int main(int argc, char** argv)
{
string inputfilelist;
string filenameext = ".TWin.root";
string outputfilebase;
string outputfile;
TChain *SubEvt = new TChain("SubEvt");
if( argc != 3 ) {
cout<<"Usage:"<<endl;
cout<<" TWin inputfiles.list output/path/namebase"<<endl;
cout<<endl;
return 1;
} else {
inputfilelist = argv[1];
outputfilebase = argv[2];
/// The input file parsing
ifstream inlist( inputfilelist.c_str() );
string line;
while( getline( inlist, line ) ) {
SubEvt->Add( line.c_str() );
}
/// The output file
outputfile = outputfilebase + filenameext;
}
/// Do the work
/// ###########
// Load the SubEvt Tree
// This should a TChain
// Get the SubEvt Tree reader
SEReader = new SubEvtReader;
SEReader->Init(SubEvt);
// Prepare the output tree
aEventTree = new EventTree("Event",outputfile.c_str(),0);
/// Prepare to Start
BeginJob();
/// The main loop
/// #############
unsigned int entries = SubEvt->GetEntries();
for( unsigned int entry=0; entry<entries; entry++ ) {
int ret = SEReader->GetEntry( entry );
if( ret==0 ) {
cout<<"Warning: Read error"<<endl;
}
if( SEReader->Run != CurrRun ) {
if( CurrRun != 0 ) {
EndRun();
}
BeginRun();
}
/* A few key variables */
CurrSubEvtTime = TimeStamp(SEReader->SubEvtSec, SEReader->SubEvtNano);
bool GoodSingleAdSubEvt = false;
TimeStamp T2PrevMuon;
if( PrevMuonTime == TimeStamp::GetBOT() ) {
T2PrevMuon == TimeStamp(0,0);
} else {
T2PrevMuon = CurrSubEvtTime - PrevMuonTime;
}
CurrSingleDet = 0;
if( SEReader->NDet == 1 ) {
for( unsigned int i=0; i<7; i++ ) {
if( SEReader->Valid[i] ) {
CurrSingleDet = SEReader->Det[i];
}
}
}
if( SEReader->MuonProb < 0.5 &&
/// SEReader->RetrigProb < 0.5 && /// This turns out to be not very useful
SEReader->NDet == 1 &&
CurrSingleDet <= 4 &&
T2PrevMuon.GetSeconds() > cuts.SpallDt/second ) {
GoodSingleAdSubEvt = true;
}
/* For non-muon-event, if it is a single AD sub event */
/* Need to filter out non-physical events. They should not go into the searching queue. */
if( SEReader->MuonProb < 0.5 ) {
if( GoodSingleAdSubEvt ) {
/* Skip flashers */
double Quadrant = SEReader->Quadrant[ CurrSingleDet - 1 ];
double QMax2Sum = SEReader->QMax2Sum[ CurrSingleDet - 1 ];
double ellipse = sqrt(
(Quadrant)*(Quadrant) +
(QMax2Sum)/0.45*(QMax2Sum)/0.45
);
if( ellipse>1 ) goto EndEachSubEvent;
/* Remove low and high energy events */
if( SEReader->E[ CurrSingleDet - 1 ] < cuts.QSumLow/MeV ) {
goto EndEachSubEvent;
}
}
}
/// Each AD has its own queue
for( int AdNo = 1; AdNo <= 4; AdNo++ ) {
RunStatus::RunStatus_t & ThisAdStatus = RunStatusDict[ AdNo ];
Event ThisAdEvent = EventDict[ AdNo ];
TimeStamp ThisAdEventTime( ThisAdEvent.TimeSec,
ThisAdEvent.TimeNano );
TimeStamp T2FirstSubEvt = CurrSubEvtTime - ThisAdEventTime;
bool SameAd = (CurrSingleDet == AdNo);
/* How to normally end an event */
/*##############################*/
if( ThisAdStatus == RunStatus::inEvent &&
T2FirstSubEvt.GetSeconds() > cuts.CoinDt/second ) {
ThisAdStatus = RunStatus::waiting;
NormalEndEvent( AdNo );
}
/* How to abruptly stop an event */
/*###############################*/
if( ThisAdStatus == RunStatus::inEvent &&
T2FirstSubEvt.GetSeconds() < cuts.CoinDt/second &&
!GoodSingleAdSubEvt ) {
ThisAdStatus = RunStatus::waiting;
AbruptStopEvent( AdNo );
}
/* How to append a sub-event */
/*###########################*/
if( ThisAdStatus == RunStatus::inEvent &&
SameAd &&
T2FirstSubEvt.GetSeconds() < cuts.CoinDt/second &&
GoodSingleAdSubEvt ) {
AppendSubEvt( AdNo );
}
/* How to begin an event */
/*#######################*/
if( ThisAdStatus == RunStatus::waiting &&
SameAd &&
GoodSingleAdSubEvt ) {
ThisAdStatus = RunStatus::inEvent;
CurrEventAd = CurrSingleDet;
BeginEvent( AdNo );
AppendSubEvt( AdNo );
}
}
EndEachSubEvent:
/* Live time calculation */
if( SEReader->MuonProb > 0.5 ) {
MuonCounter += 1;
double shadowTime = (cuts.SpallDt + cuts.CoinDt)/second ;
double T2PrevMuon = (CurrSubEvtTime - PrevMuonTime).GetSeconds();
if( T2PrevMuon < (cuts.SpallDt + cuts.CoinDt)/second ) {
shadowTime = T2PrevMuon;
}
MuonShadowTime.Add( shadowTime );
PrevMuonTime = TimeStamp( SEReader->SubEvtSec, SEReader->SubEvtNano );
}
PrevSubEvtTime = TimeStamp( SEReader->SubEvtSec, SEReader->SubEvtNano );
continue;
}
AbruptStopEvent( 1 );
AbruptStopEvent( 2 );
AbruptStopEvent( 3 );
AbruptStopEvent( 4 );
EndRun();
aEventTree->Close();
EndJob();
return 1;
}
void DailyPlot()
{
cout<<" [ Measured and predicted rate ] "<<endl;
/* Predicted daily rate */
IGetFluxXsec* GetFluxXsec;
if( Basic::DailyFlux == true ) {
/// Daily flux blinded.
} else {
GetFluxXsec = gGetFluxXsec;
}
/* Daily rate */
TimeStamp BeginTime(2011,12,24,0,0,0);
TimeStamp EndTime (2012,02,11,0,0,0);
TimeStamp Week(7*24*60*60);
TimeStamp Day(24*60*60);
map< TimeStamp, double > Rate[ Basic::NoAd ];
for( TimeStamp Time = BeginTime; Time <= EndTime; Time.Add( Week ) ) {
for( unsigned int m_AdNo = 1; m_AdNo<=Basic::NoAd; m_AdNo++ ) {
double Sum=0;
for( unsigned int BinIdx = 1; BinIdx <= Binning::NHistoBin; BinIdx++ ) {
for( unsigned int RctIdx = 1; RctIdx <= Basic::NoRct; RctIdx++ ) {
Sum +=
GetFluxXsec->Get( Time, RctIdx, BinIdx )
* (Binning::EndEnergy-Binning::BeginEnergy)/Binning::NHistoBin
* pow( Baseline(RctIdx, m_AdNo), -2 ) / 4 /3.1415926
* gProtonNumber->Get( Time, m_AdNo ).NPGdLs
* Day.GetSeconds()*CLHEP::second;
}
}
Rate[m_AdNo-1][Time] = Sum;
}
}
/// Sum over all live time
double Sum8[Basic::NoAd];
const std::vector< RunBrief* > Runs = gAnalyzeData->GetRuns();
/* ============================================== */
for( unsigned int m_AdNo=1; m_AdNo<=Basic::NoAd; m_AdNo++ ) {
Sum8[m_AdNo-1] = 0;
int Site = ToSite(m_AdNo);
int LocalAdNo = ToLocalAdNo(m_AdNo);
for( std::vector< RunBrief* >::const_iterator iRun = Runs.begin();
iRun!=Runs.end(); iRun++ ) {
const RunBrief* const Brief = (*iRun);
if( Dataset::GdCap != Brief->Dataset ) continue;
/* Must be from the same site */
if( Site != Brief->Site ) continue;
/* Cache run info */
double fulltime = Brief->Fulltime;
double livefraction = Brief->Livetime[ LocalAdNo-1 ] / fulltime;
/* split it into days */
for( TimeStamp Time = Brief->StartTime; Time < Brief->StopTime; /* Complex increment */) {
/* Through this, runs span over a day are split into days at exactly 00:00:00 */
unsigned int StartDate,StartYY,StartMM,StartDD;
unsigned int StopDate, StopYY, StopMM, StopDD;
StartDate = Time.GetDate( true, 0, &StartYY, &StartMM, &StartDD );
StopDate = Brief->StopTime.GetDate( true, 0, &StopYY, &StopMM, &StopDD );
TimeStamp Step(0,0); /* Alway init a TimeStamp, otherwise it will be inited to sys time and too slow. */
if( StartDate == StopDate ) {
/* The same day */
Step = Brief->StopTime - Time;
} else {
/* The closest day's end */
TimeStamp DaysEnd( StartYY,StartMM,StartDD+1, 0, 0, 0, 0);
Step = DaysEnd - Time;
}
for( unsigned int BinIdx = 1; BinIdx <= Binning::NHistoBin; BinIdx++ ) {
for( unsigned int RctIdx = 1; RctIdx <= Basic::NoRct; RctIdx++ ) {
Sum8[m_AdNo-1] +=
GetFluxXsec->Get( Time, RctIdx, BinIdx )
* (Binning::EndEnergy-Binning::BeginEnergy)/Binning::NHistoBin
* pow( Baseline(RctIdx, m_AdNo), -2 ) / 4 /3.1415926
* gProtonNumber->Get( Time, m_AdNo ).NPGdLs
* Step.GetSeconds()*CLHEP::second;
}
}
/* After all calculation, calculate the addtion for Time */
Time.Add( Step );
}
}
}
/// Printout
cout<<" [ Weekly rate (day^-1), no oscillation ] "<<endl;
for( TimeStamp Time = BeginTime; Time <= EndTime; Time.Add( Week ) ) {
cout<<Time<<"\t";
for( unsigned int m_AdNo = 1; m_AdNo<=Basic::NoAd; m_AdNo++ ) {
cout<<Rate[m_AdNo-1][Time]<<"\t";
}
cout<<endl;
}
cout<<"Sum ";
for( unsigned int m_AdNo = 1; m_AdNo<=Basic::NoAd; m_AdNo++ )
cout<<Sum8[m_AdNo-1]<<"\t";
cout<<endl;
}
int Truth::SetupTruth()
{
if( RepeatPRL ) {
return 1;
}
/// Reset all bin contents
Reset();
IGetFluxXsec* GetFluxXsec;
if( Basic::DailyFlux == true ) {
/// Daily flux blinded.
} else {
GetFluxXsec = gGetFluxXsec;
}
const std::vector< RunBrief* > Runs = gAnalyzeData->GetRuns();
/* ============================================== */
for( std::vector< RunBrief* >::const_iterator iRun = Runs.begin();
iRun!=Runs.end(); iRun++ ) {
const RunBrief* const Brief = (*iRun);
int Dataset = Brief->Dataset;
if( m_dataset != Dataset ) continue;
int Site = ToSite(m_AdNo);
int LocalAdNo = ToLocalAdNo(m_AdNo);
/* Must be from the same site */
if( Site != Brief->Site ) continue;
/* Cache run info */
double fulltime = Brief->Fulltime;
double livefraction = Brief->Livetime[ LocalAdNo-1 ] / fulltime;
double OstwEff = Brief->OstwEff[ LocalAdNo-1 ];
/* split it into days */
for( TimeStamp Time = Brief->StartTime; Time < Brief->StopTime; /* Complex increment */) {
/* Through this, runs span over a day are split into days at exactly 00:00:00 */
unsigned int StartDate,StartYY,StartMM,StartDD;
unsigned int StopDate, StopYY, StopMM, StopDD;
StartDate = Time.GetDate( true, 0, &StartYY, &StartMM, &StartDD );
StopDate = Brief->StopTime.GetDate( true, 0, &StopYY, &StopMM, &StopDD );
TimeStamp Step(0,0); /* Alway init a TimeStamp, otherwise it will be inited to sys time and too slow. */
if( StartDate == StopDate ) {
/* The same day */
Step = Brief->StopTime - Time;
} else {
/* The closest day's end */
TimeStamp DaysEnd( StartYY,StartMM,StartDD+1, 0, 0, 0, 0);
Step = DaysEnd - Time;
}
/* live time in this step */
double thislivetime = Step.GetSeconds()*CLHEP::second * livefraction;
for( unsigned int BinIdx = 1; BinIdx <= Binning::NHistoBin; BinIdx++ ) {
for( unsigned int RctIdx = 1; RctIdx <= Basic::NoRct; RctIdx++ ) {
double NTruth = GetBinContent( BinIdx );
double Increment = 0;
double Incre8 = 0, Incre22 = 0;
double Evis = Binning::BeginEnergy + (BinIdx-1) * (Binning::EndEnergy-Binning::BeginEnergy)/Binning::NHistoBin;
double Enu = Evis + Phys::EnuToEprompt;
if( m_dataset == Dataset::GdCap ) {
Incre8 +=
GetFluxXsec->Get( Time, RctIdx, BinIdx )
* (Binning::EndEnergy-Binning::BeginEnergy)/Binning::NHistoBin
* pow( Baseline(RctIdx, m_AdNo), -2 ) / 4 /3.1415926
* gProtonNumber->Get( Time, m_AdNo ).NPGdLs
* thislivetime
* OstwEff
* SurvProb( s_2_2_13, Baseline(RctIdx, m_AdNo), Enu)
* Phys::Gd_Cap_Pmpt_eff
* Phys::Gd_Cap_Dlyd_eff
* Phys::GdLS_Gd_Cap_Frac
* Phys::GdLS_Distance_8_eff /* 100% */
* Eff::Flasher_8_eff
* Eff::Time_8_eff
* Eff::Spill_in_8_eff;
}
if( m_dataset == Dataset::HCap ) {
/// GdLS part
Incre22 +=
GetFluxXsec->Get( Time, RctIdx, BinIdx )
* (Binning::EndEnergy-Binning::BeginEnergy)/Binning::NHistoBin
* pow( Baseline(RctIdx, m_AdNo), -2 ) / 4 /3.1415926
* gProtonNumber->Get( Time, m_AdNo ).NPGdLs
* thislivetime
* OstwEff
* Phys::GdLS_H_Cap_Frac
* SurvProb( s_2_2_13, Baseline(RctIdx, m_AdNo), Enu)
* Phys::GdLS_Distance_22_eff; /* Not finalized. */
//cout<<s_2_2_13<<" "<<Baseline(RctIdx, m_AdNo)/CLHEP::m<<" "<<Enu/CLHEP::MeV<<" "<<SurvProb( s_2_2_13, Baseline(RctIdx, m_AdNo), Enu)<<endl;
/// LS part
Incre22 +=
GetFluxXsec->Get( Time, RctIdx, BinIdx )
* (Binning::EndEnergy-Binning::BeginEnergy)/Binning::NHistoBin
* pow( Baseline(RctIdx, m_AdNo), -2 ) / 4 /3.1415926
* gProtonNumber->Get( Time, m_AdNo ).NPLs
* thislivetime
* OstwEff
* Phys::En3sigma_eff
* SurvProb( s_2_2_13, Baseline(RctIdx, m_AdNo), Enu)
* Phys::LS_Distance_22_eff; /* Not finalized. */
}
Increment = Incre8 + Incre22;
SetBinContent( BinIdx, NTruth + Increment );
}
}
/* After all calculation, calculate the addtion for Time */
Time.Add( Step );
}
}
return 1;
}