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Unpacks/packs the V38 raw format. More...
#include <GctFormatTranslateV38.h>
Public Member Functions | |
| virtual bool | convertBlock (const unsigned char *d, const GctBlockHeader &hdr) |
| Get digis from the block - will return true if it succeeds, false otherwise. | |
| GctFormatTranslateV38 (bool hltMode=false, bool unpackSharedRegions=false, unsigned numberOfGctSamplesToUnpack=1, unsigned numberOfRctSamplesToUnpack=1) | |
| Constructor. | |
| virtual GctBlockHeader | generateBlockHeader (const unsigned char *data) const |
| Generate a block header from four 8-bit values. | |
| virtual | ~GctFormatTranslateV38 () |
| Destructor. | |
Protected Member Functions | |
| virtual BlockLengthMap & | blockLengthMap () |
| get the static block ID to block-length map. | |
| virtual const BlockLengthMap & | blockLengthMap () const |
| get the static block ID to block-length map. | |
| virtual const BlockNameMap & | blockNameMap () const |
| get the static block ID to blockname map. | |
| virtual BlockNameMap & | blockNameMap () |
| get the static block ID to block-name map. | |
| virtual uint32_t | generateRawHeader (const uint32_t blockId, const uint32_t nSamples, const uint32_t bxId, const uint32_t eventId) const |
| Returns a raw 32-bit header word generated from the blockId, number of time samples, bunch-crossing and event IDs. | |
| virtual const BlockIdToEmCandIsoBoundMap & | internEmIsoBounds () const |
| get the static intern EM cand isolated boundary map. | |
| virtual BlockIdToEmCandIsoBoundMap & | internEmIsoBounds () |
| get the static intern EM cand isolated boundary map. | |
| virtual BlkToRctCrateMap & | rctEmCrateMap () |
| get the static block ID to RCT crate map for electrons. | |
| virtual const BlkToRctCrateMap & | rctEmCrateMap () const |
| get static the block ID to RCT crate map for electrons. | |
| virtual const BlkToRctCrateMap & | rctJetCrateMap () const |
| get the static block ID to RCT crate map for jets | |
| virtual BlkToRctCrateMap & | rctJetCrateMap () |
| get the static block ID to RCT crate map for jets | |
Private Types | |
| typedef std::map< unsigned int, PtrToUnpackFn > | BlockIdToUnpackFnMap |
| Typedef for a block ID to unpack function map. | |
| typedef void(GctFormatTranslateV38::* | PtrToUnpackFn )(const unsigned char *, const GctBlockHeader &) |
| Function pointer typdef to a block unpack function. | |
Private Member Functions | |
| void | blockToFibres (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack Fibres | |
| void | blockToFibresAndToRctEmCand (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack Fibres and RCT EM Candidates | |
| void | blockToGctEmCandsAndEnergySums (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack GCT EM Candidates and energy sums. | |
| void | blockToGctInternEmCand (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack GCT internal EM Candidates | |
| void | blockToGctInternEtSums (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack GCT internal Et sums | |
| void | blockToGctInternEtSumsAndJetCluster (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack GCT internal output of leaf jet finder | |
| void | blockToGctInternHtMissPostWheel (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack GCT internal Missing Ht data that is either wheel output or concJet input (i.e. after wheel processing). | |
| void | blockToGctInternHtMissPreWheel (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack GCT internal Missing Ht data that is being input to the wheels. | |
| void | blockToGctInternRingSums (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack GCT internal HF ring sums | |
| void | blockToGctJetCandsAndCounts (const unsigned char *d, const GctBlockHeader &hdr) |
| Unpack GCT Jet Candidates and jet counts. | |
| void | blockToGctJetClusterMinimal (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack GCT internal input to wheel jet sort | |
| void | blockToGctJetPreCluster (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack GCT internal shared jet finder info | |
| void | blockToGctTrigObjects (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack GCT internal wheel and conc jets | |
| void | blockToGctWheelInputInternEtAndRingSums (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack GCT internal input to wheel | |
| void | blockToGctWheelOutputInternEtAndRingSums (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack GCT internal output of wheel | |
| void | blockToRctCaloRegions (const unsigned char *d, const GctBlockHeader &hdr) |
| Unpack RCT Calo Regions. | |
| void | blockToRctEmCand (const unsigned char *d, const GctBlockHeader &hdr) |
| unpack RCT EM Candidates | |
Private Attributes | |
| const unsigned | m_numberOfGctSamplesToUnpack |
| Number of BXs of GCT data to unpack (assuming they are in the raw data) | |
| const unsigned | m_numberOfRctSamplesToUnpack |
Static Private Attributes | |
| static BlockLengthMap | m_blockLength = GctFormatTranslateV38::BlockLengthMap() |
| Map to translate block number to fundamental size of a block (i.e. for 1 time-sample). | |
| static BlockNameMap | m_blockName = GctFormatTranslateV38::BlockNameMap() |
| Map to hold a description for each block number. | |
| static BlockIdToUnpackFnMap | m_blockUnpackFn = GctFormatTranslateV38::BlockIdToUnpackFnMap() |
| Block ID to unpack function map. | |
| static BlockIdToEmCandIsoBoundMap | m_internEmIsoBounds = GctFormatTranslateV38::BlockIdToEmCandIsoBoundMap() |
| static BlkToRctCrateMap | m_rctEmCrate = GctFormatTranslateV38::BlkToRctCrateMap() |
| Map to relate capture block ID to the RCT crate the data originated from (for electrons). | |
| static BlkToRctCrateMap | m_rctJetCrate = GctFormatTranslateV38::BlkToRctCrateMap() |
| Map to relate capture block ID to the RCT crate the data originated from (for jets). | |
Unpacks/packs the V38 raw format.
Definition at line 19 of file GctFormatTranslateV38.h.
typedef std::map<unsigned int, PtrToUnpackFn> GctFormatTranslateV38::BlockIdToUnpackFnMap [private] |
Typedef for a block ID to unpack function map.
Definition at line 85 of file GctFormatTranslateV38.h.
typedef void(GctFormatTranslateV38::* GctFormatTranslateV38::PtrToUnpackFn)(const unsigned char *, const GctBlockHeader &) [private] |
Function pointer typdef to a block unpack function.
Definition at line 83 of file GctFormatTranslateV38.h.
| GctFormatTranslateV38::GctFormatTranslateV38 | ( | bool | hltMode = false, |
| bool | unpackSharedRegions = false, |
||
| unsigned | numberOfGctSamplesToUnpack = 1, |
||
| unsigned | numberOfRctSamplesToUnpack = 1 |
||
| ) | [explicit] |
Constructor.
| hltMode | - set true to unpack only BX zero and GCT output data (i.e. to run as quick as possible). |
| unpackSharedRegions | - this is a commissioning option to unpack the shared RCT calo regions. |
Definition at line 29 of file GctFormatTranslateV38.cc.
References GctFormatTranslateBase::blockDoNothing(), blockToFibres(), blockToFibresAndToRctEmCand(), blockToGctEmCandsAndEnergySums(), blockToGctInternEmCand(), blockToGctInternEtSums(), blockToGctInternEtSumsAndJetCluster(), blockToGctInternHtMissPostWheel(), blockToGctInternHtMissPreWheel(), blockToGctInternRingSums(), blockToGctJetCandsAndCounts(), blockToGctJetClusterMinimal(), blockToGctJetPreCluster(), blockToGctTrigObjects(), blockToGctWheelInputInternEtAndRingSums(), blockToGctWheelOutputInternEtAndRingSums(), blockToRctCaloRegions(), m_blockLength, m_blockName, m_blockUnpackFn, m_internEmIsoBounds, m_rctEmCrate, and m_rctJetCrate.
: GctFormatTranslateBase(hltMode, unpackSharedRegions), m_numberOfGctSamplesToUnpack(numberOfGctSamplesToUnpack), m_numberOfRctSamplesToUnpack(numberOfRctSamplesToUnpack) { static bool initClass = true; if(initClass) { initClass = false; /*** Setup BlockID to BlockLength Map ***/ // Miscellaneous Blocks m_blockLength.insert(make_pair(0x000,0)); // NULL // ConcJet FPGA m_blockLength.insert(make_pair(0x580,12)); // ConcJet: Input TrigPathA (Jet Cands) m_blockLength.insert(make_pair(0x581,2)); // ConcJet: Input TrigPathB (HF Rings) m_blockLength.insert(make_pair(0x582,4)); // ConcJet: Input TrigPathC (MissHt) m_blockLength.insert(make_pair(0x583,8)); // ConcJet: Jet Cands and Counts Output to GT m_blockLength.insert(make_pair(0x587,4)); // ConcJet: BX & Orbit Info // ConcElec FPGA m_blockLength.insert(make_pair(0x680,16)); // ConcElec: Input TrigPathA (EM Cands) m_blockLength.insert(make_pair(0x681,6)); // ConcElec: Input TrigPathB (Et Sums) m_blockLength.insert(make_pair(0x682,2)); // ConcElec: Input TrigPathC (Ht Sums) m_blockLength.insert(make_pair(0x683,6)); // ConcElec: EM Cands and Energy Sums Output to GT m_blockLength.insert(make_pair(0x686,2)); // ConcElec: Test (GT Serdes Loopback) m_blockLength.insert(make_pair(0x687,4)); // ConcElec: BX & Orbit Info // Electron Leaf FPGAs m_blockLength.insert(make_pair(0x800,20)); // Leaf0ElecPosEtaU1: Sort Input m_blockLength.insert(make_pair(0x803,4)); // Leaf0ElecPosEtaU1: Sort Output m_blockLength.insert(make_pair(0x804,15)); // Leaf0ElecPosEtaU1: Raw Input m_blockLength.insert(make_pair(0x880,16)); // Leaf0ElecPosEtaU2: Sort Input m_blockLength.insert(make_pair(0x883,4)); // Leaf0ElecPosEtaU2: Sort Output m_blockLength.insert(make_pair(0x884,12)); // Leaf0ElecPosEtaU2: Raw Input m_blockLength.insert(make_pair(0xc00,20)); // Leaf0ElecNegEtaU1: Sort Input m_blockLength.insert(make_pair(0xc03,4)); // Leaf0ElecNegEtaU1: Sort Output m_blockLength.insert(make_pair(0xc04,15)); // Leaf0ElecNegEtaU1: Raw Input m_blockLength.insert(make_pair(0xc80,16)); // Leaf0ElecNegEtaU2: Sort Input m_blockLength.insert(make_pair(0xc83,4)); // Leaf0ElecNegEtaU2: Sort Output m_blockLength.insert(make_pair(0xc84,12)); // Leaf0ElecNegEtaU2: Raw Input // Wheel Pos-eta Jet FPGA m_blockLength.insert(make_pair(0x300,27)); // WheelPosEtaJet: Input TrigPathA (Jet Sort) m_blockLength.insert(make_pair(0x301,3)); // WheelPosEtaJet: Input TrigPathB (MissHt) m_blockLength.insert(make_pair(0x303,6)); // WheelPosEtaJet: Output TrigPathA (Jet Sort) m_blockLength.insert(make_pair(0x305,2)); // WheelPosEtaJet: Output TrigPathB (MissHt) m_blockLength.insert(make_pair(0x306,32)); // WheelPosEtaJet: Test (deprecated) (Doesn't exist in V27.1 format, but does in V24 & V25, so keep for CRUZET2 data compatibility reasons) m_blockLength.insert(make_pair(0x307,4)); // WheelPosEtaJet: Info (deprecated) (Doesn't exist in V27.1 format, but does in V24 & V25, so keep for CRUZET2 data compatibility reasons) // Wheel Pos-eta Energy FPGA m_blockLength.insert(make_pair(0x380,21)); // WheelPosEtaEnergy: Input TrigPathA (Et) m_blockLength.insert(make_pair(0x381,6)); // WheelPosEtaEnergy: Input TrigPathB (Ht) m_blockLength.insert(make_pair(0x383,7)); // WheelPosEtaEnergy: Output TrigPathA (Et) m_blockLength.insert(make_pair(0x385,2)); // WheelPosEtaEnergy: Output TrigPathB (Ht) m_blockLength.insert(make_pair(0x386,32)); // WheelPosEtaEnergy: Test m_blockLength.insert(make_pair(0x387,6)); // WheelPosEtaEnergy: BX & Orbit Info (Potential data incompatibility between V24/V25 where block length=4, and V27.1 where block length=6) // Wheel Neg-eta Jet FPGA m_blockLength.insert(make_pair(0x700,27)); // WheelNegEtaJet: Input TrigPathA (Jet Sort) m_blockLength.insert(make_pair(0x701,3)); // WheelNegEtaJet: Input TrigPathB (MissHt) m_blockLength.insert(make_pair(0x703,6)); // WheelNegEtaJet: Output TrigPathA (Jet Sort) m_blockLength.insert(make_pair(0x705,2)); // WheelNegEtaJet: Output TrigPathB (MissHt) m_blockLength.insert(make_pair(0x706,32)); // WheelNegEtaJet: Test (deprecated) (Doesn't exist in V27.1 format, but does in V24 & V25, so keep for CRUZET2 data compatibility reasons) m_blockLength.insert(make_pair(0x707,4)); // WheelNegEtaJet: Info (deprecated) (Doesn't exist in V27.1 format, but does in V24 & V25, so keep for CRUZET2 data compatibility reasons) // Wheel Neg-eta Energy FPGA m_blockLength.insert(make_pair(0x780,21)); // WheelNegEtaEnergy: Input TrigPathA (Et) m_blockLength.insert(make_pair(0x781,6)); // WheelNegEtaEnergy: Input TrigPathB (Ht) m_blockLength.insert(make_pair(0x783,7)); // WheelNegEtaEnergy: Output TrigPathA (Et) m_blockLength.insert(make_pair(0x785,2)); // WheelNegEtaEnergy: Output TrigPathB (Ht) m_blockLength.insert(make_pair(0x786,32)); // WheelNegEtaEnergy: Test m_blockLength.insert(make_pair(0x787,6)); // WheelNegEtaEnergy: BX & Orbit Info (Potential data incompatibility between V24/V25 where block length=4, and V27.1 where block length=6) // Jet Leaf FPGAs - Positive Eta m_blockLength.insert(make_pair(0x900,13)); // Leaf1JetPosEtaU1: JF2 Input m_blockLength.insert(make_pair(0x901,3)); // Leaf1JetPosEtaU1: JF2 Shared Received m_blockLength.insert(make_pair(0x902,3)); // Leaf1JetPosEtaU1: JF2 Shared Sent m_blockLength.insert(make_pair(0x903,10)); // Leaf1JetPosEtaU1: JF2 Output m_blockLength.insert(make_pair(0x904,8)); // Leaf1JetPosEtaU1: JF2 Raw Input m_blockLength.insert(make_pair(0x908,13)); // Leaf1JetPosEtaU1: JF3 Input m_blockLength.insert(make_pair(0x909,3)); // Leaf1JetPosEtaU1: JF3 Shared Received m_blockLength.insert(make_pair(0x90a,3)); // Leaf1JetPosEtaU1: JF3 Shared Sent m_blockLength.insert(make_pair(0x90b,10)); // Leaf1JetPosEtaU1: JF3 Output m_blockLength.insert(make_pair(0x90c,8)); // Leaf1JetPosEtaU1: JF3 Raw Input m_blockLength.insert(make_pair(0x980,6)); // Leaf1JetPosEtaU2: Eta0 Input m_blockLength.insert(make_pair(0x984,6)); // Leaf1JetPosEtaU2: Eta0 Raw Input m_blockLength.insert(make_pair(0x988,13)); // Leaf1JetPosEtaU2: JF1 Input m_blockLength.insert(make_pair(0x989,3)); // Leaf1JetPosEtaU2: JF1 Shared Received m_blockLength.insert(make_pair(0x98a,3)); // Leaf1JetPosEtaU2: JF1 Shared Sent m_blockLength.insert(make_pair(0x98b,10)); // Leaf1JetPosEtaU2: JF1 Output m_blockLength.insert(make_pair(0x98c,8)); // Leaf1JetPosEtaU2: JF1 Raw Input m_blockLength.insert(make_pair(0xa00,13)); // Leaf2JetPosEtaU1: JF2 Input m_blockLength.insert(make_pair(0xa01,3)); // Leaf2JetPosEtaU1: JF2 Shared Received m_blockLength.insert(make_pair(0xa02,3)); // Leaf2JetPosEtaU1: JF2 Shared Sent m_blockLength.insert(make_pair(0xa03,10)); // Leaf2JetPosEtaU1: JF2 Output m_blockLength.insert(make_pair(0xa04,8)); // Leaf2JetPosEtaU1: JF2 Raw Input m_blockLength.insert(make_pair(0xa08,13)); // Leaf2JetPosEtaU1: JF3 Input m_blockLength.insert(make_pair(0xa09,3)); // Leaf2JetPosEtaU1: JF3 Shared Received m_blockLength.insert(make_pair(0xa0a,3)); // Leaf2JetPosEtaU1: JF3 Shared Sent m_blockLength.insert(make_pair(0xa0b,10)); // Leaf2JetPosEtaU1: JF3 Output m_blockLength.insert(make_pair(0xa0c,8)); // Leaf2JetPosEtaU1: JF3 Raw Input m_blockLength.insert(make_pair(0xa80,6)); // Leaf2JetPosEtaU2: Eta0 Input m_blockLength.insert(make_pair(0xa84,6)); // Leaf2JetPosEtaU2: Eta0 Raw Input m_blockLength.insert(make_pair(0xa88,13)); // Leaf2JetPosEtaU2: JF1 Input m_blockLength.insert(make_pair(0xa89,3)); // Leaf2JetPosEtaU2: JF1 Shared Received m_blockLength.insert(make_pair(0xa8a,3)); // Leaf2JetPosEtaU2: JF1 Shared Sent m_blockLength.insert(make_pair(0xa8b,10)); // Leaf2JetPosEtaU2: JF1 Output m_blockLength.insert(make_pair(0xa8c,8)); // Leaf2JetPosEtaU2: JF1 Raw Input m_blockLength.insert(make_pair(0xb00,13)); // Leaf3JetPosEtaU1: JF2 Input m_blockLength.insert(make_pair(0xb01,3)); // Leaf3JetPosEtaU1: JF2 Shared Received m_blockLength.insert(make_pair(0xb02,3)); // Leaf3JetPosEtaU1: JF2 Shared Sent m_blockLength.insert(make_pair(0xb03,10)); // Leaf3JetPosEtaU1: JF2 Output m_blockLength.insert(make_pair(0xb04,8)); // Leaf3JetPosEtaU1: JF2 Raw Input m_blockLength.insert(make_pair(0xb08,13)); // Leaf3JetPosEtaU1: JF3 Input m_blockLength.insert(make_pair(0xb09,3)); // Leaf3JetPosEtaU1: JF3 Shared Received m_blockLength.insert(make_pair(0xb0a,3)); // Leaf3JetPosEtaU1: JF3 Shared Sent m_blockLength.insert(make_pair(0xb0b,10)); // Leaf3JetPosEtaU1: JF3 Output m_blockLength.insert(make_pair(0xb0c,8)); // Leaf3JetPosEtaU1: JF3 Raw Input m_blockLength.insert(make_pair(0xb80,6)); // Leaf3JetPosEtaU2: Eta0 Input m_blockLength.insert(make_pair(0xb84,6)); // Leaf3JetPosEtaU2: Eta0 Raw Input m_blockLength.insert(make_pair(0xb88,13)); // Leaf3JetPosEtaU2: JF1 Input m_blockLength.insert(make_pair(0xb89,3)); // Leaf3JetPosEtaU2: JF1 Shared Received m_blockLength.insert(make_pair(0xb8a,3)); // Leaf3JetPosEtaU2: JF1 Shared Sent m_blockLength.insert(make_pair(0xb8b,10)); // Leaf3JetPosEtaU2: JF1 Output m_blockLength.insert(make_pair(0xb8c,8)); // Leaf3JetPosEtaU2: JF1 Raw Input // Jet Leaf FPGAs - Negative Eta m_blockLength.insert(make_pair(0xd00,13)); // Leaf1JetNegEtaU1: JF2 Input m_blockLength.insert(make_pair(0xd01,3)); // Leaf1JetNegEtaU1: JF2 Shared Received m_blockLength.insert(make_pair(0xd02,3)); // Leaf1JetNegEtaU1: JF2 Shared Sent m_blockLength.insert(make_pair(0xd03,10)); // Leaf1JetNegEtaU1: JF2 Output m_blockLength.insert(make_pair(0xd04,8)); // Leaf1JetNegEtaU1: JF2 Raw Input m_blockLength.insert(make_pair(0xd08,13)); // Leaf1JetNegEtaU1: JF3 Input m_blockLength.insert(make_pair(0xd09,3)); // Leaf1JetNegEtaU1: JF3 Shared Received m_blockLength.insert(make_pair(0xd0a,3)); // Leaf1JetNegEtaU1: JF3 Shared Sent m_blockLength.insert(make_pair(0xd0b,10)); // Leaf1JetNegEtaU1: JF3 Output m_blockLength.insert(make_pair(0xd0c,8)); // Leaf1JetNegEtaU1: JF3 Raw Input m_blockLength.insert(make_pair(0xd80,6)); // Leaf1JetNegEtaU2: Eta0 Input m_blockLength.insert(make_pair(0xd84,6)); // Leaf1JetNegEtaU2: Eta0 Raw Input m_blockLength.insert(make_pair(0xd88,13)); // Leaf1JetNegEtaU2: JF1 Input m_blockLength.insert(make_pair(0xd89,3)); // Leaf1JetNegEtaU2: JF1 Shared Received m_blockLength.insert(make_pair(0xd8a,3)); // Leaf1JetNegEtaU2: JF1 Shared Sent m_blockLength.insert(make_pair(0xd8b,10)); // Leaf1JetNegEtaU2: JF1 Output m_blockLength.insert(make_pair(0xd8c,8)); // Leaf1JetNegEtaU2: JF1 Raw Input m_blockLength.insert(make_pair(0xe00,13)); // Leaf2JetNegEtaU1: JF2 Input m_blockLength.insert(make_pair(0xe01,3)); // Leaf2JetNegEtaU1: JF2 Shared Received m_blockLength.insert(make_pair(0xe02,3)); // Leaf2JetNegEtaU1: JF2 Shared Sent m_blockLength.insert(make_pair(0xe03,10)); // Leaf2JetNegEtaU1: JF2 Output m_blockLength.insert(make_pair(0xe04,8)); // Leaf2JetNegEtaU1: JF2 Raw Input m_blockLength.insert(make_pair(0xe08,13)); // Leaf2JetNegEtaU1: JF3 Input m_blockLength.insert(make_pair(0xe09,3)); // Leaf2JetNegEtaU1: JF3 Shared Received m_blockLength.insert(make_pair(0xe0a,3)); // Leaf2JetNegEtaU1: JF3 Shared Sent m_blockLength.insert(make_pair(0xe0b,10)); // Leaf2JetNegEtaU1: JF3 Output m_blockLength.insert(make_pair(0xe0c,8)); // Leaf2JetNegEtaU1: JF3 Raw Input m_blockLength.insert(make_pair(0xe80,6)); // Leaf2JetNegEtaU2: Eta0 Input m_blockLength.insert(make_pair(0xe84,6)); // Leaf2JetNegEtaU2: Eta0 Raw Input m_blockLength.insert(make_pair(0xe88,13)); // Leaf2JetNegEtaU2: JF1 Input m_blockLength.insert(make_pair(0xe89,3)); // Leaf2JetNegEtaU2: JF1 Shared Received m_blockLength.insert(make_pair(0xe8a,3)); // Leaf2JetNegEtaU2: JF1 Shared Sent m_blockLength.insert(make_pair(0xe8b,10)); // Leaf2JetNegEtaU2: JF1 Output m_blockLength.insert(make_pair(0xe8c,8)); // Leaf2JetNegEtaU2: JF1 Raw Input m_blockLength.insert(make_pair(0xf00,13)); // Leaf3JetNegEtaU1: JF2 Input m_blockLength.insert(make_pair(0xf01,3)); // Leaf3JetNegEtaU1: JF2 Shared Received m_blockLength.insert(make_pair(0xf02,3)); // Leaf3JetNegEtaU1: JF2 Shared Sent m_blockLength.insert(make_pair(0xf03,10)); // Leaf3JetNegEtaU1: JF2 Output m_blockLength.insert(make_pair(0xf04,8)); // Leaf3JetNegEtaU1: JF2 Raw Input m_blockLength.insert(make_pair(0xf08,13)); // Leaf3JetNegEtaU1: JF3 Input m_blockLength.insert(make_pair(0xf09,3)); // Leaf3JetNegEtaU1: JF3 Shared Received m_blockLength.insert(make_pair(0xf0a,3)); // Leaf3JetNegEtaU1: JF3 Shared Sent m_blockLength.insert(make_pair(0xf0b,10)); // Leaf3JetNegEtaU1: JF3 Output m_blockLength.insert(make_pair(0xf0c,8)); // Leaf3JetNegEtaU1: JF3 Raw Input m_blockLength.insert(make_pair(0xf80,6)); // Leaf3JetNegEtaU2: Eta0 Input m_blockLength.insert(make_pair(0xf84,6)); // Leaf3JetNegEtaU2: Eta0 Raw Input m_blockLength.insert(make_pair(0xf88,13)); // Leaf3JetNegEtaU2: JF1 Input m_blockLength.insert(make_pair(0xf89,3)); // Leaf3JetNegEtaU2: JF1 Shared Received m_blockLength.insert(make_pair(0xf8a,3)); // Leaf3JetNegEtaU2: JF1 Shared Sent m_blockLength.insert(make_pair(0xf8b,10)); // Leaf3JetNegEtaU2: JF1 Output m_blockLength.insert(make_pair(0xf8c,8)); // Leaf3JetNegEtaU2: JF1 Raw Input /*** Setup BlockID to BlockName Map ***/ // Miscellaneous Blocks m_blockName.insert(make_pair(0x000,"NULL")); // ConcJet FPGA m_blockName.insert(make_pair(0x580,"ConcJet: Input TrigPathA (Jet Cands)")); m_blockName.insert(make_pair(0x581,"ConcJet: Input TrigPathB (HF Rings)")); m_blockName.insert(make_pair(0x582,"ConcJet: Input TrigPathC (MissHt)")); m_blockName.insert(make_pair(0x583,"ConcJet: Jet Cands and Counts Output to GT")); m_blockName.insert(make_pair(0x587,"ConcJet: BX & Orbit Info")); // ConcElec FPGA m_blockName.insert(make_pair(0x680,"ConcElec: Input TrigPathA (EM Cands)")); m_blockName.insert(make_pair(0x681,"ConcElec: Input TrigPathB (Et Sums)")); m_blockName.insert(make_pair(0x682,"ConcElec: Input TrigPathC (Ht Sums)")); m_blockName.insert(make_pair(0x683,"ConcElec: EM Cands and Energy Sums Output to GT")); m_blockName.insert(make_pair(0x686,"ConcElec: Test (GT Serdes Loopback)")); m_blockName.insert(make_pair(0x687,"ConcElec: BX & Orbit Info")); // Electron Leaf FPGAs m_blockName.insert(make_pair(0x800,"Leaf0ElecPosEtaU1: Sort Input")); m_blockName.insert(make_pair(0x803,"Leaf0ElecPosEtaU1: Sort Output")); m_blockName.insert(make_pair(0x804,"Leaf0ElecPosEtaU1: Raw Input")); m_blockName.insert(make_pair(0x880,"Leaf0ElecPosEtaU2: Sort Input")); m_blockName.insert(make_pair(0x883,"Leaf0ElecPosEtaU2: Sort Output")); m_blockName.insert(make_pair(0x884,"Leaf0ElecPosEtaU2: Raw Input")); m_blockName.insert(make_pair(0xc00,"Leaf0ElecNegEtaU1: Sort Input")); m_blockName.insert(make_pair(0xc03,"Leaf0ElecNegEtaU1: Sort Output")); m_blockName.insert(make_pair(0xc04,"Leaf0ElecNegEtaU1: Raw Input")); m_blockName.insert(make_pair(0xc80,"Leaf0ElecNegEtaU2: Sort Input")); m_blockName.insert(make_pair(0xc83,"Leaf0ElecNegEtaU2: Sort Output")); m_blockName.insert(make_pair(0xc84,"Leaf0ElecNegEtaU2: Raw Input")); // Wheel Pos-eta Jet FPGA m_blockName.insert(make_pair(0x300,"WheelPosEtaJet: Input TrigPathA (Jet Sort)")); m_blockName.insert(make_pair(0x301,"WheelPosEtaJet: Input TrigPathB (MissHt)")); m_blockName.insert(make_pair(0x303,"WheelPosEtaJet: Output TrigPathA (Jet Sort)")); m_blockName.insert(make_pair(0x305,"WheelPosEtaJet: Output TrigPathB (MissHt)")); m_blockName.insert(make_pair(0x306,"WheelPosEtaJet: Test (deprecated)")); // (Doesn't exist in V27.1 format, but does in V24 & V25, so keep for CRUZET2 data compatibility reasons) m_blockName.insert(make_pair(0x307,"WheelPosEtaJet: Info (deprecated)")); // (Doesn't exist in V27.1 format, but does in V24 & V25, so keep for CRUZET2 data compatibility reasons) // Wheel Pos-eta Energy FPGA m_blockName.insert(make_pair(0x380,"WheelPosEtaEnergy: Input TrigPathA (Et)")); m_blockName.insert(make_pair(0x381,"WheelPosEtaEnergy: Input TrigPathB (Ht)")); m_blockName.insert(make_pair(0x383,"WheelPosEtaEnergy: Output TrigPathA (Et)")); m_blockName.insert(make_pair(0x385,"WheelPosEtaEnergy: Output TrigPathB (Ht)")); m_blockName.insert(make_pair(0x386,"WheelPosEtaEnergy: Test")); m_blockName.insert(make_pair(0x387,"WheelPosEtaEnergy: BX & Orbit Info")); // Wheel Neg-eta Jet FPGA m_blockName.insert(make_pair(0x700,"WheelNegEtaJet: Input TrigPathA (Jet Sort)")); m_blockName.insert(make_pair(0x701,"WheelNegEtaJet: Input TrigPathB (MissHt)")); m_blockName.insert(make_pair(0x703,"WheelNegEtaJet: Output TrigPathA (Jet Sort)")); m_blockName.insert(make_pair(0x705,"WheelNegEtaJet: Output TrigPathB (MissHt)")); m_blockName.insert(make_pair(0x706,"WheelNegEtaJet: Test (deprecated)")); // (Doesn't exist in V27.1 format, but does in V24 & V25, so keep for CRUZET2 data compatibility reasons) m_blockName.insert(make_pair(0x707,"WheelNegEtaJet: Info (deprecated)")); // (Doesn't exist in V27.1 format, but does in V24 & V25, so keep for CRUZET2 data compatibility reasons) // Wheel Neg-eta Energy FPGA m_blockName.insert(make_pair(0x780,"WheelNegEtaEnergy: Input TrigPathA (Et)")); m_blockName.insert(make_pair(0x781,"WheelNegEtaEnergy: Input TrigPathB (Ht)")); m_blockName.insert(make_pair(0x783,"WheelNegEtaEnergy: Output TrigPathA (Et)")); m_blockName.insert(make_pair(0x785,"WheelNegEtaEnergy: Output TrigPathB (Ht)")); m_blockName.insert(make_pair(0x786,"WheelNegEtaEnergy: Test")); m_blockName.insert(make_pair(0x787,"WheelNegEtaEnergy: BX & Orbit Info")); // Jet Leaf FPGAs - Positive Eta m_blockName.insert(make_pair(0x900,"Leaf1JetPosEtaU1: JF2 Input")); m_blockName.insert(make_pair(0x901,"Leaf1JetPosEtaU1: JF2 Shared Received")); m_blockName.insert(make_pair(0x902,"Leaf1JetPosEtaU1: JF2 Shared Sent")); m_blockName.insert(make_pair(0x903,"Leaf1JetPosEtaU1: JF2 Output")); m_blockName.insert(make_pair(0x904,"Leaf1JetPosEtaU1: JF2 Raw Input")); m_blockName.insert(make_pair(0x908,"Leaf1JetPosEtaU1: JF3 Input")); m_blockName.insert(make_pair(0x909,"Leaf1JetPosEtaU1: JF3 Shared Received")); m_blockName.insert(make_pair(0x90a,"Leaf1JetPosEtaU1: JF3 Shared Sent")); m_blockName.insert(make_pair(0x90b,"Leaf1JetPosEtaU1: JF3 Output")); m_blockName.insert(make_pair(0x90c,"Leaf1JetPosEtaU1: JF3 Raw Input")); m_blockName.insert(make_pair(0x980,"Leaf1JetPosEtaU2: Eta0 Input")); // Next Leaf Start m_blockName.insert(make_pair(0x984,"Leaf1JetPosEtaU2: Eta0 Raw Input")); m_blockName.insert(make_pair(0x988,"Leaf1JetPosEtaU2: JF1 Input")); m_blockName.insert(make_pair(0x989,"Leaf1JetPosEtaU2: JF1 Shared Received")); m_blockName.insert(make_pair(0x98a,"Leaf1JetPosEtaU2: JF1 Shared Sent")); m_blockName.insert(make_pair(0x98b,"Leaf1JetPosEtaU2: JF1 Output")); m_blockName.insert(make_pair(0x98c,"Leaf1JetPosEtaU2: JF1 Raw Input")); m_blockName.insert(make_pair(0xa00,"Leaf2JetPosEtaU1: JF2 Input")); // Next Leaf Start m_blockName.insert(make_pair(0xa01,"Leaf2JetPosEtaU1: JF2 Shared Received")); m_blockName.insert(make_pair(0xa02,"Leaf2JetPosEtaU1: JF2 Shared Sent")); m_blockName.insert(make_pair(0xa03,"Leaf2JetPosEtaU1: JF2 Output")); m_blockName.insert(make_pair(0xa04,"Leaf2JetPosEtaU1: JF2 Raw Input")); m_blockName.insert(make_pair(0xa08,"Leaf2JetPosEtaU1: JF3 Input")); m_blockName.insert(make_pair(0xa09,"Leaf2JetPosEtaU1: JF3 Shared Received")); m_blockName.insert(make_pair(0xa0a,"Leaf2JetPosEtaU1: JF3 Shared Sent")); m_blockName.insert(make_pair(0xa0b,"Leaf2JetPosEtaU1: JF3 Output")); m_blockName.insert(make_pair(0xa0c,"Leaf2JetPosEtaU1: JF3 Raw Input")); m_blockName.insert(make_pair(0xa80,"Leaf2JetPosEtaU2: Eta0 Input")); // Next Leaf Start m_blockName.insert(make_pair(0xa84,"Leaf2JetPosEtaU2: Eta0 Raw Input")); m_blockName.insert(make_pair(0xa88,"Leaf2JetPosEtaU2: JF1 Input")); m_blockName.insert(make_pair(0xa89,"Leaf2JetPosEtaU2: JF1 Shared Received")); m_blockName.insert(make_pair(0xa8a,"Leaf2JetPosEtaU2: JF1 Shared Sent")); m_blockName.insert(make_pair(0xa8b,"Leaf2JetPosEtaU2: JF1 Output")); m_blockName.insert(make_pair(0xa8c,"Leaf2JetPosEtaU2: JF1 Raw Input")); m_blockName.insert(make_pair(0xb00,"Leaf3JetPosEtaU1: JF2 Input")); // Next Leaf Start m_blockName.insert(make_pair(0xb01,"Leaf3JetPosEtaU1: JF2 Shared Received")); m_blockName.insert(make_pair(0xb02,"Leaf3JetPosEtaU1: JF2 Shared Sent")); m_blockName.insert(make_pair(0xb03,"Leaf3JetPosEtaU1: JF2 Output")); m_blockName.insert(make_pair(0xb04,"Leaf3JetPosEtaU1: JF2 Raw Input")); m_blockName.insert(make_pair(0xb08,"Leaf3JetPosEtaU1: JF3 Input")); m_blockName.insert(make_pair(0xb09,"Leaf3JetPosEtaU1: JF3 Shared Received")); m_blockName.insert(make_pair(0xb0a,"Leaf3JetPosEtaU1: JF3 Shared Sent")); m_blockName.insert(make_pair(0xb0b,"Leaf3JetPosEtaU1: JF3 Output")); m_blockName.insert(make_pair(0xb0c,"Leaf3JetPosEtaU1: JF3 Raw Input")); m_blockName.insert(make_pair(0xb80,"Leaf3JetPosEtaU2: Eta0 Input")); // Next Leaf Start m_blockName.insert(make_pair(0xb84,"Leaf3JetPosEtaU2: Eta0 Raw Input")); m_blockName.insert(make_pair(0xb88,"Leaf3JetPosEtaU2: JF1 Input")); m_blockName.insert(make_pair(0xb89,"Leaf3JetPosEtaU2: JF1 Shared Received")); m_blockName.insert(make_pair(0xb8a,"Leaf3JetPosEtaU2: JF1 Shared Sent")); m_blockName.insert(make_pair(0xb8b,"Leaf3JetPosEtaU2: JF1 Output")); m_blockName.insert(make_pair(0xb8c,"Leaf3JetPosEtaU2: JF1 Raw Input")); // Jet Leaf FPGAs - Negative Eta m_blockName.insert(make_pair(0xd00,"Leaf1JetNegEtaU1: JF2 Input")); // START OF NEG ETA JET LEAVES m_blockName.insert(make_pair(0xd01,"Leaf1JetNegEtaU1: JF2 Shared Received")); m_blockName.insert(make_pair(0xd02,"Leaf1JetNegEtaU1: JF2 Shared Sent")); m_blockName.insert(make_pair(0xd03,"Leaf1JetNegEtaU1: JF2 Output")); m_blockName.insert(make_pair(0xd04,"Leaf1JetNegEtaU1: JF2 Raw Input")); m_blockName.insert(make_pair(0xd08,"Leaf1JetNegEtaU1: JF3 Input")); m_blockName.insert(make_pair(0xd09,"Leaf1JetNegEtaU1: JF3 Shared Received")); m_blockName.insert(make_pair(0xd0a,"Leaf1JetNegEtaU1: JF3 Shared Sent")); m_blockName.insert(make_pair(0xd0b,"Leaf1JetNegEtaU1: JF3 Output")); m_blockName.insert(make_pair(0xd0c,"Leaf1JetNegEtaU1: JF3 Raw Input")); m_blockName.insert(make_pair(0xd80,"Leaf1JetNegEtaU2: Eta0 Input")); // Next Leaf Start m_blockName.insert(make_pair(0xd84,"Leaf1JetNegEtaU2: Eta0 Raw Input")); m_blockName.insert(make_pair(0xd88,"Leaf1JetNegEtaU2: JF1 Input")); m_blockName.insert(make_pair(0xd89,"Leaf1JetNegEtaU2: JF1 Shared Received")); m_blockName.insert(make_pair(0xd8a,"Leaf1JetNegEtaU2: JF1 Shared Sent")); m_blockName.insert(make_pair(0xd8b,"Leaf1JetNegEtaU2: JF1 Output")); m_blockName.insert(make_pair(0xd8c,"Leaf1JetNegEtaU2: JF1 Raw Input")); m_blockName.insert(make_pair(0xe00,"Leaf2JetNegEtaU1: JF2 Input")); // Next Leaf Start m_blockName.insert(make_pair(0xe01,"Leaf2JetNegEtaU1: JF2 Shared Received")); m_blockName.insert(make_pair(0xe02,"Leaf2JetNegEtaU1: JF2 Shared Sent")); m_blockName.insert(make_pair(0xe03,"Leaf2JetNegEtaU1: JF2 Output")); m_blockName.insert(make_pair(0xe04,"Leaf2JetNegEtaU1: JF2 Raw Input")); m_blockName.insert(make_pair(0xe08,"Leaf2JetNegEtaU1: JF3 Input")); m_blockName.insert(make_pair(0xe09,"Leaf2JetNegEtaU1: JF3 Shared Received")); m_blockName.insert(make_pair(0xe0a,"Leaf2JetNegEtaU1: JF3 Shared Sent")); m_blockName.insert(make_pair(0xe0b,"Leaf2JetNegEtaU1: JF3 Output")); m_blockName.insert(make_pair(0xe0c,"Leaf2JetNegEtaU1: JF3 Raw Input")); m_blockName.insert(make_pair(0xe80,"Leaf2JetNegEtaU2: Eta0 Input")); // Next Leaf Start m_blockName.insert(make_pair(0xe84,"Leaf2JetNegEtaU2: Eta0 Raw Input")); m_blockName.insert(make_pair(0xe88,"Leaf2JetNegEtaU2: JF1 Input")); m_blockName.insert(make_pair(0xe89,"Leaf2JetNegEtaU2: JF1 Shared Received")); m_blockName.insert(make_pair(0xe8a,"Leaf2JetNegEtaU2: JF1 Shared Sent")); m_blockName.insert(make_pair(0xe8b,"Leaf2JetNegEtaU2: JF1 Output")); m_blockName.insert(make_pair(0xe8c,"Leaf2JetNegEtaU2: JF1 Raw Input")); m_blockName.insert(make_pair(0xf00,"Leaf3JetNegEtaU1: JF2 Input")); // Next Leaf Start m_blockName.insert(make_pair(0xf01,"Leaf3JetNegEtaU1: JF2 Shared Received")); m_blockName.insert(make_pair(0xf02,"Leaf3JetNegEtaU1: JF2 Shared Sent")); m_blockName.insert(make_pair(0xf03,"Leaf3JetNegEtaU1: JF2 Output")); m_blockName.insert(make_pair(0xf04,"Leaf3JetNegEtaU1: JF2 Raw Input")); m_blockName.insert(make_pair(0xf08,"Leaf3JetNegEtaU1: JF3 Input")); m_blockName.insert(make_pair(0xf09,"Leaf3JetNegEtaU1: JF3 Shared Received")); m_blockName.insert(make_pair(0xf0a,"Leaf3JetNegEtaU1: JF3 Shared Sent")); m_blockName.insert(make_pair(0xf0b,"Leaf3JetNegEtaU1: JF3 Output")); m_blockName.insert(make_pair(0xf0c,"Leaf3JetNegEtaU1: JF3 Raw Input")); m_blockName.insert(make_pair(0xf80,"Leaf3JetNegEtaU2: Eta0 Input")); // Next Leaf Start m_blockName.insert(make_pair(0xf84,"Leaf3JetNegEtaU2: Eta0 Raw Input")); m_blockName.insert(make_pair(0xf88,"Leaf3JetNegEtaU2: JF1 Input")); m_blockName.insert(make_pair(0xf89,"Leaf3JetNegEtaU2: JF1 Shared Received")); m_blockName.insert(make_pair(0xf8a,"Leaf3JetNegEtaU2: JF1 Shared Sent")); m_blockName.insert(make_pair(0xf8b,"Leaf3JetNegEtaU2: JF1 Output")); m_blockName.insert(make_pair(0xf8c,"Leaf3JetNegEtaU2: JF1 Raw Input")); /*** Setup BlockID to Unpack-Function Map ***/ // Miscellaneous Blocks m_blockUnpackFn[0x000] = &GctFormatTranslateV38::blockDoNothing; // NULL // ConcJet FPGA m_blockUnpackFn[0x580] = &GctFormatTranslateV38::blockToGctTrigObjects; // ConcJet: Input TrigPathA (Jet Cands) m_blockUnpackFn[0x581] = &GctFormatTranslateV38::blockToGctInternRingSums; // ConcJet: Input TrigPathB (HF Rings) m_blockUnpackFn[0x582] = &GctFormatTranslateV38::blockToGctInternHtMissPostWheel; // ConcJet: Input TrigPathC (MissHt) m_blockUnpackFn[0x583] = &GctFormatTranslateV38::blockToGctJetCandsAndCounts; // ConcJet: Jet Cands and Counts Output to GT m_blockUnpackFn[0x587] = &GctFormatTranslateV38::blockDoNothing; // ConcJet: BX & Orbit Info // ConcElec FPGA m_blockUnpackFn[0x680] = &GctFormatTranslateV38::blockToGctInternEmCand; // ConcElec: Input TrigPathA (EM Cands) m_blockUnpackFn[0x681] = &GctFormatTranslateV38::blockToGctInternEtSums; // ConcElec: Input TrigPathB (Et Sums) m_blockUnpackFn[0x682] = &GctFormatTranslateV38::blockToGctInternEtSums; // ConcElec: Input TrigPathC (Ht Sums) m_blockUnpackFn[0x683] = &GctFormatTranslateV38::blockToGctEmCandsAndEnergySums; // ConcElec: EM Cands and Energy Sums Output to GT m_blockUnpackFn[0x686] = &GctFormatTranslateV38::blockDoNothing; // ConcElec: Test (GT Serdes Loopback) m_blockUnpackFn[0x687] = &GctFormatTranslateV38::blockDoNothing; // ConcElec: BX & Orbit Info // Electron Leaf FPGAs m_blockUnpackFn[0x800] = &GctFormatTranslateV38::blockToGctInternEmCand; // Leaf0ElecPosEtaU1: Sort Input m_blockUnpackFn[0x803] = &GctFormatTranslateV38::blockToGctInternEmCand; // Leaf0ElecPosEtaU1: Sort Output m_blockUnpackFn[0x804] = &GctFormatTranslateV38::blockToFibresAndToRctEmCand; // Leaf0ElecPosEtaU1: Raw Input m_blockUnpackFn[0x880] = &GctFormatTranslateV38::blockToGctInternEmCand; // Leaf0ElecPosEtaU2: Sort Input m_blockUnpackFn[0x883] = &GctFormatTranslateV38::blockToGctInternEmCand; // Leaf0ElecPosEtaU2: Sort Output m_blockUnpackFn[0x884] = &GctFormatTranslateV38::blockToFibresAndToRctEmCand; // Leaf0ElecPosEtaU2: Raw Input m_blockUnpackFn[0xc00] = &GctFormatTranslateV38::blockToGctInternEmCand; // Leaf0ElecNegEtaU1: Sort Input m_blockUnpackFn[0xc03] = &GctFormatTranslateV38::blockToGctInternEmCand; // Leaf0ElecNegEtaU1: Sort Output m_blockUnpackFn[0xc04] = &GctFormatTranslateV38::blockToFibresAndToRctEmCand; // Leaf0ElecNegEtaU1: Raw Input m_blockUnpackFn[0xc80] = &GctFormatTranslateV38::blockToGctInternEmCand; // Leaf0ElecNegEtaU2: Sort Input m_blockUnpackFn[0xc83] = &GctFormatTranslateV38::blockToGctInternEmCand; // Leaf0ElecNegEtaU2: Sort Output m_blockUnpackFn[0xc84] = &GctFormatTranslateV38::blockToFibresAndToRctEmCand; // Leaf0ElecNegEtaU2: Raw Input // Wheel Pos-eta Jet FPGA m_blockUnpackFn[0x300] = &GctFormatTranslateV38::blockToGctJetClusterMinimal; // WheelPosEtaJet: Input TrigPathA (Jet Sort) m_blockUnpackFn[0x301] = &GctFormatTranslateV38::blockToGctInternHtMissPreWheel; // WheelPosEtaJet: Input TrigPathB (MissHt) m_blockUnpackFn[0x303] = &GctFormatTranslateV38::blockToGctTrigObjects; // WheelPosEtaJet: Output TrigPathA (Jet Sort) m_blockUnpackFn[0x305] = &GctFormatTranslateV38::blockToGctInternHtMissPostWheel; // WheelPosEtaJet: Output TrigPathB (MissHt) m_blockUnpackFn[0x306] = &GctFormatTranslateV38::blockDoNothing; // WheelPosEtaJet: Test (deprecated) (Doesn't exist in V27.1 format, but does in V24 & V25, so keep for CRUZET2 data compatibility reasons) m_blockUnpackFn[0x307] = &GctFormatTranslateV38::blockDoNothing; // WheelPosEtaJet: Info (deprecated) (Doesn't exist in V27.1 format, but does in V24 & V25, so keep for CRUZET2 data compatibility reasons) // Wheel Pos-eta Energy FPGA m_blockUnpackFn[0x380] = &GctFormatTranslateV38::blockToGctWheelInputInternEtAndRingSums; // WheelPosEtaEnergy: Input TrigPathA (Et) m_blockUnpackFn[0x381] = &GctFormatTranslateV38::blockToGctInternEtSums; // WheelPosEtaEnergy: Input TrigPathB (Ht) m_blockUnpackFn[0x383] = &GctFormatTranslateV38::blockToGctWheelOutputInternEtAndRingSums; // WheelPosEtaEnergy: Output TrigPathA (Et) m_blockUnpackFn[0x385] = &GctFormatTranslateV38::blockToGctInternEtSums; // WheelPosEtaEnergy: Output TrigPathB (Ht) m_blockUnpackFn[0x386] = &GctFormatTranslateV38::blockDoNothing; // WheelPosEtaEnergy: Test m_blockUnpackFn[0x387] = &GctFormatTranslateV38::blockDoNothing; // WheelPosEtaEnergy: BX & Orbit Info (Potential data incompatibility between V24/V25 where block length=4, and V27.1 where block length=6) // Wheel Neg-eta Jet FPGA m_blockUnpackFn[0x700] = &GctFormatTranslateV38::blockToGctJetClusterMinimal; // WheelNegEtaJet: Input TrigPathA (Jet Sort) m_blockUnpackFn[0x701] = &GctFormatTranslateV38::blockToGctInternHtMissPreWheel; // WheelNegEtaJet: Input TrigPathB (MissHt) m_blockUnpackFn[0x703] = &GctFormatTranslateV38::blockToGctTrigObjects; // WheelNegEtaJet: Output TrigPathA (Jet Sort) m_blockUnpackFn[0x705] = &GctFormatTranslateV38::blockToGctInternHtMissPostWheel; // WheelNegEtaJet: Output TrigPathB (MissHt) m_blockUnpackFn[0x706] = &GctFormatTranslateV38::blockDoNothing; // WheelNegEtaJet: Test (deprecated) (Doesn't exist in V27.1 format, but does in V24 & V25, so keep for CRUZET2 data compatibility reasons) m_blockUnpackFn[0x707] = &GctFormatTranslateV38::blockDoNothing; // WheelNegEtaJet: Info (deprecated) (Doesn't exist in V27.1 format, but does in V24 & V25, so keep for CRUZET2 data compatibility reasons) // Wheel Neg-eta Energy FPGA m_blockUnpackFn[0x780] = &GctFormatTranslateV38::blockToGctWheelInputInternEtAndRingSums; // WheelNegEtaEnergy: Input TrigPathA (Et) m_blockUnpackFn[0x781] = &GctFormatTranslateV38::blockToGctInternEtSums; // WheelNegEtaEnergy: Input TrigPathB (Ht) m_blockUnpackFn[0x783] = &GctFormatTranslateV38::blockToGctWheelOutputInternEtAndRingSums; // WheelNegEtaEnergy: Output TrigPathA (Et) m_blockUnpackFn[0x785] = &GctFormatTranslateV38::blockToGctInternEtSums; // WheelNegEtaEnergy: Output TrigPathB (Ht) m_blockUnpackFn[0x786] = &GctFormatTranslateV38::blockDoNothing; // WheelNegEtaEnergy: Test m_blockUnpackFn[0x787] = &GctFormatTranslateV38::blockDoNothing; // WheelNegEtaEnergy: BX & Orbit Info (Potential data incompatibility between V24/V25 where block length=4, and V27.1 where block length=6) // Jet Leaf FPGAs - Positive Eta m_blockUnpackFn[0x900] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf1JetPosEtaU1: JF2 Input m_blockUnpackFn[0x901] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf1JetPosEtaU1: JF2 Shared Received m_blockUnpackFn[0x902] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf1JetPosEtaU1: JF2 Shared Sent m_blockUnpackFn[0x903] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf1JetPosEtaU1: JF2 Output m_blockUnpackFn[0x904] = &GctFormatTranslateV38::blockToFibres; // Leaf1JetPosEtaU1: JF2 Raw Input m_blockUnpackFn[0x908] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf1JetPosEtaU1: JF3 Input m_blockUnpackFn[0x909] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf1JetPosEtaU1: JF3 Shared Received m_blockUnpackFn[0x90a] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf1JetPosEtaU1: JF3 Shared Sent m_blockUnpackFn[0x90b] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf1JetPosEtaU1: JF3 Output m_blockUnpackFn[0x90c] = &GctFormatTranslateV38::blockToFibres; // Leaf1JetPosEtaU1: JF3 Raw Input m_blockUnpackFn[0x980] = &GctFormatTranslateV38::blockDoNothing; // Leaf1JetPosEtaU2: Eta0 Input m_blockUnpackFn[0x984] = &GctFormatTranslateV38::blockToFibres; // Leaf1JetPosEtaU2: Eta0 Raw Input m_blockUnpackFn[0x988] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf1JetPosEtaU2: JF1 Input m_blockUnpackFn[0x989] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf1JetPosEtaU2: JF1 Shared Received m_blockUnpackFn[0x98a] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf1JetPosEtaU2: JF1 Shared Sent m_blockUnpackFn[0x98b] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf1JetPosEtaU2: JF1 Output m_blockUnpackFn[0x98c] = &GctFormatTranslateV38::blockToFibres; // Leaf1JetPosEtaU2: JF1 Raw Input m_blockUnpackFn[0xa00] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf2JetPosEtaU1: JF2 Input m_blockUnpackFn[0xa01] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf2JetPosEtaU1: JF2 Shared Received m_blockUnpackFn[0xa02] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf2JetPosEtaU1: JF2 Shared Sent m_blockUnpackFn[0xa03] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf2JetPosEtaU1: JF2 Output m_blockUnpackFn[0xa04] = &GctFormatTranslateV38::blockToFibres; // Leaf2JetPosEtaU1: JF2 Raw Input m_blockUnpackFn[0xa08] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf2JetPosEtaU1: JF3 Input m_blockUnpackFn[0xa09] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf2JetPosEtaU1: JF3 Shared Received m_blockUnpackFn[0xa0a] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf2JetPosEtaU1: JF3 Shared Sent m_blockUnpackFn[0xa0b] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf2JetPosEtaU1: JF3 Output m_blockUnpackFn[0xa0c] = &GctFormatTranslateV38::blockToFibres; // Leaf2JetPosEtaU1: JF3 Raw Input m_blockUnpackFn[0xa80] = &GctFormatTranslateV38::blockDoNothing; // Leaf2JetPosEtaU2: Eta0 Input m_blockUnpackFn[0xa84] = &GctFormatTranslateV38::blockToFibres; // Leaf2JetPosEtaU2: Eta0 Raw Input m_blockUnpackFn[0xa88] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf2JetPosEtaU2: JF1 Input m_blockUnpackFn[0xa89] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf2JetPosEtaU2: JF1 Shared Received m_blockUnpackFn[0xa8a] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf2JetPosEtaU2: JF1 Shared Sent m_blockUnpackFn[0xa8b] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf2JetPosEtaU2: JF1 Output m_blockUnpackFn[0xa8c] = &GctFormatTranslateV38::blockToFibres; // Leaf2JetPosEtaU2: JF1 Raw Input m_blockUnpackFn[0xb00] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf3JetPosEtaU1: JF2 Input m_blockUnpackFn[0xb01] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf3JetPosEtaU1: JF2 Shared Received m_blockUnpackFn[0xb02] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf3JetPosEtaU1: JF2 Shared Sent m_blockUnpackFn[0xb03] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf3JetPosEtaU1: JF2 Output m_blockUnpackFn[0xb04] = &GctFormatTranslateV38::blockToFibres; // Leaf3JetPosEtaU1: JF2 Raw Input m_blockUnpackFn[0xb08] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf3JetPosEtaU1: JF3 Input m_blockUnpackFn[0xb09] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf3JetPosEtaU1: JF3 Shared Received m_blockUnpackFn[0xb0a] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf3JetPosEtaU1: JF3 Shared Sent m_blockUnpackFn[0xb0b] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf3JetPosEtaU1: JF3 Output m_blockUnpackFn[0xb0c] = &GctFormatTranslateV38::blockToFibres; // Leaf3JetPosEtaU1: JF3 Raw Input m_blockUnpackFn[0xb80] = &GctFormatTranslateV38::blockDoNothing; // Leaf3JetPosEtaU2: Eta0 Input m_blockUnpackFn[0xb84] = &GctFormatTranslateV38::blockToFibres; // Leaf3JetPosEtaU2: Eta0 Raw Input m_blockUnpackFn[0xb88] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf3JetPosEtaU2: JF1 Input m_blockUnpackFn[0xb89] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf3JetPosEtaU2: JF1 Shared Received m_blockUnpackFn[0xb8a] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf3JetPosEtaU2: JF1 Shared Sent m_blockUnpackFn[0xb8b] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf3JetPosEtaU2: JF1 Output m_blockUnpackFn[0xb8c] = &GctFormatTranslateV38::blockToFibres; // Leaf3JetPosEtaU2: JF1 Raw Input // Jet Leaf FPGAs - Negative Eta m_blockUnpackFn[0xd00] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf1JetNegEtaU1: JF2 Input m_blockUnpackFn[0xd01] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf1JetNegEtaU1: JF2 Shared Received m_blockUnpackFn[0xd02] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf1JetNegEtaU1: JF2 Shared Sent m_blockUnpackFn[0xd03] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf1JetNegEtaU1: JF2 Output m_blockUnpackFn[0xd04] = &GctFormatTranslateV38::blockToFibres; // Leaf1JetNegEtaU1: JF2 Raw Input m_blockUnpackFn[0xd08] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf1JetNegEtaU1: JF3 Input m_blockUnpackFn[0xd09] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf1JetNegEtaU1: JF3 Shared Received m_blockUnpackFn[0xd0a] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf1JetNegEtaU1: JF3 Shared Sent m_blockUnpackFn[0xd0b] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf1JetNegEtaU1: JF3 Output m_blockUnpackFn[0xd0c] = &GctFormatTranslateV38::blockToFibres; // Leaf1JetNegEtaU1: JF3 Raw Input m_blockUnpackFn[0xd80] = &GctFormatTranslateV38::blockDoNothing; // Leaf1JetNegEtaU2: Eta0 Input m_blockUnpackFn[0xd84] = &GctFormatTranslateV38::blockToFibres; // Leaf1JetNegEtaU2: Eta0 Raw Input m_blockUnpackFn[0xd88] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf1JetNegEtaU2: JF1 Input m_blockUnpackFn[0xd89] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf1JetNegEtaU2: JF1 Shared Received m_blockUnpackFn[0xd8a] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf1JetNegEtaU2: JF1 Shared Sent m_blockUnpackFn[0xd8b] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf1JetNegEtaU2: JF1 Output m_blockUnpackFn[0xd8c] = &GctFormatTranslateV38::blockToFibres; // Leaf1JetNegEtaU2: JF1 Raw Input m_blockUnpackFn[0xe00] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf2JetNegEtaU1: JF2 Input m_blockUnpackFn[0xe01] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf2JetNegEtaU1: JF2 Shared Received m_blockUnpackFn[0xe02] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf2JetNegEtaU1: JF2 Shared Sent m_blockUnpackFn[0xe03] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf2JetNegEtaU1: JF2 Output m_blockUnpackFn[0xe04] = &GctFormatTranslateV38::blockToFibres; // Leaf2JetNegEtaU1: JF2 Raw Input m_blockUnpackFn[0xe08] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf2JetNegEtaU1: JF3 Input m_blockUnpackFn[0xe09] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf2JetNegEtaU1: JF3 Shared Received m_blockUnpackFn[0xe0a] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf2JetNegEtaU1: JF3 Shared Sent m_blockUnpackFn[0xe0b] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf2JetNegEtaU1: JF3 Output m_blockUnpackFn[0xe0c] = &GctFormatTranslateV38::blockToFibres; // Leaf2JetNegEtaU1: JF3 Raw Input m_blockUnpackFn[0xe80] = &GctFormatTranslateV38::blockDoNothing; // Leaf2JetNegEtaU2: Eta0 Input m_blockUnpackFn[0xe84] = &GctFormatTranslateV38::blockToFibres; // Leaf2JetNegEtaU2: Eta0 Raw Input m_blockUnpackFn[0xe88] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf2JetNegEtaU2: JF1 Input m_blockUnpackFn[0xe89] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf2JetNegEtaU2: JF1 Shared Received m_blockUnpackFn[0xe8a] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf2JetNegEtaU2: JF1 Shared Sent m_blockUnpackFn[0xe8b] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf2JetNegEtaU2: JF1 Output m_blockUnpackFn[0xe8c] = &GctFormatTranslateV38::blockToFibres; // Leaf2JetNegEtaU2: JF1 Raw Input m_blockUnpackFn[0xf00] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf3JetNegEtaU1: JF2 Input m_blockUnpackFn[0xf01] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf3JetNegEtaU1: JF2 Shared Received m_blockUnpackFn[0xf02] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf3JetNegEtaU1: JF2 Shared Sent m_blockUnpackFn[0xf03] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf3JetNegEtaU1: JF2 Output m_blockUnpackFn[0xf04] = &GctFormatTranslateV38::blockToFibres; // Leaf3JetNegEtaU1: JF2 Raw Input m_blockUnpackFn[0xf08] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf3JetNegEtaU1: JF3 Input m_blockUnpackFn[0xf09] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf3JetNegEtaU1: JF3 Shared Received m_blockUnpackFn[0xf0a] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf3JetNegEtaU1: JF3 Shared Sent m_blockUnpackFn[0xf0b] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf3JetNegEtaU1: JF3 Output m_blockUnpackFn[0xf0c] = &GctFormatTranslateV38::blockToFibres; // Leaf3JetNegEtaU1: JF3 Raw Input m_blockUnpackFn[0xf80] = &GctFormatTranslateV38::blockDoNothing; // Leaf3JetNegEtaU2: Eta0 Input m_blockUnpackFn[0xf84] = &GctFormatTranslateV38::blockToFibres; // Leaf3JetNegEtaU2: Eta0 Raw Input m_blockUnpackFn[0xf88] = &GctFormatTranslateV38::blockToRctCaloRegions; // Leaf3JetNegEtaU2: JF1 Input m_blockUnpackFn[0xf89] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf3JetNegEtaU2: JF1 Shared Received m_blockUnpackFn[0xf8a] = &GctFormatTranslateV38::blockToGctJetPreCluster; // Leaf3JetNegEtaU2: JF1 Shared Sent m_blockUnpackFn[0xf8b] = &GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster;// Leaf3JetNegEtaU2: JF1 Output m_blockUnpackFn[0xf8c] = &GctFormatTranslateV38::blockToFibres; // Leaf3JetNegEtaU2: JF1 Raw Input /*** Setup RCT Em Crate Map ***/ m_rctEmCrate[0x804] = 13; m_rctEmCrate[0x884] = 9; m_rctEmCrate[0xc04] = 4; m_rctEmCrate[0xc84] = 0; /*** Setup RCT jet crate map. ***/ m_rctJetCrate[0x900] = 9; // PosEta Leaf 1 JF2 m_rctJetCrate[0x908] = 10; // PosEta Leaf 1 JF3 m_rctJetCrate[0x988] = 17; // PosEta Leaf 1 JF1 m_rctJetCrate[0xa00] = 12; // PosEta Leaf 2 JF2 m_rctJetCrate[0xa08] = 13; // PosEta Leaf 2 JF3 m_rctJetCrate[0xa88] = 11; // PosEta Leaf 2 JF1 m_rctJetCrate[0xb00] = 15; // PosEta Leaf 3 JF2 m_rctJetCrate[0xb08] = 16; // PosEta Leaf 3 JF3 m_rctJetCrate[0xb88] = 14; // PosEta Leaf 3 JF1 m_rctJetCrate[0xd00] = 0; // NegEta Leaf 1 JF2 m_rctJetCrate[0xd08] = 1; // NegEta Leaf 1 JF3 m_rctJetCrate[0xd88] = 8; // NegEta Leaf 1 JF1 m_rctJetCrate[0xe00] = 3; // NegEta Leaf 2 JF2 m_rctJetCrate[0xe08] = 4; // NegEta Leaf 2 JF3 m_rctJetCrate[0xe88] = 2; // NegEta Leaf 2 JF1 m_rctJetCrate[0xf00] = 6; // NegEta Leaf 3 JF2 m_rctJetCrate[0xf08] = 7; // NegEta Leaf 3 JF3 m_rctJetCrate[0xf88] = 5; // NegEta Leaf 3 JF1 /*** Setup Block ID map for pipeline payload positions of isolated Internal EM Cands. ***/ m_internEmIsoBounds[0x680] = IsoBoundaryPair(8,15); m_internEmIsoBounds[0x800] = IsoBoundaryPair(0, 9); m_internEmIsoBounds[0x803] = IsoBoundaryPair(0, 1); m_internEmIsoBounds[0x880] = IsoBoundaryPair(0, 7); m_internEmIsoBounds[0x883] = IsoBoundaryPair(0, 1); m_internEmIsoBounds[0xc00] = IsoBoundaryPair(0, 9); m_internEmIsoBounds[0xc03] = IsoBoundaryPair(0, 1); m_internEmIsoBounds[0xc80] = IsoBoundaryPair(0, 7); m_internEmIsoBounds[0xc83] = IsoBoundaryPair(0, 1); } }
| GctFormatTranslateV38::~GctFormatTranslateV38 | ( | ) | [virtual] |
| virtual BlockLengthMap& GctFormatTranslateV38::blockLengthMap | ( | ) | [inline, protected, virtual] |
get the static block ID to block-length map.
Implements GctFormatTranslateBase.
Definition at line 54 of file GctFormatTranslateV38.h.
References m_blockLength.
Referenced by generateBlockHeader().
| virtual const BlockLengthMap& GctFormatTranslateV38::blockLengthMap | ( | ) | const [inline, protected, virtual] |
get the static block ID to block-length map.
Implements GctFormatTranslateBase.
Definition at line 55 of file GctFormatTranslateV38.h.
References m_blockLength.
| virtual BlockNameMap& GctFormatTranslateV38::blockNameMap | ( | ) | [inline, protected, virtual] |
get the static block ID to block-name map.
Implements GctFormatTranslateBase.
Definition at line 57 of file GctFormatTranslateV38.h.
References m_blockName.
| virtual const BlockNameMap& GctFormatTranslateV38::blockNameMap | ( | ) | const [inline, protected, virtual] |
get the static block ID to blockname map.
Implements GctFormatTranslateBase.
Definition at line 58 of file GctFormatTranslateV38.h.
References m_blockName.
| void GctFormatTranslateV38::blockToFibres | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack Fibres
Definition at line 946 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), GctUnpackCollections::gctFibres(), GctFormatTranslateBase::hltMode(), i, LogDebug, GctBlockHeader::nSamples(), and AlCaHLTBitMon_ParallelJobs::p.
Referenced by blockToFibresAndToRctEmCand(), and GctFormatTranslateV38().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of GCT Fibres"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int length = hdr.blockLength();
// re-interpret pointer
const uint32_t * p = reinterpret_cast<const uint32_t *>(d);
for (unsigned int i=0; i<length; ++i) {
for (unsigned int bx=0; bx<nSamples; ++bx) {
colls()->gctFibres()->push_back( L1GctFibreWord(*p, id, i, bx) );
++p;
}
}
}
| void GctFormatTranslateV38::blockToFibresAndToRctEmCand | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack Fibres and RCT EM Candidates
Definition at line 966 of file GctFormatTranslateV38.cc.
References blockToFibres(), and blockToRctEmCand().
Referenced by GctFormatTranslateV38().
{
this->blockToRctEmCand(d, hdr);
this->blockToFibres(d, hdr);
}
| void GctFormatTranslateV38::blockToGctEmCandsAndEnergySums | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack GCT EM Candidates and energy sums.
Definition at line 648 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctFormatTranslateBase::colls(), castor_dqm_sourceclient_file_cfg::firstSample, GctUnpackCollections::gctEtHad(), GctUnpackCollections::gctEtMiss(), GctUnpackCollections::gctEtTot(), GctUnpackCollections::gctIsoEm(), GctUnpackCollections::gctNonIsoEm(), castor_dqm_sourceclient_file_cfg::lastSample, LogDebug, m_numberOfGctSamplesToUnpack, min, GctBlockHeader::nSamples(), and evf::evtn::offset().
Referenced by GctFormatTranslateV38().
{
const unsigned int id = hdr.blockId();
const unsigned int nSamples = hdr.nSamples();
// Re-interpret pointer. p16 will be pointing at the 16 bit word that
// contains the rank0 non-isolated electron of the zeroth time-sample.
const uint16_t * p16 = reinterpret_cast<const uint16_t *>(d);
// UNPACK EM CANDS
const unsigned int emCandCategoryOffset = nSamples * 4; // Offset to jump from the non-iso electrons to the isolated ones.
const unsigned int timeSampleOffset = nSamples * 2; // Offset to jump to next candidate pair in the same time-sample.
unsigned int samplesToUnpack = std::min(nSamples,m_numberOfGctSamplesToUnpack); // Unpack as many as asked for if they are in the raw data
unsigned int centralSample = (unsigned)std::ceil((double)nSamples/2.)-1; // think this works when nSamples is even, need to check!!!
unsigned int firstSample = centralSample-(unsigned)std::ceil((double)samplesToUnpack/2.)+1;
unsigned int lastSample = centralSample+(unsigned)(samplesToUnpack/2);
LogDebug("GCT") << "Unpacking output EM. Central sample=" << centralSample << " first=" << firstSample << " last=" << lastSample;
for (unsigned int iso=0; iso<2; ++iso) // loop over non-iso/iso candidate pairs
{
bool isoFlag = (iso==1);
// Get the correct collection to put them in.
L1GctEmCandCollection* em;
if (isoFlag) { em = colls()->gctIsoEm(); }
else { em = colls()->gctNonIsoEm(); }
for (unsigned int bx=firstSample; bx<=lastSample; ++bx) // loop over samples to be unpacked
{
// cand0Offset will give the offset on p16 to get the rank 0 candidate
// of the correct category and timesample.
const unsigned int cand0Offset = iso*emCandCategoryOffset + bx*2;
em->push_back(L1GctEmCand(p16[cand0Offset], isoFlag, id, 0, (int)bx-(int)centralSample)); // rank0 electron
em->push_back(L1GctEmCand(p16[cand0Offset + timeSampleOffset], isoFlag, id, 1, (int)bx-(int)centralSample)); // rank1 electron
em->push_back(L1GctEmCand(p16[cand0Offset + 1], isoFlag, id, 2, (int)bx-(int)centralSample)); // rank2 electron
em->push_back(L1GctEmCand(p16[cand0Offset + timeSampleOffset + 1], isoFlag, id, 3, (int)bx-(int)centralSample)); // rank3 electron
LogDebug("GCT") << "Unpacked a bunch of EG. iso=" << iso << " bx=" << bx << std::endl;
}
}
p16 += emCandCategoryOffset * 2; // Move the pointer over the data we've already unpacked.
// UNPACK ENERGY SUMS
for (unsigned int bx=firstSample; bx<=lastSample; ++bx) // loop over all time samples
{
const unsigned int offset = bx*2;
colls()->gctEtTot()->push_back(L1GctEtTotal(p16[offset],(int)bx-(int)centralSample)); // Et total
colls()->gctEtHad()->push_back(L1GctEtHad(p16[offset+1],(int)bx-(int)centralSample)); // Et hadronic
}
p16 += nSamples * 2;
// 32-bit pointer for getting Missing Et.
const uint32_t * p32 = reinterpret_cast<const uint32_t *>(p16);
for (unsigned int bx=firstSample; bx<=lastSample; ++bx) {
colls()->gctEtMiss()->push_back(L1GctEtMiss(p32[bx],(int)bx-(int)centralSample)); // Et Miss
LogDebug("GCT") << "Unpacked energy sums bx=" << bx << std::endl;
}
}
| void GctFormatTranslateV38::blockToGctInternEmCand | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack GCT internal EM Candidates
Definition at line 783 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), end, spr::find(), GctUnpackCollections::gctInternEm(), GctFormatTranslateBase::hltMode(), i, internEmIsoBounds(), LogDebug, GctBlockHeader::nSamples(), evf::evtn::offset(), and AlCaHLTBitMon_ParallelJobs::p.
Referenced by GctFormatTranslateV38().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of internal EM Cands"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int numCandPairs = hdr.blockLength();
// Debug assertion to prevent problems if definitions not up to date.
assert(internEmIsoBounds().find(id) != internEmIsoBounds().end());
unsigned int lowerIsoPairBound = internEmIsoBounds()[id].first;
unsigned int upperIsoPairBound = internEmIsoBounds()[id].second;
// Re-interpret pointer to 16 bits so it sees one candidate at a time.
const uint16_t * p = reinterpret_cast<const uint16_t *>(d);
// Loop over timesamples (i.e. bunch crossings)
for(unsigned int bx=0; bx < nSamples; ++bx)
{
// Loop over candidate pairs (i.e. each iteration unpacks a pair of candidates)
for(unsigned int candPair = 0 ; candPair < numCandPairs ; ++candPair)
{
// Is the candidate electron pair an isolated pair or not?
bool iso = ((candPair>=lowerIsoPairBound) && (candPair<=upperIsoPairBound));
// Loop over the two electron candidates in each pair
for(unsigned int i = 0 ; i < 2 ; ++i)
{
unsigned offset = 2*(bx + candPair*nSamples) + i;
uint16_t candRaw = p[offset];
colls()->gctInternEm()->push_back( L1GctInternEmCand(candRaw, iso, id, candPair*2 + i, bx) );
}
}
}
}
| void GctFormatTranslateV38::blockToGctInternEtSums | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack GCT internal Et sums
Definition at line 972 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), L1GctInternEtSum::fromTotalEtOrHt(), GctUnpackCollections::gctInternEtSums(), GctFormatTranslateBase::hltMode(), i, LogDebug, GctBlockHeader::nSamples(), and AlCaHLTBitMon_ParallelJobs::p.
Referenced by GctFormatTranslateV38().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of internal Et Sums"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int length = hdr.blockLength();
// Re-interpret pointer to 32 bits
const uint32_t * p = reinterpret_cast<const uint32_t *>(d);
for (unsigned int i=0; i<length; ++i) {
// Loop over timesamples (i.e. bunch crossings)
for (unsigned int bx=0; bx<nSamples; ++bx) {
colls()->gctInternEtSums()->push_back(L1GctInternEtSum::fromTotalEtOrHt(id,i,bx,*p));
++p;
}
}
}
| void GctFormatTranslateV38::blockToGctInternEtSumsAndJetCluster | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack GCT internal output of leaf jet finder
Definition at line 994 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), L1GctInternJetData::fromJetCluster(), L1GctInternEtSum::fromJetMissEt(), L1GctInternEtSum::fromJetTotEt(), L1GctInternEtSum::fromJetTotHt(), GctUnpackCollections::gctInternEtSums(), GctUnpackCollections::gctInternJets(), GctFormatTranslateBase::hltMode(), i, LogDebug, GctBlockHeader::nSamples(), and AlCaHLTBitMon_ParallelJobs::p.
Referenced by GctFormatTranslateV38().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of internal Jet Cands"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int length = hdr.blockLength();
// Re-interpret pointer to 32 bits
const uint32_t * p = reinterpret_cast<const uint32_t *>(d);
for (unsigned int i=0; i<length; ++i) {
// Loop over timesamples (i.e. bunch crossings)
for (unsigned int bx=0; bx<nSamples; ++bx) {
if (i<2) colls()->gctInternEtSums()->push_back(L1GctInternEtSum::fromJetMissEt(id,i,bx,*p));
if (i==3){
colls()->gctInternEtSums()->push_back(L1GctInternEtSum::fromJetTotEt(id,i,bx,*p));
colls()->gctInternEtSums()->push_back(L1GctInternEtSum::fromJetTotHt(id,i,bx,*p));
}
if (i>4) colls()->gctInternJets()->push_back(L1GctInternJetData::fromJetCluster(L1CaloRegionDetId(0,0),id,i,bx,*p));
++p;
}
}
}
| void GctFormatTranslateV38::blockToGctInternHtMissPostWheel | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack GCT internal Missing Ht data that is either wheel output or concJet input (i.e. after wheel processing).
Definition at line 1195 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), GctUnpackCollections::gctInternHtMiss(), GctFormatTranslateBase::hltMode(), LogDebug, GctBlockHeader::nSamples(), AlCaHLTBitMon_ParallelJobs::p, L1GctInternHtMiss::unpackerMissHtx(), and L1GctInternHtMiss::unpackerMissHty().
Referenced by GctFormatTranslateV38().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of post-wheel internal Missing Ht data"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int length = hdr.blockLength();
// Re-interpret pointer to 32 bits
const uint32_t * p = reinterpret_cast<const uint32_t *>(d);
for (unsigned int iLength=0; iLength < length; ++iLength)
{
// Loop over timesamples (i.e. bunch crossings)
for (unsigned int bx=0; bx<nSamples; ++bx)
{
if(iLength % 2) { colls()->gctInternHtMiss()->push_back(L1GctInternHtMiss::unpackerMissHty(id, iLength, bx, *p)); } // Hty on odd numbers
else { colls()->gctInternHtMiss()->push_back(L1GctInternHtMiss::unpackerMissHtx(id, iLength, bx, *p)); } // Htx on even numbers
++p;
}
}
}
| void GctFormatTranslateV38::blockToGctInternHtMissPreWheel | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack GCT internal Missing Ht data that is being input to the wheels.
Definition at line 1172 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), GctUnpackCollections::gctInternHtMiss(), GctFormatTranslateBase::hltMode(), LogDebug, GctBlockHeader::nSamples(), AlCaHLTBitMon_ParallelJobs::p, and L1GctInternHtMiss::unpackerMissHtxHty().
Referenced by GctFormatTranslateV38().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of pre-wheel internal Missing Ht data"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int length = hdr.blockLength();
// Re-interpret pointer to 32 bits
const uint32_t * p = reinterpret_cast<const uint32_t *>(d);
for (unsigned int iLength=0; iLength < length; ++iLength)
{
// Loop over timesamples (i.e. bunch crossings)
for (unsigned int bx=0; bx<nSamples; ++bx)
{
colls()->gctInternHtMiss()->push_back(L1GctInternHtMiss::unpackerMissHtxHty(id, iLength, bx, *p));
++p;
}
}
}
| void GctFormatTranslateV38::blockToGctInternRingSums | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack GCT internal HF ring sums
Definition at line 1089 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), L1GctInternHFData::fromConcBitCounts(), L1GctInternHFData::fromConcRingSums(), GctUnpackCollections::gctInternHFData(), GctFormatTranslateBase::hltMode(), i, LogDebug, GctBlockHeader::nSamples(), and AlCaHLTBitMon_ParallelJobs::p.
Referenced by GctFormatTranslateV38().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of internal HF ring data"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int length = hdr.blockLength();
// Re-interpret pointer to 32 bits
const uint32_t * p = reinterpret_cast<const uint32_t *>(d);
for (unsigned int i=0; i<length/2; ++i) {
// Loop over timesamples (i.e. bunch crossings)
for (unsigned int bx=0; bx<nSamples; ++bx) {
colls()->gctInternHFData()->push_back(L1GctInternHFData::fromConcRingSums(id,i,bx,*p));
++p;
}
for (unsigned int bx=0; bx<nSamples; ++bx) {
colls()->gctInternHFData()->push_back(L1GctInternHFData::fromConcBitCounts(id,i,bx,*p));
++p;
}
}
}
| void GctFormatTranslateV38::blockToGctJetCandsAndCounts | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
Unpack GCT Jet Candidates and jet counts.
Definition at line 717 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctFormatTranslateBase::colls(), castor_dqm_sourceclient_file_cfg::firstSample, GctFormatTranslateBase::FORWARD_JETS, L1GctHFBitCounts::fromConcHFBitCounts(), L1GctHFRingEtSums::fromConcRingSums(), GctUnpackCollections::gctHfBitCounts(), GctUnpackCollections::gctHfRingEtSums(), GctUnpackCollections::gctHtMiss(), GctFormatTranslateBase::gctJets(), analyzePatCleaning_cfg::jets, castor_dqm_sourceclient_file_cfg::lastSample, LogDebug, m_numberOfGctSamplesToUnpack, min, GctBlockHeader::nSamples(), GctFormatTranslateBase::NUM_JET_CATEGORIES, and GctFormatTranslateBase::TAU_JETS.
Referenced by GctFormatTranslateV38().
{
const unsigned int id = hdr.blockId(); // Capture block ID.
const unsigned int nSamples = hdr.nSamples(); // Number of time-samples.
// Re-interpret block payload pointer to 16 bits so it sees one candidate at a time.
// p16 points to the start of the block payload, at the rank0 tau jet candidate.
const uint16_t * p16 = reinterpret_cast<const uint16_t *>(d);
// UNPACK JET CANDS
const unsigned int jetCandCategoryOffset = nSamples * 4; // Offset to jump from one jet category to the next.
const unsigned int timeSampleOffset = nSamples * 2; // Offset to jump to next candidate pair in the same time-sample.
unsigned int samplesToUnpack = std::min(nSamples,m_numberOfGctSamplesToUnpack); // Unpack as many as asked for if they are in the raw data
unsigned int centralSample = (unsigned)std::ceil((double)nSamples/2.)-1; // think this works when nSamples is even, need to check!!!
unsigned int firstSample = centralSample-(unsigned)std::ceil((double)samplesToUnpack/2.)+1;
unsigned int lastSample = centralSample+(unsigned)(samplesToUnpack/2);
LogDebug("GCT") << "Unpacking output Jets. Samples to unpack=" << samplesToUnpack << " central=" << centralSample << " first=" << firstSample << " last=" << lastSample;
// Loop over the different catagories of jets
for(unsigned int iCat = 0 ; iCat < NUM_JET_CATEGORIES ; ++iCat)
{
L1GctJetCandCollection * const jets = gctJets(iCat);
assert(jets->empty()); // The supplied vector should be empty.
bool tauflag = (iCat == TAU_JETS);
bool forwardFlag = (iCat == FORWARD_JETS);
// Loop over the different timesamples (bunch crossings).
for(unsigned int bx = firstSample ; bx <=lastSample; ++bx)
{
// cand0Offset will give the offset on p16 to get the rank 0 Jet Cand of the correct category and timesample.
const unsigned int cand0Offset = iCat*jetCandCategoryOffset + bx*2;
// Rank 0 Jet.
jets->push_back(L1GctJetCand(p16[cand0Offset], tauflag, forwardFlag, id, 0, (int)bx-(int)centralSample));
// Rank 1 Jet.
jets->push_back(L1GctJetCand(p16[cand0Offset + timeSampleOffset], tauflag, forwardFlag, id, 1, (int)bx-(int)centralSample));
// Rank 2 Jet.
jets->push_back(L1GctJetCand(p16[cand0Offset + 1], tauflag, forwardFlag, id, 2, (int)bx-(int)centralSample));
// Rank 3 Jet.
jets->push_back(L1GctJetCand(p16[cand0Offset + timeSampleOffset + 1], tauflag, forwardFlag, id, 3, (int)bx-(int)centralSample));
}
}
p16 += NUM_JET_CATEGORIES * jetCandCategoryOffset; // Move the pointer over the data we've already unpacked.
// NOW UNPACK: HFBitCounts, HFRingEtSums and Missing Ht
// Re-interpret block payload pointer to 32 bits so it sees six jet counts at a time.
const uint32_t * p32 = reinterpret_cast<const uint32_t *>(p16);
for (unsigned int bx=firstSample; bx<=lastSample; ++bx) // loop over all time samples
{
// Channel 0 carries both HF counts and sums
colls()->gctHfBitCounts()->push_back(L1GctHFBitCounts::fromConcHFBitCounts(id,6,(int)bx-(int)centralSample,p32[bx]));
colls()->gctHfRingEtSums()->push_back(L1GctHFRingEtSums::fromConcRingSums(id,6,(int)bx-(int)centralSample,p32[bx]));
// Channel 1 carries Missing HT.
colls()->gctHtMiss()->push_back(L1GctHtMiss(p32[bx+nSamples], (int)bx-(int)centralSample));
}
}
| void GctFormatTranslateV38::blockToGctJetClusterMinimal | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack GCT internal input to wheel jet sort
Definition at line 1043 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), L1GctInternJetData::fromJetClusterMinimal(), GctUnpackCollections::gctInternJets(), GctFormatTranslateBase::hltMode(), i, LogDebug, GctBlockHeader::nSamples(), and AlCaHLTBitMon_ParallelJobs::p.
Referenced by GctFormatTranslateV38().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of internal Jet Cands"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int length = hdr.blockLength();
// Re-interpret pointer to 16 bits so it sees one candidate at a time.
const uint16_t * p = reinterpret_cast<const uint16_t *>(d);
for (unsigned int i=0; i<length; ++i) {
// Loop over timesamples (i.e. bunch crossings)
for (unsigned int bx=0; bx<nSamples; ++bx) {
colls()->gctInternJets()->push_back( L1GctInternJetData::fromJetClusterMinimal(L1CaloRegionDetId(0,0),id,i,bx,*p));
++p;
colls()->gctInternJets()->push_back( L1GctInternJetData::fromJetClusterMinimal(L1CaloRegionDetId(0,0),id,i,bx,*p));
++p;
}
}
}
| void GctFormatTranslateV38::blockToGctJetPreCluster | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack GCT internal shared jet finder info
Definition at line 1066 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), L1GctInternJetData::fromJetPreCluster(), GctUnpackCollections::gctInternJets(), GctFormatTranslateBase::hltMode(), i, LogDebug, GctBlockHeader::nSamples(), and AlCaHLTBitMon_ParallelJobs::p.
Referenced by GctFormatTranslateV38().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of internal Jet Cands"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int length = hdr.blockLength();
// Re-interpret pointer to 16 bits so it sees one candidate at a time.
const uint16_t * p = reinterpret_cast<const uint16_t *>(d);
for (unsigned int i=0; i<length; ++i) {
// Loop over timesamples (i.e. bunch crossings)
for (unsigned int bx=0; bx<nSamples; ++bx) {
colls()->gctInternJets()->push_back( L1GctInternJetData::fromJetPreCluster(L1CaloRegionDetId(0,0),id,i,bx,*p));
++p;
colls()->gctInternJets()->push_back( L1GctInternJetData::fromJetPreCluster(L1CaloRegionDetId(0,0),id,i,bx,*p));
++p;
}
}
}
| void GctFormatTranslateV38::blockToGctTrigObjects | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack GCT internal wheel and conc jets
Definition at line 1020 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), L1GctInternJetData::fromGctTrigObject(), GctUnpackCollections::gctInternJets(), GctFormatTranslateBase::hltMode(), i, LogDebug, GctBlockHeader::nSamples(), and AlCaHLTBitMon_ParallelJobs::p.
Referenced by GctFormatTranslateV38().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of internal Jet Cands"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int length = hdr.blockLength();
// Re-interpret pointer to 16 bits so it sees one candidate at a time.
const uint16_t * p = reinterpret_cast<const uint16_t *>(d);
for (unsigned int i=0; i<length; ++i) {
// Loop over timesamples (i.e. bunch crossings)
for (unsigned int bx=0; bx<nSamples; ++bx) {
colls()->gctInternJets()->push_back( L1GctInternJetData::fromGctTrigObject(L1CaloRegionDetId(0,0),id,i,bx,*p));
++p;
colls()->gctInternJets()->push_back( L1GctInternJetData::fromGctTrigObject(L1CaloRegionDetId(0,0),id,i,bx,*p));
++p;
}
}
}
| void GctFormatTranslateV38::blockToGctWheelInputInternEtAndRingSums | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack GCT internal input to wheel
Definition at line 1114 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), L1GctInternEtSum::fromMissEtxOrEty(), L1GctInternEtSum::fromTotalEtOrHt(), L1GctInternHFData::fromWheelBitCounts(), L1GctInternHFData::fromWheelRingSums(), GctUnpackCollections::gctInternEtSums(), GctUnpackCollections::gctInternHFData(), GctFormatTranslateBase::hltMode(), i, LogDebug, GctBlockHeader::nSamples(), and AlCaHLTBitMon_ParallelJobs::p.
Referenced by GctFormatTranslateV38().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of wheel input internal Et sums and HF ring data"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int length = hdr.blockLength();
// Re-interpret pointer to 32 bits
const uint32_t * p = reinterpret_cast<const uint32_t *>(d);
for (unsigned int i=0; i<length; ++i) {
// Loop over timesamples (i.e. bunch crossings)
for (unsigned int bx=0; bx<nSamples; ++bx) {
if (i<3){
colls()->gctInternEtSums()->push_back(L1GctInternEtSum::fromTotalEtOrHt(id,i,bx,*p));
} else if (i>2 && i<9) {
colls()->gctInternEtSums()->push_back(L1GctInternEtSum::fromMissEtxOrEty(id,i,bx,*p));
} else if (i>8 && i<15) {
colls()->gctInternHFData()->push_back(L1GctInternHFData::fromWheelRingSums(id,i,bx,*p));
} else if (i>14){
colls()->gctInternHFData()->push_back(L1GctInternHFData::fromWheelBitCounts(id,i,bx,*p));
}
++p;
}
}
}
| void GctFormatTranslateV38::blockToGctWheelOutputInternEtAndRingSums | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack GCT internal output of wheel
Definition at line 1143 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), L1GctInternEtSum::fromMissEtxOrEty(), L1GctInternEtSum::fromTotalEtOrHt(), L1GctInternHFData::fromWheelBitCounts(), L1GctInternHFData::fromWheelRingSums(), GctUnpackCollections::gctInternEtSums(), GctUnpackCollections::gctInternHFData(), GctFormatTranslateBase::hltMode(), i, LogDebug, GctBlockHeader::nSamples(), and AlCaHLTBitMon_ParallelJobs::p.
Referenced by GctFormatTranslateV38().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of wheel output internal Et sums and HF ring data"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int length = hdr.blockLength();
// Re-interpret pointer to 32 bits
const uint32_t * p = reinterpret_cast<const uint32_t *>(d);
for (unsigned int i=0; i<length; ++i) {
// Loop over timesamples (i.e. bunch crossings)
for (unsigned int bx=0; bx<nSamples; ++bx) {
if (i<1){
colls()->gctInternEtSums()->push_back(L1GctInternEtSum::fromTotalEtOrHt(id,i,bx,*p));
} else if (i>0 && i<3) {
colls()->gctInternEtSums()->push_back(L1GctInternEtSum::fromMissEtxOrEty(id,i,bx,*p));
} else if (i>2 && i<5) {
colls()->gctInternHFData()->push_back(L1GctInternHFData::fromWheelRingSums(id,i,bx,*p));
} else if (i>4){
colls()->gctInternHFData()->push_back(L1GctInternHFData::fromWheelBitCounts(id,i,bx,*p));
}
++p;
}
}
}
| void GctFormatTranslateV38::blockToRctCaloRegions | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
Unpack RCT Calo Regions.
Definition at line 878 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), end, spr::find(), GctFormatTranslateBase::hltMode(), i, createXMLFile::iphi, LogDebug, L1CaloRegion::makeRegionFromUnpacker(), GctBlockHeader::nSamples(), AlCaHLTBitMon_ParallelJobs::p, GctUnpackCollections::rctCalo(), rctJetCrateMap(), and GctFormatTranslateBase::unpackSharedRegions().
Referenced by GctFormatTranslateV38().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of RCT Regions"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int length = hdr.blockLength();
// Debug assertion to prevent problems if definitions not up to date.
assert(rctJetCrateMap().find(id) != rctJetCrateMap().end());
// get crate (need this to get ieta and iphi)
unsigned int crate=rctJetCrateMap()[id];
// re-interpret pointer
const uint16_t * p = reinterpret_cast<const uint16_t *>(d);
// eta and phi
unsigned int ieta;
unsigned int iphi;
for (unsigned int i=0; i<length; ++i)
{
for (uint16_t bx=0; bx<nSamples; ++bx)
{
// First figure out eta and phi
if (crate<9) { // negative eta
ieta = 12-i;
iphi = 2*((11-crate)%9);
}
else { // positive eta
ieta = 9+i;
iphi = 2*((20-crate)%9);
}
// Skip the first four regions (i.e. where i<2) which are duplicates (shared data).
if (i>1) {
// First region is phi=0
colls()->rctCalo()->push_back( L1CaloRegion::makeRegionFromUnpacker(*p, ieta, iphi, id, i, bx) );
++p;
// Second region is phi=1
if (iphi>0) { iphi-=1; }
else { iphi = 17; }
colls()->rctCalo()->push_back( L1CaloRegion::makeRegionFromUnpacker(*p, ieta, iphi, id, i, bx) );
++p;
}
// Unpack the shared data if asked for debugging
else if (unpackSharedRegions()){
// First region is phi=0
colls()->rctCalo()->push_back( L1CaloRegion::makeRegionFromUnpacker(*p, ieta, iphi, id, i, bx) );
++p;
// Second region is phi=1
if (iphi>0) { iphi-=1; }
else { iphi = 17; }
colls()->rctCalo()->push_back( L1CaloRegion::makeRegionFromUnpacker(*p, ieta, iphi, id, i, bx) );
++p;
} else { // Skip the shared data
++p;
++p;
}
}
}
}
| void GctFormatTranslateV38::blockToRctEmCand | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [private] |
unpack RCT EM Candidates
Definition at line 824 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctBlockHeader::blockLength(), GctFormatTranslateBase::colls(), GctFormatTranslateBase::hltMode(), i, LogDebug, GctBlockHeader::nSamples(), AlCaHLTBitMon_ParallelJobs::p, GctUnpackCollections::rctEm(), rctEmCrateMap(), SourceCardRouting::SFPtoEMU(), and GctFormatTranslateBase::srcCardRouting().
Referenced by blockToFibresAndToRctEmCand().
{
// Don't want to do this in HLT optimisation mode!
if(hltMode()) { LogDebug("GCT") << "HLT mode - skipping unpack of RCT EM Cands"; return; }
unsigned int id = hdr.blockId();
unsigned int nSamples = hdr.nSamples();
unsigned int length = hdr.blockLength();
// re-interpret pointer
const uint16_t * p = reinterpret_cast<const uint16_t *>(d);
// arrays of source card data
uint16_t sfp[2][4]; // [ cycle ] [ SFP ]
uint16_t eIsoRank[4];
uint16_t eIsoCard[4];
uint16_t eIsoRgn[4];
uint16_t eNonIsoRank[4];
uint16_t eNonIsoCard[4];
uint16_t eNonIsoRgn[4];
uint16_t MIPbits[7][2];
uint16_t QBits[7][2];
unsigned int bx = 0;
// loop over crates
for (unsigned int crate=rctEmCrateMap()[id]; crate<rctEmCrateMap()[id]+length/3; ++crate) {
// read SC SFP words
for (unsigned short iSfp=0 ; iSfp<4 ; ++iSfp) {
for (unsigned short cyc=0 ; cyc<2 ; ++cyc) {
if (iSfp==0) { sfp[cyc][iSfp] = 0; } // muon bits
else { // EM candidate
sfp[cyc][iSfp] = *p;
++p;
}
}
p = p + 2*(nSamples-1);
}
// fill SC arrays
srcCardRouting().SFPtoEMU(eIsoRank, eIsoCard, eIsoRgn, eNonIsoRank, eNonIsoCard, eNonIsoRgn, MIPbits, QBits, sfp);
// create EM cands
for (unsigned short int i=0; i<4; ++i) {
colls()->rctEm()->push_back( L1CaloEmCand( eIsoRank[i], eIsoRgn[i], eIsoCard[i], crate, true, i, bx) );
}
for (unsigned short int i=0; i<4; ++i) {
colls()->rctEm()->push_back( L1CaloEmCand( eNonIsoRank[i], eNonIsoRgn[i], eNonIsoCard[i], crate, false, i, bx) );
}
}
}
| bool GctFormatTranslateV38::convertBlock | ( | const unsigned char * | d, |
| const GctBlockHeader & | hdr | ||
| ) | [virtual] |
Get digis from the block - will return true if it succeeds, false otherwise.
Implements GctFormatTranslateBase.
Definition at line 604 of file GctFormatTranslateV38.cc.
References GctBlockHeader::blockId(), GctFormatTranslateBase::checkBlock(), data, m_blockUnpackFn, GctBlockHeader::nSamples(), and edm::second().
{
// if the block has no time samples, don't bother with it.
if ( hdr.nSamples() < 1 ) { return true; }
if(!checkBlock(hdr)) { return false; } // Check the block to see if it's possible to unpack.
// The header validity check above will protect against
// the map::find() method returning the end of the map,
// assuming the block header definitions are up-to-date.
(this->*m_blockUnpackFn.find(hdr.blockId())->second)(data, hdr); // Calls the correct unpack function, based on block ID.
return true;
}
| GctBlockHeader GctFormatTranslateV38::generateBlockHeader | ( | const unsigned char * | data | ) | const [virtual] |
Generate a block header from four 8-bit values.
Implements GctFormatTranslateBase.
Definition at line 576 of file GctFormatTranslateV38.cc.
References blockLengthMap(), and TrackValidation_HighPurity_cff::valid.
{
// Turn the four 8-bit header words into the full 32-bit header.
uint32_t hdr = data[0] + (data[1]<<8) + (data[2]<<16) + (data[3]<<24);
// Bit mapping of V35 header:
// --------------------------
// 11:0 => block_id Unique pipeline identifier.
// - 3:0 =>> pipe_id There can be up to 16 different pipelines per FPGA.
// - 6:4 =>> reserved Do not use yet. Set to zero.
// - 11:7 =>> fpga geograpical add The VME geographical address of the FPGA.
// 15:12 => event_id Determined locally. Not reset by Resync.
// 19:16 => number_of_time_samples If time samples 15 or more then value = 15.
// 31:20 => event_bcid The bunch crossing the data was recorded.
unsigned blockId = hdr & 0xfff;
unsigned blockLength = 0; // Set to zero until we know it's a valid block
unsigned nSamples = (hdr>>16) & 0xf;
unsigned bxId = (hdr>>20) & 0xfff;
unsigned eventId = (hdr>>12) & 0xf;
bool valid = (blockLengthMap().find(blockId) != blockLengthMap().end());
if(valid) { blockLength = blockLengthMap().find(blockId)->second; }
return GctBlockHeader(blockId, blockLength, nSamples, bxId, eventId, valid);
}
| uint32_t GctFormatTranslateV38::generateRawHeader | ( | const uint32_t | blockId, |
| const uint32_t | nSamples, | ||
| const uint32_t | bxId, | ||
| const uint32_t | eventId | ||
| ) | const [protected, virtual] |
Returns a raw 32-bit header word generated from the blockId, number of time samples, bunch-crossing and event IDs.
Implements GctFormatTranslateBase.
Definition at line 622 of file GctFormatTranslateV38.cc.
{
// Bit mapping of V35 header:
// --------------------------
// 11:0 => block_id Unique pipeline identifier.
// - 3:0 =>> pipe_id There can be up to 16 different pipelines per FPGA.
// - 6:4 =>> reserved Do not use yet. Set to zero.
// - 11:7 =>> fpga geograpical add The VME geographical address of the FPGA.
// 15:12 => event_id Determined locally. Not reset by Resync.
// 19:16 => number_of_time_samples If time samples 15 or more then value = 15.
// 31:20 => event_bxId The bunch crossing the data was recorded.
return ((bxId & 0xfff) << 20) | ((nSamples & 0xf) << 16) | ((eventId & 0xf) << 12) | (blockId & 0xfff);
}
| virtual BlockIdToEmCandIsoBoundMap& GctFormatTranslateV38::internEmIsoBounds | ( | ) | [inline, protected, virtual] |
get the static intern EM cand isolated boundary map.
Implements GctFormatTranslateBase.
Definition at line 66 of file GctFormatTranslateV38.h.
References m_internEmIsoBounds.
Referenced by blockToGctInternEmCand().
| virtual const BlockIdToEmCandIsoBoundMap& GctFormatTranslateV38::internEmIsoBounds | ( | ) | const [inline, protected, virtual] |
get the static intern EM cand isolated boundary map.
Implements GctFormatTranslateBase.
Definition at line 67 of file GctFormatTranslateV38.h.
References m_internEmIsoBounds.
| virtual BlkToRctCrateMap& GctFormatTranslateV38::rctEmCrateMap | ( | ) | [inline, protected, virtual] |
get the static block ID to RCT crate map for electrons.
Implements GctFormatTranslateBase.
Definition at line 60 of file GctFormatTranslateV38.h.
References m_rctEmCrate.
Referenced by blockToRctEmCand().
| virtual const BlkToRctCrateMap& GctFormatTranslateV38::rctEmCrateMap | ( | ) | const [inline, protected, virtual] |
get static the block ID to RCT crate map for electrons.
Implements GctFormatTranslateBase.
Definition at line 61 of file GctFormatTranslateV38.h.
References m_rctEmCrate.
| virtual BlkToRctCrateMap& GctFormatTranslateV38::rctJetCrateMap | ( | ) | [inline, protected, virtual] |
get the static block ID to RCT crate map for jets
Implements GctFormatTranslateBase.
Definition at line 63 of file GctFormatTranslateV38.h.
References m_rctJetCrate.
Referenced by blockToRctCaloRegions().
| virtual const BlkToRctCrateMap& GctFormatTranslateV38::rctJetCrateMap | ( | ) | const [inline, protected, virtual] |
get the static block ID to RCT crate map for jets
Implements GctFormatTranslateBase.
Definition at line 64 of file GctFormatTranslateV38.h.
References m_rctJetCrate.
GctFormatTranslateV38::BlockLengthMap GctFormatTranslateV38::m_blockLength = GctFormatTranslateV38::BlockLengthMap() [static, private] |
Map to translate block number to fundamental size of a block (i.e. for 1 time-sample).
Definition at line 91 of file GctFormatTranslateV38.h.
Referenced by blockLengthMap(), and GctFormatTranslateV38().
GctFormatTranslateV38::BlockNameMap GctFormatTranslateV38::m_blockName = GctFormatTranslateV38::BlockNameMap() [static, private] |
Map to hold a description for each block number.
Definition at line 94 of file GctFormatTranslateV38.h.
Referenced by blockNameMap(), and GctFormatTranslateV38().
GctFormatTranslateV38::BlockIdToUnpackFnMap GctFormatTranslateV38::m_blockUnpackFn = GctFormatTranslateV38::BlockIdToUnpackFnMap() [static, private] |
Block ID to unpack function map.
Definition at line 107 of file GctFormatTranslateV38.h.
Referenced by convertBlock(), and GctFormatTranslateV38().
GctFormatTranslateV38::BlockIdToEmCandIsoBoundMap GctFormatTranslateV38::m_internEmIsoBounds = GctFormatTranslateV38::BlockIdToEmCandIsoBoundMap() [static, private] |
A map of Block IDs to IsoBoundaryPairs for storing the location of the isolated Internal EM cands in the pipeline, as this differs with Block ID.
Definition at line 104 of file GctFormatTranslateV38.h.
Referenced by GctFormatTranslateV38(), and internEmIsoBounds().
const unsigned GctFormatTranslateV38::m_numberOfGctSamplesToUnpack [private] |
Number of BXs of GCT data to unpack (assuming they are in the raw data)
Number of BXs of RCT data to unpack (assuming they are in the raw data)
Definition at line 112 of file GctFormatTranslateV38.h.
Referenced by blockToGctEmCandsAndEnergySums(), and blockToGctJetCandsAndCounts().
const unsigned GctFormatTranslateV38::m_numberOfRctSamplesToUnpack [private] |
Definition at line 113 of file GctFormatTranslateV38.h.
GctFormatTranslateV38::BlkToRctCrateMap GctFormatTranslateV38::m_rctEmCrate = GctFormatTranslateV38::BlkToRctCrateMap() [static, private] |
Map to relate capture block ID to the RCT crate the data originated from (for electrons).
Definition at line 97 of file GctFormatTranslateV38.h.
Referenced by GctFormatTranslateV38(), and rctEmCrateMap().
GctFormatTranslateV38::BlkToRctCrateMap GctFormatTranslateV38::m_rctJetCrate = GctFormatTranslateV38::BlkToRctCrateMap() [static, private] |
Map to relate capture block ID to the RCT crate the data originated from (for jets).
Definition at line 100 of file GctFormatTranslateV38.h.
Referenced by GctFormatTranslateV38(), and rctJetCrateMap().
1.7.3