1 |
// |
// |
2 |
//- Emiliano Mocchiutti |
//- Emiliano Mocchiutti |
3 |
// |
// |
4 |
// FCaloADC2MIP.c version 1.01 (2006-03-20) |
// FCaloADC2MIP.c version 1.02 (2006-03-31) |
5 |
// |
// |
6 |
// The only input needed is |
// The only input needed is |
7 |
// |
// |
8 |
// Changelog: |
// Changelog: |
9 |
// |
// |
10 |
|
// 1.01 - 1.02 (2006-03-31): Added FCaloALIG2DAT and FCaloREADALIG to create and read the calorimeter alignment data file. |
11 |
|
// |
12 |
// 1.00 - 1.01 (2006-03-20): First flight version, read single yoda file. |
// 1.00 - 1.01 (2006-03-20): First flight version, read single yoda file. |
13 |
// |
// |
14 |
// 0.00 - 1.00 (2006-03-20): Clone of CaloADC2MIP v4r01. |
// 0.00 - 1.00 (2006-03-20): Clone of CaloADC2MIP v4r01. |
18 |
#include <sstream> |
#include <sstream> |
19 |
#include <string> |
#include <string> |
20 |
#include <iostream> |
#include <iostream> |
21 |
|
#include <stdlib.h> |
22 |
#include <TTree.h> |
#include <TTree.h> |
23 |
#include <TClassEdit.h> |
#include <TClassEdit.h> |
24 |
#include <TObject.h> |
#include <TObject.h> |
67 |
#include <FCaloADC2MIPfun.h> |
#include <FCaloADC2MIPfun.h> |
68 |
using namespace std; |
using namespace std; |
69 |
|
|
70 |
void FCaloADC2MIP(TString Filename, TString calcalibfile = "", TString OutDir="", TString flist=""){ |
void FCaloADC2MIP(TString Filename, TString calcalibfile = "", TString OutDir="", TString flist="", Int_t fit=1){ |
71 |
const char *pam_calib = pathtocalibration(); |
const char *pam_calib = pathtocalibration(); |
72 |
if ( !strcmp(OutDir.Data(),"") ){ |
if ( !strcmp(OutDir.Data(),"") ){ |
73 |
OutDir = pam_calib; |
OutDir = pam_calib; |
487 |
// |
// |
488 |
for (Int_t i = 0; i < nevents; i++){ |
for (Int_t i = 0; i < nevents; i++){ |
489 |
evno = i; |
evno = i; |
490 |
if ( i%1000 == 0 && i > 0 ) printf(" %iK \n",i/1000); |
if ( i%100000 == 0 && i > 0 ) printf(" %i00K \n",i/100000); |
491 |
// printf(" %i \n",i); |
// printf(" %i \n",i); |
492 |
// |
// |
493 |
// read from the header of the event the absolute time at which it was recorded |
// read from the header of the event the absolute time at which it was recorded |
721 |
e++; |
e++; |
722 |
}; |
}; |
723 |
// |
// |
724 |
|
if ( !fit ) UPYES=0; |
725 |
|
// |
726 |
if ( !UPYES ) goto end; |
if ( !UPYES ) goto end; |
727 |
printf("\n OK, now I will fit the MIP distribution for each strip \n\n"); |
printf("\n OK, now I will fit the MIP distribution for each strip \n\n"); |
728 |
// |
// |
751 |
// |
// |
752 |
Double_t fr[2]; |
Double_t fr[2]; |
753 |
Double_t sv[4], pllo[4], plhi[4], fp[4], fpe[4]; |
Double_t sv[4], pllo[4], plhi[4], fp[4], fpe[4]; |
754 |
if ( SNRPeak > 16. && SNRPeak < 35. ){ |
// if ( SNRPeak > 16. && SNRPeak < 35. ){ |
755 |
|
if ( SNRPeak > 16. && SNRPeak < 35. && fp[3] < 8.){ |
756 |
fr[0] = (Float_t)SNRPeak - 7.; |
fr[0] = (Float_t)SNRPeak - 7.; |
757 |
sv[0]= fp[0]; |
sv[0]= fp[0]; |
758 |
sv[1]= fp[1]; |
sv[1]= fp[1]; |
759 |
sv[2]= fp[2]; |
sv[2]= fp[2]; |
760 |
sv[3]= fp[3]; |
sv[3]= fp[3]; |
761 |
} else { |
} else { |
762 |
fr[0] = 19.; |
// fr[0] = 19.; |
763 |
|
fr[0] = 17.5; |
764 |
sv[0] = 2.8; |
sv[0] = 2.8; |
765 |
sv[1] = 21.0; |
// sv[1] = 21.0; |
766 |
|
sv[1] = 23.0; |
767 |
sv[2] = 1000.0; |
sv[2] = 1000.0; |
768 |
sv[3] = 0.1; |
sv[3] = 0.1; |
769 |
}; |
}; |
770 |
Int_t doitagain = 0; |
Int_t doitagain = 0; |
771 |
fitting: printf("Fitting strip %i %i %i \n",l,m,n); |
fitting: printf("Fitting strip %i %i %i \n",l,m,n); |
772 |
fr[1] = 60.; |
// fr[1] = 60.; |
773 |
|
fr[1] = 50.; |
774 |
pllo[0]=0.5; pllo[1]=5.0; pllo[2]=1.0; pllo[3]=0.2; |
pllo[0]=0.5; pllo[1]=5.0; pllo[2]=1.0; pllo[3]=0.2; |
775 |
plhi[0]=8.0; plhi[1]=50.0; plhi[2]=1000000.0; plhi[3]=8.0; |
// plhi[0]=8.0; plhi[1]=50.0; plhi[2]=1000000.0; plhi[3]=8.0; |
776 |
|
plhi[0]=15.0; plhi[1]=50.0; plhi[2]=1000000.0; plhi[3]=8.0; |
777 |
Double_t chisqr; |
Double_t chisqr; |
778 |
Int_t ndf; |
Int_t ndf; |
779 |
// |
// |
788 |
// |
// |
789 |
// |
// |
790 |
// |
// |
791 |
if ( ( SNRPeak < 0. || (SNRPeak < 16. || SNRPeak > 35.) || chisqr > 100.) && doitagain < 3 ){ |
// if ( ( SNRPeak < 0. || (SNRPeak < 16. || SNRPeak > 35.) || chisqr > 100.) && doitagain < 3 ){ |
792 |
|
if ( ( SNRPeak < 0. || (SNRPeak < 16. || SNRPeak > 35.) || chisqr > 100.) && doitagain < 4 ){ |
793 |
printf("\n The fit is not good, I will try again, step %i \n\n",doitagain); |
printf("\n The fit is not good, I will try again, step %i \n\n",doitagain); |
794 |
doitagain++; |
doitagain++; |
795 |
if ( chisqr > 100. ) { |
if ( chisqr > 100. ) { |
796 |
fr[0] = fr[0] + 5.; |
// fr[0] = fr[0] + 5.; |
797 |
|
fr[0] = fr[0] + 2.; |
798 |
sv[0] = fp[0]; |
sv[0] = fp[0]; |
799 |
sv[1] = fp[1]; |
sv[1] = fp[1]; |
800 |
sv[2] = fp[2]; |
sv[2] = fp[2]; |
2180 |
const char *file2; |
const char *file2; |
2181 |
file2 = filenome.str().c_str(); |
file2 = filenome.str().c_str(); |
2182 |
TFile *hfile = 0; |
TFile *hfile = 0; |
2183 |
hfile = new TFile(file2,"UPDATE","Calorimeter CALIBRATION data"); |
hfile = new TFile(filevalue.Data(),"UPDATE","Calorimeter CALIBRATION data"); |
2184 |
CalorimeterCalibration *calo = 0; |
CalorimeterCalibration *calo = 0; |
2185 |
TTree *tree; |
TTree *tree; |
2186 |
tree = (TTree*)hfile->Get("CaloADC"); |
tree = (TTree*)hfile->Get("CaloADC"); |
2194 |
file3.str(""); |
file3.str(""); |
2195 |
// file3 << OutDir.Data() << "/"; |
// file3 << OutDir.Data() << "/"; |
2196 |
file3 << file; |
file3 << file; |
2197 |
TFile hfile3(file3.str().c_str()); |
TFile hfile3(filename.Data()); |
2198 |
Int_t l = 0; |
Int_t l = 0; |
2199 |
TCanvas *c1; |
TCanvas *c1; |
2200 |
Int_t ty = 1; |
Int_t ty = 1; |
2247 |
// |
// |
2248 |
printf(" **** STRIP: %i %i %i **** \n",l,m,n); |
printf(" **** STRIP: %i %i %i **** \n",l,m,n); |
2249 |
printf(" MIP: %f \n",calo->mip[l][m][n]); |
printf(" MIP: %f \n",calo->mip[l][m][n]); |
2250 |
printf(" ERMIP: %f \n",calo->ermip[l][m][n]); |
//printf(" ERMIP: %f \n",calo->ermip[l][m][n]); |
2251 |
printf(" FP[0-3]: %f / %f / %f / %f \n",calo->fp[0][l][m][n],calo->fp[1][l][m][n],calo->fp[2][l][m][n],calo->fp[3][l][m][n]); |
//printf(" FP[0-3]: %f / %f / %f / %f \n",calo->fp[0][l][m][n],calo->fp[1][l][m][n],calo->fp[2][l][m][n],calo->fp[3][l][m][n]); |
2252 |
printf(" FPE[0-3]: %f / %f / %f / %f \n",calo->fpe[0][l][m][n],calo->fpe[1][l][m][n],calo->fpe[2][l][m][n],calo->fpe[3][l][m][n]); |
//printf(" FPE[0-3]: %f / %f / %f / %f \n",calo->fpe[0][l][m][n],calo->fpe[1][l][m][n],calo->fpe[2][l][m][n],calo->fpe[3][l][m][n]); |
2253 |
printf(" CHI2: %f \n",calo->chi2[l][m][n]); |
//printf(" CHI2: %f \n",calo->chi2[l][m][n]); |
2254 |
printf(" NDF: %f \n",calo->ndf[l][m][n]); |
//printf(" NDF: %f \n",calo->ndf[l][m][n]); |
2255 |
printf(" MASK: %f \n",calo->mask[l][m][n]); |
//printf(" MASK: %f \n",calo->mask[l][m][n]); |
2256 |
// |
// |
2257 |
// what to do? |
// what to do? |
2258 |
// |
// |
2322 |
input.str(""); |
input.str(""); |
2323 |
input << tellme; |
input << tellme; |
2324 |
out.str("y"); |
out.str("y"); |
2325 |
if ( !strcmp(input.str().c_str(),stc.str().c_str()) ) { |
if ( !strcmp(input.str().c_str(),out.str().c_str()) ) { |
2326 |
calo->mip[l][m][n] = (float)SNRPeak; |
calo->mip[l][m][n] = (float)SNRPeak; |
2327 |
calo->ermip[l][m][n] = (float)ffpe[1]; |
calo->ermip[l][m][n] = (float)ffpe[1]; |
2328 |
for (Int_t a = 0; a < 4 ; a++){ |
for (Int_t a = 0; a < 4 ; a++){ |
2464 |
const char *file2; |
const char *file2; |
2465 |
file2 = filenome.str().c_str(); |
file2 = filenome.str().c_str(); |
2466 |
TFile *hfile = 0; |
TFile *hfile = 0; |
2467 |
hfile = new TFile(file2,"READ","Calorimeter CALIBRATION data"); |
hfile = new TFile(filevalue.Data(),"READ","Calorimeter CALIBRATION data"); |
2468 |
CalorimeterCalibration *calo = 0; |
CalorimeterCalibration *calo = 0; |
2469 |
TTree *tree; |
TTree *tree; |
2470 |
tree = (TTree*)hfile->Get("CaloADC"); |
tree = (TTree*)hfile->Get("CaloADC"); |
2508 |
mg->Add(graph); |
mg->Add(graph); |
2509 |
printf(" **** STRIP: %i %i %i **** \n",l,m,n); |
printf(" **** STRIP: %i %i %i **** \n",l,m,n); |
2510 |
printf(" MIP: %f \n",calo->mip[l][m][n]); |
printf(" MIP: %f \n",calo->mip[l][m][n]); |
2511 |
printf(" ERMIP: %f \n",calo->ermip[l][m][n]); |
//printf(" ERMIP: %f \n",calo->ermip[l][m][n]); |
2512 |
printf(" FP[0-3]: %f / %f / %f / %f \n",calo->fp[0][l][m][n],calo->fp[1][l][m][n],calo->fp[2][l][m][n],calo->fp[3][l][m][n]); |
//printf(" FP[0-3]: %f / %f / %f / %f \n",calo->fp[0][l][m][n],calo->fp[1][l][m][n],calo->fp[2][l][m][n],calo->fp[3][l][m][n]); |
2513 |
printf(" FPE[0-3]: %f / %f / %f / %f \n",calo->fpe[0][l][m][n],calo->fpe[1][l][m][n],calo->fpe[2][l][m][n],calo->fpe[3][l][m][n]); |
//printf(" FPE[0-3]: %f / %f / %f / %f \n",calo->fpe[0][l][m][n],calo->fpe[1][l][m][n],calo->fpe[2][l][m][n],calo->fpe[3][l][m][n]); |
2514 |
printf(" CHI2: %f \n",calo->chi2[l][m][n]); |
//printf(" CHI2: %f \n",calo->chi2[l][m][n]); |
2515 |
printf(" NDF: %f \n",calo->ndf[l][m][n]); |
//printf(" NDF: %f \n",calo->ndf[l][m][n]); |
2516 |
printf(" MASK: %f \n",calo->mask[l][m][n]); |
//printf(" MASK: %f \n",calo->mask[l][m][n]); |
2517 |
n++; |
n++; |
2518 |
}; |
}; |
2519 |
l++; |
l++; |
2851 |
bmippa << " " << n; |
bmippa << " " << n; |
2852 |
pfmip[l][m][n] = (TH1F*)temp->Clone(bmippa.str().c_str()); |
pfmip[l][m][n] = (TH1F*)temp->Clone(bmippa.str().c_str()); |
2853 |
Int_t doitagain = 0; |
Int_t doitagain = 0; |
2854 |
|
Int_t ndoitagain = 0; |
2855 |
Double_t fr[2]; |
Double_t fr[2]; |
2856 |
Double_t sv[4], pllo[4], plhi[4], fp[4], fpe[4]; |
Double_t sv[4], pllo[4], plhi[4], fp[4], fpe[4]; |
2857 |
if ( SNRPeak > 16. && SNRPeak < 35. ){ |
// if ( SNRPeak > 16. && SNRPeak < 35. ){ |
2858 |
|
if ( SNRPeak > 16. && SNRPeak < 35. && fp[3] < 8. ){ |
2859 |
fr[0] = (Float_t)SNRPeak - 7.; |
fr[0] = (Float_t)SNRPeak - 7.; |
2860 |
sv[0]= fp[0]; |
sv[0]= fp[0]; |
2861 |
sv[1]= fp[1]; |
sv[1]= fp[1]; |
2862 |
sv[2]= fp[2]; |
sv[2]= fp[2]; |
2863 |
sv[3]= fp[3]; |
sv[3]= fp[3]; |
2864 |
} else { |
} else { |
2865 |
fr[0] = 19.; |
fr[0] = 12.5; |
2866 |
sv[0] = 2.8; |
sv[0] = 2.8; |
2867 |
sv[1] = 21.0; |
sv[1] = 23.0; |
2868 |
sv[2] = 1000.0; |
sv[2] = 1000.0; |
2869 |
sv[3] = 0.1; |
sv[3] = 0.1; |
2870 |
}; |
}; |
2871 |
|
fr[1] = 50.; |
2872 |
|
// fr[1] = 60.; |
2873 |
fitting: printf("Fitting strip %i %i %i \n",l,m,n); |
fitting: printf("Fitting strip %i %i %i \n",l,m,n); |
|
fr[1] = 60.; |
|
2874 |
pllo[0]=0.5; pllo[1]=5.0; pllo[2]=1.0; pllo[3]=0.2; |
pllo[0]=0.5; pllo[1]=5.0; pllo[2]=1.0; pllo[3]=0.2; |
2875 |
plhi[0]=8.0; plhi[1]=50.0; plhi[2]=1000000.0; plhi[3]=8.0; |
plhi[0]=15.0; plhi[1]=50.0; plhi[2]=1000000.0; plhi[3]=8.0; |
2876 |
Double_t chisqr; |
Double_t chisqr; |
2877 |
Int_t ndf; |
Int_t ndf; |
2878 |
pfitsnr[l][m][n] = langaufit(pfmip[l][m][n],fr,sv,pllo,plhi,fp,fpe,&chisqr,&ndf,"QR0"); |
pfitsnr[l][m][n] = langaufit(pfmip[l][m][n],fr,sv,pllo,plhi,fp,fpe,&chisqr,&ndf,"QR0"); |
2880 |
Double_t SNRPeak = langaupro(fp); |
Double_t SNRPeak = langaupro(fp); |
2881 |
printf("\n Conversion factor: %f \n\n",SNRPeak); |
printf("\n Conversion factor: %f \n\n",SNRPeak); |
2882 |
// |
// |
2883 |
|
c1->cd(); |
2884 |
|
pfmip[l][m][n]->DrawCopy(); |
2885 |
|
pfitsnr[l][m][n]->DrawCopy("lsame"); |
2886 |
|
c1->Modified(); |
2887 |
|
c1->Update(); |
2888 |
// |
// |
2889 |
// |
// |
2890 |
if ( (SNRPeak<0. || (SNRPeak < 16. || SNRPeak > 35.) || chisqr > 100.) && doitagain < 3 ){ |
if ( (SNRPeak<0. || (SNRPeak < 16. || SNRPeak > 35.) || chisqr > 100.) && doitagain < 11 ){ |
2891 |
printf("\n The fit is not good, I will try again, step %i \n\n",doitagain); |
printf("\n The fit is not good, I will try again, step %i \n\n",doitagain); |
2892 |
doitagain++; |
doitagain++; |
2893 |
if ( chisqr > 100. ) { |
if ( chisqr > 100. ) { |
2894 |
fr[0] = fr[0] + 5.; |
if ( fr[0] < 20. && !(doitagain%2) ) fr[0] += 1.; |
2895 |
|
if ( fr[1] > 35. && doitagain%2 ) fr[1] -= 3.; |
2896 |
|
// if ( doitagain > 1 ) fr[1] = 35.; |
2897 |
sv[0] = fp[0]; |
sv[0] = fp[0]; |
2898 |
sv[1] = fp[1]; |
sv[1] = fp[1]; |
2899 |
sv[2] = fp[2]; |
sv[2] = fp[2]; |
2900 |
sv[3] = fp[3]; |
sv[3] = fp[3]; |
2901 |
|
printf(" chi \n"); |
2902 |
goto fitting; |
goto fitting; |
2903 |
}; |
}; |
2904 |
if ( doitagain == 1 ) { |
ndoitagain++; |
2905 |
|
if ( ndoitagain == 1 ) { |
2906 |
fr[0] = 19.; |
fr[0] = 19.; |
2907 |
sv[0] = 2.8; |
sv[0] = 2.8; |
2908 |
sv[1] = 21.0; |
sv[1] = 21.0; |
2909 |
sv[2] = 1000.0; |
sv[2] = 1000.0; |
2910 |
sv[3] = 0.1; |
sv[3] = 0.1; |
2911 |
|
printf(" uno \n"); |
2912 |
goto fitting; |
goto fitting; |
2913 |
}; |
}; |
2914 |
if ( doitagain == 2 ) { |
if ( ndoitagain == 2 ) { |
2915 |
fr[0] = 22.; |
fr[0] = 22.; |
2916 |
sv[0] = 2.8; |
sv[0] = 2.8; |
2917 |
sv[1] = 25.0; |
sv[1] = 25.0; |
2918 |
sv[2] = 1000.0; |
sv[2] = 1000.0; |
2919 |
sv[3] = 0.1; |
sv[3] = 0.1; |
2920 |
|
printf(" due \n"); |
2921 |
goto fitting; |
goto fitting; |
2922 |
}; |
}; |
2923 |
if ( doitagain == 3 ) { |
if ( ndoitagain == 3 ) { |
2924 |
fr[0] = 12.; |
fr[0] = 12.; |
2925 |
sv[0] = 2.8; |
sv[0] = 2.8; |
2926 |
sv[1] = 15.0; |
sv[1] = 15.0; |
2927 |
sv[2] = 1000.0; |
sv[2] = 1000.0; |
2928 |
sv[3] = 0.1; |
sv[3] = 0.1; |
2929 |
|
printf(" tre \n"); |
2930 |
goto fitting; |
goto fitting; |
2931 |
}; |
}; |
2932 |
}; |
}; |
3025 |
for (Int_t k = 0; k < 22; k++ ){ |
for (Int_t k = 0; k < 22; k++ ){ |
3026 |
for (Int_t l = 0; l < 96; l++ ){ |
for (Int_t l = 0; l < 96; l++ ){ |
3027 |
mip = 0.; |
mip = 0.; |
3028 |
if ( (ccalo->fp[1][m][k][l] > 20. && ccalo->fp[1][m][k][l] < 32.) || ccalo->mask[m][k][l] == 1. ) { |
// if ( (ccalo->fp[1][m][k][l] > 20. && ccalo->fp[1][m][k][l] < 32.) || ccalo->mask[m][k][l] == 1. ) { |
3029 |
|
// if ( (ccalo->fp[1][m][k][l] > 15. && ccalo->fp[1][m][k][l] < 45.) || ccalo->mask[m][k][l] == 1. ) { |
3030 |
mip = ccalo->mip[m][k][l]; |
mip = ccalo->mip[m][k][l]; |
3031 |
} else { |
// } else { |
3032 |
mip = 26. ; |
// mip = 26. ; |
3033 |
}; |
// mip = 28. ; |
3034 |
if ( mip == 0 ) mip = 26. ; |
// }; |
3035 |
|
// if ( mip == 0 ) mip = 26. ; |
3036 |
|
// if ( mip == 0 ) mip = 28. ; |
3037 |
// if ( m == 1 && k == 17 ) printf(" %i mip = %f \n",l,mip); |
// if ( m == 1 && k == 17 ) printf(" %i mip = %f \n",l,mip); |
3038 |
fwrite(&mip,sizeof(mip),1,f); |
fwrite(&mip,sizeof(mip),1,f); |
3039 |
}; |
}; |
3046 |
FILE *f; |
FILE *f; |
3047 |
f = fopen(txtple.Data(),"rb"); |
f = fopen(txtple.Data(),"rb"); |
3048 |
Float_t mip = 0.; |
Float_t mip = 0.; |
3049 |
|
Float_t tmip = 0.; |
3050 |
for (Int_t m = 0; m < 2 ; m++ ){ |
for (Int_t m = 0; m < 2 ; m++ ){ |
3051 |
for (Int_t k = 0; k < 22; k++ ){ |
for (Int_t k = 0; k < 22; k++ ){ |
3052 |
for (Int_t l = 0; l < 96; l++ ){ |
for (Int_t l = 0; l < 96; l++ ){ |
3053 |
mip = 0.; |
mip = 0.; |
3054 |
fread(&mip,sizeof(mip),1,f); |
fread(&mip,sizeof(mip),1,f); |
3055 |
|
tmip += mip; |
3056 |
|
printf(" m %i k %i l %i mip %f \n",m,k,l,mip); |
3057 |
// if ( m == 1 && k == 17 ) printf(" %i mip = %f \n",l,mip); |
// if ( m == 1 && k == 17 ) printf(" %i mip = %f \n",l,mip); |
3058 |
}; |
}; |
3059 |
}; |
}; |
3060 |
}; |
}; |
3061 |
fclose(f); |
fclose(f); |
3062 |
|
// |
3063 |
|
printf(" Average mip is %f \n",tmip/4224.); |
3064 |
|
// |
3065 |
|
} |
3066 |
|
|
3067 |
|
void FCaloALIG2DAT(TString txtple){ |
3068 |
|
// clevel1_.xalig = 121.1; |
3069 |
|
// clevel1_.yalig = 119.8; |
3070 |
|
// clevel1_.zalig = -263.1; |
3071 |
|
char value[256]; |
3072 |
|
Int_t ixalig; |
3073 |
|
Int_t iyalig; |
3074 |
|
Int_t izalig; |
3075 |
|
Int_t iemip; |
3076 |
|
Float_t xalig; |
3077 |
|
Float_t yalig; |
3078 |
|
Float_t zalig; |
3079 |
|
Float_t emip; |
3080 |
|
// |
3081 |
|
FILE *f; |
3082 |
|
f = fopen(txtple.Data(),"wb"); |
3083 |
|
// |
3084 |
|
printf("\n Insert parameters in microns \n"); |
3085 |
|
printf("\n Insert the x alignment parameter: \n"); |
3086 |
|
cin.getline(value,256); |
3087 |
|
ixalig = atoi(value); |
3088 |
|
xalig = (Float_t)ixalig/1000.; |
3089 |
|
fwrite(&xalig,sizeof(xalig),1,f); |
3090 |
|
printf(" xalig = %f mm\n",xalig); |
3091 |
|
// |
3092 |
|
printf("\n Insert the y alignment parameter: \n"); |
3093 |
|
cin.getline(value,256); |
3094 |
|
iyalig = atoi(value); |
3095 |
|
yalig = (Float_t)iyalig/1000.; |
3096 |
|
fwrite(&yalig,sizeof(yalig),1,f); |
3097 |
|
printf(" yalig = %f mm\n",yalig); |
3098 |
|
// |
3099 |
|
printf("\n Insert the z alignment parameter: \n"); |
3100 |
|
cin.getline(value,256); |
3101 |
|
izalig = atoi(value); |
3102 |
|
zalig = (Float_t)izalig/1000.; |
3103 |
|
fwrite(&zalig,sizeof(zalig),1,f); |
3104 |
|
printf(" zalig = %f mm\n",zalig); |
3105 |
|
// |
3106 |
|
printf("\n Insert the signal/noise threshold (times 1000): \n"); |
3107 |
|
cin.getline(value,256); |
3108 |
|
iemip = atoi(value); |
3109 |
|
emip = (Float_t)iemip/1000.; |
3110 |
|
fwrite(&emip,sizeof(emip),1,f); |
3111 |
|
printf(" emip = %f mip \n",emip); |
3112 |
|
// |
3113 |
|
fclose(f); |
3114 |
|
} |
3115 |
|
|
3116 |
|
void FCaloREADALIG(TString txtple){ |
3117 |
|
FILE *f; |
3118 |
|
f = fopen(txtple.Data(),"rb"); |
3119 |
|
Float_t mip = 0.; |
3120 |
|
fread(&mip,sizeof(mip),1,f); |
3121 |
|
printf(" xalig = %f \n",mip); |
3122 |
|
mip = 0.; |
3123 |
|
fread(&mip,sizeof(mip),1,f); |
3124 |
|
printf(" yalig = %f \n",mip); |
3125 |
|
mip = 0.; |
3126 |
|
fread(&mip,sizeof(mip),1,f); |
3127 |
|
printf(" zalig = %f \n",mip); |
3128 |
|
mip = 0.; |
3129 |
|
fread(&mip,sizeof(mip),1,f); |
3130 |
|
printf(" signal threshold = %f \n",mip); |
3131 |
|
fclose(f); |
3132 |
} |
} |