Implementation of a parametrized full order Burgers and preparation of the the reduced matrices for the online solve. More...

#include <ScalarTransport.H>

Inheritance diagram for ScalarTransport:

Public Member Functions
	ScalarTransport ()
	Null constructor.
	ScalarTransport (int argc, char *argv[])
	Construct with argc and argv.
void	truthSolve (word folder="./ITHACAoutput/Offline/")
	truthsolve
void	restart ()
	Function to restart the fields of the Burgers problem.
Public Member Functions inherited from reductionProblem
	reductionProblem ()
	Construct Null.
void	setParameters ()
	Set Parameters Problems.
void	genRandPar ()
	Generate Random Numbers.
void	genRandPar (label tsize)
	Generate Random Numbers given the dimension of the training set.
void	genEquiPar ()
	Generate Equidistributed Numbers.
void	truthSolve ()
	Perform a TruthSolve.
void	assignBC (volVectorField &s, label BC_ind, Vector< double > &value)
	Assign Boundary Condition to a volVectorField.
void	assignBC (volScalarField &s, label BC_ind, double &value)
	Assign Boundary Condition to a volScalarField.
void	reconstructFromMatrix (PtrList< volVectorField > &rec_field2, PtrList< volVectorField > &modes, label Nmodes, Eigen::MatrixXd coeff_matrix)
	Exact reconstruction using a certain number of modes for vector list of fields and the projection coefficients (volVectorField).
void	reconstructFromMatrix (PtrList< volScalarField > &rec_field2, PtrList< volScalarField > &modes, label Nmodes, Eigen::MatrixXd coeff_matrix)
	Exact reconstruction using a certain number of modes for vector list of fields and the projection coefficients (volScalarField).
template<typename T, typename G>
void	assignIF (T &s, G &value)
	Assign internal field condition.
template<typename T>
void	computeLift (T &Lfield, T &liftfield, T &omfield)
	Homogenize the snapshot matrix, it works with PtrList of volVectorField and volScalarField.
template<typename T>
void	computeLiftT (T &Lfield, T &liftfield, T &omfield)
	Virtual function to compute the lifting function.
void	liftSolve ()
	Virtual function to compute the lifting function for scalar field.
void	liftSolveT ()
void	project ()
	General projection operation.
void	writeMu (List< scalar > mu_now)
	Write out a list of scalar corresponding to the parameters used in the truthSolve.
std::vector< SPLINTER::RBFSpline >	getCoeffManifoldRBF (PtrList< volVectorField > snapshots, PtrList< volVectorField > &modes, word rbfBasis="GAUSSIAN")
	Constructs the parameters-coefficients manifold for vector fields, based on RBF-spline model.
std::vector< SPLINTER::RBFSpline >	getCoeffManifoldRBF (PtrList< volScalarField > snapshots, PtrList< volScalarField > &modes, word rbfBasis="GAUSSIAN")
	Constructs the parameters-coefficients manifold for scalar fields, based on RBF-spline model.
std::vector< SPLINTER::BSpline >	getCoeffManifoldSPL (PtrList< volVectorField > snapshots, PtrList< volVectorField > &modes, label splDeg=3)
	Constructs the parameters-coefficients manifold for vector fields, based on the B-spline model.
std::vector< SPLINTER::BSpline >	getCoeffManifoldSPL (PtrList< volScalarField > snapshots, PtrList< volScalarField > &modes, label splDeg=3)
	Constructs the parameters-coefficients manifold for scalar fields, based on the B-spline model.
Public Member Functions inherited from UnsteadyProblem
void	setTimes (Time &timeObject)
bool	checkWrite (Time &timeObject)
	Function to check if the solution must be exported.

Public Attributes
ITHACAparameters *	para
PtrList< volScalarField >	Tfield
	List of pointers used to form the T snapshots matrix.
volScalarModes	Tmodes
	List of pointers used to form the Temperature modes.
autoPtr< volScalarField >	_T
	Temperature field.
autoPtr< volVectorField >	_U
	Velocity field.
autoPtr< volScalarField >	_T0
	Initial Temperature field (for restart purposes).
autoPtr< fvMesh >	_mesh
	Mesh.
autoPtr< Time >	_runTime
	Time.
autoPtr< surfaceScalarField >	_phi
	Flux.
autoPtr< surfaceScalarField >	_phi0
	Initial Flux (for restart purposes).
autoPtr< IOdictionary >	_transportProperties
autoPtr< dimensionedScalar >	_nu
PtrList< scalarField >	LDUfield
	LDU matrices data.
autoPtr< fv::options >	_fvOptions
	fvOptions
autoPtr< simpleControl >	_simple
	simpleControl
Public Attributes inherited from reductionProblem
label	Pnumber
	Number of parameters.
label	Tnumber
	Dimension of the training set (used only when gerating parameters without input).
Eigen::MatrixXd	mu
	Row matrix of parameters.
Eigen::MatrixXd	mu_range
	Range of the parameter spaces.
Eigen::MatrixXd	mu_samples
	Matrix of parameters to be used for PODI, where each row corresponds to a sample point. In this matrix the time dimension is regarded as a parameter for unsteady problems.
double	mu_cur
	Current value of the parameter.
bool	podex
	Boolean variable, it is 1 if the POD has already been computed, else 0.
bool	offline
	Boolean variable, it is 1 if the Offline phase has already been computed, else 0.
IOdictionary *	ITHACAdict
	dictionary to store input output infos
autoPtr< argList >	_args
	argList
ITHACAparallel *	paral
	parallel handling
label	folderN = 1
	Counter to save intermediate steps in the correct folder, for unsteady and some stationary cases.
label	counter = 1
	Counter used for the output of the full order solutions.
Eigen::MatrixXi	inletIndex
	Matrix that contains informations about the inlet boundaries.
Eigen::MatrixXi	inletPatch
	Matrix that contains informations about the inlet boundaries without specifing the direction Rows = Number of parametrized boundary conditions Cols = 1 Example: example.inletIndex.resize(2, 1); example.inletIndex(0, 0) = 0; example.inletIndex(1, 0) = 1; Means that there are two parametrized boundary conditions of which the first row is of patch 0 and the second row of patch 1.
Eigen::MatrixXi	inletIndexT
Public Attributes inherited from UnsteadyProblem
scalar	startTime
	Start Time (initial time to start storing the snapshots).
scalar	finalTime
	Final time (final time of the simulation and consequently of the acquisition of the snapshots).
scalar	timeStep
	Time step of the simulation.
scalar	writeEvery = timeStep
	Time step of the writing procedure.
scalar	nextWrite
	Auxiliary variable to store the next writing instant.

Detailed Description

Implementation of a parametrized full order Burgers and preparation of the the reduced matrices for the online solve.

In this class are implemented the methods for the offline solve of a burgers problem and the for the generation of the reduced matrices for subsequent online solve, this class is a son of the reduction problem class

Definition at line 58 of file ScalarTransport.H.

Constructor & Destructor Documentation

◆ ScalarTransport() [1/2]

ScalarTransport::ScalarTransport ( )

Null constructor.

Class where the tutorial number 2 is implemented.

It is a child of the laplacianProblem class and some of its functions are overridden to be adapted to the specific case.

Definition at line 41 of file ScalarTransport.C.

◆ ScalarTransport() [2/2]

ScalarTransport::ScalarTransport	(	int	argc,
		char *	argv[] )

Construct with argc and argv.

Definition at line 43 of file ScalarTransport.C.

◆ ~ScalarTransport()

ScalarTransport::~ScalarTransport ( )

inline

Definition at line 69 of file ScalarTransport.H.

Member Function Documentation

◆ restart()

void ScalarTransport::restart ( )

Function to restart the fields of the Burgers problem.

Definition at line 153 of file ScalarTransport.C.

◆ truthSolve()

void ScalarTransport::truthSolve ( word folder = "./ITHACAoutput/Offline/" )

truthsolve

Definition at line 108 of file ScalarTransport.C.

Member Data Documentation

◆ _fvOptions

autoPtr<fv::options> ScalarTransport::_fvOptions

fvOptions

Definition at line 106 of file ScalarTransport.H.

◆ _mesh

autoPtr<fvMesh> ScalarTransport::_mesh

mutable

Mesh.

Definition at line 88 of file ScalarTransport.H.

◆ _nu

autoPtr<dimensionedScalar> ScalarTransport::_nu

Definition at line 101 of file ScalarTransport.H.

◆ _phi

autoPtr<surfaceScalarField> ScalarTransport::_phi

Flux.

Definition at line 94 of file ScalarTransport.H.

◆ _phi0

autoPtr<surfaceScalarField> ScalarTransport::_phi0

Initial Flux (for restart purposes).

Definition at line 97 of file ScalarTransport.H.

◆ _runTime

autoPtr<Time> ScalarTransport::_runTime

Time.

Definition at line 91 of file ScalarTransport.H.

◆ _simple

autoPtr<simpleControl> ScalarTransport::_simple

simpleControl

Definition at line 109 of file ScalarTransport.H.

◆ _T

autoPtr<volScalarField> ScalarTransport::_T

Temperature field.

Definition at line 80 of file ScalarTransport.H.

◆ _T0

autoPtr<volScalarField> ScalarTransport::_T0

Initial Temperature field (for restart purposes).

Definition at line 85 of file ScalarTransport.H.

◆ _transportProperties

autoPtr<IOdictionary> ScalarTransport::_transportProperties

Definition at line 99 of file ScalarTransport.H.

◆ _U

autoPtr<volVectorField> ScalarTransport::_U

Velocity field.

Definition at line 82 of file ScalarTransport.H.

◆ LDUfield

PtrList<scalarField> ScalarTransport::LDUfield

LDU matrices data.

Definition at line 103 of file ScalarTransport.H.

◆ para

ITHACAparameters* ScalarTransport::para

Definition at line 71 of file ScalarTransport.H.

◆ Tfield

PtrList<volScalarField> ScalarTransport::Tfield

List of pointers used to form the T snapshots matrix.

Definition at line 74 of file ScalarTransport.H.

◆ Tmodes

volScalarModes ScalarTransport::Tmodes

List of pointers used to form the Temperature modes.

Definition at line 77 of file ScalarTransport.H.

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

/github/workspace/src/ITHACA_FOMPROBLEMS/ScalarTransport/ScalarTransport.H
/github/workspace/src/ITHACA_FOMPROBLEMS/ScalarTransport/ScalarTransport.C

Public Member Functions

Public Attributes