BOSS 7.1.3
BESIII Offline Software System
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BesEmcEndGeometry Class Reference

#include <BesEmcEndGeometry.hh>

Public Member Functions

 BesEmcEndGeometry ()
 
 ~BesEmcEndGeometry ()
 
void ReadParameters ()
 
void ComputeParameters ()
 
void Exchange (G4int cry1, G4int cry2)
 
void ExchangeSector7 (G4int cry1, G4int cry2)
 
void ReflectX ()
 
void Zoom (const G4ThreeVector pos[8], const G4double factor)
 
void ModifyForCasing (G4ThreeVector pos[8], G4int CryNb)
 
G4ThreeVector ComputeDimAndPos (const G4int, const G4int, const G4int)
 
G4int GetCryNumInOneLayer (G4int num)
 

Friends

class BesEmcConstruction
 
class BesEmcDigitizer
 
class EmcGdmlWriter
 

Detailed Description

Definition at line 10 of file BesEmcEndGeometry.hh.

Constructor & Destructor Documentation

◆ BesEmcEndGeometry()

BesEmcEndGeometry::BesEmcEndGeometry ( )

Definition at line 18 of file BesEmcEndGeometry.cc.

19{;}

◆ ~BesEmcEndGeometry()

BesEmcEndGeometry::~BesEmcEndGeometry ( )

Definition at line 21 of file BesEmcEndGeometry.cc.

22{;}

Member Function Documentation

◆ ComputeDimAndPos()

G4ThreeVector BesEmcEndGeometry::ComputeDimAndPos ( const G4int partId,
const G4int numTheta,
const G4int numPhi )

Definition at line 378 of file BesEmcEndGeometry.cc.

380{
381 //ComputeParameters();
382 G4int sector=-1, cryNb=-1;
383 G4int leftFlag=0;
384 G4int downFlag=0;
385 G4int pentaFlag=0;
386 G4int flag=0;
387 G4double A1=0,a1=0,B1=0,b1=0,C1=0,c1=0,D1=0,d1=0,E1=0,e1=0; //dimension of pentagonal crystal
388 G4int m_numPhi=0;
389 G4ThreeVector position(0,0,0);
390 G4int cryInOneSector = cryNumInOneLayer[numTheta]/16; //number of crystal in one layer in one sector
391 G4ThreeVector pos[8];
392
393 if(partId==2) //west end
394 {
395 if(numPhi>=0&&numPhi<8*cryInOneSector)
396 m_numPhi=8*cryInOneSector-1-numPhi;
397 else if(numPhi>=8*cryInOneSector&&numPhi<16*cryInOneSector)
398 m_numPhi=16*cryInOneSector-1-numPhi;
399 }
400 else //east end
401 m_numPhi=numPhi;
402
403 if(numPhi>=4*cryInOneSector&&numPhi<5*cryInOneSector) //crystal in 4th sector
404 {
405 leftFlag = 1;
406 m_numPhi=8*cryInOneSector-1-numPhi;
407 }
408 else if(numPhi>=11*cryInOneSector&&numPhi<12*cryInOneSector) //crystal in 11th sector
409 {
410 leftFlag = 1;
411 downFlag = 1;
412 m_numPhi=numPhi-8*cryInOneSector;
413 }
414 if(numPhi>=12*cryInOneSector&&numPhi<13*cryInOneSector) //crystal in 12th sector
415 {
416 downFlag = 1;
417 m_numPhi=16*cryInOneSector-1-numPhi;
418 }
419
420 //translate numTheta and numPhi to sector and cryNb
421 G4int cryNbOffset = 0;
422 for(G4int i=0;i<numTheta;i++)
423 cryNbOffset += cryNumInOneLayer[i]/16;
424 if(cryInOneSector)
425 sector = m_numPhi/cryInOneSector;
426 cryNb = m_numPhi-cryInOneSector*sector+cryNbOffset;
427 sector += 3;
428 if(sector>15&&sector<=18)
429 sector -= 16;
430
431 //sector beside the gap
432 if(sector==6)
433 for(G4int i=0;i<8;i++)
434 pos[i]=fPnt1[cryNb][i];
435 else
436 for(G4int i=0;i<8;i++)
437 {
438 pos[i]=fPnt[cryNb][i];
439 pos[i].rotateZ(-67.5*deg+sector*22.5*deg);
440 }
441
442 //crystal dimension
443 Zoom(pos,0.999);
444 ModifyForCasing(zoomPoint,cryNb);
445 G4double A = (cryPoint[0]-cryPoint[3]).r();
446 G4double a = (cryPoint[4]-cryPoint[7]).r();
447 G4double B = (cryPoint[1]-cryPoint[2]).r();
448 G4double b = (cryPoint[5]-cryPoint[6]).r();
449 G4double C = (cryPoint[0]-cryPoint[1]).r();
450 G4double c = (cryPoint[4]-cryPoint[5]).r();
451 G4double D = (cryPoint[2]-cryPoint[3]).r();
452 G4double d = (cryPoint[6]-cryPoint[7]).r();
453
454 //reflect the axis according to the flag
455 for(G4int i=0;i<8;i++)
456 {
457 pos[i].setZ(pos[i].getZ()+WorldZPosition+SectorZPosition); //give the absolute z coordinate
458 if(leftFlag==1)
459 pos[i].setX(-pos[i].getX());
460 if(downFlag==1)
461 pos[i].setY(-pos[i].getY());
462 if(partId==2)
463 {
464 pos[i].setX(-pos[i].getX());
465 pos[i].setZ(-pos[i].getZ());
466 }
467 }
468
469 //compute the position
470 for(G4int j=4;j<8;j++)
471 position += pos[j];
472 position /= 4;
473
474 //compute pentagonal crystal
475 for(G4int i=0;i<5;i++)
476 {
477 if(cryNb==pentaInOneSector[i])
478 {
479 pentaFlag = 1;
480 G4ThreeVector penta[8];
481
482 //sector beside the gap
483 if(sector==6)
484 for(G4int j=0;j<8;j++)
485 penta[j]=fPnt1[30+i][j];
486 else
487 for(G4int j=0;j<8;j++)
488 {
489 penta[j]=fPnt[30+i][j];
490 penta[j].rotateZ(-67.5*deg+sector*22.5*deg);
491 }
492
493 //crystal dimension
494 ModifyForCasing(penta,30+i);
495 A1 = (cryPoint[1]-cryPoint[2]).r();
496 a1 = (cryPoint[5]-cryPoint[6]).r();
497 B1 = (cryPoint[1]-cryPoint[0]).r();
498 b1 = (cryPoint[5]-cryPoint[4]).r();
499 C1 = (cryPoint[0]-cryPoint[3]).r()+A;
500 c1 = (cryPoint[4]-cryPoint[7]).r()+a;
501 D1 = D;
502 d1 = d;
503 E1 = B;
504 e1 = b;
505
506 //reflect the axis according to the flag
507 for(G4int j=0;j<8;j++)
508 {
509 penta[j].setZ(penta[j].getZ()+WorldZPosition+SectorZPosition); //give the absolute z coordinate
510 if(leftFlag==1)
511 penta[j].setX(-penta[j].getX());
512 if(downFlag==1)
513 penta[j].setY(-penta[j].getY());
514 if(partId==2)
515 {
516 penta[j].setX(-penta[j].getX());
517 penta[j].setZ(-penta[j].getZ());
518 }
519 }
520
521 //compute the position
522 for(G4int j=4;j<8;j++)
523 {
524 if(j!=0&&j!=4)
525 position += pos[j];
526 if(j==0||j==1||j==4||j==5)
527 position += penta[j];
528 }
529 position /= 10;
530
531 flag = leftFlag+downFlag;
532 if(flag==1)
533 {
534 G4double temp1 = B1; B1 = D1; D1 = temp1;
535 temp1 = A1; A1 = E1; E1 = temp1;
536 temp1 = b1; b1 = d1; d1 = temp1;
537 temp1 = a1; a1 = e1; e1 = temp1;
538 }
539
540 break;
541 }
542 }
543
544 flag = leftFlag+downFlag+partId/2;
545 if(flag==1||flag==3)
546 {
547 G4double temp = C; C = D; D = temp;
548 temp = c; c = d; d = temp;
549 }
550
551 /*G4cout<<"##########################################################################"<<G4endl;
552 G4cout<<"###sector="<<sector<<",cryNb="<<cryNb<<",left flag="<<leftFlag<<",down flag="<<downFlag<<G4endl;
553 G4cout<<"partId="<<partId<<"\t"<<"theta number="<<numTheta<<"\t"<<"phi number="<<numPhi<<G4endl;
554 G4cout<<"crystal point:"<<G4endl;
555 for(G4int i=0;i<8;i++)
556 G4cout<<pos[i]<<G4endl;
557 G4cout<<"crystal position:"<<"\t"<<position<<"\t"<<"phi="<<position.phi()/deg<<G4endl;
558 G4cout<<"crystal dimension:"<<G4endl;
559 if(pentaFlag==1)
560 G4cout<<"A="<<A1<<",a="<<a1<<",B="<<B1<<",b="<<b1<<",C="<<C1<<",c="<<c1<<",D="<<D1<<",d="<<d1<<",E="<<E1<<",e="<<e1<<G4endl;
561 else
562 G4cout<<"A="<<A<<",a="<<a<<",B="<<B<<",b="<<b<<",C="<<C<<",c="<<c<<",D="<<D<<",d="<<d<<G4endl;
563 G4cout<<"##########################################################################"<<G4endl;*/
564
565 return position;
566}
e1
Double_t e1
Definition DataBase/tau_mode.c:7
C
***************************************************************************************Pseudo Class RRes *****************************************************************************************Parameters and physical constants **Maarten sept ************************************************************************DOUBLE PRECISION xsmu **************************************************************************PARTICLE DATA all others are from PDG *Only resonances with known widths into electron pairs are sept ************************************************************************C Declarations C
Definition RRes.h:29
BesEmcEndGeometry::ModifyForCasing
void ModifyForCasing(G4ThreeVector pos[8], G4int CryNb)
Definition BesEmcEndGeometry.cc:326
BesEmcEndGeometry::Zoom
void Zoom(const G4ThreeVector pos[8], const G4double factor)
Definition BesEmcEndGeometry.cc:303
b
const double b
Definition slope.cxx:9

◆ ComputeParameters()

void BesEmcEndGeometry::ComputeParameters ( )

Definition at line 73 of file BesEmcEndGeometry.cc.

74{
75
76 ////////////////////////////////////////////////////////////////////////
77 // emc endcap crystal //
78 //////////////////////////////////////////////////////////////////////////
79 // 1 //
80 // 0 __ -- //
81 // -- \ //
82 // | \ \ //
83 // | \ __ - 2 //
84 // | \ -- | //
85 // | | 3 | //
86 // | | | //
87 // | | | //
88 // | | | //
89 // | | 5 | //
90 // 4 \ | | //
91 // \ | __ - 6 //
92 // \| -- //
93 // 7 //
94 /////////////////////////////////////////////////////////////////////////
95
96 ReadParameters();
97
98 G4int pentaNb=0;
99 for(G4int i=0;i<30;i++)
100 {
101 for (G4int j=0;j<8;j++)
102 {
103 //use 24 parameters to construct 8 point of one crystal
104 G4ThreeVector* pPnt = new G4ThreeVector(param[i][j],param[i][j+8],param[i][j+16]-WorldZPosition-SectorZPosition);
105 fPnt[i][j] = *pPnt;
106 }
107
108 if(i==5||i==6||i==14||i==15||i==16)
109 //if(0) //no pentagonal crystal now
110 {
111 for(G4int j=0;j<8;j++)
112 fPnt[30+pentaNb][j] = fPnt[i][j];
113
114 //compute the 5th point of the pentagonal crystal
115 G4double y0,y1,y4,y5;
116 G4ThreeVector v0,v1,v4,v5;
117 y0 = penta[pentaNb][0];
118 y1 = penta[pentaNb][1];
119 y4 = penta[pentaNb][2];
120 y5 = penta[pentaNb][3];
121 v0 = (y0-fPnt[i][3].getY())*(fPnt[i][0]-fPnt[i][3])/(fPnt[i][0].getY()-fPnt[i][3].getY())
122 +fPnt[i][3];
123 v1 = (y1-fPnt[i][2].getY())*(fPnt[i][1]-fPnt[i][2])/(fPnt[i][1].getY()-fPnt[i][2].getY())
124 +fPnt[i][2];
125 v4 = (y4-fPnt[i][7].getY())*(fPnt[i][4]-fPnt[i][7])/(fPnt[i][4].getY()-fPnt[i][7].getY())
126 +fPnt[i][7];
127 v5 = (y5-fPnt[i][6].getY())*(fPnt[i][5]-fPnt[i][6])/(fPnt[i][5].getY()-fPnt[i][6].getY())
128 +fPnt[i][6];
129
130 G4double x1,x5;
131 x1 = penta[pentaNb][4];
132 x5 = penta[pentaNb][5];
133 v1 = (x1-v0.getX())*(v1-v0)/(v1.getX()-v0.getX())+v0; //v1', the fifth point
134 v5 = (x5-v4.getX())*(v5-v4)/(v5.getX()-v4.getX())+v4; //v5'
135
136 fPnt[i][0] = v0;
137 fPnt[i][1] = v1;
138 fPnt[i][4] = v4;
139 fPnt[i][5] = v5;
140
141 fPnt[30+pentaNb][2] = v1;
142 fPnt[30+pentaNb][3] = v0;
143 fPnt[30+pentaNb][6] = v5;
144 fPnt[30+pentaNb][7] = v4;
145
146 pentaNb++;
147 }
148 }
149
150 //reflect point in one sector according to new design
151 G4ThreeVector temp[35][8];
152 for(G4int i=0;i<35;i++)
153 {
154 for (G4int j=0;j<8;j++)
155 {
156 temp[i][j]=fPnt[i][j];
157 fPnt[i][j].rotateZ(157.5*deg);
158 fPnt[i][j].setX(-fPnt[i][j].getX());
159 }
160
161 // point 0<-->3, 1<-->2, 4<-->7, 5<-->6
162 for (G4int j=0;j<8;j++)
163 {
164 if(j<2)
165 {
166 G4ThreeVector v=fPnt[i][j];
167 fPnt[i][j]=fPnt[i][3-j];
168 fPnt[i][3-j]=v;
169 }
170 else if(j>=4&&j<6)
171 {
172 G4ThreeVector v=fPnt[i][j];
173 fPnt[i][j]=fPnt[i][11-j];
174 fPnt[i][11-j]=v;
175 }
176 }
177 }
178
179 //exchange sequence in the same layer
180 //Exchange(0,3); Exchange(1,2); Exchange(4,7); Exchange(5,6);
181 //Exchange(8,12); Exchange(9,11); Exchange(13,17); Exchange(14,16);
182 //Exchange(18,23); Exchange(19,22); Exchange(20,21); Exchange(24,29); Exchange(25,28); Exchange(26,27);
183
184 Exchange(0,3); Exchange(1,2); Exchange(4,7); Exchange(5,31); Exchange(6,30);
185 Exchange(8,12); Exchange(9,11); Exchange(13,17); Exchange(14,34); Exchange(15,33); Exchange(16,32);
186 Exchange(18,23); Exchange(19,22); Exchange(20,21); Exchange(24,29); Exchange(25,28); Exchange(26,27);
187
188 /*for(G4int i=0;i<35;i++)
189 {
190 G4cout<<"crystal number: "<<i<<G4endl;
191 for(G4int j=0;j<8;j++)
192 G4cout<<fPnt[i][j]<<G4endl;
193 }*/
194
195
196 //compute the 6 crystal beside the 20mm gap
197 for(G4int i=0;i<35;i++)
198 {
199 for (G4int j=0;j<8;j++)
200 {
201 G4ThreeVector pPnt1 = temp[i][j];
202 fPnt1[i][j] = pPnt1.rotateZ(67.5*deg);
203 }
204 if((i==3)||(i==7)||(i==12)||(i==17)||(i==23)||(i==29))
205 {
206 fPnt1[i][0].setX(10);
207 fPnt1[i][1].setX(10);
208 fPnt1[i][4].setX(10);
209 fPnt1[i][5].setX(10);
210
211 G4double y0 = fPnt1[i][0].getY()+10*(fPnt1[i][3].getY()-fPnt1[i][0].getY())/fPnt1[i][3].getX();
212 G4double y1 = fPnt1[i][1].getY()+10*(fPnt1[i][2].getY()-fPnt1[i][1].getY())/fPnt1[i][2].getX();
213 G4double y4 = fPnt1[i][4].getY()+10*(fPnt1[i][7].getY()-fPnt1[i][4].getY())/fPnt1[i][7].getX();
214 G4double y5 = fPnt1[i][5].getY()+10*(fPnt1[i][6].getY()-fPnt1[i][5].getY())/fPnt1[i][6].getX();
215
216 G4double z0 = fPnt1[i][0].getZ()+10*(fPnt1[i][3].getZ()-fPnt1[i][0].getZ())/fPnt1[i][3].getX();
217 G4double z1 = fPnt1[i][1].getZ()+10*(fPnt1[i][2].getZ()-fPnt1[i][1].getZ())/fPnt1[i][2].getX();
218 G4double z4 = fPnt1[i][4].getZ()+10*(fPnt1[i][7].getZ()-fPnt1[i][4].getZ())/fPnt1[i][7].getX();
219 G4double z5 = fPnt1[i][5].getZ()+10*(fPnt1[i][6].getZ()-fPnt1[i][5].getZ())/fPnt1[i][6].getX();
220
221 fPnt1[i][0].setY(y0);
222 fPnt1[i][1].setY(y1);
223 fPnt1[i][4].setY(y4);
224 fPnt1[i][5].setY(y5);
225
226 fPnt1[i][0].setZ(z0);
227 fPnt1[i][1].setZ(z1);
228 fPnt1[i][4].setZ(z4);
229 fPnt1[i][5].setZ(z5);
230 }
231 }
232}
v
**********Class see also m_nmax DOUBLE PRECISION m_amel DOUBLE PRECISION m_x2 DOUBLE PRECISION m_alfinv DOUBLE PRECISION m_Xenph INTEGER m_KeyWtm INTEGER m_idyfs DOUBLE PRECISION m_zini DOUBLE PRECISION m_q2 DOUBLE PRECISION m_Wt_KF DOUBLE PRECISION m_WtCut INTEGER m_KFfin *COMMON c_KarLud $ !Input CMS energy[GeV] $ !CMS energy after beam spread beam strahlung[GeV] $ !Beam energy spread[GeV] $ !z boost due to beam spread $ !electron beam mass *ff pair spectrum $ !minimum v
Definition KarLud.h:35
BesEmcEndGeometry::Exchange
void Exchange(G4int cry1, G4int cry2)
Definition BesEmcEndGeometry.cc:234

◆ Exchange()

void BesEmcEndGeometry::Exchange ( G4int cry1,
G4int cry2 )

Definition at line 234 of file BesEmcEndGeometry.cc.

235{
236 G4ThreeVector v;
237 for(G4int i=0;i<8;i++)
238 {
239 v = fPnt[cry1][i];
240 fPnt[cry1][i] = fPnt[cry2][i];
241 fPnt[cry2][i] = v;
242 }
243}

Referenced by ComputeParameters().

◆ ExchangeSector7()

void BesEmcEndGeometry::ExchangeSector7 ( G4int cry1,
G4int cry2 )

Definition at line 245 of file BesEmcEndGeometry.cc.

246{
247 G4ThreeVector v;
248 for(G4int i=0;i<8;i++)
249 {
250 v = fPnt1[cry1][i];
251 fPnt1[cry1][i] = fPnt1[cry2][i];
252 fPnt1[cry2][i] = v;
253 }
254}

Referenced by ReflectX().

◆ GetCryNumInOneLayer()

G4int BesEmcEndGeometry::GetCryNumInOneLayer ( G4int num)
inline

Definition at line 30 of file BesEmcEndGeometry.hh.

30{ return cryNumInOneLayer[num]; }

◆ ModifyForCasing()

void BesEmcEndGeometry::ModifyForCasing ( G4ThreeVector pos[8],
G4int CryNb )

Definition at line 326 of file BesEmcEndGeometry.cc.

327{
328 G4ThreeVector center1(0,0,0); //the center of large surface
329 G4ThreeVector center2(0,0,0); //the center of small surface
330
331 const G4double dt=1e-5; //avoid overlap between crystal and casing
332
333 if(CryNb==5||CryNb==6||CryNb==14||CryNb==15||CryNb==16)
334 {
335 center1 = (pos[0]+pos[1])*(1-dt)/2+(pos[2]+pos[3])*dt/2;
336 center2 = (pos[4]+pos[5])*(1-dt)/2+(pos[6]+pos[7])*dt/2;
337 }
338 else if(CryNb>=30&&CryNb<35)
339 {
340 center1 = (pos[0]+pos[1])*dt/2+(pos[2]+pos[3])*(1-dt)/2;
341 center2 = (pos[4]+pos[5])*dt/2+(pos[6]+pos[7])*(1-dt)/2;
342 }
343 else
344 {
345 center1 = (pos[0]+pos[1]+pos[2]+pos[3])/4;
346 center2 = (pos[4]+pos[5]+pos[6]+pos[7])/4;
347 }
348
349 G4double r1=(pos[1]-center1).r();
350 G4double r2=(pos[2]-center1).r();
351 G4double r12=(pos[1]-pos[2]).r();
352 G4double theta=acos((r2*r2+r12*r12-r1*r1)/(2*r2*r12));
353 G4double h=r2*sin(theta); //distance from the center to the vertical side
354 G4double t1=totalThickness/h;
355
356 r1=(pos[5]-center2).r();
357 r2=(pos[6]-center2).r();
358 r12=(pos[5]-pos[6]).r();
359 theta=acos((r2*r2+r12*r12-r1*r1)/(2*r2*r12));
360 h=r2*sin(theta);
361 G4double t2=totalThickness/h;
362
363 for(G4int i=0;i<8;i++)
364 {
365 if(i<4)
366 {
367 cryPoint[i] = (1-t1)*pos[i]+t1*center1;
368 }
369 else
370 {
371 G4ThreeVector temp = (1-t2)*pos[i]+t2*center2;
372 cryPoint[i] = (1-totalThickness/CrystalLength)*temp+(totalThickness/CrystalLength)*pos[i-4];
373 }
374 //G4cout<<"casing="<<pos[i]<<"\t"<<"crystal="<<cryPoint[i]<<G4endl;
375 }
376}
sin
double sin(const BesAngle a)
Definition BesAngle.h:210
dt
TGraph2DErrors * dt
Definition McCor.cxx:45

Referenced by ComputeDimAndPos().

◆ ReadParameters()

void BesEmcEndGeometry::ReadParameters ( )

Definition at line 24 of file BesEmcEndGeometry.cc.

25{
26 BesEmcParameter& emcPara=BesEmcParameter::GetInstance();
27
28 WorldRmin1 = emcPara.GetWorldRmin1();
29 WorldRmax1 = emcPara.GetWorldRmax1();
30 WorldRmin2 = emcPara.GetWorldRmin2();//+5.*mm; //add 5mm to avoid warning
31 WorldRmax2 = emcPara.GetWorldRmax2();
32 WorldDz = emcPara.GetWorldDz();
33 WorldZPosition = emcPara.GetWorldZPosition();
34 CrystalLength = emcPara.GetCrystalLength();
35
36 SectorRmin1 = 489.27*mm;
37 SectorRmax1 = 880.*mm;
38 SectorRmin2 = 621.57*mm;
39 SectorRmax2 = 1113.53*mm;
40 SectorDz = WorldDz-44.*mm;
41 SectorZPosition = -18.*mm;
42
43 for(G4int i=0;i<6;i++)
44 cryNumInOneLayer[i] = emcPara.GetCryInOneLayer(i);
45 for(G4int i=0;i<5;i++)
46 pentaInOneSector[i] = emcPara.GetPentaInOneSector(i);
47
48 fTyvekThickness = emcPara.GetTyvekThickness();
49 fAlThickness = emcPara.GetAlThickness();
50 fMylarThickness = emcPara.GetMylarThickness();
51 totalThickness=fTyvekThickness+fAlThickness+fMylarThickness;
52
53 G4String ParaPath = getenv("EMCSIMROOT");
54 if(!ParaPath){
55 G4cout<<"BOOST environment not set!"<<G4endl;
56 exit(-1);
57 }
58 ParaPath += "/dat/EmcEndGeometry.dat";
59
60 ifstream fin;
61 fin.open(ParaPath);
62 assert(fin);
63 for(G4int i=0;i<30;i++)
64 for (G4int j=0;j<24;j++)
65 fin>>param[i][j];
66 for(G4int i=0;i<5;i++)
67 for (G4int j=0;j<6;j++)
68 fin>>penta[i][j];
69 fin.close();
70}
BesEmcParameter::GetWorldZPosition
G4double GetWorldZPosition()
Definition BesEmcParameter.hh:54
BesEmcParameter::GetCrystalLength
G4double GetCrystalLength()
Definition BesEmcParameter.hh:55
BesEmcParameter::GetCryInOneLayer
G4int GetCryInOneLayer(G4int nb)
Definition BesEmcParameter.hh:58
BesEmcParameter::GetWorldRmax1
G4double GetWorldRmax1()
Definition BesEmcParameter.hh:50
BesEmcParameter::GetInstance
static BesEmcParameter & GetInstance()
Definition BesEmcParameter.cc:33
BesEmcParameter::GetTyvekThickness
G4double GetTyvekThickness()
Definition BesEmcParameter.hh:61
BesEmcParameter::GetMylarThickness
G4double GetMylarThickness()
Definition BesEmcParameter.hh:63
BesEmcParameter::GetWorldRmin1
G4double GetWorldRmin1()
Definition BesEmcParameter.hh:49
BesEmcParameter::GetWorldRmin2
G4double GetWorldRmin2()
Definition BesEmcParameter.hh:51
BesEmcParameter::GetWorldRmax2
G4double GetWorldRmax2()
Definition BesEmcParameter.hh:52
BesEmcParameter::GetWorldDz
G4double GetWorldDz()
Definition BesEmcParameter.hh:53
BesEmcParameter::GetPentaInOneSector
G4int GetPentaInOneSector(G4int nb)
Definition BesEmcParameter.hh:59
BesEmcParameter::GetAlThickness
G4double GetAlThickness()
Definition BesEmcParameter.hh:62
bpkt::ifstream
std::ifstream ifstream
Definition bpkt_streams.h:44

Referenced by ComputeParameters().

◆ ReflectX()

void BesEmcEndGeometry::ReflectX ( )

Definition at line 257 of file BesEmcEndGeometry.cc.

258{
259 for(G4int i=0;i<35;i++)
260 {
261 for(G4int j=0;j<8;j++)
262 {
263 fPnt1[i][j].setX(-fPnt1[i][j].getX());
264 }
265
266 // point 0<-->3, 1<-->2, 4<-->7, 5<-->6
267 for (G4int j=0;j<8;j++)
268 {
269 if(j<2)
270 {
271 G4ThreeVector v=fPnt1[i][j];
272 fPnt1[i][j]=fPnt1[i][3-j];
273 fPnt1[i][3-j]=v;
274 }
275 else if(j>=4&&j<6)
276 {
277 G4ThreeVector v=fPnt1[i][j];
278 fPnt1[i][j]=fPnt1[i][11-j];
279 fPnt1[i][11-j]=v;
280 }
281 }
282
283 //change the sequence of eight points according to the requirment of IrregBox
284 // point 0<-->1, 2<-->3, 4<-->5, 6<-->7
285 /*for(G4int j=0;j<8;j++)
286 {
287 if((j%2)==0)
288 {
289 G4ThreeVector v2=fPnt1[i][j];
290 fPnt1[i][j]=fPnt1[i][j+1];
291 fPnt1[i][j+1]=v2;
292 }
293 }*/
294 }
295 ExchangeSector7(0,3); ExchangeSector7(1,2); ExchangeSector7(4,7);
296 ExchangeSector7(5,31); ExchangeSector7(6,30); ExchangeSector7(8,12);
297 ExchangeSector7(9,11); ExchangeSector7(13,17); ExchangeSector7(14,34);
298 ExchangeSector7(15,33); ExchangeSector7(16,32); ExchangeSector7(18,23);
299 ExchangeSector7(19,22); ExchangeSector7(20,21); ExchangeSector7(24,29);
300 ExchangeSector7(25,28); ExchangeSector7(26,27);
301}
BesEmcEndGeometry::ExchangeSector7
void ExchangeSector7(G4int cry1, G4int cry2)
Definition BesEmcEndGeometry.cc:245

◆ Zoom()

void BesEmcEndGeometry::Zoom ( const G4ThreeVector pos[8],
const G4double factor )

Definition at line 303 of file BesEmcEndGeometry.cc.

304{
305 G4ThreeVector center1(0,0,0);
306 G4ThreeVector center2(0,0,0);
307 for(G4int i=0;i<8;i++)
308 zoomPoint[i]=G4ThreeVector(0,0,0);
309
310 for(G4int i=0;i<8;i++)
311 {
312 if(i<4) center1+=pos[i];
313 else center2+=pos[i];
314 }
315 center1/=4;
316 center2/=4;
317
318 for(G4int i=0;i<8;i++)
319 {
320 if(i<4) zoomPoint[i]=factor*pos[i]+(1-factor)*center1;
321 else zoomPoint[i]=factor*pos[i]+(1-factor)*center2;
322 }
323}

Referenced by ComputeDimAndPos().

Friends And Related Symbol Documentation

◆ BesEmcConstruction

friend class BesEmcConstruction
friend

Definition at line 15 of file BesEmcEndGeometry.hh.

Referenced by BesEmcConstruction.

◆ BesEmcDigitizer

friend class BesEmcDigitizer
friend

Definition at line 16 of file BesEmcEndGeometry.hh.

Referenced by BesEmcDigitizer.

◆ EmcGdmlWriter

friend class EmcGdmlWriter
friend

Definition at line 17 of file BesEmcEndGeometry.hh.

Referenced by EmcGdmlWriter.

The documentation for this class was generated from the following files: