/***************************************************************************
* 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. *
**************************************************************************/
/* $Id$ */
//
///////////////////////////////////////////////////////////////////////////////
// //
// Photon Multiplicity Detector Version 1 //
// Bedanga Mohanty : February 14th 2006
//---------------------------------------------------
// ALICE PMD FEE BOARDS IMPLEMENTATION
// Dt: 25th February 2006
// M.M. Mondal, S.K. Prasad and P.K. Netrakanti
//---------------------------------------------------
// Create final detector from Unit Modules
// Author : Bedanga and Viyogi June 2003
//---------------------------------------------------
// Modified by
// Dr. Y.P. Viyogi and Ranbir Singh
// Dt: 2nd February 2009
//
//Begin_Html
/*
*/
//End_Html
// //
/////////////////////////////////////////////////////////////////////////////
////
#include
#include
#include
#include "AliConst.h"
#include "AliLog.h"
#include "AliMC.h"
#include "AliMagF.h"
#include "AliPMDv1.h"
#include "AliRun.h"
#include "AliTrackReference.h"
const Int_t AliPMDv1::fgkNcolUM1 = 48; // Number of cols in UM, type 1
const Int_t AliPMDv1::fgkNcolUM2 = 96; // Number of cols in UM, type 2
const Int_t AliPMDv1::fgkNrowUM1 = 96; // Number of rows in UM, type 1
const Int_t AliPMDv1::fgkNrowUM2 = 48; // Number of rows in UM, type 2
const Float_t AliPMDv1::fgkCellRadius = 0.25; // Radius of a hexagonal cell
const Float_t AliPMDv1::fgkCellWall = 0.02; // Thickness of cell Wall
const Float_t AliPMDv1::fgkCellDepth = 0.50; // Gas thickness
const Float_t AliPMDv1::fgkThPCB = 0.16; // Thickness of PCB
const Float_t AliPMDv1::fgkThLead = 1.5; // Thickness of Pb
const Float_t AliPMDv1::fgkThSteel = 0.5; // Thickness of Steel
const Float_t AliPMDv1::fgkGap = 0.025; // Air Gap
const Float_t AliPMDv1::fgkZdist = 361.5; // z-position of the detector
const Float_t AliPMDv1::fgkSqroot3 = 1.7320508;// Square Root of 3
const Float_t AliPMDv1::fgkSqroot3by2 = 0.8660254;// Square Root of 3 by 2
const Float_t AliPMDv1::fgkSSBoundary = 0.3;
const Float_t AliPMDv1::fgkThSS = 1.23; // Old thickness of SS frame was 1.03
const Float_t AliPMDv1::fgkThTopG10 = 0.33;
const Float_t AliPMDv1::fgkThBotG10 = 0.4;
ClassImp(AliPMDv1)
//_____________________________________________________________________________
AliPMDv1::AliPMDv1():
fSMthick(0.),
fSMthickpmd(0.),
fDthick(0.),
fSMLengthax(0.),
fSMLengthay(0.),
fSMLengthbx(0.),
fSMLengthby(0.),
fMedSens(0)
{
// Default constructor
for (Int_t i = 0; i < 3; i++)
{
fDboxmm1[i] = 0.;
fDboxmm12[i] = 0.;
fDboxmm2[i] = 0.;
fDboxmm22[i] = 0.;
}
for (Int_t i = 0; i < 48; i++)
{
fModStatus[i] = 1;
}
}
//_____________________________________________________________________________
AliPMDv1::AliPMDv1(const char *name, const char *title):
AliPMD(name,title),
fSMthick(0.),
fSMthickpmd(0.),
fDthick(0.),
fSMLengthax(0.),
fSMLengthay(0.),
fSMLengthbx(0.),
fSMLengthby(0.),
fMedSens(0)
{
// Standard constructor
for (Int_t i = 0; i < 3; i++)
{
fDboxmm1[i] = 0.;
fDboxmm12[i] = 0.;
fDboxmm2[i] = 0.;
fDboxmm22[i] = 0.;
}
for (Int_t i = 0; i < 48; i++)
{
fModStatus[i] = 1;
}
}
//_____________________________________________________________________________
void AliPMDv1::CreateGeometry()
{
// Create geometry for Photon Multiplicity Detector
GetParameters();
CreateSupermodule();
CreatePMD();
}
//_____________________________________________________________________________
void AliPMDv1::CreateSupermodule()
{
//
// Creates the geometry of the cells of PMD, places them in modules
// which are rectangular objects.
// Basic unit is ECAR, a hexagonal cell made of Ar+CO2, which is
// placed inside another hexagonal cell made of Cu (ECCU) with larger
// radius, compared to ECAR. The difference in radius gives the dimension
// of half width of each cell wall.
// These cells are placed in a rectangular strip which are of 2 types
// EST1 and EST2.
// Two types of honeycomb EHC1 & EHC2 are made using strips EST1 & EST2.
// 4 types of unit modules are made EUM1 & EUM2 for PRESHOWER Plane and
// EUV1 & EUV2 for VETO Plane which contains strips placed repeatedly
//
// These unit moules are then placed inside EPM1, EPM2, EPM3 and EPM4 along
// with lead convertor ELDA & ELDB and Iron Supports EFE1, EFE2, EFE3 and EFE4
// They have 6 unit moudles inside them in each plane. Therefore, total of 48
// unit modules in both the planes (PRESHOWER Plane & VETO Plane). The numbering
// of unit modules is from 0 to 47.
//
// Steel channels (ECHA & ECHB) are also placed which are used to place the unit modules
//
// In order to account for the extra material around and on the detector, Girders (EGDR),
// girder's Carriage (EXGD), eight Aluminium boxes (ESV1,2,3,4 & EVV1,2,3,4) along with
// LVDBs (ELVD), cables (ECB1,2,3,4), and ELMBs (ELMB) are being placed in approximations.
//
// Four FR4 sheets (ECC1,2,3,4) are placed parallel to the PMD on both sides, which perform
// as cooling encloser
// NOTE:- VOLUME Names : begining with "E" for all PMD volumes
Int_t i,j;
Int_t number;
Int_t ihrotm,irotdm;
Float_t xb, yb, zb;
Int_t *idtmed = fIdtmed->GetArray()-599;
AliMatrix(ihrotm, 90., 30., 90., 120., 0., 0.);
AliMatrix(irotdm, 90., 180., 90., 270., 180., 0.);
//******************************************************//
// STEP - I //
//******************************************************//
// First create the sensitive medium of a hexagon cell (ECAR)
// Inner hexagon filled with gas (Ar+CO2)
// Integer assigned to Ar+CO2 medium is 604
Float_t hexd2[10] = {0.,360.,6,2,-0.25,0.,0.23,0.25,0.,0.23};
hexd2[4] = -fgkCellDepth/2.;
hexd2[7] = fgkCellDepth/2.;
hexd2[6] = fgkCellRadius - fgkCellWall;
hexd2[9] = fgkCellRadius - fgkCellWall;
gMC->Gsvolu("ECAR", "PGON", idtmed[604], hexd2,10);
//******************************************************//
// STEP - II //
//******************************************************//
// Place the sensitive medium inside a hexagon copper cell (ECCU)
// Outer hexagon made of Copper
// Integer assigned to Cu medium is 614
Float_t hexd1[10] = {0.,360.,6,2,-0.25,0.,0.25,0.25,0.,0.25};
hexd1[4] = -fgkCellDepth/2.;
hexd1[7] = fgkCellDepth/2.;
hexd1[6] = fgkCellRadius;
hexd1[9] = fgkCellRadius;
gMC->Gsvolu("ECCU", "PGON", idtmed[614], hexd1,10);
// Place inner hex (sensitive volume) inside outer hex (copper)
gMC->Gspos("ECAR", 1, "ECCU", 0., 0., 0., 0, "ONLY");
//******************************************************//
// STEP - III //
//******************************************************//
// Now create Two types of Rectangular strips (EST1, EST2)
// of 1 column and 96 or 48 cells length
// volume for first strip EST1 made of AIR
// Integer assigned to Air medium is 698
// strip type-1 is of 1 column and 96 rows i.e. of 96 cells length
Float_t dbox1[3];
dbox1[0] = fgkCellRadius/fgkSqroot3by2;
dbox1[1] = fgkNrowUM1*fgkCellRadius;
dbox1[2] = fgkCellDepth/2.;
gMC->Gsvolu("EST1","BOX", idtmed[698], dbox1, 3);
// volume for second strip EST2
// strip type-2 is of 1 column and 48 rows i.e. of 48 cells length
Float_t dbox2[3];
dbox2[1] = fgkNrowUM2*fgkCellRadius;
dbox2[0] = dbox1[0];
dbox2[2] = dbox1[2];
gMC->Gsvolu("EST2","BOX", idtmed[698], dbox2, 3);
// Place hexagonal cells ECCU placed inside EST1
xb = 0.;
zb = 0.;
yb = (dbox1[1]) - fgkCellRadius;
for (i = 1; i <= fgkNrowUM1; ++i)
{
number = i;
gMC->Gspos("ECCU", number, "EST1", xb,yb,zb, 0, "ONLY");
yb -= (fgkCellRadius*2.);
}
// Place hexagonal cells ECCU placed inside EST2
xb = 0.;
zb = 0.;
yb = (dbox2[1]) - fgkCellRadius;
for (i = 1; i <= fgkNrowUM2; ++i)
{
number = i;
gMC->Gspos("ECCU", number, "EST2", xb,yb,zb, 0, "ONLY");
yb -= (fgkCellRadius*2.);
}
//******************************************************//
// STEP - IV //
//******************************************************//
// Create EHC1 : The honey combs for a unit module type-1
//-------------------------EHC1 Start-------------------//
// First step is to create a honey comb unit module.
// This is named as EHC1 and is a volume of Air
// we will lay the EST1 strips of honey comb cells inside it.
// Dimensions of EHC1
// X-dimension = (dbox1[0]*fgkNcolUM1)-(fgkCellRadius*fgkSqroot3*(fgkNcolUM1-1)/6.)+ 0.15+0.05+0.05;
// Y-dimension = Number of rows * cell radius/sqrt3by2 + 0.15+0.05+0.05;
// 0.15cm is the extension in honeycomb on both side of X and Y, 0.05 for air gap and 0.05
// for G10 boundary around, which are now merged in the dimensions of EHC1
// Z-dimension = cell depth/2
Float_t ehcExt = 0.15;
Float_t ehcAround = 0.05 + 0.05;;
Float_t dbox3[3];
dbox3[0] = (dbox1[0]*fgkNcolUM1)-
(fgkCellRadius*fgkSqroot3*(fgkNcolUM1-1)/6.) + ehcExt + ehcAround;
dbox3[1] = dbox1[1]+fgkCellRadius/2. + ehcExt + ehcAround;
dbox3[2] = fgkCellDepth/2.;
//Create a BOX, Material AIR
gMC->Gsvolu("EHC1","BOX", idtmed[698], dbox3, 3);
// Place rectangular strips EST1 inside EHC1 unit module
xb = dbox3[0]-dbox1[0];
for (j = 1; j <= fgkNcolUM1; ++j)
{
if(j%2 == 0)
{
yb = -fgkCellRadius/2.0;
}
else
{
yb = fgkCellRadius/2.0;
}
number = j;
gMC->Gspos("EST1",number, "EHC1", xb - 0.25, yb , 0. , 0, "MANY");
//The strips are being placed from top towards bottom of the module
//This is because the first cell in a module in hardware is the top
//left corner cell
xb = (dbox3[0]-dbox1[0])-j*fgkCellRadius*fgkSqroot3;
}
//--------------------EHC1 done----------------------------------------//
//--------------------------------EHC2 Start---------------------------//
// Create EHC2 : The honey combs for a unit module type-2
// First step is to create a honey comb unit module.
// This is named as EHC2, we will lay the EST2 strips of
// honey comb cells inside it.
// Dimensions of EHC2
// X-dimension = (dbox2[0]*fgkNcolUM2)-(fgkCellRadius*fgkSqroot3*(fgkNcolUM2-1)/6.)+ 0.15+0.05+0.05;
// Y-dimension = Number of rows * cell radius/sqrt3by2 + 0.15+0.05+0.05;
// 0.15cm is the extension in honeycomb on both side of X and Y, 0.05 for air gap and 0.05
// for G10 boundary around, which are now merged in the dimensions of EHC2
// Z-dimension = cell depth/2
Float_t dbox4[3];
dbox4[0] =(dbox2[0]*fgkNcolUM2)-
(fgkCellRadius*fgkSqroot3*(fgkNcolUM2-1)/6.) + ehcExt + ehcAround;
dbox4[1] = dbox2[1] + fgkCellRadius/2. + ehcExt + ehcAround;
dbox4[2] = dbox3[2];
//Create a BOX of AIR
gMC->Gsvolu("EHC2","BOX", idtmed[698], dbox4, 3);
// Place rectangular strips EST2 inside EHC2 unit module
xb = dbox4[0]-dbox2[0];
for (j = 1; j <= fgkNcolUM2; ++j)
{
if(j%2 == 0)
{
yb = -fgkCellRadius/2.0;
}
else
{
yb = +fgkCellRadius/2.0;
}
number = j;
gMC->Gspos("EST2",number, "EHC2", xb - 0.25, yb , 0. ,0, "MANY");
xb = (dbox4[0]-dbox2[0])-j*fgkCellRadius*fgkSqroot3;
}
//----------------------------EHC2 done-------------------------------//
//====================================================================//
// Now the job is to assmeble an Unit module
// It will have the following components
// (a) Base plate of G10 of 0.2cm
// (b) Air gap of 0.08cm
// (c) Bottom PCB of 0.16cm G10
// (d) Honey comb 0f 0.5cm
// (e) Top PCB of 0.16cm G10
// (f) Back Plane of 0.1cm G10
// (g) Then all around then we have an air gap of 0.05cm
// (h) Then all around 0.05cm thick G10 insulation
// (i) Then all around Stainless Steel boundary channel 0.3 cm thick
// In order to reduce the number of volumes and simplify the geometry
// following steps are performed:
// (I) Base Plate(0.2cm), Air gap(0.04cm) and Bottom PCB(0.16cm)
// are taken together as a G10 Plate EDGA (0.4cm)
// (II) Back Plane(0.1cm), Air Gap(0.04cm) and Top PCB(0.16cm) and extra
// clearance 0.03cm are taken together as G10 Plate EEGA(0.33cm)
// (III) The all around Air gap(0.05cm) and G10 boundary(0.05cm) are already
// merged in the dimension of EHC1, EHC2, EDGA and EEGA. Therefore, no
// separate volumes for all around materials
//Let us first create them one by one
//--------------------------------------------------------------------//
// ---------------- Lets do it first for UM Long Type -----//
// 4mm G10 Box : Bottom PCB + Air Gap + Base Plate
//================================================
// Make a 4mm thick G10 Box for Unit module Long Type
// X-dimension is EHC1 - ehcExt
// Y-dimension is EHC1 - ehcExt
// EHC1 was extended 0.15cm(ehcExt) on both sides
// Z-dimension 0.4/2 = 0.2 cm
// Integer assigned to G10 medium is 607
Float_t dboxCGA[3];
dboxCGA[0] = dbox3[0] - ehcExt;
dboxCGA[1] = dbox3[1] - ehcExt;
dboxCGA[2] = fgkThBotG10/2.;
//Create a G10 BOX
gMC->Gsvolu("EDGA","BOX", idtmed[607], dboxCGA, 3);
//-------------------------------------------------//
// 3.3mm G10 Box : Top PCB + Air GAp + Back Plane
//================================================
// Make a 3.3mm thick G10 Box for Unit module Long Type
// X-dimension is EHC1 - ehcExt
// Y-dimension is EHC1 - ehcExt
// EHC1 was extended 0.15cm(ehcExt) on both sides
// Z-dimension 0.33/2 = 0.165 cm
Float_t dboxEEGA[3];
dboxEEGA[0] = dboxCGA[0];
dboxEEGA[1] = dboxCGA[1];
dboxEEGA[2] = fgkThTopG10/2.;
//Create a G10 BOX
gMC->Gsvolu("EEGA","BOX", idtmed[607], dboxEEGA, 3);
//----------------------------------------------------------//
//Stainless Steel Bounadry : EUM1 & EUV1
//
// Make a 3.63cm thick Stainless Steel boundary for Unit module Long Type
// 3.63cm equivalent to EDGA(0.4cm)+EHC1(0.5cm)+EEGA(0.33cm)+FEE Board(2.4cm)
// X-dimension is EEGA + fgkSSBoundary
// Y-dimension is EEGA + fgkSSBoundary
// Z-dimension 1.23/2 + 2.4/2.
// FEE Boards are 2.4cm thick
// Integer assigned to Stainless Steel medium is 618
//------------------------------------------------------//
// A Stainless Steel Boundary Channel to house the unit module
// along with the FEE Boards
Float_t dboxSS1[3];
dboxSS1[0] = dboxCGA[0]+fgkSSBoundary;
dboxSS1[1] = dboxCGA[1]+fgkSSBoundary;
dboxSS1[2] = fgkThSS/2.+ 2.4/2.;
//FOR PRESHOWER
//Stainless Steel boundary - Material Stainless Steel
gMC->Gsvolu("EUM1","BOX", idtmed[618], dboxSS1, 3);
//FOR VETO
//Stainless Steel boundary - Material Stainless Steel
gMC->Gsvolu("EUV1","BOX", idtmed[618], dboxSS1, 3);
//--------------------------------------------------------------------//
// ============ PMD FEE BOARDS IMPLEMENTATION ======================//
// FEE board
// It is FR4 board of length * breadth :: 7cm * 2.4 cm
// and thickness 0.2cm
// Material medium is same as G10
Float_t dboxFEE[3];
dboxFEE[0] = 0.2/2.;
dboxFEE[1] = 7.0/2.;
dboxFEE[2] = 2.4/2.;
gMC->Gsvolu("EFEE","BOX", idtmed[607], dboxFEE, 3);
// Now to create the Mother volume to accomodate FEE boards
// It should have the dimension few mm smaller than the back plane
// But, we have taken it as big as EUM1 or EUV1
// It is to compensate the Stainless Steel medium of EUM1 or EUV1
// Create Mother volume of Air : Long TYPE
Float_t dboxFEEBPlaneA[3];
dboxFEEBPlaneA[0] = dboxSS1[0];
dboxFEEBPlaneA[1] = dboxSS1[1];
dboxFEEBPlaneA[2] = 2.4/2.;
//Volume of same dimension as EUM1 or EUV1 of Material AIR
gMC->Gsvolu("EFBA","BOX", idtmed[698], dboxFEEBPlaneA, 3);
//Placing the FEE boards in the Mother volume of AIR
Float_t xFee; // X-position of FEE board
Float_t yFee; // Y-position of FEE board
Float_t zFee = 0.0; // Z-position of FEE board
Float_t xA = 0.5; //distance from the border to 1st FEE board/Translator
Float_t yA = 4.00; //distance from the border to 1st FEE board
Float_t xSepa = 1.70; //Distance between two FEE boards in X-side
Float_t ySepa = 8.00; //Distance between two FEE boards in Y-side
// FEE Boards EFEE placed inside EFBA
yFee = dboxFEEBPlaneA[1] - yA - 0.1 - 0.3;
// 0.1cm and 0.3cm are subtracted to shift the FEE Boards on their actual positions
// As the positions are changed, because we have taken the dimension of EFBA equal
// to the dimension of EUM1 or EUV1
number = 1;
// The loop for six rows of FEE Board
for (i = 1; i <= 6; ++i)
{
// First we place the translator board
xFee = -dboxFEEBPlaneA[0] + xA + 0.1 +0.3;
gMC->Gspos("EFEE", number, "EFBA", xFee,yFee,zFee, 0, "ONLY");
// The first FEE board is 11mm from the translator board
xFee += 1.1;
number += 1;
for (j = 1; j <= 12; ++j)
{
gMC->Gspos("EFEE", number, "EFBA", xFee,yFee,zFee, 0, "ONLY");
xFee += xSepa;
number += 1;
}
yFee -= ySepa;
}
// Now Place EEGA, EDGA, EHC1 and EFBA in EUM1 & EUV1 to complete the unit module
// FOR PRE SHOWER //
// Placing of all components of UM in AIR BOX EUM1 //
//(1) FIRST PUT the 4mm G10 Box : EDGA
Float_t zedga = -dboxSS1[2] + fgkThBotG10/2.;
gMC->Gspos("EDGA", 1, "EUM1", 0., 0., zedga, 0, "ONLY");
//(2) NEXT PLACING the Honeycomb EHC1
Float_t zehc1 = zedga + fgkThBotG10/2. + fgkCellDepth/2.;
gMC->Gspos("EHC1", 1, "EUM1", 0., 0., zehc1, 0, "ONLY");
//(3) NEXT PLACING the 3.3mm G10 Box : EEGA
Float_t zeega = zehc1 + fgkCellDepth/2. + fgkThTopG10/2.;
gMC->Gspos("EEGA", 1, "EUM1", 0., 0., zeega, 0, "ONLY");
//(4) NEXT PLACING the FEE BOARD : EFBA
Float_t zfeeboardA = zeega + fgkThTopG10/2. +1.2;
gMC->Gspos("EFBA", 1, "EUM1", 0., 0., zfeeboardA, 0, "ONLY");
// FOR VETO //
// Placing of all components of UM in AIR BOX EUV1 //
//(1) FIRST PUT the FEE BOARD : EFBA
zfeeboardA = -dboxSS1[2] + 1.2;
gMC->Gspos("EFBA", 1, "EUV1", 0., 0., zfeeboardA, 0, "ONLY");
//(2) FIRST PLACING the 3.3mm G10 Box : EEGA
zeega = zfeeboardA + 1.2 + fgkThTopG10/2.;
gMC->Gspos("EEGA", 1, "EUV1", 0., 0., zeega, 0, "ONLY");
//(3) NEXT PLACING the Honeycomb EHC1
zehc1 = zeega + fgkThTopG10/2 + fgkCellDepth/2.;
gMC->Gspos("EHC1", 1, "EUV1", 0., 0., zehc1, 0, "ONLY");
//(4) NEXT PUT THE 4mm G10 Box : EDGA
zedga = zehc1 + fgkCellDepth/2.+ fgkThBotG10/2.;
gMC->Gspos("EDGA", 1, "EUV1", 0., 0., zedga, 0, "ONLY");
//=================== LONG TYPE COMPLETED =========================//
//------------ Lets do the same thing for UM Short Type -------------//
// 4mm G10 Box : Bottom PCB + Air Gap + Base Plate
//================================================
// Make a 4mm thick G10 Box for Unit module ShortType
// X-dimension is EHC2 - ehcExt
// Y-dimension is EHC2 - ehcExt
// EHC2 was extended 0.15cm(ehcExt) on both sides
// Z-dimension 0.4/2 = 0.2 cm
// Integer assigned to G10 medium is 607
Float_t dboxCGB[3];
dboxCGB[0] = dbox4[0] - ehcExt;
dboxCGB[1] = dbox4[1] - ehcExt;
dboxCGB[2] = 0.4/2.;
//Create a G10 BOX
gMC->Gsvolu("EDGB","BOX", idtmed[607], dboxCGB, 3);
//-------------------------------------------------//
// 3.3mm G10 Box : PCB + Air Gap + Back Plane
//================================================
// Make a 3.3mm thick G10 Box for Unit module Short Type
// X-dimension is EHC2 - ehcExt
// Y-dimension is EHC2 - ehcExt
// EHC2 was extended 0.15cm(ehcExt) on both sides
// Z-dimension 0.33/2 = 0.165 cm
Float_t dboxEEGB[3];
dboxEEGB[0] = dboxCGB[0];
dboxEEGB[1] = dboxCGB[1];
dboxEEGB[2] = 0.33/2.;
// Create a G10 BOX
gMC->Gsvolu("EEGB","BOX", idtmed[607], dboxEEGB, 3);
//Stainless Steel Bounadry : EUM2 & EUV2
//==================================
// Make a 3.63cm thick Stainless Steel boundary for Unit module Short Type
// 3.63cm equivalent to EDGB(0.4cm)+EHC2(0.5cm)+EEGB(0.33cm)+FEE Board(2.4cm)
// X-dimension is EEGB + fgkSSBoundary
// Y-dimension is EEGB + fgkSSBoundary
// Z-dimension 1.23/2 + 2.4/2.
// FEE Boards are 2.4cm thick
// Integer assigned to Stainless Steel medium is 618
//------------------------------------------------------//
// A Stainless Steel Boundary Channel to house the unit module
// along with the FEE Boards
Float_t dboxSS2[3];
dboxSS2[0] = dboxCGB[0] + fgkSSBoundary;
dboxSS2[1] = dboxCGB[1] + fgkSSBoundary;
dboxSS2[2] = fgkThSS/2.+ 2.4/2.;
//PRESHOWER
//Stainless Steel boundary - Material Stainless Steel
gMC->Gsvolu("EUM2","BOX", idtmed[618], dboxSS2, 3);
//VETO
//Stainless Steel boundary - Material Stainless Steel
gMC->Gsvolu("EUV2","BOX", idtmed[618], dboxSS2, 3);
//----------------------------------------------------------------//
//NOW THE FEE BOARD IMPLEMENTATION
// To create the Mother volume to accomodate FEE boards
// It should have the dimension few mm smaller than the back plane
// But, we have taken it as big as EUM2 or EUV2
// It is to compensate the Stainless Steel medium of EUM2 or EUV2
// Create Mother volume of Air : SHORT TYPE
//------------------------------------------------------//
Float_t dboxFEEBPlaneB[3];
dboxFEEBPlaneB[0] = dboxSS2[0];
dboxFEEBPlaneB[1] = dboxSS2[1];
dboxFEEBPlaneB[2] = 2.4/2.;
//Volume of same dimension as EUM2 or EUV2 of Material AIR
gMC->Gsvolu("EFBB","BOX", idtmed[698], dboxFEEBPlaneB, 3);
// FEE Boards EFEE placed inside EFBB
yFee = dboxFEEBPlaneB[1] - yA -0.1 -0.3;
// 0.1cm and 0.3cm are subtracted to shift the FEE Boards on their actual positions
// As the positions are changed, because we have taken the dimension of EFBB equal
// to the dimension of EUM2 or EUV2
number = 1;
for (i = 1; i <= 3; ++i)
{
xFee = -dboxFEEBPlaneB[0] + xA + 0.1 +0.3;
//First we place the translator board
gMC->Gspos("EFEE", number, "EFBB", xFee,yFee,zFee, 0, "ONLY");
// The first FEE board is 11mm from the translator board
xFee+=1.1;
number+=1;
for (j = 1; j <= 12; ++j)
{
gMC->Gspos("EFEE", number, "EFBB", xFee,yFee,zFee, 0, "ONLY");
xFee += xSepa;
number += 1;
}
//Now we place Bridge Board
xFee = xFee - xSepa + 0.8 ;
//Bridge Board is at a distance 8mm from FEE board
gMC->Gspos("EFEE", number, "EFBB", xFee,yFee,zFee, 0, "ONLY");
number+=1;
xFee+=0.8;
for (j = 1; j <= 12; ++j)
{
gMC->Gspos("EFEE", number, "EFBB", xFee,yFee,zFee, 0, "ONLY");
xFee += xSepa;
number += 1;
}
yFee -= ySepa;
}
// Now Place EEGB, EDGB, EHC2 and EFBB in EUM2 & EUV2 to complete the unit module
// FOR PRE SHOWER
//- Placing of all components of UM in AIR BOX EUM2--//
//(1) FIRST PUT the G10 Box : EDGB
Float_t zedgb = -dboxSS2[2] + 0.4/2.;
gMC->Gspos("EDGB", 1, "EUM2", 0., 0., zedgb, 0, "ONLY");
//(2) NEXT PLACING the Honeycomb EHC2
Float_t zehc2 = zedgb + 0.4/2. + fgkCellDepth/2.;
gMC->Gspos("EHC2", 1, "EUM2", 0., 0., zehc2, 0, "ONLY");
//(3) NEXT PLACING the G10 Box : EEGB
Float_t zeegb = zehc2 + fgkCellDepth/2. + 0.33/2.;
gMC->Gspos("EEGB", 1, "EUM2", 0., 0., zeegb, 0, "ONLY");
//(4) NEXT PLACING FEE BOARDS : EFBB
Float_t zfeeboardB = zeegb + 0.33/2.+1.2;
gMC->Gspos("EFBB", 1, "EUM2", 0., 0., zfeeboardB, 0, "ONLY");
// FOR VETO
// Placing of all components of UM in AIR BOX EUV2 //
//(1) FIRST PUT the FEE BOARD : EUV2
zfeeboardB = -dboxSS2[2] + 1.2;
gMC->Gspos("EFBB", 1, "EUV2", 0., 0., zfeeboardB, 0, "ONLY");
//(2) FIRST PLACING the G10 Box : EEGB
zeegb = zfeeboardB + 1.2 + 0.33/2.;
gMC->Gspos("EEGB", 1, "EUV2", 0., 0., zeegb, 0, "ONLY");
//(3) NEXT PLACING the Honeycomb EHC2
zehc2 = zeegb + 0.33/2. + fgkCellDepth/2.;
gMC->Gspos("EHC2", 1, "EUV2", 0., 0., zehc2, 0, "ONLY");
//(4) NEXT PUT THE G10 Box : EDGB
zedgb = zehc2 + fgkCellDepth/2.+ 0.4/2.;
gMC->Gspos("EDGB", 1, "EUV2", 0., 0., zedgb, 0, "ONLY");
//===================================================================//
//---------------------- UM Type B completed ------------------------//
}
//_______________________________________________________________________
void AliPMDv1::CreatePMD()
{
// Create final detector from Unit Modules
// -- Author : Bedanga and Viyogi June 2003
Float_t zp = fgkZdist; //Z-distance of PMD from Interaction Point
Int_t jhrot12,jhrot13, irotdm;
Int_t *idtmed = fIdtmed->GetArray()-599;
AliMatrix(irotdm, 90., 0., 90., 90., 180., 0.);
AliMatrix(jhrot12, 90., 180., 90., 270., 0., 0.);
AliMatrix(jhrot13, 90., 240., 90., 330., 0., 0.);
// Now We Will Calculate Position Co-ordinates of EUM1 & EUV1 in EPM1 & EPM2
Float_t dbox1[3];
dbox1[0] = fgkCellRadius/fgkSqroot3by2;
dbox1[1] = fgkNrowUM1*fgkCellRadius;
dbox1[2] = fgkCellDepth/2.;
Float_t dbox3[3];
dbox3[0] = (dbox1[0]*fgkNcolUM1)-
(fgkCellRadius*fgkSqroot3*(fgkNcolUM1-1)/6.) + 0.15 + 0.05 + 0.05;
dbox3[1] = dbox1[1]+fgkCellRadius/2. + 0.15 + 0.05 + 0.05;
dbox3[2] = fgkCellDepth/2.;
Float_t dboxCGA[3];
dboxCGA[0] = dbox3[0] - 0.15;
dboxCGA[1] = dbox3[1] - 0.15;
dboxCGA[2] = 0.4/2.;
Float_t dboxSS1[3];
dboxSS1[0] = dboxCGA[0]+fgkSSBoundary;
dboxSS1[1] = dboxCGA[1]+fgkSSBoundary;
dboxSS1[2] = fgkThSS/2.;
Float_t dboxUM1[3];
dboxUM1[0] = dboxSS1[0];
dboxUM1[1] = dboxSS1[1];
dboxUM1[2] = fgkThSS/2. + 1.2;
Float_t dboxSM1[3];
dboxSM1[0] = fSMLengthax + 0.05; // 0.05cm for the ESC1,2
dboxSM1[1] = fSMLengthay;
dboxSM1[2] = dboxUM1[2];
// Position co-ordinates of the unit modules in EPM1 & EPM2
Float_t xa1,xa2,xa3,ya1,ya2;
xa1 = dboxSM1[0] - dboxUM1[0];
xa2 = xa1 - dboxUM1[0] - 0.1 - dboxUM1[0];
xa3 = xa2 - dboxUM1[0] - 0.1 - dboxUM1[0];
ya1 = dboxSM1[1] - 0.2 - dboxUM1[1];
ya2 = ya1 - dboxUM1[1] - 0.3 - dboxUM1[1];
// Next to Calculate Position Co-ordinates of EUM2 & EUV2 in EPM3 & EPM4
Float_t dbox2[3];
dbox2[1] = fgkNrowUM2*fgkCellRadius;
dbox2[0] = dbox1[0];
dbox2[2] = dbox1[2];
Float_t dbox4[3];
dbox4[0] =(dbox2[0]*fgkNcolUM2)-
(fgkCellRadius*fgkSqroot3*(fgkNcolUM2-1)/6.) + 0.15 + 0.05 + 0.05;
dbox4[1] = dbox2[1] + fgkCellRadius/2. + 0.15 + 0.05 + 0.05;
dbox4[2] = dbox3[2];
Float_t dboxCGB[3];
dboxCGB[0] = dbox4[0] - 0.15;
dboxCGB[1] = dbox4[1] - 0.15;
dboxCGB[2] = 0.4/2.;
Float_t dboxSS2[3];
dboxSS2[0] = dboxCGB[0] + fgkSSBoundary;
dboxSS2[1] = dboxCGB[1] + fgkSSBoundary;
dboxSS2[2] = fgkThSS/2.;
Float_t dboxUM2[3];
dboxUM2[0] = dboxSS2[0];
dboxUM2[1] = dboxSS2[1];
dboxUM2[2] = fgkThSS/2. + 2.4/2.; // 2.4 cm is added for FEE Board thickness
Float_t dboxSM2[3];
dboxSM2[0] = fSMLengthbx + 0.05; // 0.05cm for the ESC3,4
dboxSM2[1] = fSMLengthby;
dboxSM2[2] = dboxUM2[2];
// Position co-ordinates of the unit modules in EPM3 & EPM4
// Space is added to provide a gapping for HV between UM's
Float_t xb1,xb2,yb1,yb2,yb3;
xb1 = dboxSM2[0] - 0.1 - dboxUM2[0];
xb2 = xb1 - dboxUM2[0] - 0.1 - dboxUM2[0];
yb1 = dboxSM2[1] - 0.2 - dboxUM2[1];
yb2 = yb1 - dboxUM2[1] - 0.2 - dboxUM2[1];
yb3 = yb2 - dboxUM2[1] - 0.3- dboxUM2[1];
// Create Volumes for Lead(Pb) Plates
// Lead Plate For LONG TYPE
// X-dimension of Lead Plate = 3*(X-dimension of EUM1 or EUV1) + gap provided between unit modules
// Y-dimension of Lead Plate = 2*(Y-dimension of EUM1 or EUV1) + thickness of SS channels
// + tolerance
// Z-demension of Lead Plate = 1.5cm
// Integer assigned to Pb-medium is 600
Float_t dboxLeadA[3];
dboxLeadA[0] = fSMLengthax;
dboxLeadA[1] = fSMLengthay;
dboxLeadA[2] = fgkThLead/2.;
gMC->Gsvolu("ELDA","BOX", idtmed[600], dboxLeadA, 3);
//LEAD Plate For SHORT TYPE
// X-dimension of Lead Plate = 2*(X-dimension of EUM2 or EUV2) + gap provided between unit modules
// Y-dimension of Lead Plate = 3*(Y-dimension of EUM2 or EUV2) + thickness of SS channels
// + tolerance
// Z-demension of Lead Plate = 1.5cm
// Integer assigned to Pb-medium is 600
Float_t dboxLeadB[3];
dboxLeadB[0] = fSMLengthbx;
dboxLeadB[1] = fSMLengthby;
dboxLeadB[2] = fgkThLead/2.;
gMC->Gsvolu("ELDB","BOX", idtmed[600], dboxLeadB, 3);
//=========== CREATE MOTHER VOLUMES FOR PMD ===========================/
Float_t serviceX = 23.2;
Float_t serviceYa = 5.2;
Float_t serviceYb = 9.8;
Float_t serviceXext = 16.0;
// Five Mother Volumes of PMD are Created
// Two Volumes EPM1 & EPM2 of Long Type
// Other Two Volumes EPM3 & EPM4 for Short Type
// Fifth Volume EFGD for Girders and its Carriage
// Four Volmes EPM1, EPM2, EPM3 & EPM4 are Placed such that
// to create a hole and avoid overlap with Beam Pipe
// Create Volume FOR EPM1
// X-dimension = fSMLengthax + Extended Iron Support(23.2cm) +
// Extension in Module(16cm) for full coverage of Detector + 1mm thick SS-Plate
// Y-dimension = fSMLengthay + Extended Iron Support(5.2cm)
// Z-dimension = fSMthick/2.; fSMthick=17cm is full profile of PMD in Z-Side
// Note:- EPM1 is a Volume of Air
Float_t gaspmd1[3];
gaspmd1[0] = fSMLengthax + serviceX/2.+ serviceXext/2. + 0.05; //0.05cm for the thickness of
gaspmd1[1] = fSMLengthay + serviceYa/2.; //SS-plate for cooling encloser
gaspmd1[2] = fSMthick/2.;
gMC->Gsvolu("EPM1", "BOX", idtmed[698], gaspmd1, 3);
// Create Volume FOR EPM2
// X-dimension = fSMLengthax + Extended Iron Support(23.2cm) +
// Extension in Module(16cm) for full coverage of Detector + 1mm thick SS-Plate
// Y-dimension = fSMLengthay + Extended Iron Support(9.8cm)
// Z-dimension = fSMthick/2.; fSMthick=17cm is full profile of PMD in Z-Side
// Note:- EPM2 is a Volume of Air
Float_t gaspmd2[3];
gaspmd2[0] = fSMLengthax + serviceX/2. + serviceXext/2. + 0.05; //0.05cm for the thickness of
gaspmd2[1] = fSMLengthay + serviceYb/2.; //SS-plate for cooling encloser
gaspmd2[2] = fSMthick/2.;
gMC->Gsvolu("EPM2", "BOX", idtmed[698], gaspmd2, 3);
// Create Volume FOR EPM3
// X-dimension = fSMLengthbx + Extended Iron Support(23.2cm) +
// Extension in Module(16cm) for full coverage of Detector
// Y-dimension = fSMLengthby + Extended Iron Support(5.2cm)
// Z-dimension = fSMthick/2.; fSMthick=17cm is full profile of PMD in Z-Side
// Note:- EPM3 is a Volume of Air
Float_t gaspmd3[3];
gaspmd3[0] = fSMLengthbx + serviceX/2. + serviceXext/2.+ 0.05; //0.05cm for the thickness of
gaspmd3[1] = fSMLengthby + serviceYa/2.; //SS-plate for cooling encloser
gaspmd3[2] = fSMthick/2.;
gMC->Gsvolu("EPM3", "BOX", idtmed[698], gaspmd3, 3);
// Create Volume FOR EPM4
// X-dimension = fSMLengthbx + Extended Iron Support(23.2cm) +
// Extension in Module(16cm) for full coverage of Detector
// Y-dimension = fSMLengthby + Extended Iron Support(9.8cm)
// Z-dimension = fSMthick/2.; fSMthick=17cm is full profile of PMD in Z-Side
// Note:- EPM4 is a Volume of Air
Float_t gaspmd4[3];
gaspmd4[0] = fSMLengthbx + serviceX/2. + serviceXext/2.+ 0.05; //0.05cm for the thickness of
gaspmd4[1] = fSMLengthby + serviceYb/2.; //SS-plate for cooling encloser
gaspmd4[2] = fSMthick/2.;
gMC->Gsvolu("EPM4", "BOX", idtmed[698], gaspmd4, 3);
// Create the Fifth Mother Volume of Girders and its Carriage
//-------------------------------------------------------------//
// Create the Girders
// X-dimension = 238.7cm
// Y-dimension = 12.0cm
// Z-dimension = 7.0cm
// Girders are the Volume of Iron
// And the Integer Assigned to SS is 618
Float_t grdr[3];
grdr[0] = 238.7/2.;
grdr[1] = 12.0/2.;
grdr[2] = 7.0/2.;
gMC->Gsvolu("EGDR", "BOX", idtmed[618], grdr, 3);
// Create Air Strip for Girders as the Girders are hollow
// Girders are 1cm thick in Y and Z on both sides
Float_t airgrdr[3];
airgrdr[0] = grdr[0];
airgrdr[1] = grdr[1] - 1.0;
airgrdr[2] = grdr[2] - 1.0;
gMC->Gsvolu("EAIR", "BOX", idtmed[698], airgrdr, 3);
// Positioning the air strip EAIR in girder EGDR
gMC->Gspos("EAIR", 1, "EGDR", 0., 0., 0., 0, "ONLY");
// Create the Carriage for Girders
// Originally, Carriage is divided in two parts
// 64.6cm on -X side, 44.2cm on +X side and 8.2cm is the gap between two
// In approximation we have taken these together as a single Volume
// With X = 64.6cm + 44.2cm + 8.2cm
// Y-dimension = 4.7cm
// Z-dimension = 18.5cm
// Carriage is a Volume of SS
Float_t xgrdr[3];
xgrdr[0] = (64.6 + 44.2 + 8.2)/2.;
xgrdr[1] = 4.7/2.;
xgrdr[2] = 18.5/2.;
gMC->Gsvolu("EXGD", "BOX", idtmed[618], xgrdr, 3);
// Create Air Strip for the Carriage EXGD as it is hollow
// Carriage is 1cm thick in Y on one side and in Z on both sides
Float_t xairgrdr[3];
xairgrdr[0] = xgrdr[0];
xairgrdr[1] = xgrdr[1] - 0.5;
xairgrdr[2] = xgrdr[2] - 1.0;
gMC->Gsvolu("EXIR", "BOX", idtmed[698], xairgrdr, 3);
// Positioning the air strip EXIR in CArriage EXGD
gMC->Gspos("EXIR", 1, "EXGD", 0., -0.05, 0., 0, "ONLY");
// Now Create the master volume of air containing Girders & Carriage
// X-dimension = same as X-dimension of Girders(EGDR)
// Y-dimension = Y of Girder(EGDR) + Y of Carriage(EXGD) + gap between two
// Z-dimenson = same as Z of Carriage(EXGD)
// Note:- It is a volume of Air
Float_t fulgrdr[3];
fulgrdr[0] = 238.7/2.;
fulgrdr[1] = 17.5/2.;
fulgrdr[2] = 18.5/2.;
gMC->Gsvolu("EFGD", "BOX", idtmed[698], fulgrdr, 3);
// Positioning the EGDR and EXGD in EFGD
gMC->Gspos("EXGD", 1, "EFGD", 0., 6.4, 0., 0, "ONLY");
gMC->Gspos("EGDR", 1, "EFGD", 0., -2.75, -5.75, 0, "ONLY");
gMC->Gspos("EGDR", 2, "EFGD", 0., -2.75, 5.75, 0, "ONLY");
//=========== Mother Volumes are Created ============================//
// Create the Volume of 1mm thick SS-Plate for cooling encloser
// These are placed on the side close to the Beam Pipe
// SS-Plate is perpendicular to the plane of Detector
// For LONG TYPE
// For EPM1
// X-dimension = 0.1cm
// Y-dimension = same as Y of EPM1
// Z-dimension = Y of EPM1 - 0.1; 0.1cm is subtracted as 1mm thick
// FR4 sheets for the detector encloser placed on both sides
// It is a Volume of SS
// Integer assigned to SS is 618
Float_t sscoolencl1[3];
sscoolencl1[0] = 0.05;
sscoolencl1[1] = gaspmd1[1];
sscoolencl1[2] = gaspmd1[2] - 0.2/2.;
gMC->Gsvolu("ESC1", "BOX", idtmed[618], sscoolencl1, 3);
// Placement of ESC1 in EPM1
gMC->Gspos("ESC1", 1, "EPM1", -gaspmd1[0] + 0.05, 0., 0., 0, "ONLY");
// For EPM2
// X-dimension = 0.1cm
// Y-dimension = same as Y of EPM2
// Z-dimension = Y of EPM2 - 0.1; 0.1cm is subtracted as 1mm thick
// FR4 sheets for the detector encloser placed on both sides
// It is a Volume of SS
Float_t sscoolencl2[3];
sscoolencl2[0] = 0.05;
sscoolencl2[1] = gaspmd2[1];
sscoolencl2[2] = gaspmd2[2] - 0.2/2.;
gMC->Gsvolu("ESC2", "BOX", idtmed[618], sscoolencl2, 3);
// Placement of ESC2 in EPM2
gMC->Gspos("ESC2", 1, "EPM2", gaspmd2[0] - 0.05 , 0., 0., 0, "ONLY");
// For SHORT TYPE
// For EPM3
// X-dimension = 0.1cm
// Y-dimension = same as Y of EPM3
// Z-dimension = Y of EPM3 - 0.1; 0.1cm is subtracted as 1mm thick
// FR4 sheets for the detector encloser placed on both sides
// It is a Volume of SS
Float_t sscoolencl3[3];
sscoolencl3[0] = 0.05;
sscoolencl3[1] = gaspmd3[1];
sscoolencl3[2] = gaspmd3[2] - 0.2/2.;
gMC->Gsvolu("ESC3", "BOX", idtmed[618], sscoolencl3, 3);
// Placement of ESC3 in EPM3
gMC->Gspos("ESC3", 1, "EPM3", gaspmd3[0] - 0.05 , 0., 0., 0, "ONLY");
// For EPM4
// X-dimension = 0.1cm
// Y-dimension = same as Y of EPM4
// Z-dimension = Y of EPM4 - 0.1; 0.1cm is subtracted as 1mm thick
// FR4 sheets for the detector encloser placed on both sides
// It is a Volume of SS
Float_t sscoolencl4[3];
sscoolencl4[0] = 0.05;
sscoolencl4[1] = gaspmd4[1];
sscoolencl4[2] = gaspmd4[2] - 0.2/2.;
gMC->Gsvolu("ESC4", "BOX", idtmed[618], sscoolencl4, 3);
// Placement of ESC4 in EPM4
gMC->Gspos("ESC4", 1, "EPM4", -gaspmd4[0] + 0.05 , 0., 0., 0, "ONLY");
//======== CREATE SS SUPPORTS FOR EPM1, EPM2, EPM3 & EPM4 =========//
// --- DEFINE SS volumes for EPM1 & EPM2 ---
// Create SS Support For EPM1
// X-dimension = fSMLengthax + Extended Iron Support(23.2cm)
// Y-dimension = fSMLengthay + Extended Iron Support(5.2cm)
// Z-dimension = thickness of Iron support(0.5cm)
// It is a Volume of SS
// Integer assigned to SS is 618
Float_t dboxFea1[3];
dboxFea1[0] = fSMLengthax + serviceX/2.;
dboxFea1[1] = fSMLengthay + serviceYa/2.;
dboxFea1[2] = fgkThSteel/2.;
gMC->Gsvolu("EFE1","BOX", idtmed[618], dboxFea1, 3);
// Create SS Support For EPM2
// X-dimension = fSMLengthax + Extended Iron Support(23.2cm)
// Y-dimension = fSMLengthay + Extended Iron Support(9.8cm)
// Z-dimension = thickness of Iron support(0.5cm)
// It is a Volume of SS
// Integer assigned to SS is 618
Float_t dboxFea2[3];
dboxFea2[0] = fSMLengthax + serviceX/2.;
dboxFea2[1] = fSMLengthay + serviceYb/2.;
dboxFea2[2] = fgkThSteel/2.;
gMC->Gsvolu("EFE2","BOX", idtmed[618], dboxFea2, 3);
// Create SS Support For EPM3
// X-dimension = fSMLengthbx + Extended Iron Support(23.2cm)
// Y-dimension = fSMLengthby + Extended Iron Support(5.2cm)
// Z-dimension = thickness of Iron support(0.5cm)
// It is a Volume of SS
// Integer assigned to SS is 618
Float_t dboxFea3[3];
dboxFea3[0] = fSMLengthbx + serviceX/2.;
dboxFea3[1] = fSMLengthby + serviceYa/2.;
dboxFea3[2] = fgkThSteel/2.;
gMC->Gsvolu("EFE3","BOX", idtmed[618], dboxFea3, 3);
// Create SS Support For EPM4
// X-dimension = fSMLengthbx + Extended Iron Support(23.2cm)
// Y-dimension = fSMLengthby + Extended Iron Support(9.8cm)
// Z-dimension = thickness of Iron support(0.5cm)
// It is a Volume of SS
// Integer assigned to SS is 618
Float_t dboxFea4[3];
dboxFea4[0] = fSMLengthbx + serviceX/2.;
dboxFea4[1] = fSMLengthby + serviceYb/2.;
dboxFea4[2] = fgkThSteel/2.;
gMC->Gsvolu("EFE4","BOX", idtmed[618], dboxFea4, 3);
//=============== Volumes for SS support are Completed =============//
// Create FR4 Sheets to enclose the PMD which are Placed parallel to the
// plane of the detector. Four FR4 sheets are created with the dimensions
// corresponding to the Iron Supports
// This is cooling encloser.
// Create FR4 sheet ECC1
// X-dimension = same as EFE1
// Y-dimension = same as EFE1
// Z-dimension = 0.1cm
// FR4 medium is same as that of G10
// Integer assigned to FR4 medium is 607
Float_t enclos1[3];
enclos1[0] = dboxFea1[0];
enclos1[1] = dboxFea1[1];
enclos1[2] = 0.05;
gMC->Gsvolu("ECC1", "BOX", idtmed[607], enclos1, 3);
// Create FR4 sheet ECC2
// X-dimension = same as EFE2
// Y-dimension = same as EFE2
// Z-dimension = 0.1cm
Float_t enclos2[3];
enclos2[0] = dboxFea2[0];
enclos2[1] = dboxFea2[1];
enclos2[2] = 0.05;
gMC->Gsvolu("ECC2", "BOX", idtmed[607], enclos2, 3);
// Create FR4 sheet ECC3
// X-dimension = same as EFE3
// Y-dimension = same as EFE3
// Z-dimension = 0.1cm
Float_t enclos3[3];
enclos3[0] = dboxFea3[0];
enclos3[1] = dboxFea3[1];
enclos3[2] = 0.05;
gMC->Gsvolu("ECC3", "BOX", idtmed[607], enclos3, 3);
// Create FR4 sheet ECC4
// X-dimension = same as EFE4
// Y-dimension = same as EFE4
// Z-dimension = 0.1cm
Float_t enclos4[3];
enclos4[0] = dboxFea4[0];
enclos4[1] = dboxFea4[1];
enclos4[2] = 0.05;
gMC->Gsvolu("ECC4", "BOX", idtmed[607], enclos4, 3);
//--------------- FR4 SHEETS COMPLETED ---------------------------//
//------------- Create the SS-Channels(Horizontal Rails) to Place
// Unit Modules on SS Support -------------------------------------//
// Two types of SS-Channels are created
// as we have two types of modules
// Create SS-channel for Long Type
// X-dimension = same as Lead Plate ELDA
// Y-dimension = 0.1cm
// Z-dimension = 2.0cm
// Volume medium is SS
Float_t channel12[3];
channel12[0] = fSMLengthax;
channel12[1] = 0.05;
channel12[2] = 2.0/2.;
gMC->Gsvolu("ECHA", "BOX", idtmed[618], channel12, 3);
// Create SS-channel for Short Type
// X-dimension = same as Lead Plate ELDB
// Y-dimension = 0.1cm
// Z-dimension = 2.0cm
// Volume medium is SS
Float_t channel34[3];
channel34[0] = fSMLengthbx;
channel34[1] = 0.05;
channel34[2] = 2.0/2.;
gMC->Gsvolu("ECHB", "BOX", idtmed[618], channel34, 3);
//----------------- SS-Channels are Copmleted --------------------//
//========= POSITIONING OF SS SUPPORT AND LEAD PLATES IN QUADRANTS =====//
/**************** Z-Distances of different Components **********/
Float_t zcva,zfea,zpba,zpsa,zchanVeto,zchanPS, zelvdbVeto, zelvdbPS;
zpba = - fgkThSteel/2.; //z-position of Pb plate
zfea = fgkThLead/2.; //z-position of SS-Support
zchanVeto = zpba - fgkThLead/2. - channel12[2]; //z-position of SS-channel on Veto
zchanPS = zfea + fgkThSteel/2. + channel12[2]; //z-position of SS-channel on Preshower
zpsa = zfea + fgkThSteel/2. + fDthick; //z-position of Preshower
zcva = zpba - fgkThLead/2.- fDthick; //z-position of Veto
zelvdbVeto = zpba + fgkThLead/2. - 8.9/2.; //z-position of LVDBs on Veto side
zelvdbPS = zfea + fgkThSteel/2. + 7.4/2.; //z-position of LVDBs on Preshower side
// FOR LONG TYPE
Float_t xLead1,yLead1,zLead1, xLead2,yLead2,zLead2;
Float_t xIron1,yIron1,zIron1, xIron2,yIron2,zIron2;
xIron1 = - 16.0/2. + 0.1/2.; // half of 0.1cm is added as 1mm SS sheet is placed
yIron1 = 0.;
zIron1 = zfea;
xIron2 = 16.0/2. - 0.1/2.; // half of 0.1cm is added as 1mm SS sheet is placed
yIron2 = 0.;
zIron2 = zfea;
xLead1 = xIron1 - 23.2/2.;
yLead1 = -5.2/2.;
zLead1 = zpba;
xLead2 =xIron2 + 23.2/2.;
yLead2 = 9.8/2.;
zLead2 = zpba;
gMC->Gspos("EFE1", 1, "EPM1", xIron1, yIron1, zfea, 0, "ONLY");
gMC->Gspos("ELDA", 1, "EPM1", xLead1, yLead1, zpba, 0, "ONLY");
gMC->Gspos("EFE2", 1, "EPM2", xIron2, yIron2, zfea, 0, "ONLY");
gMC->Gspos("ELDA", 1, "EPM2", xLead2, yLead2, zpba, jhrot12, "ONLY");
// FOR SHORT TYPE
Float_t xLead3,yLead3,zLead3, xLead4,yLead4,zLead4;
Float_t xIron3,yIron3,zIron3, xIron4,yIron4,zIron4;
xIron3 = 16.0/2.- 0.1/2.; // half of 0.1cm is added as 1mm SS sheet is placed ;
yIron3 = 0.;
zIron3 = zfea;
xIron4 = - 16.0/2.+ 0.1/2.; // half of 0.1cm is added as 1mm SS sheet is placed;
yIron4 = 0.;
zIron4 = zfea;
xLead3 = xIron3 + 23.2/2.;
yLead3 = -5.2/2.;
zLead3 = zpba;
xLead4 = xIron4 - 23.2/2.;
yLead4 = 9.8/2.;
zLead4 = zpba;
gMC->Gspos("EFE3", 1, "EPM3", xIron3, yIron3, zfea, 0, "ONLY");
gMC->Gspos("ELDB", 1, "EPM3", xLead3, yLead3, zpba, 0, "ONLY");
gMC->Gspos("EFE4", 1, "EPM4", xIron4, yIron4, zfea, 0, "ONLY");
gMC->Gspos("ELDB", 1, "EPM4", xLead4, yLead4, zpba, jhrot12, "ONLY");
//===================================================================//
// Placement of FR4 sheets as encloser of full profile of PMD
gMC->Gspos("ECC1", 1, "EPM1", xIron1, yIron1, -8.45, 0, "ONLY");
gMC->Gspos("ECC2", 1, "EPM2", xIron2, yIron2, -8.45, 0,"ONLY");
gMC->Gspos("ECC3", 1, "EPM3", xIron3, yIron3, -8.45, 0,"ONLY");
gMC->Gspos("ECC4", 1, "EPM4", xIron4, yIron4, -8.45, 0,"ONLY");
gMC->Gspos("ECC1", 2, "EPM1", xIron1, yIron1, 8.45, 0, "ONLY");
gMC->Gspos("ECC2", 2, "EPM2", xIron2, yIron2, 8.45, 0,"ONLY");
gMC->Gspos("ECC3", 2, "EPM3", xIron3, yIron3, 8.45, 0,"ONLY");
gMC->Gspos("ECC4", 2, "EPM4", xIron4, yIron4, 8.45, 0,"ONLY");
//----------------- NOW TO PLACE SS-CHANNELS -----------------------//
Float_t xchanepm11, ychanepm11,ychanepm12;
Float_t xchanepm21, ychanepm21,ychanepm22;
Float_t xchanepm31, ychanepm31,ychanepm32,ychanepm33,ychanepm34;
Float_t xchanepm41, ychanepm41,ychanepm42,ychanepm43,ychanepm44;
xchanepm11 = xLead1;
ychanepm11 = ya1 + yLead1 + dboxSS1[1] + 0.1 + 0.1/2.;
ychanepm12 = ya1 + yLead1 - dboxSS1[1] - 0.1 - 0.1/2.;
xchanepm21 = xLead2;
ychanepm21 = -ya1 + yLead2 - dboxSS1[1] - 0.1 - 0.1/2.;
ychanepm22 = -ya1 + yLead2 + dboxSS1[1] + 0.1 + 0.1/2.;
gMC->Gspos("ECHA", 1, "EPM1", xchanepm11, ychanepm11, zchanPS, 0, "ONLY");
gMC->Gspos("ECHA", 2, "EPM1", xchanepm11, ychanepm12, zchanPS, 0, "ONLY");
gMC->Gspos("ECHA", 3, "EPM1", xchanepm11, ychanepm11, zchanVeto, 0, "ONLY");
gMC->Gspos("ECHA", 4, "EPM1", xchanepm11, ychanepm12, zchanVeto, 0, "ONLY");
gMC->Gspos("ECHA", 1, "EPM2", xchanepm21, ychanepm21, zchanPS, 0, "ONLY");
gMC->Gspos("ECHA", 2, "EPM2", xchanepm21, ychanepm22, zchanPS, 0, "ONLY");
gMC->Gspos("ECHA", 3, "EPM2", xchanepm21, ychanepm21, zchanVeto, 0, "ONLY");
gMC->Gspos("ECHA", 4, "EPM2", xchanepm21, ychanepm22, zchanVeto, 0, "ONLY");
xchanepm31 = xLead3;
ychanepm31 = yb1 + yLead3 + dboxSS2[1] + 0.1 + 0.1/2.;
ychanepm32 = yb1 + yLead3 - dboxSS2[1] - 0.1 - 0.1/2.;
ychanepm33 = yb3 + yLead3 + dboxSS2[1] + 0.1 + 0.1/2.;
ychanepm34 = yb3 + yLead3 - dboxSS2[1] - 0.1 - 0.1/2.;
xchanepm41 = xLead4;
ychanepm41 = -yb1 + yLead4 - dboxSS2[1] - 0.1 - 0.1/2.;
ychanepm42 = -yb1 + yLead4 + dboxSS2[1] + 0.1 + 0.1/2.;
ychanepm43 = -yb3 + yLead4 - dboxSS2[1] - 0.1 - 0.1/2.;
ychanepm44 = -yb3 + yLead4 + dboxSS2[1] + 0.1 + 0.1/2.;
gMC->Gspos("ECHB", 1, "EPM3", xchanepm31, ychanepm31, zchanPS, 0, "ONLY");
gMC->Gspos("ECHB", 2, "EPM3", xchanepm31, ychanepm32, zchanPS, 0, "ONLY");
gMC->Gspos("ECHB", 3, "EPM3", xchanepm31, ychanepm33, zchanPS, 0, "ONLY");
gMC->Gspos("ECHB", 4, "EPM3", xchanepm31, ychanepm34 + 0.200005, zchanPS, 0, "ONLY");
// Because of overlaping a factor 0.200005 is added in ychanepm34
gMC->Gspos("ECHB", 5, "EPM3", xchanepm31, ychanepm31, zchanVeto, 0, "ONLY");
gMC->Gspos("ECHB", 6, "EPM3", xchanepm31, ychanepm32, zchanVeto, 0, "ONLY");
gMC->Gspos("ECHB", 7, "EPM3", xchanepm31, ychanepm33, zchanVeto, 0, "ONLY");
gMC->Gspos("ECHB", 8, "EPM3", xchanepm31, ychanepm34 + 0.200005, zchanVeto, 0, "ONLY");
// Because of overlaping a factor 0.200005 is added in ychanepm34
gMC->Gspos("ECHB", 1, "EPM4", xchanepm41, ychanepm41, zchanPS, 0, "ONLY");
gMC->Gspos("ECHB", 2, "EPM4", xchanepm41, ychanepm42, zchanPS, 0, "ONLY");
gMC->Gspos("ECHB", 3, "EPM4", xchanepm41, ychanepm43, zchanPS, 0, "ONLY");
gMC->Gspos("ECHB", 4, "EPM4", xchanepm41, ychanepm44 - 0.200002, zchanPS, 0, "ONLY");
// Because of overlaping a factor 0.200002 is subtracted in ychanepm44
gMC->Gspos("ECHB", 5, "EPM4", xchanepm41, ychanepm41, zchanVeto, 0, "ONLY");
gMC->Gspos("ECHB", 6, "EPM4", xchanepm41, ychanepm42, zchanVeto, 0, "ONLY");
gMC->Gspos("ECHB", 7, "EPM4", xchanepm41, ychanepm43, zchanVeto, 0, "ONLY");
gMC->Gspos("ECHB", 8, "EPM4", xchanepm41, ychanepm44 -0.200002, zchanVeto, 0, "ONLY");
// Because of overlaping a factor 0.200002 is subtracted in ychanepm44
//================= Channel Placement Completed ======================//
//============ Now to Create Al Box and then LVDBs and Cables //
// are Placed inside it //
// Eight Al Boxes are created, four on Preshower side
// and four on Veto side
// FOR PRESHOWER
// First to Create hollow Al Box
// there are two types of modules, therefore, two Al box of
// long type and two of short type are created
// For Long Type
// X-dimension = 16.5cm
// Y-dimension = same as EFE1
// Z-dimension = 7.4cm
// Integer assigned to Al medium is 603
Float_t esvdA1[3];
esvdA1[0]= 16.5/2.;
esvdA1[1]= dboxFea1[1];
esvdA1[2]= 7.4/2.;
gMC->Gsvolu("ESV1", "BOX", idtmed[603], esvdA1, 3);
gMC->Gsvolu("ESV2", "BOX", idtmed[603], esvdA1, 3);
// Create Air strip for Al Boxes type-A
// Al boxes are 3mm thick In X and Z on both sides
// X-dimension = 16.5cm - 0.3cm
// Y-dimension = same as EFE1
// Z-dimension = 7.4cm - 0.3cm
Float_t eairA1[3];
eairA1[0]= esvdA1[0] - 0.3;
eairA1[1]= esvdA1[1];
eairA1[2]= esvdA1[2] - 0.3;
gMC->Gsvolu("EIR1", "BOX", idtmed[698], eairA1, 3);
gMC->Gsvolu("EIR2", "BOX", idtmed[698], eairA1, 3);
// Put air strips EIR1 & EIR2 inside ESV1 & ESV2 respectively
gMC->Gspos("EIR1", 1, "ESV1", 0., 0., 0., 0, "ONLY");
gMC->Gspos("EIR2", 1, "ESV2", 0., 0., 0., 0, "ONLY");
// For Short Type
// X-dimension = 16.5cm
// Y-dimension = same as EFE3
// Z-dimension = 7.4cm
Float_t esvdA2[3];
esvdA2[0]= esvdA1[0];
esvdA2[1]= dboxFea3[1];
esvdA2[2]= esvdA1[2];
gMC->Gsvolu("ESV3", "BOX", idtmed[603], esvdA2, 3);
gMC->Gsvolu("ESV4", "BOX", idtmed[603], esvdA2, 3);
// Create Air strip for Al Boxes type-B
// Al boxes are 3mm thick In X and Z on both sides
// X-dimension = 16.5cm - 0.3cm
// Y-dimension = same as EFE3
// Z-dimension = 7.4cm - 0.3cm
Float_t eairA2[3];
eairA2[0]= esvdA2[0] - 0.3;
eairA2[1]= esvdA2[1];
eairA2[2]= esvdA2[2] - 0.3;
gMC->Gsvolu("EIR3", "BOX", idtmed[698], eairA2, 3);
gMC->Gsvolu("EIR4", "BOX", idtmed[698], eairA2, 3);
// Put air strips EIR3 & EIR4 inside ESV3 & ESV4 respectively
gMC->Gspos("EIR3", 1, "ESV3", 0., 0., 0., 0, "ONLY");
gMC->Gspos("EIR4", 1, "ESV4", 0., 0., 0., 0, "ONLY");
// FOR VETO
// First to Create hollow Al Box
// there are two types of modules, therefore, two Al box of
// long type and two of short type are created
// For Long Type
// X-dimension = 16.5cm
// Y-dimension = same as EFE1
// Z-dimension = 8.9cm
// Integer assigned to Al medium is 603
Float_t esvdB1[3];
esvdB1[0]= 16.5/2.;
esvdB1[1]= dboxFea1[1];
esvdB1[2]= 8.9/2.;
gMC->Gsvolu("EVV1", "BOX", idtmed[603], esvdB1, 3);
gMC->Gsvolu("EVV2", "BOX", idtmed[603], esvdB1, 3);
// Create Air strip for Al Boxes long type
// Al boxes are 3mm thick In X and Z on both sides
// X-dimension = 16.5cm - 0.3cm
// Y-dimension = same as EFE1
// Z-dimension = 8.9cm - 0.3cm
Float_t eairB1[3];
eairB1[0]= esvdB1[0] - 0.3;
eairB1[1]= esvdB1[1];
eairB1[2]= esvdB1[2] - 0.3;
gMC->Gsvolu("EIR5", "BOX", idtmed[698], eairB1, 3);
gMC->Gsvolu("EIR6", "BOX", idtmed[698], eairB1, 3);
// Put air strips EIR5 & EIR6 inside EVV1 & EVV2 respectively
gMC->Gspos("EIR5", 1, "EVV1", 0., 0., 0., 0, "ONLY");
gMC->Gspos("EIR6", 1, "EVV2", 0., 0., 0., 0, "ONLY");
// For Short Type
// X-dimension = 16.5cm
// Y-dimension = same as EFE3
// Z-dimension = 8.9cm
// Integer assigned to Al medium is 603
Float_t esvdB2[3];
esvdB2[0]= esvdB1[0];
esvdB2[1]= dboxFea3[1];
esvdB2[2]= esvdB1[2];
gMC->Gsvolu("EVV3", "BOX", idtmed[603], esvdB2, 3);
gMC->Gsvolu("EVV4", "BOX", idtmed[603], esvdB2, 3);
// Create Air strip for Al Boxes short type
// Al boxes are 3mm thick In X and Z on both sides
// X-dimension = 16.5cm - 0.3cm
// Y-dimension = same as EFE3
// Z-dimension = 8.9cm - 0.3cm
Float_t eairB2[3];
eairB2[0]= esvdB2[0] - 0.3;
eairB2[1]= esvdB2[1];
eairB2[2]= esvdB2[2] - 0.3;
gMC->Gsvolu("EIR7", "BOX", idtmed[698], eairB2, 3);
gMC->Gsvolu("EIR8", "BOX", idtmed[698], eairB2, 3);
// Put air strips EIR7 & EIR8 inside EVV3 & EVV4 respectively
gMC->Gspos("EIR7", 1, "EVV3", 0., 0., 0., 0, "ONLY");
gMC->Gspos("EIR8", 1, "EVV4", 0., 0., 0., 0, "ONLY");
//------------ Al Boxes Completed ----------------------/
//--------------Now Create LVDBs----------------------/
// LVDBs are the volumes of G10
// X-dimension = 10.0cm
// Y-dimension = 8.0cm
// Z-dimension = 0.2cm
// Integer assigned to the G10 medium is 607
Float_t elvdb[3];
elvdb[0]= 10.0/2.;
elvdb[1]= 8.0/2.;
elvdb[2]= 0.2/2.;
gMC->Gsvolu("ELVD", "BOX", idtmed[607], elvdb, 3);
// Put the LVDBs inside Air Boxes
Float_t yesvd = dboxFea1[1] - 25.0 - 4.0;
for(Int_t jj =1; jj<=6; jj++){
gMC->Gspos("ELVD", jj, "EIR1", 0., yesvd, 0., 0, "ONLY");
gMC->Gspos("ELVD", jj, "EIR2", 0., yesvd, 0., 0, "ONLY");
yesvd = yesvd - 4.0 - 0.5 - 4.0;
}
yesvd = dboxFea3[1] - 15.0 - 4.0;
for(Int_t jj =1; jj<=6; jj++){
gMC->Gspos("ELVD", jj, "EIR3", 0., yesvd, 0., 0, "ONLY");
gMC->Gspos("ELVD", jj, "EIR4", 0., yesvd, 0., 0, "ONLY");
yesvd = yesvd - 4.0 - 0.5 - 4.0;
}
yesvd = dboxFea1[1] - 25.0 - 4.0;
for(Int_t jj =1; jj<=6; jj++){
gMC->Gspos("ELVD", jj, "EIR5", 0., yesvd, 0., 0, "ONLY");
gMC->Gspos("ELVD", jj, "EIR6", 0., yesvd, 0., 0, "ONLY");
yesvd = yesvd - 4.0 - 0.5 - 4.0;
}
yesvd = dboxFea3[1] - 15.0 - 4.0;
for(Int_t jj =1; jj<=6; jj++){
gMC->Gspos("ELVD", jj, "EIR7", 0., yesvd, 0., 0, "ONLY");
gMC->Gspos("ELVD", jj, "EIR8", 0., yesvd, 0., 0, "ONLY");
yesvd = yesvd - 4.0 - 0.5 - 4.0;
}
//----------------- LVDBs Placement Completed--------------//
// ------------ Now Create Cables ------------------------//
// There are a number of cables
// We have reduced the number of volumes to 4
// And these 4 Volumes of Cables are placed repeatedly
// in the four quadrants (EPM1,2,3,4)
// The placement of Cables are in good approximations
// The material medium for Cables is a mixture of Plastic
// and Copper(Cu). Therefore, in a good approximation a mixture
// is created and Integer assigned to this medium is 631
Float_t cable1[3];
cable1[0] = 2.5/2.;
cable1[1] = dboxFea1[1];
cable1[2] = 2.4/2.;
gMC->Gsvolu("ECB1", "BOX", idtmed[631], cable1, 3);
Float_t cable2[3];
cable2[0] = 2.5/2.;
cable2[1] = dboxFea3[1];
cable2[2] = 2.4/2.;
gMC->Gsvolu("ECB2", "BOX", idtmed[631], cable2, 3);
Float_t cable3[3];
cable3[0] = 2.5/2.;
cable3[1] = dboxFea3[1] - dboxUM2[1];
cable3[2] = 2.4/2.;
gMC->Gsvolu("ECB3", "BOX", idtmed[631], cable3, 3);
Float_t cable4[3];
cable4[0] = 2.5/2.;
cable4[1] = dboxUM2[1];
cable4[2] = 2.4/2.;
gMC->Gsvolu("ECB4", "BOX", idtmed[631], cable4, 3);
// Calculation of the co-ordinates of Cables
Float_t xcable11pm2, xcable12pm2, xcable2pm1, xcable2pm2, xcable21pm4, xcable22pm4;
Float_t xcable3pm1, xcable3pm3, xcable3pm4, xcable4pm3;
Float_t ycable2pm1, ycable2pm2;
Float_t ycable3pm1, ycable3pm3, ycable3pm4, ycable4pm3;
Float_t zcablePS, zcableVeto;
xcable2pm1 = esvdA1[0] - 3.0 - cable1[0];
xcable3pm1 = xcable2pm1 - cable1[0] - 0.5 - cable1[0];
xcable11pm2 = -esvdA1[0]+ 3.0 + cable1[0];
xcable12pm2 = xcable11pm2 + cable1[0] + 0.5 + cable1[0];
xcable2pm2 = xcable12pm2 + cable1[0] + 0.5 + cable1[0];
xcable3pm3 = -esvdB1[0] + 3.0 + cable1[0];
xcable4pm3 = xcable3pm3 + cable1[0] + 0.5 + cable1[0];
xcable21pm4 = esvdB1[0] - 3.0 - cable1[0];
xcable22pm4 = xcable21pm4 - cable1[0] -0.5 - cable1[0];
xcable3pm4 = xcable22pm4 - cable1[0] -0.5 -cable1[0];
ycable2pm1 = -(esvdA1[1] - esvdA2[1]);
ycable3pm1 = -esvdA1[1] + cable3[1];
ycable2pm2 = -(esvdA1[1] - esvdA2[1]);
ycable3pm3 = -dboxUM2[1];
ycable4pm3 = -esvdA2[1] + dboxUM2[1];
ycable3pm4 = -dboxUM2[1];
zcablePS = -esvdA1[2] + 0.3 + cable1[2];
zcableVeto = esvdB1[2] - 0.3 - cable1[2];
// Placement of Cables in Air Boxes
gMC->Gspos("ECB2", 1, "EIR1", xcable2pm1, ycable2pm1, zcablePS, 0, "ONLY");
gMC->Gspos("ECB3", 1, "EIR1", xcable3pm1, ycable3pm1, zcablePS, 0, "ONLY");
gMC->Gspos("ECB2", 1, "EIR5", xcable2pm1, ycable2pm1, zcableVeto, 0, "ONLY");
gMC->Gspos("ECB3", 1, "EIR5", xcable3pm1, ycable3pm1, zcableVeto, 0, "ONLY");
gMC->Gspos("ECB1", 1, "EIR2", xcable11pm2, 0., zcablePS, 0, "ONLY");
gMC->Gspos("ECB1", 2, "EIR2", xcable12pm2, 0., zcablePS, 0, "ONLY");
gMC->Gspos("ECB2", 1, "EIR2", xcable2pm2, ycable2pm2, zcablePS, 0, "ONLY");
gMC->Gspos("ECB1", 1, "EIR6", xcable11pm2, 0., zcableVeto, 0, "ONLY");
gMC->Gspos("ECB1", 2, "EIR6", xcable12pm2, 0., zcableVeto, 0, "ONLY");
gMC->Gspos("ECB2", 1, "EIR6", xcable2pm2, ycable2pm2, zcableVeto, 0, "ONLY");
gMC->Gspos("ECB3", 1, "EIR3", xcable3pm3, ycable3pm3, zcablePS, 0, "ONLY");
gMC->Gspos("ECB4", 1, "EIR3", xcable4pm3, ycable4pm3, zcablePS, 0, "ONLY");
gMC->Gspos("ECB3", 1, "EIR7", xcable3pm3, ycable3pm3, zcableVeto, 0, "ONLY");
gMC->Gspos("ECB4", 1, "EIR7", xcable4pm3, ycable4pm3, zcableVeto, 0, "ONLY");
gMC->Gspos("ECB2", 1, "EIR4", xcable21pm4, 0., zcablePS, 0, "ONLY");
gMC->Gspos("ECB2", 2, "EIR4", xcable22pm4, 0., zcablePS, 0, "ONLY");
gMC->Gspos("ECB3", 1, "EIR4", xcable3pm4, ycable3pm4, zcablePS, 0, "ONLY");
gMC->Gspos("ECB2", 1, "EIR8", xcable21pm4, 0., zcableVeto, 0, "ONLY");
gMC->Gspos("ECB2", 2, "EIR8", xcable22pm4, 0., zcableVeto, 0, "ONLY");
gMC->Gspos("ECB3", 1, "EIR8", xcable3pm4, ycable3pm4, zcableVeto, 0, "ONLY");
//=============== NOW POSITIONING THE Al Boxes IN EPM'S================//
gMC->Gspos("ESV1", 1, "EPM1", dboxFea1[0] - esvdA1[0] - 8.0, 0., zelvdbPS, 0, "ONLY");
gMC->Gspos("EVV1", 1, "EPM1", dboxFea1[0] - esvdB1[0] - 8.0, 0., zelvdbVeto, 0, "ONLY");
gMC->Gspos("ESV2", 1, "EPM2", -dboxFea2[0] + esvdA1[0] + 8.0, 2.3, zelvdbPS, 0, "ONLY");
gMC->Gspos("EVV2", 1, "EPM2", -dboxFea2[0] + esvdB1[0] + 8.0, 2.3, zelvdbVeto, 0, "ONLY");
gMC->Gspos("ESV3", 1, "EPM3", -dboxFea3[0] + esvdA1[0] + 8.0, 0., zelvdbPS, 0, "ONLY");
gMC->Gspos("EVV3", 1, "EPM3", -dboxFea3[0] + esvdB1[0] + 8.0, 0., zelvdbVeto, 0, "ONLY");
gMC->Gspos("ESV4", 1, "EPM4", dboxFea4[0] - esvdA1[0] - 8.0, 2.3, zelvdbPS, 0, "ONLY");
gMC->Gspos("EVV4", 1, "EPM4", dboxFea4[0] - esvdB1[0] - 8.0, 2.3, zelvdbVeto, 0, "ONLY");
//==================================================================//
//====================== LAST THING IS TO INSTALL ELMB ================//
// ELMB,s are the G10 Volumes
// First to create Air Volume to place ELMBs
Float_t xelmb[3];
xelmb[0] = 10.0;
xelmb[1] = 4.0;
xelmb[2] = 0.5;
gMC->Gsvolu("ELMB", "BOX", idtmed[698], xelmb, 3);
// There are more G10 Volumes
// But in approximation, we reduced them to two
// ELM1 & ELM2
Float_t xelmb1[3];
xelmb1[0] = 9.7;
xelmb1[1] = 3.6;
xelmb1[2] = 0.1;
gMC->Gsvolu("ELM1", "BOX", idtmed[607], xelmb1, 3);
Float_t xelmb2[3];
xelmb2[0] = 6.0;
xelmb2[1] = 3.0;
xelmb2[2] = 0.1;
gMC->Gsvolu("ELM2", "BOX", idtmed[607], xelmb2, 3);
/******** NOW POSITIONING THE G10 VOLUMES ELM1 & ELM2 IN ELMB **********/
gMC->Gspos("ELM1", 1, "ELMB", 0., 0., -0.3, 0, "ONLY");
gMC->Gspos("ELM2", 1, "ELMB", 0., 0., 0.3, 0, "ONLY");
// Position co-ordinates of ELMBs in EPM2 & EPM4
Float_t xelmbepm2, xelmbepm4, yelmbepm2, yelmbepm4, zelmbPS, zelmbVeto;
xelmbepm2 = -gaspmd2[0] + 16.0 +23.2 + 2.5 + xelmb[0];
xelmbepm4 = gaspmd4[0] - 16.0 -23.2 - 2.5 - xelmb[0];
yelmbepm2 = -gaspmd2[1] + 1.0 + xelmb[1];
yelmbepm4 = -gaspmd4[1] + 1.0 + xelmb[1];
zelmbPS = zfea + fgkThSteel/2.+ xelmb[2];
zelmbVeto = zfea - fgkThSteel/2.- xelmb[2];
/************ NOW PLACE ELMB'S IN EPM2 & EPM4 *********************/
// There are total of 14 ELMB volumes
// three on both sides of EPM2 (total of 6)
// and four on both sides of EPM4 (total of 8)
// The ELMBs are placed at the bottom of
// SS support, which is the extended part
// Placement of ELMBs on EPM2
for(Int_t kk=1;kk<=3;kk++){
gMC->Gspos("ELMB", kk, "EPM2", xelmbepm2, yelmbepm2, zelmbPS, 0, "ONLY");
xelmbepm2 = xelmbepm2 + xelmb[0] + 0.5 + xelmb[0];
}
xelmbepm2 = -gaspmd2[0] + 16.0 +23.2 + 2.5 + xelmb[0];
for(Int_t kk=4;kk<=6;kk++){
gMC->Gspos("ELMB", kk, "EPM2", xelmbepm2, yelmbepm2, zelmbVeto, 0, "ONLY");
xelmbepm2 = xelmbepm2 + xelmb[0] + 0.5 + xelmb[0];
}
// Placement of ELMBs on EPM4
for(Int_t kk=1;kk<=4;kk++){
gMC->Gspos("ELMB", kk, "EPM4", xelmbepm4, yelmbepm4, zelmbPS, 0, "ONLY");
xelmbepm4 = xelmbepm4 - xelmb[0] - 0.5 - xelmb[0];
}
xelmbepm4 = gaspmd4[0] - 16.0 -23.2 - 2.5 - xelmb[0];
for(Int_t kk=5;kk<=8;kk++){
gMC->Gspos("ELMB", kk, "EPM4", xelmbepm4, yelmbepm4, zelmbVeto, 0, "ONLY");
xelmbepm4 = xelmbepm4 - xelmb[0] - 0.5 - xelmb[0];
}
//========= Placement of ELMBs Completed ============================/
// ------------- Now to Place Unit Modules in four quadrants
// EPM1, EPM2, EPM3 & EPM4 ---------------------//
// Position co-ordinates of Unit Modules
Double_t xcord[24];
Double_t ycord[24];
xcord[0] = xa1;
xcord[1] = xa2;
xcord[2] = xa3;
xcord[3] = xa1;
xcord[4] = xa2;
xcord[5] = xa3;
xcord[6] = -xa1;
xcord[7] = -xa2;
xcord[8] = -xa3;
xcord[9] = -xa1;
xcord[10] = -xa2;
xcord[11] = -xa3;
xcord[12] = xb1;
xcord[13] = xb2;
xcord[14] = xb1;
xcord[15] = xb2;
xcord[16] = xb1;
xcord[17] = xb2;
xcord[18] = -xb1;
xcord[19] = -xb2;
xcord[20] = -xb1;
xcord[21] = -xb2;
xcord[22] = -xb1;
xcord[23] = -xb2;
ycord[0] = ya1;
ycord[1] = ya1;
ycord[2] = ya1;
ycord[3] = ya2;
ycord[4] = ya2;
ycord[5] = ya2;
ycord[6] = -ya1;
ycord[7] = -ya1;
ycord[8] = -ya1;
ycord[9] = -ya2;
ycord[10] = -ya2;
ycord[11] = -ya2;
ycord[12] = yb1;
ycord[13] = yb1;
ycord[14] = yb2;
ycord[15] = yb2;
ycord[16] = yb3+0.100007; //Because of overlapping the factor 0.100007
ycord[17] = yb3+0.100007; // is added
ycord[18] = -yb1;
ycord[19] = -yb1;
ycord[20] = -yb2;
ycord[21] = -yb2;
ycord[22] = -yb3-0.100004; //Because of overlapping the factor 0.100007
ycord[23] = -yb3-0.100004; // is added
// Placement of unit modules EUM1 & EUV1(long type)
// and EUM2 & EUV2(short type)
// in the four quadrants EPM1, EPM2, EPM3 & EPM4
for(Int_t ii=0;ii<=5;ii++){
if(fModStatus[ii]){
gMC->Gspos("EUM1", ii, "EPM1", xcord[ii]+xLead1,ycord[ii]+yLead1, zpsa, 0, "ONLY");
}
}
for(Int_t ii=6;ii<=11;ii++){
if(fModStatus[ii]) {
gMC->Gspos("EUM1", ii, "EPM2", xcord[ii]+xLead2, ycord[ii]+yLead2, zpsa, jhrot12, "ONLY");
}
}
for(Int_t ii=12;ii<=17;ii++){
if(fModStatus[ii]) {
gMC->Gspos("EUM2", ii, "EPM3", xcord[ii]+xLead3, ycord[ii]+yLead3, zpsa, 0, "ONLY");
}
}
for(Int_t ii=18;ii<=23;ii++){
if(fModStatus[ii]) {
gMC->Gspos("EUM2", ii, "EPM4", xcord[ii]+xLead4, ycord[ii]+yLead4, zpsa, jhrot12, "ONLY");
}
}
for(Int_t ii=24;ii<=29;ii++){
if(fModStatus[ii]) {
gMC->Gspos("EUV1", ii, "EPM1", xcord[ii-24]+xLead1, ycord[ii-24]+yLead1, zcva, 0, "ONLY");
}
}
for(Int_t ii=30;ii<=35;ii++){
if(fModStatus[ii]) {
gMC->Gspos("EUV1", ii, "EPM2", xcord[ii-24]+xLead2, ycord[ii-24]+yLead2, zcva, jhrot12, "ONLY");
}
}
for(Int_t ii=36;ii<=41;ii++){
if(fModStatus[ii]) {
gMC->Gspos("EUV2", ii, "EPM3", xcord[ii-24]+xLead3, ycord[ii-24]+yLead3, zcva, 0, "ONLY");
}
}
for(Int_t ii=42;ii<=47;ii++){
if(fModStatus[ii]) {
gMC->Gspos("EUV2", ii, "EPM4", xcord[ii-24]+xLead4, ycord[ii-24]+yLead4, zcva, jhrot12, "ONLY");
}
}
//-------------- Placement of Unit Modules Completed ---------------//
// ========== PLACE THE EPMD IN ALICE ======================//
// Now the Job to assemble the five mother volumes of PMD in ALICE
// Z-distance of PMD from Interaction Point
zp = fgkZdist;
// X and Y-positions of the EPM1, EPM2, EPM3 & EPM4
Float_t xfinal,yfinal;
Float_t xsm1, xsm2, xsm3, xsm4;
Float_t ysm1, ysm2, ysm3, ysm4;
xfinal = (fSMLengthax + serviceX/2. + serviceXext/2. + 0.05) + 0.48/2. +
(fSMLengthbx + serviceX/2. + serviceXext/2.+ 0.05);
//Extra width of the SS plate on Support Structure on X-side and 1mm thick SS for cooling encloser
//Extra width of the SS plate on Support Structure on X-side for B-Type
yfinal = (fSMLengthay + serviceYa/2.)+ 0.20/2 + (fSMLengthby + serviceYb/2.);
//serviceYa is the Extra width of the SS plate on Support Structur on Y-side for EPM1 & EPM3
//serviceYb is the Extra width of the SS plate on Support Structur on Y-side for EPM2 & EPM4
xsm1 = xfinal - (fSMLengthax + serviceX/2. + serviceXext/2. + 0.05);
ysm1 = yfinal - (fSMLengthay + serviceYa/2.) - 2.3;
xsm2 = -xfinal + (fSMLengthax + serviceX/2. + serviceXext/2. + 0.05);
ysm2 = -yfinal + (fSMLengthay + serviceYb/2.) - 2.3;
xsm3 = -xfinal + (fSMLengthbx + serviceX/2. + serviceXext/2. + 0.05);
ysm3 = yfinal - (fSMLengthby + serviceYa/2.) - 2.3;
xsm4 = xfinal - (fSMLengthbx + serviceX/2. + serviceXext/2. + 0.05);
ysm4 = -yfinal + (fSMLengthby + serviceYb/2.) - 2.3;
//Position Full PMD in ALICE
//
// EPM1 EPM3
//
// EPM4 EPM2
// (rotated EPM3) (rotated EPM1)
//
// EFGD
// (Girders and its Carriage)
gMC->Gspos("EPM1", 1, "ALIC", xsm1,ysm1,zp, 0, "ONLY");
gMC->Gspos("EPM2", 1, "ALIC", xsm2,ysm2,zp, 0, "ONLY");
gMC->Gspos("EPM3", 1, "ALIC", xsm3,ysm3,zp, 0, "ONLY");
gMC->Gspos("EPM4", 1, "ALIC", xsm4,ysm4,zp, 0, "ONLY");
gMC->Gspos("EFGD", 1, "ALIC", 0., yfinal + fulgrdr[1], zp, 0, "ONLY");
}
//_____________________________________________________________________________
void AliPMDv1::DrawModule() const
{
// Draw a shaded view of the Photon Multiplicity Detector
//
// cout << " Inside Draw Modules " << endl;
// Set everything unseen
gMC->Gsatt("*", "seen", -1);
// Set ALIC mother transparent
gMC->Gsatt("ALIC", "seen", 0);
//
// Set the visibility of the components
//
gMC->Gsatt("ECAR","seen",0);
gMC->Gsatt("ECCU","seen",1);
gMC->Gsatt("EST1","seen",1);
gMC->Gsatt("EST2","seen",1);
gMC->Gsatt("EUM1","seen",1);
gMC->Gsatt("EUM2","seen",1);
gMC->Gsatt("EPMD","seen",1);
//
gMC->Gdopt("hide", "on");
gMC->Gdopt("shad", "on");
gMC->Gsatt("*", "fill", 7);
gMC->SetClipBox(".");
gMC->SetClipBox("*", 0, 3000, -3000, 3000, -6000, 6000);
gMC->DefaultRange();
gMC->Gdraw("ALIC", 40, 30, 0, 22, 20.5, .02, .02);
gMC->Gdhead(1111, "Photon Multiplicity Detector Version 1");
//gMC->Gdman(17, 5, "MAN");
gMC->Gdopt("hide", "off");
AliDebug(1,"Outside Draw Modules");
}
//_____________________________________________________________________________
void AliPMDv1::CreateMaterials()
{
// Create materials for the PMD
//
// ORIGIN : Y. P. VIYOGI
//
// cout << " Inside create materials " << endl;
Int_t isxfld = ((AliMagF*)TGeoGlobalMagField::Instance()->GetField())->Integ();
Float_t sxmgmx = ((AliMagF*)TGeoGlobalMagField::Instance()->GetField())->Max();
// --- Define the various materials for GEANT ---
AliMaterial(1, "Pb $", 207.19, 82., 11.35, .56, 18.5);
// Argon
Float_t dAr = 0.001782; // --- Ar density in g/cm3 ---
Float_t x0Ar = 19.55 / dAr;
AliMaterial(2, "Argon$", 39.95, 18., dAr, x0Ar, 6.5e4);
// --- CO2 ---
Float_t aCO2[2] = { 12.,16. };
Float_t zCO2[2] = { 6.,8. };
Float_t wCO2[2] = { 1.,2. };
Float_t dCO2 = 0.001977;
AliMixture(3, "CO2 $", aCO2, zCO2, dCO2, -2, wCO2);
AliMaterial(4, "Al $", 26.98, 13., 2.7, 8.9, 18.5);
// ArCO2
Float_t aArCO2[3] = {39.948,12.0107,15.9994};
Float_t zArCO2[3] = {18.,6.,8.};
Float_t wArCO2[3] = {0.7,0.08,0.22};
Float_t dArCO2 = dAr * 0.7 + dCO2 * 0.3;
AliMixture(5, "ArCO2$", aArCO2, zArCO2, dArCO2, 3, wArCO2);
AliMaterial(6, "Fe $", 55.85, 26., 7.87, 1.76, 18.5);
// G10
Float_t aG10[4]={1.,12.011,15.9994,28.086};
Float_t zG10[4]={1.,6.,8.,14.};
Float_t wG10[4]={0.15201,0.10641,0.49444,0.24714};
AliMixture(8,"G10",aG10,zG10,1.7,4,wG10);
AliMaterial(15, "Cu $", 63.54, 29., 8.96, 1.43, 15.);
// Steel
Float_t aSteel[4] = { 55.847,51.9961,58.6934,28.0855 };
Float_t zSteel[4] = { 26.,24.,28.,14. };
Float_t wSteel[4] = { .715,.18,.1,.005 };
Float_t dSteel = 7.88;
AliMixture(19, "STAINLESS STEEL$", aSteel, zSteel, dSteel, 4, wSteel);
// --- CH2 : PLASTIC ---
Float_t aCH2[2] = { 12.,1.};
Float_t zCH2[2] = { 6.,1.};
Float_t wCH2[2] = { 1.,2.};
Float_t dCH2 = 0.95;
AliMixture(31, "CH2 $", aCH2, zCH2, dCH2, -2, wCH2);
// --- CABLES : 80% Plastic and 20% Copper ---
Float_t aCABLE[3] = { 12.,1.,63.5 };
Float_t zCABLE[3] = { 6.,1.,29. };
Float_t wCABLE[3] = { 0.6857, 0.1143, 0.2};
Float_t dCABLE = dCH2*0.8 + 8.96*0.2;
AliMixture(32, "CABLE $", aCABLE, zCABLE, dCABLE, 3, wCABLE);
//Air
Float_t aAir[4]={12.0107,14.0067,15.9994,39.948};
Float_t zAir[4]={6.,7.,8.,18.};
Float_t wAir[4]={0.000124,0.755267,0.231781,0.012827};
Float_t dAir1 = 1.20479E-10;
Float_t dAir = 1.20479E-3;
AliMixture(98, "Vacum$", aAir, zAir, dAir1, 4, wAir);
AliMixture(99, "Air $", aAir, zAir, dAir , 4, wAir);
// Define tracking media
AliMedium(1, "Pb conv.$", 1, 0, 0, isxfld, sxmgmx, 1., .1, .01, .1);
AliMedium(4, "Al $", 4, 0, 0, isxfld, sxmgmx, .1, .1, .01, .1);
AliMedium(5, "ArCO2 $", 5, 1, 0, isxfld, sxmgmx, .1, .1, .10, .1);
AliMedium(6, "Fe $", 6, 0, 0, isxfld, sxmgmx, .1, .1, .01, .1);
AliMedium(8, "G10plate$", 8, 0, 0, isxfld, sxmgmx, 1., .1, .01, .1);
AliMedium(15, "Cu $", 15, 0, 0, isxfld, sxmgmx, .1, .1, .01, .1);
AliMedium(19, "S steel$", 19, 0, 0, isxfld, sxmgmx, 1., .1, .01, .1);
AliMedium(32, "CABLE $", 32, 0, 0, isxfld, sxmgmx, 1., .1, .01, .1);
AliMedium(98, "Vacuum $", 98, 0, 0, isxfld, sxmgmx, 1., .1, .10, 10);
AliMedium(99, "Air gaps$", 99, 0, 0, isxfld, sxmgmx, 1., .1, .10, .1);
AliDebug(1,"Outside create materials");
}
//_____________________________________________________________________________
void AliPMDv1::Init()
{
//
// Initialises PMD detector after it has been built
//
//
AliDebug(2,"Inside Init");
AliDebug(2,"PMD simulation package (v1) initialised");
AliDebug(2,"parameters of pmd");
AliDebug(2,Form("%10.2f %10.2f %10.2f %10.2f\n",
fgkCellRadius,fgkCellWall,fgkCellDepth,fgkZdist));
Int_t *idtmed = fIdtmed->GetArray()-599;
fMedSens=idtmed[605-1];
// --- Generate explicitly delta rays in the iron, aluminium and lead ---
// Gstpar is removed from this place and
// the energy cut offs in the medium moved to galice.cuts
//gMC->Gstpar(idtmed[605], "LOSS", 3.);
//gMC->Gstpar(idtmed[605], "DRAY", 1.);
// Visualization of volumes
gMC->Gsatt("ECAR", "SEEN", 0);
gMC->Gsatt("ECCU", "SEEN", 1);
gMC->Gsatt("ECCU", "COLO", 4);
gMC->Gsatt("EST1", "SEEN", 0);
gMC->Gsatt("EST2", "SEEN", 0);
gMC->Gsatt("EHC1", "SEEN", 0);
gMC->Gsatt("EHC2", "SEEN", 0);
gMC->Gsatt("EDGA", "SEEN", 1);
gMC->Gsatt("EDGB", "SEEN", 1);
gMC->Gsatt("EEGA", "SEEN", 1);
gMC->Gsatt("EEGB", "SEEN", 1);
gMC->Gsatt("EUM1", "SEEN", 0);
gMC->Gsatt("EUV1", "SEEN", 0);
gMC->Gsatt("EUM2", "SEEN", 0);
gMC->Gsatt("EUV2", "SEEN", 0);
gMC->Gsatt("EFEE", "SEEN", 0);
gMC->Gsatt("EFEE", "COLO", 4);
gMC->Gsatt("EFBA", "SEEN", 1);
gMC->Gsatt("EFBA", "COLO", 4);
gMC->Gsatt("EFBB", "SEEN", 0);
gMC->Gsatt("EFBB", "COLO", 4);
gMC->Gsatt("ELDA", "SEEN", 0);
gMC->Gsatt("ELDB", "SEEN", 0);
gMC->Gsatt("EFE1", "SEEN", 0);
gMC->Gsatt("EFE2", "SEEN", 0);
gMC->Gsatt("EFE3", "SEEN", 0);
gMC->Gsatt("EFE4", "SEEN", 0);
gMC->Gsatt("ESC1", "SEEN", 0);
gMC->Gsatt("ECC1", "COLO", 2);
gMC->Gsatt("ESC2", "SEEN", 0);
gMC->Gsatt("ECC2", "COLO", 2);
gMC->Gsatt("ESC3", "SEEN", 0);
gMC->Gsatt("ECC3", "COLO", 2);
gMC->Gsatt("ESC4", "SEEN", 0);
gMC->Gsatt("ECC4", "COLO", 2);
gMC->Gsatt("ECC1", "SEEN", 0);
gMC->Gsatt("ECC2", "SEEN", 0);
gMC->Gsatt("ECC3", "SEEN", 0);
gMC->Gsatt("ECC4", "SEEN", 0);
gMC->Gsatt("EPM1", "SEEN", 1);
gMC->Gsatt("EPM2", "SEEN", 1);
gMC->Gsatt("EPM3", "SEEN", 1);
gMC->Gsatt("EPM4", "SEEN", 1);
gMC->Gsatt("ECB1", "SEEN", 0);
gMC->Gsatt("ECB2", "SEEN", 0);
gMC->Gsatt("ECB3", "SEEN", 0);
gMC->Gsatt("ECB4", "SEEN", 0);
gMC->Gsatt("ELMB", "SEEN", 0);
gMC->Gsatt("ESV1", "SEEN", 0);
gMC->Gsatt("ESV2", "SEEN", 0);
gMC->Gsatt("ESV3", "SEEN", 0);
gMC->Gsatt("ESV4", "SEEN", 0);
gMC->Gsatt("EVV1", "SEEN", 0);
gMC->Gsatt("EVV2", "SEEN", 0);
gMC->Gsatt("EVV3", "SEEN", 0);
gMC->Gsatt("EVV4", "SEEN", 0);
gMC->Gsatt("EFGD", "SEEN", 0);
}
//_____________________________________________________________________________
void AliPMDv1::StepManager()
{
//
// Called at each step in the PMD
//
Int_t copy;
Float_t hits[5], destep;
Float_t center[3] = {0,0,0};
Int_t vol[6];
//const char *namep;
// printf("Current vol is ******** %s \n",namep);
if(gMC->CurrentMedium() == fMedSens && (destep = gMC->Edep())) {
gMC->CurrentVolID(copy);
//namep=gMC->CurrentVolName();
// printf("Current vol is %s \n",namep);
vol[0]=copy;
gMC->CurrentVolOffID(1,copy);
//namep=gMC->CurrentVolOffName(1);
// printf("Current vol 11 is %s \n",namep);
vol[1]=copy;
gMC->CurrentVolOffID(2,copy);
//namep=gMC->CurrentVolOffName(2);
// printf("Current vol 22 is %s \n",namep);
vol[2]=copy;
gMC->CurrentVolOffID(3,copy);
//namep=gMC->CurrentVolOffName(3);
// printf("Current vol 33 is %s \n",namep);
vol[3]=copy;
gMC->CurrentVolOffID(4,copy);
//namep=gMC->CurrentVolOffName(4);
// printf("Current vol 44 is %s \n",namep);
vol[4]=copy;
gMC->CurrentVolOffID(5,copy);
//namep=gMC->CurrentVolOffName(5);
//printf("Current vol 55 is %s \n",namep);
vol[5]=copy;
// printf("volume number %4d %4d %4d %4d %4d %4d %10.3f \n",vol[0],vol[1],vol[2],vol[3],vol[4],vol[5],destep*1000000);// edep in MeV
gMC->Gdtom(center,hits,1);
hits[3] = destep*1e9; //Number in eV
// this is for pile-up events
hits[4] = gMC->TrackTime();
AddHit(gAlice->GetMCApp()->GetCurrentTrackNumber(), vol, hits);
AddTrackReference(gAlice->GetMCApp()->GetCurrentTrackNumber(), AliTrackReference::kPMD);
}
}
//------------------------------------------------------------------------
// Get parameters
void AliPMDv1::GetParameters()
{
// This gives all the parameters of the detector
// such as Length of Supermodules, type A, type B,
// thickness of the Supermodule
//
fSMLengthax = 32.7434;
//The total length in X is due to the following components
// Factor 3 is because of 3 module length in X for this type
// fgkNcolUM1*fgkCellRadius (48 x 0.25): Total span of each module in X
// fgkCellRadius/2. : There is offset of 1/2 cell
// 0.05+0.05 : Insulation gaps etc
// fgkSSBoundary (0.3) : Boundary frame
// double XA = 3.0*((fgkCellRadius/fgkSqroot3by2*fgkNcolUM1)-(fgkCellRadius*fgkSqroot3*(fgkNcolUM1-1)/6.)+(2.0*fgkGap)+(2.0*fgkGap)+fgkSSBoundary) + (2.0*0.075);
fSMLengthbx = 42.6136;
//The total length in X is due to the following components
// Factor 2 is because of 2 module length in X for this type
// fgkNcolUM2*fgkCellRadius (96 x 0.25): Total span of each module in X
// fgkCellRadius/2. : There is offset of 1/2 cell
// 0.05+0.05 : Insulation gaps etc
// fgkSSBoundary (0.3) : Boundary frame
//double XB = 2.0*((fgkCellRadius/fgkSqroot3by2*fgkNcolUM2)-(fgkCellRadius*fgkSqroot3*(fgkNcolUM2-1)/6.)+(2.0*fgkGap)+(2.0*fgkGap)+fgkSSBoundary) + 0.1;
fSMLengthay = 49.35;
//The total length in Y is due to the following components
// Factor 2 is because of 2 module length in Y for this type
// fgkCellRadius/fgkSqroot3by2)*fgkNrowUM1 (0.25/sqrt3/2 * 96): Total span of each module in Y
// of strips
// 0.05+0.05 : Insulation gaps etc
// fgkSSBoundary (0.3) : Boundary frame
// 0.6cm is the channel width plus tolerance
// double YA = 2.0*(fgkNrowUM1*fgkCellRadius+fgkCellRadius/2.+(2.0*fgkGap)+(2.0*fgkGap)+fgkSSBoundary) + 0.6/2.;
fSMLengthby = 37.925;
//The total length in Y is due to the following components
// Factor 3 is because of 3 module length in Y for this type
// fgkCellRadius/fgkSqroot3by2)*fgkNrowUM2 (0.25/sqrt3/2 * 48): Total span of each module in Y
// of strips
// 0.05+0.05 : Insulation gaps etc
// fgkSSBoundary (0.3) : Boundary frame
// 10mm is the channel width plus tolerance
//double YB = 3.0*((fgkNrowUM2*fgkCellRadius + fgkCellRadius/2.)+(2.0*fgkGap)+(2.0*fgkGap)+fgkSSBoundary) + 1.0/2.;
//Thickness of a pre/veto plane
fDthick = fgkThSS/2. + 1.2; // 1.2 added as FEE Board are now assembled with pre/veto
//Thickness of the PMD ; 2.4 added for FEE boards
fSMthickpmd = 2.0*(fgkThSS/2.) +fgkThSteel/2.+fgkThLead/2.0 + 2.4/2.;
fSMthick = 17.; //17 cm is the full profile of PMD
}
// ---------------------------------------------------------------
void AliPMDv1::AddAlignableVolumes() const
{
//
// Create entries for alignable volumes associating the symbolic volume
// name with the corresponding volume path. Needs to be syncronized with
// eventual changes in the geometry.
//
SetSectorAlignable();
}
// ----------------------------------------------------------------
void AliPMDv1::SetSectorAlignable() const
{
//
TString vpsector = "ALIC_1/EPM";
TString vpappend = "_1";
TString snsector="PMD/Sector";
TString volpath, symname;
for(Int_t cnt=1; cnt<=4; cnt++){
//for(Int_t cnt=1; cnt<=4; cnt++){
volpath = vpsector;
volpath += cnt;
volpath += vpappend;
symname = snsector;
symname += cnt;
if(!gGeoManager->SetAlignableEntry(symname.Data(),volpath.Data()))
{
AliFatal("Unable to set alignable entry!");
}
}
}
// ------------------------------------------------------------------
void AliPMDv1::SetCpvOff()
{
// Set the entire CPV plane off
for (Int_t imodule = 24; imodule < 48; imodule++)
fModStatus[imodule] = 0;
}
// ------------------------------------------------------------------
void AliPMDv1::SetPreOff()
{
// Set the entire Preshower plane off
for (Int_t imodule = 0; imodule < 24; imodule++)
fModStatus[imodule] = 0;
}
// ------------------------------------------------------------------
void AliPMDv1::SetModuleOff(Int_t imodule)
{
// Set the individual module off
fModStatus[imodule] = 0;
}