[u/mrichter/AliRoot.git] / TFluka / source.cxx

#define METHODDEBUG

// Fortran 
#include "TCallf77.h"

// Fluka commons
#include "Fdblprc.h"  //(DBLPRC) fluka common
#include "Fdimpar.h"  //(DIMPAR) fluka parameters
#include "Fepisor.h"  //(EPISOR) fluka common
#include "Fstack.h"   //(STACK)  fluka common
#include "Fstars.h"   //(STARS)  fluka common
#include "Fbeam.h"    //(BEAM)   fluka common
#include "Fpaprop.h"  //(PAPROP) fluka common
#include "Fltclcm.h"  //(LTCLCM) fluka common
//#include "Fcaslim.h"  //(CASLIM) fluka common

//Virutal MC
#include "TFluka.h"
#include "TVirtualMCStack.h"
#include "TParticle.h"
#include "TVector3.h"

//Other
#include <iostream.h>

#ifndef WIN32
# define source source_
# define geocrs geocrs_
# define georeg georeg_
# define geohsm geohsm_
# define soevsv soevsv_
#else
# define source SOURCE
# define geocrs GEOCRS
# define georeg GEOREG
# define geohsm GEOHSM
# define soevsv SOEVSV
#endif


extern "C" {
  //
  // Prototypes for FLUKA functions
  //
  void type_of_call geocrs(Double_t &, Double_t &, Double_t &);
  void type_of_call georeg(Double_t &, Double_t &, Double_t &, 
			   Int_t &, Int_t &);
  void type_of_call geohsm(Int_t &, Int_t &, Int_t &, Int_t &);
  void type_of_call soevsv();
 /*
   *----------------------------------------------------------------------*
   *                                                                      *
   *     Created on 07 january 1990   by    Alfredo Ferrari & Paola Sala  *
   *                                                   Infn - Milan       *
   *                                                                      *
   *     Last change on 21-jun-98     by    Alfredo Ferrari               *
   *                                                                      *
   *     C++ version on 27-sep-02     by    Isidro Gonzalez               *
   *                                                                      *
   *  This is just an example of a possible user written source routine.  *
   *  note that the beam card still has some meaning - in the scoring the *
   *  maximum momentum used in deciding the binning is taken from the     *
   *  beam momentum.  Other beam card parameters are obsolete.            *
   *                                                                      *
   *----------------------------------------------------------------------*/

  void source(Int_t& nomore) {
#ifdef METHODDEBUG
    cout << "==> source(" << nomore << ")" << endl;
#endif

    cout << "\t* EPISOR.lsouit = " << (EPISOR.lsouit?'T':'F') << endl;

    static Bool_t lfirst = true;
    /*======================================================================*
     *                                                                      *
     *                 BASIC VERSION                                        *
     *                                                                      *
     *======================================================================*/
    nomore = 0;
    /*  +-------------------------------------------------------------------*
     *  |  First call initializations:*/
    if (lfirst) {

      /*|  *** The following 3 cards are mandatory ***/
      
      EPISOR.tkesum = zerzer;
      lfirst = false;
      EPISOR.lussrc = true;
      /*|  *** User initialization ***/
    }
    /*  |
     *  +-------------------------------------------------------------------*
     *  Push one source particle to the stack. Note that you could as well
     *  push many but this way we reserve a maximum amount of space in the
     *  stack for the secondaries to be generated
     */

    // Get the pointer to the VMC
    TVirtualMC* fluka = TFluka::GetMC();
    // Get the stack produced from the generator
    TVirtualMCStack* cppstack = fluka->GetStack();
    //Get next particle
    Int_t itrack = -1;
    TParticle* particle = cppstack->GetNextTrack(itrack);

    //Exit if itrack is negative (-1). Set lsouit to false to mark last track for
    //this event
    if (itrack<0) {
      nomore = 1;
      EPISOR.lsouit = false;
      cout << "\t* EPISOR.lsouit = " << (EPISOR.lsouit?'T':'F') << endl;
      cout << "\t* No more particles. Exiting..." << endl;
#ifdef METHODDEBUG
      cout << "<== source(" << nomore << ")" << endl;
#endif
      return;
    }

    //Get some info about the particle and print it
    TVector3 polarisation;
    particle->GetPolarisation(polarisation);
    cout << "\t* Particle " << itrack << " retrieved..." << endl;
    cout << "\t\t+ Name = " << particle->GetName() << endl;
    cout << "\t\t+ PDG/Fluka code = " << particle->GetPdgCode() 
	 << " / " << fluka->IdFromPDG(particle->GetPdgCode()) << endl;
    cout << "\t\t+ E = " << particle->Energy() << " GeV" << endl;
    cout << "\t\t+ P = (" 
	 << particle->Px() << " , "
	 << particle->Py() << " , "
	 << particle->Pz() << " ) --> "
	 << particle->P() << " GeV" << endl;
    cout << "\t\t+ M = " << particle->GetMass() << " GeV" << endl;
    cout << "\t\t+ Initial point = ( " 
	 << particle->Vx() << " , "
	 << particle->Vy() << " , "
	 << particle->Vz() << " )"
	 << endl;    
    cout << "\t\t+ Polarisation = ( " 
	 << polarisation.Px() << " , "
	 << polarisation.Py() << " , "
	 << polarisation.Pz() << " )"
	 << endl;    
    /* Lstack is the stack counter: of course any time source is called it
     * must be =0
     */
    STACK.lstack++;
    cout << "\t* Storing particle parameters in the stack, lstack = " 
	 << STACK.lstack << endl;
    /* Wt is the weight of the particle*/
    STACK.wt[STACK.lstack] = oneone;
    STARS.weipri += STACK.wt[STACK.lstack];
    /* Particle type (1=proton.....). Ijbeam is the type set by the BEAM
     * card
       */
    //STACK.ilo[STACK.lstack] = BEAM.ijbeam;
    STACK.ilo[STACK.lstack] = fluka-> IdFromPDG(particle->GetPdgCode());
    /* From this point .....
     * Particle generation (1 for primaries)
       */
    STACK.lo[STACK.lstack] = 1;
    /* User dependent flag:*/
    STACK.louse[STACK.lstack] = 0;
    /* User dependent spare variables:*/
    for (Int_t ispr = 0; ispr < mkbmx1; ispr++)
      STACK.sparek[STACK.lstack][ispr] = zerzer;
    /* User dependent spare flags:*/
    for (Int_t ispr = 0; ispr < mkbmx2; ispr++)
	STACK.ispark[STACK.lstack][ispr] = 0;
    /* Save the track number of the stack particle:*/
    STACK.ispark[STACK.lstack][mkbmx2-1] = STACK.lstack;
    STACK.nparma++;
    STACK.numpar[STACK.lstack] = STACK.nparma;
    STACK.nevent[STACK.lstack] = 0;
    STACK.dfnear[STACK.lstack] = +zerzer;
      /* ... to this point: don't change anything
       * Particle age (s)
       */
    STACK.agestk[STACK.lstack] = +zerzer;
    STACK.aknshr[STACK.lstack] = -twotwo;
    /* Group number for "low" energy neutrons, set to 0 anyway*/
    STACK.igroup[STACK.lstack] = 0;
    /* Kinetic energy of the particle (GeV)*/
    //STACK.tke[STACK.lstack] = 
    //sqrt( BEAM.pbeam*BEAM.pbeam + 
    // PAPROP.am[BEAM.ijbeam+6]*PAPROP.am[BEAM.ijbeam+6] ) 
    //- PAPROP.am[BEAM.ijbeam+6];
    STACK.tke[STACK.lstack] = particle->Energy() - particle->GetMass();
    
    /* Particle momentum*/
    //STACK.pmom [STACK.lstack] = BEAM.pbeam;
    STACK.pmom [STACK.lstack] = particle->P();
    
    /*     PMOM (lstack) = SQRT ( TKE (stack) * ( TKE (lstack) + TWOTWO
     *    &                     * AM (ILO(lstack)) ) )
     * Cosines (tx,ty,tz)
     */
    //STACK.tx [STACK.lstack] = BEAM.tinx;
    //STACK.ty [STACK.lstack] = BEAM.tiny;
    //STACK.tz [STACK.lstack] = BEAM.tinz;
    Double_t cosx = particle->Px()/particle->P();
    Double_t cosy = particle->Py()/particle->P();
    Double_t cosz = sqrt(oneone - cosx*cosx - cosy*cosy);
    STACK.tx [STACK.lstack] = cosx;
    STACK.ty [STACK.lstack] = cosy;
    STACK.tz [STACK.lstack] = cosz;
    
    /* Polarization cosines:
     */
    //STACK.txpol [STACK.lstack] = -twotwo;
    //STACK.typol [STACK.lstack] = +zerzer;
    //STACK.tzpol [STACK.lstack] = +zerzer;
    if (polarisation.Mag()) {
      Double_t cospolx = polarisation.Px()/polarisation.Mag();
      Double_t cospoly = polarisation.Py()/polarisation.Mag();
      Double_t cospolz = sqrt(oneone - cospolx*cospolx - cospoly*cospoly);
      STACK.tx [STACK.lstack] = cospolx;
      STACK.ty [STACK.lstack] = cospoly;
      STACK.tz [STACK.lstack] = cospolz;
    }
    else {
      STACK.txpol [STACK.lstack] = -twotwo;
      STACK.typol [STACK.lstack] = +zerzer;
      STACK.tzpol [STACK.lstack] = +zerzer;
    }
    
    /* Particle coordinates*/
    //STACK.xa [STACK.lstack] = BEAM.xina;
    //STACK.ya [STACK.lstack] = BEAM.yina;
    //STACK.za [STACK.lstack] = BEAM.zina
      //Vertext coordinates;
    STACK.xa [STACK.lstack] = particle->Vx();
    STACK.ya [STACK.lstack] = particle->Vy();
    STACK.za [STACK.lstack] = particle->Vz();
    
    // Some printout
    cout << "\t* Particle information transfered to stack..." << endl;
    
    /*  Calculate the total kinetic energy of the primaries: don't change*/
    Int_t st_ilo =  STACK.ilo[STACK.lstack];
    if ( st_ilo != 0 )
      EPISOR.tkesum += 
	((STACK.tke[STACK.lstack] + PAPROP.amdisc[st_ilo+6])
	 * STACK.wt[STACK.lstack]);
    else
      EPISOR.tkesum += (STACK.tke[STACK.lstack] * STACK.wt[STACK.lstack]);
    
    /*  Here we ask for the region number of the hitting point.
     *     NREG (LSTACK) = ...
     *  The following line makes the starting region search much more
     *  robust if particles are starting very close to a boundary:
     */
    geocrs( STACK.tx[STACK.lstack], 
	    STACK.ty[STACK.lstack], 
	    STACK.tz[STACK.lstack] );
    Int_t idisc;
    georeg ( STACK.xa[STACK.lstack], 
	     STACK.ya[STACK.lstack], 
	     STACK.za[STACK.lstack],
	     STACK.nreg[STACK.lstack], 
	     idisc);//<-- dummy return variable not used
    
    /*  Do not change these cards:*/
    Int_t igeohsm1 = 1;
    Int_t igeohsm2 = -11;
    geohsm ( STACK.nhspnt[STACK.lstack], igeohsm1, igeohsm2, LTCLCM.mlattc );
    STACK.nlattc[STACK.lstack] = LTCLCM.mlattc;
    soevsv();
    
    cout << "\t* EPISOR.lsouit = " << (EPISOR.lsouit?'T':'F') << endl;
    cout << "\t* " << STACK.lstack << " particles in the event" << endl;
      
#ifdef METHODDEBUG
    cout << "<== source(" << nomore << ")" << endl;
#endif
  }
}
Commit	Line	Data
b9d0a01d	1	#define METHODDEBUG
	2
	3	// Fortran
	4	#include "TCallf77.h"
	5
	6	// Fluka commons
	7	#include "Fdblprc.h" //(DBLPRC) fluka common
	8	#include "Fdimpar.h" //(DIMPAR) fluka parameters
	9	#include "Fepisor.h" //(EPISOR) fluka common
	10	#include "Fstack.h" //(STACK) fluka common
	11	#include "Fstars.h" //(STARS) fluka common
	12	#include "Fbeam.h" //(BEAM) fluka common
	13	#include "Fpaprop.h" //(PAPROP) fluka common
	14	#include "Fltclcm.h" //(LTCLCM) fluka common
	15	//#include "Fcaslim.h" //(CASLIM) fluka common
	16
	17	//Virutal MC
	18	#include "TFluka.h"
	19	#include "TVirtualMCStack.h"
	20	#include "TParticle.h"
	21	#include "TVector3.h"
	22
	23	//Other
	24	#include <iostream.h>
	25
	26	#ifndef WIN32
	27	# define source source_
	28	# define geocrs geocrs_
	29	# define georeg georeg_
	30	# define geohsm geohsm_
	31	# define soevsv soevsv_
	32	#else
	33	# define source SOURCE
	34	# define geocrs GEOCRS
	35	# define georeg GEOREG
	36	# define geohsm GEOHSM
	37	# define soevsv SOEVSV
	38	#endif
	39
	40
	41	extern "C" {
	42	//
	43	// Prototypes for FLUKA functions
	44	//
	45	void type_of_call geocrs(Double_t &, Double_t &, Double_t &);
	46	void type_of_call georeg(Double_t &, Double_t &, Double_t &,
	47	Int_t &, Int_t &);
	48	void type_of_call geohsm(Int_t &, Int_t &, Int_t &, Int_t &);
	49	void type_of_call soevsv();
	50	/*
	51	----------------------------------------------------------------------
	52	* *
	53	* Created on 07 january 1990 by Alfredo Ferrari & Paola Sala *
	54	* Infn - Milan *
	55	* *
	56	* Last change on 21-jun-98 by Alfredo Ferrari *
	57	* *
	58	* C++ version on 27-sep-02 by Isidro Gonzalez *
	59	* *
	60	* This is just an example of a possible user written source routine. *
	61	* note that the beam card still has some meaning - in the scoring the *
	62	* maximum momentum used in deciding the binning is taken from the *
	63	* beam momentum. Other beam card parameters are obsolete. *
	64	* *
65	----------------------------------------------------------------------/
66
67	void source(Int_t& nomore) {
68	#ifdef METHODDEBUG
69	cout << "==> source(" << nomore << ")" << endl;
70	#endif
71
72	cout << "\t* EPISOR.lsouit = " << (EPISOR.lsouit?'T':'F') << endl;
73
74	static Bool_t lfirst = true;
75	/======================================================================
76	* *
77	* BASIC VERSION *
78	* *
79	======================================================================/
80	nomore = 0;
81	/* +-------------------------------------------------------------------*
82	* \| First call initializations:*/
83	if (lfirst) {
84
85	/\| The following 3 cards are mandatory */
86
87	EPISOR.tkesum = zerzer;
88	lfirst = false;
89	EPISOR.lussrc = true;
90	/\| User initialization */
91	}
92	/* \|
93	* +-------------------------------------------------------------------*
94	* Push one source particle to the stack. Note that you could as well
95	* push many but this way we reserve a maximum amount of space in the
96	* stack for the secondaries to be generated
97	*/
98
99	// Get the pointer to the VMC
100	TVirtualMC* fluka = TFluka::GetMC();
101	// Get the stack produced from the generator
102	TVirtualMCStack* cppstack = fluka->GetStack();
103	//Get next particle
104	Int_t itrack = -1;
105	TParticle* particle = cppstack->GetNextTrack(itrack);
106
107	//Exit if itrack is negative (-1). Set lsouit to false to mark last track for
108	//this event
109	if (itrack<0) {
110	nomore = 1;
111	EPISOR.lsouit = false;
112	cout << "\t* EPISOR.lsouit = " << (EPISOR.lsouit?'T':'F') << endl;
113	cout << "\t* No more particles. Exiting..." << endl;
114	#ifdef METHODDEBUG
115	cout << "<== source(" << nomore << ")" << endl;
116	#endif
117	return;
118	}
119
120	//Get some info about the particle and print it
121	TVector3 polarisation;
122	particle->GetPolarisation(polarisation);
123	cout << "\t* Particle " << itrack << " retrieved..." << endl;
124	cout << "\t\t+ Name = " << particle->GetName() << endl;
125	cout << "\t\t+ PDG/Fluka code = " << particle->GetPdgCode()
126	<< " / " << fluka->IdFromPDG(particle->GetPdgCode()) << endl;
127	cout << "\t\t+ E = " << particle->Energy() << " GeV" << endl;
128	cout << "\t\t+ P = ("
129	<< particle->Px() << " , "
130	<< particle->Py() << " , "
131	<< particle->Pz() << " ) --> "
132	<< particle->P() << " GeV" << endl;
133	cout << "\t\t+ M = " << particle->GetMass() << " GeV" << endl;
134	cout << "\t\t+ Initial point = ( "
135	<< particle->Vx() << " , "
136	<< particle->Vy() << " , "
137	<< particle->Vz() << " )"
138	<< endl;
139	cout << "\t\t+ Polarisation = ( "
140	<< polarisation.Px() << " , "
141	<< polarisation.Py() << " , "
142	<< polarisation.Pz() << " )"
143	<< endl;
144	/* Lstack is the stack counter: of course any time source is called it
145	* must be =0
146	*/
147	STACK.lstack++;
148	cout << "\t* Storing particle parameters in the stack, lstack = "
149	<< STACK.lstack << endl;
150	/* Wt is the weight of the particle*/
151	STACK.wt[STACK.lstack] = oneone;
152	STARS.weipri += STACK.wt[STACK.lstack];
153	/* Particle type (1=proton.....). Ijbeam is the type set by the BEAM
154	* card
155	*/
156	//STACK.ilo[STACK.lstack] = BEAM.ijbeam;
157	STACK.ilo[STACK.lstack] = fluka-> IdFromPDG(particle->GetPdgCode());
158	/* From this point .....
159	* Particle generation (1 for primaries)
160	*/
161	STACK.lo[STACK.lstack] = 1;
162	/* User dependent flag:*/
163	STACK.louse[STACK.lstack] = 0;
164	/* User dependent spare variables:*/
165	for (Int_t ispr = 0; ispr < mkbmx1; ispr++)
166	STACK.sparek[STACK.lstack][ispr] = zerzer;
167	/* User dependent spare flags:*/
168	for (Int_t ispr = 0; ispr < mkbmx2; ispr++)
169	STACK.ispark[STACK.lstack][ispr] = 0;
170	/* Save the track number of the stack particle:*/
171	STACK.ispark[STACK.lstack][mkbmx2-1] = STACK.lstack;
172	STACK.nparma++;
173	STACK.numpar[STACK.lstack] = STACK.nparma;
174	STACK.nevent[STACK.lstack] = 0;
175	STACK.dfnear[STACK.lstack] = +zerzer;
176	/* ... to this point: don't change anything
177	* Particle age (s)
178	*/
179	STACK.agestk[STACK.lstack] = +zerzer;
180	STACK.aknshr[STACK.lstack] = -twotwo;
181	/* Group number for "low" energy neutrons, set to 0 anyway*/
182	STACK.igroup[STACK.lstack] = 0;
183	/* Kinetic energy of the particle (GeV)*/
184	//STACK.tke[STACK.lstack] =
185	//sqrt( BEAM.pbeam*BEAM.pbeam +
186	// PAPROP.am[BEAM.ijbeam+6]*PAPROP.am[BEAM.ijbeam+6] )
187	//- PAPROP.am[BEAM.ijbeam+6];
188	STACK.tke[STACK.lstack] = particle->Energy() - particle->GetMass();
189
190	/* Particle momentum*/
191	//STACK.pmom [STACK.lstack] = BEAM.pbeam;
192	STACK.pmom [STACK.lstack] = particle->P();
193
194	/* PMOM (lstack) = SQRT ( TKE (stack) * ( TKE (lstack) + TWOTWO
195	* & * AM (ILO(lstack)) ) )
196	* Cosines (tx,ty,tz)
197	*/
198	//STACK.tx [STACK.lstack] = BEAM.tinx;
199	//STACK.ty [STACK.lstack] = BEAM.tiny;
200	//STACK.tz [STACK.lstack] = BEAM.tinz;
201	Double_t cosx = particle->Px()/particle->P();
202	Double_t cosy = particle->Py()/particle->P();
203	Double_t cosz = sqrt(oneone - cosxcosx - cosycosy);
204	STACK.tx [STACK.lstack] = cosx;
205	STACK.ty [STACK.lstack] = cosy;
206	STACK.tz [STACK.lstack] = cosz;
207
208	/* Polarization cosines:
209	*/
210	//STACK.txpol [STACK.lstack] = -twotwo;
211	//STACK.typol [STACK.lstack] = +zerzer;
212	//STACK.tzpol [STACK.lstack] = +zerzer;
213	if (polarisation.Mag()) {
214	Double_t cospolx = polarisation.Px()/polarisation.Mag();
215	Double_t cospoly = polarisation.Py()/polarisation.Mag();
216	Double_t cospolz = sqrt(oneone - cospolxcospolx - cospolycospoly);
217	STACK.tx [STACK.lstack] = cospolx;
218	STACK.ty [STACK.lstack] = cospoly;
219	STACK.tz [STACK.lstack] = cospolz;
220	}
221	else {
222	STACK.txpol [STACK.lstack] = -twotwo;
223	STACK.typol [STACK.lstack] = +zerzer;
224	STACK.tzpol [STACK.lstack] = +zerzer;
225	}
226
227	/* Particle coordinates*/
228	//STACK.xa [STACK.lstack] = BEAM.xina;
229	//STACK.ya [STACK.lstack] = BEAM.yina;
230	//STACK.za [STACK.lstack] = BEAM.zina
231	//Vertext coordinates;
232	STACK.xa [STACK.lstack] = particle->Vx();
233	STACK.ya [STACK.lstack] = particle->Vy();
234	STACK.za [STACK.lstack] = particle->Vz();
235
236	// Some printout
237	cout << "\t* Particle information transfered to stack..." << endl;
238
239	/* Calculate the total kinetic energy of the primaries: don't change*/
240	Int_t st_ilo = STACK.ilo[STACK.lstack];
241	if ( st_ilo != 0 )
242	EPISOR.tkesum +=
243	((STACK.tke[STACK.lstack] + PAPROP.amdisc[st_ilo+6])
244	* STACK.wt[STACK.lstack]);
245	else
246	EPISOR.tkesum += (STACK.tke[STACK.lstack] * STACK.wt[STACK.lstack]);
247
248	/* Here we ask for the region number of the hitting point.
249	* NREG (LSTACK) = ...
250	* The following line makes the starting region search much more
251	* robust if particles are starting very close to a boundary:
252	*/
253	geocrs( STACK.tx[STACK.lstack],
254	STACK.ty[STACK.lstack],
255	STACK.tz[STACK.lstack] );
256	Int_t idisc;
257	georeg ( STACK.xa[STACK.lstack],
258	STACK.ya[STACK.lstack],
259	STACK.za[STACK.lstack],
260	STACK.nreg[STACK.lstack],
261	idisc);//<-- dummy return variable not used
262
263	/* Do not change these cards:*/
264	Int_t igeohsm1 = 1;
265	Int_t igeohsm2 = -11;
266	geohsm ( STACK.nhspnt[STACK.lstack], igeohsm1, igeohsm2, LTCLCM.mlattc );
267	STACK.nlattc[STACK.lstack] = LTCLCM.mlattc;
268	soevsv();
269
270	cout << "\t* EPISOR.lsouit = " << (EPISOR.lsouit?'T':'F') << endl;
271	cout << "\t* " << STACK.lstack << " particles in the event" << endl;
272
273	#ifdef METHODDEBUG
274	cout << "<== source(" << nomore << ")" << endl;
275	#endif
276	}
277	}