/************************************************************************** * Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. * * * * Author: The ALICE Off-line Project. * * Contributors are mentioned in the code where appropriate. * * * * Permission to use, copy, modify and distribute this software and its * * documentation strictly for non-commercial purposes is hereby granted * * without fee, provided that the above copyright notice appears in all * * copies and that both the copyright notice and this permission notice * * appear in the supporting documentation. The authors make no claims * * about the suitability of this software for any purpose. It is * * provided "as is" without express or implied warranty. * **************************************************************************/ /* $Log$ Revision 1.11.4.8 2000/06/12 19:14:40 barbera Remove partical transision to new Config.C calling convension. Bug Found. Revision 1.11.4.7 2000/06/12 18:15:38 barbera fixed posible compilation errors on HP unix. Modifided default constructor for use with new calling requirements. Revision 1.11.4.6 2000/06/11 20:37:41 barbera coding convenstion update. Revision 1.11.4.4 2000/05/19 10:09:51 nilsen fix for bug with HP and Sun unix + fix for event display in ITS-working branch Revision 1.11.4.3 2000/04/04 14:18:03 nilsen Fixed volume error with vomule SFR5. Loop positioning this volume is now from <=23 (was <=24). This may not be the final version. Revision 1.11.4.2 2000/03/04 23:46:02 nilsen Fixed up the comments/documentation. Revision 1.11.4.1 2000/01/12 19:03:33 nilsen This is the version of the files after the merging done in December 1999. See the ReadMe110100.txt file for details Revision 1.11 1999/10/22 08:25:25 fca remove double definition of destructors Revision 1.10 1999/10/22 08:16:49 fca Correct destructors, thanks to I.Hrivnacova Revision 1.9 1999/10/06 19:56:50 fca Add destructor Revision 1.8 1999/10/05 08:05:09 fca Minor corrections for uninitialised variables. Revision 1.7 1999/09/29 09:24:20 fca Introduction of the Copyright and cvs Log */ /////////////////////////////////////////////////////////////////////////////// // // Inner Traking System version 3 // This class contains the base procedures for the Inner Tracking System // // Authors: R. Barbera, A. Morsch. // version 3. // Created 1998. // // NOTE: THIS IS THE OLD detailed TP-like geometry of the ITS. THIS WILL NOT // WORK with the geometry or module classes or any analysis classes. You are // strongly encouraged to uses AliITSv5. // /////////////////////////////////////////////////////////////////////////////// // See AliITSv3::StepManager(). #define ALIITSPRINTGEOM 0 // default. don't print out gemetry information //#define ALIITSPRINTGEOM 1 // print out geometry information #include #include #include #include #include #include #include // only required for Tracking function? #include #include #include #include "AliMC.h" #include "AliConst.h" #include "AliITShit.h" #include "AliITSv3.h" #include "AliRun.h" #include "AliMC.h" #include "AliConst.h" ClassImp(AliITSv3) //_____________________________________________________________________________ AliITSv3::AliITSv3()/* : AliITS("ITS","TP version")*/{ //////////////////////////////////////////////////////////////////////// // Standard default constructor for the ITS version 3. //////////////////////////////////////////////////////////////////////// fId3N = 6; fId3Name = new char*[fId3N]; fId3Name[0] = "ITS1"; fId3Name[1] = "ITS2"; fId3Name[2] = "ITS3"; fId3Name[3] = "ITS4"; fId3Name[4] = "ITS5"; fId3Name[5] = "ITS6"; fMinorVersionV3=1; printf("Created ITS TP Detailed version\n"); } //____________________________________________________________________________ AliITSv3::AliITSv3(const AliITSv3 &source){ //////////////////////////////////////////////////////////////////////// // Copy Constructor for ITS version 3. //////////////////////////////////////////////////////////////////////// if(&source == this) return; this->fId3N = source.fId3N; this->fId3Name = new char*[fId3N]; Int_t i; for(i=0;i<6;i++) strcpy(this->fId3Name[i],source.fId3Name[i]); return; } //_____________________________________________________________________________ AliITSv3& AliITSv3::operator=(const AliITSv3 &source){ //////////////////////////////////////////////////////////////////////// // Assignment operator for the ITS version 3. //////////////////////////////////////////////////////////////////////// if(&source == this) return *this; this->fId3N = source.fId3N; this->fId3Name = new char*[fId3N]; Int_t i; for(i=0;i<6;i++) strcpy(this->fId3Name[i],source.fId3Name[i]); return *this; } //_____________________________________________________________________________ AliITSv3::~AliITSv3() { //////////////////////////////////////////////////////////////////////// // Standard destructor for the ITS version 3. //////////////////////////////////////////////////////////////////////// delete [] fId3Name; } //_____________________________________________________________________________ AliITSv3::AliITSv3(const char *name, const char *title) : AliITS(name, title){ //////////////////////////////////////////////////////////////////////// // Standard constructor for the ITS version 3. //////////////////////////////////////////////////////////////////////// fId3N = 6; fId3Name = new char*[fId3N]; fId3Name[0] = "ITS1"; fId3Name[1] = "ITS2"; fId3Name[2] = "ITS3"; fId3Name[3] = "ITS4"; fId3Name[4] = "ITS5"; fId3Name[5] = "ITS6"; fMinorVersionV3=1; printf("Created ITS TP Detailed version\n"); }//__________________________________________________________________________ void AliITSv3::BuildGeometry(){ //////////////////////////////////////////////////////////////////////// // Geometry builder for the ITS version 3. //////////////////////////////////////////////////////////////////////// TNode *node, *top; const Int_t kColorITS=kYellow; // top = gAlice->GetGeometry()->GetNode("alice"); new TTUBE("S_layer1","Layer1 of ITS","void",3.9,3.9+0.05475,12.25); top->cd(); node = new TNode("Layer1","Layer1","S_layer1",0,0,0,""); node->SetLineColor(kColorITS); fNodes->Add(node); new TTUBE("S_layer2","Layer2 of ITS","void",7.6,7.6+0.05475,16.3); top->cd(); node = new TNode("Layer2","Layer2","S_layer2",0,0,0,""); node->SetLineColor(kColorITS); fNodes->Add(node); new TTUBE("S_layer3","Layer3 of ITS","void",14,14+0.05288,21.1); top->cd(); node = new TNode("Layer3","Layer3","S_layer3",0,0,0,""); node->SetLineColor(kColorITS); fNodes->Add(node); new TTUBE("S_layer4","Layer4 of ITS","void",24,24+0.05288,29.6); top->cd(); node = new TNode("Layer4","Layer4","S_layer4",0,0,0,""); node->SetLineColor(kColorITS); fNodes->Add(node); new TTUBE("S_layer5","Layer5 of ITS","void",40,40+0.05382,45.1); top->cd(); node = new TNode("Layer5","Layer5","S_layer5",0,0,0,""); node->SetLineColor(kColorITS); fNodes->Add(node); new TTUBE("S_layer6","Layer6 of ITS","void",45,45+0.05382,50.4); top->cd(); node = new TNode("Layer6","Layer6","S_layer6",0,0,0,""); node->SetLineColor(kColorITS); fNodes->Add(node); } //_____________________________________________________________________________ void AliITSv3::CreateGeometry(){ //////////////////////////////////////////////////////////////////////// // This routine creates and defines the version 3 geometry of the ITS. //////////////////////////////////////////////////////////////////////// const Float_t kxx[14] = { 0.000, 0.000,-14.002, -6.288,-25.212,-16.292, -35.713,-26.401,-45.340,-36.772,-18.740,-12.814, -14.358, 0.000}; const Float_t kyy[14] = { 0.000, 27.056, 31.408, 25.019, 27.768, 22.664, 22.420, 18.727, 15.479, 13.680, -9.984, -6.175, -3.775, 0.000 }; const Float_t kxbeg[13] = { 0.000, -0.352,-12.055, -8.755,-23.035,-19.085, -33.362,-28.859,-42.774,-36.644,-18.352,-13.085, -13.426 }; const Float_t kybeg[13] = { 0.386, 27.165, 29.795, 25.377, 26.480, 22.632, 21.487, 18.305, 14.940, 13.509, -9.735, -5.755, -3.53 }; const Float_t kxend[13] = { 0.000,-11.588, -8.208,-22.709,-18.738,-33.184, -28.719,-42.756,-37.027,-19.002,-13.235,-13.837, -.373 }; const Float_t kyend[13] = { 26.688, 30.658, 26.609, 27.405, 23.935, 22.452, 19.646, 15.922, 13.733, -9.639, -6.446, -4.585, -.098 }; const Float_t kxarc[13] = { -0.500,-13.248,-13.505,-18.622,-37.171,-42.671, -28.977,-33.178,-19.094,-22.781, -8.655,-11.736, -0.500 }; const Float_t kyarc[13] = { 0.500, -4.093, -5.911, -9.200, 13.162, 15.543, 19.109, 22.066, 23.446, 27.024, 26.184, 30.294, 26.802 }; const Float_t krarc[13] = { 0.5,0.7,0.5,0.5,0.7,0.5,0.7, 0.5,0.7,0.5,0.7,0.5,0.5 }; const Float_t krr = 4.064516; const Float_t ktteta = 63.00; const Float_t kpphi = -35.00; const Float_t kgteta = 87.78; const Double_t kdegrad = kPI/180.; const Double_t kraddeg = 180./kPI; const Double_t ktwopi = 2*kPI; Double_t biga, bigb; Float_t dcei[3], dela[3], dchi[3], dpcb[3], darc[5], dfra[10], dcer[3], dkap[3], dpla[3], xccc, yccc, aphi, dcop[3], dtra[3], dsil[3], atheta1011, dbus[3], dtub[3], dwat[3], depx[3], dits[3], atheta1314, atheta1213, atheta1112, dsup[3], xtra[8], ytra[8], ztra[8], dsrv[3]; Double_t biga1, bigb1; Float_t runo, xpos, ypos, zpos, rtwo, aphi1, aphi2, dtra1[3], dtra2[3], dtra3[3], dtra4[3], dbox1[3], dbox2[3]; Int_t jbox1, jbox2; Float_t xtra1[6], ytra1[6], ztra1[6]; Int_t i; Float_t xpos1, ypos1; Int_t j; Float_t angle, dcone[5], dtube[3], dpgon[10]; Float_t rzero, xzero, yzero; Double_t coeffa, coeffb, coeffc; Int_t idrotm[5250]; Float_t atheta, offset; Float_t offset1, offset2, dgh[15]; Float_t xcc, ycc, sep, atheta12, atheta23, atheta34, atheta45, atheta56, atheta67, atheta78, atheta89, xxm, dal1[3], dal2[3]; //Float_t yos; Float_t r1, r2, r3; Double_t xcc1, ycc1, xcc2, ycc2; Float_t atheta910; const char knatra[][5] ={ "TR01","TR02","TR03","TR04", "TR05","TR06","TR07","TR08"}; const char knatra1[][5] ={"TR11","TR12","TR13","TR14", "TR15","TR16","TR17","TR18", "TR19","TR20","TR21","TR22", "TR23","TR24","TR25","TR26"}; const char knatra2[][5] ={"TR31","TR32","TR33","TR34","TR35","TR36"}; const char knatra3[][5] ={"TR41","TR42","TR43","TR44","TR45","TR46"}; const char knatra4[][5] ={"TR51","TR52","TR53","TR54","TR55","TR56", "TR57","TR58","TR59","TR60","TR61","TR62", "TR63","TR64","TR65","TR66"}; Int_t *idtmed = fIdtmed->GetArray()-199; // --- Define a ghost volume containing the whole ITS and fill it with air // or vacuum dgh[0] = 0.0; dgh[1] = 360.0; dgh[2] = 4.0; dgh[3] = -70.0; dgh[4] = 49.999; dgh[5] = 49.999; dgh[6] = -25.0; dgh[7] = 3.0; dgh[8] = 49.999; dgh[9] = 25.0; dgh[10] = 3.0; dgh[11] = 49.999; dgh[12] = 70.0; dgh[13] = 49.999; dgh[14] = 49.999; gMC->Gsvolu("ITSV", "PCON", idtmed[275], dgh, 15); // --- Place the ghost volume in its mother volume (ALIC) and make it // invisible gMC->Gspos("ITSV", 1, "ALIC", 0., 0., 0., 0, "ONLY"); gMC->Gsatt("ITSV", "SEEN", 0); //************************************************************************ //* * //* P I X E L S * //* =========== * //* * //************************************************************************ // GOTO 2345 ! skip ITS layer no. 1 and 2 // --- Define a ghost volume containing the Silicon Pixel Detectors // (layer #1 and #2) and fill it with air or vacuum xxm = (49.999-3)/(70-25); dgh[0] = 0.0; dgh[1] = 360.0; dgh[2] = 4.0; dgh[3] = -25.-(9.-3.01)/xxm; dgh[4] = 9.0; dgh[5] = 9.0; dgh[6] = -25.0; dgh[7] = 3.01; dgh[8] = 9.0; dgh[9] = 25.0; dgh[10] = 3.01; dgh[11] = 9.0; dgh[12] = 25+(9-3.01)/xxm; dgh[13] = 9.0; dgh[14] = 9.0; gMC->Gsvolu("IT12", "PCON", idtmed[275], dgh, 15); // --- Place the ghost volume in its mother volume (ITSV) and make it // invisible gMC->Gspos("IT12", 1, "ITSV", 0., 0., 0., 0, "ONLY"); gMC->Gsatt("IT12", "SEEN", 0); // --- Define a ghost volume containing a single element of layer #1 // and fill it with air or vacuum dbox1[0] = 0.005+0.01+0.0075; dbox1[1] = .79; dbox1[2] = 12.67; gMC->Gsvolu("IPV1", "BOX ", idtmed[203], dbox1, 3); //--Divide each element of layer #1 in three ladders along the beam direction gMC->Gsdvn("IPB1", "IPV1", 3, 3); // --- Make the ghost volumes invisible gMC->Gsatt("IPV1", "SEEN", 0); gMC->Gsatt("IPB1", "SEEN", 0); // --- Define a volume containing the chip of pixels (silicon, layer #1) dchi[0] = 0.005; dchi[1] = 0.79; dchi[2] = dbox1[2] / 3.; gMC->Gsvolu("ICH1", "BOX ", idtmed[200], dchi, 3); // --- Define a volume containing the bus of pixels (silicon, layer #1) dbus[0] = 0.01; dbus[1] = 0.64; dbus[2] = 4.19; gMC->Gsvolu("IBU1", "BOX ", idtmed[201], dbus, 3); // --- Define a volume containing the sensitive part of pixels // (silicon, layer #1) dits[0] = 0.0075; dits[1] = 0.64; dits[2] = 4.19; gMC->Gsvolu("ITS1", "BOX ", idtmed[199], dits, 3); // --- Place the chip into its mother (IPB1) xpos = dbox1[0] - dchi[0]; ypos = 0.0; zpos = 0.0; gMC->Gspos("ICH1", 1, "IPB1", xpos, ypos, zpos, 0, "ONLY"); // --- Place the sensitive volume into its mother (IPB1) xpos = dbox1[0] - dchi[0] * 2. - dits[0]; ypos = dchi[1] - dits[1]; zpos = -(dchi[2] - dits[2]); gMC->Gspos("ITS1", 1, "IPB1", xpos, ypos, zpos, 0, "ONLY"); // --- Place the bus into its mother (IPB1) xpos = dbox1[0] - dchi[0] * 2. - dits[0] * 2. - dbus[0]; ypos = dchi[1] - dbus[1]; zpos = -(dchi[2] - dbus[2]); gMC->Gspos("IBU1", 1, "IPB1", xpos, ypos, zpos, 0, "ONLY"); // --- Define a ghost volume containing a single element of layer #2 // and fill it with air or vacuum dbox2[0] = 0.005+0.01+0.0075; dbox2[1] = 0.79; dbox2[2] = 16.91; gMC->Gsvolu("IPV2", "BOX ", idtmed[203], dbox2, 3); //--Divide each element of layer #2 in four ladders along the beam direction gMC->Gsdvn("IPB2", "IPV2", 4, 3); // --- Make the ghost volumes invisible gMC->Gsatt("IPV2", "SEEN", 0); gMC->Gsatt("IPB2", "SEEN", 0); // --- Define a volume containing the chip of pixels (silicon, layer #2) dchi[0] = 0.005; dchi[1] = 0.79; dchi[2] = dbox2[2] / 4.; gMC->Gsvolu("ICH2", "BOX ", idtmed[200], dchi, 3); // --- Define a volume containing the bus of pixels (silicon, layer #2) dbus[0] = 0.01; dbus[1] = 0.64; dbus[2] = 4.19; gMC->Gsvolu("IBU2", "BOX ", idtmed[201], dbus, 3); // --- Define a volume containing the sensitive part of pixels // (silicon, layer #2) dits[0] = 0.0075; dits[1] = 0.64; dits[2] = 4.19; gMC->Gsvolu("ITS2", "BOX ", idtmed[199], dits, 3); // --- Place the chip into its mother (IPB2) xpos = dbox1[0] - dbus[0] * 2. - dits[0] * 2. - dchi[0]; ypos = 0.0; zpos = 0.0; gMC->Gspos("ICH2", 1, "IPB2", xpos, ypos, zpos, 0, "ONLY"); // --- Place the sensitive volume into its mother (IPB2) xpos = dbox1[0] - dbus[0] * 2. - dits[0]; ypos = -(dchi[1] - dits[1]); zpos = -(dchi[2] - dits[2]); gMC->Gspos("ITS2", 1, "IPB2", xpos, ypos, zpos, 0, "ONLY"); // --- Place the bus into its mother (IPB2) xpos = dbox1[0] - dbus[0]; ypos = -(dchi[1] - dbus[1]); zpos = -(dchi[2] - dbus[2]); gMC->Gspos("IBU2", 1, "IPB2", xpos, ypos, zpos, 0, "ONLY"); // --- Define a generic segment of an element of the mechanical support dsup[0] = 0.0; dsup[1] = 0.0; dsup[2] = 0.0; gMC->Gsvolu("SPIX", "BOX ", idtmed[202], dsup, 0); // --- Define a generic arc of an element of the mechanical support darc[0] = 0.0; darc[1] = 0.0; darc[2] = 0.0; gMC->Gsvolu("SARC", "TUBS", idtmed[202], darc, 0); // --- Define the mechanical supports of layers #1 and #2 and place the // elements of the layers in it jbox1 = 0; // counter over the number of elements of layer #1 ( jbox2 = 0; // counter over the number of elements of layer #2 ( for(i = 1; i <= 10; ++i) { // --- Place part # 1-2 (see sketch) // number of carbon fiber supports (see sketch) offset1 = -35.; dsup[0] = .01; dsup[1] = TMath::Sqrt((kxend[0] - kxbeg[0]) * (kxend[0] - kxbeg[0]) + (kyend[0] - kybeg[0]) * (kyend[0] - kybeg[0]) ) / 20.; dsup[2] = 25.0; xcc = ( kxx[0] + kxx[1]) / 20.; ycc = ( kyy[0] + kyy[1]) / 20.; xccc = (kxbeg[0] + kxend[0]) / 20.; yccc = (kybeg[0] + kyend[0]) / 20.; if (kxx[0] == kxx[1]) { offset2 = 0.; } else { r1 = kyy[1] - kyy[0]; r2 = kxx[1] - kxx[0]; offset2 = TMath::ATan2(r1, r2) * kraddeg - 90.; } // end if kxx[0] == kxx[1] aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xccc * TMath::Cos(aphi) - yccc * TMath::Sin(aphi) + xzero; ypos1 = xccc * TMath::Sin(aphi) + yccc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.0; atheta12 = (i-1) * 36. + offset1 + offset2 - kgteta; AliMatrix(idrotm[(i-1) * 13 + 1100], 90., atheta12, 90., atheta12 + 90., 0., 0.); gMC->Gsposp("SPIX", (i-1) * 13 + 1, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1100], "ONLY", dsup, 3); // --- Place part # 2-3 (see sketch) offset1 = -35.0; dsup[0] = 0.01; dsup[1] = TMath::Sqrt((kxend[1] - kxbeg[1]) * (kxend[1] - kxbeg[1]) + (kyend[1] - kybeg[1]) * (kyend[1] - kybeg[1])) / 20.; dsup[2] = 25.0; xcc = ( kxx[1] + kxx[2]) / 20.; ycc = ( kyy[1] + kyy[2]) / 20.; xccc = (kxbeg[1] + kxend[1]) / 20.; yccc = (kybeg[1] + kyend[1]) / 20.; if (kxx[1] == kxx[2]) { offset2 = 0.; } else { r1 = kyy[2] - kyy[1]; r2 = kxx[2] - kxx[1]; offset2 = TMath::ATan2(r1, r2) * kraddeg - 90.; } // end if kxx[1] == kxx[2] aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xccc * TMath::Cos(aphi) - yccc * TMath::Sin(aphi) + xzero; ypos1 = xccc * TMath::Sin(aphi) + yccc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta * kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.0; atheta23 = (i-1) * 36. + offset1 + offset2 - kgteta; AliMatrix(idrotm[(i-1) * 13 + 1101], 90., atheta23, 90., atheta23 + 90., 0., 0.); gMC->Gsposp("SPIX", (i-1) * 13 + 2, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1101], "ONLY", dsup, 3); // --- Place an element of layer #2 biga = (kyy[2] - kyy[1]) / (kxx[2] - kxx[1]); bigb = (kxx[2] * kyy[1] - kxx[1] * kyy[2]) / (kxx[2] - kxx[1]) / 10.; coeffa = biga * biga + 1.; coeffb = biga * bigb - biga * ycc - xcc; coeffc = xcc * xcc + ycc * ycc - ycc * 2. * bigb + bigb * bigb - 0.08964*0.08964; xcc1 = (-coeffb + TMath::Sqrt(coeffb * coeffb - coeffa * coeffc)) / coeffa; ycc1 = biga * xcc1 + bigb; biga1 = -1. / biga; bigb1 = xcc1 / biga + ycc1; coeffa = biga1 * biga1 + 1.; coeffb = biga1 * bigb1 - biga1 * ycc1 - xcc1; coeffc = xcc1 * xcc1 + ycc1 * ycc1 - ycc1 * 2. * bigb1 + bigb1 * bigb1 - (dsup[0] + dbox2[0]) * (dsup[0] + dbox2[0]); xcc2 = (-coeffb + TMath::Sqrt(coeffb * coeffb - coeffa * coeffc)) / coeffa; ycc2 = biga1 * xcc2 + bigb1; xpos1 = xcc2 * TMath::Cos(aphi) - ycc2 * TMath::Sin(aphi) + xzero; ypos1 = xcc2 * TMath::Sin(aphi) + ycc2 * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.0; ++jbox2; gMC->Gspos("IPV2", jbox2, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1101], "ONLY"); // --- Place part # 3-4 (see sketch) offset1 = -35.0; dsup[0] = 0.01; dsup[1] = TMath::Sqrt((kxend[2] - kxbeg[2]) * (kxend[2] - kxbeg[2]) + (kyend[2] - kybeg[2]) * (kyend[2] - kybeg[2])) / 20.; dsup[2] = 25.; xcc = (kxx[1] + kxx[2]) / 20.; ycc = (kyy[1] + kyy[2]) / 20.; xccc = (kxbeg[2] + kxend[2]) / 20.; yccc = (kybeg[2] + kyend[2]) / 20.; if (kxx[2] == kxx[3]) { offset2 = 0.; } else { r1 = kyy[3] - kyy[2]; r2 = kxx[3] - kxx[2]; offset2 = TMath::ATan2(r1, r2) * kraddeg - 90.; } // end if kxx[2] == kxx[3] aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xccc * TMath::Cos(aphi) - yccc * TMath::Sin(aphi) + xzero; ypos1 = xccc * TMath::Sin(aphi) + yccc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.0; atheta34 = (i-1) * 36. + offset1 + offset2 - kgteta; AliMatrix(idrotm[(i-1) * 13 + 1102], 90., atheta34, 90., atheta34 + 90., 0., 0.); gMC->Gsposp("SPIX", (i-1) * 13 + 3, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1102], "ONLY", dsup, 3); // --- Place part # 4-5 (see sketch) offset1 = -35.0; dsup[0] = 0.01; dsup[1] = TMath::Sqrt((kxend[3] - kxbeg[3]) * (kxend[3] - kxbeg[3]) + (kyend[3] - kybeg[3]) * (kyend[3] - kybeg[3])) / 20.; dsup[2] = 25.0; xcc = ( kxx[3] + kxx[4]) / 20.; ycc = ( kyy[3] + kyy[4]) / 20.; xccc = (kxbeg[3] + kxend[3]) / 20.; yccc = (kybeg[3] + kyend[3]) / 20.; if (kxx[3] == kxx[4]) { offset2 = 0.; } else { r1 = kyy[4] - kyy[3]; r2 = kxx[4] - kxx[3]; offset2 = TMath::ATan2(r1, r2) * kraddeg - 90.; } // end if kxx[3] == kxx[4] aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xccc * TMath::Cos(aphi) - yccc * TMath::Sin(aphi) + xzero; ypos1 = xccc * TMath::Sin(aphi) + yccc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.0; atheta45 = (i-1) * 36. + offset1 + offset2 - kgteta; AliMatrix(idrotm[(i-1) * 13 + 1103], 90., atheta45, 90., atheta45 + 90., 0., 0.); gMC->Gsposp("SPIX", (i-1) * 13 + 4, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1103], "ONLY", dsup, 3); // --- Place an element of layer #2 biga = (kyy[4] - kyy[3]) / (kxx[4] - kxx[3]); bigb = (kxx[4] * kyy[3] - kxx[3] * kyy[4]) / (kxx[4] - kxx[3]) / 10.; coeffa = biga * biga + 1.; coeffb = biga * bigb - biga * ycc - xcc; coeffc = xcc * xcc + ycc * ycc - ycc * 2. * bigb + bigb * bigb - .014285030400000001; xcc1 = (-coeffb - TMath::Sqrt(coeffb * coeffb - coeffa * coeffc)) / coeffa; ycc1 = biga * xcc1 + bigb; biga1 = -1. / biga; bigb1 = xcc1 / biga + ycc1; coeffa = biga1 * biga1 + 1.; coeffb = biga1 * bigb1 - biga1 * ycc1 - xcc1; coeffc = xcc1 * xcc1 + ycc1 * ycc1 - ycc1 * 2. * bigb1 + bigb1 * bigb1 - (dsup[0] + dbox2[0]) * (dsup[0] + dbox2[0]); xcc2 = (-coeffb + TMath::Sqrt(coeffb * coeffb - coeffa * coeffc)) / coeffa; ycc2 = biga1 * xcc2 + bigb1; xpos1 = xcc2 * TMath::Cos(aphi) - ycc2 * TMath::Sin(aphi) + xzero; ypos1 = xcc2 * TMath::Sin(aphi) + ycc2 * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.0; ++jbox2; gMC->Gspos("IPV2", jbox2, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1103], "ONLY"); // --- Place part # 5-6 (see sketch) offset1 = -35.; dsup[0] = .01; dsup[1] = TMath::Sqrt((kxend[4] - kxbeg[4]) * (kxend[4] - kxbeg[4]) + (kyend[4] - kybeg[4]) * (kyend[4] - kybeg[4])) / 20.; dsup[2] = 25.; xcc = (kxx[4] + kxx[5]) / 20.; ycc = (kyy[4] + kyy[5]) / 20.; xccc = (kxbeg[4] + kxend[4]) / 20.; yccc = (kybeg[4] + kyend[4]) / 20.; if (kxx[4] == kxx[5]) { offset2 = 0.; } else { r1 = kyy[5] - kyy[4]; r2 = kxx[5] - kxx[4]; offset2 = TMath::ATan2(r1, r2) * kraddeg - 90.; } aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xccc * TMath::Cos(aphi) - yccc * TMath::Sin(aphi) + xzero; ypos1 = xccc * TMath::Sin(aphi) + yccc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; atheta56 = (i-1) * 36. + offset1 + offset2 - kgteta; AliMatrix(idrotm[(i-1) * 13 + 1104], 90., atheta56, 90., atheta56 + 90., 0., 0.); gMC->Gsposp("SPIX", (i-1) * 13 + 5, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1104], "ONLY", dsup, 3); // --- Place part # 6-7 (see sketch) offset1 = -35.0; dsup[0] = 0.01; dsup[1] = TMath::Sqrt((kxend[5] - kxbeg[5]) * (kxend[5] - kxbeg[5]) + (kyend[5] - kybeg[5]) * (kyend[5] - kybeg[5])) / 20.; dsup[2] = 25.0; xcc = (kxx[5] + kxx[6]) / 20.; ycc = (kyy[5] + kyy[6]) / 20.; xccc = (kxbeg[5] + kxend[5]) / 20.; yccc = (kybeg[5] + kyend[5]) / 20.; if (kxx[5] == kxx[6]) { offset2 = 0.; } else { r1 = kyy[6] - kyy[5]; r2 = kxx[6] - kxx[5]; offset2 = TMath::ATan2(r1, r2) * kraddeg - 90.; } // end if kxx[5] == kxx[6] aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xccc * TMath::Cos(aphi) - yccc * TMath::Sin(aphi) + xzero; ypos1 = xccc * TMath::Sin(aphi) + yccc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; atheta67 = (i-1) * 36. + offset1 + offset2 - kgteta; AliMatrix(idrotm[(i-1) * 13 + 1105], 90., atheta67, 90., atheta67 + 90., 0., 0.); gMC->Gsposp("SPIX", (i-1) * 13 + 6, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1105], "ONLY", dsup, 3); // --- Place an element of layer #2 biga = (kyy[6] - kyy[5]) / (kxx[6] - kxx[5]); bigb = (kxx[6] * kyy[5] - kxx[5] * kyy[6]) / (kxx[6] - kxx[5]) / 10.; coeffa = biga * biga + 1.; coeffb = biga * bigb - biga * ycc - xcc; coeffc = xcc * xcc + ycc * ycc - ycc * 2. * bigb + bigb * bigb - .014285030400000001; xcc1 = (-coeffb - TMath::Sqrt(coeffb * coeffb - coeffa * coeffc)) / coeffa; ycc1 = biga * xcc1 + bigb; biga1 = -1. / biga; bigb1 = xcc1 / biga + ycc1; coeffa = biga1 * biga1 + 1.; coeffb = biga1 * bigb1 - biga1 * ycc1 - xcc1; coeffc = xcc1 * xcc1 + ycc1 * ycc1 - ycc1 * 2. * bigb1 + bigb1 * bigb1 - (dsup[0] + dbox2[0]) * (dsup[0] + dbox2[0]); xcc2 = (-coeffb - TMath::Sqrt(coeffb * coeffb - coeffa * coeffc)) / coeffa; ycc2 = biga1 * xcc2 + bigb1; xpos1 = xcc2 * TMath::Cos(aphi) - ycc2 * TMath::Sin(aphi) + xzero; ypos1 = xcc2 * TMath::Sin(aphi) + ycc2 * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.0; ++jbox2; gMC->Gspos("IPV2", jbox2, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1105], "ONLY"); // --- Place part # 7-8 (see sketch) offset1 = -35.; dsup[0] = .01; dsup[1] = TMath::Sqrt((kxend[6] - kxbeg[6]) * (kxend[6] - kxbeg[6]) + (kyend[6] - kybeg[6]) * (kyend[6] - kybeg[6])) / 20.; dsup[2] = 25.; xcc = (kxx[6] + kxx[7]) / 20.; ycc = (kyy[6] + kyy[7]) / 20.; xccc = (kxbeg[6] + kxend[6]) / 20.; yccc = (kybeg[6] + kyend[6]) / 20.; if (kxx[6] == kxx[7]) { offset2 = 0.; } else { r1 = kyy[7] - kyy[6]; r2 = kxx[7] - kxx[6]; offset2 = TMath::ATan2(r1, r2) * kraddeg - 90.; } // end if aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xccc * TMath::Cos(aphi) - yccc * TMath::Sin(aphi) + xzero; ypos1 = xccc * TMath::Sin(aphi) + yccc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; atheta78 = (i-1) * 36. + offset1 + offset2 - kgteta; AliMatrix(idrotm[(i-1) * 13 + 1106], 90., atheta78, 90., atheta78 + 90., 0., 0.); gMC->Gsposp("SPIX", (i-1) * 13 + 7, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1106], "ONLY", dsup, 3); // --- Place part # 8-9 (see sketch) offset1 = -35.; dsup[0] = .01; dsup[1] = TMath::Sqrt((kxend[7] - kxbeg[7]) * (kxend[7] - kxbeg[7]) + (kyend[7] - kybeg[7]) * (kyend[7] - kybeg[7])) / 20.; dsup[2] = 25.; xcc = (kxx[7] + kxx[8]) / 20.; ycc = (kyy[7] + kyy[8]) / 20.; xccc = (kxbeg[7] + kxend[7]) / 20.; yccc = (kybeg[7] + kyend[7]) / 20.; if (kxx[1] == kxx[2]) { offset2 = 0.; } else { r1 = kyy[8] - kyy[7]; r2 = kxx[8] - kxx[7]; offset2 = TMath::ATan2(r1, r2) * kraddeg - 90.; } aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xccc * TMath::Cos(aphi) - yccc * TMath::Sin(aphi) + xzero; ypos1 = xccc * TMath::Sin(aphi) + yccc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; atheta89 = (i-1) * 36. + offset1 + offset2 - kgteta; AliMatrix(idrotm[(i-1) * 13 + 1107], 90., atheta89, 90., atheta89 + 90., 0., 0.); gMC->Gsposp("SPIX", (i-1) * 13 + 8, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1107], "ONLY", dsup, 3); // --- Place an element of layer #2 biga = (kyy[8] - kyy[7]) / (kxx[8] - kxx[7]); bigb = (kxx[8] * kyy[7] - kxx[7] * kyy[8]) / (kxx[8] - kxx[7]) / 10.; coeffa = biga * biga + 1.; coeffb = biga * bigb - biga * ycc - xcc; coeffc = xcc * xcc + ycc * ycc - ycc * 2. * bigb + bigb * bigb - .014285030400000001; xcc1 = (-coeffb - TMath::Sqrt(coeffb * coeffb - coeffa * coeffc)) / coeffa; ycc1 = biga * xcc1 + bigb; biga1 = -1. / biga; bigb1 = xcc1 / biga + ycc1; coeffa = biga1 * biga1 + 1.; coeffb = biga1 * bigb1 - biga1 * ycc1 - xcc1; coeffc = xcc1 * xcc1 + ycc1 * ycc1 - ycc1 * 2. * bigb1 + bigb1 * bigb1 - (dsup[0] + dbox2[0]) * (dsup[0] + dbox2[0]); xcc2 = (-coeffb - TMath::Sqrt(coeffb * coeffb - coeffa * coeffc)) / coeffa; ycc2 = biga1 * xcc2 + bigb1; xpos1 = xcc2 * TMath::Cos(aphi) - ycc2 * TMath::Sin(aphi) + xzero; ypos1 = xcc2 * TMath::Sin(aphi) + ycc2 * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.0; ++jbox2; gMC->Gspos("IPV2", jbox2, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1107], "ONLY"); // --- Place part # 9-10 (see sketch) offset1 = -35.; dsup[0] = .01; dsup[1] = TMath::Sqrt((kxend[8] - kxbeg[8]) * (kxend[8] - kxbeg[8]) + (kyend[8] - kybeg[8]) * (kyend[8] - kybeg[8])) / 20.; dsup[2] = 25.; xcc = (kxx[8] + kxx[9]) / 20.; ycc = (kyy[8] + kyy[9]) / 20.; xccc = (kxbeg[8] + kxend[8]) / 20.; yccc = (kybeg[8] + kyend[8]) / 20.; if (kxx[8] == kxx[9]) { offset2 = 0.; } else { r1 = kyy[9] - kyy[8]; r2 = kxx[9] - kxx[8]; offset2 = TMath::ATan2(r1, r2) * kraddeg - 90.; } aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xccc * TMath::Cos(aphi) - yccc * TMath::Sin(aphi) + xzero; ypos1 = xccc * TMath::Sin(aphi) + yccc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; atheta910 = (i-1) * 36. + offset1 + offset2 - kgteta; AliMatrix(idrotm[(i-1) * 13 + 1108], 90., atheta910, 90., atheta910 + 90., 0., 0.); gMC->Gsposp("SPIX", (i-1) * 13 + 9, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1108], "ONLY", dsup, 3); // --- Place part # 10-11 (see sketch) offset1 = -35.; dsup[0] = .01; dsup[1] = TMath::Sqrt((kxend[9] - kxbeg[9]) * (kxend[9] - kxbeg[9]) + (kyend[9] - kybeg[9]) * (kyend[9] - kybeg[9])) / 20.; dsup[2] = 25.; xcc = (kxx[9] + kxx[10]) / 20.; ycc = (kyy[9] + kyy[10]) / 20.; xccc = (kxbeg[9] + kxend[9]) / 20.; yccc = (kybeg[9] + kyend[9]) / 20.; if (kxx[9] == kxx[10]) { offset2 = 0.; } else { r1 = kyy[10] - kyy[9]; r2 = kxx[10] - kxx[9]; offset2 = TMath::ATan2(r1, r2) * kraddeg - 90.; } aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xccc * TMath::Cos(aphi) - yccc * TMath::Sin(aphi) + xzero; ypos1 = xccc * TMath::Sin(aphi) + yccc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; atheta1011 = (i-1) * 36. + offset1 + offset2 - kgteta; AliMatrix(idrotm[(i-1) * 13 + 1109], 90., atheta1011, 90.,atheta1011 + 90., 0., 0.); gMC->Gsposp("SPIX", (i-1) * 13 + 10, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1109], "ONLY", dsup, 3); // --- Place part # 13-14 (see sketch) offset1 = -35.; dsup[0] = .01; dsup[1] = TMath::Sqrt((kxend[12] - kxbeg[12]) * (kxend[12] - kxbeg[12]) + (kyend[12] - kybeg[12]) * (kyend[12] - kybeg[12])) / 20.; dsup[2] = 25.; xcc = (kxx[12] + kxx[13]) / 20.; ycc = (kyy[12] + kyy[13]) / 20.; xccc = (kxbeg[12] + kxend[12]) / 20.; yccc = (kybeg[12] + kyend[12]) / 20.; if (kxx[12] == kxx[13]) { offset2 = 0.; } else { r1 = kyy[12] - kyy[13]; r2 = kxx[12] - kxx[13]; offset2 = TMath::ATan2(r1, r2) * kraddeg - 90.; } aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xccc * TMath::Cos(aphi) - yccc * TMath::Sin(aphi) + xzero; ypos1 = xccc * TMath::Sin(aphi) + yccc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; atheta1314 = (i-1) * 36. + offset1 + offset2 - kgteta; AliMatrix(idrotm[(i-1) * 13 + 1112], 90., atheta1314, 90.,atheta1314 + 90., 0., 0.); gMC->Gsposp("SPIX", (i-1) * 13 + 13, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1112], "ONLY", dsup, 3); // --- Place an element of layer #1 biga = (kyy[13] - kyy[12]) / (kxx[13] - kxx[12]); bigb = (kxx[13] * kyy[12] - kxx[12] * kyy[13]) / (kxx[13] - kxx[12]) / 10.; coeffa = biga * biga + 1.; coeffb = biga * bigb - biga * ycc - xcc; coeffc = xcc * xcc + ycc * ycc - ycc * 2. * bigb + bigb * bigb - .050216328100000006; xcc1 = (-coeffb + TMath::Sqrt(coeffb * coeffb - coeffa * coeffc)) / coeffa; ycc1 = biga * xcc1 + bigb; biga1 = -1. / biga; bigb1 = xcc1 / biga + ycc1; coeffa = biga1 * biga1 + 1.; coeffb = biga1 * bigb1 - biga1 * ycc1 - xcc1; coeffc = xcc1 * xcc1 + ycc1 * ycc1 - ycc1 * 2. * bigb1 + bigb1 * bigb1 - (dsup[0] + dbox1[0]) * (dsup[0] + dbox1[0]); xcc2 = (-coeffb + TMath::Sqrt(coeffb * coeffb - coeffa * coeffc)) / coeffa; ycc2 = biga1 * xcc2 + bigb1; xpos1 = xcc2 * TMath::Cos(aphi) - ycc2 * TMath::Sin(aphi) + xzero; ypos1 = xcc2 * TMath::Sin(aphi) + ycc2 * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; ++jbox1; gMC->Gspos("IPV1", jbox1, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1112], "ONLY"); // --- Place part # 12-13 (see sketch) offset1 = -35.; dsup[0] = .01; dsup[1] = TMath::Sqrt((kxend[11] - kxbeg[11]) * (kxend[11] - kxbeg[11]) + (kyend[11] - kybeg[11]) * (kyend[11] - kybeg[11])) / 20.; dsup[2] = 25.; xcc = (kxx[11] + kxx[12]) / 20.; ycc = (kyy[11] + kyy[12]) / 20.; xccc = (kxbeg[11] + kxend[11]) / 20.; yccc = (kybeg[11] + kyend[11]) / 20.; if (kxx[11] == kxx[12]) { offset2 = 0.; } else { r1 = kyy[12] - kyy[11]; r2 = kxx[12] - kxx[11]; offset2 = TMath::ATan2(r1, r2) * kraddeg - 90.; } aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xccc * TMath::Cos(aphi) - yccc * TMath::Sin(aphi) + xzero; ypos1 = xccc * TMath::Sin(aphi) + yccc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; atheta1213 = (i-1) * 36. + offset1 + offset2 - kgteta; AliMatrix(idrotm[(i-1) * 13 + 1111], 90., atheta1213, 90.,atheta1213 + 90., 0., 0.); gMC->Gsposp("SPIX", (i-1) * 13 + 12, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1111], "ONLY", dsup, 3); // --- Place part # 11-12 (see sketch) offset1 = -35.; dsup[0] = .01; dsup[1] = TMath::Sqrt((kxend[10] - kxbeg[10]) * (kxend[10] - kxbeg[10]) + (kyend[10] - kybeg[10]) * (kyend[10] - kybeg[10])) / 20.; dsup[2] = 25.; xcc = (kxx[10] + kxx[11]) / 20.; ycc = (kyy[10] + kyy[11]) / 20.; xccc = (kxbeg[10] + kxend[10]) / 20.; yccc = (kybeg[10] + kyend[10]) / 20.; if (kxx[10] == kxx[11]) { offset2 = 0.; } else { r1 = kyy[11] - kyy[10]; r2 = kxx[11] - kxx[10]; offset2 = TMath::ATan2(r1, r2) * kraddeg - 90.; } aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xccc * TMath::Cos(aphi) - yccc * TMath::Sin(aphi) + xzero; ypos1 = xccc * TMath::Sin(aphi) + yccc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; atheta1112 = (i-1) * 36. + offset1 + offset2 - kgteta; AliMatrix(idrotm[(i-1) * 13 + 1110], 270., atheta1112, 90., atheta1112 + 270., 0., 0.); gMC->Gsposp("SPIX", (i-1) * 13 + 11, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1110], "ONLY", dsup, 3); // --- Place an element of layer #1 biga = (kyy[11] - kyy[10]) / (kxx[11] - kxx[10]); bigb = (kxx[11] * kyy[10] - kxx[10] * kyy[11]) / (kxx[11] - kxx[10]) / 10.; coeffa = biga * biga + 1.; coeffb = biga * bigb - biga * ycc - xcc; coeffc = xcc * xcc + ycc * ycc - ycc * 2. * bigb + bigb * bigb - .0035712576000000002; xcc1 = (-coeffb + TMath::Sqrt(coeffb * coeffb - coeffa * coeffc)) / coeffa; ycc1 = biga * xcc1 + bigb; biga1 = -1. / biga; bigb1 = xcc1 / biga + ycc1; coeffa = biga1 * biga1 + 1.; coeffb = biga1 * bigb1 - biga1 * ycc1 - xcc1; coeffc = xcc1 * xcc1 + ycc1 * ycc1 - ycc1 * 2. * bigb1 + bigb1 * bigb1 - (dsup[0] + dbox1[0]) * (dsup[0] + dbox1[0]); xcc2 = (-coeffb + TMath::Sqrt(coeffb * coeffb - coeffa * coeffc)) / coeffa; ycc2 = biga1 * xcc2 + bigb1; xpos1 = xcc2 * TMath::Cos(aphi) - ycc2 * TMath::Sin(aphi) + xzero; ypos1 = xcc2 * TMath::Sin(aphi) + ycc2 * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; ++jbox1; gMC->Gspos("IPV1", jbox1, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1110], "ONLY"); // --- Place arc # 13 (between part 1-2 and part 2-3) (see sketch) darc[0] = krarc[12] / 10. - .02; darc[1] = krarc[12] / 10.; darc[2] = 25.; darc[3] = atheta12 - (i-1) * 36.; darc[4] = atheta23 - (i-1) * 36.; xcc = kxarc[12] / 10.; ycc = kyarc[12] / 10.; aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xcc * TMath::Cos(aphi) - ycc * TMath::Sin(aphi) + xzero; ypos1 = xcc * TMath::Sin(aphi) + ycc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; gMC->Gsposp("SARC", (i-1) * 13 + 13, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1112], "ONLY", darc, 5); // --- Place arc # 12 (between part 2-3 and part 3-4) (see sketch) darc[0] = krarc[11] / 10. - .02; darc[1] = krarc[11] / 10.; darc[2] = 25.; darc[3] = atheta23 + 90. - (i-1) * 36.; darc[4] = atheta34 + 90. - (i-1) * 36.; xcc = kxarc[11] / 10.; ycc = kyarc[11] / 10.; aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xcc * TMath::Cos(aphi) - ycc * TMath::Sin(aphi) + xzero; ypos1 = xcc * TMath::Sin(aphi) + ycc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; gMC->Gsposp("SARC", (i-1) * 13 + 12, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1111], "ONLY", darc, 5); // --- Place arc # 11 (between part 3-4 and part 4-5) (see sketch) darc[0] = krarc[10] / 10. - .02; darc[1] = krarc[10] / 10.; darc[2] = 25.; darc[3] = atheta45 + 180. - (i-1) * 36.; darc[4] = atheta34 + 180. - (i-1) * 36.; xcc = kxarc[10] / 10.; ycc = kyarc[10] / 10.; aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xcc * TMath::Cos(aphi) - ycc * TMath::Sin(aphi) + xzero; ypos1 = xcc * TMath::Sin(aphi) + ycc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; gMC->Gsposp("SARC", (i-1) * 13 + 11, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1110], "ONLY", darc, 5); // --- Place arc # 10 (between part 4-5 and part 5-6) (see sketch) darc[0] = krarc[9] / 10. - .02; darc[1] = krarc[9] / 10.; darc[2] = 25.; darc[3] = atheta45 - 90. - (i-1) * 36.; darc[4] = atheta56 - 90. - (i-1) * 36.; xcc = kxarc[9] / 10.; ycc = kyarc[9] / 10.; aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xcc * TMath::Cos(aphi) - ycc * TMath::Sin(aphi) + xzero; ypos1 = xcc * TMath::Sin(aphi) + ycc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; gMC->Gsposp("SARC", (i-1) * 13 + 10, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1109], "ONLY", darc, 5); // --- Place arc # 9 (between part 5-6 and part) (see sketch) darc[0] = krarc[8] / 10. - .02; darc[1] = krarc[8] / 10.; darc[2] = 25.; darc[3] = atheta67 + 45. - (i-1) * 36.; darc[4] = atheta56 + 45. - (i-1) * 36.; xcc = kxarc[8] / 10.; ycc = kyarc[8] / 10.; aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xcc * TMath::Cos(aphi) - ycc * TMath::Sin(aphi) + xzero; ypos1 = xcc * TMath::Sin(aphi) + ycc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; gMC->Gsposp("SARC", (i-1) * 13 + 9, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1108], "ONLY", darc, 5); // --- Place arc # 8 (between part 6-7 and part 7-8) (see sketch) darc[0] = krarc[7] / 10. - .02; darc[1] = krarc[7] / 10.; darc[2] = 25.; darc[3] = atheta67 - (i-1) * 36.; darc[4] = atheta78 - (i-1) * 36.; xcc = kxarc[7] / 10.; ycc = kyarc[7] / 10.; aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xcc * TMath::Cos(aphi) - ycc * TMath::Sin(aphi) + xzero; ypos1 = xcc * TMath::Sin(aphi) + ycc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; gMC->Gsposp("SARC", (i-1) * 13 + 8, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1107], "ONLY", darc, 5); // --- Place arc # 7 (between part 7-8 and part 8-9) (see sketch) darc[0] = krarc[6] / 10. - .02; darc[1] = krarc[6] / 10.; darc[2] = 25.; darc[3] = atheta89 + 45. - (i-1) * 36.; darc[4] = atheta78 + 45. - (i-1) * 36.; xcc = kxarc[6] / 10.; ycc = kyarc[6] / 10.; aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xcc * TMath::Cos(aphi) - ycc * TMath::Sin(aphi) + xzero; ypos1 = xcc * TMath::Sin(aphi) + ycc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; gMC->Gsposp("SARC", (i-1) * 13 + 7, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1106], "ONLY", darc, 5); // --- Place arc # 6 (between part 8-9 and part 9-10) (see sketch) darc[0] = krarc[5] / 10. - .02; darc[1] = krarc[5] / 10.; darc[2] = 25.; darc[3] = atheta89 + 45. - (i-1) * 36.; darc[4] = atheta910 + 45. - (i-1) * 36.; xcc = kxarc[5] / 10.; ycc = kyarc[5] / 10.; aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xcc * TMath::Cos(aphi) - ycc * TMath::Sin(aphi) + xzero; ypos1 = xcc * TMath::Sin(aphi) + ycc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; gMC->Gsposp("SARC", (i-1) * 13 + 6, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1105], "ONLY", darc, 5); // --- Place arc # 5 (between part 9-10 and part 10-11) // (see sketch) darc[0] = krarc[4] / 10. - .02; darc[1] = krarc[4] / 10.; darc[2] = 25.; darc[3] = atheta1011 + 45. - (i-1) * 36.; darc[4] = atheta910 + 45. - (i-1) * 36.; xcc = kxarc[4] / 10.; ycc = kyarc[4] / 10.; aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xcc * TMath::Cos(aphi) - ycc * TMath::Sin(aphi) + xzero; ypos1 = xcc * TMath::Sin(aphi) + ycc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; gMC->Gsposp("SARC", (i-1) * 13 + 5, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1104], "ONLY", darc, 5); // --- Place arc # 4 (between part 10-11 and part 11-12) // (see sketch) darc[0] = krarc[3] / 10. - .02; darc[1] = krarc[3] / 10.; darc[2] = 25.; darc[3] = atheta1112 - 45. - (i-1) * 36.; darc[4] = atheta1011 - 225. - (i-1) * 36.; xcc = kxarc[3] / 10.; ycc = kyarc[3] / 10.; aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xcc * TMath::Cos(aphi) - ycc * TMath::Sin(aphi) + xzero; ypos1 = xcc * TMath::Sin(aphi) + ycc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; gMC->Gsposp("SARC", (i-1) * 13 + 4, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1103], "ONLY", darc, 5); // --- Place arc # 3 (between part 11-12 and part 12-13) // (see sketch) darc[0] = krarc[2] / 10. - .02; darc[1] = krarc[2] / 10.; darc[2] = 25.; darc[3] = atheta1112 - 90. - (i-1) * 36.; darc[4] = atheta1213 - 90. - (i-1) * 36.; xcc = kxarc[2] / 10.; ycc = kyarc[2] / 10.; aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xcc * TMath::Cos(aphi) - ycc * TMath::Sin(aphi) + xzero; ypos1 = xcc * TMath::Sin(aphi) + ycc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; gMC->Gsposp("SARC", (i-1) * 13 + 3, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1102], "ONLY", darc, 5); // --- Place arc # 2 (between part 12-13 and part 13-14) // (see sketch) darc[0] = krarc[1] / 10. - .02; darc[1] = krarc[1] / 10.; darc[2] = 25.; darc[3] = atheta1213 + 135. - (i-1) * 36.; darc[4] = atheta1314 + 165. - (i-1) * 36.; xcc = kxarc[1] / 10.; ycc = kyarc[1] / 10.; aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xcc * TMath::Cos(aphi) - ycc * TMath::Sin(aphi) + xzero; ypos1 = xcc * TMath::Sin(aphi) + ycc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; gMC->Gsposp("SARC", (i-1) * 13 + 2, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1101], "ONLY", darc, 5); // --- Place arc # 1 (between part 13-14 and part 1-2) // (see sketch) darc[0] = krarc[0] / 10. - .02; darc[1] = krarc[0] / 10.; darc[2] = 25.; darc[3] = atheta12 + 45. - (i-1) * 36.; darc[4] = atheta1314 - (i-1) * 36.; xcc = kxarc[0] / 10.; ycc = kyarc[0] / 10.; aphi = (kpphi + (i-1) * 36.) * kdegrad; xzero = krr * TMath::Cos((ktteta + (i-1) * 36.) * kdegrad); yzero = krr * TMath::Sin((ktteta + (i-1) * 36.) * kdegrad); xpos1 = xcc * TMath::Cos(aphi) - ycc * TMath::Sin(aphi) + xzero; ypos1 = xcc * TMath::Sin(aphi) + ycc * TMath::Cos(aphi) + yzero; xpos = xpos1 * TMath::Cos(kgteta * kdegrad) + ypos1 * TMath::Sin(kgteta *kdegrad); ypos = -xpos1 * TMath::Sin(kgteta * kdegrad) + ypos1 * TMath::Cos(kgteta * kdegrad); zpos = 0.; gMC->Gsposp("SARC", (i-1) * 13 + 1, "IT12", xpos, ypos, zpos, idrotm[(i-1) * 13 + 1100], "ONLY", darc, 5); } //************************************************************************ //* * //* D R I F T S * //* =========== * //* * //************************************************************************ // --- Define a ghost volume containing the Silicon Drift Detectors // (layer #3 and #4) and fill it with air or vacuum xxm = (49.999-3.)/(70.-25.); dgh[0] = 0; dgh[1] = 360; dgh[2] = 4; dgh[3] = -25.-(9.-3.01)/xxm-(9.01-9.)/xxm-(27.-9.01)/xxm; dgh[4] = 27.; dgh[5] = 27.; dgh[6] = -25.-(9.-3.01)/xxm-(9.01-9.)/xxm; dgh[7] = 9.01; dgh[8] = 27.; dgh[9] = 25.+(9.-3.01)/xxm+(9.01-9.)/xxm; dgh[10] = 9.01; dgh[11] = 27.; dgh[12] = 25.+(9.-3.01)/xxm+(9.01-9.)/xxm+(27.-9.01)/xxm; dgh[13] = 27.; dgh[14] = 27.; gMC->Gsvolu("IT34", "PCON", idtmed[275], dgh, 15); // --- Place the ghost volume in its mother volume (ITSV) and make it // invisible gMC->Gspos("IT34", 1, "ITSV", 0., 0., 0., 0, "ONLY"); gMC->Gsatt("IT34", "SEEN", 0); // --- Layer #3 // GOTO 3456 ! skip ITS layer no. 3 //--- Define a ghost volume containing a single ladder of layer #3 (with the // smaller lenght of ribs) and fill it with air or vacuum dbox1[0] = 0.5+(0.0172+0.03+0.0252+0.04+0.003); dbox1[1] = 3.85; // the widest element is the sensitive element dbox1[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IDV1", "BOX ", idtmed[228], dbox1, 3); // --- Make the ghost volume invisible gMC->Gsatt("IDV1", "SEEN", 0); // --- Define a volume containing the sensitive part of drifts // (silicon, layer #3) dits[0] = .0172; // see material budget report by G. Feofilov dits[1] = 3.85; dits[2] = 4.35; gMC->Gsvolu("ITS3", "BOX ", idtmed[224], dits, 3); //--- Define the part of the (smaller) rib between two sensitive parts made of // carbon (layer #3) dsup[0] = .5 - dits[0]; dsup[1] = .01; dsup[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR11", "BOX ", idtmed[227], dsup, 3); //--- Define the first part of the (smaller) rib between two sensitive parts // made of aluminum (layer #3) dal1[0] = .5 - dits[0]; dal1[1] = 0.00096/2.; dal1[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR12", "BOX ", idtmed[230], dal1, 3); //--- Define the part of the (smaller) rib between two sensitive parts made of // kapton (layer #3) dkap[0] = .5 - dits[0]; dkap[1] = .01585; dkap[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR13", "BOX ", idtmed[236], dkap, 3); //--- Define the second part of the (smaller) rib between two sensitive parts // made of aluminum (layer #3) dal2[0] = .5 - dits[0]; dal2[1] = 0.0027/2.; dal2[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR14", "BOX ", idtmed[230], dal2, 3); // --- Define the part of the (smaller) rib between two sensitive parts // made of silicon (the electronics) (layer #3) dchi[0] = .5 - dits[0]; dchi[1] = 0.0071/2.; dchi[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR15", "BOX ", idtmed[225], dal2, 3); // --- Define the part of the (smaller) rib between two sensitive parts // made of water (the cooler) (layer #3) dwat[0] = .5 - dits[0]; dwat[1] = 0.0093/2.; dwat[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR16", "BOX ", idtmed[231], dwat, 3); //--- Define the third part of the (smaller) rib between two sensitive parts // made of aluminum (the cooling tubes) (layer #3) dtub[0] = .5 - dits[0]; dtub[1] = 0.00134/2.; dtub[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR17", "BOX ", idtmed[230], dtub, 3); // --- Define the part of the end-ladder stuff made of PCB (layer #3) dpcb[0] = .03; // twice the foreseen thickness dpcb[1] = 3.5; dpcb[2] = 7.5; gMC->Gsvolu("IEL1", "BOX ", idtmed[233], dpcb, 3); // --- Define the part of the end-ladder stuff made of copper (layer #3) dcop[0] = .0252; // twice the foreseen thickness dcop[1] = 3.5; dcop[2] = 7.5; gMC->Gsvolu("IEL2", "BOX ", idtmed[234], dcop, 3); // --- Define the part of the end-ladder stuff made of ceramics (layer #3) dcer[0] = .04; // twice the foreseen thickness dcer[1] = 3.5; dcer[2] = 7.5; gMC->Gsvolu("IEL3", "BOX ", idtmed[235], dcer, 3); // --- Define the part of the end-ladder stuff made of silicon (layer #3) dsil[0] = .003; // twice the foreseen thickness dsil[1] = 3.5; dsil[2] = 7.5; gMC->Gsvolu("IEL4", "BOX ", idtmed[226], dsil, 3); //--- Place the sensitive part of the drifts (smaller ribs) into its mother // (IDV1) ypos = 0.; for(j = 1; j <= 5; ++j) { // odd elements are up and even elements are down if (j == 1) { xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = 0. - dits[2] + 1. - dits[2] * 2. - .1 - dits[2]; } else if (j == 2) { xpos = -dbox1[0] + dits[0]; zpos = 0. - dits[2] + 1. - dits[2]; } else if (j == 3) { xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = 0.; } else if (j == 4) { xpos = -dbox1[0] + dits[0]; zpos = dits[2] + 0. - 1. + dits[2]; } else if (j == 5) { xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = dits[2] + 0. - 1. + dits[2] * 2. + .1 + dits[2]; } gMC->Gspos("ITS3", j, "IDV1", xpos, ypos, zpos, 0, "ONLY"); } // --- Place the smaller ribs into their mother (IDV1) // --- Right ribs (just a matter of convention) xpos = .5 - dbox1[0] + dits[0]; zpos = 0.; // --- Carbon ypos = 2.81; gMC->Gspos("IR11", 1, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #1 ypos = dsup[1] + 2.81 + dal1[1]; gMC->Gspos("IR12", 1, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Kapton ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1]; gMC->Gspos("IR13", 1, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #2 ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1]; gMC->Gspos("IR14", 1, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (chip) ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1]; gMC->Gspos("IR15", 1, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Water ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1]; gMC->Gspos("IR16", 1, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #3 ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1] * 2. + dtub[1]; gMC->Gspos("IR17", 1, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Right ribs (just a matter of convention) // --- Carbon ypos = -2.81; gMC->Gspos("IR11", 2, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #1 ypos = -(dsup[1] + 2.81 + dal1[1]); gMC->Gspos("IR12", 2, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Kapton ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1]); gMC->Gspos("IR13", 2, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #2 ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1]); gMC->Gspos("IR14", 2, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (chip) ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1]); gMC->Gspos("IR15", 2, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Water ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1]); gMC->Gspos("IR16", 2, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #3 ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1] * 2. + dtub[1]); gMC->Gspos("IR17", 2, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Place the end-ladder stuff into its mother (IDV1) // --- Negative-Z end-ladder ypos = 0.; zpos = -(8.7*5.-2.*1.+2.*0.1)/2.-7.5; // --- PCB xpos = dbox1[0] - dpcb[0]; gMC->Gspos("IEL1", 1, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Copper xpos = dbox1[0] - dpcb[0] * 2. - dcop[0]; gMC->Gspos("IEL2", 1, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Ceramics xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0]; gMC->Gspos("IEL3", 1, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (bus) xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0]; gMC->Gspos("IEL4", 1, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Positive-Z end-ladder ypos = 0.; zpos = (8.7*5.-2.*1.+2.*0.1)/2.+7.5; // --- PCB xpos = dbox1[0] - dpcb[0]; gMC->Gspos("IEL1", 2, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Copper xpos = dbox1[0] - dpcb[0] * 2. - dcop[0]; gMC->Gspos("IEL2", 2, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Ceramics xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0]; gMC->Gspos("IEL3", 2, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (bus) xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0]; gMC->Gspos("IEL4", 2, "IDV1", xpos, ypos, zpos, 0, "ONLY"); //--- Define a ghost volume containing a single ladder of layer #3 (with the // larger lenght of ribs) and fill it with air or vacuum dbox2[0] = 0.65+(0.0172+0.03+0.0252+0.04+0.003); dbox2[1] = 3.85; // the widest element is the sensitive element dbox2[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IDV2", "BOX ", idtmed[228], dbox2, 3); // --- Make the ghost volume invisible gMC->Gsatt("IDV2", "SEEN", 0); //--- Define the part of the (larger) rib between two sensitive parts madeof // carbon (layer #3) dsup[0] = .65 - dits[0]; dsup[1] = .01; dsup[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR21", "BOX ", idtmed[227], dsup, 3); //--- Define the first part of the (larger) rib between two sensitive parts // made of aluminum (layer #3) dal1[0] = .65 - dits[0]; dal1[1] = 0.00096/2.; dal1[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR22", "BOX ", idtmed[230], dal1, 3); //--- Define the part of the (larger) rib between two sensitive parts madeof // kapton (layer #3) dkap[0] = .65 - dits[0]; dkap[1] = 0.0317/2.; dkap[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR23", "BOX ", idtmed[236], dkap, 3); //--- Define the second part of the (larger) rib between two sensitive parts // made of aluminum (layer #3) dal2[0] = .65 - dits[0]; dal2[1] = 0.0027/2.; dal2[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR24", "BOX ", idtmed[230], dal2, 3); // --- Define the part of the (larger) rib between two sensitive parts // made of silicon (the electronics) (layer #3) dchi[0] = .65 - dits[0]; dchi[1] = 0.0071/2.; dchi[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR25", "BOX ", idtmed[225], dal2, 3); // --- Define the part of the (larger) rib between two sensitive parts // made of water (the cooler) (layer #3) dwat[0] = .65 - dits[0]; dwat[1] = 0.0093/2.; dwat[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR26", "BOX ", idtmed[231], dwat, 3); //--- Define the third part of the (larger) rib between two sensitive parts // made of aluminum (the cooling tubes) (layer #3) dtub[0] = .65 - dits[0]; dtub[1] = 0.00134/2.; dtub[2] = (8.7*5.-2.*1.+2.*0.1)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR27", "BOX ", idtmed[230], dtub, 3); //--- Place the sensitive part of the drifts (smaller ribs) into its mother // (IDV2) ypos = 0.; for(j = 1; j <= 5; ++j) { // odd element are up and even elements are down if (j == 1) { xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = 0. - dits[2] + 1. - dits[2] * 2. - .1 - dits[2]; } else if (j == 2) { xpos = -dbox2[0] + dits[0]; zpos = 0. - dits[2] + 1. - dits[2]; } else if (j == 3) { xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = 0.; } else if (j == 4) { xpos = -dbox2[0] + dits[0]; zpos = dits[2] + 0. - 1. + dits[2]; } else if (j == 5) { xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = dits[2] + 0. - 1. + dits[2] * 2. + .1 + dits[2]; } gMC->Gspos("ITS3", j, "IDV2", xpos, ypos, zpos, 0, "ONLY"); } // --- Place the larger ribs into their mother (IDV2) // --- Right ribs (just a matter of convention) xpos = .65 - dbox2[0] + dits[0]; zpos = 0.; // --- Carbon ypos = 2.81; gMC->Gspos("IR21", 1, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #1 ypos = dsup[1] + 2.81 + dal1[1]; gMC->Gspos("IR22", 1, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Kapton ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1]; gMC->Gspos("IR23", 1, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #2 ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1]; gMC->Gspos("IR24", 1, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (chip) ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1]; gMC->Gspos("IR25", 1, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Water ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1]; gMC->Gspos("IR26", 1, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #3 ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1] * 2. + dtub[1]; gMC->Gspos("IR27", 1, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Right ribs (just a matter of convention) // --- Carbon ypos = -2.81; gMC->Gspos("IR21", 2, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #1 ypos = -(dsup[1] + 2.81 + dal1[1]); gMC->Gspos("IR22", 2, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Kapton ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1]); gMC->Gspos("IR23", 2, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #2 ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1]); gMC->Gspos("IR24", 2, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (chip) ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1]); gMC->Gspos("IR25", 2, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Water ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1]); gMC->Gspos("IR26", 2, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #3 ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1] * 2. + dtub[1]); gMC->Gspos("IR27", 2, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Place the end-ladder stuff into its mother (IDV1) // --- Negative-Z end-ladder ypos = 0.; zpos = -(8.7*5.-2.*1.+2.*0.1)/2.-7.5; // --- PCB xpos = dbox2[0] - dpcb[0]; gMC->Gspos("IEL1", 3, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Copper xpos = dbox2[0] - dpcb[0] * 2. - dcop[0]; gMC->Gspos("IEL2", 3, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Ceramics xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0]; gMC->Gspos("IEL3", 3, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (bus) xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0]; gMC->Gspos("IEL4", 3, "IDV1", xpos, ypos, zpos, 0, "ONLY"); // --- Positive-Z end-ladder //yos = 0.; zpos = (8.7*5.-2.*1.+2.*0.1)/2.+7.5; // --- PCB xpos = dbox2[0] - dpcb[0]; gMC->Gspos("IEL1", 4, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Copper xpos = dbox2[0] - dpcb[0] * 2. - dcop[0]; gMC->Gspos("IEL2", 4, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Ceramics xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0]; gMC->Gspos("IEL3", 4, "IDV2", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (bus) xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0]; gMC->Gspos("IEL4", 4, "IDV2", xpos, ypos, zpos, 0, "ONLY"); //--- Place the ghost volumes containing the drift ladders of layer #3 in their // mother volume (IT34) // Odd elements have large ribs and even elements have small ribs for(i = 1; i <= 12; ++i) { atheta = (i-1) * 30.; AliMatrix(idrotm[i+1299], 90., atheta, 90., atheta + 90., 0.,0.); if (i % 2 == 0) { rzero = 14.; xpos = rzero * TMath::Cos((i-1) * ktwopi / 12.); ypos = rzero * TMath::Sin((i-1) * ktwopi / 12.); zpos = 0.; gMC->Gspos("IDV1", i, "IT34", xpos, ypos, zpos, idrotm[i+1299], "ONLY"); } else { rzero = 13.85; xpos = rzero * TMath::Cos((i-1) * ktwopi / 12.); ypos = rzero * TMath::Sin((i-1) * ktwopi / 12.); zpos = 0.; gMC->Gspos("IDV2", i, "IT34", xpos, ypos, zpos, idrotm[i+1299], "ONLY"); } } // --- Layer #4 // GOTO 4567 ! skip ITS layer no. 4 //--- Define a ghost volume containing a single ladder of layer #4 (with the // smaller lenght of ribs) and fill it with air or vacuum dbox1[0] = 0.5+(0.0172+0.03+0.0252+0.04+0.003); dbox1[1] = 3.5; // the widest element is the end-ladder stuff dbox1[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IDV3", "BOX ", idtmed[228], dbox1, 3); // --- Make the ghost volume invisible gMC->Gsatt("IDV3", "SEEN", 0); // --- Define a volume containing the sensitive part of drifts // (silicon, layer #4) dits[0] = .0172; // see material budget report by G. Feofilov dits[1] = 3.125; dits[2] = 4.35; gMC->Gsvolu("ITS4", "BOX ", idtmed[224], dits, 3); //--- Define the part of the (smaller) rib between two sensitive parts made of // carbon (layer #4) dsup[0] = .5 - dits[0]; dsup[1] = .01; dsup[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lengh gMC->Gsvolu("IR31", "BOX ", idtmed[227], dsup, 3); //--- Define the first part of the (smaller) rib between two sensitive parts // made of aluminum (layer #4) dal1[0] = .5 - dits[0]; dal1[1] = 0.00096/2.; dal1[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lengh gMC->Gsvolu("IR32", "BOX ", idtmed[230], dal1, 3); //--- Define the part of the (smaller) rib between two sensitive parts made of // kapton (layer #4) dkap[0] = .5 - dits[0]; dkap[1] = 0.0317/2.; dkap[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lengh gMC->Gsvolu("IR33", "BOX ", idtmed[236], dkap, 3); //--- Define the second part of the (smaller) rib between two sensitive parts // made of aluminum (layer #4) dal2[0] = .5 - dits[0]; dal2[1] = 0.0027/2.; dal2[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lengh gMC->Gsvolu("IR34", "BOX ", idtmed[230], dal2, 3); // --- Define the part of the (smaller) rib between two sensitive parts // made of silicon (the electronics) (layer #4) dchi[0] = .5 - dits[0]; dchi[1] = 0.0071/2.; dchi[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lengh gMC->Gsvolu("IR35", "BOX ", idtmed[225], dal2, 3); // --- Define the part of the (smaller) rib between two sensitive parts // made of water (the cooler) (layer #4) dwat[0] = .5 - dits[0]; dwat[1] = 0.0093/2.; dwat[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IR36", "BOX ", idtmed[231], dwat, 3); //--- Define the third part of the (smaller) rib between two sensitive parts // made of aluminum (the cooling tubes) (layer #4) dtub[0] = .5 - dits[0]; dtub[1] = 0.00134/2.; dtub[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lengh gMC->Gsvolu("IR37", "BOX ", idtmed[230], dtub, 3); // --- Define the part of the end-ladder stuff made of PCB (layer #4) dpcb[0] = .03; // twice the foreseen thickness dpcb[1] = 3.5; dpcb[2] = 7.5; gMC->Gsvolu("IEL5", "BOX ", idtmed[233], dpcb, 3); // --- Define the part of the end-ladder stuff made of copper (layer #4) dcop[0] = .0252; // twice the foreseen thickness dcop[1] = 3.5; dcop[2] = 7.5; gMC->Gsvolu("IEL6", "BOX ", idtmed[234], dcop, 3); // --- Define the part of the end-ladder stuff made of ceramics (layer #4) dcer[0] = .04; // twice the foreseen thickness dcer[1] = 3.5; dcer[2] = 7.5; gMC->Gsvolu("IEL7", "BOX ", idtmed[235], dcer, 3); // --- Define the part of the end-ladder stuff made of silicon (layer #4) dsil[0] = .003; // twice the foreseen thickness dsil[1] = 3.5; dsil[2] = 7.5; gMC->Gsvolu("IEL8", "BOX ", idtmed[226], dsil, 3); //--- Place the sensitive part of the drifts (smaller ribs) into its mother // (IDV3) ypos = 0.; for(j = 1; j <= 7; ++j) { // odd elements are down and even elements are up if (j == 1) { xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = 0. - dits[2] + .7 - dits[2] * 2. + 0. - dits[2] * 2. + 1.3 - dits[2]; } else if (j == 2) { xpos = -dbox1[0] + dits[0]; zpos = 0. - dits[2] + .7 - dits[2] * 2. + 0. - dits[2]; } else if (j == 3) { xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = 0. - dits[2] + .7 - dits[2]; } else if (j == 4) { xpos = -dbox1[0] + dits[0]; zpos = 0.; } else if (j == 5) { xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = dits[2] + 0. - .7 + dits[2]; } else if (j == 6) { xpos = -dbox1[0] + dits[0]; zpos = dits[2] + 0. - .7 + dits[2] * 2. + 0. + dits[2]; } else if (j == 7) { xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = dits[2] + 0. - .7 + dits[2] * 2. + 0. + dits[2] * 2. - 1.3 + dits[2]; } gMC->Gspos("ITS4", j, "IDV3", xpos, ypos, zpos, 0, "ONLY"); } // --- Place the smaller ribs into their mother (IDV3) // --- Right ribs (just a matter of convention) xpos = .5 - dbox1[0] + dits[0]; zpos = 0.; // --- Carbon ypos = 2.81; gMC->Gspos("IR31", 1, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #1 ypos = dsup[1] + 2.81 + dal1[1]; gMC->Gspos("IR32", 1, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Kapton ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1]; gMC->Gspos("IR33", 1, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #2 ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1]; gMC->Gspos("IR34", 1, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (chip) ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1]; gMC->Gspos("IR35", 1, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Water ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1]; gMC->Gspos("IR36", 1, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #3 ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1] * 2. + dtub[1]; gMC->Gspos("IR37", 1, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Right ribs (just a matter of convention) // --- Carbon ypos = -2.81; gMC->Gspos("IR31", 2, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #1 ypos = -(dsup[1] + 2.81 + dal1[1]); gMC->Gspos("IR32", 2, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Kapton ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1]); gMC->Gspos("IR33", 2, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #2 ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1]); gMC->Gspos("IR34", 2, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (chip) ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1]); gMC->Gspos("IR35", 2, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Water ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1]); gMC->Gspos("IR36", 2, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #3 ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1] * 2. + dtub[1]); gMC->Gspos("IR37", 2, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Place the end-ladder stuff into its mother (IDV1) // --- Negative-Z end-ladder ypos = 0.; zpos = -(8.7*7.-2.*0.7-2.*1.3)/2.-7.5; // --- PCB xpos = dbox1[0] - dpcb[0]; gMC->Gspos("IEL5", 1, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Copper xpos = dbox1[0] - dpcb[0] * 2. - dcop[0]; gMC->Gspos("IEL6", 1, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Ceramics xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0]; gMC->Gspos("IEL7", 1, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (bus) xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0]; gMC->Gspos("IEL8", 1, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Positive-Z end-ladder ypos = 0.; zpos = (8.7*7.-2.*0.7-2.*1.3)/2.-7.5; // --- PCB xpos = dbox1[0] - dpcb[0]; gMC->Gspos("IEL5", 2, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Copper xpos = dbox1[0] - dpcb[0] * 2. - dcop[0]; gMC->Gspos("IEL6", 2, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Ceramics xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0]; gMC->Gspos("IEL7", 2, "IDV3", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (bus) xpos = dbox1[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0]; gMC->Gspos("IEL8", 2, "IDV3", xpos, ypos, zpos, 0, "ONLY"); //--- Define a ghost volume containing a single ladder of layer #4 (with the // larger lenght of ribs) and fill it with air or vacuum dbox2[0] = 0.65+(0.0172+0.03+0.0252+0.04+0.003); dbox2[1] = 3.5; // the widest element is the end-ladder stuff dbox2[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lenght gMC->Gsvolu("IDV4", "BOX ", idtmed[228], dbox2, 3); // --- Make the ghost volume invisible gMC->Gsatt("IDV4", "SEEN", 0); //--- Define the part of the (larger) rib between two sensitive parts madeof // carbon (layer #4) dsup[0] = .65 - dits[0]; dsup[1] = .01; dsup[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lengh gMC->Gsvolu("IR41", "BOX ", idtmed[227], dsup, 3); //--- Define the first part of the (larger) rib between two sensitive parts // made of aluminum (layer #4) dal1[0] = .65 - dits[0]; dal1[1] = 0.00096/2.; dal1[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lengh gMC->Gsvolu("IR42", "BOX ", idtmed[230], dal1, 3); //--- Define the part of the (larger) rib between two sensitive parts madeof // kapton (layer #4) dkap[0] = .65 - dits[0]; dkap[1] = 0.0317/2.; dkap[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lengh gMC->Gsvolu("IR43", "BOX ", idtmed[236], dkap, 3); //--- Define the second part of the (larger) rib between two sensitive parts // made of aluminum (layer #4) dal2[0] = .65 - dits[0]; dal2[1] = 0.0027/2.; dal2[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lengh gMC->Gsvolu("IR44", "BOX ", idtmed[230], dal2, 3); // --- Define the part of the (larger) rib between two sensitive parts // made of silicon (the electronics) (layer #4) dchi[0] = .65 - dits[0]; dchi[1] = 0.0071/2.; dchi[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lengh gMC->Gsvolu("IR45", "BOX ", idtmed[225], dal2, 3); // --- Define the part of the (larger) rib between two sensitive parts // made of water (the cooler) (layer #4) dwat[0] = .65 - dits[0]; dwat[1] = 0.0093/2.; dwat[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lengh gMC->Gsvolu("IR46", "BOX ", idtmed[231], dwat, 3); //--- Define the third part of the (larger) rib between two sensitive parts // made of aluminum (the cooling tubes) (layer #4) dtub[0] = .65 - dits[0]; dtub[1] = 0.00134/2.; dtub[2] = (8.7*7.-2.*0.7-2.*1.3)/2.+2.*7.5; // 7.5 cm is the lengh gMC->Gsvolu("IR47", "BOX ", idtmed[230], dtub, 3); //--- Place the sensitive part of the drifts (smaller ribs) into its mother // (IDV4) ypos = 0.; for(j = 1; j <= 7; ++j) { // odd elements are down and even elements are up if (j == 1) { xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = 0. - dits[2] + .7 - dits[2] * 2. + 0. - dits[2] * 2. + 1.3 - dits[2]; } else if (j == 2) { xpos = -dbox2[0] + dits[0]; zpos = 0. - dits[2] + .7 - dits[2] * 2. + 0. - dits[2]; } else if (j == 3) { xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = 0. - dits[2] + .7 - dits[2]; } else if (j == 4) { xpos = -dbox2[0] + dits[0]; zpos = 0.; } else if (j == 5) { xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = dits[2] + 0. - .7 + dits[2]; } else if (j == 6) { xpos = -dbox2[0] + dits[0]; zpos = dits[2] + 0. - .7 + dits[2] * 2. + 0. + dits[2]; } else if (j == 7) { xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0] * 2. - dits[0]; zpos = dits[2] + 0. - .7 + dits[2] * 2. + 0. + dits[2] * 2. - 1.3 + dits[2]; } gMC->Gspos("ITS4", j, "IDV4", xpos, ypos, zpos, 0, "ONLY"); } // --- Place the larger ribs into their mother (IDV4) // --- Right ribs (just a matter of convention) xpos = .65 - dbox2[0] + dits[0]; zpos = 0.; // --- Carbon ypos = 2.81; gMC->Gspos("IR41", 1, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #1 ypos = dsup[1] + 2.81 + dal1[1]; gMC->Gspos("IR42", 1, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Kapton ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1]; gMC->Gspos("IR43", 1, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #2 ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1]; gMC->Gspos("IR44", 1, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (chip) ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1]; gMC->Gspos("IR45", 1, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Water ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1]; gMC->Gspos("IR46", 1, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #3 ypos = dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1] * 2. + dtub[1]; gMC->Gspos("IR47", 1, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Right ribs (just a matter of convention) // --- Carbon ypos = -2.81; gMC->Gspos("IR41", 2, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #1 ypos = -(dsup[1] + 2.81 + dal1[1]); gMC->Gspos("IR42", 2, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Kapton ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1]); gMC->Gspos("IR43", 2, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #2 ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1]); gMC->Gspos("IR44", 2, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (chip) ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1]); gMC->Gspos("IR45", 2, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Water ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1]); gMC->Gspos("IR46", 2, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Aluminum #3 ypos = -(dsup[1] + 2.81 + dal1[1] * 2. + dkap[1] * 2. + dal2[1] * 2. + dchi[1] * 2. + dwat[1] * 2. + dtub[1]); gMC->Gspos("IR47", 2, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Place the end-ladder stuff into its mother (IDV1) // --- Negative-Z end-ladder ypos = 0.; zpos = -(8.7*7.-2.*0.7-2.*1.3)/2.-7.5; // --- PCB xpos = dbox2[0] - dpcb[0]; gMC->Gspos("IEL5", 3, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Copper xpos = dbox2[0] - dpcb[0] * 2. - dcop[0]; gMC->Gspos("IEL6", 3, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Ceramics xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0]; gMC->Gspos("IEL7", 3, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (bus) xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0]; gMC->Gspos("IEL8", 3, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Positive-Z end-ladder //yos = 0.; zpos = (8.7*7.-2.*0.7-2.*1.3)/2.-7.5; // --- PCB xpos = dbox2[0] - dpcb[0]; gMC->Gspos("IEL5", 4, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Copper xpos = dbox2[0] - dpcb[0] * 2. - dcop[0]; gMC->Gspos("IEL6", 4, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Ceramics xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0]; gMC->Gspos("IEL7", 4, "IDV4", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (bus) xpos = dbox2[0] - dpcb[0] * 2. - dcop[0] * 2. - dcer[0] * 2. - dsil[0]; gMC->Gspos("IEL8", 4, "IDV4", xpos, ypos, zpos, 0, "ONLY"); //--- Place the ghost volumes containing the drift ladders of layer #4 in their // mother volume (IT34) // Odd elements have large ribs and even elements have small ribs for(i = 1; i <= 24; ++i) { atheta = (i-1) * 15.; AliMatrix(idrotm[i+1399], 90., atheta, 90., atheta + 90., 0.,0.); if (i % 2 == 0) { rzero = 23.5; xpos = rzero * TMath::Cos((i-1) * ktwopi / 24.); ypos = rzero * TMath::Sin((i-1) * ktwopi / 24.); zpos = 0.; gMC->Gspos("IDV3", i, "IT34", xpos, ypos, zpos, idrotm[i+1399], "ONLY"); } else { rzero = (24.0+22.8)/2.; xpos = rzero * TMath::Cos((i-1) * ktwopi / 24.); ypos = rzero * TMath::Sin((i-1) * ktwopi / 24.); zpos = 0.; gMC->Gspos("IDV4", i, "IT34", xpos, ypos, zpos, idrotm[i+1399], "ONLY"); } } //************************************************************************ //* * //* S T R I P S * //* =========== * //* * //************************************************************************ // --- Define SSD with the 35+39 lay-out if (fMinorVersionV3 < 3) { //--- Define ghost volume containing the Strip Detectors and fill it with air // or vacuum xxm = (49.999-3.)/(70.-25.); dgh[0] = 0.; dgh[1] = 360.; dgh[2] = 4.; dgh[3] = -25.-(9.-3.01)/xxm-(9.01-9.)/xxm-(27.-9.01)/xxm- (37.-27)/xxm-(49.998-37.)/xxm; dgh[4] = 49.998; dgh[5] = 49.998; dgh[6] = -25.-(9.-3.01)/xxm-(9.01-9.)/xxm-(27.-9.01)/xxm- (37.-27)/xxm; dgh[7] = 37.; dgh[8] = 49.998; dgh[9] = 25.+(9.-3.01)/xxm+(9.01-9.)/xxm+(27.-9.01)/xxm+ (37.-27)/xxm; dgh[10] = 37.; dgh[11] = 49.998; dgh[12] = 25.+(9.-3.01)/xxm+(9.01-9.)/xxm+(27.-9.01)/xxm+ (37.-27)/xxm+(49.998-37.)/xxm; dgh[13] = 49.998; dgh[14] = 49.998; gMC->Gsvolu("IT56", "PCON", idtmed[275], dgh, 15); gMC->Gspos("IT56", 1, "ITSV", 0., 0., 0., 0, "ONLY"); gMC->Gsatt("IT56", "SEEN", 0); // --- Layer #5 // GOTO 5678 ! skip ITS layer no. 5 //--- Define a ghost volume containing a single ladder of layer #5 andfill // it with air or vacuum dbox1[0] = (0.0600+2.*0.0150)/2.; dbox1[1] = 3.75; dbox1[2] = 90.22/2.; gMC->Gsvolu("ISV1", "BOX ", idtmed[253], dbox1, 3); // --- Make the ghost volume invisible gMC->Gsatt("ISV1", "SEEN", 0); // --- Define a ghost volume containing the electronics and cooling of // a single ladder of layer #5 and fill it with air or vacuum dsrv[0] = (TMath::Sqrt(3.) / 2. * 4.2 + .47 + .05) / 2.; dsrv[1] = 3.75; dsrv[2] = 90.22/2.; gMC->Gsvolu("SSV1", "BOX ", idtmed[253], dsrv, 3); // --- Make the ghost volume invisible gMC->Gsatt("SSV1", "SEEN", 0); // --- Define a ghost volume containing the end-ladder stuff of // a single ladder of layer #5 and fill it with air or vacuum dela[0] = 2.; dela[1] = 3.5; dela[2] = 4.; gMC->Gsvolu("ELL5", "BOX ", idtmed[253], dela, 3); // --- Make the ghost volume invisible gMC->Gsatt("ELL5", "SEEN", 0); // --- Define a volume containing the sensitive part of the strips // (silicon, layer #5) dits[0] = .015; dits[1] = 3.75; dits[2] = 2.1; gMC->Gsvolu("ITS5", "BOX ", idtmed[249], dits, 3); // --- Define a volume containing the electronics of the strips // (silicon, layer #5) dchi[0] = .02; dchi[1] = 3.4; dchi[2] = .525; gMC->Gsvolu("SCH5", "BOX ", idtmed[250], dchi, 3); // --- Define the cooling tubes (aluminum, layer #5) dtub[0] = .09; dtub[1] = dtub[0] + .01; dtub[2] = 90.22/2.; gMC->Gsvolu("STB5", "TUBE", idtmed[255], dtub, 3); // --- Define the cooling fluid (water or freon, layer #5) dwat[0] = 0.; dwat[1] = .09; dwat[2] = 90.22/2.; gMC->Gsvolu("SWT5", "TUBE", idtmed[256], dwat, 3); // CALL GSVOLU('SWT5','TUBE',IDTMED(258),DWAT,3,IOUT) ! freon //--- Define the (triangular) element of the heat bridge (carbon, layer #5) // water dfra[0] = 120.; dfra[1] = 360.; dfra[2] = 3.; dfra[3] = 2.; dfra[4] = -.015; dfra[5] = TMath::Sqrt(3.) * 4.2 / 6.; dfra[6] = dfra[5] + .03; dfra[7] = .015; dfra[8] = dfra[5]; dfra[9] = dfra[6]; gMC->Gsvolu("SFR5", "PGON", idtmed[252], dfra, 10); // --- Define the element connecting the triangles of the heat bridge // (carbon, layer #5) dcei[0] = 0.; dcei[1] = .03; dcei[2] = 90.22/2.; gMC->Gsvolu("SCE5", "TUBE", idtmed[252], dcei, 3); // --- Define the part of the end-ladder stuff made of plastic (G10FR4) // (layer #5) dpla[0] = (10./(8.*7.))/2.; dpla[1] = 3.5; dpla[2] = 4.; gMC->Gsvolu("EPL5", "BOX ", idtmed[262], dpla, 3); // --- Define the part of the end-ladder stuff made of copper (layer #5) dcop[0] = (2./(8.*7.))/2.; dcop[1] = 3.5; dcop[2] = 4.; gMC->Gsvolu("ECU5", "BOX ", idtmed[259], dcop, 3); // --- Define the part of the end-ladder stuff made of epoxy (layer #5) depx[0] = (30./(8.*7.))/2.; depx[1] = 3.5; depx[2] = 4.; gMC->Gsvolu("EPX5", "BOX ", idtmed[262], depx, 3); // --- Define the part of the end-ladder stuff made of silicon (bus) // (layer #5) dsil[0] = (20./(8.*7.))/2.; dsil[1] = 3.5; dsil[2] = 4.; gMC->Gsvolu("ESI5", "BOX ", idtmed[251], dsil, 3); // --- Place the end-ladder stuff into its mother (ELL5) sep = (4. - (dpla[0] + dcop[0] + depx[0] + dsil[0]) * 2.) / 3.; ypos = 0.; zpos = 0.; // --- Plastic xpos = -dela[0] + dpla[0]; gMC->Gspos("EPL5", 1, "ELL5", xpos, ypos, zpos, 0, "ONLY"); // --- Copper xpos = -dela[0] + dpla[0] * 2. + sep + dcop[0]; gMC->Gspos("ECU5", 1, "ELL5", xpos, ypos, zpos, 0, "ONLY"); // --- Epoxy xpos = -dela[0] + dpla[0] * 2. + sep + dcop[0] * 2. + sep + depx[0]; gMC->Gspos("EPX5", 1, "ELL5", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (bus) xpos = -dela[0] + dpla[0] * 2. + sep + dcop[0] * 2. + sep + depx[0] * 2. + sep + dsil[0]; gMC->Gspos("ESI5", 1, "ELL5", xpos, ypos, zpos, 0, "ONLY"); // --- Place the sensitive part of the strips into its mother (ISV1) ypos = 0.; for(j = 1; j <= 23; ++j) { if (j % 2 == 0) xpos = dbox1[0] - dits[0]; else xpos = -dbox1[0] + dits[0]; zpos = ((j - 1) - 11.) * 3.91; gMC->Gspos("ITS5", j, "ISV1", xpos, ypos, zpos, 0, "ONLY"); } // --- Place the electronics of the strips into its mother (SSV1) ypos = 0.; for(j = 1; j <= 23; ++j) { if (j % 2 == 0) xpos = -dsrv[0] + .28; else xpos = -dsrv[0] + .28 - dits[0] * 2. - .03; zpos = ((j - 1) - 11.) * 3.91 + .85; gMC->Gspos("SCH5", j, "SSV1", xpos, ypos, zpos, 0, "ONLY"); } //--- Place the cooling tubes and the cooling fluid into their mother (SSV1) xpos = -dsrv[0] + .41; zpos = 0.; // --- Left tube (just a matter of convention) ypos = -2.25-0.1; gMC->Gspos("STB5", 1, "SSV1", xpos, ypos, zpos, 0, "ONLY"); gMC->Gspos("SWT5", 1, "SSV1", xpos, ypos, zpos, 0, "ONLY"); // --- Right tube (just a matter of convention) ypos = 2.25+0.1; gMC->Gspos("STB5", 2, "SSV1", xpos, ypos, zpos, 0, "ONLY"); gMC->Gspos("SWT5", 2, "SSV1", xpos, ypos, zpos, 0, "ONLY"); // --- Place the heat bridge elements into their mother (SSV1) xpos = -dsrv[0] + .47 + TMath::Sqrt(3.) / 6. * 4.2; ypos = 0.; for(j = 1; j <= 23; ++j) { // Loop was to 24. Changed to 23 to fit inside // volume SSV1. This is the same number of // elements as SCH5 above. Done Bjorn S. Nilsen // April 4 2000. Error found by Ivana // Hrivnacova March 29 2000. zpos = ((j - 1) - 11.) * 3.91 - -4.2/2.; gMC->Gspos("SFR5", j, "SSV1", xpos, ypos, zpos, 0, "ONLY"); } // --- Place the elements connecting the triangles of the heat bridge // into their mother (SSV1) zpos = 0.; // --- Left element (just a matter of convention) xpos = -dsrv[0] + .47; ypos = -(2.1+0.015); gMC->Gspos("SCE5", 1, "SSV1", xpos, ypos, zpos, 0, "ONLY"); // --- Right element xpos = -dsrv[0] + .47; ypos = 2.1+0.015; gMC->Gspos("SCE5", 2, "SSV1", xpos, ypos, zpos, 0, "ONLY"); // --- Top element xpos = -dsrv[0] + .47 + TMath::Sqrt(3.) / 2. * 4.2 + .015; ypos = 0.; gMC->Gspos("SCE5", 3, "SSV1", xpos, ypos, zpos, 0, "ONLY"); // --- Place the ghost volumes containing the strip ladders (ISV1), // electronics/cooling (SSV1) and end-ladder stuff (ELL5) of layer #5 in // their mother volume (IT56) offset1 = TMath::ATan2(.9, 40.); offset2 = 5.2; rzero = dbox1[0] + 40.; runo = dbox1[0] * 2. + 40. + dsrv[0]; rtwo = dbox1[0] * 2. + 40. + dela[0]; for(i = 1; i <= 35; ++i) { atheta = (i-1) * ktwopi * kraddeg / 35. + offset2; AliMatrix(idrotm[i+1499], 90., atheta, 90., atheta + 90., 0., 0.); // --- Strip ladders xpos = rzero * TMath::Cos((i-1) * ktwopi / 35. + offset1); ypos = rzero * TMath::Sin((i-1) * ktwopi / 35. + offset1); zpos = 0.; gMC->Gspos("ISV1", i, "IT56", xpos, ypos, zpos, idrotm[i+1499], "ONLY"); // --- Electronics/cooling xpos = runo * TMath::Cos((i-1) * ktwopi / 35. + offset1); ypos = runo * TMath::Sin((i-1) * ktwopi / 35. + offset1); zpos = 0.; gMC->Gspos("SSV1", i, "IT56", xpos, ypos, zpos, idrotm[i+1499], "ONLY"); // --- End-ladders (nagative-Z and positive-Z) xpos = rtwo * TMath::Cos((i-1) * ktwopi / 35. + offset1); ypos = rtwo * TMath::Sin((i-1) * ktwopi / 35. + offset1); zpos = -(dbox1[2] + dela[2] + 6.); gMC->Gspos("ELL5", i, "IT56", xpos, ypos, zpos, idrotm[i+1499], "ONLY"); zpos = dbox1[2] + dela[2] + 6.; gMC->Gspos("ELL5", i + 35, "IT56", xpos, ypos, zpos, idrotm[i+1499], "ONLY"); } // --- Layer #6 // GOTO 5778 ! skip ITS layer no. 6 //--- Define a ghost volume containing a single ladder of layer #6 andfill // it with air or vacuum dbox2[0] = (0.0600+2.*0.0150)/2.; dbox2[1] = 3.75; dbox2[2] = 101.95/2.; gMC->Gsvolu("ISV2", "BOX ", idtmed[253], dbox2, 3); // --- Make the ghost volume invisible gMC->Gsatt("ISV2", "SEEN", 0); // --- Define a ghost volume containing the electronics and cooling of // a single ladder of layer #6 and fill it with air or vacuum dsrv[0] = (TMath::Sqrt(3.) / 2. * 4.2 + .47 + .05) / 2.; dsrv[1] = 3.75; dsrv[2] = 101.95/2.; gMC->Gsvolu("SSV2", "BOX ", idtmed[253], dsrv, 3); // --- Make the ghost volume invisible gMC->Gsatt("SSV2", "SEEN", 0); // --- Define a ghost volume containing the end-ladder stuff of // a single ladder of layer #6 and fill it with air or vacuum dela[0] = 2.; dela[1] = 3.5; dela[2] = 4.; gMC->Gsvolu("ELL6", "BOX ", idtmed[253], dela, 3); // --- Make the ghost volume invisible gMC->Gsatt("ELL6", "SEEN", 0); // --- Define a volume containing the sensitive part of the strips // (silicon, layer #6) dits[0] = .015; dits[1] = 3.75; dits[2] = 2.1; gMC->Gsvolu("ITS6", "BOX ", idtmed[249], dits, 3); // --- Define a volume containing the electronics of the strips // (silicon, layer #6) dchi[0] = .02; dchi[1] = 3.4; dchi[2] = .525; gMC->Gsvolu("SCH6", "BOX ", idtmed[250], dchi, 3); // --- Define the cooling tubes (aluminum, layer #6) dtub[0] = .09; dtub[1] = dtub[0] + .01; dtub[2] = 101.95/2.; gMC->Gsvolu("STB6", "TUBE", idtmed[255], dtub, 3); // --- Define the cooling fluid (water or freon, layer #6) dwat[0] = 0.; dwat[1] = .09; dwat[2] = 101.95/2.; gMC->Gsvolu("SWT6", "TUBE", idtmed[256], dwat, 3); // CALL GSVOLU('SWT6','TUBE',IDTMED(258),DWAT,3,IOUT) ! freon //--- Define the (triangular) element of the heat bridge (carbon, layer #6) // water dfra[0] = 120.; dfra[1] = 360.; dfra[2] = 3.; dfra[3] = 2.; dfra[4] = -.015; dfra[5] = TMath::Sqrt(3.) * 4.2 / 6.; dfra[6] = dfra[5] + .03; dfra[7] = .015; dfra[8] = dfra[5]; dfra[9] = dfra[6]; gMC->Gsvolu("SFR6", "PGON", idtmed[252], dfra, 10); // --- Define the element connecting the triangles of the heat bridge // (carbon, layer #6) dcei[0] = 0.; dcei[1] = .03; dcei[2] = 101.95/2.; gMC->Gsvolu("SCE6", "TUBE", idtmed[252], dcei, 3); // --- Define the part of the end-ladder stuff made of plastic (G10FR4) // (layer #6) dpla[0] = (10./(8.*7.))/2.; dpla[1] = 3.5; dpla[2] = 4.; gMC->Gsvolu("EPL6", "BOX ", idtmed[262], dpla, 3); // --- Define the part of the end-ladder stuff made of copper (layer #6) dcop[0] = (2./(8.*7.))/2.; dcop[1] = 3.5; dcop[2] = 4.; gMC->Gsvolu("ECU6", "BOX ", idtmed[259], dcop, 3); // --- Define the part of the end-ladder stuff made of epoxy (layer #6) depx[0] = (30./(8.*7.))/2.; depx[1] = 3.5; depx[2] = 4.; gMC->Gsvolu("EPX6", "BOX ", idtmed[262], depx, 3); // --- Define the part of the end-ladder stuff made of silicon (bus) // (layer #6) dsil[0] = (20./(8.*7.))/2.; dsil[1] = 3.5; dsil[2] = 4.; gMC->Gsvolu("ESI6", "BOX ", idtmed[251], dsil, 3); // --- Place the end-ladder stuff into its mother (ELL5) sep = (4. - (dpla[0] + dcop[0] + depx[0] + dsil[0]) * 2.) / 3.; ypos = 0.; zpos = 0.; // --- Plastic xpos = -dela[0] + dpla[0]; gMC->Gspos("EPL6", 1, "ELL6", xpos, ypos, zpos, 0, "ONLY"); // --- Copper xpos = -dela[0] + dpla[0] * 2. + sep + dcop[0]; gMC->Gspos("ECU6", 1, "ELL6", xpos, ypos, zpos, 0, "ONLY"); // --- Epoxy xpos = -dela[0] + dpla[0] * 2. + sep + dcop[0] * 2. + sep + depx[0]; gMC->Gspos("EPX6", 1, "ELL6", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (bus) xpos = -dela[0] + dpla[0] * 2. + sep + dcop[0] * 2. + sep + depx[0] * 2. + sep + dsil[0]; gMC->Gspos("ESI6", 1, "ELL6", xpos, ypos, zpos, 0, "ONLY"); // --- Place the sensitive part of the strips into its mother (ISV2) ypos = 0.; for(j = 1; j <= 26; ++j) { if (j % 2 == 0) xpos = dbox2[0] - dits[0]; else xpos = -dbox2[0] + dits[0]; zpos = ((j - 1) - 12.) * 3.91 - 1.96; gMC->Gspos("ITS6", j, "ISV2", xpos, ypos, zpos, 0, "ONLY"); } // --- Place the electronics of the strips into its mother (SSV2) ypos = 0.; for(j = 1; j <= 26; ++j) { if (j % 2 == 0) xpos = -dsrv[0] + .28; else xpos = -dsrv[0] + .28 - dits[0] * 2. - .03; zpos = ((j - 1) - 12.) * 3.91 - 1.96 + .85; gMC->Gspos("SCH5", j, "SSV2", xpos, ypos, zpos, 0, "ONLY"); } //--- Place the cooling tubes and the cooling fluid into their mother (SSV1) xpos = -dsrv[0] + .41; zpos = 0.; // --- Left tube (just a matter of convention) ypos = -2.25-0.1; gMC->Gspos("STB6", 1, "SSV2", xpos, ypos, zpos, 0, "ONLY"); gMC->Gspos("SWT6", 1, "SSV2", xpos, ypos, zpos, 0, "ONLY"); // --- Right tube (just a matter of convention) ypos = 2.25+0.; gMC->Gspos("STB6", 2, "SSV2", xpos, ypos, zpos, 0, "ONLY"); gMC->Gspos("SWT6", 2, "SSV2", xpos, ypos, zpos, 0, "ONLY"); // --- Place the heat bridge elements into their mother (SSV2) xpos = -dsrv[0] + .47 + TMath::Sqrt(3.) / 6. * 4.2; ypos = 0.; for(j = 1; j <= 27; ++j) { zpos = ((j - 1) - 12.) * 3.91 - 1.96 - 4.2/2.; gMC->Gspos("SFR6", j, "SSV2", xpos, ypos, zpos, 0, "ONLY"); } // --- Place the elements connecting the triangles of the heat bridge // into their mother (SSV2) zpos = 0.; // --- Left element (just a matter of convention) xpos = -dsrv[0] + .47; ypos = -(2.1+0.015); gMC->Gspos("SCE6", 1, "SSV2", xpos, ypos, zpos, 0, "ONLY"); // --- Right element xpos = -dsrv[0] + .47; ypos = 2.1+0.015; gMC->Gspos("SCE6", 2, "SSV2", xpos, ypos, zpos, 0, "ONLY"); // --- Top element xpos = -dsrv[0] + .47 + TMath::Sqrt(3.) / 2. * 4.2 + .015; ypos = 0.; gMC->Gspos("SCE6", 3, "SSV2", xpos, ypos, zpos, 0, "ONLY"); // --- Place the ghost volumes containing the strip ladders (ISV2), // electronics/cooling (SSV2) and end-ladder stuff (ELL6) of layer #6 in // their mother volume (IT56) offset1 = TMath::ATan2(1., 45.); offset2 = 5.2; rzero = dbox2[0] + 45.; runo = dbox2[0] * 2. + 45. + dsrv[0]; rtwo = dbox2[0] * 2. + 45. + dela[0]; for(i = 1; i <= 39; ++i) { atheta = (i-1) * ktwopi * kraddeg / 39. + offset2; AliMatrix(idrotm[i+1599], 90., atheta, 90., atheta + 90., 0., 0.); // --- Strip ladders xpos = rzero * TMath::Cos((i-1) * ktwopi / 39. + offset1); ypos = rzero * TMath::Sin((i-1) * ktwopi / 39. + offset1); zpos = 0.; gMC->Gspos("ISV2", i, "IT56", xpos, ypos, zpos, idrotm[i+1599], "ONLY"); // --- Electronics/cooling xpos = runo * TMath::Cos((i-1) * ktwopi / 39. + offset1); ypos = runo * TMath::Sin((i-1) * ktwopi / 39. + offset1); zpos = 0.; gMC->Gspos("SSV2", i, "IT56", xpos, ypos, zpos, idrotm[i+1599], "ONLY"); // --- End-ladders (nagative-Z and positive-Z) xpos = rtwo * TMath::Cos((i-1) * ktwopi / 39. + offset1); ypos = rtwo * TMath::Sin((i-1) * ktwopi / 39. + offset1); zpos = -(dbox2[2] + dela[2] + 6.); gMC->Gspos("ELL6", i, "IT56", xpos, ypos, zpos, idrotm[i+1599], "ONLY"); zpos = dbox2[2] + dela[2] + 6.; gMC->Gspos("ELL6", i + 39, "IT56", xpos, ypos, zpos, idrotm[i+1599], "ONLY"); } //#ifdef NEVER } // --- Define SSD with the 32+36 lay-out if (fMinorVersionV3 >2 && fMinorVersionV3 < 6) { //--- Define ghost volume containing the Strip Detectors and fill it with air // or vacuum xxm = (49.999-3.)/(70.-25.); dgh[0] = 0.; dgh[1] = 360.; dgh[2] = 4.; dgh[3] = -25. - (9.-3.01) / xxm - (9.01-9.) / xxm - (27.-9.01) / xxm - (36.-27.) / xxm - (49.998-36.) / xxm; dgh[4] = 49.998; dgh[5] = 49.998; dgh[6] = -25. - (9.-3.01) / xxm - (9.01-9.) / xxm - (27.-9.01) / xxm - (36.-27.) / xxm; dgh[7] = 36.; dgh[8] = 49.998; dgh[9] = (9.-3.01) / xxm + 25. + (9.01-9.) / xxm + (27.-9.01) / xxm + (36.-27.) / xxm; dgh[10] = 36.; dgh[11] = 49.998; dgh[12] = (9.-3.01) / xxm + 25. + (9.01-9.) / xxm + (27.-9.01) / xxm + (36.-27.) / xxm + (49.998-36.) / xxm; dgh[13] = 49.998; dgh[14] = 49.998; gMC->Gsvolu("IT56", "PCON", idtmed[275], dgh, 15); gMC->Gspos("IT56", 1, "ITSV", 0., 0., 0., 0, "ONLY"); gMC->Gsatt("IT56", "SEEN", 0); // --- Layer #5 // GOTO 6678 ! skip ITS layer no. 5 //--- Define a ghost volume containing a single ladder of layer #5 andfill // it with air or vacuum dbox1[0] = (0.0600+2.*0.0150)/2.; dbox1[1] = 3.75; dbox1[2] = 86.31/2.; gMC->Gsvolu("ISV1", "BOX ", idtmed[253], dbox1, 3); // --- Make the ghost volume invisible gMC->Gsatt("ISV1", "SEEN", 0); // --- Define a ghost volume containing the electronics and cooling of // a single ladder of layer #5 and fill it with air or vacuum dsrv[0] = (TMath::Sqrt(3.) / 2. * 4.2 + .47 + .05) / 2.; dsrv[1] = 3.75; dsrv[2] = 86.31/2.; gMC->Gsvolu("SSV1", "BOX ", idtmed[253], dsrv, 3); // --- Make the ghost volume invisible gMC->Gsatt("SSV1", "SEEN", 0); // --- Define a ghost volume containing the end-ladder stuff of // a single ladder of layer #5 and fill it with air or vacuum dela[0] = 2.; dela[1] = 3.5; dela[2] = 4.; gMC->Gsvolu("ELL5", "BOX ", idtmed[253], dela, 3); // --- Make the ghost volume invisible gMC->Gsatt("ELL5", "SEEN", 0); // --- Define a volume containing the sensitive part of the strips // (silicon, layer #5) dits[0] = .015; dits[1] = 3.75; dits[2] = 2.1; gMC->Gsvolu("ITS5", "BOX ", idtmed[249], dits, 3); // --- Define a volume containing the electronics of the strips // (silicon, layer #5) dchi[0] = .02; dchi[1] = 3.4; dchi[2] = .525; gMC->Gsvolu("SCH5", "BOX ", idtmed[250], dchi, 3); // --- Define the cooling tubes (aluminum, layer #5) dtub[0] = .09; dtub[1] = dtub[0] + .01; dtub[2] = 86.31/2.; gMC->Gsvolu("STB5", "TUBE", idtmed[255], dtub, 3); // --- Define the cooling fluid (water or freon, layer #5) dwat[0] = 0.; dwat[1] = .09; dwat[2] = 86.31/2.; gMC->Gsvolu("SWT5", "TUBE", idtmed[256], dwat, 3); // CALL GSVOLU('SWT5','TUBE',IDTMED(258),DWAT,3,IOUT) ! freon //--- Define the (triangular) element of the heat bridge (carbon, layer #5) // water dfra[0] = 120.; dfra[1] = 360.; dfra[2] = 3.; dfra[3] = 2.; dfra[4] = -.015; dfra[5] = TMath::Sqrt(3.) * 4.2 / 6.; dfra[6] = dfra[5] + .03; dfra[7] = .015; dfra[8] = dfra[5]; dfra[9] = dfra[6]; gMC->Gsvolu("SFR5", "PGON", idtmed[252], dfra, 10); // --- Define the element connecting the triangles of the heat bridge // (carbon, layer #5) dcei[0] = 0.; dcei[1] = .03; dcei[2] = 86.31/2.; gMC->Gsvolu("SCE5", "TUBE", idtmed[252], dcei, 3); // --- Define the part of the end-ladder stuff made of plastic (G10FR4) // (layer #5) dpla[0] = (10./(8.*7.))/2; dpla[1] = 3.5; dpla[2] = 4.; gMC->Gsvolu("EPL5", "BOX ", idtmed[262], dpla, 3); // --- Define the part of the end-ladder stuff made of copper (layer #5) dcop[0] = (2./(8.*7.))/2; dcop[1] = 3.5; dcop[2] = 4.; gMC->Gsvolu("ECU5", "BOX ", idtmed[259], dcop, 3); // --- Define the part of the end-ladder stuff made of epoxy (layer #5) depx[0] = (30./(8.*7.))/2.; depx[1] = 3.5; depx[2] = 4.; gMC->Gsvolu("EPX5", "BOX ", idtmed[262], depx, 3); // --- Define the part of the end-ladder stuff made of silicon (bus) // (layer #5) dsil[0] = (20./(8.*7.))/2.; dsil[1] = 3.5; dsil[2] = 4.; gMC->Gsvolu("ESI5", "BOX ", idtmed[251], dsil, 3); // --- Place the end-ladder stuff into its mother (ELL5) sep = (4. - (dpla[0] + dcop[0] + depx[0] + dsil[0]) * 2.) / 3.; ypos = 0.; zpos = 0.; // --- Plastic xpos = -dela[0] + dpla[0]; gMC->Gspos("EPL5", 1, "ELL5", xpos, ypos, zpos, 0, "ONLY"); // --- Copper xpos = -dela[0] + dpla[0] * 2. + sep + dcop[0]; gMC->Gspos("ECU5", 1, "ELL5", xpos, ypos, zpos, 0, "ONLY"); // --- Epoxy xpos = -dela[0] + dpla[0] * 2. + sep + dcop[0] * 2. + sep + depx[0]; gMC->Gspos("EPX5", 1, "ELL5", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (bus) xpos = -dela[0] + dpla[0] * 2. + sep + dcop[0] * 2. + sep + depx[0] * 2. + sep + dsil[0]; gMC->Gspos("ESI5", 1, "ELL5", xpos, ypos, zpos, 0, "ONLY"); // --- Place the sensitive part of the strips into its mother (ISV1) ypos = 0.; for(j = 1; j <= 22; ++j) { if (j % 2 == 0) xpos = dbox1[0] - dits[0]; else xpos = -dbox1[0] + dits[0]; zpos = ((j - 1) - 10.) * 3.91 - 1.96; gMC->Gspos("ITS5", j, "ISV1", xpos, ypos, zpos, 0, "ONLY"); } // --- Place the electronics of the strips into its mother (SSV1) ypos = 0.; for(j = 1; j <= 22; ++j) { if (j % 2 == 0) xpos = -dsrv[0] + .28; else xpos = -dsrv[0] + .28 - dits[0] * 2. - .03; zpos = ((j - 1) - 10.) * 3.91 - 1.96 + .85; gMC->Gspos("SCH5", j, "SSV1", xpos, ypos, zpos, 0, "ONLY"); } //--- Place the cooling tubes and the cooling fluid into their mother (SSV1) xpos = -dsrv[0] + .41; zpos = 0.; // --- Left tube (just a matter of convention) ypos = -(2.25+0.1); gMC->Gspos("STB5", 1, "SSV1", xpos, ypos, zpos, 0, "ONLY"); gMC->Gspos("SWT5", 1, "SSV1", xpos, ypos, zpos, 0, "ONLY"); // --- Right tube (just a matter of convention) ypos = (2.25+0.1); gMC->Gspos("STB5", 2, "SSV1", xpos, ypos, zpos, 0, "ONLY"); gMC->Gspos("SWT5", 2, "SSV1", xpos, ypos, zpos, 0, "ONLY"); // --- Place the heat bridge elements into their mother (SSV1) xpos = -dsrv[0] + .47 + TMath::Sqrt(3.) / 6. * 4.2; ypos = 0.; for(j = 1; j <= 23; ++j) { zpos = ((j - 1) - 10.) * 3.91 - 1.96 - 4.2/2.; gMC->Gspos("SFR5", j, "SSV1", xpos, ypos, zpos, 0, "ONLY"); } // --- Place the elements connecting the triangles of the heat bridge // into their mother (SSV1) zpos = 0.; // --- Left element (just a matter of convention) xpos = -dsrv[0] + .47; ypos = -(2.1+0.015); gMC->Gspos("SCE5", 1, "SSV1", xpos, ypos, zpos, 0, "ONLY"); // --- Right element xpos = -dsrv[0] + .47; ypos = (2.1+0.015); gMC->Gspos("SCE5", 2, "SSV1", xpos, ypos, zpos, 0, "ONLY"); // --- Top element xpos = -dsrv[0] + .47 + TMath::Sqrt(3.) / 2. * 4.2 + .015; ypos = 0.; gMC->Gspos("SCE5", 3, "SSV1", xpos, ypos, zpos, 0, "ONLY"); // --- Place the ghost volumes containing the strip ladders (ISV1), // electronics/cooling (SSV1) and end-ladder stuff (ELL5) of layer #5 in // their mother volume (IT56) offset1 = TMath::ATan2(.8, 36.6); offset2 = 5.2; rzero = dbox1[0] + 36.6; runo = dbox1[0] * 2. + 36.6 + dsrv[0]; rtwo = dbox1[0] * 2. + 36.6 + dela[0]; for(i = 1; i <= 32; ++i) { atheta = (i-1) * ktwopi * kraddeg / 32. + offset2; AliMatrix(idrotm[i+1499], 90., atheta, 90., atheta + 90., 0., 0.); // --- Strip ladders xpos = rzero * TMath::Cos((i-1) * ktwopi / 32. + offset1); ypos = rzero * TMath::Sin((i-1) * ktwopi / 32. + offset1); zpos = 0.; gMC->Gspos("ISV1", i, "IT56", xpos, ypos, zpos, idrotm[i+1499], "ONLY"); // --- Electronics/cooling xpos = runo * TMath::Cos((i-1) * ktwopi / 32. + offset1); ypos = runo * TMath::Sin((i-1) * ktwopi / 32. + offset1); zpos = 0.; gMC->Gspos("SSV1", i, "IT56", xpos, ypos, zpos, idrotm[i+1499], "ONLY"); // --- End-ladders (nagative-Z and positive-Z) xpos = rtwo * TMath::Cos((i-1) * ktwopi / 32. + offset1); ypos = rtwo * TMath::Sin((i-1) * ktwopi / 32. + offset1); zpos = -(dbox1[2] + dela[2] + 6.); gMC->Gspos("ELL5", i, "IT56", xpos, ypos, zpos, idrotm[i+1499], "ONLY"); zpos = dbox1[2] + dela[2] + 6.; gMC->Gspos("ELL5", i + 35, "IT56", xpos, ypos, zpos, idrotm[i+1499], "ONLY"); } // --- Layer #6 // GOTO 6778 ! skip ITS layer no. 6 //--- Define a ghost volume containing a single ladder of layer #6 andfill // it with air or vacuum dbox2[0] = (0.0600+2.*0.0150)/2.; dbox2[1] = 3.75; dbox2[2] = 94.13/2.; gMC->Gsvolu("ISV2", "BOX ", idtmed[253], dbox2, 3); // --- Make the ghost volume invisible gMC->Gsatt("ISV2", "SEEN", 0); // --- Define a ghost volume containing the electronics and cooling of // a single ladder of layer #6 and fill it with air or vacuum dsrv[0] = (TMath::Sqrt(3.) / 2. * 4.2 + .47 + .05) / 2.; dsrv[1] = 3.75; dsrv[2] = 94.13/2.; gMC->Gsvolu("SSV2", "BOX ", idtmed[253], dsrv, 3); // --- Make the ghost volume invisible gMC->Gsatt("SSV2", "SEEN", 0); // --- Define a ghost volume containing the end-ladder stuff of // a single ladder of layer #6 and fill it with air or vacuum dela[0] = 2.; dela[1] = 3.5; dela[2] = 4.; gMC->Gsvolu("ELL6", "BOX ", idtmed[253], dela, 3); // --- Make the ghost volume invisible gMC->Gsatt("ELL6", "SEEN", 0); // --- Define a volume containing the sensitive part of the strips // (silicon, layer #6) dits[0] = .015; dits[1] = 3.75; dits[2] = 2.1; gMC->Gsvolu("ITS6", "BOX ", idtmed[249], dits, 3); // --- Define a volume containing the electronics of the strips // (silicon, layer #6) dchi[0] = .02; dchi[1] = 3.4; dchi[2] = .525; gMC->Gsvolu("SCH6", "BOX ", idtmed[250], dchi, 3); // --- Define the cooling tubes (aluminum, layer #6) dtub[0] = .09; dtub[1] = dtub[0] + .01; dtub[2] = 94.13/2.; gMC->Gsvolu("STB6", "TUBE", idtmed[255], dtub, 3); // --- Define the cooling fluid (water or freon, layer #6) dwat[0] = 0.; dwat[1] = .09; dwat[2] = 94.13/2.; gMC->Gsvolu("SWT6", "TUBE", idtmed[256], dwat, 3); // CALL GSVOLU('SWT6','TUBE',IDTMED(258),DWAT,3,IOUT) ! freon //--- Define the (triangular) element of the heat bridge (carbon, layer #6) // water dfra[0] = 120.; dfra[1] = 360.; dfra[2] = 3.; dfra[3] = 2.; dfra[4] = -.015; dfra[5] = TMath::Sqrt(3.) * 4.2 / 6.; dfra[6] = dfra[5] + .03; dfra[7] = .015; dfra[8] = dfra[5]; dfra[9] = dfra[6]; gMC->Gsvolu("SFR6", "PGON", idtmed[252], dfra, 10); // --- Define the element connecting the triangles of the heat bridge // (carbon, layer #6) dcei[0] = 0.; dcei[1] = .03; dcei[2] = 94.13/2.; gMC->Gsvolu("SCE6", "TUBE", idtmed[252], dcei, 3); // --- Define the part of the end-ladder stuff made of plastic (G10FR4) // (layer #6) dpla[0] = (10./(8.*7.))/2; dpla[1] = 3.5; dpla[2] = 4.; gMC->Gsvolu("EPL6", "BOX ", idtmed[262], dpla, 3); // --- Define the part of the end-ladder stuff made of copper (layer #6) dcop[0] = (2./(8.*7.))/2; dcop[1] = 3.5; dcop[2] = 4.; gMC->Gsvolu("ECU6", "BOX ", idtmed[259], dcop, 3); // --- Define the part of the end-ladder stuff made of epoxy (layer #6) depx[0] = (30./(8.*7.))/2.; depx[1] = 3.5; depx[2] = 4.; gMC->Gsvolu("EPX6", "BOX ", idtmed[262], depx, 3); // --- Define the part of the end-ladder stuff made of silicon (bus) // (layer #6) dsil[0] = (20./(8.*7.))/2.; dsil[1] = 3.5; dsil[2] = 4.; gMC->Gsvolu("ESI6", "BOX ", idtmed[251], dsil, 3); // --- Place the end-ladder stuff into its mother (ELL5) sep = (4. - (dpla[0] + dcop[0] + depx[0] + dsil[0]) * 2.) / 3.; ypos = 0.; zpos = 0.; // --- Plastic xpos = -dela[0] + dpla[0]; gMC->Gspos("EPL6", 1, "ELL6", xpos, ypos, zpos, 0, "ONLY"); // --- Copper xpos = -dela[0] + dpla[0] * 2. + sep + dcop[0]; gMC->Gspos("ECU6", 1, "ELL6", xpos, ypos, zpos, 0, "ONLY"); // --- Epoxy xpos = -dela[0] + dpla[0] * 2. + sep + dcop[0] * 2. + sep + depx[0]; gMC->Gspos("EPX6", 1, "ELL6", xpos, ypos, zpos, 0, "ONLY"); // --- Silicon (bus) xpos = -dela[0] + dpla[0] * 2. + sep + dcop[0] * 2. + sep + depx[0] * 2. + sep + dsil[0]; gMC->Gspos("ESI6", 1, "ELL6", xpos, ypos, zpos, 0, "ONLY"); // --- Place the sensitive part of the strips into its mother (ISV2) ypos = 0.; for(j = 1; j <= 24; ++j) { if (j % 2 == 0) xpos = -dbox2[0] + dits[0]; else xpos = dbox2[0] - dits[0]; zpos = ((j - 1) - 11.) * 3.91 - 1.96; gMC->Gspos("ITS6", j, "ISV2", xpos, ypos, zpos, 0, "ONLY"); } // --- Place the electronics of the strips into its mother (SSV2) ypos = 0.; for(j = 1; j <= 24; ++j) { if (j % 2 == 0) xpos = -dsrv[0] + .28 - dits[0] * 2. - .03; else xpos = -dsrv[0] + .28; zpos = ((j - 1) - 11.) * 3.91 - 1.96 + .85; gMC->Gspos("SCH5", j, "SSV1", xpos, ypos, zpos, 0, "ONLY"); } //--- Place the cooling tubes and the cooling fluid into their mother (SSV2) xpos = -dsrv[0] + .41; zpos = 0.; // --- Left tube (just a matter of convention) ypos = -(2.25+0.1); gMC->Gspos("STB6", 1, "SSV2", xpos, ypos, zpos, 0, "ONLY"); gMC->Gspos("SWT6", 1, "SSV2", xpos, ypos, zpos, 0, "ONLY"); // --- Right tube (just a matter of convention) ypos = (2.25+0.1); gMC->Gspos("STB6", 2, "SSV2", xpos, ypos, zpos, 0, "ONLY"); gMC->Gspos("SWT6", 2, "SSV2", xpos, ypos, zpos, 0, "ONLY"); // --- Place the heat bridge elements into their mother (SSV2) xpos = -dsrv[0] + .47 + TMath::Sqrt(3.) / 6. * 4.2; ypos = 0.; for(j = 1; j <= 25; ++j) { zpos = ((j - 1) - 11.) * 3.91 - 1.96 - 4.2/2.; gMC->Gspos("SFR6", j, "SSV2", xpos, ypos, zpos, 0, "ONLY"); } // --- Place the elements connecting the triangles of the heat bridge // into their mother (SSV2) zpos = 0.; // --- Left element (just a matter of convention) xpos = -dsrv[0] + .47; ypos = -(2.1+0.015); gMC->Gspos("SCE6", 1, "SSV2", xpos, ypos, zpos, 0, "ONLY"); // --- Right element xpos = -dsrv[0] + .47; ypos = (2.1+0.015); gMC->Gspos("SCE6", 2, "SSV2", xpos, ypos, zpos, 0, "ONLY"); // --- Top element xpos = -dsrv[0] + .47 + TMath::Sqrt(3.) / 2. * 4.2 + .015; ypos = 0.; gMC->Gspos("SCE6", 3, "SSV2", xpos, ypos, zpos, 0, "ONLY"); // --- Place the ghost volumes containing the strip ladders (ISV2), // electronics/cooling (SSV2) and end-ladder stuff (ELL6) of layer #6 in // their mother volume (IT56) offset1 = TMath::ATan2(.9, 41.2); offset2 = 5.2; rzero = dbox2[0] + 41.2; runo = dbox2[0] * 2. + 41.2 + dsrv[0]; rtwo = dbox2[0] * 2. + 41.2 + dela[0]; for(i = 1; i <= 36; ++i) { atheta = (i-1) * ktwopi * kraddeg / 36. + offset2; AliMatrix(idrotm[i+1599], 90., atheta, 90., atheta + 90., 0., 0.); // --- Strip ladders xpos = rzero * TMath::Cos((i-1) * ktwopi / 36. + offset1); ypos = rzero * TMath::Sin((i-1) * ktwopi / 36. + offset1); zpos = 0.; gMC->Gspos("ISV2", i, "IT56", xpos, ypos, zpos, idrotm[i+1599], "ONLY"); // --- Electronics/cooling xpos = runo * TMath::Cos((i-1) * ktwopi / 36. + offset1); ypos = runo * TMath::Sin((i-1) * ktwopi / 36. + offset1); zpos = 0.; gMC->Gspos("SSV2", i, "IT56", xpos, ypos, zpos, idrotm[i+1599], "ONLY"); // --- End-ladders (nagative-Z and positive-Z) xpos = rtwo * TMath::Cos((i-1) * ktwopi / 36. + offset1); ypos = rtwo * TMath::Sin((i-1) * ktwopi / 36. + offset1); zpos = -(dbox2[2] + dela[2] + 6.); gMC->Gspos("ELL6", i, "IT56", xpos, ypos, zpos, idrotm[i+1599], "ONLY"); zpos = dbox2[2] + dela[2] + 6.; gMC->Gspos("ELL6", i + 39, "IT56", xpos, ypos, zpos, idrotm[i+1599], "ONLY"); } } //************************************************************************ //* * //* E N D - C A P S A N D F R A M E S * //* ========================================= * //* * //************************************************************************ // --- Define a dummy cylinder for multiple scattering tests // GOTO 7890 ! skip dummy cylinder for multiple scatteringtests // DITS(1)=49. // DITS(2)=DITS(1)+0.1 // DITS(3)=60.3 // CALL GSVOLU('ITST','TUBE',IDTMED(255),DITS,3,IOUT) // CALL GSPOS('ITST',1,'ITSV',0.,0.,0.,0,'ONLY') // 7890 CONTINUE // --- The 0.74% X0 outer wall (C) of the gas vessel at r=50cm --- // GOTO 8901 ! skip outer wall if (fMinorVersionV3 == 0 || fMinorVersionV3 == 3) { dits[0] = 49.9; dits[1] = dits[0] + .06926; dits[2] = dpcb[2] * 2. + 62.7 - 10.5; // old value 60.3 gMC->Gsvolu("ITSG", "TUBE", idtmed[274], dits, 3); gMC->Gspos("ITSG", 1, "ITSV", 0., 0., 0., 0, "ONLY"); } else { goto L8901; } L8901: // --- The frame between the end-caps (octagonal lay-out) --- // GOTO 9012 ! skip octagonal frame if (fMinorVersionV3 == 1) { rzero = 34.; dtra[0] = .92; dtra[1] = 1.; dtra[2] = dpcb[2] * 2. + 50.5 - 10.5; dtra1[0] = .92; dtra1[1] = 1.; dtra1[2] = TMath::Sqrt(dtra[2] * dtra[2] + (55.4*55.4-50.5*50.5))/2.; angle = 45.; offset = angle / 2.; for(i = 0; i < 8; ++i) { xtra[i] = rzero * TMath::Cos(i * angle * kdegrad); ytra[i] = rzero * TMath::Sin(i * angle * kdegrad); ztra[i] = 0.; gMC->Gsvolu(knatra[i], "TUBE", idtmed[274], dtra, 3); gMC->Gspos(knatra[i], 1, "ITSV", xtra[i], ytra[i], ztra[i], 0, "ONLY"); } atheta = 22.5; aphi1 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra[0] + xtra[1]) / 2.; ypos = (ytra[0] + ytra[1]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[0], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5100], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[0], 1, "ITSV", xpos, ypos, zpos, idrotm[5100], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[1], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5101], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[1], 1, "ITSV", xpos, ypos, zpos, idrotm[5101], "ONLY"); atheta = 67.5; aphi2 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra[1] + xtra[2]) / 2.; ypos = (ytra[1] + ytra[2]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[2], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5102], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[2], 1, "ITSV", xpos, ypos, zpos, idrotm[5102], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[3], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5103], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[3], 1, "ITSV", xpos, ypos, zpos, idrotm[5103], "ONLY"); atheta = 112.5; aphi1 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra[2] + xtra[3]) / 2.; ypos = (ytra[2] + ytra[3]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[4], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5104], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[4], 1, "ITSV", xpos, ypos, zpos, idrotm[5104], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[5], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5105], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[5], 1, "ITSV", xpos, ypos, zpos, idrotm[5105], "ONLY"); atheta = 157.5; aphi2 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra[3] + xtra[4]) / 2.; ypos = (ytra[3] + ytra[4]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[6], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5106], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[6], 1, "ITSV", xpos, ypos, zpos, idrotm[5106], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[7], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5107], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[7], 1, "ITSV", xpos, ypos, zpos, idrotm[5107], "ONLY"); atheta = 22.5; aphi2 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra[4] + xtra[5]) / 2.; ypos = (ytra[4] + ytra[5]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[8], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5108], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[8], 1, "ITSV", xpos, ypos, zpos, idrotm[5108], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[9], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5109], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[9], 1, "ITSV", xpos, ypos, zpos, idrotm[5109], "ONLY"); atheta = 67.5; aphi1 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra[5] + xtra[6]) / 2.; ypos = (ytra[5] + ytra[6]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[10], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5110], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[10], 1, "ITSV", xpos, ypos, zpos, idrotm[5110], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[11], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5111], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[11], 1, "ITSV", xpos, ypos, zpos, idrotm[5111], "ONLY"); atheta = 112.5; aphi2 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra[6] + xtra[7]) / 2.; ypos = (ytra[6] + ytra[7]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[12], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5112], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[12], 1, "ITSV", xpos, ypos, zpos, idrotm[5112], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[13], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5113], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[13], 1, "ITSV", xpos, ypos, zpos, idrotm[5113], "ONLY"); atheta = 157.5; aphi1 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra[7] + xtra[0]) / 2.; ypos = (ytra[7] + ytra[0]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[14], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5114], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[14], 1, "ITSV", xpos, ypos, zpos, idrotm[5114], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[15], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5115], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[15], 1, "ITSV", xpos, ypos, zpos, idrotm[5115], "ONLY"); } else if (fMinorVersionV3 == 4) { rzero = 34.; dtra[0] = .92; dtra[1] = 1.; dtra[2] = dpcb[2] * 2. + 50.5 - 10.5; dtra1[0] = .92; dtra1[1] = 1.; dtra1[2] = TMath::Sqrt(dtra[2] * dtra[2] + (55.4*55.4-50.5*50.5))/2.; angle = 45.; offset = angle / 2.; for(i = 0; i < 8; ++i) { xtra[i] = rzero * TMath::Cos(i * angle * kdegrad); ytra[i] = rzero * TMath::Sin(i * angle * kdegrad); ztra[i] = 0.; gMC->Gsvolu(knatra[i], "TUBE", idtmed[274], dtra, 3); gMC->Gspos(knatra[i], 1, "ITSV", xtra[i], ytra[i], ztra[i], 0, "ONLY"); } atheta = 22.5; aphi1 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra[0] + xtra[1]) / 2.; ypos = (ytra[0] + ytra[1]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[0], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5100], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[0], 1, "ITSV", xpos, ypos, zpos, idrotm[5100], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[1], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5101], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[1], 1, "ITSV", xpos, ypos, zpos, idrotm[5101], "ONLY"); atheta = 67.5; aphi2 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra[1] + xtra[2]) / 2.; ypos = (ytra[1] + ytra[2]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[2], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5102], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[2], 1, "ITSV", xpos, ypos, zpos, idrotm[5102], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[3], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5103], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[3], 1, "ITSV", xpos, ypos, zpos, idrotm[5103], "ONLY"); atheta = 112.5; aphi1 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra[2] + xtra[3]) / 2.; ypos = (ytra[2] + ytra[3]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[4], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5104], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[4], 1, "ITSV", xpos, ypos, zpos, idrotm[5104], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[5], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5105], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[5], 1, "ITSV", xpos, ypos, zpos, idrotm[5105], "ONLY"); atheta = 157.5; aphi2 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra[3] + xtra[4]) / 2.; ypos = (ytra[3] + ytra[4]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[6], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5106], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[6], 1, "ITSV", xpos, ypos, zpos, idrotm[5106], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[7], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5107], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[7], 1, "ITSV", xpos, ypos, zpos, idrotm[5107], "ONLY"); atheta = 22.5; aphi2 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra[4] + xtra[5]) / 2.; ypos = (ytra[4] + ytra[5]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[8], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5108], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[8], 1, "ITSV", xpos, ypos, zpos, idrotm[5108], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[9], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5109], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[9], 1, "ITSV", xpos, ypos, zpos, idrotm[5109], "ONLY"); atheta = 67.5; aphi1 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra[5] + xtra[6]) / 2.; ypos = (ytra[5] + ytra[6]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[10], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5110], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[10], 1, "ITSV", xpos, ypos, zpos, idrotm[5110], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[11], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5111], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[11], 1, "ITSV", xpos, ypos, zpos, idrotm[5111], "ONLY"); atheta = 112.5; aphi2 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra[6] + xtra[7]) / 2.; ypos = (ytra[6] + ytra[7]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[12], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5112], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[12], 1, "ITSV", xpos, ypos, zpos, idrotm[5112], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[13], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5113], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[13], 1, "ITSV", xpos, ypos, zpos, idrotm[5113], "ONLY"); atheta = 157.5; aphi1 = TMath::ACos(dtra[2] / TMath::Sqrt(dtra[2] * dtra[2] + (50.5 / cos(28.*kdegrad) * (50.5 / cos(28.*kdegrad))- 50.5*50.5))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra[7] + xtra[0]) / 2.; ypos = (ytra[7] + ytra[0]) / 2.; zpos = dtra[2] / 2.; gMC->Gsvolu(knatra1[14], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5114], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra1[14], 1, "ITSV", xpos, ypos, zpos, idrotm[5114], "ONLY"); zpos = -dtra[2] / 2.; gMC->Gsvolu(knatra1[15], "TUBE", idtmed[274], dtra1, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5115], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra1[15], 1, "ITSV", xpos, ypos, zpos, idrotm[5115], "ONLY"); } else { goto L9012; } L9012: // --- The frame between the end-caps (hexagonal lay-out) --- // GOTO 9123 ! skip hexagonal frame if (fMinorVersionV3 == 2) { rzero = 33.5; dtra2[0] = .92; dtra2[1] = 1.; dtra2[2] = dpcb[2] * 2. + 50. - 10.5; dtra3[0] = .92; dtra3[1] = 1.; dtra3[2] = 16.75; dtra4[0] = .92; dtra4[1] = 1.; dtra4[2] = TMath::Sqrt(dtra2[2] * dtra2[2] + (59.9*59.9-50.*50.)) / 2.; angle = 60.; offset = angle / 2.; for(i = 0; i < 6; ++i) { xtra1[i] = rzero * TMath::Cos((i * angle + offset) *kdegrad); ytra1[i] = rzero * TMath::Sin((i * angle + offset) *kdegrad); ztra1[i] = 0.; gMC->Gsvolu(knatra2[i], "TUBE", idtmed[274], dtra2, 3); gMC->Gspos(knatra2[i], 1, "ITSV", xtra1[i], ytra1[i], ztra1[i], 0, "ONLY"); } atheta = 60.; aphi = 90.; xpos = (xtra1[0] + xtra1[1]) / 2.; ypos = (ytra1[0] + ytra1[1]) / 2.; zpos = 0.; gMC->Gsvolu(knatra3[0], "TUBE", idtmed[274], dtra3, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5200], 90., atheta, aphi + 90., r2, aphi, r3); gMC->Gspos(knatra3[0], 1, "ITSV", xpos, ypos, zpos, idrotm[5200], "ONLY"); atheta = 120.; aphi = 90.; xpos = (xtra1[1] + xtra1[2]) / 2.; ypos = (ytra1[1] + ytra1[2]) / 2.; zpos = 0.; gMC->Gsvolu(knatra3[1], "TUBE", idtmed[274], dtra3, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5201], 90., atheta, aphi + 90., r2, aphi, r3); gMC->Gspos(knatra3[1], 1, "ITSV", xpos, ypos, zpos, idrotm[5201], "ONLY"); atheta = 180.; aphi = 90.; xpos = (xtra1[2] + xtra1[3]) / 2.; ypos = (ytra1[2] + ytra1[3]) / 2.; zpos = 0.; gMC->Gsvolu(knatra3[2], "TUBE", idtmed[274], dtra3, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5202], 90., atheta, aphi + 90., r2, aphi, r3); gMC->Gspos(knatra3[2], 1, "ITSV", xpos, ypos, zpos, idrotm[5202], "ONLY"); atheta = 60.; aphi = 90.; xpos = (xtra1[3] + xtra1[4]) / 2.; ypos = (ytra1[3] + ytra1[4]) / 2.; zpos = 0.; gMC->Gsvolu(knatra3[3], "TUBE", idtmed[274], dtra3, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5203], 90., atheta, aphi + 90., r2, aphi, r3); gMC->Gspos(knatra3[3], 1, "ITSV", xpos, ypos, zpos, idrotm[5203], "ONLY"); atheta = 120.; aphi = 90.; xpos = (xtra1[4] + xtra1[5]) / 2.; ypos = (ytra1[4] + ytra1[5]) / 2.; zpos = 0.; gMC->Gsvolu(knatra3[4], "TUBE", idtmed[274], dtra3, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5204], 90., atheta, aphi + 90., r2, aphi, r3); gMC->Gspos(knatra3[4], 1, "ITSV", xpos, ypos, zpos, idrotm[5204], "ONLY"); atheta = 180.; aphi = 90.; xpos = (xtra1[5] + xtra1[0]) / 2.; ypos = (ytra1[5] + ytra1[0]) / 2.; zpos = 0.; gMC->Gsvolu(knatra3[5], "TUBE", idtmed[274], dtra3, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5205], 90., atheta, aphi + 90., r2, aphi, r3); gMC->Gspos(knatra3[5], 1, "ITSV", xpos, ypos, zpos, idrotm[5205], "ONLY"); atheta = 60.; aphi2 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra1[0] + xtra1[1]) / 2.; ypos = (ytra1[0] + ytra1[1]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[0], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5210], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[0], 1, "ITSV", xpos, ypos, zpos, idrotm[5210], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[1], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5211], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[1], 1, "ITSV", xpos, ypos, zpos, idrotm[5211], "ONLY"); atheta = 120.; aphi1 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra1[1] + xtra1[2]) / 2.; ypos = (ytra1[1] + ytra1[2]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[2], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5212], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[2], 1, "ITSV", xpos, ypos, zpos, idrotm[5212], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[3], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5213], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[3], 1, "ITSV", xpos, ypos, zpos, idrotm[5213], "ONLY"); atheta = 180.; aphi2 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra1[2] + xtra1[3]) / 2.; ypos = (ytra1[2] + ytra1[3]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[4], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5214], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[4], 1, "ITSV", xpos, ypos, zpos, idrotm[5214], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[5], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5215], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[5], 1, "ITSV", xpos, ypos, zpos, idrotm[5215], "ONLY"); atheta = 180.; aphi1 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad)) - 50.*50.))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra1[2] + xtra1[3]) / 2.; ypos = (ytra1[2] + ytra1[3]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[6], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5216], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[6], 1, "ITSV", xpos, ypos, zpos, idrotm[5216], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[7], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5217], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[7], 1, "ITSV", xpos, ypos, zpos, idrotm[5217], "ONLY"); atheta = 60.; aphi2 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra1[3] + xtra1[4]) / 2.; ypos = (ytra1[3] + ytra1[4]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[8], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5218], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[8], 1, "ITSV", xpos, ypos, zpos, idrotm[5218], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[9], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5219], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[9], 1, "ITSV", xpos, ypos, zpos, idrotm[5219], "ONLY"); atheta = 120.; aphi1 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra1[4] + xtra1[5]) / 2.; ypos = (ytra1[4] + ytra1[5]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[10], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5220], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[10], 1, "ITSV", xpos, ypos, zpos, idrotm[5220], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[11], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5221], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[11], 1, "ITSV", xpos, ypos, zpos, idrotm[5221], "ONLY"); atheta = 180.; aphi2 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra1[5] + xtra1[0]) / 2.; ypos = (ytra1[5] + ytra1[0]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[12], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5222], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[12], 1, "ITSV", xpos, ypos, zpos, idrotm[5222], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[13], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5223], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[13], 1, "ITSV", xpos, ypos, zpos, idrotm[5223], "ONLY"); atheta = 180.; aphi1 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra1[5] + xtra1[0]) / 2.; ypos = (ytra1[5] + ytra1[0]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[14], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5224], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[14], 1, "ITSV", xpos, ypos, zpos, idrotm[5224], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[15], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5225], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[15], 1, "ITSV", xpos, ypos, zpos, idrotm[5225], "ONLY"); } else if (fMinorVersionV3 == 5) { rzero = 33.5; dtra2[0] = .92; dtra2[1] = 1.; dtra2[2] = dpcb[2] * 2. + 50. - 10.5; dtra3[0] = .92; dtra3[1] = 1.; dtra3[2] = 16.75; dtra4[0] = .92; dtra4[1] = 1.; dtra4[2] = TMath::Sqrt(dtra2[2] * dtra2[2] + (59.9*59.9-50.*50.)) / 2.; angle = 60.; offset = angle / 2.; for(i = 0; i < 6; ++i) { xtra1[i] = rzero * TMath::Cos((i * angle + offset) *kdegrad); ytra1[i] = rzero * TMath::Sin((i * angle + offset) *kdegrad); ztra1[i] = 0.; gMC->Gsvolu(knatra2[i], "TUBE", idtmed[274], dtra2, 3); gMC->Gspos(knatra2[i], 1, "ITSV", xtra1[i], ytra1[i], ztra1[i], 0, "ONLY"); } atheta = 60.; aphi = 90.; xpos = (xtra1[0] + xtra1[1]) / 2.; ypos = (ytra1[0] + ytra1[1]) / 2.; zpos = 0.; gMC->Gsvolu(knatra3[0], "TUBE", idtmed[274], dtra3, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5200], 90., atheta, aphi + 90., r2, aphi, r3); gMC->Gspos(knatra3[0], 1, "ITSV", xpos, ypos, zpos, idrotm[5200], "ONLY"); atheta = 120.; aphi = 90.; xpos = (xtra1[1] + xtra1[2]) / 2.; ypos = (ytra1[1] + ytra1[2]) / 2.; zpos = 0.; gMC->Gsvolu(knatra3[1], "TUBE", idtmed[274], dtra3, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5201], 90., atheta, aphi + 90., r2, aphi, r3); gMC->Gspos(knatra3[1], 1, "ITSV", xpos, ypos, zpos, idrotm[5201], "ONLY"); atheta = 180.; aphi = 90.; xpos = (xtra1[2] + xtra1[3]) / 2.; ypos = (ytra1[2] + ytra1[3]) / 2.; zpos = 0.; gMC->Gsvolu(knatra3[2], "TUBE", idtmed[274], dtra3, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5202], 90., atheta, aphi + 90., r2, aphi, r3); gMC->Gspos(knatra3[2], 1, "ITSV", xpos, ypos, zpos, idrotm[5202], "ONLY"); atheta = 60.; aphi = 90.; xpos = (xtra1[3] + xtra1[4]) / 2.; ypos = (ytra1[3] + ytra1[4]) / 2.; zpos = 0.; gMC->Gsvolu(knatra3[3], "TUBE", idtmed[274], dtra3, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5203], 90., atheta, aphi + 90., r2, aphi, r3); gMC->Gspos(knatra3[3], 1, "ITSV", xpos, ypos, zpos, idrotm[5203], "ONLY"); atheta = 120.; aphi = 90.; xpos = (xtra1[4] + xtra1[5]) / 2.; ypos = (ytra1[4] + ytra1[5]) / 2.; zpos = 0.; gMC->Gsvolu(knatra3[4], "TUBE", idtmed[274], dtra3, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5204], 90., atheta, aphi + 90., r2, aphi, r3); gMC->Gspos(knatra3[4], 1, "ITSV", xpos, ypos, zpos, idrotm[5204], "ONLY"); atheta = 180.; aphi = 90.; xpos = (xtra1[5] + xtra1[0]) / 2.; ypos = (ytra1[5] + ytra1[0]) / 2.; zpos = 0.; gMC->Gsvolu(knatra3[5], "TUBE", idtmed[274], dtra3, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5205], 90., atheta, aphi + 90., r2, aphi, r3); gMC->Gspos(knatra3[5], 1, "ITSV", xpos, ypos, zpos, idrotm[5205], "ONLY"); atheta = 60.; aphi2 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra1[0] + xtra1[1]) / 2.; ypos = (ytra1[0] + ytra1[1]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[0], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5210], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[0], 1, "ITSV", xpos, ypos, zpos, idrotm[5210], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[1], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5211], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[1], 1, "ITSV", xpos, ypos, zpos, idrotm[5211], "ONLY"); atheta = 120.; aphi1 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra1[1] + xtra1[2]) / 2.; ypos = (ytra1[1] + ytra1[2]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[2], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5212], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[2], 1, "ITSV", xpos, ypos, zpos, idrotm[5212], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[3], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5213], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[3], 1, "ITSV", xpos, ypos, zpos, idrotm[5213], "ONLY"); atheta = 180.; aphi2 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra1[2] + xtra1[3]) / 2.; ypos = (ytra1[2] + ytra1[3]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[4], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5214], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[4], 1, "ITSV", xpos, ypos, zpos, idrotm[5214], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[5], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5215], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[5], 1, "ITSV", xpos, ypos, zpos, idrotm[5215], "ONLY"); atheta = 180.; aphi1 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra1[2] + xtra1[3]) / 2.; ypos = (ytra1[2] + ytra1[3]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[6], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5216], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[6], 1, "ITSV", xpos, ypos, zpos, idrotm[5216], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[7], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5217], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[7], 1, "ITSV", xpos, ypos, zpos, idrotm[5217], "ONLY"); atheta = 60.; aphi2 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra1[3] + xtra1[4]) / 2.; ypos = (ytra1[3] + ytra1[4]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[8], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5218], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[8], 1, "ITSV", xpos, ypos, zpos, idrotm[5218], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[9], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5219], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[9], 1, "ITSV", xpos, ypos, zpos, idrotm[5219], "ONLY"); atheta = 120.; aphi1 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra1[4] + xtra1[5]) / 2.; ypos = (ytra1[4] + ytra1[5]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[10], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5220], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[10], 1, "ITSV", xpos, ypos, zpos, idrotm[5220], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[11], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5221], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[11], 1, "ITSV", xpos, ypos, zpos, idrotm[5221], "ONLY"); atheta = 180.; aphi2 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi1 = 180. - aphi2; xpos = (xtra1[5] + xtra1[0]) / 2.; ypos = (ytra1[5] + ytra1[0]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[12], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5222], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[12], 1, "ITSV", xpos, ypos, zpos, idrotm[5222], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[13], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5223], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[13], 1, "ITSV", xpos, ypos, zpos, idrotm[5223], "ONLY"); atheta = 180.; aphi1 = TMath::ACos(dtra2[2] / TMath::Sqrt(dtra2[2] * dtra2[2] + (50. / cos(34.*kdegrad) * (50. / cos(34.*kdegrad))- 50.*50.))) * kraddeg; aphi2 = 180. - aphi1; xpos = (xtra1[5] + xtra1[0]) / 2.; ypos = (ytra1[5] + ytra1[0]) / 2.; zpos = dtra2[2] / 2.; gMC->Gsvolu(knatra4[14], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5224], 90., atheta, aphi1 + 90., r2, aphi1, r3); gMC->Gspos(knatra4[14], 1, "ITSV", xpos, ypos, zpos, idrotm[5224], "ONLY"); zpos = -dtra2[2] / 2.; gMC->Gsvolu(knatra4[15], "TUBE", idtmed[274], dtra4, 3); r2 = atheta + 90.; r3 = atheta + 90.; AliMatrix(idrotm[5225], 90., atheta, aphi2 + 90., r2, aphi2, r3); gMC->Gspos(knatra4[15], 1, "ITSV", xpos, ypos, zpos, idrotm[5225], "ONLY"); } else { goto L9123; } L9123: // --- Define the end-caps // GOTO 9234 ! skip both end-caps // --- Define the Z>0 end-cap // GOTO 9345 ! skip the Z>0 end-cap dcone[0] = 16.75; dcone[1] = 12.; dcone[2] = 12.02; dcone[3] = (338.-3.)*455./(338.-3.-10.)/10.; dcone[4] = .02 / TMath::Cos(45.*kdegrad) + (338.-3.)*455./(338.-3.-10.)/10.; xpos = 0.; ypos = 0.; zpos = dpcb[2] * 2. + (583.+(338.-3.))/2./10. - 10.5; // end-ladder electro gMC->Gsvolu("RCON", "CONE", idtmed[274], dcone, 5); gMC->Gspos("RCON", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); dtube[0] = .02 / TMath::Cos(45.*kdegrad) + (338.-3.)*455./(338.-3.-10.)/10.; dtube[1] = 49.9; // In the Simonetti's drawings 52. In the TP 50. dtube[2] = .15; xpos = 0.; ypos = 0.; zpos = dpcb[2] * 2. + (583./2.+(338-1.5))/10. - 10.5; // end-ladder electro gMC->Gsvolu("RTB1", "TUBE", idtmed[274], dtube, 3); gMC->Gspos("RTB1", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); dtube[0] = 10.5; dtube[1] = 12.; dtube[2] = 26.8/2./10.; xpos = 0.; ypos = 0.; zpos = dpcb[2] * 2. + (583./2.-89.+26.8/2.)/10. - 10.5; // end-ladder elect gMC->Gsvolu("RTB2", "TUBE", idtmed[274], dtube, 3); gMC->Gspos("RTB2", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); dpgon[0] = 15.; dpgon[1] = 360.; dpgon[2] = 12.; dpgon[3] = 2.; dpgon[4] = dpcb[2] * 2. + (583./2.-62.2)/10. - 10.5; // end-ladder electron dpgon[5] = 12.; dpgon[6] = 13.5; dpgon[7] = dpcb[2] * 2. + 583./2./10. - 10.5; // end-ladder electronics dpgon[8] = 12.; dpgon[9] = 13.5; xpos = 0.; ypos = 0.; zpos = 0.; gMC->Gsvolu("RP03", "PGON", idtmed[274], dpgon, 10); gMC->Gspos("RP03", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); dpgon[0] = 7.5; dpgon[1] = 360.; dpgon[2] = 24.; dpgon[3] = 2.; dpgon[4] = dpcb[2] * 2. + (583./2.+(338.-273.))/10. - 10.5; // end-ladder e dpgon[5] = 21.; dpgon[6] = 23.; dpgon[7] = dpcb[2] * 2. + (583./2.+(338.-273.+15.))/10. - 10.5; // end-ladde dpgon[8] = 21.; dpgon[9] = 23.; xpos = 0.; ypos = 0.; zpos = 0.; gMC->Gsvolu("RP04", "PGON", idtmed[274], dpgon, 10); gMC->Gspos("RP04", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); if (fMinorVersionV3 < 3 ) { offset2 = 5.2; dpgon[0] = offset2 + 360./(2.*35.); dpgon[1] = 360.; dpgon[2] = 35.; dpgon[3] = 2.; dpgon[4] = dpcb[2] * 2. + (583./2.+(338.-106.))/10. - 10.5; // end-ladde dpgon[5] = 37.7; dpgon[6] = 40.; dpgon[7] = dpcb[2] * 2. + (583./2.+(338.-106.+15.))/10. - 10.5; // end-la dpgon[8] = 37.7; dpgon[9] = 40.; xpos = 0.; ypos = 0.; zpos = 0.; gMC->Gsvolu("RP05", "PGON", idtmed[274], dpgon, 10); gMC->Gspos("RP05", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); dpgon[0] = offset2 + 360./(2.*39.); dpgon[1] = 360.; dpgon[2] = 39.; dpgon[3] = 2.; dpgon[4] = dpcb[2] * 2. + (583./2.+(338.-56.))/10. - 10.5; // end-ladder dpgon[5] = 42.7; dpgon[6] = 45.; dpgon[7] = dpcb[2] * 2. + (583./2.+(338.-56.+15.))/10. - 10.5; // end-la dpgon[8] = 42.7; dpgon[9] = 45.; xpos = 0.; ypos = 0.; zpos = 0.; gMC->Gsvolu("RP06", "PGON", idtmed[274], dpgon, 10); gMC->Gspos("RP06", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); } if (fMinorVersionV3 > 2 && fMinorVersionV3 < 6) { offset2 = 5.2; dpgon[0] = offset2 + 5.625; dpgon[1] = 360.; dpgon[2] = 32.; dpgon[3] = 2.; dpgon[4] = (583./2.+(338.-106.))/10. - (40.-36.6) / TMath::Tan(45.*kdegrad) + dpcb[2] * 2. - 10.5; // end-ladder electronics dpgon[5] = 34.3; dpgon[6] = 36.6; dpgon[7] = (583./2.+(338.-106.+15.))/10. - (40.-36.6) / TMath::Tan(45.*kdegrad) + dpcb[2] * 2. - 10.5; // end-ladder electr dpgon[8] = 34.3; dpgon[9] = 36.6; xpos = 0.; ypos = 0.; zpos = 0.; gMC->Gsvolu("RP05", "PGON", idtmed[274], dpgon, 10); gMC->Gspos("RP05", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); dpgon[0] = offset2 + 5.; dpgon[1] = 360.; dpgon[2] = 36.; dpgon[3] = 2.; dpgon[4] = (583./2.+(338.-56.))/10. - (45.-41.2) / TMath::Tan(45.*kdegrad) + dpcb[2] * 2. - 10.5; // end-ladder electronics dpgon[5] = 38.9; dpgon[6] = 41.2; dpgon[7] = (583./2.+(338.-56.+15.))/10. - (45.-41.2) / TMath::Tan(45.*kdegrad) + dpcb[2] * 2. - 10.5; // end-ladder electr dpgon[8] = 38.9; dpgon[9] = 41.2; xpos = 0.; ypos = 0.; zpos = 0.; gMC->Gsvolu("RP06", "PGON", idtmed[274], dpgon, 10); gMC->Gspos("RP06", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); } // 9345 CONTINUE // --- Define the Z<0 end-cap // GOTO 9456 ! skip the Z<0 end-cap dcone[0] = 16.75; dcone[1] = (338.-3.)*455./(338.-3.-10.)/10.; dcone[2] = .02 / TMath::Cos(45.*kdegrad) + (338.-3.)*455./(338.-3.-10.)/10.; dcone[3] = 12.; dcone[4] = 12.02; xpos = 0.; ypos = 0.; zpos = -(583.+(338.-3.))/2./10. - dpcb[2] * 2. + 10.5; // end-ladder electr gMC->Gsvolu("LCON", "CONE", idtmed[274], dcone, 5); gMC->Gspos("LCON", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); dtube[0] = .02 / TMath::Cos(45.*kdegrad) + (338.-3.)*455./(338.-3.-10.)/10.; dtube[1] = 49.9; // In the Simonetti's drawings 52. In the TP 50. dtube[2] = .15; xpos = 0.; ypos = 0.; zpos = -(583./2.+(338-1.5))/10. - dpcb[2] * 2. + 10.5; // end-ladder electr gMC->Gsvolu("LTB1", "TUBE", idtmed[274], dtube, 3); gMC->Gspos("LTB1", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); dtube[0] = 10.5; dtube[1] = 12.; dtube[2] = 26.8/2./10.; xpos = 0.; ypos = 0.; zpos = -(583./2.-89.+26.8/2.)/10. - dpcb[2] * 2. + 10.5; // end-ladder elec gMC->Gsvolu("LTB2", "TUBE", idtmed[274], dtube, 3); ; gMC->Gspos("LTB2", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); dpgon[0] = 15.; dpgon[1] = 360.; dpgon[2] = 12.; dpgon[3] = 2.; dpgon[4] = -583./2./10. - dpcb[2] * 2. + 10.5; // end-ladder electronics dpgon[5] = 12.; dpgon[6] = 13.5; dpgon[7] = -(583./2.-62.2)/10. - dpcb[2] * 2. + 10.5; // end-ladder electro dpgon[8] = 12.; dpgon[9] = 13.5; xpos = 0.; ypos = 0.; zpos = 0.; gMC->Gsvolu("LP03", "PGON", idtmed[274], dpgon, 10); gMC->Gspos("LP03", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); dpgon[0] = 7.5; dpgon[1] = 360.; dpgon[2] = 24.; dpgon[3] = 2.; dpgon[4] = -(583./2.+(338.-273.+15.))/10. - dpcb[2] * 2. + 10.5; // end-ladd dpgon[5] = 21.; dpgon[6] = 23.; dpgon[7] = -(583./2.+(338.-273.))/10. - dpcb[2] * 2. + 10.5; // end-ladder dpgon[8] = 21.; dpgon[9] = 23.; xpos = 0.; ypos = 0.; zpos = 0.; gMC->Gsvolu("LP04", "PGON", idtmed[274], dpgon, 10); gMC->Gspos("LP04", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); if (fMinorVersionV3 < 3) { offset2 = 5.2; dpgon[0] = offset2 + 360./(2.*35.); dpgon[1] = 360.; dpgon[2] = 35.; dpgon[3] = 2.; dpgon[4] = -(583./2.+(338.-106.))/10. - dpcb[2] * 2. + 10.5; // end-ladd dpgon[5] = 37.7; dpgon[6] = 40.; dpgon[7] = -(583./2.+(338.-106.+15.))/10. - dpcb[2] * 2. + 10.5; // end-l dpgon[8] = 37.7; dpgon[9] = 40.; xpos = 0.; ypos = 0.; zpos = 0.; gMC->Gsvolu("LP05", "PGON", idtmed[274], dpgon, 10); gMC->Gspos("LP05", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); dpgon[0] = offset2 + 360./(2.*39.); dpgon[1] = 360.; dpgon[2] = 39.; dpgon[3] = 2.; dpgon[4] = -(583./2.+(338.-56.))/10. - dpcb[2] * 2. + 10.5; // end-ladde dpgon[5] = 42.7; dpgon[6] = 45.; dpgon[7] = -(583./2.+(338.-56.+15.))/10. - dpcb[2] * 2. + 10.5; // end-l dpgon[8] = 42.7; dpgon[9] = 45.; xpos = 0.; ypos = 0.; zpos = 0.; gMC->Gsvolu("LP06", "PGON", idtmed[274], dpgon, 10); gMC->Gspos("LP06", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); } if (fMinorVersionV3 > 2 && fMinorVersionV3 < 6) { offset2 = 5.2; dpgon[0] = offset2 + 5.625; dpgon[1] = 360.; dpgon[2] = 32.; dpgon[3] = 2.; dpgon[4] = (40.-36.6) / TMath::Tan(45.*kdegrad) - (583./2.+(338.-106.))/10. - dpcb[2] * 2. + 10.5; // end-ladder electronics dpgon[5] = 34.3; dpgon[6] = 36.6; dpgon[7] = (40.-36.6) / TMath::Tan(45.*kdegrad) - (583./2.+(338.-106.+15.))/10. - dpcb[2] * 2. + 10.5; // end-ladder electr dpgon[8] = 34.3; dpgon[9] = 36.6; xpos = 0.; ypos = 0.; zpos = 0.; gMC->Gsvolu("LP05", "PGON", idtmed[274], dpgon, 10); gMC->Gspos("LP05", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); dpgon[0] = offset2 + 5.; dpgon[1] = 360.; dpgon[2] = 36.; dpgon[3] = 2.; dpgon[4] = (45.-41.2) / TMath::Tan(45.*kdegrad) - (583./2.+(338.-56.))/10. - dpcb[2] * 2. + 10.5; // end-ladder electronics dpgon[5] = 38.9; dpgon[6] = 41.2; dpgon[7] = (45.-41.2) / TMath::Tan(45.*kdegrad) - (583./2.+(338.-56.+15.))/10. - dpcb[2] * 2. + 10.5; // end-ladder electr dpgon[8] = 38.9; dpgon[9] = 41.2; xpos = 0.; ypos = 0.; zpos = 0.; gMC->Gsvolu("LP06", "PGON", idtmed[274], dpgon, 10); gMC->Gspos("LP06", 1, "ITSV", xpos, ypos, zpos, 0, "ONLY"); } // 9456 CONTINUE // --- Outputs the geometry tree in the EUCLID/CAD format if (fEuclidOut) { gMC->WriteEuclid("ITSgeometry", "ITSV", 1, 5); } fMinorVersion = fMinorVersionV3; } //_____________________________________________________________________________ void AliITSv3::CreateMaterials(){ //////////////////////////////////////////////////////////////////////// // // Create ITS materials // This function defines the default materials used in the Geant // Monte Carlo simulations for the geometries AliITSv1 and AliITSv3. // 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. // // Water H2O Float_t awat[2] = { 1.00794,15.9994 }; Float_t zwat[2] = { 1.,8. }; Float_t wwat[2] = { 2.,1. }; Float_t denswat = 1.; // Freon Float_t afre[2] = { 12.011,18.9984032 }; Float_t zfre[2] = { 6.,9. }; Float_t wfre[2] = { 5.,12. }; Float_t densfre = 1.5; // Ceramics // 94.4% Al2O3 , 2.8% SiO2 , 2.3% MnO , 0.5% Cr2O3 Float_t acer[5] = { 26.981539,15.9994,28.0855,54.93805,51.9961 }; Float_t zcer[5] = { 13.,8.,14.,25., 24. }; Float_t wcer[5] = { .49976,1.01233,.01307, .01782,.00342 }; Float_t denscer = 3.6; // // 60% SiO2 , 40% G10FR4 // PC board Float_t apcb[3] = { 28.0855,15.9994,17.749 }; Float_t zpcb[3] = { 14.,8.,8.875 }; Float_t wpcb[3] = { .28,.32,.4 }; Float_t denspcb = 1.8; // POLYETHYL Float_t apoly[2] = { 12.01,1. }; Float_t zpoly[2] = { 6.,1. }; Float_t wpoly[2] = { .33,.67 }; // SERVICES Float_t zserv[4] = { 1.,6.,26.,29. }; Float_t aserv[4] = { 1.,12.,55.8,63.5 }; Float_t wserv[4] = { .014,.086,.42,.48 }; Int_t isxfld = gAlice->Field()->Integ(); Float_t sxmgmx = gAlice->Field()->Max(); // --- Define the various materials for GEANT --- // 200-224 --> Silicon Pixel Detectors (detectors, chips, buses, cooling,..) AliMaterial(0, "SPD Si$", 28.0855, 14., 2.33, 9.36, 999); AliMaterial(1, "SPD Si chip$", 28.0855, 14., 2.33, 9.36, 999); AliMaterial(2, "SPD Si bus$", 28.0855, 14., 2.33, 9.36, 999); AliMaterial(3, "SPD C$", 12.011, 6., 2.265,18.8, 999); // v. dens AliMaterial(4, "SPD Air$", 14.61, 7.3, .001205, 30423., 999); AliMaterial(5, "SPD Vacuum$", 1e-16, 1e-16, 1e-16, 1e16, 1e16); AliMaterial(6, "SPD Al$", 26.981539, 13., 2.6989, 8.9, 999); AliMixture( 7, "SPD Water $", awat, zwat, denswat, -2, wwat); AliMixture( 8, "SPD Freon$", afre, zfre, densfre, -2, wfre); // ** AliMedium(0, "SPD Si$", 0, 1,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(1, "SPD Si chip$", 1, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(2, "SPD Si bus$", 2, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(3, "SPD C$", 3, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(4, "SPD Air$", 4, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(5, "SPD Vacuum$", 5, 0,isxfld,sxmgmx, 10.,1.00, .1, .100,10.00); AliMedium(6, "SPD Al$", 6, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(7, "SPD Water $", 7, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(8, "SPD Freon$", 8, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); // 225-249 --> Silicon Drift Detectors (detectors, chips, buses, cooling,..) AliMaterial(25, "SDD Si$", 28.0855, 14., 2.33, 9.36, 999); AliMaterial(26, "SDD Si chip$", 28.0855, 14., 2.33, 9.36, 999); AliMaterial(27, "SDD Si bus$", 28.0855, 14., 2.33, 9.36, 999); AliMaterial(28, "SDD C$", 12.011, 6., 2.265,18.8, 999); // v. dens AliMaterial(29, "SDD Air$", 14.61, 7.3, .001205, 30423., 999); AliMaterial(30, "SDD Vacuum$", 1e-16, 1e-16, 1e-16, 1e16, 1e16); AliMaterial(31, "SDD Al$", 26.981539, 13., 2.6989, 8.9, 999); // After a call with ratios by number (negative number of elements), // the ratio array is changed to the ratio by weight, so all successive // calls with the same array must specify the number of elements as // positive AliMixture(32, "SDD Water $", awat, zwat, denswat, 2, wwat); // After a call with ratios by number (negative number of elements), // the ratio array is changed to the ratio by weight, so all successive // calls with the same array must specify the number of elements as // positive AliMixture( 33, "SDD Freon$", afre, zfre, densfre, 2, wfre); AliMixture( 34, "SDD PCB$", apcb, zpcb, denspcb, 3, wpcb); AliMaterial(35, "SDD Copper$", 63.546, 29., 8.96, 1.43, 999); AliMixture( 36, "SDD Ceramics$", acer, zcer, denscer, -5, wcer); AliMaterial(37, "SDD Kapton$", 12.011, 6., 1.3, 31.27, 999); // ** // check A and Z AliMedium(25, "SDD Si$", 25, 1,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(26, "SDD Si chip$", 26, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(27, "SDD Si bus$", 27, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(28, "SDD C$", 28, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(29, "SDD Air$", 29, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(30, "SDD Vacuum$", 30, 0,isxfld,sxmgmx, 10.,1.00, .1, .100,10.00); AliMedium(31, "SDD Al$", 31, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(32, "SDD Water $", 32, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(33, "SDD Freon$", 33, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(34, "SDD PCB$", 34, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(35, "SDD Copper$", 35, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(36, "SDD Ceramics$",36, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(37, "SDD Kapton$", 37, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); // 250-274 --> Silicon Strip Detectors (detectors, chips, buses, cooling,..) AliMaterial(50, "SSD Si$", 28.0855, 14., 2.33, 9.36, 999.); AliMaterial(51, "SSD Si chip$", 28.0855, 14., 2.33, 9.36, 999.); AliMaterial(52, "SSD Si bus$", 28.0855, 14., 2.33, 9.36, 999.); AliMaterial(53, "SSD C$", 12.011, 6., 2.265,18.8, 999.); // v. dens AliMaterial(54, "SSD Air$", 14.61, 7.3, .001205, 30423., 999); AliMaterial(55, "SSD Vacuum$", 1e-16, 1e-16, 1e-16, 1e16, 1e16); AliMaterial(56, "SSD Al$", 26.981539, 13., 2.6989, 8.9, 999); // After a call with ratios by number (negative number of elements), // the ratio array is changed to the ratio by weight, so all successive // calls with the same array must specify the number of elements as // positive AliMixture(57, "SSD Water $", awat, zwat, denswat, 2, wwat); // After a call with ratios by number (negative number of elements), // the ratio array is changed to the ratio by weight, so all successive // calls with the same array must specify the number of elements as // positive AliMixture(58, "SSD Freon$", afre, zfre, densfre, 2, wfre); AliMixture(59, "SSD PCB$", apcb, zpcb, denspcb, 3, wpcb); AliMaterial(60, "SSD Copper$", 63.546, 29., 8.96, 1.43, 999.); // After a call with ratios by number (negative number of elements), // the ratio array is changed to the ratio by weight, so all successive // calls with the same array must specify the number of elements as // positive AliMixture( 61, "SSD Ceramics$", acer, zcer, denscer, 5, wcer); AliMaterial(62, "SSD Kapton$", 12.011, 6., 1.3, 31.27, 999.); // check A and Z AliMaterial(63, "SDD G10FR4$", 17.749, 8.875, 1.8, 21.822, 999.); // ** AliMedium(50, "SSD Si$", 50, 1,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(51, "SSD Si chip$", 51, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(52, "SSD Si bus$", 52, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(53, "SSD C$", 53, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(54, "SSD Air$", 54, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(55, "SSD Vacuum$", 55, 0,isxfld,sxmgmx, 10.,1.00, .1, .100,10.00); AliMedium(56, "SSD Al$", 56, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(57, "SSD Water $", 57, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(58, "SSD Freon$", 58, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(59, "SSD PCB$", 59, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(60, "SSD Copper$", 60, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(61, "SSD Ceramics$",61, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(62, "SSD Kapton$", 62, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(63, "SSD G10FR4$", 63, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); // 275-299 --> General (end-caps, frames, cooling, cables, etc.) AliMaterial(75, "GEN C$", 12.011, 6., 2.265, 18.8, 999.); // verify density AliMaterial(76, "GEN Air$", 14.61, 7.3, .001205, 30423., 999); AliMaterial(77, "GEN Vacuum$", 1e-16, 1e-16, 1e-16, 1e16, 1e16); AliMixture( 78, "GEN POLYETHYL$", apoly, zpoly, .95, -2, wpoly); AliMixture( 79, "GEN SERVICES$", aserv, zserv, 4.68, 4, wserv); AliMaterial(80, "GEN Copper$", 63.546, 29., 8.96, 1.43, 999.); // After a call with ratios by number (negative number of elements), // the ratio array is changed to the ratio by weight, so all successive // calls with the same array must specify the number of elements as // positive AliMixture(81, "GEN Water $", awat, zwat, denswat, 2, wwat); // ** AliMedium(75,"GEN C$", 75, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(76,"GEN Air$", 76, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(77,"GEN Vacuum$", 77, 0,isxfld,sxmgmx, 10., .10, .1, .100,10.00); AliMedium(78,"GEN POLYETHYL$",78, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(79,"GEN SERVICES$", 79, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(80,"GEN Copper$", 80, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); AliMedium(81,"GEN Water $", 81, 0,isxfld,sxmgmx, 10., .01, .1, .003, .003); } //_____________________________________________________________________________ void AliITSv3::Init(){ //////////////////////////////////////////////////////////////////////// // Initialise the ITS after it has been created. //////////////////////////////////////////////////////////////////////// Int_t i,j,l; fIdN = fId3N;; fIdName = new char*[fIdN]; fIdSens = new Int_t[fIdN]; for(i=0;iIsTrackInside()) vol[3] += 1; if(gMC->IsTrackEntering()) vol[3] += 2; if(gMC->IsTrackExiting()) vol[3] += 4; if(gMC->IsTrackOut()) vol[3] += 8; if(gMC->IsTrackDisappeared()) vol[3] += 16; if(gMC->IsTrackStop()) vol[3] += 32; if(gMC->IsTrackAlive()) vol[3] += 64; // // Fill hit structure. if(!(gMC->TrackCharge())) return; // // Only entering charged tracks if((id=gMC->CurrentVolID(copy))==fIdSens[0]) { vol[0]=1; id=gMC->CurrentVolOffID(1,copy); vol[1]=copy; id=gMC->CurrentVolOffID(2,copy); vol[2]=copy; } else if(id==fIdSens[1]) { vol[0]=2; id=gMC->CurrentVolOffID(1,copy); vol[1]=copy; id=gMC->CurrentVolOffID(2,copy); vol[2]=copy; } else if(id==fIdSens[2]) { vol[0]=3; vol[1]=copy; id=gMC->CurrentVolOffID(1,copy); vol[2]=copy; } else if(id==fIdSens[3]) { vol[0]=4; vol[1]=copy; id=gMC->CurrentVolOffID(1,copy); vol[2]=copy; } else if(id==fIdSens[4]) { vol[0]=5; vol[1]=copy; id=gMC->CurrentVolOffID(1,copy); vol[2]=copy; } else if(id==fIdSens[5]) { vol[0]=6; vol[1]=copy; id=gMC->CurrentVolOffID(1,copy); vol[2]=copy; } else return; gMC->TrackPosition(position); gMC->TrackMomentum(momentum); hits[0]=position[0]; hits[1]=position[1]; hits[2]=position[2]; hits[3]=momentum[0]; hits[4]=momentum[1]; hits[5]=momentum[2]; hits[6]=gMC->Edep(); hits[7]=gMC->TrackTime(); new(lhits[fNhits++]) AliITShit(fIshunt,gAlice->CurrentTrack(),vol,hits); #if ALIITSPRINTGEOM==1 if(printit[vol[0]][vol[2]][vol[1]]){ printit[vol[0]][vol[2]][vol[1]] = kFALSE; xl[0] = xl[1] = xl[2] = 0.0; gMC->Gdtom(xl,xt,1); for(i=0;i<9;i++) mat[i] = 0.0; mat[0] = mat[4] = mat[8] = 1.0; // default with identity matrix xl[0] = 1.0; xl[1] = xl[2] =0.0; gMC->Gdtom(xl,&(mat[0]),2); xl[1] = 1.0; xl[0] = xl[2] =0.0; gMC->Gdtom(xl,&(mat[3]),2); xl[2] = 1.0; xl[1] = xl[0] =0.0; gMC->Gdtom(xl,&(mat[6]),2); angl[0] = TMath::ACos(mat[2]); if(mat[2]==1.0) angl[0] = 0.0; angl[1] = TMath::ATan2(mat[1],mat[0]); if(angl[1]<0.0) angl[1] += 2.0*TMath::Pi(); angl[2] = TMath::ACos(mat[5]); if(mat[5]==1.0) angl[2] = 0.0; angl[3] = TMath::ATan2(mat[4],mat[3]); if(angl[3]<0.0) angl[3] += 2.0*TMath::Pi(); angl[4] = TMath::ACos(mat[8]); if(mat[8]==1.0) angl[4] = 0.0; angl[5] = TMath::ATan2(mat[7],mat[6]); if(angl[5]<0.0) angl[5] += 2.0*TMath::Pi(); for(i=0;i<6;i++) angl[i] *= 180.0/TMath::Pi(); // degrees // i = gMC->CurrentVolID(copy); // gMC->Gfpara(gMC->CurrentVolName(),copy,1,copy1,copy2,par,att); fp = fopen("ITSgeometry_v5.det","a"); fprintf(fp,"%2d %2d %2d %9e %9e %9e %9e %9e %9e %9e %9e %9e ", vol[0],vol[2],vol[1], // layer ladder detector xt[0],xt[1],xt[2], // Translation vector angl[0],angl[1],angl[2],angl[3],angl[4],angl[5] // Geant rotaion // angles (degrees) ); fprintf(fp,"%9e %9e %9e %9e %9e %9e %9e %9e %9e", mat[0],mat[1],mat[2],mat[3],mat[4],mat[5],mat[6],mat[7],mat[8] ); // Adding the rotation matrix. fprintf(fp,"\n"); fclose(fp); } // end if printit[layer][ladder][detector] #endif } //____________________________________________________________________________ void AliITSv3::Streamer(TBuffer &R__b){ //////////////////////////////////////////////////////////////////////// // A dummy Streamer function for this class AliITSv3. By default it // only streams the AliITS class as it is required. Since this class // dosen't contain any "real" data to be saved, it doesn't. //////////////////////////////////////////////////////////////////////// printf("AliITSv3Streamer Starting\n"); if (R__b.IsReading()) { Version_t R__v = R__b.ReadVersion(); if (R__v==1) { AliITS::Streamer(R__b); // This information does not need to be read. It is "hard wired" // into this class via its creators. //R__b >> fId3N; //R__b.ReadArray(fId3Name); }else{ } // end if } else { R__b.WriteVersion(AliITSv3::IsA()); AliITS::Streamer(R__b); // This information does not need to be saved. It is "hard wired" // into this class via its creators. //R__b << fId3N; //R__b.WriteArray(fId3Name, __COUNTER__); } // end if R__b.IsReading() printf("AliITSv3Streamer Finishing\n"); }