PHOS/AliPHOS.cxx

   1 /**************************************************************************
   2  * Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. *
   3  *                                                                        *
   4  * Author: The ALICE Off-line Project.                                    *
   5  * Contributors are mentioned in the code where appropriate.              *
   6  *                                                                        *
   7  * Permission to use, copy, modify and distribute this software and its   *
   8  * documentation strictly for non-commercial purposes is hereby granted   *
   9  * without fee, provided that the above copyright notice appears in all   *
  10  * copies and that both the copyright notice and this permission notice   *
  11  * appear in the supporting documentation. The authors make no claims     *
  12  * about the suitability of this software for any purpose. It is          *
  13  * provided "as is" without express or implied warranty.                  *
  14  **************************************************************************/
  15
  16 /*
  17 $Log$
  18 Revision 1.8  1999/09/29 09:24:23  fca
  19 Introduction of the Copyright and cvs Log
  20
  21 */
  22
  23 ////////////////////////////////////////////////
  24 //  Manager and hits classes for set:PHOS     //
  25 ////////////////////////////////////////////////
  26
  27 // --- ROOT system ---
  28 #include "TH1.h"
  29 #include "TRandom.h"
  30 #include "TFile.h"
  31 #include "TTree.h"
  32 #include "TBRIK.h"
  33 #include "TNode.h"
  34 #include "TMath.h"
  35
  36 // --- Standard library ---
  37 #include <stdio.h>
  38 #include <string.h>
  39 #include <stdlib.h>
  40 #include <iostream.h>
  41
  42 // --- galice header files ---
  43 #include "AliPHOS.h"
  44 #include "AliRun.h"
  45
  46 //______________________________________________________________________________
  47
  48
  49 ClassImp(AliPHOS)
  50
  51 //______________________________________________________________________________
  52
  53 AliPHOS::~AliPHOS(void)
  54 {
  55   delete fHits;                 // 28.12.1998
  56   delete fTreePHOS;             // 28.12.1998
  57   fCradles->Delete();
  58   delete fCradles;
  59 }
  60
  61 //______________________________________________________________________________
  62
  63 AliPHOS::AliPHOS() :
  64          fDebugLevel            (0),
  65          fTreePHOS              (NULL),
  66          fBranchNameOfCradles   ("AliPHOSCradles"),
  67          fTreeName              ("PHOS")
  68 {
  69    fIshunt   = 0;
  70
  71   if( NULL==(fCradles=new TObjArray) )
  72   {
  73     Error("AliPHOS","Can not create fCradles");
  74     exit(1);
  75   }
  76   DefPars();
  77 }
  78
  79 //______________________________________________________________________________
  80
  81 AliPHOS::AliPHOS(const char *name, const char *title)
  82        : AliDetector            (name,title),
  83          fDebugLevel            (0),
  84          fTreePHOS              (NULL),
  85          fBranchNameOfCradles   ("AliPHOSCradles"),
  86          fTreeName              ("PHOS")
  87 {
  88 //Begin_Html
  89 /*
  90 <img src="picts/aliphos.gif">
  91 */
  92 //End_Html
  93
  94    fHits   = new TClonesArray("AliPHOShit",  405);
  95
  96    fIshunt     =  0;
  97
  98    SetMarkerColor(kGreen);
  99    SetMarkerStyle(2);
 100    SetMarkerSize(0.4);
 101
 102   if( NULL==(fCradles=new TObjArray) ) {
 103      Error("AliPHOS","Can not create fCradles");
 104      exit(1);
 105   }
 106   DefPars();
 107 }
 108
 109 //______________________________________________________________________________
 110
 111 void AliPHOS::DefPars()
 112 {
 113       PHOSflags[0]=0;
 114       PHOSflags[1]=1;
 115       PHOSflags[2]=0;
 116       PHOSflags[3]=0;
 117       PHOSflags[4]=0;
 118       PHOSflags[5]=0;
 119       PHOSflags[6]=0;
 120       PHOSflags[7]=0;
 121       PHOSflags[8]=0;
 122       PHOScell[0]=2.2;
 123       PHOScell[1]=18.;
 124       PHOScell[2]=0.01;
 125       PHOScell[3]=0.01;
 126       PHOScell[4]=1.0;
 127       PHOScell[5]=0.1;
 128       PHOScell[6]=0.;
 129       PHOScell[7]=0.;
 130       PHOScell[8]=0.;
 131       PHOSradius=460.;
 132       PHOSsize[0]=104;
 133       PHOSsize[1]=88;
 134       PHOSsize[2]=4;
 135       PHOScradlesA=0.;
 136       PHOSextra[0]=0.001;
 137       PHOSextra[1]=6.95;
 138       PHOSextra[2]=4.;
 139       PHOSextra[3]=5.;
 140       PHOSextra[4]=2.;
 141       PHOSextra[5]=0.06;
 142       PHOSextra[6]=10.;
 143       PHOSextra[7]=3.;
 144       PHOSextra[8]=1.;
 145       PHOSTXW[0]=209.;
 146       PHOSTXW[1]=71.;
 147       PHOSTXW[2]=250.;
 148       PHOSAIR[0]=206.;
 149       PHOSAIR[1]=66.;
 150       PHOSAIR[2]=244.;
 151       PHOSFTI[0]=214.6;
 152       PHOSFTI[1]=80.;
 153       PHOSFTI[2]=260.;
 154       PHOSFTI[3]=467.;
 155 }
 156 //______________________________________________________________________________
 157
 158 void AliPHOS::AddHit(Int_t track, Int_t *vol, Float_t *hits)
 159 {
 160   TClonesArray &lhits = *fHits;
 161   new(lhits[fNhits++]) AliPHOShit(fIshunt,track,vol,hits);
 162 }
 163
 164 //___________________________________________
 165 void AliPHOS::BuildGeometry()
 166 {
 167
 168   TNode *Node, *Top;
 169
 170   const int kColorPHOS = kRed;
 171   //
 172   Top=gAlice->GetGeometry()->GetNode("alice");
 173
 174
 175   // PHOS
 176   Float_t pphi=12.9399462;
 177   new TRotMatrix("rot988","rot988",90,-3*pphi,90,90-3*pphi,0,0);
 178   new TRotMatrix("rot989","rot989",90,-  pphi,90,90-  pphi,0,0);
 179   new TRotMatrix("rot990","rot990",90,   pphi,90,90+  pphi,0,0);
 180   new TRotMatrix("rot991","rot991",90, 3*pphi,90,90+3*pphi,0,0);
 181   new TBRIK("S_PHOS","PHOS box","void",107.3,40,130);
 182   Top->cd();
 183   Node = new TNode("PHOS1","PHOS1","S_PHOS",-317.824921,-395.014343,0,"rot988");
 184   Node->SetLineColor(kColorPHOS);
 185   fNodes->Add(Node);
 186   Top->cd();
 187   Node = new TNode("PHOS2","PHOS2","S_PHOS",-113.532333,-494.124908,0,"rot989");
 188   fNodes->Add(Node);
 189   Node->SetLineColor(kColorPHOS);
 190   Top->cd();
 191   Node = new TNode("PHOS3","PHOS3","S_PHOS", 113.532333,-494.124908,0,"rot990");
 192   Node->SetLineColor(kColorPHOS);
 193   fNodes->Add(Node);
 194   Top->cd();
 195   Node = new TNode("PHOS4","PHOS4","S_PHOS", 317.824921,-395.014343,0,"rot991");
 196   Node->SetLineColor(kColorPHOS);
 197   fNodes->Add(Node);
 198 }
 199
 200 //___________________________________________
 201 void AliPHOS::CreateMaterials()
 202 {
 203 // *** DEFINITION OF AVAILABLE PHOS MATERIALS ***
 204
 205 // CALLED BY : PHOS_MEDIA
 206 // ORIGIN    : NICK VAN EIJNDHOVEN
 207
 208
 209
 210     Int_t   ISXFLD = gAlice->Field()->Integ();
 211     Float_t SXMGMX = gAlice->Field()->Max();
 212
 213 // --- The PbWO4 crystals ---
 214     Float_t ax[3] = { 207.19,183.85,16. };
 215     Float_t zx[3] = { 82.,74.,8. };
 216     Float_t wx[3] = { 1.,1.,4. };
 217     Float_t dx    = 8.28;
 218 // --- Stainless Steel ---
 219     Float_t as[5] = { 55.847,12.011,51.9961,58.69,28.0855 };
 220     Float_t zs[5] = { 26.,6.,24.,28.,14. };
 221     Float_t ws[5] = { .6392,8e-4,.2,.14,.02 };
 222     Float_t ds    = 8.;
 223 // --- The polysterene scintillator (CH) ---
 224     Float_t ap[2] = { 12.011,1.00794 };
 225     Float_t zp[2] = { 6.,1. };
 226     Float_t wp[2] = { 1.,1. };
 227     Float_t dp    = 1.032;
 228 // --- Tyvek (CnH2n)
 229     Float_t at[2] = { 12.011,1.00794 };
 230     Float_t zt[2] = { 6.,1. };
 231     Float_t wt[2] = { 1.,2. };
 232     Float_t dt    = .331;
 233 // --- Polystyrene foam ---
 234     Float_t af[2] = { 12.011,1.00794 };
 235     Float_t zf[2] = { 6.,1. };
 236     Float_t wf[2] = { 1.,1. };
 237     Float_t df    = .12;
 238 //--- Foam thermo insulation (actual chemical composition unknown yet!) ---
 239     Float_t ati[2] = { 12.011,1.00794 };
 240     Float_t zti[2] = { 6.,1. };
 241     Float_t wti[2] = { 1.,1. };
 242     Float_t dti    = .1;
 243 // --- Textolit (actual chemical composition unknown yet!) ---
 244     Float_t atx[2] = { 12.011,1.00794 };
 245     Float_t ztx[2] = { 6.,1. };
 246     Float_t wtx[2] = { 1.,1. };
 247     Float_t dtx    = 1.83;
 248
 249     Int_t *idtmed = fIdtmed->GetArray()-699;
 250
 251     AliMixture(  0, "PbWO4$",          ax, zx, dx, -3, wx);
 252     AliMixture(  1, "Polystyrene$",    ap, zp, dp, -2, wp);
 253     AliMaterial( 2, "Al$",             26.98, 13., 2.7, 8.9, 999);
 254 // ---                                Absorption length^ is ignored ---
 255     AliMixture(  3, "Tyvek$",           at, zt, dt, -2, wt);
 256     AliMixture(  4, "Foam$",            af, zf, df, -2, wf);
 257     AliMixture(  5, "Stainless Steel$", as, zs, ds, 5, ws);
 258     AliMaterial( 6, "Si$",              28.09, 14., 2.33, 9.36, 42.3);
 259     AliMixture(  7, "Thermo Insul.$",   ati, zti, dti, -2, wti);
 260     AliMixture(  8, "Textolit$",        atx, ztx, dtx, -2, wtx);
 261     AliMaterial(99, "Air$",             14.61, 7.3, .001205, 30420., 67500);
 262
 263     AliMedium(0, "PHOS Xtal    $", 0, 1, ISXFLD, SXMGMX, 10., .1, .1, .1, .1);
 264     AliMedium(2, "Al parts     $", 2, 0, ISXFLD, SXMGMX, 10., .1, .1, .001, .001);
 265     AliMedium(3, "Tyvek wrapper$", 3, 0, ISXFLD, SXMGMX, 10., .1, .1, .001, .001);
 266     AliMedium(4, "Polyst. foam $", 4, 0, ISXFLD, SXMGMX, 10., .1, .1, .1, .1);
 267     AliMedium(5, "Steel cover  $", 5, 0, ISXFLD, SXMGMX, 10., .1, .1, 1e-4, 1e-4);
 268     AliMedium(6, "Si PIN       $", 6, 0, ISXFLD, SXMGMX, 10., .1, .1, .01, .01);
 269     AliMedium(7, "Thermo Insul.$", 7, 0, ISXFLD, SXMGMX, 10., .1, .1, .1, .1);
 270     AliMedium(8, "Textolit     $", 8, 0, ISXFLD, SXMGMX, 10., .1, .1, .1, .1);
 271     AliMedium(99, "Air          $",99, 0, ISXFLD, SXMGMX, 10., 1., .1, .1, 10);
 272
 273 // --- Generate explicitly delta rays in the steel cover ---
 274     gMC->Gstpar(idtmed[704], "LOSS", 3.);
 275     gMC->Gstpar(idtmed[704], "DRAY", 1.);
 276 // --- and in aluminium parts ---
 277     gMC->Gstpar(idtmed[701], "LOSS", 3.);
 278     gMC->Gstpar(idtmed[701], "DRAY", 1.);
 279 }
 280
 281 //______________________________________________________________________________
 282
 283 void AliPHOS::AddPHOSCradles()
 284 {
 285   Int_t i;
 286   for(i=0;i<GetCradlesAmount();i++) {
 287
 288     int n = fCradles->GetEntries();
 289     fCradles->Add(new AliPHOSCradle( IsVersion(),            // geometry.
 290                                      GetCrystalSideSize    (),
 291                                      GetCrystalLength      (),
 292                                      GetWrapThickness      (),
 293                                      GetAirThickness       (),
 294                                      GetPIN_SideSize       (),
 295                                      GetPIN_Length         (),
 296                                      GetRadius             (),
 297                                      GetNz                 (),
 298                                      GetNphi               (),
 299                                      GetCradleAngle        (i)));
 300
 301     if( n+1 != fCradles->GetEntries() || NULL == fCradles->At(n) )
 302       {
 303         cout << "  Can not create or add AliPHOSCradle.\n";
 304         exit(1);
 305       }
 306   }
 307 }
 308
 309 //______________________________________________________________________________
 310
 311 Int_t AliPHOS::DistancetoPrimitive(Int_t , Int_t )
 312 {
 313    return 9999;
 314 }
 315
 316 //___________________________________________
 317 void AliPHOS::Init()
 318 {
 319   Int_t i;
 320   //
 321   printf("\n");
 322   for(i=0;i<35;i++) printf("*");
 323   printf(" PHOS_INIT ");
 324   for(i=0;i<35;i++) printf("*");
 325   printf("\n");
 326   //
 327   // Here the ABSO initialisation code (if any!)
 328   for(i=0;i<80;i++) printf("*");
 329   printf("\n");
 330 }
 331
 332 //______________________________________________________________________________
 333
 334 void AliPHOS::MakeBranch(Option_t *)
 335 {
 336 // ROOT output initialization to ROOT file.
 337 //
 338 // AliDetector::MakeBranch()  is always called.
 339 //
 340 // There will be also special tree "PHOS" with one branch "AliPHOSCradles"
 341 // if it was set next flag in the galice card file:
 342 //  * PHOSflags:    YES: X<>0   NO: X=0
 343 //  * PHOSflags(1) : -----X.  Create branch for TObjArray of AliPHOSCradle
 344 //     Examples:
 345 //     PHOSflags      1.
 346 //     PHOSflags 636301.
 347 // In that case special bit CradlesBranch_Bit will be set for AliPHOS
 348
 349   AliDetector::MakeBranch();
 350
 351   int i;
 352   float t = GetPHOS_flag(0)/10;
 353   i = (int) t;
 354   i = (int) ((t-i)*10);
 355   if( !i )
 356     return;
 357
 358   SetBit(CradlesBranch_Bit);
 359
 360   if( NULL==(fTreePHOS=new TTree(fTreeName.Data(),"PHOS events tree")) )
 361   {
 362     Error("MakeBranch","Can not create TTree");
 363     exit(1);
 364   }
 365
 366   if( NULL==fTreePHOS->GetCurrentFile() )
 367   {
 368     Error("MakeBranch","There is no opened ROOT file");
 369     exit(1);
 370   }
 371
 372   // Create a new branch in the current Root Tree.
 373
 374   if( NULL==fTreePHOS->Branch(fBranchNameOfCradles.Data(),"TObjArray",&fCradles,4000,0) )
 375   {
 376     Error("MakeBranch","Can not create branch");
 377     exit(1);
 378   }
 379
 380   printf("The branch %s has been created\n",fBranchNameOfCradles.Data());
 381 }
 382
 383 //______________________________________________________________________________
 384
 385 void AliPHOS::SetTreeAddress(void)
 386 {
 387 // ROOT input initialization.
 388 //
 389 // AliDetector::SetTreeAddress()  is always called.
 390 //
 391 // If CradlesBranch_Bit is set (see AliPHOS::MakeBranch) than fTreePHOS is
 392 // initilized.
 393
 394   AliDetector::SetTreeAddress();
 395
 396   if( !TestBit(CradlesBranch_Bit) )
 397     return;
 398
 399   if( NULL==(fTreePHOS=(TTree*)gDirectory->Get((char*)(fTreeName.Data()))  ) )
 400   {
 401     Error("SetTreeAddress","Can not find Tree \"%s\"\n",fTreeName.Data());
 402     exit(1);
 403   }
 404
 405   TBranch *branch = fTreePHOS->GetBranch(fBranchNameOfCradles.Data());
 406   if( NULL==branch )
 407   {
 408     Error("SetTreeAddress","Can not find branch %s in TTree:%s",fBranchNameOfCradles.Data(),fTreeName.Data());
 409     exit(1);
 410   }
 411
 412   branch->SetAddress(&fCradles);
 413 }
 414
 415 //______________________________________________________________________________
 416
 417 AliPHOSCradle *AliPHOS::GetCradleOfTheParticle(const TVector3 &p,const TVector3 &v) const
 418 {
 419 // For a given direction 'p' and source point 'v' returns pointer to AliPHOSCradle
 420 // in that direction or NULL if AliPHOSCradle was not found.
 421
 422   for( int m=0; m<fCradles->GetEntries(); m++ )
 423   {
 424     AliPHOS *PHOS = (AliPHOS *)this;     // Removing 'const'...
 425     AliPHOSCradle *cradle = (AliPHOSCradle *)PHOS->fCradles->operator[](m);
 426
 427     float x,y,l;
 428     const float d = cradle->GetRadius();
 429     cradle->GetXY(p,v,d,x,y,l);
 430
 431     if( l>0 && TMath::Abs(x)<cradle->GetNz  ()*cradle->GetCellSideSize()/2
 432             && TMath::Abs(y)<cradle->GetNphi()*cradle->GetCellSideSize()/2 )
 433       return cradle;
 434   }
 435
 436   return NULL;
 437 }
 438
 439 //______________________________________________________________________________
 440
 441 void AliPHOS::Reconstruction(Float_t signal_step, UInt_t min_signal_reject)
 442 {
 443 // Call AliPHOSCradle::Reconstruction(Float_t signal_step, UInt_t min_signal_reject)
 444 // for all AliPHOSCradles.
 445
 446   for( int i=0; i<fCradles->GetEntries(); i++ )
 447     GetCradle(i).Reconstruction(signal_step,min_signal_reject);
 448 }
 449
 450 //______________________________________________________________________________
 451
 452 void AliPHOS::ResetDigits(void)
 453 {
 454   AliDetector::ResetDigits();
 455
 456   for( int i=0; i<fCradles->GetEntries(); i++ )
 457     ((AliPHOSCradle*)(*fCradles)[i]) -> Clear();
 458 }
 459
 460 //______________________________________________________________________________
 461
 462 void AliPHOS::FinishEvent(void)
 463 {
 464 // Called at the end of each 'galice' event.
 465
 466   if( NULL!=fTreePHOS )
 467     fTreePHOS->Fill();
 468 }
 469
 470 //______________________________________________________________________________
 471
 472 void AliPHOS::FinishRun(void)
 473 {
 474 }
 475
 476 //______________________________________________________________________________
 477
 478 void AliPHOS::Print(Option_t *opt)
 479 {
 480 // Print PHOS information.
 481 // For each AliPHOSCradle the function AliPHOSCradle::Print(opt) is called.
 482
 483   AliPHOS &PHOS = *(AliPHOS *)this;     // Removing 'const'...
 484
 485   for( int i=0; i<fCradles->GetEntries(); i++ )
 486   {
 487     printf("PHOS cradle %d from %d\n",i+1, fCradles->GetEntries());
 488     PHOS.GetCradle(i).Print(opt);
 489     printf( "---------------------------------------------------\n");
 490   }
 491 }
 492
 493 //______________________________________________________________________________
 494 void AliPHOS::SetFlags(Float_t p1,Float_t p2,Float_t p3,Float_t p4,
 495                        Float_t p5,Float_t p6,Float_t p7,Float_t p8,Float_t p9)
 496 {
 497   PHOSflags[0]=p1;
 498   PHOSflags[1]=p2;
 499   PHOSflags[2]=p3;
 500   PHOSflags[3]=p4;
 501   PHOSflags[4]=p5;
 502   PHOSflags[5]=p6;
 503   PHOSflags[6]=p7;
 504   PHOSflags[7]=p8;
 505   PHOSflags[8]=p9;
 506 }
 507
 508 //______________________________________________________________________________
 509 void AliPHOS::SetCell(Float_t p1,Float_t p2,Float_t p3,Float_t p4,
 510                        Float_t p5,Float_t p6,Float_t p7,Float_t p8,Float_t p9)
 511 {
 512   PHOScell[0]=p1;
 513   PHOScell[1]=p2;
 514   PHOScell[2]=p3;
 515   PHOScell[3]=p4;
 516   PHOScell[4]=p5;
 517   PHOScell[5]=p6;
 518   PHOScell[6]=p7;
 519   PHOScell[7]=p8;
 520   PHOScell[8]=p9;
 521 }
 522
 523 //______________________________________________________________________________
 524 void AliPHOS::SetRadius(Float_t radius)
 525 {
 526    PHOSradius=radius;
 527 }
 528
 529 //______________________________________________________________________________
 530 void AliPHOS::SetCradleSize(Int_t nz, Int_t nphi, Int_t ncradles)
 531 {
 532    PHOSsize[0]=nz;
 533    PHOSsize[1]=nphi;
 534    PHOSsize[2]=ncradles;
 535 }
 536
 537 //______________________________________________________________________________
 538 void AliPHOS::SetCradleA(Float_t angle)
 539 {
 540    PHOScradlesA=angle;
 541 }
 542
 543 //______________________________________________________________________________
 544 void AliPHOS::SetExtra(Float_t p1,Float_t p2,Float_t p3,Float_t p4,
 545                        Float_t p5,Float_t p6,Float_t p7,Float_t p8,Float_t p9)
 546 {
 547    PHOSextra[0] = p1;
 548    PHOSextra[1] = p2;
 549    PHOSextra[2] = p3;
 550    PHOSextra[3] = p4;
 551    PHOSextra[4] = p5;
 552    PHOSextra[5] = p6;
 553    PHOSextra[6] = p7;
 554    PHOSextra[7] = p8;
 555    PHOSextra[8] = p9;
 556 }
 557
 558 //______________________________________________________________________________
 559 void AliPHOS::SetTextolitWall(Float_t dx, Float_t dy, Float_t dz)
 560 {
 561    PHOSTXW[0] = dx;
 562    PHOSTXW[1] = dy;
 563    PHOSTXW[2] = dz;
 564 }
 565
 566 //______________________________________________________________________________
 567 void AliPHOS::SetInnerAir(Float_t dx, Float_t dy, Float_t dz)
 568 {
 569    PHOSAIR[0] = dx;
 570    PHOSAIR[1] = dy;
 571    PHOSAIR[2] = dz;
 572 }
 573
 574 //______________________________________________________________________________
 575 void AliPHOS::SetFoam(Float_t dx, Float_t dy, Float_t dz, Float_t dr)
 576 {
 577    PHOSFTI[0] = dx;
 578    PHOSFTI[1] = dy;
 579    PHOSFTI[2] = dz;
 580    PHOSFTI[3] = dr;
 581 }
 582
 583 ClassImp(AliPHOSCradle)
 584
 585 //______________________________________________________________________________
 586
 587 AliPHOSCradle::AliPHOSCradle(void) {}
 588
 589 //______________________________________________________________________________
 590
 591 AliPHOSCradle::AliPHOSCradle( int   Geometry           ,
 592                               float CrystalSideSize    ,
 593                               float CrystalLength      ,
 594                               float WrapThickness      ,
 595                               float AirThickness       ,
 596                               float PIN_SideSize       ,
 597                               float PIN_Length         ,
 598                               float Radius             ,
 599                               int   Nz                 ,
 600                               int   Nphi               ,
 601                               float Angle              ) :
 602     fGeometry                   (Geometry),
 603 //  fCellEnergy                 (),
 604 //  fChargedTracksInPIN         (),
 605     fCrystalSideSize            (CrystalSideSize),
 606     fCrystalLength              (CrystalLength),
 607     fWrapThickness              (WrapThickness),
 608     fAirThickness               (AirThickness),
 609     fPIN_SideSize               (PIN_SideSize),
 610     fPIN_Length                 (PIN_Length),
 611     fRadius                     (Radius),
 612     fNz                         (Nz),
 613     fNphi                       (Nphi),
 614     fPhi                        (Angle)
 615 {
 616         fCellEnergy         = TH2F("CellE","Energy deposition in a cells",fNz,0,fNz,fNphi,0,fNphi);
 617         fCellEnergy           .SetDirectory(0);
 618         fChargedTracksInPIN = TH2S("PINCtracks","Amount of charged tracks in PIN",fNz,0,fNz,fNphi,0,fNphi);
 619         fChargedTracksInPIN   .SetDirectory(0);
 620 }
 621
 622 //______________________________________________________________________________
 623
 624 AliPHOSCradle::~AliPHOSCradle(void)        // 28.12.1998
 625 {
 626   fGammasReconstructed.Delete();
 627   fParticles          .Delete();
 628 }
 629
 630 //______________________________________________________________________________
 631
 632 void AliPHOSCradle::Clear(Option_t *)
 633 {
 634 // Clear digit. information.
 635
 636   fCellEnergy              .Reset();
 637   fChargedTracksInPIN      .Reset();
 638   GetParticles()           .Delete();
 639   GetParticles()           .Compress();
 640   GetGammasReconstructed() .Delete();
 641   GetGammasReconstructed() .Compress();
 642
 643 }
 644
 645 //______________________________________________________________________________
 646
 647 void AliPHOSCradle::GetXY(const TVector3 &p,const TVector3 &v,float R,float &x,float &y,float &l) const
 648 {
 649 // This function calculates hit position (x,y) in the CRADLE cells plain from particle in
 650 // the direction given by 'p' (not required to be normalized) and start point
 651 // given by 3-vector 'v'. So the particle trajectory is   t(l) = v + p*l
 652 // were 'l' is a number (distance from 'v' to CRADLE cells plain) and 't' is resulting
 653 // three-vector of trajectory point.
 654 //
 655 // After the call to this function user should test that l>=0 (the particle HITED the
 656 // plain) and (x,y) are in the region of CRADLE:
 657 //
 658 // Example:
 659 //   AliPHOSCradle cradle(......);
 660 //   TVector3 p(....), v(....);
 661 //   Float_t x,y,l;
 662 //   cradle.GetXY(p,v,x,y,l);
 663 //   if( l<0 || TMath::Abs(x)>cradle.GetNz()  *cradle.GetCellSideSize()/2
 664 //           || TMath::Abs(y)>cradle.GetNphi()*cradle.GetCellSideSize()/2 )
 665 //     cout << "Outside the CRADLE.\n";
 666
 667   // We have to create three vectors:
 668   //    s  - central point on the PHOS surface
 669   //    n1 - first vector in CRADLE plain
 670   //    n2 - second vector in CRADLE plain
 671   // This three vectors are orthonormalized.
 672
 673   double phi = fPhi/180*TMath::Pi();
 674   TVector3        n1(   0.0      ,   0.0      , 1.0 ),   // Z direction (X)
 675                   n2(  -sin(phi) ,   cos(phi) , 0 ),   // around beam (Y)
 676                   s ( R*cos(phi) , R*sin(phi) , 0 );   // central point
 677
 678   const double l1_min = 1e-2;
 679   double l1,
 680          p_n1 = p*n1,        // * - scalar product.
 681          p_n2 = p*n2,
 682          v_n1 = v*n1,
 683          v_n2 = v*n2,
 684          s_n1 = s*n1, // 0
 685          s_n2 = s*n2; // 0
 686
 687   if      ( TMath::Abs(l1=p.X()-n1.X()*p_n1-n2.X()*p_n2)>l1_min )
 688     { l = (-v.X()+s.X()+n1.X()*(v_n1-s_n1)+n2.X()*(v_n2-s_n2))/l1; }
 689   else if ( TMath::Abs(l1=p.Y()-n1.Y()*p_n1-n2.Y()*p_n2)>l1_min )
 690     { l = (-v.Y()+s.Y()+n1.Y()*(v_n1-s_n1)+n2.Y()*(v_n2-s_n2))/l1; }
 691   else if ( TMath::Abs(l1=p.Z()-n1.Z()*p_n1-n2.Z()*p_n2)>l1_min )
 692     { l = (-v.Z()+s.Z()+n1.Z()*(v_n1-s_n1)+n2.Z()*(v_n2-s_n2))/l1; }
 693
 694 //         double lx = (-v.X()+s.X()+n1.X()*(v.dot(n1)-s.dot(n1))+n2.X()*(v.dot(n2)-s.dot(n2)))/
 695 //                     (p.X()-n1.X()*p.dot(n1)-n2.X()*p.dot(n2)),
 696 //                ly = (-v.Y()+s.Y()+n1.Y()*(v.dot(n1)-s.dot(n1))+n2.Y()*(v.dot(n2)-s.dot(n2)))/
 697 //                     (p.Y()-n1.Y()*p.dot(n1)-n2.Y()*p.dot(n2)),
 698 //                lz = (-v.Z()+s.Z()+n1.Z()*(v.dot(n1)-s.dot(n1))+n2.Z()*(v.dot(n2)-s.dot(n2)))/
 699 //                     (p.Z()-n1.Z()*p.dot(n1)-n2.Z()*p.dot(n2));
 700 //         cout.form("x: %g %g %g %g\n",lx,-v.X()+s.X()+n1.X()*(v.dot(n1)-s.dot(n1))+n2.X()*(v.dot(n2)-s.dot(n2)),p.X()-n1.X()*p.dot(n1)-n2.X()*p.dot(n2));
 701 //         cout.form("y: %g %g %g %g\n",lx,-v.Y()+s.Y()+n1.Y()*(v.dot(n1)-s.dot(n1))+n2.Y()*(v.dot(n2)-s.dot(n2)),p.Y()-n1.Y()*p.dot(n1)-n2.Y()*p.dot(n2));
 702 //         cout.form("z: %g %g %g %g\n",lx,-v.Z()+s.Z()+n1.Z()*(v.dot(n1)-s.dot(n1))+n2.Z()*(v.dot(n2)-s.dot(n2)),p.Z()-n1.Z()*p.dot(n1)-n2.Z()*p.dot(n2));
 703 //         cout.form("lx,ly,lz =   %g,%g,%g\n",lx,ly,lz);
 704
 705   x = p_n1*l + v_n1 - s_n1;
 706   y = p_n2*l + v_n2 - s_n2;
 707 }
 708
 709 //______________________________________________________________________________
 710
 711 void AliPHOSCradle::Print(Option_t *opt)
 712 {
 713 // Print AliPHOSCradle information.
 714 //
 715 // options:  'd' - print energy deposition for EVERY cell
 716 //           'p' - print particles list that hit the cradle
 717 //           'r' - print list of reconstructed particles
 718
 719   AliPHOSCradle *cr = (AliPHOSCradle *)this;     // Removing 'const'...
 720
 721   printf("AliPHOSCradle:  Nz=%d  Nphi=%d, fPhi=%f, E=%g\n",fNz,fNphi,fPhi,
 722        cr->fCellEnergy.GetSumOfWeights());
 723
 724   if( NULL!=strchr(opt,'d') )
 725   {
 726     printf("\n\nCells Energy (in MeV):\n\n   |");
 727     for( int x=0; x<fNz; x++ )
 728       printf(" %4d|",x+1);
 729     printf("\n");
 730
 731     for( int y=fNphi-1; y>=0; y-- )
 732     {
 733       printf("%3d|",y+1);
 734       for( int x=0; x<fNz; x++ )
 735         printf("%6d",(int)(cr->fCellEnergy.GetBinContent(cr->fCellEnergy.GetBin(x,y))*1000));
 736       printf("\n");
 737     }
 738     printf("\n");
 739   }
 740
 741   if( NULL!=strchr(opt,'p') )
 742   {
 743     printf("This cradle was hit by %d particles\n",
 744          ((AliPHOSCradle*)this)->GetParticles().GetEntries());
 745     TObjArray &p=((AliPHOSCradle*)this)->GetParticles();
 746     for( int i=0; i<p.GetEntries(); i++ )
 747       ((AliPHOSgamma*)(p[i]))->Print();
 748   }
 749
 750   if( NULL!=strchr(opt,'p') )
 751   {
 752     printf("Amount of reconstructed gammas is %d\n",
 753          ((AliPHOSCradle*)this)->GetGammasReconstructed().GetEntries());
 754
 755     TObjArray &p=((AliPHOSCradle*)this)->GetGammasReconstructed();
 756     for( int i=0; i<p.GetEntries(); i++ )
 757       ((AliPHOSgamma*)(p[i]))->Print();
 758   }
 759 }
 760
 761 //______________________________________________________________________________
 762
 763 void AliPHOSCradle::Distortion(const TH2F *Noise, const TH2F *Stochastic, const TH2F *Calibration)
 764 {
 765 // This function changes histogram of cell energies fCellEnergy on the base of input
 766 // histograms Noise, Stochastic, Calibration. The histograms must have
 767 // size Nz x Nphi.
 768
 769   //////////////////////////////////
 770   // Testing the histograms size. //
 771   //////////////////////////////////
 772
 773   if( fNz!=fCellEnergy.GetNbinsX() || fNphi!=fCellEnergy.GetNbinsY() )
 774   {
 775     printf      ("Bad size of CellEnergy!   Must be:   Nz x Nphi = %d x %d\n"
 776                  "but size of CellEnergy is:  %d x %d\n",
 777                  fNz,fNphi,fCellEnergy.GetNbinsX(),fCellEnergy.GetNbinsY());
 778     exit(1);
 779   }
 780
 781   if( fNz!=fChargedTracksInPIN.GetNbinsX() || fNphi!=fChargedTracksInPIN.GetNbinsY() )
 782   {
 783     printf      ("Bad size of ChargedTracksInPIN!   Must be:   Nz x Nphi = %d x %d\n"
 784                  "but size of ChargedTracksInPIN is:  %d x %d\n",
 785                  fNz,fNphi,fChargedTracksInPIN.GetNbinsX(),fChargedTracksInPIN.GetNbinsY());
 786     exit(1);
 787   }
 788
 789   if( NULL!=Noise && (fNz!=Noise->GetNbinsX() || fNphi!=Noise->GetNbinsX()) )
 790   {
 791     printf      ("Bad size of Noise!   Must be:   Nz x Nphi = %d x %d\n"
 792                  "but size of Noise is:  %d x %d\n",
 793                  fNz,fNphi,fChargedTracksInPIN.GetNbinsX(),fChargedTracksInPIN.GetNbinsY());
 794     exit(1);
 795   }
 796
 797   if( NULL!=Stochastic && (fNz!=Stochastic->GetNbinsX() || fNphi!=Stochastic->GetNbinsX()) )
 798   {
 799     printf      ("Bad size of Stochastic!   Must be:   Nz x Nphi = %d x %d\n"
 800                  "but size of Stochastic is:  %d x %d\n",
 801                  fNz,fNphi,fChargedTracksInPIN.GetNbinsX(),fChargedTracksInPIN.GetNbinsY());
 802     exit(1);
 803   }
 804
 805   if( NULL!=Calibration && (fNz!=Calibration->GetNbinsX() || fNphi!=Calibration->GetNbinsX()) )
 806   {
 807     printf      ("Bad size of Calibration!   Must be:   Nz x Nphi = %d x %d\n"
 808                  "but size of Calibration is:  %d x %d\n",
 809                  fNz,fNphi,fChargedTracksInPIN.GetNbinsX(),fChargedTracksInPIN.GetNbinsY());
 810     exit(1);
 811   }
 812
 813   ////////////////////
 814   // Do distortion! //
 815   ////////////////////
 816
 817   for( int y=0; y<fNphi; y++ )
 818     for( int x=0; x<fNz; x++ )
 819     {
 820       const int n = fCellEnergy.GetBin(x,y);   // Bin number
 821       static TRandom r;
 822
 823       Float_t   E_old=fCellEnergy.GetBinContent(n),   E_new=E_old;
 824
 825       if( NULL!=Stochastic )
 826         E_new   = r.Gaus(E_old,sqrt(E_old)*GetDistortedValue(Stochastic,n));
 827
 828       if( NULL!=Calibration )
 829         E_new  *=  GetDistortedValue(Calibration,n);
 830
 831       if( NULL!=Noise )
 832         E_new  +=  GetDistortedValue(Noise,n);
 833
 834       fCellEnergy.SetBinContent(n,E_new);
 835     }
 836 }
 837
 838 ////////////////////////////////////////////////////////////////////////////////
 839
 840 TH2F* AliPHOSCradle::CreateHistForDistortion(const char *name, const char *title,
 841                                              Int_t Nx, Int_t Ny,
 842                                              Float_t MU_mu,    Float_t MU_sigma,
 843                                              Float_t SIGMA_mu, Float_t SIGMA_sigma)
 844 {
 845 // Create (new TH2F(...)) histogram with information (for every bin) that will
 846 // be used for VALUE creation.
 847 // Two values will be created for each bin:
 848 // MU    = TRandom::Gaus(MU_mu,MU_sigma)
 849 // and
 850 // SIGMA = TRandom::Gaus(SIGMA_mu,SIGMA_sigma)
 851 // The VALUE in a particluar bin will be equal
 852 // VALUE = TRandom::Gaus(MU,SIGMA)
 853 //
 854 // Do not forget to delete the histogram at the end of the work.
 855
 856   TH2F *h = new TH2F( name,title, Nx,1,Nx, Ny,1,Ny );
 857   if( h==NULL )
 858   {
 859     Error("CreateHistForDistortion","Can not create the histogram");
 860     exit(1);
 861   }
 862   h->SetDirectory(0);
 863
 864   for( int y=0; y<Ny; y++ )
 865     for( int x=0; x<Nx; x++ )
 866     {
 867       const int n = h->GetBin(x,y);
 868       h->SetBinContent(n,r.Gaus(   MU_mu,   MU_sigma));
 869       h->SetBinError  (n,r.Gaus(SIGMA_mu,SIGMA_sigma));
 870     }
 871
 872   return h;
 873 }
 874
 875 ////////////////////////////////////////////////////////////////////////////////
 876
 877 Float_t AliPHOSCradle::GetDistortedValue(const TH2F *h, UInt_t n)
 878 {
 879   return r.Gaus(((TH2F*)h)->GetBinContent(n),n);
 880 }
 881
 882 ////////////////////////////////////////////////////////////////////////////////
 883 //______________________________________________________________________________
 884
 885 #ifdef WIN32
 886   #define common_for_event_storing COMMON_FOR_EVENT_STORING
 887 #else
 888   #define common_for_event_storing common_for_event_storing_
 889 #endif
 890
 891 extern "C" struct
 892 {
 893   enum { crystals_matrix_amount_max=4, crystals_in_matrix_amount_max=40000 };
 894
 895   // Event-independent information
 896   UShort_t      crystals_matrix_amount_PHOS,
 897                 crystal_matrix_type,
 898                 amount_of_crystals_on_Z,
 899                 amount_of_crystals_on_PHI;
 900   Float_t       radius,
 901                 crystal_size,
 902                 crystal_length,
 903                 matrix_coordinate_Z             [crystals_matrix_amount_max],
 904                 matrix_coordinate_PHI           [crystals_matrix_amount_max];
 905   UInt_t        event_number;
 906   UShort_t      crystals_amount_with_amplitudes [crystals_matrix_amount_max],
 907                 crystals_amplitudes_Iad         [crystals_matrix_amount_max]
 908                                                 [crystals_in_matrix_amount_max][2];
 909 } common_for_event_storing;
 910
 911 //       integer*4 crystals_amount_max,crystals_in_matrix_amount_max,
 912 //      +          crystals_matrix_amount_max
 913 //       parameter (crystals_matrix_amount_max=4)
 914 //       parameter (crystals_in_matrix_amount_max=40000)
 915 //       parameter (crystals_amount_max =crystals_matrix_amount_max*
 916 //      +                                crystals_in_matrix_amount_max)
 917 //
 918 // * All units are in GeV, cm, radian
 919 //       real       crystal_amplitudes_unit, radius_unit,
 920 //      +           crystal_size_unit, crystal_length_unit,
 921 //      +           matrix_coordinate_Z_unit, matrix_coordinate_PHI_unit
 922 //       integer    crystal_amplitudes_in_units_min
 923 //       parameter (crystal_amplitudes_in_units_min        = 1)
 924 //       parameter (crystal_amplitudes_unit                = 0.001 ) ! 1.0  MeV
 925 //       parameter (radius_unit                            = 0.1   ) ! 0.1  cm
 926 //       parameter (crystal_size_unit                      = 0.01  ) ! 0.01 cm
 927 //       parameter (crystal_length_unit                    = 0.01  ) ! 0.01 cm
 928 //       parameter (matrix_coordinate_Z_unit               = 0.1   ) ! 0.1  cm
 929 //       parameter (matrix_coordinate_PHI_unit             = 1e-4  ) ! 1e-4 radian
 930 //
 931 //       integer*2 crystals_matrix_amount_PHOS, crystal_matrix_type,
 932 //      +          amount_of_crystals_on_Z, amount_of_crystals_on_PHI,
 933 //      +          crystals_amount_with_amplitudes, crystals_amplitudes_Iad
 934 //       integer*4 event_number
 935 //
 936 //       real      radius, crystal_size, crystal_length,
 937 //      +          matrix_coordinate_Z, matrix_coordinate_PHI
 938 //
 939 //       real      crystals_amplitudes, crystals_energy_total
 940 //       integer   event_file_unit_number
 941 //
 942 //       common /common_for_event_storing/
 943 //      + ! Event-independent information
 944 //      +        crystals_matrix_amount_PHOS,
 945 //      +        crystal_matrix_type,
 946 //      +        amount_of_crystals_on_Z,
 947 //      +        amount_of_crystals_on_PHI,
 948 //      +        radius,
 949 //      +        crystal_size,
 950 //      +        crystal_length,
 951 //      +        matrix_coordinate_Z     (crystals_matrix_amount_max),
 952 //      +        matrix_coordinate_PHI   (crystals_matrix_amount_max),
 953 //      +
 954 //      + ! Event-dependent information
 955 //      +        event_number,
 956 //      +        crystals_amount_with_amplitudes
 957 //      +                                (crystals_matrix_amount_max),
 958 //      +        crystals_amplitudes_Iad (2,crystals_in_matrix_amount_max,
 959 //      +                                 crystals_matrix_amount_max),
 960 //      +
 961 //      + ! These information don't store in data file
 962 //      +        crystals_amplitudes     (crystals_amount_max),
 963 //      +        crystals_energy_total,
 964 //      +        event_file_unit_number
 965
 966
 967 //      parameter (NGp=1000,nsps=10,nvertmax=1000)
 968 //         COMMON /GAMMA/KG,MW(ngp),ID(ngp),JD(ngp),E(ngp),E4(ngp),
 969 //      ,  XW(ngp),YW(ngp),ES(nsps,ngp),ET(nsps,ngp),ISsd(ngp),
 970 //      ,  IGDEV(ngp),ZGDEV(ngp),sigexy(3,ngp),Emimx(2,nsps,ngp),
 971 //      ,  kgfix,igfix(ngp),cgfix(3,ngp),sgfix(3,ngp),hiw(ngp),
 972 //      ,  wsw(nsps,ngp),h1w(ngp),h0w(ngp),raxay(5,ngp),
 973 //      ,  sigmaes0(nsps,ngp),dispeces(nsps,ngp),
 974 //      ,  igamvert(ngp)
 975
 976
 977 #ifdef WIN32
 978 #define rcgamma RCGAMMA
 979 #else
 980 #define rcgamma rcgamma_
 981 #endif
 982
 983 extern "C" struct
 984 {
 985   enum {NGP=1000, nsps=10, nvertmax=1000};
 986   int   recons_gammas_amount, mw[NGP],ID[NGP],JD[NGP];
 987   float E[NGP], E4[NGP], XW[NGP], YW[NGP], ES[NGP][nsps],ET[NGP][nsps],ISsd[NGP],
 988         igdev[NGP],Zgdev[NGP];
 989 //      sigexy(3,ngp),Emimx(2,nsps,ngp),
 990 //   ,  kgfix,igfix(ngp),cgfix(3,ngp),sgfix(3,ngp),hiw(ngp),
 991 //   ,  wsw(nsps,ngp),h1w(ngp),h0w(ngp),raxay(5,ngp),
 992 //   ,  sigmaes0(nsps,ngp),dispeces(nsps,ngp),
 993 //   ,  igamvert(ngp)
 994 } rcgamma;
 995
 996 #ifdef WIN32
 997 #define reconsfirst RECONSFIRST
 998 #define type_of_call _stdcall
 999 #else
1000 #define reconsfirst reconsfirst_
1001 #define type_of_call
1002 #endif
1003
1004 extern "C" void type_of_call reconsfirst(const float &,const float &);
1005
1006 void AliPHOSCradle::Reconstruction(Float_t signal_step, UInt_t min_signal_reject)
1007 {
1008 // Call of PHOS reconstruction program.
1009 // signal_step=0.001  GeV (1MeV)
1010 // min_signal_reject = 15 or 30 MeV
1011
1012
1013   common_for_event_storing.event_number                       = 0;  // We do not know event number?
1014   common_for_event_storing.crystals_matrix_amount_PHOS        = 1;
1015   common_for_event_storing.crystal_matrix_type                = 1; // 1 - rectangular
1016   common_for_event_storing.amount_of_crystals_on_Z            = fNz;
1017   common_for_event_storing.amount_of_crystals_on_PHI          = fNphi;
1018
1019   common_for_event_storing.radius                             = fRadius;
1020   common_for_event_storing.crystal_size                       = GetCellSideSize();
1021   common_for_event_storing.crystal_length                     = fCrystalLength;
1022
1023   common_for_event_storing.matrix_coordinate_Z            [0] = 0;
1024   common_for_event_storing.matrix_coordinate_PHI          [0] = fPhi;
1025
1026   #define  k    common_for_event_storing.crystals_amount_with_amplitudes[0]
1027   k=0;
1028
1029   for( int y=0; y<fNphi; y++ )
1030     for( int x=0; x<fNz; x++ )
1031     {
1032       UInt_t    n       = fCellEnergy.GetBin(x,y);
1033       UInt_t    signal  = (int) (fCellEnergy.GetBinContent(n)/signal_step);
1034       if( signal>=min_signal_reject )
1035       {
1036         common_for_event_storing.crystals_amplitudes_Iad[0][k][0] = signal;
1037         common_for_event_storing.crystals_amplitudes_Iad[0][k][1] = x + y*fNz;
1038         k++;
1039       }
1040     }
1041   #undef  k
1042
1043   GetGammasReconstructed().Delete();
1044   GetGammasReconstructed().Compress();
1045
1046   const float   stochastic_term   = 0.03,        // per cents over sqrt(E);  E in GeV
1047                 electronic_noise  = 0.01;        // GeV
1048   reconsfirst(stochastic_term,electronic_noise); // Call of reconstruction program.
1049
1050   for( int i=0; i<rcgamma.recons_gammas_amount; i++ )
1051   {
1052 //     new (GetGammasReconstructed().UncheckedAt(i) ) AliPHOSgamma;
1053 //     AliPHOSgamma &g = *(AliPHOSgamma*)(GetGammasReconstructed().UncheckedAt(i));
1054
1055     AliPHOSgamma *gggg = new AliPHOSgamma;
1056     if( NULL==gggg )
1057     {
1058       Error("Reconstruction","Can not create AliPHOSgamma");
1059       exit(1);
1060     }
1061
1062     GetGammasReconstructed().Add(gggg);
1063     AliPHOSgamma &g=*gggg;
1064
1065     Float_t thetta, alpha, betta, R=fRadius+rcgamma.Zgdev[i]/10;
1066
1067     g.fX      = rcgamma.YW[i]/10;
1068     g.fY      = rcgamma.XW[i]/10;
1069     g.fE      = rcgamma.E [i];
1070
1071     thetta      = atan(g.fX/R);
1072
1073     alpha = atan(g.fY/R);
1074     betta = fPhi/180*TMath::Pi() + alpha;
1075
1076     g.fPx = g.fE * cos(thetta) * cos(betta);
1077     g.fPy = g.fE * cos(thetta) * sin(betta);
1078     g.fPz = g.fE * sin(thetta);
1079   }
1080 }
1081
1082 //______________________________________________________________________________
1083 //______________________________________________________________________________
1084 //______________________________________________________________________________
1085 //______________________________________________________________________________
1086 //______________________________________________________________________________
1087
1088 ClassImp(AliPHOSgamma)
1089
1090 //______________________________________________________________________________
1091
1092 void AliPHOSgamma::Print(Option_t *)
1093 {
1094   float mass = fE*fE - fPx*fPx - fPy*fPy - fPz*fPz;
1095
1096   if( mass>=0 )
1097     mass =  sqrt( mass);
1098   else
1099     mass = -sqrt(-mass);
1100
1101   printf("XY=(%+7.2f,%+7.2f)  (%+7.2f,%+7.2f,%+7.2f;%7.2f)  mass=%8.4f  Ipart=%2d\n",
1102           fX,fY,fPx,fPy,fPz,fE,mass,fIpart);
1103 }
1104
1105 //______________________________________________________________________________
1106
1107 AliPHOSgamma &AliPHOSgamma::operator=(const AliPHOSgamma &g)
1108 {
1109   fX           = g.fX;
1110   fY           = g.fY;
1111   fE           = g.fE;
1112   fPx          = g.fPx;
1113   fPy          = g.fPy;
1114   fPz          = g.fPz;
1115   fIpart       = g.fIpart;
1116
1117   return *this;
1118 }
1119
1120 //______________________________________________________________________________
1121 //______________________________________________________________________________
1122 //______________________________________________________________________________
1123 //______________________________________________________________________________
1124 //______________________________________________________________________________
1125
1126 ClassImp(AliPHOShit)
1127
1128 //______________________________________________________________________________
1129
1130 AliPHOShit::AliPHOShit(Int_t shunt, Int_t track, Int_t *vol, Float_t *hits):
1131 AliHit(shunt, track)
1132 {
1133    Int_t i;
1134    for (i=0;i<5;i++) fVolume[i] = vol[i];
1135    fX       = hits[0];
1136    fY       = hits[1];
1137    fZ       = hits[2];
1138    fELOS    = hits[3];
1139 }
1140
1141 //______________________________________________________________________________