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tof_monitor.java
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tof_monitor.java
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import java.io.*;
import java.util.*;
import org.jlab.groot.math.*;
import org.jlab.groot.data.H1F;
import org.jlab.groot.data.H2F;
import org.jlab.groot.math.F1D;
import org.jlab.groot.fitter.DataFitter;
import org.jlab.io.base.DataBank;
import org.jlab.io.base.DataEvent;
import org.jlab.io.hipo.HipoDataSource;
import org.jlab.groot.fitter.ParallelSliceFitter;
import org.jlab.groot.graphics.EmbeddedCanvas;
import org.jlab.groot.data.GraphErrors;
import org.jlab.groot.data.TDirectory;
import org.jlab.clas.physics.Vector3;
import org.jlab.clas.physics.LorentzVector;
import org.jlab.groot.base.GStyle;
import org.jlab.utils.groups.IndexedTable;
import org.jlab.detector.calib.utils.CalibrationConstants;
import org.jlab.detector.calib.utils.ConstantsManager;
public class tof_monitor {
boolean userTimeBased, write_volatile;
public int runNum;
public boolean hasRF;
public float RFTime;
public float rfPeriod;
public int rf_large_integer;
public int e_part_ind;
public H2F p1a_pad_occ, p1b_pad_occ, p2_pad_occ;
public H2F p1a_pad_XY, p1b_pad_XY, p2_pad_XY;
public H2F[] p1a_pad_vt, p1b_pad_vt, p2_pad_vt;
public H2F[] p1a_pad_edep, p1b_pad_edep, p2_pad_edep;
public H1F[][] p1a_edep, p1b_edep;
public H1F[] p2_edep;
public H2F[] p1a_pad_dt, p1b_pad_dt, p2_pad_dt;
public H2F[] p1a_pad_dt_calib, p1b_pad_dt_calib, p2_pad_dt_calib;
public H1F[] p1a_dt_calib_all, p1b_dt_calib_all, p2_dt_calib_all;
public H2F[][] DC_residuals_trkDoca;
public H1F[][] DC_residuals, DC_time;
public F1D[][] f_time_invertedS;
public float p1a_counter_thickness, p1b_counter_thickness, p2_counter_thickness;
public IndexedTable InverseTranslationTable;
public IndexedTable calibrationTranslationTable;
public IndexedTable rfTable;
public ConstantsManager ccdb;
public tof_monitor(int reqrunNum, boolean reqTimeBased, boolean reqwrite_volatile) {
runNum = reqrunNum;userTimeBased=reqTimeBased;
rfPeriod = 4.008f;
ccdb = new ConstantsManager();
ccdb.init(Arrays.asList(new String[]{"/daq/tt/fthodo","/calibration/eb/rf/config"}));
rfTable = ccdb.getConstants(runNum,"/calibration/eb/rf/config");
if (rfTable.hasEntry(1, 1, 1)){
System.out.println(String.format("RF period from ccdb for run %d: %f",runNum,rfTable.getDoubleValue("clock",1,1,1)));
rfPeriod = (float)rfTable.getDoubleValue("clock",1,1,1);
}
rf_large_integer = 1000;
p1a_counter_thickness = 5.0f; //cm
p1b_counter_thickness = 6.0f; //cm
p2_counter_thickness = 5.0f; //cm
write_volatile = reqwrite_volatile;
p1a_pad_occ = new H2F("p1a_pad_occ","p1a_pad_occ",25,0,25,6,0.5,6.5);
p1a_pad_occ.setTitle("p1a occupancies");
p1a_pad_occ.setTitleX("paddle");
p1a_pad_occ.setTitleY("sector");
p1b_pad_occ = new H2F("p1b_pad_occ","p1b_pad_occ",65,0,65,6,0.5,6.5);
p1b_pad_occ.setTitle("p1b occupancies");
p1b_pad_occ.setTitleX("paddle");
p1b_pad_occ.setTitleY("sector");
p2_pad_occ = new H2F("p2_pad_occ","p2_pad_occ",5,1,6,6,0.5,6.5);
p2_pad_occ.setTitle("p2 occupancies");
p2_pad_occ.setTitleX("paddle");
p2_pad_occ.setTitleY("sector");
p1a_pad_XY = new H2F("p1a_pad_XY","p1a_pad_XY",100,-500,500,100,-500,500);
p1a_pad_XY.setTitle("p1a position");
p1a_pad_XY.setTitleX("X (cm)");
p1a_pad_XY.setTitleY("Y (cm)");
p1b_pad_XY = new H2F("p1b_pad_XY","p1b_pad_XY",100,-500,500,100,-500,500);
p1b_pad_XY.setTitle("p1b position");
p1b_pad_XY.setTitleX("X (cm)");
p1b_pad_XY.setTitleY("Y (cm)");
p2_pad_XY = new H2F("p2_pad_XY","p2_pad_XY",100,-500,500,100,-500,500);
p2_pad_XY.setTitle("p2 position");
p2_pad_XY.setTitleX("X (cm)");
p2_pad_XY.setTitleY("Y (cm)");
p1a_pad_vt = new H2F[6];
p1b_pad_vt = new H2F[6];
p2_pad_vt = new H2F[6];
p1a_pad_edep = new H2F[6];
p1b_pad_edep = new H2F[6];
p2_pad_edep = new H2F[6];
p1a_pad_dt = new H2F[6];
p1b_pad_dt = new H2F[6];
p2_pad_dt = new H2F[6];
p1a_pad_dt_calib = new H2F[6];
p1b_pad_dt_calib = new H2F[6];
p2_pad_dt_calib = new H2F[6];
p1a_dt_calib_all = new H1F[6];
p1b_dt_calib_all = new H1F[6];
p2_dt_calib_all = new H1F[6];
p1a_edep = new H1F[6][3];
p1b_edep = new H1F[6][3];
p2_edep = new H1F[6];
DC_residuals_trkDoca = new H2F[6][6];
DC_residuals = new H1F[6][6];
DC_time = new H1F[6][6];
f_time_invertedS = new F1D[6][6];
for(int s=0;s<6;s++){
p1a_pad_vt[s] = new H2F(String.format("p1a_pad_vt_S%d",s+1),String.format("p1a_pad_vt_S%d",s+1),25,0,25,100,-rfPeriod/2,rfPeriod/2);
p1a_pad_vt[s].setTitle(String.format("p1a S%d time",s+1));
p1a_pad_vt[s].setTitleX("paddle");
p1a_pad_vt[s].setTitleY("time");
p1b_pad_vt[s] = new H2F(String.format("p1b_pad_vt_S%d",s+1),String.format("p1b_pad_vt_S%d",s+1),65,0,65,100,-rfPeriod/2,rfPeriod/2);
p1b_pad_vt[s].setTitle(String.format("p1b S%d time",s+1));
p1b_pad_vt[s].setTitleX("paddle");
p1b_pad_vt[s].setTitleY("time");
p2_pad_vt[s] = new H2F(String.format("p2_pad_vt_S%d",s+1),String.format("p2_pad_vt_S%d",s+1),5,1,6,100,-rfPeriod/2,rfPeriod/2);
p2_pad_vt[s].setTitle(String.format("p2 S%d time",s+1));
p2_pad_vt[s].setTitleX("paddle");
p2_pad_vt[s].setTitleY("time");
p1a_pad_edep[s] = new H2F(String.format("p1a_pad_edep_S%d",s+1),String.format("p1a_pad_edep_S%d",s+1),25,0,25,100,0,50);
p1a_pad_edep[s].setTitle(String.format("p1a S%d energy",s+1));
p1a_pad_edep[s].setTitleX("paddle");
p1a_pad_edep[s].setTitleY("E (MeV)");
p1b_pad_edep[s] = new H2F(String.format("p1b_pad_edep_S%d",s+1),String.format("p1b_pad_edep_S%d",s+1),65,0,65,100,0,50);
p1b_pad_edep[s].setTitle(String.format("p1b S%d energy",s+1));
p1b_pad_edep[s].setTitleX("paddle");
p1b_pad_edep[s].setTitleY("E (MeV)");
p2_pad_edep[s] = new H2F(String.format("p2_pad_edep_S%d",s+1),String.format("p2_pad_edep_S%d",s+1),5,1,6,100,0,50);
p2_pad_edep[s].setTitle(String.format("p2 S%d energy",s+1));
p2_pad_edep[s].setTitleX("paddle");
p2_pad_edep[s].setTitleY("E (MeV)");
p1a_pad_dt[s] = new H2F(String.format("p1a_pad_dt_S%d",s+1),String.format("p1a_pad_dt_S%d",s+1),25,0,25,100,-2.004,2.004);
p1a_pad_dt[s].setTitle(String.format("p1a S%d #delta t",s+1));
p1a_pad_dt[s].setTitleX("paddle");
p1a_pad_dt[s].setTitleY("time");
p1b_pad_dt[s] = new H2F(String.format("p1b_pad_dt_S%d",s+1),String.format("p1b_pad_dt_S%d",s+1),65,0,65,100,-2.004,2.004);
p1b_pad_dt[s].setTitle(String.format("p1b S%d #delta t",s+1));
p1b_pad_dt[s].setTitleX("paddle");
p1b_pad_dt[s].setTitleY("time");
p2_pad_dt[s] = new H2F(String.format("p2_pad_dt_S%d",s+1),String.format("p2_pad_dt_S%d",s+1),5,1,6,100,-12,12);
p2_pad_dt[s].setTitle(String.format("p2 S%d #delta t",s+1));
p2_pad_dt[s].setTitleX("paddle");
p2_pad_dt[s].setTitleY("time");
p1a_pad_dt_calib[s] = new H2F(String.format("p1a_pad_dt_S%d",s+1),String.format("p1a_pad_dt_S%d",s+1),25,0,25,100,-2.004,2.004);
p1a_pad_dt_calib[s].setTitle(String.format("p1a S%d FTOF vertex t - RFTime",s+1));
p1a_pad_dt_calib[s].setTitleX("paddle");
p1a_pad_dt_calib[s].setTitleY("FTOF vertex t - RFTime (ns)");
p1b_pad_dt_calib[s] = new H2F(String.format("p1b_pad_dt_S%d",s+1),String.format("p1b_pad_dt_S%d",s+1),65,0,65,100,-2.004,2.004);
p1b_pad_dt_calib[s].setTitle(String.format("p1b S%d FTOF vertex t - RFTime",s+1));
p1b_pad_dt_calib[s].setTitleX("paddle");
p1b_pad_dt_calib[s].setTitleY("FTOF vertex t - RFTime (ns)");
p2_pad_dt_calib[s] = new H2F(String.format("p2_pad_dt_S%d",s+1),String.format("p2_pad_dt_S%d",s+1),5,1,6,100,-12,12);
p2_pad_dt_calib[s].setTitle(String.format("p2 S%d FTOF vertex t - RFTime",s+1));
p2_pad_dt_calib[s].setTitleX("paddle");
p2_pad_dt_calib[s].setTitleY("FTOF vertex t - RFTime (ns)");
p1a_dt_calib_all[s] = new H1F(String.format("p1a_dt_S%d",s+1),String.format("p1a_dt_S%d",s+1),100,-2.004,2.004);
p1a_dt_calib_all[s].setTitle(String.format("p1a S%d FTOF vertex t - RFTime",s+1));
p1a_dt_calib_all[s].setTitleX("FTOF vertex t - RFTime (ns)");
p1a_dt_calib_all[s].setTitleY("counts");
p1b_dt_calib_all[s] = new H1F(String.format("p1b_dt_S%d",s+1),String.format("p1b_dt_S%d",s+1),100,-2.004,2.004);
p1b_dt_calib_all[s].setTitle(String.format("p1b S%d FTOF vertex t - RFTime",s+1));
p1b_dt_calib_all[s].setTitleX("FTOF vertex t - RFTime (ns)");
p1b_dt_calib_all[s].setTitleY("counts");
p2_dt_calib_all[s] = new H1F(String.format("p2_dt_S%d",s+1),String.format("p2_dt_S%d",s+1),100,-12,12);
p2_dt_calib_all[s].setTitle(String.format("p2 S%d FTOF vertex t - RFTime",s+1));
p2_dt_calib_all[s].setTitleX("FTOF vertex t - RFTime (ns)");
p2_dt_calib_all[s].setTitleY("counts");
float[] DCcellsizeSL = {0.9f,0.9f,1.3f,1.3f,2.0f,2.0f};
p1a_edep[s][0] = new H1F("p1a_edep_smallangles","p1a_edep_smallangles",150,0.,30.);
p1a_edep[s][0].setTitle(String.format("p1a PathLCorrected Edep, small angles, S%d",s+1));
p1a_edep[s][0].setTitleX("E (MeV)");
p1a_edep[s][0].setTitleY("counts");
p1a_edep[s][1] = new H1F("p1a_edep_midangles","p1a_edep_midangles",150,0.,30.);
p1a_edep[s][1].setTitle(String.format("p1a PathLCorrected Edep, mid angles, S%d",s+1));
p1a_edep[s][1].setTitleX("E (MeV)");
p1a_edep[s][1].setTitleY("counts");
p1a_edep[s][2] = new H1F("p1a_edep_largeangles","p1a_edep_largeangles",150,0.,30.);
p1a_edep[s][2].setTitle(String.format("p1a PathLCorrected Edep, large angles, S%d",s+1));
p1a_edep[s][2].setTitleX("E (MeV)");
p1a_edep[s][2].setTitleY("counts");
p1b_edep[s][0] = new H1F("p1b_edep_smallangles","p1b_edep_smallangles",150,0.,30.);
p1b_edep[s][0].setTitle(String.format("p1b PathLCorrected Edep, small angles, S%d",s+1));
p1b_edep[s][0].setTitleX("E (MeV)");
p1b_edep[s][0].setTitleY("counts");
p1b_edep[s][1] = new H1F("p1b_edep_midangles","p1b_edep_midangles",150,0.,30.);
p1b_edep[s][1].setTitle(String.format("p1b PathLCorrected Edep, mid angles, S%d",s+1));
p1b_edep[s][1].setTitleX("E (MeV)");
p1b_edep[s][1].setTitleY("counts");
p1b_edep[s][2] = new H1F("p1b_edep_largeangles","p1b_edep_largeangles",150,0.,30.);
p1b_edep[s][2].setTitle(String.format("p1b PathLCorrected Edep, large angles, S%d",s+1));
p1b_edep[s][2].setTitleX("E (MeV)");
p1b_edep[s][2].setTitleY("counts");
p2_edep[s] = new H1F("p2_edep","p2_edep",150,0.,30.);
p2_edep[s].setTitle(String.format("p2 PathLCorrected Edep, S%d",s+1));
p2_edep[s].setTitleX("E (MeV)");
p2_edep[s].setTitleY("counts");
for(int sl=0;sl<6;sl++){
DC_residuals_trkDoca[s][sl] = new H2F(String.format("DC_residuals_trkDoca_%d_%d",s+1,sl+1),String.format("DC_residuals_trkDoca_%d_%d",s+1,sl+1),100,0,DCcellsizeSL[sl],100,-1,1);
DC_residuals_trkDoca[s][sl].setTitle(String.format("DC residuals S%d SL%d",s+1,sl+1));
DC_residuals_trkDoca[s][sl].setTitleX("DOCA (cm)");
DC_residuals_trkDoca[s][sl].setTitleY("residual (cm)");
DC_residuals[s][sl] = new H1F(String.format("DC_residuals_%d_%d",s+1,sl+1),String.format("DC_residuals_%d_%d",s+1,sl+1),100,-1,1);
DC_residuals[s][sl].setTitle(String.format("DC residuals S%d SL%d",s+1,sl+1));
DC_residuals[s][sl].setTitleX("residual (cm)");
DC_time[s][sl] = new H1F(String.format("DC_Time_%d_%d",s+1,sl+1),String.format("DC_Time_%d_%d",s+1,sl+1),200,-100,1000);
DC_time[s][sl].setTitle(String.format("DC Time S%d SL%d",s+1,sl+1));
DC_time[s][sl].setTitleX("time (ns)");
DC_time[s][sl].setLineWidth(4);
f_time_invertedS[s][sl] = new F1D(String.format("Inverted_S_%d_%d",s+1,sl+1),"[p0]/(1+exp(-[p1]*(x-[p2])))",-100,1000);
f_time_invertedS[s][sl].setOptStat("111111");
}
}
}
/*
{"name":"sector", "id":3, "type":"int8", "info":"DC sector"},
{"name":"superlayer", "id":4, "type":"int8", "info":"DC superlayer (1...6)"},
{"name":"doca", "id":8, "type":"float", "info":"doca of the hit calculated from TDC (in cm)"},
{"name":"trkDoca", "id":10, "type":"float", "info":"track doca of the hit (in cm)"},
{"name":"timeResidual", "id":11, "type":"float", "info":"time residual of the hit (in cm)"},
*/
public void fillDC(DataBank DCB){
for(int r=0;r<DCB.rows();r++){
int s = DCB.getInt("sector",r)-1;
int sl = DCB.getInt("superlayer",r)-1;
float trkDoca = DCB.getFloat("trkDoca",r);
float timeResidual = DCB.getFloat("timeResidual",r);
float time = DCB.getFloat("time",r);
float field = DCB.getFloat("B",r);
if(s>-1&&s<6&&sl>-1&&sl<6){
boolean otherregions = (sl<2 || sl>3);
boolean region2 = ((sl==2||sl==3) && field<0.5);
if (otherregions||region2) {
DC_residuals_trkDoca[s][sl].fill(trkDoca,timeResidual);
DC_residuals[s][sl].fill(timeResidual);
DC_time[s][sl].fill(time);
}
}
else System.out.println("sector "+(s+1)+" superlayer "+(sl+1));
}
}
public void fillTOFCalibHists(DataBank part, DataBank sc, DataBank hits){
for(int k=0;k<part.rows();k++) {
byte charge = part.getByte("charge",k);
int pid = part.getInt("pid",k);
float px = part.getFloat("px",k);
float py = part.getFloat("py",k);
float pz = part.getFloat("pz",k);
float vz = part.getFloat("vz",k);
float mom = (float)Math.sqrt(px*px+py*py+pz*pz);
float theta = (float)Math.toDegrees(Math.acos(pz/mom));;
for (int j=0;j<sc.rows();j++) {
if (sc.getShort("pindex",j)==k) {
if (sc.getByte("detector",j)==12 && e_part_ind != -1) {
float energy = sc.getFloat("energy",j);
float path = hits.getFloat("pathLengthThruBar",sc.getShort("index",j));
int pad = sc.getInt("component", j);
int sector = sc.getInt("sector",j);
float time = sc.getFloat("time", j);
float pathlength = sc.getFloat("path",j);
float timediff = -10.f;
float flighttime = -10.0f;
float vcor = -10.0f;
if (pid == 11) {flighttime = pathlength/29.98f; vcor = vz/29.98f;}
if (pid == 211 || pid == -211) {flighttime = pathlength/(float)(29.98f * mom/Math.sqrt(mom*mom+0.13957f*0.13957f)); vcor = vz/(float)(29.98f * mom/Math.sqrt(mom*mom+0.13957f*0.13957f));}
timediff = (float) (time - flighttime + vcor) - RFTime;
timediff = (timediff+(rf_large_integer+0.5f)*rfPeriod) % rfPeriod - rfPeriod/2;
if (sc.getByte("layer",j)==1){
energy = energy*p1a_counter_thickness/path;
}
if (sc.getByte("layer",j)==2){
energy = energy*p1b_counter_thickness/path;
}
if (sc.getByte("layer",j)==3){
energy = energy*p2_counter_thickness/path;
}
if (charge == -1 && theta <= 11. && energy > 2.) {
if (sc.getByte("layer",j)==1) p1a_edep[sector-1][0].fill(energy);
if (sc.getByte("layer",j)==2) p1b_edep[sector-1][0].fill(energy);
//if (sc.getByte("layer",j)==3) p2_edep[sector-1][0].fill(energy);
}
if (charge == -1 && (theta > 11. && theta <=23) && energy > 2.) {
if (sc.getByte("layer",j)==1) p1a_edep[sector-1][1].fill(energy);
if (sc.getByte("layer",j)==2) p1b_edep[sector-1][1].fill(energy);
//if (sc.getByte("layer",j)==3) p2_edep[sector-1][1].fill(energy);
}
if (charge == -1 && theta > 23. && energy > 2.) {
if (sc.getByte("layer",j)==1) p1a_edep[sector-1][2].fill(energy);
if (sc.getByte("layer",j)==2) p1b_edep[sector-1][2].fill(energy);
//if (sc.getByte("layer",j)==3) p2_edep[sector-1][2].fill(energy);
}
if (pid == 11 || pid == 211 || pid == -211) {
if (sc.getByte("layer",j)==1) {p1a_pad_dt_calib[sector-1].fill(pad,timediff); p1a_dt_calib_all[sector-1].fill(timediff);}
if (sc.getByte("layer",j)==2) {p1b_pad_dt_calib[sector-1].fill(pad,timediff); p1b_dt_calib_all[sector-1].fill(timediff);}
if (sc.getByte("layer",j)==3) {p2_pad_dt_calib[sector-1].fill(pad,timediff); p2_dt_calib_all[sector-1].fill(timediff);p2_edep[sector-1].fill(energy);}
}
}
}
}
}
}
public void fillTOFHists(DataBank tofB, DataBank DCB){
for(int r=0;r<tofB.rows();r++){
int layer = tofB.getInt("layer", r);
float thisTime = tofB.getFloat("time", r) - tofB.getFloat("pathLength", r)/29.98f - RFTime;
thisTime = (thisTime+(rf_large_integer+0.5f)*rfPeriod) % rfPeriod;
thisTime = thisTime - rfPeriod/2;
float thisChi2 = 999;
float thisMom = 0;
float thisVz = 0;
boolean foundTrk = false;
for(int s=0;s<DCB.rows() && !foundTrk;s++){
if(DCB.getInt("id",s) == tofB.getInt("trackid",r) ){
thisChi2 = DCB.getFloat("chi2",s);
thisMom=0;
thisMom += DCB.getFloat("p0_x",s)*DCB.getFloat("p0_x",s);
thisMom += DCB.getFloat("p0_y",s)*DCB.getFloat("p0_y",s);
thisMom += DCB.getFloat("p0_z",s)*DCB.getFloat("p0_z",s);
thisMom = (float)Math.sqrt(thisMom);
thisVz = DCB.getFloat("Vtx0_z",s);
// 200 MeV
// 400 chi2
// 30 cm vz
if(thisChi2 < 500 && thisMom > 0.8 && Math.abs(thisVz)<15 )foundTrk = true;
}
}
if(foundTrk && tofB.getFloat("energy", r) > 2.0 ){
//TEMPORARY TEST FOR PION VERTEX TIME
float flightTime = tofB.getFloat("pathLength", r)/(float)( 29.98f * thisMom/Math.sqrt(thisMom*thisMom + 0.13957f*0.13957f) );
float thisPionTime = tofB.getFloat("time", r) - flightTime - RFTime;
thisPionTime = (thisPionTime+(rf_large_integer+0.5f)*rfPeriod) % rfPeriod;
thisPionTime = thisPionTime - rfPeriod/2;
//System.out.println("compare vextex times : "+thisTime+" =? "+thisPionTime+" , diff = "+(thisTime-thisPionTime));
//thisTime = thisPionTime;
thisVz = 0;
if(layer==1){//panel 1A
p1a_pad_occ.fill( tofB.getInt("component", r) , tofB.getInt("sector", r) );
p1a_pad_XY.fill( tofB.getFloat("x",r) , tofB.getFloat("y",r) );
p1a_pad_vt[tofB.getInt("sector", r)-1].fill( tofB.getInt("component", r) , thisTime-thisVz/29.98f );
p1a_pad_edep[tofB.getInt("sector", r)-1].fill( tofB.getInt("component", r) , tofB.getFloat("energy", r) );
}
if(layer==2){//panel 1B
p1b_pad_occ.fill( tofB.getInt("component", r) , tofB.getInt("sector", r) );
p1b_pad_XY.fill( tofB.getFloat("x",r) , tofB.getFloat("y",r) );
p1b_pad_vt[tofB.getInt("sector", r)-1].fill( tofB.getInt("component", r) , thisTime-thisVz/29.98f );
p1b_pad_edep[tofB.getInt("sector", r)-1].fill( tofB.getInt("component", r) , tofB.getFloat("energy", r) );
}
if(layer==3){//panel 2
p2_pad_occ.fill( tofB.getInt("component", r) , tofB.getInt("sector", r) );
p2_pad_XY.fill( tofB.getFloat("x",r) , tofB.getFloat("y",r) );
p2_pad_vt[tofB.getInt("sector", r)-1].fill( tofB.getInt("component", r) , thisTime-thisVz/29.98f );
p2_pad_edep[tofB.getInt("sector", r)-1].fill( tofB.getInt("component", r) , tofB.getFloat("energy", r) );
}
}
}
for(int h1=0;h1<tofB.rows();h1++){
float thisChi2 = 999;
float thisMom = 0;
boolean foundTrk1 = false;int iTrk1=-1;
boolean foundTrk2 = false;int iTrk2=-1;
if(tofB.getInt("layer", h1)==1&&tofB.getFloat("energy", h1)>1.0)for(int t=0;t<DCB.rows() && !foundTrk1;t++){
if(DCB.getInt("id",t) == tofB.getInt("trackid",h1) ){
thisChi2 = DCB.getFloat("chi2",t);
thisMom=0;
thisMom += DCB.getFloat("p0_x",t)*DCB.getFloat("p0_x",t);
thisMom += DCB.getFloat("p0_y",t)*DCB.getFloat("p0_y",t);
thisMom += DCB.getFloat("p0_z",t)*DCB.getFloat("p0_z",t);
thisMom = (float)Math.sqrt(thisMom);
if(thisChi2 < 5000 && thisMom > 0.8 && Math.abs(DCB.getFloat("Vtx0_z",t))<15 ){foundTrk1 = true;iTrk1=t;}
}
}
if(foundTrk1)for(int h2=0;h2<tofB.rows();h2++){
if(h1!=h2 && tofB.getInt("layer", h2)!=1 && tofB.getInt("sector", h2)!=tofB.getInt("sector", h1) && tofB.getFloat("energy", h2)>1.0 )
for(int t=0;t<DCB.rows() && !foundTrk2;t++){
if(t!=iTrk1 && DCB.getInt("id",t) == tofB.getInt("trackid",h2) ){
thisChi2 = DCB.getFloat("chi2",t);
thisMom=0;
thisMom += DCB.getFloat("p0_x",t)*DCB.getFloat("p0_x",t);
thisMom += DCB.getFloat("p0_y",t)*DCB.getFloat("p0_y",t);
thisMom += DCB.getFloat("p0_z",t)*DCB.getFloat("p0_z",t);
thisMom = (float)Math.sqrt(thisMom);
if(thisChi2 < 5000 && thisMom > 0.8 && Math.abs(DCB.getFloat("Vtx0_z",t))<15 ){foundTrk2 = true;iTrk2=t;}
}
}
if(foundTrk2){
float thisTime = tofB.getFloat("time", h1) - tofB.getFloat("time", h2) - (tofB.getFloat("pathLength",h1)-tofB.getFloat("pathLength",h2))/29.98f;;
if(thisTime!=0){
p1a_pad_dt[tofB.getInt("sector",h1)-1].fill( tofB.getInt("component", h1) , thisTime );
if(tofB.getInt("layer", h2)==2)p1b_pad_dt[tofB.getInt("sector",h2)-1].fill( tofB.getInt("component", h2) , thisTime );
if(tofB.getInt("layer", h2)==3)p2_pad_dt[tofB.getInt("sector",h2)-1].fill( tofB.getInt("component", h2) , thisTime );
}
}
}
}
}
public void fillRFTime(DataBank RFB){
for(int r=0;r<RFB.rows() && !hasRF;r++){
if(RFB.getInt("id",r)==1){
hasRF=true;
RFTime = RFB.getFloat("time",r);
}
}
}
public int makeElectron(DataBank bank){
int found_electron = 0;
for(int k = 0; k < bank.rows(); k++){
int pid = bank.getInt("pid", k);
byte q = bank.getByte("charge", k);
float px = bank.getFloat("px", k);
float py = bank.getFloat("py", k);
float pz = bank.getFloat("pz", k);
int status = bank.getShort("status", k);
boolean inDC = (status>=2000 && status<4000);
if( inDC && pid == 11 && found_electron == 0){
found_electron = 1;
return k;
}
}
return -1;
}
public void processEvent(DataEvent event) {
hasRF = false;
e_part_ind = -1;
DataBank trackDetBank = null, hitBank = null, partBank = null, tofhits = null, scintillator = null;
if(userTimeBased){
if(event.hasBank("TimeBasedTrkg::TBTracks"))trackDetBank = event.getBank("TimeBasedTrkg::TBTracks");
if(event.hasBank("TimeBasedTrkg::TBHits")){hitBank = event.getBank("TimeBasedTrkg::TBHits");}
if(event.hasBank("REC::Particle"))partBank = event.getBank("REC::Particle");
if(event.hasBank("REC::Scintillator"))scintillator = event.getBank("REC::Scintillator");
}
if(!userTimeBased){
if(event.hasBank("HitBasedTrkg::HBTracks"))trackDetBank = event.getBank("HitBasedTrkg::HBTracks");
if(event.hasBank("HitBasedTrkg::HBHits"))hitBank = event.getBank("HitBasedTrkg::HBHits");
if(event.hasBank("RECHB::Particle"))partBank = event.getBank("RECHB::Particle");
if(event.hasBank("RECHB::Scintillator"))scintillator = event.getBank("RECHB::Scintillator");
}
if(event.hasBank("FTOF::hits")) tofhits = event.getBank("FTOF::hits");
if(event.hasBank("RUN::rf"))fillRFTime(event.getBank("RUN::rf"));
if(!hasRF)return;
if(partBank!=null) e_part_ind = makeElectron(partBank);
if(event.hasBank("FTOF::hits") && trackDetBank!=null)fillTOFHists(event.getBank("FTOF::hits") , trackDetBank);
if (partBank!=null && scintillator!=null && tofhits!=null) fillTOFCalibHists(partBank,scintillator,tofhits);
if(userTimeBased && hitBank!=null)fillDC(hitBank);
}
public void initInvertedSFitPar(int slayer, F1D function) {
double min = 100.;
double max = 220.;
if (slayer == 1) {
min = 100.; max = 240.;
function.setParameter(1,-0.038); function.setParLimits(1,-0.01,-0.06);
function.setParameter(2,118.); function.setParLimits(2,100.,150.);
}
if (slayer == 2) {
min = 120.; max = 240.;
function.setParameter(1,-0.040); function.setParLimits(1,-0.01,-0.06);
function.setParameter(2,136.); function.setParLimits(2,100.,200.);
}
if (slayer == 3) {
min = 200.; max = 450.;
function.setParameter(1,-0.030);function.setParLimits(1,-0.01,-0.05);
function.setParameter(2,320.); function.setParLimits(2,200.,500.);
}
if (slayer == 4) {
min = 200.; max = 500.;
function.setParameter(1,-0.023); function.setParLimits(1,-0.01,-0.05);
function.setParameter(2,350.); function.setParLimits(2,200.,500.);
}
if (slayer == 5) {
min = 400.; max = 700.;
function.setParameter(1,-0.024);function.setParLimits(1,-0.01,-0.05);
function.setParameter(2,623.); function.setParLimits(2,500.,700.);
}
if (slayer == 6) {
min = 480.; max = 700.;
function.setParameter(1,-0.034); function.setParLimits(1,-0.01,-0.05);
function.setParameter(2,683.); function.setParLimits(2,500.,750.);
}
function.setRange(min,max);
function.setLineColor(2);
function.setLineWidth(4);
}
public void analyze() {
for(int sl=1;sl<=6;sl++) {
for (int l=0;l<6;l++) {
initInvertedSFitPar(sl,f_time_invertedS[l][sl-1]);
DataFitter.fit(f_time_invertedS[l][sl-1],DC_time[l][sl-1],"QL");
//System.out.println("Fit DC Time for sector "+l+ " superlayer " +sl+ "complete");
//System.out.println(" ");System.out.println(" ");
DC_time[l][sl-1].setFunction(null);
}
}
}
public void plot() {
EmbeddedCanvas can_TOF_occ = new EmbeddedCanvas();
can_TOF_occ.setSize(3000,5000);
can_TOF_occ.divide(6,9);
can_TOF_occ.setAxisTitleSize(18);
can_TOF_occ.setAxisFontSize(18);
can_TOF_occ.setTitleSize(18);
for(int s=0;s<6;s++){
can_TOF_occ.cd(s);can_TOF_occ.draw(p1a_pad_vt[s]);
//can_TOF_occ.getPad(6+s).getAxisZ().setLog(true);
can_TOF_occ.cd(6+s);can_TOF_occ.draw(p1b_pad_vt[s]);
//can_TOF_occ.getPad(12+s).getAxisZ().setLog(true);
can_TOF_occ.cd(12+s);can_TOF_occ.draw(p2_pad_vt[s]);
//can_TOF_occ.getPad(12+s).getAxisZ().setLog(true);
can_TOF_occ.cd(18+s);can_TOF_occ.draw(p1a_pad_edep[s]);
//can_TOF_occ.getPad(24+s).getAxisZ().setLog(true);
can_TOF_occ.cd(24+s);can_TOF_occ.draw(p1b_pad_edep[s]);
//can_TOF_occ.getPad(30+s).getAxisZ().setLog(true);
can_TOF_occ.cd(30+s);can_TOF_occ.draw(p2_pad_edep[s]);
//can_TOF_occ.getPad(36+s).getAxisZ().setLog(true);
can_TOF_occ.cd(36+s);can_TOF_occ.draw(p1a_pad_dt[s]);
//can_TOF_occ.getPad(42+s).getAxisZ().setLog(true);
can_TOF_occ.cd(42+s);can_TOF_occ.draw(p1b_pad_dt[s]);
//can_TOF_occ.getPad(48+s).getAxisZ().setLog(true);
can_TOF_occ.cd(48+s);can_TOF_occ.draw(p2_pad_dt[s]);
//can_TOF_occ.getPad(54+s).getAxisZ().setLog(true);
}
if(runNum>0){
if(!write_volatile)can_TOF_occ.save(String.format("plots"+runNum+"/TOF_cal.png"));
if(write_volatile)can_TOF_occ.save(String.format("/volatile/clas12/rga/spring18/plots"+runNum+"/TOF_cal.png"));
System.out.println(String.format("saved plots"+runNum+"/TOF_cal.png"));
}
else{
can_TOF_occ.save(String.format("plots/TOF_cal.png"));
System.out.println(String.format("saved plots/TOF_cal.png"));
}
EmbeddedCanvas can_TOF_calib = new EmbeddedCanvas();
can_TOF_calib.setSize(3000,5000);
can_TOF_calib.divide(6,13);
can_TOF_calib.setAxisTitleSize(18);
can_TOF_calib.setAxisFontSize(18);
can_TOF_calib.setTitleSize(18);
for(int s=0;s<6;s++){
can_TOF_calib.cd(s);can_TOF_calib.draw(p1a_pad_dt_calib[s]);
can_TOF_calib.cd(s+6);can_TOF_calib.draw(p1a_dt_calib_all[s]);
can_TOF_calib.cd(s+12);can_TOF_calib.draw(p1b_pad_dt_calib[s]);
can_TOF_calib.cd(s+18);can_TOF_calib.draw(p1b_dt_calib_all[s]);
can_TOF_calib.cd(s+24);can_TOF_calib.draw(p2_pad_dt_calib[s]);
can_TOF_calib.cd(s+30);can_TOF_calib.draw(p2_dt_calib_all[s]);
for (int k=0;k<3;k++) {
can_TOF_calib.cd(6*s+36+k);can_TOF_calib.draw(p1a_edep[s][k]);
can_TOF_calib.cd(6*s+36+k+3);can_TOF_calib.draw(p1b_edep[s][k]);
}
can_TOF_calib.cd(s+72);can_TOF_calib.draw(p2_edep[s]);
}
if(runNum>0){
if(!write_volatile)can_TOF_calib.save(String.format("plots"+runNum+"/TOF_calib.png"));
if(write_volatile)can_TOF_calib.save(String.format("/volatile/clas12/rga/spring18/plots"+runNum+"/TOF_calib.png"));
System.out.println(String.format("saved plots"+runNum+"/TOF_calib.png"));
}
else{
can_TOF_occ.save(String.format("plots/TOF_calib.png"));
System.out.println(String.format("saved plots/TOF_calib.png"));
}
EmbeddedCanvas can_DC_resd_trkDoca = new EmbeddedCanvas();
can_DC_resd_trkDoca.setSize(3000,3000);
can_DC_resd_trkDoca.divide(6,6);
can_DC_resd_trkDoca.setAxisTitleSize(18);
can_DC_resd_trkDoca.setAxisFontSize(18);
can_DC_resd_trkDoca.setTitleSize(18);
for(int s=0;s<6;s++)for(int sl=0;sl<6;sl++){
can_DC_resd_trkDoca.cd(sl + 6*s);
can_DC_resd_trkDoca.getPad(sl + 6*s).getAxisZ().setLog(true);
can_DC_resd_trkDoca.draw(DC_residuals_trkDoca[s][sl]);
}
if(runNum>0){
if(!write_volatile)can_DC_resd_trkDoca.save(String.format("plots"+runNum+"/DC_resd_trkDoca.png"));
if(write_volatile)can_DC_resd_trkDoca.save(String.format("/volatile/clas12/rga/spring18/plots"+runNum+"/DC_resd_trkDoca.png"));
System.out.println(String.format("saved plots"+runNum+"/DC_resd_trkDoca.png"));
}
else{
can_DC_resd_trkDoca.save(String.format("plots/DC_resd_trkDoca.png"));
System.out.println(String.format("saved plots/DC_resd_trkDoca.png"));
}
EmbeddedCanvas can_DC_resd = new EmbeddedCanvas();
can_DC_resd.setSize(3000,3000);
can_DC_resd.divide(6,6);
can_DC_resd.setAxisTitleSize(18);
can_DC_resd.setAxisFontSize(18);
can_DC_resd.setTitleSize(18);
for(int s=0;s<6;s++)for(int sl=0;sl<6;sl++){
can_DC_resd.cd(sl + 6*s);
can_DC_resd.draw(DC_residuals[s][sl]);
}
if(runNum>0){
if(!write_volatile)can_DC_resd.save(String.format("plots"+runNum+"/DC_resd.png"));
if(write_volatile)can_DC_resd.save(String.format("/volatile/clas12/rga/spring18/plots"+runNum+"/DC_resd.png"));
System.out.println(String.format("saved plots"+runNum+"/DC_resd.png"));
}
else{
can_DC_resd.save(String.format("plots/DC_resd.png"));
System.out.println(String.format("saved plots/DC_resd.png"));
}
EmbeddedCanvas can_DC_time = new EmbeddedCanvas();
can_DC_time.setSize(3000,3000);
can_DC_time.divide(6,6);
can_DC_time.setAxisTitleSize(18);
can_DC_time.setAxisFontSize(18);
can_DC_time.setTitleSize(18);
for(int s=0;s<6;s++)for(int sl=0;sl<6;sl++){
can_DC_time.cd(sl + 6*s);
can_DC_time.draw(DC_time[s][sl]);can_DC_time.draw(f_time_invertedS[s][sl],"same");
}
if(runNum>0){
if(!write_volatile)can_DC_time.save(String.format("plots"+runNum+"/DC_time.png"));
if(write_volatile)can_DC_time.save(String.format("/volatile/clas12/rga/spring18/plots"+runNum+"/DC_time.png"));
System.out.println(String.format("saved plots"+runNum+"/DC_time.png"));
}
else{
can_DC_time.save(String.format("plots/DC_time.png"));
System.out.println(String.format("saved plots/DC_time.png"));
}
}
public void write() {
TDirectory dirout = new TDirectory();
dirout.mkdir("/tof/");
dirout.cd("/tof/");
for(int s=0;s<6;s++){
dirout.addDataSet(p1a_pad_vt[s],p1b_pad_vt[s],p2_pad_vt[s],p1a_pad_dt[s],p1b_pad_dt[s],p2_pad_dt[s]);
dirout.addDataSet(p1a_pad_dt_calib[s],p1b_pad_dt_calib[s],p2_pad_dt_calib[s],p1a_dt_calib_all[s],p1b_dt_calib_all[s],p2_dt_calib_all[s],p2_edep[s]);
for (int i=0;i<3;i++) {
dirout.addDataSet(p1a_edep[s][i],p1b_edep[s][i]);
}
}
dirout.mkdir("/dc/");
dirout.cd("/dc/");
for(int s=0;s<6;s++)for(int sl=0;sl<6;sl++){
dirout.addDataSet(DC_residuals_trkDoca[s][sl],DC_time[s][sl]);
}
if(write_volatile)if(runNum>0)dirout.writeFile("/volatile/clas12/rga/spring18/plots"+runNum+"/out_TOF_"+runNum+".hipo");
if(!write_volatile){
if(runNum>0)dirout.writeFile("plots"+runNum+"/out_TOF_"+runNum+".hipo");
else dirout.writeFile("plots/out_TOF.hipo");
}
}
////////////////////////////////////////////////
public static void main(String[] args) {
System.setProperty("java.awt.headless", "true");
GStyle.setPalette("kRainBow");
int count = 0;
int runNum = 0;
boolean useTB = true;
boolean useVolatile = false;
String filelist = "list_of_files.txt";
if(args.length>0)runNum = Integer.parseInt(args[0]);
if(args.length>1)filelist = args[1];
if(args.length>2)if(Integer.parseInt(args[2])==0)useTB=false;
tof_monitor ana = new tof_monitor(runNum,useTB,useVolatile);
List<String> toProcessFileNames = new ArrayList<String>();
File file = new File(filelist);
Scanner read;
try {
read = new Scanner(file);
do {
String filename = read.next();
toProcessFileNames.add(filename);
}while (read.hasNext());
read.close();
}catch(IOException e){
e.printStackTrace();
}
int maxevents = 50000000;
if(args.length>2)maxevents=Integer.parseInt(args[2]);
int progresscount=0;int filetot = toProcessFileNames.size();
for (String runstrg : toProcessFileNames) if(count<maxevents){
progresscount++;
System.out.println(String.format(">>>>>>>>>>>>>>>> tof_monitor %s",runstrg));
File varTmpDir = new File(runstrg);
if(!varTmpDir.exists()){System.out.println("FILE DOES NOT EXIST");continue;}
System.out.println("READING NOW "+runstrg);
HipoDataSource reader = new HipoDataSource();
reader.open(runstrg);
int filecount = 0;
while(reader.hasEvent() && count<maxevents) {
DataEvent event = reader.getNextEvent();
ana.processEvent(event);
filecount++;count++;
if(count%10000 == 0) System.out.println(count/1000 + "k events (this is tof_monitor on "+runstrg+") progress : " + progresscount+"/"+filetot);
}
reader.close();
}
System.out.println("Total : " + count + " events");
ana.analyze();
ana.plot();
ana.write();
}
}