channel) = td;
760  p += (2 + ptr16index);
761 
762  if (msgLvl(MSG::VERBOSE)) {
763  msg(MSG::VERBOSE) << MSG::hex << "Frag: $" << frag << MSG::dec
764  << " G:" << gain
765  << " C:" << channel
766  << " Data={";
767  for (int samp = 0; samp < nsamp; ++samp) {
768  msg(MSG::VERBOSE) << " " << (int) digiVec[samp];
769  }
770  msg(MSG::VERBOSE) << "} " << MSG::hex
771  << " WORD1: " << word1
772  << " WORD2: " << word2
773  << " WORD3: " << word3
774  << " WORD4: " << word4
775  << " WORD5: " << word5 << MSG::dec << endmsg;
776  }
777 
778  }
779  for (uint i = 0; i < sDigits.size(); i++) {
780  TileDigits * td = sDigits.at(i);
781  if (td) pDigits.push_back(td);
782  }
783  } //End of new version
784 
785 }

◆ unpack_frag10()

void TileROD_Decoder::unpack_frag10 ( uint32_t  version,
const uint32_t *  p,
TileL2Container &  v,
int  fragID,
int  demoType 
) const
private

unpack_frag10 decodes tile subfragment type 0x10.

This subfragment contains the result of the MTag algorithm and the transverse energy calculation for two tilecal modules.

The MTag algorithm identifies low transverse momentum muons with eta projective pattern that traverse the tile calorimeter and calculates the energy deposited in the corresponding eta projective tower.

The total transverse energy is calculated for each of the two tilecal modules in the subfragment.

Definition at line 1490 of file TileROD_Decoder.cxx.

1492  {
1493  // MTag-MET fragment 0x10 (staging mode)
1494 
1495  // second word is frag ID and frag type
1496  int size = *(p);
1497  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
1498 
1499  int nDrawer[2];
1500  nDrawer[0] = frag & 0x3F;
1501  nDrawer[1] = (frag & 0xFC0) >> 6;
1502 
1503  p += 2; // 2 words so far
1504 
1505  uint32_t w;
1506  uint32_t Mu_energy0;
1507  uint32_t Mu_energy1;
1508  uint32_t Mu_energy2;
1509  uint32_t Mu_pattern;
1510  uint32_t Mu_drawer;
1511  uint32_t Mu_quality;
1512 
1513  std::vector<float> sumE[2];
1514  std::vector<unsigned int> word[2];
1515  std::vector<float> eta[2];
1516  std::vector<float> energy0[2];
1517  std::vector<float> energy1[2];
1518  std::vector<float> energy2[2];
1519  std::vector<unsigned int> quality[2];
1520 
1521 
1522  constexpr float eta_LB[9] = {
1523  ((0.00f + 2 * 0.05f) / 3), // D0, BC1, A1
1524  ((0.20f + 2 * 0.15f) / 3), // D1, BC2, A2
1525  ((0.20f + 2 * 0.25f) / 3), // D1, BC3, A3
1526  ((0.40f + 2 * 0.35f) / 3), // D2, BC4, A4
1527  ((0.40f + 2 * 0.45f) / 3), // D2, BC5, A5
1528  ((0.40f + 2 * 0.55f) / 3), // D2, BC6, A6
1529  ((0.60f + 2 * 0.55f) / 3), // D3, BC6, A6
1530  ((0.60f + 2 * 0.65f) / 3), // D3, BC7, A7
1531  ((0.60f + 2 * 0.75f) / 3) // D3, BC8, A8
1532  };
1533 
1534  constexpr float eta_EB[17] = {
1535  ((1.00f + 1.05f + 1.15f) / 3), // D5, B11, A12
1536  ((1.00f + 1.15f + 1.15f) / 3), // D5, B12, A12
1537  ((1.00f + 1.15f + 1.25f) / 3), // D5, B12, A13
1538  ((1.00f + 1.25f + 1.15f) / 3), // D5, B13, A12
1539  ((1.00f + 1.25f + 1.25f) / 3), // D5, B13, A13
1540  ((1.00f + 1.25f + 1.35f) / 3), // D5, B13, A14
1541  ((1.20f + 1.05f + 1.15f) / 3), // D6, B11, A12
1542  ((1.20f + 1.15f + 1.15f) / 3), // D6, B12, A12
1543  ((1.20f + 1.15f + 1.25f) / 3), // D6, B12, A13
1544  ((1.20f + 1.25f + 1.15f) / 3), // D6, B13, A12
1545  ((1.20f + 1.25f + 1.25f) / 3), // D6, B13, A13
1546  ((1.20f + 1.25f + 1.35f) / 3), // D6, B13, A14
1547  ((1.20f + 1.35f + 1.25f) / 3), // D6, B14, A13
1548  ((1.20f + 1.35f + 1.35f) / 3), // D6, B14, A14
1549  ((1.20f + 1.35f + 1.45f) / 3), // D6, B14, A15
1550  ((1.20f + 1.45f + 1.35f) / 3), // D6, B15, A14
1551  ((1.20f + 1.45f + 1.45f) / 3) // D6, B15, A15
1552  };
1553 
1554  // Transverse energy - 2 words
1555  sumE[0].push_back((float) ((int32_t) (*p++) - 9000));
1556  sumE[1].push_back((float) ((int32_t) (*p++) - 9000));
1557 
1558  // Muon tagging
1559 
1560  int NMuons = (int) (size - 5) / 2;
1561 
1562  for (int mu = 0; mu < NMuons; ++mu) {
1563 
1564  w = (*p);
1565 
1566  Mu_energy2 = w & 0x1FFFFFF; // 25 bits
1567  Mu_pattern = (w >> 25) & 0x1F; // 5 bits
1568  Mu_drawer = (w >> 30) & 1; // 1 bit
1569  Mu_quality = w >> 31; // 1 bit
1570 
1571  word[Mu_drawer].push_back(w);
1572 
1573  w = *(p + 1);
1574 
1575  Mu_energy0 = w & 0xFFFF; // 16 bits
1576  Mu_energy1 = w >> 16; // 16 bits
1577 
1578  word[Mu_drawer].push_back(w);
1579 
1580  // Muon eta coordinate
1581  switch (frag >> 12) {
1582  case 1:
1583  eta[Mu_drawer].push_back(eta_LB[Mu_pattern]);
1584  break;
1585  case 2:
1586  eta[Mu_drawer].push_back(-eta_LB[Mu_pattern]);
1587  break;
1588  case 3:
1589  eta[Mu_drawer].push_back(eta_EB[Mu_pattern]);
1590  break;
1591  case 4:
1592  eta[Mu_drawer].push_back(-eta_EB[Mu_pattern]);
1593  break;
1594  default:
1595  ATH_MSG_WARNING("Unknown fragment: " << (frag >> 8));
1596  break;
1597  }
1598 
1599  // Energy deposited in TileCal by the muon (MeV)
1600  energy0[Mu_drawer].push_back(Mu_energy0 / 2.);
1601  energy1[Mu_drawer].push_back(Mu_energy1 / 2.);
1602  energy2[Mu_drawer].push_back(Mu_energy2 / 2.);
1603 
1604  // Muon quality factor
1605  quality[Mu_drawer].push_back(Mu_quality);
1606 
1607  p += 2;
1608  }
1609 
1610  for (unsigned int i = 0; i < 2; ++i) {
1611 
1612  // frag ID
1613  int fragId = (((frag & 0xF000) >> 4) | nDrawer[i]);
1614 
1615  // store sumEt
1616  (*pL2[m_hashFunc(fragId)]).setEt(std::move(sumE[i]));
1617 
1618  // store Muon data
1619  (*pL2[m_hashFunc(fragId)]).setMu(std::move(eta[i]), std::move(energy0[i]), std::move(energy1[i]), std::move(energy2[i]),
1620  std::move(quality[i]), std::move(word[i]));
1621  }
1622 
1623  return;
1624 }

◆ unpack_frag11()

void TileROD_Decoder::unpack_frag11 ( uint32_t  version,
const uint32_t *  p,
TileL2Container &  v,
int  fragID,
int  demoType 
) const
private

unpack_frag11 decodes tile subfragment type 0x11.

This subfragment contains the result of the MTag algorithm and the transverse energy calculation ONLY for one tilecal module.

The MTag algorithm identifies low transverse momentum muons with eta projective pattern that traverse the tile calorimeter and calculates the energy deposited in the corresponding eta projective tower.

The total transverse energy is calculated for a tilecal module.

Definition at line 1626 of file TileROD_Decoder.cxx.

1628  {
1629  // MTag-MET fragment 0x11 (full mode)
1630 
1631  // second word is frag ID and frag type
1632  int size = *(p);
1633  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
1634 
1635  p += 2; // 2 words so far
1636 
1637  uint32_t w;
1638  uint32_t Mu_energy0;
1639  uint32_t Mu_energy1;
1640  uint32_t Mu_energy2;
1641  uint32_t Mu_pattern;
1642  //uint32_t Mu_drawer;
1643  uint32_t Mu_quality;
1644 
1645  std::vector<unsigned int> word;
1646  std::vector<float> eta;
1647  std::vector<float> energy0;
1648  std::vector<float> energy1;
1649  std::vector<float> energy2;
1650  std::vector<unsigned int> quality;
1651 
1652  constexpr float eta_LB[9] = {
1653  ((0.00f + 2 * 0.05f) / 3), // D0, BC1, A1
1654  ((0.20f + 2 * 0.15f) / 3), // D1, BC2, A2
1655  ((0.20f + 2 * 0.25f) / 3), // D1, BC3, A3
1656  ((0.40f + 2 * 0.35f) / 3), // D2, BC4, A4
1657  ((0.40f + 2 * 0.45f) / 3), // D2, BC5, A5
1658  ((0.40f + 2 * 0.55f) / 3), // D2, BC6, A6
1659  ((0.60f + 2 * 0.55f) / 3), // D3, BC6, A6
1660  ((0.60f + 2 * 0.65f) / 3), // D3, BC7, A7
1661  ((0.60f + 2 * 0.75f) / 3) // D3, BC8, A8
1662  };
1663 
1664  constexpr float eta_EB[17] = {
1665  ((1.00f + 1.05f + 1.15f) / 3), // D5, B11, A12
1666  ((1.00f + 1.15f + 1.15f) / 3), // D5, B12, A12
1667  ((1.00f + 1.15f + 1.25f) / 3), // D5, B12, A13
1668  ((1.00f + 1.25f + 1.15f) / 3), // D5, B13, A12
1669  ((1.00f + 1.25f + 1.25f) / 3), // D5, B13, A13
1670  ((1.00f + 1.25f + 1.35f) / 3), // D5, B13, A14
1671  ((1.20f + 1.05f + 1.15f) / 3), // D6, B11, A12
1672  ((1.20f + 1.15f + 1.15f) / 3), // D6, B12, A12
1673  ((1.20f + 1.15f + 1.25f) / 3), // D6, B12, A13
1674  ((1.20f + 1.25f + 1.15f) / 3), // D6, B13, A12
1675  ((1.20f + 1.25f + 1.25f) / 3), // D6, B13, A13
1676  ((1.20f + 1.25f + 1.35f) / 3), // D6, B13, A14
1677  ((1.20f + 1.35f + 1.25f) / 3), // D6, B14, A13
1678  ((1.20f + 1.35f + 1.35f) / 3), // D6, B14, A14
1679  ((1.20f + 1.35f + 1.45f) / 3), // D6, B14, A15
1680  ((1.20f + 1.45f + 1.35f) / 3), // D6, B15, A14
1681  ((1.20f + 1.45f + 1.45f) / 3) // D6, B15, A15
1682  };
1683 
1684  // Transverse energy
1685  std::vector<float> sumE(1, (float) ((int32_t) (*p++) - 9000));
1686  (*pL2[m_hashFunc(frag)]).setEt(std::move(sumE));
1687 
1688  // Muon tagging
1689 
1690  int NMuons = (int) (size - 4) / 2;
1691 
1692  for (int mu = 0; mu < NMuons; ++mu) {
1693 
1694  w = (*p);
1695 
1696  Mu_energy2 = w & 0x1FFFFFF; // 25 bits
1697  Mu_pattern = (w >> 25) & 0x1F; // 5 bits
1698  //Mu_drawer = (w >> 30) & 1; // 1 bit
1699  Mu_quality = w >> 31; // 1 bit
1700 
1701  word.push_back(w);
1702 
1703  w = *(p + 1);
1704 
1705  Mu_energy0 = w & 0xFFFF; // 16 bits
1706  Mu_energy1 = w >> 16; // 16 bits
1707 
1708  word.push_back(w);
1709 
1710  // Muon eta coordinate
1711  switch (frag >> 8) {
1712  case 1:
1713  eta.push_back(eta_LB[Mu_pattern]);
1714  break;
1715  case 2:
1716  eta.push_back(-eta_LB[Mu_pattern]);
1717  break;
1718  case 3:
1719  eta.push_back(eta_EB[Mu_pattern]);
1720  break;
1721  case 4:
1722  eta.push_back(-eta_EB[Mu_pattern]);
1723  break;
1724  default:
1725  ATH_MSG_WARNING("Unknown fragment: " << (frag >> 8));
1726  break;
1727  }
1728 
1729  // Energy deposited in TileCal by the muon (MeV)
1730  energy0.push_back(Mu_energy0 / 2.);
1731  energy1.push_back(Mu_energy1 / 2.);
1732  energy2.push_back(Mu_energy2 / 2.);
1733 
1734  // Muon quality factor
1735  quality.push_back(Mu_quality);
1736 
1737  p += 2;
1738  }
1739 
1740  (*pL2[m_hashFunc(frag)]).setMu(std::move(eta), std::move(energy0),
1741  std::move(energy1), std::move(energy2), std::move(quality), std::move(word));
1742 
1743  return;
1744 }

◆ unpack_frag12()

void TileROD_Decoder::unpack_frag12 ( uint32_t  version,
const uint32_t *  p,
TileL2Container &  v,
int  fragID,
int  demoType 
) const
private

unpack_frag12 decodes tile subfragment type 0x12.

This subfragment contains the result of the MTag algorithm for two tilecal modules.

The MTag algorithm identifies low transverse momentum muons with eta projective pattern that traverse the tile calorimeter and calculates the energy deposited in the corresponding eta projective tower.

Definition at line 1746 of file TileROD_Decoder.cxx.

1748  {
1749  // MTag fragment 0x12 (staging mode)
1750 
1751  // second word is frag ID and frag type
1752  int size = *(p);
1753  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
1754 
1755  int nDrawer[2];
1756  nDrawer[0] = frag & 0x3F;
1757  nDrawer[1] = (frag & 0xFC0) >> 6;
1758 
1759  p += 2; // 2 words so far
1760 
1761  uint32_t w;
1762  uint32_t Mu_energy0;
1763  uint32_t Mu_energy1;
1764  uint32_t Mu_energy2;
1765  uint32_t Mu_pattern;
1766  uint32_t Mu_drawer;
1767  uint32_t Mu_quality;
1768 
1769  std::vector<unsigned int> word[2];
1770  std::vector<float> eta[2];
1771  std::vector<float> energy0[2];
1772  std::vector<float> energy1[2];
1773  std::vector<float> energy2[2];
1774  std::vector<unsigned int> quality[2];
1775 
1776  constexpr float eta_LB[9] = {
1777  ((0.00f + 2 * 0.05f) / 3), // D0, BC1, A1
1778  ((0.20f + 2 * 0.15f) / 3), // D1, BC2, A2
1779  ((0.20f + 2 * 0.25f) / 3), // D1, BC3, A3
1780  ((0.40f + 2 * 0.35f) / 3), // D2, BC4, A4
1781  ((0.40f + 2 * 0.45f) / 3), // D2, BC5, A5
1782  ((0.40f + 2 * 0.55f) / 3), // D2, BC6, A6
1783  ((0.60f + 2 * 0.55f) / 3), // D3, BC6, A6
1784  ((0.60f + 2 * 0.65f) / 3), // D3, BC7, A7
1785  ((0.60f + 2 * 0.75f) / 3) // D3, BC8, A8
1786  };
1787 
1788  constexpr float eta_EB[17] = {
1789  ((1.00f + 1.05f + 1.15f) / 3), // D5, B11, A12
1790  ((1.00f + 1.15f + 1.15f) / 3), // D5, B12, A12
1791  ((1.00f + 1.15f + 1.25f) / 3), // D5, B12, A13
1792  ((1.00f + 1.25f + 1.15f) / 3), // D5, B13, A12
1793  ((1.00f + 1.25f + 1.25f) / 3), // D5, B13, A13
1794  ((1.00f + 1.25f + 1.35f) / 3), // D5, B13, A14
1795  ((1.20f + 1.05f + 1.15f) / 3), // D6, B11, A12
1796  ((1.20f + 1.15f + 1.15f) / 3), // D6, B12, A12
1797  ((1.20f + 1.15f + 1.25f) / 3), // D6, B12, A13
1798  ((1.20f + 1.25f + 1.15f) / 3), // D6, B13, A12
1799  ((1.20f + 1.25f + 1.25f) / 3), // D6, B13, A13
1800  ((1.20f + 1.25f + 1.35f) / 3), // D6, B13, A14
1801  ((1.20f + 1.35f + 1.25f) / 3), // D6, B14, A13
1802  ((1.20f + 1.35f + 1.35f) / 3), // D6, B14, A14
1803  ((1.20f + 1.35f + 1.45f) / 3), // D6, B14, A15
1804  ((1.20f + 1.45f + 1.35f) / 3), // D6, B15, A14
1805  ((1.20f + 1.45f + 1.45f) / 3) // D6, B15, A15
1806  };
1807 
1808  int NMuons = (int) (size - 3) / 2;
1809 
1810  for (int mu = 0; mu < NMuons; ++mu) {
1811 
1812  w = (*p);
1813 
1814  Mu_energy2 = w & 0x1FFFFFF; // 25 bits
1815  Mu_pattern = (w >> 25) & 0x1F; // 5 bits
1816  Mu_drawer = (w >> 30) & 1; // 1 bit
1817  Mu_quality = w >> 31; // 1 bit
1818 
1819  word[Mu_drawer].push_back(w);
1820 
1821  w = *(p + 1);
1822 
1823  Mu_energy0 = w & 0xFFFF; // 16 bits
1824  Mu_energy1 = w >> 16; // 16 bits
1825 
1826  word[Mu_drawer].push_back(w);
1827 
1828  // Muon eta coordinate
1829  switch (frag >> 12) {
1830  case 1:
1831  eta[Mu_drawer].push_back(eta_LB[Mu_pattern]);
1832  break;
1833  case 2:
1834  eta[Mu_drawer].push_back(-eta_LB[Mu_pattern]);
1835  break;
1836  case 3:
1837  eta[Mu_drawer].push_back(eta_EB[Mu_pattern]);
1838  break;
1839  case 4:
1840  eta[Mu_drawer].push_back(-eta_EB[Mu_pattern]);
1841  break;
1842  default:
1843  ATH_MSG_WARNING("Unknown fragment: " << (frag >> 8));
1844  break;
1845  }
1846 
1847  // Energy deposited in TileCal by the muon (MeV)
1848  energy0[Mu_drawer].push_back(Mu_energy0 / 2.);
1849  energy1[Mu_drawer].push_back(Mu_energy1 / 2.);
1850  energy2[Mu_drawer].push_back(Mu_energy2 / 2.);
1851 
1852  // Muon quality factor
1853  quality[Mu_drawer].push_back(Mu_quality);
1854 
1855  p += 2;
1856  }
1857 
1858  for (unsigned int i = 0; i < 2; ++i) {
1859 
1860  // frag ID
1861  int fragId = (((frag & 0xF000) >> 4) | nDrawer[i]);
1862 
1863  (*pL2[m_hashFunc(fragId)]).setMu(std::move(eta[i]), std::move(energy0[i]), std::move(energy1[i]), std::move(energy2[i]),
1864  std::move(quality[i]), std::move(word[i]));
1865 
1866  }
1867 
1868  return;
1869 }

◆ unpack_frag13()

void TileROD_Decoder::unpack_frag13 ( uint32_t  version,
const uint32_t *  p,
TileL2Container &  v,
int  fragID,
int  demoType 
) const
private

unpack_frag13 decodes tile subfragment type 0x13.

This subfragment contains the result of the MTag algorithm ONLY for one tilecal module.

The MTag algorithm identifies low transverse momentum muons with eta projective pattern that traverse the tile calorimeter and calculates the energy deposited in the corresponding eta projective tower.

Definition at line 1871 of file TileROD_Decoder.cxx.

1873  {
1874  // MTag fragment 0x13 (full mode)
1875 
1876  // second word is frag ID and frag type
1877  int size = *(p);
1878  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
1879 
1880  p += 2; // 2 words so far
1881 
1882  uint32_t w;
1883  uint32_t Mu_energy0;
1884  uint32_t Mu_energy1;
1885  uint32_t Mu_energy2;
1886  uint32_t Mu_pattern;
1887  //uint32_t Mu_drawer;
1888  uint32_t Mu_quality;
1889 
1890  std::vector<unsigned int> word;
1891  std::vector<float> eta;
1892  std::vector<float> energy0;
1893  std::vector<float> energy1;
1894  std::vector<float> energy2;
1895  std::vector<unsigned int> quality;
1896 
1897  constexpr float eta_LB[9] = {
1898  ((0.00f + 2 * 0.05f) / 3), // D0, BC1, A1
1899  ((0.20f + 2 * 0.15f) / 3), // D1, BC2, A2
1900  ((0.20f + 2 * 0.25f) / 3), // D1, BC3, A3
1901  ((0.40f + 2 * 0.35f) / 3), // D2, BC4, A4
1902  ((0.40f + 2 * 0.45f) / 3), // D2, BC5, A5
1903  ((0.40f + 2 * 0.55f) / 3), // D2, BC6, A6
1904  ((0.60f + 2 * 0.55f) / 3), // D3, BC6, A6
1905  ((0.60f + 2 * 0.65f) / 3), // D3, BC7, A7
1906  ((0.60f + 2 * 0.75f) / 3) // D3, BC8, A8
1907  };
1908 
1909  constexpr float eta_EB[17] = {
1910  ((1.00f + 1.05f + 1.15f) / 3), // D5, B11, A12
1911  ((1.00f + 1.15f + 1.15f) / 3), // D5, B12, A12
1912  ((1.00f + 1.15f + 1.25f) / 3), // D5, B12, A13
1913  ((1.00f + 1.25f + 1.15f) / 3), // D5, B13, A12
1914  ((1.00f + 1.25f + 1.25f) / 3), // D5, B13, A13
1915  ((1.00f + 1.25f + 1.35f) / 3), // D5, B13, A14
1916  ((1.20f + 1.05f + 1.15f) / 3), // D6, B11, A12
1917  ((1.20f + 1.15f + 1.15f) / 3), // D6, B12, A12
1918  ((1.20f + 1.15f + 1.25f) / 3), // D6, B12, A13
1919  ((1.20f + 1.25f + 1.15f) / 3), // D6, B13, A12
1920  ((1.20f + 1.25f + 1.25f) / 3), // D6, B13, A13
1921  ((1.20f + 1.25f + 1.35f) / 3), // D6, B13, A14
1922  ((1.20f + 1.35f + 1.25f) / 3), // D6, B14, A13
1923  ((1.20f + 1.35f + 1.35f) / 3), // D6, B14, A14
1924  ((1.20f + 1.35f + 1.45f) / 3), // D6, B14, A15
1925  ((1.20f + 1.45f + 1.35f) / 3), // D6, B15, A14
1926  ((1.20f + 1.45f + 1.45f) / 3) // D6, B15, A15
1927  };
1928 
1929  int NMuons = (int) (size - 3) / 2;
1930 
1931  for (int mu = 0; mu < NMuons; ++mu) {
1932 
1933  w = (*p);
1934 
1935  Mu_energy2 = w & 0x1FFFFFF; // 25 bits
1936  Mu_pattern = (w >> 25) & 0x1F; // 5 bits
1937  //Mu_drawer = (w >> 30) & 1; // 1 bit
1938  Mu_quality = w >> 31; // 1 bit
1939 
1940  word.push_back(w);
1941 
1942  w = *(p + 1);
1943 
1944  Mu_energy0 = w & 0xFFFF; // 16 bits
1945  Mu_energy1 = w >> 16; // 16 bits
1946 
1947  word.push_back(w);
1948 
1949  // Muon eta coordinate
1950  switch (frag >> 8) {
1951  case 1:
1952  eta.push_back(eta_LB[Mu_pattern]);
1953  break;
1954  case 2:
1955  eta.push_back(-eta_LB[Mu_pattern]);
1956  break;
1957  case 3:
1958  eta.push_back(eta_EB[Mu_pattern]);
1959  break;
1960  case 4:
1961  eta.push_back(-eta_EB[Mu_pattern]);
1962  break;
1963  default:
1964  ATH_MSG_WARNING("Unknown fragment: " << (frag >> 8));
1965  break;
1966  }
1967 
1968  // Energy deposited in TileCal by the muon (MeV)
1969  energy0.push_back(Mu_energy0 / 2.);
1970  energy1.push_back(Mu_energy1 / 2.);
1971  energy2.push_back(Mu_energy2 / 2.);
1972 
1973  // Muon quality factor
1974  quality.push_back(Mu_quality);
1975 
1976  p += 2;
1977  }
1978 
1979  (*pL2[m_hashFunc(frag)]).setMu(std::move(eta), std::move(energy0),
1980  std::move(energy1), std::move(energy2), std::move(quality), std::move(word));
1981 
1982  return;
1983 }

◆ unpack_frag14()

void TileROD_Decoder::unpack_frag14 ( uint32_t  version,
const uint32_t *  p,
TileL2Container &  v,
int  fragID,
int  demoType 
) const
private

unpack_frag14 decodes tile subfragment type 0x14.

This subfragment contains the transverse energy calculation for tilecal module.

Definition at line 1985 of file TileROD_Decoder.cxx.

1987  {
1988  // Met fragment 0x14 (staging mode) - obsolete, now sumEt is part of frag4/frag5
1989 
1990  // second word is frag ID and frag type
1991  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
1992 
1993  int nDrawer[2];
1994  nDrawer[0] = frag & 0x3F;
1995  nDrawer[1] = (frag & 0xFC0) >> 6;
1996 
1997  p += 2; // 2 words somethingm far
1998 
1999  for (unsigned int i = 0; i < 2; ++i) {
2000 
2001  int fragId = (((frag & 0xF000) >> 4) | nDrawer[i]);
2002 
2003  float sumE = (float) ((int32_t) (*p) - 9000);
2004  (*pL2[m_hashFunc(fragId)]).setEt(std::vector<float>{sumE});
2005 
2006  ++p;
2007  }
2008 
2009  return;
2010 }

◆ unpack_frag15()

void TileROD_Decoder::unpack_frag15 ( uint32_t  version,
const uint32_t *  p,
TileL2Container &  v,
int  fragID,
int  demoType 
) const
private

unpack_frag15 decodes tile subfragment type 0x15.

This subfragment contains the transverse energy calculation ONLY for one tilecal module.

Definition at line 2012 of file TileROD_Decoder.cxx.

2014  {
2015  // Met fragment 0x15 (full mode) - obsolete, now sumEt is part of frag4/frag5
2016 
2017  // second word is frag ID and frag type
2018  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
2019 
2020  p += 2; // 2 words so far
2021 
2022  std::vector<float> sumE(1);
2023 
2024  sumE[0] = (float) ((int32_t) (*p) - 9000);
2025  (*pL2[m_hashFunc(frag)]).setEt(std::move(sumE));
2026 
2027  return;
2028 }

◆ unpack_frag16()

void TileROD_Decoder::unpack_frag16 ( uint32_t  version,
const uint32_t *  p,
TileLaserObject &  v 
) const
private

unpack_frag16 decodes tile subfragment type 0x16 or 0x20.

This subfragment contains informations coming from the Laser box [calibration run]

Definition at line 2030 of file TileROD_Decoder.cxx.

2031  {
2032 
2033  //frag ID
2034 
2035  //int frag = *(p+1) & 0xFFFF;
2036  //int type = *(p+1) >>16;
2037 
2038  // pointer to current data word
2039  const uint32_t *pData;
2040 
2041  //position of first data word, skip the first two words of the header fragment
2042 
2043  pData = p + 2;
2044 
2045  int counter = 0;
2046 
2047  counter = *pData;
2048 
2049  ++pData;
2050 
2051  int reqAmp = 0;
2052  int filt = 0;
2053  //int rawfilt=0;
2054  //int status=0;
2055  bool errorFlag = false;
2056 
2057  if ((*pData & 0xFF000000) == 0x20000000) {
2058 
2059  if (version == 1) {
2060 
2061  reqAmp = *pData & 0xFFFF;
2062 
2063  } else {
2064 
2065  reqAmp = *pData & 0xFFFF;
2066 
2067  // rawfilt = (*pData >>16) & 0xF;
2068 
2069  if (version == 2) {
2070  filt = (((*pData >> 16) & 7) ^ 7) + 2;
2071  } else {
2072  filt = 9 - (((*pData >> 17) & 1) * 4 + ((*pData >> 18) & 1) * 2 + ((*pData >> 19) & 1));
2073  }
2074 
2075  if (((*pData >> 16) & 1) == 1) filt = 0; // Filter wheel moving
2076 
2077  if (filt > 8) filt -= 8;
2078  }
2079  //status = (*pData >>20) & 0xF;
2080 
2081  } else {
2082  errorFlag = true;
2083  if (m_ErrorCounter <= m_maxErrorPrint)
2084  ATH_MSG_WARNING( "In decoding word 20" );
2085  }
2086 
2087  ++pData;
2088 
2089  //int delay=0;
2090  int measAmp = 0;
2091 
2092  if ((*pData & 0xFF000000) == 0x21000000) {
2093 
2094  measAmp = *pData & 0xFFF;
2095  //delay = (*pData >>12) & 0xFFF;
2096 
2097  } else {
2098  errorFlag = true;
2099  if (m_ErrorCounter <= m_maxErrorPrint)
2100  ATH_MSG_WARNING( "In decoding word 21" );
2101  }
2102 
2103  ++pData;
2104 
2105  //int status1=0;
2106  int tdc1 = 0;
2107  int tdc2 = 0;
2108 
2109  if ((*pData & 0xFF000000) == 0x22000000) {
2110 
2111  if (version == 1) {
2112 
2113  tdc1 = (*pData >> 16) & 0xF;
2114  tdc2 = (*pData >> 20) & 0xF;
2115  } else {
2116 
2117  tdc1 = *pData & 0xFFFF;
2118 
2119  }
2120 
2121  } else {
2122  errorFlag = true;
2123  if (m_ErrorCounter <= m_maxErrorPrint)
2124  ATH_MSG_WARNING( "In decoding word 22" );
2125 
2126  }
2127 
2128  ++pData;
2129 
2130  //int status2=0;
2131  //int tdc2=0;
2132 
2133  if ((*pData & 0xFF000000) == 0x23000000) {
2134 
2135  if (version == 1) {
2136 
2137  tdc2 = (*pData >> 12) & 0xFFF;
2138  tdc1 = *pData & 0xFFF;
2139 
2140  } else {
2141 
2142  tdc2 = *pData & 0xFFFF;
2143 
2144  //status2 = (*pData >>16) & 0xFF;
2145  }
2146 
2147  } else {
2148  errorFlag = true;
2149  if (m_ErrorCounter <= m_maxErrorPrint)
2150  ATH_MSG_WARNING( "In decoding word 23" );
2151  }
2152 
2153  ++pData;
2154 
2155  int chan0 = 0;
2156  int chan1 = 0;
2157 
2158  if ((*pData & 0xFF000000) == 0x44000000) {
2159 
2160  chan0 = 4095 - (*pData & 0xFFF);
2161  chan1 = 4095 - ((*pData >> 12) & 0xFFF);
2162 
2163  } else {
2164  errorFlag = true;
2165  if (m_ErrorCounter <= m_maxErrorPrint)
2166  ATH_MSG_WARNING( "In decoding word 24" );
2167  }
2168 
2169  ++pData;
2170 
2171  int chan2 = 0;
2172  int chan3 = 0;
2173 
2174  if ((*pData & 0xFF000000) == 0x45000000) {
2175 
2176  chan2 = 4095 - (*pData & 0xFFF);
2177  chan3 = 4095 - ((*pData >> 12) & 0xFFF);
2178 
2179  } else {
2180  errorFlag = true;
2181  if (m_ErrorCounter <= m_maxErrorPrint)
2182  ATH_MSG_WARNING( "In decoding word 25" );
2183  }
2184 
2185  ++pData;
2186 
2187  int chan4 = 0;
2188  int chan5 = 0;
2189 
2190  if ((*pData & 0xFF000000) == 0x46000000) {
2191 
2192  chan4 = 4095 - (*pData & 0xFFF);
2193  chan5 = 4095 - ((*pData >> 12) & 0xFFF);
2194 
2195  } else {
2196  errorFlag = true;
2197  if (m_ErrorCounter <= m_maxErrorPrint)
2198  ATH_MSG_WARNING( "In decoding word 26" );
2199  }
2200 
2201  ++pData;
2202 
2203  //int chan6=0;
2204  //int chan7=0;
2205 
2206  if ((*pData & 0xFF000000) == 0x47000000) {
2207 
2208  //chan6 = 4095 - (*pData & 0xFFF);
2209  //chan7 = 4095 - ((*pData >>12) & 0xFFF);
2210 
2211  } else {
2212  errorFlag = true;
2213  if (m_ErrorCounter <= m_maxErrorPrint)
2214  ATH_MSG_WARNING( "In decoding word 27" );
2215  }
2216 
2217  ++pData;
2218 
2219  int meanPed_diode1 = 0;
2220  int rmsPed_diode1 = 0;
2221 
2222  double MeanPed_diode1 = 0;
2223  double RmsPed_diode1 = 0;
2224 
2225  rmsPed_diode1 = *pData & 0xFFFF;
2226  meanPed_diode1 = (*pData >> 16) & 0xFFFF;
2227 
2228  MeanPed_diode1 = static_cast<double>(meanPed_diode1) * 0.1;
2229 
2230  RmsPed_diode1 = static_cast<double>(rmsPed_diode1) * 0.01;
2231 
2232  ++pData;
2233 
2234  int meanPed_diode2 = 0;
2235  int rmsPed_diode2 = 0;
2236 
2237  double MeanPed_diode2 = 0;
2238  double RmsPed_diode2 = 0;
2239 
2240  rmsPed_diode2 = *pData & 0xFFFF;
2241  meanPed_diode2 = (*pData >> 16) & 0xFFFF;
2242 
2243  MeanPed_diode2 = static_cast<double>(meanPed_diode2) * 0.1;
2244 
2245  RmsPed_diode2 = static_cast<double>(rmsPed_diode2) * 0.01;
2246 
2247  ++pData;
2248 
2249  int meanPed_diode3 = 0;
2250  int rmsPed_diode3 = 0;
2251 
2252  double MeanPed_diode3 = 0;
2253  double RmsPed_diode3 = 0;
2254 
2255  rmsPed_diode3 = *pData & 0xFFFF;
2256  meanPed_diode3 = (*pData >> 16) & 0xFFFF;
2257 
2258  MeanPed_diode3 = static_cast<double>(meanPed_diode3) * 0.1;
2259 
2260  RmsPed_diode3 = static_cast<double>(rmsPed_diode3) * 0.01;
2261 
2262  ++pData;
2263 
2264  int meanPed_diode4 = 0;
2265  int rmsPed_diode4 = 0;
2266 
2267  double MeanPed_diode4 = 0;
2268  double RmsPed_diode4 = 0;
2269 
2270  rmsPed_diode4 = *pData & 0xFFFF;
2271  meanPed_diode4 = (*pData >> 16) & 0xFFFF;
2272 
2273  MeanPed_diode4 = static_cast<double>(meanPed_diode4) * 0.1;
2274 
2275  RmsPed_diode4 = static_cast<double>(rmsPed_diode4) * 0.01;
2276 
2277  ++pData;
2278 
2279  int meanPed_pmt1 = 0;
2280  int rmsPed_pmt1 = 0;
2281 
2282  double MeanPed_pmt1 = 0;
2283  double RmsPed_pmt1 = 0;
2284 
2285  rmsPed_pmt1 = *pData & 0xFFFF;
2286  meanPed_pmt1 = (*pData >> 16) & 0xFFFF;
2287 
2288  MeanPed_pmt1 = static_cast<double>(meanPed_pmt1) * 0.1;
2289 
2290  RmsPed_pmt1 = static_cast<double>(rmsPed_pmt1) * 0.01;
2291 
2292  ++pData;
2293 
2294  int meanPed_pmt2 = 0;
2295  int rmsPed_pmt2 = 0;
2296 
2297  double MeanPed_pmt2 = 0;
2298  double RmsPed_pmt2 = 0;
2299 
2300  rmsPed_pmt2 = *pData & 0xFFFF;
2301  meanPed_pmt2 = (*pData >> 16) & 0xFFFF;
2302 
2303  MeanPed_pmt2 = static_cast<double>(meanPed_pmt2) * 0.1;
2304 
2305  RmsPed_pmt2 = static_cast<double>(rmsPed_pmt2) * 0.01;
2306 
2307  ++pData;
2308 
2309  time_t lastPedMeas = *pData;
2310  //struct tm *time = localtime(&lastPedMeas);
2311  //printf("Date is %d/%02d/%02d\n", time->tm_year+1900, time->tm_mon+1, time->tm_mday);
2312  //printf("Time is %02d:%02d\n", time->tm_hour, time->tm_min);
2313 
2314  ++pData;
2315 
2316  int meanAlpha_diode1 = 0;
2317  int rmsAlpha_diode1 = 0;
2318 
2319  double MeanAlpha_diode1 = 0;
2320  double RmsAlpha_diode1 = 0;
2321 
2322  rmsAlpha_diode1 = *pData & 0xFFFF;
2323  meanAlpha_diode1 = (*pData >> 16) & 0xFFFF;
2324 
2325  MeanAlpha_diode1 = static_cast<double>(meanAlpha_diode1) * 0.1;
2326 
2327  RmsAlpha_diode1 = static_cast<double>(rmsAlpha_diode1) * 0.01;
2328 
2329  ++pData;
2330 
2331  int meanAlpha_diode2 = 0;
2332  int rmsAlpha_diode2 = 0;
2333 
2334  double MeanAlpha_diode2 = 0;
2335  double RmsAlpha_diode2 = 0;
2336 
2337  rmsAlpha_diode2 = *pData & 0xFFFF;
2338  meanAlpha_diode2 = (*pData >> 16) & 0xFFFF;
2339 
2340  MeanAlpha_diode2 = static_cast<float>(meanAlpha_diode2) * 0.1;
2341 
2342  RmsAlpha_diode2 = static_cast<float>(rmsAlpha_diode2) * 0.01;
2343 
2344  ++pData;
2345 
2346  // ATH_MSG_VERBOSE( "Diode 2 value is " << MeanAlpha_diode2 );
2347 
2348  int meanAlpha_diode3 = 0;
2349  int rmsAlpha_diode3 = 0;
2350 
2351  double MeanAlpha_diode3 = 0;
2352  double RmsAlpha_diode3 = 0;
2353 
2354  rmsAlpha_diode3 = *pData & 0xFFFF;
2355  meanAlpha_diode3 = (*pData >> 16) & 0xFFFF;
2356 
2357  MeanAlpha_diode3 = static_cast<double>(meanAlpha_diode3) * 0.1;
2358 
2359  RmsAlpha_diode3 = static_cast<double>(rmsAlpha_diode3) * 0.01;
2360 
2361  ++pData;
2362 
2363  int meanAlpha_diode4 = 0;
2364  int rmsAlpha_diode4 = 0;
2365 
2366  double MeanAlpha_diode4 = 0;
2367  double RmsAlpha_diode4 = 0;
2368 
2369  rmsAlpha_diode4 = *pData & 0xFFFF;
2370  meanAlpha_diode4 = (*pData >> 16) & 0xFFFF;
2371 
2372  MeanAlpha_diode4 = static_cast<double>(meanAlpha_diode4) * 0.1;
2373 
2374  RmsAlpha_diode4 = static_cast<double>(rmsAlpha_diode4) * 0.01;
2375 
2376  ++pData;
2377 
2378  time_t lastAlphaMeas = *pData;
2379  //tm *Time = localtime(&lastAlphaMeas);
2380  //printf("Date is %d/%02d/%02d\n", Time->tm_year+1900, Time->tm_mon+1, Time->tm_mday);
2381  //printf("Time is %02d:%02d\n", Time->tm_hour, Time->tm_min);
2382 
2383  ++pData;
2384 
2385  if (version > 1) {
2386 
2387  //int pedAlpha_diode1=0;
2388  //int pedRMSAlpha_diode1=0;
2389 
2390  //double PedAlpha_diode1=0;
2391  //double PedRMSAlpha_diode1=0;
2392 
2393  //pedRMSAlpha_diode1 = *pData & 0xFFFF ;
2394  //pedAlpha_diode1 = (*pData >> 16) & 0xFFFF;
2395 
2396  //PedAlpha_diode1 = static_cast<double>(pedAlpha_diode1)/10;
2397 
2398  //PedRMSAlpha_diode1 = static_cast<double>(pedRMSAlpha_diode1)/100;
2399 
2400  ++pData;
2401 
2402  //int pedAlpha_diode2=0;
2403  //int pedRMSAlpha_diode2=0;
2404 
2405  //double PedAlpha_diode2=0;
2406  //double PedRMSAlpha_diode2=0;
2407 
2408  //pedRMSAlpha_diode2 = *pData & 0xFFFF ;
2409  //pedAlpha_diode2 = (*pData >> 16) & 0xFFFF;
2410 
2411  //PedAlpha_diode2 = static_cast<double>(pedAlpha_diode2)/10;
2412 
2413  //PedRMSAlpha_diode2 = static_cast<double>(pedRMSAlpha_diode2)/100;
2414 
2415  ++pData;
2416 
2417  //int pedAlpha_diode3=0;
2418  //int pedRMSAlpha_diode3=0;
2419 
2420  //double PedAlpha_diode3=0;
2421  //double PedRMSAlpha_diode3=0;
2422 
2423  //pedRMSAlpha_diode3 = *pData & 0xFFFF ;
2424  //pedAlpha_diode3 = (*pData >> 16) & 0xFFFF;
2425 
2426  //PedAlpha_diode3 = static_cast<double>(pedAlpha_diode3)/10;
2427 
2428  //PedRMSAlpha_diode3 = static_cast<double>(pedRMSAlpha_diode3)/100;
2429 
2430  ++pData;
2431 
2432  //int pedAlpha_diode4=0;
2433  //int pedRMSAlpha_diode4=0;
2434 
2435  //double PedAlpha_diode4=0;
2436  //double PedRMSAlpha_diode4=0;
2437 
2438  //pedRMSAlpha_diode4 = *pData & 0xFFFF ;
2439  //pedAlpha_diode4 = (*pData >> 16) & 0xFFFF;
2440 
2441  //PedAlpha_diode4 = static_cast<double>(pedAlpha_diode4)/10;
2442 
2443  //PedRMSAlpha_diode4 = static_cast<double>(pedRMSAlpha_diode4)/100;
2444 
2445  ++pData;
2446 
2447  //time_t lastAlphaPedMeas = *pData;
2448 
2449  ++pData;
2450  }
2451 
2452  int diodeTemp = 0;
2453  int seconds1 = 0;
2454 
2455  double DiodeTemp = 0;
2456 
2457  diodeTemp = *pData & 0xFFF;
2458  seconds1 = (*pData >> 12) & 0xFFFFF;
2459 
2460  DiodeTemp = static_cast<double>(diodeTemp) * 0.1;
2461 
2462  ++pData;
2463 
2464  int boxTemp = 0;
2465  int seconds2 = 0;
2466 
2467  double BoxTemp = 0;
2468 
2469  boxTemp = *pData & 0xFFF;
2470  seconds2 = (*pData >> 12) & 0xFFFFF;
2471 
2472  BoxTemp = static_cast<double>(boxTemp) * 0.1;
2473 
2474  ++pData;
2475 
2476  int hum = 0;
2477  int seconds3 = 0;
2478 
2479  double Hum = 0;
2480 
2481  hum = *pData & 0xFFF;
2482  seconds3 = (*pData >> 12) & 0xFFFFF;
2483 
2484  Hum = static_cast<double>(hum) * 0.1;
2485 
2486  ++pData;
2487 
2488  int gasFlow = 0;
2489  int seconds4 = 0;
2490 
2491  double GasFlow = 0;
2492 
2493  gasFlow = *pData & 0xFFF;
2494  seconds4 = (*pData >> 12) & 0xFFFFF;
2495 
2496  GasFlow = static_cast<double>(gasFlow) * 0.1;
2497 
2498  ++pData;
2499 
2500  int PLCstatus = 0;
2501  //int seconds5 =0;
2502 
2503  PLCstatus = *pData & 0xFFF;
2504  //seconds5 = (*pData >> 12) & 0xFFFFF;
2505  int alphaPos = PLCstatus & 0x7;
2506  int LVdiodes = (PLCstatus >> 0x3) & 0x1;
2507  int HVpmts = (PLCstatus >> 0x4) & 0x3;
2508  int shutter = (PLCstatus >> 0x6) & 0x3;
2509  int interLock = (PLCstatus >> 0x8) & 0x1;
2510  int alarm = (PLCstatus >> 0x9) & 0x7;
2511 
2512  laserObject.setPmt(0, chan4, tdc1, MeanPed_pmt1, RmsPed_pmt1, 0);
2513 
2514  laserObject.setPmt(1, chan5, tdc2, MeanPed_pmt2, RmsPed_pmt2, 0);
2515 
2516  laserObject.setDiode(0, chan0, MeanPed_diode1, RmsPed_diode1, MeanAlpha_diode1, RmsAlpha_diode1, 0, 0, 0);
2517 
2518  laserObject.setDiode(1, chan1, MeanPed_diode2, RmsPed_diode2, MeanAlpha_diode2, RmsAlpha_diode2, 0, 0, 0);
2519 
2520  laserObject.setDiode(2, chan2, MeanPed_diode3, RmsPed_diode3, MeanAlpha_diode3, RmsAlpha_diode3, 0, 0, 0);
2521 
2522  laserObject.setDiode(3, chan3, MeanPed_diode4, RmsPed_diode4, MeanAlpha_diode4, RmsAlpha_diode4, 0, 0, 0);
2523 
2524  laserObject.setControl(DiodeTemp, seconds1, BoxTemp, seconds2, GasFlow, seconds4, Hum, seconds3, lastPedMeas, lastAlphaMeas);
2525 
2526  laserObject.setLaser(counter, reqAmp, measAmp, filt, 0, 1);
2527 
2528  laserObject.setPLC(alphaPos, LVdiodes, HVpmts, shutter, interLock, alarm);
2529 
2530  if (errorFlag) m_ErrorCounter++;
2531 } // unpack_frag16

◆ unpack_frag17()

void TileROD_Decoder::unpack_frag17 ( uint32_t  version,
uint32_t  sizeOverhead,
const uint32_t *  p,
TileLaserObject &  v 
) const
private

unpack_frag17 decodes tile subfragment type 0x17 or 0x20.

This subfragment contains informations coming from the Laser box [calibration run]

Definition at line 2533 of file TileROD_Decoder.cxx.

2537 {
2538  // first word is full frag size, first two words are not data
2539  int size = *(p);
2540  // second word is frag ID and frag type
2541  //int frag = *(p + 1) & 0xFFFF;
2542  //position of first data word, skip the first two words of the header fragment
2543  //const uint32_t *pData = p+2;
2544 
2545  bool debug = msgLvl(MSG::DEBUG);
2546 
2547  if (true) {
2548  int maxn=size+2-sizeOverhead;
2549  for(int n=0; n<maxn; ++n){
2550  ATH_MSG_DEBUG("WORD " << n << " (" << n+11 << ") : (DEC) " << p[n] << " (HEX) 0x" << MSG::hex << p[n] << MSG::dec );
2551  }
2552  }
2553 
2554  // p[2] 00 00 00 tt Daq Type
2555  // p[3] nn nn nn nn Laser Count
2556  // p[4] rr rr mm mm rrrr = Requested Intensity mmmm = measured intensity
2557  // p[5] t0 0f dd dd t= timeout (bit 31 and 30) f = filter dddd = Delay Slama
2558  // [[6] 00 00 ll ll Linearity DAC Value
2559 
2560  ATH_MSG_DEBUG("SETTING DAQ TYPE IN DECODER = " << MSG::hex << "0x" << int(p[2]) << " " << MSG::dec << int(p[2]));
2561 
2562  int countr = p[3];
2563  int idiode = (p[4]>>16);
2564  int intensity = (p[4]&0xFFFF);
2565  int filter = (p[5]>>16) & 0x000F;
2566  bool qdctimeout = !((p[5]>>31) & 0x1);
2567  bool tdctimeout = !((p[5]>>30) & 0x1);
2568 
2569  int timing = (p[5] & 0xFFFF);
2570  int daqtyp = p[2];
2571 
2572  laserObject.setLaser(countr, idiode, intensity, filter, timing, 2);
2573  laserObject.setControl(-99,-99,-99,-99,-99,-99,-99,-99,-99,-99);
2574  laserObject.setPLC(-99,-99,-99,-99,-99,-99);
2575  laserObject.setDaqType(daqtyp);
2576  laserObject.setTimeouts(qdctimeout, tdctimeout);
2577 
2578 
2579  if(laserObject.isLASERII()) ATH_MSG_DEBUG("LASERII VERSION IS " << laserObject.getVersion());
2580  else ATH_MSG_DEBUG("LASERI VERSION IS " << laserObject.getVersion());
2581 
2582  ATH_MSG_DEBUG("laserObject.setLaser: " << MSG::dec << "COUNTER=" << countr << " | "
2583  << "I_DIODE=" << idiode << " | "
2584  << "FILTERN=" << filter << " | "
2585  << "TIMINGD=" << timing << " | "
2586  << "DAQTYPE=" << daqtyp );
2587 
2588  int las[32];
2589  double ped[32];
2590  double std[32];
2591 
2592  // ATTENTION: note that HG has even index (0,2,4,...) in las[], ped[], std[] arrays
2593  static const int HG=0;
2594  static const int LG=1;
2595 
2596  const uint32_t *word = p+7; // move to 7th word
2597  int adc=0;
2598  // decode 32 ADC half-words (16 low & high channels)
2599  while (adc<31) {
2600  // ll ll hh hh ADC Channel 1 & 0 (Low & High Gain)
2601  las[adc++] = 8500 - ((*word) & 0xFFFF);
2602  las[adc++] = 8500 - ((*word) >> 16);
2603  ++word;
2604  }
2605  // TDC word immediately after ADC words
2606  // aa aa bb bb aaaa = TDC N1 bbbb = TDC N0
2607  int TDC0 = (*word) & 0xFFFF;
2608  int TDC1 = (*word) >> 16;
2609 
2610  if (size>130) {
2611 
2612  uint32_t sum[32];
2613  uint64_t ssq[32];
2614 
2615  // p[128] Nb event
2616  double nevt = double(p[128]);
2617  if(p[128]==0 || (p[128]==3072 && p[32]<21504000) ) {
2618  nevt=1024.; // HAS TO BE REMOVED!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
2619  ATH_MSG_DEBUG("Nevents= " << p[128] << " => assuming 1024");
2620  }
2621 
2622  if (nevt>0) {
2623 
2624  word = p+32; // jump to 32th word
2625 
2626  // decode sums for 16 channels (6 words per channel)
2627  for(int channel=0;channel<16;++channel) {
2628 
2629  // Sum Xi channel 0
2630  // Sum Xi channel 1
2631  // Sum Xi2 LSB channel 0
2632  // Sum Xi2 MSB channel 0
2633  // Sum Xi2 LSB channel 1
2634  // Sum Xi2 MSB channel 1
2635 
2636  sum[channel*2+HG] = *(word++);
2637  sum[channel*2+LG] = *(word++);
2638 
2639  uint32_t lsb0 = *(word++);
2640  uint32_t msb0 = *(word++);
2641  uint32_t lsb1 = *(word++);
2642  uint32_t msb1 = *(word++);
2643  uint64_t MSB0 = (uint64_t) msb0 << 32;
2644  uint64_t MSB1 = (uint64_t) msb1 << 32;
2645  uint64_t SSQ0 = MSB0 | lsb0;
2646  uint64_t SSQ1 = MSB1 | lsb1;
2647 
2648  ssq[channel*2+HG] = SSQ0;
2649  ssq[channel*2+LG] = SSQ1;
2650 
2651  // COMPUTE MEAN AND STANDARD DEVIATION
2652  ped[channel*2+HG] = double(sum[channel*2+HG])/nevt;
2653  ped[channel*2+LG] = double(sum[channel*2+LG])/nevt;
2654 
2655  std[channel*2+HG] = double(ssq[channel*2+HG])/nevt - ped[channel*2+HG]*ped[channel*2+HG];
2656  std[channel*2+LG] = double(ssq[channel*2+LG])/nevt - ped[channel*2+LG]*ped[channel*2+LG];
2657  if (std[channel*2+HG]>0.0) std[channel*2+HG] = sqrt(std[channel*2+HG]);
2658  if (std[channel*2+LG]>0.0) std[channel*2+LG] = sqrt(std[channel*2+LG]);
2659 
2660  // PLEASE NOTE THAT LG EQUALS 1 WHEN TILEID::LOWGAIN EQUALS 0
2661  // HG EQUALS 0 WHEN TILEID::HIGHGAIN EQUALS 1
2662  // THIS CONFUSING INDEXING IS TAKEN CARE OF IN THE FOLLOWING TWO LINES AND WILL *NOT*
2663  // BE PROPAGATED FURTHER DOWN THE CHAIN. THIS MEANS THAT AFTER THIS LG=0 AND HG=1
2664  laserObject.setCalibType(int(p[31]));
2665  laserObject.setCalib(channel,int(p[31]), double(sum[channel*2+LG]), double(ssq[channel*2+LG]), nevt, TileID::LOWGAIN);
2666  laserObject.setCalib(channel,int(p[31]), double(sum[channel*2+HG]), double(ssq[channel*2+HG]), nevt, TileID::HIGHGAIN);
2667 
2668  // DEBUGGING OUTPUT
2669  if(debug){
2670  ATH_MSG_DEBUG("PED CHAN=" << channel << " GAIN=LG" << " TYPE=" << laserObject.getType(channel,TileID::LOWGAIN,0) << " MEAN=" << laserObject.getMean(channel,TileID::LOWGAIN,0) << " SIGMA=" << laserObject.getSigma(channel,TileID::LOWGAIN,0) << " N=" << laserObject.getN(channel,TileID::LOWGAIN,0) << " isSet?=" << laserObject.isSet(channel,TileID::LOWGAIN,0) );
2671  ATH_MSG_DEBUG("PED CHAN=" << channel << " GAIN=HG" << " TYPE=" << laserObject.getType(channel,TileID::HIGHGAIN,0) << " MEAN=" << laserObject.getMean(channel,TileID::HIGHGAIN,0) << " SIGMA=" << laserObject.getSigma(channel,TileID::HIGHGAIN,0) << " N=" << laserObject.getN(channel,TileID::HIGHGAIN,0) << " isSet?=" << laserObject.isSet(channel,TileID::HIGHGAIN,0) );
2672 
2673  ATH_MSG_DEBUG("PED CHAN=" << channel << " GAIN=LG" << " TYPE=" << laserObject.getType(channel,TileID::LOWGAIN,1) << " MEAN=" << laserObject.getMean(channel,TileID::LOWGAIN,1) << " SIGMA=" << laserObject.getSigma(channel,TileID::LOWGAIN,1) << " N=" << laserObject.getN(channel,TileID::LOWGAIN,1) << " isSet?=" << laserObject.isSet(channel,TileID::LOWGAIN,1) );
2674  ATH_MSG_DEBUG("PED CHAN=" << channel << " GAIN=HG" << " TYPE=" << laserObject.getType(channel,TileID::HIGHGAIN,1) << " MEAN=" << laserObject.getMean(channel,TileID::HIGHGAIN,1) << " SIGMA=" << laserObject.getSigma(channel,TileID::HIGHGAIN,1) << " N=" << laserObject.getN(channel,TileID::HIGHGAIN,1) << " isSet?=" << laserObject.isSet(channel,TileID::HIGHGAIN,1) );
2675 
2676  ATH_MSG_DEBUG("LED CHAN=" << channel << " GAIN=LG" << " TYPE=" << laserObject.getType(channel,TileID::LOWGAIN,2) << " MEAN=" << laserObject.getMean(channel,TileID::LOWGAIN,2) << " SIGMA=" << laserObject.getSigma(channel,TileID::LOWGAIN,2) << " N=" << laserObject.getN(channel,TileID::LOWGAIN,2) << " isSet?=" << laserObject.isSet(channel,TileID::LOWGAIN,2) );
2677  ATH_MSG_DEBUG("LED CHAN=" << channel << " GAIN=HG" << " TYPE=" << laserObject.getType(channel,TileID::HIGHGAIN,2) << " MEAN=" << laserObject.getMean(channel,TileID::HIGHGAIN,2) << " SIGMA=" << laserObject.getSigma(channel,TileID::HIGHGAIN,2) << " N=" << laserObject.getN(channel,TileID::HIGHGAIN,2) << " isSet?=" << laserObject.isSet(channel,TileID::HIGHGAIN,2) );
2678 
2679  ATH_MSG_DEBUG("ALP CHAN=" << channel << " GAIN=LG" << " TYPE=" << laserObject.getType(channel,TileID::LOWGAIN,3) << " MEAN=" << laserObject.getMean(channel,TileID::LOWGAIN,3) << " SIGMA=" << laserObject.getSigma(channel,TileID::LOWGAIN,3) << " N=" << laserObject.getN(channel,TileID::LOWGAIN,3) << " isSet?=" << laserObject.isSet(channel,TileID::LOWGAIN,3) );
2680  ATH_MSG_DEBUG("ALP CHAN=" << channel << " GAIN=HG" << " TYPE=" << laserObject.getType(channel,TileID::HIGHGAIN,3) << " MEAN=" << laserObject.getMean(channel,TileID::HIGHGAIN,3) << " SIGMA=" << laserObject.getSigma(channel,TileID::HIGHGAIN,3) << " N=" << laserObject.getN(channel,TileID::HIGHGAIN,3) << " isSet?=" << laserObject.isSet(channel,TileID::HIGHGAIN,3) );
2681 
2682  ATH_MSG_DEBUG(MSG::hex << msb0 << " + " << lsb0 << " => " << SSQ0 <<
2683  MSG::dec << " >>> D" << channel << "(HG)"
2684  << " SUMX/N="
2685  << sum[channel*2+HG]
2686  << " / " << nevt
2687  << " = "
2688  << ped[channel*2+HG]
2689  << " SUMX2/N="
2690  << ssq[channel*2+HG]
2691  << " / " << nevt
2692  << " => STD="
2693  << std[channel*2+0]);
2694  ATH_MSG_DEBUG(MSG::hex << msb1 << " + " << lsb1 << " => " << SSQ1 <<
2695  MSG::dec << " >>> D" << channel << "(LG)"
2696  << " SUMX/N="
2697  << sum[channel*2+LG]
2698  << " / " << nevt
2699  << " = "
2700  << ped[channel*2+LG]
2701  << " SUMX2/N="
2702  << ssq[channel*2+LG]
2703  << " / " << nevt
2704  << " => STD="
2705  << std[channel*2+LG]);
2706  } // IF
2707 
2708  ped[channel*2+0] = 8500. - ped[channel*2+0];
2709  ped[channel*2+1] = 8500. - ped[channel*2+1];
2710  }
2711 
2712  } else { // nevt == 0
2713  ATH_MSG_DEBUG("WARNING NEVT=0");
2714  memset(ped,0,sizeof(ped));
2715  memset(std,0,sizeof(std));
2716  }
2717 
2718  if (debug) {
2719  for(int channel=0;channel<16;++channel){
2720  ATH_MSG_DEBUG("HG CHANNEL " << channel << ": sig=" << las[HG+channel*2] << " ped=" << ped[HG+channel*2] << "+/-" << std[HG+channel*2]);
2721  ATH_MSG_DEBUG("LG CHANNEL " << channel << ": sig=" << las[LG+channel*2] << " ped=" << ped[LG+channel*2] << "+/-" << std[LG+channel*2]);
2722  }
2723  }
2724 
2725  } else { // short fragment
2726  ATH_MSG_DEBUG("SHORT FRAGMENT, size=" << p[0] << " type=0x" << MSG::hex << p[1] << MSG::dec);
2727  memset(ped,0,sizeof(ped));
2728  memset(std,0,sizeof(std));
2729  }
2730 
2731  // ATTENTION: note that HG has even index (0,2,4,...) in las[], ped[], std[] arrays
2732 
2733  // STORE PMT INFORMATION
2734  //PMT1
2735  laserObject.setPmt(0,las[HG+10*2],TDC0,laserObject.getMean(10,TileID::HIGHGAIN,0),laserObject.getSigma(10,TileID::HIGHGAIN,0),TileID::HIGHGAIN);
2736  laserObject.setPmt(0,las[LG+10*2],TDC0,laserObject.getMean(10,TileID::LOWGAIN,0), laserObject.getSigma(10,TileID::LOWGAIN,0), TileID::LOWGAIN);
2737  //PMT2
2738  laserObject.setPmt(1,las[HG+14*2],TDC1,laserObject.getMean(14,TileID::HIGHGAIN,0),laserObject.getSigma(14,TileID::HIGHGAIN,0),TileID::HIGHGAIN);
2739  laserObject.setPmt(1,las[LG+14*2],TDC1,laserObject.getMean(14,TileID::LOWGAIN,0), laserObject.getSigma(14,TileID::LOWGAIN,0), TileID::LOWGAIN);
2740 
2741  // STORE DIODE INFORMATION
2742  for(int diode=0;diode<10;++diode){
2743  laserObject.setDiode(diode,las[HG+diode*2],laserObject.getMean( diode,TileID::HIGHGAIN,0),
2744  laserObject.getSigma(diode,TileID::HIGHGAIN,0),
2745  laserObject.getMean( diode,TileID::HIGHGAIN,3),
2746  laserObject.getSigma(diode,TileID::HIGHGAIN,3),0.,0.,TileID::HIGHGAIN);
2747  laserObject.setDiode(diode,las[LG+diode*2],laserObject.getMean( diode,TileID::LOWGAIN,0),
2748  laserObject.getSigma(diode,TileID::LOWGAIN,0),
2749  laserObject.getMean( diode,TileID::LOWGAIN,3),
2750  laserObject.getSigma(diode,TileID::LOWGAIN,3),0.,0.,TileID::LOWGAIN);
2751  } // FOR
2752  laserObject.setDiode(10,las[HG+22],laserObject.getMean( 11,TileID::HIGHGAIN,0),
2753  laserObject.getSigma(11,TileID::HIGHGAIN,0),
2754  laserObject.getMean( 11,TileID::HIGHGAIN,3),
2755  laserObject.getSigma(11,TileID::HIGHGAIN,3),0.,0.,TileID::HIGHGAIN); // EXTERNAL CIS 0 HG
2756  laserObject.setDiode(10,las[LG+22],laserObject.getMean( 11,TileID::LOWGAIN,0),
2757  laserObject.getSigma(11,TileID::LOWGAIN,0),
2758  laserObject.getMean( 11,TileID::LOWGAIN,3),
2759  laserObject.getSigma(11,TileID::LOWGAIN,3),0.,0.,TileID::LOWGAIN); // EXTERNAL CIS 0 LG
2760  laserObject.setDiode(11,las[HG+24],laserObject.getMean( 12,TileID::HIGHGAIN,0),
2761  laserObject.getSigma(12,TileID::HIGHGAIN,0),
2762  laserObject.getMean( 12,TileID::HIGHGAIN,3),
2763  laserObject.getSigma(12,TileID::HIGHGAIN,3),0.,0.,TileID::HIGHGAIN); // INTERNAL CIS HG
2764  laserObject.setDiode(11,las[LG+24],laserObject.getMean( 12,TileID::LOWGAIN,0),
2765  laserObject.getSigma(12,TileID::LOWGAIN,0),
2766  laserObject.getMean( 12,TileID::LOWGAIN,3),
2767  laserObject.getSigma(12,TileID::LOWGAIN,3),0.,0.,TileID::LOWGAIN); // INTERNAL CIS LG
2768  laserObject.setDiode(12,las[HG+26],laserObject.getMean( 13,TileID::HIGHGAIN,0),
2769  laserObject.getSigma(13,TileID::HIGHGAIN,0),
2770  laserObject.getMean( 13,TileID::HIGHGAIN,3),
2771  laserObject.getSigma(13,TileID::HIGHGAIN,3),0.,0.,TileID::HIGHGAIN); // PHOTODIODE PHOCAL HG
2772  laserObject.setDiode(12,las[LG+26],laserObject.getMean( 13,TileID::LOWGAIN,0),
2773  laserObject.getSigma(13,TileID::LOWGAIN,0),
2774  laserObject.getMean( 13,TileID::LOWGAIN,3),
2775  laserObject.getSigma(13,TileID::LOWGAIN,3),0.,0.,TileID::LOWGAIN); // PHOTODIODE PHOCAL LG
2776  laserObject.setDiode(13,las[HG+30],laserObject.getMean( 15,TileID::HIGHGAIN,0),
2777  laserObject.getSigma(15,TileID::HIGHGAIN,0),
2778  laserObject.getMean( 15,TileID::HIGHGAIN,3),
2779  laserObject.getSigma(15,TileID::HIGHGAIN,3),0.,0.,TileID::HIGHGAIN); // EXTERNAL CIS HG
2780  laserObject.setDiode(13,las[LG+30],laserObject.getMean( 15,TileID::LOWGAIN,0),
2781  laserObject.getSigma(15,TileID::LOWGAIN,0),
2782  laserObject.getMean( 15,TileID::LOWGAIN,3),
2783  laserObject.getSigma(15,TileID::LOWGAIN,3),0.,0.,TileID::LOWGAIN); // EXTERNAL CIS LG
2784 
2785 } // unpack_frag17

◆ unpack_frag2()

void TileROD_Decoder::unpack_frag2 ( uint32_t  version,
uint32_t  sizeOverhead,
const uint32_t *  p,
pRwChVec &  pChannel,
int  fragID,
int  demoType 
) const
private

unpack_frag2 decodes tile subfragment type 0x2.

This subfragment contains the reconstructed amplitude and phase from the tilecal digitized pulse and a quality factor of the reconstruction.

The amplitude is not calibrated and is encoded in ADC counts.

The phase is encoded in ns.

The subfragment type 0x2 contains the reconstructed parameters from the 48 read-out channels of a tilecal module.

Definition at line 787 of file TileROD_Decoder.cxx.

791  {
792  // first word is frag size
793  int count = *(p);
794  // second word is frag ID and frag type
795  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
796 
797  // ATH_MSG_VERBOSE( "Unpacking TileRawChannels, ID=" << frag << " size=" << count );
798 
799  // ATH_MSG_VERBOSE( "first 2 words " << MSG::hex
800  // << " 0x" << *p
801  // << " 0x" << *(p+1)
802  // << MSG::dec );
803 
804  p += 2; // 2 words so far
805  int wc = sizeOverhead; // can be 2 or 3 words
806 
807  HWIdentifier drawerID = m_tileHWID->drawer_id(frag);
808  TileRawChannel* rc;
809 
810  for (unsigned int ch = 0; ch < m_maxChannels; ++ch) {
811  unsigned int w = (*p);
812 
813  int gain = m_rc2bytes2.gain(w);
814  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, ch, gain);
815 
816  if (w != 0) { // skip invalid channels
817  rc = new TileRawChannel(adcID, m_rc2bytes2.amplitude(w), m_rc2bytes2.time(w),
818  m_rc2bytes2.quality(w));
819  } else {
820  rc = new TileRawChannel(adcID, 0.0, -100.0, 31);
821  }
822 
823  pChannel.push_back(rc);
824 
825  // ATH_MSG_VERBOSE(" frag 0x" << MSG::hex << frag
826  // << MSG::dec << " ch " << ch
827  // << " " << MSG::hex << w << MSG::dec
828  // << " " << gain
829  // << " " << m_rc2bytes2.amplitude(w)
830  // << " " << m_rc2bytes2.time(w)
831  // << " " << m_rc2bytes2.quality(w) );
832 
833  ++wc;
834  ++p;
835  }
836 
837  if (wc != count) {
838  // check word count
839  if ((m_ErrorCounter++) < m_maxErrorPrint) {
840  ATH_MSG_WARNING( "unpack_frag2 => Incorrect word count: "
841  << wc << " != " << count );
842  }
843  assert(0);
844  // return;
845  }
846 
847  return;
848 }

◆ unpack_frag2HLT()

void TileROD_Decoder::unpack_frag2HLT ( uint32_t  version,
uint32_t  sizeOverhead,
const uint32_t *  p,
FRwChVec &  pChannel,
int  fragID,
int  demoType 
) const
private

unpack_frag2HLT decodes tile subfragment type 0x2 for the high level trigger (HLT).

This subfragment contains the reconstructed amplitude and phase from the tilecal digitized pulse and a quality factor of the reconstruction.

The amplitude is not calibrated and is encoded in ADC counts.

The phase is encoded in ns.

The subfragment type 0x2 contains the reconstructed parameters from the 48 read-out channels of a tilecal module.

Definition at line 3819 of file TileROD_Decoder.cxx.

3824 {
3825  // first word is frag size
3826  int count = *(p);
3827 
3828  p += 2; // 2 words so far
3829  int wc = sizeOverhead; // can be 2 or 3 words
3830 
3831  for (unsigned int ch = 0; ch < m_maxChannels; ++ch) {
3832  unsigned int w = (*p);
3833 
3834  if (w != 0) { // skip invalid channels
3835 
3836  pChannel.emplace_back(ch
3837  , m_rc2bytes2.gain(w)
3838  , m_rc2bytes2.amplitude(w)
3839  , m_rc2bytes2.time(w)
3840  , m_rc2bytes2.quality(w));
3841 
3842  } else {
3843  pChannel.emplace_back(ch, 1U, 0.0F, 0.0F, 0.0F);
3844  }
3845  ++wc;
3846  ++p;
3847  }
3848 
3849  if (wc != count) {
3850  // check word count
3851  if ((m_ErrorCounter++) < m_maxErrorPrint) {
3852  ATH_MSG_WARNING("Incorrect word count: " << wc << " != " << count );
3853  }
3854  assert(0);
3855  // return;
3856  }
3857 
3858  return;
3859 }

◆ unpack_frag3()

void TileROD_Decoder::unpack_frag3 ( uint32_t  version,
uint32_t  sizeOverhead,
const uint32_t *  p,
pRwChVec &  pChannel,
int  fragID,
int  demoType 
) const
private

unpack_frag3 decodes tile subfragment type 0x3.

This subfragment contains the reconstructed amplitude and phase from the tilecal digitized pulse and a quality factor of the reconstruction.

The amplitude is not calibrated and it is encoded in ADC counts.

The phase is encoded in ns.

The subfragment type 0x3 contains the reconstructed parameters ONLY from the existing channels of a tilecal module.

Definition at line 850 of file TileROD_Decoder.cxx.

854  {
855  // first word is frag size
856  int count = *(p);
857  // second word is frag ID and frag type
858  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
859 
860  // ATH_MSG_VERBOSE( "first 4 words " << MSG::hex
861  // << " 0x" << *p
862  // << " 0x" << *(p+1)
863  // << " 0x" << *(p+2)
864  // << " 0x" << *(p+3) << MSG::dec );
865 
866  // followed by 2 map words
867  const uint32_t* pMap = p + 2;
868 
869  const short* p16 = (const short *)p;
870 
871  p16 = p16 + 8; // 8 16bit words so far
872  short wc16 = 4 + sizeOverhead * 2; // can be 8 or 10 (if overhead is 3 words)
873 
874  HWIdentifier drawerID = m_tileHWID->drawer_id(frag);
875  TileRawChannel* rc;
876 
877  for (unsigned int ch = 0; ch < m_maxChannels; ++ch) {
878  if (checkBit(pMap, ch)) {
879  int gain = m_rc2bytes.gain(*p16);
880  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, ch, gain);
881 
882  rc = new TileRawChannel(adcID
883  , m_rc2bytes.amplitude(*p16)
884  , m_rc2bytes.time(*(p16 + 1))
885  , m_rc2bytes.quality(*(p16 + 2)));
886  pChannel.push_back(rc);
887 
888  ATH_MSG_VERBOSE( " frag 0x" << MSG::hex << frag << MSG::dec
889  << " ch " << ch << " " << MSG::hex
890  << "0x" << *p16 << *(p16+1) << *(p16+2) << MSG::dec
891  << " " << gain
892  << " " << m_rc2bytes.amplitude(*p16)
893  << " " << m_rc2bytes.time(*(p16+1))
894  << " " << m_rc2bytes.quality(*(p16+2)) );
895 
896  wc16 = wc16 + 3;
897  p16 = p16 + 3;
898  } // channel present
899  } // all bits, done with this frag
900 
901  if (wc16 % 2 == 1) {
902  ++wc16; // align
903  ++p16;
904  }
905  if (wc16 != 2 * count) {
906  // check word count
907  if ((m_ErrorCounter++) < m_maxErrorPrint) {
908  ATH_MSG_WARNING( "unpack_frag3 => Incorrect word count: "
909  << wc16 << " != 2*" << count );
910  }
911  assert(0);
912  // return;
913  }
914 
915  return;
916 }

◆ unpack_frag3HLT()

void TileROD_Decoder::unpack_frag3HLT ( uint32_t  version,
uint32_t  sizeOverhead,
const uint32_t *  p,
FRwChVec &  pChannel,
int  fragID,
int  demoType 
) const
private

unpack_frag3HLT decodes tile subfragment type 0x3 for the high level trigger (HLT).

This subfragment contains the reconstructed amplitude and phase from the tilecal digitized pulse and a quality factor of the reconstruction.

The amplitude is not calibrated and it is encoded in ADC counts.

The phase is encoded in ns.

The subfragment type 0x3 contains the reconstructed parameters ONLY from the existing channels of a tilecal module.

Definition at line 3861 of file TileROD_Decoder.cxx.

3866 {
3867  // first word is frag size
3868  int count = *(p);
3869  // second word is frag ID and frag type
3870 
3871  // ATH_MSG_VERBOSE( "first 4 words " << MSG::hex
3872  // << " 0x" << *p
3873  // << " 0x" << *(p+1)
3874  // << " 0x" << *(p+2)
3875  // << " 0x" << *(p+3) << MSG::dec );
3876 
3877  // followed by 2 map words
3878  const uint32_t* pMap = p + 2;
3879 
3880  const short* p16 = (const short *)p;
3881 
3882  p16 = p16 + 8; // 8 16bit words so far
3883  short wc16 = 4 + sizeOverhead * 2; // can be 8 or 10 (if overhead is 3 words)
3884 
3885  for (unsigned int ch = 0U; ch < 48U; ++ch) {
3886  if (checkBit(pMap, ch)) {
3887 
3888  pChannel.emplace_back(ch
3889  , m_rc2bytes.gain(*p16)
3890  , m_rc2bytes.amplitude(*p16)
3891  , m_rc2bytes.time(*(p16 + 1))
3892  , m_rc2bytes.quality(*(p16 + 2)));
3893 
3894  // ATH_MSG_VERBOSE(" frag 0x" << MSG::hex << frag << MSG::dec
3895  // << " ch " << ch
3896  // << " " << MSG::hex << "0x" << *p16 << *(p16+1) << *(p16+2) << MSG::dec
3897  // << " " << gain
3898  // << " " << m_rc2bytes.amplitude(*p16)
3899  // << " " << m_rc2bytes.time(*(p16+1))
3900  // << " " << m_rc2bytes.quality(*(p16+2)) );
3901 
3902  wc16 = wc16 + 3;
3903  p16 = p16 + 3;
3904  } // channel present
3905  else {
3906  pChannel.emplace_back(ch, 1U, 0.0F, 0.0F, 0.0F);
3907  }
3908  } // all bits, done with this frag
3909 
3910  if (wc16 % 2 == 1) {
3911  ++wc16; // align
3912  ++p16;
3913  }
3914  if (wc16 != 2 * count) {
3915  // check word count
3916  if ((m_ErrorCounter++) < m_maxErrorPrint) {
3917  ATH_MSG_WARNING( "unpack_frag3HLT => Incorrect wordcount: "
3918  << wc16 << " != 2*" << count );
3919  }
3920  assert(0);
3921  // return;
3922  }
3923 
3924  return;
3925 }

◆ unpack_frag4()

void TileROD_Decoder::unpack_frag4 ( uint32_t  version,
uint32_t  sizeOverhead,
unsigned int  unit,
RawChannelMetaData_t &  rawchannelMetaData,
const uint32_t *  p,
pRwChVec &  pChannel,
int  fragID,
int  demoType 
) const
private

unpack_frag4 decodes tile subfragment type 0x4.

This subfragment contains the reconstructed amplitude and phase from the tilecal digitized pulse and a quality factor of the reconstruction.

The amplitude is calibrated to the online units that can be:

The subfragment type 0x4 contains the reconstructed parameters from the 48 read-out channels of a tilecal module.

Definition at line 918 of file TileROD_Decoder.cxx.

925 {
926  // first word is frag size
927  int count = *(p);
928  // second word is frag ID and frag type
929  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
930  bool remap = (drawer_type > 0) || std::binary_search(m_demoFragIDs.begin(), m_demoFragIDs.end(), frag);
931  const std::vector<int> & chmap = (frag<0x300) ? m_demoChanLB : m_demoChanEB;
932 
933  // ATH_MSG_VERBOSE( "Unpacking TileRawChannels, ID=" << frag << " size=" << count <<s);
934 
935  // ATH_MSG_VERBOSE( "first 2 words " << MSG::hex
936  // << " 0x" << *p
937  // << " 0x" << *(p+1) << MSG::dec );
938 
939  p += 2; // 2 words so far
940  int wc = sizeOverhead; // can be 2 or 3 words
941 
942  HWIdentifier drawerID = m_tileHWID->drawer_id(frag);
943  TileRawChannel* rc;
944  uint32_t all00 = TileFragStatus::ALL_00;
945  uint32_t allFF = TileFragStatus::ALL_FF;
946 
947  for (unsigned int ch = 0; ch < m_maxChannels; ++ch) {
948  unsigned int w = (*p);
949 
950  int gain = m_rc2bytes4.gain(w);
951  int ch1 = (remap) ? chmap[ch] : ch;
952  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, ch1, gain);
953 
954  if (allFF && w!=0xFFFFFFFF) allFF = TileFragStatus::ALL_OK;
955  if (w != 0) { // skip invalid channels
956  if (all00) all00 = TileFragStatus::ALL_OK;
957  rc = new TileRawChannel(adcID
958  , m_rc2bytes4.amplitude(w, unit)
959  , m_rc2bytes4.time(w)
960  , m_rc2bytes4.quality(w));
961  } else {
962  rc = new TileRawChannel(adcID, 0.0, -100., 31);
963  }
964 
965  pChannel.push_back(rc);
966 
967  // ATH_MSG_VERBOSE( MSG::hex << " frag 0x" << frag << MSG::dec
968  // << " ch " << ch
969  // << " 0x" << MSG::hex << w << MSG::dec
970  // << " " << gain
971  // << " " << m_rc2bytes4.amplitude(w)
972  // << " " << m_rc2bytes4.time(w)
973  // << " " << m_rc2bytes4.quality(w) );
974 
975  ++wc;
976  ++p;
977  }
978  if (remap) std::sort(pChannel.end()-m_maxChannels,pChannel.end(),chan_order);
979 
980  rawchannelMetaData[6].push_back( all00 | allFF );
981 
982  if (wc > count) {
983  // check word count
984  if ((m_ErrorCounter++) < m_maxErrorPrint) {
985  ATH_MSG_WARNING( "unpack_frag4 => Incorrect word count: "
986  << wc << " != " << count );
987  }
988  assert(0);
989  // return;
990  // } else if (wc < count) {
991  // ATH_MSG_VERBOSE("unpack_frag4 => extra " << count-wc << " words in frag" );
992  }
993 
994  return;
995 }

◆ unpack_frag40()

void TileROD_Decoder::unpack_frag40 ( uint32_t  collid,
uint32_t  version,
const uint32_t *  p,
int  size,
TileDigitsCollection &  coll 
) const
private

unpacking methods dedicated to the TMDB ROD format sub-fragments 0x40 0x41 0x42

Definition at line 4699 of file TileROD_Decoder.cxx.

4700  {
4701 
4702  int ros = (collid >> 8);
4703  int drawer = collid & 0xff;
4704  HWIdentifier drawerID = m_tileHWID->drawer_id(ros, drawer);
4705  int nsamp = 7; // assume fixed number of samples for the moment
4706  int nmod = (ros > 2) ? 8 : 4; // we have 8 modules per fragment in ext.barrel, 4 modules in barrel
4707  int nchan = 4 * datasize / nmod / nsamp; // factor 4 because in one 32-bit word we have 4 samples
4708 
4709  int nsamp1 = nsamp - 1;
4710 
4711  std::vector<float> digits(nsamp);
4712 
4713  // Each 32 bit word is made of four 8-bit words each a ADC of a sample like
4714  //
4715  // 32nd bit -> | 37/D6R | 38/D6L | 16/D5R | 17/D5L | <- 1st bit
4716  //
4717  // First come 8 words (M0->M7) with sample 0 and so forth i.e. the digits for the first module are placed by words: {0,8,16,24,32,40,48}.
4718  // Note that order of samples is inversed with respect to time line,
4719  // i.e. first sample from data should go to the last sample in TileDigits vector
4720 
4721  int wpos = (collid % nmod) * nchan; // location of first sample for given channel in given module
4722  int jump = nchan * nmod; // distance between samples for one channel in number of bytes
4723  const unsigned char * adc = reinterpret_cast<const unsigned char *>(p);
4724 
4725  for (int i = 0; i < nchan; ++i) {
4726  for (int j = 0; j < nsamp; ++j) {
4727  digits[nsamp1 - j] = adc[wpos + jump * j];
4728  }
4729  ++wpos;
4730  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, i, TileID::LOWGAIN);
4731  TileDigits *digitmp = new TileDigits(adcID, digits);
4732  coll.push_back(digitmp);
4733  }
4734 
4735  if (msgLvl(MSG::DEBUG)) {
4736  msg(MSG::DEBUG) << "TileROD_Decoder::unpack_frag40 frag: 0x" << MSG::hex << collid << MSG::dec
4737  << " version: " << version << endmsg;
4738 
4739  int pos = coll.size() - nchan;
4740  const char * strchannel[13] = { " d5L ", " d5R ", " d6L ", " d6R ",
4741  " xxx ", " d0x ", " d1L ", " d1R ", " d2L ", " d2R ", " d3L ", " d3R ", " xxx " };
4742  int nchmax = (ros > 2) ? 4 : 8;
4743  for (int i = 0; i < nchan; ++i) {
4744  const std::vector<float> & sample = coll.at(pos + i)->samples();
4745  std::stringstream ss;
4746  for (const auto & val : sample) {
4747  ss << std::setw(5) << int(val);
4748  }
4749  msg(MSG::DEBUG) << " ros:" << ros
4750  << " drawer:" << drawer
4751  << " ch:" << i << strchannel[std::min(i, nchmax)+nchmax-4] << ss.str() << endmsg;
4752  }
4753  }
4754 
4755  return;
4756 }

◆ unpack_frag41()

void TileROD_Decoder::unpack_frag41 ( uint32_t  collid,
uint32_t  version,
const uint32_t *  p,
int  size,
TileRawChannelCollection &  coll 
) const
private

Definition at line 4758 of file TileROD_Decoder.cxx.

4758  {
4759 
4760  int ros=(collid>>8);
4761  int drawer=collid&0xff;
4762  HWIdentifier drawerID = m_tileHWID->drawer_id(ros,drawer);
4763  float calFactorADC2MeV = 1.0;
4764 
4765  int nmod = (ros>2)?8:4; // we have 8 modules per fragment in ext.barrel, 4 modules in barrel
4766  int nchan = datasize / nmod;
4767 
4768  int wpos = (collid % nmod) * nchan;
4769 
4770  if (version == 0) {
4771 
4772  // Each 32 bit word is an energy of a channel pmt
4773  //
4774  // 32nd bit -> | 17/D5L | <- 1st bit
4775  // 32nd bit -> | 16/D5R | <- 1st bit
4776  // 32nd bit -> | 37/D6L | <- 1st bit
4777  // 32nd bit -> | 38/D6R | <- 1st bit
4778  //
4779  // Each 4 words respect a module.
4780 
4781  const int32_t * pp = reinterpret_cast<const int32_t *>(p);
4782  pp += wpos;
4783  for (int i = 0; i < nchan; ++i) {
4784  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, i, TileID::LOWGAIN);
4785  TileRawChannel *rctmp = new TileRawChannel(adcID, (*pp) * calFactorADC2MeV, 0., 0.);
4786  coll.push_back(rctmp);
4787  ++pp;
4788  }
4789 
4790  } else {
4791 
4792  // Each 32 bit word is made of two 16-bit words each a energy of a channel pmt
4793  //
4794  // 32nd bit -> | 16/D5R | 17/D5L | <- 1st bit
4795  // 32nd bit -> | 38/D6R | 37/D6L | <- 1st bit
4796  //
4797  // Each 2 words respect a module.
4798 
4799  nchan *= 2; // change number of channels calculated before assuming 16 bits for channel
4800  const int16_t * pp = reinterpret_cast<const int16_t *>(p);
4801  pp += wpos;
4802  for (int i = 0; i < nchan; ++i) {
4803  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, i, TileID::LOWGAIN);
4804  TileRawChannel *rctmp = new TileRawChannel(adcID, (*pp) * calFactorADC2MeV, 0., 0.);
4805  coll.push_back(rctmp);
4806  ++pp;
4807  }
4808  }
4809 
4810  if (msgLvl(MSG::DEBUG)) {
4811  msg(MSG::DEBUG) << " TileROD_Decoder::unpack_frag41 frag: 0x" << MSG::hex << collid << MSG::dec
4812  << " version: " << version << endmsg;
4813 
4814  int nbits = (version == 0) ? 32 : 16;
4815  msg(MSG::DEBUG) << " position of " << nbits << "-bit word inside sub-fragment 0x41: " << wpos << endmsg;
4816  int pos = coll.size() - nchan;
4817  const char * strchannel[13] = { " d5L ", " d5R ", " d6L ", " d6R ",
4818  " xxx ", " d0x ", " d1L ", " d1R ", " d2L ", " d2R ", " d3L ", " d3R ", " xxx " };
4819  int nchmax = (ros > 2) ? 4 : 8;
4820  for (int i = 0; i < nchan; ++i) {
4821  msg(MSG::DEBUG) << " ros:" << ros
4822  << " drawer:" << drawer
4823  << " ch:" << i << strchannel[std::min(i, nchmax)+nchmax-4] << coll.at(pos + i)->amplitude() << endmsg;
4824  }
4825  }
4826 
4827  return;
4828 }

◆ unpack_frag42()

void TileROD_Decoder::unpack_frag42 ( uint32_t  sourceid,
uint32_t  version,
const uint32_t *  p,
int  size,
TileMuonReceiverContainer &  v 
) const
private

Definition at line 4830 of file TileROD_Decoder.cxx.

4830  {
4831 
4832  // == RUN 2 ==
4833  // results are hold in 3 16-bit words.
4834  //
4835  // 32nd bit -> | results2 || results1 | <- 1st bit
4836  // | 0x0 || results3 |
4837  //
4838  // 32nd bit -> | m-5 | m-4 | m-3 | m-2 || m-2 | m-1 | m-0 | 0x0 | <- 1st bit
4839  // | 0x0 || 0x0 | m-7 | m-6 | m-5 |
4840  //
4841  // each 4 bit word is
4842  // 0 1 2 3 <-- in Obj
4843  // | d56h | d56l | d6h | d6l |
4844  // bit3 bit2 bit1 bit0
4845  //
4846  // bit-3 -> result.at(0)
4847  // bit-2 .
4848  // bit-1 .
4849  // bit-0 -> result.at(3)
4850  //
4851  // == RUN 3 ==
4852  // results are hold in 3 16-bit words.
4853  //
4854  // 32nd bit -> | results2 [16:31] || results1 [0:15] | <- 1st bit
4855  // 32nd bit -> | 0x0 [16:31] || results3 [0:15] | <- 1st bit
4856  //
4857  // 32nd bit -> | bcid1 [12:15] | m-5 | m-4 | m-3 | m-2 || bcid0 [12:15] | m-3 | m-2 | m-1 | m-0 | <- 1st bit
4858  // | 0x0 [16:31] || bcid2 [12:15] | m-7 | m-6 | m-5 | m-4 |
4859  //
4860  // For each module m-X there is a 3-bit word with the results for a threshold
4861  //
4862  // | d5+d6 | d6 | d5 |
4863  // | bit2 | bit1 | bit0 |
4864  //
4865 
4866  int nbit=0;
4867  int nmod=0;
4868  uint32_t word=0x0;
4869  uint32_t bcid=0x0;
4870 
4871  int drawer = (sourceid & 0xf0000) >> 8; // get ROS number from source ID
4872  if (drawer<0x300) { // barrel
4873  nbit = 4;
4874  nmod = 4;
4875  drawer |= ((sourceid & 0x0000f) << 2);
4876  word = (datasize > 0) ? p[0] : 0; // just use first word, although expect all zeros for the moment
4877  } else { // extended barrel
4878  nbit = 4;
4879  nmod = 8;
4880  drawer |= ((sourceid & 0x0000f) << 3);
4881  if (datasize > 1) {
4882  if (m_runPeriod<=2) {
4883  word = (p[1] << 20) | ((p[0] >> 8) & 0xff000) | ((p[0] >> 4) & 0xfff);
4884  } else {
4885  word = ((p[1] & 0xfff) << 12) | (p[0] & 0xfff);
4886  // keeping all 12 bits of information (just for cross check) |bcid2|bcid1|bcid0|
4887  bcid = ((p[1] >> 4) & 0xf00) | ((p[0] >> 24) & 0xf0) | ((p[0] >> 12) & 0xf);
4888  }
4889  }
4890  }
4891 
4892  drawer |= (bcid<<16) ;
4893 
4894  std::vector<bool> result(nbit);
4895  for (int j = 0; j < nmod; ++j) { // loop over modules
4896  for (int k = nbit-1; k >= 0; --k) { // loop over bits of one module in inversed order
4897  if (m_runPeriod<=2) {
4898  result[k] = (word & 1);
4899  word >>= 1;
4900  } else {
4901  if (k==0) {
4902  result[k]=0;
4903  } else {
4904  result[k] = (word & 1);
4905  word >>= 1;
4906  }
4907  }
4908  }
4909  TileMuonReceiverObj * obj = new TileMuonReceiverObj(drawer, result);
4910  v.push_back(obj);
4911  ++drawer;
4912  }
4913 
4914  if (msgLvl(MSG::DEBUG)) {
4915  if (m_runPeriod<=2) msg(MSG::DEBUG) << "TMDB version for RUN2 simulation (2014)" <<endmsg;
4916  else msg(MSG::DEBUG) << "TMDB version for RUN3 simulation (2020)" <<endmsg;
4917 
4918  msg(MSG::DEBUG) << " TileROD_Decoder::unpack_frag42 source ID: 0x" << MSG::hex << sourceid << MSG::dec
4919  << " version: " << version << " bcid | drawer " << MSG::hex << drawer << endmsg;
4920 
4921  for (size_t j = v.size() - nmod; j < v.size(); ++j) {
4922  const std::vector<bool> & r = v[j]->GetDecision();
4923  std::stringstream ss;
4924  for (const bool val : r) {
4925  ss << std::setw(2) << val;
4926  }
4927  msg(MSG::DEBUG) << MSG::hex << "0x" << v[j]->GetID() << MSG::dec << ss.str() << endmsg;
4928  }
4929  }
4930 
4931  return;
4932 }

◆ unpack_frag4HLT()

void TileROD_Decoder::unpack_frag4HLT ( uint32_t  version,
uint32_t  sizeOverhead,
unsigned int  unit,
const uint32_t *  p,
FRwChVec &  pChannel,
int  fragID,
int  demoType 
) const
private

unpack_frag4HLT decodes tile subfragment type 0x4 for the high level trigger (HLT).

This subfragment contains the reconstructed amplitude and phase from the tilecal digitized pulse and a quality factor of the reconstruction.

The amplitude is calibrated to the online units that can be:

The subfragment type 0x4 contains the reconstructed parameters from the 48 read-out channels of a tilecal module.

Definition at line 3927 of file TileROD_Decoder.cxx.

3933 {
3934  // first word is frag size
3935  int count = *(p);
3936  // second word is frag ID and frag type
3937  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
3938  bool remap = (drawer_type > 0) || std::binary_search(m_demoFragIDs.begin(), m_demoFragIDs.end(), frag);
3939  const std::vector<int> & chmap = (frag<0x300) ? m_demoChanLB : m_demoChanEB;
3940 
3941  p += 2; // 2 words so far
3942  int wc = sizeOverhead; // can be 2 or 3 words
3943  for (unsigned int ch = 0U; ch < m_maxChannels; ++ch) {
3944  unsigned int ch1 = (remap) ? chmap[ch] : ch;
3945  unsigned int w = (*p);
3946  if (w != 0) { // skip invalid channels
3947  pChannel.emplace_back(ch1
3948  , m_rc2bytes4.gain(w)
3949  , m_rc2bytes4.amplitude(w, unit)
3950  , m_rc2bytes4.time(w)
3951  , m_rc2bytes4.quality(w));
3952 
3953  } else {
3954  pChannel.emplace_back(ch1, 1U, 0.0F, 0.0F, 0.0F);
3955  }
3956  ++wc;
3957  ++p;
3958  }
3959  if (remap) std::sort(pChannel.end()-m_maxChannels,pChannel.end(),chan_order1);
3960 
3961  if (wc > count) {
3962  // check word count
3963  if ((m_ErrorCounter++) < m_maxErrorPrint) {
3964  ATH_MSG_WARNING( "unpack_frag4HLT => Incorrect word count: "
3965  << wc << " != " << count );
3966  }
3967  assert(0);
3968  // return;
3969  }
3970 
3971  return;
3972 }

◆ unpack_frag4L2()

bool TileROD_Decoder::unpack_frag4L2 ( uint32_t  version,
uint32_t  sizeOverhead,
const uint32_t *  p,
TileL2Container &  v,
int  fragID,
int  demoType 
) const
private

unpack_frag4L2 decodes tile subfragment type 0x4 and extract transverse energy from this fragment

Definition at line 4037 of file TileROD_Decoder.cxx.

4041  {
4042  // first word is frag size
4043  int size = *(p);
4044  // second word is frag ID and frag type
4045  uint32_t idAndType = *(p + 1);
4046  int frag = (frag_id>0) ? frag_id : idAndType & 0xFFFF;
4047  int unit = (idAndType >> (32 - 2)) & 0x3;
4048 
4049 #ifdef DO_NOT_USE_MUON_TAG
4050 
4051  p += 50; // offset 50: 2 words in header and 48 channels after
4052 
4053 #else
4054 
4055  // this part should be very similar to unpack_frag4HLT - it reads amplitude from DSP
4056  // and then uses vector of 48 amplitudes to calculate Muon tags
4057  // but since nobody is using Tile Muon tags in L2 trigger
4058  // this part is not implemented
4059 
4060  p+=50;// offset 50: 2 words in header and 48 channels after
4061 
4062 #endif
4063 
4064  int size_L2 = size - sizeOverhead - 48;
4065  if (size_L2 > 0) {
4066 
4067  std::vector<float> sumE;
4068  sumE.reserve(size_L2);
4069  while (size_L2--) {
4070  sumE.push_back(Frag5_unpack_bin2sum(unit, (int)(*(p++))));
4071  }
4072  (*pL2[m_hashFunc(frag)]).setEt(std::move(sumE));
4073 
4074  return true;
4075 
4076  } else {
4077 
4078  return false; // indicate that there is no sumEt info in the fragment
4079  }
4080 }

◆ unpack_frag5()

void TileROD_Decoder::unpack_frag5 ( uint32_t  version,
uint32_t  sizeOverhead,
unsigned int  unit,
DigitsMetaData_t &  digitsMetaData,
const uint32_t *  p,
pDigiVec &  pDigits,
pRwChVec &  pChannel,
int  fragID,
int  demoType 
) const
private

unpack_frag5 decodes tile subfragment type 0x4.

This subfragment contains the reconstructed amplitude and phase from the tilecal digitized pulse and a quality factor of the reconstruction.

The amplitude is calibrated to the online units that can be:

The subfragment type 0x5 contains the reconstructed parameters and residuals from the 48 read-out channels of a tilecal module.

Definition at line 997 of file TileROD_Decoder.cxx.

1004 {
1005  // first word is frag size
1006  int count = *(p);
1007  // second word is frag ID and frag type
1008  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
1009  bool remap = (drawer_type > 0) || std::binary_search(m_demoFragIDs.begin(), m_demoFragIDs.end(), frag);
1010  const std::vector<int> & chmap = (frag<0x300) ? m_demoChanLB : m_demoChanEB;
1011  int size_L2 = (*(p + 1) >> (32 - 2 - 3)) & 0x7;
1012 
1013  // store metadata for this collection
1014  // size, fragID, BCID
1015  digitsMetaData[0].push_back(count);
1016  digitsMetaData[0].push_back(frag);
1017  digitsMetaData[0].push_back(0);
1018 
1019  TileRawChannel2Bytes5::TileChanData ChanData[48];
1020  const uint32_t* ptrFrag = reinterpret_cast<const uint32_t*> (p - 1); // begin of fragment
1021  const uint32_t* ptrOFW = getOFW(frag, unit); // get OF Weights
1022  m_rc2bytes5.unpack(ptrOFW, ptrFrag, ChanData);
1023 
1024  int wc = sizeOverhead; // can be 2 or 3 words
1025  int bc = (size_L2 * 32 + 48) / 8; // size_L2 + BadBits
1026 
1027  HWIdentifier drawerID = m_tileHWID->drawer_id(frag);
1028 
1029  std::vector<float> digiVec(7);
1030  if (m_useFrag5Raw) pDigits.reserve(pDigits.size() + 48);
1031  if (m_useFrag5Reco) pChannel.reserve(pChannel.size() + 48);
1032 
1033  for (int ch = 0; ch < 48; ++ch) {
1034  int size = m_rc2bytes5.get_size_code(ChanData[ch].code);
1035  int gain = ChanData[ch].gain;
1036  int ch1 = (remap) ? chmap[ch] : ch;
1037  HWIdentifier adcID = m_tileHWID->adc_id(drawerID, ch1, gain);
1038 
1039  if (m_useFrag5Raw) {
1040  for (int i = 0; i < 7; ++i) digiVec[i] = ChanData[ch].s[i];
1041  TileDigits* td = new TileDigits(adcID, digiVec);
1042  pDigits.push_back(td);
1043  }
1044 
1045  if (m_useFrag5Reco) {
1046  int format = m_rc2bytes5.get_format(ChanData[ch].code);
1047  int quality = m_rc2bytes5.get_quality(ChanData[ch].bad, format);
1048  float ene = ChanData[ch].ene;
1049  float time = ChanData[ch].time;
1050 
1051  TileRawChannel* rc = new TileRawChannel(adcID, ene, time, quality);
1052  pChannel.push_back(rc);
1053  }
1054  bc += size;
1055  }
1056  if (remap) {
1057  std::sort(pDigits.end()-m_maxChannels,pDigits.end(),chan_order);
1058  std::sort(pChannel.end()-m_maxChannels,pChannel.end(),chan_order);
1059  }
1060 
1061  wc += (bc + 3) / 4;
1062  if (wc > count) {
1063  // check word count
1064  if ((m_ErrorCounter++) < m_maxErrorPrint) {
1065  ATH_MSG_WARNING( " unpack_frag5 => Incorrect word count: "
1066  << wc << " != " << count );
1067  }
1068  assert(0);
1069  // return;
1070  } else if (wc < count) {
1071  if ((m_ErrorCounter++) < m_maxErrorPrint) {
1072  ATH_MSG_WARNING( "unpack_frag5 => extra " << count - wc
1073  << " words in frag" );
1074  ATH_MSG_WARNING( " count = " << count
1075  << " wc = " << wc
1076  << " bc = " << bc
1077  << " words in frag" );
1078  }
1079  }
1080  return;
1081 }

◆ unpack_frag5HLT()

void TileROD_Decoder::unpack_frag5HLT ( uint32_t  version,
uint32_t  sizeOverhead,
unsigned int  unit,
const uint32_t *  p,
FRwChVec &  pChannel,
int  fragID,
int  demoType 
) const
private

unpack_frag5HLT decodes tile subfragment type 0x5 for the high level trigger (HLT).

This subfragment contains the reconstructed amplitude and phase from the tilecal digitized pulse

The amplitude is calibrated to the online units that can be:

The subfragment type 0x5 contains the reconstructed parameters and residuals from the 48 read-out channels of a tilecal module.

Definition at line 3974 of file TileROD_Decoder.cxx.

3980 {
3981  // first word is frag size
3982  int count = *(p);
3983  // second word is frag ID and frag type
3984  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF;
3985  bool remap = (drawer_type > 0) || std::binary_search(m_demoFragIDs.begin(), m_demoFragIDs.end(), frag);
3986  const std::vector<int> & chmap = (frag<0x300) ? m_demoChanLB : m_demoChanEB;
3987  int size_L2 = (*(p + 1) >> (32 - 2 - 3)) & 0x7;
3988 
3989  p += 2; // 2 words so far
3990  int wc = sizeOverhead; // can be 2 or 3 words
3991  const uint16_t* ptr_bad = reinterpret_cast<const uint16_t*> (p + 48 + size_L2); // Reco + Size_L2
3992  uint16_t bad_bits[3] = { ptr_bad[1], ptr_bad[0], ptr_bad[3] };
3993 
3994  uint32_t code;
3995  int fmt, bad, gain(0), ene_bin(0), time_bin(0), quality;
3996  unsigned int w;
3997  float ene(0.0), time(0.0);
3998 
3999  unsigned int ch = 0U;
4000  for (unsigned int i = 0U; i < 3U; ++i) {
4001  uint16_t bad16 = ~bad_bits[i]; // note inversion here
4002  for (unsigned int j = 0U; j < 16U; ++j) {
4003  w = (*p);
4004 
4005  code = w >> 24;
4006  fmt = m_rc2bytes5.m_FormatLookup[code];
4007  Frag5_unpack_reco_bin(w, code, gain, ene_bin, time_bin);
4008  Frag5_unpack_bin2reco(unit, gain, ene_bin, ene, time_bin, time);
4009  //m_rc2bytes5.unpack_reco(w, fmt, gain, ene, time);
4010 
4011  bad = (bad16 & 0x1);
4012  bad16 >>= 1;
4013  quality = m_rc2bytes5.get_quality(bad, fmt);
4014  unsigned int ch1 = (remap) ? chmap[ch] : ch;
4015  pChannel.emplace_back(ch1, gain, ene, time, quality);
4016 
4017  ++ch;
4018  ++wc;
4019  ++p;
4020  }
4021  }
4022  if (remap) std::sort(pChannel.end()-m_maxChannels,pChannel.end(),chan_order1);
4023 
4024  if (wc > count) {
4025  // check word count
4026  if ((m_ErrorCounter++) < m_maxErrorPrint) {
4027  ATH_MSG_WARNING( "unpack_frag5HLT => Incorrect word count: "
4028  << wc << " != " << count );
4029  }
4030  assert(0);
4031  // return;
4032  }
4033 
4034  return;
4035 }

◆ unpack_frag5L2()

bool TileROD_Decoder::unpack_frag5L2 ( uint32_t  version,
const uint32_t *  p,
TileL2Container &  v,
int  fragID,
int  demoType 
) const
private

unpack_frag5L2 decodes tile subfragment type 0x5 and extract transverse energy from this fragment

Definition at line 4082 of file TileROD_Decoder.cxx.

4084  {
4085  // second word is frag ID and frag type
4086  uint32_t idAndType = *(p + 1);
4087  int frag = (frag_id>0) ? frag_id : idAndType & 0xFFFF;
4088  int unit = (idAndType >> (32 - 2)) & 0x3;
4089  int size_L2 = (idAndType >> (32 - 2 - 3)) & 0x7;
4090 
4091 #ifdef DO_NOT_USE_MUON_TAG
4092 
4093  p += 50; // offset 50: 2 words in header and 48 channels after
4094 
4095 #else
4096 
4097  // this part is very similar to unpack_frag5HLT - it reads amplitude from DSP
4098  // and then uses vector of 48 amplitudes to calculate Muon tags
4099  // all this is written only for tests and will not be used actually,
4100  // since nobody is using Tile Muon tags in L2 trigger
4101 
4102  p+=2;// 2 words so far
4103 
4104  int drawer = (frag & 0x3F);
4105  int ros = (frag >> 8);
4106  int drawerIdx = TileCalibUtils::getDrawerIdx(ros,drawer);
4107  TileRawChannelUnit::UNIT onlUnit = (TileRawChannelUnit::UNIT) ( unit + TileRawChannelUnit::OnlineOffset );
4108  bool recalibrate = (onlUnit != TileRawChannelUnit::OnlineMegaElectronVolts);
4109  float E_MeV[48];
4110  int Gain[48];
4111  bool bad[48];
4112 
4113  uint16_t* ptr_bad = (uint16_t*)(p + 48 + size_L2);// Reco + Size_L2
4114  uint16_t bad_bits[3] = {ptr_bad[1], ptr_bad[0], ptr_bad[3]};
4115 
4116  uint32_t code;
4117  int fmt, gain(0), ene_bin(0), time_bin(0);
4118  unsigned int w;
4119  float ene(0.0), time(0.0);
4120 
4121  int ch = 0;
4122  for (int i = 0; i < 3; ++i) {
4123  uint16_t bad16 = ~bad_bits[i]; // note inversion here
4124  for (int j = 0; j < 16; ++j) {
4125  w = (*p);
4126 
4127  code = w >> 24;
4128  fmt = m_rc2bytes5.m_FormatLookup[code];
4129  Frag5_unpack_reco_bin(w, code, gain, ene_bin, time_bin);
4130  Frag5_unpack_bin2reco(unit, gain, ene_bin, ene, time_bin, time);
4131  //m_rc2bytes5.unpack_reco(w, fmt, gain, ene, time);
4132 
4133  bad[ch] = (bad16 & 0x1); bad16 >>= 1;
4134  Gain[ch] = gain;
4135  if (recalibrate)
4136  E_MeV[ch] = m_tileToolEmscale->channelCalib(drawerIdx, ch, gain, ene, onlUnit, TileRawChannelUnit::MegaElectronVolts);
4137  else
4138  E_MeV[ch] = ene;
4139 
4140  ++ch;
4141  ++p;
4142  }
4143  }
4144 
4145  std::vector<double> EtaMuons;
4146  std::vector<double> EMuons0;
4147  std::vector<double> EMuons1;
4148  std::vector<double> EMuons2;
4149  std::vector<unsigned int> qf;
4150  std::vector<unsigned int> word;
4151 
4152  switch (ros) {
4153  case TileHWID::BARREL_POS: m_L2Builder->MTagLB(ros,drawer,E_MeV,Gain,bad,EtaMuons,EMuons0,EMuons1,EMuons2,qf,word); break;
4154  case TileHWID::BARREL_NEG: m_L2Builder->MTagLB(ros,drawer,E_MeV,Gain,bad,EtaMuons,EMuons0,EMuons1,EMuons2,qf,word); break;
4155  case TileHWID::EXTBAR_POS: m_L2Builder->MTagEB(ros,drawer,E_MeV,Gain,bad,EtaMuons,EMuons0,EMuons1,EMuons2,qf,word); break;
4156  case TileHWID::EXTBAR_NEG: m_L2Builder->MTagEB(ros,drawer,E_MeV,Gain,bad,EtaMuons,EMuons0,EMuons1,EMuons2,qf,word); break;
4157  default: ATH_MSG_WARNING( "unpack_frag5L2: incorrect ros value: " << ros );
4158  }
4159 
4160  (*pL2[m_hashFunc(frag)]).setMu(std::move(EtaMuons), std::move(EMuons0),
4161  std::move(EMuons1), std::move(EMuons2), std::move(qf), std::move(word));
4162 
4163 #endif
4164 
4165  if (size_L2 > 0) {
4166 
4167  std::vector<float> sumE;
4168  sumE.reserve(size_L2);
4169  while (size_L2--) {
4170  sumE.push_back(Frag5_unpack_bin2sum(unit, (int)(*(p++))));
4171  }
4172  (*pL2[m_hashFunc(frag)]).setEt(std::move(sumE));
4173 
4174  return true;
4175 
4176  } else {
4177 
4178  return false; // indicate that there is no sumEt info in the fragment
4179  }
4180 }

◆ unpack_frag6()

void TileROD_Decoder::unpack_frag6 ( uint32_t  version,
uint32_t  sizeOverhead,
DigitsMetaData_t &  digitsMetaData,
const uint32_t *  p,
pDigiVec &  pDigits,
int  fragID,
int  demoType 
) const
private

unpack_frag6 decodes tile subfragment type 0x6.

This subfragment contains the tile raw digits with 16 samples and 2 gains from the 48 read-out channels of a tilecal module.

Definition at line 1113 of file TileROD_Decoder.cxx.

1118 {
1119  int size = *(p)- sizeOverhead;
1120  const uint32_t* data = p+2; // pointer to current data word Position of first data word,
1121  // second word is frag ID (0x100-0x4ff) and frag type
1122  int frag = (frag_id>0) ? frag_id : *(p + 1) & 0xFFFF; /* (*(data +3)>>16) & 0xFF;*/
1123  bool remap = (drawer_type > 0) || std::binary_search(m_demoFragIDs.begin(), m_demoFragIDs.end(), frag);
1124  const std::vector<int> & chmap = (frag<0x300) ? m_demoChanLB : m_demoChanEB;
1125 
1126  HWIdentifier adcID;
1127  HWIdentifier drawerID = m_tileHWID->drawer_id(frag);
1128 
1129  uint32_t all00 = TileFragStatus::ALL_00;
1130  uint32_t allFF = TileFragStatus::ALL_FF;
1131 
1132  for (int i = 0; i < size; ++i) {
1133  uint32_t w = data[i];
1134  if (allFF && w!=0xFFFFFFFF) {
1135  allFF = TileFragStatus::ALL_OK;
1136  if (all00 == TileFragStatus::ALL_OK) break;
1137  }
1138  if (all00 && w != 0) {
1139  all00 = TileFragStatus::ALL_OK;
1140  if (allFF == TileFragStatus::ALL_OK) break;
1141  }
1142  }
1143 
1144  uint32_t status = (all00 | allFF);
1145  digitsMetaData[6].push_back( status );
1146 
1147  // check that fragment is not dummy
1148  if (m_suppressDummyFragments && status != TileFragStatus::ALL_OK){
1149  ATH_MSG_WARNING("FRAG6: Suppress dummy fragment!!!");
1150  return; // nothing reasonable found
1151  }
1152 
1153  using Tile = TileCalibUtils;
1154  unsigned int moduleID[Tile::MAX_MINIDRAWER] = {0};
1155  unsigned int runType[Tile::MAX_MINIDRAWER] = {0};
1156 
1157  unsigned int runNumber[Tile::MAX_MINIDRAWER] = {0};
1158 
1159  unsigned int pedestalHi[Tile::MAX_MINIDRAWER] = {0};
1160  unsigned int pedestalLo[Tile::MAX_MINIDRAWER] = {0};
1161 
1162  unsigned int chargeInjected[Tile::MAX_MINIDRAWER] = {0};
1163  unsigned int timeInjected[Tile::MAX_MINIDRAWER] = {0};
1164  unsigned int capacitor[Tile::MAX_MINIDRAWER] = {0};
1165 
1166  uint32_t bcid[Tile::MAX_MINIDRAWER] = {0};
1167  uint32_t l1id[Tile::MAX_MINIDRAWER] = {0};
1168 
1169  uint32_t ecr[Tile::MAX_MINIDRAWER] = {0};
1170  uint32_t bcr[Tile::MAX_MINIDRAWER] = {0};
1171 
1172  uint32_t fragmentID[Tile::MAX_MINIDRAWER] = {0};
1173  uint32_t packetVersion[Tile::MAX_MINIDRAWER] = {0};
1174 
1175  int version = 0;
1176 
1177  int mdFragmentSize = (*data) & 0xFFFF;
1178  int sampleNumber = mdFragmentSize / Tile::MAX_MINIDRAWER_CHAN;
1179 
1180  std::vector<std::vector<std::vector<float>>> samples(Tile::MAX_GAIN,
1181  std::vector<std::vector<float>>(Tile::MAX_CHAN,
1182  std::vector<float>(sampleNumber)));
1183 
1184  const uint32_t* const end_data = data + size;
1185  while (data < end_data) {
1186  if (*data == 0x12345678 ) {
1187  mdFragmentSize = (*(data - 2)) & 0xFFFF;
1188 
1189  if ((++data < end_data)) {
1190 
1191  version = (((*data >> 16) & 0xFFFF) == 0) ? 1 : 0;
1192  int mdSizeOverhead = (version == 0) ? 10 : 11;
1193  int delta = mdFragmentSize - (sampleNumber * Tile::MAX_MINIDRAWER_CHAN + mdSizeOverhead);
1194  if (delta != 0) {
1195  ATH_MSG_WARNING( "FRAG6: Unexpected MD fragment size " << mdFragmentSize << " => "
1196  << sampleNumber << " samples will be unpacked and last "
1197  << delta << " words will be ignored ");
1198  }
1199 
1200  unsigned int miniDrawer = -1;
1201 
1202  // check trailer
1203  const uint32_t* trailer = data + mdFragmentSize - 4;
1204  if (trailer < end_data && *trailer == 0x87654321) {
1205 
1206  unsigned int paramsSize = 3;
1207  if (version == 0) {
1208  unsigned int fragSize = *data & 0xFF;
1209  paramsSize = (*data >> 8 ) & 0xFF;
1210 
1211  miniDrawer = *(data + 4) & 0xFF;
1212 
1213  moduleID[miniDrawer] = (*data >> 16) & 0xFF;
1214  runType[miniDrawer] = (*data >> 24) & 0xFF;
1215  if (fragSize != sampleNumber * Tile::MAX_MINIDRAWER_CHAN) {
1216  ATH_MSG_WARNING("FRAG6: Minidrawer [" << miniDrawer
1217  << "] has unexpected fragment size: " << fragSize
1218  << " correct value for " << sampleNumber
1219  << " samples is " << sampleNumber * Tile::MAX_MINIDRAWER_CHAN);
1220  }
1221 
1222  if (paramsSize == 3){
1223  runNumber[miniDrawer] = *(++data);
1224 
1225  pedestalLo[miniDrawer] = *(++data) & 0xFFF;
1226  pedestalHi[miniDrawer] = (*data >> 12 ) & 0xFFF;
1227 
1228  chargeInjected[miniDrawer] = *(++data) & 0xFFF;
1229  timeInjected[miniDrawer] = (*data >> 12) & 0xFF;
1230  capacitor[miniDrawer] = (*data >> 20) & 0x1;
1231  } else {
1232 
1233  ATH_MSG_WARNING("FRAG6: Minidrawer [" << miniDrawer
1234  << "] has unexpected number of parameter words: " << paramsSize
1235  << " => ignore them !!!");
1236  data += paramsSize;
1237  }
1238 
1239  bcid[miniDrawer] = (*(++data) >> 16) & 0xFFFF;
1240  l1id[miniDrawer] = *(++data) & 0xFFFFFF;
1241  ecr[miniDrawer] = (*data >> 24) & 0xFF;
1242 
1243  } else {
1244 
1245  miniDrawer = *(data + 1) & 0xFF;
1246 
1247  packetVersion[miniDrawer] = (*data) & 0xFF;
1248  fragmentID[miniDrawer] = (*data >> 8) & 0xFF;
1249 
1250  bcid[miniDrawer] = (*(++data) >> 8) & 0xFFF;
1251  moduleID[miniDrawer] = (*data >> 20) & 0xFFF;
1252 
1253  l1id[miniDrawer] = *(++data) & 0xFFFFFF;
1254  ecr[miniDrawer] = (*data >> 24) & 0xFF;
1255 
1256  bcr[miniDrawer] = *(++data);
1257 
1258 
1259  if (packetVersion[miniDrawer] == 1) {
1260  pedestalLo[miniDrawer] = *(++data) & 0xFFF;
1261  pedestalHi[miniDrawer] = (*data >> 12 ) & 0xFFF;
1262  runType[miniDrawer] = (*data >> 24) & 0xFF;
1263 
1264  runNumber[miniDrawer] = *(++data);
1265  } else {
1266  runNumber[miniDrawer] = *(++data);
1267 
1268  pedestalLo[miniDrawer] = *(++data) & 0xFFF;
1269  pedestalHi[miniDrawer] = (*data >> 12 ) & 0xFFF;
1270  runType[miniDrawer] = (*data >> 24) & 0xFF;
1271  }
1272 
1273  chargeInjected[miniDrawer] = *(++data) & 0xFFF;
1274  timeInjected[miniDrawer] = (*data >> 12) & 0xFF;
1275  capacitor[miniDrawer] = (*data >> 20) & 0x1;
1276  }
1277 
1278  if (msgLvl(MSG::VERBOSE)) {
1279  msg(MSG::VERBOSE) << "FRAG6: Found MD[" << miniDrawer << "] fragment"
1280  << ", Run type: " << runType[miniDrawer]
1281  << ", Module ID: " << moduleID[miniDrawer]
1282  << ", BCID: " << bcid[miniDrawer]
1283  << ", L1ID: " << l1id[miniDrawer]
1284  << ", ECR: " << ecr[miniDrawer];
1285  if (version) {
1286  msg(MSG::VERBOSE) << ", BCR: " << bcr[miniDrawer]
1287  << ", Packet version: " << packetVersion[miniDrawer]
1288  << ", Fragment ID: " << fragmentID[miniDrawer];
1289  }
1290 
1291  msg(MSG::VERBOSE) << endmsg;
1292 
1293  if (paramsSize == 3) {
1294  msg(MSG::VERBOSE) << "FRAG6: MD[" << miniDrawer << "] Parameters:"
1295  << " Run number: " << runNumber[miniDrawer]
1296  << ", Ppedestal Lo: " << pedestalLo[miniDrawer]
1297  << ", Ppedestal Hi: " << pedestalHi[miniDrawer]
1298  << ", Charge injected: " << chargeInjected[miniDrawer]
1299  << ", Time injected: " << timeInjected[miniDrawer]
1300  << ", Capacitor: " << capacitor[miniDrawer] << endmsg;
1301  }
1302  }
1303 
1304  const uint16_t* sample = (const uint16_t *) (++data);
1305 
1306  for (int gain = 1; gain > -1; --gain) { // HG seems to be first
1307  int start_channel(miniDrawer * Tile::MAX_MINIDRAWER_CHAN);
1308  int end_channel(start_channel + Tile::MAX_MINIDRAWER_CHAN);
1309  for (int channel = start_channel; channel < end_channel; ++channel) {
1310 
1311  for (int samplesIdx = 0; samplesIdx<sampleNumber; ++samplesIdx) {
1312  samples[gain][channel][samplesIdx] = (*sample & 0x0FFF);
1313  ++sample;
1314  }
1315 
1316  }
1317  }
1318 
1319  data = ++trailer;
1320 
1321  } else {
1322  ATH_MSG_WARNING("FRAG6: Not found correct MD[" << miniDrawer << "] fragment trailer: => skip it!!!");
1323  }
1324  }
1325  } else {
1326  ++data;
1327  }
1328  }
1329 
1330  pDigits.reserve(Tile::MAX_GAIN * Tile::MAX_CHAN);
1331 
1332  // always two gains
1333  for (unsigned int gain = 0; gain < Tile::MAX_GAIN; ++gain) {
1334  // always 48 channels
1335  for (unsigned int channel = 0; channel < Tile::MAX_CHAN; ++channel) {
1336  int ch1 = (remap) ? chmap[channel] : channel;
1337 
1338  adcID = m_tileHWID->adc_id(drawerID, ch1, gain);
1339  std::vector<float> digiVec(&samples[gain][channel][0], &samples[gain][channel][sampleNumber]);
1340  pDigits.push_back(new TileDigits(adcID, digiVec));
1341 
1342  ATH_MSG_VERBOSE("FRAG6: " << (std::string) *(pDigits.back()));
1343  }
1344  if (remap) std::sort(pDigits.end() - Tile::MAX_CHAN, pDigits.end(), chan_order);
1345  }
1346 
1347  digitsMetaData[1].insert(digitsMetaData[1].end(), &l1id[0], &l1id[Tile::MAX_MINIDRAWER]);
1348  digitsMetaData[1].insert(digitsMetaData[1].end(), &bcid[0], &bcid[Tile::MAX_MINIDRAWER]);
1349  digitsMetaData[1].insert(digitsMetaData[1].end(), &moduleID[0], &moduleID[Tile::MAX_MINIDRAWER]);
1350  digitsMetaData[1].insert(digitsMetaData[1].end(), &runType[0], &runType[Tile::MAX_MINIDRAWER]);
1351  digitsMetaData[1].insert(digitsMetaData[1].end(), &runNumber[0], &runNumber[Tile::MAX_MINIDRAWER]);
1352  digitsMetaData[1].insert(digitsMetaData[1].end(), &pedestalLo[0], &pedestalLo[Tile::MAX_MINIDRAWER]);
1353  digitsMetaData[1].insert(digitsMetaData[1].end(), &pedestalHi[0], &pedestalHi[Tile::MAX_MINIDRAWER]);
1354  digitsMetaData[1].insert(digitsMetaData[1].end(), &chargeInjected[0], &chargeInjected[Tile::MAX_MINIDRAWER]);
1355  digitsMetaData[1].insert(digitsMetaData[1].end(), &timeInjected[0], &timeInjected[Tile::MAX_MINIDRAWER]);
1356  digitsMetaData[1].insert(digitsMetaData[1].end(), &capacitor[0], &capacitor[Tile::MAX_MINIDRAWER]);
1357  digitsMetaData[1].insert(digitsMetaData[1].end(), &ecr[0], &ecr[Tile::MAX_MINIDRAWER]);
1358  if (version) {
1359  digitsMetaData[1].insert(digitsMetaData[1].end(), &bcr[0], &bcr[Tile::MAX_MINIDRAWER]);
1360  digitsMetaData[1].insert(digitsMetaData[1].end(), &packetVersion[0], &packetVersion[Tile::MAX_MINIDRAWER]);
1361  digitsMetaData[1].insert(digitsMetaData[1].end(), &fragmentID[0], &fragmentID[Tile::MAX_MINIDRAWER]);
1362  }
1363 }

◆ unpack_fragA()

void TileROD_Decoder::unpack_fragA ( uint32_t  version,
RawChannelMetaData_t &  rawchannelMetaData,
const uint32_t *  p,
pRwChVec &  pChannel,
int  fragID,
int  demoType 
) const
private

unpack_fragA decodes tile subfragment type 0XA.

This subfragment contains data quality checks.

Definition at line 1365 of file TileROD_Decoder.cxx.

1369  {
1370  // second word is frag ID and frag type
1371  int size = *(p);
1372  p += 2; // 2 words so far
1373 
1374  unsigned int w;
1375 
1376  // Global CRC
1377  w = (*p);
1378  rawchannelMetaData[0].push_back(w & 0xFFFF);
1379  if (w >> 31 & 0x1) //most significant bit is 1. It means that it is a fragment containing the DSP BCID
1380  rawchannelMetaData[0].push_back((w >> 16) & 0x7FFF); //DSP BCID
1381  else
1382  rawchannelMetaData[0].push_back(0xDEAD); //0xDEAD if it is not filled
1383  ++p;
1384 
1385  if (drawer_type == 2) {
1386  ATH_MSG_WARNING("Demo->Legacy remapping for Ext.Barrel not yet implemented for DQ fragment");
1387  }
1388 
1389  for (int i = 0; i < (size - 4); ++i) {
1390  w = (*p);
1391  rawchannelMetaData[i + 1].push_back(w & 0xFFFF);
1392  rawchannelMetaData[i + 1].push_back(w >> 16);
1393  ++p;
1394  }
1395 
1396  return;
1397 }

◆ unpack_fragAHLT()

void TileROD_Decoder::unpack_fragAHLT ( uint32_t  version,
const uint32_t *  p,
uint16_t  rob_bcid,
uint16_t &  mask,
int  fragID,
int  demoType 
) const
private

unpack_fragAHLT decodes tile subfragment type 0XA.

This subfragment contains data quality checks.

Definition at line 1399 of file TileROD_Decoder.cxx.

1400  {
1401  // first word is full frag size, including header
1402  int size = *(p);
1403  if (size < 9) return;
1404 
1405  // second word is frag ID (0x100-0x4ff) and frag type
1406  uint16_t frag = (*(++p)) & 0xfff;
1407 
1408  const uint16_t* w = reinterpret_cast<const uint16_t*> (++p); // Jump to first DQ word
1409  /* order of 16bit DQ words in DQ fragment
1410  ---------------------
1411  | Global CRC
1412  | DSP BCID
1413  | BCID checks
1414  | Mem parity err
1415  | Single strobe err
1416  | Double strobe err
1417  | Head format err
1418  | Head parity err
1419  | Sample format err
1420  | Sample parity err
1421  | FE chip mask err
1422  | ROD chip mask err
1423  ---------------------
1424  */
1425  if ((*w++) & 0x1) {
1426  mask = 0xffff;
1427  return;
1428  } // bad CRC
1429  mask = *w++; // BCID in DSP, can be zero (i.e. not set)
1430  if (mask != rob_bcid && mask > 0) {
1431  mask = 0xffff;
1432  return;
1433  } // BCIDs do not match - wrong event
1434 
1435  mask = *w++; // bcid checks, one bit per DMU
1436  if (mask & 0x0002) {
1437  mask = 0xffff;
1438  return;
1439  } // second DMU is bad - everything is bad
1440 
1441  if (drawer_type == 2) {
1442  ATH_MSG_WARNING("Demo->Legacy remapping for Ext.Barrel not yet implemented for DQ fragment");
1443  }
1444 
1445  if (mask & 0x00F0) { // at least one error in second motherboard, where we don't expect errors in ext.barrel
1446  uint16_t BCIDerr = mask;
1447  int n_badMB = 0;
1448  if (frag > 0x2FF) { // do not count non-existing DMUs in EB
1449  if ((frag == 0x30E) || frag == 0x411) {
1450  BCIDerr &= 0x3cff;
1451  } else {
1452  BCIDerr &= 0x3cfe;
1453  }
1454  }
1455  while (BCIDerr) {
1456  if (BCIDerr & 0xF) ++n_badMB;
1457  BCIDerr >>= 4;
1458  }
1459  if (n_badMB == 4) { // BCID errors in all 4 motherboards - assume that all DMUs are bad
1460  mask = 0xffff;
1461  return;
1462  }
1463  }
1464 
1465  mask |= *w++; // memory
1466 
1467  w += 2; // Ignore 2 guys - strobe
1468  uint16_t fe_mask = *w++; // head format
1469  fe_mask |= *w++; // head parity
1470  fe_mask |= *w++; // sample format
1471  fe_mask |= *w++; // sample parity
1472 
1473  if (fe_mask) { // something is wrong in data format - FE mask can not be used
1474  mask |= fe_mask;
1475  w++;
1476  } else { // real FE mask is valid only if there are no format or parity errors
1477  fe_mask = *w++;
1478  if ((frag > 0x2FF)) { // I am in extended barrel
1479  if ((frag == 0x30E) || frag == 0x411) fe_mask <<= 1; // shift by one DMU in EBA15 EBC18
1480  fe_mask = (fe_mask & 0xFF) | ((fe_mask & 0xF00) << 2); // shift upper half by two DMUs
1481  }
1482  mask |= ~fe_mask; // fe chip mask (inverted logic!)
1483  }
1484 
1485  mask |= ~(*w); // rod chip mask (inverted logic!)
1486 
1487  return;
1488 }

◆ updateAmpThreshold()

void TileROD_Decoder::updateAmpThreshold ( int  run = -1)
private

Definition at line 60 of file TileROD_Decoder.cxx.

60  {
61  if (m_ampMinThresh_MeV < 0 || m_ampMinThresh_pC < 0){
62  if (run < 0) run = m_fullTileRODs;
63  if (run >= 4444444) { // FIXME: should put correct run number here, once it is known
64  m_ampMinThresh_pC = m_ampMinThresh * (25. / 4095.);
65  m_ampMinThresh_MeV = m_ampMinThresh * (25. / 4095. / 1.05 * 1000.);
66  } else {
67  m_ampMinThresh_pC = m_ampMinThresh * (12.5 / 1023.);
68  m_ampMinThresh_MeV = m_ampMinThresh * (12.5 / 1023. / 1.05 * 1000.);
69  }
70  }
71  ATH_MSG_DEBUG("in TileROD_Decoder::updateAmpThreshold, m_ampMinThresh = " << m_ampMinThresh);
72  ATH_MSG_DEBUG("in TileROD_Decoder::updateAmpThreshold, m_ampMinThresh_MeV = " << m_ampMinThresh_MeV);
73  ATH_MSG_DEBUG("in TileROD_Decoder::updateAmpThreshold, m_ampMinThresh_pC = " << m_ampMinThresh_pC);
74 }

◆ updateVHKA()

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

Definition at line 308 of file AthCommonDataStore.h.

308  {
309  // debug() << "updateVHKA for property " << p.name() << " " << p.toString()
310  // << " size: " << m_vhka.size() << endmsg;
311  for (auto &a : m_vhka) {
312  std::vector<SG::VarHandleKey*> keys = a->keys();
313  for (auto k : keys) {
314  k->setOwner(this);
315  }
316  }
317  }

Friends And Related Function Documentation

◆ TileHid2RESrcID

friend class TileHid2RESrcID
friend

Definition at line 229 of file TileROD_Decoder.h.

Member Data Documentation

◆ ATLAS_THREAD_SAFE [1/2]

std::vector<uint32_t> m_OFWeights [4 * TileCalibUtils::MAX_DRAWERIDX] TileROD_Decoder::ATLAS_THREAD_SAFE
mutableprivate

Definition at line 569 of file TileROD_Decoder.h.

◆ ATLAS_THREAD_SAFE [2/2]

std::atomic<const uint32_t*> m_OFPtrs [4 * TileCalibUtils::MAX_DRAWERIDX] TileROD_Decoder::ATLAS_THREAD_SAFE
mutableprivate

Definition at line 572 of file TileROD_Decoder.h.

◆ m_allowedTimeMax

Gaudi::Property<float> TileROD_Decoder::m_allowedTimeMax
private
Initial value:
{this, "AllowedTimeMax", 50.0,
"Set amplitude to zero if time is above allowed time maximum"}

Definition at line 516 of file TileROD_Decoder.h.

◆ m_allowedTimeMin

Gaudi::Property<float> TileROD_Decoder::m_allowedTimeMin
private
Initial value:
{this, "AllowedTimeMin", -50.0,
"Set amplitude to zero if time is below allowed time minimum"}

Definition at line 514 of file TileROD_Decoder.h.

◆ m_ampMinThresh

Gaudi::Property<float> TileROD_Decoder::m_ampMinThresh
private
Initial value:
{this, "AmpMinForAmpCorrection", 15.0,
"Correct amplitude if it's above amplitude threshold (in ADC counts)"}

Definition at line 520 of file TileROD_Decoder.h.

◆ m_ampMinThresh_MeV

float TileROD_Decoder::m_ampMinThresh_MeV
private

correct amplitude if it's above amplitude threshold (in MeV)

Definition at line 564 of file TileROD_Decoder.h.

◆ m_ampMinThresh_pC

float TileROD_Decoder::m_ampMinThresh_pC
private

correct amplitude if it's above amplitude threshold (in pC)

Definition at line 563 of file TileROD_Decoder.h.

◆ m_cablingSvc

ServiceHandle<TileCablingSvc> TileROD_Decoder::m_cablingSvc
private
Initial value:
{ this,
"TileCablingSvc", "TileCablingSvc", "The Tile cabling service"}

Definition at line 559 of file TileROD_Decoder.h.

◆ m_calibrateEnergy

Gaudi::Property<bool> TileROD_Decoder::m_calibrateEnergy {this, "calibrateEnergy", true, "Convert ADC counts to pCb for RawChannels"}
private

Definition at line 534 of file TileROD_Decoder.h.

◆ m_checkMaskedDrawers

bool TileROD_Decoder::m_checkMaskedDrawers
private

Definition at line 603 of file TileROD_Decoder.h.

◆ m_d2Bytes

TileDigits2Bytes TileROD_Decoder::m_d2Bytes
private

Definition at line 502 of file TileROD_Decoder.h.

◆ m_demoChanEB

std::vector<int> TileROD_Decoder::m_demoChanEB
private

Definition at line 607 of file TileROD_Decoder.h.

◆ m_demoChanLB

std::vector<int> TileROD_Decoder::m_demoChanLB
private

Definition at line 606 of file TileROD_Decoder.h.

◆ m_demoFragIDs

Gaudi::Property<std::vector<int> > TileROD_Decoder::m_demoFragIDs
private
Initial value:
{this,
"DemoFragIDs", {}, "List of Tile frag IDs with new electronics (demonstrator)"}

Definition at line 530 of file TileROD_Decoder.h.

◆ m_detStore

StoreGateSvc_t AthCommonDataStore< AthCommonMsg< AlgTool > >::m_detStore
privateinherited

Pointer to StoreGate (detector store by default)

Definition at line 393 of file AthCommonDataStore.h.

◆ m_ErrorCounter

std::atomic<int> TileROD_Decoder::m_ErrorCounter
mutableprivate

Definition at line 593 of file TileROD_Decoder.h.

◆ m_evtStore

StoreGateSvc_t AthCommonDataStore< AthCommonMsg< AlgTool > >::m_evtStore
privateinherited

Pointer to StoreGate (event store by default)

Definition at line 390 of file AthCommonDataStore.h.

◆ m_fullTileRODs

Gaudi::Property<unsigned int> TileROD_Decoder::m_fullTileRODs
private
Initial value:
{this, "fullTileMode", 320000,
"Run from which to take the cabling (for the moment, either 320000 - full 2017 mode (default) - or 0 - 2016 mode)"}

Definition at line 527 of file TileROD_Decoder.h.

◆ m_hashFunc

TileFragHash TileROD_Decoder::m_hashFunc
private

Definition at line 584 of file TileROD_Decoder.h.

◆ m_hid2re

TileHid2RESrcID* TileROD_Decoder::m_hid2re
private

Definition at line 595 of file TileROD_Decoder.h.

◆ m_hid2reHLT

TileHid2RESrcID* TileROD_Decoder::m_hid2reHLT
private

Definition at line 596 of file TileROD_Decoder.h.

◆ m_hid2RESrcIDKey

SG::ReadCondHandleKey<TileHid2RESrcID> TileROD_Decoder::m_hid2RESrcIDKey
private
Initial value:
{this,
"TileHid2RESrcID", "TileHid2RESrcID", "TileHid2RESrcID key"}

Definition at line 542 of file TileROD_Decoder.h.

◆ m_HidMutex

std::mutex TileROD_Decoder::m_HidMutex
mutableprivate

Definition at line 578 of file TileROD_Decoder.h.

◆ m_ignoreFrag4HLT

Gaudi::Property<bool> TileROD_Decoder::m_ignoreFrag4HLT {this, "ignoreFrag4HLT", false, "Ignore frag4 HLT"}
private

Definition at line 511 of file TileROD_Decoder.h.

◆ m_L2Builder

ToolHandle<TileL2Builder> TileROD_Decoder::m_L2Builder
private
Initial value:
{this,
"TileL2Builder", "", "Tile L2 builder tool"}

Definition at line 553 of file TileROD_Decoder.h.

◆ m_list_of_masked_drawers

std::vector<int> TileROD_Decoder::m_list_of_masked_drawers
private

Definition at line 598 of file TileROD_Decoder.h.

◆ m_mapMBTS

std::map<unsigned int, unsigned int> TileROD_Decoder::m_mapMBTS
private

Definition at line 588 of file TileROD_Decoder.h.

◆ m_maskBadDigits

Gaudi::Property<bool> TileROD_Decoder::m_maskBadDigits
private
Initial value:
{this, "maskBadDigits", false,
"Put -1 in digits vector for channels with bad BCID or CRC in unpack_frag0"}

Definition at line 536 of file TileROD_Decoder.h.

◆ m_maxChannels

unsigned int TileROD_Decoder::m_maxChannels
private

Definition at line 602 of file TileROD_Decoder.h.

◆ m_maxErrorPrint

Gaudi::Property<int> TileROD_Decoder::m_maxErrorPrint {this, "MaxErrorPrint", 1000, "Maximum error messages to print"}
private

Definition at line 540 of file TileROD_Decoder.h.

◆ m_maxWarningPrint

Gaudi::Property<int> TileROD_Decoder::m_maxWarningPrint {this, "MaxWarningPrint", 1000, "Maximum warning messages to print"}
private

Definition at line 539 of file TileROD_Decoder.h.

◆ m_MBTS_channel

int TileROD_Decoder::m_MBTS_channel = 0
private

Definition at line 590 of file TileROD_Decoder.h.

◆ m_of2Default

bool TileROD_Decoder::m_of2Default
private

Definition at line 585 of file TileROD_Decoder.h.

◆ m_OFWeightMutex

std::mutex TileROD_Decoder::m_OFWeightMutex
mutableprivate

Definition at line 575 of file TileROD_Decoder.h.

◆ m_rc2bytes

TileRawChannel2Bytes TileROD_Decoder::m_rc2bytes
private

Definition at line 501 of file TileROD_Decoder.h.

◆ m_rc2bytes2

TileRawChannel2Bytes2 TileROD_Decoder::m_rc2bytes2
private

Definition at line 500 of file TileROD_Decoder.h.

◆ m_rc2bytes4

TileRawChannel2Bytes4 TileROD_Decoder::m_rc2bytes4
private

Definition at line 499 of file TileROD_Decoder.h.

◆ m_rc2bytes5

TileRawChannel2Bytes5 TileROD_Decoder::m_rc2bytes5
private

Definition at line 498 of file TileROD_Decoder.h.

◆ m_runPeriod

int TileROD_Decoder::m_runPeriod
private

Definition at line 604 of file TileROD_Decoder.h.

◆ m_Rw2Cell

std::vector<int> TileROD_Decoder::m_Rw2Cell[4]
private

Definition at line 581 of file TileROD_Decoder.h.

◆ m_Rw2Pmt

std::vector<int> TileROD_Decoder::m_Rw2Pmt[4]
private

Definition at line 582 of file TileROD_Decoder.h.

◆ m_suppressDummyFragments

Gaudi::Property<bool> TileROD_Decoder::m_suppressDummyFragments {this, "suppressDummyFragments", false, "Suppress dummy fragments"}
private

Definition at line 535 of file TileROD_Decoder.h.

◆ m_tileBadChanTool

ToolHandle<ITileBadChanTool> TileROD_Decoder::m_tileBadChanTool
private
Initial value:
{this,
"TileBadChanTool", "TileBadChanTool", "Tile bad channel tool"}

Definition at line 551 of file TileROD_Decoder.h.

◆ m_tileCondToolOfcCool

ToolHandle<TileCondToolOfcCool> TileROD_Decoder::m_tileCondToolOfcCool
private
Initial value:
{this,
"TileCondToolOfcCool", "TileCondToolOfcCool", "Tile OFC tool"}

Definition at line 547 of file TileROD_Decoder.h.

◆ m_tileHWID

const TileHWID* TileROD_Decoder::m_tileHWID = nullptr
private

Definition at line 504 of file TileROD_Decoder.h.

◆ m_tileToolEmscale

ToolHandle<TileCondToolEmscale> TileROD_Decoder::m_tileToolEmscale
private
Initial value:
{this,
"TileCondToolEmscale", "TileCondToolEmscale", "Tile EM scale calibration tool"}

Definition at line 549 of file TileROD_Decoder.h.

◆ m_tileToolTiming

ToolHandle<TileCondToolTiming> TileROD_Decoder::m_tileToolTiming
private
Initial value:
{this,
"TileCondToolTiming", "TileCondToolTiming", "Tile timing tool"}

Definition at line 545 of file TileROD_Decoder.h.

◆ m_timeMaxThresh

Gaudi::Property<float> TileROD_Decoder::m_timeMaxThresh
private
Initial value:
{this, "TimeMaxForAmpCorrection", 12.5,
"Correct amplitude is time is below time maximum threshold"}

Definition at line 524 of file TileROD_Decoder.h.

◆ m_timeMinThresh

Gaudi::Property<float> TileROD_Decoder::m_timeMinThresh
private
Initial value:
{this, "TimeMinForAmpCorrection", -12.5,
"Correct amplitude is time is above time minimum threshold"}

Definition at line 522 of file TileROD_Decoder.h.

◆ m_useFrag0

Gaudi::Property<bool> TileROD_Decoder::m_useFrag0 {this, "useFrag0", true, "Use frag0"}
private

Definition at line 506 of file TileROD_Decoder.h.

◆ m_useFrag1

Gaudi::Property<bool> TileROD_Decoder::m_useFrag1 {this, "useFrag1", true, "Use frag1"}
private

Definition at line 507 of file TileROD_Decoder.h.

◆ m_useFrag4

Gaudi::Property<bool> TileROD_Decoder::m_useFrag4 {this, "useFrag4", true, "User frag4"}
private

Definition at line 508 of file TileROD_Decoder.h.

◆ m_useFrag5Raw

Gaudi::Property<bool> TileROD_Decoder::m_useFrag5Raw {this, "useFrag5Raw", false, "Use frag5 raw"}
private

Definition at line 509 of file TileROD_Decoder.h.

◆ m_useFrag5Reco

Gaudi::Property<bool> TileROD_Decoder::m_useFrag5Reco {this, "useFrag5Reco", false, "Use frag5 reco"}
private

Definition at line 510 of file TileROD_Decoder.h.

◆ m_varHandleArraysDeclared

bool AthCommonDataStore< AthCommonMsg< AlgTool > >::m_varHandleArraysDeclared
privateinherited

Definition at line 399 of file AthCommonDataStore.h.

◆ m_verbose

Gaudi::Property<bool> TileROD_Decoder::m_verbose {this, "VerboseOutput", false, "Print extra information"}
private

Definition at line 533 of file TileROD_Decoder.h.

◆ m_vhka

std::vector<SG::VarHandleKeyArray*> AthCommonDataStore< AthCommonMsg< AlgTool > >::m_vhka
privateinherited

Definition at line 398 of file AthCommonDataStore.h.

◆ m_WarningCounter

std::atomic<int> TileROD_Decoder::m_WarningCounter
mutableprivate

Definition at line 592 of file TileROD_Decoder.h.

The documentation for this class was generated from the following files:
TileROD_Decoder::pDigiVec
std::vector< TileDigits * > pDigiVec
Definition: TileROD_Decoder.h:232
python.PyKernel.retrieve
def retrieve(aClass, aKey=None)
Definition: PyKernel.py:110
TileFastRawChannel::adc
unsigned int adc(void) const
Definition: TileFastRawChannel.h:67
TileROD_Decoder::m_WarningCounter
std::atomic< int > m_WarningCounter
Definition: TileROD_Decoder.h:592
LArNewCalib_Delay_OFC_Cali.Gain
Gain
Definition: LArNewCalib_Delay_OFC_Cali.py:81
bad
@ bad
Definition: SUSYToolsTester.cxx:95
TileROD_Decoder::unpack_frag2HLT
void unpack_frag2HLT(uint32_t version, uint32_t sizeOverhead, const uint32_t *p, FRwChVec &pChannel, int fragID, int demoType) const
unpack_frag2HLT decodes tile subfragment type 0x2 for the high level trigger (HLT).
Definition: TileROD_Decoder.cxx:3819
TileCell
Definition: TileCell.h:57
beamspotman.r
def r
Definition: beamspotman.py:676
RunTileTBMonitoring.fragID
fragID
Definition: RunTileTBMonitoring.py:212
CaloDetDescrElement::onl2
IdentifierHash onl2() const
cell online identifier 2
Definition: Calorimeter/CaloDetDescr/CaloDetDescr/CaloDetDescrElement.h:408
plotBeamSpotCompare.x1
x1
Definition: plotBeamSpotCompare.py:216
data
char data[hepevt_bytes_allocation_ATLAS]
Definition: HepEvt.cxx:11
Frag5_unpack_bin2reco
#define Frag5_unpack_bin2reco(unit, gain, amp_bin, amp, time_bin, time)
unpack_bin2reco
Definition: TileRawChannel2Bytes5.h:232
TileROD_Decoder::m_list_of_masked_drawers
std::vector< int > m_list_of_masked_drawers
Definition: TileROD_Decoder.h:598
TileCell::setTime_nonvirt
void setTime_nonvirt(float t)
Definition: TileCell.h:250
TileROD_Decoder::m_d2Bytes
TileDigits2Bytes m_d2Bytes
Definition: TileROD_Decoder.h:502
python.CaloRecoConfig.f
f
Definition: CaloRecoConfig.py:127
TileROD_Decoder::get_correct_data
std::vector< uint32_t > get_correct_data(const uint32_t *p) const
Definition: TileROD_Decoder.cxx:1083
TileCell::setTime
virtual void setTime(float t) override final
set cell time, reset timeDiff
Definition: TileCell.h:257
TileROD_Decoder::unpack_frag41
void unpack_frag41(uint32_t collid, uint32_t version, const uint32_t *p, int size, TileRawChannelCollection &coll) const
Definition: TileROD_Decoder.cxx:4758
ReadOfcFromCool.phase
phase
Definition: ReadOfcFromCool.py:127
TileROD_Decoder::NO_FRAG
@ NO_FRAG
Definition: TileROD_Decoder.h:226
TileLaserObject::setVersion
void setVersion(const int version)
Definition: TileLaserObject.h:204
ATH_MSG_FATAL
#define ATH_MSG_FATAL(x)
Definition: AthMsgStreamMacros.h:34
DataModel_detail::const_iterator
Const iterator class for DataVector/DataList.
Definition: DVLIterator.h:82
COMMON_TDC2_FRAG
#define COMMON_TDC2_FRAG
Definition: TileTBFrag.h:47
sendEI_SPB.ch
ch
Definition: sendEI_SPB.py:35
Frag5_unpack_reco_bin
#define Frag5_unpack_reco_bin(w, code, gain, amp, time)
unpack_reco_bin
Definition: TileRawChannel2Bytes5.h:228
TileROD_Decoder::m_Rw2Pmt
std::vector< int > m_Rw2Pmt[4]
Definition: TileROD_Decoder.h:582
TileROD_Decoder::unpack_frag3HLT
void unpack_frag3HLT(uint32_t version, uint32_t sizeOverhead, const uint32_t *p, FRwChVec &pChannel, int fragID, int demoType) const
unpack_frag3HLT decodes tile subfragment type 0x3 for the high level trigger (HLT).
Definition: TileROD_Decoder.cxx:3861
python.SystemOfUnits.s
int s
Definition: SystemOfUnits.py:131
chan_order
bool chan_order(TileRawData *a, TileRawData *b)
Definition: TileROD_Decoder.cxx:31
TileROD_Decoder::m_HidMutex
std::mutex m_HidMutex
Definition: TileROD_Decoder.h:578
TileRawChannel2Bytes4::gain
int gain(unsigned int w) const
Returns the gain unpacked from the single 32-bit word w.
Definition: TileRawChannel2Bytes4.h:97
TileROD_Decoder::delete_vec
void delete_vec(std::vector< ELEMENT * > &v) const
Definition: TileROD_Decoder.h:686
qbitfun
unsigned char qbitfun(float t, float a, float b)
Definition: TileROD_Decoder.cxx:34
get_generator_info.result
result
Definition: get_generator_info.py:21
TileFastRawChannel::time
float time(void) const
Definition: TileFastRawChannel.h:75
python.SystemOfUnits.m
int m
Definition: SystemOfUnits.py:91
ReadCellNoiseFromCool.cell
cell
Definition: ReadCellNoiseFromCool.py:53
python.PerfMonSerializer.p
def p
Definition: PerfMonSerializer.py:743
xAOD::word1
word1
Definition: eFexEMRoI_v1.cxx:82
checkCoolLatestUpdate.dg
dg
Definition: checkCoolLatestUpdate.py:9
PowhegControl_ttHplus_NLO.ss
ss
Definition: PowhegControl_ttHplus_NLO.py:83
plotting.yearwise_efficiency.channel
channel
Definition: yearwise_efficiency.py:28
ADD_FADC_FRAG
#define ADD_FADC_FRAG
Definition: TileTBFrag.h:29
vtune_athena.format
format
Definition: vtune_athena.py:14
SG::ReadCondHandle
Definition: ReadCondHandle.h:44
ATH_MSG_INFO
#define ATH_MSG_INFO(x)
Definition: AthMsgStreamMacros.h:31
TileDigits2Bytes::setVerbose
void setVerbose(bool verbose)
Definition: TileDigits2Bytes.h:92
TileROD_Decoder::m_tileToolTiming
ToolHandle< TileCondToolTiming > m_tileToolTiming
Definition: TileROD_Decoder.h:545
CaloCellPos2Ntuple.int
int
Definition: CaloCellPos2Ntuple.py:24
TileRawChannel2Bytes::setVerbose
void setVerbose(bool verbose)
Sets verbose mode true or false.
Definition: TileRawChannel2Bytes.h:64
TileOfcWeightsStruct::g
float g[99]
Definition: ITileCondToolOfc.h:14
TileDigits2Bytes::getBCID
int getBCID(const uint32_t *data, int chipCount, int wordsPerChip) const
Get BCID from Chip header, bit 0-11.
Definition: TileDigits2Bytes.cxx:65
TileRawChannel2Bytes::amplitude
float amplitude(short i) const
Returns the non calibrated amplitude unpacked from a single 16-bit word w.
Definition: TileRawChannel2Bytes.h:95
python.ExitCodes.ALL_OK
int ALL_OK
successful run
Definition: ExitCodes.py:10
chan_order1
bool chan_order1(const TileFastRawChannel &a, const TileFastRawChannel &b)
Definition: TileROD_Decoder.cxx:32
xAOD::uint32_t
setEventNumber uint32_t
Definition: EventInfo_v1.cxx:127
TileFastRawChannel::channel
unsigned int channel(void) const
Definition: TileFastRawChannel.h:63
TileRawChannel2Bytes5::unpack
void unpack(const uint32_t *ofw, const uint32_t *ptr_frag, TileChanData *ChanData) const
Definition: TileRawChannel2Bytes5.cxx:672
eta
Scalar eta() const
pseudorapidity method
Definition: AmgMatrixBasePlugin.h:79
TileRawChannel2Bytes5::TileChanData::time
float time
Definition: TileRawChannel2Bytes5.h:65
TileRawChannel2Bytes5::TileChanData::gain
int gain
Definition: TileRawChannel2Bytes5.h:61
AthCommonDataStore::declareProperty
Gaudi::Details::PropertyBase & declareProperty(Gaudi::Property< T > &t)
Definition: AthCommonDataStore.h:145
Frag5_unpack_bin2sum
#define Frag5_unpack_bin2sum(unit, amp_bin)
unpack_bin2sum
Definition: TileRawChannel2Bytes5.h:240
TileROD_Decoder::m_ampMinThresh_MeV
float m_ampMinThresh_MeV
correct amplitude if it's above amplitude threshold (in MeV)
Definition: TileROD_Decoder.h:564
TileRawChannel2Bytes5::TileChanData
Definition: TileRawChannel2Bytes5.h:58
TileOfcWeightsStruct::w_c
float w_c[99]
Definition: ITileCondToolOfc.h:14
TileRawChannel2Bytes4::quality
float quality(unsigned int w) const
Returns the quality factor unpacked from the single 32-bit word w.
Definition: TileRawChannel2Bytes4.h:115
QUALITY_THRESHOLD
const float QUALITY_THRESHOLD
Definition: TileRawChannel2Bytes4.h:61
TileROD_Decoder::unpack_frag4
void unpack_frag4(uint32_t version, uint32_t sizeOverhead, unsigned int unit, RawChannelMetaData_t &rawchannelMetaData, const uint32_t *p, pRwChVec &pChannel, int fragID, int demoType) const
unpack_frag4 decodes tile subfragment type 0x4.
Definition: TileROD_Decoder.cxx:918
TileHid2RESrcID::setROD2ROBmap
void setROD2ROBmap(const std::vector< std::string > &ROD2ROB, MsgStream &log)
Definition: TileHid2RESrcID.cxx:172
ReadCalibFromCool.chmax
chmax
Definition: ReadCalibFromCool.py:488
plotBeamSpotCompare.x2
x2
Definition: plotBeamSpotCompare.py:218
TileROD_Decoder::data_size
uint32_t data_size(const ROBData *rob, uint32_t &error) const
Definition: TileROD_Decoder.h:620
TileFragHash::TYPE
TYPE
initialize
Definition: TileFragHash.h:33
CaloCondBlobAlgs_fillNoiseFromASCII.gain
gain
Definition: CaloCondBlobAlgs_fillNoiseFromASCII.py:110
DataType
OFFLINE_FRAGMENTS_NAMESPACE::PointerType DataType
Definition: RoIBResultByteStreamTool.cxx:25
CaloTime_fillDB.gain2
gain2
Definition: CaloTime_fillDB.py:357
TileROD_Decoder::m_runPeriod
int m_runPeriod
Definition: TileROD_Decoder.h:604
skel.it
it
Definition: skel.GENtoEVGEN.py:423
TileROD_Decoder::m_cablingSvc
ServiceHandle< TileCablingSvc > m_cablingSvc
Definition: TileROD_Decoder.h:559
TileROD_Decoder::m_tileHWID
const TileHWID * m_tileHWID
Definition: TileROD_Decoder.h:504
AthCommonDataStore< AthCommonMsg< AlgTool > >::m_evtStore
StoreGateSvc_t m_evtStore
Pointer to StoreGate (event store by default)
Definition: AthCommonDataStore.h:390
AthCommonDataStore< AthCommonMsg< AlgTool > >::m_vhka
std::vector< SG::VarHandleKeyArray * > m_vhka
Definition: AthCommonDataStore.h:398
TileROD_Decoder::m_rc2bytes2
TileRawChannel2Bytes2 m_rc2bytes2
Definition: TileROD_Decoder.h:500
PlotCalibFromCool.nchan
nchan
Definition: PlotCalibFromCool.py:564
AthCommonMsg< AlgTool >::msgLvl
bool msgLvl(const MSG::Level lvl) const
Definition: AthCommonMsg.h:30
TileROD_Decoder::m_L2Builder
ToolHandle< TileL2Builder > m_L2Builder
Definition: TileROD_Decoder.h:553
TileROD_Decoder::unpack_fragAHLT
void unpack_fragAHLT(uint32_t version, const uint32_t *p, uint16_t rob_bcid, uint16_t &mask, int fragID, int demoType) const
unpack_fragAHLT decodes tile subfragment type 0XA.
Definition: TileROD_Decoder.cxx:1399
TileROD_Decoder::unpack_frag5L2
bool unpack_frag5L2(uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
unpack_frag5L2 decodes tile subfragment type 0x5 and extract transverse energy from this fragment
Definition: TileROD_Decoder.cxx:4082
fmt
const char *const fmt
Definition: TripleGaussCollFit.cxx:84
TileROD_Decoder::m_of2Default
bool m_of2Default
Definition: TileROD_Decoder.h:585
COMMON_TOF_FRAG
#define COMMON_TOF_FRAG
Definition: TileTBFrag.h:45
Tile_Base_ID::HIGHGAIN
@ HIGHGAIN
Definition: Tile_Base_ID.h:57
TileROD_Decoder::unpack_frag40
void unpack_frag40(uint32_t collid, uint32_t version, const uint32_t *p, int size, TileDigitsCollection &coll) const
unpacking methods dedicated to the TMDB ROD format sub-fragments 0x40 0x41 0x42
Definition: TileROD_Decoder.cxx:4699
TileROD_Decoder::fillContainer_TileMuRcv_Decision
void fillContainer_TileMuRcv_Decision(const ROBData *rob, TileMuonReceiverContainer &v) const
Definition: TileROD_Decoder.cxx:4623
TileROD_Decoder::m_demoChanEB
std::vector< int > m_demoChanEB
Definition: TileROD_Decoder.h:607
vec
std::vector< size_t > vec
Definition: CombinationsGeneratorTest.cxx:12
COMMON_ADC1_FRAG
#define COMMON_ADC1_FRAG
Definition: TileTBFrag.h:43
TileFastRawChannel::quality
float quality(void) const
Definition: TileFastRawChannel.h:79
TileROD_Decoder::unpack_frag1
void unpack_frag1(uint32_t version, uint32_t sizeOverhead, DigitsMetaData_t &digitsMetaData, const uint32_t *p, pDigiVec &pDigits, int fragID, int demoType) const
unpack_frag1 decodes tile subfragment type 0x1.
Definition: TileROD_Decoder.cxx:551
TileROD_Decoder::fillCollectionL2
void fillCollectionL2(const ROBData *rob, TileL2Container &v) const
Definition: TileROD_Decoder.cxx:3080
read_hist_ntuple.t
t
Definition: read_hist_ntuple.py:5
TileROD_Decoder::unpack_frag4L2
bool unpack_frag4L2(uint32_t version, uint32_t sizeOverhead, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
unpack_frag4L2 decodes tile subfragment type 0x4 and extract transverse energy from this fragment
Definition: TileROD_Decoder.cxx:4037
ATH_MSG_VERBOSE
#define ATH_MSG_VERBOSE(x)
Definition: AthMsgStreamMacros.h:28
TileROD_Decoder::unpack_frag3
void unpack_frag3(uint32_t version, uint32_t sizeOverhead, const uint32_t *p, pRwChVec &pChannel, int fragID, int demoType) const
unpack_frag3 decodes tile subfragment type 0x3.
Definition: TileROD_Decoder.cxx:850
TileHid2RESrcID::printSpecial
void printSpecial(MsgStream &log)
Definition: TileHid2RESrcID.cxx:600
TileFragHash::Digitizer
@ Digitizer
Definition: TileFragHash.h:33
TileROD_Decoder::unpack_frag6
void unpack_frag6(uint32_t version, uint32_t sizeOverhead, DigitsMetaData_t &digitsMetaData, const uint32_t *p, pDigiVec &pDigits, int fragID, int demoType) const
unpack_frag6 decodes tile subfragment type 0x6.
Definition: TileROD_Decoder.cxx:1113
TileROD_Decoder::m_useFrag0
Gaudi::Property< bool > m_useFrag0
Definition: TileROD_Decoder.h:506
TileRawChannelUnit::PicoCoulombs
@ PicoCoulombs
Definition: TileRawChannelUnit.h:18
CaloCell::time
float time() const
get time (data member)
Definition: CaloCell.h:352
HWIdentifier
Definition: HWIdentifier.h:13
TileHWID::HIGHGAIN
@ HIGHGAIN
Definition: TileHWID.h:73
TileROD_Decoder::unpack_frag10
void unpack_frag10(uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
unpack_frag10 decodes tile subfragment type 0x10.
Definition: TileROD_Decoder.cxx:1490
TileFragHash::OptFilterDsp
@ OptFilterDsp
Definition: TileFragHash.h:34
LASER_OBJ_FRAG
#define LASER_OBJ_FRAG
TileROD_Decoder::printWarningCounter
void printWarningCounter(bool printIfNoWarning)
Definition: TileROD_Decoder.cxx:87
xAOD::int16_t
setScaleOne setStatusOne setSaturated int16_t
Definition: gFexGlobalRoI_v1.cxx:55
Trk::u
@ u
Enums for curvilinear frames.
Definition: ParamDefs.h:83
TileFragHash::OptFilterDspCompressed
@ OptFilterDspCompressed
Definition: TileFragHash.h:34
Example_ReadSampleNoise.drawer
drawer
Definition: Example_ReadSampleNoise.py:39
XMLtoHeader.count
count
Definition: XMLtoHeader.py:85
python.utils.AtlRunQueryLookup.mask
string mask
Definition: AtlRunQueryLookup.py:460
TileRawChannel2Bytes2::time
float time(unsigned int w) const
Returns the phase of the pulse in ns, unpacked from the single 32-bit word w.
Definition: TileRawChannel2Bytes2.h:104
TileROD_Decoder::unpack_frag5HLT
void unpack_frag5HLT(uint32_t version, uint32_t sizeOverhead, unsigned int unit, const uint32_t *p, FRwChVec &pChannel, int fragID, int demoType) const
unpack_frag5HLT decodes tile subfragment type 0x5 for the high level trigger (HLT).
Definition: TileROD_Decoder.cxx:3974
mergePhysValFiles.end
end
Definition: DataQuality/DataQualityUtils/scripts/mergePhysValFiles.py:93
TileROD_Decoder::TileHid2RESrcID
friend class TileHid2RESrcID
Definition: TileROD_Decoder.h:229
TileROD_Decoder::fillTileLaserObj
void fillTileLaserObj(const ROBData *rob, TileLaserObject &v) const
Definition: TileROD_Decoder.cxx:3302
AthCommonDataStore< AthCommonMsg< AlgTool > >::detStore
const ServiceHandle< StoreGateSvc > & detStore() const
The standard StoreGateSvc/DetectorStore Returns (kind of) a pointer to the StoreGateSvc.
Definition: AthCommonDataStore.h:95
TileCalibUtils::MAX_DRAWER
static const unsigned int MAX_DRAWER
Number of drawers in ROS 1-4.
Definition: TileCalibUtils.h:139
TileROD_Decoder::m_useFrag5Reco
Gaudi::Property< bool > m_useFrag5Reco
Definition: TileROD_Decoder.h:510
SG::VarHandleKeyArray::setOwner
virtual void setOwner(IDataHandleHolder *o)=0
COMMON_TDC1_FRAG
#define COMMON_TDC1_FRAG
Definition: TileTBFrag.h:46
TileRawDataContainer::set_bsflags
void set_bsflags(uint32_t bsflags)
Definition: TileRawDataContainer.h:65
covarianceTool.filter
filter
Definition: covarianceTool.py:514
TileHWID::LOWGAIN
@ LOWGAIN
Definition: TileHWID.h:72
TileRawChannel2Bytes4::amplitude
float amplitude(unsigned int w, unsigned int unit) const
Returns the amplitude in the corresponding units, unpacked from the single 32-bit word w.
Definition: TileRawChannel2Bytes4.h:102
TileROD_Decoder::m_maxErrorPrint
Gaudi::Property< int > m_maxErrorPrint
Definition: TileROD_Decoder.h:540
CaloGain::INVALIDGAIN
@ INVALIDGAIN
Definition: CaloGain.h:18
python.setupRTTAlg.size
int size
Definition: setupRTTAlg.py:39
TileDigits2Bytes::getGain
int getGain(const uint32_t *data, int chan) const
Extract gain for <chip> in chip header.
Definition: TileDigits2Bytes.cxx:56
uint
unsigned int uint
Definition: LArOFPhaseFill.cxx:20
IROBDataProviderSvc
Interface class for managing ROB for both online and offline.
Definition: IROBDataProviderSvc.h:25
TileOfcWeightsStruct::dg
float dg[99]
Definition: ITileCondToolOfc.h:14
TileROD_Decoder::unpack_frag42
void unpack_frag42(uint32_t sourceid, uint32_t version, const uint32_t *p, int size, TileMuonReceiverContainer &v) const
Definition: TileROD_Decoder.cxx:4830
TileRawChannelCollection::ID
MyBase::ID ID
Definition: TileRawChannelCollection.h:17
TileROD_Decoder::make_copyHLT
uint32_t make_copyHLT(bool of2, TileRawChannelUnit::UNIT rChUnit, bool correctAmplitude, const FRwChVec &pChannel, TileCellCollection &v, const uint16_t DQuality, D0CellsHLT &d0cells, TileCellCollection *MBTS) const
Definition: TileROD_Decoder.cxx:3581
Tile
Definition: TileVolumeBuilder.h:43
TileROD_Decoder::unpack_frag14
void unpack_frag14(uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
unpack_frag14 decodes tile subfragment type 0x14.
Definition: TileROD_Decoder.cxx:1985
TileROD_Decoder::checkBit
bool checkBit(const uint32_t *p, int chan) const
check the bitmap for a channel
Definition: TileROD_Decoder.cxx:232
TileROD_Decoder::unpack_frag13
void unpack_frag13(uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
unpack_frag13 decodes tile subfragment type 0x13.
Definition: TileROD_Decoder.cxx:1871
TileROD_Decoder::unpack_frag12
void unpack_frag12(uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
unpack_frag12 decodes tile subfragment type 0x12.
Definition: TileROD_Decoder.cxx:1746
TileROD_Decoder::m_timeMaxThresh
Gaudi::Property< float > m_timeMaxThresh
Definition: TileROD_Decoder.h:524
AthCommonDataStore
Definition: AthCommonDataStore.h:52
TileRawChannel::amplitude
float amplitude(int ind=0) const
Definition: TileRawChannel.h:101
ATH_MSG_ERROR
#define ATH_MSG_ERROR(x)
Definition: AthMsgStreamMacros.h:33
convertTimingResiduals.sum
sum
Definition: convertTimingResiduals.py:55
trigDumpTimers.timing
def timing(hist)
Definition: trigDumpTimers.py:13
xAOD::uint16_t
setWord1 uint16_t
Definition: eFexEMRoI_v1.cxx:88
event
POOL::TEvent event(POOL::TEvent::kClassAccess)
FullCPAlgorithmsTest_eljob.sample
sample
Definition: FullCPAlgorithmsTest_eljob.py:100
TileRawChannel2Bytes4::time
float time(unsigned int w) const
Returns the phase of the pulse in ns, unpacked from the single 32-bit word w.
Definition: TileRawChannel2Bytes4.h:110
TileROD_Decoder::m_useFrag4
Gaudi::Property< bool > m_useFrag4
Definition: TileROD_Decoder.h:508
TileRawChannel2Bytes5::get_size_code
static int get_size_code(uint32_t code)
Definition: TileRawChannel2Bytes5.h:138
eformat::ROBFragment< const uint32_t * >
lumiFormat.i
int i
Definition: lumiFormat.py:92
TileRawChannel2Bytes5::m_FormatLookup
uint8_t m_FormatLookup[256]
Definition: TileRawChannel2Bytes5.h:69
ReadCellNoiseFromCool.chan
chan
Definition: ReadCellNoiseFromCool.py:52
python.LArBadChannelDBAlg.xFFFFFFFF
xFFFFFFFF
Definition: LArBadChannelDBAlg.py:73
TileROD_Decoder::m_hid2re
TileHid2RESrcID * m_hid2re
Definition: TileROD_Decoder.h:595
Format6
bool Format6(const std::vector< double > &a, const std::vector< double > &b, const std::vector< double > &c, const std::vector< double > &g, const std::vector< double > &h, unsigned int channel_index, int phase, double calibration, std::vector< unsigned int > &OFC, bool verbose)
Format6.
Definition: TileOFC.cxx:270
beamspotman.n
n
Definition: beamspotman.py:731
python.CaloCondTools.g
g
Definition: CaloCondTools.py:15
endmsg
#define endmsg
Definition: AnalysisConfig_Ntuple.cxx:63
ATH_MSG_DEBUG
#define ATH_MSG_DEBUG(x)
Definition: AthMsgStreamMacros.h:29
01SubmitToGrid.samples
samples
Definition: 01SubmitToGrid.py:58
TileRawChannelUnit::OnlineOffset
@ OnlineOffset
Definition: TileRawChannelUnit.h:25
CaloCell::caloDDE
const CaloDetDescrElement * caloDDE() const
get pointer to CaloDetDescrElement (data member)
Definition: CaloCell.h:305
master.flag
bool flag
Definition: master.py:29
TileOfcWeightsStruct
Definition: ITileCondToolOfc.h:13
TileRawChannel2Bytes::quality
float quality(short i) const
Returns the quality factor unpacked from a single 16-bit word w.
Definition: TileRawChannel2Bytes.h:109
TileROD_Decoder::pBeamVec
std::vector< TileBeamElem * > pBeamVec
Definition: TileROD_Decoder.h:233
TileROD_Decoder::CRC_ERR
@ CRC_ERR
Definition: TileROD_Decoder.h:226
TileRawChannelUnit::MegaElectronVolts
@ MegaElectronVolts
Definition: TileRawChannelUnit.h:20
TileRawDataContainer::set_unit
void set_unit(UNIT unit)
Definition: TileRawDataContainer.h:61
TileROD_Decoder::m_Rw2Cell
std::vector< int > m_Rw2Cell[4]
Definition: TileROD_Decoder.h:581
TileRawChannel
Definition: TileRawChannel.h:35
TileRawChannel2Bytes5::get_format
int get_format(int code) const
Definition: TileRawChannel2Bytes5.h:154
TileROD_Decoder::m_timeMinThresh
Gaudi::Property< float > m_timeMinThresh
Definition: TileROD_Decoder.h:522
TileHWID::EXTBAR_NEG
@ EXTBAR_NEG
Definition: TileHWID.h:71
test_pyathena.parent
parent
Definition: test_pyathena.py:15
TileROD_Decoder::m_demoChanLB
std::vector< int > m_demoChanLB
Definition: TileROD_Decoder.h:606
TileROD_Decoder::unpack_frag15
void unpack_frag15(uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
unpack_frag15 decodes tile subfragment type 0x15.
Definition: TileROD_Decoder.cxx:2012
TileROD_Decoder::m_allowedTimeMax
Gaudi::Property< float > m_allowedTimeMax
Definition: TileROD_Decoder.h:516
xAOD::uint64_t
uint64_t
Definition: EventInfo_v1.cxx:123
ATH_CHECK
#define ATH_CHECK
Definition: AthCheckMacros.h:40
BEAM_TDC_FRAG
#define BEAM_TDC_FRAG
Definition: TileTBFrag.h:23
python.LArCondContChannels.chan1
chan1
Definition: LArCondContChannels.py:666
Tile_Base_ID::LOWGAIN
@ LOWGAIN
Definition: Tile_Base_ID.h:57
TileROD_Decoder::unpack_frag17
void unpack_frag17(uint32_t version, uint32_t sizeOverhead, const uint32_t *p, TileLaserObject &v) const
unpack_frag17 decodes tile subfragment type 0x17 or 0x20.
Definition: TileROD_Decoder.cxx:2533
run
Definition: run.py:1
TileDigits2Bytes::getDigiMode
int getDigiMode(const uint32_t *data, int chipCount, int wordsPerChip) const
Determine digitizer mode for a number of channels.
Definition: TileDigits2Bytes.cxx:89
RunTileCalibRec.correctAmplitude
correctAmplitude
Definition: RunTileCalibRec.py:198
AthCommonDataStore< AthCommonMsg< AlgTool > >::m_detStore
StoreGateSvc_t m_detStore
Pointer to StoreGate (detector store by default)
Definition: AthCommonDataStore.h:393
TileROD_Decoder::m_maxChannels
unsigned int m_maxChannels
Definition: TileROD_Decoder.h:602
xAOD::double
double
Definition: CompositeParticle_v1.cxx:159
TileRawChannel2Bytes5::get_quality
static int get_quality(int bad, int format)
Definition: TileRawChannel2Bytes5.h:155
maskDeadModules.ros
ros
Definition: maskDeadModules.py:35
TileCablingService
Definition: TileCablingService.h:23
TileROD_Decoder::RawChannelMetaData_t
std::vector< std::vector< uint32_t > > RawChannelMetaData_t
Definition: TileROD_Decoder.h:244
TileRawChannelUnit::UNIT
UNIT
Definition: TileRawChannelUnit.h:16
TileDigits::samples
const std::vector< float > & samples() const
Definition: TileDigits.h:58
TileROD_Decoder::m_ampMinThresh_pC
float m_ampMinThresh_pC
correct amplitude if it's above amplitude threshold (in pC)
Definition: TileROD_Decoder.h:563
TileFragHash::initialize
void initialize(const TileHWID *tileHWID, TYPE type=Default)
Definition: TileFragHash.cxx:23
ReadFromCoolCompare.os
os
Definition: ReadFromCoolCompare.py:231
python.OnlineISConfiguration.runType
def runType
Definition: OnlineISConfiguration.py:112
AthAlgTool::AthAlgTool
AthAlgTool()
Default constructor:
TileROD_Decoder::NO_ROB
@ NO_ROB
Definition: TileROD_Decoder.h:226
TileRawChannel2Bytes::gain
int gain(short i) const
Returns the gain unpacked from the single 16-bit word w.
Definition: TileRawChannel2Bytes.h:89
TileRawChannel2Bytes2::amplitude
float amplitude(unsigned int w) const
Returns the non calibrated amplitude unpacked from the single 32-bit word w.
Definition: TileRawChannel2Bytes2.h:98
min
#define min(a, b)
Definition: cfImp.cxx:40
SG::VarHandleKeyArray::renounce
virtual void renounce()=0
SG::HandleClassifier::type
std::conditional< std::is_base_of< SG::VarHandleKeyArray, T >::value, VarHandleKeyArrayType, type2 >::type type
Definition: HandleClassifier.h:54
TileROD_Decoder::m_checkMaskedDrawers
bool m_checkMaskedDrawers
Definition: TileROD_Decoder.h:603
TileROD_Decoder::m_ampMinThresh
Gaudi::Property< float > m_ampMinThresh
Definition: TileROD_Decoder.h:520
trigbs_pickEvents.num
num
Definition: trigbs_pickEvents.py:76
python.handimod.extra
int extra
Definition: handimod.py:522
CaloTime_fillDB.gain1
gain1
Definition: CaloTime_fillDB.py:356
TileROD_Decoder::m_mapMBTS
std::map< unsigned int, unsigned int > m_mapMBTS
Definition: TileROD_Decoder.h:588
TileROD_Decoder::unpack_fragA
void unpack_fragA(uint32_t version, RawChannelMetaData_t &rawchannelMetaData, const uint32_t *p, pRwChVec &pChannel, int fragID, int demoType) const
unpack_fragA decodes tile subfragment type 0XA.
Definition: TileROD_Decoder.cxx:1365
TileRawChannelBuilder::correctAmp
static double correctAmp(double phase, bool of2=true)
Amplitude correction factor according to the time when using weights for tau=0 without iterations.
Definition: TileRawChannelBuilder.cxx:646
TileCell::setQuality_nonvirt
void setQuality_nonvirt(unsigned char qual, unsigned char qbit, int pmt)
Definition: TileCell.h:278
TileHWID::drawer_id
HWIdentifier drawer_id(int frag) const
ROS HWIdentifer.
Definition: TileHWID.cxx:186
TileRawChannel2Bytes2::gain
int gain(unsigned int w) const
Returns the gain unpacked from the single 32-bit word w.
Definition: TileRawChannel2Bytes2.h:93
TileRawChannel2Bytes::time
float time(short i) const
Returns the phase of the pulse, unpacked from a single 16-bit word w.
Definition: TileRawChannel2Bytes.h:102
pmontree.code
code
Definition: pmontree.py:443
IROBDataProviderSvc::getEvent
virtual const RawEvent * getEvent()=0
Retrieve the whole event.
merge_scale_histograms.doc
string doc
Definition: merge_scale_histograms.py:9
id
SG::auxid_t id
Definition: Control/AthContainers/Root/debug.cxx:191
name
std::string name
Definition: Control/AthContainers/Root/debug.cxx:192
debug
const bool debug
Definition: MakeUncertaintyPlots.cxx:53
TileDigits
Definition: TileDigits.h:30
plotBeamSpotMon.b
b
Definition: plotBeamSpotMon.py:77
TileROD_Decoder::m_hashFunc
TileFragHash m_hashFunc
Definition: TileROD_Decoder.h:584
TileROD_Decoder::m_hid2RESrcIDKey
SG::ReadCondHandleKey< TileHid2RESrcID > m_hid2RESrcIDKey
Definition: TileROD_Decoder.h:542
TileROD_Decoder::unpack_frag4HLT
void unpack_frag4HLT(uint32_t version, uint32_t sizeOverhead, unsigned int unit, const uint32_t *p, FRwChVec &pChannel, int fragID, int demoType) const
unpack_frag4HLT decodes tile subfragment type 0x4 for the high level trigger (HLT).
Definition: TileROD_Decoder.cxx:3927
TileROD_Decoder::initHid2re
void initHid2re()
Definition: TileROD_Decoder.cxx:4267
TileHWID::BARREL_NEG
@ BARREL_NEG
Definition: TileHWID.h:69
TileHWID::EXTBAR_POS
@ EXTBAR_POS
Definition: TileHWID.h:70
DataVector::push_back
value_type push_back(value_type pElem)
Add an element to the end of the collection.
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StatusCode initialize(bool used=true)
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setEventNumber setTimeStamp bcid
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TileHid2RESrcID * m_hid2reHLT
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#define LASER2_OBJ_FRAG
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std::atomic< int > m_ErrorCounter
Definition: TileROD_Decoder.h:593
TileROD_Decoder::unpack_frag2
void unpack_frag2(uint32_t version, uint32_t sizeOverhead, const uint32_t *p, pRwChVec &pChannel, int fragID, int demoType) const
unpack_frag2 decodes tile subfragment type 0x2.
Definition: TileROD_Decoder.cxx:787
TileROD_Decoder::unpack_frag11
void unpack_frag11(uint32_t version, const uint32_t *p, TileL2Container &v, int fragID, int demoType) const
unpack_frag11 decodes tile subfragment type 0x11.
Definition: TileROD_Decoder.cxx:1626
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@ ALL_00
Definition: TileROD_Decoder.h:226
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virtual void addEnergy(float e) override final
add energy, keep eneDiff
Definition: TileCell.cxx:140
TileCell::setEnergy
virtual void setEnergy(float ene) override final
set total energy, reset eneDiff to zero
Definition: TileCell.cxx:123
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Gaudi::Property< bool > m_suppressDummyFragments
Definition: TileROD_Decoder.h:535
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Gaudi::Property< bool > m_useFrag5Raw
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TileROD_Decoder::m_rc2bytes4
TileRawChannel2Bytes4 m_rc2bytes4
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TileRawChannel2Bytes2::quality
float quality(unsigned int w) const
Returns the quality factor unpacked from the single 32-bit word w.
Definition: TileRawChannel2Bytes2.h:109
python.LumiBlobConversion.pos
pos
Definition: LumiBlobConversion.py:18
Example_ReadSampleNoise.ped
ped
Definition: Example_ReadSampleNoise.py:45
TileHWID::BARREL_POS
@ BARREL_POS
Definition: TileHWID.h:68
TileDigits2Bytes::getDigits
std::array< std::vector< float >, 3 > getDigits(const uint32_t *data, int dataWordsPerChip) const
Extract samples(digits) for 3 channels, stored in 9 words.
Definition: TileDigits2Bytes.cxx:35
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float amplitude(void) const
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PlotSFuncertainty.calib
calib
Definition: PlotSFuncertainty.py:110
TileROD_Decoder::getOFW
const uint32_t * getOFW(int fragId, int unit) const
getOFW returns Optimal Filtering Weights for Frag5 decoder loaded from COOL for correspondent units.
Definition: TileROD_Decoder.cxx:4322
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const_iterator end() const noexcept
Return a const_iterator pointing past the end of the collection.
TileHWID::adc_id
HWIdentifier adc_id(int ros, int drawer, int channel, int adc) const
adc HWIdentifer
Definition: TileHWID.cxx:228
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void set_type(TYPE type)
Definition: TileRawDataContainer.h:63
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Definition: PyAthena.py:157
TileMuonReceiverObj
Definition: TileMuonReceiverObj.h:28
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version
Definition: get_generator_info.py:33
TileROD_Decoder::get_data
const uint32_t * get_data(const ROBData *rob) const
Definition: TileROD_Decoder.h:609
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string runNumber
Definition: DeMoAtlasDataLoss.py:64
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@ ALL_FF
Definition: TileROD_Decoder.h:226
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@ NOT_VALID_HASH
Definition: TileHWID.h:314
fmt
a
TList * a
Definition: liststreamerinfos.cxx:10
h
TileROD_Decoder::m_verbose
Gaudi::Property< bool > m_verbose
Definition: TileROD_Decoder.h:533
TileROD_Decoder::ALL_OK
@ ALL_OK
Definition: TileROD_Decoder.h:226
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ToolHandle< TileCondToolEmscale > m_tileToolEmscale
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dictionary hash
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std::map< std::string, std::string > remap
list of directories to be explicitly remapped
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CaloSwCorrections.time
def time(flags, cells_name, *args, **kw)
Definition: CaloSwCorrections.py:242
ReadFloatFromCool.adc
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Definition: ReadFloatFromCool.py:48
TileROD_Decoder::initHid2reHLT
void initHid2reHLT()
Definition: TileROD_Decoder.cxx:4313
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Definition: trigbs_pickEvents.py:71
std::sort
void sort(typename std::reverse_iterator< DataModel_detail::iterator< DVL > > beg, typename std::reverse_iterator< DataModel_detail::iterator< DVL > > end, const Compare &comp)
Specialization of sort for DataVector/List.
Definition: DVL_algorithms.h:623
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#define ATH_MSG_WARNING(x)
Definition: AthMsgStreamMacros.h:32
TileROD_Decoder::unpack_frag16
void unpack_frag16(uint32_t version, const uint32_t *p, TileLaserObject &v) const
unpack_frag16 decodes tile subfragment type 0x16 or 0x20.
Definition: TileROD_Decoder.cxx:2030
TileRawChannel2Bytes5::setVerbose
void setVerbose(bool)
Sets verbose mode true or false.
Definition: TileRawChannel2Bytes5.h:103
TileROD_Decoder::copy_vec
void copy_vec(std::vector< ELEMENT * > &v, COLLECTION &coll) const
Definition: TileROD_Decoder.h:696
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Definition: Pythia8_RapidityOrderMPI.py:14
unit
const PlainObject unit() const
This is a plugin that makes Eigen look like CLHEP & defines some convenience methods.
Definition: AmgMatrixBasePlugin.h:20
python.CaloScaleNoiseConfig.type
type
Definition: CaloScaleNoiseConfig.py:78
TileROD_Decoder::DigitsMetaData_t
std::vector< std::vector< uint32_t > > DigitsMetaData_t
Definition: TileROD_Decoder.h:242
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const boost::regex re(r_e)
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#define DEBUG
Definition: page_access.h:11
F
#define F(x, y, z)
Definition: MD5.cxx:112
python.Classes.TileCalibUtils
TileCalibUtils
Definition: TileCalib/TileCalibBlobObjs/python/Classes.py:5
TileROD_Decoder::updateAmpThreshold
void updateAmpThreshold(int run=-1)
Definition: TileROD_Decoder.cxx:60
AthCommonMsg< AlgTool >::msg
MsgStream & msg() const
Definition: AthCommonMsg.h:24
TileROD_Decoder::printErrorCounter
void printErrorCounter(bool printIfNoError)
Definition: TileROD_Decoder.cxx:93
TileRawChannel2Bytes5::TileChanData::ene
float ene
Definition: TileRawChannel2Bytes5.h:64
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@ barrel
convertTimingResiduals.offset
offset
Definition: convertTimingResiduals.py:71
LArNewCalib_DelayDump_OFC_Cali.idx
idx
Definition: LArNewCalib_DelayDump_OFC_Cali.py:69
SG::VarHandleBase::vhKey
SG::VarHandleKey & vhKey()
Return a non-const reference to the HandleKey.
Definition: StoreGate/src/VarHandleBase.cxx:616
TileHid2RESrcID::getDrawerInfo
const std::vector< uint32_t > & getDrawerInfo(int frag_id) const
Definition: TileHid2RESrcID.cxx:510
declareProperty
#define declareProperty(n, p, h)
Definition: BaseFakeBkgTool.cxx:15
TileROD_Decoder::unpack_frag5
void unpack_frag5(uint32_t version, uint32_t sizeOverhead, unsigned int unit, DigitsMetaData_t &digitsMetaData, const uint32_t *p, pDigiVec &pDigits, pRwChVec &pChannel, int fragID, int demoType) const
unpack_frag5 decodes tile subfragment type 0x4.
Definition: TileROD_Decoder.cxx:997
beamspotman.qual
qual
Definition: beamspotman.py:481
COMMON_ADC2_FRAG
#define COMMON_ADC2_FRAG
Definition: TileTBFrag.h:44
TileROD_Decoder::m_demoFragIDs
Gaudi::Property< std::vector< int > > m_demoFragIDs
Definition: TileROD_Decoder.h:530
TileROD_Decoder::setLaserVersion
void setLaserVersion(TileLaserObject &laserObject) const
Definition: TileROD_Decoder.h:175
TileROD_Decoder::m_rc2bytes
TileRawChannel2Bytes m_rc2bytes
Definition: TileROD_Decoder.h:501
python.Bindings.keys
keys
Definition: Control/AthenaPython/python/Bindings.py:790
merge.status
status
Definition: merge.py:17
TileOfcWeightsStruct::w_a
float w_a[99]
Definition: ITileCondToolOfc.h:14
TileFastRawChannel
Definition: TileFastRawChannel.h:17
TileCalibUtils::getDrawerIdx
static unsigned int getDrawerIdx(unsigned int ros, unsigned int drawer)
Returns a drawer hash.
Definition: TileCalibUtils.cxx:60
TileCablingService::getMaxChannels
int getMaxChannels(void) const
Definition: TileCablingService.h:100
TileROD_Decoder::m_maxWarningPrint
Gaudi::Property< int > m_maxWarningPrint
Definition: TileROD_Decoder.h:539
LB_AnalMapSplitter.of2
of2
Definition: LB_AnalMapSplitter.py:50
python.Constants.VERBOSE
int VERBOSE
Definition: Control/AthenaCommon/python/Constants.py:14
DataVector::at
const T * at(size_type n) const
Access an element, as an rvalue.
TileROD_Decoder::m_tileCondToolOfcCool
ToolHandle< TileCondToolOfcCool > m_tileCondToolOfcCool
Definition: TileROD_Decoder.h:547
TileBeamElem
Definition: TileBeamElem.h:27
TileROD_Decoder::make_copy
void make_copy(uint32_t bsflags, TileFragHash::TYPE rChType, TileRawChannelUnit::UNIT rChUnit, DigitsMetaData_t &digitsMetaData, RawChannelMetaData_t &rawchannelMetaData, const ROBData *rob, pDigiVec &pDigits, pRwChVec &pChannel, TileBeamElemCollection &v, TileBeamElemContainer *container) const
Definition: TileROD_Decoder.h:850
TileCalibUtils::MAX_CHAN
static const unsigned int MAX_CHAN
Number of channels in drawer.
Definition: TileCalibUtils.h:141
python.IoTestsLib.w
def w
Definition: IoTestsLib.py:200
TileROD_Decoder::unpack_frag0
void unpack_frag0(uint32_t version, uint32_t sizeOverhead, DigitsMetaData_t &digitsMetaData, const uint32_t *p, pDigiVec &pDigits, int fragID, int demoType) const
unpack_frag0 decodes tile subfragment type 0x0.
Definition: TileROD_Decoder.cxx:246
section
void section(const std::string &sec)
Definition: TestTriggerMenuAccess.cxx:22
get_generator_info.error
error
Definition: get_generator_info.py:40
TileROD_Decoder::pRwChVec
std::vector< TileRawChannel * > pRwChVec
Definition: TileROD_Decoder.h:234
TileCablingService::runPeriod
int runPeriod() const
Definition: TileCablingService.h:280
test_pyathena.counter
counter
Definition: test_pyathena.py:15
TileROD_Decoder::m_MBTS_channel
int m_MBTS_channel
Definition: TileROD_Decoder.h:590
python.PyAthena.obj
obj
Definition: PyAthena.py:135
TileROD_Decoder::m_allowedTimeMin
Gaudi::Property< float > m_allowedTimeMin
Definition: TileROD_Decoder.h:514
CaloNoise_fillDB.mu
mu
Definition: CaloNoise_fillDB.py:53
error
Definition: IImpactPoint3dEstimator.h:70
TileRawChannel2Bytes2::setVerbose
void setVerbose(bool verbose)
Sets verbose mode true or false.
Definition: TileRawChannel2Bytes2.h:82
TileROD_Decoder::m_rc2bytes5
TileRawChannel2Bytes5 m_rc2bytes5
Definition: TileROD_Decoder.h:498
TileCalibUtils::getDrawerIdxFromFragId
static unsigned int getDrawerIdxFromFragId(unsigned int fragId)
Returns a drawer hash from fragId This function assumes drawer context (i.e.
Definition: TileCalibUtils.cxx:71
python.compressB64.c
def c
Definition: compressB64.py:93
TileROD_Decoder::m_tileBadChanTool
ToolHandle< ITileBadChanTool > m_tileBadChanTool
Definition: TileROD_Decoder.h:551
DataVector::size
size_type size() const noexcept
Returns the number of elements in the collection.
AthCommonDataStore::declareGaudiProperty
Gaudi::Details::PropertyBase & declareGaudiProperty(Gaudi::Property< T > &hndl, const SG::VarHandleKeyType &)
specialization for handling Gaudi::Property<SG::VarHandleKey>
Definition: AthCommonDataStore.h:156
TileROD_Decoder::unpack_brod
void unpack_brod(uint32_t version, uint32_t sizeOverhead, const uint32_t *p, pBeamVec &pBeam, int fragID) const
unpack_brod decodes all ancillary tile subfragments coming from beam ROD at the testbeam or LASTROD i...
Definition: TileROD_Decoder.cxx:2788
TileROD_Decoder::m_useFrag1
Gaudi::Property< bool > m_useFrag1
Definition: TileROD_Decoder.h:507
readCCLHist.float
float
Definition: readCCLHist.py:83
TileROD_Decoder::m_ignoreFrag4HLT
Gaudi::Property< bool > m_ignoreFrag4HLT
Definition: TileROD_Decoder.h:511
TileROD_Decoder::m_fullTileRODs
Gaudi::Property< unsigned int > m_fullTileRODs
Definition: TileROD_Decoder.h:527
checkFileSG.ind
list ind
Definition: checkFileSG.py:118
TileRawChannelUnit::ADCcounts
@ ADCcounts
Definition: TileRawChannelUnit.h:17
python.trfValidateRootFile.rc
rc
Definition: trfValidateRootFile.py:350
DataVector::begin
const_iterator begin() const noexcept
Return a const_iterator pointing at the beginning of the collection.
TileOfcWeightsStruct::w_b
float w_b[99]
Definition: ITileCondToolOfc.h:14
fitman.k
k
Definition: fitman.py:528
TileROD_Decoder::m_OFWeightMutex
std::mutex m_OFWeightMutex
Definition: TileROD_Decoder.h:575
TileRawChannelUnit::OnlineMegaElectronVolts
@ OnlineMegaElectronVolts
Definition: TileRawChannelUnit.h:24
TileROD_Decoder::FRwChVec
std::vector< TileFastRawChannel > FRwChVec
Definition: TileROD_Decoder.h:235
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