Detailed Description

Classes
class	ActsPlugins::ITGeoDetectorElementSplitter
	ITGeoElementSplitter. More...
class	ActsPlugins::ITGeoIdentifierProvider
	ITGeoIdentierProvider. More...
class	ActsPlugins::RootMaterialDecorator
	Read the collection of SurfaceMaterial & VolumeMaterial. More...
class	ActsPlugins::RootMaterialMapIo
	Simple payload class that can be wrapped for reading and writing. More...
class	ActsPlugins::RootMaterialTrackIo
	Simple payload class that can be wrapped for reading and writing. More...
class	ActsPlugins::RootMeasurementIo
	Helper class to manage the I/O of measurements and associated clusters to and from ROOT files. More...
class	ActsPlugins::RootSpacePointIo
	Root space point reading and writing utility. More...
class	ActsPlugins::TGeoCylinderDiscSplitter
	TGeoCylinderDiscSplitter. More...
class	ActsPlugins::TGeoDetectorElement
	DetectorElement plugin for ROOT TGeo shapes. More...
class	ActsPlugins::TGeoLayerBuilder
	This parses the gGeoManager and looks for a defined combination of volume with contained sensitive detector element. More...
struct	ActsPlugins::TGeoMaterialConverter
struct	ActsPlugins::TGeoParser
	TGeoParser is a helper struct that walks recursively through a TGeometry and selects by string comparison the TGeoNodes that match the criteria. More...
struct	ActsPlugins::TGeoPrimitivesHelper
struct	ActsPlugins::TGeoSurfaceConverter
	Helper struct to convert TGeoShapes into Surface or Volume Bounds. More...

Functions
const std::vector< std::shared_ptr< const TGeoDetectorElement > > &	ActsPlugins::TGeoLayerBuilder::detectorElements () const
	Return the created detector elements.
Config	ActsPlugins::TGeoLayerBuilder::getConfiguration () const
	Get the configuration object.
const std::string &	ActsPlugins::TGeoLayerBuilder::identification () const final
	Name identification.
Identifier	ActsPlugins::TGeoDetectorElement::identifier () const
	Get the detector element identifier.
const Acts::Transform3 &	ActsPlugins::TGeoDetectorElement::localToGlobalTransform (const Acts::GeometryContext &gctx) const override
	Return local to global transform associated with this identifier.
Acts::InterpolatedBFieldMap< Acts::Grid< Acts::Vector2, Acts::Axis< Acts::AxisType::Equidistant >, Acts::Axis< Acts::AxisType::Equidistant > > >	ActsPlugins::makeMagneticFieldMapRzFromRoot (const std::function< std::size_t(std::array< std::size_t, 2 > binsRZ, std::array< std::size_t, 2 > nBinsRZ)> &localToGlobalBin, const std::string &fieldMapFile, const std::string &treeName, double lengthUnit, double BFieldUnit, bool firstQuadrant=false)
	Method to setup the FieldMap.
Acts::InterpolatedBFieldMap< Acts::Grid< Acts::Vector3, Acts::Axis< Acts::AxisType::Equidistant >, Acts::Axis< Acts::AxisType::Equidistant >, Acts::Axis< Acts::AxisType::Equidistant > > >	ActsPlugins::makeMagneticFieldMapXyzFromRoot (const std::function< std::size_t(std::array< std::size_t, 3 > binsXYZ, std::array< std::size_t, 3 > nBinsXYZ)> &localToGlobalBin, const std::string &fieldMapFile, const std::string &treeName, double lengthUnit, double BFieldUnit, bool firstOctant=false)
	Method to setup the FieldMap.
const Acts::Surface &	ActsPlugins::TGeoDetectorElement::surface () const override
	Return surface associated with this detector element.
Acts::Surface &	ActsPlugins::TGeoDetectorElement::surface () override
	Return surface associated with this detector element.
double	ActsPlugins::TGeoDetectorElement::thickness () const
	Returns the thickness of the module.

Function Documentation

◆ detectorElements()

const std::vector< std::shared_ptr< const TGeoDetectorElement > > & ActsPlugins::TGeoLayerBuilder::detectorElements ( ) const

Return the created detector elements.

Returns: Reference to vector of detector elements

◆ getConfiguration()

TGeoLayerBuilder::Config ActsPlugins::TGeoLayerBuilder::getConfiguration ( ) const

Get the configuration object.

Returns: Copy of the current configuration

◆ identification()

const std::string & ActsPlugins::TGeoLayerBuilder::identification ( ) const

finalvirtual

Name identification.

Returns: Reference to the configuration name string

Implements Acts::ILayerBuilder.

◆ identifier()

TGeoDetectorElement::Identifier ActsPlugins::TGeoDetectorElement::identifier ( ) const

Get the detector element identifier.

Returns: The unique identifier for this detector element

◆ localToGlobalTransform()

const Acts::Transform3 & ActsPlugins::TGeoDetectorElement::localToGlobalTransform ( const Acts::GeometryContext & gctx ) const

overridevirtual

Return local to global transform associated with this identifier.

Parameters

gctx	The current geometry context object, e.g. alignment

Implements Acts::SurfacePlacementBase.

◆ makeMagneticFieldMapRzFromRoot()

Acts::InterpolatedBFieldMap< Acts::Grid< Acts::Vector2, Acts::Axis< Acts::AxisType::Equidistant >, Acts::Axis< Acts::AxisType::Equidistant > > > ActsPlugins::makeMagneticFieldMapRzFromRoot	(	const std::function< std::size_t(std::array< std::size_t, 2 > binsRZ, std::array< std::size_t, 2 > nBinsRZ)> &	localToGlobalBin,
		const std::string &	fieldMapFile,
		const std::string &	treeName,
		double	lengthUnit,
		double	BFieldUnit,
		bool	firstQuadrant = false )

Method to setup the FieldMap.

Parameters

localToGlobalBin Function mapping the local bins of r,z to the global bin of the map magnetic field value e.g.: we have small grid with the values: r={2,3}, z ={4,5}, the corresponding indices are i(r) and j(z), the globalIndex is M and the field map is:

|| r | i || z | j || |B(r,z)| || M ||

|| 2 | 0 || 4 | 0 || 2.323 || 0 || || 2 | 0 || 5 | 1 || 2.334 || 1 || || 3 | 1 || 4 | 0 || 2.325 || 2 || || 3 | 1 || 5 | 1 || 2.331 || 3 ||

In this case the function would look like:
[](std::array<std::size_t, 2> binsRZ, std::array<std::size_t, 2> nBinsRZ) {
   return (binsRZ.at(0) * nBinsRZ.at(1) + binsRZ.at(1));
}

Parameters

[in]	fieldMapFile	Path to file containing field map in txt format
[in]	treeName	The name of the root tree
[in]	lengthUnit	The unit of the grid points
[in]	BFieldUnit	The unit of the magnetic field
[in]	firstQuadrant	Flag if set to true indicating that only the first quadrant of the grid points and the BField values has been given and that the BFieldMap should be created symmetrically for all quadrants. e.g. we have the grid values r={0,1} with BFieldValues={2,3} on the r axis. If the flag is set to true the r-axis grid values will be set to {-1,0,1} and the BFieldValues will be set to {3,2,3}.

◆ makeMagneticFieldMapXyzFromRoot()

Acts::InterpolatedBFieldMap< Acts::Grid< Acts::Vector3, Acts::Axis< Acts::AxisType::Equidistant >, Acts::Axis< Acts::AxisType::Equidistant >, Acts::Axis< Acts::AxisType::Equidistant > > > ActsPlugins::makeMagneticFieldMapXyzFromRoot	(	const std::function< std::size_t(std::array< std::size_t, 3 > binsXYZ, std::array< std::size_t, 3 > nBinsXYZ)> &	localToGlobalBin,
		const std::string &	fieldMapFile,
		const std::string &	treeName,
		double	lengthUnit,
		double	BFieldUnit,
		bool	firstOctant = false )

Method to setup the FieldMap.

Parameters

localToGlobalBin Function mapping the local bins of x,y,z to the global bin of the map magnetic field value e.g.: we have small grid with the values: x={2,3}, y={3,4}, z ={4,5}, the corresponding indices are i(x), j(y) and z(k), the globalIndex is M and the field map is:

|| x | i || y | j || z | k || |B(x,y,z)| || M ||

|| 2 | 0 || 3 | 0 || 4 | 0 || 2.323 || 0 || || 2 | 0 || 3 | 0 || 5 | 1 || 2.334 || 1 || || 2 | 0 || 4 | 1 || 4 | 0 || 2.325 || 2 || || 2 | 0 || 4 | 1 || 5 | 1 || 2.331 || 3 || || 3 | 1 || 3 | 0 || 4 | 0 || 2.323 || 4 || || 3 | 1 || 3 | 0 || 5 | 1 || 2.334 || 5 || || 3 | 1 || 4 | 1 || 4 | 0 || 2.325 || 6 || || 3 | 1 || 4 | 1 || 5 | 1 || 2.331 || 7 ||

In this case the function would look like:
[](std::array<std::size_t, 3> binsXYZ, std::array<std::size_t, 3> nBinsXYZ)
{
  return (binsXYZ.at(0) * (nBinsXYZ.at(1) * nBinsXYZ.at(2))
       + binsXYZ.at(1) * nBinsXYZ.at(2)
       + binsXYZ.at(2));
}

Parameters

[in]	fieldMapFile	Path to file containing field map in txt format
[in]	treeName	The name of the root tree
[in]	lengthUnit	The unit of the grid points
[in]	BFieldUnit	The unit of the magnetic field
[in]	firstOctant	Flag if set to true indicating that only the first octant of the grid points and the BField values has been given and that the BFieldMap should be created symmetrically for all quadrants. e.g. we have the grid values z={0,1} with BFieldValues={2,3} on the r axis. If the flag is set to true the z-axis grid values will be set to {-1,0,1} and the BFieldValues will be set to {3,2,3}.

◆ surface() [1/2]

const Acts::Surface & ActsPlugins::TGeoDetectorElement::surface ( ) const

overridevirtual

Return surface associated with this detector element.

Returns: Reference to the nominal transformation matrix

Implements Acts::SurfacePlacementBase.

◆ surface() [2/2]

Acts::Surface & ActsPlugins::TGeoDetectorElement::surface ( )

overridevirtual

Return surface associated with this detector element.

Returns: Const reference to the surface

Note: this is the non-const access

Implements Acts::SurfacePlacementBase.

◆ thickness()

double ActsPlugins::TGeoDetectorElement::thickness ( ) const

Returns the thickness of the module.

Returns: Mutable reference to the surface; Thickness of the detector element in units of length

Detailed Description

Classes

Functions

Function Documentation

◆ detectorElements()

◆ getConfiguration()

◆ identification()

◆ identifier()

◆ localToGlobalTransform()

◆ makeMagneticFieldMapRzFromRoot()

|| r | i || z | j || |B(r,z)| || M ||

◆ makeMagneticFieldMapXyzFromRoot()

|| x | i || y | j || z | k || |B(x,y,z)| || M ||

◆ surface() [1/2]

◆ surface() [2/2]

◆ thickness()