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added AnalysisLib and AutoFit namespace, Greatly improve Monitor.C/h

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This commit is contained in:
Ryan Tang 2023-04-06 19:05:20 -04:00
parent 63fd4687a4
commit 242366792c
6 changed files with 2113 additions and 57 deletions
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371
armory/AnalysisLib.h
View File

@ -8,6 +8,43 @@
#include <TMacro.h> #include <TMacro.h>
#include <TList.h> #include <TList.h>
namespace AnalysisLib {
std::vector<std::string> SplitStr(std::string tempLine, std::string splitter, int shift = 0){
std::vector<std::string> output;
size_t pos;
do{
pos = tempLine.find(splitter); /// fine splitter
if( pos == 0 ){ ///check if it is splitter again
tempLine = tempLine.substr(pos+1);
continue;
}
std::string secStr;
if( pos == std::string::npos ){
secStr = tempLine;
}else{
secStr = tempLine.substr(0, pos+shift);
tempLine = tempLine.substr(pos+shift);
}
///check if secStr is begin with space
while( secStr.substr(0, 1) == " ") secStr = secStr.substr(1);
///check if secStr is end with space
while( secStr.back() == ' ') secStr = secStr.substr(0, secStr.size()-1);
output.push_back(secStr);
///printf(" |%s---\n", secStr.c_str());
}while(pos != std::string::npos );
return output;
}
struct DetGeo{ struct DetGeo{
double Bfield; /// T double Bfield; /// T
@ -76,40 +113,6 @@ struct ReactionConfig{
}; };
std::vector<std::string> SplitStr(std::string tempLine, std::string splitter, int shift = 0){
std::vector<std::string> output;
size_t pos;
do{
pos = tempLine.find(splitter); /// fine splitter
if( pos == 0 ){ ///check if it is splitter again
tempLine = tempLine.substr(pos+1);
continue;
}
std::string secStr;
if( pos == std::string::npos ){
secStr = tempLine;
}else{
secStr = tempLine.substr(0, pos+shift);
tempLine = tempLine.substr(pos+shift);
}
///check if secStr is begin with space
while( secStr.substr(0, 1) == " ") secStr = secStr.substr(1);
///check if secStr is end with space
while( secStr.back() == ' ') secStr = secStr.substr(0, secStr.size()-1);
output.push_back(secStr);
///printf(" |%s---\n", secStr.c_str());
}while(pos != std::string::npos );
return output;
}
///Using TMacro to load the detectorGeo frist, ///Using TMacro to load the detectorGeo frist,
///this indrect method is good for loading detectorGeo from TMacro in root file ///this indrect method is good for loading detectorGeo from TMacro in root file
DetGeo LoadDetectorGeo(TMacro * macro){ DetGeo LoadDetectorGeo(TMacro * macro){
@ -306,7 +309,304 @@ void PrintReactionConfig(ReactionConfig reaction){
} }
DetGeo detGeo;
ReactionConfig reactionConfig;
void LoadDetGeoAndReactionConfigFile(string detGeoFileName = "detectorGeo.txt", string reactionConfigFileName = "reactionConfig.txt"){
printf("=======================\n");
printf(" loading detector geometery : %s.", detGeoFileName.c_str());
TMacro * haha = new TMacro();
if( haha->ReadFile(detGeoFileName.c_str()) > 0 ) {
detGeo = AnalysisLib::LoadDetectorGeo(haha);
printf("... done.\n");
AnalysisLib::PrintDetGeo(detGeo);
}else{
printf("... fail\n");
}
printf("=======================\n");
printf(" loading reaction config : %s.", reactionConfigFileName.c_str());
TMacro * kaka = new TMacro();
if( kaka->ReadFile(reactionConfigFileName.c_str()) > 0 ) {
reactionConfig = AnalysisLib::LoadReactionConfig(kaka);
printf("..... done.\n");
AnalysisLib::PrintReactionConfig(reactionConfig);
}else{
printf("..... fail\n");
}
delete haha;
delete kaka;
}
//************************************** Correction parameters;
std::vector<float> xnCorr; //correction of xn to match xf
std::vector<float> xScale; // correction of x to be (0,1)
std::vector<std::vector<float>> xfxneCorr; //correction of xn and xf to match e
std::vector<std::vector<float>> eCorr; // correction to e, ch -> MeV
std::vector<std::vector<float>> rdtCorr; // correction of rdt, ch -> MeV
//~========================================= xf = xn correction
void LoadXNCorr(bool verbose = false, const char * fileName = "correction_xf_xn.dat"){
printf(" loading xf-xn correction.");
xnCorr.clear();
ifstream file;
file.open(fileName);
if( file.is_open() ){
float a;
while( file >> a ) xnCorr.push_back(a);
printf(".......... done.\n");
}else{
printf(".......... fail.\n");
}
file.close();
if( verbose ) for(int i = 0; i < (int) xnCorr.size(); i++) printf("%2d | %10.3f\n", i, xnCorr[i]);
}
//~========================================= X-Scale correction
void LoadXScaleCorr(bool verbose = false, const char * fileName = "correction_scaleX.dat"){
printf(" loading x-Scale correction.");
xScale.clear();
ifstream file;
file.open(fileName);
if( file.is_open() ){
float a, b;
while( file >> a ) xScale.push_back(a);
printf("........ done.\n");
}else{
printf("........ fail.\n");
}
file.close();
if( verbose ) for(int i = 0; i < (int) xScale.size(); i++) printf("%2d | %10.3f\n", i, xnCorr[i]);
}
//~========================================= e = xf + xn correction
void LoadXFXN2ECorr(bool verbose = false, const char * fileName = "correction_xfxn_e.dat"){
printf(" loading xf/xn-e correction.");
xfxneCorr.clear();
ifstream file;
file.open(fileName);
if( file.is_open() ){
float a, b;
while( file >> a >> b) xfxneCorr.push_back({a, b});
printf("........ done.\n");
}else{
printf("........ fail.\n");
}
file.close();
if( verbose ) for(int i = 0; i < (int) xfxneCorr.size(); i++) printf("%2d | %10.3f, %10.3f\n", i, xfxneCorr[i][0], xfxneCorr[i][1]);
}
//~========================================= e correction
void LoadECorr(bool verbose = false, const char * fileName = "correction_e.dat"){
printf(" loading e correction.");
eCorr.clear();
ifstream file;
file.open(fileName);
if( file.is_open() ){
float a, b;
while( file >> a >> b) eCorr.push_back( {a, b} ); // 1/a1, a0 , e' = e * a1 + a0
printf(".............. done.\n");
}else{
printf(".............. fail.\n");
}
file.close();
if( verbose ) for(int i = 0; i < (int) eCorr.size(); i++) printf("%2d | %10.3f, %10.3f\n", i, eCorr[i][0], eCorr[i][1]);
}
//~========================================= rdt correction
void LoadRDTCorr(bool verbose = false, const char * fileName = "correction_rdt.dat"){
printf(" loading rdt correction.");
rdtCorr.clear();
ifstream file;
file.open(fileName);
if( file.is_open() ){
float a, b;
while( file >> a >> b) rdtCorr.push_back({a, b});
printf("............ done.\n");
}else{
printf("............ fail.\n");
}
file.close();
if( verbose ) for(int i = 0; i < (int) rdtCorr.size(); i++) printf("%2d | %10.3f, %10.3f\n", i, rdtCorr[i][0], rdtCorr[i][1]);
}
double q, alpha, Et, betRel, gamm, G, massB, mass; //variables for Ex calculation
bool hasReactionPara = false;
//~========================================= reaction parameters
void LoadReactionParas(bool verbose = false){
//check is the transfer.root is using the latest reactionConfig.txt
//sicne reaction.dat is generated as a by-product of transfer.root
//TFile * transfer = new TFile("transfer.root");
//TString aaa1 = "";
//TString aaa2 = "";
//if( transfer->IsOpen() ){
// TMacro * reactionConfig = (TMacro *) transfer->FindObjectAny("reactionConfig");
// TMacro presentReactionConfig ("reactionConfig.txt");
// aaa1 = ((TMD5*) reactionConfig->Checksum())->AsString();
// aaa2 = ((TMD5*) presentReactionConfig.Checksum())->AsString();
//}
//printf("%s\n", aaa1.Data());
//printf("%s\n", aaa2.Data());
//if( aaa1 != aaa2 ) {
// printf("########################## recalculate transfer.root \n");
// system("../Cleopatra/Transfer");
// printf("########################## transfer.root updated\n");
//}
printf(" loading reaction parameters");
ifstream file;
file.open("reaction.dat");
hasReactionPara = false;
if( file.is_open() ){
string x;
int i = 0;
while( file >> x ){
if( x.substr(0,2) == "//" ) continue;
if( i == 0 ) mass = atof(x.c_str());
if( i == 1 ) q = atof(x.c_str());
if( i == 2 ) betRel = atof(x.c_str());
if( i == 3 ) Et = atof(x.c_str());
if( i == 4 ) massB = atof(x.c_str());
i = i + 1;
}
printf("........ done.\n");
hasReactionPara = true;
alpha = 299.792458 * abs(detGeo.Bfield) * q / TMath::TwoPi()/1000.; //MeV/mm
gamm = 1./TMath::Sqrt(1-betRel*betRel);
G = alpha * gamm * betRel * detGeo.detPerpDist ;
if( verbose ){
printf("\tmass-b : %f MeV/c2 \n", mass);
printf("\tcharge-b : %f \n", q);
printf("\tE-total : %f MeV \n", Et);
printf("\tmass-B : %f MeV/c2 \n", massB);
printf("\tbeta : %f \n", betRel);
printf("\tB-field : %f T \n", detGeo.Bfield);
printf("\tslope : %f MeV/mm \n", alpha * betRel);
printf("\tdet radius: %f mm \n", detGeo.detPerpDist);
printf("\tG-coeff : %f MeV \n", G);
printf("=================================\n");
}
}else{
printf("........ fail.\n");
hasReactionPara = false;
}
file.close();
}
std::vector<double> CalExTheta(double e, double z){
if( !hasReactionPara) return {TMath::QuietNaN(), TMath::QuietNaN()};
double y = e + mass; // to give the KE + mass of proton;
double Z = alpha * gamm * betRel * z;
double H = TMath::Sqrt(TMath::Power(gamm * betRel,2) * (y*y - mass * mass) ) ;
if( TMath::Abs(Z) < H ) {
///using Newton's method to solve 0 == H * sin(phi) - G * tan(phi) - Z = f(phi)
double tolerrence = 0.001;
double phi = 0; ///initial phi = 0 -> ensure the solution has f'(phi) > 0
double nPhi = 0; /// new phi
int iter = 0;
do{
phi = nPhi;
nPhi = phi - (H * TMath::Sin(phi) - G * TMath::Tan(phi) - Z) / (H * TMath::Cos(phi) - G /TMath::Power( TMath::Cos(phi), 2));
iter ++;
if( iter > 10 || TMath::Abs(nPhi) > TMath::PiOver2()) break;
}while( TMath::Abs(phi - nPhi ) > tolerrence);
phi = nPhi;
/// check f'(phi) > 0
double Df = H * TMath::Cos(phi) - G / TMath::Power( TMath::Cos(phi),2);
if( Df > 0 && TMath::Abs(phi) < TMath::PiOver2() ){
double K = H * TMath::Sin(phi);
double x = TMath::ACos( mass / ( y * gamm - K));
double momt = mass * TMath::Tan(x); /// momentum of particel b or B in CM frame
double EB = TMath::Sqrt(mass*mass + Et*Et - 2*Et*TMath::Sqrt(momt*momt + mass * mass));
Ex = EB - massB;
double hahaha1 = gamm* TMath::Sqrt(mass * mass + momt * momt) - y;
double hahaha2 = gamm* betRel * momt;
thetaCM = TMath::ACos(hahaha1/hahaha2) * TMath::RadToDeg();
}else{
Ex = TMath::QuietNaN();
thetaCM = TMath::QuietNaN();
}
}else{
Ex = TMath::QuietNaN();
thetaCM = TMath::QuietNaN();
}
return {Ex, thetaCM};
}
//************************************** TCutG
TObjArray * LoadListOfTCut(TString fileName, TString cutName = "cutList"){
TObjArray * cutList = nullptr;
TFile * fCut = new TFile(fileName);
bool isCutFileOpen = fCut->IsOpen();
if(!isCutFileOpen) {
printf( "Failed to open rdt-cutfile 1 : %s\n" , fileName.Data());
}else{
cutList = (TObjArray *) fCut->FindObjectAny(cutName);
if( cutList ){
int numCut = cutList->GetEntries();
printf("=========== found %d cutG in %s \n", numCut, fCut->GetName());
for(int i = 0; i < numCut ; i++){
printf("cut name : %s , VarX: %s, VarY: %s, numPoints: %d \n",
cutList->At(i)->GetName(),
((TCutG*)cutList->At(i))->GetVarX(),
((TCutG*)cutList->At(i))->GetVarY(),
((TCutG*)cutList->At(i))->GetN()
);
}
}
}
return cutList;
}
TCutG * LoadSingleTCut( TString fileName, TString cutName = "cutEZ"){
TCutG * cut = nullptr;
TFile * fCut = new TFile(fileName);
bool isCutFileOpen = fCut->IsOpen();
if( !isCutFileOpen) {
printf( "Failed to open E-Z cutfile : %s\n" , fileName.Data());
}else{
cut = (TCutG *) fCut->FindObjectAny(cutName);
if( cut != NULL ) {
printf("Found EZ cut| name : %s, VarX: %s, VarY: %s, numPoints: %d \n",
cut->GetName(),
cut->GetVarX(),
cut->GetVarY(),
cut->GetN()
);
}
}
return cut;
}
//************************************** Others
std::vector<std::vector<double>> combination(std::vector<double> arr, int r){ std::vector<std::vector<double>> combination(std::vector<double> arr, int r){
std::vector<std::vector<double>> output; std::vector<std::vector<double>> output;
@ -477,7 +777,6 @@ std::vector<std::vector<double>> FindMatchingPair(std::vector<double> enX, std::
} }
printf("fitEnergy = ");for( int k = 0; k < (int) fitEnergy.size() ; k++){ printf("%7.2f, ", fitEnergy[k]); }; printf("\n"); printf("fitEnergy = ");for( int k = 0; k < (int) fitEnergy.size() ; k++){ printf("%7.2f, ", fitEnergy[k]); }; printf("\n");
printf("refEnergy = ");for( int k = 0; k < (int) refEnergy.size() ; k++){ printf("%7.2f, ", refEnergy[k]); }; printf("\n"); printf("refEnergy = ");for( int k = 0; k < (int) refEnergy.size() ; k++){ printf("%7.2f, ", refEnergy[k]); }; printf("\n");
@ -490,4 +789,6 @@ std::vector<std::vector<double>> FindMatchingPair(std::vector<double> enX, std::
} }
}
#endif #endif

57
armory/AutoFit.C
View File

@ -11,16 +11,28 @@
#define AutoFit_C #define AutoFit_C
#include <TF1.h> #include <TF1.h>
#include <TH1.h>
#include <TH2.h>
#include <TGraph.h> #include <TGraph.h>
#include <TColor.h> #include <TColor.h>
#include <TSpectrum.h> #include <TSpectrum.h>
#include <TMath.h> #include <TMath.h>
#include <TRandom.h> #include <TRandom.h>
#include <TMarker.h> #include <TMarker.h>
#include <TCanvas.h>
#include <TROOT.h>
#include <TStyle.h>
#include <TLatex.h>
#include <vector> #include <vector>
#include <algorithm>
#include <cstdio>
#include <string>
#include <fstream>
namespace AutoFit{
//Global fit paramaters //Global fit paramaters
std::vector<double> BestFitMean; std::vector<double> BestFitMean;
std::vector<double> BestFitCount; std::vector<double> BestFitCount;
std::vector<double> BestFitSigma; std::vector<double> BestFitSigma;
@ -91,9 +103,9 @@ TColor RGBWheel(double ang){
ang = ang * TMath::DegToRad(); ang = ang * TMath::DegToRad();
double r = max(0., (1+2*cos(ang))/3.); double r = std::max(0., (1+2*cos(ang))/3.);
double g = max(0., (1 - cos(ang) + sqrt(3)* sin(ang))/3.); double g = std::max(0., (1 - cos(ang) + sqrt(3)* sin(ang))/3.);
double b = max(0., (1 - cos(ang) - sqrt(3)* sin(ang))/3.); double b = std::max(0., (1 - cos(ang) - sqrt(3)* sin(ang))/3.);
TColor col(r,g,b); TColor col(r,g,b);
@ -273,8 +285,8 @@ void GoodnessofFit(TH1F * hist, TF1 * fit){
printf("################################################\n"); printf("################################################\n");
} }
vector<double> energy, height, sigma, lowE, highE ; std::vector<double> energy, height, sigma, lowE, highE ;
vector<int> energyFlag, sigmaFlag; std::vector<int> energyFlag, sigmaFlag;
bool loadFitParameters(TString fitParaFile){ bool loadFitParameters(TString fitParaFile){
@ -289,7 +301,7 @@ bool loadFitParameters(TString fitParaFile){
printf("====================================================================== \n"); printf("====================================================================== \n");
printf("----- loading fit parameters from : %s", fitParaFile.Data()); printf("----- loading fit parameters from : %s", fitParaFile.Data());
ifstream file; std::ifstream file;
file.open(fitParaFile.Data()); file.open(fitParaFile.Data());
if( !file){ if( !file){
@ -298,7 +310,7 @@ bool loadFitParameters(TString fitParaFile){
} }
while( file.good()) { while( file.good()) {
string tempLine; std::string tempLine;
getline(file, tempLine); getline(file, tempLine);
if( tempLine.substr(0, 1) == "#" ) continue; if( tempLine.substr(0, 1) == "#" ) continue;
@ -307,7 +319,7 @@ bool loadFitParameters(TString fitParaFile){
///printf("%s\n", tempLine.c_str()); ///printf("%s\n", tempLine.c_str());
vector<string> temp = SplitStrAF(tempLine, " "); std::vector<std::string> temp = SplitStrAF(tempLine, " ");
if( temp.size() < 7 ) continue; if( temp.size() < 7 ) continue;
@ -491,7 +503,7 @@ void fitGaussPol(TH1F * hist, double mean, double sigmaMax, int degPol, double x
//######################################## //########################################
//#### fit 2 gauss + pol-1 // not updated //#### fit 2 gauss + pol-1 // not updated
//######################################## //########################################
vector<double> fit2GaussP1(TH1F * hist, double mean1, double sigma1, std::vector<double> fit2GaussP1(TH1F * hist, double mean1, double sigma1,
double mean2, double sigma2, double mean2, double sigma2,
double xMin, double xMax, TString optStat = "", bool newCanvas = false){ double xMin, double xMax, TString optStat = "", bool newCanvas = false){
@ -503,7 +515,7 @@ vector<double> fit2GaussP1(TH1F * hist, double mean1, double sigma1,
recentFitMethod = "fit2GaussP1"; recentFitMethod = "fit2GaussP1";
vector<double> output; std::vector<double> output;
output.clear(); output.clear();
gStyle->SetOptStat(optStat); gStyle->SetOptStat(optStat);
@ -684,7 +696,7 @@ void fitGF3Pol(TH1F * hist, double mean, double sigmaMax, double ratio, double b
//GoodnessofFit(hist, fit); //GoodnessofFit(hist, fit);
/// 0 1 2 3 4 5 /// 0 1 2 3 4 5
string label[8] = {"Area", "mean", "sigma", "ratio", "beta", "step"}; std::string label[8] = {"Area", "mean", "sigma", "ratio", "beta", "step"};
printf("---------- The detail\n"); printf("---------- The detail\n");
for(int i = 0 ; i < 6 ; i++){ for(int i = 0 ; i < 6 ; i++){
printf("%d | %8s | %f (%f) \n", i, label[i].c_str(), paraA[i], paraE[i]); printf("%d | %8s | %f (%f) \n", i, label[i].c_str(), paraA[i], paraE[i]);
@ -749,7 +761,7 @@ void fitGF3Pol(TH1F * hist, double mean, double sigmaMax, double ratio, double b
//############################################## //##############################################
//##### Auto Fit n-Gauss with estimated BG //##### Auto Fit n-Gauss with estimated BG
//############################################## //##############################################
vector<double> fitAuto(TH1F * hist, int bgEst = 10, std::vector<double> fitAuto(TH1F * hist, int bgEst = 10,
double peakThreshold = 0.05, double peakThreshold = 0.05,
double sigmaMax = 0, double sigmaMax = 0,
int peakDensity = 4, int peakDensity = 4,
@ -817,7 +829,7 @@ vector<double> fitAuto(TH1F * hist, int bgEst = 10,
int * inX = new int[nPeaks]; int * inX = new int[nPeaks];
TMath::Sort(nPeaks, xpos, inX, 0 ); TMath::Sort(nPeaks, xpos, inX, 0 );
vector<double> energy, height; std::vector<double> energy, height;
for( int j = 0; j < nPeaks; j++){ for( int j = 0; j < nPeaks; j++){
energy.push_back(xpos[inX[j]]); energy.push_back(xpos[inX[j]]);
height.push_back(ypos[inX[j]]); height.push_back(ypos[inX[j]]);
@ -930,7 +942,7 @@ vector<double> fitAuto(TH1F * hist, int bgEst = 10,
double bw = specS->GetBinWidth(1); double bw = specS->GetBinWidth(1);
vector<double> exPos; std::vector<double> exPos;
for(int i = 0; i < nPeaks ; i++){ for(int i = 0; i < nPeaks ; i++){
exPos.push_back(paraA[numParPerPeak*i+1]); exPos.push_back(paraA[numParPerPeak*i+1]);
printf("%2d , count: %8.0f(%3.0f), mean: %8.4f(%8.4f), sigma: %8.4f(%8.4f) \n", printf("%2d , count: %8.0f(%3.0f), mean: %8.4f(%8.4f), sigma: %8.4f(%8.4f) \n",
@ -1004,7 +1016,7 @@ vector<double> fitAuto(TH1F * hist, int bgEst = 10,
//######################################## //########################################
//###### NOT tested //###### NOT tested
//######################################## //########################################
vector<double> fitNGF3(TH1 * hist, int bgEst = 10, std::vector<double> fitNGF3(TH1 * hist, int bgEst = 10,
double peakThreshold = 0.1, double peakThreshold = 0.1,
double sigmaMax = 20, double sigmaMax = 20,
int peakDensity = 4, int peakDensity = 4,
@ -1067,7 +1079,7 @@ vector<double> fitNGF3(TH1 * hist, int bgEst = 10,
int * inX = new int[nPeaks]; int * inX = new int[nPeaks];
TMath::Sort(nPeaks, xpos, inX, 0 ); TMath::Sort(nPeaks, xpos, inX, 0 );
vector<double> energy, height; std::vector<double> energy, height;
for( int j = 0; j < nPeaks; j++){ for( int j = 0; j < nPeaks; j++){
energy.push_back(xpos[inX[j]]); energy.push_back(xpos[inX[j]]);
height.push_back(ypos[inX[j]]); height.push_back(ypos[inX[j]]);
@ -1137,7 +1149,7 @@ vector<double> fitNGF3(TH1 * hist, int bgEst = 10,
double bw = specS->GetBinWidth(1); double bw = specS->GetBinWidth(1);
vector<double> exPos; std::vector<double> exPos;
for(int i = 0; i < nPeaks ; i++){ for(int i = 0; i < nPeaks ; i++){
exPos.push_back(paraA[numParPerPeak*i+1]); exPos.push_back(paraA[numParPerPeak*i+1]);
double totCount = paraA[numParPerPeak*i] + paraA[numParPerPeak*i+3]; double totCount = paraA[numParPerPeak*i] + paraA[numParPerPeak*i+3];
@ -1987,10 +1999,10 @@ void fitNGaussPolSub(TH1F * hist, int degPol, TString fitFile = "AutoFit_para.t
int nClick = 0; int nClick = 0;
bool peakFlag = 1; bool peakFlag = 1;
vector<double> xPeakList; std::vector<double> xPeakList;
vector<double> yPeakList; std::vector<double> yPeakList;
vector<double> xBGList; std::vector<double> xBGList;
vector<double> yBGList; std::vector<double> yBGList;
TH1F * tempHist; TH1F * tempHist;
int markerStyle = 23; int markerStyle = 23;
@ -2844,5 +2856,6 @@ void fitSpecial(TH1F * hist, TString fitFile = "AutoFit_para.txt"){
} }
}
#endif #endif

1
armory/GeneralSortAgent.C
View File

@ -49,5 +49,6 @@ void GeneralSortAgent(Int_t runNum, int nWorker = 1, int traceMethod = -1){
f1->Close(); f1->Close();
f2->Close(); f2->Close();
delete chain;
} }

481
armory/Monitor_Util.C Normal file
View File

@ -0,0 +1,481 @@
#ifndef Utilities
#define Utilities
#include <TMath.h>
#include <TCanvas.h>
#include "../working/Mapping.h"
//This file runs after on Monitor.C
//This file is parasite on Monitor.C
int canvasSize[2] = {2000, 1200};
void listDraws(void) {
printf("------------------- List of Plots -------------------\n");
printf(" newCanvas() - Create a new Canvas\n");
printf("-----------------------------------------------------\n");
printf(" rawID() - Raw \033[0;31me\033[0m, \033[0;31mring\033[0m, \033[0;31mxf\033[0m, \033[0;31mxn\033[0m vs detID\n");
printf(" rawe() - Raw \033[0;31me\033[0m for all %d detectors\n", mapping::NARRAY);
printf(" rawxf() - Raw \033[0;31mxf\033[0m for all %d detectors\n", mapping::NARRAY);
printf(" rawxn() - Raw \033[0;31mxn\033[0m for all %d detectors\n", mapping::NARRAY);
printf(" xfVxn() - Raw \033[0;31mxf\033[0m vs. \033[0;31mxn\033[0m for all %d detectors\n", mapping::NARRAY);
printf(" eVxs() - Raw \033[0;31me\033[0m vs. Raw \033[0;31mxs = xf + xn\033[0m for all %d detectors\n", mapping::NARRAY);
printf(" eVx() - Raw \033[0;31me\033[0m vs. RAW \033[0;31mx\033[0m for all %d detectors\n", mapping::NARRAY);
printf("-----------------------------------------------------\n");
printf(" eVxsCal() - Raw \033[0;31me\033[0m vs. Corrected \033[0;31mxs\033[0m for all %d detectors\n", mapping::NARRAY);
printf(" ecal() - Calibrated \033[0;31me\033[0m for all %d detectors\n", mapping::NARRAY);
printf(" ecal2() - Calibrated \033[0;31me\033[0m for all %d detectors (same row or same col)\n", mapping::NARRAY);
printf("xfCalVxnCal() - Calibrated \033[0;31mxf\033[0m vs. \033[0;31mxn\033[0m for all %d detectors\n", mapping::NARRAY);
printf("-----------------------------------------------------\n");
printf(" eCalVxCal() - Cal \033[0;31me\033[0m vs. \033[0;31mx\033[0m for all %d detectors\n", mapping::NARRAY);
printf("-----------------------------------------------------\n");
printf(" recoils() - Raw DE vs. E Recoil spectra\n");
// printf(" elum() - Luminosity Energy Spectra\n");
// printf(" ic() - Ionization Chamber Spectra\n");
printf("-----------------------------------------------------\n");
printf(" eCalVz() - Energy vs. Z\n");
printf(" eCalVzRow() - Energy vs. Z for each row\n");
printf(" excite() - Excitation Energy\n");
printf(" ExThetaCM() - Ex vs ThetaCM\n");
printf(" ExVxCal() - Ex vs X for all %d detectors\n", mapping::NARRAY);
//printf(" eSVeRaw() - e(Ex,z) vs eRaw for all %d detectors\n", mapping::NARRAY);
printf("-----------------------------------------------------\n");
printf(" ShowFitMethod() - Shows various fitting methods \n");
printf(" RDTCutCreator() - Create RDT Cuts [May need to edit]\n");
printf(" Check_rdtGate() - Check RDT Cuts. \n");
printf(" readTrace() - read trace from gen_runXXX.root \n");
printf(" readRawTrace() - read trace from runXXX.root \n");
// printf(" Check1D() - Count Integral within a range\n");
printf("-----------------------------------------------------\n");
printf(" %s\n", canvasTitle.Data());
printf("-----------------------------------------------------\n");
}
int xD, yD;
void FindBesCanvasDivision(int nPad){
for( int i = TMath::Sqrt(nPad); i >= 2 ; i--){
if( nPad % i == 0 ) {
yD = i;
xD = nPad/i;
break;
}
}
}
int nCanvas=0;
void newCanvas(int sizeX = 800, int sizeY = 600, int posX = 0, int posY = 0){
TString name; name.Form("cNewCanvas%d | %s", nCanvas, canvasTitle.Data());
TCanvas * cNewCanvas = new TCanvas(name, name, posX, posY, sizeX, sizeY);
nCanvas++;
cNewCanvas->cd();
}
//TODO set histogram y-axis all the same heigh
void rawID(){
TCanvas * cRawID = (TCanvas *) gROOT->FindObjectAny("cRawID");
if( cRawID == NULL ) cRawID = new TCanvas("cRawID", Form("Raw e, Ring, xf, xn vs ID | %s", canvasTitle.Data()), canvasSize[0], canvasSize[1]);
cRawID->Clear();cRawID->Divide(2,2);
cRawID->cd(1); cRawID->cd(1)->SetGrid(); heVID->Draw("colz");
cRawID->cd(2); cRawID->cd(2)->SetGrid(); hMultiHit->Draw();
cRawID->cd(3); cRawID->cd(3)->SetGrid(); hxfVID->Draw("colz");
cRawID->cd(4); cRawID->cd(4)->SetGrid(); hxnVID->Draw("colz");
}
void rawe(Bool_t isLogy = false) {
TCanvas *cRawE = (TCanvas *) gROOT->FindObjectAny("cRawE");
if( cRawE == NULL ) cRawE = new TCanvas("cRawE",Form("E raw | %s", canvasTitle.Data()),canvasSize[0], canvasSize[1]);
cRawE->Clear();cRawE->Divide(numCol,numRow);
for (Int_t i=0; i < mapping::NARRAY; i++) {
cRawE->cd(i+1);
cRawE->cd(i+1)->SetGrid();
if( isLogy ) cRawE->cd(i+1)->SetLogy();
he[i]->Draw("");
}
}
void rawxf(Bool_t isLogy = false) {
TCanvas *cRawXf = (TCanvas *) gROOT->FindObjectAny("cRawXf");
if( cRawXf == NULL ) cRawXf = new TCanvas("cRawXf",Form("Xf raw | %s", canvasTitle.Data()),canvasSize[0], canvasSize[1]);
cRawXf->Clear();cRawXf->Divide(numCol,numRow);
for (Int_t i=0; i<mapping::NARRAY; i++) {
cRawXf->cd(i+1);
cRawXf->cd(i+1)->SetGrid();
if( isLogy ) cRawXf->cd(i+1)->SetLogy();
hxf[i]->Draw("");
}
}
void rawxn(Bool_t isLogy = false) {
TCanvas *cRawXn = (TCanvas *) gROOT->FindObjectAny("cRawXn");
if( cRawXn == NULL ) cRawXn = new TCanvas("cRawXn",Form("Xn raw | %s", canvasTitle.Data()),canvasSize[0], canvasSize[1]);
cRawXn->Clear();cRawXn->Divide(numCol,numRow);
for (Int_t i=0; i<mapping::NARRAY; i++) {
cRawXn->cd(i+1);
cRawXn->cd(i+1)->SetGrid();
if( isLogy ) cRawXn->cd(i+1)->SetLogy();
hxn[i]->Draw("");
}
}
void xfVxn(void) {
TCanvas *cxfxn = (TCanvas *) gROOT->FindObjectAny("cxfxn");
if( cxfxn == NULL ) cxfxn = new TCanvas("cxfxn",Form("XF vs. XN | %s", canvasTitle.Data()),canvasSize[0], canvasSize[1]);
cxfxn->Clear(); cxfxn->Divide(numCol,numRow);
for (Int_t i=0;i<mapping::NARRAY;i++) {
cxfxn->cd(i+1);
cxfxn->cd(i+1)->SetGrid();
hxfVxn[i]->Draw("col");
}
}
void eVxs(void) {
TCanvas *cxfxne = (TCanvas *) gROOT->FindObjectAny("cxfxne");
if( cxfxne == NULL ) cxfxne = new TCanvas("cxfxne",Form("E - XF+XN | %s", canvasTitle.Data()),canvasSize[0], canvasSize[1]);
cxfxne->Clear(); cxfxne->Divide(numCol,numRow);
TLine line(0,0, 4000, 4000); line.SetLineColor(2);
for (Int_t i=0;i<mapping::NARRAY;i++) {
cxfxne->cd(i+1);
cxfxne->cd(i+1)->SetGrid();
heVxs[i]->Draw("col");
line.Draw("same");
}
}
void ecal(void) {
TCanvas *cEC = (TCanvas *) gROOT->FindObjectAny("cEC");
if(cEC == NULL) cEC = new TCanvas("cEC",Form("E corrected | %s", canvasTitle.Data()),canvasSize[0], canvasSize[1]);
cEC->Clear();cEC->Divide(numCol,numRow);
for (Int_t i=0; i<mapping::NARRAY; i++) {
cEC->cd(i+1);
cEC->cd(i+1)->SetGrid();
heCal[i]->Draw("");
}
TCanvas *cEC2 = (TCanvas *) gROOT->FindObjectAny("cEC2");
if(cEC2 == NULL) cEC2 = new TCanvas("cEC2",Form("E corrected | %s", canvasTitle.Data()),canvasSize[0], canvasSize[1]);
cEC2->Clear();
heCalID->Draw("colz");
}
void ecal2(void) {
TCanvas *cECall = (TCanvas *) gROOT->FindObjectAny("cECall");
if(cECall == NULL) cECall = new TCanvas("cECall",Form("E corrected | %s", canvasTitle.Data()),canvasSize[0], canvasSize[1]);
int maxRC = TMath::Max(numRow, numCol);
cECall->Clear();cECall->Divide(maxRC,2);
//plot same position
for(int i = 0; i < numCol ; i++){
cECall->cd(i+1);
cECall->cd(i+1)->SetGrid();
heCal[i]->SetLineColor(1); heCal[i]->Draw("");
for(int j = 1 ; j < numRow; j++){
heCal[numCol*j + i]->SetLineColor(j+1);
heCal[numCol*j + i]->Draw("same");
}
}
//plot same side
TH1F * heC2[mapping::NARRAY];
for (Int_t i = 0; i< numRow; i++) {
cECall->cd(i+maxRC+1);
cECall->cd(i+maxRC+1)->SetGrid();
heC2[numCol*i] = (TH1F* )heCal[numCol*i]->Clone();
heC2[numCol*i]->SetLineColor(1); heC2[numCol*i]->Draw("");
for( int j = 1; j < numCol; j++){
heC2[numCol*i+j] = (TH1F* )heCal[numCol*i+j]->Clone();
heC2[numCol*i+j]->SetLineColor(j+1);
heC2[numCol*i+j]->Draw("same");
}
}
}
void xfCalVxnCal(void) {
TCanvas *cxfxnC = (TCanvas *) gROOT->FindObjectAny("cxfxnC");
if(cxfxnC == NULL) cxfxnC = new TCanvas("cxfxnC",Form("XF vs XN corrected | %s", canvasTitle.Data()),canvasSize[0], canvasSize[1]);
cxfxnC->Clear(); cxfxnC->Divide(numCol,numRow);
for (Int_t i=0;i<mapping::NARRAY;i++) {
cxfxnC->cd(i+1);
cxfxnC->cd(i+1)->SetGrid();
hxfCalVxnCal[i]->Draw("col");
}
}
void eVxsCal(void) {
TCanvas *cxfxneC = (TCanvas *) gROOT->FindObjectAny("cxfxneC");
if(cxfxneC == NULL)cxfxneC = new TCanvas("cxfxneC",Form("Raw E - Corrected XF+XN | %s", canvasTitle.Data()),canvasSize[0], canvasSize[1]);
cxfxneC->Clear(); cxfxneC->Divide(numCol,numRow);
TLine line(0,0, 4000, 4000); line.SetLineColor(2);
for (Int_t i=0;i<mapping::NARRAY;i++) {
cxfxneC->cd(i+1);
cxfxneC->cd(i+1)->SetGrid();
heVxsCal[i]->Draw("col");
line.Draw("same");
}
}
void eVx(void) {
TCanvas *ceVx = (TCanvas *) gROOT->FindObjectAny("ceVx");
if(ceVx == NULL) ceVx = new TCanvas("ceVx",Form("E vs. X = (xf-xn)/e | %s", canvasTitle.Data()),canvasSize[0], canvasSize[1]);
ceVx->Clear(); ceVx->Divide(numCol,numRow);
for (Int_t i=0;i<mapping::NARRAY;i++) {
ceVx->cd(i+1); heVx[i]->Draw("col");
}
}
void eCalVxCal(void) {
TCanvas *cecalVxcal = (TCanvas *) gROOT->FindObjectAny("cecalVxcal");
if( cecalVxcal == NULL ) cecalVxcal = new TCanvas("cecalVxcal",Form("ECALVXCAL | %s",canvasTitle.Data()),canvasSize[0], canvasSize[1]);
cecalVxcal->Clear(); cecalVxcal->Divide(numCol,numRow);
for (Int_t i=0;i<mapping::NARRAY;i++) {
cecalVxcal->cd(i+1);
heCalVxCal[i]->SetMarkerStyle(7);
heCalVxCal[i]->Draw("");
}
}
void eCalVxCalG(void) {
TCanvas *cecalVxcalG = (TCanvas *) gROOT->FindObjectAny("cecalVxcalG");
if( cecalVxcalG == NULL ) cecalVxcalG = new TCanvas("cecalVxcalG",Form("ECALVXCAL | %s",canvasTitle.Data()),canvasSize[0], canvasSize[1]);
cecalVxcalG->Clear(); cecalVxcalG->Divide(numCol,numRow);
for (Int_t i=0;i<mapping::NARRAY;i++) {
cecalVxcalG->cd(i+1);
heCalVxCalG[i]->SetMarkerStyle(7);
heCalVxCalG[i]->Draw("");
}
}
// void elum(void) {
// TCanvas *celum = (TCanvas *) gROOT->FindObjectAny("celum");
// if( celum == NULL ) celum = new TCanvas("celum",Form("ELUM | %s", canvasTitle.Data()),1000,1000);
// celum->Clear(); celum->Divide(4,4);
// for( int i = 0 ; i < 16 ; i++){
// celum->cd(i+1);
// helum[i]->Draw("");
// }
// TCanvas *celumID = (TCanvas *) gROOT->FindObjectAny("celumID");
// if( celumID == NULL ) celumID = new TCanvas("celumID",Form("ELUM-ID | %s", canvasTitle.Data()),1100, 0, 500,500);
// celumID->Clear();
// helumID->Draw("colz");
// }
// void apollo(void) {
// TCanvas *capollo = (TCanvas *) gROOT->FindObjectAny("capollo");
// if( capollo == NULL ) capollo = new TCanvas("capollo",Form("APOLLO | %s", canvasTitle.Data()),1000,1000);
// capollo->Clear(); capollo->Divide(5,4);
// for( int i = 0 ; i < 20 ; i++){
// capollo->cd(i+1);
// hApollo[i]->Draw("");
// }
// }
void recoils(bool isLogz = false) {
TCanvas *crdt = (TCanvas *) gROOT->FindObjectAny("crdt");
if( crdt == NULL ) crdt = new TCanvas("crdt",Form("raw RDT | %s", canvasTitle.Data()),1700, 0, 1000,1000);
crdt->Clear();crdt->Divide(2,2);
if( isLogz ) crdt->cd(1)->SetLogz(); crdt->cd(1); hrdt2D[0]->Draw("col");
if( isLogz ) crdt->cd(2)->SetLogz(); crdt->cd(2); hrdt2D[1]->Draw("col");
if( isLogz ) crdt->cd(3)->SetLogz(); crdt->cd(3); hrdt2D[3]->Draw("col");
if( isLogz ) crdt->cd(4)->SetLogz(); crdt->cd(4); hrdt2D[2]->Draw("col");
//TCanvas *crdtSum = (TCanvas *) gROOT->FindObjectAny("crdtSum");
//if( crdtSum == NULL ) crdtSum = new TCanvas("crdtSum",Form("raw RDT dE-Esum | %s", canvasTitle.Data()),100, 0, 1000,1000);
//crdtSum->Clear();crdtSum->Divide(2,2);
//
//if( isLogz ) crdtSum->cd(1)->SetLogz(); crdtSum->cd(1); hrdt2Dsum[0]->Draw("col");
//if( isLogz ) crdtSum->cd(2)->SetLogz(); crdtSum->cd(2); hrdt2Dsum[1]->Draw("col");
//if( isLogz ) crdtSum->cd(3)->SetLogz(); crdtSum->cd(3); hrdt2Dsum[3]->Draw("col");
//if( isLogz ) crdtSum->cd(4)->SetLogz(); crdtSum->cd(4); hrdt2Dsum[2]->Draw("col");
TCanvas *crdtID = (TCanvas *) gROOT->FindObjectAny("crdtID");
if( crdtID == NULL ) crdtID = new TCanvas("crdtID",Form("raw RDT ID | %s", canvasTitle.Data()),0,0, 500, 500);
crdtID->Clear();
if( isLogz ) crdtID->SetLogz();
hrdtID->Draw("colz");
TCanvas *crdtS = (TCanvas *) gROOT->FindObjectAny("crdtS");
if( crdtS == NULL ) crdtS = new TCanvas("crdtS",Form("raw RDT | %s", canvasTitle.Data()),600, 0, 1000, 1000);
crdtS->Clear(); crdtS->Divide(2,4);
for( int i = 0; i < 8; i ++){
crdtS->cd(i+1);
if( isLogz ) crdtS->cd(i+1)->SetLogy();
hrdt[i]->Draw("");
}
//TCanvas *crdtTAC = (TCanvas *) gROOT->FindObjectAny("crdtTAC");
//if( crdtTAC == NULL ) crdtTAC = new TCanvas("crdtTAC",Form("raw RDTtac | %s", canvasTitle.Data()),0,0, 1600, 1600);
//crdtTAC->Clear(); crdtTAC->Divide(2,4);
//for( int i = 0; i < 8; i ++){
// crdtTAC->cd(i+1);
// htacRecoil[i]->Draw("colz");
//}
//for( int i = 0; i < 4; i ++){
// crdtTAC->cd(i+1+8);
// htacRecoilsum[i]->Draw("colz");
//}
}
void eCalVz(void) {
TCanvas *cecalVz = (TCanvas *) gROOT->FindObjectAny("cecalVz");
if( cecalVz == NULL ) cecalVz = new TCanvas("cevalVz",Form("ECALVZ : %s", canvasTitle.Data()),1000,650);
cecalVz->Clear(); cecalVz->Divide(2,1);
gStyle->SetOptStat("neiou");
cecalVz->cd(1);heCalVz->Draw("col");
cecalVz->cd(2);heCalVzGC->Draw("col");
}
void eCalVzRow() {
TCanvas *cecalVzRow = (TCanvas *) gROOT->FindObjectAny("cecalVzRow");
if( cecalVzRow == NULL ) cecalVzRow = new TCanvas("cevalVzRow",Form("eCal - Z : %s", canvasTitle.Data()),canvasSize[0], canvasSize[1]);
FindBesCanvasDivision(numRow);
cecalVzRow->Clear(); cecalVzRow->Divide(xD,yD);
gStyle->SetOptStat("neiou");
for(int row = 0; row < numRow; row ++){
cecalVzRow->cd(row+1);
cecalVzRow->cd(row+1)->SetGrid();
hecalVzRow[row]->Draw("colz");
}
}
void excite(void) {
TCanvas *cex = (TCanvas *) gROOT->FindObjectAny("cex");
if( cex == NULL ) cex = new TCanvas("cex",Form("EX : %s", canvasTitle.Data()),0, 0, 1000,650);
cex->Clear();
gStyle->SetOptStat("neiou");
hEx->Draw("");
TCanvas *cexI = (TCanvas *) gROOT->FindObjectAny("cexI");
if( cexI == NULL ) cexI = new TCanvas("cexI",Form("EX : %s", canvasTitle.Data()),500, 0, 1600,1000);
cexI->Clear();cexI->Divide(numCol,numRow);
gStyle->SetOptStat("neiou");
for( int i = 0; i < mapping::NARRAY; i++){
cexI->cd(i+1);
hExi[i]->Draw("");
}
}
void ExThetaCM(void) {
TCanvas *cExThetaCM = (TCanvas *) gROOT->FindObjectAny("cExThetaCM");
if( cExThetaCM == NULL ) cExThetaCM = new TCanvas("cExThetaCM",Form("EX - ThetaCM | %s", canvasTitle.Data()),650,650);
cExThetaCM->Clear();
gStyle->SetOptStat("neiou");
hExThetaCM->Draw("colz");
}
void ExVxCal(TString drawOpt = "") {
TCanvas *cExVxCal = (TCanvas *) gROOT->FindObjectAny("cExVxCal");
if( cExVxCal == NULL ) cExVxCal = new TCanvas("cExVxCal",Form("EX | %s", canvasTitle.Data()),1600,1000);
cExVxCal->Clear();
gStyle->SetOptStat("neiou");
cExVxCal->Divide(numCol,numRow);
for( int i = 0; i < mapping::NARRAY; i++){
cExVxCal->cd(i+1);
if( drawOpt == "" )hExVxCal[i]->SetMarkerStyle(7);
hExVxCal[i]->Draw(drawOpt);
}
}
//void eSVeRaw(void) {
// TCanvas *ceSVeRaw = (TCanvas *) gROOT->FindObjectAny("ceSVeRaw");
// if( ceSVeRaw == NULL ) ceSVeRaw = new TCanvas("ceSVeRaw",Form("e(Ex,z) vs eRaw | %s", canvasTitle.Data()),1000,650);
// ceSVeRaw->Clear();
// gStyle->SetOptStat("neiou");
//
// ceSVeRaw->Divide(numCol,numRow);
// for( int i = 0; i < mapping::NARRAY; i++){
// ceSVeRaw->cd(i+1);
// heSVeRaw[i]->SetMarkerStyle(7);
// heSVeRaw[i]->Draw("");
// }
//
//}
// void tac(void) {
// TCanvas *ctac = (TCanvas *) gROOT->FindObjectAny("ctac");
// if( ctac == NULL ) ctac = new TCanvas("ctac",Form("ARRAY-RDT | %s", canvasTitle.Data() ),1000,650);
// ctac->Clear();ctac->SetGrid(0);ctac->Divide(numCol,numRow);
// gStyle->SetOptStat("neiou");
// for (Int_t i=0;i<mapping::NARRAY;i++) {
// ctac->cd(i+1); htacArray[i]->Draw("");
// // cutG = (TCutG *)cutList->At(i);
// // cutG->Draw("same");
// }
// }
// void ic(){
// TCanvas *cic = (TCanvas *) gROOT->FindObjectAny("cic");
// if( cic == NULL ) cic = new TCanvas("cic",Form("Ionization Chamber | %s", canvasTitle.Data() ),1200,800);
// cic->Clear(); cic->SetGrid(0); cic->Divide(3,2);
// gStyle->SetOptStat("neiou");
// cic->cd(1); hic0->Draw();
// cic->cd(2); hic1->Draw();
// cic->cd(3); hic2->Draw();
// cic->cd(4); hic01->Draw("colz");
// cic->cd(5); hic02->Draw("colz");
// cic->cd(6); hic12->Draw("colz");
// }
// void Count1DH(TString name, TH1F * hist, TCanvas * canvas, int padID, double x1, double x2, Color_t color){
// int k1 = hist->FindBin(x1);
// int k2 = hist->FindBin(x2);
// int hight = 0 ;
// for( int i = k1; i < k2 ; i ++){
// int temp = hist->GetBinContent(i);
// if( temp > hight ) hight = temp;
// }
// hight = hight * 1.2;
// int max = hist->GetMaximum();
// canvas->cd(padID);
// if( color != 0 ){
// TBox box;
// box.SetFillColorAlpha(color, 0.1);
// box.DrawBox(x1, 0, x2, hight);
// }
// int count = hist->Integral(k1, k2);
// TLatex text;
// text.SetTextFont(82);
// text.SetTextSize(0.06);
// if( color != 0 ){
// text.SetTextColor(color);
// text.DrawLatex(x1, hight, Form("%d", count));
// }else{
// text.DrawLatex((x1+x2)/2., max, Form("%d", count));
// }
// printf(" %s : %d \n", name.Data(), count);
// }
#endif

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#define Monitors_cxx
#include <TH2.h>
#include <TH1.h>
#include <TF1.h>
#include <TStyle.h>
#include <TCutG.h>
#include <TGraph.h>
#include <TMath.h>
#include <TMultiGraph.h>
#include <TString.h>
#include <TLatex.h>
#include <TSystem.h>
#include <TMacro.h>
#include <TLine.h>
#include <TStopwatch.h>
#include <TCanvas.h>
#include <TBox.h>
#include <TDatime.h>
#include <TMD5.h>
#include <TObjArray.h>
#include <fstream>
#include <vector>
#include "../Cleopatra/Isotope.h"
#include "Mapping.h"
using namespace std;
//############################################ User setting
ULong64_t maxNumberEvent = 1000000000;
//---histogram setting
int rawEnergyRange[2] = { 100, 4000}; /// share with e, xf, xn
int energyRange[2] = { 0, 10}; /// in the E-Z plot
int rdtDERange[2] = { 0, 80};
int rdtERange[2] = { 0, 80};
int thetaCMRange[2] = {0, 80};
double exRange[3] = { 100, -2, 10}; /// bin [keV], low[MeV], high[MeV]
int coinTimeRange[2] = { -200, 200};
int timeRangeUser[2] = {0, 99999999}; /// min, use when cannot find time, this set the min and max
bool isUseArrayTrace = false;
bool isUseRDTTrace = false;
//---Gate
bool isTimeGateOn = true;
int timeGate[2] = {-20, 12}; /// min, max, 1 ch = 10 ns
double eCalCut[2] = {0.5, 50}; /// lower & higher limit for eCal
int dEgate[2] = { 500, 1500};
int Eresgate[2] = { 1000, 4000};
double thetaCMGate = 10; /// deg
double xGate = 0.9; ///cut out the edge
vector<int> skipDetID = {11, 16, 23} ;//{2, 11, 17}
TString rdtCutFile1 = "";
TString rdtCutFile2 = "";
TString ezCutFile = "";//"ezCut.root";
//############################################ end of user setting
/******************************************************************
* variable and histogram naming rules *
* name are case sensitive, so as any C/C++ code *
* *
* ID is dettector ID *
* *
* raw data from gen_tree are e, xf, xn, ring. *
* the x from raw data is x *
* *
* xf + xn = xs, s for sum *
* *
* calibrated data are eCal, xfCal, xnCal, ringCal. *
* the x from cal data is xCal *
* *
* xfCal + xnCal = xsCal *
* *
* since the z is always from xCal, so it calls z. *
* *
* Excitation energy calls Ex *
* *
* *
* TH2D is always using "V" to seperate 2 variables, like eVx *
* *
* histogram with TCutG, add suffix "GC" for Graphical-Cut. *
* *
*******************************************************************/
//======== raw data
TH1F** he;
TH1F** hxf;
TH1F** hxn;
TH2F** hxfVxn;
TH2F** heVxs;
TH1F* hMultiHit;
TH2F** heVx; // e vs (xf-xn)/e
TH2F* heVID;
TH2F* hxfVID;
TH2F* hxnVID;
//====== cal data
TH1F** heCal;
TH2F** hxfCalVxnCal;
TH2F** heVxsCal; // raw e vs xf
TH2F** heCalVxCal; // eCal vs xCal
TH2F** heCalVxCalG; // eCal vs xCal
TH2F* heCalID; // e vs detID
TH2F* heCalVz;
TH2F* heCalVzGC;
TH2F** hecalVzRow;
//====== Ex data
TH1F* hEx;
TH1F** hExi;
TH2F** hExVxCal;
TH2F* hExThetaCM;
TH1F* hExCut1;
TH1F* hExCut2;
//======= Recoil
TH2F* hrdtID;
TH1F** hrdt; // single recoil
TH1F** hrdtg;
TH2F** hrdt2D;
TH2F** hrdt2Dg;
TH2F** hrdt2Dsum;
TH1F* hrdtRate1;
TH1F* hrdtRate2;
//======= multi-Hit
TH2I *hmult;
TH1I *hmultEZ;
TH2I *hArrayRDTMatrix;
TH2I *hArrayRDTMatrixG;
//======= ARRAY-RDT time diff
TH1I *htdiff;
TH1I *htdiffg;
/***************************
***************************/
double zRange[2] = {-1000, 0}; // zMin, zMax
double Ex, thetaCM;
int padID = 0;
TLatex text;
int numCol, numRow;
ULong64_t NumEntries = 0;
ULong64_t ProcessedEntries = 0;
Float_t Frac = 0.1; ///Progress bar
TStopwatch StpWatch;
//======= Canvas
TCanvas *cCanvas;
TString canvasTitle;
int lastRunID;
bool contFlag;
double runTime=0;
//======= Recoil Cut
TCutG* cutG; //! //general temeprary pointer to cut
TObjArray * cutList1;
TObjArray * cutList2;
//======= Other Cuts
TCutG* EZCut;
Bool_t isEZCutFileOpen;
#include "Monitors.h"
//^###########################################################
//^ * Begin
//^###########################################################
void Monitors::Begin(TTree *tree){
TString option = GetOption();
NumEntries = tree->GetEntries();
canvasTitle = GetCanvasTitle();
lastRunID = -1;
contFlag = false;
printf("###########################################################\n");
printf("########## SOLARIS Monitors.C #########\n");
printf("###########################################################\n");
//===================================================== loading parameter
printf("################## loading parameter files\n");
AnalysisLib::LoadDetGeoAndReactionConfigFile();
AnalysisLib::LoadXNCorr();
AnalysisLib::LoadXFXN2ECorr();
AnalysisLib::LoadXScaleCorr();
AnalysisLib::LoadECorr();
AnalysisLib::LoadRDTCorr();
AnalysisLib::LoadReactionParas(true);
if( (int) AnalysisLib::xnCorr.size() < mapping::NARRAY ) { isXNCorrOK = false; printf("!!!!!!!! size of xnCorr < NARRAY .\n"); }
if( (int) AnalysisLib::xfxneCorr.size() < mapping::NARRAY ) { isXFXNCorrOK = false; printf("!!!!!!!! size of xfxneCorr < NARRAY .\n"); }
if( (int) AnalysisLib::eCorr.size() < mapping::NARRAY ) { isXScaleCorrOK = false; printf("!!!!!!!! size of eCorr < NARRAY .\n"); }
if( (int) AnalysisLib::xScale.size() < mapping::NARRAY ) { isECorrOK = false; printf("!!!!!!!! size of xScale < NARRAY .\n"); }
if( (int) AnalysisLib::rdtCorr.size() < mapping::NRDT ) { isRDTCorrOK = false; printf("!!!!!!!! size of rdtCorr < NRDT .\n"); }
numRow = AnalysisLib::detGeo.nDet;
numCol = mapping::NARRAY/numRow;
//================ Get Recoil cuts;
cutG = new TCutG();
cutList1 = AnalysisLib::LoadListOfTCut(rdtCutFile1, "cutList");
cutList2 = AnalysisLib::LoadListOfTCut(rdtCutFile2, "cutList");
//================ Get EZ cuts;
EZCut = AnalysisLib::LoadSingleTCut(ezCutFile);
//========================= Generate all of the histograms needed for drawing later on
printf("======================================== Histograms declaration\n");
gROOT->cd();
he = new TH1F * [mapping::NARRAY];
hxf = new TH1F * [mapping::NARRAY];
hxn = new TH1F * [mapping::NARRAY];
hxfVxn = new TH2F * [mapping::NARRAY];
heVxs = new TH2F * [mapping::NARRAY];
heVx = new TH2F * [mapping::NARRAY];
heCal = new TH1F * [mapping::NARRAY];
hxfCalVxnCal = new TH2F * [mapping::NARRAY];
heVxsCal = new TH2F * [mapping::NARRAY];
heCalVxCal = new TH2F * [mapping::NARRAY];
heCalVxCalG = new TH2F * [mapping::NARRAY];
for (Int_t i = 0; i < mapping::NARRAY; i++) {//array loop
he[i] = new TH1F(Form("he%d", i), Form("Raw e (ch=%d); e (channel); count", i), 2000, rawEnergyRange[0], rawEnergyRange[1]);
hxf[i] = new TH1F(Form("hxf%d", i), Form("Raw xf (ch=%d); xf (channel); count", i), 200, rawEnergyRange[0], rawEnergyRange[1]);
hxn[i] = new TH1F(Form("hxn%d", i), Form("Raw xn (ch=%d); xn (channel); count", i), 200, rawEnergyRange[0], rawEnergyRange[1]);
hxfVxn[i] = new TH2F(Form("hxfVxn%d",i), Form("Raw xf vs. xn (ch=%d);xf (channel);xn (channel)",i), 500, 0, rawEnergyRange[1], 500, 0, rawEnergyRange[1]);
heVxs[i] = new TH2F(Form("heVxs%d", i), Form("Raw e vs xf+xn (ch=%d); xf+xn (channel); e (channel)", i), 500, rawEnergyRange[0], rawEnergyRange[1], 500, rawEnergyRange[0], rawEnergyRange[1]);
heVx[i] = new TH2F(Form("heVx%d",i), Form("Raw PSD E vs. X (ch=%d);X (channel);E (channel)",i), 500, -0.1, 1.1, 500, rawEnergyRange[0], rawEnergyRange[1]);
heCal[i] = new TH1F(Form("heCal%d", i), Form("Corrected e (ch=%d); e (MeV); count", i), 2000, energyRange[0], energyRange[1]);
hxfCalVxnCal[i] = new TH2F(Form("hxfCalVxnCal%d",i), Form("Corrected XF vs. XN (ch=%d);XF (channel);XN (channel)",i), 500, 0, rawEnergyRange[1], 500, 0, rawEnergyRange[1]);
heVxsCal[i] = new TH2F(Form("heVxsCal%d", i), Form("Raw e vs Corrected xf+xn (ch=%d); corrected xf+xn (channel); Raw e (channel)", i), 500, rawEnergyRange[0], rawEnergyRange[1], 500, rawEnergyRange[0], rawEnergyRange[1]);
heCalVxCal[i] = new TH2F(Form("heCalVxCal%d",i), Form("Cal PSD E vs. X (ch=%d);X (cm);E (MeV)",i), 500, -2.5, AnalysisLib::detGeo.detLength + 2.5, 500, energyRange[0], energyRange[1]);
heCalVxCalG[i] = new TH2F(Form("heCalVxCalG%d",i), Form("Cal PSD E vs. X (ch=%d);X (cm);E (MeV)",i), 500, -2.5, AnalysisLib::detGeo.detLength + 2.5, 500, energyRange[0], energyRange[1]);
}
heVID = new TH2F("heVID", "Raw e vs channel", mapping::NARRAY, 0, mapping::NARRAY, 500, rawEnergyRange[0], rawEnergyRange[1]);
hxfVID = new TH2F("hxfVID", "Raw xf vs channel", mapping::NARRAY, 0, mapping::NARRAY, 500, rawEnergyRange[0], rawEnergyRange[1]);
hxnVID = new TH2F("hxnVID", "Raw xn vs channel", mapping::NARRAY, 0, mapping::NARRAY, 500, rawEnergyRange[0], rawEnergyRange[1]);
heCalID = new TH2F("heCalID", "Corrected E vs detID; detID; E / 10 keV", mapping::NARRAY, 0, mapping::NARRAY, 2000, energyRange[0], energyRange[1]);
hMultiHit = new TH1F("hMultiHit", "Multi-Hit of Energy", 10, 0, 1);
//====================== E-Z plot
heCalVz = new TH2F("heCalVz", "E vs. Z;Z (mm);E (MeV)" , 400, zRange[0], zRange[1], 400, energyRange[0], energyRange[1]);
heCalVzGC = new TH2F("heCalVzGC","E vs. Z gated;Z (mm);E (MeV)", 400, zRange[0], zRange[1], 400, 0, energyRange[1]);
hecalVzRow = new TH2F * [numRow];
for( int i = 0; i < numRow; i++){
hecalVzRow[i] = new TH2F(Form("heCalVzRow%d", i), Form("E vs. Z (ch=%d-%d); Z (cm); E (MeV)", numCol*i, numCol*(i+1)-1), 500, zRange[0], zRange[1], 500, energyRange[0], energyRange[1]);
}
//===================== energy spectrum
hEx = new TH1F("hEx",Form("excitation spectrum w/ goodFlag; Ex [MeV] ; Count / %4.0f keV", exRange[0]), (int) (exRange[2]-exRange[1])/exRange[0]*1000, exRange[1], exRange[2]);
hExCut1 = new TH1F("hExCut1",Form("excitation spectrum w/ goodFlag; Ex [MeV] ; Count / %4.0f keV", exRange[0]), (int) (exRange[2]-exRange[1])/exRange[0]*1000, exRange[1], exRange[2]);
hExCut2 = new TH1F("hExCut2",Form("excitation spectrum w/ goodFlag; Ex [MeV] ; Count / %4.0f keV", exRange[0]), (int) (exRange[2]-exRange[1])/exRange[0]*1000, exRange[1], exRange[2]);
hExCut1->SetLineColor(2);
hExCut2->SetLineColor(4);
hExi = new TH1F * [mapping::NARRAY];
hExVxCal = new TH2F * [mapping::NARRAY];
for(int i = 0 ; i < mapping::NARRAY; i++){
hExi[i] = new TH1F(Form("hExi%02d", i), Form("Ex (det=%i) w/goodFlag; Ex [MeV]; Count / %4.0f keV",i, exRange[0]), (int) (exRange[2]-exRange[1])/exRange[0]*1000, exRange[1], exRange[2]);
hExVxCal[i] = new TH2F(Form("hExVxCal%d",i), Form("Ex vs X (ch=%d); X (cm); Ex (MeV)", i), 500, -0.1, 1.1, (int) (exRange[2]-exRange[1])/exRange[0]*1000, exRange[1], exRange[2]);
}
hExThetaCM = new TH2F("hExThetaCM", "Ex vs ThetaCM; ThetaCM [deg]; Ex [MeV]", 200, thetaCMRange[0], thetaCMRange[1], (int) (exRange[2]-exRange[1])/exRange[0]*1000, exRange[1], exRange[2]);
//===================== Recoils
hrdtID = new TH2F("hrdtID", "RDT vs ID; ID; energy [ch]", 8, 0, 8, 500, TMath::Min(rdtERange[0], rdtDERange[0]), TMath::Max(rdtERange[1], rdtDERange[1]));
hrdt = new TH1F * [mapping::NRDT];
hrdtg = new TH1F * [mapping::NRDT];
hrdt2D = new TH2F * [mapping::NRDT/2];
hrdt2Dg = new TH2F * [mapping::NRDT/2];
hrdt2Dsum = new TH2F * [mapping::NRDT/2];
for (Int_t i = 0; i < mapping::NRDT ; i++) {
if( i % 2 == 0 ) hrdt[i] = new TH1F(Form("hrdt%d",i), Form("Raw Recoil E(ch=%d); E (channel)",i), 500, rdtERange[0], rdtERange[1]);
if( i % 2 == 0 ) hrdtg[i] = new TH1F(Form("hrdt%dg",i),Form("Raw Recoil E(ch=%d) gated; E (channel)",i), 500, rdtERange[0], rdtERange[1]);
if( i % 2 == 1 ) hrdt[i] = new TH1F(Form("hrdt%d",i), Form("Raw Recoil DE(ch=%d); DE (channel)",i), 500, rdtDERange[0], rdtDERange[1]);
if( i % 2 == 1 ) hrdtg[i] = new TH1F(Form("hrdt%dg",i),Form("Raw Recoil DE(ch=%d) gated; DE (channel)",i), 500, rdtDERange[0], rdtDERange[1]);
///dE vs E
if( i % 2 == 0 ) {
int tempID = i / 2;
hrdt2D[tempID] = new TH2F(Form("hrdt2D%d",tempID), Form("Raw Recoil DE vs Eres (dE=%d, E=%d); Eres (channel); DE (channel)", i+1, i), 500, rdtERange[0], rdtERange[1],500,rdtDERange[0],rdtDERange[1]);
hrdt2Dg[tempID] = new TH2F(Form("hrdt2Dg%d",tempID), Form("Gated Raw Recoil DE vs Eres (dE=%d, E=%d); Eres (channel); DE (channel)",i+1, i), 500, rdtERange[0], rdtERange[1],500,rdtDERange[0], rdtDERange[1]);
hrdt2Dsum[tempID] = new TH2F(Form("hrdt2Dsum%d",tempID), Form("Raw Recoil DE vs Eres+DE (dE=%d, E=%d); Eres+DE (channel); DE (channel)", i+1, i), 500, rdtERange[0], rdtERange[1]+rdtDERange[1], 500, rdtDERange[0], rdtDERange[1]);
}
}
hrdtRate1 = new TH1F("hrdtRate1", "recoil rate 1 / min; min; count / 1 min", timeRange[1] - timeRange[0], timeRange[0], timeRange[1]);
hrdtRate2 = new TH1F("hrdtRate2", "recoil rate 2 / min; min; count / 1 min", timeRange[1] - timeRange[0], timeRange[0], timeRange[1]);
hrdtRate1->SetLineColor(2);
hrdtRate2->SetLineColor(4);
//===================== multiplicity
hmultEZ = new TH1I("hmultEZ", "Filled EZ with coinTime and recoil", 10, 0, 10);
hmult = new TH2I("hmult", "Array Multiplicity vs Recoil Multiplicity; Array ; Recoil",10, 0, 10, 10, 0, 10);
hArrayRDTMatrix = new TH2I("hArrayRDTMatrix", "Array ID vs Recoil ID; Array ID; Recoil ID", 30, 0, 30, 8, 0, 8);
hArrayRDTMatrixG = new TH2I("hArrayRDTMatrixG", "Array ID vs Recoil ID / g; Array ID; Recoil ID", 30, 0, 30, 8, 0, 8);
//===================== coincident time
htdiff = new TH1I("htdiff" ,"Coincident time (recoil-dE - array); time [ch = 10ns]; count", coinTimeRange[1] - coinTimeRange[0], coinTimeRange[0], coinTimeRange[1]);
htdiffg = new TH1I("htdiffg","Coincident time (recoil-dE - array) w/ recoil gated; time [ch = 10ns]; count", coinTimeRange[1] - coinTimeRange[0], coinTimeRange[0], coinTimeRange[1]);
printf("======================================== End of histograms Declaration\n");
StpWatch.Start();
}
//^###########################################################
//^ * Process
//^###########################################################
Bool_t Monitors::Process(Long64_t entry){
if( entry == 0 ) printf("========== %s \n", __func__);
if( ProcessedEntries > maxNumberEvent ) return kTRUE;
ProcessedEntries++;
//@*********** Progress Bar ******************************************/
if (ProcessedEntries>NumEntries*Frac-1) {
TString msg; msg.Form("%llu", NumEntries/1000);
int len = msg.Sizeof();
printf(" %3.0f%% (%*llu/%llu k) processed in %6.1f sec | expect %6.1f sec\n",
Frac*100, len, ProcessedEntries/1000,NumEntries/1000,StpWatch.RealTime(), StpWatch.RealTime()/Frac);
StpWatch.Start(kFALSE);
Frac+=0.1;
}
//@********** Get Branch *********************************************/
b_Energy->GetEntry(entry);
b_XF->GetEntry(entry);
b_XN->GetEntry(entry);
b_EnergyTimestamp->GetEntry(entry);
if( isRDTExist ){
b_RDT->GetEntry(entry);
b_RDTTimestamp->GetEntry(entry);
}
// if( isArrayTraceExist ) {
// ///b_Trace_Energy->GetEntry(entry);
// b_Trace_Energy_RiseTime->GetEntry(entry);
// b_Trace_Energy_Time->GetEntry(entry);
// }
// if( isRDTTraceExist ){
// ///b_Trace_RDT->GetEntry(entry);
// b_Trace_RDT_Time->GetEntry(entry);
// b_Trace_RDT_RiseTime->GetEntry(entry);
// }
//@*********** initization ******************************************/
for( int i = 0 ; i < mapping::NARRAY; i++){
z[i] = TMath::QuietNaN();
x[i] = TMath::QuietNaN();
xCal[i] = TMath::QuietNaN();
eCal[i] = TMath::QuietNaN();
}
//@*********** Apply Recoil correction here *************************/
if( isRDTCorrOK ){
for( int i = 0 ; i < mapping::NRDT; i++){
rdt[i] = rdt[i]*AnalysisLib::rdtCorr[i][0] + AnalysisLib::rdtCorr[i][1];
}
}
//@*********** Array ************************************************/
//Do calculations and fill histograms
Int_t recoilMulti = 0;
Int_t arrayMulti = 0;
Int_t multiEZ = 0;
bool rdtgate1 = false;
bool rdtgate2 = false;
bool coinFlag = false;
bool ezGate = false;
bool isGoodEventFlag = false;
for (Int_t detID = 0; detID < mapping::NARRAY; detID++) {
//@================== Filling raw data
he[detID]->Fill(e[detID]);
hxf[detID]->Fill(xf[detID]);
hxn[detID]->Fill(xn[detID]);
hxfVxn[detID]->Fill(xf[detID],xn[detID]);
heVxs[detID]->Fill(xf[detID]+xn[detID], e[detID]);
heVID->Fill(detID, e[detID]);
hxfVID->Fill(detID, xf[detID]);
hxnVID->Fill(detID, xn[detID]);
//if( !TMath::IsNaN(e[detID]) ) printf("%llu | %d | %f %f %f \n", entry, detID, e[detID], xf[detID], xn[detID]);
//@==================== Basic gate
if( TMath::IsNaN(e[detID]) ) continue ;
///if( ring[detID] < -100 || ring[detID] > 100 ) continue;
///if( ring[detID] > 300 ) continue;
if( TMath::IsNaN(xn[detID]) && TMath::IsNaN(xf[detID]) ) continue ;
//@==================== Skip detector
bool skipFlag = false;
for( unsigned int kk = 0; kk < skipDetID.size() ; kk++){
if( detID == skipDetID[kk] ) {
skipFlag = true;
break;
}
}
if (skipFlag ) continue;
//@==================== Basic gate
if( TMath::IsNaN(e[detID]) ) continue ;
///if( ring[detID] < -100 || ring[detID] > 100 ) continue;
///if( ring[detID] > 300 ) continue;
if( TMath::IsNaN(xn[detID]) && TMath::IsNaN(xf[detID]) ) continue ;
//@==================== Calibrations go here
if( isXNCorrOK && isXFXNCorrOK ) xnCal[detID] = xn[detID] * AnalysisLib::xnCorr[detID] * AnalysisLib::xfxneCorr[detID][1] + AnalysisLib::xfxneCorr[detID][0];
if( isXNCorrOK && isXFXNCorrOK ) xfCal[detID] = xf[detID] * AnalysisLib::xfxneCorr[detID][1] + AnalysisLib::xfxneCorr[detID][0];
if( isECorrOK ) eCal[detID] = e[detID] / AnalysisLib::eCorr[detID][0] + AnalysisLib::eCorr[detID][1];
if( eCal[detID] < eCalCut[0] ) continue;
if( eCal[detID] > eCalCut[1] ) continue;
//@===================== fill Calibrated data
heCal[detID]->Fill(eCal[detID]);
heCalID->Fill(detID, eCal[detID]);
hxfCalVxnCal[detID]->Fill(xfCal[detID], xnCal[detID]);
heVxsCal[detID]->Fill(xnCal[detID] + xfCal[detID], e[detID]);
//@===================== calculate X
if( (xf[detID] > 0 || !TMath::IsNaN(xf[detID])) && ( xn[detID]>0 || !TMath::IsNaN(xn[detID])) ) {
///x[detID] = 0.5*((xf[detID]-xn[detID]) / (xf[detID]+xn[detID]))+0.5;
x[detID] = 0.5*((xf[detID]-xn[detID]) / e[detID])+0.5;
}
/// range of x is (0, 1)
if ( !TMath::IsNaN(xf[detID]) && !TMath::IsNaN(xn[detID]) ) xCal[detID] = 0.5 + 0.5 * (xfCal[detID] - xnCal[detID] ) / e[detID];
if ( !TMath::IsNaN(xf[detID]) && TMath::IsNaN(xn[detID]) ) xCal[detID] = xfCal[detID]/ e[detID];
if ( TMath::IsNaN(xf[detID]) && !TMath::IsNaN(xn[detID]) ) xCal[detID] = 1.0 - xnCal[detID]/ e[detID];
//@======= Scale xcal from (0,1)
if( isXScaleCorrOK ) xCal[detID] = (xCal[detID]-0.5)/AnalysisLib::xScale[detID] + 0.5; /// if include this scale, need to also inclused in Cali_littleTree
if( abs(xCal[detID] - 0.5) > xGate/2. ) continue;
//@==================== calculate Z
if( AnalysisLib::detGeo.firstPos > 0 ) {
z[detID] = AnalysisLib::detGeo.detLength*(1.0-xCal[detID]) + AnalysisLib::detGeo.detPos[detID%numCol];
}else{
z[detID] = AnalysisLib::detGeo.detLength*(xCal[detID]-1.0) + AnalysisLib::detGeo.detPos[detID%numCol];
}
//@===================== multiplicity
arrayMulti++; /// multi-hit when both e, xf, xn are not NaN
//@=================== Array fill
heVx[detID]->Fill(x[detID],e[detID]);
heCalVxCal[detID]->Fill(xCal[detID]*AnalysisLib::detGeo.detLength,eCal[detID]);
heCalVz->Fill(z[detID],eCal[detID]);
//@=================== Recoil Gate
if( isRDTExist && (cutList1 || cutList2)){
for(int i = 0 ; i < cutList1->GetEntries() ; i++ ){
cutG = (TCutG *)cutList1->At(i) ;
if(cutG->IsInside(rdt[2*i],rdt[2*i+1])) {
// if(cutG->IsInside(rdt[2*i] + rdt[2*i+1],rdt[2*i+1])) {
rdtgate1= true;
break; /// only one is enough
}
}
for(int i = 0 ; i < cutList2->GetEntries() ; i++ ){
cutG = (TCutG *)cutList2->At(i) ;
if(cutG->IsInside(rdt[2*i],rdt[2*i+1])) {
//if(cutG->IsInside(rdt[2*i]+ rdt[2*i+1],rdt[2*i+1])) {
rdtgate2= true;
break; /// only one is enough
}
}
}else{
rdtgate1 = true;
rdtgate2 = true;
}
//================ coincident with Recoil when z is calculated.
if( !TMath::IsNaN(z[detID]) ) {
for( int j = 0; j < mapping::NRDT ; j++){
if( TMath::IsNaN(rdt[j]) ) continue;
int tdiff = rdt_t[j] - e_t[detID];
if( j%2 == 1) {
htdiff->Fill(tdiff);
if((rdtgate1 || rdtgate2) && (eCalCut[1] > eCal[detID] && eCal[detID]>eCalCut[0])) {
htdiffg->Fill(tdiff);
}
}
hArrayRDTMatrix->Fill(detID, j);
if( isTimeGateOn && timeGate[0] < tdiff && tdiff < timeGate[1] ) {
if(j % 2 == 0 ) hrdt2Dg[j/2]->Fill(rdt[j],rdt[j+1]); /// x=E, y=dE
///if(j % 2 == 0 ) hrdt2Dg[j/2]->Fill(rdt[j+1],rdt[j]); /// x=dE, y=E
hArrayRDTMatrixG->Fill(detID, j);
///if( rdtgate1) hArrayRDTMatrixG->Fill(detID, j);
hrdtg[j]->Fill(rdt[j]);
coinFlag = true;
}
}
}
if( !isTimeGateOn ) coinFlag = true;
//================ E-Z gate
if( isEZCutFileOpen ) {
if( EZCut->IsInside(z[detID], eCal[detID]) ) ezGate = true;
}else{
ezGate = true;
}
if( coinFlag && (rdtgate1 || rdtgate2) && ezGate){
heCalVzGC->Fill( z[detID] , eCal[detID] );
heCalVxCalG[detID]->Fill(xCal[detID]*AnalysisLib::detGeo.detLength,eCal[detID]);
multiEZ ++;
isGoodEventFlag = true;
}
}//end of array loop
if( !isEZCutFileOpen ) ezGate = true;
//@*********** RECOILS ***********************************************/
for( int i = 0; i < mapping::NRDT ; i++){
hrdtID->Fill(i, rdt[i]);
hrdt[i]->Fill(rdt[i]);
if( i % 2 == 0 ){
recoilMulti++; // when both dE and E are hit
hrdt2D[i/2]->Fill(rdt[i],rdt[i+1]); //E-dE
}
}
//@******************* Multi-hit *************************************/
hmultEZ->Fill(multiEZ);
hmult->Fill(recoilMulti,arrayMulti);
hMultiHit->Fill(arrayMulti);
//@*********** Good event Gate ***************************************/
if( !isGoodEventFlag ) return kTRUE;
//@*********** Ex and thetaCM ****************************************/
for(Int_t detID = 0; detID < mapping::NARRAY ; detID++){
if( TMath::IsNaN(e[detID]) ) continue ;
if( TMath::IsNaN(z[detID]) ) continue ;
if( eCal[detID] < eCalCut[0] ) continue ;
if( eCal[detID] > eCalCut[1] ) continue ;
if( AnalysisLib::hasReactionPara ){
std::vector<double> ExThetaCM = AnalysisLib::CalExTheta(eCal[detID], x[detID]);
Ex = ExThetaCM[0];
thetaCM = ExThetaCM[1];
// ///======== Ex calculation by Ryan
// double y = eCal[detID] + mass; // to give the KE + mass of proton;
// double Z = alpha * gamm * betRel * z[detID];
// double H = TMath::Sqrt(TMath::Power(gamm * betRel,2) * (y*y - mass * mass) ) ;
// if( TMath::Abs(Z) < H ) {
// ///using Newton's method to solve 0 == H * sin(phi) - G * tan(phi) - Z = f(phi)
// double tolerrence = 0.001;
// double phi = 0; ///initial phi = 0 -> ensure the solution has f'(phi) > 0
// double nPhi = 0; /// new phi
// int iter = 0;
// do{
// phi = nPhi;
// nPhi = phi - (H * TMath::Sin(phi) - G * TMath::Tan(phi) - Z) / (H * TMath::Cos(phi) - G /TMath::Power( TMath::Cos(phi), 2));
// iter ++;
// if( iter > 10 || TMath::Abs(nPhi) > TMath::PiOver2()) break;
// }while( TMath::Abs(phi - nPhi ) > tolerrence);
// phi = nPhi;
// /// check f'(phi) > 0
// double Df = H * TMath::Cos(phi) - G / TMath::Power( TMath::Cos(phi),2);
// if( Df > 0 && TMath::Abs(phi) < TMath::PiOver2() ){
// double K = H * TMath::Sin(phi);
// double x = TMath::ACos( mass / ( y * gamm - K));
// double momt = mass * TMath::Tan(x); /// momentum of particel b or B in CM frame
// double EB = TMath::Sqrt(mass*mass + Et*Et - 2*Et*TMath::Sqrt(momt*momt + mass * mass));
// Ex = EB - massB;
// double hahaha1 = gamm* TMath::Sqrt(mass * mass + momt * momt) - y;
// double hahaha2 = gamm* betRel * momt;
// thetaCM = TMath::ACos(hahaha1/hahaha2) * TMath::RadToDeg();
// }else{
// Ex = TMath::QuietNaN();
// thetaCM = TMath::QuietNaN();
// }
// }else{
// Ex = TMath::QuietNaN();
// thetaCM = TMath::QuietNaN();
// }
}else{
Ex = TMath::QuietNaN();
thetaCM = TMath::QuietNaN();
}
if( thetaCM > thetaCMGate ) {
hEx->Fill(Ex);
hExThetaCM->Fill(thetaCM, Ex);
if( rdtgate1 ) {
hExCut1->Fill(Ex);
hExThetaCM->Fill(thetaCM, Ex);
}
if( rdtgate2 ) {
hExCut2->Fill(Ex);
hExThetaCM->Fill(thetaCM, Ex);
}
hExi[detID]->Fill(Ex);
hExVxCal[detID]->Fill(xCal[detID], Ex);
}
}
return kTRUE;
}
//^###########################################################
//^ * Terminate
//^###########################################################
void Monitors::Terminate(){
printf("============================== finishing.\n");
gROOT->cd();
int strLen = canvasTitle.Sizeof();
canvasTitle.Remove(strLen-3);
TString runTimeStr = "";
if( runTime > 0. ) {
runTimeStr = Form("%.0f min", runTime);
canvasTitle += " | " + runTimeStr;
}
//############################################ User is free to edit this section
//--- Canvas Size
int canvasXY[2] = {1200 , 800} ;// x, y
int canvasDiv[2] = {3,2};
cCanvas = new TCanvas("cCanvas",canvasTitle + " | " + rdtCutFile1,canvasXY[0],canvasXY[1]);
cCanvas->Modified(); cCanvas->Update();
cCanvas->cd(); cCanvas->Divide(canvasDiv[0],canvasDiv[1]);
gStyle->SetOptStat("neiou");
text.SetNDC();
text.SetTextFont(82);
text.SetTextSize(0.04);
text.SetTextColor(2);
double yMax = 0;
Isotope hRecoil(AnalysisLib::reactionConfig.recoilHeavyA, AnalysisLib::reactionConfig.recoilHeavyZ);
double Sn = hRecoil.CalSp(0,1);
double Sp = hRecoil.CalSp(1,0);
double Sa = hRecoil.CalSp2(4,2);
//TODO, Module each plot
///----------------------------------- Canvas - 1
PlotEZ(1); /// raw EZ
///----------------------------------- Canvas - 2
PlotEZ(0); ///gated EZ
///----------------------------------- Canvas - 3
PlotTDiff(1, 1); ///with Gated Tdiff, isLog
///----------------------------------- Canvas - 4
padID++; cCanvas->cd(padID);
//hEx->Draw();
hExCut1->Draw("");
hExCut2->Draw("same");
DrawLine(hEx, Sn);
DrawLine(hEx, Sa);
if(isTimeGateOn)text.DrawLatex(0.15, 0.8, Form("%d < coinTime < %d", timeGate[0], timeGate[1]));
if( xGate < 1 ) text.DrawLatex(0.15, 0.75, Form("with |x-0.5|<%.4f", xGate/2.));
if( cutList1 ) text.DrawLatex(0.15, 0.7, "with recoil gated");
///----------------------------------- Canvas - 5
padID++; cCanvas->cd(padID);
//Draw2DHist(hExThetaCM);
//heVIDG->Draw();
//text.DrawLatex(0.15, 0.75, Form("#theta_{cm} > %.1f deg", thetaCMGate));
Draw2DHist(hrdt2D[0]);
// Draw2DHist(hrdt2Dsum[0]);
if( cutList1 && cutList1->GetEntries() > 0 ) {cutG = (TCutG *)cutList1->At(0) ; cutG->Draw("same");}
if( cutList2 && cutList2->GetEntries() > 0 ) {cutG = (TCutG *)cutList2->At(0) ; cutG->Draw("same");}
//helum4D->Draw();
//text.DrawLatex(0.25, 0.3, Form("gated from 800 to 1200 ch\n"));
///----------------------------------- Canvas - 6
PlotRDT(0,0);
// padID++; cCanvas->cd(padID);
// Draw2DHist(hrdtExGated);
//padID++; cCanvas->cd(padID);
//Draw2DHist(htacEx);
///------------------------------------- Canvas - 7
//PlotRDT(0, 0);
///----------------------------------- Canvas - 8
//PlotRDT(1, 0);
///yMax = hic2->GetMaximum()*1.2;
///hic2->GetYaxis()->SetRangeUser(0, yMax);
///hic2->Draw();
///TBox * box14N = new TBox (-10, 0, -2, yMax);
///box14N->SetFillColorAlpha(2, 0.1);
///box14N->Draw();
///
///TBox * box14C = new TBox (8, 0, 16, yMax);
///box14C->SetFillColorAlpha(4, 0.1);
///box14C->Draw();
///
///text.SetTextColor(2); text.DrawLatex(0.38, 0.50, "14N");
///text.SetTextColor(4); text.DrawLatex(0.6, 0.45, "14C");
///text.SetTextColor(2);
///----------------------------------- Canvas - 9
//padID++; cCanvas->cd(padID);
//Draw2DHist(hic01);
///----------------------------------- Canvas - 10
//PlotRDT(3,0);
//TH1F * helumDBIC = new TH1F("helumDBIC", "elum(d)/BIC; time [min]; count/min", timeRange[1]-timeRange[0], timeRange[0], timeRange[1]);
//helumDBIC = (TH1F*) helum4D->Clone();
//helumDBIC->SetTitle("elum(d)/BIC; time [min]; count/min");
//helumDBIC->SetName("helumDBIC");
//helumDBIC->SetLineColor(2);
//helumDBIC->Divide(hBIC);
//yMax = helumDBIC->GetMaximum();
//if( yMax < hBIC->GetMaximum() ) yMax = hBIC->GetMaximum();
//helumDBIC->SetMaximum(yMax * 1.2);
//hBIC->SetMaximum(yMax * 1.2);
//hBIC->Draw();
//helumDBIC->Draw("same");
//text.DrawLatex(0.15, 0.5, Form("Elum(D) / BIC \n"));
///----------------------------------- Canvas - 11
//PlotRDT(2,0);
///----------------------------------- Canvas - 12
//padID++; cCanvas->cd(padID);
//htac->Draw();
/*
///----------------------------------- Canvas - 13
padID++; cCanvas->cd(padID);
///hicT14N->Draw("");
///hicT14C->Draw("same");
///
///text.SetTextColor(2); text.DrawLatex(0.15, 0.60, "14N");
///text.SetTextColor(4); text.DrawLatex(0.15, 0.25, "14C");
///text.SetTextColor(2);
///----------------------------------- Canvas - 14
padID++; cCanvas->cd(padID);
///hrdtRate1->Draw("");
///hrdtRate2->Draw("same");
///----------------------------------- Canvas - 15
padID++; cCanvas->cd(padID);
///----------------------------------- Canvas - 16
padID++; cCanvas->cd(padID);
///----------------------------------- Canvas - 17
padID++; cCanvas->cd(padID);
///----------------------------------- Canvas - 18
padID++; cCanvas->cd(padID);
///----------------------------------- Canvas - 19
padID++; cCanvas->cd(padID);
///----------------------------------- Canvas - 20
padID++; cCanvas->cd(padID);
htac->Draw();
*/
/************************************/
gStyle->GetAttDate()->SetTextSize(0.02);
gStyle->SetOptDate(1);
gStyle->SetDateX(0);
gStyle->SetDateY(0);
/************************************/
StpWatch.Start(kFALSE);
gROOT->ProcessLine(".L ../Armory/Monitor_Util.C");
printf("=============== loaded Monitor_Utils.C\n");
gROOT->ProcessLine(".L ../Armory/AutoFit.C");
printf("=============== loaded Armory/AutoFit.C\n");
gROOT->ProcessLine(".L ../Armory/RDTCutCreator.C");
printf("=============== loaded Armory/RDTCutCreator.C\n");
gROOT->ProcessLine(".L ../Armory/Check_rdtGate.C");
printf("=============== loaded Armory/Check_rdtGate.C\n");
gROOT->ProcessLine(".L ../Armory/readTrace.C");
printf("=============== loaded Armory/readTrace.C\n");
//gROOT->ProcessLine(".L ../Armory/readRawTrace.C");
//printf("=============== loaded Armory/readRawTrace.C\n");
gROOT->ProcessLine("listDraws()");
/************************* Save histograms to root file*/
gROOT->cd();
/************************************/
//gROOT->ProcessLine("recoils()");
}

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#ifndef Monitors_h
#define Monitors_h
#include <TROOT.h>
#include <TChain.h>
#include <TFile.h>
#include <TSelector.h>
#include <TH1.h>
#include <TH2.h>
#include <TStyle.h>
#include <TCutG.h>
#include "Mapping.h"
#include "../armory/AnalysisLib.h"
class Monitors : public TSelector {
public :
TTree *fChain; //!pointer to the analyzed TTree or TChain
// Declaration of leaf types
Float_t * e; //!
ULong64_t * e_t; //!
Float_t * xf; //!
ULong64_t * xf_t; //!
Float_t * xn; //!
ULong64_t * xn_t; //!
Float_t * rdt; //!
ULong64_t * rdt_t; //!
// List of branches
TBranch *b_Energy; //!
TBranch *b_EnergyTimestamp; //!
TBranch *b_XF; //!
TBranch *b_XFTimestamp; //!
TBranch *b_XN; //!
TBranch *b_XNTimestamp; //!
TBranch *b_RDT; //!
TBranch *b_RDTTimestamp; //!
// trace analysis data
Float_t * we; //!
Float_t * weR; //!
Float_t * weT; //!
Float_t * wrdt; //!
Float_t * wrdtT; //!
Float_t * wrdtR; //!
TBranch *b_Trace_Energy; //!
TBranch *b_Trace_Energy_RiseTime; //!
TBranch *b_Trace_Energy_Time; //!
TBranch *b_Trace_RDT; //!
TBranch *b_Trace_RDT_Time; //!
TBranch *b_Trace_RDT_RiseTime; //!
bool isArrayTraceExist;
bool isRDTTraceExist;
bool isRDTExist;
bool isXNCorrOK;
bool isXFXNCorrOK;
bool isXScaleCorrOK;
bool isECorrOK;
bool isRDTCorrOK;
//==== global variable
float * x, * z;
float * xCal, * xfCal, * xnCal, * eCal;
ULong64_t startTime ;
ULong64_t endTime ;
Monitors(TTree * /*tree*/ =0) : fChain(0) {
e = new Float_t [mapping::NARRAY];
xf = new Float_t [mapping::NARRAY];
xn = new Float_t [mapping::NARRAY];
rdt = new Float_t [mapping::NRDT];
e_t = new ULong64_t [mapping::NARRAY];
xf_t = new ULong64_t [mapping::NARRAY];
xn_t = new ULong64_t [mapping::NARRAY];
rdt_t = new ULong64_t [mapping::NRDT];
x = new float [mapping::NARRAY];
z = new float [mapping::NARRAY];
xCal = new float [mapping::NARRAY];
xfCal = new float [mapping::NARRAY];
xnCal = new float [mapping::NARRAY];
eCal = new float [mapping::NARRAY];
isXNCorrOK = true;
isXFXNCorrOK = true;
isXScaleCorrOK = true;
isECorrOK = true;
isRDTCorrOK = true;
}
virtual ~Monitors() {
delete e ;
delete xf ;
delete xn ;
delete rdt ;
delete e_t ;
delete xf_t ;
delete xn_t ;
delete rdt_t;
delete z ;
delete x ;
delete xCal;
delete xfCal;
delete xnCal;
delete eCal;
}
virtual Int_t Version() const { return 2; }
virtual void Begin(TTree *tree);
virtual void SlaveBegin(TTree *tree);
virtual void Init(TTree *tree);
virtual Bool_t Notify();
virtual Bool_t Process(Long64_t entry);
virtual Int_t GetEntry(Long64_t entry, Int_t getall = 0) { return fChain ? fChain->GetTree()->GetEntry(entry, getall) : 0; }
virtual void SetOption(const char *option) { fOption = option; }
virtual void SetObject(TObject *obj) { fObject = obj; }
virtual void SetInputList(TList *input) { fInput = input; }
virtual TList *GetOutputList() const { return fOutput; }
virtual void SlaveTerminate();
virtual void Terminate();
TString fCanvasTitle;
void SetCanvasTitle(TString title) {fCanvasTitle = title;}
TString GetCanvasTitle() const {return fCanvasTitle;}
int timeRange[2];
void SetTimeRange0(int minute){ timeRange[0] = minute;}
void SetTimeRange1(int minute){ timeRange[1] = minute;}
void Draw2DHist(TH2F * hist);
void PlotEZ(bool isRaw);
void PlotTDiff(bool isGated, bool isLog);
void PlotRDT(int id, bool isRaw);
//void PlotCRDTPolar();
//template<typename T> T ** CreateListOfHist(T ** &histList, int size, const char * namePrefix, const char * TitleForm, int binX, float xMin, float xMax, int binY = 0, float yMin = 0, float yMax = 0);
ClassDef(Monitors,0);
};
#endif
#ifdef Monitors_cxx
void Monitors::Init(TTree *tree){
printf("========== %s \n", __func__);
// Set branch addresses and branch pointers
if (!tree) return;
fChain = tree;
fChain->SetMakeClass(1);
fChain->SetBranchAddress("e", e, &b_Energy);
fChain->SetBranchAddress("e_t", e_t, &b_EnergyTimestamp);
fChain->SetBranchAddress("xf", xf, &b_XF);
fChain->SetBranchAddress("xf_t", xf_t, &b_XFTimestamp);
fChain->SetBranchAddress("xn", xn, &b_XN);
fChain->SetBranchAddress("xn_t", xn_t, &b_XNTimestamp);
TBranch * br = (TBranch *) fChain->GetListOfBranches()->FindObject("rdt");
if( br == NULL ){
printf(" ++++++++ no Recoil.\n");
isRDTExist = false;
}else{
printf(" ++++++++ FOund Recoil.\n");
isRDTExist = true;
fChain->SetBranchAddress("rdt" , rdt, &b_RDT);
fChain->SetBranchAddress("rdt_t", rdt_t, &b_RDTTimestamp);
}
/*
br = (TBranch *) fChain->GetListOfBranches()->FindObject("we");
if( br == NULL ){
printf(" ++++++++ no Array trace.\n");
isArrayTraceExist = false;
}else{
isArrayTraceExist = true;
if( isUseArrayTrace ){
fChain->SetBranchAddress("te", e, &b_Energy);// replace e with te
}else{
fChain->SetBranchAddress("te", te, &b_Trace_Energy);
}
fChain->SetBranchAddress("te_r", te_r, &b_Trace_Energy_RiseTime);
fChain->SetBranchAddress("te_t", te_t, &b_Trace_Energy_Time);
}
br = (TBranch *) fChain->GetListOfBranches()->FindObject("wrdt");
if( br == NULL ){
printf(" ++++++++ no Recoil trace.\n");
isRDTTraceExist = false;
}else{
isRDTTraceExist = true;
if( isUseRDTTrace ) {
fChain->SetBranchAddress("trdt", rdt, &b_RDT); // replace rdt with trdt
printf("************ using Trace in recoil \n");
}else{
fChain->SetBranchAddress("trdt", trdt, &b_Trace_RDT);
}
fChain->SetBranchAddress("trdt_t", trdt_t, &b_Trace_RDT_Time);
fChain->SetBranchAddress("trdt_r", trdt_r, &b_Trace_RDT_RiseTime);
}
*/
startTime = 0;
endTime = 0;
printf("=================================== End of Branch Pointer Inititization. \n");
}
Bool_t Monitors::Notify(){
return kTRUE;
}
void DrawLine(TH1 * hist, double pos){
double yMax = hist->GetMaximum();
TLine * line = new TLine(pos, 0, pos, yMax);
line->SetLineColor(2);
line->Draw("");
}
void Monitors::SlaveBegin(TTree * /*tree*/){
/// not use, if use, place in Monitors.C
TString option = GetOption();
}
void Monitors::SlaveTerminate(){
/// not use, if use, place in Monitors.C
}
/*###########################################################
* Plotting Function
###########################################################*/
void DrawBox(TH1* hist, double x1, double x2, Color_t color, float alpha){
double yMax = hist->GetMaximum();
TBox * box = new TBox (x1, 0, x2, yMax);
box->SetFillColorAlpha(color, alpha);
box->Draw();
}
void Monitors::Draw2DHist(TH2F * hist){
if( hist->Integral() < 3000 ){
hist->SetMarkerStyle(20);
hist->SetMarkerSize(0.3);
hist->Draw("");
}else{
hist->Draw("colz");
}
}
void Monitors::PlotEZ(bool isRaw){
padID++; cCanvas->cd(padID);
if( isRaw ) {
Draw2DHist(heCalVz);
heCalVz->SetTitle("E vs Z | " + canvasTitle + " | " + rdtCutFile1);
if( skipDetID.size() > 0 ){
text.DrawLatex(0.15, 0.3, "skipped Detector:");
for( int i = 0; i < (int) skipDetID.size(); i++){
text.DrawLatex(0.15 + 0.1*i, 0.25, Form("%d", skipDetID[i]));
}
}
text.DrawLatex(0.15, 0.8, Form("%.1f < eCal < %.1f MeV", eCalCut[0], eCalCut[1]));
if( xGate < 1 ) text.DrawLatex(0.15, 0.75, Form("with |x-0.5|<%.4f", xGate/2.));
}else{
Draw2DHist(heCalVzGC);
if( cutList1 ) text.DrawLatex(0.15, 0.8, "with Recoil gate");
if( xGate < 1 ) text.DrawLatex(0.15, 0.75, Form("with |x-0.5|<%.4f", xGate/2.));
//if( isTACGate ) text.DrawLatex(0.15, 0.7, Form("%d < TAC < %d", tacGate[0], tacGate[1]));
if(isTimeGateOn)text.DrawLatex(0.15, 0.7, Form("%d < coinTime < %d", timeGate[0], timeGate[1]));
}
TFile * transfer = new TFile("transfer.root");
TObjArray * gList = NULL ;
TObjArray * fxList = NULL ;
int nGList = 0;
int nFxList = 0;
if( transfer->IsOpen() ) {
gList = (TObjArray *) transfer->FindObjectAny("gList");
nGList = gList->GetLast() + 1;
fxList = (TObjArray *) transfer->FindObjectAny("fxList");
nFxList = fxList->GetLast() +1 ;
}
///the constant thetaCM line
if( transfer->IsOpen() ) gList->At(0)->Draw("same");
///the e-z line for excitation
if( transfer->IsOpen() ){
for( int i = 0 ; i < nFxList ; i++){
((TF1*)fxList->At(i))->SetLineColor(6);
fxList->At(i)->Draw("same");
}
}
}
void Monitors::PlotTDiff(bool isGated, bool isLog){
padID++; cCanvas->cd(padID);
if( isLog ) cCanvas->cd(padID)->SetLogy(1);
double yMax = 0;
if( isGated ){
yMax = htdiff->GetMaximum()*1.2;
if( isLog ){
htdiff->GetYaxis()->SetRangeUser(1, yMax);
}else{
htdiff->GetYaxis()->SetRangeUser(0, yMax);
}
}
htdiff->Draw();
if( isGated ){
htdiffg->SetLineColor(2);
htdiffg->Draw("same");
}
if( cutList1 ) text.DrawLatex(0.15, 0.8, "with Recoil gate");
if(isTimeGateOn)text.DrawLatex(0.15, 0.7, Form("%d < coinTime < %d", timeGate[0], timeGate[1]));
DrawBox(htdiff, timeGate[0], timeGate[1], kGreen, 0.2);
}
void Monitors::PlotRDT(int id, bool isRaw){
padID++; cCanvas->cd(padID);
if( isRaw ){
Draw2DHist(hrdt2D[id]);
}else{
Draw2DHist(hrdt2Dg[id]);
}
if(isTimeGateOn)text.DrawLatex(0.15, 0.8, Form("%d < coinTime < %d", timeGate[0], timeGate[1]));
//if( isTACGate ) text.DrawLatex(0.15, 0.7, Form("%d < TAC < %d", tacGate[0], tacGate[1]));
if( cutList1 && cutList1->GetEntries() > id ) {cutG = (TCutG *)cutList1->At(id) ; cutG->Draw("same");}
if( cutList2 && cutList2->GetEntries() > id ) {cutG = (TCutG *)cutList2->At(id) ; cutG->Draw("same");}
}
//void Monitors::PlotCRDTPolar(){
// padID++; cCanvas->cd(padID);
// cCanvas->cd(padID)->DrawFrame(-50, -50, 50, 50);
// hcrdtPolar->Draw("same colz pol");
//}
#endif // #ifdef Monitors_cxx