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SOLARIS_Analysis/Cleopatra/SimTransfer_single.C

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#include "TROOT.h"
#include "TBenchmark.h"
#include "TLorentzVector.h"
#include "TMath.h"
#include "TFile.h"
#include "TF1.h"
#include "TTree.h"
#include "TRandom.h"
#include "TGraph.h"
#include "TMacro.h"
#include <stdlib.h>
#include <vector>
#include <fstream>
#include <TObjArray.h>
#include "../Armory/ClassDetGeo.h"
#include "ClassTargetScattering.h"
#include "ClassDecay.h"
#include "ClassTransfer.h"
#include "ClassHelios.h"
double exDistFunc(Double_t *x, Double_t * par){
return par[(int) x[0]];
}
void PrintEZPlotPara(TransferReaction tran, HELIOS helios){
printf("==================================== E-Z plot slope\n");
double betaRect = tran.GetReactionBeta() ;
double gamma = tran.GetReactionGamma();
double mb = tran.GetMass_b();
double pCM = tran.GetMomentumbCM();
double q = TMath::Sqrt(mb*mb + pCM*pCM); ///energy of light recoil in center of mass
double slope = tran.GetEZSlope(helios.GetBField()); /// MeV/mm
printf(" e-z slope : %f MeV/mm\n", slope);
double intercept = q/gamma - mb; // MeV
printf(" e-z intercept (ground state) : %f MeV\n", intercept);
}
void Transfer(
std::string basicConfig = "reactionConfig.txt",
std::string heliosDetGeoFile = "detectorGeo.txt",
unsigned short ID = 0, // this is the ID for the array
TString ptolemyRoot = "DWBA.root",
TString saveFileName = "transfer.root"){
//*############################################# Set Reaction
TransferReaction transfer;
HELIOS helios;
Decay decay;
std::vector<double> kbCM; /// momentum of b in CM frame
TF1 * exDist = nullptr;
transfer.SetReactionFromFile(basicConfig, ID);
helios.SetDetectorGeometry(heliosDetGeoFile, ID);
printf("*****************************************************************\n");
printf("*\e[1m\e[33m %27s \e[0m*\n", transfer.GetReactionName().Data());
printf("*****************************************************************\n");
printf("----- loading reaction setting from %s. \n", basicConfig.c_str());
printf("----- loading geometry setting from %s. \n", heliosDetGeoFile.c_str());
printf("\e[32m#################################### Reaction & HELIOS configuration\e[0m\n");
transfer.PrintReaction(false);
if(transfer.GetRecoil().isDecay) {
decay.SetMotherDaugther(transfer.GetRecoil());
}
helios.PrintGeometry();
PrintEZPlotPara(transfer, helios);
DetGeo detGeo = helios.GetDetectorGeometry();
Array array = helios.GetArrayGeometry();
Auxillary aux = helios.GetAuxGeometry();
ReactionConfig reactConfig = transfer.GetRectionConfig();
Recoil recoil = transfer.GetRecoil();
//*############################################# save reaction.dat
// if( filename != "" ) {
// FILE * keyParaOut;
// keyParaOut = fopen (filename.Data(), "w+");
// printf("=========== save key reaction constants to %s \n", filename.Data());
// fprintf(keyParaOut, "%-15.4f //%s\n", transfer.GetMass_b(), "mass_b");
// fprintf(keyParaOut, "%-15d //%s\n", reactConfig.recoilLightZ, "charge_b");
// fprintf(keyParaOut, "%-15.8f //%s\n", transfer.GetReactionBeta(), "betaCM");
// fprintf(keyParaOut, "%-15.4f //%s\n", transfer.GetCMTotalEnergy(), "Ecm");
// fprintf(keyParaOut, "%-15.4f //%s\n", transfer.GetMass_B(), "mass_B");
// fprintf(keyParaOut, "%-15.4f //%s\n", slope/betaRect, "alpha=slope/betaRect");
// fflush(keyParaOut);
// fclose(keyParaOut);
// }
//*############################################# Target scattering, only energy loss
// bool isTargetScattering = reactConfig.isTargetScattering;
// float density = reactConfig.targetDensity;
// float targetThickness = reactConfig.targetThickness;
// if(isTargetScattering) printf("\e[32m#################################### Target Scattering\e[0m\n");
// TargetScattering msA;
// TargetScattering msB;
// TargetScattering msb;
// if(reactConfig.isTargetScattering) printf("======== Target : (thickness : %6.2f um) x (density : %6.2f g/cm3) = %6.2f ug/cm2\n",
// targetThickness * 1e+4,
// density,
// targetThickness * density * 1e+6);
// if( reactConfig.isTargetScattering ){
// msA.LoadStoppingPower(reactConfig.beamStoppingPowerFile);
// msb.LoadStoppingPower(reactConfig.recoilLightStoppingPowerFile);
// msB.LoadStoppingPower(reactConfig.recoilHeavyStoppingPowerFile);
// }
ExcitedEnergies exList = transfer.GetRectionConfig().exList[ID];
//*############################################# Load DWBAroot for thetaCM distribution
printf("\e[32m#################################### Load DWBA input : %s \e[0m\n", ptolemyRoot.Data());
TF1 * dist = NULL;
TFile * distFile = new TFile(ptolemyRoot, "read");
TObjArray * distList = nullptr;
TMacro * dwbaExList = nullptr;
TMacro * dwbaReactList = nullptr;
TMacro dwbaExList_Used;
if( distFile->IsOpen() ) {
printf("--------- Found DWBA thetaCM distributions. Use the ExList from DWBA.\n");
distList = (TObjArray *) distFile->FindObjectAny("thetaCM_TF1"); // the function List
dwbaExList = (TMacro *) distFile->FindObjectAny("ExList");
dwbaExList_Used.AddLine(dwbaExList->GetListOfLines()->At(0)->GetName());
dwbaReactList = (TMacro *) distFile->FindObjectAny("ReactionList");
exList.Clear();
int numEx = dwbaExList->GetListOfLines()->GetSize() - 1 ;
for(int i = 1; i <= numEx ; i++){
std::string reactionName = dwbaReactList->GetListOfLines()->At(i-1)->GetName();
if( reactionName.find( transfer.GetReactionName().Data() ) != std::string::npos) {
std::string temp = dwbaExList->GetListOfLines()->At(i)->GetName();
dwbaExList_Used.AddLine(temp.c_str());
if( temp[0] == '/' ) continue;
std::vector<std::string> tempStr = AnalysisLib::SplitStr(temp, " ");
exList.Add( atof(tempStr[0].c_str()), atof(tempStr[1].c_str()), 1.0, 0.00);
}
}
}else{
printf("------- no DWBA input. Use the ExList from %s\n", basicConfig.c_str());
}
printf("------------------------------ Heavy Recoil excitation\n");
printf("Energy[MeV] Rel.Xsec SF sigma\n");
int numEx = exList.ExList.size();
for( int j = 0; j < numEx; j++){
double ex = exList.ExList[j].Ex;
kbCM.push_back(transfer.CalkCM(ex));
int decayID = decay.CalDecay(TLorentzVector (0,0,0,0), ex, 0);
exList.ExList[j].Print(decayID == 1 ? "-->Decay" : "\n");
}
//---- create Ex-distribution
if( exList.ExList.size() > 1 ) {
printf("---- creating Ex-distribution \n");
exDist = new TF1("exDist", exDistFunc, 0, numEx, numEx);
for(int q = 0; q < numEx; q++){
exDist->SetParameter(q, exList.ExList[q].xsec*exList.ExList[q].SF);
}
}
//*############################################# build tree
printf("\e[32m#################################### building Tree in %s\e[0m\n", saveFileName.Data());
TFile * saveFile = new TFile(saveFileName, "recreate");
TTree * tree = new TTree("tree", "tree");
TMacro config(basicConfig.c_str());
TMacro detGeoTxt(heliosDetGeoFile.c_str());
config.SetName(transfer.GetReactionName_Latex().Data());
config.Write("reactionConfig");
detGeoTxt.Write("detGeo");
if( distList != NULL ) distList->Write("DWBA", 1);
if( dwbaExList != NULL ) dwbaExList_Used.Write("DWBA_ExList", 1);
TMacro idMacro;
idMacro.AddLine(Form("%d", ID));
idMacro.Write("detGeoID");
TMacro hitMeaning;
hitMeaning.AddLine("======================= meaning of Hit\n");
for( int code = -15 ; code <= 1; code ++ ){
hitMeaning.AddLine( Form( "%4d = %s", code, helios.AcceptanceCodeToMsg(code).Data() ));
}
hitMeaning.AddLine(" other = unknown\n");
hitMeaning.AddLine("===========================================\n");
hitMeaning.Write("hitMeaning");
int hit; /// the output of Helios.CalHit
tree->Branch("hit", &hit, "hit/I");
double thetab, phib, Tb;
double thetaB, phiB, TB;
tree->Branch("thetab", &thetab, "thetab/D");
tree->Branch("phib", &phib, "phib/D");
tree->Branch("Tb", &Tb, "Tb/D");
tree->Branch("thetaB", &thetaB, "thetaB/D");
tree->Branch("phiB", &phiB, "phiB/D");
tree->Branch("TB", &TB, "TB/D");
double thetaCM;
tree->Branch("thetaCM", &thetaCM, "thetaCM/D");
double e, z, detX, t, z0, tB;
tree->Branch("e", &e, "energy_light/D");
tree->Branch("x", &detX, "detector_x/D");
tree->Branch("z", &z, "array_hit_z/D");
tree->Branch("z0", &z0, "z-cycle/D");
tree->Branch("t", &t, "cycle_time_light/D");
tree->Branch("tB", &tB, "recoil_hit_time/D"); /// hit time for recoil on the recoil detector
int loop, detID, detRowID;
tree->Branch("detID", &detID, "detID/I");
tree->Branch("detRowID", &detRowID, "detRowID/I");
tree->Branch("loop", &loop, "loop/I");
double rho, rhoB; ///orbit radius
tree->Branch("rho", &rho, "orbit_radius_light/D");
tree->Branch("rhoB", &rhoB, "orbit_radius_heavy/D");
int ExID;
double Ex;
tree->Branch("ExID", &ExID, "ExID/I");
tree->Branch("Ex", &Ex, "Ex/D");
double ExCal, thetaCMCal;
tree->Branch("ExCal", &ExCal, "ExCal/D");
tree->Branch("thetaCMCal", &thetaCMCal, "thetaCMCal/D");
// double TbLoss; /// energy loss of particle-b from target scattering
// double KEAnew; ///beam energy after target scattering
// double depth; /// reaction depth;
// double Ecm;
// if( reactConfig.isTargetScattering ){
// tree->Branch("depth", &depth, "depth/D");
// tree->Branch("TbLoss", &TbLoss, "TbLoss/D");
// tree->Branch("KEAnew", &KEAnew, "KEAnew/D");
// tree->Branch("Ecm", &Ecm, "Ecm/D");
// }
double decayTheta; /// the change of thetaB due to decay
double xRecoil_d, yRecoil_d, rhoRecoil_d, Td;
if( recoil.isDecay ) {
tree->Branch("decayTheta", &decayTheta, "decayTheta/D");
tree->Branch("xRecoil_d", &xRecoil_d, "xRecoil_d/D");
tree->Branch("yRecoil_d", &yRecoil_d, "yRecoil_d/D");
tree->Branch("rhoRecoil_d", &rhoRecoil_d, "rhoRecoil_d/D");
tree->Branch("Td", &Td, "Td/D");
}
double xArray, yArray, rhoArray; ///x, y, rho positon of particle-b on PSD
tree->Branch("xArray", &xArray, "xArray/D");
tree->Branch("yArray", &yArray, "yArray/D");
tree->Branch("rhoArray", &rhoArray, "rhoArray/D");
double xRecoil, yRecoil, rhoRecoil; /// x, y, rho position of particle-B on recoil-detector
tree->Branch("xRecoil", &xRecoil, "xRecoil/D");
tree->Branch("yRecoil", &yRecoil, "yRecoil/D");
tree->Branch("rhoRecoil", &rhoRecoil, "rhoRecoil/D");
///in case need ELUM
double xElum1, yElum1, rhoElum1;
if( aux.elumPos1 != 0 ) {
tree->Branch("xElum1", &xElum1, "xElum1/D");
tree->Branch("yElum1", &yElum1, "yElum1/D");
tree->Branch("rhoElum1", &rhoElum1, "rhoElum1/D");
}
double xElum2, yElum2, rhoElum2;
if( aux.elumPos2 != 0 ) {
tree->Branch("xElum2", &xElum2, "xElum2/D");
tree->Branch("yElum2", &yElum2, "yElum2/D");
tree->Branch("rhoElum2", &rhoElum2, "rhoElum2/D");
}
///in case need other recoil detector.
double xRecoil1, yRecoil1, rhoRecoil1;
if( aux.detPos1 != 0 ){
tree->Branch("xRecoil1", &xRecoil1, "xRecoil1/D");
tree->Branch("yRecoil1", &yRecoil1, "yRecoil1/D");
tree->Branch("rhoRecoil1", &rhoRecoil1, "rhoRecoil1/D");
}
double xRecoil2, yRecoil2, rhoRecoil2;
if( aux.detPos2 != 0 ){
tree->Branch("xRecoil2", &xRecoil2, "xRecoil2/D");
tree->Branch("yRecoil2", &yRecoil2, "yRecoil2/D");
tree->Branch("rhoRecoil2", &rhoRecoil2, "rhoRecoil2/D");
}
//======= function for e-z plot for ideal case
printf("++++ generate functions\n");
TObjArray * gList = new TObjArray();
gList->SetName("Constant thetaCM lines");
const int gxSize = 50;
TF1 ** gx = new TF1*[gxSize];
TString name;
double mb = transfer.GetMass_b();
double betaRect = transfer.GetReactionBeta();
double gamma = transfer.GetReactionGamma();
double slope = transfer.GetEZSlope(helios.GetBField()); /// MeV/mm
for( int i = 0; i < gxSize; i++){
name.Form("g%d", i);
gx[i] = new TF1(name, "([0]*TMath::Sqrt([1]+[2]*x*x)+[5]*x)/([3]) - [4]", -1000, 1000);
double thetacm = i * TMath::DegToRad();
double gS2 = TMath::Power(TMath::Sin(thetacm)*gamma,2);
gx[i]->SetParameter(0, TMath::Cos(thetacm));
gx[i]->SetParameter(1, mb*mb*(1-gS2));
gx[i]->SetParameter(2, TMath::Power(slope/betaRect,2));
gx[i]->SetParameter(3, 1-gS2);
gx[i]->SetParameter(4, mb);
gx[i]->SetParameter(5, -gS2*slope);
gx[i]->SetNpx(1000);
gList->Add(gx[i]);
printf("/");
if( i > 1 && i % 40 == 0 ) printf("\n");
}
gList->Write("EZ_thetaCM", TObject::kSingleKey);
printf(" %d constant thetaCM functions\n", gxSize);
//--- cal modified f
TObjArray * fxList = new TObjArray();
TGraph ** fx = new TGraph*[numEx];
std::vector<double> px, py;
int countfx = 0;
for( int j = 0 ; j < numEx; j++){
double a = helios.GetDetRadius();
double q = TMath::Sqrt(mb*mb + kbCM[j] * kbCM[j] );
px.clear();
py.clear();
countfx = 0;
for(int i = 0; i < 100; i++){
double thetacm = TMath::Pi()/TMath::Log(100) * (TMath::Log(100) - TMath::Log(100-i)) ;//using log scale, for more point in small angle.
double temp = TMath::TwoPi() * slope / betaRect / kbCM[j] * a / TMath::Sin(thetacm);
double pxTemp = betaRect /slope * (gamma * betaRect * q - gamma * kbCM[j] * TMath::Cos(thetacm)) * (1 - TMath::ASin(temp)/TMath::TwoPi()) ;
double pyTemp = gamma * q - mb - gamma * betaRect * kbCM[j] * TMath::Cos(thetacm);
if( TMath::IsNaN(pxTemp) || TMath::IsNaN(pyTemp) ) continue;
px.push_back(pxTemp);
py.push_back(pyTemp);
countfx ++;
}
fx[j] = new TGraph(countfx, &px[0], &py[0]);
name.Form("fx%d", j);
fx[j]->SetName(name);
fx[j]->SetLineColor(4);
fxList->Add(fx[j]);
printf(",");
}
fxList->Write("EZCurve", TObject::kSingleKey);
printf(" %d e-z finite-size detector functions\n", numEx);
//--- cal modified thetaCM vs z
TObjArray * txList = new TObjArray();
TGraph ** tx = new TGraph*[numEx];
for( int j = 0 ; j < numEx; j++){
double a = helios.GetDetRadius();
double q = TMath::Sqrt(mb*mb + kbCM[j] * kbCM[j] );
px.clear();
py.clear();
countfx = 0;
for(int i = 0; i < 100; i++){
double thetacm = (i + 8.) * TMath::DegToRad();
double temp = TMath::TwoPi() * slope / betaRect / kbCM[j] * a / TMath::Sin(thetacm);
double pxTemp = betaRect /slope * (gamma * betaRect * q - gamma * kbCM[j] * TMath::Cos(thetacm)) * (1 - TMath::ASin(temp)/TMath::TwoPi());
double pyTemp = thetacm * TMath::RadToDeg();
if( TMath::IsNaN(pxTemp) || TMath::IsNaN(pyTemp) ) continue;
px.push_back(pxTemp);
py.push_back(pyTemp);
countfx ++;
}
tx[j] = new TGraph(countfx, &px[0], &py[0]);
name.Form("tx%d", j);
tx[j]->SetName(name);
tx[j]->SetLineColor(4);
txList->Add(tx[j]);
printf("*");
}
txList->Write("thetaCM_Z", TObject::kSingleKey);
printf(" %d thetaCM-z for finite-size detector functions\n", numEx);
//========timer
TBenchmark clock;
bool shown ;
clock.Reset();
clock.Start("timer");
shown = false;
//change the number of event into human easy-to-read form
int numEvent = reactConfig.numEvents;
int digitLen = TMath::Floor(TMath::Log10(numEvent));
TString numEventStr;
if( 3 <= digitLen && digitLen < 6 ){
numEventStr.Form("%5.1f kilo", numEvent/1000.);
}else if ( 6<= digitLen && digitLen < 9 ){
numEventStr.Form("%6.2f million", numEvent/1e6);
}else if ( 9<= digitLen ){
numEventStr.Form("%6.2f billion", numEvent/1e9);
}
printf("\e[32m#################################### generating %s events \e[0m\n", numEventStr.Data());
double KEA = reactConfig.beamEnergy;
double theta = reactConfig.beamTheta;
double phi = 0.0;
//*====================================================== calculate event
int count = 0;
for( int i = 0; i < numEvent; i++){
bool redoFlag = true;
if( !reactConfig.isRedo ) redoFlag = false;
do{
//==== Set Ex of B
if( numEx == 1 ) {
ExID = 0;
Ex = exList.ExList[0].Ex + (exList.ExList[0].sigma == 0 ? 0 : gRandom->Gaus(0, exList.ExList[0].sigma));
}else{
ExID = exDist->GetRandom();
Ex = exList.ExList[ExID].Ex + (exList.ExList[ExID].sigma == 0 ? 0 : gRandom->Gaus(0, exList.ExList[ExID].sigma));
}
transfer.SetExB(Ex);
//==== Set incident beam
if( reactConfig.beamEnergySigma != 0 ){
KEA = gRandom->Gaus(reactConfig.beamEnergy, reactConfig.beamEnergySigma);
}
if( reactConfig.beamThetaSigma != 0 ){
theta = gRandom->Gaus(reactConfig.beamTheta, reactConfig.beamThetaSigma);
}
//==== for taregt scattering
transfer.SetIncidentEnergyAngle(KEA, theta, 0.);
transfer.CalReactionConstant();
// TLorentzVector PA = transfer.GetPA();
//depth = 0;
// if( isTargetScattering ){
// //==== Target scattering, only energy loss
// depth = targetThickness * gRandom->Rndm();
// msA.SetTarget(density, depth);
// TLorentzVector PAnew = msA.Scattering(PA);
// KEAnew = msA.GetKE()/reactConfig.beamA;
// transfer.SetIncidentEnergyAngle(KEAnew, theta, phi);
// transfer.CalReactionConstant();
// Ecm = transfer.GetCMTotalKE();
// }
//==== Calculate thetaCM, phiCM
if( distFile->IsOpen()){
dist = (TF1 *) distList->At(ExID);
thetaCM = dist->GetRandom() / 180. * TMath::Pi();
}else{
thetaCM = TMath::ACos(2 * gRandom->Rndm() - 1) ;
}
double phiCM = TMath::TwoPi() * gRandom->Rndm();
//==== Calculate reaction
transfer.Event(thetaCM, phiCM);
TLorentzVector Pb = transfer.GetPb();
TLorentzVector PB = transfer.GetPB();
// //==== Calculate energy loss of scattered and recoil in target
// if( isTargetScattering ){
// if( Pb.Theta() < TMath::PiOver2() ){
// msb.SetTarget(density, targetThickness - depth);
// }else{
// msb.SetTarget(density, depth);
// }
// Pb = msb.Scattering(Pb);
// TbLoss = msb.GetKELoss();
// msB.SetTarget(density, targetThickness - depth);
// PB = msB.Scattering(PB);
// }else{
// TbLoss = 0;
// }
//======= Decay of particle-B
int decayID = 0;
if( recoil.isDecay){
decayID = decay.CalDecay(PB, Ex, 0, phiCM + TMath::Pi()/2); // decay to ground state
if( decayID == 1 ){
PB = decay.GetDaugther_D();
//decayTheta = decay.GetAngleChange();
decayTheta = decay.GetThetaCM();
PB.SetUniqueID(recoil.decayZ);
}else{
decayTheta = TMath::QuietNaN();
}
}
//################################### tree branches
//===== reaction
thetab = Pb.Theta() * TMath::RadToDeg();
thetaB = PB.Theta() * TMath::RadToDeg();
Tb = Pb.E() - Pb.M();
TB = PB.E() - PB.M();
phib = Pb.Phi() * TMath::RadToDeg();
phiB = PB.Phi() * TMath::RadToDeg();
//==== Helios
// printf(" thetaCM : %f, Tb : %f\n", thetaCM * TMath::RadToDeg(), Pb.M());
if( Tb > 0 || TB > 0 ){
helios.CalArrayHit(Pb);
helios.CalRecoilHit(PB);
hit = 2;
while( hit > 1 ){ hit = helios.CheckDetAcceptance(); } /// while hit > 1, goto next loop;
trajectory orb_b = helios.GetTrajectory_b();
trajectory orb_B = helios.GetTrajectory_B();
e = helios.GetEnergy() + gRandom->Gaus(0, array.eSigma );
double ranX = gRandom->Gaus(0, array.zSigma);
z = orb_b.z + ranX;
detX = helios.GetDetX() + ranX;
z0 = orb_b.z0;
t = orb_b.t;
loop = orb_b.loop;
detID = orb_b.detID;
detRowID = orb_b.detRowID;
rho = orb_b.rho;
rhoArray = orb_b.R;
xArray = orb_b.x;
yArray = orb_b.y;
//ELUM
if( aux.elumPos1 != 0 ){
xElum1 = helios.GetXPos(aux.elumPos1);
yElum1 = helios.GetYPos(aux.elumPos1);
rhoElum1 = helios.GetR(aux.elumPos1);
}
if( aux.elumPos2 != 0 ){
xElum2 = helios.GetXPos(aux.elumPos2);
yElum2 = helios.GetYPos(aux.elumPos2);
rhoElum2 = helios.GetR(aux.elumPos2);
}
//Recoil
rhoRecoil = orb_B.R;
tB = orb_B.t;
xRecoil = orb_B.x;
yRecoil = orb_B.y;
rhoB = orb_B.rho;
//other recoil detectors
if ( aux.detPos1 != 0 ){
xRecoil1 = helios.GetRecoilXPos(aux.detPos1);
yRecoil1 = helios.GetRecoilYPos(aux.detPos1);
rhoRecoil1 = helios.GetRecoilR(aux.detPos1);
}
if ( aux.detPos2 != 0 ){
xRecoil2 = helios.GetRecoilXPos(aux.detPos2);
yRecoil2 = helios.GetRecoilYPos(aux.detPos2);
rhoRecoil2 = helios.GetRecoilR(aux.detPos2);
}
std::pair<double,double> ExThetaCM = transfer.CalExThetaCM(e, z, helios.GetBField(), helios.GetDetRadius());
ExCal = ExThetaCM.first;
thetaCMCal = ExThetaCM.second;
//change thetaCM into deg
thetaCM = thetaCM * TMath::RadToDeg();
//if decay, get the light decay particle on the recoil;
if( recoil.isDecay ){
if( decayID == 1 ){
TLorentzVector Pd = decay.GetDaugther_d();
Td = Pd.E() - Pd.M();
helios.CalRecoilHit(Pd);
trajectory orb_d = helios.GetTrajectory_B();
rhoRecoil_d = orb_d.R;
xRecoil_d = orb_d.x;
yRecoil_d = orb_d.y;
}else{
rhoRecoil_d = TMath::QuietNaN();
xRecoil_d = TMath::QuietNaN();
yRecoil_d = TMath::QuietNaN();
}
}
}else{
hit = -404;
}
if( hit == 1) count ++;
if( reactConfig.isRedo ){
if( hit == 1) {
redoFlag = false;
}else{
redoFlag = true;
//printf("%d, %2d, thetaCM : %f, theta : %f, z0: %f \n", i, hit, thetaCM * TMath::RadToDeg(), thetab, helios.GetZ0());
}
}else{
redoFlag = false;
}
}while( redoFlag );
tree->Fill();
//#################################################################### Timer
clock.Stop("timer");
Double_t time = clock.GetRealTime("timer");
clock.Start("timer");
if ( !shown ) {
if (fmod(time, 10) < 1 ){
printf( "%10d[%2d%%]| %8.2f sec | expect: %5.1f min \n", i, TMath::Nint((i+1)*100./numEvent), time , numEvent*time/(i+1)/60);
shown = 1;
}
}else{
if (fmod(time, 10) > 9 ){
shown = 0;
}
}
}
saveFile->Write();
saveFile->Close();
distFile->Close();
delete exDist;
printf("=============== done. saved as %s. count(hit==1) : %d\n", saveFileName.Data(), count);
//gROOT->ProcessLine(".q");
return;
}
int main (int argc, char *argv[]) {
printf("=================================================================\n");
printf("========== Simulate Transfer reaction in HELIOS ==========\n");
printf("=================================================================\n");
if(argc == 2 || argc > 7) {
printf("Usage: ./Transfer [1] [2] [3] [4] [5] [6]\n");
printf(" default file name \n");
printf(" [1] reactionConfig.txt (input) reaction Setting \n");
printf(" [2] detectorGeo.txt (input) detector Setting \n");
printf(" [3] ID (input) detector & reaction ID (default = 0 ) \n");
printf(" [4] DWBA.root (input) thetaCM distribution from DWBA \n");
printf(" [5] transfer.root (output) rootFile name for output \n");
printf(" [6] plot (input) will it plot stuffs [1/0] \n");
printf("------------------------------------------------------\n");
return 0 ;
}
std::string basicConfig = "reactionConfig.txt";
std::string heliosDetGeoFile = "detectorGeo.txt";
int ID = 0;
TString ptolemyRoot = "DWBA.root"; // when no file, use isotropic distribution of thetaCM
TString saveFileName; // format based on ID;
bool isPlot = false;
if( argc >= 2) basicConfig = argv[1];
if( argc >= 3) heliosDetGeoFile = argv[2];
if( argc >= 4) ID = atoi(argv[3]);
if( argc >= 5) ptolemyRoot = argv[4];
if( argc >= 6) saveFileName = argv[5];
if( argc >= 7) isPlot = atoi(argv[7]);
saveFileName = Form("transfer_%d.root", ID);
Transfer( basicConfig, heliosDetGeoFile, ID, ptolemyRoot, saveFileName);
//run Armory/Check_Simulation
if( isPlot ){
std::ifstream file_in;
file_in.open("../Cleopatra/Check_Simulation.C", std::ios::in);
if( file_in){
printf("---- running ../Cleopatra/Check_Simulation.C on %s \n", saveFileName.Data());
TString cmd;
cmd.Form("root -l '../Cleopatra/Check_Simulation.C(\"%s\")'", saveFileName.Data());
system(cmd.Data());
}else{
printf("cannot find ../Cleopatra/Check_Simulation.C \n");
}
}
}
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