diff --git a/CALIBRATION/.gitignore b/CALIBRATION/.gitignore
index 80f84623e303fd0db91e4fe425b25e7572d8cc9f..a9da3531dad97cca6e7b465e53f6663be3666fdb 100644
--- a/CALIBRATION/.gitignore
+++ b/CALIBRATION/.gitignore
@@ -12,4 +12,7 @@
*.root
# Parameter files generated by calibration
*.param
+hms_dc_calib/data_files
+*.d
+hms_dc_calib/scripts/*.txt
diff --git a/CALIBRATION/hms_dc_calib/run_Cal.C b/CALIBRATION/hms_dc_calib/run_Cal.C
new file mode 100644
index 0000000000000000000000000000000000000000..94f7daf405a1725f68a3d7ee713b448231afc9fd
--- /dev/null
+++ b/CALIBRATION/hms_dc_calib/run_Cal.C
@@ -0,0 +1,68 @@
+//SCRIPT TO RUN OVER ALL HMS DC CALIBRATION SCRIPTS AT ONCE, AND UPDATE THE
+//NECESSARY PARAMTER FILES hdriftmap.param and hdc.param
+void run_Cal()
+{
+
+ //User Input Run
+ int run_NUM;
+ cout << "Enter Run Number: " << endl;
+ cin >> run_NUM;
+
+ //Create input file with run number
+ ofstream fout;
+ fout.open("scripts/input_RUN.txt");
+ fout << run_NUM << endl;
+ fout.close();
+
+
+ //Create root and data files Directories if they dont exist
+ char *dir_root = "mkdir ./root_files/";
+ char *dir_data = "mkdir ./data_files/";
+
+ if (system(dir_root || dir_data) != 0) {
+ system(dir_root);
+ system(dir_data);
+ }
+
+ //Create run Directories if they dont exist
+ char *dir0 = Form("mkdir ./root_files/run%d", run_NUM);
+ char *dir1 = Form("mkdir ./data_files/run%d", run_NUM);
+
+ if (system(dir0 || dir1) != 0) {
+ system(dir0);
+ system(dir1);
+ }
+
+
+
+ //change directories and execute scripts
+ gSystem->cd("./scripts");
+ gSystem->Exec("root -l -q get_hdc_time_histo.C");
+
+ //Load and Loop over Make Class events to get individual drift times
+ gROOT->LoadMacro("wire_drift_times.C");
+ gROOT->ProcessLine("wire_drift_times t"); //process line allows one to execute interactive root commands from a script, such as this one
+ gROOT->ProcessLine("t.Loop()");
+ //gROOT->ProcessLine(".q");
+ gROOT->Reset();
+
+
+
+gSystem->cd("./scripts");
+
+
+ //execute code to get t0 from each wire in each plane
+ gSystem->Exec("root -l -q -b get_wire_tzero.C");
+
+ //execute code to update hdc parameter file
+ gSystem->Exec("root -l -q update_hdcparam.C");
+
+ //execute code to get t0 corrected drift times
+ gSystem->Exec("root -l -q get_hdc_time_histo_tzero_corrected.C");
+
+ //execute code to update LookUp Table
+ gSystem->Exec("root -l -q get_LookUp_Values.C");
+
+
+
+}
diff --git a/CALIBRATION/hms_dc_calib/scripts/get_LookUp_Values.C b/CALIBRATION/hms_dc_calib/scripts/get_LookUp_Values.C
new file mode 100644
index 0000000000000000000000000000000000000000..e4a402769f251ae31d5a3845f1d6e8a1df6455c0
--- /dev/null
+++ b/CALIBRATION/hms_dc_calib/scripts/get_LookUp_Values.C
@@ -0,0 +1,126 @@
+/*This code produces a lookup table necessary to convert drift times to
+drift distances in the HMS drift chambers
+*/
+
+#define NPLANES 12
+#define TOTAL_BINS 137
+
+void get_LookUp_Values() {
+
+
+ //Read Run Number from txt file
+ int run_NUM;
+ TString f0 = "input_RUN.txt";
+ ifstream infile(f0);
+ infile >> run_NUM;
+
+//Open root file containing drift time histos
+ TFile *f = new TFile(Form("../root_files/run%d/hms_dc_t0_corrected_%d.root", run_NUM, run_NUM),"READ");
+
+ //Define histogram array
+ TH1F *h[NPLANES];
+
+ //Define the number Drift Chamber planes
+ TString plane_names[NPLANES]={"1x1", "1y1", "1u1", "1v1", "1y2", "1x2", "2x1", "2y1", "2u1", "2v1", "2y2", "2x2"};
+
+ //Declare bin properties
+ int bin_t0[NPLANES];
+ int bin_final[NPLANES]; /*Array to store the bin number corresponding to last bin*/
+ int bin_Content[NPLANES]; /*Array to store the content (# events) corresponding to the bin with maximum content*/
+ double binContent_TOTAL[NPLANES]; /*Array to store sum of all bin contents for each plane*/
+ double binSUM[NPLANES];
+ int bin;
+ int binx;
+ double lookup_value[NPLANES]; /*Array to store lookup values for each plane*/
+
+ //Create an output file to store lookup values
+ ofstream ofs;
+ TString lookup_table = "../../../PARAM/HMS/DC/hdriftmap_new.param";
+ ofs.open (lookup_table);
+
+
+//Set headers for subsequent columns of data
+ ofs << Form("; Lookup Table: RUN %d", run_NUM) << "\n";
+ ofs << "; number of bins in Carlos's time to distance lookup table" << "\n";
+ ofs << Form("hdriftbins = %d", TOTAL_BINS+1) << "\n";
+ ofs << "; number of 1st bin in Carlos's table in ns" << "\n";
+ ofs << "hdrift1stbin=0" << "\n";
+ ofs << "; bin size in ns" << "\n";
+ ofs << "hdriftbinsz=2" << "\n";
+
+
+
+ //Loop over each plane of HMS Drift Chambers (DC1 & DC2)
+
+ for (int ip=0; ip<NPLANES; ip++){
+
+ TString drift_time_histo = "hdc"+plane_names[ip]+"_time: t0_corr";
+
+ //Get drift time histograms from root file
+ h[ip] = (TH1F*)f->Get(drift_time_histo);
+
+ //Get bin corresponding to t0 = 0 ns
+ bin_t0[ip] = h[ip]->GetXaxis()->FindBin(0.0);
+
+ //Get final bin
+ bin_final[ip] = bin_t0[ip] + TOTAL_BINS;
+
+
+
+ //Find total BIN Content over entire integration range
+ binContent_TOTAL[ip] = 0; //set counter to zero
+
+ for (bin = bin_t0[ip]; bin <= bin_final[ip]; bin ++ ) {
+
+ bin_Content[ip] = h[ip] -> GetBinContent(bin);
+
+ binContent_TOTAL[ip] = bin_Content[ip] + binContent_TOTAL[ip];
+
+ // cout << "Bin: " << bin << endl;
+ // cout << "Content " << bin_Content[ip] << endl;
+ // cout << "Content SUM : " << binContent_TOTAL[ip] << endl;
+ }
+
+ TString headers = "hwc" + plane_names[ip] + "fract=";
+ ofs << headers;
+
+ //Calculate LookUp Value
+
+ binSUM[ip] = 0.0;
+ int bin_count = 0;
+
+ for (bin = bin_t0[ip]; bin <= bin_final[ip]; bin++) {
+
+ bin_Content[ip] = h[ip] -> GetBinContent(bin);
+ binSUM[ip] = binSUM[ip] + bin_Content[ip];
+
+
+ lookup_value[ip] = binSUM[ip] / binContent_TOTAL[ip];
+ bin_count = bin_count + 1;
+
+ if (bin_count < = 8 ) {
+ ofs << setprecision(5) << lookup_value[ip] << fixed << ",";
+ }
+
+ else if (bin_count >8 && bin_count < 138) {
+ ofs << setprecision(5) << lookup_value[ip] << ((bin_count+1) % 10 ? "," : "\n") << fixed;
+ }
+ else {
+ ofs << setprecision(5) << lookup_value[ip] << fixed << endl;
+ }
+
+ }
+
+ }
+
+}
+
+
+
+
+
+
+
+
+
+
diff --git a/CALIBRATION/hms_dc_calib/scripts/get_hdc_time_histo.C b/CALIBRATION/hms_dc_calib/scripts/get_hdc_time_histo.C
new file mode 100644
index 0000000000000000000000000000000000000000..b3bfee5856ddaa84b4a9bb0ebe6b3eadc55d969b
--- /dev/null
+++ b/CALIBRATION/hms_dc_calib/scripts/get_hdc_time_histo.C
@@ -0,0 +1,98 @@
+//Script to add necessary drift time histograms/plane from original root file to new root file
+
+
+#define NPLANES 12
+
+void get_hdc_time_histo()
+{
+
+//Read Run Number from txt file
+int run_NUM;
+TString f0 = "input_RUN.txt";
+ifstream infile(f0);
+infile >> run_NUM;
+
+//Create RUN Directories if they dont exist
+char *dir0 = Form("mkdir ../root_files/run%d", run_NUM);
+char *dir1 = Form("mkdir ../data_files/run%d", run_NUM);
+
+if (system(dir0 || dir1) != 0) {
+system(dir0);
+system(dir1);
+}
+
+//open file
+TFile *f = new TFile(Form("../../../ROOTfiles/test_%d.root", run_NUM), "READ");
+
+//create new file
+ TFile *g = new TFile(Form("../root_files/run%d/hms_dc_time_%d.root", run_NUM, run_NUM), "RECREATE"); // create new file to store histo
+
+f->cd();
+
+//Get the tree
+TTree *tree = (TTree*)f->Get("T");
+TString SPECTROMETER="H";
+TString DETECTOR="dc";
+TString plane_names[NPLANES]={"1x1", "1y1", "1u1", "1v1", "1y2", "1x2", "2x1", "2y1", "2u1", "2v1", "2y2", "2x2"};
+
+//Declare Variables to Loop Over
+Int_t Ndata[NPLANES];
+Double_t hdc_time[NPLANES][1000];
+
+//Declare Histogram array to store AVG drift times per plane
+TH1F* h[NPLANES];
+
+g->cd();
+
+//Loop over each plane
+for(Int_t ip=0; ip<NPLANES; ip++){
+ TString base_name = SPECTROMETER+"."+DETECTOR+"."+plane_names[ip];
+ TString ndata_name = "Ndata."+base_name+".time";
+ TString drift_time = base_name+".time";
+
+ TString drift_time_histo = "hdc"+plane_names[ip]+"_time";
+ TString title = "hdc"+plane_names[ip]+"_drifttime";
+
+ //Set Branch Address
+ tree->SetBranchAddress(drift_time, &hdc_time[ip][0]);
+ tree->SetBranchAddress(ndata_name, &Ndata[ip]); /* Ndata represents number of triggers vs number of hits that each trigger produced.
+ A hit is refer to as when a trigger(traversing particle), ionizes the WC gas and ionized
+ electrons reach the rearest sense wire, producing a detectable signal in the O'scope */
+
+ //Create Histograms
+ h[ip] = new TH1F(drift_time_histo, title, 200, -50, 350); //set time to 400 ns/200 bins = 2ns/bin
+ }
+
+
+
+//Declare number of entries in the tree
+ Long64_t nentries = tree->GetEntries(); //number of triggers (particles that passed through all 4 hodo planes)
+
+ //Loop over all entries
+ for(Long64_t i=0; i<nentries; i++)
+ {
+ tree->GetEntry(i);
+
+
+ //Loop over number of hits for each trigger in each DC plane
+ for(ip=0; ip<NPLANES; ip++){
+
+
+ for(Int_t j=0; j<Ndata[ip]; j++){
+
+ h[ip]->Fill(hdc_time[ip][j]);
+ }
+
+ }
+
+ }
+
+
+
+
+ //Write histograms to file
+ g->Write();
+
+
+
+}
diff --git a/CALIBRATION/hms_dc_calib/scripts/get_hdc_time_histo_tzero_corrected.C b/CALIBRATION/hms_dc_calib/scripts/get_hdc_time_histo_tzero_corrected.C
new file mode 100644
index 0000000000000000000000000000000000000000..d847ce0bc3b186b97eb26a7a470c4139fa7064d9
--- /dev/null
+++ b/CALIBRATION/hms_dc_calib/scripts/get_hdc_time_histo_tzero_corrected.C
@@ -0,0 +1,107 @@
+//Script to add t0 correction to HMS DC drift times
+
+#define NPLANES 12
+
+void get_hdc_time_histo_tzero_corrected()
+{
+
+
+ //read run number from input file
+ int run_NUM;
+ TString f0 = "input_RUN.txt";
+ ifstream infile(f0);
+ infile >> run_NUM;
+
+ TString run = Form("run%d", run_NUM);
+
+
+ //open file
+ TFile *f = new TFile(Form("../../../ROOTfiles/test_%d.root", run_NUM), "READ");
+
+ //updates file
+ TFile *g = new TFile(Form("../root_files/run%d/hms_dc_t0_corrected_%d.root", run_NUM, run_NUM), "UPDATE"); // create new file to store histo
+
+ f->cd();
+
+ //Get the tree
+ TTree *tree = (TTree*)f->Get("T");
+
+ TString SPECTROMETER="H";
+ TString DETECTOR="dc";
+ TString plane_names[NPLANES]={"1x1", "1y1", "1u1", "1v1", "1y2", "1x2", "2x1", "2y1", "2u1", "2v1", "2y2", "2x2"};
+
+ //Declare Variables to Loop Over
+ Int_t Ndata[NPLANES];
+ Double_t hdc_time[NPLANES][1000];
+
+ //Declare Histogram array to store AVG drift times per plane
+ TH1F* h[NPLANES];
+
+ g->cd();
+
+ //Loop over each plane
+ for(Int_t ip=0; ip<NPLANES; ip++){
+ TString base_name = SPECTROMETER+"."+DETECTOR+"."+plane_names[ip];
+ TString ndata_name = "Ndata."+base_name+".time";
+ TString drift_time = base_name+".time";
+
+ TString drift_time_histo = "hdc"+plane_names[ip]+"_time: t0_corr";
+ TString title = "hdc"+plane_names[ip]+"_drifttime: t0-corrected";
+
+ //Set Branch Address
+ tree->SetBranchAddress(drift_time, hdc_time[ip]);
+ tree->SetBranchAddress(ndata_name, &Ndata[ip]); /* Ndata represents number of triggers vs number of hits that each trigger produced.
+ A hit is refer to as when a trigger(traversing particle), ionizes the WC gas and ionized
+ electrons reach the rearest sense wire, producing a detectable signal in the O'scope */
+
+ //Create Histograms
+ h[ip] = new TH1F(drift_time_histo, title, 200, -50, 350); //set time to 400 ns/200 bins = 2ns/bin
+}
+
+
+ //open and read tzero data file
+ ifstream ifs;
+ ifs.open("../data_files/" + run + "/tzero.dat");
+
+ double t_zero_offsets[NPLANES];
+
+ for (ip=0; ip < 12; ip++) {
+ ifs >> t_zero_offsets[ip]; //add tzero offsets to array
+ }
+
+ //Declare number of entries in the tree
+ Long64_t nentries = tree->GetEntries(); //number of triggers (particles that passed through all 4 hodo planes)
+
+ //Loop over all entries
+ for(Long64_t i=0; i<nentries; i++)
+ {
+ tree->GetEntry(i);
+
+
+ //Loop over number of hits for each trigger in each DC plane
+ for(ip=0; ip<NPLANES; ip++){
+
+
+
+ for(Int_t j=0; j<Ndata[ip]; j++){
+
+ h[ip]->Fill(hdc_time[ip][j] - t_zero_offsets[ip]); //add t0 offset correction
+ }
+
+
+
+
+
+ }
+
+}
+
+
+
+
+//Write histograms to file
+g->Write();
+
+
+
+}
diff --git a/CALIBRATION/hms_dc_calib/scripts/get_wire_tzero.C b/CALIBRATION/hms_dc_calib/scripts/get_wire_tzero.C
new file mode 100644
index 0000000000000000000000000000000000000000..290d96ce11012397fc0672a7e24f2eb9df792786
--- /dev/null
+++ b/CALIBRATION/hms_dc_calib/scripts/get_wire_tzero.C
@@ -0,0 +1,409 @@
+
+
+/*Script to extract reference time "t0" for each sense wire in a given HMS Wire Chamber Plane with COSMIC RUNS.
+20% (MAX BIN CONTENT) is calculated per wire, and the corresponding bin is fitted linearly about +/-
+a certain number of bins and this fit is extrapolated to y=0(x-axis). The extrapolated value is take to be t0*/
+
+#include <vector>
+#include <TMath>
+
+#define NPLANES 12
+
+void get_wire_tzero()
+{
+ using namespace std;
+
+ int run_NUM;
+ TString f0 = "input_RUN.txt";
+ ifstream infile(f0);
+ infile >> run_NUM;
+
+ //check if tzero_weighted_avg text file exists (if it does, DELETE IT, otherwise new values will be appended to it, in addition to pre-existing tzero values)
+ std::ifstream stream(Form("../data_files/run%d/tzero_weighted_avg_run%d.txt",run_NUM, run_NUM));
+ if (stream.good())
+ {
+ gSystem->Exec(Form("rm ../data_files/run%d/tzero_weighted_avg_run%d.txt",run_NUM, run_NUM));
+ }
+
+ TString run = Form("run%d", run_NUM);
+
+ //Declare plane names to loop over
+ TString plane_names[NPLANES]={"1x1", "1y1", "1u1", "1v1", "1y2", "1x2", "2x1", "2y1", "2u1", "2v1", "2y2", "2x2"};
+
+ //Declare a root file array to store individual DC cell drift times
+ TString root_file;
+ TFile *f[NPLANES];
+
+ int total_wires; //integer to store total sense wires for a plane chosen by the user
+
+ //Loop over all planes
+ for (int ip = 0; ip < NPLANES; ip++){
+
+ //READ root file
+ root_file = "../root_files/"+run+"/hms_DC_"+plane_names[ip]+Form("_%d.root",run_NUM);
+ f[ip] = new TFile(root_file, "READ");
+
+ //Create a file output file stream object to write t0 values to data file
+ ofstream ofs;
+ TString t_zero_file = "../data_files/" + run + "/hdc_"+plane_names[ip]+Form("tzero_run%d.dat", run_NUM);
+ ofs.open (t_zero_file);
+
+ //Set headers for subsequent columns of data
+ ofs << "#WIRE " << " " << "t0" << " " << "t0_err" << " " << " entries " << endl;
+
+ //Create root file to store fitted wire drift times histos and "t0 vs. wirenum"
+ TString output_root_file = "../root_files/"+run+"/hmsDC_"+plane_names[ip]+Form("run%d_fitted_histos.root", run_NUM);
+ TFile *g = new TFile(output_root_file,"RECREATE");
+
+ f[ip]->cd(); //change to file containing the wire drift times histos
+
+ int total_wires; //integer to store total sense wires for a plane chosen by the user
+
+ //Set variables depending on which plane is being studied
+ if (ip == 0 || ip == 5 || ip == 6 || ip == 11) {
+ TH1F *cell_dt[113]; //declare array of histos to store drift times
+ total_wires=113;
+
+ //Declare bin properties for given sense wires in a plane
+
+ int bin_max[113]; /*Array to store the bin number corresponding to the drift time distribution peak*/
+ int bin_maxContent[113]; /*Array to store the content (# events) corresponding to the bin with maximum content*/
+ double time_max[113]; /*Array to store the x-axis(drift time (ns)) corresponding to bin_max*/
+ double twenty_perc_maxContent[113]; /*Array to store 20% of maximum bin content (peak)*/
+ double ref_time[113]; /*Array to store reference times for each sense wire*/
+
+ }
+
+ else if (ip == 2 || ip == 3 || ip == 8 || ip == 9) {
+ TH1F *cell_dt[107];
+ total_wires=107;
+
+ int bin_max[107];
+ int bin_maxContent[107];
+ double time_max[107];
+ double twenty_perc_maxContent[107];
+ double ref_time[107];
+
+ }
+
+ else if (ip == 1 || ip == 4 || ip == 7 || ip == 10) {
+ TH1F *cell_dt[52];
+ total_wires=52;
+
+ int bin_max[52];
+ int bin_maxContent[52];
+ double time_max[52];
+ double twenty_perc_maxContent[52];
+ double ref_time[52];
+
+ }
+
+
+ /*Get wire histos from root file and loop over each
+ sense wire of a plane in HMS Drift Chambers (DC1 or DC2)*/
+
+ for (int sensewire=1; sensewire<=total_wires; sensewire++){
+
+ //Get title of histos in root file
+ TString drift_time_histo = Form("wire_%d", sensewire);
+
+ //Get drift time histograms from root file
+ cell_dt[sensewire-1] = (TH1F*)f[ip]->Get(drift_time_histo);
+
+
+ //Get bin with Maximum Content
+ bin_max[sensewire-1] = cell_dt[sensewire-1]->GetMaximumBin();
+
+ //Get content of bin_max
+ bin_maxContent[sensewire-1] = cell_dt[sensewire-1]->GetBinContent(bin_max[sensewire-1]);
+
+ //Get time (ns) [x-axis] corresponding to bin_max
+ time_max[sensewire-1] = cell_dt[sensewire-1]->GetXaxis()->GetBinCenter(bin_max[sensewire-1]);
+
+ //Calculate 20% of max content
+ twenty_perc_maxContent[sensewire-1] = bin_maxContent[sensewire-1] * 0.20;
+
+
+ }
+
+
+
+ //****************************************************//
+ //Determine which bin has around 20% max_BinContent *//
+ //****************************************************//
+
+
+ //Declarations
+ int content_bin; //stores content for each bin
+ int counts; //a counter used to count the number of bins that have >20% max bin content for a plane
+ int bin; //store bin number
+ int j; //jth bin, used to loop over n bins
+
+ //Declare vector arrays
+ vector<int> content; //stores bin content
+ vector <int> bin_num; //stores bin number
+
+
+ //Loop over each wire
+ for(sensewire=1; sensewire<=total_wires; sensewire++) {
+
+ //Loop over each bin for individual wire drift time histo
+ for(bin=0; bin < bin_max[sensewire-1]; bin++) {
+
+ content_bin = cell_dt[sensewire-1]->GetBinContent(bin); //get bin content for all bins in a wire
+
+ content.push_back(content_bin); //add bin content to array
+ bin_num.push_back(bin); //add bin number to array
+
+
+ // check if 2 bin contents have been stored and examine if these contents exceed or not 20% of peak
+ if (content.size() == 2) {
+
+ //initialize counter to count how many bin contents >= 20%
+ counts = 0;
+
+ // Loop over 2 bin contents stored in array content
+ for (j=0; j<2; j++){
+
+ if(content[j] > = twenty_perc_maxContent[sensewire-1]){
+ counts = counts+1;
+
+ if(counts >= 2) { goto stop;}
+
+
+ }
+
+ content.clear();
+ bin_num.clear();
+
+ }
+
+ }
+ }
+
+ //Print the time(ns) and BIN NUM corresponding to 20% of MAX content
+ //if 2/2 elements exceeds 20% of Max content (for each plane)
+
+ stop:
+ ref_time[sensewire-1] = cell_dt[sensewire-1] ->GetXaxis() -> GetBinCenter(bin_num[0]); //Get time corresponding ~20% Max BIN CONTENT
+
+ //cout << " ******* " << "Wire " << sensewire << " ******* " << endl;
+ //cout << "time (20% of Max BIN): " << ref_time[sensewire-1] << " ns" << endl;
+ //cout << "BIN: " << bin_num[0] << endl;
+
+
+ //*********************************************************//
+ //*******Extract the "t0" Using a Fitting Procedure********//
+ //*********************************************************//
+
+ //Declarations
+ int time_init; //start fit value
+ int time_final; //end fit value
+ int t_zero;
+ int entries; //entries for each wire
+
+ double m; //slope
+ double y_int; //y-intercept
+ double m_err;
+ double y_int_err;
+ double t_zero_err;
+
+ //Get time corresponding to bin (fit range)
+ time_init = cell_dt[sensewire-1] -> GetXaxis() -> GetBinCenter(bin_num[0]-5); //choose bin range over which to fit
+ time_final = cell_dt[sensewire-1] -> GetXaxis() -> GetBinCenter(bin_num[0]+5);
+
+ //Create Fit Function
+ TF1* tZero_fit = new TF1("tZero_fit", "[0]*x + [1]", time_init, time_final);
+
+ //Set Parameter Names and Values
+ tZero_fit->SetParName(0, "slope");
+ tZero_fit->SetParName(1, "y-int");
+ tZero_fit->SetParameter(0, 1.0);
+ tZero_fit->SetParameter(1, 1.0);
+
+ //Fit Function in specified range
+ cell_dt[sensewire-1]->Fit("tZero_fit", "QR");
+
+ //Get Parameters and their errors
+ m = tZero_fit->GetParameter(0);
+ y_int = tZero_fit->GetParameter(1);
+ m_err = tZero_fit->GetParError(0);
+ y_int_err = tZero_fit->GetParError(1);
+
+ //Calculate error on t0 using error propagation method of expanding partial derivatives
+ t_zero = - y_int/m;
+ t_zero_err = sqrt(y_int_err*y_int_err/(m*m) + y_int*y_int*m_err*m_err/(m*m*m*m) );
+ entries = cell_dt[sensewire-1]->GetEntries(); //number of entries (triggers) per wire
+
+ //Write "t0" values to file
+ ofs << sensewire << " " << t_zero << " " << t_zero_err << " " << entries << endl;
+
+ //Change to output root file and write fitted histos to file
+ g->cd();
+ cell_dt[sensewire-1]->Write();
+
+ }
+
+ // Make Plot of t0 versus Wire Number
+
+ TCanvas *t = new TCanvas("t", "", 2000,500);
+ t->SetGrid();
+
+
+ TGraphErrors *graph = new TGraphErrors(t_zero_file, "%lg %lg %lg");
+ graph->SetName("graph");
+ TString title = "DC"+plane_names[ip]+": t0 versus sensewire";
+ graph->SetTitle(title);
+ graph->SetMarkerStyle(20);
+ graph->SetMarkerColor(1);
+ graph->GetXaxis()->SetLimits(0., total_wires);
+ graph->GetXaxis()->SetTitle("Wire Number");
+ graph->GetXaxis()->CenterTitle();
+ graph->GetYaxis()->SetTitle("t-Zero (ns)");
+ graph->GetYaxis()->CenterTitle();
+ graph->GetYaxis()->SetRangeUser(-50.0, 50.0);
+ graph->Draw("AP");
+ t->Update();
+ t->Write(title); //write to a root file
+
+ //close dat file
+ ofs.close();
+ //save plots
+ //TString tzero_plots = "plots/"+run_NUM +"/hdc"+plane_names[ip]+Form("TESTING_tzero_v_wire_%d.eps", run);
+ //t->SaveAs(tzero_plots);
+
+
+ //*****************************************************************************************//
+ // CALCULATE THE "t0s" WEIGHTED AVERAGE FOR WIRE DRIFT TIMES WITH ENTRIES > = 300 //
+ //*****************************************************************************************//
+
+
+ //open t0 dat file
+ ifstream ifs;
+ ifs.open (t_zero_file);
+ string line;
+
+ //open new data file to write updated t0 values
+ TString t_zero_file_corr = "../data_files/" + run + "/hdc_"+plane_names[ip]+Form("tzero_run%d_updated.txt", run_NUM);
+ ofs.open(t_zero_file_corr);
+ ofs << " #Wire " << " " << " t_zero " << " " << " t_zero_err " << " " << " entries " << endl;
+
+ //Initialize variables related to weighted avg
+ double sum_NUM; //numerator of weighted avg
+ double sum_DEN; //denominator of weighted avg
+ double weighted_AVG;
+ double weighted_AVG_err;
+
+ //set them to zero to start sum inside while loop
+ sum_NUM = 0.0;
+ sum_DEN = 0.0;
+
+ weighted_AVG;
+ weighted_AVG_err;
+
+ //read line bt line the t_zero_file
+ while(getline(ifs, line)) {
+ if(!line.length()|| line[0] == '#')
+ continue;
+ // sensewire = 0, t_zero = 0.0, t_zero_err = 0.0, entries = 0 ; //set values to zero
+
+ sscanf(line.c_str(), "%d %d %lf %d", &sensewire, &t_zero, &t_zero_err, &entries); //assign each of the variables above a data in the t_zero_file
+
+ //Check if entries for each sensewire exceeds a certain number of events
+
+ if (entries>300 && t_zero < 30) {
+
+ //Calculate the weighted average of t0s
+ sum_NUM = sum_NUM + t_zero/(t_zero_err*t_zero_err);
+ sum_DEN = sum_DEN + 1.0/(t_zero_err*t_zero_err);
+
+ //cout << "sum_NUM : " << sum_NUM << endl;
+ //cout << "sum_DEN : " << sum_DEN << endl;
+
+
+
+
+ ofs << sensewire << " " << t_zero << " " << t_zero_err << " " << entries << endl;
+
+
+
+ }
+
+ }
+
+
+
+ weighted_AVG = sum_NUM / sum_DEN;
+ weighted_AVG_err = sqrt( 1.0 / sum_DEN );
+
+
+
+ //open new data file to write weighted average of updated t_zero values
+
+ TString t_zero_AVG = Form("../data_files/run%d/tzero_weighted_avg_run%d.txt", run_NUM, run_NUM);
+
+ ofstream ofile;
+ ofile.open(t_zero_AVG, std::ofstream::out | std::ofstream::app); //open file in and output and append mode
+
+ ofile << " #weighted_AVG " << " " << " DC plane: " << plane_names[ip] << endl;
+ ofile << weighted_AVG << endl;
+
+
+
+
+
+ ifs.close();
+
+ // Make Plot of t0 versus Wire Number for entries > 300 events
+
+ TCanvas *t1 = new TCanvas("t1", "", 2000,500);
+ t1->SetGrid();
+
+ //TString mygraph = "hdc"+plane_names[ip]+Form("_t_zero_run%d.txt", run);
+ TGraphErrors *graph1 = new TGraphErrors(t_zero_file_corr, "%lg %lg %lg");
+ graph1->SetName("graph1");
+ TString title1 = "hdc"+plane_names[ip]+": t0 versus sensewire_corrected";
+ graph1->SetTitle(title1);
+ graph1->SetMarkerStyle(20);
+ graph1->SetMarkerColor(1);
+ //graph1->GetXaxis()->SetLimits(0., total_wires);
+ graph1->GetXaxis()->SetTitle("Wire Number");
+ graph1->GetXaxis()->CenterTitle();
+ graph1->GetYaxis()->SetTitle("t-Zero (ns)");
+ graph1->GetYaxis()->CenterTitle();
+ graph1->GetYaxis()->SetRangeUser(-50.0, 50.0);
+ graph1->Draw("AP");
+ t1->Update();
+
+ // Draw TLine
+ TLine *wght_avg = new TLine(t1->GetUxmin(), weighted_AVG, t1->GetUxmax(), weighted_AVG);
+ wght_avg->SetLineColor(kRed);
+ wght_avg->SetLineWidth(2);
+ wght_avg->SetLineStyle(2);
+ wght_avg->Draw();
+
+ //Add text to canvas
+ TLatex* ltx1 = new TLatex();
+ ltx1->DrawLatex(t1->GetUxmax()*0.75,40, Form("Weighted Average = %lf #pm %lf ns", weighted_AVG, weighted_AVG_err) );
+
+ t1->Write(title1); //write canvas to a root file
+
+ ofs.close(); //close data file
+
+
+
+
+
+
+
+
+
+
+ }
+
+
+
+
+
+
+}
diff --git a/CALIBRATION/hms_dc_calib/scripts/update_hdcparam.C b/CALIBRATION/hms_dc_calib/scripts/update_hdcparam.C
new file mode 100644
index 0000000000000000000000000000000000000000..85acf3c94984dc62945d2577486415869ec226eb
--- /dev/null
+++ b/CALIBRATION/hms_dc_calib/scripts/update_hdcparam.C
@@ -0,0 +1,111 @@
+//This scirpt will produce an updated version of hdc.param file, with
+//the necessary t-zero corrections
+#define time_shift 1300.0
+
+void update_hdcparam()
+{
+
+ //read run number from input file
+ int run_NUM;
+ TString f0 = "input_RUN.txt";
+ ifstream infile(f0);
+ infile >> run_NUM;
+
+ TString run = Form("run%d", run_NUM);
+
+ int lin_NUM = 0;
+ string t_zero[12];
+ double tzero[12];
+ string line;
+ //open t_zero file
+ ifstream ifs;
+ ifs.open("../data_files/"+ run +"/tzero_weighted_avg_" + run + ".txt");
+
+
+while (getline(ifs, line))
+ {
+
+ istringstream ss(line);
+ char id;
+
+ if ( ss >> t_zero)
+ {
+
+ if (id != '#') //skip comments
+ {
+ //count lines
+ lin_NUM = lin_NUM + 1;
+ cout << lin_NUM << endl;
+ t_zero[lin_NUM-1] = line;
+ tzero[lin_NUM-1] = atof(t_zero[lin_NUM-1].c_str()); // convert string to double
+ cout << tzero[lin_NUM-1] << endl;
+ }
+
+ }
+
+ }
+ifs.close();
+
+//Update hdc.param parameter file
+TString hdc_param = "../../../PARAM/HMS/DC/hdc_new.param";
+ofstream ofs(hdc_param);
+
+ofs << ";---------------------------------------------------------------------" << endl;
+ofs <<"; HMS_TRACKING"<< endl;
+ofs <<"; CTP parameter file containing all tracking parameters for the HMS "<< endl;
+ofs <<";----------------------------------------------------------------------"<< endl;
+ofs <<"; sigma of wire chamber resolution for each plane "<< endl;
+ofs <<" hdc_sigma = 0.020 "<< endl;
+ofs <<" 0.020"<< endl;
+ofs <<" 0.020"<< endl;
+ofs <<" 0.020"<< endl;
+ofs <<" 0.020"<< endl;
+ofs <<" 0.020"<< endl;
+ofs <<" 0.020"<< endl;
+ofs <<" 0.020"<< endl;
+ofs <<" 0.020"<< endl;
+ofs <<" 0.020"<< endl;
+ofs <<" 0.020"<< endl;
+ofs <<" 0.020"<< endl;
+ofs <<" hdc_tdc_min_win = -25000,-25000,-25000,-25000,-25000,-25000 "<< endl;
+ofs <<" -25000,-25000,-25000,-25000,-25000,-25000 "<< endl;
+ofs <<" hdc_tdc_max_win = 25000,25000,25000,25000,25000,25000 "<< endl;
+ofs <<" 25000,25000,25000,25000,25000,25000 "<< endl;
+ofs <<"; hms drift chamber tdc's time per channel "<< endl;
+ofs <<" hdc_tdc_time_per_channel = -0.10 "<< endl;
+ofs <<"; hms zero time for drift chambers !DECREASING this number moves the hdtime plots to LOWER time. "<< endl;
+ofs <<"hdc_plane_time_zero = ";
+
+
+//*****************************************************************
+//output all t_0 corrected values to hdc.param
+for (int i=0; i<12; i++) {
+{
+if (i < = 5){
+ofs << time_shift - tzero[i] << ",";
+}
+if (i ==6) {ofs << "\n" << time_shift - tzero[6] << ",";}
+else if (i>6 && i <11) {
+ofs << time_shift - tzero[i] << ",";
+}
+if (i==11){ ofs << time_shift - tzero[i] << endl;}
+}
+}
+//*****************************************************************
+ofs << "\n";
+ofs <<"; Dave Abbott's wire velocity correction "<< endl;
+ofs <<"hdc_wire_velocity = 12.0 "<< endl;
+ofs <<"hdc_central_time = 7,9,3,4,6,5 "<< endl;
+ofs << " 7,5,3,4,6,6" << endl;
+ofs.close();
+
+//create a t_zero data file copy in another directory that will also use these values
+TString tzero_dat = "../data_files/" + run + "/tzero.dat";
+ofstream ofs(tzero_dat);
+
+for (int i=0; i<12; i++)
+{
+ofs << tzero[i] << endl;
+}
+
+}
diff --git a/CALIBRATION/hms_dc_calib/scripts/wire_drift_times.C b/CALIBRATION/hms_dc_calib/scripts/wire_drift_times.C
new file mode 100644
index 0000000000000000000000000000000000000000..11c86b9c7f23e1a5831e1e51376de7a22d258718
--- /dev/null
+++ b/CALIBRATION/hms_dc_calib/scripts/wire_drift_times.C
@@ -0,0 +1,305 @@
+#define wire_drift_times_cxx
+#include "wire_drift_times.h"
+#include <TH2.h>
+#include <TStyle.h>
+#include <TCanvas.h>
+#define NPLANES 12
+
+void wire_drift_times::Loop()
+{
+// In a ROOT session, you can do:
+// Root > .L wire_drift_times.C
+// Root > wire_drift_times t
+// Root > t.GetEntry(12); // Fill t data members with entry number 12
+// Root > t.Show(); // Show values of entry 12
+// Root > t.Show(16); // Read and show values of entry 16
+// Root > t.Loop(); // Loop on all entries
+//
+
+// This is the loop skeleton where:
+// jentry is the global entry number in the chain
+// ientry is the entry number in the current Tree
+// Note that the argument to GetEntry must be:
+// jentry for TChain::GetEntry
+// ientry for TTree::GetEntry and TBranch::GetEntry
+//
+// To read only selected branches, Insert statements like:
+// METHOD1:
+// fChain->SetBranchStatus("*",0); // disable all branches
+// fChain->SetBranchStatus("branchname",1); // activate branchname
+// METHOD2: replace line
+// fChain->GetEntry(jentry); //read all branches
+//by b_branchname->GetEntry(ientry); //read only this branch
+ if (fChain == 0) return;
+
+ Long64_t nentries = fChain->GetEntriesFast();
+
+//Read Run Number from txt file
+int run_NUM;
+TString f0 = "input_RUN.txt";
+ifstream infile(f0);
+infile >> run_NUM;
+
+ TString run = Form("run%d", run_NUM);
+//Declare plane names to loop over
+TString plane_names[NPLANES]={"1x1", "1y1", "1u1", "1v1", "1y2", "1x2", "2x1", "2y1", "2u1", "2v1", "2y2", "2x2"};
+
+//Declare a root file array to store individual DC cell drift times
+TString root_file[NPLANES];
+TFile *g[NPLANES];
+
+int total_wires; //integer to store total sense wires for a plane chosen by the user
+
+ Long64_t nbytes = 0, nb = 0;
+
+//Loop over all planes
+for (int ip = 0; ip < NPLANES; ip++){
+
+//Initialize a root file array to store individual DC cell drift times
+root_file[ip] = "../root_files/" + run + "/hms_DC_"+plane_names[ip]+Form("_%d.root", run_NUM);
+g[ip] = new TFile(root_file[ip], "RECREATE");
+g[ip]->cd();
+
+/*========================PLANES 1X1,1X2,2X1,2X2=====================================*/
+
+ //If specific planes are encountered, treat them as follows:
+
+ if(ip==0 || ip==5 || ip==6 || ip==11) {
+
+ total_wires = 113;
+ TH1F *cell_dt[113];
+ TH2F *wire_vs_dt = new TH2F("wire_vs_dt", "", 200., -50., 350., 113., 0.,113.);
+
+ //Initialize wire drift time histograms
+ for (int wirenum=1; wirenum<=total_wires; wirenum++){
+ cell_dt[wirenum-1] = new TH1F(Form("wire_%d", wirenum), "", 200., -50., 350.);
+ }
+
+ //Loop over all entries (triggers or events)
+ for (Long64_t jentry=0; jentry<nentries; jentry++) {
+ Long64_t ientry = LoadTree(jentry);
+ if (ientry < 0) break;
+ nb = fChain->GetEntry(jentry); nbytes += nb;
+ // if (Cut(ientry) < 0) continue;
+
+ if (ip==0) {
+ for (int i=0; i< Ndata_H_dc_1x1_wirenum; i++){
+ wirenum = int(H_dc_1x1_wirenum[i]);
+ //cout << " wire num: " << H_dc_1x1_wirenum[i] << endl;
+ //cout << "Time: " << H_dc_1x1_time[i] << endl;
+
+ //Fill the Histograms
+ cell_dt[wirenum-1]->Fill(H_dc_1x1_time[i]);
+ wire_vs_dt->Fill(H_dc_1x1_time[i], H_dc_1x1_wirenum[i]);
+
+ }
+ }
+
+ if (ip==5) {
+ for (int i=0; i< Ndata_H_dc_1x2_wirenum; i++){
+ wirenum = int(H_dc_1x2_wirenum[i]);
+ //cout << " wire num: " << H_dc_1x2_wirenum[i] << endl;
+ //cout << "Time: " << H_dc_1x2_time[i] << endl;
+
+ //Fill the Histograms
+ cell_dt[wirenum-1]->Fill(H_dc_1x2_time[i]);
+ wire_vs_dt->Fill(H_dc_1x2_time[i], H_dc_1x2_wirenum[i]);
+
+ }
+ }
+
+ if (ip==6) {
+ for (int i=0; i< Ndata_H_dc_2x1_wirenum; i++){
+ wirenum = int(H_dc_2x1_wirenum[i]);
+ //cout << " wire num: " << H_dc_2x1_wirenum[i] << endl;
+ //cout << "Time: " << H_dc_2x1_time[i] << endl;
+
+ //Fill the Histograms
+ cell_dt[wirenum-1]->Fill(H_dc_2x1_time[i]);
+ wire_vs_dt->Fill(H_dc_2x1_time[i], H_dc_2x1_wirenum[i]);
+
+ }
+ }
+
+ if (ip==11) {
+ for (int i=0; i< Ndata_H_dc_2x2_wirenum; i++){
+ wirenum = int(H_dc_2x2_wirenum[i]);
+ //cout << " wire num: " << H_dc_2x2_wirenum[i] << endl;
+ //cout << "Time: " << H_dc_2x2_time[i] << endl;
+
+ //Fill the Histograms
+ cell_dt[wirenum-1]->Fill(H_dc_2x2_time[i]);
+ wire_vs_dt->Fill(H_dc_2x2_time[i], H_dc_2x2_wirenum[i]);
+
+ }
+ }
+
+
+
+ }
+ }
+
+ /*PLANE 1U1, 1V1, 2U1, 2V1*/
+ //If specific planes are encountered, treat them as follows:
+ if(ip==2 || ip==3 || ip==8 || ip==9) {
+
+ total_wires = 107;
+ TH1F *cell_dt[107];
+ TH2F *wire_vs_dt = new TH2F("wire_vs_dt", "", 200., -50., 350., 107., 0.,107.);
+
+ //Initialize wire drift time histograms
+ for (int wirenum=1; wirenum<=total_wires; wirenum++){
+ cell_dt[wirenum-1] = new TH1F(Form("wire_%d", wirenum), "", 200., -50., 350.);
+ }
+
+ //Loop over all entries (triggers or events)
+ for (Long64_t jentry=0; jentry<nentries; jentry++) {
+ Long64_t ientry = LoadTree(jentry);
+ if (ientry < 0) break;
+ nb = fChain->GetEntry(jentry); nbytes += nb;
+ // if (Cut(ientry) < 0) continue;
+
+ if (ip==2) {
+ for (int i=0; i< Ndata_H_dc_1u1_wirenum; i++){
+ wirenum = int(H_dc_1u1_wirenum[i]);
+ //cout << " wire num: " << H_dc_1u1_wirenum[i] << endl;
+ //cout << "Time: " << H_dc_1u1_time[i] << endl;
+
+ //Fill the Histograms
+ cell_dt[wirenum-1]->Fill(H_dc_1u1_time[i]);
+ wire_vs_dt->Fill(H_dc_1u1_time[i], H_dc_1u1_wirenum[i]);
+
+ }
+ }
+
+ if (ip==3) {
+ for (int i=0; i< Ndata_H_dc_1v1_wirenum; i++){
+ wirenum = int(H_dc_1v1_wirenum[i]);
+ //cout << " wire num: " << H_dc_1v1_wirenum[i] << endl;
+ //cout << "Time: " << H_dc_1v1_time[i] << endl;
+
+ //Fill the Histograms
+ cell_dt[wirenum-1]->Fill(H_dc_1v1_time[i]);
+ wire_vs_dt->Fill(H_dc_1v1_time[i], H_dc_1v1_wirenum[i]);
+
+ }
+ }
+
+ if (ip==8) {
+ for (int i=0; i< Ndata_H_dc_2u1_wirenum; i++){
+ wirenum = int(H_dc_2u1_wirenum[i]);
+ //cout << " wire num: " << H_dc_2u1_wirenum[i] << endl;
+ //cout << "Time: " << H_dc_2u1_time[i] << endl;
+
+ //Fill the Histograms
+ cell_dt[wirenum-1]->Fill(H_dc_2u1_time[i]);
+ wire_vs_dt->Fill(H_dc_2u1_time[i], H_dc_2u1_wirenum[i]);
+
+ }
+ }
+
+ if (ip==9) {
+ for (int i=0; i< Ndata_H_dc_2v1_wirenum; i++){
+ wirenum = int(H_dc_2v1_wirenum[i]);
+ //cout << " wire num: " << H_dc_2v1_wirenum[i] << endl;
+ //cout << "Time: " << H_dc_2v1_time[i] << endl;
+
+ //Fill the Histograms
+ cell_dt[wirenum-1]->Fill(H_dc_2v1_time[i]);
+ wire_vs_dt->Fill(H_dc_2v1_time[i], H_dc_2v1_wirenum[i]);
+
+ }
+ }
+
+
+
+ }
+ }
+
+ /*PLANE 1Y1, 1Y2, 2Y1, 2Y2*/
+ //If specific planes are encountered, treat them as follows:
+ if(ip==1 || ip==4 || ip==7 || ip==10) {
+
+ total_wires = 52;
+ TH1F *cell_dt[52];
+ TH2F *wire_vs_dt = new TH2F("wire_vs_dt", "", 200., -50., 350., 52., 0.,52.);
+
+ //Initialize wire drift time histograms
+ for (int wirenum=1; wirenum<=total_wires; wirenum++){
+ cell_dt[wirenum-1] = new TH1F(Form("wire_%d", wirenum), "", 200., -50., 350.);
+ }
+
+ //Loop over all entries (triggers or events)
+ for (Long64_t jentry=0; jentry<nentries; jentry++) {
+ Long64_t ientry = LoadTree(jentry);
+ if (ientry < 0) break;
+ nb = fChain->GetEntry(jentry); nbytes += nb;
+ // if (Cut(ientry) < 0) continue;
+
+ if (ip==1) {
+ for (int i=0; i< Ndata_H_dc_1y1_wirenum; i++){
+ wirenum = int(H_dc_1y1_wirenum[i]);
+ //cout << " wire num: " << H_dc_1y1_wirenum[i] << endl;
+ //cout << "Time: " << H_dc_1y1_time[i] << endl;
+
+ //Fill the Histograms
+ cell_dt[wirenum-1]->Fill(H_dc_1y1_time[i]);
+ wire_vs_dt->Fill(H_dc_1y1_time[i], H_dc_1y1_wirenum[i]);
+
+ }
+ }
+
+ if (ip==4) {
+ for (int i=0; i< Ndata_H_dc_1y2_wirenum; i++){
+ wirenum = int(H_dc_1y2_wirenum[i]);
+ //cout << " wire num: " << H_dc_1y2_wirenum[i] << endl;
+ //cout << "Time: " << H_dc_1y2_time[i] << endl;
+
+ //Fill the Histograms
+ cell_dt[wirenum-1]->Fill(H_dc_1y2_time[i]);
+ wire_vs_dt->Fill(H_dc_1y2_time[i], H_dc_1y2_wirenum[i]);
+
+ }
+ }
+
+ if (ip==7) {
+ for (int i=0; i< Ndata_H_dc_2y1_wirenum; i++){
+ wirenum = int(H_dc_2y1_wirenum[i]);
+ //cout << " wire num: " << H_dc_2y1_wirenum[i] << endl;
+ //cout << "Time: " << H_dc_2y1_time[i] << endl;
+
+ //Fill the Histograms
+ cell_dt[wirenum-1]->Fill(H_dc_2y1_time[i]);
+ wire_vs_dt->Fill(H_dc_2y1_time[i], H_dc_2y1_wirenum[i]);
+
+ }
+ }
+
+ if (ip==10) {
+ for (int i=0; i< Ndata_H_dc_2y2_wirenum; i++){
+ wirenum = int(H_dc_2y2_wirenum[i]);
+ //cout << " wire num: " << H_dc_2y2_wirenum[i] << endl;
+ //cout << "Time: " << H_dc_2y2_time[i] << endl;
+
+ //Fill the Histograms
+ cell_dt[wirenum-1]->Fill(H_dc_2y2_time[i]);
+ wire_vs_dt->Fill(H_dc_2y2_time[i], H_dc_2y2_wirenum[i]);
+
+ }
+ }
+
+
+
+ }
+ }
+
+//Write wire drift time histos to file
+g[ip]->Write();
+ cout << "EVERYTHING OK in plane:" << ip << endl;
+
+}
+
+
+ // cout << "\r \r" << (float)sensewire / total_wires * 100.0 << "%" << flush;
+
+}
diff --git a/CALIBRATION/hms_dc_calib/scripts/wire_drift_times.h b/CALIBRATION/hms_dc_calib/scripts/wire_drift_times.h
new file mode 100644
index 0000000000000000000000000000000000000000..e0bafccdedf4a84ac57140b86ef5906261106bd6
--- /dev/null
+++ b/CALIBRATION/hms_dc_calib/scripts/wire_drift_times.h
@@ -0,0 +1,550 @@
+//////////////////////////////////////////////////////////
+// This class has been automatically generated on
+// Sun Dec 18 12:03:19 2016 by ROOT version 5.34/18
+// from TTree T/Hall A Analyzer Output DST
+// found on file: test_259.root
+//////////////////////////////////////////////////////////
+
+#ifndef wire_drift_times_h
+#define wire_drift_times_h
+
+#include <TROOT.h>
+#include <TChain.h>
+#include <TFile.h>
+
+// Header file for the classes stored in the TTree if any.
+
+// Fixed size dimensions of array or collections stored in the TTree if any.
+
+class wire_drift_times {
+public :
+ TTree *fChain; //!pointer to the analyzed TTree or TChain
+ Int_t fCurrent; //!current Tree number in a TChain
+
+ // Declaration of leaf types
+ Int_t Ndata_H_dc_1u1_dist;
+ Double_t H_dc_1u1_dist[107]; //[Ndata.H.dc.1u1.dist]
+ Int_t Ndata_H_dc_1u1_rawtdc;
+ Double_t H_dc_1u1_rawtdc[107]; //[Ndata.H.dc.1u1.rawtdc]
+ Int_t Ndata_H_dc_1u1_time;
+ Double_t H_dc_1u1_time[107]; //[Ndata.H.dc.1u1.time]
+ Int_t Ndata_H_dc_1u1_wirenum;
+ Double_t H_dc_1u1_wirenum[107]; //[Ndata.H.dc.1u1.wirenum]
+ Int_t Ndata_H_dc_1v1_dist;
+ Double_t H_dc_1v1_dist[107]; //[Ndata.H.dc.1v1.dist]
+ Int_t Ndata_H_dc_1v1_rawtdc;
+ Double_t H_dc_1v1_rawtdc[107]; //[Ndata.H.dc.1v1.rawtdc]
+ Int_t Ndata_H_dc_1v1_time;
+ Double_t H_dc_1v1_time[107]; //[Ndata.H.dc.1v1.time]
+ Int_t Ndata_H_dc_1v1_wirenum;
+ Double_t H_dc_1v1_wirenum[107]; //[Ndata.H.dc.1v1.wirenum]
+ Int_t Ndata_H_dc_1x1_dist;
+ Double_t H_dc_1x1_dist[113]; //[Ndata.H.dc.1x1.dist]
+ Int_t Ndata_H_dc_1x1_rawtdc;
+ Double_t H_dc_1x1_rawtdc[113]; //[Ndata.H.dc.1x1.rawtdc]
+ Int_t Ndata_H_dc_1x1_time;
+ Double_t H_dc_1x1_time[113]; //[Ndata.H.dc.1x1.time]
+ Int_t Ndata_H_dc_1x1_wirenum;
+ Double_t H_dc_1x1_wirenum[113]; //[Ndata.H.dc.1x1.wirenum]
+ Int_t Ndata_H_dc_1x2_dist;
+ Double_t H_dc_1x2_dist[113]; //[Ndata.H.dc.1x2.dist]
+ Int_t Ndata_H_dc_1x2_rawtdc;
+ Double_t H_dc_1x2_rawtdc[113]; //[Ndata.H.dc.1x2.rawtdc]
+ Int_t Ndata_H_dc_1x2_time;
+ Double_t H_dc_1x2_time[113]; //[Ndata.H.dc.1x2.time]
+ Int_t Ndata_H_dc_1x2_wirenum;
+ Double_t H_dc_1x2_wirenum[113]; //[Ndata.H.dc.1x2.wirenum]
+ Int_t Ndata_H_dc_1y1_dist;
+ Double_t H_dc_1y1_dist[52]; //[Ndata.H.dc.1y1.dist]
+ Int_t Ndata_H_dc_1y1_rawtdc;
+ Double_t H_dc_1y1_rawtdc[52]; //[Ndata.H.dc.1y1.rawtdc]
+ Int_t Ndata_H_dc_1y1_time;
+ Double_t H_dc_1y1_time[52]; //[Ndata.H.dc.1y1.time]
+ Int_t Ndata_H_dc_1y1_wirenum;
+ Double_t H_dc_1y1_wirenum[52]; //[Ndata.H.dc.1y1.wirenum]
+ Int_t Ndata_H_dc_1y2_dist;
+ Double_t H_dc_1y2_dist[52]; //[Ndata.H.dc.1y2.dist]
+ Int_t Ndata_H_dc_1y2_rawtdc;
+ Double_t H_dc_1y2_rawtdc[52]; //[Ndata.H.dc.1y2.rawtdc]
+ Int_t Ndata_H_dc_1y2_time;
+ Double_t H_dc_1y2_time[52]; //[Ndata.H.dc.1y2.time]
+ Int_t Ndata_H_dc_1y2_wirenum;
+ Double_t H_dc_1y2_wirenum[52]; //[Ndata.H.dc.1y2.wirenum]
+ Int_t Ndata_H_dc_2u1_dist;
+ Double_t H_dc_2u1_dist[107]; //[Ndata.H.dc.2u1.dist]
+ Int_t Ndata_H_dc_2u1_rawtdc;
+ Double_t H_dc_2u1_rawtdc[107]; //[Ndata.H.dc.2u1.rawtdc]
+ Int_t Ndata_H_dc_2u1_time;
+ Double_t H_dc_2u1_time[107]; //[Ndata.H.dc.2u1.time]
+ Int_t Ndata_H_dc_2u1_wirenum;
+ Double_t H_dc_2u1_wirenum[107]; //[Ndata.H.dc.2u1.wirenum]
+ Int_t Ndata_H_dc_2v1_dist;
+ Double_t H_dc_2v1_dist[107]; //[Ndata.H.dc.2v1.dist]
+ Int_t Ndata_H_dc_2v1_rawtdc;
+ Double_t H_dc_2v1_rawtdc[107]; //[Ndata.H.dc.2v1.rawtdc]
+ Int_t Ndata_H_dc_2v1_time;
+ Double_t H_dc_2v1_time[107]; //[Ndata.H.dc.2v1.time]
+ Int_t Ndata_H_dc_2v1_wirenum;
+ Double_t H_dc_2v1_wirenum[107]; //[Ndata.H.dc.2v1.wirenum]
+ Int_t Ndata_H_dc_2x1_dist;
+ Double_t H_dc_2x1_dist[113]; //[Ndata.H.dc.2x1.dist]
+ Int_t Ndata_H_dc_2x1_rawtdc;
+ Double_t H_dc_2x1_rawtdc[113]; //[Ndata.H.dc.2x1.rawtdc]
+ Int_t Ndata_H_dc_2x1_time;
+ Double_t H_dc_2x1_time[113]; //[Ndata.H.dc.2x1.time]
+ Int_t Ndata_H_dc_2x1_wirenum;
+ Double_t H_dc_2x1_wirenum[113]; //[Ndata.H.dc.2x1.wirenum]
+ Int_t Ndata_H_dc_2x2_dist;
+ Double_t H_dc_2x2_dist[113]; //[Ndata.H.dc.2x2.dist]
+ Int_t Ndata_H_dc_2x2_rawtdc;
+ Double_t H_dc_2x2_rawtdc[113]; //[Ndata.H.dc.2x2.rawtdc]
+ Int_t Ndata_H_dc_2x2_time;
+ Double_t H_dc_2x2_time[113]; //[Ndata.H.dc.2x2.time]
+ Int_t Ndata_H_dc_2x2_wirenum;
+ Double_t H_dc_2x2_wirenum[113]; //[Ndata.H.dc.2x2.wirenum]
+ Int_t Ndata_H_dc_2y1_dist;
+ Double_t H_dc_2y1_dist[52]; //[Ndata.H.dc.2y1.dist]
+ Int_t Ndata_H_dc_2y1_rawtdc;
+ Double_t H_dc_2y1_rawtdc[52]; //[Ndata.H.dc.2y1.rawtdc]
+ Int_t Ndata_H_dc_2y1_time;
+ Double_t H_dc_2y1_time[52]; //[Ndata.H.dc.2y1.time]
+ Int_t Ndata_H_dc_2y1_wirenum;
+ Double_t H_dc_2y1_wirenum[52]; //[Ndata.H.dc.2y1.wirenum]
+ Int_t Ndata_H_dc_2y2_dist;
+ Double_t H_dc_2y2_dist[52]; //[Ndata.H.dc.2y2.dist]
+ Int_t Ndata_H_dc_2y2_rawtdc;
+ Double_t H_dc_2y2_rawtdc[52]; //[Ndata.H.dc.2y2.rawtdc]
+ Int_t Ndata_H_dc_2y2_time;
+ Double_t H_dc_2y2_time[52]; //[Ndata.H.dc.2y2.time]
+ Int_t Ndata_H_dc_2y2_wirenum;
+ Double_t H_dc_2y2_wirenum[52]; //[Ndata.H.dc.2y2.wirenum]
+ Int_t Ndata_H_dc_residual;
+ Double_t H_dc_residual[12]; //[Ndata.H.dc.residual]
+ Int_t Ndata_H_dc_x;
+ Double_t H_dc_x[8]; //[Ndata.H.dc.x]
+ Int_t Ndata_H_dc_xp;
+ Double_t H_dc_xp[8]; //[Ndata.H.dc.xp]
+ Int_t Ndata_H_dc_y;
+ Double_t H_dc_y[8]; //[Ndata.H.dc.y]
+ Int_t Ndata_H_dc_yp;
+ Double_t H_dc_yp[8]; //[Ndata.H.dc.yp]
+ Double_t H_dc_1u1_nhit;
+ Double_t H_dc_1v1_nhit;
+ Double_t H_dc_1x1_nhit;
+ Double_t H_dc_1x2_nhit;
+ Double_t H_dc_1y1_nhit;
+ Double_t H_dc_1y2_nhit;
+ Double_t H_dc_2u1_nhit;
+ Double_t H_dc_2v1_nhit;
+ Double_t H_dc_2x1_nhit;
+ Double_t H_dc_2x2_nhit;
+ Double_t H_dc_2y1_nhit;
+ Double_t H_dc_2y2_nhit;
+ Double_t H_dc_Ch1_maxhits;
+ Double_t H_dc_Ch1_nhit;
+ Double_t H_dc_Ch1_spacepoints;
+ Double_t H_dc_Ch1_trawhit;
+ Double_t H_dc_Ch2_maxhits;
+ Double_t H_dc_Ch2_nhit;
+ Double_t H_dc_Ch2_spacepoints;
+ Double_t H_dc_Ch2_trawhit;
+ Double_t H_dc_nhit;
+ Double_t H_dc_nsp;
+ Double_t H_dc_ntrack;
+ Double_t H_dc_stubtest;
+ Double_t H_dc_tnhit;
+ Double_t H_dc_trawhit;
+
+ //THaEvent *Event_Branch;
+ ULong64_t fEvtHdr_fEvtTime;
+ UInt_t fEvtHdr_fEvtNum;
+ Int_t fEvtHdr_fEvtType;
+ Int_t fEvtHdr_fEvtLen;
+ Int_t fEvtHdr_fHelicity;
+ Int_t fEvtHdr_fTargetPol;
+ Int_t fEvtHdr_fRun;
+
+ // List of branches
+ TBranch *b_Ndata_H_dc_1u1_dist; //!
+ TBranch *b_H_dc_1u1_dist; //!
+ TBranch *b_Ndata_H_dc_1u1_rawtdc; //!
+ TBranch *b_H_dc_1u1_rawtdc; //!
+ TBranch *b_Ndata_H_dc_1u1_time; //!
+ TBranch *b_H_dc_1u1_time; //!
+ TBranch *b_Ndata_H_dc_1u1_wirenum; //!
+ TBranch *b_H_dc_1u1_wirenum; //!
+ TBranch *b_Ndata_H_dc_1v1_dist; //!
+ TBranch *b_H_dc_1v1_dist; //!
+ TBranch *b_Ndata_H_dc_1v1_rawtdc; //!
+ TBranch *b_H_dc_1v1_rawtdc; //!
+ TBranch *b_Ndata_H_dc_1v1_time; //!
+ TBranch *b_H_dc_1v1_time; //!
+ TBranch *b_Ndata_H_dc_1v1_wirenum; //!
+ TBranch *b_H_dc_1v1_wirenum; //!
+ TBranch *b_Ndata_H_dc_1x1_dist; //!
+ TBranch *b_H_dc_1x1_dist; //!
+ TBranch *b_Ndata_H_dc_1x1_rawtdc; //!
+ TBranch *b_H_dc_1x1_rawtdc; //!
+ TBranch *b_Ndata_H_dc_1x1_time; //!
+ TBranch *b_H_dc_1x1_time; //!
+ TBranch *b_Ndata_H_dc_1x1_wirenum; //!
+ TBranch *b_H_dc_1x1_wirenum; //!
+ TBranch *b_Ndata_H_dc_1x2_dist; //!
+ TBranch *b_H_dc_1x2_dist; //!
+ TBranch *b_Ndata_H_dc_1x2_rawtdc; //!
+ TBranch *b_H_dc_1x2_rawtdc; //!
+ TBranch *b_Ndata_H_dc_1x2_time; //!
+ TBranch *b_H_dc_1x2_time; //!
+ TBranch *b_Ndata_H_dc_1x2_wirenum; //!
+ TBranch *b_H_dc_1x2_wirenum; //!
+ TBranch *b_Ndata_H_dc_1y1_dist; //!
+ TBranch *b_H_dc_1y1_dist; //!
+ TBranch *b_Ndata_H_dc_1y1_rawtdc; //!
+ TBranch *b_H_dc_1y1_rawtdc; //!
+ TBranch *b_Ndata_H_dc_1y1_time; //!
+ TBranch *b_H_dc_1y1_time; //!
+ TBranch *b_Ndata_H_dc_1y1_wirenum; //!
+ TBranch *b_H_dc_1y1_wirenum; //!
+ TBranch *b_Ndata_H_dc_1y2_dist; //!
+ TBranch *b_H_dc_1y2_dist; //!
+ TBranch *b_Ndata_H_dc_1y2_rawtdc; //!
+ TBranch *b_H_dc_1y2_rawtdc; //!
+ TBranch *b_Ndata_H_dc_1y2_time; //!
+ TBranch *b_H_dc_1y2_time; //!
+ TBranch *b_Ndata_H_dc_1y2_wirenum; //!
+ TBranch *b_H_dc_1y2_wirenum; //!
+ TBranch *b_Ndata_H_dc_2u1_dist; //!
+ TBranch *b_H_dc_2u1_dist; //!
+ TBranch *b_Ndata_H_dc_2u1_rawtdc; //!
+ TBranch *b_H_dc_2u1_rawtdc; //!
+ TBranch *b_Ndata_H_dc_2u1_time; //!
+ TBranch *b_H_dc_2u1_time; //!
+ TBranch *b_Ndata_H_dc_2u1_wirenum; //!
+ TBranch *b_H_dc_2u1_wirenum; //!
+ TBranch *b_Ndata_H_dc_2v1_dist; //!
+ TBranch *b_H_dc_2v1_dist; //!
+ TBranch *b_Ndata_H_dc_2v1_rawtdc; //!
+ TBranch *b_H_dc_2v1_rawtdc; //!
+ TBranch *b_Ndata_H_dc_2v1_time; //!
+ TBranch *b_H_dc_2v1_time; //!
+ TBranch *b_Ndata_H_dc_2v1_wirenum; //!
+ TBranch *b_H_dc_2v1_wirenum; //!
+ TBranch *b_Ndata_H_dc_2x1_dist; //!
+ TBranch *b_H_dc_2x1_dist; //!
+ TBranch *b_Ndata_H_dc_2x1_rawtdc; //!
+ TBranch *b_H_dc_2x1_rawtdc; //!
+ TBranch *b_Ndata_H_dc_2x1_time; //!
+ TBranch *b_H_dc_2x1_time; //!
+ TBranch *b_Ndata_H_dc_2x1_wirenum; //!
+ TBranch *b_H_dc_2x1_wirenum; //!
+ TBranch *b_Ndata_H_dc_2x2_dist; //!
+ TBranch *b_H_dc_2x2_dist; //!
+ TBranch *b_Ndata_H_dc_2x2_rawtdc; //!
+ TBranch *b_H_dc_2x2_rawtdc; //!
+ TBranch *b_Ndata_H_dc_2x2_time; //!
+ TBranch *b_H_dc_2x2_time; //!
+ TBranch *b_Ndata_H_dc_2x2_wirenum; //!
+ TBranch *b_H_dc_2x2_wirenum; //!
+ TBranch *b_Ndata_H_dc_2y1_dist; //!
+ TBranch *b_H_dc_2y1_dist; //!
+ TBranch *b_Ndata_H_dc_2y1_rawtdc; //!
+ TBranch *b_H_dc_2y1_rawtdc; //!
+ TBranch *b_Ndata_H_dc_2y1_time; //!
+ TBranch *b_H_dc_2y1_time; //!
+ TBranch *b_Ndata_H_dc_2y1_wirenum; //!
+ TBranch *b_H_dc_2y1_wirenum; //!
+ TBranch *b_Ndata_H_dc_2y2_dist; //!
+ TBranch *b_H_dc_2y2_dist; //!
+ TBranch *b_Ndata_H_dc_2y2_rawtdc; //!
+ TBranch *b_H_dc_2y2_rawtdc; //!
+ TBranch *b_Ndata_H_dc_2y2_time; //!
+ TBranch *b_H_dc_2y2_time; //!
+ TBranch *b_Ndata_H_dc_2y2_wirenum; //!
+ TBranch *b_H_dc_2y2_wirenum; //!
+ TBranch *b_Ndata_H_dc_residual; //!
+ TBranch *b_H_dc_residual; //!
+ TBranch *b_Ndata_H_dc_x; //!
+ TBranch *b_H_dc_x; //!
+ TBranch *b_Ndata_H_dc_xp; //!
+ TBranch *b_H_dc_xp; //!
+ TBranch *b_Ndata_H_dc_y; //!
+ TBranch *b_H_dc_y; //!
+ TBranch *b_Ndata_H_dc_yp; //!
+ TBranch *b_H_dc_yp; //!
+ TBranch *b_H_dc_1u1_nhit; //!
+ TBranch *b_H_dc_1v1_nhit; //!
+ TBranch *b_H_dc_1x1_nhit; //!
+ TBranch *b_H_dc_1x2_nhit; //!
+ TBranch *b_H_dc_1y1_nhit; //!
+ TBranch *b_H_dc_1y2_nhit; //!
+ TBranch *b_H_dc_2u1_nhit; //!
+ TBranch *b_H_dc_2v1_nhit; //!
+ TBranch *b_H_dc_2x1_nhit; //!
+ TBranch *b_H_dc_2x2_nhit; //!
+ TBranch *b_H_dc_2y1_nhit; //!
+ TBranch *b_H_dc_2y2_nhit; //!
+ TBranch *b_H_dc_Ch1_maxhits; //!
+ TBranch *b_H_dc_Ch1_nhit; //!
+ TBranch *b_H_dc_Ch1_spacepoints; //!
+ TBranch *b_H_dc_Ch1_trawhit; //!
+ TBranch *b_H_dc_Ch2_maxhits; //!
+ TBranch *b_H_dc_Ch2_nhit; //!
+ TBranch *b_H_dc_Ch2_spacepoints; //!
+ TBranch *b_H_dc_Ch2_trawhit; //!
+ TBranch *b_H_dc_nhit; //!
+ TBranch *b_H_dc_nsp; //!
+ TBranch *b_H_dc_ntrack; //!
+ TBranch *b_H_dc_stubtest; //!
+ TBranch *b_H_dc_tnhit; //!
+ TBranch *b_H_dc_trawhit; //!
+ TBranch *b_Event_Branch_fEvtHdr_fEvtTime; //!
+ TBranch *b_Event_Branch_fEvtHdr_fEvtNum; //!
+ TBranch *b_Event_Branch_fEvtHdr_fEvtType; //!
+ TBranch *b_Event_Branch_fEvtHdr_fEvtLen; //!
+ TBranch *b_Event_Branch_fEvtHdr_fHelicity; //!
+ TBranch *b_Event_Branch_fEvtHdr_fTargetPol; //!
+ TBranch *b_Event_Branch_fEvtHdr_fRun; //!
+
+ wire_drift_times(TTree *tree=0);
+ virtual ~wire_drift_times();
+ virtual Int_t Cut(Long64_t entry);
+ virtual Int_t GetEntry(Long64_t entry);
+ virtual Long64_t LoadTree(Long64_t entry);
+ virtual void Init(TTree *tree);
+ virtual void Loop();
+ virtual Bool_t Notify();
+ virtual void Show(Long64_t entry = -1);
+};
+
+#endif
+
+#ifdef wire_drift_times_cxx
+wire_drift_times::wire_drift_times(TTree *tree) : fChain(0)
+{
+// if parameter tree is not specified (or zero), connect the file
+// used to generate this class and read the Tree.
+ if (tree == 0) {
+ int run_NUM;
+ TString f0 = "input_RUN.txt";
+ ifstream infile(f0);
+ infile >> run_NUM;
+
+ TFile *f = (TFile*)gROOT->GetListOfFiles()->FindObject(Form("../../../ROOTfiles/test_%d.root", run_NUM));
+ if (!f || !f->IsOpen()) {
+ f = new TFile(Form("../../../ROOTfiles/test_%d.root", run_NUM));
+ }
+ f->GetObject("T",tree);
+
+ }
+ Init(tree);
+}
+
+wire_drift_times::~wire_drift_times()
+{
+ if (!fChain) return;
+ delete fChain->GetCurrentFile();
+}
+
+Int_t wire_drift_times::GetEntry(Long64_t entry)
+{
+// Read contents of entry.
+ if (!fChain) return 0;
+ return fChain->GetEntry(entry);
+}
+Long64_t wire_drift_times::LoadTree(Long64_t entry)
+{
+// Set the environment to read one entry
+ if (!fChain) return -5;
+ Long64_t centry = fChain->LoadTree(entry);
+ if (centry < 0) return centry;
+ if (fChain->GetTreeNumber() != fCurrent) {
+ fCurrent = fChain->GetTreeNumber();
+ Notify();
+ }
+ return centry;
+}
+
+void wire_drift_times::Init(TTree *tree)
+{
+ // The Init() function is called when the selector needs to initialize
+ // a new tree or chain. Typically here the branch addresses and branch
+ // pointers of the tree will be set.
+ // It is normally not necessary to make changes to the generated
+ // code, but the routine can be extended by the user if needed.
+ // Init() will be called many times when running on PROOF
+ // (once per file to be processed).
+
+ // Set branch addresses and branch pointers
+ if (!tree) return;
+ fChain = tree;
+ fCurrent = -1;
+ fChain->SetMakeClass(1);
+
+ fChain->SetBranchAddress("Ndata.H.dc.1u1.dist", &Ndata_H_dc_1u1_dist, &b_Ndata_H_dc_1u1_dist);
+ fChain->SetBranchAddress("H.dc.1u1.dist", H_dc_1u1_dist, &b_H_dc_1u1_dist);
+ fChain->SetBranchAddress("Ndata.H.dc.1u1.rawtdc", &Ndata_H_dc_1u1_rawtdc, &b_Ndata_H_dc_1u1_rawtdc);
+ fChain->SetBranchAddress("H.dc.1u1.rawtdc", H_dc_1u1_rawtdc, &b_H_dc_1u1_rawtdc);
+ fChain->SetBranchAddress("Ndata.H.dc.1u1.time", &Ndata_H_dc_1u1_time, &b_Ndata_H_dc_1u1_time);
+ fChain->SetBranchAddress("H.dc.1u1.time", H_dc_1u1_time, &b_H_dc_1u1_time);
+ fChain->SetBranchAddress("Ndata.H.dc.1u1.wirenum", &Ndata_H_dc_1u1_wirenum, &b_Ndata_H_dc_1u1_wirenum);
+ fChain->SetBranchAddress("H.dc.1u1.wirenum", H_dc_1u1_wirenum, &b_H_dc_1u1_wirenum);
+ fChain->SetBranchAddress("Ndata.H.dc.1v1.dist", &Ndata_H_dc_1v1_dist, &b_Ndata_H_dc_1v1_dist);
+ fChain->SetBranchAddress("H.dc.1v1.dist", H_dc_1v1_dist, &b_H_dc_1v1_dist);
+ fChain->SetBranchAddress("Ndata.H.dc.1v1.rawtdc", &Ndata_H_dc_1v1_rawtdc, &b_Ndata_H_dc_1v1_rawtdc);
+ fChain->SetBranchAddress("H.dc.1v1.rawtdc", H_dc_1v1_rawtdc, &b_H_dc_1v1_rawtdc);
+ fChain->SetBranchAddress("Ndata.H.dc.1v1.time", &Ndata_H_dc_1v1_time, &b_Ndata_H_dc_1v1_time);
+ fChain->SetBranchAddress("H.dc.1v1.time", H_dc_1v1_time, &b_H_dc_1v1_time);
+ fChain->SetBranchAddress("Ndata.H.dc.1v1.wirenum", &Ndata_H_dc_1v1_wirenum, &b_Ndata_H_dc_1v1_wirenum);
+ fChain->SetBranchAddress("H.dc.1v1.wirenum", H_dc_1v1_wirenum, &b_H_dc_1v1_wirenum);
+ fChain->SetBranchAddress("Ndata.H.dc.1x1.dist", &Ndata_H_dc_1x1_dist, &b_Ndata_H_dc_1x1_dist);
+ fChain->SetBranchAddress("H.dc.1x1.dist", H_dc_1x1_dist, &b_H_dc_1x1_dist);
+ fChain->SetBranchAddress("Ndata.H.dc.1x1.rawtdc", &Ndata_H_dc_1x1_rawtdc, &b_Ndata_H_dc_1x1_rawtdc);
+ fChain->SetBranchAddress("H.dc.1x1.rawtdc", H_dc_1x1_rawtdc, &b_H_dc_1x1_rawtdc);
+ fChain->SetBranchAddress("Ndata.H.dc.1x1.time", &Ndata_H_dc_1x1_time, &b_Ndata_H_dc_1x1_time);
+ fChain->SetBranchAddress("H.dc.1x1.time", H_dc_1x1_time, &b_H_dc_1x1_time);
+ fChain->SetBranchAddress("Ndata.H.dc.1x1.wirenum", &Ndata_H_dc_1x1_wirenum, &b_Ndata_H_dc_1x1_wirenum);
+ fChain->SetBranchAddress("H.dc.1x1.wirenum", H_dc_1x1_wirenum, &b_H_dc_1x1_wirenum);
+ fChain->SetBranchAddress("Ndata.H.dc.1x2.dist", &Ndata_H_dc_1x2_dist, &b_Ndata_H_dc_1x2_dist);
+ fChain->SetBranchAddress("H.dc.1x2.dist", H_dc_1x2_dist, &b_H_dc_1x2_dist);
+ fChain->SetBranchAddress("Ndata.H.dc.1x2.rawtdc", &Ndata_H_dc_1x2_rawtdc, &b_Ndata_H_dc_1x2_rawtdc);
+ fChain->SetBranchAddress("H.dc.1x2.rawtdc", H_dc_1x2_rawtdc, &b_H_dc_1x2_rawtdc);
+ fChain->SetBranchAddress("Ndata.H.dc.1x2.time", &Ndata_H_dc_1x2_time, &b_Ndata_H_dc_1x2_time);
+ fChain->SetBranchAddress("H.dc.1x2.time", H_dc_1x2_time, &b_H_dc_1x2_time);
+ fChain->SetBranchAddress("Ndata.H.dc.1x2.wirenum", &Ndata_H_dc_1x2_wirenum, &b_Ndata_H_dc_1x2_wirenum);
+ fChain->SetBranchAddress("H.dc.1x2.wirenum", H_dc_1x2_wirenum, &b_H_dc_1x2_wirenum);
+ fChain->SetBranchAddress("Ndata.H.dc.1y1.dist", &Ndata_H_dc_1y1_dist, &b_Ndata_H_dc_1y1_dist);
+ fChain->SetBranchAddress("H.dc.1y1.dist", H_dc_1y1_dist, &b_H_dc_1y1_dist);
+ fChain->SetBranchAddress("Ndata.H.dc.1y1.rawtdc", &Ndata_H_dc_1y1_rawtdc, &b_Ndata_H_dc_1y1_rawtdc);
+ fChain->SetBranchAddress("H.dc.1y1.rawtdc", H_dc_1y1_rawtdc, &b_H_dc_1y1_rawtdc);
+ fChain->SetBranchAddress("Ndata.H.dc.1y1.time", &Ndata_H_dc_1y1_time, &b_Ndata_H_dc_1y1_time);
+ fChain->SetBranchAddress("H.dc.1y1.time", H_dc_1y1_time, &b_H_dc_1y1_time);
+ fChain->SetBranchAddress("Ndata.H.dc.1y1.wirenum", &Ndata_H_dc_1y1_wirenum, &b_Ndata_H_dc_1y1_wirenum);
+ fChain->SetBranchAddress("H.dc.1y1.wirenum", H_dc_1y1_wirenum, &b_H_dc_1y1_wirenum);
+ fChain->SetBranchAddress("Ndata.H.dc.1y2.dist", &Ndata_H_dc_1y2_dist, &b_Ndata_H_dc_1y2_dist);
+ fChain->SetBranchAddress("H.dc.1y2.dist", H_dc_1y2_dist, &b_H_dc_1y2_dist);
+ fChain->SetBranchAddress("Ndata.H.dc.1y2.rawtdc", &Ndata_H_dc_1y2_rawtdc, &b_Ndata_H_dc_1y2_rawtdc);
+ fChain->SetBranchAddress("H.dc.1y2.rawtdc", H_dc_1y2_rawtdc, &b_H_dc_1y2_rawtdc);
+ fChain->SetBranchAddress("Ndata.H.dc.1y2.time", &Ndata_H_dc_1y2_time, &b_Ndata_H_dc_1y2_time);
+ fChain->SetBranchAddress("H.dc.1y2.time", H_dc_1y2_time, &b_H_dc_1y2_time);
+ fChain->SetBranchAddress("Ndata.H.dc.1y2.wirenum", &Ndata_H_dc_1y2_wirenum, &b_Ndata_H_dc_1y2_wirenum);
+ fChain->SetBranchAddress("H.dc.1y2.wirenum", H_dc_1y2_wirenum, &b_H_dc_1y2_wirenum);
+ fChain->SetBranchAddress("Ndata.H.dc.2u1.dist", &Ndata_H_dc_2u1_dist, &b_Ndata_H_dc_2u1_dist);
+ fChain->SetBranchAddress("H.dc.2u1.dist", H_dc_2u1_dist, &b_H_dc_2u1_dist);
+ fChain->SetBranchAddress("Ndata.H.dc.2u1.rawtdc", &Ndata_H_dc_2u1_rawtdc, &b_Ndata_H_dc_2u1_rawtdc);
+ fChain->SetBranchAddress("H.dc.2u1.rawtdc", H_dc_2u1_rawtdc, &b_H_dc_2u1_rawtdc);
+ fChain->SetBranchAddress("Ndata.H.dc.2u1.time", &Ndata_H_dc_2u1_time, &b_Ndata_H_dc_2u1_time);
+ fChain->SetBranchAddress("H.dc.2u1.time", H_dc_2u1_time, &b_H_dc_2u1_time);
+ fChain->SetBranchAddress("Ndata.H.dc.2u1.wirenum", &Ndata_H_dc_2u1_wirenum, &b_Ndata_H_dc_2u1_wirenum);
+ fChain->SetBranchAddress("H.dc.2u1.wirenum", H_dc_2u1_wirenum, &b_H_dc_2u1_wirenum);
+ fChain->SetBranchAddress("Ndata.H.dc.2v1.dist", &Ndata_H_dc_2v1_dist, &b_Ndata_H_dc_2v1_dist);
+ fChain->SetBranchAddress("H.dc.2v1.dist", H_dc_2v1_dist, &b_H_dc_2v1_dist);
+ fChain->SetBranchAddress("Ndata.H.dc.2v1.rawtdc", &Ndata_H_dc_2v1_rawtdc, &b_Ndata_H_dc_2v1_rawtdc);
+ fChain->SetBranchAddress("H.dc.2v1.rawtdc", H_dc_2v1_rawtdc, &b_H_dc_2v1_rawtdc);
+ fChain->SetBranchAddress("Ndata.H.dc.2v1.time", &Ndata_H_dc_2v1_time, &b_Ndata_H_dc_2v1_time);
+ fChain->SetBranchAddress("H.dc.2v1.time", H_dc_2v1_time, &b_H_dc_2v1_time);
+ fChain->SetBranchAddress("Ndata.H.dc.2v1.wirenum", &Ndata_H_dc_2v1_wirenum, &b_Ndata_H_dc_2v1_wirenum);
+ fChain->SetBranchAddress("H.dc.2v1.wirenum", H_dc_2v1_wirenum, &b_H_dc_2v1_wirenum);
+ fChain->SetBranchAddress("Ndata.H.dc.2x1.dist", &Ndata_H_dc_2x1_dist, &b_Ndata_H_dc_2x1_dist);
+ fChain->SetBranchAddress("H.dc.2x1.dist", H_dc_2x1_dist, &b_H_dc_2x1_dist);
+ fChain->SetBranchAddress("Ndata.H.dc.2x1.rawtdc", &Ndata_H_dc_2x1_rawtdc, &b_Ndata_H_dc_2x1_rawtdc);
+ fChain->SetBranchAddress("H.dc.2x1.rawtdc", H_dc_2x1_rawtdc, &b_H_dc_2x1_rawtdc);
+ fChain->SetBranchAddress("Ndata.H.dc.2x1.time", &Ndata_H_dc_2x1_time, &b_Ndata_H_dc_2x1_time);
+ fChain->SetBranchAddress("H.dc.2x1.time", H_dc_2x1_time, &b_H_dc_2x1_time);
+ fChain->SetBranchAddress("Ndata.H.dc.2x1.wirenum", &Ndata_H_dc_2x1_wirenum, &b_Ndata_H_dc_2x1_wirenum);
+ fChain->SetBranchAddress("H.dc.2x1.wirenum", H_dc_2x1_wirenum, &b_H_dc_2x1_wirenum);
+ fChain->SetBranchAddress("Ndata.H.dc.2x2.dist", &Ndata_H_dc_2x2_dist, &b_Ndata_H_dc_2x2_dist);
+ fChain->SetBranchAddress("H.dc.2x2.dist", H_dc_2x2_dist, &b_H_dc_2x2_dist);
+ fChain->SetBranchAddress("Ndata.H.dc.2x2.rawtdc", &Ndata_H_dc_2x2_rawtdc, &b_Ndata_H_dc_2x2_rawtdc);
+ fChain->SetBranchAddress("H.dc.2x2.rawtdc", H_dc_2x2_rawtdc, &b_H_dc_2x2_rawtdc);
+ fChain->SetBranchAddress("Ndata.H.dc.2x2.time", &Ndata_H_dc_2x2_time, &b_Ndata_H_dc_2x2_time);
+ fChain->SetBranchAddress("H.dc.2x2.time", H_dc_2x2_time, &b_H_dc_2x2_time);
+ fChain->SetBranchAddress("Ndata.H.dc.2x2.wirenum", &Ndata_H_dc_2x2_wirenum, &b_Ndata_H_dc_2x2_wirenum);
+ fChain->SetBranchAddress("H.dc.2x2.wirenum", H_dc_2x2_wirenum, &b_H_dc_2x2_wirenum);
+ fChain->SetBranchAddress("Ndata.H.dc.2y1.dist", &Ndata_H_dc_2y1_dist, &b_Ndata_H_dc_2y1_dist);
+ fChain->SetBranchAddress("H.dc.2y1.dist", H_dc_2y1_dist, &b_H_dc_2y1_dist);
+ fChain->SetBranchAddress("Ndata.H.dc.2y1.rawtdc", &Ndata_H_dc_2y1_rawtdc, &b_Ndata_H_dc_2y1_rawtdc);
+ fChain->SetBranchAddress("H.dc.2y1.rawtdc", H_dc_2y1_rawtdc, &b_H_dc_2y1_rawtdc);
+ fChain->SetBranchAddress("Ndata.H.dc.2y1.time", &Ndata_H_dc_2y1_time, &b_Ndata_H_dc_2y1_time);
+ fChain->SetBranchAddress("H.dc.2y1.time", H_dc_2y1_time, &b_H_dc_2y1_time);
+ fChain->SetBranchAddress("Ndata.H.dc.2y1.wirenum", &Ndata_H_dc_2y1_wirenum, &b_Ndata_H_dc_2y1_wirenum);
+ fChain->SetBranchAddress("H.dc.2y1.wirenum", H_dc_2y1_wirenum, &b_H_dc_2y1_wirenum);
+ fChain->SetBranchAddress("Ndata.H.dc.2y2.dist", &Ndata_H_dc_2y2_dist, &b_Ndata_H_dc_2y2_dist);
+ fChain->SetBranchAddress("H.dc.2y2.dist", H_dc_2y2_dist, &b_H_dc_2y2_dist);
+ fChain->SetBranchAddress("Ndata.H.dc.2y2.rawtdc", &Ndata_H_dc_2y2_rawtdc, &b_Ndata_H_dc_2y2_rawtdc);
+ fChain->SetBranchAddress("H.dc.2y2.rawtdc", H_dc_2y2_rawtdc, &b_H_dc_2y2_rawtdc);
+ fChain->SetBranchAddress("Ndata.H.dc.2y2.time", &Ndata_H_dc_2y2_time, &b_Ndata_H_dc_2y2_time);
+ fChain->SetBranchAddress("H.dc.2y2.time", H_dc_2y2_time, &b_H_dc_2y2_time);
+ fChain->SetBranchAddress("Ndata.H.dc.2y2.wirenum", &Ndata_H_dc_2y2_wirenum, &b_Ndata_H_dc_2y2_wirenum);
+ fChain->SetBranchAddress("H.dc.2y2.wirenum", H_dc_2y2_wirenum, &b_H_dc_2y2_wirenum);
+ fChain->SetBranchAddress("Ndata.H.dc.residual", &Ndata_H_dc_residual, &b_Ndata_H_dc_residual);
+ fChain->SetBranchAddress("H.dc.residual", H_dc_residual, &b_H_dc_residual);
+ fChain->SetBranchAddress("Ndata.H.dc.x", &Ndata_H_dc_x, &b_Ndata_H_dc_x);
+ fChain->SetBranchAddress("H.dc.x", H_dc_x, &b_H_dc_x);
+ fChain->SetBranchAddress("Ndata.H.dc.xp", &Ndata_H_dc_xp, &b_Ndata_H_dc_xp);
+ fChain->SetBranchAddress("H.dc.xp", H_dc_xp, &b_H_dc_xp);
+ fChain->SetBranchAddress("Ndata.H.dc.y", &Ndata_H_dc_y, &b_Ndata_H_dc_y);
+ fChain->SetBranchAddress("H.dc.y", H_dc_y, &b_H_dc_y);
+ fChain->SetBranchAddress("Ndata.H.dc.yp", &Ndata_H_dc_yp, &b_Ndata_H_dc_yp);
+ fChain->SetBranchAddress("H.dc.yp", H_dc_yp, &b_H_dc_yp);
+ fChain->SetBranchAddress("H.dc.1u1.nhit", &H_dc_1u1_nhit, &b_H_dc_1u1_nhit);
+ fChain->SetBranchAddress("H.dc.1v1.nhit", &H_dc_1v1_nhit, &b_H_dc_1v1_nhit);
+ fChain->SetBranchAddress("H.dc.1x1.nhit", &H_dc_1x1_nhit, &b_H_dc_1x1_nhit);
+ fChain->SetBranchAddress("H.dc.1x2.nhit", &H_dc_1x2_nhit, &b_H_dc_1x2_nhit);
+ fChain->SetBranchAddress("H.dc.1y1.nhit", &H_dc_1y1_nhit, &b_H_dc_1y1_nhit);
+ fChain->SetBranchAddress("H.dc.1y2.nhit", &H_dc_1y2_nhit, &b_H_dc_1y2_nhit);
+ fChain->SetBranchAddress("H.dc.2u1.nhit", &H_dc_2u1_nhit, &b_H_dc_2u1_nhit);
+ fChain->SetBranchAddress("H.dc.2v1.nhit", &H_dc_2v1_nhit, &b_H_dc_2v1_nhit);
+ fChain->SetBranchAddress("H.dc.2x1.nhit", &H_dc_2x1_nhit, &b_H_dc_2x1_nhit);
+ fChain->SetBranchAddress("H.dc.2x2.nhit", &H_dc_2x2_nhit, &b_H_dc_2x2_nhit);
+ fChain->SetBranchAddress("H.dc.2y1.nhit", &H_dc_2y1_nhit, &b_H_dc_2y1_nhit);
+ fChain->SetBranchAddress("H.dc.2y2.nhit", &H_dc_2y2_nhit, &b_H_dc_2y2_nhit);
+ fChain->SetBranchAddress("H.dc.Ch1.maxhits", &H_dc_Ch1_maxhits, &b_H_dc_Ch1_maxhits);
+ fChain->SetBranchAddress("H.dc.Ch1.nhit", &H_dc_Ch1_nhit, &b_H_dc_Ch1_nhit);
+ fChain->SetBranchAddress("H.dc.Ch1.spacepoints", &H_dc_Ch1_spacepoints, &b_H_dc_Ch1_spacepoints);
+ fChain->SetBranchAddress("H.dc.Ch1.trawhit", &H_dc_Ch1_trawhit, &b_H_dc_Ch1_trawhit);
+ fChain->SetBranchAddress("H.dc.Ch2.maxhits", &H_dc_Ch2_maxhits, &b_H_dc_Ch2_maxhits);
+ fChain->SetBranchAddress("H.dc.Ch2.nhit", &H_dc_Ch2_nhit, &b_H_dc_Ch2_nhit);
+ fChain->SetBranchAddress("H.dc.Ch2.spacepoints", &H_dc_Ch2_spacepoints, &b_H_dc_Ch2_spacepoints);
+ fChain->SetBranchAddress("H.dc.Ch2.trawhit", &H_dc_Ch2_trawhit, &b_H_dc_Ch2_trawhit);
+ fChain->SetBranchAddress("H.dc.nhit", &H_dc_nhit, &b_H_dc_nhit);
+ fChain->SetBranchAddress("H.dc.nsp", &H_dc_nsp, &b_H_dc_nsp);
+ fChain->SetBranchAddress("H.dc.ntrack", &H_dc_ntrack, &b_H_dc_ntrack);
+ fChain->SetBranchAddress("H.dc.stubtest", &H_dc_stubtest, &b_H_dc_stubtest);
+ fChain->SetBranchAddress("H.dc.tnhit", &H_dc_tnhit, &b_H_dc_tnhit);
+ fChain->SetBranchAddress("H.dc.trawhit", &H_dc_trawhit, &b_H_dc_trawhit);
+ fChain->SetBranchAddress("fEvtHdr.fEvtTime", &fEvtHdr_fEvtTime, &b_Event_Branch_fEvtHdr_fEvtTime);
+ fChain->SetBranchAddress("fEvtHdr.fEvtNum", &fEvtHdr_fEvtNum, &b_Event_Branch_fEvtHdr_fEvtNum);
+ fChain->SetBranchAddress("fEvtHdr.fEvtType", &fEvtHdr_fEvtType, &b_Event_Branch_fEvtHdr_fEvtType);
+ fChain->SetBranchAddress("fEvtHdr.fEvtLen", &fEvtHdr_fEvtLen, &b_Event_Branch_fEvtHdr_fEvtLen);
+ fChain->SetBranchAddress("fEvtHdr.fHelicity", &fEvtHdr_fHelicity, &b_Event_Branch_fEvtHdr_fHelicity);
+ fChain->SetBranchAddress("fEvtHdr.fTargetPol", &fEvtHdr_fTargetPol, &b_Event_Branch_fEvtHdr_fTargetPol);
+ fChain->SetBranchAddress("fEvtHdr.fRun", &fEvtHdr_fRun, &b_Event_Branch_fEvtHdr_fRun);
+ Notify();
+}
+
+Bool_t wire_drift_times::Notify()
+{
+ // The Notify() function is called when a new file is opened. This
+ // can be either for a new TTree in a TChain or when when a new TTree
+ // is started when using PROOF. It is normally not necessary to make changes
+ // to the generated code, but the routine can be extended by the
+ // user if needed. The return value is currently not used.
+
+ return kTRUE;
+}
+
+void wire_drift_times::Show(Long64_t entry)
+{
+// Print contents of entry.
+// If entry is not specified, print current entry
+ if (!fChain) return;
+ fChain->Show(entry);
+}
+Int_t wire_drift_times::Cut(Long64_t entry)
+{
+// This function may be called from Loop.
+// returns 1 if entry is accepted.
+// returns -1 otherwise.
+ return 1;
+}
+#endif // #ifdef wire_drift_times_cxx