void commonConfig(ConfigVersion_t configVersion = kConfigV0)
{
cout << "Running commonConfig.C ... " << endl;
// Set Random Number seed
gRandom->SetSeed(123456); // Set 0 to use the currecnt time
IlcLog::Message(IlcLog::kInfo, Form("Seed for random number generation = %d",gRandom->GetSeed()), "Config.C", "Config.C", "Config()","Config.C", __LINE__);
//=======================================================================
// Load Pythia libraries
//=======================================================================
LoadPythia();
//=======================================================================
// ILC steering object (IlcRunLoader)
//=======================================================================
IlcRunLoader* rl
= IlcRunLoader::Open("gilc.root",
IlcConfig::GetDefaultEventFolderName(),
"recreate");
if ( ! rl ) {
gIlc->Fatal("Config.C","Can not instatiate the Run Loader");
return;
}
rl->SetCompressionLevel(2);
rl->SetNumberOfEventsPerFile(3);
gIlc->SetRunLoader(rl);
//======================================================================
// Trigger configuration
//=======================================================================
IlcSimulation::Instance()->SetTriggerConfig(pprTrigConfName[strig]);
cout << "Trigger configuration is set to " << pprTrigConfName[strig] << endl;
// =============================
// Magnetic field
// =============================
// Field (L3 0.5 T)
IlcMagF* field = new IlcMagF("Maps","Maps", -1., -1., IlcMagF::k5kG);
TGeoGlobalMagField::Instance()->SetField(field);
printf("\n \n Comment: %s \n \n", comment.Data());
// =============================
// Modules
// =============================
rl->CdGAFile();
Int_t iABSO = 1;
Int_t iDIPO = 1;
Int_t iFMD = 1;
Int_t iFRAME = 1;
Int_t iHALL = 1;
Int_t iITS = 1;
Int_t iMAG = 1;
Int_t iMUON = 1;
Int_t iPHOS = 1;
Int_t iPIPE = 1;
Int_t iPMD = 1;
Int_t iHMPID = 1;
Int_t iSHIL = 1;
Int_t iT0 = 1;
Int_t iTOF = 1;
Int_t iTPC = 1;
Int_t iTRD = 1;
Int_t iZDC = 1;
Int_t iEMCAL = 1;
Int_t iACORDE = 1;
Int_t iVZERO = 1;
rl->CdGAFile();
//=================== Ilc BODY parameters =============================
IlcBODY *BODY = new IlcBODY("BODY", "Ilc envelop");
if (iMAG)
{
//=================== MAG parameters ============================
// --- Start with Magnet since detector layouts may be depending ---
// --- on the selected Magnet dimensions ---
IlcMAG *MAG = new IlcMAG("MAG", "Magnet");
}
if (iABSO)
{
//=================== ABSO parameters ============================
IlcABSO *ABSO = new IlcABSOv3("ABSO", "Muon Absorber");
}
if (iDIPO)
{
//=================== DIPO parameters ============================
IlcDIPO *DIPO = new IlcDIPOv3("DIPO", "Dipole version 3");
}
if (iHALL)
{
//=================== HALL parameters ============================
IlcHALL *HALL = new IlcHALLv3("HALL", "Ilc Hall");
}
if (iFRAME)
{
//=================== FRAME parameters ============================
IlcFRAMEv2 *FRAME = new IlcFRAMEv2("FRAME", "Space Frame");
FRAME->SetHoles(1);
}
if (iSHIL)
{
//=================== SHIL parameters ============================
IlcSHIL *SHIL = new IlcSHILv3("SHIL", "Shielding Version 3");
}
if (iPIPE)
{
//=================== PIPE parameters ============================
IlcPIPE *PIPE = new IlcPIPEv3("PIPE", "Beam Pipe");
}
if (iITS)
{
//=================== ITS parameters ============================
IlcITS *ITS = new IlcITSv11("ITS","ITS v11");
}
if (iTPC)
{
//============================ TPC parameters ===================
IlcTPC *TPC = new IlcTPCv2("TPC", "Default");
}
if (iTOF) {
//=================== TOF parameters ============================
IlcTOF *TOF = new IlcTOFv6T0("TOF", "normal TOF");
}
if (iHMPID)
{
//=================== HMPID parameters ===========================
IlcHMPID *HMPID = new IlcHMPIDv3("HMPID", "normal HMPID");
}
if (iZDC)
{
//=================== ZDC parameters ============================
IlcZDC *ZDC = new IlcZDCv3("ZDC", "normal ZDC");
}
if (iTRD)
{
//=================== TRD parameters ============================
IlcTRD *TRD = new IlcTRDv1("TRD", "TRD slow simulator");
if ( configVersion == kConfigV1 ) {
IlcTRDgeometry *geoTRD = TRD->GetGeometry();
// Partial geometry: modules at 0,1,7,8,9,16,17
// starting at 3h in positive direction
geoTRD->SetSMstatus(2,0);
geoTRD->SetSMstatus(3,0);
geoTRD->SetSMstatus(4,0);
geoTRD->SetSMstatus(5,0);
geoTRD->SetSMstatus(6,0);
geoTRD->SetSMstatus(11,0);
geoTRD->SetSMstatus(12,0);
geoTRD->SetSMstatus(13,0);
geoTRD->SetSMstatus(14,0);
geoTRD->SetSMstatus(15,0);
geoTRD->SetSMstatus(16,0);
}
}
if (iFMD)
{
//=================== FMD parameters ============================
IlcFMD *FMD = new IlcFMDv1("FMD", "normal FMD");
}
if (iMUON)
{
//=================== MUON parameters ===========================
// New MUONv1 version (geometry defined via builders)
IlcMUON *MUON = new IlcMUONv1("MUON", "default");
}
//=================== PHOS parameters ===========================
if (iPHOS)
{
if ( configVersion == kConfigV0 )
IlcPHOS *PHOS = new IlcPHOSv1("PHOS", "IHEP");
else if ( configVersion == kConfigV1 )
IlcPHOS *PHOS = new IlcPHOSv1("PHOS", "noCPV_Modules123");
}
if (iPMD)
{
//=================== PMD parameters ============================
IlcPMD *PMD = new IlcPMDv1("PMD", "normal PMD");
}
if (iT0)
{
//=================== T0 parameters ============================
IlcT0 *T0 = new IlcT0v1("T0", "T0 Detector");
}
if (iEMCAL)
{
//=================== EMCAL parameters ============================
if ( configVersion == kConfigV0 )
IlcEMCAL *EMCAL = new IlcEMCALv2("EMCAL", "EMCAL_COMPLETEV1");
else if ( configVersion == kConfigV1 )
IlcEMCAL *EMCAL = new IlcEMCALv2("EMCAL", "EMCAL_FIRSTYEARV1");
}
if (iACORDE)
{
//=================== ACORDE parameters ============================
IlcACORDE *ACORDE = new IlcACORDEv1("ACORDE", "normal ACORDE");
}
if (iVZERO)
{
//=================== VZERO parameters ============================
IlcVZERO *VZERO = new IlcVZEROv7("VZERO", "normal VZERO");
}
IlcLog::Message(IlcLog::kInfo, "End of Config", "Config.C", "Config.C", "Config()"," Config.C", __LINE__);
cout << "Running commonConfig.C finished ... " << endl;
}
void Config()
{
new TGeant3("C++ Interface to Geant3");
//=======================================================================
// Create the output file
TFile *rootfile = new TFile("$TEMPO/gilc.root","recreate");
rootfile->SetCompressionLevel(2);
TGeant3 *geant3 = (TGeant3*)gMC;
//=======================================================================
// ******* GEANT STEERING parameters FOR ILC SIMULATION *******
geant3->SetTRIG(1); //Number of events to be processed
geant3->SetSWIT(4,10);
geant3->SetDEBU(0,0,1);
//geant3->SetSWIT(2,2);
geant3->SetDCAY(1);
geant3->SetPAIR(1);
geant3->SetCOMP(1);
geant3->SetPHOT(1);
geant3->SetPFIS(0);
geant3->SetDRAY(0);
geant3->SetANNI(1);
geant3->SetBREM(1);
geant3->SetMUNU(1);
geant3->SetCKOV(1);
geant3->SetHADR(1); //Select pure GEANH (HADR 1) or GEANH/NUCRIN (HADR 3)
geant3->SetLOSS(2);
geant3->SetMULS(1);
geant3->SetRAYL(1);
geant3->SetAUTO(1); //Select automatic STMIN etc... calc. (AUTO 1) or manual (AUTO 0)
geant3->SetABAN(0); //Restore 3.16 behaviour for abandoned tracks
geant3->SetOPTI(2); //Select optimisation level for GEANT geometry searches (0,1,2)
Float_t cut = 1.e-3; // 1MeV cut by default
Float_t tofmax = 1.e10;
// GAM ELEC NHAD CHAD MUON EBREM MUHAB EDEL MUDEL MUPA TOFMAX
geant3->SetCUTS(cut,cut, cut, cut, cut, cut, cut, cut, cut, cut, tofmax);
//
//=======================================================================
// ************* STEERING parameters FOR ILC SIMULATION **************
// --- Specify event type to be tracked through the ILC setup
// --- All positions are in cm, angles in degrees, and P and E in GeV
//
// The following Cocktail generator is defined to simulate the neutral and
// charged background in the ILC detector. This background is important
// in the case of photon detector as PVBAR. We simulated a cocktail of
// pions (pi+, pi- and pi0) , kaons (K+, K-, Kshort and Klong), eta mesons,
// omega mesons and main baryons (protons, antiprotons, neutrons and
// antineutrons)
//
// 1-Nov-1999 Gines MARTINEZ, GPS @ SUBATECH, Nantes, France
//
IlcGenCocktail *gener = new IlcGenCocktail();
gener->SetPtRange(.5,5.);
gener->SetPhiRange(180.,360.);
gener->SetYRange(-0.5,0.5);
gener->SetOrigin(0,0,0); // vertex position
gener->SetSigma(0,0,5.6); // Sigma in (X,Y,Z) (cm) on IP position
//===========================
// 3 0 8 0 P I O N S
//===========================
IlcGenParam *generpion =
new IlcGenParam(3080,Pion,
IlcGenPVBARlib::GetPt(Pion),
IlcGenPVBARlib::GetY(Pion),
IlcGenPVBARlib::GetIp(Pion) );
generpion->SetWeighting(non_analog);
generpion->SetForceDecay(nodecay);
//=======================
// 4 4 0 K A O N S
//=======================
IlcGenParam *generkaon = new IlcGenParam(440,Kaon,
IlcGenPVBARlib::GetPt(Kaon),
IlcGenPVBARlib::GetY(Kaon),
IlcGenPVBARlib::GetIp(Kaon) );
generkaon->SetWeighting(non_analog);
generkaon->SetForceDecay(nodecay);
//=====================
// 1 7 8 E T A S
//=====================
IlcGenParam *genereta = new IlcGenParam(178,Eta,
IlcGenPVBARlib::GetPt(Eta),
IlcGenPVBARlib::GetY(Eta),
IlcGenPVBARlib::GetIp(Eta) );
genereta->SetWeighting(non_analog);
genereta->SetForceDecay(nodecay);
//==================
// 50 O M E G A S
//==================
IlcGenParam *generomega = new IlcGenParam(50,Omega,
IlcGenPVBARlib::GetPt(Omega),
IlcGenPVBARlib::GetY(Omega),
IlcGenPVBARlib::GetIp(Omega) );
generomega->SetWeighting(non_analog);
generomega->SetForceDecay(nodecay);
//========================
// 2 8 8 B A R Y O N S
//========================
IlcGenParam *generbaryon = new IlcGenParam(288,Baryon,
IlcGenPVBARlib::GetPt(Baryon),
IlcGenPVBARlib::GetY(Baryon),
IlcGenPVBARlib::GetIp(Baryon) );
generbaryon->SetWeighting(non_analog);
generbaryon->SetForceDecay(nodecay);
gener->AddGenerator(generpion,"pion",1.);
gener->AddGenerator(generkaon,"kaon",1.);
gener->AddGenerator(genereta,"eta",1.);
gener->AddGenerator(generomega,"omega",1.);
gener->AddGenerator(generbaryon,"baryon",1.);
gener->Init();
//
// Activate this line if you want the vertex smearing to happen
// track by track
//
//gener->SetVertexSmear(perTrack);
gIlc->SetField(-999,2); //Specify maximum magnetic field in Tesla (neg. ==> default field)
Int_t iMAG=1;
Int_t iITS=0;
Int_t iTPC=0;
Int_t iTOF=0;
Int_t iHMPID=0;
Int_t iZDC=0;
Int_t iCASTOR=0;
Int_t iTRD=0;
Int_t iABSO=0;
Int_t iDIPO=1;
Int_t iHALL=1;
Int_t iFRAME=1;
Int_t iSHIL=1;
Int_t iPIPE=1;
Int_t iFMD=0;
Int_t iMUON=0;
Int_t iPVBAR=1;
Int_t iPMD=0;
Int_t iT0=0;
//=================== Ilc BODY parameters =============================
IlcBODY *BODY = new IlcBODY("BODY","Ilc envelop");
if(iMAG) {
//=================== MAG parameters ============================
// --- Start with Magnet since detector layouts may be depending ---
// --- on the selected Magnet dimensions ---
IlcMAG *MAG = new IlcMAG("MAG","Magnet");
}
if(iABSO) {
//=================== ABSO parameters ============================
IlcABSO *ABSO = new IlcABSO("ABSO","Muon Absorber");
}
if(iDIPO) {
//=================== DIPO parameters ============================
IlcDIPO *DIPO = new IlcDIPOv2("DIPO","Dipole version 2");
}
if(iHALL) {
//=================== HALL parameters ============================
IlcHALL *HALL = new IlcHALL("HALL","Ilc Hall");
}
if(iFRAME) {
//=================== FRAME parameters ============================
IlcFRAME *FRAME = new IlcFRAMEv0("FRAME","Space Frame");
// Uncomment the following line to obtain the closed version
// of the space frame. The default is the version with holes
// FRAME->SetEuclidFile("$(ILC_ROOT)/Euclid/frame.tme","$(ILC_ROOT)/Euclid/frame1099i.euc");
}
if(iSHIL) {
//=================== SHIL parameters ============================
IlcSHIL *SHIL = new IlcSHIL("SHIL","Shielding");
}
if(iPIPE) {
//=================== PIPE parameters ============================
IlcPIPE *PIPE = new IlcPIPEv0("PIPE","Beam Pipe");
}
if(iITS) {
//=================== ITS parameters ============================
//
// EUCLID is a flag to output (=1) both geometry and media to two ASCII files
// (called by default ITSgeometry.euc and ITSgeometry.tme) in a format
// understandable to the CAD system EUCLID. The default (=0) means that you
// dont want to use this facility.
//
IlcITS *ITS = new IlcITSv5("ITS","normal ITS");
ITS->SetEUCLID(0);
}
if(iTPC) {
//============================ TPC parameters ================================
// --- This allows the user to specify sectors for the SLOW (TPC geometry 2)
// --- Simulator. SecAL (SecAU) <0 means that ALL lower (upper)
// --- sectors are specified, any value other than that requires at least one
// --- sector (lower or upper)to be specified!
// --- Reminder: sectors 1-24 are lower sectors (1-12 -> z>0, 13-24 -> z<0)
// --- sectors 25-72 are the upper ones (25-48 -> z>0, 49-72 -> z<0)
// --- SecLows - number of lower sectors specified (up to 6)
// --- SecUps - number of upper sectors specified (up to 12)
// --- Sens - sensitive strips for the Slow Simulator !!!
// --- This does NOT work if all S or L-sectors are specified, i.e.
// --- if SecAL or SecAU < 0
//
//
//-----------------------------------------------------------------------------
IlcTPC *TPC = new IlcTPCv1("TPC","Normal TPC");
IlcTPCD *paramd = TPC->GetDigParam();
IlcTPCParam *param = &(paramd->GetParam());
// Set geometrical parameters
param->SetSectorAngles(20.,0.,20.,0.);
param->SetInnerRadiusLow(83.9);
param->SetInnerRadiusUp(141.3);
param->SetOuterRadiusLow(146.9);
param->SetOuterRadiusUp(249.4);
param->SetInSecLowEdge(81.6);
param->SetInSecUpEdge(143.6);
param->SetOuSecLowEdge(144.2);
param->SetOuSecUpEdge(252.1);
param->SetEdge(1.5);
param->SetDeadZone(1.15);
param->SetPadLength(2.0);
param->SetPadWidth(0.3);
param->SetPadPitchLength(2.05);
param->SetPadPitchWidth(0.35);
param->Update();
if (TPC->IsVersion() != 2) paramd->Write("Param1");
// set gas mixture
TPC->SetGasMixt(2,20,10,-1,0.9,0.1,0.);
TPC->SetSecAL(1);
TPC->SetSecAU(1);
// Meaningless with versions other than 2
TPC->SetSecLows(1, 2, 3, 1+18, 2+18, 3+18);
TPC->SetSecUps(1+36, 2+36, 3+36, 1+38+18, 2+38+18, 3+38+18, -1,-1,-1,-1,-1,-1);
TPC->SetSens(1);
}
if(iTOF) {
//=================== TOF parameters ============================
IlcTOF *TOF = new IlcTOFv2("TOF","normal TOF");
}
if(iHMPID) {
//=================== HMPID parameters ===========================
IlcHMPID *HMPID = new IlcHMPIDv0("HMPID","normal HMPID");
HMPID->SetSMAXAR(0.03);
HMPID->SetSMAXAL(-1);
//
// Version 0
// Default Segmentation
IlcHMPIDsegmentationV0* RsegV0 = new IlcHMPIDsegmentationV0;
RsegV0->SetPADSIZ(.8, .8);
RsegV0->SetDAnod(0.8/3);
// Default response
IlcHMPIDresponseV0* Rresponse0 = new IlcHMPIDresponseV0;
IlcHMPIDresponseCkv* RresponseCkv = new IlcHMPIDresponseCkv;
//------------------------Chambers 0-6 ----------------------------
for (Int_t i=0; i<7; i++) {
HMPID->SetSegmentationModel(i, 1, RsegV0);
HMPID->SetResponseModel(i, mip , Rresponse0);
HMPID->SetResponseModel(i, cerenkov, RresponseCkv);
HMPID->Chamber(i).SetRSIGM(5.);
HMPID->Chamber(i).SetMUCHSP(43.);
HMPID->Chamber(i).SetMUSIGM(0.18, 0.18);
HMPID->Chamber(i).SetMAXADC( 1024);
HMPID->Chamber(i).SetSqrtKx3(0.77459667);
HMPID->Chamber(i).SetKx2(0.962);
HMPID->Chamber(i).SetKx4(0.379);
HMPID->Chamber(i).SetSqrtKy3(0.77459667);
HMPID->Chamber(i).SetKy2(0.962);
HMPID->Chamber(i).SetKy4(0.379);
HMPID->Chamber(i).SetPitch(0.25);
HMPID->SetNsec(i,1);
}
}
if(iZDC) {
//=================== ZDC parameters ============================
IlcZDC *ZDC = new IlcZDCv1("ZDC","normal ZDC");
}
if(iCASTOR) {
//=================== CASTOR parameters ============================
IlcCASTOR *CASTOR = new IlcCASTORv1("CASTOR","normal CASTOR");
}
if(iTRD) {
//=================== TRD parameters ============================
IlcTRD *TRD = new IlcTRDv0("TRD","TRD version 0");
// Select the gas mixture (0: 97% Xe + 3% isobutane, 1: 90% Xe + 10% CO2)
TRD->SetGasMix(0);
TRD->SetHits(1);
}
if(iFMD) {
//=================== FMD parameters ============================
IlcFMD *FMD = new IlcFMDv1("FMD","normal FMD");
}
if(iMUON) {
//=================== MUON parameters ===========================
IlcMUON *MUON = new IlcMUONv0("MUON","normal MUON");
MUON->SetMaxStepGas(0.1);
MUON->SetMaxStepAlu(0.1);
//
// Version 0
//
// First define the number of planes that are segmented (1 or 2) by a call
// to SetNsec.
// Then chose for each chamber (chamber plane) the segmentation
// and response model.
// They should be equal for the two chambers of each station. In a future
// version this will be enforced.
//
//
Int_t chamber;
Int_t station;
// Default response
IlcMUONresponseV0* response0 = new IlcMUONresponseV0;
response0->SetSqrtKx3(0.7131);
response0->SetKx2(1.0107);
response0->SetKx4(0.4036);
response0->SetSqrtKy3(0.7642);
response0->SetKy2(0.9706);
response0->SetKy4(0.3831);
response0->SetPitch(0.25);
response0->SetSigmaIntegration(10.);
response0->SetChargeSlope(50);
response0->SetChargeSpread(0.18, 0.18);
response0->SetMaxAdc(4096);
//--------------------------------------------------------
// Configuration for Chamber TC1/2 (Station 1) ----------
//^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
// Float_t rseg1[4]={17.5, 55.2, 71.3, 95.5};
Float_t rseg1[4]={15.5, 55.2, 71.3, 95.5};
Int_t nseg1[4]={4, 4, 2, 1};
//
chamber=1;
//^^^^^^^^^
MUON->SetNsec(chamber-1,2);
//
IlcMUONsegmentationV01 *seg11=new IlcMUONsegmentationV01;
seg11->SetSegRadii(rseg1);
seg11->SetPADSIZ(3, 0.5);
seg11->SetDAnod(3.0/3./4);
seg11->SetPadDivision(nseg1);
MUON->SetSegmentationModel(chamber-1, 1, seg11);
//
IlcMUONsegmentationV02 *seg12=new IlcMUONsegmentationV02;
seg12->SetSegRadii(rseg1);
seg12->SetPADSIZ(0.75, 2.0);
seg12->SetDAnod(3.0/3./4);
seg12->SetPadDivision(nseg1);
MUON->SetSegmentationModel(chamber-1, 2, seg12);
MUON->SetResponseModel(chamber-1, response0);
chamber=2;
//^^^^^^^^^
//
MUON->SetNsec(chamber-1,2);
//
IlcMUONsegmentationV01 *seg21=new IlcMUONsegmentationV01;
seg21->SetSegRadii(rseg1);
seg21->SetPADSIZ(3, 0.5);
seg21->SetDAnod(3.0/3./4);
seg21->SetPadDivision(nseg1);
MUON->SetSegmentationModel(chamber-1, 1, seg21);
//
IlcMUONsegmentationV02 *seg22=new IlcMUONsegmentationV02;
seg22->SetSegRadii(rseg1);
seg22->SetPADSIZ(0.75, 2.);
seg22->SetDAnod(3.0/3./4);
seg22->SetPadDivision(nseg1);
MUON->SetSegmentationModel(chamber-1, 2, seg22);
MUON->SetResponseModel(chamber-1, response0);
//
//--------------------------------------------------------
// Configuration for Chamber TC3/4 -----------------------
//^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
// Float_t rseg2[4]={23.5, 47.1, 87.7, 122.5};
Float_t rseg2[4]={21.5, 47.1, 87.7, 122.5};
Int_t nseg2[4]={4, 4, 2, 1};
//
chamber=3;
//^^^^^^^^^
MUON->SetNsec(chamber-1,2);
//
IlcMUONsegmentationV01 *seg31=new IlcMUONsegmentationV01;
seg31->SetSegRadii(rseg2);
seg31->SetPADSIZ(3, 0.5);
seg31->SetDAnod(3.0/3./4);
seg31->SetPadDivision(nseg2);
MUON->SetSegmentationModel(chamber-1, 1, seg31);
//
IlcMUONsegmentationV02 *seg32=new IlcMUONsegmentationV02;
seg32->SetSegRadii(rseg2);
seg32->SetPADSIZ(0.75, 2.);
seg32->SetPadDivision(nseg2);
seg32->SetDAnod(3.0/3./4);
MUON->SetSegmentationModel(chamber-1, 2, seg32);
MUON->SetResponseModel(chamber-1, response0);
chamber=4;
//^^^^^^^^^
//
MUON->SetNsec(chamber-1,2);
//
IlcMUONsegmentationV01 *seg41=new IlcMUONsegmentationV01;
seg41->SetSegRadii(rseg2);
seg41->SetPADSIZ(3, 0.5);
seg41->SetDAnod(3.0/3./4);
seg41->SetPadDivision(nseg2);
MUON->SetSegmentationModel(chamber-1, 1, seg41);
//
IlcMUONsegmentationV02 *seg42=new IlcMUONsegmentationV02;
seg42->SetSegRadii(rseg2);
seg42->SetPADSIZ(0.75, 2.);
seg42->SetPadDivision(nseg2);
seg42->SetDAnod(3.0/3./4);
MUON->SetSegmentationModel(chamber-1, 2, seg42);
MUON->SetResponseModel(chamber-1, response0);
//--------------------------------------------------------
// Configuration for Chamber TC5/6 -----------------------
//^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
/*
seg5 = new IlcMUONsegmentationV1;
IlcMUONresponseV0* response5 = new IlcMUONresponseV0;
// K3 = 0.62
response5->SetSqrtKx3(0.78740079);
response5->SetKx2(0.95237319); // 0.5 * kPI * (1- 0.5*sqrtky3 )
response5->SetKx4(0.37480633); // 0.25/TMath::ATan(sqrtkx3)
// K3 = 0.55
response5->SetSqrtKy3(0.74161985);
response5->SetKy2(0.98832946);
response5->SetKy4(0.39177817);
response5->SetPitch(0.325);
response5->SetSigmaIntegration(10.);
response5->SetChargeSlope(50);
response5->SetChargeSpread(0.4, 0.4);
response5->SetMaxAdc(4096);
chamber=5;
MUON->SetNsec(chamber-1,1);
MUON->SetSegmentationModel(chamber-1, 1, seg5);
MUON->SetResponseModel(chamber-1, response5);
chamber=6;
MUON->SetNsec(chamber-1,1);
MUON->SetSegmentationModel(chamber-1, 1, seg5);
MUON->SetResponseModel(chamber-1, response5);
//
// Station 3
station=3;
MUON->SetPADSIZ(station, 1, 0.975, 0.55);
*/
chamber=5;
//^^^^^^^^^
MUON->SetNsec(chamber-1,2);
//
IlcMUONsegmentationV0 *seg51=new IlcMUONsegmentationV0;
seg51->SetPADSIZ(0.75, 0.5);
seg51->SetDAnod(3.0/3./4);
MUON->SetSegmentationModel(chamber-1, 1, seg51);
//
IlcMUONsegmentationV0 *seg52=new IlcMUONsegmentationV0;
seg52->SetPADSIZ(0.5,0.75);
seg52->SetDAnod(3.0/3./4);
MUON->SetSegmentationModel(chamber-1, 2, seg52);
MUON->SetResponseModel(chamber-1, response0);
chamber=6;
//^^^^^^^^^
MUON->SetNsec(chamber-1,2);
//
IlcMUONsegmentationV0 *seg61=new IlcMUONsegmentationV0;
seg61->SetPADSIZ(0.75, 0.5);
seg61->SetDAnod(3.0/3./4);
MUON->SetSegmentationModel(chamber-1, 1, seg61);
//
IlcMUONsegmentationV0 *seg62=new IlcMUONsegmentationV0;
seg62->SetPADSIZ(0.5,0.75);
seg62->SetDAnod(3.0/3./4);
MUON->SetSegmentationModel(chamber-1, 2, seg62);
MUON->SetResponseModel(chamber-1, response0);
//--------------------------------------------------------
// Configuration for Chamber TC7/8 (Station 4) ----------
//^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
Int_t nseg4[4]={4, 4, 2, 1};
chamber=7;
//^^^^^^^^^
MUON->SetNsec(chamber-1,2);
//
IlcMUONsegmentationV04 *seg71=new IlcMUONsegmentationV04;
seg71->SetPADSIZ(10.,0.5);
seg71->SetDAnod(0.25);
seg71->SetPadDivision(nseg4);
MUON->SetSegmentationModel(chamber-1, 1, seg71);
IlcMUONsegmentationV05 *seg72=new IlcMUONsegmentationV05;
seg72->SetPADSIZ(1,10);
seg72->SetDAnod(0.25);
seg72->SetPadDivision(nseg4);
MUON->SetSegmentationModel(chamber-1, 2, seg72);
MUON->SetResponseModel(chamber-1, response0);
chamber=8;
//^^^^^^^^^
MUON->SetNsec(chamber-1,2);
IlcMUONsegmentationV04 *seg81=new IlcMUONsegmentationV04;
seg81->SetPADSIZ(10., 0.5);
seg81->SetPadDivision(nseg4);
seg81->SetDAnod(0.25);
MUON->SetSegmentationModel(chamber-1, 1, seg81);
IlcMUONsegmentationV05 *seg82=new IlcMUONsegmentationV05;
seg82->SetPADSIZ(1, 10);
seg82->SetPadDivision(nseg4);
seg82->SetDAnod(0.25);
MUON->SetSegmentationModel(chamber-1, 2, seg82);
MUON->SetResponseModel(chamber-1, response0);
//--------------------------------------------------------
// Configuration for Chamber TC9/10 (Station 5) ---------
//^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
chamber=9;
//^^^^^^^^^
MUON->SetNsec(chamber-1,2);
//
IlcMUONsegmentationV04 *seg91=new IlcMUONsegmentationV04;
seg91->SetPADSIZ(10.,0.5);
seg91->SetDAnod(0.25);
seg91->SetPadDivision(nseg4);
MUON->SetSegmentationModel(chamber-1, 1, seg91);
IlcMUONsegmentationV05 *seg92=new IlcMUONsegmentationV05;
seg92->SetPADSIZ(1,10);
seg92->SetDAnod(0.25);
seg92->SetPadDivision(nseg4);
MUON->SetSegmentationModel(chamber-1, 2, seg92);
MUON->SetResponseModel(chamber-1, response0);
chamber=10;
//^^^^^^^^^
MUON->SetNsec(chamber-1,2);
IlcMUONsegmentationV04 *seg101=new IlcMUONsegmentationV04;
seg101->SetPADSIZ(10., 0.5);
seg101->SetPadDivision(nseg4);
seg101->SetDAnod(0.25);
MUON->SetSegmentationModel(chamber-1, 1, seg101);
IlcMUONsegmentationV05 *seg102=new IlcMUONsegmentationV05;
seg102->SetPADSIZ(1,10);
seg102->SetPadDivision(nseg4);
seg102->SetDAnod(0.25);
MUON->SetSegmentationModel(chamber-1, 2, seg102);
MUON->SetResponseModel(chamber-1, response0);
//--------------------------------------------------------
// Configuration for Trigger staions ---------------------
// (not yet used/implemented) ----------------------------
//^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
chamber=11;
MUON->SetNsec(chamber-1,1);
IlcMUONsegmentationV0 *seg1112=new IlcMUONsegmentationV0;
seg1112->SetDAnod(0.51/3.);
MUON->SetSegmentationModel(chamber-1, 1, seg1112);
MUON->SetResponseModel(chamber-1, response0);
chamber=12;
MUON->SetNsec(chamber-1,1);
MUON->SetSegmentationModel(chamber-1, 1, seg1112);
MUON->SetResponseModel(chamber-1, response0);
//
// Trigger Station 1
station=6;
MUON->SetPADSIZ(station, 1, 0.75, 0.5);
chamber=13;
MUON->SetNsec(chamber-1,1);
IlcMUONsegmentationV0 *seg1314=new IlcMUONsegmentationV0;
seg1314->SetDAnod(0.51/3.);
MUON->SetSegmentationModel(chamber-1, 1, seg1314);
MUON->SetResponseModel(chamber-1, response0);
chamber=14;
MUON->SetNsec(chamber-1,1);
MUON->SetSegmentationModel(chamber-1, 1, seg1314);
MUON->SetResponseModel(chamber-1, response0);
//
// Trigger Station 2
station=7;
MUON->SetPADSIZ(station, 1, 0.75, 0.5);
}
//=================== PVBAR parameters ===========================
if(iPVBAR) {
IlcPVBARv2 *PVBAR = new IlcPVBARv2("PVBAR","Version PVBAR");
// * PVBARflags: YES: X<>0 NO: X=0
// * PVBARflags(1) : -----X Create branch for TObjArray of IlcPVBARCradle
// * ----X- Create file (ftn03 on HP-UX) with list of SHAKER particles (7Mb/event)
// *
//PVBAR->SetFlags(000001);
//PVBAR->SetRadius(460); //Distance from beam to PVBAR crystals.
// (crystal_side_size,crystal_length,wrap_thikness,air_thikness,PIN_size,PIN length)
//PVBAR->SetCell(2.2, 18., 0.01, 0.01, 1., 0.1);
//PVBAR->SetCradleSize(48, 90, 4); // Nz (along beam), Nphi, Ncradles
//PVBAR->SetCradleA(0); //Angle between Cradles
// * ===============
// * PVBAR extra parameters (contact Maxim Volkov [email protected])
// * 1. STE_THICK Steel cover thickness
// * 2. SUP_Y Crystal support height
// * 3. FTIU_THICK Thermo Insulating outer cover Upper plate thickness
// * 4. UFP_Y Upper Polystyrene Foam plate thickness
// * 5. TCB_THICK Thermo insulating Crystal Block wall thickness
// * 6. UCP_Y Upper Cooling Plate thickness
// * 7. ASP_Y Al Support Plate thickness
// * 8. TIP_Y Lower Thermo Insulating Plate thickness
// * 9. TXP_Y Lower Textolit Plate thickness
//PVBAR->SetExtra(0.001, 6.95, 4., 5., 2., 0.06, 10., 3., 1.);
//PVBAR->SetTextolitWall(209., 71., 250.); //Textolit Wall box dimentions
//PVBAR->SetInnerAir(206., 66., 244.); //Inner AIR volume dimensions
// * ===============================
// * 1. FTI_X Foam Thermo Insulating outer cover dimensions
// * 2. FTI_Y ==//==
// * 3. FTI_Z ==//==
// * 4. FTI_R Distance from IP to Foam Thermo Insulating top plate
//PVBAR->SetFoam(214.6, 80., 260., 467.);
// =================================
// *******************************************************************************
// * KINE 700 - SHAKER generator
// * KINE 700 x y z NDNDY YLIM PTLIM ChargeFlag
// * JWEAK=0
// * JPI0=JETA=1
// * JPIC=JPRO=JKAC=JKA0=JRHO=JOME=JPHI=JPSI=JDRY=ChargeFlag
// * Int_t JWEI; // Unweighted generation
// * Int_t NDNDY; // Density of charged particles
// * Float_t YLIM; // Rapidity Limit
// * Float_t PTLIM; // Pt limit in GeV/c
// * Int_t JWEAK; // Disable weak decays
// * Int_t JPI0; // pi0 generation
// * Int_t JETA; // eta generation
// * Int_t JPIC; // pi+/- generation
// * Int_t JPRO; // proton generation
// * Int_t JKAC; // K+/- generation
// * Int_t JKA0; // K0 generation
// * Int_t JRHO; // rho generation
// * Int_t JOME; // omega generation
// * Int_t JPHI; // phi generation
// * Int_t JPSI; // J/psi generation
// * Int_t JDRY; // Drell-Yan generation
// * KINE 700 5. 175. 0. 800. 1.5 5. 1.
// *******************************************************************************
}
if(iPMD) {
//=================== PMD parameters ============================
IlcPMD *PMD = new IlcPMDv0("PMD","normal PMD");
PMD->SetPAR(1., 1., 0.8, 0.02);
PMD->SetIN(6., 18., -580., 27., 27.);
PMD->SetGEO(0.0, 0.2, 4.);
PMD->SetPadSize(0.8, 1.0, 1.0, 1.5);
}
if(iT0) {
//=================== T0 parameters ============================
IlcT0 *T0 = new IlcT0v0("T0","T0 Detector");
}
}
void Config()
{
cout << "==> Config.C..." << endl;
// Set Random Number seed
UInt_t at = (UInt_t) gSystem->Now() ;
UInt_t seed = ((gSystem->GetPid()*111)%at)*137 ;
// gRandom->SetSeed(seed);
gRandom->SetSeed(12345);
printf("MySeed: %d\n",seed) ;
cout<<"Seed for random number generation= "<<gRandom->GetSeed()<<endl;
// libraries required by fluka21
Bool_t isFluka = kFALSE;
if (isFluka) {
gSystem->Load("libGeom");
cout << "\t* Loading TFluka..." << endl;
gSystem->Load("libTFluka");
cout << "\t* Instantiating TFluka..." << endl;
new TFluka("C++ Interface to Fluka", 0/*verbositylevel*/);
}
else {
cout << "\t* Loading Geant3..." << endl;
gSystem->Load("libgeant321");
cout << "\t* Instantiating Geant3TGeo..." << endl;
new TGeant3TGeo("C++ Interface to Geant3");
}
IlcRunLoader* rl=0x0;
cout<<"Config.C: Creating Run Loader ..."<<endl;
rl = IlcRunLoader::Open("gilc.root",
IlcConfig::GetDefaultEventFolderName(),
"recreate");
if (rl == 0x0)
{
gIlc->Fatal("Config.C","Can not instatiate the Run Loader");
return;
}
rl->SetCompressionLevel(2);
rl->SetNumberOfEventsPerFile(1000);
gIlc->SetRunLoader(rl);
//
// Set External decayer
IlcDecayer *decayer = new IlcDecayerPythia();
decayer->SetForceDecay(kAll);
decayer->Init();
gMC->SetExternalDecayer(decayer);
//
//
//
// Physics process control
gMC->SetProcess("DCAY",1);
gMC->SetProcess("PAIR",1);
gMC->SetProcess("COMP",1);
gMC->SetProcess("PHOT",1);
gMC->SetProcess("PFIS",0);
gMC->SetProcess("DRAY",0); //AZ 1);
gMC->SetProcess("ANNI",1);
gMC->SetProcess("BREM",1);
gMC->SetProcess("MUNU",1);
gMC->SetProcess("CKOV",1);
gMC->SetProcess("HADR",1);
gMC->SetProcess("LOSS",2);
gMC->SetProcess("MULS",1);
gMC->SetProcess("RAYL",1);
Float_t cut = 1.e-3; // 1MeV cut by default
Float_t tofmax = 1.e10;
gMC->SetCut("CUTGAM", cut);
gMC->SetCut("CUTELE", cut);
gMC->SetCut("CUTNEU", cut);
gMC->SetCut("CUTHAD", cut);
gMC->SetCut("CUTMUO", cut);
gMC->SetCut("BCUTE", cut);
gMC->SetCut("BCUTM", cut);
gMC->SetCut("DCUTE", cut);
gMC->SetCut("DCUTM", cut);
gMC->SetCut("PPCUTM", cut);
gMC->SetCut("TOFMAX", tofmax);
((IlcMC*)gMC)->SetTransPar("./gilc.cuts") ;
//
//=======================================================================
// ************* STEERING parameters FOR ILC SIMULATION **************
// --- Specify event type to be tracked through the ILC setup
// --- All positions are in cm, angles in degrees, and P and E in GeV
IlcGenBox *gener = new IlcGenBox(5);
gener->SetMomentumRange(0.5, 5.);
gener->SetPhiRange(260., 280.);
gener->SetThetaRange(82.,98.);
gener->SetPart(kGamma);
gener->SetOrigin(0, 0, 0); //vertex position
gener->SetSigma(0, 0, 0); //Sigma in (X,Y,Z) (cm) on IP position
gener->Init() ;
//
// Activate this line if you want the vertex smearing to happen
// track by track
//
// gener->SetVertexSmear(kPerEvent) ;
if (smag == IlcMagF::k2kG) {
comment = comment.Append(" | L3 field 0.2 T");
} else if (smag == IlcMagF::k5kG) {
comment = comment.Append(" | L3 field 0.5 T");
}
if (srad == kGluonRadiation)
{
comment = comment.Append(" | Gluon Radiation On");
} else {
comment = comment.Append(" | Gluon Radiation Off");
}
if (sgeo == kHoles)
{
comment = comment.Append(" | Holes for PVBAR/RICH");
} else {
comment = comment.Append(" | No holes for PVBAR/RICH");
}
printf("\n \n Comment: %s \n \n", comment.Data());
// Field (L3 0.4 T)
//Zero magnetic field
IlcMagF* field = new IlcMagF("Maps","Maps", 0., 0., IlcMagF::k5kGUniform);
// IlcMagF* field = new IlcMagF("Maps","Maps", 2, -1., -1., 10., smag);
TGeoGlobalMagField::Instance()->SetField(field);
rl->CdGAFile();
Int_t iABSO = 0;
Int_t iCRT = 0;
Int_t iDIPO = 0;
Int_t iFMD = 0;
Int_t iFRAME = 0;
Int_t iHALL = 0;
Int_t iITS = 0;
Int_t iMAG = 0;
Int_t iMUON = 0;
Int_t iPVBAR = 1;
Int_t iPIPE = 0;
Int_t iPMD = 0;
Int_t iRICH = 0;
Int_t iSHIL = 0;
Int_t iSTART = 0;
Int_t iTOF = 0;
Int_t iTPC = 0;
Int_t iTRD = 0;
Int_t iZDC = 0;
Int_t iEMCAL = 0;
Int_t iVZERO = 0;
cout << "\t* Creating the detectors ..." << endl;
//=================== Ilc BODY parameters =============================
//=================== Ilc BODY parameters =============================
IlcBODY *BODY = new IlcBODY("BODY", "Ilc envelop");
if (iMAG)
{
//=================== MAG parameters ============================
// --- Start with Magnet since detector layouts may be depending ---
// --- on the selected Magnet dimensions ---
IlcMAG *MAG = new IlcMAG("MAG", "Magnet");
}
if (iABSO)
{
//=================== ABSO parameters ============================
IlcABSO *ABSO = new IlcABSOv0("ABSO", "Muon Absorber");
}
if (iDIPO)
{
//=================== DIPO parameters ============================
IlcDIPO *DIPO = new IlcDIPOv2("DIPO", "Dipole version 2");
}
if (iHALL)
{
//=================== HALL parameters ============================
IlcHALL *HALL = new IlcHALL("HALL", "Ilc Hall");
}
if (iFRAME)
{
//=================== FRAME parameters ============================
IlcFRAMEv2 *FRAME = new IlcFRAMEv2("FRAME", "Space Frame");
if (sgeo == kHoles) {
FRAME->SetHoles(1);
} else {
FRAME->SetHoles(0);
}
}
if (iSHIL)
{
//=================== SHIL parameters ============================
IlcSHIL *SHIL = new IlcSHILv2("SHIL", "Shielding Version 2");
}
if (iPIPE)
{
//=================== PIPE parameters ============================
IlcPIPE *PIPE = new IlcPIPEv0("PIPE", "Beam Pipe");
}
if(iITS) {
//=================== ITS parameters ============================
//
// As the innermost detector in ILC, the Inner Tracking System "impacts" on
// almost all other detectors. This involves the fact that the ITS geometry
// still has several options to be followed in parallel in order to determine
// the best set-up which minimizes the induced background. All the geometries
// available to date are described in the following. Read carefully the comments
// and use the default version (the only one uncommented) unless you are making
// comparisons and you know what you are doing. In this case just uncomment the
// ITS geometry you want to use and run Ilcroot.
//
// Detailed geometries:
//
//
//IlcITS *ITS = new IlcITSv5symm("ITS","Updated ITS TDR detailed version with symmetric services");
//
//IlcITS *ITS = new IlcITSv5asymm("ITS","Updates ITS TDR detailed version with asymmetric services");
//
IlcITSvPPRasymmFMD *ITS = new IlcITSvPPRasymmFMD("ITS","New ITS PPR detailed version with asymmetric services");
ITS->SetMinorVersion(2); // don't touch this parameter if you're not an ITS developer
ITS->SetReadDet(kTRUE); // don't touch this parameter if you're not an ITS developer
// ITS->SetWriteDet("$ILC_ROOT/ITS/ITSgeometry_vPPRasymm2.det"); // don't touch this parameter if you're not an ITS developer
ITS->SetThicknessDet1(200.); // detector thickness on layer 1 must be in the range [100,300]
ITS->SetThicknessDet2(200.); // detector thickness on layer 2 must be in the range [100,300]
ITS->SetThicknessChip1(200.); // chip thickness on layer 1 must be in the range [150,300]
ITS->SetThicknessChip2(200.); // chip thickness on layer 2 must be in the range [150,300]
ITS->SetRails(0); // 1 --> rails in ; 0 --> rails out
ITS->SetCoolingFluid(1); // 1 --> water ; 0 --> freon
// Coarse geometries (warning: no hits are produced with these coarse geometries and they unuseful
// for reconstruction !):
//
//
//IlcITSvPPRcoarseasymm *ITS = new IlcITSvPPRcoarseasymm("ITS","New ITS PPR coarse version with asymmetric services");
//ITS->SetRails(0); // 1 --> rails in ; 0 --> rails out
//ITS->SetSupportMaterial(0); // 0 --> Copper ; 1 --> Aluminum ; 2 --> Carbon
//
//IlcITS *ITS = new IlcITSvPPRcoarsesymm("ITS","New ITS PPR coarse version with symmetric services");
//ITS->SetRails(0); // 1 --> rails in ; 0 --> rails out
//ITS->SetSupportMaterial(0); // 0 --> Copper ; 1 --> Aluminum ; 2 --> Carbon
//
//
//
// Geant3 <-> EUCLID conversion
// ============================
//
// SetEUCLID is a flag to output (=1) or not to output (=0) both geometry and
// media to two ASCII files (called by default ITSgeometry.euc and
// ITSgeometry.tme) in a format understandable to the CAD system EUCLID.
// The default (=0) means that you dont want to use this facility.
//
ITS->SetEUCLID(0);
}
if (iTPC)
{
//============================ TPC parameters ================================
// IlcTPC *TPC = new IlcTPCv0("TPC", "Default");
IlcTPC *TPC = new IlcTPCv2("TPC", "Default");
}
if (iTOF) {
//=================== TOF parameters ============================
IlcTOF *TOF = new IlcTOFv4T0("TOF", "normal TOF");
}
if (iRICH)
{
//=================== RICH parameters ===========================
IlcRICH *RICH = new IlcRICHv1("RICH", "normal RICH");
}
if (iZDC)
{
//=================== ZDC parameters ============================
IlcZDC *ZDC = new IlcZDCv2("ZDC", "normal ZDC");
}
if (iTRD)
{
//=================== TRD parameters ============================
IlcTRD *TRD = new IlcTRDv1("TRD", "TRD slow simulator");
// Select the gas mixture (0: 97% Xe + 3% isobutane, 1: 90% Xe + 10% CO2)
TRD->SetGasMix(1);
if (sgeo == kHoles) {
// With hole in front of PVBAR
TRD->SetPVBARhole();
// With hole in front of RICH
TRD->SetRICHhole();
}
// Switch on TR
IlcTRDsim *TRDsim = TRD->CreateTR();
}
if (iFMD)
{
//=================== FMD parameters ============================
IlcFMD *FMD = new IlcFMDv1("FMD", "normal FMD");
}
if (iMUON)
{
//=================== MUON parameters ===========================
IlcMUON *MUON = new IlcMUONv1("MUON", "default");
}
//=================== PVBAR parameters ===========================
if (iPVBAR)
{
IlcPVBAR *PVBAR = new IlcPVBARv1("PVBAR", "ORKA");
// IlcPVBAR *PVBAR = new IlcPVBARv1("PVBAR", "noCPV");
}
if (iPMD)
{
//=================== PMD parameters ============================
IlcPMD *PMD = new IlcPMDv1("PMD", "normal PMD");
}
if (iSTART)
{
//=================== START parameters ============================
IlcSTART *START = new IlcSTARTv1("START", "START Detector");
}
if (iEMCAL)
{
//=================== EMCAL parameters ============================
IlcEMCAL *EMCAL = new IlcEMCALv2("EMCAL", "EMCAL_COMPLETEV1");
}
if (iCRT)
{
//=================== CRT parameters ============================
IlcCRT *CRT = new IlcCRTv0("CRT", "normal ACORDE");
}
if (iVZERO)
{
//=================== CRT parameters ============================
IlcVZERO *VZERO = new IlcVZEROv3("VZERO", "normal VZERO");
}
}
void Config()
{
// Get settings from environment variables
ProcessEnvironmentVars();
gRandom->SetSeed(seed);
cerr<<"Seed for random number generation= "<<seed<<endl;
// Libraries required by geant321
#if defined(__CINT__)
gSystem->Load("liblhapdf"); // Parton density functions
gSystem->Load("libEGPythia6"); // TGenerator interface
gSystem->Load("libpythia6"); // Pythia
gSystem->Load("libIlcPythia6"); // ILC specific implementations
gSystem->Load("libgeant321");
#endif
new TGeant3TGeo("C++ Interface to Geant3");
//=======================================================================
// Create the output file
IlcRunLoader* rl=0x0;
cout<<"Config.C: Creating Run Loader ..."<<endl;
rl = IlcRunLoader::Open("gilc.root",
IlcConfig::GetDefaultEventFolderName(),
"recreate");
if (rl == 0x0)
{
gIlc->Fatal("Config.C","Can not instatiate the Run Loader");
return;
}
rl->SetCompressionLevel(2);
rl->SetNumberOfEventsPerFile(1000);
gIlc->SetRunLoader(rl);
// gIlc->SetGeometryFromFile("geometry.root");
// gIlc->SetGeometryFromCDB();
// Set the trigger configuration: proton-proton
IlcSimulation::Instance()->SetTriggerConfig("p-p");
//
//=======================================================================
// ************* STEERING parameters FOR ILC SIMULATION **************
// --- Specify event type to be tracked through the ILC setup
// --- All positions are in cm, angles in degrees, and P and E in GeV
gMC->SetProcess("DCAY",1);
gMC->SetProcess("PAIR",1);
gMC->SetProcess("COMP",1);
gMC->SetProcess("PHOT",1);
gMC->SetProcess("PFIS",0);
gMC->SetProcess("DRAY",0);
gMC->SetProcess("ANNI",1);
gMC->SetProcess("BREM",1);
gMC->SetProcess("MUNU",1);
gMC->SetProcess("CKOV",1);
gMC->SetProcess("HADR",1);
gMC->SetProcess("LOSS",2);
gMC->SetProcess("MULS",1);
gMC->SetProcess("RAYL",1);
Float_t cut = 1.e-3; // 1MeV cut by default
Float_t tofmax = 1.e10;
gMC->SetCut("CUTGAM", cut);
gMC->SetCut("CUTELE", cut);
gMC->SetCut("CUTNEU", cut);
gMC->SetCut("CUTHAD", cut);
gMC->SetCut("CUTMUO", cut);
gMC->SetCut("BCUTE", cut);
gMC->SetCut("BCUTM", cut);
gMC->SetCut("DCUTE", cut);
gMC->SetCut("DCUTM", cut);
gMC->SetCut("PPCUTM", cut);
gMC->SetCut("TOFMAX", tofmax);
//======================//
// Set External decayer //
//======================//
TVirtualMCDecayer* decayer = new IlcDecayerPythia();
decayer->SetForceDecay(kAll);
decayer->Init();
gMC->SetExternalDecayer(decayer);
//=========================//
// Generator Configuration //
//=========================//
// Create pileup generator
IlcGenPileup *pileup = new IlcGenPileup();
IlcGenerator* gener = 0x0;
if (proc == kPythia6) {
gener = MbPythia();
} else if (proc == kPhojet) {
gener = MbPhojet();
}
// Set the pileup interaction generator
// The second argument is the pileup rate
// in terms of event rate per bunch crossing
pileup->SetGenerator(gener,0.01);
// Set the beam time structure
// Details on the syntax in STEER/IlcTriggerBCMask
pileup->SetBCMask("72(1H1L)3420L");
// Examples of the pileup rate and beam structure settings
// Most of the information is taken from the LHC commissionning page
// rate from 0.01 (at 900GeV) to 0.76 (at 14TeV)
// 1 bunch/orbit - bc-mask = "1H3563L"
// 43 bunches/orbit - bc-mask = "43(1H80L)81L"
// 72 bunches/orbit - bc-mask = "72(1H1L)3420L" (50ns mode)
// Please note that most of these setting should be cross-checked because
// for example the 43 bunches mode is taken at CMS IP and not the ILC one.
// Generate the trigger interaction
pileup->GenerateTrigInteraction(kTRUE);
// PRIMARY VERTEX
//
pileup->SetOrigin(0., 0., 0.); // vertex position
//
//
// Size of the interaction diamond
// Longitudinal
Float_t sigmaz = 5.4 / TMath::Sqrt(2.); // [cm]
if (energy == 900)
sigmaz = 10.5 / TMath::Sqrt(2.); // [cm]
//
// Transverse
Float_t betast = 10; // beta* [m]
Float_t eps = 3.75e-6; // emittance [m]
Float_t gamma = energy / 2.0 / 0.938272; // relativistic gamma [1]
Float_t sigmaxy = TMath::Sqrt(eps * betast / gamma) / TMath::Sqrt(2.) * 100.; // [cm]
printf("\n \n Diamond size x-y: %10.3e z: %10.3e\n \n", sigmaxy, sigmaz);
pileup->SetSigma(sigmaxy, sigmaxy, sigmaz); // Sigma in (X,Y,Z) (cm) on IP position
pileup->SetCutVertexZ(3.); // Truncate at 3 sigma
pileup->SetVertexSmear(kPerEvent);
pileup->Init();
// FIELD
//
IlcMagF* field = 0x0;
if (mag == kNoField) {
comment = comment.Append(" | L3 field 0.0 T");
field = new IlcMagF("Maps","Maps", 0., 0., IlcMagF::k5kGUniform);
} else if (mag == k5kG) {
comment = comment.Append(" | L3 field 0.5 T");
field = new IlcMagF("Maps","Maps", -1., -1., IlcMagF::k5kG);
}
printf("\n \n Comment: %s \n \n", comment.Data());
TGeoGlobalMagField::Instance()->SetField(field);
rl->CdGAFile();
Int_t iABSO = 1;
Int_t iACORDE= 0;
Int_t iDIPO = 1;
Int_t iEMCAL = 0;
Int_t iFMD = 1;
Int_t iFRAME = 1;
Int_t iHALL = 1;
Int_t iITS = 1;
Int_t iMAG = 1;
Int_t iMUON = 1;
Int_t iPHOS = 1;
Int_t iPIPE = 1;
Int_t iPMD = 0;
Int_t iHMPID = 1;
Int_t iSHIL = 1;
Int_t iT0 = 1;
Int_t iTOF = 1;
Int_t iTPC = 1;
Int_t iTRD = 1;
Int_t iVZERO = 1;
Int_t iZDC = 1;
//=================== Ilc BODY parameters =============================
IlcBODY *BODY = new IlcBODY("BODY", "Ilc envelop");
if (iMAG)
{
//=================== MAG parameters ============================
// --- Start with Magnet since detector layouts may be depending ---
// --- on the selected Magnet dimensions ---
IlcMAG *MAG = new IlcMAG("MAG", "Magnet");
}
if (iABSO)
{
//=================== ABSO parameters ============================
IlcABSO *ABSO = new IlcABSOv3("ABSO", "Muon Absorber");
}
if (iDIPO)
{
//=================== DIPO parameters ============================
IlcDIPO *DIPO = new IlcDIPOv3("DIPO", "Dipole version 3");
}
if (iHALL)
{
//=================== HALL parameters ============================
IlcHALL *HALL = new IlcHALLv3("HALL", "Ilc Hall");
}
if (iFRAME)
{
//=================== FRAME parameters ============================
IlcFRAMEv2 *FRAME = new IlcFRAMEv2("FRAME", "Space Frame");
FRAME->SetHoles(1);
}
if (iSHIL)
{
//=================== SHIL parameters ============================
IlcSHIL *SHIL = new IlcSHILv3("SHIL", "Shielding Version 3");
}
if (iPIPE)
{
//=================== PIPE parameters ============================
IlcPIPE *PIPE = new IlcPIPEv3("PIPE", "Beam Pipe");
}
if (iITS)
{
//=================== ITS parameters ============================
IlcITS *ITS = new IlcITSv11("ITS","ITS v11");
}
if (iTPC)
{
//============================ TPC parameters =====================
IlcTPC *TPC = new IlcTPCv2("TPC", "Default");
}
if (iTOF) {
//=================== TOF parameters ============================
IlcTOF *TOF = new IlcTOFv6T0("TOF", "normal TOF");
}
if (iHMPID)
{
//=================== HMPID parameters ===========================
IlcHMPID *HMPID = new IlcHMPIDv3("HMPID", "normal HMPID");
}
if (iZDC)
{
//=================== ZDC parameters ============================
IlcZDC *ZDC = new IlcZDCv4("ZDC", "normal ZDC");
}
if (iTRD)
{
//=================== TRD parameters ============================
IlcTRD *TRD = new IlcTRDv1("TRD", "TRD slow simulator");
IlcTRDgeometry *geoTRD = TRD->GetGeometry();
// Partial geometry: modules at 0,1,7,8,9,10,17
// starting at 3h in positive direction
geoTRD->SetSMstatus(2,0);
geoTRD->SetSMstatus(3,0);
geoTRD->SetSMstatus(4,0);
geoTRD->SetSMstatus(5,0);
geoTRD->SetSMstatus(6,0);
geoTRD->SetSMstatus(11,0);
geoTRD->SetSMstatus(12,0);
geoTRD->SetSMstatus(13,0);
geoTRD->SetSMstatus(14,0);
geoTRD->SetSMstatus(15,0);
geoTRD->SetSMstatus(16,0);
}
if (iFMD)
{
//=================== FMD parameters ============================
IlcFMD *FMD = new IlcFMDv1("FMD", "normal FMD");
}
if (iMUON)
{
//=================== MUON parameters ===========================
// New MUONv1 version (geometry defined via builders)
IlcMUON *MUON = new IlcMUONv1("MUON", "default");
}
if (iPHOS)
{
//=================== PHOS parameters ===========================
IlcPHOS *PHOS = new IlcPHOSv1("PHOS", "noCPV_Modules123");
}
if (iPMD)
{
//=================== PMD parameters ============================
IlcPMD *PMD = new IlcPMDv1("PMD", "normal PMD");
}
if (iT0)
{
//=================== T0 parameters ============================
IlcT0 *T0 = new IlcT0v1("T0", "T0 Detector");
}
if (iEMCAL)
{
//=================== EMCAL parameters ============================
IlcEMCAL *EMCAL = new IlcEMCALv2("EMCAL", "EMCAL_FIRSTYEAR");
}
if (iACORDE)
{
//=================== ACORDE parameters ============================
IlcACORDE *ACORDE = new IlcACORDEv1("ACORDE", "normal ACORDE");
}
if (iVZERO)
{
//=================== ACORDE parameters ============================
IlcVZERO *VZERO = new IlcVZEROv7("VZERO", "normal VZERO");
}
}
