This abstract class is used to built a reactor assembly. More...

#include <GenericReactorAssembly.hxx>

Inheritance diagram for GenericReactorAssembly:

Public Member Functions
Constructor &destructor
	GenericReactorAssembly (double Pitch, int NRadialZones=1, int NZLevels=1, string AssemblyName="GenericAss")
	Normal constructor.

	GenericReactorAssembly (const GenericReactorAssembly &m)

virtual GenericReactorAssembly *	Clone ()=0

virtual	~GenericReactorAssembly ()
	Default destructor.

Assembly definition
void	SetAssemblyDuct (double DuctThickness, Material *DuctMat)

void	SetPlenum (double PlenumThickness, Material UpperPlenumMat, Material LowerPlenumMat=nullptr)

void	SetAssemblyShape (Shape_ptr TheOuterShape, Shape_ptr TheRealShape=Shape_ptr(nullptr))

void	AddFuelPin (PinCell *pin, int Ix=99999, int Iy=99999, int ZoneNumber=- 1)

void	AddGuideTube (PinCell *pin, int Ix, int Iy, int ZoneNumber=- 1)

void	AddControlRod (PinCell *pin, int Ix, int Iy, int ZoneNumber=- 1)

bool	IsGuideTubes ()
	true if some guide tubes have been defined

bool	IsControlRods ()
	true if some control rods have been defined

bool	IsPlenum ()
	true if plenums have been defined

bool	IsDuct ()
	true if a asembly duct has been defined

Cell *	GetUpperCellPlenum ()
	return the upper cell plenum

Cell *	GetLowerCellPlenum ()
	return the lower cell plenum

Cell *	GetDuctCell ()
	return the Duct cell

vector< double >	GetGuideTubeOuterRadius ()
	return the most outer guide tube layer radius (clad)

vector< double >	GetControlRodOuterRadius ()
	return the most outer control rod layer radius (outer clad)

vector< PinCell * >	GetPinCellOfDifferentShape (string PinType)
	return the vector of all pincell of a given type ("Fuel", "GuideTube", ...)

int	GetNumberOfRadialZones ()
	Zoning methods.

int	GetNumberOfAxialLevels ()

void	AddRadialZone2Mesh (double Radius, int ZoneNum)

void	AddRadialZone2Mesh (int Ix, int Iy, int ZoneNum)

int	GetRadialLatticeMeshZone (int x, int y, int z)

vector< Cell * >	GetFuelCell (int RadialZoneNumber, int AxialLevelNumber)

vector< PinCell * > &	GetPinCellVector (int RadialZoneNumber, int AxialLevelNumber)

vector< vector< vector< int > > >	GetGlobalLatticeMesh ()

int	GetGlobalLatticeMeshUniverse (int x, int y, int z)
	MC mesh methods.

PinCell *	GetGlobalLatticeMeshPin (int x, int y, int z)
	return the PinCell located at (x, y, z) in the global lattice mesh

int	GetMCXMeshSize ()

int	GetMCYMeshSize ()

int	GetMCMeshXmin ()

int	GetMCMeshXmax ()

int	GetMCMeshYmin ()

int	GetMCMeshYmax ()

int	GetMCMeshZmin ()

int	GetMCMeshZmax ()

virtual void	BuildAssemblyGeometry ()=0
	Geometry methods.

Shape_ptr	GetAssemblyShape ()

bool	IsHexagonalAssembly ()

double	GetPitch ()

double	GetWidth ()

double	GetSide ()

double	GetHeight ()

double	GetAxialLevelHeight ()

double	GetPlenumThickness ()

double	GetDuctThickness ()

void	Translate (double dx, double dy, double dz)

double	GetPrimitiveCellXCenter ()

double	GetPrimitiveCellYCenter ()

void	SetBorderPin (PinCell *pin)

Shape_ptr	GetInfiniteAssemblyShape ()

Methods when a ReactorAssembly is used in a Lattice
void	SetSpatialVariable (PinCell *pin, string RadialZoneName, double RadialZoneValue, string ZLevelName, double ZLevelValue)

void	SetNumberOfInstance (int N)

Other methods
void	SetUniverse (int u=- 1)

int	GetUniverse ()

vector< int > &	GetNumberOfFuelPinsPerZone ()

vector< int > &	GetNumberOfGuideTubesPerZone ()

vector< int > &	GetNumberOfControlRodsPerZone ()

vector< int > &	GetNumberOfCoolantPinsPerZone ()

int	GetNumberOfFuelPinsPerLevel ()
	number of all fuel pins of a level (may be an approximation for an hexagons)

int	GetNumberOfGuideTubesPerLevel ()
	number of all Guide Tubes of a level

int	GetNumberOfControlRodsPerLevel ()
	number of all Control Rods of a level

virtual void	SetSource (int NPS=5000, int ActivesCycles=100, int InactivesCycles=100)=0
	Sets a volumic neutron source.

string	GetAssemblyName ()

Protected Member Functions
Internal methods
void	Copy (const GenericReactorAssembly &m)
	< Copy ReactorMesh object m attributs in this

virtual void	CreatePlenum ()=0
	Creates plenum shapes for the upper and lower plenum.

virtual void	CreateDuct ()=0
	Creates Duct shapes.

void	Init ()
	Initialization of arrays.

int	FindNumInArray (int num, vector< int > Array)
	Find the position of Num in the vector Array (-1 if not found)

void	FillRadialZone2MeshFromRadius ()
	Fill Radial Zone lattice from the assembly lattice mesh.

void	ApplyRadialZone2Mesh ()
	apply the radial zoning to each pins (if a pin is in 2 zones, it is duplicated to have 2 different pins, one per zone.

void	SetGasSpaceData (double GasThickness, double GasPressure, double HeFraMol, double XeFraMol, int Zone)

void	AddPin (PinCell *pin, int Ix, int Iy)
	add a generic pin (Fuel, GuideTube, .. Call by AddFuelPin, ...

void	ReplaceBorderPins ()

void	CheckZoning ()
	verify that all the lattice has a zone and that the zone numbers are 0, 1, ..fNRadialZones.

void	PrintData ()
	Print output files.

void	Closing ()
	Some routines to execute before exiting.

void	CountPinsPerTypePerRadialZone ()
	Count the number of each pin type per radial zone.

void	CountUniversePerRadialZone (int Rzone, vector< int > Universe, vector< int > &Nb_Of_Count)

vector< int >	FindUniversesInRadialZones ()

void	FillAssemblyMesh ()
	Fill the global (R, Z) assembly mesh.

void	SetSpatialVariable ()
	Fill all Pin's spatial variables.

void	SetSpatialVariable (PinCell *pin, int RadialZoneNum, string RadialZoneName, double RadialZoneValue, string ZLevelName, double ZLevelValue)
	Fill a Pin's spatial variables.

Protected Attributes
Assembly
Shape_ptr	fSAssemblyZone
	Assembly shape (could have holes in it)

Shape_ptr	fSOuterShape
	Assembly shape (either a Brick or an Hexagon)

Shape_ptr	fSInnerShape
	Assembly inner shape (a small brick/hexa if plenum and/or Duct is defined)

double	fPitch
	The pitch of channels.

double	fAssemblyWidth
	The assembly x-side for Brick case or width between 2 opposite planes for Hexagon case.

double	fAssemblySide
	The assembly y-side for Brick case or side for Hexagon case.

double	fAssemblyHeight
	The total assembly height (including plenums)

double	fAxialLevelHeight
	The height of each axial level=(fAssemblyHeight-2*fPlenumThickness)/fAxialLevels.

string	fAssemblyName
	name of the assembly for output

bool	fIsHexagon
	Whether the assembly shape is hexagonal or cuboid.

vector< double >	fHexaXplaneNormalVector
	Normal vector to the right plane of an hexagonal assembly.

int	fUniverse
	Assembly universe for filling core lattice.

double	fDxAssemblyTrans
	x assembly translation vector

double	fDyAssemblyTrans
	y assembly translation vector

double	fDzAssemblyTrans
	z assembly translation vector

bool	fIsTranslated
	whether or not an assembly has been tranlated

bool	fIsAssemblyShapeDefined
	to allow or not the AddXXXpin methods

bool	fIsAssemblyGeometryBuilt
	whether or not the assembly geometry has been built

Plenum
Shape_ptr	fSPlenumUp
	Top Plenum shape.

Shape_ptr	fSPlenumDown
	Bottom Plenum shape.

Shape_ptr	fBetweenPlenums
	space between plenum if fUniverse>0

Material *	fLowerPlenumMaterial
	Lower Plenum material.

Material *	fUpperPlenumMaterial
	Upper Plenum material.

Cell *	fCPlenumUp
	Top Plenum cell.

Cell *	fCPlenumDown
	Bottom Plenum cell.

double	fPlenumThickness
	Width of the plenum up and down.

bool	fCanDefinePlenum
	Whether or not plenum can be defined.

bool	fIsPlenum
	True if lower and upper plenums are defined.

Duct of the assembly
double	fDuctThickness
	Thickness of the Duct.

Material *	fDuctMaterial
	Material of the Duct.

Cell *	fCellDuct
	Cell of the Duct.

Shape_ptr	fSAssemblyDuct
	Assembly Duct shape.

bool	fIsDuct
	true if a duct has been added

Zoning data
int	fAxialLevels
	The number of axial levels (number of differents cells in z direction)

int	fRadialZones
	The number of radial zones (number of differents cells in x, y direction)

vector< vector< int > >	fRadialMeshZone
	radial zone mesh fNxfNy : zone number of a mesh position (same for All Level) PTO ASK NICO

vector< double >	fVirtualRadiusCircle
	virtual circle radius to define zones (0..fRadialZones)

vector< int >	fVirtualRadiusZone
	associated zone to the previous vector (0..fRadialZones)

Mesh
int	fNx
	size of the x lattice mesh

int	fNy
	size of the y lattice mesh

int	fIXmin

int	fIXmax
	extremal value of the x lattice mesh

int	fIYmin

int	fIYmax
	extremal value of the y lattice mesh

int	fIZmin

int	fIZmax
	extremal value of the z lattice mesh

double	fPrimitiveCellXCenter
	X center of the primitive lattice cell of the mesh.

double	fPrimitiveCellYCenter
	Y center of the primitive lattice cell of the mesh.

double	fXMeshCenter

double	fYMeshCenter

double	fZMeshCenter

vector< vector< int > >	fRadialMeshLattice
	radial mesh (only for assembly definition, fNx x fNy)

vector< vector< vector< int > > >	fMeshLattice
	Complete Assembly mesh (x, y, z)

Pin stuff
vector< PinCell * >	fRadialPinCell
	pin for the radial mesh

vector< vector< vector< PinCell * > > >	fPinCellVector
	full pin vector per radial zone, axial level for each universe type [nr][nz][nu]

PinCell *	fBorderPin
	special pin (surrounding material only) to fill assembly border

bool	fIsGuideTubes
	whether GuideTube pins have been added

bool	fIsControlRods
	whether ControlRod pins have been added

vector< int >	fNumberOfFuelPinsPerZone
	Number of fuel pins in each radial zone.

vector< int >	fNumberOfGuideTubesPerZone
	Number of fuel pins in each radial zone.

vector< int >	fNumberOfControlRodsPerZone
	Number of fuel pins in each radial zone.

vector< int >	fNumberOfCoolantPinsPerZone
	Number of fuel pins in each radial zone.

Others
vector< ofstream * >	fFiles
	Output files.

bool	fIsGasSpace
	Whether gas space is simulated between cladding and fuel pin.

vector< double >	fGasThickness
	Thickness of the gas space.

double	fGasPressure
	Cold fill gas pressure (Pa)

double	fHeFraMol
	Molar fraction of Helium in the gas.

double	fXeFraMol
	Molar fraction of Xenon in the gas.

Detailed Description

This abstract class is used to built a reactor assembly.

Assemblies built with this class are basic cuboid or hexagonal VERTICAL assemblies that can be rotated by +/-Pi/2. User sould use the concrete classes, namely MCNP::ReactorAssembly or Serpent::ReactorAssembly.

They are filled with fuel pins, guide tubes and control rods. Each GenericReactorAssembly can be discretized in radial zones and axial levels either for evolution purpose, or for thermohydraulics (coupled or not with evolution) purposed. By default only 1 radial zone and 1 axial level is created. In each zone, all material of a given type of Pincell is the same (composition &temperature).

Data must be given in SI (dimensions in meters) All GenericReactorAssembly are created at (0, 0, 0) ; use GenericReactorAssembly::Translate to move it (before any call to GenericReactorAssembly::BuildAssemblyGeometry().

WARNING: Some methods must be called before others ; even if error messages are provided, read the user guide.

Author: Nico*; pto

Version: 3.0

Constructor & Destructor Documentation

◆ GenericReactorAssembly() [1/2]

GenericReactorAssembly::GenericReactorAssembly	(	double	Pitch,
		int	NRadialZones = `1`,
		int	NZLevels = `1`,
		string	AssemblyName = `"GenericAss"`
	)

Normal constructor.

Copy constructor.

Parameters

Pitch	The pitch of the assembly mesh.
NRadialZones	Number of radial zones (default = 1)
NZLevels	Number of axial levels (default = 1)
AssemblyName	Name of the assembly (needed to results directories and identification)

◆ GenericReactorAssembly() [2/2]

GenericReactorAssembly::GenericReactorAssembly ( const GenericReactorAssembly & m )

◆ ~GenericReactorAssembly()

GenericReactorAssembly::~GenericReactorAssembly ( )

virtual

Default destructor.

Member Function Documentation

◆ AddControlRod()

void GenericReactorAssembly::AddControlRod	(	PinCell *	pin,
		int	Ix,
		int	Iy,
		int	ZoneNumber = `- 1`
	)

Add a Control Rod to the assembly.

A control rod contains absorbent material ; if the assembly has guide tubes, they are inserted in these guide tubes.

When adding a PincCell at a given position, one can set in the same time the "radial" zone of that position if ZoneNumber>=0 ; in that case, GenericReactorAssembly::AddRadialZone2Mesh(Ix, Iy, ZoneNumber) is automatically called.

RESTRICTION: For Thermohydraulics(COBRA) use, only 1 type of control rod can be defined by a pin with 4 layers: the absorbent rod, its clad a coolant layer arround the rod clad and a Guide Tube's clad into which the rod is moving. The pin is added to the fControlRodPin vector (if not already added) and the pin universe is stored at the position (Ix, Iy) in the assembly mesh. The (Ix=0, Iy=0) is the central lattice element for odd x odd lattice mesh.

Parameters

pin	: a Control Rod pin (central rod+its clad+ coolant ring+ guide tube's clad)
Ix	: the X index position in the assembly lattice mesh.
Iy	: the Y index position in the assembly lattice mesh.
ZoneNumber	: the zone number at this position if ZoneNumber>=0 set the radial zone to that value.

◆ AddFuelPin()

void GenericReactorAssembly::AddFuelPin	(	PinCell *	pin,
		int	Ix = `99999`,
		int	Iy = `99999`,
		int	ZoneNumber = `- 1`
	)

Add a fuel pin to the assembly.

The pin is added to the fRadialPinCell vector (if not already added) and the pin universe is stored at the position (Ix, Iy) in the assembly mesh. The (Ix=0, Iy=0) is the central lattice element for odd*odd lattice mesh and the first right-up lattice cell for a even*even lattice mesh.

if (Ix=99999, Iy=99999) then the pin fill the whole assembly mesh.

When adding a PincCell at a given position, one can set in the same time the "radial" zone of that position if ZoneNumber>=0 ; in that case, GenericReactorAssembly::AddRadialZone2Mesh(Ix, Iy, ZoneNumber) is automatically called.

RESTRICTION: For Thermohydraulics(COBRA) use, each pin must have a clad and at least an inner zone (fuel part) ; this means that the number of layers of the pin should be at least 2. Some special pins may also be defined ; they have then a third layer compose of a ring (Gd, ...) between the fuel and its clad.

Parameters

pin	: a pin of fuel (with its clad)
Ix	: the X index position in the assembly lattice mesh.
Iy	: the Y index position in the assembly lattice mesh.
ZoneNumber	: the zone number at this position if ZoneNumber>=0 set the radial zone to that value.

◆ AddGuideTube()

void GenericReactorAssembly::AddGuideTube	(	PinCell *	pin,
		int	Ix,
		int	Iy,
		int	ZoneNumber = `- 1`
	)

Add a Guide Tube to the assembly.

Guide Tube are specific hole in the (PWR)) assembly, generally full of water.

When adding a Guide Tube PincCell at a given position, one can set in the same time the "radial" zone of that position if ZoneNumber>=0 ; in that case, GenericReactorAssembly::AddRadialZone2Mesh(Ix, Iy, ZoneNumber) is automatically called.

RESTRICTION: For Thermohydraulics(COBRA) use, a guide tube is defined by a pin with 2 layers: a inner coolant zone and the clad. The pin is added to the fGuideTubePin vector (if not already added) and the pin universe is stored at the position (Ix, Iy) in the assembly mesh. The (Ix=0, Iy=0) is the central lattice element for odd x odd lattice mesh.

Parameters

pin	: a Guide Tube pin (with its clad)
Ix	: the X index position in the assembly lattice mesh.
Iy	: the Y index position in the assembly lattice mesh.
ZoneNumber	: the zone number at this position if ZoneNumber>=0 set the radial zone to that value.

◆ AddPin()

void GenericReactorAssembly::AddPin	(	PinCell *	pin,
		int	Ix,
		int	Iy
	)

protected

add a generic pin (Fuel, GuideTube, .. Call by AddFuelPin, ...

◆ AddRadialZone2Mesh() [1/2]

void GenericReactorAssembly::AddRadialZone2Mesh	(	double	Radius,
		int	ZoneNum
	)

Add a radial zone to the mesh.

Radial Zones correspond to thermohydraulics and/or evolution zones: all fuels pins in a given zone will have the same temperature Tf and their clads will have the same Tc (given by a thermohydraulics calculation) ; idem for coolant, Guide Tubes, ... Radial zone can be added in 2 ways: 1)using virtual circles (current method). 2)specifying the mesh positions.

For 1) user provides Radii of the virtual concentric circles associated to a zone number. Then each pin (fuel, guide tube, ...) completly included inside this virtual circle (and outside the inner one if it exist) belong to the zone. If a zone has been set before in a lattice mesh (by method 2) inside this virtual circle, the zone is preserved. For a cuboid assembly, the minimum radius of the last zone is Side/sqrt(2). For an hexagon assembly, the minium radius of the last zone is Side*2.

For 2) see .AddRadialZone2Mesh(int, int, int)

Parameters

Radius	: radius of the virtual circle
ZoneNum	: the zone number associated to that radius.

◆ AddRadialZone2Mesh() [2/2]

void GenericReactorAssembly::AddRadialZone2Mesh	(	int	Ix,
		int	Iy,
		int	ZoneNum
	)

Add a radial zone to the mesh.

Radial Zones correspond to thermohydraulics and/or evolution zones: all fuels pins in a given zone will have the same temperature Tf and their clads will have the same Tc (given by a thermohydraulics calculation) ; idem for coolant, Guide Tubes, ... Radial zone can be added in 2 ways: 1)using virtual circles (see above). 2)specifying the mesh positions(current method).

For 2) user provides, for the given index position in the lattice mesh, the zone number.

Parameters

Ix	: the X index position in the assembly lattice mesh.
Iy	: the Y index position in the assembly lattice mesh.
ZoneNum	: the zone number.

◆ ApplyRadialZone2Mesh()

void GenericReactorAssembly::ApplyRadialZone2Mesh ( )

protected

apply the radial zoning to each pins (if a pin is in 2 zones, it is duplicated to have 2 different pins, one per zone.

◆ BuildAssemblyGeometry()

virtual void GenericReactorAssembly::BuildAssemblyGeometry ( )

pure virtual

Geometry methods.

Build the Assembly

After calling this method, the assembly can not be modified. THIS MUST BE THE LAST CALLED METHOD FOR THE ReactorAssembly..

Implemented in MCNP::ReactorAssembly, and Serpent::ReactorAssembly.

◆ CheckZoning()

void GenericReactorAssembly::CheckZoning ( )

protected

verify that all the lattice has a zone and that the zone numbers are 0, 1, ..fNRadialZones.

◆ Clone()

virtual GenericReactorAssembly * GenericReactorAssembly::Clone ( )

pure virtual

Implemented in MCNP::ReactorAssembly, and Serpent::ReactorAssembly.

◆ Closing()

void GenericReactorAssembly::Closing ( )

protected

Some routines to execute before exiting.

◆ Copy()

void GenericReactorAssembly::Copy ( const GenericReactorAssembly & m )

protected

< Copy ReactorMesh object m attributs in this

◆ CountPinsPerTypePerRadialZone()

void GenericReactorAssembly::CountPinsPerTypePerRadialZone ( )

protected

Count the number of each pin type per radial zone.

◆ CountUniversePerRadialZone()

void GenericReactorAssembly::CountUniversePerRadialZone	(	int	Rzone,
		vector< int >	Universe,
		vector< int > &	Nb_Of_Count
	)

protected

Count the number of time a universe appears in a radial zone

Parameters

Rzone	: the radial zone number (0:innerest)
Universe	: input vector that stores all universes present in the radial zone (see GenericReactorAssembly::FindUniversesInRadialZones()).
Nb_Of_Count	: output vector containing the number of time a given universe is present in the radial zone Rzone.

◆ CreateDuct()

virtual void GenericReactorAssembly::CreateDuct ( )

protectedpure virtual

Creates Duct shapes.

Implemented in MCNP::ReactorAssembly, and Serpent::ReactorAssembly.

◆ CreatePlenum()

virtual void GenericReactorAssembly::CreatePlenum ( )

protectedpure virtual

Creates plenum shapes for the upper and lower plenum.

Implemented in MCNP::ReactorAssembly, and Serpent::ReactorAssembly.

◆ FillAssemblyMesh()

void GenericReactorAssembly::FillAssemblyMesh ( )

protected

Fill the global (R, Z) assembly mesh.

◆ FillRadialZone2MeshFromRadius()

void GenericReactorAssembly::FillRadialZone2MeshFromRadius ( )

protected

Fill Radial Zone lattice from the assembly lattice mesh.

◆ FindNumInArray()

int GenericReactorAssembly::FindNumInArray	(	int	num,
		vector< int >	Array
	)

protected

Find the position of Num in the vector Array (-1 if not found)

◆ FindUniversesInRadialZones()

vector< int > GenericReactorAssembly::FindUniversesInRadialZones ( )

protected

Find all the universe numbers belonging to a radial zone. The output vector has the size of the total number of universes in all radial zones (for 1 level). Eache vector value is the universe of the given PinCell in one of the radial zone.

◆ GetAssemblyName()

string GenericReactorAssembly::GetAssemblyName ( )

inline

< return the assembly name

◆ GetAssemblyShape()

Shape_ptr GenericReactorAssembly::GetAssemblyShape ( )

inline

< return the Assembly shape

◆ GetAxialLevelHeight()

double GenericReactorAssembly::GetAxialLevelHeight ( )

inline

< return the height of each axial level (fuel part)

◆ GetControlRodOuterRadius()

vector< double > GenericReactorAssembly::GetControlRodOuterRadius ( )

return the most outer control rod layer radius (outer clad)

◆ GetDuctCell()

Cell * GenericReactorAssembly::GetDuctCell ( )

inline

return the Duct cell

◆ GetDuctThickness()

double GenericReactorAssembly::GetDuctThickness ( )

inline

< return the total plenum thickness

◆ GetFuelCell()

vector< Cell * > GenericReactorAssembly::GetFuelCell	(	int	RadialZoneNumber,
		int	AxialLevelNumber
	)

return the MURE cell vector of cells belonging the radial zone and axial level.

WARNING: this method is used internally when needed ; but of course the user can use it. If so he must call before the gMURE->GetConnectorPlugin()->BuildPinCells(). The call to this last method should be done *ONLY *after all Reactor Assemblies object has been built (via ReactorAssembly::BuildAssemblyGeometry()).

◆ GetGlobalLatticeMesh()

vector< vector< vector< int > > > GenericReactorAssembly::GetGlobalLatticeMesh ( )

inline

< return the matrix of universe number of all Pincells of the assembly.

◆ GetGlobalLatticeMeshPin()

PinCell * GenericReactorAssembly::GetGlobalLatticeMeshPin	(	int	x,
		int	y,
		int	z
	)

return the PinCell located at (x, y, z) in the global lattice mesh

◆ GetGlobalLatticeMeshUniverse()

int GenericReactorAssembly::GetGlobalLatticeMeshUniverse	(	int	x,
		int	y,
		int	z
	)

MC mesh methods.

return the universe of the PinCell located at (x, y, z) in the global lattice mesh

◆ GetGuideTubeOuterRadius()

vector< double > GenericReactorAssembly::GetGuideTubeOuterRadius ( )

return the most outer guide tube layer radius (clad)

◆ GetHeight()

double GenericReactorAssembly::GetHeight ( )

inline

< return the assembly full height (with plenums if exist)

◆ GetInfiniteAssemblyShape()

Shape_ptr GenericReactorAssembly::GetInfiniteAssemblyShape ( )

return an infinite clone of Assembly outer shape

This method is called ONLY if one want to use the assembly as a mesh element in a core. The outer shape of the core is cloned and set inifinite in the Z direction. It will be used as tthe lattice generato of the Core LatticeCell mesh. This avoid error message of MCNP "surface xx appears more than once in a chain".

◆ GetLowerCellPlenum()

Cell * GenericReactorAssembly::GetLowerCellPlenum ( )

inline

return the lower cell plenum

◆ GetMCMeshXmax()

int GenericReactorAssembly::GetMCMeshXmax ( )

inline

< Upper X-index in the lattice mesh

◆ GetMCMeshXmin()

int GenericReactorAssembly::GetMCMeshXmin ( )

inline

< Lower X-index in the lattice mesh

◆ GetMCMeshYmax()

int GenericReactorAssembly::GetMCMeshYmax ( )

inline

< Upper Y-index in the lattice mesh

◆ GetMCMeshYmin()

int GenericReactorAssembly::GetMCMeshYmin ( )

inline

< Lower Y-index in the lattice mesh

◆ GetMCMeshZmax()

int GenericReactorAssembly::GetMCMeshZmax ( )

inline

< Upper Z-index in the lattice mesh

◆ GetMCMeshZmin()

int GenericReactorAssembly::GetMCMeshZmin ( )

inline

< Lower Z-index in the lattice mesh

◆ GetMCXMeshSize()

int GenericReactorAssembly::GetMCXMeshSize ( )

inline

< Number of lattice cells in X

◆ GetMCYMeshSize()

int GenericReactorAssembly::GetMCYMeshSize ( )

inline

< Number of lattice cells in Y

◆ GetNumberOfAxialLevels()

int GenericReactorAssembly::GetNumberOfAxialLevels ( )

inline

< Number of axial levels

◆ GetNumberOfControlRodsPerLevel()

int GenericReactorAssembly::GetNumberOfControlRodsPerLevel ( )

number of all Control Rods of a level

◆ GetNumberOfControlRodsPerZone()

vector< int > & GenericReactorAssembly::GetNumberOfControlRodsPerZone ( )

inline

< number of control rods in each radial zone

◆ GetNumberOfCoolantPinsPerZone()

vector< int > & GenericReactorAssembly::GetNumberOfCoolantPinsPerZone ( )

inline

< approximate number of full border pins in the last radial zone of an hexagon

◆ GetNumberOfFuelPinsPerLevel()

int GenericReactorAssembly::GetNumberOfFuelPinsPerLevel ( )

number of all fuel pins of a level (may be an approximation for an hexagons)

◆ GetNumberOfFuelPinsPerZone()

vector< int > & GenericReactorAssembly::GetNumberOfFuelPinsPerZone ( )

inline

< number of fuel pins in each radial zone

◆ GetNumberOfGuideTubesPerLevel()

int GenericReactorAssembly::GetNumberOfGuideTubesPerLevel ( )

number of all Guide Tubes of a level

◆ GetNumberOfGuideTubesPerZone()

vector< int > & GenericReactorAssembly::GetNumberOfGuideTubesPerZone ( )

inline

< number of guide tubes in each radial zone

◆ GetNumberOfRadialZones()

int GenericReactorAssembly::GetNumberOfRadialZones ( )

inline

Zoning methods.

< Number of radial zones

◆ GetPinCellOfDifferentShape()

vector< PinCell * > GenericReactorAssembly::GetPinCellOfDifferentShape ( string PinType )

return the vector of all pincell of a given type ("Fuel", "GuideTube", ...)

◆ GetPinCellVector()

vector< PinCell * > & GenericReactorAssembly::GetPinCellVector	(	int	RadialZoneNumber,
		int	AxialLevelNumber
	)

inline

return the PinCell vector of PinCells belonging to the radial zone and axial level. The vector is a [r][z][nu] size ; the [nu] index is global for the assembly (i.e. all universe present in the assembly) ; this means that lot of elements of this vectors are empty (null pointers). In general, one can have many PinCell types in a given radial zone and axial level (Fuel, GuideTube, ...) ; but some time there is no PinCell of a given type.

<

◆ GetPitch()

double GenericReactorAssembly::GetPitch ( )

inline

< return the assembly Pitch

◆ GetPlenumThickness()

double GenericReactorAssembly::GetPlenumThickness ( )

inline

< return the total plenum thickness

◆ GetPrimitiveCellXCenter()

double GenericReactorAssembly::GetPrimitiveCellXCenter ( )

inline

< X-center of the mesh primitive cell

◆ GetPrimitiveCellYCenter()

double GenericReactorAssembly::GetPrimitiveCellYCenter ( )

inline

< Y-center of the mesh primitive cell

◆ GetRadialLatticeMeshZone()

int GenericReactorAssembly::GetRadialLatticeMeshZone	(	int	x,
		int	y,
		int	z
	)

inline

< return the radial zone in the lattice mesh (yet, independent of z)

◆ GetSide()

double GenericReactorAssembly::GetSide ( )

inline

< return the assembly side for hexagonal assembly or Y-side for cuboid one (without duct if exists)

◆ GetUniverse()

int GenericReactorAssembly::GetUniverse ( )

inline

< return the universe number of the ReactorAssembly

◆ GetUpperCellPlenum()

Cell * GenericReactorAssembly::GetUpperCellPlenum ( )

inline

return the upper cell plenum

◆ GetWidth()

double GenericReactorAssembly::GetWidth ( )

inline

< return the assembly width for hexagonal assembly or X-side for cuboid one (without duct if exists)

◆ Init()

void GenericReactorAssembly::Init ( )

protected

Initialization of arrays.

◆ IsControlRods()

bool GenericReactorAssembly::IsControlRods ( )

inline

true if some control rods have been defined

◆ IsDuct()

bool GenericReactorAssembly::IsDuct ( )

inline

true if a asembly duct has been defined

◆ IsGuideTubes()

bool GenericReactorAssembly::IsGuideTubes ( )

inline

true if some guide tubes have been defined

◆ IsHexagonalAssembly()

bool GenericReactorAssembly::IsHexagonalAssembly ( )

inline

< Whether the assembly shape is hexagonal (true) or Cuboid (false)

◆ IsPlenum()

bool GenericReactorAssembly::IsPlenum ( )

inline

true if plenums have been defined

◆ PrintData()

void GenericReactorAssembly::PrintData ( )

protected

Print output files.

◆ ReplaceBorderPins()

void GenericReactorAssembly::ReplaceBorderPins ( )

protected

Replace border pins by coolant ones. For hexagon assemblies, pins close to the border are generally cut by the border. All cut pins are replaced by "coolant's" ones. This method is called only if GenericReactorAssembly::SetBorderPin() has been called.

◆ SetAssemblyDuct()

void GenericReactorAssembly::SetAssemblyDuct	(	double	DuctThickness,
		Material *	DuctMat
	)

Add a assembly duct.

Assembly duct (or assembly channel) can be added for SFR, BWR, ... assemblies. The assembly side for cuboid assembly or witdh for hexagonal assembly is then reduced by 2*DuctThickness (the side of a hexagonal assembly is reduced by 2*DuctThickness/sqrt(3). Thus take this into account for your assembly dimensions!

This method MUST be used called before GenericReactorAssembly::SetAssemblyShape().

RESTRICTION: For Thermohydraulics(COBRA) use, this is not yet allowed. WARNING: if GenericReactorAssembly::SetAssemblyDuct have been called, the real "fuel" part of the assembly is reduced. See these methods for more details.

Parameters

DuctThickness	: duct thickness
DuctMat	: duct material

◆ SetAssemblyShape()

void GenericReactorAssembly::SetAssemblyShape	(	Shape_ptr	TheOuterShape,
		Shape_ptr	TheRealShape = `Shape_ptr(nullptr)`
	)

Set the reactor mesh assembly shape.

The shape of the assembly must be either cuboid (Brick class) or hexagonal (Hexagon class). It must be center at (0, 0, 0) ; all translations are then taken into account by GenericReactorAssembly::Translate().

If the Assembly is more complex (e.g. a hole in its center), 2 shapes should be provided: the outer shape TheOuterShape (either a Brick or an Hexagon) and the real complex assembly shape (e.g. the "same" shape with the hole in its center). When the assembly is a standard Brick or Hexagon, TheOuterShape is taken as the real assembly shape.

WARNING: if GenericReactorAssembly::SetPlenum have been called, the real "fuel" part of the assembly is reduced. See these methods for more details.

Parameters

TheOuterShape	: Assembly outer shape (either Brick or Hexagons)
TheRealShape	: the real assembly shape if the shape is complex (hole inside, ...).

◆ SetBorderPin()

void GenericReactorAssembly::SetBorderPin ( PinCell * pin )

Set Border pins.

In general, Hexagonal assemblies have their border pins cut by the hexagon sides. To avoid this, user can provide a pure coolant pin (only with a surrounding material) to replace all border pins by this "coolant" one. This method is HIGHLY recommanded for hexagonal assembly.

For cuboid assembly with a pitch that does match assembly width, this can also be useful.

◆ SetGasSpaceData()

void GenericReactorAssembly::SetGasSpaceData	(	double	GasThickness,
		double	GasPressure,
		double	HeFraMol,
		double	XeFraMol,
		int	Zone
	)

protected

◆ SetNumberOfInstance()

void GenericReactorAssembly::SetNumberOfInstance ( int N )

Set the number of time a ReactorAssembly is used.

This method is very IMPORTANT if a ReactorAssembly is used more than once in a geometry ; By default PinCell volumes have bin set to their real volume in 1 ReactorAssembly (e.g. for a fuel pin of a PWR assembly with 25 guide tubes, the volume is set to: volume_all_pin_in_ass=(17*17-25)*volume_of_1_pin). But if this assembly is used more than one (N), the volume of the PinCell should be N*volume_all_pin_in_ass. This method take care of that.

◆ SetPlenum()

void GenericReactorAssembly::SetPlenum	(	double	PlenumThickness,
		Material *	UpperPlenumMat,
		Material *	LowerPlenumMat = `nullptr`
	)

Sets plenum at the top and at the bottom.

Top and bottom plenums of egal thickness are added to the assembly ; thus the assembly length is reduced by 2*PlenumThickness. If only the upper plenum material (coolant) is given, a (true) clone at the same temperature is performed for the lower plenum material.

This method MUST be used called before GenericReactorAssembly::SetAssemblyShape().

Parameters

PlenumThickness	: top and plenum thickness
UpperPlenumMat	: coolant material for the upper plenum
LowerPlenumMat	: coolant material for the lower plenum

◆ SetSource()

virtual void GenericReactorAssembly::SetSource	(	int	NPS = `5000`,
		int	ActivesCycles = `100`,
		int	InactivesCycles = `100`
	)

pure virtual

Sets a volumic neutron source.

Define a cylindrical source (Watt fission spectrum) thats fills all the external shape specified by the user. MCNP Only.

Parameters

NPS	Number of source particles
ActivesCycles	Number of actives cycles in KCODE
InactivesCycles	Number of inactives cycles in KCODE

Implemented in MCNP::ReactorAssembly, and Serpent::ReactorAssembly.

◆ SetSpatialVariable() [1/3]

void GenericReactorAssembly::SetSpatialVariable ( )

protected

Fill all Pin's spatial variables.

◆ SetSpatialVariable() [2/3]

void GenericReactorAssembly::SetSpatialVariable	(	PinCell *	pin,
		int	RadialZoneNum,
		string	RadialZoneName,
		double	RadialZoneValue,
		string	ZLevelName,
		double	ZLevelValue
	)

protected

Fill a Pin's spatial variables.

◆ SetSpatialVariable() [3/3]

void GenericReactorAssembly::SetSpatialVariable	(	PinCell *	pin,
		string	RadialZoneName,
		double	RadialZoneValue,
		string	ZLevelName,
		double	ZLevelValue
	)

Fill all Pin's spatial variables

It first reset FuelPin "old" spatial variables and add new ones

◆ SetUniverse()

void GenericReactorAssembly::SetUniverse ( int u = - 1 )

Give a Universe to assembly

This method is called ONLY if one want to use the assembly as a mesh element in a core. If the universe is <0 then MURE chooses the number automatically. Method is 1) define the ReactorAssembly RA (assign its shape, fill pins, ...) 2) give a universe to the assembly via this method 3) BuildAssemblyGeometry() 4) Define a core shape Core 5) Define a Shape_ptr InfinitAss=RA->GetInfiniteAssemblyShape(); 6) InfinitAss->SetUniverse(); 7) InfinitAss>>Core 8) define a new LatticeCell(InfinitAss); 9) Fill the lattice via LatticeCell::FillLattice(RA->GetUniverse(), ...)

◆ Translate()

void GenericReactorAssembly::Translate	(	double	dx,
		double	dy,
		double	dz
	)

Translate the whole assembly

Translation is only performed in the GenericReactorAssembly::BuildAssemblyGeometry() ; this allow more simple calculation for pin positions, ... Thus this method must be called before GenericReactorAssembly::BuildAssemblyGeometry().

Parameters

dx	X translation
dy	Y translation
dz	Z translation

Member Data Documentation

◆ fAssemblyHeight

double GenericReactorAssembly::fAssemblyHeight

protected

The total assembly height (including plenums)

◆ fAssemblyName

string GenericReactorAssembly::fAssemblyName

protected

name of the assembly for output

◆ fAssemblySide

double GenericReactorAssembly::fAssemblySide

protected

The assembly y-side for Brick case or side for Hexagon case.

◆ fAssemblyWidth

double GenericReactorAssembly::fAssemblyWidth

protected

The assembly x-side for Brick case or width between 2 opposite planes for Hexagon case.

◆ fAxialLevelHeight

double GenericReactorAssembly::fAxialLevelHeight

protected

The height of each axial level=(fAssemblyHeight-2*fPlenumThickness)/fAxialLevels.

◆ fAxialLevels

int GenericReactorAssembly::fAxialLevels

protected

The number of axial levels (number of differents cells in z direction)

◆ fBetweenPlenums

Shape_ptr GenericReactorAssembly::fBetweenPlenums

protected

space between plenum if fUniverse>0

◆ fBorderPin

PinCell* GenericReactorAssembly::fBorderPin

protected

special pin (surrounding material only) to fill assembly border

◆ fCanDefinePlenum

bool GenericReactorAssembly::fCanDefinePlenum

protected

Whether or not plenum can be defined.

◆ fCellDuct

Cell* GenericReactorAssembly::fCellDuct

protected

Cell of the Duct.

◆ fCPlenumDown

Cell* GenericReactorAssembly::fCPlenumDown

protected

Bottom Plenum cell.

◆ fCPlenumUp

Cell* GenericReactorAssembly::fCPlenumUp

protected

Top Plenum cell.

◆ fDuctMaterial

Material* GenericReactorAssembly::fDuctMaterial

protected

Material of the Duct.

◆ fDuctThickness

double GenericReactorAssembly::fDuctThickness

protected

Thickness of the Duct.

◆ fDxAssemblyTrans

double GenericReactorAssembly::fDxAssemblyTrans

protected

x assembly translation vector

◆ fDyAssemblyTrans

double GenericReactorAssembly::fDyAssemblyTrans

protected

y assembly translation vector

◆ fDzAssemblyTrans

double GenericReactorAssembly::fDzAssemblyTrans

protected

z assembly translation vector

◆ fFiles

vector< ofstream *> GenericReactorAssembly::fFiles

protected

Output files.

◆ fGasPressure

double GenericReactorAssembly::fGasPressure

protected

Cold fill gas pressure (Pa)

◆ fGasThickness

vector< double > GenericReactorAssembly::fGasThickness

protected

Thickness of the gas space.

◆ fHeFraMol

double GenericReactorAssembly::fHeFraMol

protected

Molar fraction of Helium in the gas.

◆ fHexaXplaneNormalVector

vector< double > GenericReactorAssembly::fHexaXplaneNormalVector

protected

Normal vector to the right plane of an hexagonal assembly.

◆ fIsAssemblyGeometryBuilt

bool GenericReactorAssembly::fIsAssemblyGeometryBuilt

protected

whether or not the assembly geometry has been built

◆ fIsAssemblyShapeDefined

bool GenericReactorAssembly::fIsAssemblyShapeDefined

protected

to allow or not the AddXXXpin methods

◆ fIsControlRods

bool GenericReactorAssembly::fIsControlRods

protected

whether ControlRod pins have been added

◆ fIsDuct

bool GenericReactorAssembly::fIsDuct

protected

true if a duct has been added

◆ fIsGasSpace

bool GenericReactorAssembly::fIsGasSpace

protected

Whether gas space is simulated between cladding and fuel pin.

◆ fIsGuideTubes

bool GenericReactorAssembly::fIsGuideTubes

protected

whether GuideTube pins have been added

◆ fIsHexagon

bool GenericReactorAssembly::fIsHexagon

protected

Whether the assembly shape is hexagonal or cuboid.

◆ fIsPlenum

bool GenericReactorAssembly::fIsPlenum

protected

True if lower and upper plenums are defined.

◆ fIsTranslated

bool GenericReactorAssembly::fIsTranslated

protected

whether or not an assembly has been tranlated

◆ fIXmax

int GenericReactorAssembly::fIXmax

protected

extremal value of the x lattice mesh

◆ fIXmin

int GenericReactorAssembly::fIXmin

protected

◆ fIYmax

int GenericReactorAssembly::fIYmax

protected

extremal value of the y lattice mesh

◆ fIYmin

int GenericReactorAssembly::fIYmin

protected

◆ fIZmax

int GenericReactorAssembly::fIZmax

protected

extremal value of the z lattice mesh

◆ fIZmin

int GenericReactorAssembly::fIZmin

protected

◆ fLowerPlenumMaterial

Material* GenericReactorAssembly::fLowerPlenumMaterial

protected

Lower Plenum material.

◆ fMeshLattice

vector< vector < vector < int > > > GenericReactorAssembly::fMeshLattice

protected

Complete Assembly mesh (x, y, z)

◆ fNumberOfControlRodsPerZone

vector< int > GenericReactorAssembly::fNumberOfControlRodsPerZone

protected

Number of fuel pins in each radial zone.

◆ fNumberOfCoolantPinsPerZone

vector< int > GenericReactorAssembly::fNumberOfCoolantPinsPerZone

protected

Number of fuel pins in each radial zone.

◆ fNumberOfFuelPinsPerZone

vector< int > GenericReactorAssembly::fNumberOfFuelPinsPerZone

protected

Number of fuel pins in each radial zone.

◆ fNumberOfGuideTubesPerZone

vector< int > GenericReactorAssembly::fNumberOfGuideTubesPerZone

protected

Number of fuel pins in each radial zone.

◆ fNx

int GenericReactorAssembly::fNx

protected

size of the x lattice mesh

◆ fNy

int GenericReactorAssembly::fNy

protected

size of the y lattice mesh

◆ fPinCellVector

vector< vector < vector < PinCell *> > > GenericReactorAssembly::fPinCellVector

protected

full pin vector per radial zone, axial level for each universe type [nr][nz][nu]

◆ fPitch

double GenericReactorAssembly::fPitch

protected

The pitch of channels.

◆ fPlenumThickness

double GenericReactorAssembly::fPlenumThickness

protected

Width of the plenum up and down.

◆ fPrimitiveCellXCenter

double GenericReactorAssembly::fPrimitiveCellXCenter

protected

X center of the primitive lattice cell of the mesh.

◆ fPrimitiveCellYCenter

double GenericReactorAssembly::fPrimitiveCellYCenter

protected

Y center of the primitive lattice cell of the mesh.

◆ fRadialMeshLattice

vector< vector < int > > GenericReactorAssembly::fRadialMeshLattice

protected

radial mesh (only for assembly definition, fNx x fNy)

◆ fRadialMeshZone

vector< vector < int > > GenericReactorAssembly::fRadialMeshZone

protected

radial zone mesh fNx*fNy : zone number of a mesh position (same for All Level) PTO ASK NICO*

◆ fRadialPinCell

vector< PinCell *> GenericReactorAssembly::fRadialPinCell

protected

pin for the radial mesh

◆ fRadialZones

int GenericReactorAssembly::fRadialZones

protected

The number of radial zones (number of differents cells in x, y direction)

◆ fSAssemblyDuct

Shape_ptr GenericReactorAssembly::fSAssemblyDuct

protected

Assembly Duct shape.

◆ fSAssemblyZone

Shape_ptr GenericReactorAssembly::fSAssemblyZone

protected

Assembly shape (could have holes in it)

◆ fSInnerShape

Shape_ptr GenericReactorAssembly::fSInnerShape

protected

Assembly inner shape (a small brick/hexa if plenum and/or Duct is defined)

◆ fSOuterShape

Shape_ptr GenericReactorAssembly::fSOuterShape

protected

Assembly shape (either a Brick or an Hexagon)

◆ fSPlenumDown

Shape_ptr GenericReactorAssembly::fSPlenumDown

protected

Bottom Plenum shape.

◆ fSPlenumUp

Shape_ptr GenericReactorAssembly::fSPlenumUp

protected

Top Plenum shape.

◆ fUniverse

int GenericReactorAssembly::fUniverse

protected

Assembly universe for filling core lattice.

◆ fUpperPlenumMaterial

Material* GenericReactorAssembly::fUpperPlenumMaterial

protected

Upper Plenum material.

◆ fVirtualRadiusCircle

vector< double > GenericReactorAssembly::fVirtualRadiusCircle

protected

virtual circle radius to define zones (0..fRadialZones)

◆ fVirtualRadiusZone

vector< int > GenericReactorAssembly::fVirtualRadiusZone

protected

associated zone to the previous vector (0..fRadialZones)

◆ fXeFraMol

double GenericReactorAssembly::fXeFraMol

protected

Molar fraction of Xenon in the gas.

◆ fXMeshCenter

double GenericReactorAssembly::fXMeshCenter

protected

◆ fYMeshCenter

double GenericReactorAssembly::fYMeshCenter

protected

◆ fZMeshCenter

double GenericReactorAssembly::fZMeshCenter

protected

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

/gpr/meplan/SMURE/source/include/GenericReactorAssembly.hxx
/gpr/meplan/SMURE/source/src/GenericReactorAssembly.cxx

Public Member Functions

Protected Member Functions

Protected Attributes

Detailed Description

Constructor & Destructor Documentation

◆ GenericReactorAssembly() [1/2]

◆ GenericReactorAssembly() [2/2]

◆ ~GenericReactorAssembly()

Member Function Documentation

◆ AddControlRod()

◆ AddFuelPin()

◆ AddGuideTube()

◆ AddPin()

◆ AddRadialZone2Mesh() [1/2]

◆ AddRadialZone2Mesh() [2/2]

◆ ApplyRadialZone2Mesh()

◆ BuildAssemblyGeometry()

◆ CheckZoning()

◆ Clone()

◆ Closing()

◆ Copy()

◆ CountPinsPerTypePerRadialZone()

◆ CountUniversePerRadialZone()

◆ CreateDuct()

◆ CreatePlenum()

◆ FillAssemblyMesh()

◆ FillRadialZone2MeshFromRadius()

◆ FindNumInArray()

◆ FindUniversesInRadialZones()

◆ GetAssemblyName()

◆ GetAssemblyShape()

◆ GetAxialLevelHeight()

◆ GetControlRodOuterRadius()

◆ GetDuctCell()

◆ GetDuctThickness()

◆ GetFuelCell()

◆ GetGlobalLatticeMesh()

◆ GetGlobalLatticeMeshPin()

◆ GetGlobalLatticeMeshUniverse()

◆ GetGuideTubeOuterRadius()

◆ GetHeight()

◆ GetInfiniteAssemblyShape()

◆ GetLowerCellPlenum()

◆ GetMCMeshXmax()

◆ GetMCMeshXmin()

◆ GetMCMeshYmax()

◆ GetMCMeshYmin()

◆ GetMCMeshZmax()

◆ GetMCMeshZmin()

◆ GetMCXMeshSize()

◆ GetMCYMeshSize()

◆ GetNumberOfAxialLevels()

◆ GetNumberOfControlRodsPerLevel()

◆ GetNumberOfControlRodsPerZone()

◆ GetNumberOfCoolantPinsPerZone()

◆ GetNumberOfFuelPinsPerLevel()

◆ GetNumberOfFuelPinsPerZone()

◆ GetNumberOfGuideTubesPerLevel()

◆ GetNumberOfGuideTubesPerZone()

◆ GetNumberOfRadialZones()

◆ GetPinCellOfDifferentShape()

◆ GetPinCellVector()

◆ GetPitch()

◆ GetPlenumThickness()

◆ GetPrimitiveCellXCenter()

◆ GetPrimitiveCellYCenter()

◆ GetRadialLatticeMeshZone()

◆ GetSide()

◆ GetUniverse()

◆ GetUpperCellPlenum()

◆ GetWidth()

◆ Init()

◆ IsControlRods()

◆ IsDuct()

◆ IsGuideTubes()

◆ IsHexagonalAssembly()

◆ IsPlenum()

◆ PrintData()

◆ ReplaceBorderPins()

◆ SetAssemblyDuct()