#ifndef ALIZDCRAWSTREAM_H #define ALIZDCRAWSTREAM_H /* Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. * * See cxx source for full Copyright notice */ /* $Id$ */ ////////////////////////////////////////////////// // // // Class to provide access to ZDC raw data // // Author: Chiara Oppedisano // // // ////////////////////////////////////////////////// #include #include "AliCDBManager.h" #include "AliCDBStorage.h" #include "AliZDCChMap.h" class AliRawReader; struct AliRawDataHeader; class AliZDCRawStream: public TObject { public : // Module type codes enum ZDCModules{kV965=1, kV830=2, kTRG=3, kTRGI=4, kPU=5, KV1290=6, kV775N=7}; // Module type codes enum ZDCGeoAddr{kFirstADCGeo=0, kLastADCGeo=3, kADDADCGeo=5, kTDCFakeGeo=8, kZDCTDCGeo=4, kADDTDCGeo=6, kScalerGeo=16, kPUGeo=29, kTrigScales=30, kTrigHistory=31}; // Signal codes for ZDC // Same codes used in DAQ configuration file // To be changed ONLY IF this file is changed!!! // **** DO NOT CHANGE THE FOLLOWING LINES!!! **** enum ZDCSignal{ kNotConnected=0, kVoid=1, kZNAC=2, kZNA1=3, kZNA2=4, kZNA3=5, kZNA4=6, kZPAC=7, kZPA1=8, kZPA2=9, kZPA3=10, kZPA4=11, kZNCC=12, kZNC1=13, kZNC2=14, kZNC3=15, kZNC4=16, kZPCC=17, kZPC1=18, kZPC2=19, kZPC3=20, kZPC4=21, kZEM1=22, kZEM2=23, kZDCAMon=24, kZDCCMon=25, kZNACoot=26, kZNA1oot=27, kZNA2oot=28, kZNA3oot=29, kZNA4oot=30, kZPACoot=31, kZPA1oot=32, kZPA2oot=33, kZPA3oot=34, kZPA4oot=35, kZNCCoot=36, kZNC1oot=37, kZNC2oot=38, kZNC3oot=39, kZNC4oot=40, kZPCCoot=41, kZPC1oot=42, kZPC2oot=43, kZPC3oot=44, kZPC4oot=45, kZEM1oot=46, kZEM2oot=47, kZDCAMonoot=48, kZDCCMonoot=49, kL1MBI=50, kL1CNI=51, kL1SCI=52, kL1EMDI=53, kL0I=54, kL1MBO=55, kL1CNO=56, kL1SCO=57, kL1EMDO=58, kHMBCN=59, kHSCEMD=60, kZNACD=61, kZNA1D=62, kZNA2D=63, kZNA3D=64, kZNA4D=65, kZPACD=66, kZPA1D=67, kZPA2D=68, kZPA3D=69, kZPA4D=70, kZNCCD=71, kZNC1D=72, kZNC2D=73, kZNC3D=74, kZNC4D=75, kZPCCD=76, kZPC1D=77, kZPC2D=78, kZPC3D=79, kZPC4D=80, kZEM1D=81, kZEM2D=82, kZDCAMonD=83, kZDCCMonD=84, kZNAD=85, kZPAD=86, kZNCD=87, kZPCD=88, kZEMD=89, kZNA0D=90, kZPA0D=91, kZNC0D=92, kZPC0D=93, k1kHzD=94, kGate=95, kAD=96, kCD=97, kAorCD=98, kAandCD=99, kZEMORD=100, kAorCorZEMORD=101, kAorCorZEMD=102, kAD0=103, kAD1=104, kAD2=105, kAD3=106, kAD4=107, kAD5=108, kAD6=109, kAD7=110, kAD8=111, kAD9=112, kAD10=113, kAD11=114, kAD12=115, kAD13=116, kAD14=117, kAD15=118, kAD0D=119, kAD1D=120, kAD2D=121, kAD3D=122, kAD4D=123, kAD5D=124, kAD6D=125, kAD7D=126, kAD8D=127, kAD9D=128, kAD10D=129, kAD11D=130, kAD12D=131, kAD13D=132, kAD14D=133, kAD15D=134 }; // Error codes in raw data streaming enum EZDCRawStreamError{ kCDHError = 1, kDARCError = 2, kZDCDataError = 3, kInvalidADCModule = 4, kInvalidSector = 5}; AliZDCRawStream(AliRawReader* rawReader); virtual ~AliZDCRawStream(); virtual Bool_t Next(); virtual void ReadChMap(); virtual void ReadCDHHeader(); UInt_t GetRawBuffer() const {return fBuffer;} Int_t GetReadOutCard() const {return fReadOutCard;} Int_t GetDeadfaceOffset() const {return fDeadfaceOffset;} Int_t GetDeadbeefOffset() const {return fDeadbeefOffset;} Int_t GetDataOffset() const {return fDataOffset;} Int_t GetSector(Int_t i) const {return fSector[i];} Int_t GetModType() const {return fModType;} Int_t GetADCModule() const {return fADCModule;} Int_t GetADCNChannels() const {return fADCNChannels;} Int_t GetADCChannel() const {return fADCChannel;} Int_t GetADCValue() const {return fADCValue;} Int_t GetADCGain() const {return fADCGain;} Int_t GetModuleGEO() const {return fADCModule;} Int_t GetChannel() const {return fADCChannel;} Bool_t IsZDCTDCHeader() const {return fIsZDCTDCHeader;} Bool_t IsZDCTDCDatum() const {return fIsZDCTDCdatum;} Int_t GetZDCTDCDatum() const {return fZDCTDCdatum;} Bool_t IsADDADCChannel() const {return fIsADDChannel;} Int_t GetADDADCDatum() const {return fADDADCdatum;} Bool_t IsADDTDCdatum() const {return fIsADDTDCdatum;} Int_t GetADDTDCDatum() const {return fADDTDCdatum;} AliCDBStorage *SetStorage(const char* uri); // Map from OCDB AliZDCChMap *GetChMap() const; // ADC map Int_t GetNChannelsOn() const {return fNChannelsOn;} Int_t GetCabledSignal() const {return fCabledSignal;} Int_t GetADCModFromMap(Int_t i) const {return fMapADC[i][0];} Int_t GetADCChFromMap(Int_t i) const {return fMapADC[i][1];} Int_t GetADCSignFromMap(Int_t i) const {return fMapADC[i][2];} Int_t GetDetectorFromMap(Int_t i) const {return fMapADC[i][3];} Int_t GetTowerFromMap(Int_t i) const {return fMapADC[i][4];} // Scaler map Int_t GetScalerModFromMap(Int_t i) const {return fScalerMap[i][0];} Int_t GetScalerChFromMap(Int_t i) const {return fScalerMap[i][1];} Int_t GetScalerSignFromMap(Int_t i) const {return fScalerMap[i][2];} Int_t GetScDetectorFromMap(Int_t i) const {return fScalerMap[i][3];} Int_t GetScTowerFromMap(Int_t i) const {return fScalerMap[i][4];} // TDC map Int_t GetTDCModFromMap(Int_t i) const {return fTDCMap[i][0];} Int_t GetTDCChFromMap(Int_t i) const {return fTDCMap[i][1];} Int_t GetTDCSignFromMap(Int_t i) const {return fTDCMap[i][2];} Bool_t IsCalibration() const {return fIsCalib;} Bool_t IsDARCHeader() const {return fIsDARCHeader;} Bool_t IsHeaderMapping() const {return fIsHeaderMapping;} Bool_t IsChMapping() const {return fIsChMapping;} Bool_t IsADCDataWord() const {return fIsADCDataWord;} Bool_t IsADCHeader() const {return fIsADCHeader;} Bool_t IsADCEOB() const {return fIsADCEOB;} Bool_t IsUnderflow() const {return fIsUnderflow;} Bool_t IsOverflow() const {return fIsOverflow;} UInt_t GetScGeo() const {return fScGeo;} UInt_t GetScNWords() const {return fScNWords;} UInt_t GetScTriggerSource() const {return fScTriggerSource;} UInt_t GetTriggerNumber() const {return fScTriggerNumber;} UInt_t GetTriggerCount() const {return fScEvCounter;} Bool_t IsScHeaderRead() const {return fIsScHeaderRead;} Bool_t IsScEventGood() const {return fIsScEventGood;} Bool_t IsScalerWord() const {return fIsScalerWord;} UInt_t GetDetectorPattern() const {return fDetPattern;} Bool_t IstriggerHistoryWord() const {return fIsTriggerHistory;} Int_t GetTriggerInput2CTP() const {return *fCPTInput;} Bool_t IsCPTInputMBTrigger() {if(fCPTInput[0]==1) return kTRUE; else return kFALSE;} Bool_t IsCPTInputCentralTrigger() {if(fCPTInput[1]==1) return kTRUE; else return kFALSE;} Bool_t IsCPTInputSemiCentralTrigger() {if(fCPTInput[2]==1) return kTRUE; else return kFALSE;} Bool_t IsCPTInputEMDTrigger() {if(fCPTInput[3]==1) return kTRUE; else return kFALSE;} Bool_t IsADCEventGood() const {return fIsADCEventGood;} Bool_t IsL0BitSet() const {return fIsL0BitSet;} Bool_t IsPileUpEvent() const {return fIsPileUpEvent;} void SetReadOutCard(Int_t icard) {fReadOutCard=icard;} void SetDataOffset(Int_t iOffset) {fDataOffset=iOffset;} void SetNChannelsOn(Int_t val) {fNChannelsOn = val;} void SetSector(Int_t i, Int_t val) {fSector[i] = val;} void SetMapRead(Bool_t value) {fIsMapRead=value;} void SetMapADCMod(Int_t iraw, Int_t imod) {fMapADC[iraw][0]=imod;} void SetMapADCCh(Int_t iraw, Int_t ich) {fMapADC[iraw][1]=ich;} void SetMapADCSig(Int_t iraw, Int_t isig) {fMapADC[iraw][2]=isig;} void SetMapDet(Int_t iraw, Int_t idet) {fMapADC[iraw][3]=idet;} void SetMapTow(Int_t iraw, Int_t itow) {fMapADC[iraw][4]=itow;} void SetReadCDH(Bool_t value) {fReadCDH=value;} void SetSODReading(Bool_t iset) {fSODReading = iset;} private : AliZDCRawStream(const AliZDCRawStream& stream); AliZDCRawStream& operator = (const AliZDCRawStream& stream); AliRawReader* fRawReader; // object for reading the raw data // Data for buffer decoding UInt_t fBuffer; // [DARC header +] ADC buffer Int_t fReadOutCard; // 0 for DARC, 1 for ZRC UInt_t fEvType; // Event type Int_t fPosition; // bit position in buffer data word // Boolean variables indicating data type Bool_t fIsCalib; // True when calibration run Bool_t fIsDARCHeader; // True when DARC header Bool_t fIsHeaderMapping; // True when reading header mapping Bool_t fIsChMapping; // True when reading ch. mapping Bool_t fIsADCDataWord; // True when data word Bool_t fIsADCHeader; // True when ADC header Bool_t fIsADCEOB; // True when EOB Bool_t fSODReading; // True when reading SOD (DA) Bool_t fIsMapRead; // True if map is already read Bool_t fReadCDH; // False for sim raw data (uncorrect CDH!) Int_t fDeadfaceOffset; // deadface offset Int_t fDeadbeefOffset; // deadbeef offset Int_t fDataOffset; // data offset // ADC signal Int_t fSector[2]; // [detector, sector] Int_t fModType; // Module type Int_t fADCModule; // ADC module = GEO address for scaler, trigger card, P.U. Int_t fADCNChannels; // number of ADC ch. Int_t fADCChannel; // ADC channel = ch. for scaler, trigger card, P.U. Int_t fADCValue; // ADC channel Int_t fADCGain; // ADC gain (0=high range; 1=low range) Bool_t fIsUnderflow; // ADC underflow Bool_t fIsOverflow; // ADC overflow // Scaler UInt_t fScGeo; // scaler GEO address UInt_t fScNWords; // no. of words in scaler event UInt_t fScTriggerSource; // Trigger source UInt_t fScTriggerNumber; // no. of triggers Bool_t fIsScEventGood; // true if scaler event is good Bool_t fIsScHeaderRead; // true if scaler header is read Int_t fScStartCounter; // position in the buffer where scaler data begins UInt_t fScEvCounter; // event counter Bool_t fIsScalerWord; // is scaler word (not header) // Pattern Unit UInt_t fDetPattern; // word from the pattern unit // Trigger card // (1) trigger counts Int_t fTrigCountNWords; // no. of words to read from trigger card scalers Bool_t fIsTriggerScaler; // Trigger card scalers - 1st word read Int_t fTrigCountStart; // Trigger card scalers - counter Int_t fMBTrigInput; // MB trigger input to trigger card Int_t fCentralTrigInput; // CENTRAL trigger input to trigger card Int_t fSCentralTrigInput;// SEMICENTRAL trigger input to trigger card Int_t fEMDTrigInput; // EMD trigger input to trigger card Int_t fL0Received; // L0 received by the trigger card Int_t fMBtrig2CTP; // trigger input to the CTP for MB Int_t fCentralTrig2CTP; // trigger input to the CTP for CENTRAL Int_t fSCentralTrig2CTP; // trigger input to the CTP for SEMICENTRAL Int_t fEMDTrig2CTP; // trigger input to the CTP for EMD // (2) trigger history Int_t fTrigHistNWords; // no. of words to read from trigger history data Bool_t fIsTriggerHistory; // Trigger history - 1st word read Int_t fTrigHistStart; // Trigger card history - counter Int_t fPileUpBit1stWord; // Pile up bit from 1st word Int_t fL0Bit1stWord; // L0 bit from 1st word UInt_t fCentralTrigHist; // history for CENTRAL trigger UInt_t fMBTrigHist; // history for CENTRAL trigger Int_t fPileUpBit2ndWord; // Pile up bit from 2nd word Int_t fL0Bit2ndWord; // L0 bit from 2nd word UInt_t fSCentralTrigHist; // history for SEMICENTRAL trigger UInt_t fEMDTrigHist; // history for EMD trigger Int_t fCPTInput[4]; // Trigger sent to the CTP // Channel mapping Int_t fNChannelsOn; // No. of signals/ADC ch. used Int_t fCurrentCh; // current mapped ADC ch. Int_t fCabledSignal; // physics signal (from enum) Int_t fMapADC[48][5]; // ADC map {ADC mod., ch., signal, det., sec.} Int_t fCurrScCh; // current mapped scaler ch. Int_t fScalerMap[32][5]; // Scaler map {Scaler mod., ch., signal, det., sec.} Int_t fCurrTDCCh; // current mapped TDC ch. Int_t fTDCMap[32][3]; // TDC map {Scaler mod., ch., signal} // Checks over raw data event quality Bool_t fIsADCEventGood; // true if not valid datum not corrupted Bool_t fIsL0BitSet; // true if L0 bit in history words = 1 Bool_t fIsPileUpEvent; // true if pile up bits in history words = 0 // ADD ADC Bool_t fIsADDChannel; // true if datum is an ADD ADC channel Int_t fADDADCdatum; // ADD ADC datum // TDCs Bool_t fIsTDCHeaderRead; // true when streaming one of the 2 TDCs Int_t fTDCStartCounter; // counts after a TDC header // Bool_t fIsZDCTDCHeader; // true if datum is a ZDC TDC header Bool_t fIsZDCTDCdatum; // true if the current is a TDC datum Int_t fZDCTDCdatum; // datum for ZDC TDC // Bool_t fIsADDTDCHeader; // true if datum is an ADD TDC channel Bool_t fIsADDTDCdatum; // true when streaming ADD TDC data Int_t fADDTDCdatum; // datum for ADD TDC ClassDef(AliZDCRawStream, 20) // class for reading ZDC raw data }; #endif