The Class for ARICH Geometry Parameters. More...

#include <ARICHGeometryConfig.h>

Inheritance diagram for ARICHGeometryConfig:

Public Member Functions
	ARICHGeometryConfig ()
	Default constructor.

	ARICHGeometryConfig (const GearDir &)
	Constructor.

void	clear (void)
	Clears.

void	print (const std::string &title="ARICH geometry parameters") const
	Print some debug information.

void	read (const GearDir &content)
	gets geometry parameters from gearbox.

double	getDetectorZPosition () const
	get z position of detector plane (starting z of HAPDs)

int	doBeamBackgroundStudy () const
	returns 1 if beam background study (to add additional sensitive modules, detect neutrons, ...), 0 else

ROOT::Math::XYVector	getChannelPosition (unsigned moduleID, unsigned xChn, unsigned yChn) const
	Get position of HAPD (x,y) channel in local ARICH coordinates.

const ARICHGeoDetectorPlane &	getDetectorPlane () const
	Get geometry configuration of HAPD plane.

const ARICHGeoAerogelPlane &	getAerogelPlane () const
	Get geometry configuration of aerogel plane.

const ARICHGeoMirrors &	getMirrors () const
	Get mirrors geometry configuration.

const ARICHGeoMasterVolume &	getMasterVolume () const
	Get ARICH master volume geometry configuration.

const ARICHGeoSupport &	getSupportStructure () const
	Get ARICH support structure geometry configuration.

const ARICHGeoHAPD &	getHAPDGeometry () const
	Get HAPD geometry parameters.

const ARICHGeoMerger &	getMergerGeometry () const
	Get Merger PCB geometry parameters.

const ARICHGeoCablesEnvelope &	getCablesEnvelope () const
	Get ARICH cables envelop geometry parameters.

const ARICHGeoCooling &	getCoolingGeometry () const
	Get ARICH cooling system geometry parameters.

const ARICHGeoFEBCooling &	getFEBCoolingGeometry () const
	Get ARICH FEB cooling system (v2) geometry parameters.

const ARICHGeoGlobalDisplacement &	getGlobalDisplacement () const
	Get global displacement parameters.

const ARICHGeoMirrorDisplacement &	getMirrorDisplacement () const
	Get mirror displacement parameters.

void	setAerogelPlane (const ARICHGeoAerogelPlane &aerogelPlane)
	Set geometry configuration of aerogel plane.

void	setDetectorPlane (const ARICHGeoDetectorPlane &detectorPlane)
	Set geometry configuration of HAPD plane.

void	setMirrors (const ARICHGeoMirrors &mirrors)
	Set mirrors geometry configuration.

void	setMasterVolume (const ARICHGeoMasterVolume &masterVolume)
	Set master volume geometry configuration.

void	setSupportStructure (const ARICHGeoSupport &supportStructure)
	Set support structure geometry configuration.

void	setGlobalDisplacement (const ARICHGeoGlobalDisplacement &displ)
	Set global displacement parameters.

void	setMirrorDisplacement (const ARICHGeoMirrorDisplacement &displ)
	Set mirror displacement parameters.

void	setUseGlobalDisplacement (bool use)
	Set whether global displacement should be used.

void	setUseMirrorDisplacement (bool use)
	Set whether mirror displacement should be used.

bool	useGlobalDisplacement () const
	Get whether global displacement is used.

bool	useMirrorDisplacement () const
	Get whether mirror displacement is used.

void	setName (const std::string &name)
	Sets object name.

const std::string &	getName () const
	Returns object name.

virtual bool	isConsistent () const
	Check for consistency of data members.

virtual void	printSurface (const GeoOpticalSurface &surface) const
	Print the content of optical surface.

virtual void	printPlacement (double x, double y, double z, double rx, double ry, double rz) const
	Print volume positioning parameters.

Static Public Member Functions
static void	useBasf2Units ()
	Use basf2 units when returning geometry parameters.

static void	useGeantUnits ()
	Use Geant4 units when returning geometry parameters.

Protected Member Functions
	ClassDef (ARICHGeoBase, 2)
	ClassDef.

Protected Attributes
std::string	m_name
	geometry object name

Static Protected Attributes
static double	s_unit = Unit::cm
	conversion unit for length

static std::string	s_unitName
	conversion unit name

Private Member Functions
void	modulesPosition (const GearDir &content)
	initializes the positions of HAPD modules, with the parameters from xml.

	ClassDef (ARICHGeometryConfig, 5)
	ClassDef, must be the last term before the closing {}.

Private Attributes
ARICHGeoDetectorPlane	m_detectorPlane
	detector plane geometry configuration

ARICHGeoAerogelPlane	m_aerogelPlane
	aerogel plane geometry configuration

ARICHGeoMirrors	m_mirrors
	mirrors geometry configuration

ARICHGeoMasterVolume	m_masterVolume
	master volume geometry configuration

ARICHGeoSupport	m_supportStructure
	support structure geometry configuration

ARICHGeoHAPD	m_hapd
	HAPD geometry configuration.

ARICHGeoMerger	m_merger
	Merger PCB geometry configuration.

ARICHGeoCablesEnvelope	m_cablesenvelope
	ARICH cables envelop geometry configuration.

ARICHGeoCooling	m_cooling
	ARICH cooling system geometry configuration.

ARICHGeoFEBCooling	m_coolingv2
	ARICH cooling system (v2) geometry configuration.

ARICHGeoGlobalDisplacement	m_globalDispl
	global displacement parameters

ARICHGeoMirrorDisplacement	m_mirrorDispl
	mirror displacement parameters

bool	m_displaceMirrors = 0
	use mirror displacement parameters

bool	m_displaceGlobal = 0
	use global displacement parameters

int	m_bbstudy = 0
	is beam background study

Detailed Description

The Class for ARICH Geometry Parameters.

This class provides ARICH geometry parameters for simulation, reconstruction and so on. These parameters are gotten from gearbox.

Definition at line 41 of file ARICHGeometryConfig.h.

Constructor & Destructor Documentation

◆ ARICHGeometryConfig() [1/2]

ARICHGeometryConfig ( )

inline

Default constructor.

Definition at line 46 of file ARICHGeometryConfig.h.

46{};

◆ ARICHGeometryConfig() [2/2]

ARICHGeometryConfig ( const GearDir & content )

explicit

Constructor.

Definition at line 23 of file ARICHGeometryConfig.cc.

24{

25 read(content);

26}

Belle2::ARICHGeometryConfig::read

void read(const GearDir &content)

gets geometry parameters from gearbox.

Definition ARICHGeometryConfig.cc:28

Member Function Documentation

◆ getAerogelPlane()

const ARICHGeoAerogelPlane & getAerogelPlane ( ) const

inline

Get geometry configuration of aerogel plane.

Returns: aerogel plane geometry parameters

Definition at line 97 of file ARICHGeometryConfig.h.

97{return m_aerogelPlane;}

◆ getCablesEnvelope()

const ARICHGeoCablesEnvelope & getCablesEnvelope ( ) const

inline

Get ARICH cables envelop geometry parameters.

Returns: ARICH cables envelop geometry parameters

Definition at line 133 of file ARICHGeometryConfig.h.

133{ return m_cablesenvelope; }

◆ getChannelPosition()

ROOT::Math::XYVector getChannelPosition	(	unsigned	moduleID,
		unsigned	xChn,
		unsigned	yChn ) const

Get position of HAPD (x,y) channel in local ARICH coordinates.

Parameters

moduleID	module ID
xChn	HAPD x channel
yChn	HAPD y channel

Returns: channel position

Definition at line 376 of file ARICHGeometryConfig.cc.

{
  const double radius = m_detectorPlane.getSlotR(moduleID);
  const double phi = m_detectorPlane.getSlotPhi(moduleID);
  const double cosPhi = std::cos(phi);
  const double sinPhi = std::sin(phi);
  ROOT::Math::XYVector origin(radius * cosPhi, radius * sinPhi);
  double x, y;
  m_hapd.getXYChannelPos(chX, chY, x, y);
  // create a vector from x, y that is rotated by phi
  ROOT::Math::XYVector locPos(x * cosPhi - y * sinPhi,
                              x * sinPhi + y * cosPhi);
  return origin + locPos;
}

◆ getCoolingGeometry()

const ARICHGeoCooling & getCoolingGeometry ( ) const

inline

Get ARICH cooling system geometry parameters.

Returns: ARICH cooling system geometry parameters

Definition at line 139 of file ARICHGeometryConfig.h.

139{ return m_cooling; }

◆ getDetectorPlane()

const ARICHGeoDetectorPlane & getDetectorPlane ( ) const

inline

Get geometry configuration of HAPD plane.

Returns: detector plane geometry parameters

Definition at line 91 of file ARICHGeometryConfig.h.

91{return m_detectorPlane;}

◆ getFEBCoolingGeometry()

const ARICHGeoFEBCooling & getFEBCoolingGeometry ( ) const

inline

Get ARICH FEB cooling system (v2) geometry parameters.

Returns: ARICH FEB cooling system (v2) geometry parameters

Definition at line 145 of file ARICHGeometryConfig.h.

145{ return m_coolingv2; }

◆ getGlobalDisplacement()

const ARICHGeoGlobalDisplacement & getGlobalDisplacement ( ) const

inline

Get global displacement parameters.

Returns: global displacement parameters

Definition at line 151 of file ARICHGeometryConfig.h.

151{ return m_globalDispl; }

◆ getHAPDGeometry()

const ARICHGeoHAPD & getHAPDGeometry ( ) const

inline

Get HAPD geometry parameters.

Returns: HAPD geometry parameters

Definition at line 121 of file ARICHGeometryConfig.h.

121{ return m_hapd; }

◆ getMasterVolume()

const ARICHGeoMasterVolume & getMasterVolume ( ) const

inline

Get ARICH master volume geometry configuration.

Returns: master volume geometry parameters

Definition at line 109 of file ARICHGeometryConfig.h.

109{return m_masterVolume;}

◆ getMergerGeometry()

const ARICHGeoMerger & getMergerGeometry ( ) const

inline

Get Merger PCB geometry parameters.

Returns: Merger PCB geometry parameters

Definition at line 127 of file ARICHGeometryConfig.h.

127{ return m_merger; }

◆ getMirrorDisplacement()

const ARICHGeoMirrorDisplacement & getMirrorDisplacement ( ) const

inline

Get mirror displacement parameters.

Returns: mirror displacement parameters

Definition at line 157 of file ARICHGeometryConfig.h.

157{ return m_mirrorDispl; }

◆ getMirrors()

const ARICHGeoMirrors & getMirrors ( ) const

inline

Get mirrors geometry configuration.

Returns: mirrors geometry parameters

Definition at line 103 of file ARICHGeometryConfig.h.

103{return m_mirrors;}

◆ getName()

const std::string & getName ( ) const

inlineinherited

Returns object name.

Returns: object name

Definition at line 49 of file ARICHGeoBase.h.

49{return m_name;}

◆ getSupportStructure()

const ARICHGeoSupport & getSupportStructure ( ) const

inline

Get ARICH support structure geometry configuration.

Returns: support structure geometry parameters

Definition at line 115 of file ARICHGeometryConfig.h.

115{return m_supportStructure;}

◆ isConsistent()

virtual bool isConsistent ( ) const

inlinevirtualinherited

Check for consistency of data members.

Returns: true if values consistent (valid)

Reimplemented in ARICHGeoAerogelPlane, ARICHGeoDetectorPlane, ARICHGeoHAPD, ARICHGeoMasterVolume, ARICHGeoMirrors, ARICHGeoSupport, and ARICHPositionElement.

Definition at line 55 of file ARICHGeoBase.h.

55{return false;}

◆ modulesPosition()

void modulesPosition ( const GearDir & content )

private

initializes the positions of HAPD modules, with the parameters from xml.

Definition at line 331 of file ARICHGeometryConfig.cc.

{
 
  GearDir detParams(content, "Detector/Plane");
 
  std::vector<std::pair<double, double>> ringPar;
 
  for (auto ring : detParams.getNodes("Rings/Ring")) {
    double r = ring.getLength("r");
    int nMod = ring.getInt("nModules");
    ringPar.push_back({r, 2.*M_PI / nMod});
  }
 
  m_detectorPlane.setRingPar(ringPar);
 
  GearDir supportParams(content, "Detector/supportPlate");
  double modHeight  = content.getLength("Detector/Module/height");
  m_detectorPlane.addSupportPlate(supportParams.getLength("innerRadius"), supportParams.getLength("outerRadius"),
                                  supportParams.getLength("thickness"), supportParams.getString("material"));
  m_detectorPlane.setModuleHoleSize(supportParams.getLength("moduleHoleSize"));
  m_detectorPlane.setSupportZPosition(supportParams.getLength("zPosition") + (supportParams.getLength("thickness") +
                                      supportParams.getLength("backWallHeight")) / 2. - m_masterVolume.getLength() / 2.);
  m_detectorPlane.setSupportBackWallHeight(supportParams.getLength("backWallHeight"));
  m_detectorPlane.setSupportBackWallThickness(supportParams.getLength("backWallThickness"));
 
  m_detectorPlane.setPlacement(0.0, 0.0, detParams.getLength("zPosition") + modHeight / 2. - m_masterVolume.getLength() / 2., 0.0,
                               0.0, 0.0);
 
}

◆ print()

void print ( const std::string & title = "ARICH geometry parameters" ) const

virtual

Print some debug information.

Reimplemented from ARICHGeoBase.

Definition at line 316 of file ARICHGeometryConfig.cc.

{
  ARICHGeoBase::print(title);
  m_detectorPlane.print();
  m_hapd.print();
  m_merger.print();
  m_cablesenvelope.print();
  m_cooling.print();
  m_masterVolume.print();
  m_aerogelPlane.print();
  m_aerogelPlane.printTileParameters();
  m_mirrors.print();
  m_supportStructure.print();
}

◆ printPlacement()

void printPlacement	(	double	x,
		double	y,
		double	z,
		double	rx,
		double	ry,
		double	rz ) const

virtualinherited

Print volume positioning parameters.

Parameters

x	x position
y	y position
z	z position
rx	rotation around x-axis
ry	rotation around y-axis
rz	rotation around z-axis

Definition at line 25 of file ARICHGeoBase.cc.

{
//  cout << "Volume positioning information (inside local ARICH frame)" << endl;
  cout << " Center position; x: " << x << " " << s_unitName << ", y: " << y << " " << s_unitName << ", z: " << z << " " << s_unitName
       << endl;
  cout << " Rotations; x-axis: " << rx << " y-axis: " << ry << " z-axis: " << rz << " (in rad)"  << endl;
}

◆ printSurface()

void printSurface ( const GeoOpticalSurface & surface ) const

virtualinherited

Print the content of optical surface.

Parameters

surface optical surface parameters

Definition at line 32 of file ARICHGeoBase.cc.

{
  cout << " Optical surface: ";
  if (surface.getName().empty() and !surface.hasProperties()) {
    cout << "not defined" << endl;
    return;
  }
  cout << surface.getName();
  cout << ", model: " << surface.getModel();
  cout << ", finish: " << surface.getFinish();
  cout << ", type: " << surface.getType();
  cout << ", value: " << surface.getValue();
  cout << endl;
  if (surface.hasProperties()) {
    for (const auto& property : surface.getProperties()) {
      cout << "  - property: ";
      cout << property.getName() << " [";
      for (const auto& value : property.getValues()) cout << value << ", ";
      cout << "], @[";
      for (const auto& value : property.getEnergies()) cout << value / Unit::eV << ", ";
      cout << "] eV" << endl;
    }
  } else {
    cout << "  - properties: None" << endl;
  }
 
}

◆ read()

void read ( const GearDir & content )

gets geometry parameters from gearbox.

Definition at line 28 of file ARICHGeometryConfig.cc.

{
  //------------------------------
  // Get ARICH geometry parameters from the gearbox
  //------------------------------
  m_bbstudy = content.getInt("BeamBackgroundStudy");
 
  GearDir envParams(content, "Envelope");
  m_masterVolume.setVolume(envParams.getLength("innerRadius"), envParams.getLength("outerRadius"), envParams.getLength("length"),
                           std::string("ARICH_Air"));
  m_masterVolume.setPlacement(envParams.getLength("xPosition"), envParams.getLength("yPosition"),
                              envParams.getLength("zPosition") + envParams.getLength("length") / 2., envParams.getAngle("xRotation"),
                              envParams.getAngle("yRotation"), envParams.getAngle("zRotation"));
 
  GearDir displParams(content, "GlobalDisplacement");
  m_displaceGlobal = !displParams.getBool("Disable");
  m_globalDispl.setX(displParams.getLength("x"));
  m_globalDispl.setY(displParams.getLength("y"));
  m_globalDispl.setZ(displParams.getLength("z"));
  m_globalDispl.setAlpha(displParams.getAngle("alpha"));
  m_globalDispl.setBeta(displParams.getAngle("beta"));
  m_globalDispl.setGamma(displParams.getAngle("gamma"));
 
  auto& materials = geometry::Materials::getInstance();
 
  GearDir detParams(content, "Detector/Module");
 
  m_hapd.setWallThickness(detParams.getLength("HAPD/windowThickness"));
  m_hapd.setPadSize(detParams.getLength("HAPD/padSize"));
  m_hapd.setChipGap(detParams.getLength("HAPD/chipGap"));
  m_hapd.setNPads(int(sqrt(detParams.getInt("HAPD/padNum"))), int(sqrt(detParams.getInt("HAPD/padNum"))));
  m_hapd.setWinThickness(detParams.getLength("HAPD/windowThickness"));
  m_hapd.setWinRefIndex(detParams.getDouble("HAPD/windowRefIndex"));
  m_hapd.setModuleSizeZ(detParams.getLength("height"));
  m_hapd.setWallMaterial(detParams.getString("HAPD/wallMaterial"));
  m_hapd.setWinMaterial(detParams.getString("HAPD/windowMaterial"));
 
  m_hapd.setFEBVolume(detParams.getLength("FEB/size"), detParams.getLength("FEB/size"), detParams.getLength("FEB/thickness"),
                      detParams.getString("FEB/material"));
  m_hapd.setHAPDVolume(detParams.getLength("HAPD/size"), detParams.getLength("HAPD/size"), detParams.getLength("HAPD/height"),
                       detParams.getString("HAPD/fillMaterial"));
 
  GearDir apdSurfParams(detParams, "HAPD/Surface");
  m_hapd.setAPDVolume(detParams.getLength("HAPD/apdSize"), detParams.getLength("HAPD/apdSize"),
                      detParams.getLength("HAPD/apdThickness"), detParams.getString("HAPD/apdMaterial"),
                      materials.createOpticalSurfaceConfig(apdSurfParams));
 
  GearDir mergerParams(content, "MergerPCB");
  // read merger PCB parameters
  m_merger.setMergerPCBMaterialName(mergerParams.getString("merger/material"));
  m_merger.setMergerPCBLenght(mergerParams.getDouble("merger/sizeL"));
  m_merger.setMergerPCBWidth(mergerParams.getDouble("merger/sizeW"));
  m_merger.setMergerPCBThickness(mergerParams.getDouble("merger/thickness"));
  m_merger.setMergerPCBscrewholeR(mergerParams.getDouble("merger/mergerPCBscrewholeR"));
  m_merger.setMergerPCBscrewholePosdY(mergerParams.getDouble("merger/mergerPCBscrewholePosdY"));
  m_merger.setMergerPCBscrewholePosdX1(mergerParams.getDouble("merger/mergerPCBscrewholePosdX1"));
  m_merger.setMergerPCBscrewholePosdX2(mergerParams.getDouble("merger/mergerPCBscrewholePosdX2"));
  m_merger.setSingleMergerEnvelopeSizeL(mergerParams.getDouble("merger/envelopeSizeL"));
  m_merger.setSingleMergerEnvelopeSizeW(mergerParams.getDouble("merger/envelopeSizeW"));
  m_merger.setSingleMergerEnvelopeThickness(mergerParams.getDouble("merger/envelopeThickness"));
  m_merger.setSingleMergerenvelopeDeltaZ(mergerParams.getArray("merger/envelopeDeltaZ"));
  m_merger.setMergerSlotID(mergerParams.getArray("merger/mergerSlotID"));
  m_merger.setMergerPosR(mergerParams.getArray("merger/mergerPosR"));
  m_merger.setMergerAngle(mergerParams.getArray("merger/mergerAngle"));
  m_merger.setMergerOrientation(mergerParams.getArray("merger/mergerOrientation"));
  m_merger.setEnvelopeCenterPosition(mergerParams.getDouble("mergerEnvelope/x0"),
                                     mergerParams.getDouble("mergerEnvelope/y0"),
                                     mergerParams.getDouble("mergerEnvelope/z0"));
  m_merger.setSingleMergeEnvelopePosition(mergerParams.getDouble("merger/envelopePosX0"),
                                          mergerParams.getDouble("merger/envelopePosY0"),
                                          mergerParams.getDouble("merger/envelopePosZ0"));
  m_merger.setEnvelopeOuterRadius(mergerParams.getDouble("mergerEnvelope/outerRadius"));
  m_merger.setEnvelopeInnerRadius(mergerParams.getDouble("mergerEnvelope/innerRadius"));
  m_merger.setEnvelopeThickness(mergerParams.getDouble("mergerEnvelope/thickness"));
  m_merger.checkMergerPositionsDataConsistency();
  //m_merger.print();
 
  GearDir cablesEnvelopParams(content, "cablesEnvelope");
  // read cables envelop parameters
  m_cablesenvelope.setCablesEffectiveMaterialName(cablesEnvelopParams.getString("material"));
  m_cablesenvelope.setEnvelopeOuterRadius(cablesEnvelopParams.getDouble("outerRadius"));
  m_cablesenvelope.setEnvelopeInnerRadius(cablesEnvelopParams.getDouble("innerRadius"));
  m_cablesenvelope.setEnvelopeThickness(cablesEnvelopParams.getDouble("thickness"));
  m_cablesenvelope.setEnvelopeCenterPosition(cablesEnvelopParams.getDouble("x0"), cablesEnvelopParams.getDouble("y0"),
                                             cablesEnvelopParams.getDouble("z0"));
  m_cablesenvelope.checkCablesEnvelopDataConsistency();
  //m_cablesenvelope.print();
 
  GearDir coolingParams(content, "coolingPipe");
  // read ARICH cooling system parameters
  m_cooling.setEnvelopeOuterRadius(coolingParams.getDouble("coolingEnvelope/outerRadius"));
  m_cooling.setEnvelopeInnerRadius(coolingParams.getDouble("coolingEnvelope/innerRadius"));
  m_cooling.setEnvelopeThickness(coolingParams.getDouble("coolingEnvelope/thickness"));
  m_cooling.setEnvelopeCenterPosition(coolingParams.getDouble("coolingEnvelope/x0"), coolingParams.getDouble("coolingEnvelope/y0"),
                                      coolingParams.getDouble("coolingEnvelope/z0"));
  m_cooling.setCoolingPipeMaterialName(coolingParams.getString("cooling/material"));
  m_cooling.setRmin(coolingParams.getDouble("cooling/Rmin"));
  m_cooling.setRmax(coolingParams.getDouble("cooling/Rmax"));
  m_cooling.setCoolingGeometryID(coolingParams.getArray("cooling/coolingGeometryID"));
  m_cooling.setCoolingL(coolingParams.getArray("cooling/coolingL"));
  m_cooling.setCoolingPosPhi(coolingParams.getArray("cooling/coolingPosPhi"));
  m_cooling.setCoolingPosR(coolingParams.getArray("cooling/coolingPosR"));
  m_cooling.setCoolinRotationAngle(coolingParams.getArray("cooling/coolinRotationAngle"));
  m_cooling.setCoolingTestPlateMaterialName(coolingParams.getString("coolingTestPlate/material"));
  m_cooling.setColdTubeMaterialName(coolingParams.getString("coolingTestPlate/materialColdTube"));
  m_cooling.setCoolingTestPlateslengths(coolingParams.getDouble("coolingTestPlate/lengthX"),
                                        coolingParams.getDouble("coolingTestPlate/lengthY"), coolingParams.getDouble("coolingTestPlate/lengthZ"));
  m_cooling.setColdTubeR(coolingParams.getDouble("coolingTestPlate/coldTubeR"));
  m_cooling.setColdTubeSubtractedR(coolingParams.getDouble("coolingTestPlate/coldTubeSubtractedR"));
  m_cooling.setColdTubeWallThickness(coolingParams.getDouble("coolingTestPlate/coldTubeWallThickness"));
  m_cooling.setDepthColdTubeInPlate(coolingParams.getDouble("coolingTestPlate/depthColdTubeInPlate"));
  m_cooling.setColdTubeSpacing(coolingParams.getDouble("coolingTestPlate/coldTubeSpacing"));
  m_cooling.setColdTubeNumber(coolingParams.getInt("coolingTestPlate/coldTubeNumber"));
  m_cooling.setCoolingTestPlatePosR(coolingParams.getArray("coolingTestPlate/coolingTestPlatePosR"));
  m_cooling.setCoolingTestPlatePosPhi(coolingParams.getArray("coolingTestPlate/coolingTestPlatePosPhi"));
  m_cooling.setCoolingTestPlatePosZ0(coolingParams.getArray("coolingTestPlate/coolingTestPlatePosZ0"));
  m_cooling.checkCoolingSystemDataConsistency();
  //m_cooling.print();
 
  GearDir coolingFEBParams(content, "febcoolingv2");
  // read ARICH cooling system (v2) parameters
  // FEB cooling bodies
  m_coolingv2.setSmallSquareSize(coolingFEBParams.getDouble("smallSquareSize"));
  m_coolingv2.setSmallSquareThickness(coolingFEBParams.getDouble("smallSquareThickness"));
  m_coolingv2.setBigSquareSize(coolingFEBParams.getDouble("bigSquareSize"));
  m_coolingv2.setBigSquareThickness(coolingFEBParams.getDouble("bigSquareThickness"));
  m_coolingv2.setRectangleL(coolingFEBParams.getDouble("rectangleL"));
  m_coolingv2.setRectangleW(coolingFEBParams.getDouble("rectangleW"));
  m_coolingv2.setRectangleThickness(coolingFEBParams.getDouble("rectangleThickness"));
  m_coolingv2.setRectangleDistanceFromCenter(coolingFEBParams.getDouble("rectangleDistanceFromCenter"));
  m_coolingv2.setFebcoolingv2GeometryID(coolingFEBParams.getArray("febcoolingv2GeometryID"));
 
  // read detector plane parameters
  modulesPosition(content);
 
  GearDir mirrParams(content, "Mirrors");
  if (mirrParams) {
    m_mirrors.setNMirrors(mirrParams.getInt("nMirrors"));
    m_mirrors.setStartAngle(mirrParams.getAngle("startAngle"));
    GearDir surfParams(mirrParams, "Surface");
    m_mirrors.setMirrorPlate(mirrParams.getLength("thickness"), mirrParams.getLength("width"), mirrParams.getLength("length"),
                             mirrParams.getString("material"), materials.createOpticalSurfaceConfig(surfParams));
    m_mirrors.setZPosition(mirrParams.getLength("zPosition") + mirrParams.getLength("width") / 2. - m_masterVolume.getLength() / 2.);
    m_mirrors.setRadius(mirrParams.getLength("radius"));
    m_mirrors.initializeDefault();
  }
 
  GearDir mirrDisplParams(content, "MirrorDisplacement");
  if (mirrDisplParams) {
    m_displaceMirrors = !mirrDisplParams.getBool("Disable");
    for (auto plate : mirrDisplParams.getNodes("Plate")) {
      int id = plate.getInt("@id");
      double r = plate.getLength("r");
      double phi = plate.getAngle("phi");
      double z = plate.getLength("z");
      double alpha = plate.getLength("alpha");
      double beta = plate.getLength("beta");
      double gamma = plate.getLength("gamma");
      double origPhi = m_mirrors.getPoint(id).Phi();
      ARICHPositionElement displEl(r * cos(origPhi + phi), r * sin(origPhi + phi), z, alpha, beta, gamma);
      m_mirrorDispl.setDisplacementElement(id, displEl);
      // displEl.print();
    }
  }
  // read and prepare aerogel plane parameters
  GearDir aerogel(content, "Aerogel");
 
  std::vector<double> dPhi;
  std::vector<int> nAeroSlotsIndividualRing;
  for (auto ring : aerogel.getNodes("slotInRing/Ring")) {
    dPhi.push_back(2.* M_PI / ring.getInt());
    nAeroSlotsIndividualRing.push_back(ring.getInt());
  }
  std::vector<double> slotR;
  for (auto ring : aerogel.getNodes("slotR/Ring")) {
    slotR.push_back(ring.getLength());
  }
 
  m_aerogelPlane.setWallRadius(slotR);
  m_aerogelPlane.setWallDPhi(dPhi);
  m_aerogelPlane.setNAeroSlotsIndividualRing(nAeroSlotsIndividualRing);
  m_aerogelPlane.setTileGap(aerogel.getLength("tileGap"));
  //cout<<"aerogel.getLength(\"tileGap\") = "<<aerogel.getLength("tileGap")<<endl;
 
  m_aerogelPlane.setWallThickness(aerogel.getLength("wallThickness"));
  m_aerogelPlane.setWallHeight(aerogel.getLength("wallHeight"));
  m_aerogelPlane.addSupportPlate(aerogel.getLength("plateInnerR"), aerogel.getLength("plateOuterR"),
                                 aerogel.getLength("plateThickness"), aerogel.getString("material"));
  int ilayer = 1;
  for (auto layer : aerogel.getNodes("Layers/Layer")) {
    double thick = layer.getLength("thickness") / Unit::cm;
    std::string material = layer.getString("material");
    double refIndex = layer.getDouble("refIndex");
    double trLen = layer.getLength("trLength");
    m_aerogelPlane.setAerogelLayer(ilayer, thick, refIndex, trLen, material);
    ilayer++;
    //std::cout<<"    double thick = layer.getLength(thickness) / Unit::cm = "<<thick<<std::endl;
  }
  m_aerogelPlane.setFullAerogelMaterialDescriptionKey(aerogel.getInt("fullAerogelMaterialDescriptionKey"));
  m_aerogelPlane.setImgTubeThickness(aerogel.getDouble("imgTubeThickness"));
  m_aerogelPlane.setCompensationARICHairVolumeThick_min(aerogel.getDouble("compensationARICHairVolumeThick_min"));
 
  // Aerogel tiles
  GearDir aerotilesDir(content, "AerogelTiles");
  for (int il = 0; il < ilayer - 1; il++) {
    int iring = 0;
    for (auto ns_ring :  nAeroSlotsIndividualRing) {
      iring++;
      for (int islot = 1; islot < ns_ring + 1; islot++) {
        for (auto tileNode : aerotilesDir.getNodes("Tiles/Tile")) {
          int ring = tileNode.getInt("ring");
          int column = tileNode.getInt("column");
          int layerN = tileNode.getInt("layer");
          if (iring == ring && column == islot && il == layerN) {
            double n = tileNode.getDouble("n");
            double transmL = tileNode.getDouble("transmL");
            double thick = tileNode.getDouble("thick");
            std::string materialName = tileNode.getString("material");
            m_aerogelPlane.addTileParameters(ring, column, layerN, n, transmL, thick, materialName);
          }
        }
      }
    }
  }
 
  if (m_aerogelPlane.getFullAerogelMaterialDescriptionKey() == 0) {
    m_aerogelPlane.setPlacement(0.0, 0.0,
                                aerogel.getLength("zPosition") +
                                (aerogel.getLength("wallHeight") + aerogel.getLength("plateThickness") + aerogel.getLength("imgTubeThickness")) / 2.0 -
                                m_masterVolume.getLength() / 2.0,
                                0, 0, 0);
  } else if (m_aerogelPlane.getFullAerogelMaterialDescriptionKey() == 1) {
    double wallHeightNew = m_aerogelPlane.getMaximumTotalTileThickness() + m_aerogelPlane.getCompensationARICHairVolumeThick_min();
    wallHeightNew = wallHeightNew / 10.0; //conversion from mm to cm - this need to be implemented properly
    //cout<<"m_aerogelPlane.getMaximumTotalTileThickness()           = "<<m_aerogelPlane.getMaximumTotalTileThickness()<<endl
    //  <<"m_aerogelPlane.getCompensationARICHairVolumeThick_min() = "<<m_aerogelPlane.getCompensationARICHairVolumeThick_min()<<endl
    //  <<"wallHeightNew                                           = "<<wallHeightNew<<endl;
    m_aerogelPlane.setPlacement(0.0, 0.0,
                                aerogel.getLength("zPosition") +
                                (wallHeightNew + aerogel.getLength("plateThickness") + aerogel.getLength("imgTubeThickness")) / 2.0 - m_masterVolume.getLength() /
                                2.0,
                                0, 0, 0);
  } else {
    B2ERROR("ARICHGeometryConfig::read --> getFullAerogelMaterialDescriptionKey() is wrong");
  }
 
  //m_aerogelPlane.print();
  //m_aerogelPlane.printTileParameters();
  //m_aerogelPlane.testGetTileParametersFunction();
  m_aerogelPlane.isConsistent();
 
  // support structures
  GearDir supportDir(content, "SupportStructure");
  for (auto tube : supportDir.getNodes("Tubes/Tube")) {
    std::string material = tube.getString("material");
    double innerR = tube.getLength("innerR");
    double outerR = tube.getLength("outerR");
    double length = tube.getLength("length");
    double zPosition = tube.getLength("zPosition") - m_masterVolume.getLength() / 2.;
    std::string name = tube.getString("name");
    m_supportStructure.addTube(innerR, outerR, length, zPosition, material, name);
  }
  //m_supportStructure.print();
 
  m_supportStructure.setMaterial(supportDir.getString("material"));
 
  for (auto wedge : supportDir.getNodes("Wedges/Wedge")) {
    std::vector<double> pars;
    int id = wedge.getInt("@id");
    if (id > 3 || id < 1) continue;
    for (auto par : wedge.getNodes("par")) {
      pars.push_back(par.getLength());
    }
    m_supportStructure.setWedge(id, pars);
  }
 
  for (auto wedge : supportDir.getNodes("Wedges/Placements/Placement")) {
    int type = wedge.getInt("type");
    double r = wedge.getLength("r");
    double phi = wedge.getAngle("phi");
    double z = wedge.getLength("z") - m_masterVolume.getLength() / 2.;
    m_supportStructure.addWedge(type, r, phi, z, supportDir.getString("material"));
  }
 
  //print();
 
}

◆ setAerogelPlane()

void setAerogelPlane ( const ARICHGeoAerogelPlane & aerogelPlane )

inline

Set geometry configuration of aerogel plane.

Parameters

aerogelPlane aerogel plane geometry parameters

Definition at line 164 of file ARICHGeometryConfig.h.

165 {

166 m_aerogelPlane = aerogelPlane;

167 }

◆ setDetectorPlane()

void setDetectorPlane ( const ARICHGeoDetectorPlane & detectorPlane )

inline

Set geometry configuration of HAPD plane.

Parameters

detectorPlane detector plane geometry parameters

Definition at line 173 of file ARICHGeometryConfig.h.

174 {

175 m_detectorPlane = detectorPlane;

176 }

◆ setGlobalDisplacement()

void setGlobalDisplacement ( const ARICHGeoGlobalDisplacement & displ )

inline

Set global displacement parameters.

Parameters

displ global displacement parameters

Definition at line 209 of file ARICHGeometryConfig.h.

210 {

211 m_globalDispl = displ;

212 }

◆ setMasterVolume()

void setMasterVolume ( const ARICHGeoMasterVolume & masterVolume )

inline

Set master volume geometry configuration.

Parameters

masterVolume master volume geometry parameters

Definition at line 191 of file ARICHGeometryConfig.h.

192 {

193 m_masterVolume = masterVolume;

194 }

◆ setMirrorDisplacement()

void setMirrorDisplacement ( const ARICHGeoMirrorDisplacement & displ )

inline

Set mirror displacement parameters.

Parameters

displ mirror displacement parameters

Definition at line 218 of file ARICHGeometryConfig.h.

219 {

220 m_mirrorDispl = displ;

221 }

◆ setMirrors()

void setMirrors ( const ARICHGeoMirrors & mirrors )

inline

Set mirrors geometry configuration.

Parameters

mirrors mirrors geometry parameters

Definition at line 182 of file ARICHGeometryConfig.h.

183 {

184 m_mirrors = mirrors;

185 }

◆ setName()

void setName ( const std::string & name )

inlineinherited

Sets object name.

Parameters

name	object name

Definition at line 43 of file ARICHGeoBase.h.

43{m_name = name;}

◆ setSupportStructure()

void setSupportStructure ( const ARICHGeoSupport & supportStructure )

inline

Set support structure geometry configuration.

Parameters

supportStructure support structure geometry parameters

Definition at line 200 of file ARICHGeometryConfig.h.

201 {

202 m_supportStructure = supportStructure;

203 }

◆ setUseGlobalDisplacement()

void setUseGlobalDisplacement ( bool use )

inline

Set whether global displacement should be used.

Parameters

use	switch on/off global displacement

Definition at line 227 of file ARICHGeometryConfig.h.

228 {

229 m_displaceGlobal = use;

230 }

◆ setUseMirrorDisplacement()

void setUseMirrorDisplacement ( bool use )

inline

Set whether mirror displacement should be used.

Parameters

use	switch on/off mirror displacement

Definition at line 236 of file ARICHGeometryConfig.h.

237 {

238 m_displaceMirrors = use;

239 }

◆ useBasf2Units()

static void useBasf2Units ( )

inlinestatic

Use basf2 units when returning geometry parameters.

Definition at line 63 of file ARICHGeometryConfig.h.

63{s_unit = Unit::cm; s_unitName = "cm";}

◆ useGeantUnits()

static void useGeantUnits ( )

inlinestatic

Use Geant4 units when returning geometry parameters.

Definition at line 69 of file ARICHGeometryConfig.h.

69{s_unit = Unit::mm; s_unitName = "mm";}

◆ useGlobalDisplacement()

bool useGlobalDisplacement ( ) const

inline

Get whether global displacement is used.

Definition at line 244 of file ARICHGeometryConfig.h.

245 {

246 return m_displaceGlobal;

247 }

◆ useMirrorDisplacement()

bool useMirrorDisplacement ( ) const

inline

Get whether mirror displacement is used.

Definition at line 252 of file ARICHGeometryConfig.h.

253 {

254 return m_displaceMirrors;

255 }

Member Data Documentation

◆ m_aerogelPlane

ARICHGeoAerogelPlane m_aerogelPlane

private

aerogel plane geometry configuration

Definition at line 261 of file ARICHGeometryConfig.h.

◆ m_bbstudy

int m_bbstudy = 0

private

is beam background study

Definition at line 275 of file ARICHGeometryConfig.h.

◆ m_cablesenvelope

ARICHGeoCablesEnvelope m_cablesenvelope

private

ARICH cables envelop geometry configuration.

Definition at line 267 of file ARICHGeometryConfig.h.

◆ m_cooling

ARICHGeoCooling m_cooling

private

ARICH cooling system geometry configuration.

Definition at line 268 of file ARICHGeometryConfig.h.

◆ m_coolingv2

ARICHGeoFEBCooling m_coolingv2

private

ARICH cooling system (v2) geometry configuration.

Definition at line 269 of file ARICHGeometryConfig.h.

◆ m_detectorPlane

ARICHGeoDetectorPlane m_detectorPlane

private

detector plane geometry configuration

Definition at line 260 of file ARICHGeometryConfig.h.

◆ m_displaceGlobal

bool m_displaceGlobal = 0

private

use global displacement parameters

Definition at line 273 of file ARICHGeometryConfig.h.

◆ m_displaceMirrors

bool m_displaceMirrors = 0

private

use mirror displacement parameters

Definition at line 272 of file ARICHGeometryConfig.h.

◆ m_globalDispl

ARICHGeoGlobalDisplacement m_globalDispl

private

global displacement parameters

Definition at line 270 of file ARICHGeometryConfig.h.

◆ m_hapd

ARICHGeoHAPD m_hapd

private

HAPD geometry configuration.

Definition at line 265 of file ARICHGeometryConfig.h.

◆ m_masterVolume

ARICHGeoMasterVolume m_masterVolume

private

master volume geometry configuration

Definition at line 263 of file ARICHGeometryConfig.h.

◆ m_merger

ARICHGeoMerger m_merger

private

Merger PCB geometry configuration.

Definition at line 266 of file ARICHGeometryConfig.h.

◆ m_mirrorDispl

ARICHGeoMirrorDisplacement m_mirrorDispl

private

mirror displacement parameters

Definition at line 271 of file ARICHGeometryConfig.h.

◆ m_mirrors

ARICHGeoMirrors m_mirrors

private

mirrors geometry configuration

Definition at line 262 of file ARICHGeometryConfig.h.

◆ m_name

std::string m_name

protectedinherited

geometry object name

Definition at line 82 of file ARICHGeoBase.h.

◆ m_supportStructure

ARICHGeoSupport m_supportStructure

private

support structure geometry configuration

Definition at line 264 of file ARICHGeometryConfig.h.

◆ s_unit

double s_unit = Unit::cm

staticprotectedinherited

conversion unit for length

Definition at line 83 of file ARICHGeoBase.h.

◆ s_unitName

std::string s_unitName

staticprotectedinherited

conversion unit name

Definition at line 84 of file ARICHGeoBase.h.

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

arich/dbobjects/include/ARICHGeometryConfig.h
arich/dbobjects/src/ARICHGeometryConfig.cc

Public Member Functions

Static Public Member Functions

Protected Member Functions

Protected Attributes

Static Protected Attributes

Private Member Functions

Private Attributes

Detailed Description

Constructor & Destructor Documentation

◆ ARICHGeometryConfig() [1/2]

◆ ARICHGeometryConfig() [2/2]

Member Function Documentation

◆ getAerogelPlane()

◆ getCablesEnvelope()

◆ getChannelPosition()

◆ getCoolingGeometry()

◆ getDetectorPlane()

◆ getFEBCoolingGeometry()

◆ getGlobalDisplacement()

◆ getHAPDGeometry()

◆ getMasterVolume()

◆ getMergerGeometry()

◆ getMirrorDisplacement()

◆ getMirrors()

◆ getName()

◆ getSupportStructure()

◆ isConsistent()

◆ modulesPosition()

◆ print()

◆ printPlacement()

◆ printSurface()

◆ read()

◆ setAerogelPlane()

◆ setDetectorPlane()

◆ setGlobalDisplacement()

◆ setMasterVolume()

◆ setMirrorDisplacement()

◆ setMirrors()

◆ setName()

◆ setSupportStructure()

◆ setUseGlobalDisplacement()

◆ setUseMirrorDisplacement()

◆ useBasf2Units()

◆ useGeantUnits()

◆ useGlobalDisplacement()

◆ useMirrorDisplacement()

Member Data Documentation

◆ m_aerogelPlane

◆ m_bbstudy

◆ m_cablesenvelope

◆ m_cooling

◆ m_coolingv2

◆ m_detectorPlane

◆ m_displaceGlobal

◆ m_displaceMirrors

◆ m_globalDispl

◆ m_hapd

◆ m_masterVolume

◆ m_merger

◆ m_mirrorDispl

◆ m_mirrors

◆ m_name

◆ m_supportStructure

◆ s_unit

◆ s_unitName