Class Hierarchy

Go to the graphical class hierarchy

This inheritance list is sorted roughly, but not completely, alphabetically:

[detail level 123456]

AppFrame::AdaptiveRefinement< dim >	This class is initialized with an application that describes the linearization of the problem that we would like to solve and the nonlinear solved that drives the process (usually a Newton loop)
FuelCellShop::MicroScale::AgglomerateBase	Class that serves as a base class for all agglomerate calculations
FuelCellShop::MicroScale::IonomerAgglomerateSun	Analytical solution to an ionomer-filled agglomerate problem in 1D
AppFrame::ApplicationData	Here we handle general data of applications
ASSEMBLER
AppFrame::MatrixApplication< dim >::LocalMatrixIntegrator< ASSEMBLER >
FuelCellShop::Kinetics::BaseKinetics	Virtual class used to provide the interface for all kinetic/reaction children
FuelCellShop::Kinetics::ButlerVolmerKinetics	This class implements a Butler-Volmer kinetic model
FuelCellShop::Kinetics::DualPathKinetics	This class will contain the implementation of the dual path kinetic kinetic model as developed by Wang et al and described in the following paper:
FuelCellShop::Kinetics::TafelKinetics	This class defines a simple Tafel kinetic model
FuelCellShop::Material::BaseMaterial	Virtual class used to provide the interface for all material classes
FuelCellShop::Material::CatalystBase	This class implements the interface to compute the properties of a "standard" catalyst
FuelCellShop::Material::Platinum
FuelCellShop::Material::CatalystSupportBase	This class implements the interface to compute the properties of a "standard" catalyst support
FuelCellShop::Material::CarbonBlack	Class characterizing a carbon black support
FuelCellShop::Material::FiberBase
FuelCellShop::Material::CarbonFiber
FuelCellShop::Material::MaterialPlateBase	Base class for developing bipolar plate materials
FuelCellShop::Material::MaterialPlateGraphite	Class to compute the properties of graphite used in bipolar plates
FuelCellShop::Material::PolymerElectrolyteBase	This class implements the interface to compute the properties of a "standard" polymer electrolyte membrane material
FuelCellShop::Material::Nafion	Class used to store data and provide information regarding the electrolyte
FuelCellShop::Material::PureGas	Virtual class used to describe different gases and pure materials for which viscority, diffusivity, etc
FuelCellShop::Material::Hydrogen	Hydrogen as a publicly derived class of Material
FuelCellShop::Material::Nitrogen	Nitrogen as a publicly derived class of Material
FuelCellShop::Material::Oxygen	Oxygen as a publicly derived class of Material
FuelCellShop::Material::Water	Water as a publicly derived class of Material
FuelCellShop::Mixture::BinaryDiffusion	BinaryDiffusion as an abstract class
FuelCellShop::Mixture::LiquidDiffusion
FuelCellShop::Mixture::FerrellHimmelblau
FuelCellShop::Mixture::HanBartelsInterpolation
FuelCellShop::Mixture::WilkeChang
FuelCellShop::Mixture::VaporDiffusion
FuelCellShop::Mixture::ChapmanEnskog	This class uses the Chapman Enskog theory for mono-atomic gases to estimate the binary diffusion diffusivity between two gases
BlockVector< T >
BlockVector< T >
BlockVector< T >
BlockVector< T >
BlockVector< number >
BlockVector< double >
FuelCellShop::Equation::BoundaryType	This simple structure describes a boundary type of a derived equation class
MeshWorker::Assembler::CellsAndFaces< number >	Compute cell and face contributions of a functional, typically for error estimates
MeshWorker::Assembler::CellsAndFaces< double >
AppFrame::LocalEstimate< dim >
SIM::DakotaInterface< dim >	Classes used to interface the fuel cell analysis code with DAKOTA (an optimization toolbox)
FcstUtilities::DatabaseOC	This class is for storing a list of up to 5 parameters and is used as a way of informing the FCSTdatabase class about the model you wish to store/access
DoFApplication< dim >
DoFHandler< int, int >
DoFHandler< int, int >
DoFHandler< dim >
MeshWorker::InfoObjects::DoFInfo< dim, spacedim >	Very basic info class only containing information on geometry and degrees of freedom of a mesh entity
MeshWorker::InfoObjects::DoFInfo< dim >
MeshWorker::InfoObjects::IntegrationInfo< dim, FEFaceValuesBase< dim > >
MeshWorker::InfoObjects::IntegrationInfo< dim, FEValuesBase< dim > >
MeshWorker::InfoObjects::IntegrationInfo< dim, FEVALUESBASE >	This class is created for the objects handed to the local integration functions
AppFrame::Event	Objects of this kind are used to notify interior applications of changes provoked by an outer loop
SIM::ExperimentalData	Description: Used to read in an array of experimental data with column headers
FcstUtilities::FCSTdatabase	This class is for interfacing with SQL databases, *for the purpose of accessing and storing simulation results
FiniteElement< int, int >
FullMatrix< number >
Function
FuelCell::InitialAndBoundaryData::InitialOrBoundaryDataBase< dim >	This class is a means to make variable initial or boundary data
FuelCell::InitialSolution::AppLaplaceIC< dim >	This class is used when solving the problem using Newton's method to provide an initial solution
FuelCell::InitialSolution::AppPemfcIC< dim >	This class is used when solving the problem using Newton's method to provide an initial solution
FuelCell::InitialSolution::AppReadMeshIC< dim >	This class is used when solving the problem using Newton's method to provide an initial solution
MeshWorker::Assembler::Functional< number >	The class assembling local contributions to a functional into the global functionals
MeshWorker::Assembler::Functional< double >
AppFrame::LocalResponse< dim >	The Integrator computing the current density in the CL
LinearSolvers::GMRESSolver	This class implements GMRES solver
FuelCellShop::Geometry::GridBase< dim >	FuelCell Geometry information class
FuelCellShop::Geometry::Agglomerate< dim >	This function generates an agglomerate with a core and a thin film subdomain
FuelCellShop::Geometry::Anode< dim >	This function generates a grid for an anode including gas diffusion and catalyst layers
FuelCellShop::Geometry::AnodeMPL< dim >	This function generates a grid for an anode including gas diffusion, microporous, and catalyst layers
FuelCellShop::Geometry::Cathode< dim >	This function generates a grid for a cathode including gas diffusion and catalyst layers
FuelCellShop::Geometry::CathodeMPL< dim >	This function generates a grid for a cathode including gas diffusion, microporous, and catalyst layers
FuelCellShop::Geometry::GridExternal< dim >	This class imports meshes from dealii supported file types
FuelCellShop::Geometry::GridTest< dim >	This class treates a test mesh with one element
FuelCellShop::Geometry::Pemfc< dim >	This function generates a PEMFC grid including gas diffusion and catalyst layers
FuelCellShop::Geometry::PemfcMPL< dim >	This function generates a PEMFC grid including a membrane, gas diffusion, microporous, and catalyst layers
FuelCellShop::Material::IdealGas	Implementation of the ideal gas law
FuelCellShop::Mixture::IdealGasMixture	Implementation of the ideal gas law for mixtures
LinearSolvers::ILUPreconditioner	This class implements ILU preconditioner
MeshWorker::InfoObjects::IntegrationInfoBox< dim >	A simple container collecting five info objects required by the integration loops
MeshWorker::VectorSelector::ListEntry	The structure which stores the name of the selected FEVector as it is stored in FEVectors and the types of information extracted
AppFrame::LocalIntegrator< dim >	The class using CellInfo and FaceInfo to compute local contributions to a 1form
MeshWorker::Assembler::LocalMatrixBlocks< number >	The local matrices filled by the worker and then assembled into the global system by the derived classes
MeshWorker::Assembler::MatrixLocalBlocksToGlobalBlocks< MATRIX, number >	A helper class assembling local matrices into global matrices
MeshWorker::Assembler::MGMatrixLocalBlocksToGlobalBlocks< MATRIX, number >	A helper class assembling local matrices into global multilevel matrices
MeshWorker::WorkerObjects::LocalWorker< dim >	Template for a class for those classes which do the actual work on cells and faces
MeshWorker::WorkerObjects::IntegrationWorker< dim >	Basic worker class for integration of residuals
AppFrame::LocalEstimate< dim >
AppFrame::LocalResidual< dim >
AppFrame::LocalResponse< dim >	The Integrator computing the current density in the CL
AppFrame::MatrixApplication< dim >::LocalMatrixIntegrator< ASSEMBLER >
Mapping< int, int >
AppFrame::MatrixBlock< MATRIX >	A wrapper around a matrix object, storing the coordinates in a block matrix as well
MGDoFHandler< int, int >
FuelCellShop::Mixture::MixtureDynamicViscosity	MixtureDynamicViscosity as an abstract class
FuelCellShop::Mixture::VaporMixtureDynamicViscosity
FuelCellShop::Mixture::ChapmanEnskogViscosityModel
FuelCell::OperatingConditions	Class used to store, read from file and define the operating conditions for a fuel cell
OptimizationBlockMatrixApplication< dim >	Note: I need to use this class in order to make sure that the compiler knows that it will be defined in the file because LocalIntegrator needs this class
FuelCellShop::Equation::OutputType	This simple structure describes an output type of a derived equation class
MeshWorker::Assembler::ResidualLocalBlocksToGlobalBlocks< number >	Assemble local residuals into global residuals
MeshWorker::Assembler::ResidualLocalBlocksToGlobalBlocks< double >
AppFrame::LocalResidual< dim >
SimulationSelector< dim >	This class is used to select the different applications within FCST
SimulatorBuilder< dim >	This class is used to initialize and launch simulations or optimization routines
FuelCellShop::SolutionVariable	This structure is used to store values for a particular solution variables, at all quadrature points in the cell
SolverUtils	This class is used to include routines that are used in the solve() routine of several applications such as AppCathode and AppPemfc
LinearSolvers::SparseDirectUMFPACKSolver	This class implements an interface to the sparse direct solver UMFPACK, see the link below http://www.cise.ufl.edu/research/sparse/umfpack/
Subscriptor
AppFrame::ApplicationBase	Base class for applications
AppFrame::ApplicationCopy	Base class for non-terminal applications
AppFrame::MeshLoop	Loop over a sequence of meshes and solve the inner application
AppFrame::DoFMeshLoop< dim >	A derivate form MeshLoop providing additional functionality which needs information from a DoFApplication
AppFrame::Newton	Application class performing Newton's iteration
AppFrame::newtonBase	Base class for all classes peforming Newton's iteration
AppFrame::Newton3pp	Application class performing Newton's iteration
AppFrame::Newton3ppC	Application class performing Newton's iteration
AppFrame::NewtonBasic	This class performs basic Newton iterations with a constant weight
AppFrame::NewtonLineSearch	Application class performing Newton's iteration
AppFrame::Random	An application class solving the same problem with a set of random start vectors
AppFrame::RungeKuttaExplicit	Application class for explicit Runge-Kutta methods
AppFrame::ThetaTimestepping	Application class performing the theta timestepping scheme
AppFrame::DoFApplication< dim >	Integrate the residual using DoFApplication::integrate_1form()
AppFrame::BlockMatrixApplication< dim >	Application handling matrices and assembling linear systems of equations
AppFrame::OptimizationBlockMatrixApplication< dim >	Application handling matrices and assembling the linear system to solve the sensitivity equations
FuelCell::Application::AppCathode< dim >	This class is used to solve a system of equations similar to the one presented in the journal article M
FuelCell::Application::AppLaplace< dim >	This class is used to develop and test new applications
FuelCell::Application::AppPemfc< dim >	This class is used to solve the physical pheonoma on a complete membrane electrode assembly
FuelCell::Application::AppReadMesh< dim >	WHAT DOES THIS APPLICATION DO?
AppFrame::MatrixApplication< dim >	Application handling matrices and assembling linear systems of equations
ConstrainedMatrix< VECTOR >
FuelCellShop::Layer::BaseLayer< dim >	Virtual class used to characterize a generic layer interface
FuelCellShop::Layer::MembraneLayer< dim >	Virtual class used to provide the interface for all MembraneLayer children
FuelCellShop::Layer::NafionMembrane< dim >	This class implements the necessary information for a Nafion membrane
FuelCellShop::Layer::PorousLayer< dim >	Virtual class used to implement properties that are characteristic of a void layer or a porous layer
FuelCellShop::Layer::CatalystLayer< dim >	Virtual class used to provide the interface for all CatalystLayer children
FuelCellShop::Layer::ConventionalCL< dim >	This class characterizes a catalyst layer and uses this information to compute effective transport properties and interfacial areas for phase change or electrochemical reactions
FuelCellShop::Layer::AgglomerateCL< dim >	This class characterizes a catalyst layer and uses this information to compute effective transport properties and interfacial areas for phase change or electrochemical reactions
FuelCellShop::Layer::HomogeneousCL< dim >	This class characterizes a catalyst layer and uses this information to compute effective transport properties and interfacial areas for phase change or electrochemical reactions
FuelCellShop::Layer::DummyCL< dim >	This class characterizes a macro-homogeneous catalyst layer and should be used in the case of constant effective properties, viz., effective_proton_conductivity, effective_gas_diffusivity, effective_electron_conductivity and effective_thermal_conductivity
FuelCellShop::Layer::GasDiffusionLayer< dim >	Virtual class used to provide the interface for all GasDiffusionLayer children
FuelCellShop::Layer::DesignFibrousGDL< dim >	This class defines a GDL made of fibres
FuelCellShop::Layer::DummyGDL< dim >	This class is used when we want to input the effective properties to the GDL directly, without taking into account the structure of the GDL \ UNDER DEVELOPMENT
FuelCellShop::Layer::SGL24BA< dim >	This class defines a SGL-24-BA GDL, for which effective transport properties are constant
FuelCellShop::Layer::MicroPorousLayer< dim >	Virtual class used to provide the interface for all MicroPorousLayer children
FuelCellShop::Layer::DesignMPL< dim >	This class defines an MPL where effective transport properties are computed using macro-homogeneous correlations to estimate the effective properties of the media
FuelCellShop::Layer::SGL24BC< dim >	This class defines a SGL-24-BC MPL, for which effective transport properties are constant
FuelCellShop::Layer::SolidLayer< dim >	This class characterizes a gas diffusion layer and uses this information to compute effective transport properties
Subscriptor
AppFrame::FEVectors	The data type used in function calls of Application
AppFrame::Residual	An abstract class for computing residuals
AppFrame::ApplicationResidual	A class computing a Residual using the function Application::residual() of the derived Application
AppFrame::ThetaResidual	A more sophisticated residual class that splits jobs between the two kinds of residual needed for ThetaTimestepping
AppFrame::TimestepControl	Control class for timestepping schemes
FuelCell::SystemManagement	IMPORTANT: Add all new solution variables and equations here !
FuelCellShop::Equation::EquationBase< dim >	This class contains generic data and methods heavily used by all derived equation classes
FuelCellShop::Equation::ElectronTransportEquation< dim >	This class deals with Electron Transport Equation
FuelCellShop::Equation::FicksTransportEquation< dim >	This class implements Fick's law of diffusion
FuelCellShop::Equation::LambdaTransportEquation< dim >	This class deals with Membrane Water Content Transport Equation
FuelCellShop::Equation::NewFicksTransportEquation< dim >	This class deals with Ficks Transport Equation
FuelCellShop::Equation::ProtonTransportEquation< dim >	This class deals with Proton Transport Equation
FuelCellShop::Equation::ReactionSourceTerms< dim >	This class is used to assemble reaction source terms in the catalyst layer
FuelCellShop::Equation::SorptionSourceTerms< dim >	This class assembles source terms corresponding to sorption/desorption of water inside the catalyst layer
FuelCellShop::Material::PureGas	Virtual class used to describe different gases and pure materials for which viscority, diffusivity, etc
FuelCellShop::Material::PureLiquid	Virtual class used to describe different liquids and pure materials for which viscority, diffusivity, etc
FuelCellShop::Material::LiquidWater	[ LiquidWater as a publicly derived class of Pureliquid ]
MeshWorker::BlockInfo	A small structure collecting the different BlockIndices of FEVector vectors (for instance, solution) involved in the computations
Tensor< int, int, number >
Tensor< 2, dim >
Triangulation< int, int >
Triangulation< dim >
Units	Class used to convert units using a standard convention
FuelCellShop::Equation::VariableInfo	This simple structure stores certain information regarding a particular variable for the equation (all of them retrieved from #SystemManagement)
Vector< number >
Vector< double >
Vector< float >
MeshWorker::VectorSelector	A class that selects the named FEVector vectors in FEVectors and assigns the types of information extracted
AppFrame::VectorSelector	The structure indicating which blocks of which stored vectors should be handed over to the local integration functions for residuals and matrices
VectorSlice< class >