Represents a Cell inside of a Universe. More...

#include "src/Cell.h"

Public Member Functions
	Cell (int id=0, const char *name="")
	Constructor sets the unique and user-specifed IDs for this Cell. More...

virtual	~Cell ()
	Destructor clears vector of Surface pointers bounding the Cell.

int	getUid () const
	Return the Cell's unique ID. More...

int	getId () const
	Return the Cell's user-specified ID. More...

char *	getName () const
	Return the user-defined name of the Cell. More...

cellType	getType () const
	Return the Cell type (FILL or MATERIAL). More...

Material *	getFillMaterial ()
	Return a pointer to the Material filling this Cell. More...

Universe *	getFillUniverse ()
	Return a pointer to the Material filling this Cell. More...

Region *	getRegion ()
	Return the Cell's Region, its spatial domain. More...

double	getVolume ()
	Return the aggregate volume/area of all instances of this Cell. More...

int	getNumInstances ()
	Return the number of instances of this Cell in the Geometry. More...

bool	isRotated ()
	Return a boolean indicating whether the Cell has been rotated. More...

bool	isTranslated ()
	Return a boolean indicating whether the Cell has been translated. More...

double	getPhi (std::string units="degrees")
	Get the rotation angle about the x-axis in degrees. More...

double	getTheta (std::string units="degrees")
	Get the rotation angle about the y-axis in degrees. More...

double	getPsi (std::string units="degrees")
	Get the rotation angle about the z-axis in degrees. More...

double *	getRotationMatrix ()
	Return pointer to array for the rotation matrix. More...

double *	getTranslation ()
	Return pointer to array for the translations along x, y and z. More...

void	retrieveRotation (double *rotations, int num_axes, std::string units="degrees")
	Fills an array with the rotation angles for x, y and z. More...

void	retrieveTranslation (double *translations, int num_axes)
	Fills an array with the translations along x, y and z. More...

int	getNumRings ()
	Return the number of rings in the Cell. More...

int	getNumSectors ()
	Return the number of sectors in the Cell. More...

double	getMinX ()
	Return the minimum reachable x-coordinate in the Cell. More...

double	getMaxX ()
	Return the maximum reachable x-coordinate in the Cell. More...

double	getMinY ()
	Return the minimum reachable y-coordinate in the Cell. More...

double	getMaxY ()
	Return the maximum reachable y-coordinate in the Cell. More...

double	getMinZ ()
	Return the minimum reachable z-coordinate in the Cell. More...

double	getMaxZ ()
	Return the maximum reachable z-coordinate in the Cell. More...

boundaryType	getMinXBoundaryType ()
	Return the boundary condition (REFLECTIVE, VACUUM, or INTERFACE) at the minimum reachable x-coordinate in the Cell. More...

boundaryType	getMaxXBoundaryType ()
	Return the boundary condition (REFLECTIVE, VACUUM, or INTERFACE) at the maximum reachable x-coordinate in the Cell. More...

boundaryType	getMinYBoundaryType ()
	Return the boundary condition (REFLECTIVE, VACUUM, or INTERFACE) at the minimum reachable y-coordinate in the Cell. More...

boundaryType	getMaxYBoundaryType ()
	Return the boundary condition (REFLECTIVE, VACUUM, or INTERFACE) at the maximum reachable y-coordinate in the Cell. More...

boundaryType	getMinZBoundaryType ()
	Return the boundary condition (REFLECTIVE, VACUUM, or INTERFACE) at the minimum reachable z-coordinate in the Cell. More...

boundaryType	getMaxZBoundaryType ()
	Return the boundary condition (REFLECTIVE, VACUUM, or INTERFACE) at the maximum reachable z-coordinate in the Cell. More...

int	getNumSurfaces () const
	Return the number of Surfaces in the Cell. More...

std::map< int, Halfspace * >	getSurfaces () const
	Return the std::map of Halfspace object pointers for all surfaces within the Region bounding the Cell. More...

std::vector< Cell * >	getNeighbors () const
	Return the std::vector of neighbor Cells to this Cell. More...

bool	hasParent ()
	Return true if the Cell has a parent and false otherwise. More...

Cell *	getParent ()
	Return this Cell's parent Cell. More...

Cell *	getOldestAncestor ()
	Get the oldest ancestor Cell for this Cell. More...

int	getNumZCylinders ()
	Obtain and return the number of ZCylinders in the cell's surfaces. More...

std::map< int, Cell * >	getAllCells ()
	Returns the std::map of Cell IDs and Cell pointers within any nested Universes filling this Cell. More...

std::map< int, Universe * >	getAllUniverses ()
	Returns the std::map of all nested Universe IDs and Universe pointers filling this Cell. More...

void	setName (const char *name)
	Sets the name of the Cell. More...

void	setFill (Material *fill)
	Sets the Material filling this Cell. More...

void	setFill (Universe *fill)
	Sets the Universe filling this Cell. More...

void	setRegion (Region *region)
	Sets the Region this Cell lives in. More...

void	setVolume (double volume)
	Set the volume/area of the Cell. More...

void	incrementVolume (double volume)
	Increment the volume/area of the Cell by some amount. More...

void	setNumInstances (int num_instances)
	Set the number of instances of this Cell. More...

void	incrementNumInstances ()
	Increment the number of instances of this Cell. More...

void	setRotation (double *rotation, int num_axes, std::string units="degrees")
	Set the Cell's rotation angles about the x, y and z axes. More...

void	setTranslation (double *translation, int num_axes)
	Set the Cell's translation along the x, y and z axes. More...

void	setNumRings (int num_rings)
	Set the Cell's number of rings. More...

void	setNumSectors (int num_sectors)
	Set the Cell's number of sectors. More...

void	setParent (Cell *parent)
	Assign a parent Cell to this Cell. More...

void	addSurface (int halfspace, Surface *surface)
	Insert a Surface into this Cell's bounding Region, assuming that an intersection between the region and the halfspace is desired. More...

void	addSurfaceInRegion (int halfspace, Surface *surface)
	Insert a Surface into this Cell's bounding Region. More...

void	addLogicalNode (int region_type)
	Insert a logical node (intersection or union) into the cell region. More...

void	goUpOneRegionLogical ()
	Climb up the logical tree of regions.

void	removeSurface (Surface *surface)
	Removes a Surface from this Cell's container of bounding Surfaces. More...

void	addNeighborCell (Cell *cell)
	Add a neighboring Cell to this Cell's collection of neighbors. More...

bool	isFissionable ()
	Returns true if this Cell is filled with a fissionable Material. More...

bool	containsPoint (Point *point)
	Determines whether a Point is contained inside a Cell. More...

bool	containsCoords (LocalCoords *coords)
	Determines whether a Point is contained inside a Cell. More...

double	minSurfaceDist (Point *point, double azim, double polar)
	Computes the minimum distance to a Surface from a Point with a given trajectory at a certain angle. More...

double	minSurfaceDist (LocalCoords *coords)
	Computes the minimum distance to a Surface in the Cell's Region from a point with a given trajectory at a certain angle stored in a LocalCoords object. More...

Cell *	clone (bool clone_region=true)
	Create a duplicate of the Cell. More...

void	subdivideCell (double max_radius)
	Subdivides a Cell into rings and sectors aligned with the z-axis. More...

void	buildNeighbors ()
	Build a collection of neighboring Cells for optimized ray tracing.

std::string	toString ()
	Convert this Cell's attributes to a string format. More...

void	printString ()
	Prints a string representation of all of the Cell's attributes to the console.

Detailed Description

Represents a Cell inside of a Universe.

Constructor & Destructor Documentation

◆ Cell()

Cell::Cell	(	int	id = `0`,
		const char *	name = `""`
	)

Constructor sets the unique and user-specifed IDs for this Cell.

Parameters

id	the user-specified optional Cell ID
name	the user-specified optional Cell name

Member Function Documentation

◆ addLogicalNode()

void Cell::addLogicalNode ( int region_type )

Insert a logical node (intersection or union) into the cell region.

This method creates a node in a tree of regions. The leaves, or the nodes at the very bottom of the tree, are halfspaces. The region is defined by that tree.

Parameters

region_type the logical operation

◆ addNeighborCell()

void Cell::addNeighborCell ( Cell * cell )

Add a neighboring Cell to this Cell's collection of neighbors.

Parameters

cell	a pointer to the neighboring Cell

◆ addSurface()

void Cell::addSurface	(	int	halfspace,
		Surface *	surface
	)

Insert a Surface into this Cell's bounding Region, assuming that an intersection between the region and the halfspace is desired.

Parameters

halfspace	the Surface halfspace (+/-1)
surface	a pointer to the Surface

◆ addSurfaceInRegion()

void Cell::addSurfaceInRegion	(	int	halfspace,
		Surface *	surface
	)

Insert a Surface into this Cell's bounding Region.

Parameters

halfspace	the Surface halfspace (+/-1)
surface	a pointer to the Surface

◆ clone()

Cell * Cell::clone ( bool clone_region = true )

Create a duplicate of the Cell.

Returns: a pointer to the clone

◆ containsCoords()

bool Cell::containsCoords ( LocalCoords * coords )

Determines whether a Point is contained inside a Cell.

Queries each Surface inside the Cell to determine if the Point is on the same side of the Surface. This Point is only inside the Cell if it is on the same side of every Surface in the Cell.

Parameters

coords a pointer to a localcoord

Returns: whether the cell contains the coords or not

◆ containsPoint()

bool Cell::containsPoint ( Point * point )

Determines whether a Point is contained inside a Cell.

Queries the Region bounding the Cell to determine if the Point is within the Region. This point is only inside the Cell if it is on the same side of every Surface bounding the Cell.

Parameters

point a pointer to a Point

Returns: true if the Point is inside the Cell; otherwise false

◆ getAllCells()

std::map< int, Cell * > Cell::getAllCells ( )

Returns the std::map of Cell IDs and Cell pointers within any nested Universes filling this Cell.

Returns: std::map of Cell IDs and pointers

◆ getAllUniverses()

std::map< int, Universe * > Cell::getAllUniverses ( )

Returns the std::map of all nested Universe IDs and Universe pointers filling this Cell.

Returns: std::map of Universe IDs and pointers

◆ getFillMaterial()

Material * Cell::getFillMaterial ( )

Return a pointer to the Material filling this Cell.

Returns: the Material fill pointer

◆ getFillUniverse()

Universe * Cell::getFillUniverse ( )

Return a pointer to the Material filling this Cell.

Returns: the Material fill pointer

◆ getId()

int Cell::getId ( ) const

Return the Cell's user-specified ID.

Returns: the Cell's user-specified ID

◆ getMaxX()

double Cell::getMaxX ( )

Return the maximum reachable x-coordinate in the Cell.

Returns: the maximum x-coordinate

◆ getMaxXBoundaryType()

boundaryType Cell::getMaxXBoundaryType ( )

Return the boundary condition (REFLECTIVE, VACUUM, or INTERFACE) at the maximum reachable x-coordinate in the Cell.

Returns: the boundary condition at the maximum x-coordinate

◆ getMaxY()

double Cell::getMaxY ( )

Return the maximum reachable y-coordinate in the Cell.

Returns: the maximum y-coordinate

◆ getMaxYBoundaryType()

boundaryType Cell::getMaxYBoundaryType ( )

Return the boundary condition (REFLECTIVE, VACUUM, or INTERFACE) at the maximum reachable y-coordinate in the Cell.

Returns: the boundary condition at the maximum y-coordinate

◆ getMaxZ()

double Cell::getMaxZ ( )

Return the maximum reachable z-coordinate in the Cell.

Returns: the maximum z-coordinate

◆ getMaxZBoundaryType()

boundaryType Cell::getMaxZBoundaryType ( )

Return the boundary condition (REFLECTIVE, VACUUM, or INTERFACE) at the maximum reachable z-coordinate in the Cell.

Returns: the boundary condition at the maximum z-coordinate

◆ getMinX()

double Cell::getMinX ( )

Return the minimum reachable x-coordinate in the Cell.

Returns: the minimum x-coordinate

◆ getMinXBoundaryType()

boundaryType Cell::getMinXBoundaryType ( )

Return the boundary condition (REFLECTIVE, VACUUM, or INTERFACE) at the minimum reachable x-coordinate in the Cell.

Returns: the boundary condition at the minimum x-coordinate

◆ getMinY()

double Cell::getMinY ( )

Return the minimum reachable y-coordinate in the Cell.

Returns: the minimum y-coordinate

◆ getMinYBoundaryType()

boundaryType Cell::getMinYBoundaryType ( )

Return the boundary condition (REFLECTIVE, VACUUM, or INTERFACE) at the minimum reachable y-coordinate in the Cell.

Returns: the boundary condition at the minimum y-coordinate

◆ getMinZ()

double Cell::getMinZ ( )

Return the minimum reachable z-coordinate in the Cell.

Returns: the minimum z-coordinate

◆ getMinZBoundaryType()

boundaryType Cell::getMinZBoundaryType ( )

Return the boundary condition (REFLECTIVE, VACUUM, or INTERFACE) at the minimum reachable z-coordinate in the Cell.

Returns: the boundary condition at the minimum z-coordinate

◆ getName()

char * Cell::getName ( ) const

Return the user-defined name of the Cell.

Returns: the Cell name

◆ getNeighbors()

std::vector< Cell * > Cell::getNeighbors ( ) const

Return the std::vector of neighbor Cells to this Cell.

Returns: std::vector of neighbor Cell pointers

◆ getNumInstances()

int Cell::getNumInstances ( )

Return the number of instances of this Cell in the Geometry.

The number of instances of this Cell in the Geometry is determined during track generation.

Returns: the number of cell instances

◆ getNumRings()

int Cell::getNumRings ( )

Return the number of rings in the Cell.

Returns: the number of rings

◆ getNumSectors()

int Cell::getNumSectors ( )

Return the number of sectors in the Cell.

Returns: the number of sectors

◆ getNumSurfaces()

int Cell::getNumSurfaces ( ) const

Return the number of Surfaces in the Cell.

Returns: the number of Surfaces

◆ getNumZCylinders()

int Cell::getNumZCylinders ( )

Obtain and return the number of ZCylinders in the cell's surfaces.

Returns: the number of ZCylinders used to define this cell's region

◆ getOldestAncestor()

Cell * Cell::getOldestAncestor ( )

Get the oldest ancestor Cell for this Cell.

This method traverses the linked list of parent Cells to find the one at the root node. The oldest ancestor Cell is likely the one created by the user at runtime, while intermediate ancestors were created during radial and angular spatial discretization.

Returns: this Cell's oldest ancestor Cell

◆ getParent()

Cell * Cell::getParent ( )

Return this Cell's parent Cell.

If no parent Cell has been assigned from Cell cloning, then NULL is returned.

Returns: a pointer to the parent Cell

◆ getPhi()

double Cell::getPhi ( std::string units = "degrees" )

Get the rotation angle about the x-axis in degrees.

Parameters

units the angular units in "radians" or "degrees" (default)

Returns: the rotation angle about the x-axis

◆ getPsi()

double Cell::getPsi ( std::string units = "degrees" )

Get the rotation angle about the z-axis in degrees.

Parameters

units the angular units in "radians" or "degrees" (default)

Returns: the rotation angle about the z-axis

◆ getRegion()

Region * Cell::getRegion ( )

Return the Cell's Region, its spatial domain.

Returns: the Cell's Region

◆ getRotationMatrix()

double * Cell::getRotationMatrix ( )

Return pointer to array for the rotation matrix.

Returns: a pointer to an array of rotation angles

◆ getSurfaces()

std::map< int, Halfspace * > Cell::getSurfaces ( ) const

Return the std::map of Halfspace object pointers for all surfaces within the Region bounding the Cell.

Returns: std::map of Halfspace object pointers with surface ID as a key.

◆ getTheta()

double Cell::getTheta ( std::string units = "degrees" )

Get the rotation angle about the y-axis in degrees.

Parameters

units the angular units in "radians" or "degrees" (default)

Returns: the rotation angle about the y-axis

◆ getTranslation()

double * Cell::getTranslation ( )

Return pointer to array for the translations along x, y and z.

Returns: a pointer to an array of translations

◆ getType()

cellType Cell::getType ( ) const

Return the Cell type (FILL or MATERIAL).

Returns: the Cell type

◆ getUid()

int Cell::getUid ( ) const

Return the Cell's unique ID.

Returns: the Cell's unique ID

◆ getVolume()

double Cell::getVolume ( )

Return the aggregate volume/area of all instances of this Cell.

The volume/area of the Cell is computed from track segments which overlap this Cell during track generation.

Returns: the volume/area of the Cell

◆ hasParent()

bool Cell::hasParent ( )

Return true if the Cell has a parent and false otherwise.

Returns: whether the Cell has a parent Cell

◆ incrementNumInstances()

void Cell::incrementNumInstances ( )

Increment the number of instances of this Cell.

This routine is called by the TrackGenerator during track generation and segmentation.

◆ incrementVolume()

void Cell::incrementVolume ( double volume )

Increment the volume/area of the Cell by some amount.

This routine is called by the TrackGenerator during track generation and segmentation.

Parameters

volume the amount to increment the current volume by

◆ isFissionable()

bool Cell::isFissionable ( )

Returns true if this Cell is filled with a fissionable Material.

If the Cell is filled by a Material, this method will simply query the filling Material. If the Cell is filled by a Universe, this method will consider any Materials filling those Cells contained by the filling Universe. This method should not be called prior to the calling of the Geometry::computeFissionability() method.

Returns: true if contains a fissionable Material

◆ isRotated()

bool Cell::isRotated ( )

Return a boolean indicating whether the Cell has been rotated.

Returns: whether the Cell has been rotated

◆ isTranslated()

bool Cell::isTranslated ( )

Return a boolean indicating whether the Cell has been translated.

Returns: whether the Cell has been translated

◆ minSurfaceDist() [1/2]

double Cell::minSurfaceDist	(	Point *	point,
		double	azim,
		double	polar
	)

Computes the minimum distance to a Surface from a Point with a given trajectory at a certain angle.

If the trajectory will not intersect any of the Surfaces in the Cell returns INFINITY.

Parameters

point	the Point of interest
azim	the azimuthal angle of the trajectory (in radians from $[0,2\pi]$ )
polar	the polar angle of the trajectory (in radians from $[0,\pi]$ )

Returns: distance to nearest intersection with the cell's region boundaries

◆ minSurfaceDist() [2/2]

double Cell::minSurfaceDist ( LocalCoords * coords )

Computes the minimum distance to a Surface in the Cell's Region from a point with a given trajectory at a certain angle stored in a LocalCoords object.

If the trajectory will not intersect any of the Surfaces in the Cell returns INFINITY.

Parameters

coords a pointer to a localcoords

Returns: distance to nearest intersection with the cell's region boundaries

◆ removeSurface()

void Cell::removeSurface ( Surface * surface )

Removes a Surface from this Cell's container of bounding Surfaces.

Parameters

surface a pointer to the Surface to remove

◆ retrieveRotation()

void Cell::retrieveRotation	(	double *	rotations,
		int	num_axes,
		std::string	units = `"degrees"`
	)

Fills an array with the rotation angles for x, y and z.

This class method is intended to be called by the OpenMOC Python OpenMC compatiblity module. Although this method appears to require two arguments, in reality it only requires one due to SWIG and would be called from within Python as follows:

rotation = cell.getRotation(3)

Parameters

rotations	an array of rotation angles of length 3 for x, y and z
num_axes	the number of axes (this must always be 3)
units	the angular units in "radians" or "degrees" (default)

◆ retrieveTranslation()

void Cell::retrieveTranslation	(	double *	translations,
		int	num_axes
	)

Fills an array with the translations along x, y and z.

This class method is intended to be called by the OpenMOC Python OpenMC compatiblity module. Although this method appears to require two arguments, in reality it only requires one due to SWIG and would be called from within Python as follows:

translation = cell.retrieveTranslation(3)

Parameters

translations	an array of translations of length 3 for x, y and z
num_axes	the number of axes (this must always be 3)

◆ setFill() [1/2]

void Cell::setFill ( Material * fill )

Sets the Material filling this Cell.

Parameters

fill	the Material filling this Cell

◆ setFill() [2/2]

void Cell::setFill ( Universe * fill )

Sets the Universe filling this Cell.

Parameters

fill	the Universe filling this Cell

◆ setName()

void Cell::setName ( const char * name )

Sets the name of the Cell.

Parameters

name	the Cell name string

◆ setNumInstances()

void Cell::setNumInstances ( int num_instances )

Set the number of instances of this Cell.

Parameters

num_instances the number of instances of this Cell in the Geometry

◆ setNumRings()

void Cell::setNumRings ( int num_rings )

Set the Cell's number of rings.

Parameters

num_rings the number of rings in this Cell

◆ setNumSectors()

void Cell::setNumSectors ( int num_sectors )

Set the Cell's number of sectors.

Parameters

num_sectors the number of sectors in this Cell

◆ setParent()

void Cell::setParent ( Cell * parent )

Assign a parent Cell to this Cell.

This is used by Cell cloning when applied for radial and angular discretization.

Parameters

parent a pointer to the parent Cell

◆ setRegion()

void Cell::setRegion ( Region * region )

Sets the Region this Cell lives in.

NOTE: This method deep copies the Region and stores the copy. Any changes made to the Region will not be reflected in the Region copy stored by the Cell.

Parameters

region the Region bounding the Cell

◆ setRotation()

void Cell::setRotation	(	double *	rotation,
		int	num_axes,
		std::string	units = `"degrees"`
	)

Set the Cell's rotation angles about the x, y and z axes.

This method is a helper function to allow OpenMOC users to assign the Cell's rotation angles in Python. A user must initialize a length 3 NumPy array as input to this function. This function then stores the data values in the NumPy array in the Cell's rotation array. An example of how this function might be called in Python is as follows:

rotation = numpy.array([0., 0., 90.])
cell = openmoc.Cell()
cell.setRotation(rotation)

Parameters

rotation	the array of rotation angles
num_axes	the number of axes (this must always be 3)
units	the angular units in "radians" or "degrees" (default)

◆ setTranslation()

void Cell::setTranslation	(	double *	translation,
		int	num_axes
	)

Set the Cell's translation along the x, y and z axes.

This method is a helper function to allow OpenMOC users to assign the Cell's translations in Python. A user must initialize a length 3 NumPy array as input to this function. This function then stores the data values in the NumPy array in the Cell's translation array. An example of how this function might be called in Python is as follows:

translation = numpy.array([0.25, 0.25, 0.])
cell = openmoc.Cell()
cell.setTranslation(translation)

Parameters

translation	the array of translations
num_axes	the number of axes (this must always be 3)

◆ setVolume()

void Cell::setVolume ( double volume )

Set the volume/area of the Cell.

Parameters

volume the volume/area of the Cell

◆ subdivideCell()

void Cell::subdivideCell ( double max_radius )

Subdivides a Cell into rings and sectors aligned with the z-axis.

This method uses the Cell's clone method to produce a vector of this Cell's subdivided ring and sector Cells.

Parameters

max_radius the maximum allowable radius used in the subdivisions

Returns: a vector of Cell pointers to the new subdivided Cells

A container of all Cell clones created for rings and sectors

◆ toString()

std::string Cell::toString ( )

Convert this Cell's attributes to a string format.

Returns: a character array of this Cell's attributes

Add string data for the Surfaces in this Cell

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

/home/guillaume/Research/OpenMOC/src/Cell.h
/home/guillaume/Research/OpenMOC/src/Cell.cpp

Public Member Functions

Detailed Description

Constructor & Destructor Documentation

◆ Cell()

Member Function Documentation

◆ addLogicalNode()

◆ addNeighborCell()

◆ addSurface()

◆ addSurfaceInRegion()

◆ clone()

◆ containsCoords()

◆ containsPoint()

◆ getAllCells()

◆ getAllUniverses()

◆ getFillMaterial()

◆ getFillUniverse()

◆ getId()

◆ getMaxX()

◆ getMaxXBoundaryType()

◆ getMaxY()

◆ getMaxYBoundaryType()

◆ getMaxZ()

◆ getMaxZBoundaryType()

◆ getMinX()

◆ getMinXBoundaryType()

◆ getMinY()

◆ getMinYBoundaryType()

◆ getMinZ()

◆ getMinZBoundaryType()

◆ getName()

◆ getNeighbors()

◆ getNumInstances()

◆ getNumRings()

◆ getNumSectors()

◆ getNumSurfaces()

◆ getNumZCylinders()

◆ getOldestAncestor()

◆ getParent()

◆ getPhi()

◆ getPsi()

◆ getRegion()

◆ getRotationMatrix()

◆ getSurfaces()

◆ getTheta()

◆ getTranslation()

◆ getType()

◆ getUid()

◆ getVolume()

◆ hasParent()

◆ incrementNumInstances()

◆ incrementVolume()

◆ isFissionable()

◆ isRotated()

◆ isTranslated()

◆ minSurfaceDist() [1/2]

◆ minSurfaceDist() [2/2]

◆ removeSurface()

◆ retrieveRotation()

◆ retrieveTranslation()

◆ setFill() [1/2]

◆ setFill() [2/2]

◆ setName()

◆ setNumInstances()

◆ setNumRings()

◆ setNumSectors()

◆ setParent()

◆ setRegion()

◆ setRotation()

◆ setTranslation()

◆ setVolume()

◆ subdivideCell()

◆ toString()