* provided "as is" without express or implied warranty. *
**************************************************************************/
-/*
-$Log$
-Revision 1.3 2003/01/28 17:59:54 nilsen
-Work continuing.
-
-Revision 1.2 2003/01/26 14:35:15 nilsen
-Some more geometry interface functions added and a start at the SSD support
-cone geometry. Committed to allow easy updates of partical work between authors.
-
-Revision 1.1 2003/01/20 23:32:49 nilsen
-New ITS geometry. Only a Skeleton for now.
-
-$Id$
-*/
+/* $Id$ */
//////////////////////////////////////////////////////////////////////////////
// //
// //
//////////////////////////////////////////////////////////////////////////////
// See AliITSv11::StepManager().
-#include <Riostream.h>
+// General C/C++ includes
#include <stdio.h>
#include <stdlib.h>
+// General Root includes
+#include <Riostream.h>
#include <TMath.h>
-#include <TGeometry.h>
-#include <TNode.h>
-#include <TTUBE.h>
-#include <TTUBS.h>
-#include <TPCON.h>
#include <TFile.h> // only required for Tracking function?
-#include <TCanvas.h>
#include <TObjArray.h>
+#include <TClonesArray.h>
#include <TLorentzVector.h>
#include <TObjString.h>
-#include <TClonesArray.h>
-#include <TBRIK.h>
-#include <TSystem.h>
-
-
+// Root Geometry includes
+#include <TGeoManager.h>
+#include <TGeoVolume.h>
+#include <TGeoPcon.h>
+#include <TGeoCone.h>
+#include <TGeoTube.h> // contaings TGeoTubeSeg
+#include <TGeoArb8.h>
+#include <TGeoCompositeShape.h>
+#include <TGeoMatrix.h>
+#include <TGeoNode.h>
+#include <TGeoMaterial.h>
+#include <TGeoMedium.h>
+// General AliRoot includes
#include "AliRun.h"
#include "AliMagF.h"
#include "AliConst.h"
-#include "AliITSGeant3Geometry.h"
+// ITS specific includes
#include "AliITShit.h"
-#include "AliITS.h"
-#include "AliITSv11.h"
#include "AliITSgeom.h"
#include "AliITSgeomSPD.h"
#include "AliITSgeomSDD.h"
#include "AliITSClusterFinderSPD.h"
#include "AliITSClusterFinderSDD.h"
#include "AliITSClusterFinderSSD.h"
+#include "AliITSBaseGeometry.h"
+#include "AliITSv11.h"
+
+// Units, Convert from k?? to cm,degree,GeV,seconds,
+const Double_t kmm = 0.10; // Convert mm to TGeom's cm.
+const Double_t kcm = 1.00; // Convert cv to TGeom's cm.
+const Double_t kDegree = 1.0; // Convert degrees to TGeom's degrees
+const Double_t kRadian = TMath::DegToRad(); // conver to Radians
+
+#define SQ(A) ((A)*(A))
+
+#define printArb8(A) if(GetDebug()){\
+ cout << A->GetName() << ":"; \
+ for(Int_t iii=0;iii<8;iii+=2){ cout <<"("<<A->GetVertices()[iii]<<"," \
+ <<A->GetVertices()[iii+1]<<","<<-A->GetDz()<<")";}\
+ for(Int_t iii=8;iii<16;iii+=2){ cout <<"("<<A->GetVertices()[iii]<<"," \
+ <<A->GetVertices()[iii+1]<<","<<A->GetDz()<<")";}\
+ cout << endl; }
+
+#define printPcon(A) if(GetDebug()){\
+ cout << A->GetName() << ": N=" << A->GetNz() << " Phi1=" << A->GetPhi1() \
+ << ", Dphi=" << A->GetDphi() << endl; \
+ cout << "i\t Z \t Rmin \t Rmax" << endl; \
+ for(Int_t iii=0;iii<A->GetNz();iii++){ \
+ cout << iii << "\t" << A->GetZ(iii) << "\t" << A->GetRmin(iii) \
+ << "\t" << A->GetRmax(iii) << endl; \
+ }} // end for iii
+#define printTube(A) if(GetDebug()){\
+ cout << A->GetName() <<": Rmin="<<A->GetRmin()\
+ <<" Rmax=" <<A->GetRmax()<<" Dz="<<A->GetDz()<<endl;}
+
+#define printTubeSeg(A) if(GetDebug()){\
+ cout << A->GetName() <<": Phi1="<<A->GetPhi1()<< \
+ " Phi2="<<A->GetPhi2()<<" Rmin="<<A->GetRmin()\
+ <<" Rmax=" <<A->GetRmax()<<" Dz="<<A->GetDz()<<endl;}
+
+#define printConeSeg(A) if(GetDebug()){\
+ cout << A->GetName() <<": Phi1="<<A->GetPhi1()<< \
+ " Phi2="<<A->GetPhi2()<<" Rmin1="<<A->GetRmin1()\
+ <<" Rmax1=" <<A->GetRmax1()<<" Rmin2="<<A->GetRmin2()\
+ <<" Rmax2=" <<A->GetRmax2()<<" Dz="<<A->GetDz()<<endl;}
+
+#define printBBox(A) if(GetDebug()){\
+ cout << A->GetName() <<": Dx="<<A->GetDX()<< \
+ " Dy="<<A->GetDY()<<" Dz="<<A->GetDZ() <<endl;}
ClassImp(AliITSv11)
+/*
+ Some temparary #define's used untill ROOT has addoppted the proper
+ Getter in it's classes.
+ These Below are for TGeoPcon functions.
+*/
+
//______________________________________________________________________
AliITSv11::AliITSv11() : AliITS() {
- ////////////////////////////////////////////////////////////////////////
- // Standard default constructor for the ITS version 11.
- ////////////////////////////////////////////////////////////////////////
+ // Standard default constructor for the ITS version 11.
+ // Inputs:
+ // none.
+ // Outputs:
+ // none.
+ // Return
+ // A default constructed AliITSv11 class.
+
+ //fITSV = 0;
+ //fcS = 0;
+// fcD = 0;
}
//______________________________________________________________________
AliITSv11::AliITSv11(const char *title) : AliITS("ITS", title){
- ////////////////////////////////////////////////////////////////////////
- // Standard constructor for the ITS version 11.
- ////////////////////////////////////////////////////////////////////////
+ // Standard constructor for the ITS version 11.
+ // Inputs:
+ // const char *title The title of for this geometry.
+ // Outputs:
+ // none.
+ // Return
+ // A Standard constructed AliITSv11 class.
+
+ //fITSV = 0;
+ //fcS = 0;
+// fcD = 0;
}
//______________________________________________________________________
AliITSv11::~AliITSv11() {
- ////////////////////////////////////////////////////////////////////////
- // Standard destructor for the ITS version 11.
- ////////////////////////////////////////////////////////////////////////
-}
-//______________________________________________________________________
-void AliITSv11::Box(const char gnam[3],const TString &dis,
- Double_t dx,Double_t dy,Double_t dz,Int_t med){
- // Interface to TMC->Gsvolu() for ITS bos geometries. Box with faces
- // perpendicular to the axes. It has 3 paramters. See SetScale() for
- // units. Default units are geant 3 [cm].
+ // Standard destructor for the ITS version 11.
// Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t dx half-length of box in x-axis
- // Double_t dy half-length of box in y-axis
- // Double_t dz half-length of box in z-axis
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[3];
+ // none.
+ // Outputs:
+ // none.
+ // Return
+ // none.
- param[0] = fScale*dx;
- param[1] = fScale*dy;
- param[2] = fScale*dz;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"BOX ",fidmed[med],param,3);
+// if(fITSV!=0) delete fITSV;
+// if(fcS!=0) delete fcS;
+// if(fcD!=0) delete fcD;
}
//______________________________________________________________________
-void AliITSv11::Trapezoid1(const char gnam[3],const TString &dis,
- Double_t dxn,Double_t dxp,Double_t dy,Double_t dz,
- Int_t med){
- // Interface to TMC->Gsvolu() for ITS TRD1 geometries. Trapezoid with the
- // x dimension varing along z. It has 4 parameters. See SetScale() for
- // units. Default units are geant 3 [cm].
+AliITSv11::AliITSv11(const AliITSv11 &source) : AliITS(source){
+ // Copy Constructor for ITS version 11.
// Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t dxn half-length along x at the z surface positioned
- // at -DZ
- // Double_t dxp half-length along x at the z surface positioned
- // at +DZ
- // Double_t dy half-length along the y-axis
- // Double_t dz half-length along the z-axis
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[4];
+ // AliITSv11 &source class to be copied from.
+ // Outputs:
+ // none.
+ // Return
+ // none.
- param[0] = fScale*dxn;
- param[1] = fScale*dxp;
- param[2] = fScale*dy;
- param[3] = fScale*dz;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"TRD1",fidmed[med],param,4);
+ if(&source == this) return;
+ Error("Copy Constructor","Not allowed to copy AliITSv11");
+ return;
}
//______________________________________________________________________
-void AliITSv11::Trapezoid2(const char gnam[3],const TString &dis,Double_t dxn,
- Double_t dxp,Double_t dyn,Double_t dyp,Double_t dz,
- Int_t med){
- // Interface to TMC->Gsvolu() for ITS TRD2 geometries. Trapezoid with the
- // x and y dimension varing along z. It has 5 parameters. See SetScale()
- // for units. Default units are geant 3 [cm].
+AliITSv11& AliITSv11::operator=(const AliITSv11 &source){
+ // Assignment operator for the ITS version 11.
// Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t dxn half-length along x at the z surface positioned
- // at -DZ
- // Double_t dxp half-length along x at the z surface positioned
- // at +DZ
- // Double_t dyn half-length along x at the z surface positioned
- // at -DZ
- // Double_t dyp half-length along x at the z surface positioned
- // at +DZ
- // Double_t dz half-length along the z-axis
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[5];
+ // AliITSv11 &source class to be copied from.
+ // Outputs:
+ // none.
+ // Return
+ // none.
- param[0] = fScale*dxn;
- param[1] = fScale*dxp;
- param[2] = fScale*dyn;
- param[3] = fScale*dyp;
- param[4] = fScale*dz;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"TRD2",fidmed[med],param,5);
+ if(&source == this) return *this;
+ Error("= operator","Not allowed to copy AliITSv11");
+ return *this;
}
//______________________________________________________________________
-void AliITSv11::Trapezoid(const char gnam[3],const TString &dis,Double_t dz,
- Double_t thet,Double_t phi,Double_t h1,Double_t bl1,
- Double_t tl1,Double_t alp1,Double_t h2,Double_t bl2,
- Double_t tl2,Double_t alp2,Int_t med){
- // Interface to TMC->Gsvolu() for ITS TRAP geometries. General Trapezoid,
- // The faces perpendicular to z are trapezia and their centers are not
- // necessarily on a line parallel to the z axis. This shape has 11
- // parameters, but only cosidering that the faces should be planar, only 9
- // are really independent. A check is performed on the user parameters and
- // a message is printed in case of non-planar faces. Ignoring this warning
- // may cause unpredictable effects at tracking time. See SetScale()
- // for units. Default units are geant 3 [cm].
+void AliITSv11::BuildGeometry(){
+ // This routine defines and Creates the geometry for version 11 of
+ // the ITS for use in the simulation display routines. This is a
+ // very simplified geometry for speed of viewing.
// Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t dz Half-length along the z-asix
- // Double_t thet Polar angle of the line joing the center of the
- // face at -dz to the center of the one at dz
- // [degree].
- // Double_t phi aximuthal angle of the line joing the center of
- // the face at -dz to the center of the one at +dz
- // [degree].
- // Double_t h1 half-length along y of the face at -dz.
- // Double_t bl1 half-length along x of the side at -h1 in y of
- // the face at -dz in z.
- // Double_t tl1 half-length along x of teh side at +h1 in y of
- // the face at -dz in z.
- // Double_t alp1 angle with respect to the y axis from the center
- // of the side at -h1 in y to the cetner of the
- // side at +h1 in y of the face at -dz in z
- // [degree].
- // Double_t h2 half-length along y of the face at +dz
- // Double_t bl2 half-length along x of the side at -h2 in y of
- // the face at +dz in z.
- // Double_t tl2 half-length along x of the side at _h2 in y of
- // the face at +dz in z.
- // Double_t alp2 angle with respect to the y axis from the center
- // of the side at -h2 in y to the center of the
- // side at +h2 in y of the face at +dz in z
- // [degree].
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[11];
+ // none.
+ // Outputs:
+ // none.
+ // Return
+ // none.
+ TVector3 t(0.0,0.0,0.0);
+
+ //if(fITSV==0) fITSV = new AliITSGeometryITSV(this,"ALIC");
+ //if(fcS==0) fcS = new AliITSGeometrySSDCone(this,t,"TSV",1);
- param[0] = fScale*dz;
- param[1] = thet;
- param[2] = phi;
- param[3] = fScale*h1;
- param[4] = fScale*bl1;
- param[5] = fScale*tl1;
- param[6] = alp1;
- param[7] = fScale*h2;
- param[8] = fScale*bl2;
- param[9] = fScale*tl2;
- param[10] = alp2;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"TRAP",fidmed[med],param,11);
+ //fcS->BuildDisplayGeometry();
}
//______________________________________________________________________
-void AliITSv11::Tube(const char gnam[3],const TString &dis,Double_t rmin,
- Double_t rmax,Double_t dz,Int_t med){
- // Interface to TMC->Gsvolu() for ITS TUBE geometries. Simple Tube. It has
- // 3 parameters. See SetScale()
- // for units. Default units are geant 3 [cm].
+void AliITSv11::CreateGeometry(){
+ // This routine defines and Creates the geometry for version 11 of
+ // the ITS. The geometry is used by the particle trasport routines,
+ // and therefore, is very detailed.
// Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t rmin Inside Radius.
- // Double_t rmax Outside Radius.
- // Double_t dz half-length along the z-axis
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[3];
+ // none.
+ // Outputs:
+ // none.
+ // Return
+ // none.
+ TVector3 t(0.0,0.0,0.0);
+
+ TGeoManager *mgr = gGeoManager;
+ TGeoVolume *ALIC = mgr->GetTopVolume();
- param[0] = fScale*rmin;
- param[1] = fScale*rmax;
- param[2] = fScale*dz;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"TUBE",fidmed[med],param,3);
+ TGeoPcon *itsv = new TGeoPcon("ITS Top Volume, Daughter of ALIC",
+ 0.0,360.0,2);
+ // DefineSection(section number, Z, Rmin, Rmax).
+ itsv->DefineSection(0,-300.0*kcm,0.01*kcm,50.0*kcm);
+ itsv->DefineSection(1,+300.0*kcm,0.01*kcm,50.0*kcm);
+ TGeoVolume *ITSV = new TGeoVolume("ITSV",itsv,0);
+ //mgr->AddVolume(ITSV);
+ ITSV->SetVisibility(kFALSE);
+ ALIC->AddNode(ITSV,1,0);
+ //
+ SPDCone(ITSV);
+ SDDCone(ITSV);
+ SSDCone(ITSV);
+ ServicesCableSupport(ITSV);
}
//______________________________________________________________________
-void AliITSv11::TubeSegment(const char gnam[3],const TString &dis,
- Double_t rmin,Double_t rmax,Double_t dz,
- Double_t phi1,Double_t phi2,Int_t med){
- // Interface to TMC->Gsvolu() for ITS TUBE geometries. Phi segment of a
- // tube. It has 5 parameters. Phi1 should be smaller than phi2. If this is
- // not the case, the system adds 360 degrees to phi2. See SetScale()
- // for units. Default units are geant 3 [cm].
- // Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t rmin Inside Radius.
- // Double_t rmax Outside Radius.
- // Double_t dz half-length along the z-axis
- // Double_t phi1 Starting angle of the segment [degree].
- // Double_t phi2 Ending angle of the segment [degree].
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[5];
+Double_t AliITSv11::RmaxFrom2Points(TGeoPcon *p,Int_t i1,Int_t i2,Double_t z){
+ // functions Require at parts of Volume A to be already defined.
+ // Retruns the value of Rmax corresponding to point z alone the line
+ // defined by the two points p.Rmax(i1),p-GetZ(i1) and p->GetRmax(i2),
+ // p->GetZ(i2).
- param[0] = fScale*rmin;
- param[1] = fScale*rmax;
- param[2] = fScale*dz;
- param[3] = phi1;
- param[4] = phi2;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"TUBS",fidmed[med],param,5);
+ return p->GetRmax(i2)+(p->GetRmax(i1)-p->GetRmax(i2))*(z-p->GetZ(i2))/
+ (p->GetZ(i1)-p->GetZ(i2));
}
//______________________________________________________________________
-void AliITSv11::Cone(const char gnam[3],const TString &dis,Double_t dz,
- Double_t rmin1,Double_t rmax1,Double_t rmin2,
- Double_t rmax2,Int_t med){
- // Interface to TMC->Gsvolu() for ITS Cone geometries. Conical tube. It
- // has 5 parameters. See SetScale()
- // for units. Default units are geant 3 [cm].
- // Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t dz half-length along the z-axis
- // Double_t rmin1 Inside Radius at -dz.
- // Double_t rmax1 Outside Radius at -dz.
- // Double_t rmin2 inside radius at +dz.
- // Double_t rmax2 outside radius at +dz.
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[5];
+Double_t AliITSv11::RminFrom2Points(TGeoPcon *p,Int_t i1,Int_t i2,Double_t z){
+ // Retruns the value of Rmin corresponding to point z alone the line
+ // defined by the two points p->GetRmin(i1),p->GetZ(i1) and
+ // p->GetRmin(i2), p->GetZ(i2).
- param[0] = fScale*dz;
- param[1] = fScale*rmin1;
- param[2] = fScale*rmax1;
- param[3] = fScale*rmin2;
- param[4] = fScale*rmax2;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"CONS",fidmed[med],param,5);
+ return p->GetRmin(i2)+(p->GetRmin(i1)-p->GetRmin(i2))*(z-p->GetZ(i2))/
+ (p->GetZ(i1)-p->GetZ(i2));
}
//______________________________________________________________________
-void AliITSv11::ConeSegment(const char gnam[3],const TString &dis,Double_t dz,
- Double_t rmin1,Double_t rmax1,Double_t rmin2,
- Double_t rmax2,Double_t phi1,Double_t phi2,
- Int_t med){
- // Interface to TMC->Gsvolu() for ITS ConS geometries. One segment of a
- // conical tube. It has 7 parameters. Phi1 should be smaller than phi2. If
- // this is not the case, the system adds 360 degrees to phi2. See
- // SetScale() for units. Default units are geant 3 [cm].
- // Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t dz half-length along the z-axis
- // Double_t rmin1 Inside Radius at -dz.
- // Double_t rmax1 Outside Radius at -dz.
- // Double_t rmin2 inside radius at +dz.
- // Double_t rmax2 outside radius at +dz.
- // Double_t phi1 Starting angle of the segment [degree].
- // Double_t phi2 Ending angle of the segment [degree].
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[7];
+Double_t AliITSv11::RFrom2Points(Double_t *p,Double_t *Z,Int_t i1,
+ Int_t i2,Double_t z){
+ // Retruns the value of Rmin corresponding to point z alone the line
+ // defined by the two points p->GetRmin(i1),p->GetZ(i1) and
+ // p->GetRmin(i2), p->GetZ(i2).
- param[0] = fScale*dz;
- param[1] = fScale*rmin1;
- param[2] = fScale*rmax1;
- param[3] = fScale*rmin2;
- param[4] = fScale*rmax2;
- param[5] = phi1;
- param[6] = phi2;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"CONS",fidmed[med],param,7);
+ return p[i2]+(p[i1]-p[i2])*(z-Z[i2])/(Z[i1]-Z[i2]);
}
//______________________________________________________________________
-void AliITSv11::Sphere(const char gnam[3],const TString &dis,Double_t rmin,
- Double_t rmax,Double_t the1,Double_t the2,Double_t phi1,
- Double_t phi2,Int_t med){
- // Interface to TMC->Gsvolu() for ITS SPHE geometries. Segment of a
- // sphereical shell. It has 6 parameters. See SetScale()
- // for units. Default units are geant 3 [cm].
- // Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t rmin Inside Radius.
- // Double_t rmax Outside Radius.
- // Double_t the1 staring polar angle of the shell [degree].
- // Double_t the2 ending polar angle of the shell [degree].
- // Double_t phui staring asimuthal angle of the shell [degree].
- // Double_t phi2 ending asimuthal angle of the shell [degree].
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[6];
+Double_t AliITSv11::Zfrom2MinPoints(TGeoPcon *p,Int_t i1,Int_t i2,Double_t r){
+ // Retruns the value of Z corresponding to point R alone the line
+ // defined by the two points p->GetRmin(i1),p->GetZ(i1) and
+ // p->GetRmin(i2),p->GetZ(i2)
- param[0] = fScale*rmin;
- param[1] = fScale*rmax;
- param[2] = the1;
- param[3] = the2;
- param[4] = phi1;
- param[5] = phi2;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"SPHE",fidmed[med],param,6);
+ return p->GetZ(i2)+(p->GetZ(i1)-p->GetZ(i2))*(r-p->GetRmin(i2))/
+ (p->GetRmin(i1)-p->GetRmin(i2));
}
//______________________________________________________________________
-void AliITSv11::Parallelepiped(const char gnam[3],const TString &dis,
- Double_t dx,Double_t dy,Double_t dz,
- Double_t alph,Double_t thet,Double_t phi,
- Int_t med){
- // Interface to TMC->Gsvolu() for ITS PARA geometries. Parallelepiped. It
- // has 6 parameters. See SetScale() for units. Default units are geant 3
- // [cm].
- // Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t dx half-length allong x-axis
- // Double_t dy half-length allong y-axis
- // Double_t dz half-length allong z-axis
- // Double_t alpha angle formed by the y axis and by the plane
- // joining the center of teh faces parallel to the
- // z-x plane at -dY and +dy [degree].
- // Double_t thet polar angle of the line joining the centers of
- // the faces at -dz and +dz in z [degree].
- // Double_t phi azimuthal angle of teh line joing the centers of
- // the faaces at -dz and +dz in z [degree].
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[6];
+Double_t AliITSv11::Zfrom2MaxPoints(TGeoPcon *p,Int_t i1,Int_t i2,Double_t r){
+ // Retruns the value of Z corresponding to point R alone the line
+ // defined by the two points p->GetRmax(i1),p->GetZ(i1) and
+ // p->GetRmax(i2),p->GetZ(i2)
- param[0] = fScale*dx;
- param[1] = fScale*dy;
- param[2] = fScale*dz;
- param[3] = alpha;
- param[4] = thet;
- param[5] = phi;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"PARA",fidmed[med],param,6);
+ return p->GetZ(i2)+(p->GetZ(i1)-p->GetZ(i2))*(r-p->GetRmax(i2))/
+ (p->GetRmax(i1)-p->GetRmax(i2));
}
//______________________________________________________________________
-void AliITSv11::Polygon(const char gnam[3],const TString &dis,Double_t phi1,
- Double_t dphi,Int_t npdv,Int_t nz,Double_t *z,
- Double_t *rmin,Double_t *rmax,Double_t ,Int_t med){
- // Interface to TMC->Gsvolu() for ITS PGON geometry. Polygon It has 10
- // parameters or more. See SetScale() for units. Default units are geant 3
- // [cm].
- // Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t phi1 the azimuthal angle at which the volume begins
- // (angles are counted clouterclockwise) [degrees].
- // Double_t dphi opening angle of the volume, which extends from
- // phi1 to phi1+dphi [degree].
- // Int_t npdv the number of sides of teh cross section between
- // the given phi limits.
- // Int_t nz number of planes perpendicular to the z axis
- // where the dimension of the section is given -
- // this number should be at least 2 and NP triples
- // of number must follow.
- // Double_t *z array [nz] of z coordiates of the sections..
- // Double_t *rmin array [nz] of radius of teh circle tangent to
- // the sides of the inner polygon in teh
- // cross-section.
- // Double_t *rmax array [nz] of radius of the circle tangent to
- // the sides of the outer polygon in the
- // cross-section.
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t *param;
- Int_t n,i;
-
- n = 4+3*nz;
- param = new Float_t[n]
- param[0] = phi1;
- param[1] = dphi;
- param[2] = (Float_t)npdv;
- param[3] = (Float_t)nz;
- for(i=0;i<nz;i++){
- param[4+3*i] = z[i];
- param[5+3*i] = rmin[i];
- param[6+3*i] = rmax[i];
- } // end for i
- name[0] = 'I';
- for(i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"PGON",fidmed[med],param,n);
+Double_t AliITSv11::Zfrom2Points(Double_t *Z,Double_t *p,Int_t i1,
+ Int_t i2,Double_t r){
+ // Retruns the value of Z corresponding to point R alone the line
+ // defined by the two points p->GetRmax(i1),p->GetZ(i1) and
+ // p->GetRmax(i2),p->GetZ(i2)
- delete[] param;
+ return Z[i2]+(Z[i1]-Z[i2])*(r-p[i2])/(p[i1]-p[i2]);
}
//______________________________________________________________________
-void AliITSv11::PolyCone(const char gnam[3],const TString &dis,Double_t phi1,
- Double_t dphi,Int_t nz,Double_t *z,Double_t *rmin,
- Double_t *rmax,Int_t med){
- // Interface to TMC->Gsvolu() for ITS PCON geometry. Poly-cone It has 9
- // parameters or more. See SetScale() for units. Default units are geant 3
- // [cm].
- // Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t phi1 the azimuthal angle at which the volume begins
- // (angles are counted clouterclockwise) [degrees].
- // Double_t dphi opening angle of the volume, which extends from
- // phi1 to phi1+dphi [degree].
- // Int_t nz number of planes perpendicular to the z axis
- // where the dimension of the section is given -
- // this number should be at least 2 and NP triples
- // of number must follow.
- // Double_t *z Array [nz] of z coordinate of the section.
- // Double_t *rmin Array [nz] of radius of teh inner circle in the
- // cross-section.
- // Double_t *rmax Array [nz] of radius of the outer circle in the
- // cross-section.
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t *param;
- Int_t n,i;
+Double_t AliITSv11::RmaxFromZpCone(TGeoPcon *p,Double_t tc,Double_t z,
+ Double_t th){
+ // General SSD Outer Cone surface equation Rmax.
+ Double_t tantc = TMath::Tan(tc*TMath::DegToRad());
+ Double_t costc = TMath::Cos(tc*TMath::DegToRad());
- n = 3+3*nz;
- param = new Float_t[n];
- param[0] = phi1;
- param[1] = dphi;
- param[2] = (Float_t) nz;
- for(i=0;i<nz;i++){
- param[3+3*i] = z[i];
- param[4+3*i] = rmin[i];
- param[5+3*i] = rmax[i];
- } // end for i
- name[0] = 'I';
- for(i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"PCON",fidmed[med],param,n);
-
- delete[] param;
+ return -tantc*(z-p->GetZ(4))+p->GetRmax(4)+th/costc;
}
//______________________________________________________________________
-void AliITSv11::TubeElliptical(const char gnam[3],const TString &dis,
- Double_t p1,Double_t p2,Double_t dz,Int_t med){
- // Interface to TMC->Gsvolu() for ITS ELTU geometries. Elliptical
- // cross-section Tube. It has 3 parameters. See SetScale()
- // for units. Default units are geant 3 [cm]. The equation of the surface
- // is x^2 * p1^-2 + y^2 * p2^-2 = 1.
- // Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t p1 semi-axis of the elipse along x.
- // Double_t p2 semi-axis of the elipse along y.
- // Double_t dz half-length along the z-axis
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[3];
+Double_t AliITSv11::RmaxFromZpCone(Double_t *GetRmax,Double_t *GetZ,
+ Double_t tc,Double_t z,Double_t th){
+ // General SSD Outer Cone surface equation Rmax.
+ Double_t tantc = TMath::Tan(tc*TMath::DegToRad());
+ Double_t costc = TMath::Cos(tc*TMath::DegToRad());
- param[0] = fScale*p1;
- param[1] = fScale*p2;
- param[2] = fScale*dz;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"ELTU",fidmed[med],param,3);
+ return -tantc*(z-GetZ[4])+GetRmax[4]+th/costc;
}
//______________________________________________________________________
-void AliITSv11::HyperbolicTube(const char gnam[3],const TString &dis,
- Double_t rmin,Double_t rmax,Double_t dz,
- Double_t thet,Int_t med){
- // Interface to TMC->Gsvolu() for ITS HYPE geometries. Hyperbolic tube.
- // Fore example the inner and outer surfaces are hyperboloids, as would be
- // foumed by a system of cylinderical wires which were then rotated
- // tangentially about their centers. It has 4 parameters. See SetScale()
- // for units. Default units are geant 3 [cm]. The hyperbolic surfaces are
- // given by r^2 = (ztan(thet)^2 + r(z=0)^2.
- // Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t rmin Inner radius at z=0 where tube is narrowest.
- // Double_t rmax Outer radius at z=0 where tube is narrowest.
- // Double_t dz half-length along the z-axis
- // Double_t thet stero angel of rotation of the two faces
- // [degrees].
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[4];
+Double_t AliITSv11::RminFromZpCone(TGeoPcon *p,Double_t tc,Double_t z,
+ Double_t th){
+ // General SSD Inner Cone surface equation Rmin.
+ Double_t tantc = TMath::Tan(tc*TMath::DegToRad());
+ Double_t costc = TMath::Cos(tc*TMath::DegToRad());
- param[0] = fScale*rmin;
- param[1] = fScale*rmax;
- param[2] = fScale*dz;
- param[3] = thet;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"HYPE",fidmed[med],param,4);
+ return -tantc*(z-p->GetZ(3))+p->GetRmin(3)+th/costc;
}
//______________________________________________________________________
-void AliITSv11::TwistedTrapezoid(const char gnam[3],const TString &dis,
- Double_t dz,Double_t thet,Double_t phi,
- Double_t twist,Double_t h1,Double_t bl1,
- Double_t tl1,Double_t apl1,Double_t h2,
- Double_t bl2,Double_t tl2,Double_t apl2,
- Int_t med){
- // Interface to TMC->Gsvolu() for ITS GTRA geometries. General twisted
- // trapazoid. The faces perpendicular to z are trapazia and their centers
- // are not necessarily on a line parallel to the z axis as the TRAP.
- // Additionally, the faces may be twisted so that none of their edges are
- // parallel. It is a TRAP shape, exept that it is twisted in the x-y plane
- // as a function of z. The parallel sides perpendicular to the x axis are
- // rotated with respect to the x axis by an angle TWIST, which is one of
- // the parameters. The shape is defined by the eight corners and is assumed
- // to be constructed of straight lines joingin points on the boundry of the
- // trapezoidal face at Z=-dz to the coresponding points on the face at
- // z=+dz. Divisions are not allowed. It has 12 parameters. See SetScale()
- // for units. Default units are geant 3 [cm]. Note: This shape suffers from
- // the same limitations than the TRAP. The tracking routines assume that
- // the faces are planar, but htis constraint is not easily expressed in
- // terms of the 12 parameters. Additionally, no check on th efaces is
- // performed in this case. Users should avoid to use this shape as much as
- // possible, and if they have to do so, they should make sure that the
- // faces are really planes. If this is not the case, the result of the
- // trasport is unpredictable. To accelerat ethe computations necessary for
- // trasport, 18 additioanl parameters are calculated for this shape are
- // 1 DXODZ dx/dz of the line joing the centers of the faces at z=+_dz.
- // 2 DYODZ dy/dz of the line joing the centers of the faces at z=+_dz.
- // 3 XO1 x at z=0 for line joing the + on parallel side, perpendicular
- // corners at z=+_dz.
- // 4 YO1 y at z=0 for line joing the + on parallel side, + on
- // perpendicular corners at z=+-dz.
- // 5 DXDZ1 dx/dz for line joing the + on parallel side, + on
- // perpendicular corners at z=+-dz.
- // 6 DYDZ1 dy/dz for line joing the + on parallel side, + on
- // perpendicular corners at z=+-dz.
- // 7 X02 x at z=0 for line joing the - on parallel side, + on
- // perpendicular corners at z=+-dz.
- // 8 YO2 y at z=0 for line joing the - on parallel side, + on
- // perpendicular corners at z=+-dz.
- // 9 DXDZ2 dx/dz for line joing the - on parallel side, + on
- // perpendicular corners at z=+-dz.
- // 10 DYDZ2dy/dz for line joing the - on parallel side, + on
- // perpendicular corners at z=+-dz.
- // 11 XO3 x at z=0 for line joing the - on parallel side, - on
- // perpendicular corners at z=+-dz.
- // 12 YO3 y at z=0 for line joing the - on parallel side, - on
- // perpendicular corners at z=+-dz.
- // 13 DXDZ3 dx/dzfor line joing the - on parallel side, - on
- // perpendicular corners at z=+-dz.
- // 14 DYDZ3 dydz for line joing the - on parallel side, - on
- // perpendicular corners at z=+-dz.
- // 15 XO4 x at z=0 for line joing the + on parallel side, - on
- // perpendicular corners at z=+-dz.
- // 16 YO4 y at z=0 for line joing the + on parallel side, - on
- // perpendicular corners at z=+-dz.
- // 17 DXDZ4 dx/dz for line joing the + on parallel side, - on
- // perpendicular corners at z=+-dz.
- // 18 DYDZ4 dydz for line joing the + on parallel side, - on
- // perpendicular corners at z=+-dz.
- // Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t dz half-length along the z axis.
- // Double_t thet polar angle of the line joing the center of the
- // face at -dz to the center of the one at +dz
- // [degrees].
- // Double_t phi Azymuthal angle of teh line joing the centre of
- // the face at -dz to the center of the one at +dz
- // [degrees].
- // Double_t twist Twist angle of the faces parallel to the x-y
- // plane at z=+-dz around an axis parallel to z
- // passing through their centre [degrees].
- // Double_t h1 Half-length along y of the face at -dz.
- // Double_t bl1 half-length along x of the side -h1 in y of the
- // face at -dz in z.
- // Double_t tl1 half-length along x of the side at +h1 in y of
- // the face at -dz in z.
- // Double_t apl1 Angle with respect to the y ais from the center
- // of the side at -h1 in y to the centere of the
- // side at +h1 in y of the face at -dz in z
- // [degrees].
- // Double_t h2 half-length along the face at +dz.
- // Double_t bl2 half-length along x of the side at -h2 in y of
- // the face at -dz in z.
- // Double_t tl2 half-length along x of the side at +h2 in y of
- // the face at +dz in z.
- // Double_t apl2 angle with respect to the y axis from the center
- // of the side at -h2 in y to the center of the side
- // at +h2 in y of the face at +dz in z [degrees].
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[12];
+Double_t AliITSv11::RminFromZpCone(Double_t *GetRmin,Double_t *GetZ,
+ Double_t tc,Double_t z,Double_t th){
+ // General SSD Inner Cone surface equation Rmin.
+ Double_t tantc = TMath::Tan(tc*TMath::DegToRad());
+ Double_t costc = TMath::Cos(tc*TMath::DegToRad());
- param[0] = fScale*dz;
- param[1] = thet;
- param[2] = phi;
- param[3] = twist;
- param[4] = fScale*h1;
- param[5] = fScale*bl1;
- param[6] = fScale*tl1;
- param[7] = alp1;
- param[8] = fScale*h2;
- param[9] = fScale*bl2;
- param[10] = fScale*tl2;
- param[11] = alp2;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"GTRA",fidmed[med],param,12);
+ return -tantc*(z-GetZ[3])+GetRmin[3]+th/costc;
}
//______________________________________________________________________
-void AliITSv11::CutTube(const char gnam[3],const TString &dis,Double_t rmin,
- Double_t rmax,Double_t dz,Double_t phi1,Double_t phi2,
- Double_t lx,Double_t ly,Double_t lz,Double_t hx,
- Double_t hy,Double_t hz,Int_t med){
- // Interface to TMC->Gsvolu() for ITS CTUB geometries. Cut tube. A tube cut
- // at the extremities with planes not necessarily perpendicular tot he z
- // axis. It has 11 parameters. See SetScale() for units. Default units are
- // geant 3 [cm]. phi1 should be smaller than phi2. If this is not the case,
- // the system adds 360 degrees to phi2.
- // Inputs:
- // const char gnam[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // TString &dis String containging part discription.
- // Double_t rmin Inner radius at z=0 where tube is narrowest.
- // Double_t rmax Outer radius at z=0 where tube is narrowest.
- // Double_t dz half-length along the z-axis
- // Double_t dz half-length along the z-axis
- // Double_t phi1 Starting angle of the segment [degree].
- // Double_t phi2 Ending angle of the segment [degree].
- // Double_t lx x component of a unit vector perpendicular to
- // the face at -dz.
- // Double_t ly y component of a unit vector perpendicular to
- // the face at -dz.
- // Double_t lz z component of a unit vector perpendicular to
- // the face at -dz.
- // Double_t hx x component of a unit vector perpendicular to
- // the face at +dz.
- // Double_t hy y component of a unit vector perpendicular to
- // the face at +dz.
- // Double_t hz z component of a unit vector perpendicular to
- // the face at +dz.
- // Int_t med media index number.
- // Output:
- // none.
- // Return.
- // none.
- char name[4];
- Float_t param[11];
+Double_t AliITSv11::ZFromRmaxpCone(TGeoPcon *p,Double_t tc,Double_t r,
+ Double_t th){
+ // General SSD Outer cone Surface equation for z.
+ Double_t tantc = TMath::Tan(tc*TMath::DegToRad());
+ Double_t costc = TMath::Cos(tc*TMath::DegToRad());
- param[0] = fScale*rmin;
- param[1] = fScale*rmax;
- param[2] = fScale*dz;
- param[3] = phi1;
- param[4] = phi2;
- param[5] = lx;
- param[6] = ly;
- param[7] = lz;
- param[8] = hx;
- param[9] = hy;
- param[10] = hz;
- name[0] = 'I';
- for(Int_t i=0;i<3;i++) name[i+1] = gnam[i];
- gMC->Gsvolu(name,"CTUB",fidmed[med],param,11);
+ return p->GetZ(4)+(p->GetRmax(4)+th/costc-r)/tantc;
}
//______________________________________________________________________
-void AliITSv11::Pos(const char vol[3],Int_t cn,const char moth[3],Double_t x,
- Double_t y,Double_t z,Int_t irot){
- // Place a copy of a volume previously defined by a call to GSVOLU inside
- // its mother volulme moth.
- // Inputs:
- // const char vol[3] 3 character geant volume name. The letter "I"
- // is appended to the front to indecate that this
- // is an ITS volume.
- // const char moth[3] 3 character geant volume name of the mother volume
- // in which vol will be placed. The letter "I" is
- // appended to the front to indecate that this is an
- // ITS volume.
- // Double_t x The x positon of the volume in the mother's
- // reference system
- // Double_t y The y positon of the volume in the mother's
- // reference system
- // Double_t z The z positon of the volume in the mother's
- // reference system
- // Int_t irot the index for the rotation matrix to be used.
- // irot=-1 => unit rotation.
- // Outputs:
- // none.
- // Return:
- // none.
- char name[4],mother[4];
- Float_t param[3];
- Int_t r=0,i;
+Double_t AliITSv11::ZFromRmaxpCone(Double_t *GetRmax,Double_t *GetZ,
+ Double_t tc,Double_t r,Double_t th){
+ // General SSD Outer cone Surface equation for z.
+ Double_t tantc = TMath::Tan(tc*TMath::DegToRad());
+ Double_t costc = TMath::Cos(tc*TMath::DegToRad());
- param[0] = x;
- param[1] = y;
- param[2] = z;
- name[0] = 'I';
- for(i=0;i<3;i++) name[i+1] = vol[i];
- mother[0] = 'I';
- for(i=0;i<3;i++) mother[i+1] = moth[i];
- if(irot>=0) r=fidrot[irot];
- fMC->Gspos(name,mother,param[0],param[1],param[2],r,"ONLY");
+ return GetZ[4]+(GetRmax[4]+th/costc-r)/tantc;
}
//______________________________________________________________________
-void AliITSv11::Matrix(Int_t irot,Double_t thet1,Double_t phi1,
- Double_t thet2,Double_t phi2,
- Double_t thet3,Double_t phi3){
- // Defines a Geant rotation matrix. checks to see if it is the unit
- // matrix. If so, then no additonal matrix is defined. Stores rotation
- // matrix irot in the data structure JROTM. If the matrix is not
- // orthonormal, it will be corrected by setting y' perpendicular to x'
- // and z' = x' X y'. A warning message is printed in this case.
- // Inputs:
- // Int_t irot Intex specifing which rotation matrix.
- // Double_t thet1 Polar angle for axisw x [degrees].
- // Double_t phi1 azimuthal angle for axis x [degrees].
- // Double_t thet12Polar angle for axisw y [degrees].
- // Double_t phi2 azimuthal angle for axis y [degrees].
- // Double_t thet3 Polar angle for axisw z [degrees].
- // Double_t phi3 azimuthal angle for axis z [degrees].
- // Outputs:
- // none.
- // Return:
- // none.
- Float_t t1,p1,t2,p2,t3,p3;
+Double_t AliITSv11::ZFromRminpCone(TGeoPcon *p,Double_t tc,Double_t r,
+ Double_t th){
+ // General SSD Inner cone Surface equation for z.
+ Double_t tantc = TMath::Tan(tc*TMath::DegToRad());
+ Double_t costc = TMath::Cos(tc*TMath::DegToRad());
- if(thet1==90.0&&phi1==0.0&&thet2==90.0&&phi2==90.0&&thet3==0.0&&phi3==0.0){
- fidrot[irot] = 0; // Unit matrix
- }else{
- t1 = thet1;
- p1 = phi1;
- t2 = thet2;
- p2 = phi2;
- t3 = thet3;
- p3 = phi3
- AliMatrix(fidrot[irot],t1,p1,t2,p2,t3,p3);
- } // end if
+ return p->GetZ(3)+(p->GetRmin(3)+th/costc-r)/tantc;
}
//______________________________________________________________________
-void AliITSv11::Matrix(Int_t irot,Int_t axis,Double_t thet){
- // Defines a Geant rotation matrix. checks to see if it is the unit
- // matrix. If so, then no additonal matrix is defined. Stores rotation
- // matrix irot in the data structure JROTM. If the matrix is not
- // orthonormal, it will be corrected by setting y' perpendicular to x'
- // and z' = x' X y'. A warning message is printed in this case.
- // Inputs:
- // Int_t irot Intex specifing which rotation matrix.
- // Int_t axis Axis about which rotation is to be done.
- // Double_t thet Angle to rotate by [degrees].
- // Outputs:
- // none.
- // Return:
- // none.
+void AliITSv11::RadiusOfCurvature(Double_t rc,Double_t theta0,Double_t z0,
+ Double_t r0,Double_t theta1,Double_t &z1,
+ Double_t &r1){
+ // Given a initial point z0,r0, the initial angle theta0, and the radius
+ // of curvature, returns the point z1, r1 at the angle theta1. Theta
+ // measured from the r axis in the clock wise direction [degrees].
+ Double_t sin0 = TMath::Sin(theta0*TMath::DegToRad());
+ Double_t cos0 = TMath::Cos(theta0*TMath::DegToRad());
+ Double_t sin1 = TMath::Sin(theta1*TMath::DegToRad());
+ Double_t cos1 = TMath::Cos(theta1*TMath::DegToRad());
- if(thet==0.0){
- fidrot[irot] = 0; // Unit matrix
- }else{
- switch (irot) {
- case 0: //Rotate about x-axis, x-axis does not change.
- AliMatrix(fidrot[irot],90.0,0.0,90.0+thet,90.0,thet,90.0);
- break;
- case 1: //Rotate about y-axis, y-axis does not change.
- AliMatrix(fidrot[irot],-90.0-thet,0.0,90.0,90.0,thet,90.0);
- break;
- case 2: //Rotate about z-axis, z-axis does not change.
- AliMatrix(fidrot[irot],90.0,thet,90.0,-thet-90.0,0.0,0.0);
- break;
- default:
- Error("Matrix","axis must be either 0, 1, or 2. for matrix=%d",
- irot);
- break;
- } // end switch
- } // end if
+ z1 = rc*(sin1-sin0)+z0;
+ r1 = rc*(cos1-cos0)+r0;
+ return;
}
//______________________________________________________________________
-void AliITSv11::Matrix(Int_t irot,Double_t rot[3][3]){
- // Defines a Geant rotation matrix. checks to see if it is the unit
- // matrix. If so, then no additonal matrix is defined. Stores rotation
- // matrix irot in the data structure JROTM. If the matrix is not
- // orthonormal, it will be corrected by setting y' perpendicular to x'
- // and z' = x' X y'. A warning message is printed in this case.
+void AliITSv11::SPDCone(TGeoVolume *Moth){
+ // Define the detail SPD support cone geometry.
// Inputs:
- // Int_t irot Intex specifing which rotation matrix.
- // Double_t rot[3][3] The 3 by 3 rotation matrix.
+ // none.
// Outputs:
- // none.
+ // none.
// Return:
- // none.
-
- if(rot[0][0]==1.0&&rot[1][1]==1.0&&rot[2][2]==1.0&&
- rot[0][1]==0.0&&rot[0][2]==0.0&&rot[1][0]==0.0&&
- rot[1][2]==0.0&&rot[2][0]==0.0&&rot[2][1]==0.0){
- fidrot[irot] = 0; // Unit matrix
- }else{
- Double_t si,c=180./TMath::Pi();
- Double_t ang[6];
-
- ang[1] = TMath::ATan2(rot[0][1],rot[0][0]);
- if(TMath::Cos(ang[1])!=0.0) si = rot[0][0]/TMath::Cos(ang[1]);
- else si = rot[0][1]/TMath::Sin(ang[1]);
- ang[0] = TMath::ATan2(si,rot[0][2]);
-
- ang[3] = TMath::ATan2(rot[1][1],rot[1][0]);
- if(TMath::Cos(ang[3])!=0.0) si = rot[1][0]/TMath::Cos(ang[3]);
- else si = rot[1][1]/TMath::Sin(ang[3]);
- ang[2] = TMath::ATan2(si,rot[1][2]);
+ // none.
- ang[5] = TMath::ATan2(rot[2][1],rot[2][0]);
- if(TMath::Cos(ang[5])!=0.0) si = rot[2][0]/TMath::Cos(ang[5]);
- else si = rot[2][1]/TMath::Sin(ang[5]);
- ang[4] = TMath::ATan2(si,rot[2][2]);
-
- for(Int_t i=0;i<6;i++) {ang[i] *= c; if(ang[i]<0.0) ang[i] += 360.;}
- AliMatrix(fidrot[irot],ang[0],ang[1],ang[2],ang[3],ang[4],ang[5]);
- } // end if
+ SPDThermalSheald(Moth);
}
//______________________________________________________________________
-Float_t AliITSv11::GetA(Int_t z){
- // Returns the isotopicaly averaged atomic number.
+void AliITSv11::SPDThermalSheald(TGeoVolume *Moth){
+ // Define the detail SPD Thermal Sheld geometry.
// Inputs:
- // Int_t z Elemental number
+ // none.
// Outputs:
- // none.
+ // none.
// Return:
- // The atomic mass number.
- const Float_t A[]={ 1.00794 , 4.0026902, 6.941 , 9.012182 , 10.811 ,
- 12.01007 , 14.00674 , 15.9994 , 18.9984032, 20.1797 ,
- 22.98970 , 24.3050 , 26.981538, 28.0855 , 30.973761,
- 32.066 , 35.4527 , 39.948 , 39.0983 , 40.078 ,
- 44.95591 , 47.867 , 50.9415 , 51.9961 , 54.938049,
- 55.845 , 58.933200 , 58.6934 , 63.546 , 65.39 ,
- 69.723 , 72.61 , 74.92160 , 78.96 , 79.904 ,
- 83.80 , 85.4678 , 87.62 , 88.9085 , 91.224 ,
- 92.90638 , 95.94 , 97.907215, 101.07 ,102.90550 ,
- 106.42 ,107.8682 ,112.411 ,114.818 ,118.710 ,
- 121.760 ,127.60 ,126.90447 ,131.29 ,132.90545 ,
- 137.327 ,138.9055 ,140.116 ,140.90765 ,144.24 ,
- 144.912746,150.36 ,151.964 ,157.25 ,158.92534 ,
- 162.50 ,164.93032 ,167.26 ,168.93421 ,173.04 ,
- 174.967 ,178.49 ,180.9479 ,183.84 ,186.207 ,
- 190.23 ,192.217 ,195.078 ,196.96655 ,200.59 ,
- 204.3833 ,207.2 ,208.98038,208.982415 ,209.987131,
- 222.017570 ,223.019731,226.025402,227.027747 ,232.0381 ,
- 231.03588 238.0289};
+ // none.
+ // From ALICE-Thermal Screen (SPD) "Cylinder" file thermal-screen2_a3.ps
+ // Volumes A1,A2,A2,Ah1,Ah2,Ah3, and B1,B2,B3,Bh1,Bh2,Bh3;
+ // "CONE TRANSITION" file thermal-screen1_a3.ps Volumes C1,C2,C3,Ch1,Ch2,
+ // Ch3; "FLANGE" file thermal-screen4_a3.ps Volumes D,Ds,Dw,Dws; and
+ // "HALF ASSEMBLY" file thermal-screen3_a3.ps. This object, both halfs,
+ // are incased inside of a single minimum sized mother volume called M,
+ // which is a union of two parts M1 and 4 copies of M2.
+ const Double_t TSCarbonFiberThA = 0.03*kmm; //
+ //const Double_t TSCarbonFiberThB = 0.10*kmm; //
+ const Double_t TSCLengthB = 50.0*kmm; //
+ const Double_t TSCLengthA = 900.0*kmm-2.0*TSCLengthB; //
+ const Double_t TSCLengthC = 290.0*kmm; //
+ const Double_t TSCLengthD = 15.0*kmm; //
+ const Double_t TSCAngle = 36.0*kDegree;//Rep. angle of cent. accordin
+ const Double_t TSCRoutA = 99.255*kmm; // Outer radii
+ const Double_t TSCRinA = 81.475*kmm; // Iner radii
+ const Double_t TSCRoutB = 99.955*kmm; // Outer radii
+ const Double_t TSCRinB = 80.775*kmm; // Iner radii
+ const Double_t TSCRoutCp = 390.0*kmm; // Outer radii
+ const Double_t TSCRinCp = 373.0*kmm; // Iner radii
+ Double_t TSCRoutC,TSCRinC; // values need to be calculated
+ const Double_t TSCRwingD = 492.5*kmm; // Outer radii
+ const Double_t TSCRoutD = 0.5*840.*kmm;// Outer radii
+ const Double_t TSCRinD = 373.0*kmm; // Iner radii
+ const Double_t TSCAngleDD = 60.*kmm/TSCRwingD/kRadian;//angular wing width
+ //angular wing width of fill material
+ const Double_t TSCAngleDDs = (60.*kmm-2.*TSCarbonFiberThA)/TSCRwingD/kRadian;
+ const Double_t TSCAngleD0 = 45.*kDegree;//Strting angle of wing
+ const Double_t TSCoutSA = 24.372*kmm; // The other one Calculated
+ const Double_t TSCinLA = 31.674*kmm; // The ohter one Calculated
+ const Double_t TSCoutSB = 24.596*kmm; // The other one Calculated
+ const Double_t TSCinLB = 31.453*kmm; // The ohter one Calculated
+ const Double_t TSCoutSC = 148.831*kmm;// The other one Calculated
+ const Double_t TSCinLC = 90.915*kmm; // The ohter one Calculated
+ Int_t i,k;
+ Double_t th;
+ Double_t xo[7],yo[7],xi[7],yi[7];
+ Double_t xbo[7],ybo[7],xbi[7],ybi[7];
+ Double_t xco[7],yco[7],xci[7],yci[7];
+ TGeoArb8 *A1,*A2,*A3,*Ah1,*Ah2,*Ah3,*B1,*B2,*B3,*Bh1,*Bh2,*Bh3;
+ TGeoArb8 *C1,*C2,*C3,*Ch1,*Ch2,*Ch3;
+ TGeoTube *D,*Ds;
+ TGeoTubeSeg *Dw,*Dws,*M2;
+ TGeoPcon *M1;
+ TGeoCompositeShape *M;
+ TGeoRotation *rot;
+ TGeoTranslation *tranb,*tranbm,*tranc;
+ TGeoTranslation *tranITSspdShealdVVt0;
+ TGeoCombiTrans *rotITSspdShealdVVt1,*rotITSspdShealdVVt2;
+ TGeoCombiTrans *rotITSspdShealdVVt3;
+ TGeoMedium *SPDcf = 0; // SPD support cone Carbon Fiber materal number.
+ TGeoMedium *SPDfs = 0; // SPD support cone inserto stesalite 4411w.
+ TGeoMedium *SPDfo = 0; // SPD support cone foam, Rohacell 50A.
+ TGeoMedium *SPDss = 0; // SPD support cone screw material,Stainless steal
+ TGeoMedium *SPDair = 0; // SPD support cone Air
+ //TGeoMedium *SPDal = 0; // SPD support cone SDD mounting bracket Al
- if(z<1||z>92){
- Error("GetA","z must be 0<z<93. z=%d",z);
- return 0.0;
+ TSCRoutC = TMath::Sqrt(TSCRoutCp*TSCRoutCp-0.25*TSCoutSC*TSCoutSC);
+ TSCRinC = TMath::Sqrt(TSCRinCp *TSCRinCp -0.25*TSCinLC *TSCinLC );
+ A1 = new TGeoArb8("ITS SPD Therm Screen Clyinder A1",0.5*TSCLengthA);
+ A2 = new TGeoArb8("ITS SPD Therm Screen Clyinder A2",0.5*TSCLengthA);
+ A3 = new TGeoArb8("ITS SPD Therm Screen Clyinder A3",0.5*TSCLengthA);
+ Ah1 = new TGeoArb8("ITS SPD Therm Screen Cylinder Ah1",0.5*TSCLengthA);
+ Ah2 = new TGeoArb8("ITS SPD Therm Screen Cylinder Ah2",0.5*TSCLengthA);
+ Ah3 = new TGeoArb8("ITS SPD Therm Screen Cylinder Ah3",0.5*TSCLengthA);
+ B1 = new TGeoArb8("ITS SPD Therm Screen Clyinder B1",0.5*TSCLengthB);
+ B2 = new TGeoArb8("ITS SPD Therm Screen Clyinder B2",0.5*TSCLengthB);
+ B3 = new TGeoArb8("ITS SPD Therm Screen Clyinder B3",0.5*TSCLengthB);
+ Bh1 = new TGeoArb8("ITS SPD Therm Screen Cylinder Bh1",0.5*TSCLengthB);
+ Bh2 = new TGeoArb8("ITS SPD Therm Screen Cylinder Bh2",0.5*TSCLengthB);
+ Bh3 = new TGeoArb8("ITS SPD Therm Screen Cylinder Bh3",0.5*TSCLengthB);
+ C1 = new TGeoArb8("ITS SPD Therm Screen Clyinder C1",0.5*TSCLengthC);
+ C2 = new TGeoArb8("ITS SPD Therm Screen Clyinder C2",0.5*TSCLengthC);
+ C3 = new TGeoArb8("ITS SPD Therm Screen Clyinder C3",0.5*TSCLengthC);
+ Ch1 = new TGeoArb8("ITS SPD Therm Screen Cylinder Ch1",0.5*TSCLengthC);
+ Ch2 = new TGeoArb8("ITS SPD Therm Screen Cylinder Ch2",0.5*TSCLengthC);
+ Ch3 = new TGeoArb8("ITS SPD Therm Screen Cylinder Ch3",0.5*TSCLengthC);
+ D = new TGeoTube("ITS SPD Therm Screen Flange D",TSCRinD,TSCRoutD,
+ 0.5*TSCLengthD);
+ Ds = new TGeoTube("ITS SPD Therm Screen Flange fill Ds",
+ TSCRinD+TSCarbonFiberThA,TSCRoutD-TSCarbonFiberThA,
+ 0.5*TSCLengthD);
+ printTube(D);
+ printTube(Ds);
+ Dw = new TGeoTubeSeg("ITS SPD Therm Screen Flange Wing Dw",
+ TSCRoutD,TSCRwingD ,0.5*TSCLengthD,
+ TSCAngleD0-0.5*TSCAngleDD,TSCAngleD0+0.5*TSCAngleDD);
+ Dws = new TGeoTubeSeg("ITS SPD Therm Screen Flange Wing Fill Ds",
+ TSCRoutD,TSCRwingD-TSCarbonFiberThA,
+ 0.5*TSCLengthD,TSCAngleD0-0.5*TSCAngleDDs,
+ TSCAngleD0+0.5*TSCAngleDDs);
+ printTubeSeg(Dw);
+ printTubeSeg(Dws);
+ k = 0;
+ for(i=-1;i<2;i++){
+ th = ((Double_t)(i+1))*TSCAngle*kRadian;
+ xo[k] = TSCRoutA*TMath::Sin(th) - 0.5*TSCoutSA*TMath::Cos(th);
+ yo[k] = TSCRoutA*TMath::Cos(th) + 0.5*TSCoutSA*TMath::Sin(th);
+ xi[k] = TSCRinA *TMath::Sin(th) - 0.5*TSCinLA *TMath::Cos(th);
+ yi[k] = TSCRinA *TMath::Cos(th) + 0.5*TSCinLA *TMath::Sin(th);
+ xbo[k] = TSCRoutB*TMath::Sin(th) - 0.5*TSCoutSB*TMath::Cos(th);
+ ybo[k] = TSCRoutB*TMath::Cos(th) + 0.5*TSCoutSB*TMath::Sin(th);
+ xbi[k] = TSCRinB *TMath::Sin(th) - 0.5*TSCinLB *TMath::Cos(th);
+ ybi[k] = TSCRinB *TMath::Cos(th) + 0.5*TSCinLB *TMath::Sin(th);
+ xco[k] = TSCRoutC*TMath::Sin(th) - 0.5*TSCoutSC*TMath::Cos(th);
+ yco[k] = TSCRoutC*TMath::Cos(th) + 0.5*TSCoutSC*TMath::Sin(th);
+ xci[k] = TSCRinC *TMath::Sin(th) - 0.5*TSCinLC *TMath::Cos(th);
+ yci[k] = TSCRinC *TMath::Cos(th) + 0.5*TSCinLC *TMath::Sin(th);
+ k++;
+ xo[k] = TSCRoutA*TMath::Sin(th) + 0.5*TSCoutSA*TMath::Cos(th);
+ yo[k] = TSCRoutA*TMath::Cos(th) - 0.5*TSCoutSA*TMath::Sin(th);
+ xi[k] = TSCRinA *TMath::Sin(th) + 0.5*TSCinLA *TMath::Cos(th);
+ yi[k] = TSCRinA *TMath::Cos(th) - 0.5*TSCinLA *TMath::Sin(th);
+ xbo[k] = TSCRoutB*TMath::Sin(th) + 0.5*TSCoutSB*TMath::Cos(th);
+ ybo[k] = TSCRoutB*TMath::Cos(th) - 0.5*TSCoutSB*TMath::Sin(th);
+ xbi[k] = TSCRinB *TMath::Sin(th) + 0.5*TSCinLB *TMath::Cos(th);
+ ybi[k] = TSCRinB *TMath::Cos(th) - 0.5*TSCinLB *TMath::Sin(th);
+ xco[k] = TSCRoutC*TMath::Sin(th) + 0.5*TSCoutSC*TMath::Cos(th);
+ yco[k] = TSCRoutC*TMath::Cos(th) - 0.5*TSCoutSC*TMath::Sin(th);
+ xci[k] = TSCRinC *TMath::Sin(th) + 0.5*TSCinLC *TMath::Cos(th);
+ yci[k] = TSCRinC *TMath::Cos(th) - 0.5*TSCinLC *TMath::Sin(th);
+ k++;
+ } // end for i
+ xo[6] = xo[5];
+ yo[6] = 0.0;
+ xi[6] = xi[5];
+ yi[6] = 0.0;
+ xbo[6] = xbo[5];
+ ybo[6] = 0.0;
+ xbi[6] = xbi[5];
+ ybi[6] = 0.0;
+ xco[6] = xco[5];
+ yco[6] = 0.0;
+ xci[6] = xci[5];
+ yci[6] = 0.0;
+ if(GetDebug()){
+ cout.precision(4);
+ cout.width(7);
+ cout <<"i \t xo yo \t xi yi \t xbo ybo \t xbi ybi "
+ "\t xco yco \t xci yxi"<<endl;
+ for(i=0;i<7;i++){
+ cout << i <<"\t"<<xo[i]<<","<<yo[i];
+ cout <<"\t"<<xi[i]<<","<<yi[i];
+ cout <<"\t"<<xbo[i]<<","<<ybo[i];
+ cout <<"\t"<<xbi[i]<<","<<ybi[i];
+ cout <<"\t"<<xco[i]<<","<<yco[i];
+ cout <<"\t"<<xci[i]<<","<<yci[i];
+ cout<<endl;}
+ } // end if GetDebug()
+ //+++++++++++++++++++++++++
+ A1->SetVertex(0,xo[0],yo[0]);
+ A1->SetVertex(1,xo[1],yo[1]);
+ A1->SetVertex(2,xi[1],yi[1]);
+ A1->SetVertex(3,xi[0],yi[0]);
+ //
+ A2->SetVertex(0,xo[1],yo[1]);
+ A2->SetVertex(1,xo[2],yo[2]);
+ A2->SetVertex(2,xi[2],yi[2]);
+ A2->SetVertex(3,xi[1],yi[1]);
+ //
+ A3->SetVertex(0,xo[5],yo[5]);
+ A3->SetVertex(1,xo[6],yo[6]);
+ A3->SetVertex(2,xi[6],yi[6]);
+ A3->SetVertex(3,xi[5],yi[5]);
+ //--------------------------
+ B1->SetVertex(0,xbo[0],ybo[0]);
+ B1->SetVertex(1,xbo[1],ybo[1]);
+ B1->SetVertex(2,xbi[1],ybi[1]);
+ B1->SetVertex(3,xbi[0],ybi[0]);
+ //
+ B2->SetVertex(0,xbo[1],ybo[1]);
+ B2->SetVertex(1,xbo[2],ybo[2]);
+ B2->SetVertex(2,xbi[2],ybi[2]);
+ B2->SetVertex(3,xbi[1],ybi[1]);
+ //
+ B3->SetVertex(0,xbo[5],ybo[5]);
+ B3->SetVertex(1,xbo[6],ybo[6]);
+ B3->SetVertex(2,xbi[6],ybi[6]);
+ B3->SetVertex(3,xbi[5],ybi[5]);
+ //--------------------------
+ C1->SetVertex(0,xco[0],yco[0]);
+ C1->SetVertex(1,xco[1],yco[1]);
+ C1->SetVertex(2,xci[1],yci[1]);
+ C1->SetVertex(3,xci[0],yci[0]);
+ //
+ C2->SetVertex(0,xco[1],yco[1]);
+ C2->SetVertex(1,xco[2],yco[2]);
+ C2->SetVertex(2,xci[2],yci[2]);
+ C2->SetVertex(3,xci[1],yci[1]);
+ //
+ C3->SetVertex(0,xco[5],yco[5]);
+ C3->SetVertex(1,xco[6],yco[6]);
+ C3->SetVertex(2,xci[6],yci[6]);
+ C3->SetVertex(3,xci[5],yci[5]);
+ // Defining the hole, filled with air
+ Double_t p1,c1,x,y,x7[3],y7[3];
+ p1 = (xo[0]-xi[0])/(yo[0]-yi[0]);
+ c1 = xo[0]+0.5*TSCarbonFiberThA*TMath::Sqrt(SQ(xo[0]-xi[0])+
+ SQ(yo[0]-yi[0]))/(xo[0]-xi[0]);
+ y = TSCRoutA-2.*TSCarbonFiberThA;
+ x = p1*(y-yo[0])+c1;
+ Ah1->SetVertex(0,x,y);
+ Bh1->SetVertex(0,x,y);
+ Ch1->SetVertex(4,x,y);
+ y = TSCRinA+TSCarbonFiberThA;
+ x = p1*(y-yo[0])+c1;
+ Ah1->SetVertex(3,x,y);
+ Bh1->SetVertex(3,x,y);
+ x7[0] = x; y7[0] = y; // vortexing done after last point
+ //Ch1->SetVertex(7,x,y);
+ p1 = (xo[1]-xi[1])/(yo[1]-yi[1]);
+ c1 = xo[1]-0.5*TSCarbonFiberThA*TMath::Sqrt(SQ(xo[1]-xi[1])+
+ SQ(yo[1]-yi[1]))/(xo[1]-xi[1]);
+ y = TSCRoutA-2.*TSCarbonFiberThA;
+ x = p1*(y-yo[1])+c1;
+ Ah1->SetVertex(1,x,y);
+ Bh1->SetVertex(1,x,y);
+ Ch1->SetVertex(5,x,y);
+ y = TSCRinA+TSCarbonFiberThA;
+ x = p1*(y-yo[1])+c1;
+ Ah1->SetVertex(2,x,y);
+ Bh1->SetVertex(2,x,y);
+ Ch1->SetVertex(6,x,y);
+ //
+ // The easist way to get the points for the hole in volume A2 is to
+ // rotate it to the Y axis where the y coordinates are easier to know
+ // and then rotate it back.
+ Double_t xp,yp,xa,ya,xb,yb;
+ th = 0.5*TSCAngle*kRadian;
+ xa = TMath::Cos(th)*xo[1]-TMath::Sin(th)*yo[1];
+ ya = TMath::Sin(th)*xo[1]+TMath::Cos(th)*yo[1];
+ xb = TMath::Cos(th)*xi[1]-TMath::Sin(th)*yi[1];
+ yb = TMath::Sin(th)*xi[1]+TMath::Cos(th)*yi[1];
+ p1 = (xa-xb)/(ya-yb);
+ c1 = xa+0.5*TSCarbonFiberThA*TMath::Sqrt(SQ(xa-xb)+SQ(ya-yb))/(xa-xb);
+ y = ya-TSCarbonFiberThA;
+ x = p1*(y-ya)+c1;
+ xp = TMath::Cos(-th)*x-TMath::Sin(-th)*y;
+ yp = TMath::Sin(-th)*x+TMath::Cos(-th)*y;
+ Ah2->SetVertex(0,xp,yp);
+ Bh2->SetVertex(0,xp,yp);
+ Ch2->SetVertex(4,xp,yp);
+ y = yb+2.0*TSCarbonFiberThA;
+ x = p1*(y-ya)+c1;
+ xp = TMath::Cos(-th)*x-TMath::Sin(-th)*y;
+ yp = TMath::Sin(-th)*x+TMath::Cos(-th)*y;
+ Ah2->SetVertex(3,xp,yp);
+ Bh2->SetVertex(3,xp,yp);
+ x7[1] = x; y7[1] = y; // vortexing done after last point
+ //Ch2->SetVertex(7,xp,yp);
+ xa = TMath::Cos(th)*xo[2]-TMath::Sin(th)*yo[2];
+ ya = TMath::Sin(th)*xo[2]+TMath::Cos(th)*yo[2];
+ xb = TMath::Cos(th)*xi[2]-TMath::Sin(th)*yi[2];
+ yb = TMath::Sin(th)*xi[2]+TMath::Cos(th)*yi[2];
+ p1 = (xa-xb)/(ya-yb);
+ c1 = xa-0.5*TSCarbonFiberThA*TMath::Sqrt(SQ(xa-xb)+SQ(ya-yb))/(xa-xb);
+ y = ya-TSCarbonFiberThA;
+ x = p1*(y-ya)+c1;
+ xp = TMath::Cos(-th)*x-TMath::Sin(-th)*y;
+ yp = TMath::Sin(-th)*x+TMath::Cos(-th)*y;
+ Ah2->SetVertex(1,xp,yp);
+ Bh2->SetVertex(1,xp,yp);
+ Ch2->SetVertex(5,xp,yp);
+ y = yb+2.0*TSCarbonFiberThA;
+ x = p1*(y-ya)+c1;
+ xp = TMath::Cos(-th)*x-TMath::Sin(-th)*y;
+ yp = TMath::Sin(-th)*x+TMath::Cos(-th)*y;
+ Ah2->SetVertex(2,xp,yp);
+ Bh2->SetVertex(2,xp,yp);
+ Ch2->SetVertex(6,xp,yp);
+ //
+ p1 = (yo[5]-yi[5])/(xo[5]-xi[5]);
+ c1 = yo[5]+0.5*TSCarbonFiberThA*TMath::Sqrt(SQ(yo[5]-yi[5])+
+ SQ(xo[5]-xi[5]))/(yo[5]-yi[5]);
+ x = xo[5]-TSCarbonFiberThA;
+ y = p1*(x-xo[5])+c1;
+ Ah3->SetVertex(0,x,y);
+ Bh3->SetVertex(0,x,y);
+ Ch3->SetVertex(4,x,y);
+ x = xi[5]+2.0*TSCarbonFiberThA;
+ y = p1*(x-xo[5])+c1;
+ Ah3->SetVertex(3,x,y);
+ Bh3->SetVertex(3,x,y);
+ x7[2] = x; y7[2] = y; // vortexing done after last point
+ //Ch3->SetVertex(7,x,y);
+ y = 2.0*TSCarbonFiberThA;
+ x = xo[5]-TSCarbonFiberThA;
+ Ah3->SetVertex(1,x,y);
+ Bh3->SetVertex(1,x,y);
+ Ch3->SetVertex(5,x,y);
+ y = 2.0*TSCarbonFiberThA;
+ x = xi[5]+2.0*TSCarbonFiberThA;
+ Ah3->SetVertex(2,x,y);
+ Bh3->SetVertex(2,x,y);
+ Ch3->SetVertex(6,x,y);
+ //
+ for(i=0;i<4;i++){ // define points at +dz
+ A1->SetVertex(i+4,(A1->GetVertices())[2*i],(A1->GetVertices())[1+2*i]);
+ A2->SetVertex(i+4,(A2->GetVertices())[2*i],(A2->GetVertices())[1+2*i]);
+ A3->SetVertex(i+4,(A3->GetVertices())[2*i],(A3->GetVertices())[1+2*i]);
+ //
+ B1->SetVertex(i+4,(B1->GetVertices())[2*i],(B1->GetVertices())[1+2*i]);
+ B2->SetVertex(i+4,(B2->GetVertices())[2*i],(B2->GetVertices())[1+2*i]);
+ B3->SetVertex(i+4,(B3->GetVertices())[2*i],(B3->GetVertices())[1+2*i]);
+ // C's are a cone which must match up with B's.
+ C1->SetVertex(i+4,(B1->GetVertices())[2*i],(B1->GetVertices())[1+2*i]);
+ C2->SetVertex(i+4,(B2->GetVertices())[2*i],(B2->GetVertices())[1+2*i]);
+ C3->SetVertex(i+4,(B3->GetVertices())[2*i],(B3->GetVertices())[1+2*i]);
+ //
+ Ah1->SetVertex(i+4,(Ah1->GetVertices())[2*i],
+ (Ah1->GetVertices())[1+2*i]);
+ Ah2->SetVertex(i+4,(Ah2->GetVertices())[2*i],
+ (Ah2->GetVertices())[1+2*i]);
+ Ah3->SetVertex(i+4,(Ah3->GetVertices())[2*i],
+ (Ah3->GetVertices())[1+2*i]);
+ //
+ Bh1->SetVertex(i+4,(Bh1->GetVertices())[2*i],
+ (Bh1->GetVertices())[1+2*i]);
+ Bh2->SetVertex(i+4,(Bh2->GetVertices())[2*i],
+ (Bh2->GetVertices())[1+2*i]);
+ Bh3->SetVertex(i+4,(Bh3->GetVertices())[2*i],
+ (Bh3->GetVertices())[1+2*i]);
+ } // end for
+ //
+ p1 = (xco[0]-xci[0])/(yco[0]-yci[0]);
+ c1 = xco[0]+0.5*TSCarbonFiberThA*TMath::Sqrt(SQ(xco[0]-xci[0])+
+ SQ(yco[0]-yci[0]))/(xco[0]-xci[0]);
+ y = TSCRoutC-2.*TSCarbonFiberThA;
+ x = p1*(y-yco[0])+c1;
+ Ch1->SetVertex(0,x,y);
+ y = TSCRinC+TSCarbonFiberThA;
+ x = p1*(y-yci[0])+c1;
+ Ch1->SetVertex(2,x,y);
+ p1 = (xco[1]-xci[1])/(yco[1]-yci[1]);
+ c1 = xco[1]-0.5*TSCarbonFiberThA*TMath::Sqrt(SQ(xco[1]-xci[1])+
+ SQ(yco[1]-yci[1]))/(xco[1]-xci[1]);
+ y = TSCRoutC-2.*TSCarbonFiberThA;
+ x = p1*(y-yco[1])+c1;
+ Ch1->SetVertex(1,x,y);
+ y = TSCRinC+TSCarbonFiberThA;
+ x = p1*(y-yci[1])+c1;
+ Ch1->SetVertex(3,x,y);
+ //
+ th = 0.5*TSCAngle*kRadian;
+ xa = TMath::Cos(th)*xco[1]-TMath::Sin(th)*yco[1];
+ ya = TMath::Sin(th)*xco[1]+TMath::Cos(th)*yco[1];
+ xb = TMath::Cos(th)*xci[1]-TMath::Sin(th)*yci[1];
+ yb = TMath::Sin(th)*xci[1]+TMath::Cos(th)*yci[1];
+ p1 = (xa-xb)/(ya-yb);
+ c1 = xa+0.5*TSCarbonFiberThA*TMath::Sqrt(SQ(xa-xb)+SQ(ya-yb))/(xa-xb);
+ y = ya-TSCarbonFiberThA;
+ x = p1*(y-ya)+c1;
+ xp = TMath::Cos(-th)*x-TMath::Sin(-th)*y;
+ yp = TMath::Sin(-th)*x+TMath::Cos(-th)*y;
+ yp = ya-TSCarbonFiberThA;
+ xp = p1*(y-ya)+c1;
+ Ch2->SetVertex(0,xp,yp);
+ y = yb+2.0*TSCarbonFiberThA;
+ x = p1*(y-ya)+c1;
+ xp = TMath::Cos(-th)*x-TMath::Sin(-th)*y;
+ yp = TMath::Sin(-th)*x+TMath::Cos(-th)*y;
+ Ch2->SetVertex(2,xp,yp);
+ xa = TMath::Cos(th)*xco[2]-TMath::Sin(th)*yco[2];
+ ya = TMath::Sin(th)*xco[2]+TMath::Cos(th)*yco[2];
+ xb = TMath::Cos(th)*xci[2]-TMath::Sin(th)*yci[2];
+ yb = TMath::Sin(th)*xci[2]+TMath::Cos(th)*yci[2];
+ p1 = (xa-xb)/(ya-yb);
+ c1 = xa-0.5*TSCarbonFiberThA*TMath::Sqrt(SQ(xa-xb)+SQ(ya-yb))/(xa-xb);
+ y = ya-TSCarbonFiberThA;
+ x = p1*(y-ya)+c1;
+ xp = TMath::Cos(-th)*x-TMath::Sin(-th)*y;
+ yp = TMath::Sin(-th)*x+TMath::Cos(-th)*y;
+ Ch2->SetVertex(1,xp,yp);
+ y = yb+2.0*TSCarbonFiberThA;
+ x = p1*(y-ya)+c1;
+ xp = TMath::Cos(-th)*x-TMath::Sin(-th)*y;
+ yp = TMath::Sin(-th)*x+TMath::Cos(-th)*y;
+ Ch2->SetVertex(3,xp,yp);
+ //
+ p1 = (yco[5]-yci[5])/(xco[5]-xci[5]);
+ c1 = yco[5]+0.5*TSCarbonFiberThA*TMath::Sqrt(SQ(yco[5]-yci[5])+
+ SQ(xco[5]-xci[5]))/(yco[5]-yci[5]);
+ x = xco[5]-TSCarbonFiberThA;
+ y = p1*(x-xco[5])+c1;
+ Ch3->SetVertex(0,x,y);
+ x = xci[5]+2.0*TSCarbonFiberThA;
+ y = p1*(x-xci[5])+c1;
+ Ch3->SetVertex(2,x,y);
+ y = 2.0*TSCarbonFiberThA;
+ x = xco[5]-TSCarbonFiberThA;
+ Ch3->SetVertex(1,x,y);
+ y = 2.0*TSCarbonFiberThA;
+ x = xci[5]+2.0*TSCarbonFiberThA;
+ Ch3->SetVertex(3,x,y);
+ Ch1->SetVertex(7,x7[0],y7[0]); // 7th point most be done last ???
+ Ch2->SetVertex(7,x7[1],y7[1]); // 7th point most be done last ???
+ Ch3->SetVertex(7,x7[2],y7[2]); // 7th point most be done last ???
+ printArb8(A1);
+ printArb8(Ah1);
+ printArb8(A2);
+ printArb8(Ah2);
+ printArb8(A3);
+ printArb8(Ah3);
+ printArb8(B1);
+ printArb8(Bh1);
+ printArb8(B2);
+ printArb8(Bh2);
+ printArb8(B3);
+ printArb8(Bh3);
+ printArb8(C1);
+ printArb8(Ch1);
+ printArb8(C2);
+ printArb8(Ch2);
+ printArb8(C3);
+ printArb8(Ch3);
+ //
+ // Define Minimal volume to inclose this SPD Thermal Sheald.
+ M1 = new TGeoPcon("ITSspdShealdVV",0.0,360.0,9);
+ M1->Z(0) = 0.5*TSCLengthA+TSCLengthB;
+ M1->Rmin(0) = TSCRinB;
+ x = B1->GetVertices()[0]; // [0][0]
+ y = B1->GetVertices()[1]; // [0][1]
+ M1->Rmax(0) = TMath::Sqrt(x*x+y*y);
+ M1->Z(1) = M1->GetZ(0)-TSCLengthB;
+ M1->Rmin(1) = M1->GetRmin(0);
+ M1->Rmax(1) = M1->GetRmax(0);
+ M1->Z(2) = M1->GetZ(1);
+ M1->Rmin(2) = TSCRinA;
+ x = A1->GetVertices()[0]; // [0]0]
+ y = A1->GetVertices()[1]; // [0][1]
+ M1->Rmax(2) = TMath::Sqrt(x*x+y*y);
+ M1->Z(3) = -(M1->GetZ(0)-TSCLengthB);
+ M1->Rmin(3) = M1->GetRmin(2);
+ M1->Rmax(3) = M1->GetRmax(2);
+ M1->Z(4) = M1->GetZ(3);
+ M1->Rmin(4) = M1->GetRmin(1);
+ M1->Rmax(4) = M1->GetRmax(1);
+ M1->Z(5) = -(M1->GetZ(0));
+ M1->Rmin(5) = M1->GetRmin(0);
+ M1->Rmax(5) = M1->GetRmax(0);
+ M1->Z(6) = M1->GetZ(5) - TSCLengthC;
+ M1->Rmin(6) = TSCRinC;
+ x = C1->GetVertices()[0]; // [0][0]
+ y = C1->GetVertices()[1]; // [0][1]
+ M1->Rmax(6) = TMath::Sqrt(x*x+y*y);
+ M1->Z(7) = M1->GetZ(6);
+ M1->Rmin(7) = D->GetRmin();
+ M1->Rmax(7) = D->GetRmax();
+ M1->Z(8) = M1->Z(7) - TSCLengthD;
+ M1->Rmin(8) = M1->GetRmin(7);
+ M1->Rmax(8) = M1->GetRmax(7);
+ M2 = new TGeoTubeSeg("ITSspdShealdWingVV",
+ M1->GetRmax(8),Dw->GetRmax(),Dw->GetDz(),Dw->GetPhi1(),Dw->GetPhi2());
+ printTubeSeg(M2);
+ //
+ x = 0.5*(M1->GetZ(8) + M1->GetZ(7));
+ tranITSspdShealdVVt0 = new TGeoTranslation("ITSspdShealdVVt0",0.0,0.0,x);
+ tranITSspdShealdVVt0->RegisterYourself();
+ TGeoRotation rotz90("",0.0,0.0,90.0); // never registered.
+ rotITSspdShealdVVt1 = new TGeoCombiTrans(*tranITSspdShealdVVt0,rotz90);
+ rotITSspdShealdVVt1->SetName("ITSspdShealdVVt1");
+ rotITSspdShealdVVt1->RegisterYourself();
+ TGeoRotation rotz180("",0.0,0.0,180.0); // never registered
+ rotITSspdShealdVVt2 = new TGeoCombiTrans(*tranITSspdShealdVVt0,rotz180);
+ rotITSspdShealdVVt2->SetName("ITSspdShealdVVt2");
+ rotITSspdShealdVVt2->RegisterYourself();
+ TGeoRotation rotz270("",0.0,0.0,270.0); // never registered
+ rotITSspdShealdVVt3 = new TGeoCombiTrans(*tranITSspdShealdVVt0,rotz270);
+ rotITSspdShealdVVt3->SetName("ITSspdShealdVVt3");
+ rotITSspdShealdVVt3->RegisterYourself();
+ M = new TGeoCompositeShape("ITS SPD Thermal sheald volume",
+ "(((ITSspdShealdVV+"
+ "ITSspdShealdWingVV:ITSspdShealdVVt0)+"
+ "ITSspdShealdWingVV:ITSspdShealdVVt1)+"
+ "ITSspdShealdWingVV:ITSspdShealdVVt2)+"
+ "ITSspdShealdWingVV:ITSspdShealdVVt3");
+ //
+ TGeoManager *mgr = gGeoManager;
+ SPDcf = mgr->GetMedium("ITSspdCarbonFiber");
+ SPDfs = mgr->GetMedium("ITSspdStaselite4411w");
+ SPDfo = mgr->GetMedium("ITSspdRohacell50A");
+ SPDss = mgr->GetMedium("ITSspdStainlessSteal");
+ SPDair= mgr->GetMedium("ITSspdAir");
+ TGeoVolume *A1v,*A2v,*A3v,*Ah1v,*Ah2v,*Ah3v;
+ TGeoVolume *B1v,*B2v,*B3v,*Bh1v,*Bh2v,*Bh3v;
+ TGeoVolume *C1v,*C2v,*C3v,*Ch1v,*Ch2v,*Ch3v;
+ TGeoVolume *Dv,*Dsv,*Dwv,*Dwsv,*Mv;
+ Mv = new TGeoVolume("ITSspdThermalSheald",M,SPDair);
+ Mv->SetVisibility(kTRUE);
+ Mv->SetLineColor(7); // light Blue
+ Mv->SetLineWidth(1);
+ Mv->SetFillColor(Mv->GetLineColor());
+ Mv->SetFillStyle(4090); // 90% transparent
+ Moth->AddNode(Mv,1,0); ///////////////////// Virtual Volume ////////
+ A1v = new TGeoVolume("ITSspdCentCylA1CF",A1,SPDcf);
+ A1v->SetVisibility(kTRUE);
+ A1v->SetLineColor(4);
+ A1v->SetLineWidth(1);
+ A2v = new TGeoVolume("ITSspdCentCylA2CF",A2,SPDcf);
+ A2v->SetVisibility(kTRUE);
+ A2v->SetLineColor(4);
+ A2v->SetLineWidth(1);
+ A3v = new TGeoVolume("ITSspdCentCylA3CF",A3,SPDcf);
+ A3v->SetVisibility(kTRUE);
+ A3v->SetLineColor(4);
+ A3v->SetLineWidth(1);
+ B1v = new TGeoVolume("ITSspdCentCylB1CF",B1,SPDcf);
+ B1v->SetVisibility(kTRUE);
+ B1v->SetLineColor(4);
+ B1v->SetLineWidth(1);
+ B2v = new TGeoVolume("ITSspdCentCylB2CF",B2,SPDcf);
+ B2v->SetVisibility(kTRUE);
+ B2v->SetLineColor(4);
+ B2v->SetLineWidth(1);
+ B3v = new TGeoVolume("ITSspdCentCylB3CF",B3,SPDcf);
+ B3v->SetVisibility(kTRUE);
+ B3v->SetLineColor(4);
+ B3v->SetLineWidth(1);
+ C1v = new TGeoVolume("ITSspdCentCylC1CF",C1,SPDcf);
+ C1v->SetVisibility(kTRUE);
+ C1v->SetLineColor(4);
+ C1v->SetLineWidth(1);
+ C2v = new TGeoVolume("ITSspdCentCylC2CF",C2,SPDcf);
+ C2v->SetVisibility(kTRUE);
+ C2v->SetLineColor(4);
+ C2v->SetLineWidth(1);
+ C3v = new TGeoVolume("ITSspdCentCylC3CF",C3,SPDcf);
+ C3v->SetVisibility(kTRUE);
+ C3v->SetLineColor(4);
+ C3v->SetLineWidth(1);
+ Ah1v = new TGeoVolume("ITSspdCentCylA1AirA",Ah1,SPDair);
+ Ah1v->SetVisibility(kTRUE);
+ Ah1v->SetLineColor(5); // Yellow
+ Ah1v->SetFillColor(Ah1v->GetLineColor());
+ Ah1v->SetFillStyle(4090); // 90% transparent
+ Ah2v = new TGeoVolume("ITSspdCentCylA2AirA",Ah2,SPDair);
+ Ah2v->SetVisibility(kTRUE);
+ Ah2v->SetLineColor(5); // Yellow
+ Ah2v->SetFillColor(Ah2v->GetLineColor());
+ Ah2v->SetFillStyle(4090); // 90% transparent
+ Ah3v = new TGeoVolume("ITSspdCentCylA3AirA",Ah3,SPDair);
+ Ah3v->SetVisibility(kTRUE);
+ Ah3v->SetLineColor(5); // Yellow
+ Ah3v->SetFillColor(Ah3v->GetLineColor());
+ Ah3v->SetFillStyle(4090); // 90% transparent
+ Bh1v = new TGeoVolume("ITSspdCentCylA1AirB",Bh1,SPDair);
+ Bh1v->SetVisibility(kTRUE);
+ Bh1v->SetLineColor(5); // Yellow
+ Bh1v->SetFillColor(Bh1v->GetLineColor());
+ Bh1v->SetFillStyle(4090); // 90% transparent
+ Bh2v = new TGeoVolume("ITSspdCentCylA2AirB",Bh2,SPDair);
+ Bh2v->SetVisibility(kTRUE);
+ Bh2v->SetLineColor(5); // Yellow
+ Bh2v->SetFillColor(Bh2v->GetLineColor());
+ Bh2v->SetFillStyle(4090); // 90% transparent
+ Bh3v = new TGeoVolume("ITSspdCentCylA3AirB",Bh3,SPDair);
+ Bh3v->SetVisibility(kTRUE);
+ Bh3v->SetLineColor(5); // Yellow
+ Bh3v->SetFillColor(Bh3v->GetLineColor());
+ Bh3v->SetFillStyle(4090); // 90% transparent
+ Ch1v = new TGeoVolume("ITSspdCentCylA1AirC",Ch1,SPDair);
+ Ch1v->SetVisibility(kTRUE);
+ Ch1v->SetLineColor(5); // Yellow
+ Ch1v->SetFillColor(Ch1v->GetLineColor());
+ Ch1v->SetFillStyle(4090); // 90% transparent
+ Ch2v = new TGeoVolume("ITSspdCentCylA2AirC",Ch2,SPDair);
+ Ch2v->SetVisibility(kTRUE);
+ Ch2v->SetLineColor(5); // Yellow
+ Ch2v->SetFillColor(Ch2v->GetLineColor());
+ Ch2v->SetFillStyle(4090); // 90% transparent
+ Ch3v = new TGeoVolume("ITSspdCentCylA3AirC",Ch3,SPDair);
+ Ch3v->SetVisibility(kTRUE);
+ Ch3v->SetLineColor(5); // Yellow
+ Ch3v->SetFillColor(Ch3v->GetLineColor());
+ Ch3v->SetFillStyle(4090); // 90% transparent
+ Dv = new TGeoVolume("ITSspdCentCylA1CD",D,SPDcf);
+ Dv->SetVisibility(kTRUE);
+ Dv->SetLineColor(4);
+ Dv->SetLineWidth(1);
+ Dwv = new TGeoVolume("ITSspdCentCylA1CDw",Dw,SPDcf);
+ Dwv->SetVisibility(kTRUE);
+ Dwv->SetLineColor(4);
+ Dwv->SetLineWidth(1);
+ Dsv = new TGeoVolume("ITSspdCentCylA1Dfill",Ds,SPDfs);
+ Dsv->SetVisibility(kTRUE);
+ Dsv->SetLineColor(3); // Green
+ Dsv->SetFillColor(Dsv->GetLineColor());
+ Dsv->SetFillStyle(4010); // 10% transparent
+ Dwsv = new TGeoVolume("ITSspdCentCylA1DwingFill",Dws,SPDfs);
+ Dwsv->SetVisibility(kTRUE);
+ Dwsv->SetLineColor(3); // Green
+ Dwsv->SetFillColor(Dwsv->GetLineColor());
+ Dwsv->SetFillStyle(4010); // 10% transparent
+ //
+ A1v->AddNode(Ah1v,1,0);
+ A2v->AddNode(Ah2v,1,0);
+ A3v->AddNode(Ah3v,1,0);
+ B1v->AddNode(Bh1v,1,0);
+ B2v->AddNode(Bh2v,1,0);
+ B3v->AddNode(Bh3v,1,0);
+ C1v->AddNode(Ch1v,1,0);
+ C2v->AddNode(Ch2v,1,0);
+ C3v->AddNode(Ch3v,1,0);
+ Dv ->AddNode(Dsv ,1,0);
+ Dwv->AddNode(Dwsv,1,0);
+ //
+ Mv->AddNode(A1v,1,0);
+ Mv->AddNode(A2v,1,0);
+ Mv->AddNode(A3v,1,0);
+ tranb = new TGeoTranslation("",0.0,0.0,0.5*(TSCLengthA+TSCLengthB));
+ tranbm = new TGeoTranslation("",0.0,0.0,0.5*(-TSCLengthA-TSCLengthB));
+ Mv->AddNode(B1v,1,tranb);
+ Mv->AddNode(B2v,1,tranb);
+ Mv->AddNode(B3v,1,tranb);
+ Mv->AddNode(B1v,2,tranbm);
+ Mv->AddNode(B2v,2,tranbm);
+ Mv->AddNode(B3v,2,tranbm);
+ // Muon side (rb26) is at -Z.
+ tranc = new TGeoTranslation("",0.0,0.0,
+ 0.5*(-TSCLengthA-TSCLengthB-TSCLengthC));
+ Mv->AddNode(C1v,1,tranc);
+ Mv->AddNode(C2v,1,tranc);
+ Mv->AddNode(C3v,1,tranc);
+ Mv->AddNode(Dv,1,tranITSspdShealdVVt0);
+ Mv->AddNode(Dwv,1,tranITSspdShealdVVt0);
+ Mv->AddNode(Dwv,2,rotITSspdShealdVVt1);
+ Mv->AddNode(Dwv,3,rotITSspdShealdVVt2);
+ Mv->AddNode(Dwv,4,rotITSspdShealdVVt3);
+ k=2;
+ for(i=1;i<10;i++) {
+ th = ((Double_t)i)*TSCAngle*kDegree;
+ rot = new TGeoRotation("",0.0,0.0,th);
+ Mv->AddNode(A1v,i+1,rot);
+ Mv->AddNode(B1v,i+2,new TGeoCombiTrans(*tranb,*rot));
+ Mv->AddNode(B1v,i+12,new TGeoCombiTrans(*tranbm,*rot));
+ Mv->AddNode(C1v,i+1,new TGeoCombiTrans(*tranc,*rot));
+ if(i!=0||i!=2||i!=7){
+ Mv->AddNode(A2v,k++,rot);
+ Mv->AddNode(B2v,k++,new TGeoCombiTrans(*tranb,*rot));
+ Mv->AddNode(B2v,k++,new TGeoCombiTrans(*tranbm,*rot));
+ Mv->AddNode(C2v,k++,new TGeoCombiTrans(*tranc,*rot));
+ } // end if
+ if(i==5) {
+ Mv->AddNode(A3v,2,rot);
+ Mv->AddNode(B3v,3,new TGeoCombiTrans(*tranb,*rot));
+ Mv->AddNode(B3v,4,new TGeoCombiTrans(*tranbm,*rot));
+ Mv->AddNode(C3v,2,new TGeoCombiTrans(*tranc,*rot));
+ } // end if
+ } // end for i
+ rot = new TGeoRotation("",180.,0.0,0.0);
+ Mv->AddNode(A3v,3,rot);
+ Mv->AddNode(B3v,5,new TGeoCombiTrans(*tranb,*rot));
+ Mv->AddNode(B3v,6,new TGeoCombiTrans(*tranbm,*rot));
+ Mv->AddNode(C3v,3,new TGeoCombiTrans(*tranc,*rot));
+ rot = new TGeoRotation("",180.,0.0,180.0);
+ Mv->AddNode(A3v,4,rot);
+ Mv->AddNode(B3v,7,new TGeoCombiTrans(*tranb,*rot));
+ Mv->AddNode(B3v,8,new TGeoCombiTrans(*tranbm,*rot));
+ Mv->AddNode(C3v,4,new TGeoCombiTrans(*tranc,*rot));
+ if(GetDebug()){
+ A1v->PrintNodes();
+ Ah1v->PrintNodes();
+ A2v->PrintNodes();
+ Ah2v->PrintNodes();
+ A3v->PrintNodes();
+ Ah3v->PrintNodes();
+ B1v->PrintNodes();
+ Bh1v->PrintNodes();
+ B2v->PrintNodes();
+ Bh2v->PrintNodes();
+ B3v->PrintNodes();
+ Bh3v->PrintNodes();
+ C1v->PrintNodes();
+ Ch1v->PrintNodes();
+ C2v->PrintNodes();
+ Ch2v->PrintNodes();
+ C3v->PrintNodes();
+ Ch3v->PrintNodes();
+ Dv->PrintNodes();
+ Dsv->PrintNodes();
+ Dwv->PrintNodes();
+ Dwsv->PrintNodes();
+ //Mv->PrintNodes();
} // end if
- return A[z-1];
-}
-//______________________________________________________________________
-Float_t AliITSv11::GetStandardMaxStepSize(Int_t istd){
- // Returns one of a set of standard Maximum Step Size values.
- // Inputs:
- // Int_t istd Index to indecate which standard.
- // Outputs:
- // none.
- // Return:
- // The appropreate standard Maximum Step Size value [cm].
- Float_t t[]={1.0, // default
- 0.0075, // Silicon detectors...
- 1.0, // Air in central detectors region
- 1.0 // Material in non-centeral region
- };
- return t[istd];
-}
-//______________________________________________________________________
-Float_t AliITSv11::GetStandardThetaMax(Int_t istd){
- // Returns one of a set of standard Theata Max values.
- // Inputs:
- // Int_t istd Index to indecate which standard.
- // Outputs:
- // none.
- // Return:
- // The appropreate standard Theta max value [degrees].
- Float_t t[]={0.1, // default
- 0.1, // Silicon detectors...
- 0.1, // Air in central detectors region
- 1.0 // Material in non-centeral region
- };
- return t[istd];
}
//______________________________________________________________________
-Float_t AliITSv11::GetStandardEfraction(Int_t istd){
- // Returns one of a set of standard E fraction values.
+void AliITSv11::SDDCone(TGeoVolume *Moth){
+ // Define the detail SDD support cone geometry.
// Inputs:
- // Int_t istd Index to indecate which standard.
+ // none.
// Outputs:
- // none.
- // Return:
- // The appropreate standard E fraction value [#].
- Float_t t[]={0.1, // default
- 0.1, // Silicon detectors...
- 0.1, // Air in central detectors region
- 1.0 // Material in non-centeral region
- };
- return t[istd];
-}
-//______________________________________________________________________
-void AliITSv11::Element(Int_t imat,const char* name,Int_t z,Double_t dens,
- Int_t istd){
- // Defines a Geant single element material and sets its Geant medium
- // proporties. The average atomic A is assumed to be given by their
- // natural abundances. Things like the radiation length are calculated
- // for you.
- // Inputs:
- // Int_t imat Material number.
- // const char* name Material name. No need to add a $ at the end.
- // Int_t z The elemental number.
- // Double_t dens The density of the material [g/cm^3].
- // Int_t istd Defines which standard set of transport parameters
- // which should be used.
- // Output:
- // none.
+ // none.
// Return:
- // none.
- Float_t rad,Z,A=GetA(z),tmax,stemax,deemax,epsilon;
- char *name2;
- Int_t len;
-
- len = strlng(name)+1;
- name2 = new char[len];
- strncpy(name2,name,len-1);
- name2[len-1] = '\0';
- name2[len-2] = '$';
- Z = (Float_t)z;
- rad = GetRadLength(z)/dens;
- AliMaterial(imat,name2,A,Z,dens,rad,0.0,0,0);
- tmax = GetStandardTheataMax(istd); // degree
- stemax = GetStandardMaxStepSize(istd); // cm
- deemax = GetStandardEfraction(istd); // #
- epsilon = GetStandardEpsilon(istd);
- AliMedium(imat,name2,imat,0,gAlice->Field()->Integ(),
- gAlice->Field()->Max(),tmax,stemax,deemax,epsilon,0.0);
- delete[] name2;
-}
-//______________________________________________________________________
-void AliITSv11::MixtureByWeight(Int_t imat,const char* name,Int_t *z,
- Double_t *w,Double_t dens,Int_t n,Int_t istd){
- // Defines a Geant material by a set of elements and weights, and sets
- // its Geant medium proporties. The average atomic A is assumed to be
- // given by their natural abundances. Things like the radiation length
- // are calculated for you.
- // Inputs:
- // Int_t imat Material number.
- // const char* name Material name. No need to add a $ at the end.
- // Int_t *z Array of The elemental numbers.
- // Double_t *w Array of relative weights.
- // Double_t dens The density of the material [g/cm^3].
- // Int_t n the number of elements making up the mixture.
- // Int_t istd Defines which standard set of transport parameters
- // which should be used.
- // Output:
- // none.
- // Return:
- // none.
- Float_t rad,*Z,*A,tmax,stemax,deemax,epsilon;
- char *name2;
- Int_t len,i;
- Z = new Float_t[n];
- A = new Float_t[n];
+ // none.
+ //
+ // From Cilindro Centrale - Lavorazioni, ALR 0816/1 04/08/03 File
+ // name SDD/Cilindro.hpgl
+ const Double_t TSLength = 790.0*kmm; // Thermal Sheeld length
+ const Double_t TSInsertoLength= 15.0*kmm; // ????
+ const Double_t TSOuterR = 0.5*(220.+10.)*kmm; // ????
+ const Double_t TSInnerR = 0.5*(220.-10.)*kmm; // ????
+ const Double_t TSCarbonFiberth= 0.02*kmm; // ????
+ const Double_t TSBoltDiameter = 6.0*kmm; // M6 screw
+ const Double_t TSBoltDepth = 6.0*kmm; // in volume C
+ const Double_t TSBoltRadius = 0.5*220.*kmm; // Radius in volume C
+ const Double_t TSBoltAngle0 = 0.0*kDegree; // Angle in volume C
+ const Double_t TSBoltdAngle = 30.0*kDegree; // Angle in Volume C
+ Double_t x,y,z,t,t0;
+ Int_t i,n;
+ TGeoTube *A,*B,*C,*D;
+ TGeoTranslation *tran;
+ TGeoRotation *rot;
+ TGeoCombiTrans *rotran;
+ TGeoMedium *SDDcf,*SDDfs,*SDDfo,*SDDss;
- len = strlng(name)+1;
- name2 = new char[len];
- strncpy(name2,name,len-1);
- name2[len-1] = '\0';
- name2[len-2] = '$';
- for(i=0;i<n;i++){Z[i] = (Float_t)z[i];A[i] = (Float_t)GetA(z[i]);
- W[i] = (Float_t)w[i]}
- rad = GetRadLength(z)/dens;
- AliMixture(imat,name2,A,Z,dens,n,W);
- tmax = GetStandardTheataMax(istd); // degree
- stemax = GetStandardMaxStepSize(istd); // cm
- deemax = GetStandardEfraction(istd); // #
- epsilon = GetStandardEpsilon(istd);
- AliMedium(imat,name2,imat,0,gAlice->Field()->Integ(),
- gAlice->Field()->Max(),tmax,stemax,deemax,epsilon,0.0);
- delete[] name2;
+ A = new TGeoTube("ITS SDD Central Cylinder",TSInnerR,TSOuterR,.5*TSLength);
+ B = new TGeoTube("ITS SDD CC Foam",TSInnerR+TSCarbonFiberth,
+ TSOuterR-TSCarbonFiberth,
+ 0.5*(TSLength-2.0*TSInsertoLength));
+ C = new TGeoTube("ITS SDD CC Inserto",TSInnerR+TSCarbonFiberth,
+ TSOuterR-TSCarbonFiberth,0.5*TSLength);
+ D = new TGeoTube("ITS SDD CC M6 bolt end",0.0,0.5*TSBoltDiameter,
+ 0.5*TSBoltDepth);
+ printTube(A);
+ printTube(B);
+ printTube(C);
+ printTube(D);
+ //
+ TGeoManager *mgr = gGeoManager;
+ SDDcf = mgr->GetMedium("ITSssdCarbonFiber");
+ SDDfs = mgr->GetMedium("ITSssdStaselite4411w");
+ SDDfo = mgr->GetMedium("ITSssdRohacell50A");
+ SDDss = mgr->GetMedium("ITSssdStainlessSteal");
+ TGeoVolume *Av,*Bv,*Cv,*Dv;
+ Av = new TGeoVolume("ITSsddCentCylCF",A,SDDcf);
+ Av->SetVisibility(kTRUE);
+ Av->SetLineColor(4);
+ Av->SetLineWidth(1);
+ Av->SetFillColor(Av->GetLineColor());
+ Av->SetFillStyle(4000); // 0% transparent
+ Bv = new TGeoVolume("ITSsddCentCylF",B,SDDfo);
+ Bv->SetVisibility(kTRUE);
+ Bv->SetLineColor(3);
+ Bv->SetLineWidth(1);
+ Bv->SetFillColor(Bv->GetLineColor());
+ Bv->SetFillStyle(4000); // 0% transparent
+ Cv = new TGeoVolume("ITSsddCentCylSt",C,SDDfs);
+ Cv->SetVisibility(kTRUE);
+ Cv->SetLineColor(2);
+ Cv->SetLineWidth(1);
+ Cv->SetFillColor(Cv->GetLineColor());
+ Cv->SetFillStyle(4000); // 0% transparent
+ Dv = new TGeoVolume("ITSsddCentCylSS",D,SDDss);
+ Dv->SetVisibility(kTRUE);
+ Dv->SetLineColor(1);
+ Dv->SetLineWidth(1);
+ Dv->SetFillColor(Dv->GetLineColor());
+ Dv->SetFillStyle(4000); // 0% transparent
+ //
+ Moth->AddNode(Av,1,0);
+ Av->AddNode(Cv,1,0);
+ Cv->AddNode(Bv,1,0);
+ n = (Int_t)((360.*kDegree)/TSBoltdAngle);
+ for(i=0;i<n;i++){
+ t = TSBoltAngle0+((Double_t)i)*TSBoltdAngle;
+ x = TSBoltRadius*TMath::Cos(t*kRadian);
+ y = TSBoltRadius*TMath::Sin(t*kRadian);
+ z = 0.5*(TSLength-TSBoltDepth);
+ tran = new TGeoTranslation("",x,y,z);
+ Cv->AddNode(Dv,i+1,tran);
+ tran = new TGeoTranslation("",x,y,-z);
+ Cv->AddNode(Dv,i+n+1,tran);
+ } // end for i
+ if(GetDebug()){
+ Av->PrintNodes();
+ Bv->PrintNodes();
+ Cv->PrintNodes();
+ Dv->PrintNodes();
+ } // end if
+ // SDD Suport Cone
+ //
+ //
+ const Double_t Thickness = 10.5*kmm; // Thickness of Rohacell+carbon fiber
+ const Double_t Cthick = 1.5*kmm; // Carbon finber thickness
+ const Double_t Rcurv = 15.0*kmm; // Radius of curvature.
+ const Double_t Tc = 45.0; // angle of SSD cone [degrees].
+ const Double_t Sintc = TMath::Sin(Tc*TMath::DegToRad());
+ const Double_t Costc = TMath::Cos(Tc*TMath::DegToRad());
+ const Double_t Tantc = TMath::Tan(Tc*TMath::DegToRad());
+ const Double_t ZouterMilled = 23.0*kmm;
+ const Double_t Zcylinder = 186.0*kmm;
+ const Double_t Z0 = Zcylinder + 0.5*TSLength;
+ //const Int_t Nspoaks = 12;
+ //const Int_t Nmounts = 4;
+ //const Double_t DmountAngle = 9.0; // degrees
+ const Double_t RoutMax = 0.5*560.0*kmm;
+ const Double_t RoutMin = 0.5*539.0*kmm;
+ // Holes in cone for cables
+ const Double_t PhiHole1 = 0.0*kDegree;
+ const Double_t dPhiHole1 = 25.0*kDegree;
+ const Double_t RholeMax1 = 0.5*528.*kmm;
+ const Double_t RholeMin1 = 0.5*464.*kmm;
+ const Double_t PhiHole2 = 0.0*kDegree;
+ const Double_t dPhiHole2 = 50.0*kDegree;
+ const Double_t RholeMax2 = 0.5*375.*kmm;
+ const Double_t RholeMin2 = 0.5*280.*kmm;
+ //
+ //const Int_t NpostsOut = 6;
+ //const Int_t NpostsIn = 3;
+ //const Double_t Phi0PostOut = 0.0; // degree
+ //const Double_t Phi0PostIn = 0.0; // degree
+ //const Double_t dRpostOut = 16.0*kmm;
+ //const Double_t dRpostIn = 16.0*kmm;
+ //const Double_t ZpostMaxOut = 116.0*kmm;
+ //const Double_t ZpostMaxIn = 190.0*kmm;
+ const Double_t RinMax = 0.5*216*kmm;
+ const Double_t RinCylinder = 0.5*231.0*kmm;
+ //const Double_t RinHole = 0.5*220.0*kmm;
+ const Double_t RinMin = 0.5*210.0*kmm;
+ const Double_t dZin = 15.0*kmm; // ???
+ //
+ Double_t dza = Thickness/Sintc-(RoutMax-RoutMin)/Tantc;
+ Double_t Z,Rmin,Rmax; // Temp variables.
+ if(dza<=0){ // The number or order of the points are in error for a proper
+ // call to pcons!
+ Error("SDDcone","The definition of the points for a call to PCONS is"
+ " in error. abort.");
+ return;
+ } // end if
+ TGeoPcon *E = new TGeoPcon("ITSsddSuportConeCarbonFiberSurfaceE",
+ 0.0,360.0,12);
+ E->Z(0) = 0.0;
+ E->Rmin(0) = RoutMin;
+ E->Rmax(0) = RoutMax;
+ E->Z(1) = ZouterMilled - dza;
+ E->Rmin(1) = E->GetRmin(0);
+ E->Rmax(1) = E->GetRmax(0);
+ E->Z(2) = ZouterMilled;
+ E->Rmax(2) = E->GetRmax(0);
+ RadiusOfCurvature(Rcurv,0.,E->GetZ(1),E->GetRmin(1),Tc,Z,Rmin);
+ E->Z(3) = Z;
+ E->Rmin(3) = Rmin;
+ E->Rmin(2) = RminFrom2Points(E,3,1,E->GetZ(2));
+ RadiusOfCurvature(Rcurv,0.,E->GetZ(2),E->GetRmax(2),Tc,Z,Rmax);
+ E->Z(4) = Z;
+ E->Rmax(4) = Rmax;
+ E->Rmin(4) = RminFromZpCone(E,Tc,E->GetZ(4),0.0);
+ E->Rmax(3) = RmaxFrom2Points(E,4,2,E->GetZ(3));
+ E->Rmin(7) = RinMin;
+ E->Rmin(8) = RinMin;
+ RadiusOfCurvature(Rcurv,90.0,0.0,RinMax,90.0-Tc,Z,Rmax);
+ E->Rmax(8) = Rmax;
+ E->Z(8) = ZFromRmaxpCone(E,Tc,E->GetRmax(8));
+ E->Z(9) = Zcylinder;
+ E->Rmin(9) = RinMin;
+ E->Z(10) = E->GetZ(9);
+ E->Rmin(10) = RinCylinder;
+ E->Rmin(11) = RinCylinder;
+ E->Rmax(11) = E->GetRmin(11);
+ Rmin = E->GetRmin(8);
+ RadiusOfCurvature(Rcurv,90.0-Tc,E->GetZ(8),E->GetRmax(8),90.0,Z,Rmax);
+ Rmax = RinMax;
+ E->Z(11) = Z+(E->GetZ(8)-Z)*(E->GetRmax(11)-Rmax)/(E->GetRmax(8)-Rmax);
+ E->Rmax(9) = RmaxFrom2Points(E,11,8,E->GetZ(9));
+ E->Rmax(10) = E->GetRmax(9);
+ E->Z(6) = Z-dZin;
+ E->Z(7) = E->GetZ(6);
+ E->Rmax(6) = RmaxFromZpCone(E,Tc,E->GetZ(6));
+ E->Rmax(7) = E->GetRmax(6);
+ RadiusOfCurvature(Rcurv,90.,E->GetZ(6),0.0,90.0-Tc,Z,Rmin);
+ E->Z(5) = Z;
+ E->Rmin(5) = RminFromZpCone(E,Tc,Z);
+ E->Rmax(5) = RmaxFromZpCone(E,Tc,Z);
+ RadiusOfCurvature(Rcurv,90.-Tc,0.0,E->Rmin(5),90.0,Z,Rmin);
+ E->Rmin(6) = Rmin;
+ printPcon(E);
+ // Inner Core, Inserto material
+ TGeoPcon *F = new TGeoPcon("ITSsddSuportConeInsertoStesaliteF",0.,360.0,9);
+ F->Z(0) = E->GetZ(0);
+ F->Rmin(0) = E->GetRmin(0)+Cthick;
+ F->Rmax(0) = E->GetRmax(0)-Cthick;
+ F->Z(1) = E->GetZ(1);
+ F->Rmin(1) = F->GetRmin(0);
+ F->Rmax(1) = F->GetRmax(0);
+ F->Z(2) = E->GetZ(2);
+ F->Rmax(2) = F->GetRmax(1);
+ RadiusOfCurvature(Rcurv-Cthick,0.,F->GetZ(1),F->GetRmax(1),Tc,Z,Rmin);
+ F->Z(3) = Z;
+ F->Rmin(3) = Rmin;
+ F->Rmin(2) = RminFrom2Points(F,3,1,F->GetZ(2));
+ RadiusOfCurvature(Rcurv+Cthick,0.,F->GetZ(2),F->GetRmax(2),Tc,Z,Rmax);
+ F->Z(4) = Z;
+ F->Rmax(4) = Rmax;
+ F->Rmin(4) = RmaxFromZpCone(E,Tc,F->GetZ(4),-Cthick);
+ F->Rmax(3) = RmaxFrom2Points(F,4,2,F->GetZ(3));
+ F->Rmin(7) = E->GetRmin(7);
+ F->Rmin(8) = E->GetRmin(8);
+ F->Z(6) = E->GetZ(6)+Cthick;
+ F->Rmin(6) = E->GetRmin(6);
+ F->Z(7) = F->GetZ(6);
+ F->Rmax(8) = E->GetRmax(8)-Cthick*Sintc;
+ RadiusOfCurvature(Rcurv+Cthick,90.,F->GetZ(6),F->GetRmin(6),90.-Tc,Z,Rmin);
+ F->Z(5) = Z;
+ F->Rmin(5) = Rmin;
+ F->Rmax(5) = RmaxFromZpCone(F,Tc,Z);
+ F->Rmax(6) = RmaxFromZpCone(F,Tc,F->GetZ(6));
+ F->Rmax(7) = F->GetRmax(6);
+ F->Z(8) = ZFromRmaxpCone(F,Tc,F->GetRmax(8),-Cthick);
+ printPcon(F);
+ // Inner Core, Inserto material
+ TGeoPcon *G = new TGeoPcon("ITSsddSuportConeFoamCoreG",0.0,360.0,4);
+ RadiusOfCurvature(Rcurv+Cthick,0.0,F->GetZ(1),F->GetRmin(1),Tc,Z,Rmin);
+ G->Z(0) = Z;
+ G->Rmin(0) = Rmin;
+ G->Rmax(0) = G->GetRmin(0);
+ G->Z(1) = G->GetZ(0)+(Thickness-2.0*Cthick)/Sintc;;
+ G->Rmin(1) = RminFromZpCone(F,Tc,G->GetZ(1));
+ G->Rmax(1) = RmaxFromZpCone(F,Tc,G->GetZ(1));
+ G->Z(2) = E->GetZ(5)-Cthick;
+ G->Rmin(2) = RminFromZpCone(F,Tc,G->GetZ(2));
+ G->Rmax(2) = RmaxFromZpCone(F,Tc,G->GetZ(2));
+ G->Z(3) = F->GetZ(5)+(Thickness-2.0*Cthick)*Costc;
+ G->Rmax(3) = RmaxFromZpCone(F,Tc,G->GetZ(3));
+ G->Rmin(3) = G->GetRmax(3);
+ printPcon(G);
+ //
+ TGeoPcon *H = new TGeoPcon("ITSsddSuportConeHoleH",PhiHole1,dPhiHole1,4);
+ H->Rmin(0) = RholeMax1;
+ H->Rmax(0) = H->GetRmin(0);
+ H->Z(0) = ZFromRminpCone(E,Tc,H->GetRmin(0));
+ H->Rmax(1) = H->GetRmax(0);
+ H->Z(1) = ZFromRmaxpCone(E,Tc,H->GetRmax(1));
+ H->Rmin(1) = RminFromZpCone(E,Tc,H->GetZ(1));
+ H->Rmin(2) = RholeMin1;
+ H->Z(2) = ZFromRminpCone(E,Tc,H->GetRmin(2));
+ H->Rmax(2) = RmaxFromZpCone(E,Tc,H->GetZ(2));
+ H->Rmin(3) = H->GetRmin(2);
+ H->Rmax(3) = H->GetRmin(3);
+ H->Z(3) = ZFromRminpCone(E,Tc,H->GetRmin(3));
+ printPcon(H);
+ //
+ x = Cthick/(0.5*(RholeMax1+RholeMin1));
+ t0 = PhiHole1 - x/kRadian;
+ t = dPhiHole1 + 2.0*x/kRadian;
+ TGeoPcon *I = new TGeoPcon("ITSsddSuportConeHoleI",t0,t,4);
+ I->Rmin(0) = RholeMax1+Cthick;
+ I->Rmax(0) = I->GetRmin(0);
+ I->Z(0) = ZFromRminpCone(F,Tc,I->GetRmin(0));
+ I->Rmax(1) = I->GetRmax(0);
+ I->Z(1) = ZFromRmaxpCone(F,Tc,I->GetRmax(1));
+ I->Rmin(1) = RminFromZpCone(F,Tc,I->GetZ(1));
+ I->Rmin(2) = RholeMin1-Cthick;
+ I->Z(2) = ZFromRminpCone(F,Tc,I->GetRmin(2));
+ I->Rmax(2) = RmaxFromZpCone(F,Tc,I->GetZ(2));
+ I->Rmin(3) = I->GetRmin(2);
+ I->Rmax(3) = I->GetRmin(3);
+ I->Z(3) = ZFromRmaxpCone(F,Tc,I->GetRmax(3));
+ printPcon(I);
+ //
+ TGeoPcon *J = new TGeoPcon("ITSsddSuportConeHoleJ",PhiHole2,dPhiHole2,4);
+ J->Rmin(0) = RholeMax2;
+ J->Rmax(0) = J->GetRmin(0);
+ J->Z(0) = ZFromRminpCone(E,Tc,J->GetRmin(0));
+ J->Rmax(1) = J->GetRmax(0);
+ J->Z(1) = ZFromRmaxpCone(E,Tc,J->GetRmax(1));
+ J->Rmin(1) = RminFromZpCone(E,Tc,J->GetZ(1));
+ J->Rmin(2) = RholeMin2;
+ J->Z(2) = ZFromRminpCone(E,Tc,J->GetRmin(2));
+ J->Rmax(2) = RmaxFromZpCone(E,Tc,J->GetZ(2));
+ J->Rmin(3) = J->GetRmin(2);
+ J->Rmax(3) = J->GetRmin(3);
+ J->Z(3) = ZFromRmaxpCone(E,Tc,J->GetRmax(3));
+ printPcon(J);
+ //
+ x = Cthick/(0.5*(RholeMax2+RholeMin2));
+ t0 = PhiHole2 - x/kRadian;
+ t = dPhiHole2 + 2.0*x/kRadian;
+ TGeoPcon *K = new TGeoPcon("ITSsddSuportConeHoleK",t0,t,4);
+ K->Rmin(0) = RholeMax2+Cthick;
+ K->Rmax(0) = K->GetRmin(0);
+ K->Z(0) = ZFromRminpCone(F,Tc,K->GetRmin(0));
+ K->Rmax(1) = K->GetRmax(0);
+ K->Z(1) = ZFromRmaxpCone(F,Tc,K->GetRmax(1));
+ K->Rmin(1) = RminFromZpCone(F,Tc,K->GetZ(1));
+ K->Rmin(2) = RholeMin2-Cthick;
+ K->Z(2) = ZFromRminpCone(F,Tc,K->GetRmin(2));
+ K->Rmax(2) = RmaxFromZpCone(F,Tc,K->GetZ(2));
+ K->Rmin(3) = K->GetRmin(2);
+ K->Rmax(3) = K->GetRmin(3);
+ K->Z(3) = ZFromRmaxpCone(F,Tc,K->GetRmax(3));
+ printPcon(K);
+ //
+ TGeoCompositeShape *L,*M,*N;
+ rot = new TGeoRotation("ITSsddRotZ30",0.0,0.0,30.0);
+ rot->RegisterYourself();
+ rot = new TGeoRotation("ITSsddRotZ60",0.0,0.0,60.0);
+ rot->RegisterYourself();
+ rot = new TGeoRotation("ITSsddRotZ90",0.0,0.0,90.0);
+ rot->RegisterYourself();
+ rot = new TGeoRotation("ITSsddRotZ120",0.0,0.0,120.0);
+ rot->RegisterYourself();
+ rot = new TGeoRotation("ITSsddRotZ150",0.0,0.0,150.0);
+ rot->RegisterYourself();
+ rot = new TGeoRotation("ITSsddRotZ180",0.0,0.0,180.0);
+ rot->RegisterYourself();
+ rot = new TGeoRotation("ITSsddRotZ210",0.0,0.0,210.0);
+ rot->RegisterYourself();
+ rot = new TGeoRotation("ITSsddRotZ240",0.0,0.0,240.0);
+ rot->RegisterYourself();
+ rot = new TGeoRotation("ITSsddRotZ270",0.0,0.0,270.0);
+ rot->RegisterYourself();
+ rot = new TGeoRotation("ITSsddRotZ300",0.0,0.0,300.0);
+ rot->RegisterYourself();
+ rot = new TGeoRotation("ITSsddRotZ330",0.0,0.0,330.0);
+ rot->RegisterYourself();
+ L = new TGeoCompositeShape("ITS SDD Suport Cone","((((((((((((((((("
+ "ITSsddSuportConeCarbonFiberSurfaceE -"
+ "ITSsddSuportConeHoleH) -"
+ "ITSsddSuportConeHoleH:ITSsddRotZ30) -"
+ "ITSsddSuportConeHoleH:ITSsddRotZ60) -"
+ "ITSsddSuportConeHoleH:ITSsddRotZ90) -"
+ "ITSsddSuportConeHoleH:ITSsddRotZ120) -"
+ "ITSsddSuportConeHoleH:ITSsddRotZ150) -"
+ "ITSsddSuportConeHoleH:ITSsddRotZ180) -"
+ "ITSsddSuportConeHoleH:ITSsddRotZ210) -"
+ "ITSsddSuportConeHoleH:ITSsddRotZ240) -"
+ "ITSsddSuportConeHoleH:ITSsddRotZ270) -"
+ "ITSsddSuportConeHoleH:ITSsddRotZ300) -"
+ "ITSsddSuportConeHoleH:ITSsddRotZ330) -"
+ "ITSsddSuportConeHoleJ) -"
+ "ITSsddSuportConeHoleJ:ITSsddRotZ60) -"
+ "ITSsddSuportConeHoleJ:ITSsddRotZ120) -"
+ "ITSsddSuportConeHoleJ:ITSsddRotZ180) -"
+ "ITSsddSuportConeHoleJ:ITSsddRotZ240) -"
+ "ITSsddSuportConeHoleJ:ITSsddRotZ300");
+ M = new TGeoCompositeShape("ITS SDD Suport Cone Inserto Stesalite",
+ "((((((((((((((((("
+ "ITSsddSuportConeInsertoStesaliteF -"
+ "ITSsddSuportConeHoleI) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ30) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ60) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ90) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ120) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ150) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ180) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ210) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ240) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ270) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ300) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ330) -"
+ "ITSsddSuportConeHoleK) -"
+ "ITSsddSuportConeHoleK:ITSsddRotZ60) -"
+ "ITSsddSuportConeHoleK:ITSsddRotZ120) -"
+ "ITSsddSuportConeHoleK:ITSsddRotZ180) -"
+ "ITSsddSuportConeHoleK:ITSsddRotZ240) -"
+ "ITSsddSuportConeHoleK:ITSsddRotZ300");
+ N = new TGeoCompositeShape("ITS SDD Suport Cone Foam Core",
+ "((((((((((((((((("
+ "ITSsddSuportConeFoamCoreG -"
+ "ITSsddSuportConeHoleI) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ30) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ60) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ90) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ120) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ150) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ180) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ210) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ240) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ270) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ300) -"
+ "ITSsddSuportConeHoleI:ITSsddRotZ330) -"
+ "ITSsddSuportConeHoleK) -"
+ "ITSsddSuportConeHoleK:ITSsddRotZ60) -"
+ "ITSsddSuportConeHoleK:ITSsddRotZ120) -"
+ "ITSsddSuportConeHoleK:ITSsddRotZ180) -"
+ "ITSsddSuportConeHoleK:ITSsddRotZ240) -"
+ "ITSsddSuportConeHoleK:ITSsddRotZ300");
+ //++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++
+ TGeoVolume *Lv,*Mv,*Nv;
+ Lv = new TGeoVolume("ITSsddConeL",L,SDDcf);
+ Lv->SetVisibility(kTRUE);
+ Lv->SetLineColor(4);
+ Lv->SetLineWidth(1);
+ Lv->SetFillColor(Lv->GetLineColor());
+ Lv->SetFillStyle(4000); // 0% transparent
+ Mv = new TGeoVolume("ITSsddConeM",M,SDDfs);
+ Mv->SetVisibility(kTRUE);
+ Mv->SetLineColor(2);
+ Mv->SetLineWidth(1);
+ Mv->SetFillColor(Mv->GetLineColor());
+ Mv->SetFillStyle(4010); // 10% transparent
+ Nv = new TGeoVolume("ITSsddConeN",N,SDDfo);
+ Nv->SetVisibility(kTRUE);
+ Nv->SetLineColor(7);
+ Nv->SetLineWidth(1);
+ Nv->SetFillColor(Nv->GetLineColor());
+ Nv->SetFillStyle(4050); // 50% transparent
+ //
+ Mv->AddNode(Nv,1,0);
+ Lv->AddNode(Mv,1,0);
+ tran = new TGeoTranslation("",0.0,0.0,-Z0);
+ Moth->AddNode(Lv,1,tran);
+ rot = new TGeoRotation("",0.0,180.0*kDegree,0.0);
+ rotran = new TGeoCombiTrans("",0.0,0.0,Z0,rot);
+ delete rot;// rot not explicity used in AddNode functions.
+ Moth->AddNode(Lv,2,rotran);
+ if(GetDebug()){
+ Lv->PrintNodes();
+ Mv->PrintNodes();
+ Nv->PrintNodes();
+ } // end if
}
//______________________________________________________________________
-void AliITSv11::MixtureByNumber(Int_t imat,const char* name,Int_t *z,
- Int_t *w,Double_t dens,Int_t n,Int_t istd){
- // Defines a Geant material by a set of elements and number, and sets
- // its Geant medium proporties. The average atomic A is assumed to be
- // given by their natural abundances. Things like the radiation length
- // are calculated for you.
- // Inputs:
- // Int_t imat Material number.
- // const char* name Material name. No need to add a $ at the end.
- // Int_t *z Array of The elemental numbers.
- // Int_t_t *w Array of relative number.
- // Double_t dens The density of the material [g/cm^3].
- // Int_t n the number of elements making up the mixture.
- // Int_t istd Defines which standard set of transport parameters
- // which should be used.
- // Output:
- // none.
- // Return:
- // none.
- Float_t rad,*Z,*A,tmax,stemax,deemax,epsilon;
- char *name2;
- Int_t len,i;
- Z = new Float_t[n];
- A = new Float_t[n];
-
- len = strlng(name)+1;
- name2 = new char[len];
- strncpy(name2,name,len-1);
- name2[len-1] = '\0';
- name2[len-2] = '$';
- for(i=0;i<n;i++){Z[i] = (Float_t)z[i];A[i] = (Float_t)GetA(z[i]);
- W[i] = (Float_t)w[i]}
- rad = GetRadLength(z)/dens;
- AliMixture(imat,name2,A,Z,dens,-n,W);
- tmax = GetStandardTheataMax(istd); // degree
- stemax = GetStandardMaxStepSize(istd); // cm
- deemax = GetStandardEfraction(istd); // #
- epsilon = GetStandardEpsilon(istd);
- AliMedium(imat,name2,imat,0,gAlice->Field()->Integ(),
- gAlice->Field()->Max(),tmax,stemax,deemax,epsilon,0.0);
- delete[] name2;
-//______________________________________________________________________
-void AliITSv11::SSDConeDetail(TVector3 &tran,const char moth[3],Int_t mat0){
- // Defines the volumes and materials for the ITS SSD Support cone.
- // Based on drawings ALR-0767 and ALR-0767/3. Units are in mm.
+void AliITSv11::SSDCone(TGeoVolume *Moth){
+ // Define the detail SSD support cone geometry.
// Inputs:
- // Double_t zShift The z shift to be applied to the final volume.
- // Outputs:
// none.
+ // Outputs:
+ // none.
// Return:
- // none.
- Double_t th = 13.0; //mm, Thickness of Rohacell+carbon fiber
- Double_t ct=1.5; //mm, Carbon finber thickness
- Double_t r=15.0; // mm, Radius of curvature.
- Double_t tc=51.0; // angle of SSD cone [degrees].
- Double_t sintc=Sind(tc),costc=Cosd(tc),tantc=Tand(tc);
- Double_t z0=0.0,Routmax=0.5*985.,Routmin=0.5*945.,Rholemax=0.5*890.;
- Double_t Rholemin=0.5*740.,Rin=0.5*560.,RoutHole=0.5*965.;
- Int_t nspoaks=12,ninscrews=40,npost=4;
- Int_t SSDcf=man0+1; // SSD support cone Carbon Fiber materal number.
- Int_t SSDfs=mat0+2; // SSD support cone inserto stesalite 4411w.
- Int_t SSDfo=mat0+3; // SSD support cone foam, Rohacell 50A.
- Int_t SSDsw=mat0+4; // SSD support cone screw material,Stainless steal
- Double_t t; // some general angle [degrees].
- Double_t phi0=0.0,dphi=360.0,x,y,z;
- Int_t i,j,k,l,n,nz,nrad=0;
-
- SetScalemm();
+ // none.
+ //
+ TGeoMedium *SSDcf = 0; // SSD support cone Carbon Fiber materal number.
+ TGeoMedium *SSDfs = 0; // SSD support cone inserto stesalite 4411w.
+ TGeoMedium *SSDfo = 0; // SSD support cone foam, Rohacell 50A.
+ TGeoMedium *SSDss = 0; // SSD support cone screw material,Stainless steal
+ TGeoMedium *SSDair = 0; // SSD support cone Air
+ TGeoMedium *SSDal = 0; // SSD support cone SDD mounting bracket Al
+ TGeoManager *mgr = gGeoManager;
+ SSDcf = mgr->GetMedium("ITSssdCarbonFiber");
+ SSDfs = mgr->GetMedium("ITSssdStaselite4411w");
+ SSDfo = mgr->GetMedium("ITSssdRohacell50A");
+ SSDss = mgr->GetMedium("ITSssdStainlessSteal");
+ SSDair= mgr->GetMedium("ITSssdAir");
+ SSDal = mgr->GetMedium("ITSssdAl");
+ //
+ // SSD Central cylinder/Thermal Sheald.
+ const Double_t ZThCylinder = 1140.0*kmm; //
+ const Double_t ZThCylFoam = 1020.0*kmm; //
+ const Double_t RThCylOuter = 0.5*595.0*kmm; //
+ const Double_t CthickThCyl = 0.64*kmm; //
+ const Double_t FoamThickTh = 5.0*kmm; //
+ const Double_t dZThCylThEnd = 6.0*kmm; //
+ const Double_t RThCylInerEnd= 0.5*560.5*kmm; //
+ TGeoPcon *CA,*CB;
+ TGeoTube*CC;
+ //
+ CA = new TGeoPcon("ITS SSD Thermal Centeral CylinderA",0.0,360.0,6);
+ CB = new TGeoPcon("ITS SSD Thermal Centeral CylinderB",0.0,360.0,6);
+ CC = new TGeoTube("ITS SSD Thermal Centeral CylinderC",
+ RThCylOuter-CthickThCyl-FoamThickTh,
+ RThCylOuter-CthickThCyl,0.5*ZThCylFoam);
+ CA->Z(0) = -0.5*ZThCylinder;
+ CA->Rmin(0) = RThCylInerEnd;
+ CA->Rmax(0) = RThCylOuter;
+ CA->Z(1) = CA->GetZ(0) + dZThCylThEnd;
+ CA->Rmin(1) = CA->GetRmin(0);
+ CA->Rmax(1) = CA->GetRmax(0);
+ CA->Z(2) = -0.5*ZThCylFoam;
+ CA->Rmin(2) = RThCylOuter - 2.0*CthickThCyl-FoamThickTh;
+ CA->Rmax(2) = CA->GetRmax(0);
+ CA->Z(3) = -CA->GetZ(2);
+ CA->Rmin(3) = CA->GetRmin(2);
+ CA->Rmax(3) = CA->GetRmax(2);
+ CA->Z(4) = -CA->GetZ(1);
+ CA->Rmin(4) = CA->GetRmin(1);
+ CA->Rmax(4) = CA->GetRmax(1);
+ CA->Z(5) = -CA->GetZ(0);
+ CA->Rmin(5) = CA->GetRmin(0);
+ CA->Rmax(5) = CA->GetRmax(0);
+ //
+ CB->Z(0) = CA->GetZ(0);
+ CB->Rmin(0) = CA->GetRmin(0) + CthickThCyl;
+ CB->Rmax(0) = CA->GetRmax(0) - CthickThCyl;
+ CB->Z(1) = CA->GetZ(1);
+ CB->Rmin(1) = CA->GetRmin(1) + CthickThCyl;
+ CB->Rmax(1) = CA->GetRmax(1) - CthickThCyl;
+ CB->Z(2) = CA->GetZ(2);
+ CB->Rmin(2) = CA->GetRmin(2) + CthickThCyl;
+ CB->Rmax(2) = CA->GetRmax(2) - CthickThCyl;
+ CB->Z(3) = CA->GetZ(3);
+ CB->Rmin(3) = CA->GetRmin(3) + CthickThCyl;
+ CB->Rmax(3) = CA->GetRmax(3) - CthickThCyl;
+ CB->Z(4) = CA->GetZ(4);
+ CB->Rmin(4) = CA->GetRmin(4) + CthickThCyl;
+ CB->Rmax(4) = CA->GetRmax(4) - CthickThCyl;
+ CB->Z(5) = CA->GetZ(5);
+ CB->Rmin(5) = CA->GetRmin(5) + CthickThCyl;
+ CB->Rmax(5) = CA->GetRmax(5) - CthickThCyl;
+ //
+ printPcon(CA);
+ printPcon(CB);
+ printTube(CC);
+ TGeoVolume *CAv,*CBv,*CCv;
+ CAv = new TGeoVolume("ITSssdCentCylCA",CA,SSDcf);
+ CAv->SetVisibility(kTRUE);
+ CAv->SetLineColor(4); // blue
+ CAv->SetLineWidth(1);
+ CAv->SetFillColor(CAv->GetLineColor());
+ CAv->SetFillStyle(4010); // 10% transparent
+ CBv = new TGeoVolume("ITSssdCentCylCB",CB,SSDfs);
+ CBv->SetVisibility(kTRUE);
+ CBv->SetLineColor(2); // red
+ CBv->SetLineWidth(1);
+ CBv->SetFillColor(CBv->GetLineColor());
+ CBv->SetFillStyle(4010); // 10% transparent
+ CCv = new TGeoVolume("ITSssdCentCylCC",CC,SSDfo);
+ CCv->SetVisibility(kTRUE);
+ CCv->SetLineColor(3); // green
+ CCv->SetLineWidth(1);
+ CCv->SetFillColor(CCv->GetLineColor());
+ CCv->SetFillStyle(4010); // 10% transparent
+ CBv->AddNode(CCv,1,0);
+ CAv->AddNode(CBv,1,0);
+ Moth->AddNode(CAv,1,0);
+ if(GetDebug()){
+ CAv->PrintNodes();
+ CBv->PrintNodes();
+ CCv->PrintNodes();
+ } // end if
+ //
+ const Double_t Thickness = 13.0*kmm; // Thickness of Rohacell+carbon fiber
+ const Double_t Cthick = 1.5*kmm; // Carbon finber thickness
+ const Double_t Rcurv = 15.0*kmm; // Radius of curvature.
+ const Double_t Tc = 51.0; // angle of SSD cone [degrees].
+ const Double_t Sintc = TMath::Sin(Tc*TMath::DegToRad());
+ const Double_t Costc = TMath::Cos(Tc*TMath::DegToRad());
+ const Double_t Tantc = TMath::Tan(Tc*TMath::DegToRad());
+ const Double_t ZouterMilled = (13.5-5.0)*kmm;
+ const Double_t Zcylinder = 170.0*kmm;
+ const Double_t Z0 = Zcylinder + 0.5*ZThCylinder;
+ const Int_t Nspoaks = 12;
+ const Int_t Nmounts = 4;
+ const Double_t DmountAngle = 9.0; // degrees
+ const Double_t RoutMax = 0.5*985.0*kmm;
+ const Double_t RoutHole = 0.5*965.0*kmm;
+ const Double_t RoutMin = 0.5*945.0*kmm;
+ const Double_t RholeMax = 0.5*890.0*kmm;
+ const Double_t RholeMin = 0.5*740.0*kmm;
+ const Double_t RpostMin = 316.0*kmm;
+ const Double_t ZpostMax = 196.0*kmm;
+ const Int_t Nposts = 6;
+ const Double_t Phi0Post = 0.0; // degree
+ const Double_t dRpost = 23.0*kmm;
+ const Double_t RinMax = 0.5*590.0*kmm;
+ const Double_t RinCylinder = 0.5*597.0*kmm;
+ const Double_t RinHole = 0.5*575.0*kmm;
+ const Double_t RinMin = 0.5*562.0*kmm;
+ const Double_t dZin = 15.0*kmm;
+ // SSD-SDD Thermal/Mechanical cylinder mounts
+ const Int_t NinScrews = 40;
+ const Double_t Phi0Screws = 0.5*360.0/((const Double_t)NinScrews);//d
+ const Double_t RcylinderScrews = 0.5*570.0*kmm;//from older drawing????
+ const Double_t DscrewHead = 8.0*kmm;
+ const Double_t DscrewShaft = 4.6*kmm;
+ const Double_t ThScrewHeadHole = 8.5*kmm;
+ // SDD mounting bracket, SSD part
+ const Double_t NssdSupports = 3;// mounting of U and T
+ const Double_t DssdsddBracketAngle = 9.0; // degrees
+ const Double_t Phi0SDDsupports = 0.0; // degree
+ const Double_t RsddSupportPlate = 0.5*585.0*kmm;
+ const Double_t ThSDDsupportPlate = 4.0*kmm;
+ const Double_t WsddSupportPlate = 70.0*kmm;
+ //
// Lets start with the upper left outer carbon fiber surface.
// Between za[2],rmaxa[2] and za[4],rmaxa[4] there is a curved section
- // given by rmaxa = rmaxa[2]-r*Sind(t) for 0<=t<=tc and
- // za = za[2] + r*Cosd(t) for 0<=t<=tc. Simularly between za[1],rmina[1
+ // given by rmaxa = rmaxa[2]-r*Sind(t) for 0<=t<=Tc and
+ // za = za[2] + r*Cosd(t) for 0<=t<=Tc. Simularly between za[1],rmina[1
// and za[3],rmina[3] there is a curve section given by
- // rmina = rmina[1]-r*Sind(t) for 0<=t<=tc and za = za[1]+r&Sind(t)
- // for t<=0<=tc. These curves have been replaced by straight lines
+ // rmina = rmina[1]-r*Sind(t) for 0<=t<=Tc and za = za[1]+r&Sind(t)
+ // for t<=0<=Tc. These curves have been replaced by straight lines
// between the equivelent points for simplicity.
- Double_t dza = th/sintc-(Routmax-Routmin)/tantc;
+ Double_t dza = Thickness/Sintc-(RoutMax-RoutMin)/Tantc;
+ Int_t i,j;
+ Double_t x,y,z[9],rn[9],rx[9],phi,dphi;
+ Double_t t,t0,Z,Rmin,Rmax; // Temp variables.
if(dza<=0){ // The number or order of the points are in error for a proper
- // call to pcons!
- Error("SSDcone","The definition of the points for a call to PCONS is"
- " in error. abort.");
- return;
+ // call to pcons!
+ Error("SSDcone","The definition of the points for a call to PCONS is"
+ " in error. abort.");
+ return;
} // end if
- nz = 7;
- Double_t *za = new Double_t[nz];
- Double_t *rmina = new Double_t[nz];
- Double_t *rmaxa = new Double_t[nz];
- za[0] = z0;
- rmina[0] = Routmin;
- rmaxa[0] = Routmax;
- za[1] = za[0]+13.5-5.0 - dza; // za[2] - dza.
- rmina[1] = rmina[0];
- rmaxa[1] =rmaxa[0];
- za[2] = za[0]+13.5-5.0; // From Drawing ALR-0767 and ALR-0767/3
- rmaxa[2] = rmaxa[0];
- za[3] = za[1]+rc*sintc;
- rmina[3] = rmina[1]-rc*sintc;
- rmina[2] = rmina[1]+(rmina[3]-rmina[1])*(za[2]-za[1])/(za[3]-za[1]);
- za[4] = za[2]+rc*sintc;
- rmaxa[4] = rmaxa[2]-rc*sintc;
- rmaxa[3] = rmaxa[2]+(rmaxa[4]-rmaxa[2])*(za[3]-za[2])/(za[4]-za[2]);
- rmina[5] = Rholemax;
- za[5] = za[3]+(za[4]-za[3])*(rmina[5]-rmina[3])/(rmina[4]-rmina[3]);
- rmina[4] = rmina[3]+(rmina[5]-rmina[3])*(za[4]-za[3])/(za[5]-za[3]);
- za[6] = th/sinth+za[5];
- rmina[6] = Rholemax;
- rmaxa[6] = rmina[6];
- rmaxa[5] = rmaxa[4]+(rmaxa[6]-rmaxa[4])*(za[5]-za[4])/(za[6]-za[4]);
- //
- PolyCone("SCA","SSD Suport cone Carbon Fiber Surface outer left",
- phi0,dphi,nz,*z,*rmin,*rmax,SSDcf);
- Pos("SCA",1,moth,trans.x(),trans.y(),trans.z(),0);
- XMatrix(1,180.0);
- Pos("SCA",2,moth,trans.x(),trans.y(),-trans.z(),1);
- Za[0] = 1.; Wa[0] = ; // Hydrogen Content
- Za[1] = 6.; Wa[1] = ; // Carbon Content
- MixtureByWeight(SSDcf,"Carbon Fiber for SSD support cone",Z,W,dens,2);
+ // Poly-cone Volume A. Top part of SSD cone Carbon Fiber.
+ phi = 0.0;
+ dphi = 360.0;
+ z[0] = 0.0;
+ rn[0] = RoutMin;
+ rx[0] = RoutMax;
+ z[1] = z[0]+ZouterMilled - dza; // za[2] - dza.
+ rn[1] = rn[0];
+ rx[1] = rx[0];
+ z[2] = z[0]+ZouterMilled;//From Drawing ALR-0767 and ALR-0767/3
+ rx[2] = rx[0];
+ RadiusOfCurvature(Rcurv,0.,z[1],rn[1],Tc,z[3],rn[3]);
+ rn[2] = RFrom2Points(rn,z,3,1,z[2]);
+ RadiusOfCurvature(Rcurv,0.,z[2],rx[2],Tc,z[4],rx[4]);
+ rn[4] = RminFromZpCone(rn,z,Tc,z[4]);
+ rx[3] = RFrom2Points(rx,z,4,2,z[3]);
+ rn[5] = RholeMax;
+ z[5] = Zfrom2Points(z,rn,4,3,rn[5]);
+ rx[5] = RmaxFromZpCone(rx,z,Tc,z[5]);
+ rn[6] = RholeMax;
+ rx[6] = rn[6];
+ z[6] = ZFromRmaxpCone(rx,z,Tc,rx[6]);
+ TGeoPcon *A = new TGeoPcon("ITS SSD Suport cone Carbon Fiber "
+ "Surface outer left",phi,dphi,7);
+ for(i=0;i<A->GetNz();i++){
+ A->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(A);
//
+ // Poly-cone Volume B. Stesalite inside volume A.
// Now lets define the Inserto Stesalite 4411w material volume.
- nz = 6;
- Double_t *zb = new Double_t[nz];
- Double_t *rminb = new Double_t[nz];
- Double_t *rmaxb = new Double_t[nz];
- zb[0] = z0;
- rminb[0] = rmina[0]+ct;
- rmaxb[0] = rmaxa[0]-ct;
- zb[1] = za[1];
- rminb[1] = rminb[0];
- rmaxb[1] = rmaxb[0];
- zb[2] = za[2];
- rmaxb[2] = rmaxb[1];
- zb[3] = za[4] - ct/sintc;
- rmaxb[3] = rmaxb[2] - (rc-ct)*sintc;
- zb[4] = za[3]+ct/sintc;
- rminb[4] = rminb[1]-(rc-ct)*sintc;
- rminb[2] = rminb[1]+(rminb[4]-rminb[1])*(zb[2]-zb[1])/(zb[4]-zb[1]);
- rminb[3] = rminb[1]+(rminb[4]-rminb[1])*(zb[3]-zb[1])/(zb[4]-zb[1]);
- zb[5] = zb[4]+(ct-2.*ct)/sintc;
- rminb[5] = rminb[4]+(ct-2.*ct)*tantc;
- rmaxb[5] = rminb[5];
- rmaxb[4] = rmaxb[3]+(rmaxb[5]-rmaxb[3])*(zb[4]-zb[3])/(zb[5]-zb[3]);
- PolyCone("SCB","SSD Suport cone Inserto Stesalite left edge",
- phi0,dphi,nz,*zb,*rminb,*rmaxb,SSDfs);
- Pos("SCB",1,"SCA",0.0,.0,0.0,0);
- Za[0] = 1.; Wa[0] = ; // Hydrogen Content
- Za[1] = 6.; Wa[1] = ; // Carbon Content
- MixtureByWeight(SSDfs,"Inserto stealite 4411w for SSD support cone",
- Z,W,dens,3);
+ phi = 0.0;
+ dphi = 360.0;
+ z[0] = A->GetZ(0);
+ rn[0] = A->GetRmin(0)+Cthick;
+ rx[0] = A->GetRmax(0)-Cthick;
+ z[1] = A->GetZ(1);
+ rn[1] = rn[0];
+ rx[1] = rx[0];
+ z[2] = A->GetZ(2);
+ rx[2] = rx[1];
+ RadiusOfCurvature(Rcurv-Cthick,0.,z[2],rx[2],Tc,z[3],rx[3]);
+ RadiusOfCurvature(Rcurv+Cthick,0.,z[1],rn[1],Tc,z[4],rn[4]);
+ rn[2] = RFrom2Points(rn,z,4,1,z[2]);
+ rn[3] = RFrom2Points(rn,z,4,1,z[3]);
+ z[5] = z[4]+(Thickness-2.0*Cthick)/Sintc;
+ rn[5] = RmaxFromZpCone(A,Tc,z[5],-Cthick);
+ rx[5] = rn[5];
+ rx[4] = RFrom2Points(rx,z,5,3,z[4]);
+ TGeoPcon *B = new TGeoPcon("ITS SSD Suport cone Inserto Stesalite "
+ "left edge",phi,dphi,6);
+ for(i=0;i<B->GetNz();i++){
+ B->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(B);
//
+ // Poly-cone Volume C. Foam inside volume A.
// Now lets define the Rohacell foam material volume.
- nz = 4;
- Double_t *zc = new Double_t[nz];
- Double_t *rminc = new Double_t[nz];
- Double_t *rmaxc = new Double_t[nz];
- zc[0] = zb[4];
- rminc[0] = rminb[4];
- rmaxc[0] = rmminc[0];
- zc[1] = zb[5];
- rmaxc[1] = rminb[5];
- zc[2] = za[5] + ct/sintc;
- rminc[2] = rmina[5]+ct; // leave space for carbon fiber covering hole.
- rminc[1] = rminc[0] +(rminc[2]-rminc[0])*(zc[1]-zc[0])/(zc[2]-zc[0]);
- zc[3] = za[6] - ct/sintc;
- rminc[3] = rmina[6]+ct;
- rmaxc[3] = rminc[3];
- rmaxc[2] = rmaxc[1]+(rmaxc[3]-rmaxc[1])*(zc[2]-zc[1])/(zc[3]-zc[1]);
- PolyCone("SCC","SSD Suport cone Rohacell foam left edge",
- phi0,dphi,nz,*zc,*rminc,*rmaxc,SSDfo);
- Pos("SCC",1,"SCA",0.0,.0,0.0,0);
- Za[0] = 1.; Wa[0] = ; // Hydrogen Content
- Za[1] = 6.; Wa[1] = ; // Carbon Content
- MixtureByWeight(SSDfo,"Foam core (Rohacell 50A) for SSD support cone",
- Z,W,dens,3);
+ phi = 0.0;
+ dphi = 360.0;
+ z[0] = B->GetZ(4);
+ rn[0] = B->GetRmin(4);
+ rx[0] = rn[0];
+ z[1] = B->GetZ(5);
+ rx[1] = B->GetRmin(5);
+ rn[2] = A->GetRmin(5)+Cthick;//space for carbon fiber covering hole
+ z[2] = ZFromRminpCone(A,Tc,rn[2],+Cthick);
+ rn[1] = RFrom2Points(rn,z,2,0,z[1]);
+ rx[3] = A->GetRmin(6)+Cthick;
+ rn[3] = rx[3];
+ z[3] = ZFromRmaxpCone(A,Tc,rx[3],-Cthick);
+ rx[2] = RFrom2Points(rx,z,3,1,z[2]);
+ TGeoPcon *C = new TGeoPcon("ITS SSD Suport cone Rohacell foam "
+ "left edge",phi,dphi,4);
+ for(i=0;i<C->GetNz();i++){
+ C->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(C);
//
// In volume SCB, th Inserto Stesalite 4411w material volume, there
// are a number of Stainless steel screw and pin studs which will be
// filled with screws/studs.
- Double_t rmin=0.0,rmax=6.0,dz=0.5*10.0; // mm
- Tube("SCD","Screw+stud used to mount things to the SSD support cone",
- rmin,rmax,dz,SSDsw);
- rmin=0.0;rmax=6.0;dz=0.5*12.0; // mm
- Tube("SCE","pin used to mount things to the SSD support cone",
- rmin,rmax,dz,SSDsw);
- Za[0] = 6.; Wa[0] = ; // Carbon Content
- Za[1] = 25.; Wa[1] = ; // Iron Content
- MixtureByWeight(SSDsw,"Stainless steal screw, pin, and stud material",
- Z,W,dens,3);
- k=l=0;
- for(i=0;i<2;i++){ // position for ITS-TPC mounting brackets
- for(j=0;j<2;j++){ // 2 screws per bracket
- k++;
- t = -5.0+10.0*((Double_t)j)+180.*((Double_t)i);
- x = RoutHole*Sind(t);
- y = RoutHole*Cosd(t);
- z = dz;
- Pos("SCD",k,"SCB",x,y,z,0);
- } // end for j
- for(j=0;j<3;j++){ // 3 pins per bracket
- l++;
- t = -3.0+3.0*((Double_t)j)+180.*((Double_t)i);
- x = RoutHole*Sind(t);
- y = RoutHole*Cosd(t);
- z = dz;
- Pos("SCE",l,"SCB",x,y,z,0);
- } // end for j
- } // end for i
- for(i=0;i<2;i++){ // position for ITS-rail mounting brackets
- for(j=0;j<4;j++){ // 4 screws per bracket
- Double_t a[4]={0.0,2.0,5.0,7.0}; // Relative angles.
- k++;
- t = 90.0-a[j]+187.*((Double_t)i);
- x = RoutHole*Sind(t);
- y = RoutHole*Cosd(t);
- z = dz;
- Pos("SCD",k,"SCB",x,y,z,0);
- } // end for j
- for(j=0;j<2;j++){ // 2 pins per bracket
- l++;
- t = 88+7.0*((Double_t)j)+184.*((Double_t)i);
- x = RoutHole*Sind(t);
- y = RoutHole*Cosd(t);
- z = dz;
- Pos("SCE",l,"SCB",x,y,z,0);
- } // end for j
- } // end for i
+ rn[0] = 0.0*kmm,rx[0] = 6.0*kmm,z[0] = 0.5*10.0*kmm; // mm
+ TGeoTube *D = new TGeoTube("ITS Screw+stud used to mount things to "
+ "the SSD support cone",rn[0],rx[0],z[0]);
+ printTube(D);
+ rn[0] = 0.0*kmm;rx[0] = 6.0*kmm;z[0] = 0.5*12.0*kmm; // mm
+ TGeoTube *E = new TGeoTube("ITS pin used to mount things to the "
+ "SSD support cone",rn[0],rx[0],z[0]);
+ printTube(E);
//
+ // Poly-cone Volume F. Foam in spoak reagion, inside volume A.
// There is no carbon fiber between this upper left section and the
// SSD spoaks. We remove it by replacing it with Rohacell foam.
- nz = 4;
- Double_t *zf = new Double_t[nz];
- Double_t *rminf = new Double_t[nz];
- Double_t *rmaxf = new Double_t[nz];
- zf[0] = zc[2];
- rminf[0] = rminc[3];
- rmaxf[0] = rminf[0];
- rminf[1] = rmina[5];
- rmaxf[1] = rminf[0];
- zf[1] = zc[0]+(zc[2]-zc[0])*(rminf[1]-rminc[0])/(rminc[2]-rminc[0]);
- zf[2] = zc[3];
- rminf[2] = rminf[1];
- rmaxf[2] = rmaxf[1];
- zf[3] = zc[1]+(zc[3]-zc[1])*(rmaxf[3]-rmaxc[1])/(rmaxc[3]-rmaxc[1]);
- rminf[3] = rmina[5];
- rmaxf[3] = rminf[3];
- PolyCone("SCF","SSD Suport cone Rohacell foam left edge",
- phi0,dphi,nz,*zc,*rminc,*rmaxc,SSDfo);
- Pos("SCF",1,"SCA",0.0,.0,0.0,0);
+ t = Cthick/(0.5*(RholeMax+RholeMin));// It is not posible to get
+ // the carbon fiber thickness uniform in this phi direction. We can only
+ // make it a fixed angular thickness.
+ t *= 180.0/TMath::Pi();
+ phi = 12.5+t; // degrees see drawing ALR-0767.
+ dphi = 5.0 - 2.0*t; // degrees
+ z[0] = C->GetZ(2);
+ rn[0] = C->GetRmin(3);
+ rx[0] = rn[0];
+ rn[1] = A->GetRmin(5);
+ rx[1] = rn[0];
+ z[1] = ZFromRminpCone(A,Tc,rn[1],+Cthick);
+ z[2] = C->GetZ(3);
+ rn[2] = rn[1];
+ rx[2] = rx[1];
+ rn[3] = A->GetRmin(6);
+ rx[3] = rn[3];
+ z[3] = ZFromRmaxpCone(A,Tc,rx[3],-Cthick);
+ TGeoPcon *F = new TGeoPcon("ITS SSD Top Suport cone Rohacell foam "
+ "Spoak",phi,dphi,4);
+ for(i=0;i<F->GetNz();i++){
+ F->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(F);
//=================================================================
+ // Poly-cone Volume G.
// Now for the spoak part of the SSD cone.
// It is not posible to inclue the radius of curvature between
// the spoak part and the upper left part of the SSD cone or lowwer right
// part. This would be discribed by the following curves.
// R = Rmax - (5mm)*Sin(t) phi = phi0+(5mm*180/(Pi*RoutHole))*Sin(t)
// where 0<=t<=90 For the inner curve a simular equiation holds.
- phi0 = 12.5; // degrees see drawing ALR-0767.
- dphi = 5.0; // degrees
- nz = 4;
- Double_t *zg = new Double_t[nz];
- Double_t *rming = new Double_t[nz];
- Double_t *rmaxg = new Double_t[nz];
- zg[0] = zb[5];
- rming[0] = rmina[5];
- rmaxg[0] = rming[0];
- zg[1] = za[6];
- rming[1] = -thatc*(zg[1]-za[3])+rmina[3];
- rmaxg[1] = rmaxg[0];
- rming[2] = Rholemin;
- zg[2] = za[3]-(rming[2]-rmina[3])/tantc;
- rmaxg[2] = -thatc*(zg[2]-za[4])+rmaxa[4];
- rming[3] = rming[2];
- rmaxg[3] = rming[3];
- zg[3] = za[4]-(rmaxg[3]-rmaxa[4])/tantc;
- PolyCone("SCG","SSD spoak carbon fiber surfaces",
- phi0,dphi,nz,*zc,*rminc,*rmaxc,SSDcf);
- Zmatrix(irot,360./((Double_t)nspoaks));
- Pos("SCG",i+1,"SCA",0.0,.0,0.0,0);
- for(i=1;i<nspoaks;i++){
- Zmatrix(irot+i,360./((Double_t)nspoaks));
- Pos("SCG",i+1,"SCA",0.0,.0,0.0,irot+i);
+ phi = 12.5; // degrees see drawing ALR-0767.
+ dphi = 5.0; // degrees
+ z[0] = A->GetZ(5);
+ rn[0] = A->GetRmin(5);
+ rx[0] = rn[0];
+ z[1] = A->GetZ(6);
+ rn[1] = RminFromZpCone(A,Tc,z[1]);
+ rx[1] = rx[0];
+ rn[2] = RholeMin;
+ z[2] = ZFromRminpCone(A,Tc,rn[2]);
+ rx[2] = RmaxFromZpCone(A,Tc,z[2]);
+ rn[3] = rn[2];
+ rx[3] = rn[3];
+ z[3] = ZFromRmaxpCone(A,Tc,rx[3]);
+ TGeoPcon *G = new TGeoPcon("ITS SSD spoak carbon fiber surfaces",
+ phi,dphi,4);
+ for(i=0;i<G->GetNz();i++){
+ G->DefineSection(i,z[i],rn[i],rx[i]);
} // end for i
+ printPcon(G);
// For the foam core.
- t = ct/(0.5*(Rholemax+Rholemin));// It is not posible to get the
+ // Poly-cone Volume H.
+ t = Cthick/(0.5*(RholeMax+RholeMin));// It is not posible to get the
// carbon fiber thickness uniform in this phi direction. We can only
// make it a fixed angular thickness.
t *= 180.0/TMath::Pi();
- dphi = 5.0 - 2.0*t; // degrees
- phi0 = 12.5+t; // degrees see drawing ALR-0767.
- nz = 4;
- Double_t *zh = new Double_t[nz];
- Double_t *rminh = new Double_t[nz];
- Double_t *rmaxh = new Double_t[nz];
- zh[0] = zf[2];
- rminh[0] = rming[0];
- rmaxh[0] = rmaxg[0];
- zh[1] = zf[3];
- rminh[1] = rming[1]-(ct/sintc-(zg[1]-zh[1]))*tantc;
- rmaxh[1] = rmaxh[0];
- zh[2] = zg[2]+ct/tanth;
- rminh[2] = rming[2];
- rmaxh[2] = rmaxg[2]-(ct/sintc-(zg[2]-zh[2]))*tantc;
- zh[3] = zg[3]-ct/sintc;
- rminh[3] = rminh[2];
- rmaxh[3] = rminh[3];
- PolyCone("SCG","SSD spoak carbon fiber surfaces",
- phi0,dphi,nz,*zc,*rminc,*rmaxc,SSDcf);
- Pos("SCH",1,"SCG",0.0,.0,0.0,0);
+ phi = 12.5+t; // degrees
+ dphi = 5.0 - 2.0*t; // degrees see drawing ALR-0767.
+ z[0] = F->GetZ(1);
+ rn[0] = G->GetRmin(0);
+ rx[0] = rn[0];
+ z[1] = F->GetZ(3);
+ rn[1] = RminFromZpCone(A,Tc,z[1],+Cthick);
+ rx[1] = rx[0];
+ z[2] = ZFromRminpCone(A,Tc,G->GetRmin(2),+Cthick);
+ rn[2] = G->GetRmin(2);
+ rx[2] = RmaxFromZpCone(A,Tc,z[2],-Cthick);
+ z[3] = ZFromRmaxpCone(A,Tc,G->GetRmin(3),-Cthick);
+ rn[3] = G->GetRmin(3);
+ rx[3] = rn[3];
+ TGeoPcon *H = new TGeoPcon("ITS SSD support cone Rohacell foam Spoak",
+ phi,dphi,4);
+ for(i=0;i<H->GetNz();i++){
+ H->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(H);
//
//==================================================================
-
+ // Now for the Inner most part of the SSD cone.
+ //Poly-cone Volume I.
+ phi = 0.0;
+ dphi = 360.0;
+ z[0] = G->GetZ(2);
+ rn[0] = G->GetRmin(2);
+ rx[0] = rn[0];
+ z[1] = G->GetZ(3);
+ rn[1] = RminFromZpCone(A,Tc,z[1]);
+ rx[1] = rx[0];
+ rn[4] = RinMin;
+ rn[5] = RinMin;
+ RadiusOfCurvature(Rcurv,90.0,0.0,RinMax,90.0-Tc,Z,rx[5]); // z dummy
+ z[5] = ZFromRmaxpCone(A,Tc,rx[5]);
+ z[6] = Zcylinder;
+ rn[6] = RinMin;
+ z[7] = z[6];
+ rn[7] = RinCylinder;
+ rn[8] = RinCylinder;
+ rx[8] = rn[8];
+ Rmin = rn[5];
+ RadiusOfCurvature(Rcurv,90.0-Tc,z[5],rx[5],90.0,Z,Rmax);
+ Rmax = RinMax;
+ z[8] = Z+(z[5]-Z)*(rx[8]-Rmax)/(rx[5]-Rmax);
+ rx[6] = RFrom2Points(rx,z,8,5,z[6]);
+ rx[7] = rx[6];
+ z[3] = Z-dZin;
+ z[4] = z[3];
+ rx[3] = RmaxFromZpCone(A,Tc,z[3]);
+ rx[4] = rx[3];
+ //rmin dummy
+ RadiusOfCurvature(Rcurv,90.,z[3],0.,90.-Tc,z[2],Rmin);
+ rn[2] = RminFromZpCone(A,Tc,z[2]);
+ rx[2] = RmaxFromZpCone(A,Tc,z[2]);
+ // z dummy
+ RadiusOfCurvature(Rcurv,90.-Tc,0.0,rn[2],90.0,Z,rn[3]);
+ TGeoPcon *I = new TGeoPcon("ITS SSD lower/inner right part of SSD "
+ "cone",phi,dphi,9);
+ for(i=0;i<I->GetNz();i++){
+ I->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(I);
+ // Now for Inserto volume at the inner most radius.
+ // Poly-cone Volume K.
+ phi = 0.0;
+ dphi = 360.0;
+ z[1] = I->GetZ(3)+Cthick;
+ rn[1] = I->GetRmin(3);
+ z[2] = z[1];
+ rn[2] = I->GetRmin(4);
+ rn[3] = rn[2];
+ rn[4] = rn[2];
+ rx[4] = I->GetRmax(5)-Cthick*Sintc;
+ RadiusOfCurvature(Rcurv+Cthick,90.0,z[1],rn[1],90.0-Tc,z[0],rn[0]);
+ rx[0] = rn[0];
+ z[3] = z[0]+(Thickness-2.0*Cthick)*Costc;;
+ rx[3] = rx[0]+(Thickness-2.0*Cthick)*Sintc;
+ rx[1] = RFrom2Points(rx,z,3,0,z[1]);
+ rx[2] = rx[1];
+ z[4] = ZFromRmaxpCone(A,Tc,rx[4],-Cthick);
+ rn[5] = rn[2];
+ z[5] = I->GetZ(6);
+ rx[5] = (I->GetRmax(5)-I->GetRmax(8))/(I->GetZ(5)-I->GetZ(8))*(z[5]-z[4])+
+ rx[4];
+ TGeoPcon *K = new TGeoPcon("ITS SSD inner most inserto material",
+ phi,dphi,6);
+ for(i=0;i<K->GetNz();i++){
+ K->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(K);
+ // Now for foam core at the inner most radius.
+ // Poly-cone Volume J.
+ phi = 0.0;
+ dphi = 360.0;
+ rn[0] = I->GetRmin(0)-Cthick;
+ z[0] = ZFromRminpCone(A,Tc,rn[0],+Cthick);
+ rx[0] = rn[0];
+ rx[1] = rx[0];
+ z[1] = ZFromRmaxpCone(A,Tc,rx[1],-Cthick);
+ rn[1] = RminFromZpCone(A,Tc,z[1],+Cthick);
+ z[2] = K->GetZ(0);
+ rn[2] = K->GetRmin(0);
+ rx[2] = RmaxFromZpCone(A,Tc,z[2],-Cthick);
+ z[3] = K->GetZ(3);
+ rn[3] = K->GetRmax(3);
+ rx[3] = rn[3];
+ TGeoPcon *J = new TGeoPcon("ITS SSD inner most foam core",phi,dphi,4);
+ for(i=0;i<J->GetNz();i++){
+ J->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(J);
+ // Now for foam core at the top of the inner most radius where
+ // the spoaks are.
+ t = Cthick/(0.5*(RholeMax+RholeMin));// It is not posible to get the
+ // carbon fiber thickness uniform in this phi direction. We can only
+ // make it a fixed angular thickness.
+ // Poly-cone Volume L.
+ t *= 180.0/TMath::Pi();
+ phi = 12.5+t; // degrees
+ dphi = 5.0 - 2.0*t; // degrees see drawing ALR-0767.
+ z[0] = H->GetZ(2);
+ rn[0] = H->GetRmin(2);
+ rx[0] = rn[0];
+ z[1] = J->GetZ(0);
+ rn[1] = J->GetRmin(0);
+ rx[1] = I->GetRmax(1);
+ z[2] = H->GetZ(3);
+ rn[2] = rn[1];
+ rx[2] = rx[1];
+ z[3] = J->GetZ(1);
+ rn[3] = rn[2];
+ rx[3] = rn[3];
+ TGeoPcon *L = new TGeoPcon("ITS SSD Bottom cone Rohacell foam Spoak",
+ phi,dphi,4);
+ for(i=0;i<L->GetNz();i++){
+ L->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(L);
+ // Now for the SSD mounting posts
+ // Poly-cone Volume O.
+ dphi = 180.0*dRpost/(RpostMin+0.5*dRpost)/TMath::Pi(); //
+ phi = Phi0Post-0.5*dphi; // degrees
+ rn[0] = RpostMin+dRpost;
+ rx[0] = rn[0];
+ z[0] = ZFromRmaxpCone(A,Tc,rx[0]);
+ rn[1] = RpostMin;
+ z[1] = ZFromRmaxpCone(A,Tc,rn[1]);
+ rx[1] = rx[0];
+ z[2] = ZpostMax;
+ rn[2] = RpostMin;
+ rx[2] = rn[2]+dRpost;
+ TGeoPcon *O = new TGeoPcon("ITS SSD mounting post, carbon fiber",
+ phi,dphi,3);
+ for(i=0;i<O->GetNz();i++){
+ O->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(O);
+ // Now for the SSD mounting posts
+ // Poly-cone Volume P.
+ t = 180.0*Cthick/(RpostMin+0.5*dRpost)/TMath::Pi();
+ dphi = O->GetDphi()-2.0*t; // degrees
+ phi = O->GetPhi1()+t; //
+ rn[0] = O->GetRmin(0)-Cthick;
+ rx[0] = rn[0];
+ z[0] = ZFromRmaxpCone(A,Tc,rx[0]);
+ rn[1] = O->GetRmin(1)+Cthick;
+ rx[1] = O->GetRmin(0)-Cthick;
+ z[1] = ZFromRmaxpCone(A,Tc,rn[1]);
+ rn[2] = rn[1];
+ rx[2] = rx[1];
+ z[2] = ZpostMax;
+ TGeoPcon *P = new TGeoPcon("ITS SSD mounting post, Inserto",
+ phi,dphi,3);
+ for(i=0;i<P->GetNz();i++){
+ P->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(P);
+ // This insrto continues into the SSD cone displacing the foam
+ // and the carbon fiber surface at those points where the posts are.
+ //Poly-cone Vol. M
+ phi = P->GetPhi1();
+ dphi = P->GetDphi();
+ rn[0] = RpostMin+dRpost-Cthick;
+ rx[0] = rn[0];
+ z[0] = ZFromRminpCone(A,Tc,rn[0],+Cthick);
+ rx[1] = rx[0];
+ z[1] = ZFromRmaxpCone(A,Tc,rx[1],-Cthick);
+ rn[1] = RminFromZpCone(A,Tc,z[1],+Cthick);
+ rn[2] = RpostMin+Cthick;
+ z[2] = ZFromRminpCone(A,Tc,rn[2],+Cthick);
+ rx[2] = RmaxFromZpCone(A,Tc,z[2],-Cthick);
+ rn[3] = rn[2];
+ rx[3] = rn[3];
+ z[3] = ZFromRmaxpCone(A,Tc,rx[3],-Cthick);
+ TGeoPcon *M = new TGeoPcon("ITS SSD mounting post foam substitute, "
+ "Inserto",phi,dphi,4);
+ for(i=0;i<M->GetNz();i++){
+ M->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(M);
//
- //Now for the carbon fiber on the sides of the spoakes.
- //==============================================================
- delete[] za;delete[] rmina;delete[] rmaxa;
- delete[] zb;delete[] rminb;delete[] rmaxb;
- delete[] zc;delete[] rminc;delete[] rmaxc;
- delete[] zd;delete[] rmind;delete[] rmaxd;
- delete[] ze;delete[] rmine;delete[] rmaxe;
- delete[] zf;delete[] rminf;delete[] rmaxf;
- delete[] zg;delete[] rming;delete[] rmaxg;
- delete[] zh;delete[] rminh;delete[] rmaxh;
- delete[] zi;delete[] rmini;delete[] rmaxi;
- delete[] zj;delete[] rminj;delete[] rmaxj;
- // Set back to cm default scale before exiting.
- SetScalecm();
- return;
+ //Poly-cone Vol. N
+ phi = P->GetPhi1();
+ dphi = P->GetDphi();
+ z[0] = M->GetZ(1);
+ rn[0] = M->GetRmax(1);
+ rx[0] = rn[0];
+ rx[1] = rx[0];
+ z[1] = ZFromRmaxpCone(A,Tc,rx[1]);
+ rn[1] = RmaxFromZpCone(A,Tc,z[1],-Cthick);
+ z[2] = M->GetZ(3);
+ rn[2] = M->GetRmin(3);
+ rx[2] = RmaxFromZpCone(A,Tc,z[2]);
+ rn[3] = rn[2];
+ rx[3] = rn[3];
+ z[3] = ZFromRmaxpCone(A,Tc,rx[3]);
+ TGeoPcon *N = new TGeoPcon("ITS SSD mounting post CF subsititute, "
+ "Inserto",phi,dphi,4);
+ for(i=0;i<N->GetNz();i++){
+ N->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(N);
+ // Bolt heads holding the SSD-SDD tube to the SSD cone.
+ // Bolt -- PolyCone
+ //Poly-cone Volume Q.
+ phi = 0.0;
+ dphi = 360.0;
+ z[0] = I->GetZ(4)+ThSDDsupportPlate;
+ rn[0] = 0.0;
+ rx[0] = 0.5*DscrewHead;
+ z[1] = I->GetZ(4)+ThScrewHeadHole;
+ rn[1] = 0.0;
+ rx[1] = 0.5*DscrewHead;
+ z[2] = z[1];
+ rn[2] = 0.0;
+ rx[2] = 0.5*DscrewShaft;
+ z[3] = I->GetZ(6);
+ rn[3] = 0.0;
+ rx[3] = rx[2];
+ TGeoPcon *Q = new TGeoPcon("ITS SSD Thermal sheal stainless steel "
+ "bolts",phi,dphi,4);
+ for(i=0;i<Q->GetNz();i++){
+ Q->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(Q);
+ // air infront of bolt (stasolit Volume K) -- Tube
+ z[0] = 0.5*(ThSDDsupportPlate-Cthick);
+ rn[0] = 0.0*kmm;
+ rx[0] = 0.5*DscrewHead;
+ TGeoTube *R = new TGeoTube("ITS Air in front of bolt (in stasolit)",
+ rn[0],rx[0],z[0]);
+ // air infront of bolt (carbon fiber volume I) -- Tube
+ z[0] = 0.5*Cthick;
+ rn[0] = 0.0*kmm;
+ rx[0] = R->GetRmax();
+ TGeoTube *S = new TGeoTube("ITS Air in front of Stainless Steal "
+ "Screw end, N6",rn[0],rx[0],z[0]);
+ printTube(S);
+ // SDD support plate, SSD side.
+ //Poly-cone Volume T.
+ dphi = TMath::RadToDeg()*TMath::ATan2(0.5*WsddSupportPlate,
+ RsddSupportPlate);
+ phi = Phi0SDDsupports-0.5*dphi;
+ z[0] = K->GetZ(2);
+ rn[0] = I->GetRmin(4);
+ rx[0] = RsddSupportPlate;
+ z[1] = I->GetZ(4) - ThSDDsupportPlate;
+ rn[1] = rn[0];
+ rx[1] = rx[0];
+ TGeoPcon *T = new TGeoPcon("ITS SSD-SDD mounting bracket Inserto->Al.",
+ phi,dphi,2);
+ for(i=0;i<T->GetNz();i++){
+ T->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(T);
+ //
+ // Poly-cone Volume U.
+ TGeoPcon *U;
+ if(I->GetRmin(3)<T->GetRmax(0)){
+ dphi = T->GetDphi();
+ phi = T->GetPhi1();
+ z[2] = I->GetZ(4);
+ rn[2] = T->GetRmin(0);
+ rx[2] = T->GetRmax(0);
+ z[3] = K->GetZ(2);
+ rn[3] = rn[2];
+ rx[3] = rx[2];
+ z[1] = z[2];
+ rn[1] = I->GetRmin(3);
+ rx[1] = rx[3];
+ rx[0] = T->GetRmax(0);
+ rn[0] = rx[0];
+ z[0] = Zfrom2MinPoints(I,2,3,rn[0]);
+ U = new TGeoPcon("ITS SSD-SDD mounting bracket CF->Al.",phi,dphi,4);
+ }else{
+ dphi = T->GetDphi();
+ phi = T->GetPhi1();
+ z[0] = I->GetZ(4);
+ rn[0] = T->GetRmin(0);
+ rx[0] = T->GetRmax(0);
+ z[1] = K->GetZ(2);
+ rn[1] = rn[0];
+ rx[1] = rx[0];
+ U = new TGeoPcon("ITS SSD-SDD mounting bracket CF->Al.",phi,dphi,2);
+ }// end if
+ for(i=0;i<U->GetNz();i++){
+ U->DefineSection(i,z[i],rn[i],rx[i]);
+ } // end for i
+ printPcon(U);
+ //
+ TGeoVolume *Av,*Bv,*Cv,*Dv,*Ev,*Fv,*Gv,*Hv,*Iv,*Jv,*Kv,*Lv,*Mv,*Nv,
+ *Ov,*Pv,*Qv,*Rv,*Sv,*Tv,*Uv;
+ Av = new TGeoVolume("ITSssdConeA",A,SSDcf);
+ Av->SetVisibility(kTRUE);
+ Av->SetLineColor(4); // blue
+ Av->SetLineWidth(1);
+ Av->SetFillColor(Av->GetLineColor());
+ Av->SetFillStyle(4010); // 10% transparent
+ Bv = new TGeoVolume("ITSssdConeB",B,SSDfs);
+ Bv->SetVisibility(kTRUE);
+ Bv->SetLineColor(2); // red
+ Bv->SetLineWidth(1);
+ Bv->SetFillColor(Bv->GetLineColor());
+ Bv->SetFillStyle(4010); // 10% transparent
+ Cv = new TGeoVolume("ITSssdConeC",C,SSDfo);
+ Cv->SetVisibility(kTRUE);
+ Cv->SetLineColor(3); // green
+ Cv->SetLineWidth(1);
+ Cv->SetFillColor(Cv->GetLineColor());
+ Cv->SetFillStyle(4010); // 10% transparent
+ Dv = new TGeoVolume("ITSssdConeD",D,SSDss);
+ Dv->SetVisibility(kTRUE);
+ Dv->SetLineColor(1); // black
+ Dv->SetLineWidth(1);
+ Dv->SetFillColor(Dv->GetLineColor());
+ Dv->SetFillStyle(4010); // 10% transparent
+ Ev = new TGeoVolume("ITSssdConeE",E,SSDss);
+ Ev->SetVisibility(kTRUE);
+ Ev->SetLineColor(1); // black
+ Ev->SetLineWidth(1);
+ Ev->SetFillColor(Ev->GetLineColor());
+ Ev->SetFillStyle(4010); // 10% transparent
+ Fv = new TGeoVolume("ITSssdConeF",F,SSDfo);
+ Fv->SetVisibility(kTRUE);
+ Fv->SetLineColor(3); // green
+ Fv->SetLineWidth(1);
+ Fv->SetFillColor(Fv->GetLineColor());
+ Fv->SetFillStyle(4010); // 10% transparent
+ Gv = new TGeoVolume("ITSssdConeG",G,SSDcf);
+ Gv->SetVisibility(kTRUE);
+ Gv->SetLineColor(4); // blue
+ Gv->SetLineWidth(2);
+ Gv->SetFillColor(Gv->GetLineColor());
+ Gv->SetFillStyle(4010); // 10% transparent
+ Hv = new TGeoVolume("ITSssdConeH",H,SSDfo);
+ Hv->SetVisibility(kTRUE);
+ Hv->SetLineColor(3); // green
+ Hv->SetLineWidth(1);
+ Hv->SetFillColor(Hv->GetLineColor());
+ Hv->SetFillStyle(4010); // 10% transparent
+ Iv = new TGeoVolume("ITSssdConeI",I,SSDcf);
+ Iv->SetVisibility(kTRUE);
+ Iv->SetLineColor(4); // blue
+ Iv->SetLineWidth(1);
+ Iv->SetFillColor(Iv->GetLineColor());
+ Iv->SetFillStyle(4010); // 10% transparent
+ Jv = new TGeoVolume("ITSssdConeJ",J,SSDfo);
+ Jv->SetVisibility(kTRUE);
+ Jv->SetLineColor(3); // green
+ Jv->SetLineWidth(3);
+ Jv->SetFillColor(Jv->GetLineColor());
+ Jv->SetFillStyle(4010); // 10% transparent
+ Kv = new TGeoVolume("ITSssdConeK",K,SSDfs);
+ Kv->SetVisibility(kTRUE);
+ Kv->SetLineColor(2); // red
+ Kv->SetLineWidth(1);
+ Kv->SetFillColor(Kv->GetLineColor());
+ Kv->SetFillStyle(4010); // 10% transparent
+ Lv = new TGeoVolume("ITSssdConeL",L,SSDfo);
+ Lv->SetVisibility(kTRUE);
+ Lv->SetLineColor(3); // green
+ Lv->SetLineWidth(3);
+ Lv->SetFillColor(Lv->GetLineColor());
+ Lv->SetFillStyle(4010); // 10% transparent
+ Mv = new TGeoVolume("ITSssdConeM",M,SSDfs);
+ Mv->SetVisibility(kTRUE);
+ Mv->SetLineColor(2); // red
+ Mv->SetLineWidth(1);
+ Mv->SetFillColor(Mv->GetLineColor());
+ Mv->SetFillStyle(4010); // 10% transparent
+ Nv = new TGeoVolume("ITSssdConeN",N,SSDfs);
+ Nv->SetVisibility(kTRUE);
+ Nv->SetLineColor(2); // red
+ Nv->SetLineWidth(1);
+ Nv->SetFillColor(Nv->GetLineColor());
+ Nv->SetFillStyle(4010); // 10% transparent
+ Ov = new TGeoVolume("ITSssdConeO",O,SSDcf);
+ Ov->SetVisibility(kTRUE);
+ Ov->SetLineColor(4); // blue
+ Ov->SetLineWidth(1);
+ Ov->SetFillColor(Iv->GetLineColor());
+ Ov->SetFillStyle(4010); // 10% transparent
+ Pv = new TGeoVolume("ITSssdConeP",P,SSDfs);
+ Pv->SetVisibility(kTRUE);
+ Pv->SetLineColor(2); // red
+ Pv->SetLineWidth(1);
+ Pv->SetFillColor(Pv->GetLineColor());
+ Pv->SetFillStyle(4010); // 10% transparent
+ Qv = new TGeoVolume("ITSssdConeQ",Q,SSDss);
+ Qv->SetVisibility(kTRUE);
+ Qv->SetLineColor(1); // black
+ Qv->SetLineWidth(1);
+ Qv->SetFillColor(Qv->GetLineColor());
+ Qv->SetFillStyle(4010); // 10% transparent
+ Rv = new TGeoVolume("ITSssdConeR",R,SSDair);
+ Rv->SetVisibility(kTRUE);
+ Rv->SetLineColor(5); // yellow
+ Rv->SetLineWidth(1);
+ Rv->SetFillColor(Rv->GetLineColor());
+ Rv->SetFillStyle(4010); // 10% transparent
+ Sv = new TGeoVolume("ITSssdConeS",S,SSDair);
+ Sv->SetVisibility(kTRUE);
+ Sv->SetLineColor(5); // yellow
+ Sv->SetLineWidth(1);
+ Sv->SetFillColor(Sv->GetLineColor());
+ Sv->SetFillStyle(4010); // 10% transparent
+ Tv = new TGeoVolume("ITSssdConeT",T,SSDal);
+ Tv->SetVisibility(kTRUE);
+ Tv->SetLineColor(17); // gray
+ Tv->SetLineWidth(1);
+ Tv->SetFillColor(Tv->GetLineColor());
+ Tv->SetFillStyle(4010); // 10% transparent
+ Uv = new TGeoVolume("ITSssdConeU",U,SSDal);
+ Uv->SetVisibility(kTRUE);
+ Uv->SetLineColor(17); // gray
+ Uv->SetLineWidth(1);
+ Uv->SetFillColor(Uv->GetLineColor());
+ Uv->SetFillStyle(4010); // 10% transparent
+ //
+ TGeoTranslation *tran = new TGeoTranslation("ITSssdConeTrans",0.0,0.0,-Z0);
+ TGeoRotation *rot180 = new TGeoRotation("",0.0,180.0,0.0);
+ TGeoCombiTrans *flip = new TGeoCombiTrans("ITSssdConeFlip",0.0,0.0,Z0,rot180);
+ delete rot180;// rot not explicity used in AddNode functions.
+ TGeoTranslation *tranR,*tranS;
+ TGeoCombiTrans *fliptran,*rottran;
+ TGeoRotation *rot,*zspoaks,*zspoaks180;
+ Int_t NcD=1,NcE=1,NcQ=1,NcR=1,NcS=1,NcT=1,NcU=1;
+ Av->AddNode(Bv,1,0);
+ Av->AddNode(Cv,1,0);
+ Moth->AddNode(Av,1,tran); // RB24 side
+ Moth->AddNode(Av,2,flip); // RB26 side (Absorber)
+ Moth->AddNode(Iv,1,tran); // RB24 side
+ Moth->AddNode(Iv,2,flip); // RB26 side (Absorber)
+ Gv->AddNode(Hv,1,0);
+ for(i=0;i<Nspoaks;i++){ // SSD Cone Spoaks
+ zspoaks = new TGeoRotation("",0.0,0.0,
+ ((Double_t)i*360.)/((Double_t)Nspoaks));
+ rottran = new TGeoCombiTrans("",0.0,0.0,-Z0,zspoaks);
+ Moth->AddNode(Gv,i+1,rottran); // RB24 side
+ Av->AddNode(Fv,i+1,zspoaks);
+ Iv->AddNode(Lv,i+1,zspoaks);
+ zspoaks180 = new TGeoRotation("",0.0,180.0,
+ ((Double_t)i*360.)/((Double_t)Nspoaks));
+ fliptran = new TGeoCombiTrans("",0.0,0.0,Z0,zspoaks180);
+ delete zspoaks180;// rot not explicity used in AddNode functions.
+ Moth->AddNode(Gv,Nspoaks+i+1,fliptran); // RB26 side
+ } // end for i
+ Iv->AddNode(Jv,1,0);
+ Iv->AddNode(Kv,1,0);
+ Ov->AddNode(Pv,1,0);
+ t0 = (P->GetPhi1()+0.5*P->GetDphi())*kRadian;
+ t = (0.25* P->GetDphi())*kRadian;
+ z[0] = 0.5*(P->GetRmin(2)+P->GetRmax(2))+
+ 0.25*(P->GetRmax(2)-P->GetRmin(2));
+ x = z[0]*TMath::Cos(t0+t);
+ y = z[0]*TMath::Sin(t0+t);
+ tran = new TGeoTranslation("",x,y,P->GetZ(2)-Q->GetZ(3));
+ Pv->AddNode(Qv,NcQ++,tran); // Screw head
+ z[0] = 0.5*(P->GetRmin(2)+P->GetRmax(2))-
+ 0.25*(P->GetRmax(2)-P->GetRmin(2));
+ x = z[0]*TMath::Cos(t0-t);
+ y = z[0]*TMath::Sin(t0-t);
+ tran = new TGeoTranslation("",x,y,P->GetZ(2)-Q->GetZ(3));
+ Pv->AddNode(Qv,NcQ++,tran); // Screw head
+ //Pv->AddNode(Vv,1,?); // Air hole in Posts
+ //Pv->AddNode(Vv,2,?); // Air hole in Posts
+ //Mv->AddNode(Wv,1,?); // Air hole in Posts
+ //Mv->AddNode(Wv,2,?); // Air hole in Posts
+ //Nv->AddNode(Xv,1,?); // Air hole in Posts
+ //Nv->AddNode(Xv,2,?); // Air hole in Posts
+ TGeoRotation *zposts,*zposts180;
+ for(i=0;i<Nposts;i++){ // SSD Cone mounting posts
+ zposts = new TGeoRotation("",0.0,0.0,
+ ((Double_t)i*360.)/((Double_t)Nposts));
+ rottran = new TGeoCombiTrans("",0.0,0.0,-Z0,zposts);
+ Moth->AddNode(Ov,i+1,rottran); // RB24 side
+ Jv->AddNode(Mv,i+1,zposts);
+ Iv->AddNode(Nv,i+1,zposts);
+ //Jv->AddNode(Xv,2*i+3,?); // Air hole in Posts
+ //Jv->AddNode(Xv,2*i+4,?); // Air hole in Posts
+ zposts180 = new TGeoRotation("",0.0,180.0,
+ ((Double_t)i*360.)/((Double_t)Nposts));
+ fliptran = new TGeoCombiTrans("",0.0,0.0,Z0,zposts180);
+ delete zposts180;// rot not explicity used in AddNode functions.
+ Moth->AddNode(Ov,Nposts+i+1,fliptran); // RB26 side
+ } // end for i
+ //
+ for(i=0;i<NinScrews;i++){
+ t = (Phi0Screws+360.*((Double_t)i)/((Double_t)NinScrews))*kRadian;
+ tran= new TGeoTranslation("",RcylinderScrews*TMath::Cos(t),
+ RcylinderScrews*TMath::Sin(t),0.0);
+ Kv->AddNode(Qv,NcQ++,tran);
+ tran = new TGeoTranslation("",RcylinderScrews*TMath::Cos(t),
+ RcylinderScrews*TMath::Sin(t),
+ CB->GetZ(0)+D->GetDz());
+ CBv->AddNode(Dv,NcD++,tran);
+ tran = new TGeoTranslation("",RcylinderScrews*TMath::Cos(t),
+ RcylinderScrews*TMath::Sin(t),
+ CB->GetZ(5)-D->GetDz());
+ CBv->AddNode(Dv,NcD++,tran);
+ if(/*not where volumes U and T are*/kTRUE){
+ tranR = new TGeoTranslation("",RcylinderScrews*TMath::Cos(t),
+ RcylinderScrews*TMath::Sin(t),
+ K->GetZ(2)+R->GetDz());
+ tranS = new TGeoTranslation("",RcylinderScrews*TMath::Cos(t),
+ RcylinderScrews*TMath::Sin(t),
+ I->GetZ(4)+S->GetDz());
+ Kv->AddNode(Rv,NcR++,tranR);
+ Iv->AddNode(Sv,NcS++,tranS);
+ } // end if
+ } // end for i
+ const Int_t Nbscrew=2,Nbpins=3,Nrailsc=4,Nrailp=2;
+ Double_t da[] = {-3.5,-1.5,1.5,3.5};
+ for(i=0;i<2;i++){ // Mounting for ITS-TPC bracket or ITS-Rails
+ t0 = 180.*((Double_t)i)*kRadian;
+ for(j=-Nbscrew/2;j<=Nbscrew/2;j++)if(j!=0){//screws per ITS-TPC bracket
+ t = t0 + 5.0*((Double_t)j)*kRadian;
+ tran = new TGeoTranslation("",RoutHole*TMath::Cos(t),
+ RoutHole*TMath::Sin(t),
+ B->GetZ(0)+D->GetDz());
+ Bv->AddNode(Dv,NcD++,tran);
+ } // end or j
+ for(j=-Nbpins/2;j<=Nbpins/2;j++){ // pins per ITS-TPC bracket
+ t = t0 + 3.0*((Double_t)j)*kRadian;
+ tran = new TGeoTranslation("",RoutHole*TMath::Cos(t),
+ RoutHole*TMath::Sin(t),
+ B->GetZ(0)+D->GetDz());
+ Bv->AddNode(Ev,NcE++,tran);
+ } // end or j
+ t0 = (96.5+187.*((Double_t)i))*kRadian;
+ for(j=0;j<Nrailsc;j++){ // screws per ITS-rail bracket
+ t = t0+da[j]*kRadian;
+ tran = new TGeoTranslation("",RoutHole*TMath::Cos(t),
+ RoutHole*TMath::Sin(t),
+ B->GetZ(0)+D->GetDz());
+ Bv->AddNode(Dv,NcD++,tran);
+ } // end or j
+ t0 = (91.5+184.*((Double_t)i))*kRadian;
+ for(j=-Nrailp/2;j<=Nrailp/2;j++)if(j!=0){ // pins per ITS-rail bracket
+ t = t0+(7.0*((Double_t)j))*kRadian;
+ tran = new TGeoTranslation("",RoutHole*TMath::Cos(t),
+ RoutHole*TMath::Sin(t),
+ B->GetZ(0)+D->GetDz());
+ Bv->AddNode(Ev,NcE++,tran);
+ } // end or j
+ } // end for i
+ for(i=0;i<Nmounts;i++){ // mounting points for SPD-cone+Beam-pipe support
+ t0 = (45.0+((Double_t)i)*360./((Double_t)Nmounts))*kRadian;
+ for(j=-1;j<=1;j++)if(j!=0){ // 2 screws per bracket
+ t = t0+((Double_t)j)*0.5*DmountAngle*kRadian;
+ tran = new TGeoTranslation("",RoutHole*TMath::Cos(t),
+ RoutHole*TMath::Sin(t),
+ B->GetZ(0)+D->GetDz());
+ Bv->AddNode(Dv,NcD++,tran);
+ } // end for j
+ for(j=0;j<1;j++){ // 1 pin per bracket
+ t = t0;
+ tran = new TGeoTranslation("",RoutHole*TMath::Cos(t),
+ RoutHole*TMath::Sin(t),
+ B->GetZ(0)+D->GetDz());
+ Bv->AddNode(Ev,NcE++,tran);
+ } // end for j
+ } // end for i
+ t = (T->GetPhi1()+0.5*T->GetDphi())*kRadian;
+ tran = new TGeoTranslation("",RinHole*TMath::Cos(t),RinHole*TMath::Sin(t),
+ T->GetZ(T->GetNz()-1)+R->GetDz());
+ Tv->AddNode(Rv,NcR++,tran);
+ t = (U->GetPhi1()+0.5*U->GetDphi())*kRadian;
+ tran = new TGeoTranslation("",RinHole*TMath::Cos(t),RinHole*TMath::Sin(t),
+ U->GetZ(U->GetNz()-1)+S->GetDz());
+ Uv->AddNode(Sv,NcS++,tran);
+ for(i=0;i<NssdSupports;i++){ // mounting braclets for SSD/SDD
+ t0 = ((Double_t)i*360./((Double_t)NssdSupports));
+ rot = new TGeoRotation("",0.0,0.0,t0);
+ Kv->AddNode(Tv,NcT++,rot);
+ Iv->AddNode(Uv,NcU++,rot);
+ for(j=0;j<2;j++)if(j!=0){ // 2 pin per bracket
+ t = t0 + ((Double_t)j)*0.5*DssdsddBracketAngle;
+ tran = new TGeoTranslation("",RinHole*TMath::Cos(t),
+ RinHole*TMath::Sin(t),
+ T->GetZ(T->GetNz()-1)-E->GetDz());
+ Kv->AddNode(Ev,NcE++,tran);
+ } // end for j
+ } // end for i
+ if(GetDebug()){
+ Av->PrintNodes();
+ Bv->PrintNodes();
+ Cv->PrintNodes();
+ Dv->PrintNodes();
+ Ev->PrintNodes();
+ Fv->PrintNodes();
+ Gv->PrintNodes();
+ Hv->PrintNodes();
+ Iv->PrintNodes();
+ Jv->PrintNodes();
+ Kv->PrintNodes();
+ Lv->PrintNodes();
+ Mv->PrintNodes();
+ Nv->PrintNodes();
+ Ov->PrintNodes();
+ Pv->PrintNodes();
+ Qv->PrintNodes();
+ Rv->PrintNodes();
+ Sv->PrintNodes();
+ Tv->PrintNodes();
+ Uv->PrintNodes();
+ } // end if
}
//______________________________________________________________________
-void AliITSv11::CreateGeometry(){
- ////////////////////////////////////////////////////////////////////////
- // This routine defines and Creates the geometry for version 11 of the ITS.
- ////////////////////////////////////////////////////////////////////////
+void AliITSv11::CreateMaterials(){
+ // Create ITS materials
+ // This function defines the default materials used in the Geant
+ // Monte Carlo simulations for the geometries AliITSv11.
+ // In general it is automatically replaced by
+ // Inputs:
+ // none.
+ // Outputs:
+ // none.
+ // Return
+ // none.
+
+ //TGeoMaterial *C = new TGeoMaterial("ITSCarbon",12.0,6.0,2.265);
+ TGeoMaterial *Al = new TGeoMaterial("ITSAluminum",26.981539,13.0,2.07);
+ TGeoMixture *Cfiber = new TGeoMixture("ITSCarbonFiber",6,1.930);
+ TGeoMixture *Rohacell = new TGeoMixture("ITSRohacell",6,1.930);
+ TGeoMixture *Staselite = new TGeoMixture("ITSStaselite4411w",6,1.930);
+ TGeoMixture *Air = new TGeoMixture("ITSAir",6,1.205*1.E-3);
+ TGeoMixture *Stainless = new TGeoMixture("ITSStainless",6,1.930);
+ //
+ Double_t SPDcone[20];
+ SPDcone[0] = 1.0; // imat
+ SPDcone[1] = 0.0; // isvol
+ SPDcone[2] = gAlice->Field()->Integ(); // ifield
+ SPDcone[3] = gAlice->Field()->Max(); // fieldm
+ SPDcone[4] = 1.0; // tmaxfd [degrees]
+ SPDcone[5] = 1.0; // stemax [cm]
+ SPDcone[6] = 0.5; // deemax [fraction]
+ SPDcone[7] = 1.0E-3; // epsil [cm]
+ SPDcone[8] = 0.0; // stmin [cm]
+ new TGeoMedium("ITSspdCarbonFiber",1,Cfiber,SPDcone);
+ SPDcone[0] += 1.0;
+ new TGeoMedium("ITSspdStaselite4411w",2,Staselite,SPDcone);
+ SPDcone[0] += 1.0;
+ new TGeoMedium("ITSspdRohacell50A",3,Rohacell,SPDcone);
+ SPDcone[0] += 1.0;
+ new TGeoMedium("ITSspdStainlesSteal",4,Stainless,SPDcone);
+ SPDcone[0] += 1.0;
+ new TGeoMedium("ITSspdAir",5,Air,SPDcone);
+ SPDcone[0] += 1.0;
+ new TGeoMedium("ITSspdAl",6,Al,SPDcone);
+ //
+ Double_t SSDcone[20];
+ SSDcone[0] = 1.0; // imat
+ SSDcone[1] = 0.0; // isvol
+ SSDcone[2] = gAlice->Field()->Integ(); // ifield
+ SSDcone[3] = gAlice->Field()->Max(); // fieldm
+ SSDcone[4] = 1.0; // tmaxfd [degrees]
+ SSDcone[5] = 1.0; // stemax [cm]
+ SSDcone[6] = 0.5; // deemax [fraction]
+ SSDcone[7] = 1.0E-3; // epsil [cm]
+ SSDcone[8] = 0.0; // stmin [cm]
+ new TGeoMedium("ITSssdCarbonFiber",1,Cfiber,SSDcone);
+ SSDcone[0] += 1.0;
+ new TGeoMedium("ITSssdStaselite4411w",2,Staselite,SSDcone);
+ SSDcone[0] += 1.0;
+ new TGeoMedium("ITSssdRohacell50A",3,Rohacell,SSDcone);
+ SSDcone[0] += 1.0;
+ new TGeoMedium("ITSssdStainlesSteal",4,Stainless,SSDcone);
+ SSDcone[0] += 1.0;
+ new TGeoMedium("ITSssdAir",5,Air,SSDcone);
+ SSDcone[0] += 1.0;
+ new TGeoMedium("ITSssdAl",6,Al,SSDcone);
}
//______________________________________________________________________
-void AliITSv11::CreateMaterials(){
-////////////////////////////////////////////////////////////////////////
- //
- // Create ITS materials
- // This function defines the default materials used in the Geant
- // Monte Carlo simulations for the geometries AliITSv1, AliITSv3,
- // AliITSv11.
- // In general it is automatically replaced by
- // the CreatMaterials routine defined in AliITSv?. Should the function
- // CreateMaterials not exist for the geometry version you are using this
- // one is used. See the definition found in AliITSv5 or the other routine
- // for a complete definition.
- //
+void AliITSv11::ServicesCableSupport(TGeoVolume *Moth){
+ // Define the detail ITS cable support trays on both the RB24 and
+ // RB26 sides..
+ // Inputs:
+ // none.
+ // Outputs:
+ // none.
+ // Return:
+ // none.
+ // Based on the Drawings SSup_201A.jpg unless otherwise stated,
+ // Volumes A...,
+ TGeoMedium *SUPcf = 0; // SUP support cone Carbon Fiber materal number.
+ TGeoMedium *SUPfs = 0; // SUP support cone inserto stesalite 4411w.
+ TGeoMedium *SUPfo = 0; // SUP support cone foam, Rohacell 50A.
+ TGeoMedium *SUPss = 0; // SUP support cone screw material,Stainless
+ TGeoMedium *SUPair = 0; // SUP support cone Air
+ TGeoMedium *SUPal = 0; // SUP support cone SDD mounting bracket Al
+ TGeoMedium *SUPwater = 0; // SUP support cone Water
+ TGeoManager *mgr = gGeoManager;
+ SUPcf = mgr->GetMedium("ITSssdCarbonFiber");
+ SUPfs = mgr->GetMedium("ITSssdStaselite4411w");
+ SUPfo = mgr->GetMedium("ITSssdRohacell50A");
+ SUPss = mgr->GetMedium("ITSssdStainlessSteal");
+ SUPair = mgr->GetMedium("ITSssdAir");
+ SUPal = mgr->GetMedium("ITSssdAl");
+ SUPwater = mgr->GetMedium("ITSssdWater");
+ //
+ Int_t i,j;
+ Double_t x,y,z,t,t0,dt,di,r;
+
+ // RB 24 side
+ const Double_t Z024 = 900*kmm;//SSup_203A.jpg
+ const Double_t ThssFrame24 = 5.0*kmm;
+ const Double_t RssFrame24 = 444.5*kmm-ThssFrame24; // SSup_204A.jpg
+ const Double_t WidthFrame24 = 10.0*kmm;
+ const Double_t HightFrame24 = 10.0*kmm;
+ const Double_t Phi0Frame24 = 15.2*kDegree; // SSup_602A.jpg
+ const Double_t Phi1Frame24 = (90.0-7.6)*kDegree; // SSup_802A.jpg
+ const Double_t ZssFrameSection24 = (415.0-10.0)*kmm;
+ const Int_t NZsections24 = 4;
+ const Int_t NPhiSections24 = 4;
+ const Int_t NFramesPhi24 = 4;
+ TGeoTubeSeg *A24,*M24; // Cylinderial support structure
+ TGeoBBox *B24; // Cylinderial support structure
+
+ M24 = new TGeoTubeSeg("ITS sup Cable tray support frame mother volume M24",
+ RssFrame24,RssFrame24+ThssFrame24,
+ 0.5*(4.*ZssFrameSection24+5*WidthFrame24),
+ Phi0Frame24,Phi1Frame24);
+ A24 = new TGeoTubeSeg("ITS sup Cable tray support frame radial section A24",
+ RssFrame24,RssFrame24+ThssFrame24,0.5*WidthFrame24,
+ Phi0Frame24,Phi1Frame24);
+ B24 = new TGeoBBox("ITS sup Cable tray support frame Z section B24",
+ 0.5*ThssFrame24,0.5*HightFrame24,0.5*ZssFrameSection24);
+ printTubeSeg(A24);
+ printTubeSeg(M24);
+ printBBox(B24);
+ TGeoVolume *A24v,*B24v,*M24v;
+ TGeoTranslation *tran;
+ TGeoRotation *rot;
+ TGeoCombiTrans *tranrot;
+ //
+ A24v = new TGeoVolume("ITSsupFrameA24",A24,SUPss);
+ A24v->SetVisibility(kTRUE);
+ A24v->SetLineColor(1); // black
+ A24v->SetLineWidth(1);
+ A24v->SetFillColor(A24v->GetLineColor());
+ A24v->SetFillStyle(4000); // 0% transparent
+ B24v = new TGeoVolume("ITSsupFrameB24",B24,SUPss);
+ B24v->SetVisibility(kTRUE);
+ B24v->SetLineColor(1); // black
+ B24v->SetLineWidth(1);
+ B24v->SetFillColor(B24v->GetLineColor());
+ B24v->SetFillStyle(4000); // 0% transparent
+ M24v = new TGeoVolume("ITSsupFrameM24",M24,SUPair);
+ M24v->SetVisibility(kTRUE);
+ M24v->SetLineColor(7); // light blue
+ M24v->SetLineWidth(1);
+ M24v->SetFillColor(M24v->GetLineColor());
+ M24v->SetFillStyle(4090); // 90% transparent
+ //
+ Int_t NcA24=1,NcB24=1;
+ t0 = Phi0Frame24;
+ dt = (Phi1Frame24-Phi0Frame24)/((Double_t)NPhiSections24);
+ for(i=0;i<=NZsections24;i++){
+ di = (Double_t) i;
+ z = -M24->GetDz()+A24->GetDz() + di*(ZssFrameSection24+WidthFrame24);
+ tran = new TGeoTranslation("",0.0,0.0,z);
+ M24v->AddNode(A24v,NcA24++,tran);
+ r = RssFrame24+B24->GetDX();
+ z = z + A24->GetDz()+B24->GetDZ();
+ if(i<NZsections24) for(j=0;j<=NPhiSections24;j++){
+ t = t0 + ((Double_t)j)*dt;
+ rot = new TGeoRotation("",0.0,0.0,t);
+ y = r*TMath::Sin(t*kRadian);
+ x = r*TMath::Cos(t*kRadian);
+ tranrot = new TGeoCombiTrans("",x,y,z,rot);
+ delete rot;// rot not explicity used in AddNode functions.
+ M24v->AddNode(B24v,NcB24++,tranrot);
+ } // end for j
+ } // end for i
+ tran = new TGeoTranslation("",0.0,0.0,Z024+M24->GetDz());
+ Moth->AddNode(M24v,1,tran);
+ for(i=1;i<NFramesPhi24;i++){
+ di = (Double_t) i;
+ rot = new TGeoRotation("",0.0,0.0,90.0*di);
+ tranrot = new TGeoCombiTrans("",0.0,0.0,Z024+M24->GetDz(),rot);
+ delete rot;// rot not explicity used in AddNode functions.
+ Moth->AddNode(M24v,i+1,tranrot);
+ } // end for i
+ if(GetDebug()){
+ A24v->PrintNodes();
+ B24v->PrintNodes();
+ M24v->PrintNodes();
+ } // end if
+ // Cable support tray
+ // Material is Aluminum
+ const Double_t RS24in = TMath::Max(RssFrame24,444.5*kmm);
+ // SSup_204A & SSup_206A
+ const Double_t RS24Airout = 459.5*kmm; // SSup_204A & SSup_206A
+ const Double_t RS24out = 494.5*kmm; // SSup_206A & SSup_204A
+ const Double_t RS24PPout = 550.0*kmm; // SSup_206A
+ const Double_t LS24PP = 350.0*kmm; // SSup_202A
+ const Double_t LS24 = (2693.0-900.0)*kmm; //SSup_205A & SSup_207A
+ const Double_t ThS24wall = 1.0*kmm; // SSup_209A & SSup_210A
+ const Double_t WbS24 = 42.0*kmm; // SSup_209A & SSup_210A
+ const Double_t WtS24 = 46.9*kmm; // SSup_209A & SSup_210A
+ const Double_t WcapS24 = 50.0*kmm; // SSup_209A & SSup_210A
+ const Double_t WdS24 = 41.0*kmm; // SSup_209A ? should be 41.46938776
+ const Double_t HS24 = 50.0*kmm; // SSup_209A & SSup_210A
+ const Double_t OutDcoolTub= 12.0*kmm; // SSup_209A
+ const Double_t InDcoolTub = 10.0*kmm; // SSup_209A
+ const Double_t BlkNozInDS24= 6.0*kmm; // SSup_209A
+ // The following are deduced or guessed at
+ const Double_t LtopLipS24 = 6.0*kmm; // Guessed at.
+ const Double_t LdLipS24 = 6.0*kmm; // Guessed at.
+ const Double_t HdS24 = OutDcoolTub; //
+ const Double_t BlkNozZS24 = 6.0*kmm; // Guessed at.
+ // Simplifided exterior shape. The side wall size is 2.5*thicker than
+ // it should be (due to simplification).
+ TGeoArb8 *C24 = new TGeoArb8("ITS Sup Cable Tray Element C24",0.5*LS24);
+ C24->SetVertex(0,-0.5*WcapS24,HS24+ThS24wall);
+ C24->SetVertex(1,+0.5*WcapS24,HS24+ThS24wall);
+ C24->SetVertex(2,+0.5*WbS24,0.0);
+ C24->SetVertex(3,-0.5*WbS24,0.0);
+ C24->SetVertex(4,-0.5*WcapS24,HS24+ThS24wall);
+ C24->SetVertex(5,+0.5*WcapS24,HS24+ThS24wall);
+ C24->SetVertex(6,+0.5*WbS24,0.0);
+ C24->SetVertex(7,-0.5*WbS24,0.0);
+ TGeoArb8 *D24 = new TGeoArb8("ITS Sup Cable Tray lower Element D24",
+ 0.5*LS24);
+ // Because of question about the value of WdS24, compute what it
+ // should be assuming cooling tube fixes hight of volume.
+ x = OutDcoolTub*(0.5*WcapS24-0.5*WbS24-ThS24wall)/(HS24-ThS24wall);
+ D24->SetVertex(0,-x,OutDcoolTub+ThS24wall);
+ D24->SetVertex(1,+x,OutDcoolTub+ThS24wall);
+ D24->SetVertex(2,+0.5*WbS24-ThS24wall,ThS24wall);
+ D24->SetVertex(3,-0.5*WbS24+ThS24wall,ThS24wall);
+ D24->SetVertex(4,-x,OutDcoolTub+ThS24wall);
+ D24->SetVertex(5,+x,OutDcoolTub+ThS24wall);
+ D24->SetVertex(6,+0.5*WbS24-ThS24wall,ThS24wall);
+ D24->SetVertex(7,-0.5*WbS24+ThS24wall,ThS24wall);
+ TGeoTube *E24 = new TGeoTube("ITS Sup Cooling Tube E24",0.5*InDcoolTub,
+ 0.5*OutDcoolTub,0.5*LS24-BlkNozZS24);
+ TGeoArb8 *F24 = new TGeoArb8("ITS Sup Cable Tray lower Element block F24",
+ 0.5*BlkNozZS24);
+ for(i=0;i<8;i++) F24->SetVertex(i,D24->GetVertices()[i*2+0],
+ D24->GetVertices()[i*2+1]); //
+ TGeoTube *G24 = new TGeoTube("ITS Sup Cooling Tube hole in block G24",
+ 0.0,0.5*BlkNozInDS24,0.5*BlkNozZS24);
+ TGeoArb8 *H24 = new TGeoArb8("ITS Sup Cable Tray upper Element H24",
+ 0.5*(LS24- LS24PP));
+ H24->SetVertex(0,C24->GetVertices()[0*2+0]+2.*ThS24wall,
+ C24->GetVertices()[0*2+1]-ThS24wall);
+ H24->SetVertex(1,C24->GetVertices()[1*2+0]-2.*ThS24wall,
+ C24->GetVertices()[1*2+1]-ThS24wall);
+ H24->SetVertex(2,D24->GetVertices()[1*2+0]-ThS24wall,
+ D24->GetVertices()[1*2+1]+ThS24wall);
+ H24->SetVertex(3,D24->GetVertices()[0*2+0]+ThS24wall,
+ D24->GetVertices()[0*2+1]+ThS24wall);
+ for(i=4;i<8;i++) H24->SetVertex(i,H24->GetVertices()[(i-4)*2+0],
+ H24->GetVertices()[(i-4)*2+1]); //
+ printArb8(C24);
+ printArb8(D24);
+ printTube(E24);
+ printArb8(F24);
+ printTube(G24);
+ printArb8(H24);
+ TGeoVolume *C24v,*D24v,*E24v,*F24v,*Ga24v,*Gw24v,*Gf24v,*H24v;
+ //
+ C24v = new TGeoVolume("ITSsupCableTrayC24",C24,SUPal);
+ C24v->SetVisibility(kTRUE);
+ C24v->SetLineColor(6); //
+ C24v->SetLineWidth(1);
+ C24v->SetFillColor(C24v->GetLineColor());
+ C24v->SetFillStyle(4000); // 0% transparent
+ D24v = new TGeoVolume("ITSsupCableTrayLowerD24",D24,SUPair);
+ D24v->SetVisibility(kTRUE);
+ D24v->SetLineColor(6); //
+ D24v->SetLineWidth(1);
+ D24v->SetFillColor(D24v->GetLineColor());
+ D24v->SetFillStyle(4000); // 0% transparent
+ E24v = new TGeoVolume("ITSsupCableTrayCoolTubeE24",E24,SUPss);
+ E24v->SetVisibility(kTRUE);
+ E24v->SetLineColor(6); //
+ E24v->SetLineWidth(1);
+ E24v->SetFillColor(E24v->GetLineColor());
+ E24v->SetFillStyle(4000); // 0% transparent
+ F24v = new TGeoVolume("ITSsupCableTrayBlockF24",F24,SUPal);
+ F24v->SetVisibility(kTRUE);
+ F24v->SetLineColor(6); //
+ F24v->SetLineWidth(1);
+ F24v->SetFillColor(F24v->GetLineColor());
+ F24v->SetFillStyle(4000); // 0% transparent
+ Gw24v = new TGeoVolume("ITSsupCableTrayCoolantWaterG24",G24,SUPwater);
+ Gw24v->SetVisibility(kTRUE);
+ Gw24v->SetLineColor(6); //
+ Gw24v->SetLineWidth(1);
+ Gw24v->SetFillColor(Gw24v->GetLineColor());
+ Gw24v->SetFillStyle(4000); // 0% transparent
+ Ga24v = new TGeoVolume("ITSsupCableTrayCoolantAirG24",G24,SUPair);
+ Ga24v->SetVisibility(kTRUE);
+ Ga24v->SetLineColor(6); //
+ Ga24v->SetLineWidth(1);
+ Ga24v->SetFillColor(Ga24v->GetLineColor());
+ Ga24v->SetFillStyle(4000); // 0% transparent
+ H24v = new TGeoVolume("ITSsupCableTrayUpperC24",H24,SUPair);
+ H24v->SetVisibility(kTRUE);
+ H24v->SetLineColor(6); //
+ H24v->SetLineWidth(1);
+ H24v->SetFillColor(H24v->GetLineColor());
+ H24v->SetFillStyle(4000); // 0% transparent
+ //
+ tran = new TGeoTranslation("",-OutDcoolTub,OutDcoolTub+ThS24wall,0.0);
+ F24v->AddNode(Gw24v,1,tran);
+ D24v->AddNode(E24v,1,tran);
+ tran = new TGeoTranslation("",0.0,OutDcoolTub+ThS24wall,0.0);
+ F24v->AddNode(Gw24v,2,tran);
+ D24v->AddNode(E24v,2,tran);
+ tran = new TGeoTranslation("",+OutDcoolTub,OutDcoolTub+ThS24wall,0.0);
+ F24v->AddNode(Gw24v,3,tran);
+ D24v->AddNode(E24v,3,tran);
+ tran = new TGeoTranslation("",0.0,0.0,0.5*LS24-0.5*BlkNozZS24);
+ D24v->AddNode(F24v,1,tran);
+ tran = new TGeoTranslation("",0.0,0.0,-(0.5*LS24-0.5*BlkNozZS24));
+ D24v->AddNode(F24v,2,tran);
+ C24v->AddNode(D24v,1,0);
+ C24v->AddNode(H24v,1,0);
+ //==================================================================
+ //
+ // RB 26 side
+ const Double_t Z026 = -900*kmm;//SSup_203A.jpg
+ const Double_t ThssFrame26 = 5.0*kmm;
+ const Double_t R0ssFrame26 = 444.5*kmm-ThssFrame26; // SSup_204A.jpg
+ const Double_t R1ssFrame26 = 601.6*kmm-ThssFrame26; // SSup_208A.jpg
+ const Double_t WidthFrame26 = 10.0*kmm;
+ //const Double_t HightFrame26 = 10.0*kmm;
+ const Double_t Phi0Frame26 = 15.2*kDegree; // SSup_602A.jpg
+ const Double_t Phi1Frame26 = (90.0-7.6)*kDegree; // SSup_802A.jpg
+ const Double_t ZssFrameSection26 = (415.0-10.0)*kmm;
+ const Int_t NZsections26 = 4;
+ const Int_t NPhiSections26 = 4;
+ const Int_t NFramesPhi26 = 4;
+ TGeoConeSeg *A26[NZsections26+1],*M26; // Cylinderial support structure
+ TGeoArb8 *B26; // Cylinderial support structure
+ Char_t name[100];
+ Double_t r1,r2,m;
+
+ M26 = new TGeoConeSeg("ITS sup Cable tray support frame mother volume M26",
+ 0.5*(4.*ZssFrameSection26+5*WidthFrame26),
+ R1ssFrame26,R1ssFrame26+ThssFrame26,
+ R0ssFrame26,R0ssFrame26+ThssFrame26,
+ Phi0Frame26,Phi1Frame26);
+ m = -((R1ssFrame26-R0ssFrame26)/
+ (((Double_t)NZsections26)*(ZssFrameSection26+WidthFrame26)));
+ for(i=0;i<NZsections26+1;i++){
+ di = ((Double_t) i)*(ZssFrameSection26+WidthFrame26);
+ sprintf(name,
+ "ITS sup Cable tray support frame radial section A26[%d]",i);
+ r1 = R1ssFrame26+m*di;
+ r2 = R1ssFrame26+m*(di+WidthFrame26);
+ A26[i] = new TGeoConeSeg(name,0.5*WidthFrame26,r2,r2+ThssFrame26,
+ r1,r1+ThssFrame26,Phi0Frame26,Phi1Frame26);
+ } // end for i
+ B26 = new TGeoArb8("ITS sup Cable tray support frame Z section B26",
+ 0.5*ZssFrameSection26);
+ r = 0.25*(A26[0]->GetRmax1()+A26[0]->GetRmin1()+
+ A26[1]->GetRmax2()+A26[1]->GetRmin2());
+ B26->SetVertex(0,A26[0]->GetRmax2()-r,+0.5*WidthFrame26);
+ B26->SetVertex(1,A26[0]->GetRmax2()-r,-0.5*WidthFrame26);
+ B26->SetVertex(2,A26[0]->GetRmin2()-r,-0.5*WidthFrame26);
+ B26->SetVertex(3,A26[0]->GetRmin2()-r,+0.5*WidthFrame26);
+ B26->SetVertex(4,A26[1]->GetRmax1()-r,+0.5*WidthFrame26);
+ B26->SetVertex(5,A26[1]->GetRmax1()-r,-0.5*WidthFrame26);
+ B26->SetVertex(6,A26[1]->GetRmin1()-r,-0.5*WidthFrame26);
+ B26->SetVertex(7,A26[1]->GetRmin1()-r,+0.5*WidthFrame26);
+ for(i=0;i<NZsections26+1;i++) printConeSeg(A26[i]);
+ printConeSeg(M26);
+ printArb8(B26);
+ TGeoVolume *A26v[NZsections26+1],*B26v,*M26v;
+ //
+ for(i=0;i<NZsections26+1;i++){
+ sprintf(name,"ITSsupFrameA26[%d]",i);
+ A26v[i] = new TGeoVolume(name,A26[i],SUPss);
+ A26v[i]->SetVisibility(kTRUE);
+ A26v[i]->SetLineColor(1); // black
+ A26v[i]->SetLineWidth(1);
+ A26v[i]->SetFillColor(A26v[i]->GetLineColor());
+ A26v[i]->SetFillStyle(4000); // 0% transparent
+ } // end for i
+ B26v = new TGeoVolume("ITSsupFrameB26",B26,SUPss);
+ B26v->SetVisibility(kTRUE);
+ B26v->SetLineColor(1); // black
+ B26v->SetLineWidth(1);
+ B26v->SetFillColor(B26v->GetLineColor());
+ B26v->SetFillStyle(4000); // 0% transparent
+ M26v = new TGeoVolume("ITSsupFrameM26",M26,SUPair);
+ M26v->SetVisibility(kTRUE);
+ M26v->SetLineColor(7); // light blue
+ M26v->SetLineWidth(1);
+ M26v->SetFillColor(M26v->GetLineColor());
+ M26v->SetFillStyle(4090); // 90% transparent
+ //
+ Int_t NcB26=1;
+ t0 = Phi0Frame26;
+ dt = (Phi1Frame26-Phi0Frame26)/((Double_t)NPhiSections26);
+ for(i=0;i<=NZsections26;i++){
+ di = ((Double_t) i)*(ZssFrameSection26+WidthFrame26);
+ z = -M26->GetDz()+A26[i]->GetDz() + di;
+ tran = new TGeoTranslation("",0.0,0.0,z);
+ M26v->AddNode(A26v[i],1,tran);
+ z = z+B26->GetDz();
+ if(i<NZsections26)for(j=0;j<=NPhiSections26;j++){
+ r = 0.25*(A26[i]->GetRmax1()+A26[i]->GetRmin1()+
+ A26[i+1]->GetRmax2()+A26[i+1]->GetRmin2());
+ t = t0 + ((Double_t)j)*dt;
+ rot = new TGeoRotation("",0.0,0.0,t);
+ y = r*TMath::Sin(t*kRadian);
+ x = r*TMath::Cos(t*kRadian);
+ tranrot = new TGeoCombiTrans("",x,y,z,rot);
+ delete rot; // rot not explicity used in AddNode functions.
+ M26v->AddNode(B26v,NcB26++,tranrot);
+ } // end for j
+ } // end for i
+ tran = new TGeoTranslation("",0.0,0.0,Z026-M26->GetDz());
+ Moth->AddNode(M26v,1,tran);
+ for(i=1;i<NFramesPhi26;i++){
+ rot = new TGeoRotation("",0.0,0.0,90.0*((Double_t)i));
+ tranrot = new TGeoCombiTrans(*tran,*rot);
+ delete rot; // rot not explicity used in AddNode functions.
+ Moth->AddNode(M26v,i+1,tranrot);
+ } // end for i
+ if(GetDebug()){
+ for(i=0;i<NZsections26+1;i++) A26v[i]->PrintNodes();
+ B26v->PrintNodes();
+ M26v->PrintNodes();
+ } // end if
}
//______________________________________________________________________
void AliITSv11::InitAliITSgeom(){
- // Based on the geometry tree defined in Geant 3.21, this
- // routine initilizes the Class AliITSgeom from the Geant 3.21 ITS geometry
- // sturture.
+ // Based on the geometry tree defined in Geant 3.21, this
+ // routine initilizes the Class AliITSgeom from the Geant 3.21 ITS
+ // geometry sturture.
+ // Inputs:
+ // none.
+ // Outputs:
+ // none.
+ // Return
+ // none.
}
-
//______________________________________________________________________
void AliITSv11::Init(){
- ////////////////////////////////////////////////////////////////////////
- // Initialise the ITS after it has been created.
- ////////////////////////////////////////////////////////////////////////
+ // Initialise the ITS after it has been created.
+ // Inputs:
+ // none.
+ // Outputs:
+ // none.
+ // Return
+ // none.
}
//______________________________________________________________________
void AliITSv11::SetDefaults(){
- // sets the default segmentation, response, digit and raw cluster classes
+ // Sets the default segmentation, response, digit and raw cluster
+ // classes to be used. These defaults can be overwritten in the
+ // macros that do these later steps. Defaults are give hear for the
+ // general user.
+ // Inputs:
+ // none.
+ // Outputs:
+ // none.
+ // Return
+ // none.
}
//______________________________________________________________________
void AliITSv11::DrawModule(){
- ////////////////////////////////////////////////////////////////////////
- // Draw a shaded view of the FMD version 11.
- ////////////////////////////////////////////////////////////////////////
+ // Draw a standard set of shaded view of the ITS version 11.
+ // Inputs:
+ // none.
+ // Outputs:
+ // none.
+ // Return
+ // none.
}
//______________________________________________________________________
void AliITSv11::StepManager(){
- ////////////////////////////////////////////////////////////////////////
- // Called for every step in the ITS, then calles the AliITShit class
+ // Called for every step in the ITS, then calles the AliITShit class
// creator with the information to be recoreded about that hit.
- // The value of the macro ALIITSPRINTGEOM if set to 1 will allow the
+ // The value of the macro ALIITSPRINTGEOM if set to 1 will allow the
// printing of information to a file which can be used to create a .det
// file read in by the routine CreateGeometry(). If set to 0 or any other
// value except 1, the default behavior, then no such file is created nor
- // it the extra variables and the like used in the printing allocated.
- ////////////////////////////////////////////////////////////////////////
+ // is the extra variables and the like used in the printing allocated.
}
git://git.uio.no / u / mrichter / AliRoot.git / blobdiff