create_rootgeom_Silicon_Run9.C

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/*
 * Basic ROOT geometry for the configuration of FSD (Forward Silicon detector)
 * in RUN-9 (only sensor volumes)
 *
 * Author: Baranov D.
 * Date: 18.04.2025 (created)
 *
 * WARNING: all units is in cm!!!
 */
 
using namespace TMath;
 
// Set Parameters of SILICON detector -------------------------------------------
const Int_t NStations = 4;      // stations in the detector
const Int_t NMaxModules = 22;   // max. number of modules in a station
 
const Int_t NModulesInStations[NStations] = {6, 10, 14, 18};
 
//(X-Y-Z)Positions of stations (sensitive volumes) -----------------------------
 
// hole center of lower half-planes
const Double_t XStationPositions[NStations] = {
    +0.6250,   // st. 0
    +0.7045,   // st. 1
    +0.9185,   // st. 2
    +1.0180    // st. 3
};
 
// hole center of lower half-planes
const Double_t YStationPositions[NStations] = {
    -0.0695,   // st. 0
    -0.0895,   // st. 1
    -0.0565,   // st. 2
    -0.0670    // st. 3
};
 
// reference point (average measured z-position of lower half-planes)
const Double_t ZStationPositions[NStations] = {
    +14.1370,   // st. 0
    +22.9015,   // st. 1
    +31.6785,   // st. 2
    +40.5235    // st. 3
};
//------------------------------------------------------------------------------
 
const Double_t z_mod_thick = 0.03;   // thickness of silicon sensor
 
const Double_t z_shift_up = +2.68;    // z-shift from reference point to local basic point of upper half-planes
const Double_t z_shift_low = -0.61;   // z-shift from reference point to local basic point of lower half-planes
 
// x-distance from hole center to the base
const Double_t x_dist_cent_base[NStations] = {
    21.7,   // st. 0
    21.7,   // st. 1
    27.7,   // st. 2
    33.7    // st. 3
};
 
// y-distance from hole center to the base
const Double_t y_dist_cent_base[NStations] = {
    12.99,   // st. 0
    16.29,   // st. 1
    16.29,   // st. 2
    16.29    // st. 3
};
 
// z-shift of the upper half-plane relative to the lower one (dist. between two ref. points)
const Double_t z_shift_hp[NStations] = {
    +5.0800,   // st. 0
    +5.1255,   // st. 1
    +4.9800,   // st. 2
    +5.0115    // st. 3
};
 
// x-shift of hole-center of the upper half-plane relative to the lower half-plane
const Double_t x_shift_hp[NStations] = {
    +0.0165,   // st. 0
    +0.0100,   // st. 1
    +0.0325,   // st. 2
    +0.0820    // st. 3
};
 
// y-shift of hole-center of the upper half-plane relative to the lower half-plane
const Double_t y_shift_hp[NStations] = {
    -0.0155,   // st. 0
    -0.0730,   // st. 1
    -0.0645,   // st. 2
    +0.6580    // st. 3
};
 
const Double_t XModuleShifts[NStations][NMaxModules] = {
    {-x_dist_cent_base[0] + x_shift_hp[0] + 30.850 /*0*/, -x_dist_cent_base[0] + x_shift_hp[0] + 24.852 /*1*/,
     -x_dist_cent_base[0] + x_shift_hp[0] + 12.556 /*2*/,
 
     -x_dist_cent_base[0] + 30.859 /*3*/, -x_dist_cent_base[0] + 24.863 /*4*/,
     -x_dist_cent_base[0] + 12.558 /*5*/},   // st. 0
 
    {-x_dist_cent_base[1] + x_shift_hp[1] + 36.860 /*0*/, -x_dist_cent_base[1] + x_shift_hp[1] + 30.844 /*1*/,
     -x_dist_cent_base[1] + x_shift_hp[1] + 24.860 /*2*/, -x_dist_cent_base[1] + x_shift_hp[1] + 12.550 /*3*/,
     -x_dist_cent_base[1] + x_shift_hp[1] + 6.557 /*4*/,
 
     -x_dist_cent_base[1] + 36.8425 /*5*/, -x_dist_cent_base[1] + 30.8505 /*6*/, -x_dist_cent_base[1] + 24.8450 /*7*/,
     -x_dist_cent_base[1] + 12.5550 /*8*/, -x_dist_cent_base[1] + 6.5585 /*9*/},   // st. 1
 
    {-x_dist_cent_base[2] + x_shift_hp[2] + 48.8465 /*0*/, -x_dist_cent_base[2] + x_shift_hp[2] + 42.8315 /*1*/,
     -x_dist_cent_base[2] + x_shift_hp[2] + 36.8485 /*2*/, -x_dist_cent_base[2] + x_shift_hp[2] + 30.8425 /*3*/,
     -x_dist_cent_base[2] + x_shift_hp[2] + 18.5555 /*4*/, -x_dist_cent_base[2] + x_shift_hp[2] + 12.5395 /*5*/,
     -x_dist_cent_base[2] + x_shift_hp[2] + 6.5530 /*6*/,
 
     -x_dist_cent_base[2] + 48.8535 /*7*/, -x_dist_cent_base[2] + 42.8470 /*8*/, -x_dist_cent_base[2] + 36.8420 /*9*/,
     -x_dist_cent_base[2] + 30.8435 /*10*/, -x_dist_cent_base[2] + 18.5445 /*11*/,
     -x_dist_cent_base[2] + 12.5435 /*12*/, -x_dist_cent_base[2] + 6.5475 /*13*/},   // st. 2
 
    {-x_dist_cent_base[3] + x_shift_hp[3] + 60.8580 /*0*/, -x_dist_cent_base[3] + x_shift_hp[3] + 54.8485 /*1*/,
     -x_dist_cent_base[3] + x_shift_hp[3] + 48.8545 /*2*/, -x_dist_cent_base[3] + x_shift_hp[3] + 42.8390 /*3*/,
     -x_dist_cent_base[3] + x_shift_hp[3] + 36.8435 /*4*/, -x_dist_cent_base[3] + x_shift_hp[3] + 24.5520 /*5*/,
     -x_dist_cent_base[3] + x_shift_hp[3] + 18.5450 /*6*/, -x_dist_cent_base[3] + x_shift_hp[3] + 12.5470 /*7*/,
     -x_dist_cent_base[3] + x_shift_hp[3] + 6.5585 /*8*/,
 
     -x_dist_cent_base[3] + 60.860 /*9*/, -x_dist_cent_base[3] + 54.547 /*10*/, -x_dist_cent_base[3] + 48.860 /*11*/,
     -x_dist_cent_base[3] + 42.845 /*12*/, -x_dist_cent_base[3] + 36.847 /*13*/, -x_dist_cent_base[3] + 24.5445 /*14*/,
     -x_dist_cent_base[3] + 18.557 /*15*/, -x_dist_cent_base[3] + 12.552 /*16*/,
     -x_dist_cent_base[3] + 6.5525 /*17*/}   // st. 3
};
 
const Double_t YModuleShifts[NStations][NMaxModules] = {
    {+y_dist_cent_base[0] + y_shift_hp[0] - 13.112 /*0*/, +y_dist_cent_base[0] + y_shift_hp[0] - 10.113 /*1*/,
     +y_dist_cent_base[0] + y_shift_hp[0] - 13.086 /*2*/,
 
     -y_dist_cent_base[0] + 13.100 /*3*/, -y_dist_cent_base[0] + 10.110 /*4*/,
     -y_dist_cent_base[0] + 13.098 /*5*/},   // st. 0
 
    {+y_dist_cent_base[1] + y_shift_hp[1] - 16.425 /*0*/, +y_dist_cent_base[1] + y_shift_hp[1] - 16.424 /*1*/,
     +y_dist_cent_base[1] + y_shift_hp[1] - 13.421 /*2*/, +y_dist_cent_base[1] + y_shift_hp[1] - 16.421 /*3*/,
     +y_dist_cent_base[1] + y_shift_hp[1] - 16.420 /*4*/,
 
     -y_dist_cent_base[1] + 16.432 /*5*/, -y_dist_cent_base[1] + 16.423 /*6*/, -y_dist_cent_base[1] + 13.428 /*7*/,
     -y_dist_cent_base[1] + 16.425 /*8*/, -y_dist_cent_base[1] + 16.429 /*9*/},   // st. 1
 
    {+y_dist_cent_base[2] + y_shift_hp[2] - 16.424 /*0*/, +y_dist_cent_base[2] + y_shift_hp[2] - 16.427 /*1*/,
     +y_dist_cent_base[2] + y_shift_hp[2] - 16.427 /*2*/, +y_dist_cent_base[2] + y_shift_hp[2] - 13.411 /*3*/,
     +y_dist_cent_base[2] + y_shift_hp[2] - 16.431 /*4*/, +y_dist_cent_base[2] + y_shift_hp[2] - 16.420 /*5*/,
     +y_dist_cent_base[2] + y_shift_hp[2] - 16.430 /*6*/,
 
     -y_dist_cent_base[2] + 16.418 /*7*/, -y_dist_cent_base[2] + 16.427 /*8*/, -y_dist_cent_base[2] + 16.421 /*9*/,
     -y_dist_cent_base[2] + 13.428 /*10*/, -y_dist_cent_base[2] + 16.413 /*11*/, -y_dist_cent_base[2] + 16.427 /*12*/,
     -y_dist_cent_base[2] + 16.414 /*13*/},   // st. 2
 
    {+y_dist_cent_base[3] + y_shift_hp[3] - 16.429 /*0*/, +y_dist_cent_base[3] + y_shift_hp[3] - 16.431 /*1*/,
     +y_dist_cent_base[3] + y_shift_hp[3] - 16.431 /*2*/, +y_dist_cent_base[3] + y_shift_hp[3] - 16.432 /*3*/,
     +y_dist_cent_base[3] + y_shift_hp[3] - 13.432 /*4*/, +y_dist_cent_base[3] + y_shift_hp[3] - 16.429 /*5*/,
     +y_dist_cent_base[3] + y_shift_hp[3] - 16.422 /*6*/, +y_dist_cent_base[3] + y_shift_hp[3] - 16.423 /*7*/,
     +y_dist_cent_base[3] + y_shift_hp[3] - 16.427 /*8*/,
 
     -y_dist_cent_base[3] + 16.432 /*9*/, -y_dist_cent_base[3] + 16.437 /*10*/, -y_dist_cent_base[3] + 16.435 /*11*/,
     -y_dist_cent_base[3] + 16.435 /*12*/, -y_dist_cent_base[3] + 13.437 /*13*/, -y_dist_cent_base[3] + 16.434 /*14*/,
     -y_dist_cent_base[3] + 16.436 /*15*/, -y_dist_cent_base[3] + 16.431 /*16*/,
     -y_dist_cent_base[3] + 16.428 /*17*/}   // st. 3
};
 
const Double_t ZModuleShifts[NStations][NMaxModules] = {
    {+z_shift_hp[0] + z_shift_up - 2.6 /*0*/, +z_shift_hp[0] + z_shift_up - 1.45 /*1*/,
     +z_shift_hp[0] + z_shift_up - 2.7 /*2*/,
 
     +z_shift_low - z_mod_thick + 2.61 /*3*/, +z_shift_low - z_mod_thick + 1.4 /*4*/,
     +z_shift_low - z_mod_thick + 2.78 /*5*/},   // st. 0
 
    {+z_shift_hp[1] + z_shift_up - 1.41 /*0*/, +z_shift_hp[1] + z_shift_up - 2.585 /*1*/,
     +z_shift_hp[1] + z_shift_up - 1.395 /*2*/, +z_shift_hp[1] + z_shift_up - 2.76 /*3*/,
     +z_shift_hp[1] + z_shift_up - 1.585 /*4*/,
 
     +z_shift_low - z_mod_thick + 1.425 /*5*/, +z_shift_low - z_mod_thick + 2.595 /*6*/,
     +z_shift_low - z_mod_thick + 1.445 /*7*/, +z_shift_low - z_mod_thick + 2.73 /*8*/,
     +z_shift_low - z_mod_thick + 1.51 /*9*/},   // st. 1
 
    {+z_shift_hp[2] + z_shift_up - 2.595 /*0*/, +z_shift_hp[2] + z_shift_up - 1.395 /*1*/,
     +z_shift_hp[2] + z_shift_up - 2.665 /*2*/, +z_shift_hp[2] + z_shift_up - 1.425 /*3*/,
     +z_shift_hp[2] + z_shift_up - 2.735 /*4*/, +z_shift_hp[2] + z_shift_up - 1.56 /*5*/,
     +z_shift_hp[2] + z_shift_up - 2.705 /*6*/,
 
     +z_shift_low - z_mod_thick + 2.585 /*7*/, +z_shift_low - z_mod_thick + 1.435 /*8*/,
     +z_shift_low - z_mod_thick + 2.595 /*9*/, +z_shift_low - z_mod_thick + 1.41 /*10*/,
     +z_shift_low - z_mod_thick + 2.79 /*11*/, +z_shift_low - z_mod_thick + 1.6 /*12*/,
     +z_shift_low - z_mod_thick + 2.83 /*13*/},   // st. 2
 
    {+z_shift_hp[3] + z_shift_up - 1.41 /*0*/, +z_shift_hp[3] + z_shift_up - 2.59 /*1*/,
     +z_shift_hp[3] + z_shift_up - 1.435 /*2*/, +z_shift_hp[3] + z_shift_up - 2.635 /*3*/,
     +z_shift_hp[3] + z_shift_up - 1.4 /*4*/, +z_shift_hp[3] + z_shift_up - 2.775 /*5*/,
     +z_shift_hp[3] + z_shift_up - 1.605 /*6*/, +z_shift_hp[3] + z_shift_up - 2.73 /*7*/,
     +z_shift_hp[3] + z_shift_up - 1.6 /*8*/,
 
     +z_shift_low - z_mod_thick + 1.45 /*9*/, +z_shift_low - z_mod_thick + 2.575 /*10*/,
     +z_shift_low - z_mod_thick + 1.37 /*11*/, +z_shift_low - z_mod_thick + 2.585 /*12*/,
     +z_shift_low - z_mod_thick + 1.42 /*13*/, +z_shift_low - z_mod_thick + 2.695 /*14*/,
     +z_shift_low - z_mod_thick + 1.525 /*15*/, +z_shift_low - z_mod_thick + 2.68 /*16*/,
     +z_shift_low - z_mod_thick + 1.515 /*17*/}   // st. 3
};
 
// Geometry parameters of modules
enum ModuleType
{
    RIGHT_ANGLED_MODULE,
    BEVEL_MODULE,
    RIGHT_ANGLED_MODULE_HALF,
    BEVEL_MODULE_HALF
};
 
const ModuleType ModulesTypes[NStations][NMaxModules] = {
    {RIGHT_ANGLED_MODULE_HALF, RIGHT_ANGLED_MODULE_HALF, RIGHT_ANGLED_MODULE_HALF, RIGHT_ANGLED_MODULE_HALF,
     RIGHT_ANGLED_MODULE_HALF, RIGHT_ANGLED_MODULE_HALF},
    {RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE,
     RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE},
    {RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE,
     RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE,
     RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE},
    {RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE,
     RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE,
     RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE,
     RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE, RIGHT_ANGLED_MODULE}};
 
// rotations of modules around y-axis by 180 deg.
const Bool_t ModulesYRotations[NStations][NMaxModules] = {
    {true /*0*/, true /*1*/, false /*2*/, true /*3*/, true /*4*/, false /*5*/},
    {true /*0*/, true /*1*/, true /*2*/, false /*3*/, false /*4*/, true /*5*/, true /*6*/, true /*7*/, false /*8*/,
     false /*9*/},
    {true /*0*/, true /*1*/, true /*2*/, true /*3*/, false /*4*/, false /*5*/, false /*6*/, true /*7*/, true /*8*/,
     true /*9*/, true /*10*/, false /*11*/, false /*12*/, false /*13*/},
    {true /*0*/, true /*1*/, true /*2*/, true /*3*/, true /*4*/, false /*5*/, false /*6*/, false /*7*/, false /*8*/,
     true /*9*/, true /*10*/, true /*11*/, true /*12*/, true /*13*/, false /*14*/, false /*15*/, false /*16*/,
     false /*17*/}};
 
// rotations of modules around x-axis by 180 deg.
const Bool_t ModulesXRotations[NStations][NMaxModules] = {
    {false /*0*/, false /*1*/, false /*2*/, true /*3*/, true /*4*/, true /*5*/},
    {false /*0*/, false /*1*/, false /*2*/, false /*3*/, false /*4*/, true /*5*/, true /*6*/, true /*7*/, true /*8*/,
     true /*9*/},
    {false /*0*/, false /*1*/, false /*2*/, false /*3*/, false /*4*/, false /*5*/, false /*6*/, true /*7*/, true /*8*/,
     true /*9*/, true /*10*/, true /*11*/, true /*12*/, true /*13*/},
    {false /*0*/, false /*1*/, false /*2*/, false /*3*/, false /*4*/, false /*5*/, false /*6*/, false /*7*/,
     false /*8*/, true /*9*/, true /*10*/, true /*11*/, true /*12*/, true /*13*/, true /*14*/, true /*15*/, true /*16*/,
     true /*17*/}};
 
/*
//rotations of half-planes around y-axis (angles in degrees)
const Int_t NMaxHalfPlanes = 2;
const Double_t HalfPlanesYRotations[NStations][NMaxHalfPlanes] = {
    {-0.205, -0.235}, // st.0 (upper [0] and lower [1] half-planes)
    {-0.399, -0.173}, // st.1
    {-0.151, -0.584}, // st.2
    {-0.108, +0.367}  // st.3
};
*/
//------------------------------------------------------------------------------
 
// GeoManager
TGeoManager* gGeoMan = 0;
 
// Module parameters ------------------------------------------------------------
enum ModuleSize
{
    STANDARD_MODULE,
    LONG_MODULE
};   // STANDARD_MODULE is (63x126)mm, LONG_MODULE is (63x186)mm
const unsigned int NModuleSizes = 2;
 
Double_t YGapBetweenPartsOfModule[NModuleSizes] = {0.0035 /*STANDARD_MODULE*/, 0.0035 /*LONG_MODULE*/};   // Mrs. Slit
 
Double_t XModuleSize[NModuleSizes] = {6.3 /*STANDARD_MODULE*/, 6.3 /*LONG_MODULE*/};
 
Double_t YModuleSizeUpperPart[NModuleSizes] = {6.3 /*STANDARD_MODULE*/, 9.3 /*LONG_MODULE*/};
Double_t YModuleSizeLowerPart[NModuleSizes] = {6.3 /*STANDARD_MODULE*/, 9.3 /*LONG_MODULE*/};
 
Double_t YModuleSize[NModuleSizes] = {
    YModuleSizeUpperPart[STANDARD_MODULE] + YModuleSizeLowerPart[STANDARD_MODULE]
        + YGapBetweenPartsOfModule[STANDARD_MODULE], /*STANDARD_MODULE*/
    YModuleSizeUpperPart[LONG_MODULE] + YModuleSizeLowerPart[LONG_MODULE]
        + YGapBetweenPartsOfModule[LONG_MODULE] /*LONG_MODULE*/
};
 
Double_t ZModuleSize[NModuleSizes] = {z_mod_thick /*STANDARD_MODULE*/, z_mod_thick /*LONG_MODULE*/};
 
Double_t XBevelSize[NModuleSizes] = {3.82 /*STANDARD_MODULE*/, 3.82 /*LONG_MODULE*/};   // x-bevel for a angled cut
Double_t YBevelSize[NModuleSizes] = {3.82 /*STANDARD_MODULE*/, 3.82 /*LONG_MODULE*/};   // y-bevel for a angled cut
 
Double_t BevelAngleRad[NModuleSizes] = {
    TMath::ATan(XBevelSize[STANDARD_MODULE] / YBevelSize[STANDARD_MODULE]), /*STANDARD_MODULE*/
    TMath::ATan(XBevelSize[LONG_MODULE] / YBevelSize[LONG_MODULE])          /*LONG_MODULE*/
};
 
Double_t BevelAngleDeg[NModuleSizes] = {
    BevelAngleRad[STANDARD_MODULE] * TMath::RadToDeg(), /*STANDARD_MODULE*/
    BevelAngleRad[LONG_MODULE] * TMath::RadToDeg()      /*LONG_MODULE*/
};
 
Double_t XLeftBorder[NModuleSizes] = {0.1145 /*STANDARD_MODULE*/, 0.1118 /*LONG_MODULE*/};
Double_t XRightBorder[NModuleSizes] = {0.1118 /*STANDARD_MODULE*/, 0.1118 /*LONG_MODULE*/};
Double_t YTopBorder[NModuleSizes] = {0.1143 /*STANDARD_MODULE*/, 0.1148 /*LONG_MODULE*/};
Double_t YMiddleBorderUpperPart[NModuleSizes] = {0.1121 /*STANDARD_MODULE*/, 0.1148 /*LONG_MODULE*/};
Double_t YMiddleBorderLowerPart[NModuleSizes] = {0.1147 /*STANDARD_MODULE*/, 0.1148 /*LONG_MODULE*/};
Double_t YBottomBorder[NModuleSizes] = {0.1148 /*STANDARD_MODULE*/, 0.1148 /*LONG_MODULE*/};
Double_t XYBevelBorder[NModuleSizes] = {0.1146 /*STANDARD_MODULE*/, 0.1146 /*LONG_MODULE*/};
 
// Sensor zones ------------------------------------
Double_t XSensorZoneSize[NModuleSizes] = {
    XModuleSize[STANDARD_MODULE] - (XLeftBorder[STANDARD_MODULE] + XRightBorder[STANDARD_MODULE]), /*STANDARD_MODULE*/
    XModuleSize[LONG_MODULE] - (XLeftBorder[LONG_MODULE] + XRightBorder[LONG_MODULE])              /*LONG_MODULE*/
};
 
Double_t YSensorZoneSizeUpperPart[NModuleSizes] = {
    YModuleSizeUpperPart[STANDARD_MODULE]
        - (YTopBorder[STANDARD_MODULE] + YMiddleBorderUpperPart[STANDARD_MODULE]), /*STANDARD_MODULE*/
    YModuleSizeUpperPart[LONG_MODULE] - (YTopBorder[LONG_MODULE] + YMiddleBorderUpperPart[LONG_MODULE]) /*LONG_MODULE*/
};
 
Double_t YSensorZoneSizeLowerPart[NModuleSizes] = {
    YModuleSizeLowerPart[STANDARD_MODULE]
        - (YBottomBorder[STANDARD_MODULE] + YMiddleBorderLowerPart[STANDARD_MODULE]), /*STANDARD_MODULE*/
    YModuleSizeLowerPart[LONG_MODULE]
        - (YBottomBorder[LONG_MODULE] + YMiddleBorderLowerPart[LONG_MODULE]) /*LONG_MODULE*/
};
 
Double_t ZSensorZoneSize[NModuleSizes] = {
    ZModuleSize[STANDARD_MODULE], /*STANDARD_MODULE*/
    ZModuleSize[LONG_MODULE]      /*LONG_MODULE*/
};
//-------------------------------------------------
 
// Module frames -----------------------------------
Double_t XModuleFrameSize[NModuleSizes] = {
    XModuleSize[STANDARD_MODULE], /*STANDARD_MODULE*/
    XModuleSize[LONG_MODULE]      /*LONG_MODULE*/
};
 
Double_t YModuleFrameSize[NModuleSizes] = {
    YModuleSize[STANDARD_MODULE], /*STANDARD_MODULE*/
    YModuleSize[LONG_MODULE]      /*LONG_MODULE*/
};
 
Double_t ZModuleFrameSize[NModuleSizes] = {0.18 /*STANDARD_MODULE*/, 0.18 /*LONG_MODULE*/};
//-------------------------------------------------
 
// Y-shift from center of the gap to the global x-axis (for y-alignment of the module)
Double_t YShiftFromCenterToAxis[NModuleSizes] = {
    (YModuleSizeUpperPart[STANDARD_MODULE] - YModuleSizeLowerPart[STANDARD_MODULE]) * 0.5, /*STANDARD_MODULE*/
    (YModuleSizeUpperPart[LONG_MODULE] - YModuleSizeLowerPart[LONG_MODULE]) * 0.5          /*LONG_MODULE*/
};
 
// X-shift from center of the module to the origin of the local x-axis
Double_t XShiftFromCenterToLocalX0[NModuleSizes] = {
    +XModuleSize[STANDARD_MODULE] * 0.5, /*STANDARD_MODULE*/
    +XModuleSize[LONG_MODULE] * 0.5      /*LONG_MODULE*/
};
 
// Y-shift from center of the module to the origin of the local y-axis
Double_t YShiftFromCenterToLocalY0[NModuleSizes] = {
    +(YModuleSizeLowerPart[STANDARD_MODULE] + YGapBetweenPartsOfModule[STANDARD_MODULE] * 0.5), /*STANDARD_MODULE*/
    +(YModuleSizeLowerPart[LONG_MODULE] + YGapBetweenPartsOfModule[LONG_MODULE] * 0.5)          /*LONG_MODULE*/
};
//------------------------------------------------------------------------------
/*
     ASCII module picture (view from target)
 
        |<---- XModuleSize ---------->|         ^
        |                             |         | Y-axis
        ------------------------------  ---------
        |   |    top border       |   |         ^
        ------------------------------          |
        |   |                     |   |         |
        | l |    rectangle        | r |         |
        | e |      sensor         | i |         |
        | f |       zone          | g |         |
        | t |                     | h |         |
        |   |                     | t |         |
        |   |                     |   |         |
        ------------------------------          |
        |   | middle (upper part) |   |
        ------ gap between parts -----      YModuleSize
        |   | middle (lower part) |   |
        ------------------------------          |
        |   |                     |   |         |
        | b |   bevel (or rect.)  | r |         |
        | e |      sensor         | i |         |
         \ v \      zone          | g |         |
          \ e \                   | h |         |
           \ l \                  | t |         |
            \   \                 |   |         |
             -------------------------          |
              \   \  bottom       |   |         v
                ----------------------  ---------
 
 *  x-axis <----------------------------------(x0,y0) local point
 */
 
// media
TGeoMedium* pMedAir = 0;
TGeoMedium* pMedCarbon = 0;
TGeoMedium* pMedFiberGlass = 0;
TGeoMedium* pMedCopper = 0;
TGeoMedium* pMedSilicon = 0;
 
class FairGeoMedia;
class FairGeoBuilder;
 
// function declarations
TGeoVolume* CreateStation(TString station_name);
TGeoVolume* CreateModule(TString module_name, ModuleType module_type, ModuleSize module_size);
 
void DefineRequiredMedia(FairGeoMedia* geoMedia, FairGeoBuilder* geoBuild)
{
 
    // air medium
    FairGeoMedium* mAir = geoMedia->getMedium("air");
    if (!mAir)
        Fatal("Main", "FairMedium air not found");
    geoBuild->createMedium(mAir);
    pMedAir = gGeoManager->GetMedium("air");
    if (!pMedAir)
        Fatal("Main", "Medium air not found");
 
    // carbon medium
    FairGeoMedium* mCarbon = geoMedia->getMedium("carbon");
    if (!mCarbon)
        Fatal("Main", "FairMedium carbon not found");
    geoBuild->createMedium(mCarbon);
    pMedCarbon = gGeoManager->GetMedium("carbon");
    if (!pMedCarbon)
        Fatal("Main", "Medium carbon not found");
 
    // fiberglass medium
    FairGeoMedium* mFiberGlass = geoMedia->getMedium("fiberglass");
    if (!mFiberGlass)
        Fatal("Main", "FairMedium fiberglass not found");
    geoBuild->createMedium(mFiberGlass);
    pMedFiberGlass = gGeoManager->GetMedium("fiberglass");
    if (!pMedFiberGlass)
        Fatal("Main", "Medium fiberglass not found");
 
    // copper medium
    FairGeoMedium* mCopper = geoMedia->getMedium("copper");
    if (!mCopper)
        Fatal("Main", "FairMedium copper not found");
    geoBuild->createMedium(mCopper);
    pMedCopper = gGeoManager->GetMedium("copper");
    if (!pMedCopper)
        Fatal("Main", "Medium copper not found");
 
    // silicon medium
    FairGeoMedium* mSilicon = geoMedia->getMedium("silicon");
    if (!mSilicon)
        Fatal("Main", "FairMedium silicon not found");
    geoBuild->createMedium(mSilicon);
    pMedSilicon = gGeoManager->GetMedium("silicon");
    if (!pMedSilicon)
        Fatal("Main", "Medium silicon not found");
}
 
void PrintInfoAboutModuleParameters()
{
    cout << "\n";
    cout << "Module parameters information [STANDARD_MODULE]: ------------------" << "\n";
    cout << "  XModuleSize = " << XModuleSize[STANDARD_MODULE] << " cm" << "\n";
    cout << "  YModuleSize = " << YModuleSize[STANDARD_MODULE] << " cm" << " ( "
         << YModuleSizeUpperPart[STANDARD_MODULE] << " + " << YGapBetweenPartsOfModule[STANDARD_MODULE] << " + "
         << YModuleSizeLowerPart[STANDARD_MODULE] << " )" << "\n";
    cout << "     YModuleSizeUpperPart = " << YModuleSizeUpperPart[STANDARD_MODULE] << " cm" << "\n";
    cout << "     YModuleSizeLowerPart = " << YModuleSizeLowerPart[STANDARD_MODULE] << " cm" << "\n";
    cout << "     YGapBetweenPartsOfModule = " << YGapBetweenPartsOfModule[STANDARD_MODULE] << " cm" << "\n";
    cout << "  ZModuleSize = " << ZModuleSize[STANDARD_MODULE] << " cm" << "\n";
    cout << "\n";
    cout << "  XBevelSize = " << XBevelSize[STANDARD_MODULE] << " cm" << "\n";
    cout << "  YBevelSize = " << YBevelSize[STANDARD_MODULE] << " cm" << "\n";
    cout << "     BevelAngleDeg = " << BevelAngleDeg[STANDARD_MODULE] << " deg" << "\n";
    cout << "\n";
    cout << "  XLeftBorder = " << XLeftBorder[STANDARD_MODULE] << " cm" << "\n";
    cout << "  XRightBorder = " << XRightBorder[STANDARD_MODULE] << " cm" << "\n";
    cout << "  YTopBorder = " << YTopBorder[STANDARD_MODULE] << " cm" << "\n";
    cout << "  YMiddleBorderUpperPart = " << YMiddleBorderUpperPart[STANDARD_MODULE] << " cm" << "\n";
    cout << "  YGapBetweenPartsOfModule = " << YGapBetweenPartsOfModule[STANDARD_MODULE] << " cm"
         << " (gap between two parts)\n";
    cout << "  YMiddleBorderLowerPart = " << YMiddleBorderLowerPart[STANDARD_MODULE] << " cm" << "\n";
    cout << "  YBottomBorder = " << YBottomBorder[STANDARD_MODULE] << " cm" << "\n";
    cout << "  XYBevelBorder = " << XYBevelBorder[STANDARD_MODULE] << " cm" << "\n";
    cout << "\n";
    cout << "  XSensorZoneSize = " << XSensorZoneSize[STANDARD_MODULE] << " cm" << "\n";
    cout << "  YSensorZoneSizeUpperPart = " << YSensorZoneSizeUpperPart[STANDARD_MODULE] << " cm" << "\n";
    cout << "  YSensorZoneSizeLowerPart = " << YSensorZoneSizeLowerPart[STANDARD_MODULE] << " cm" << "\n";
    cout << "  ZSensorZoneSize = " << ZSensorZoneSize[STANDARD_MODULE] << " cm" << "\n";
 
    cout << "-------------------------------------------------------------\n";
 
    cout << "\n";
    cout << "Module parameters information [LONG_MODULE]: ------------------" << "\n";
    cout << "  XModuleSize = " << XModuleSize[LONG_MODULE] << " cm" << "\n";
    cout << "  YModuleSize = " << YModuleSize[LONG_MODULE] << " cm" << " ( " << YModuleSizeUpperPart[LONG_MODULE]
         << " + " << YGapBetweenPartsOfModule[LONG_MODULE] << " + " << YModuleSizeLowerPart[LONG_MODULE] << " )"
         << "\n";
    cout << "     YModuleSizeUpperPart = " << YModuleSizeUpperPart[LONG_MODULE] << " cm" << "\n";
    cout << "     YModuleSizeLowerPart = " << YModuleSizeLowerPart[LONG_MODULE] << " cm" << "\n";
    cout << "     YGapBetweenPartsOfModule = " << YGapBetweenPartsOfModule[LONG_MODULE] << " cm" << "\n";
    cout << "  ZModuleSize = " << ZModuleSize[LONG_MODULE] << " cm" << "\n";
    cout << "\n";
    cout << "  XBevelSize = " << XBevelSize[LONG_MODULE] << " cm" << "\n";
    cout << "  YBevelSize = " << YBevelSize[LONG_MODULE] << " cm" << "\n";
    cout << "     BevelAngleDeg = " << BevelAngleDeg[LONG_MODULE] << " deg" << "\n";
    cout << "\n";
    cout << "  XLeftBorder = " << XLeftBorder[LONG_MODULE] << " cm" << "\n";
    cout << "  XRightBorder = " << XRightBorder[LONG_MODULE] << " cm" << "\n";
    cout << "  YTopBorder = " << YTopBorder[LONG_MODULE] << " cm" << "\n";
    cout << "  YMiddleBorderUpperPart = " << YMiddleBorderUpperPart[LONG_MODULE] << " cm" << "\n";
    cout << "  YGapBetweenPartsOfModule = " << YGapBetweenPartsOfModule[LONG_MODULE] << " cm"
         << " (gap between two parts)\n";
    cout << "  YMiddleBorderLowerPart = " << YMiddleBorderLowerPart[LONG_MODULE] << " cm" << "\n";
    cout << "  YBottomBorder = " << YBottomBorder[LONG_MODULE] << " cm" << "\n";
    cout << "  XYBevelBorder = " << XYBevelBorder[LONG_MODULE] << " cm" << "\n";
    cout << "\n";
    cout << "  XSensorZoneSize = " << XSensorZoneSize[LONG_MODULE] << " cm" << "\n";
    cout << "  YSensorZoneSizeUpperPart = " << YSensorZoneSizeUpperPart[LONG_MODULE] << " cm" << "\n";
    cout << "  YSensorZoneSizeLowerPart = " << YSensorZoneSizeLowerPart[LONG_MODULE] << " cm" << "\n";
    cout << "  ZSensorZoneSize = " << ZSensorZoneSize[LONG_MODULE] << " cm" << "\n";
 
    cout << "-------------------------------------------------------------\n";
}
 
void PrintInformationAboutStations()
{
    cout << "\n";
    for (Int_t istation = 0; istation < NStations; ++istation) {
        cout << "station " << istation << ":\n";
        cout << "   XStationPositions[" << istation << "] = " << XStationPositions[istation] << " cm\n";
        cout << "   YStationPositions[" << istation << "] = " << YStationPositions[istation] << " cm\n";
        cout << "   ZStationPositions[" << istation << "] = " << ZStationPositions[istation] << " cm\n";
        cout << "\n";
 
        for (Int_t imodule = 0; imodule < NModulesInStations[istation]; ++imodule) {
            cout << "   module " << imodule << ":\n";
            cout << "      XModuleShifts[" << istation << "][" << imodule << "] = " << XModuleShifts[istation][imodule]
                 << " cm\n";
            cout << "      YModuleShifts[" << istation << "][" << imodule << "] = " << YModuleShifts[istation][imodule]
                 << " cm\n";
            cout << "      ZModuleShifts[" << istation << "][" << imodule << "] = " << ZModuleShifts[istation][imodule]
                 << " cm\n";
            cout << "\n";
 
            Double_t XGlobalModulePos = XModuleShifts[istation][imodule] + XStationPositions[istation];
            Double_t YGlobalModulePos = YModuleShifts[istation][imodule] + YStationPositions[istation];
            Double_t ZGlobalModulePos = ZModuleShifts[istation][imodule] + ZStationPositions[istation];
 
            cout << "      XGlobalModulePos = " << XGlobalModulePos << " cm\n";
            cout << "      YGlobalModulePos = " << YGlobalModulePos << " cm\n";
            cout << "      ZGlobalModulePos = " << ZGlobalModulePos << " cm\n";
            cout << "\n";
 
            cout << "      ModulesTypes[" << istation << "][" << imodule << "] = ";
            if (ModulesTypes[istation][imodule] == 0)
                cout << "RIGHT_ANGLED_MODULE\n";
            if (ModulesTypes[istation][imodule] == 1)
                cout << "BEVEL_MODULE\n";
            if (ModulesTypes[istation][imodule] == 2)
                cout << "RIGHT_ANGLED_MODULE_HALF\n";
            if (ModulesTypes[istation][imodule] == 3)
                cout << "BEVEL_MODULE_HALF\n";
            cout << "      ModulesYRotations[" << istation << "][" << imodule << "] = ";
            if (ModulesYRotations[istation][imodule] == false)
                cout << "not rotated around Y\n";
            if (ModulesYRotations[istation][imodule] == true)
                cout << "rotated around Y\n";
            cout << "      ModulesXRotations[" << istation << "][" << imodule << "] = ";
            if (ModulesXRotations[istation][imodule] == false)
                cout << "not rotated around X\n";
            if (ModulesXRotations[istation][imodule] == true)
                cout << "rotated around X\n";
            cout << "\n";
        }
        cout << "-------------------------------------------------------------\n";
    }
    cout << "-------------------------------------------------------------\n";
}
 
void create_rootgeom_Silicon_Run9()
{
 
    // ----  set working directory  --------------------------------------------
    TString gPath = gSystem->Getenv("VMCWORKDIR");
 
    // -------   Geometry file name (output)   ----------------------------------
    const TString geoDetectorName = "Silicon";
    const TString geoDetectorVersion = "Run9";
    const TString geoFileName = gPath + "/geometry/" + geoDetectorName + "_" + geoDetectorVersion + ".root";
 
    // ----  global geometry parameters  ---------------------------------------
    FairGeoLoader* geoLoad = new FairGeoLoader("TGeo", "FairGeoLoader");
    FairGeoInterface* geoFace = geoLoad->getGeoInterface();
 
    // -------   Load media from media file   ----------------------------------
    TString medFile = gPath + "/geometry/media.geo";
    geoFace->setMediaFile(medFile);
    geoFace->readMedia();
    FairGeoMedia* geoMedia = geoFace->getMedia();
    FairGeoBuilder* geoBuild = geoLoad->getGeoBuilder();
 
    DefineRequiredMedia(geoMedia, geoBuild);
    // -------------------------------------------------------------------------
 
    // Print information about parameters of SILICON
    PrintInfoAboutModuleParameters();
    PrintInformationAboutStations();
 
    // --------------   Create geometry and top volume  -------------------------
    gGeoMan = (TGeoManager*)gROOT->FindObject("FAIRGeom");
    gGeoMan->SetName(geoDetectorName + "_geom");
    TGeoVolume* top = new TGeoVolumeAssembly("TOP");
    top->SetMedium(pMedAir);
    gGeoMan->SetTopVolume(top);
    // gGeoMan->SetTopVisible(1);
    //  --------------------------------------------------------------------------
 
    // Define TOP Geometry
    TGeoVolume* SILICON = new TGeoVolumeAssembly(geoDetectorName);
    SILICON->SetMedium(pMedAir);
 
    // Let's create SILICON stations filled with modules
    for (Int_t istation = 0; istation < NStations; ++istation) {
        // for(Int_t istation = 0; istation < 1; ++istation) {
 
        // module size in a station
        ModuleSize module_size = STANDARD_MODULE;
 
        if (istation == 0)
            module_size = LONG_MODULE;
 
        TGeoVolume* station = CreateStation(TString("station") + TString::Itoa(istation, 10) + TString("_Silicon"));
 
        Int_t NModules = NModulesInStations[istation];
 
        TGeoVolume* modules[NModules];
        TGeoCombiTrans* modTransforms[NModules];
 
        for (Int_t imodule = 0; imodule < NModules; ++imodule) {
 
            TString module_name = TString("module") + TString::Itoa(imodule, 10) + TString("_") + station->GetName();
            modules[imodule] = CreateModule(module_name, ModulesTypes[istation][imodule], module_size);
 
            modTransforms[imodule] = new TGeoCombiTrans();
 
            if (ModulesYRotations[istation][imodule]) {
                modTransforms[imodule]->RotateY(180.0);
                modTransforms[imodule]->SetDx(XModuleShifts[istation][imodule]
                                              - XShiftFromCenterToLocalX0[module_size]);
            } else {
                modTransforms[imodule]->SetDx(XModuleShifts[istation][imodule]
                                              + XShiftFromCenterToLocalX0[module_size]);
            }
 
            if (ModulesXRotations[istation][imodule]) {
                modTransforms[imodule]->RotateX(180.0);
                if (ModulesTypes[istation][imodule] == ModuleType::BEVEL_MODULE_HALF
                    || ModulesTypes[istation][imodule] == ModuleType::RIGHT_ANGLED_MODULE_HALF)
                {
                    modTransforms[imodule]->SetDy(YModuleShifts[istation][imodule]
                                                  - YModuleSizeUpperPart[module_size] * 0.5);
                } else {
                    modTransforms[imodule]->SetDy(YModuleShifts[istation][imodule] + YShiftFromCenterToAxis[module_size]
                                                  - YShiftFromCenterToLocalY0[module_size]);
                }
            } else {
                if (ModulesTypes[istation][imodule] == ModuleType::BEVEL_MODULE_HALF
                    || ModulesTypes[istation][imodule] == ModuleType::RIGHT_ANGLED_MODULE_HALF)
                {
                    modTransforms[imodule]->SetDy(YModuleShifts[istation][imodule]
                                                  + YModuleSizeUpperPart[module_size] * 0.5);
                } else {
                    modTransforms[imodule]->SetDy(YModuleShifts[istation][imodule] + YShiftFromCenterToAxis[module_size]
                                                  + YShiftFromCenterToLocalY0[module_size]);
                }
            }
 
            Double_t z_module_shift =
                +ZModuleSize[module_size] * 0.5;   // To z-module position is at the beginning of the sensitive volume
            modTransforms[imodule]->SetDz(ZModuleShifts[istation][imodule] + z_module_shift);
 
            // Rotate half-planes
            if (imodule < NModulesInStations[istation] / 2) {   // modules of upper half-plane
                modTransforms[imodule]->SetDx(modTransforms[imodule]->GetTranslation()[0] - x_shift_hp[istation]);
                modTransforms[imodule]->SetDy(modTransforms[imodule]->GetTranslation()[1] - y_shift_hp[istation]);
                modTransforms[imodule]->SetDz(modTransforms[imodule]->GetTranslation()[2] - z_shift_hp[istation]);
 
                // modTransforms[imodule]->RotateY(HalfPlanesYRotations[istation][0]);
 
                modTransforms[imodule]->SetDx(modTransforms[imodule]->GetTranslation()[0] + x_shift_hp[istation]);
                modTransforms[imodule]->SetDy(modTransforms[imodule]->GetTranslation()[1] + y_shift_hp[istation]);
                modTransforms[imodule]->SetDz(modTransforms[imodule]->GetTranslation()[2] + z_shift_hp[istation]);
            } else {   // modules of lower half-plane
                modTransforms[imodule]->SetDz(ZModuleShifts[istation][imodule] + z_module_shift);
                // modTransforms[imodule]->RotateY(HalfPlanesYRotations[istation][1]);
            }
 
            station->AddNode(modules[imodule], 0, modTransforms[imodule]);
        }
 
        TGeoCombiTrans* station_transform = new TGeoCombiTrans();
        station_transform->SetTranslation(XStationPositions[istation], YStationPositions[istation],
                                          ZStationPositions[istation]);
 
        SILICON->AddNode(station, 0, station_transform);
    }
 
    top->AddNode(SILICON, 0);
    top->SetVisContainers(kTRUE);
 
    // ---------------   Finish   ----------------------------------------------
    gGeoMan->CloseGeometry();
    gGeoMan->CheckOverlaps(0.0001);
    gGeoMan->PrintOverlaps();
    gGeoMan->Test();
 
    TFile* geoFile = new TFile(geoFileName, "RECREATE");
    top->Write();
    geoFile->Close();
    top->Draw("ogl");
}
//------------------------------------------------------------------------------
 
TGeoVolume* CreateStation(TString station_name)
{
 
    TGeoVolume* stationA = new TGeoVolumeAssembly(station_name);
    stationA->SetMedium(pMedAir);
 
    return stationA;
}
 
TGeoVolume* CreateModule(TString module_name, ModuleType module_type, ModuleSize module_size)
{
 
    // Shapes -------------------------------------------------------------------
    // module shape
    TGeoShape* moduleS = 0;
 
    switch (module_type) {
        case RIGHT_ANGLED_MODULE: {
            moduleS = new TGeoBBox(TString("moduleS") + TString("_") + module_name, XModuleSize[module_size] * 0.5,
                                   YModuleSize[module_size] * 0.5, ZModuleSize[module_size] * 0.5);
            break;
        }
        case RIGHT_ANGLED_MODULE_HALF: {
            moduleS = new TGeoBBox(TString("moduleS") + TString("_") + module_name, XModuleSize[module_size] * 0.5,
                                   YModuleSizeUpperPart[module_size] * 0.5, ZModuleSize[module_size] * 0.5);
            break;
        }
        case BEVEL_MODULE: {
            moduleS = new TGeoXtru(2);
            moduleS->SetName(TString("moduleS") + TString("_") + module_name);
            Double_t x_pos[5] = {
                +XModuleSize[module_size] * 0.5, -XModuleSize[module_size] * 0.5, -XModuleSize[module_size] * 0.5,
                +XModuleSize[module_size] * 0.5 - XBevelSize[module_size], +XModuleSize[module_size] * 0.5};
            Double_t y_pos[5] = {+YModuleSize[module_size] * 0.5, +YModuleSize[module_size] * 0.5,
                                 -YModuleSize[module_size] * 0.5, -YModuleSize[module_size] * 0.5,
                                 -YModuleSize[module_size] * 0.5 + YBevelSize[module_size]};
            ((TGeoXtru*)moduleS)->DefinePolygon(5, x_pos, y_pos);
            ((TGeoXtru*)moduleS)->DefineSection(0, -ZModuleSize[module_size] * 0.5);
            ((TGeoXtru*)moduleS)->DefineSection(1, +ZModuleSize[module_size] * 0.5);
            break;
        }
        case BEVEL_MODULE_HALF: {
            moduleS = new TGeoXtru(2);
            moduleS->SetName(TString("moduleS") + TString("-") + module_name);
            Double_t x_pos[5] = {
                +XModuleSize[module_size] * 0.5, -XModuleSize[module_size] * 0.5, -XModuleSize[module_size] * 0.5,
                +XModuleSize[module_size] * 0.5 - XBevelSize[module_size], +XModuleSize[module_size] * 0.5};
            Double_t y_pos[5] = {+YModuleSizeUpperPart[module_size] * 0.5, +YModuleSizeUpperPart[module_size] * 0.5,
                                 -YModuleSizeUpperPart[module_size] * 0.5, -YModuleSizeUpperPart[module_size] * 0.5,
                                 -YModuleSizeUpperPart[module_size] * 0.5 + YBevelSize[module_size]};
            ((TGeoXtru*)moduleS)->DefinePolygon(5, x_pos, y_pos);
            ((TGeoXtru*)moduleS)->DefineSection(0, -ZModuleSize[module_size] * 0.5);
            ((TGeoXtru*)moduleS)->DefineSection(1, +ZModuleSize[module_size] * 0.5);
            break;
        }
        default:
            Error("CreateModule()", "Incorrect module type selected!!!");
    }
 
    // sensor zone shape (upper part of the module: rectangle zone)
    TGeoShape* sensor_zone_upper_part_rectS = new TGeoBBox(
        TString("sensor_zone_upper_part_rectS") + TString("_") + module_name, XSensorZoneSize[module_size] * 0.5,
        YSensorZoneSizeUpperPart[module_size] * 0.5, ZSensorZoneSize[module_size] * 0.5);
 
    // sensor zone shape (upper part of the module: bevel zone)
    TGeoShape* sensor_zone_upper_part_bevelS = new TGeoXtru(2);
    sensor_zone_upper_part_bevelS->SetName(TString("sensor_zone_upper_part_bevelS") + TString("_") + module_name);
    // Calculate coordinates of the bottom and the top points of the inner bevel
    {
        // find x and y projections of the bevel border thickness
        Double_t x_delta = XYBevelBorder[module_size] / TMath::Cos(BevelAngleRad[module_size]);
        Double_t y_delta = XYBevelBorder[module_size] / TMath::Sin(BevelAngleRad[module_size]);
 
        // find shifts of the sensitive zone from module borders via the equation of the straight line for the inner
        // bevel
        Double_t x_delta_top_BP = XLeftBorder[module_size];
        Double_t y_delta_top_BP = TMath::Tan(TMath::PiOver2() + BevelAngleRad[module_size]) * x_delta_top_BP
                                  + (YBevelSize[module_size] + y_delta);
 
        Double_t y_delta_bottom_BP = YMiddleBorderUpperPart[module_size];
        Double_t x_delta_bottom_BP = (y_delta_bottom_BP - (YBevelSize[module_size] + y_delta))
                                     / (TMath::Tan(TMath::PiOver2() + BevelAngleRad[module_size]));
        //----------------------------------------------------------------------
 
        Double_t x_pos_sensor_zone_bevel[5] = {+XModuleSize[module_size] * 0.5 - XLeftBorder[module_size],
                                               -XModuleSize[module_size] * 0.5 + XRightBorder[module_size],
                                               -XModuleSize[module_size] * 0.5 + XRightBorder[module_size],
                                               +XModuleSize[module_size] * 0.5 - x_delta_bottom_BP,
                                               +XModuleSize[module_size] * 0.5 - XLeftBorder[module_size]};
        Double_t y_pos_sensor_zone_bevel[5] = {
            +YModuleSizeUpperPart[module_size] * 0.5 - YTopBorder[module_size],
            +YModuleSizeUpperPart[module_size] * 0.5 - YTopBorder[module_size],
            -YModuleSizeUpperPart[module_size] * 0.5 + YMiddleBorderUpperPart[module_size],
            -YModuleSizeUpperPart[module_size] * 0.5 + YMiddleBorderUpperPart[module_size],
            -YModuleSizeUpperPart[module_size] * 0.5 + y_delta_top_BP};
 
        ((TGeoXtru*)sensor_zone_upper_part_bevelS)->DefinePolygon(5, x_pos_sensor_zone_bevel, y_pos_sensor_zone_bevel);
        ((TGeoXtru*)sensor_zone_upper_part_bevelS)->DefineSection(0, -ZModuleSize[module_size] * 0.5);
        ((TGeoXtru*)sensor_zone_upper_part_bevelS)->DefineSection(1, +ZModuleSize[module_size] * 0.5);
    }
 
    // sensor zone shape (lower part of the module: rectangle zone)
    TGeoShape* sensor_zone_lower_part_rectS = new TGeoBBox(
        TString("sensor_zone_lower_part_rectS") + TString("_") + module_name, XSensorZoneSize[module_size] * 0.5,
        YSensorZoneSizeLowerPart[module_size] * 0.5, ZSensorZoneSize[module_size] * 0.5);
 
    // sensor zone shape (lower part of the module: bevel zone)
    TGeoShape* sensor_zone_lower_part_bevelS = new TGeoXtru(2);
    sensor_zone_lower_part_bevelS->SetName(TString("sensor_zone_lower_part_bevelS") + TString("_") + module_name);
    // Calculate coordinates of the bottom and the top points of the inner bevel
    {
        // find x and y projections of the bevel border thickness
        Double_t x_delta = XYBevelBorder[module_size] / TMath::Cos(BevelAngleRad[module_size]);
        Double_t y_delta = XYBevelBorder[module_size] / TMath::Sin(BevelAngleRad[module_size]);
 
        // find shifts of the sensitive zone from module borders via the equation of the straight line for the inner
        // bevel
        Double_t x_delta_top_BP = XLeftBorder[module_size];
        Double_t y_delta_top_BP = TMath::Tan(TMath::PiOver2() + BevelAngleRad[module_size]) * x_delta_top_BP
                                  + (YBevelSize[module_size] + y_delta);
 
        Double_t y_delta_bottom_BP = YBottomBorder[module_size];
        Double_t x_delta_bottom_BP = (y_delta_bottom_BP - (YBevelSize[module_size] + y_delta))
                                     / (TMath::Tan(TMath::PiOver2() + BevelAngleRad[module_size]));
        //----------------------------------------------------------------------
 
        Double_t x_pos_sensor_zone_bevel[5] = {+XModuleSize[module_size] * 0.5 - XLeftBorder[module_size],
                                               -XModuleSize[module_size] * 0.5 + XRightBorder[module_size],
                                               -XModuleSize[module_size] * 0.5 + XRightBorder[module_size],
                                               +XModuleSize[module_size] * 0.5 - x_delta_bottom_BP,
                                               +XModuleSize[module_size] * 0.5 - XLeftBorder[module_size]};
        Double_t y_pos_sensor_zone_bevel[5] = {
            +YModuleSizeLowerPart[module_size] * 0.5 - YMiddleBorderLowerPart[module_size],
            +YModuleSizeLowerPart[module_size] * 0.5 - YMiddleBorderLowerPart[module_size],
            -YModuleSizeLowerPart[module_size] * 0.5 + YBottomBorder[module_size],
            -YModuleSizeLowerPart[module_size] * 0.5 + YBottomBorder[module_size],
            -YModuleSizeLowerPart[module_size] * 0.5 + y_delta_top_BP};
 
        ((TGeoXtru*)sensor_zone_lower_part_bevelS)->DefinePolygon(5, x_pos_sensor_zone_bevel, y_pos_sensor_zone_bevel);
        ((TGeoXtru*)sensor_zone_lower_part_bevelS)->DefineSection(0, -ZModuleSize[module_size] * 0.5);
        ((TGeoXtru*)sensor_zone_lower_part_bevelS)->DefineSection(1, +ZModuleSize[module_size] * 0.5);
    }
 
    //--------------------------------------------------------------------------
 
    // Volumes ------------------------------------------------------------------
 
    TGeoVolume* moduleV = new TGeoVolume(module_name, moduleS);
 
    // sensor zone volume (upper part of the module)
    TGeoVolume* sensor_zone_upper_part_rectV = new TGeoVolume(
        TString("Sensor_zone_upper_part_rectV") + TString("_") + module_name, sensor_zone_upper_part_rectS);
 
    // sensor zone volume (lower part of the module)
    TGeoVolume* sensor_zone_upper_part_bevelV = new TGeoVolume(
        TString("Sensor_zone_upper_part_bevelV") + TString("_") + module_name, sensor_zone_upper_part_bevelS);
 
    // sensor zone volume (lower part of the module: rectangle zone)
    TGeoVolume* sensor_zone_lower_part_rectV = new TGeoVolume(
        TString("Sensor_zone_lower_part_rectV") + TString("_") + module_name, sensor_zone_lower_part_rectS);
 
    // sensor zone volume (lower part of the module: bevel zone)
    TGeoVolume* sensor_zone_lower_part_bevelV = new TGeoVolume(
        TString("Sensor_zone_lower_part_bevelV") + TString("_") + module_name, sensor_zone_lower_part_bevelS);
 
    // volumes media
    TGeoMedium* silicon_medium = pMedSilicon;
    if (silicon_medium) {
        moduleV->SetMedium(silicon_medium);
        sensor_zone_upper_part_rectV->SetMedium(silicon_medium);
        sensor_zone_upper_part_bevelV->SetMedium(silicon_medium);
        sensor_zone_lower_part_rectV->SetMedium(silicon_medium);
        sensor_zone_lower_part_bevelV->SetMedium(silicon_medium);
    } else
        Fatal("Main", "Invalid medium for modules and sensor zones!");
 
    // volumes visual property (transparency)
    moduleV->SetLineColor(TColor::GetColor("#ff47ca"));
    sensor_zone_upper_part_rectV->SetLineColor(TColor::GetColor("#e0b0ff"));
    sensor_zone_upper_part_bevelV->SetLineColor(TColor::GetColor("#e0b0ff"));
    sensor_zone_lower_part_rectV->SetLineColor(TColor::GetColor("#e0b0ff"));
    sensor_zone_lower_part_bevelV->SetLineColor(TColor::GetColor("#e0b0ff"));
    moduleV->SetTransparency(50);
 
    switch (module_type) {
 
        case RIGHT_ANGLED_MODULE: {
 
            // position of the sensor zone in the upper part of the module
            TGeoTranslation* sensor_zone_upper_part_pos = new TGeoTranslation();
            sensor_zone_upper_part_pos->SetDx(+(XLeftBorder[module_size] + XRightBorder[module_size]) * 0.5
                                              - XLeftBorder[module_size]);
            sensor_zone_upper_part_pos->SetDy(
                +YSensorZoneSizeUpperPart[module_size] * 0.5 + YGapBetweenPartsOfModule[module_size] * 0.5
                + YMiddleBorderUpperPart[module_size] - YShiftFromCenterToAxis[module_size]);
            sensor_zone_upper_part_pos->SetDz(0.0);
 
            // position of the sensor zone in the lower part of the module
            TGeoTranslation* sensor_zone_lower_part_pos = new TGeoTranslation();
            sensor_zone_lower_part_pos->SetDx(+(XLeftBorder[module_size] + XRightBorder[module_size]) * 0.5
                                              - XLeftBorder[module_size]);
            sensor_zone_lower_part_pos->SetDy(
                -YSensorZoneSizeLowerPart[module_size] * 0.5 - YGapBetweenPartsOfModule[module_size] * 0.5
                - YMiddleBorderLowerPart[module_size] - YShiftFromCenterToAxis[module_size]);
            sensor_zone_lower_part_pos->SetDz(0.0);
 
            moduleV->AddNode(sensor_zone_upper_part_rectV, 0, sensor_zone_upper_part_pos);
            moduleV->AddNode(sensor_zone_lower_part_rectV, 0, sensor_zone_lower_part_pos);
            break;
        }
 
        case RIGHT_ANGLED_MODULE_HALF: {
            // position of the sensor zone in the upper part of the module
            TGeoTranslation* sensor_zone_upper_part_pos = new TGeoTranslation();
            sensor_zone_upper_part_pos->SetDx(+(XLeftBorder[module_size] + XRightBorder[module_size]) * 0.5
                                              - XLeftBorder[module_size]);
            sensor_zone_upper_part_pos->SetDy(+(YTopBorder[module_size] + YMiddleBorderUpperPart[module_size]) * 0.5
                                              - YTopBorder[module_size]);
            sensor_zone_upper_part_pos->SetDz(0.0);
 
            moduleV->AddNode(sensor_zone_upper_part_rectV, 0, sensor_zone_upper_part_pos);
            break;
        }
 
        case BEVEL_MODULE: {
 
            // position of the sensor zone in the upper part of the module
            TGeoTranslation* sensor_zone_upper_part_pos = new TGeoTranslation();
            sensor_zone_upper_part_pos->SetDx(+(XLeftBorder[module_size] + XRightBorder[module_size]) * 0.5
                                              - XLeftBorder[module_size]);
            sensor_zone_upper_part_pos->SetDy(
                +YSensorZoneSizeUpperPart[module_size] * 0.5 + YGapBetweenPartsOfModule[module_size] * 0.5
                + YMiddleBorderUpperPart[module_size] - YShiftFromCenterToAxis[module_size]);
            sensor_zone_upper_part_pos->SetDz(0.0);
 
            // position of the sensor zone in the lower part of the module
            TGeoTranslation* sensor_zone_lower_part_bevel_pos = new TGeoTranslation();
            sensor_zone_lower_part_bevel_pos->SetDx(0.0);
            sensor_zone_lower_part_bevel_pos->SetDy(-YModuleSizeLowerPart[module_size] * 0.5
                                                    - YGapBetweenPartsOfModule[module_size] * 0.5
                                                    - YShiftFromCenterToAxis[module_size]);
            sensor_zone_lower_part_bevel_pos->SetDz(0.0);
 
            moduleV->AddNode(sensor_zone_upper_part_rectV, 0, sensor_zone_upper_part_pos);
            moduleV->AddNode(sensor_zone_lower_part_bevelV, 0, sensor_zone_lower_part_bevel_pos);
            break;
        }
 
        case BEVEL_MODULE_HALF: {
 
            // position of the sensor zone in the upper part of the module
            TGeoTranslation* sensor_zone_upper_part_pos = new TGeoTranslation();
            sensor_zone_upper_part_pos->SetDx(0);
            sensor_zone_upper_part_pos->SetDy(0);
            sensor_zone_upper_part_pos->SetDz(0.0);
 
            moduleV->AddNode(sensor_zone_upper_part_bevelV, 0, sensor_zone_upper_part_pos);
            break;
        }
 
        default:
            Error("CreateModule()", "Incorrect module type selected!!!");
    }
 
    return moduleV;
}