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FSUDAQ_Qt6/ClassData.h

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#ifndef DATA_H
#define DATA_H
#include <stdio.h>
#include <string>
#include <sstream>
#include <cmath>
#include <cstring> ///memset
#include <iostream> ///cout
#include <sstream>
#include <iomanip> // for setw
#include <algorithm>
#include <bitset>
#include <vector>
#include <sys/stat.h>
#include "macro.h"
//#define MaxNData 10000 /// store 10k events per channels
#define DefaultDataSize 10000
enum DPPType{
DPP_PHA_CODE = 0x8B,
DPP_PSD_CODE = 0x88,
DPP_QDC_CODE = 0x87
};
class Data{
public:
char *buffer; /// readout buffer
int DPPType;
std::string DPPTypeStr; /// only for saving fiel name
unsigned short boardSN;
int tick2ns; /// use in convert the timestamp to ns, and use in TriggerRate calculation
unsigned int nByte; /// number of byte from read buffer
uint32_t AllocatedSize;
float TriggerRate [MaxNChannels]; /// Hz
float NonPileUpRate [MaxNChannels]; /// Hz
unsigned long TotNumNonPileUpEvents[MaxNChannels]; /// also exclude overthrow
unsigned short NumEventsDecoded [MaxNChannels]; /// reset at every decode
unsigned short NumNonPileUpDecoded [MaxNChannels]; /// reset at every decode
unsigned int aggTime; /// update every decode
/// store data for event building and deduce the trigger rate.
//it is a circular memory
bool IsNotRollOverFakeAgg;
int LoopIndex[MaxNChannels]; /// number of loop in the circular memory
int DataIndex[MaxNChannels];
uShort GetDataSize() const {return dataSize;}
ullong ** Timestamp; /// 47 bit
uShort ** fineTime; /// 10 bits, in unit of tick2ns / 1000 = ps
uShort ** Energy ; /// 15 bit
uShort ** Energy2 ; /// 15 bit, in PSD, Energy = Qshort, Energy2 = Qlong
bool ** PileUp ; /// pile up flag
std::vector<short> ** Waveform1 ; // used at least 14 MB
std::vector<short> ** Waveform2 ;
std::vector<bool> ** DigiWaveform1;
std::vector<bool> ** DigiWaveform2;
std::vector<bool> ** DigiWaveform3;
std::vector<bool> ** DigiWaveform4;
public:
Data(unsigned short numCh, uShort dataSize = DefaultDataSize);
~Data();
void Allocate80MBMemory();
void AllocateMemory(uint32_t size);
void AllocateDataSize(uShort dataSize);
void ClearDataPointer();
void ClearData();
void ClearTriggerRate();
void ClearBuffer();
unsigned short GetNChannel() const {return numInputCh;}
void CopyBuffer( const char * buffer, const unsigned int size);
void DecodeBuffer(bool fastDecode, int verbose = 0); /// fastDecode will not save waveform
void DecodeBuffer(char * &buffer, unsigned int size, bool fastDecode, int verbose = 0); // for outside data
void DecodeDualBlock(char * &buffer, unsigned int size, int DPPType, int chMask, bool fastDecode, int verbose = 0); // for outside data
void PrintStat(bool skipEmpty = true);
void PrintAllData(bool tableMode = true, unsigned int maxRowDisplay = 0) const;
void PrintChData(unsigned short ch, unsigned int maxRowDisplay = 0) const;
//^================= Saving data
bool OpenSaveFile(std::string fileNamePrefix); // return false when fail
std::string GetOutFileName() const {return outFileName;}
void SaveData();
void CloseSaveFile();
unsigned int GetFileSize() const {return outFileSize;}
uint64_t GetTotalFileSize() const {return FinishedOutFilesSize + outFileSize;}
void ZeroTotalFileSize() { FinishedOutFilesSize = 0; }
protected:
const unsigned short numInputCh;
unsigned int nw;
uShort dataSize;
///for temperary
std::vector<short> tempWaveform1;
std::vector<short> tempWaveform2;
std::vector<bool> tempDigiWaveform1;
std::vector<bool> tempDigiWaveform2;
std::vector<bool> tempDigiWaveform3;
std::vector<bool> tempDigiWaveform4;
FILE * outFile;
uint64_t FinishedOutFilesSize; // sum of files size.
unsigned int outFileIndex;
std::string outFilePrefix;
std::string outFileName;
unsigned int outFileSize; // should be max at 2 GB
short calIndexes[MaxNChannels][2]; /// the index for trigger rate calculation
unsigned int ReadBuffer(unsigned int nWord, int verbose = 0);
int DecodePHADualChannelBlock(unsigned int ChannelMask, bool fastDecode, int verbose);
int DecodePSDDualChannelBlock(unsigned int ChannelMask, bool fastDecode, int verbose);
int DecodeQDCGroupedChannelBlock(unsigned int ChannelMask, bool fastDecode, int verbose);
};
//==========================================
inline Data::Data(unsigned short numCh, uShort dataSize): numInputCh(numCh){
tick2ns = 2.0;
boardSN = 0;
DPPType = DPPType::DPP_PHA_CODE;
DPPTypeStr = "";
IsNotRollOverFakeAgg = false;
buffer = NULL;
AllocateDataSize(dataSize);
for ( int i = 0; i < MaxNChannels; i++) TotNumNonPileUpEvents[i] = 0;
ClearData();
ClearTriggerRate();
nw = 0;
outFileIndex = 0;
outFilePrefix = "";
outFileName = "";
outFile = nullptr;
outFileSize = 0; // should be max at 2 GB
FinishedOutFilesSize = 0; // sum of files size.
}
inline Data::~Data(){
if( buffer != NULL ) delete buffer;
ClearDataPointer();
}
inline void Data::AllocateDataSize(uShort dataSize){
if( dataSize < 1) {
printf("dataSize cannot < 1, set dataSize = 1.\n");
dataSize = 1;
}
//printf("Data::%s, size: %u\n", __func__, dataSize);
this->dataSize = dataSize;
Timestamp = new ullong * [numInputCh];
fineTime = new uShort * [numInputCh];
Energy = new uShort * [numInputCh];
Energy2 = new uShort * [numInputCh];
PileUp = new bool * [numInputCh];
Waveform1 = new std::vector<short> * [numInputCh];
Waveform2 = new std::vector<short> * [numInputCh];
DigiWaveform1 = new std::vector<bool> * [numInputCh];
DigiWaveform2 = new std::vector<bool> * [numInputCh];
DigiWaveform3 = new std::vector<bool> * [numInputCh];
DigiWaveform4 = new std::vector<bool> * [numInputCh];
for(int ch = 0; ch < numInputCh; ch++){
Timestamp[ch] = new ullong[dataSize];
fineTime[ch] = new uShort[dataSize];
Energy[ch] = new uShort[dataSize];
Energy2[ch] = new uShort[dataSize];
PileUp[ch] = new bool[dataSize];
Waveform1[ch] = new std::vector<short> [dataSize];
Waveform2[ch] = new std::vector<short> [dataSize];
DigiWaveform1[ch] = new std::vector<bool> [dataSize];
DigiWaveform2[ch] = new std::vector<bool> [dataSize];
DigiWaveform3[ch] = new std::vector<bool> [dataSize];
DigiWaveform4[ch] = new std::vector<bool> [dataSize];
}
}
inline void Data::ClearDataPointer(){
if( dataSize == 0) return;
for(int ch = 0; ch < numInputCh; ch++){
delete [] Timestamp[ch] ;
delete [] fineTime[ch];
delete [] Energy[ch];
delete [] Energy2[ch];
delete [] PileUp[ch];
delete [] Waveform1[ch];
delete [] Waveform2[ch];
delete [] DigiWaveform1[ch];
delete [] DigiWaveform2[ch];
delete [] DigiWaveform3[ch];
delete [] DigiWaveform4[ch];
}
delete [] Timestamp;
delete [] fineTime;
delete [] Energy;
delete [] Energy2;
delete [] PileUp;
delete [] Waveform1;
delete [] Waveform2;
delete [] DigiWaveform1;
delete [] DigiWaveform2;
delete [] DigiWaveform3;
delete [] DigiWaveform4;
dataSize = 0;
}
inline void Data::AllocateMemory(uint32_t size){
ClearBuffer();
AllocatedSize = size;
buffer = (char *) malloc( AllocatedSize);
printf("Allocated %u byte ( %.2f MB) for buffer = %u words\n", AllocatedSize, AllocatedSize/1024./1024., AllocatedSize / 4);
}
inline void Data::Allocate80MBMemory(){
AllocateMemory( 80 * 1024 * 1024 ); /// 80 M Byte
}
inline void Data::ClearTriggerRate(){
for( int i = 0 ; i < MaxNChannels; i++) {
TriggerRate[i] = 0.0;
NonPileUpRate[i] = 0.0;
NumEventsDecoded[i] = 0;
NumNonPileUpDecoded[i] = 0;
}
}
inline void Data::ClearData(){
nByte = 0;
AllocatedSize = 0;
IsNotRollOverFakeAgg = false;
for( int ch = 0 ; ch < MaxNChannels; ch++){
LoopIndex[ch] = 0;
DataIndex[ch] = -1;
NumEventsDecoded[ch] = 0;
NumNonPileUpDecoded[ch] = 0;
TotNumNonPileUpEvents[ch] = 0 ;
calIndexes[ch][0] = -1;
calIndexes[ch][1] = -1;
if( ch >= numInputCh) break;
for( int j = 0; j < dataSize; j++){
Timestamp[ch][j] = 0;
fineTime[ch][j] = 0;
Energy[ch][j] = 0;
Energy2[ch][j] = 0;
Waveform1[ch][j].clear();
Waveform2[ch][j].clear();
DigiWaveform1[ch][j].clear();
DigiWaveform2[ch][j].clear();
DigiWaveform3[ch][j].clear();
DigiWaveform4[ch][j].clear();
}
}
tempWaveform1.clear();
tempWaveform2.clear();
tempDigiWaveform1.clear();
tempDigiWaveform2.clear();
tempDigiWaveform3.clear();
tempDigiWaveform4.clear();
}
inline void Data::ClearBuffer(){
//printf("==== Data::%s \n", __func__);
delete buffer;
buffer = nullptr;
AllocatedSize = 0;
nByte = 0;
}
inline void Data::CopyBuffer(const char * buffer, const unsigned int size){
std::memcpy(this->buffer, buffer, size);
}
//^###############################################
//^############################################### Save fsu file
inline bool Data::OpenSaveFile(std::string fileNamePrefix){
outFilePrefix = fileNamePrefix;
std::ostringstream oss;
oss << outFilePrefix << "_"
<< std::setfill('0') << std::setw(3) << boardSN << "_"
<< DPPTypeStr << "_"
<< std::fixed << std::setprecision(0) << tick2ns << "_"
<< std::setfill('0') << std::setw(3) << outFileIndex << ".fsu";
std::string saveFileName = oss.str();
//char saveFileName[100];
//sprintf(saveFileName, "%s_%03d_%3s_%03u.fsu", outFilePrefix.c_str() , boardSN, DPPTypeStr.c_str(), outFileIndex);
outFileName = saveFileName;
outFile = fopen(saveFileName.c_str(), "wb"); // overwrite binary
if (outFile == NULL) {
printf("Failed to open the file. Probably Read-ONLY.\n");
return false;
}
fseek(outFile, 0L, SEEK_END);
outFileSize = ftell(outFile);
return true;
}
inline void Data::SaveData(){
if( buffer == nullptr) {
printf("buffer is null.\n");
return;
}
if( outFile == nullptr ) return;
if( outFileSize > (unsigned int) MaxSaveFileSize){
FinishedOutFilesSize += ftell(outFile);
CloseSaveFile();
outFileIndex ++;
// char saveFileName[100];
// sprintf(saveFileName, "%s_%03d_%3s_%03u.fsu", outFilePrefix.c_str() , boardSN, DPPTypeStr.c_str(), outFileIndex);
std::ostringstream oss;
oss << outFilePrefix << "_"
<< std::setfill('0') << std::setw(3) << boardSN << "_"
<< DPPTypeStr << "_"
<< std::fixed << std::setprecision(0) << tick2ns << "_"
<< std::setfill('0') << std::setw(3) << outFileIndex << ".fsu";
std::string saveFileName = oss.str();
outFileName = saveFileName;
outFile = fopen(outFileName.c_str(), "wb"); //overwrite binary
}
fwrite(buffer, nByte, 1, outFile);
outFileSize = ftell(outFile);
}
inline void Data::CloseSaveFile(){
if( outFile != nullptr ){
fclose(outFile);
outFile = nullptr;
int result = chmod(outFileName.c_str(), S_IRUSR | S_IRGRP | S_IROTH);
if( result != 0 ) printf("somewrong when set file (%s) to read only.", outFileName.c_str());
}
}
//^#######################################################
//^####################################################### Print
inline void Data::PrintStat(bool skipEmpty) {
printf("============================= Print Stat. Digi-%d\n", boardSN);
if( !IsNotRollOverFakeAgg ) {
printf(" this is roll-over fake event or no events.\n");
return;
}
printf("%2s | %6s | %9s | %9s | %6s | %6s(%4s)\n", "ch", "# Evt.", "Rate [Hz]", "Accept", "Tot. Evt.", "index", "loop");
printf("---+--------+-----------+-----------+----------\n");
for(int ch = 0; ch < numInputCh; ch++){
//if( skipEmpty && TriggerRate[ch] == 0 ) continue;
if( skipEmpty && DataIndex[ch] < 0 ) continue;
printf("%2d | %6d | %9.2f | %9.2f | %6lu | %6d(%2d)\n", ch, NumEventsDecoded[ch], TriggerRate[ch], NonPileUpRate[ch], TotNumNonPileUpEvents[ch], DataIndex[ch], LoopIndex[ch]);
}
printf("---+--------+-----------+-----------+----------\n");
ClearTriggerRate();
}
inline void Data::PrintAllData(bool tableMode, unsigned int maxRowDisplay) const{
printf("============================= Print Data Digi-%d\n", boardSN);
if( tableMode ){
int entry = 0;
int MaxEntry = 0;
printf("%4s|", "");
for( int ch = 0; ch < numInputCh; ch++){
if( LoopIndex[ch] > 0 ) {
MaxEntry = dataSize-1;
}else{
if( DataIndex[ch] > MaxEntry ) MaxEntry = DataIndex[ch];
}
if( DataIndex[ch] < 0 ) continue;
printf(" %5s-%02d,%2d,%-6d |", "ch", ch, LoopIndex[ch], DataIndex[ch]);
}
printf("\n");
do{
printf("%4d|", entry );
for( int ch = 0; ch < numInputCh; ch++){
if( DataIndex[ch] < 0 ) continue;
printf(" %5d,%17lld |", Energy[ch][entry], Timestamp[ch][entry]);
}
printf("\n");
entry ++;
if( maxRowDisplay > 0 && (unsigned int) entry >= maxRowDisplay ) break;
}while(entry <= MaxEntry);
}else{
for( int ch = 0; ch < numInputCh ; ch++){
if( DataIndex[ch] < 0 ) continue;
printf("------------ ch : %d, DataIndex : %d, loop : %d\n", ch, DataIndex[ch], LoopIndex[ch]);
for( int ev = 0; ev <= (LoopIndex[ch] > 0 ? dataSize : DataIndex[ch]) ; ev++){
if( DPPType == DPPType::DPP_PHA_CODE || DPPType == DPPType::DPP_QDC_CODE ) printf("%4d, %5u, %18llu, %5u \n", ev, Energy[ch][ev], Timestamp[ch][ev], fineTime[ch][ev]);
if( DPPType == DPPType::DPP_PSD_CODE ) printf("%4d, %5u, %5u, %18llu, %5u \n", ev, Energy[ch][ev], Energy2[ch][ev], Timestamp[ch][ev], fineTime[ch][ev]);
if( maxRowDisplay > 0 && (unsigned int) ev > maxRowDisplay ) break;
}
}
}
}
inline void Data::PrintChData(unsigned short ch, unsigned int maxRowDisplay) const{
if( DataIndex[ch] < 0 ) printf("no data in ch-%d\n", ch);
printf("------------ ch : %d, DataIndex : %d, loop : %d\n", ch, DataIndex[ch], LoopIndex[ch]);
for( int ev = 0; ev < (LoopIndex[ch] > 0 ? dataSize : DataIndex[ch]) ; ev++){
if( DPPType == DPPType::DPP_PHA_CODE || DPPType == DPPType::DPP_QDC_CODE ) printf("%4d, %5u, %15llu, %5u \n", ev, Energy[ch][ev], Timestamp[ch][ev], fineTime[ch][ev]);
if( DPPType == DPPType::DPP_PSD_CODE ) printf("%4d, %5u, %5u, %15llu, %5u \n", ev, Energy[ch][ev], Energy2[ch][ev], Timestamp[ch][ev], fineTime[ch][ev]);
if( maxRowDisplay > 0 && (unsigned int) ev > maxRowDisplay ) break;
}
}
//^#######################################################
//^####################################################### Decode
inline unsigned int Data::ReadBuffer(unsigned int nWord, int verbose){
if( buffer == NULL ) return 0;
unsigned int word = 0;
for( int i = 0 ; i < 4 ; i++) word += ((buffer[i + 4 * nWord] & 0xFF) << 8*i);
if( verbose >= 2) printf("%6d | 0x%08X | ", nWord, word);
return word;
}
inline void Data::DecodeBuffer(char * &buffer, unsigned int size, bool fastDecode, int verbose){
this->buffer = buffer;
this->nByte = size;
DecodeBuffer(fastDecode, verbose);
}
inline void Data::DecodeBuffer(bool fastDecode, int verbose){
/// verbose : 0 = off, 1 = only energy + timestamp, 2 = show header, 3 = wave
if( buffer == NULL ) {
if( verbose >= 1 ) printf(" buffer is empty \n");
return;
}
//for( int ch = 0; ch < MaxNChannels; ch ++) {
// NumEventsDecoded[ch] = 0;
// NumNonPileUpDecoded[ch] = 0;
//}
if( nByte == 0 ) return;
nw = 0;
//printf("############################# agg\n");
do{
if( verbose >= 1 ) printf("Data::DecodeBuffer ######################################### Board Agg.\n");
unsigned int word = ReadBuffer(nw, verbose);
if( ( (word >> 28) & 0xF ) == 0xA ) { /// start of Board Agg
unsigned int nWord = word & 0x0FFFFFFF ;
if( verbose >= 1 ) printf("Number of words in this Agg : %u = %u Byte\n", nWord, nWord * 4);
nw = nw + 1; word = ReadBuffer(nw, verbose);
unsigned int BoardID = ((word >> 27) & 0x1F);
unsigned short pattern = ((word >> 8 ) & 0x7FFF );
bool BoardFailFlag = ((word >> 26) & 0x1 );
unsigned int ChannelMask = ( word & 0xFF ) ;
if( verbose >= 1 ) printf("Board ID(type) : %d, FailFlag = %d, Patten = %u, ChannelMask = 0x%X\n",
BoardID, BoardFailFlag, pattern, ChannelMask);
if( BoardID > 0 ) {
switch(BoardID){
case 0x8 : DPPType = DPPType::DPP_PSD_CODE; break;
case 0xB : DPPType = DPPType::DPP_PHA_CODE; break;
case 0x7 : DPPType = DPPType::DPP_QDC_CODE; break;
}
}
nw = nw + 1;
unsigned int bdAggCounter = ReadBuffer(nw, verbose);
if( verbose >= 1 ) printf("Board Agg Counter : %u \n", bdAggCounter & 0x7FFFFF);
nw = nw + 1;
aggTime = ReadBuffer(nw, verbose);
if( verbose >= 1 ) printf("Agg Time Tag : %u \n", aggTime);
for( int chMask = 0; chMask < 8 ; chMask ++ ){ // the max numnber of Coupled/RegChannel is 8 for PHA, PSD, QDC
if( ((ChannelMask >> chMask) & 0x1 ) == 0 ) continue;
if( verbose >= 2 ) printf("==================== Dual/Group Channel Block, ch Mask : 0x%X, nw : %d\n", chMask *2, nw);
nw = nw + 1;
if( DPPType == DPPType::DPP_PHA_CODE ) {
if ( DecodePHADualChannelBlock(chMask, fastDecode, verbose) < 0 ) break;
}
if( DPPType == DPPType::DPP_PSD_CODE ) {
if ( DecodePSDDualChannelBlock(chMask, fastDecode, verbose) < 0 ) break;
}
if( DPPType == DPPType::DPP_QDC_CODE ) {
if ( DecodeQDCGroupedChannelBlock(chMask, fastDecode, verbose) < 0 ) break;
}
}
}else{
if( verbose >= 1 ) printf("nw : %d, incorrect buffer header. \n", nw);
break;
}
nw++;
///printf("nw : %d ,x 4 = %d, nByte : %d \n", nw, 4*nw, nByte);
}while(4*nw < nByte);
///^===================Calculate trigger rate and first and last Timestamp
for(int ch = 0; ch < MaxNChannels; ch++){
if( ch > numInputCh ) continue;
if( DataIndex[ch] < 0 ) continue;
if( NumEventsDecoded[ch] > 0 ) {
// printf("%s | ch %d | %d %d \n", __func__, ch, LoopIndex[ch], DataIndex[ch]);
IsNotRollOverFakeAgg = true;
}else{
// TriggerRate[ch] = 0;
// NonPileUpRate[ch] = 0;
continue;
}
//printf("Ch : %2d | Decoded Event : %d \n", ch, NumEventsDecoded[ch]);
if( NumEventsDecoded[ch] > 4 ){
int indexStart = DataIndex[ch] - NumEventsDecoded[ch] + 1;
if( indexStart < 0 ) indexStart += dataSize;
unsigned long long dTime = Timestamp[ch][DataIndex[ch]] - Timestamp[ch][indexStart];
double sec = dTime * tick2ns / 1e9;
TriggerRate[ch] = (NumEventsDecoded[ch]-1)/sec;
NonPileUpRate[ch] = (NumNonPileUpDecoded[ch]-1)/sec;
//printf("%d %d| %d %d | %llu, %.3e | %.2f, %.2f\n", indexStart, DataIndex[ch], NumEventsDecoded[ch], NumNonPileUpDecoded[ch], dTime, sec , TriggerRate[ch], NonPileUpRate[ch]);
}else{ // look in to the data in the memory, not just this agg.
const short nEvent = 10;
if( TotNumNonPileUpEvents[ch] >= nEvent ){
calIndexes[ch][1] = DataIndex[ch];
calIndexes[ch][0] = DataIndex[ch] - nEvent + 1;
if (calIndexes[ch][0] < 0 ) calIndexes[ch][0] += dataSize;
// std::vector<unsigned long long> tList ;
// for( int i = 0; i < nEvent ; i ++){
// int j = (calIndexes[ch][0] + i) % dataSize;
// tList.push_back( Timestamp[ch][j]);
// }
// if( DPPType == DPPType::DPP_QDC_CODE){
// //std::sort(tList.begin(), tList.end());
// unsigned long long t0 = tList.front(); // earlier
// unsigned long long t1 = tList.back(); // latest
// for( int i = 0; i < (int) tList.size(); i++){
// if( t0 < tList[i]) t0 = tList[i];
// if( t1 > tList[i]) t1 = tList[i];
// }
// tList.front() = t0;
// tList.back() = t1;
// }
//double sec = ( tList.back() - tList.front() ) * tick2ns / 1e9;
unsigned long long t0 = Timestamp[ch][(calIndexes[ch][0]) % dataSize]; // earlier
unsigned long long t1 = Timestamp[ch][(calIndexes[ch][1]) % dataSize];; // latest
if( t0 > t1 ) {
printf("digi-%d, ch-%d | data is not in time order\n", boardSN, ch);
unsigned long long tt = t1;
t1 = t0;
t0 = tt;
}
double sec = ( t1 - t0 ) * tick2ns / 1e9;
TriggerRate[ch] = nEvent / sec;
short pileUpCount = 0;
for( int i = 0 ; i < nEvent; i++ ) {
int j = (calIndexes[ch][0] + i) % dataSize;
if( PileUp[ch][j] ) pileUpCount ++;
}
NonPileUpRate[ch] = (nEvent - pileUpCount)/sec;
//printf("%2d | %10llu %10llu, %.0f = %f sec, rate = %f, nEvent %d pileUp %d \n", ch, t1, t0, tick2ns, sec, nEvent / sec, nEvent, pileUpCount);
}
}
}
}
//*=================================================
inline void Data::DecodeDualBlock(char * &buffer, unsigned int size, int DPPType, int chMask, bool fastDecode, int verbose){
this->buffer = buffer;
this->nByte = size;
nw = 0;
if( DPPType == DPPType::DPP_PHA_CODE ) {
DecodePHADualChannelBlock(chMask, fastDecode, verbose) ;
}
if( DPPType == DPPType::DPP_PSD_CODE ) {
DecodePSDDualChannelBlock(chMask, fastDecode, verbose) ;
}
if( DPPType == DPPType::DPP_QDC_CODE ) {
DecodeQDCGroupedChannelBlock(chMask, fastDecode, verbose) ;
}
}
inline int Data::DecodePHADualChannelBlock(unsigned int ChannelMask, bool fastDecode, int verbose){
//printf("======= %s\n", __func__);
//nw = nw + 1;
unsigned int word = ReadBuffer(nw, verbose);
bool hasFormatInfo = ((word >> 31) & 0x1);
unsigned int aggSize = ( word & 0x7FFFFFFF ) ;
if( verbose >= 2 ) printf("Dual Channel size : %d \n", aggSize);
unsigned int nSample = 0; /// wave form;
unsigned int nEvents = 0;
unsigned int extra2Option = 0;
bool hasWaveForm = false;
bool hasExtra2 = false;
bool hasDualTrace = 0 ;
if( hasFormatInfo ){
nw = nw + 1; word = ReadBuffer(nw, verbose);
nSample = ( word & 0xFFFF ) * 8;
extra2Option = ( (word >> 24 ) & 0x7 );
hasExtra2 = ( (word >> 28 ) & 0x1 );
if( !fastDecode || verbose >= 2){
unsigned int digitalProbe = ( (word >> 16 ) & 0xF );
unsigned int analogProbe2 = ( (word >> 20 ) & 0x3 );
unsigned int analogProbe1 = ( (word >> 22 ) & 0x3 );
hasWaveForm = ( (word >> 27 ) & 0x1 );
bool hasTimeStamp = ( (word >> 29 ) & 0x1 );
bool hasEnergy = ( (word >> 30 ) & 0x1 );
hasDualTrace = ( (word >> 31 ) & 0x1 );
if( verbose >= 2 ) {
printf("DualTrace : %d, Energy : %d, Time: %d, Wave : %d, Extra2: %d \n",
hasDualTrace, hasEnergy, hasTimeStamp, hasWaveForm, hasExtra2);
}
if( verbose >= 3){
if( hasExtra2 ){
printf("...... extra 2 : ");
switch (extra2Option){
case 0: printf("[0:15] trapwzoid baseline * 4 [16:31] Extended timestamp (16-bit)\n"); break;
case 1: printf("Reserved\n"); break;
case 2: printf("[0:9] Fine time stamp [10:15] Reserved [16:31] Extended timestamp (16-bit)\n"); break;
case 3: printf("Reserved\n"); break;
case 4: printf("[0:15] Total trigger counter [16:31] Lost trigger counter\n"); break;
case 5: printf("[0:15] Event after Zero crossing [16:31] Event before Zero crossing\n"); break;
case 6: printf("Reserved\n"); break;
case 7: printf("Reserved\n"); break;
}
}
if( hasWaveForm ){
printf("...... Analog Probe 1 : ");
switch (analogProbe1 ){
case 0 : printf("Input \n"); break;
case 1 : printf("RC-CR (1st derivative) \n"); break;
case 2 : printf("RC-CR2 (2st derivative) \n"); break;
case 3 : printf("trapazoid \n"); break;
}
printf("...... Analog Probe 2 : ");
switch (analogProbe2 ){
case 0 : printf("Input \n"); break;
case 1 : printf("Theshold \n"); break;
case 2 : printf("trapezoid - baseline \n"); break;
case 3 : printf("baseline \n"); break;
}
printf("...... Digital Probe : ");
switch (digitalProbe ){
case 0 : printf("Peaking \n"); break;
case 1 : printf("Armed (trigger) \n"); break;
case 2 : printf("Peak Run \n"); break;
case 3 : printf("Pile up \n"); break;
case 4 : printf("Peaking \n"); break;
case 5 : printf("Trigger Validation Window \n"); break;
case 6 : printf("Baseline for energy calculation \n"); break;
case 7 : printf("Trigger holdoff \n"); break;
case 8 : printf("Trigger Validation \n"); break;
case 9 : printf("ACQ Busy \n"); break;
case 10 : printf("Trigger window \n"); break;
case 11 : printf("Ext. Trigger \n"); break;
case 12 : printf("Busy = memory is full \n"); break;
}
}
}
}
nEvents = (aggSize - 2) / (nSample/2 + 2 + hasExtra2 );
if( verbose >= 2 ) printf("----------------- nEvents : %d, fast decode : %d\n", nEvents, fastDecode);
}else{
if( verbose >= 2 ) printf("does not has format info. unable to read buffer.\n");
return 0;
}
///========== decode an event
for( unsigned int ev = 0; ev < nEvents ; ev++){
if( verbose >= 2 ) printf("------ event : %d\n", ev);
nw = nw +1 ; word = ReadBuffer(nw, verbose);
bool channelTag = ((word >> 31) & 0x1);
unsigned int timeStamp0 = (word & 0x7FFFFFFF);
int channel = ChannelMask*2 + channelTag;
if( verbose >= 2 ) printf("ch : %d, timeStamp0 %u \n", channel, timeStamp0);
///===== read waveform
if( !fastDecode ) {
tempWaveform1.clear();
tempWaveform2.clear();
tempDigiWaveform1.clear();
}
unsigned int triggerAtSample = 0 ;
if( fastDecode ){
nw += nSample/2;
}else{
if( hasWaveForm ){
for( unsigned int wi = 0; wi < nSample/2; wi++){
nw = nw +1 ; word = ReadBuffer(nw, verbose-2);
///The CAEN manual is wrong, the bit [31:16] is anaprobe 1
bool isTrigger1 = (( word >> 31 ) & 0x1 );
bool dp1 = (( word >> 30 ) & 0x1 );
unsigned short wave1 = (( word >> 16) & 0x3FFF);
short trace1 = 0;
if( wave1 & 0x2000){
trace1 = static_cast<short>(~wave1 + 1 + 0x3FFF);
trace1 = - trace1;
}else{
trace1 = static_cast<short>(wave1);
}
///The CAEN manual is wrong, the bit [31:16] is anaprobe 2
bool isTrigger0 = (( word >> 15 ) & 0x1 );
bool dp0 = (( word >> 14 ) & 0x1 );
unsigned short wave0 = ( word & 0x3FFF);
short trace0 = 0;
if( wave0 & 0x2000){
trace0 = static_cast<short>(~wave0 + 1 + 0x3FFF);
trace0 = - trace0;
}else{
trace0 = static_cast<short>(wave0);
}
if( hasDualTrace ){
tempWaveform1.push_back(trace1);
tempWaveform2.push_back(trace0);
tempDigiWaveform1.push_back(dp1);
tempDigiWaveform2.push_back(dp0);
}else{
tempWaveform1.push_back(trace1);
tempWaveform1.push_back(trace0);
tempDigiWaveform1.push_back(dp1);
tempDigiWaveform1.push_back(dp0);
}
if( isTrigger0 == 1 ) triggerAtSample = 2*wi ;
if( isTrigger1 == 1 ) triggerAtSample = 2*wi + 1;
if( verbose >= 4 ){
if( !hasDualTrace ){
printf("%4d| %5d, %d, %d \n", 2*wi, trace0, dp0, isTrigger0);
printf("%4d| %5d, %d, %d \n", 2*wi+1, trace1, dp1, isTrigger1);
}else{
printf("%4d| %5d, %5d | %d, %d | %d %d\n", wi, trace0, trace1, dp0, dp1, isTrigger0, isTrigger1);
}
}
}
}
}
unsigned long long extTimeStamp = 0;
unsigned int extra2 = 0;
if( hasExtra2 ){
nw = nw +1 ; word = ReadBuffer(nw, verbose);
extra2 = word;
if( extra2Option == 0 || extra2Option == 2 ) extTimeStamp = (extra2 >> 16);
}
unsigned long long timeStamp = (extTimeStamp << 31) ;
timeStamp = timeStamp + timeStamp0;
if( verbose >= 2 && hasExtra2 ) printf("extra2 : 0x%0X, TimeStamp : %llu\n", extra2, timeStamp);
nw = nw +1 ; word = ReadBuffer(nw, verbose);
unsigned int extra = (( word >> 16) & 0x3FF);
unsigned int energy = (word & 0x7FFF);
bool rollOver = (extra & 0x002);
bool pileUp = (extra & 0x200);
bool pileUpOrRollOver = ((word >> 15) & 0x1);
if( verbose >= 3 ) {
printf("PileUp or RollOver : %d\n", pileUpOrRollOver);
printf("PileUp : %d , extra : 0x%03x, energy : %d \n", pileUp, extra, energy);
printf(" lost event : %d \n", ((extra >> 0) & 0x1) );
printf(" roll-over : %d (is fake event ?)\n", ((extra >> 1) & 0x1) );
printf(" fake-event : %d \n", ((extra >> 3) & 0x1) );
printf(" input sat. : %d \n", ((extra >> 4) & 0x1) );
printf(" lost trg : %d \n", ((extra >> 5) & 0x1) );
printf(" tot trg : %d \n", ((extra >> 6) & 0x1) );
printf(" coincident : %d \n", ((extra >> 7) & 0x1) );
printf(" not coin. : %d \n", ((extra >> 8) & 0x1) );
printf(" pile-up : %d \n", ((extra >> 9) & 0x1) );
printf(" trapezoid sat. : %d \n", ((extra >> 10) & 0x1) );
}
if( rollOver == 0 ) { // non-time roll over fake event
DataIndex[channel] ++;
if( DataIndex[channel] >= dataSize ) {
LoopIndex[channel] ++;
DataIndex[channel] = 0;
}
Energy[channel][DataIndex[channel]] = energy;
Timestamp[channel][DataIndex[channel]] = timeStamp * tick2ns;
if(extra2Option == 2 ) fineTime[channel][DataIndex[channel]] = (extra2 & 0x03FF );
PileUp[channel][DataIndex[channel]] = pileUp;
NumEventsDecoded[channel] ++;
if( !pileUp ) {
NumNonPileUpDecoded[channel] ++;
TotNumNonPileUpEvents[channel] ++;
}
if( !fastDecode && hasWaveForm) {
if( hasDualTrace ){
Waveform1[channel][DataIndex[channel]] = tempWaveform1;
Waveform2[channel][DataIndex[channel]] = tempWaveform2;
}else{
Waveform1[channel][DataIndex[channel]] = tempWaveform1;
}
DigiWaveform1[channel][DataIndex[channel]] = tempDigiWaveform1;
}
}
//if( DataIndex[channel] > dataSize ) ClearData(); // if any channel has more data then dataSize, clear all stored data
if( verbose >= 1 ) printf("evt %4d(%2d) | ch : %2d, PileUp : %d , energy : %5d, rollOver: %d, timestamp : %16llu (%10llu), triggerAt : %d, nSample : %d, %f sec\n",
DataIndex[channel], LoopIndex[channel], channel, pileUp, energy, rollOver, timeStamp * tick2ns, timeStamp, triggerAtSample, nSample , timeStamp * 4. / 1e9);
}
///=========== Key information
/// ch, energy, timestamp
/// trace
return nw;
}
//*=================================================
inline int Data::DecodePSDDualChannelBlock(unsigned int ChannelMask, bool fastDecode, int verbose){
//printf("======= %s\n", __func__);
//nw = nw + 1;
unsigned int word = ReadBuffer(nw, verbose);
if( (word >> 31) != 1 ) return 0;
unsigned int aggSize = ( word & 0x3FFFFF ) ;
if( verbose >= 2 ) printf(" size : %d \n", aggSize);
unsigned int nEvents = 0;
nw = nw + 1; word = ReadBuffer(nw, verbose);
unsigned int nSample = ( word & 0xFFFF ) * 8;
unsigned int digitalProbe1 = ( (word >> 16 ) & 0x7 );
unsigned int digitalProbe2 = ( (word >> 19 ) & 0x7 );
unsigned int analogProbe = ( (word >> 22 ) & 0x3 );
unsigned int extraOption = ( (word >> 24 ) & 0x7 );
bool hasWaveForm = ( (word >> 27 ) & 0x1 );
bool hasExtra = ( (word >> 28 ) & 0x1 );
bool hasTimeStamp = ( (word >> 29 ) & 0x1 );
bool hasCharge = ( (word >> 30 ) & 0x1 );
bool hasDualTrace = ( (word >> 31 ) & 0x1 );
if( verbose >= 2 ) {
printf("dualTrace : %d, Charge : %d, Time: %d, Wave : %d, Extra: %d\n",
hasDualTrace, hasCharge, hasTimeStamp, hasWaveForm, hasExtra);
if( hasExtra ){
printf(".... extra : ");
switch(extraOption){
case 0: printf("[0:15] baseline * 4 [16:31] Extended timestamp (16-bit)\n"); break;
case 1: printf("[0:11] reserved [12] lost trigger counted [13] 1024 trigger counted [14] Over-range\n");
printf("[15] trigger lost [16:31] Extended timestamp (16-bit)\n"); break;
case 2: printf("[0:9] Fine time stamp [10:15] flag [10:15] Reserved [16:31] Extended timestamp (16-bit)\n"); break;
case 3: printf("Reserved\n"); break;
case 4: printf("[0:15] Total trigger counter [16:31] Lost trigger counter\n"); break;
case 5: printf("[0:15] Event after Zero crossing [16:31] Event before Zero crossing\n"); break;
case 6: printf("Reserved\n"); break;
case 7: printf("debug, must be 0x12345678\n"); break;
}
}
if( hasWaveForm ){
printf(".... digital Probe 1 : ");
switch(digitalProbe1){
case 0 : printf("Long gate \n"); break;
case 1 : printf("Over threshold \n"); break;
case 2 : printf("Shaped TRG \n"); break;
case 3 : printf("TRG Val. Acceptance \n"); break;
case 4 : printf("Pile-Up \n"); break;
case 5 : printf("Coincidence \n"); break;
case 6 : printf("Reserved \n"); break;
case 7 : printf("Trigger \n"); break;
}
printf(".... digital Probe 2 : ");
switch(digitalProbe2){
case 0 : printf("Short gate \n"); break;
case 1 : printf("Over threshold \n"); break;
case 2 : printf("TRG Validation \n"); break;
case 3 : printf("TRG HoldOff \n"); break;
case 4 : printf("Pile-Up \n"); break;
case 5 : printf("Coincidence \n"); break;
case 6 : printf("Reserved \n"); break;
case 7 : printf("Trigger \n"); break;
}
printf(".... analog Probe (dual trace : %d): ", hasDualTrace);
if( hasDualTrace ) {
switch(analogProbe){
case 0 : printf("Input and baseline \n"); break;
case 1 : printf("CFD and baseline \n"); break;
case 2 : printf("Input and CFD \n"); break;
}
}else{
switch(analogProbe){
case 0 : printf("Input \n"); break;
case 1 : printf("CFD \n"); break;
}
}
}
if( !hasExtra && !hasWaveForm) printf("\n");
}
nEvents = (aggSize -2) / (nSample/2 + 2 + hasExtra );
if( verbose >= 2 ) printf("----------------- nEvents : %d, fast decode : %d\n", nEvents, fastDecode);
///========= Decode an event
for( unsigned int ev = 0; ev < nEvents ; ev++){
if( verbose >= 2 ) printf("--------------------------- event : %d\n", ev);
nw = nw +1 ; word = ReadBuffer(nw, verbose);
bool channelTag = ((word >> 31) & 0x1);
unsigned int timeStamp0 = (word & 0x7FFFFFFF);
int channel = ChannelMask*2 + channelTag;
if( verbose >= 2 ) printf("ch : %d, timeStamp %u \n", channel, timeStamp0);
///===== read waveform
if( !fastDecode ) {
tempWaveform1.clear();
tempWaveform2.clear();
tempDigiWaveform1.clear();
tempDigiWaveform2.clear();
}
if( fastDecode ){
nw += nSample/2;
}else{
if( hasWaveForm ){
for( unsigned int wi = 0; wi < nSample/2; wi++){
nw = nw +1 ; word = ReadBuffer(nw, verbose-4);
bool dp2b = (( word >> 31 ) & 0x1 );
bool dp1b = (( word >> 30 ) & 0x1 );
unsigned short waveb = (( word >> 16) & 0x3FFF);
bool dp2a = (( word >> 15 ) & 0x1 );
bool dp1a = (( word >> 14 ) & 0x1 );
unsigned short wavea = ( word & 0x3FFF);
if( hasDualTrace ){
tempWaveform1.push_back(wavea);
tempWaveform2.push_back(waveb);
}else{
tempWaveform1.push_back(wavea);
tempWaveform1.push_back(waveb);
}
tempDigiWaveform1.push_back(dp1a);
tempDigiWaveform1.push_back(dp1b);
tempDigiWaveform2.push_back(dp2a);
tempDigiWaveform2.push_back(dp2b);
if( verbose >= 3 ){
printf("%4d| %5d, %d, %d \n", 2*wi, wavea, dp1a, dp2a);
printf("%4d| %5d, %d, %d \n", 2*wi+1, waveb, dp1b, dp2b);
}
}
}
}
unsigned int extra = 0;
unsigned long long extTimeStamp = 0;
if( hasExtra ){
nw = nw +1 ; word = ReadBuffer(nw, verbose);
if( verbose > 2 ) printf("extra \n");
extra = word;
extTimeStamp = 0;
if( extraOption == 0 || extraOption == 2 ) extTimeStamp = (extra >> 16);
}
unsigned long long timeStamp = (extTimeStamp << 31) ;
timeStamp = timeStamp + timeStamp0;
nw = nw +1 ; word = ReadBuffer(nw, verbose);
unsigned int Qlong = (( word >> 16) & 0xFFFF);
bool pileup = ((word >> 15) & 0x1);
unsigned int Qshort = (word & 0x7FFF);
bool isEnergyCorrect = ((word >> 15) & 0x1); // the PUR, either pileup or saturated
if( isEnergyCorrect == 0 ) {
DataIndex[channel] ++;
if( DataIndex[channel] >= dataSize ) {
LoopIndex[channel] ++;
DataIndex[channel] = 0;
}
Energy2[channel][DataIndex[channel]] = Qshort;
Energy[channel][DataIndex[channel]] = Qlong;
Timestamp[channel][DataIndex[channel]] = timeStamp * tick2ns;
if( extraOption == 2 ) fineTime[channel][DataIndex[channel]] = extra & 0x3FF;
NumEventsDecoded[channel] ++;
if( !pileup){
NumNonPileUpDecoded[channel] ++;
TotNumNonPileUpEvents[channel] ++;
}
if( !fastDecode && hasWaveForm) {
if( hasDualTrace ){
Waveform1[channel][DataIndex[channel]] = tempWaveform1;
Waveform2[channel][DataIndex[channel]] = tempWaveform2;
}else{
Waveform1[channel][DataIndex[channel]] = tempWaveform1;
}
DigiWaveform1[channel][DataIndex[channel]] = tempDigiWaveform1;
DigiWaveform2[channel][DataIndex[channel]] = tempDigiWaveform2;
}
}
//if( DataIndex[channel] >= dataSize ) ClearData();
//if( verbose >= 2 ) printf("extra : 0x%08x, Qshort : %d, Qlong : %d \n", extra, Qshort, Qlong);
if( verbose == 1 ) printf("ch : %2d, Qshort : %6d, Qlong : %6d, timestamp : %llu\n",
channel, Qshort, Qlong, timeStamp * tick2ns);
if( verbose >= 2 ) printf("Qshort : %6d, Qlong : %6d, timestamp : %llu\n",
Qshort, Qlong, timeStamp * tick2ns);
}
///=========== Key information
/// ch, Qshort, Qlong , timestamp
/// trace
return nw;
}
//*=================================================
inline int Data::DecodeQDCGroupedChannelBlock(unsigned int ChannelMask, bool fastDecode, int verbose){
//nw = nw + 1;
unsigned int word = ReadBuffer(nw, verbose);
if( (word >> 31) != 1 ) return 0;
unsigned int aggSize = ( word & 0x3FFFFF ) ;
if( verbose >= 2 ) printf(" Group agg. size : %d words\n", aggSize);
unsigned int nEvents = 0;
nw = nw + 1; word = ReadBuffer(nw, verbose);
unsigned int nSample = ( word & 0xFFFF ) * 8;
unsigned int analogProbe = ( (word >> 22 ) & 0x3 );
bool hasWaveForm = ( (word >> 27 ) & 0x1 );
bool hasExtra = ( (word >> 28 ) & 0x1 );
bool hasTimeStamp = ( (word >> 29 ) & 0x1 );
bool hasEnergy = ( (word >> 30 ) & 0x1 );
if( (word >> 31 ) != 0 ) return 0;
if( verbose >= 2 ) {
printf("Charge : %d, Time: %d, Wave : %d, Extra: %d\n", hasEnergy, hasTimeStamp, hasWaveForm, hasExtra);
if( hasWaveForm ){
printf(".... analog Probe (%d): ", analogProbe);
switch(analogProbe){
case 0 : printf("Input\n"); break;
case 1 : printf("Smoothed Input\n"); break;
case 2 : printf("Baseline\n"); break;
}
}
}
nEvents = (aggSize -2) / (nSample/2 + 2 + hasExtra );
if( verbose >= 2 ) printf("----------------- nEvents : %d, fast decode : %d\n", nEvents, fastDecode);
///========= Decode an event
for( unsigned int ev = 0; ev < nEvents ; ev++){
if( verbose >= 2 ) printf("--------------------------- event : %d\n", ev);
nw = nw +1 ; word = ReadBuffer(nw, verbose);
unsigned int timeStamp0 = (word & 0xFFFFFFFF);
if( verbose >= 2 ) printf("timeStamp %u \n", timeStamp0);
///===== read waveform
if( !fastDecode && hasWaveForm ) {
tempWaveform1.clear();
tempDigiWaveform1.clear();
tempDigiWaveform2.clear();
tempDigiWaveform3.clear();
tempDigiWaveform4.clear();
}
if( fastDecode ){
nw += nSample/2;
}else{
if( hasWaveForm ){
for( unsigned int wi = 0; wi < nSample/2; wi++){
nw = nw +1 ; word = ReadBuffer(nw, verbose-4);
tempWaveform1.push_back(( word & 0xFFF));
tempWaveform1.push_back((( word >> 16) & 0xFFF));
tempDigiWaveform1.push_back((( word >> 12 ) & 0x1 )); //Gate
tempDigiWaveform1.push_back((( word >> 28 ) & 0x1 ));
tempDigiWaveform2.push_back((( word >> 13 ) & 0x1 )); //Trigger
tempDigiWaveform2.push_back((( word >> 29 ) & 0x1 ));
tempDigiWaveform3.push_back((( word >> 14 ) & 0x1 )); //Triger Hold Off
tempDigiWaveform3.push_back((( word >> 30 ) & 0x1 ));
tempDigiWaveform4.push_back((( word >> 15 ) & 0x1 )); //Over-Threshold
tempDigiWaveform4.push_back((( word >> 31 ) & 0x1 ));
if( verbose >= 3 ){
printf("%4d| %5d, %d, %d, %d, %d \n", 2*wi, (word & 0xFFF) , (( word >> 12 ) & 0x1 ), (( word >> 13 ) & 0x1 ), (( word >> 14 ) & 0x1 ), (( word >> 15 ) & 0x1 ));
printf("%-22s", "");
printf("%4d| %5d, %d, %d, %d, %d \n", 2*wi+1, (( word >> 16) & 0xFFF), (( word >> 28 ) & 0x1 ), (( word >> 29 ) & 0x1 ), (( word >> 30 ) & 0x1 ), (( word >> 31 ) & 0x1 ));
}
}
}
}
unsigned long long extTimeStamp = 0;
unsigned int baseline = 0;
unsigned long extra = 0;
if( hasExtra ){
nw = nw +1 ; word = ReadBuffer(nw, verbose);
extra = word;
extTimeStamp = (word & 0xFFF);
baseline = (word >> 16) / 16;
if( verbose >= 2 ) printf("extra : 0x%lx, baseline : %d\n", extra, baseline);
}
unsigned long long timeStamp = (extTimeStamp << 32) ;
timeStamp = timeStamp + timeStamp0;
nw = nw +1 ; word = ReadBuffer(nw, verbose);
unsigned int energy = ( word & 0xFFFF);
bool pileup = ((word >> 27) & 0x1);
bool OverRange = ((word >> 26)& 0x1);
unsigned short subCh = ((word >> 28)& 0xF);
unsigned short channel = ChannelMask*8 + subCh;
DataIndex[channel] ++;
if( DataIndex[channel] >= dataSize ) {
LoopIndex[channel] ++;
DataIndex[channel] = 0;
}
Energy[channel][DataIndex[channel]] = energy;
Timestamp[channel][DataIndex[channel]] = timeStamp * tick2ns;
NumEventsDecoded[channel] ++;
if( !pileup && !OverRange){
NumNonPileUpDecoded[channel] ++;
TotNumNonPileUpEvents[channel] ++;
}
if( !fastDecode && hasWaveForm) {
Waveform1[channel][DataIndex[channel]] = tempWaveform1;
DigiWaveform1[channel][DataIndex[channel]] = tempDigiWaveform1;
DigiWaveform2[channel][DataIndex[channel]] = tempDigiWaveform2;
DigiWaveform3[channel][DataIndex[channel]] = tempDigiWaveform3;
DigiWaveform4[channel][DataIndex[channel]] = tempDigiWaveform4;
}
if( verbose == 1 ) printf("ch : %2d, energy : %d, timestamp : %llu\n", channel, energy, timeStamp * tick2ns);
if( verbose > 1 ) printf("ch : %2d, energy : %d, timestamp : %llu, pileUp : %d, OverRange : %d\n", channel, energy, timeStamp * tick2ns, pileup, OverRange);
if( verbose == 1) printf("Decoded : %d, total : %ld \n", NumEventsDecoded[channel], TotNumNonPileUpEvents[channel]);
}
return nw;
}
#endif
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