| ►NDune | |
| CFieldVector | |
| ►NEigen | |
| ►Ninternal | |
| Ctraits< TruncatedConjugateGradient< MatrixType_, UpLo, Preconditioner_ > > | |
| CEigenBase | |
| CTCGInfo | |
| CTruncatedConjugateGradient | Iterative solver for solving linear systems using the truncated conjugate gradient method |
| ►NIkarus | |
| ►NAdaptiveStepSizing | |
| CIterationBased | The IterationBased strategy for adaptive step sizing |
| CNoOp | The NoOp strategy for adaptive step sizing |
| NAffordanceCollections | |
| ►NConcepts | |
| RFlatInterLeavedBasis | Concept to check if a basis uses FlatInterleaved indexing strategy |
| RLagrangeNode | Concept to check if a node in a basis tree is a Lagrangian node |
| RLagrangeNodeOfOrder | |
| RFlatLexicographicBasis | Concept to check if a basis uses FlatLexicographic indexing strategy |
| RFlatIndexBasis | Concept to check if a basis uses FlatIndex indexing strategy |
| RBlockedInterLeavedBasis | Concept to check if a basis uses BlockedInterleaved indexing strategy |
| RBlockedLexicographicBasis | Concept to check if a basis uses BlockedLexicographic indexing strategy |
| RDuneLocalBasis | Concept to check if a local basis is a duneLocalBasis |
| RBlockedIndexBasis | Concept to check if a basis uses either BlockedLexicographic or BlockedInterleaved indexing strategy |
| RPathFollowingStrategy | Concept defining the requirements for a path-following strategy |
| RAdaptiveStepSizingStrategy | Concept to check if a type implements all the needed functions to be an adaptive step sizing method |
| RLinearSolverCheck | Concept to check if a linear solver implements all the needed functions for given vector and matrix types |
| RNonLinearSolverCheckForPathFollowing | Concept to check if a non-linear solver with its non-linear operator satisfies requirements for path following |
| RMultiplyAble | Concept defining the requirements for types that support multiplication |
| RAddAble | Concept defining the requirements for types that support addition |
| RSubstractAble | Concept defining the requirements for types that support subtraction |
| RMultiplyAssignAble | Concept defining the requirements for types that support in-place multiplication |
| RDivideAssignAble | Concept defining the requirements for types that support in-place division |
| RAddAssignAble | Concept defining the requirements for types that support in-place addition |
| RSubstractAssignAble | Concept defining the requirements for types that support in-place subtraction |
| RDivideAble | Concept defining the requirements for types that support division |
| RNegateAble | Concept defining the requirements for types that support negation |
| RTransposeAble | Concept defining the requirements for types that support transposition |
| RIsFunctorWithArgs | Concept defining the requirements for functors with arguments |
| REigenVector | Concept defining the requirements for Eigen vectors |
| REigenMatrix | Concept defining the requirements for Eigen matrices. This also includes Eigen vectors |
| RIsMaterial | Concept defining the requirements for a material type |
| RGeometricallyLinearMaterial | Concepts defining the requirements for a material to be geometrically linear This is the case when the corresponding strainTag is linear |
| RResultType | A concept to check if a template type satisfies the ResultType requirements |
| RFlatAssembler | Concept representing the requirements for a FlatAssembler.A type T satisfies FlatAssembler if it provides the necessary member functions and data types for assembling sparse matrices in a flat structure |
| RScalarFlatAssembler | Concept representing the requirements for a ScalarFlatAssembler.A type T satisfies ScalarFlatAssembler if it is a FlatAssembler and if it provides the necessary scalar() member functions |
| RVectorFlatAssembler | Concept representing the requirements for a VectorFlatAssembler.A type T satisfies VectorFlatAssembler if it is a ScalarFlatAssembler and if it provides the necessary vector() member functions |
| RMatrixFlatAssembler | Concept representing the requirements for a MatrixFlatAssembler.A type T satisfies MatrixFlatAssembler if it is a VectorFlatAssembler and if it provides the necessary matrix() member functions |
| RDataCollector | |
| RGridView | |
| RAutodiffScalar | Concept to check if the underlying scalar type is a dual type |
| ►NEAS | |
| CE0 | Dummy struct for displacement-based EAS elements, i.e. 0 enhanced modes |
| CH1E21 | Structure representing EAS for H1 with 21 enhanced strains |
| CH1E9 | Structure representing EAS for H1 with 9 enhanced strains |
| CQ1E4 | Q1E4 structure for EAS with linear strains and 4 enhanced modes |
| CQ1E5 | Structure representing EAS for Q1 with 5 enhanced strains |
| CQ1E7 | Structure representing EAS for Q1 with 7 enhanced strains |
| NFEHelper | |
| Nplot | |
| ►NPython | |
| CSparseMatrixWrapper | |
| ►NResultEvaluators | |
| CPrincipalStress | Struct for calculating principal stresses |
| CVonMises | Struct for calculating von Mises stress |
| NResultTypes | |
| ►Ntraits | |
| CChangeArgTypeAtPos | Main function to wrap the type at position pos in a std::function |
| CFunctionTraits | Type trait for extracting information about functions |
| ChasType | Type trait to check if a specified type is present in a tuple |
| CIndex | Type trait to get the index of a type in a tuple |
| Cis_tuple< std::tuple< T... > > | Type trait to check if a type is an instantiation of std::tuple |
| CisSharedPtr | Type trait to check if a type is a isSharedPtr |
| CisSpecialization< U, U< T... > > | Type trait to check if a class is a specialization of a template |
| CisSpecializationNonTypeAndTypes< Type, Type< T, N... > > | Type trait to check if a class is a specialization of a template with a non-type parameter and types |
| CisSpecializationNonTypes< Type, Type< N... > > | Type trait to check if a class is a specialization of a template with non-type parameters |
| CisSpecializationTypeNonTypeAndType< Type, Type< T, M, N > > | Type trait to check if a class is a specialization of a template with types and two non-type parameters |
| CRebind | Type trait to rebind the underlying type of containers |
| Cremove_pointer | |
| CReplaceTypeAtPos | Helper to replace the type at a specific position in a tuple |
| CTupleToFunctionType | Helper to convert a tuple to a function type |
| RPointer | Concept to check if a type is a pointer or nullptr_t |
| ►Nutils | |
| CCheckFlags | Struct to hold flags for function checks |
| CSolverDefault | Default functor for solving operations |
| CUpdateDefault | Default functor for updating operations |
| ►NVtk | |
| CDefaultVTKWriterManager | Manages the default template parameter for the Vtk::Writer |
| CIsStructured | Meta type to check whether a grid is structured, inherits from false_type |
| CIsStructured< Dune::YaspGrid< dim, Coordinates > > | Specialization of IsStructured for YASPGrids, inherits from true_type |
| CWriter | Manages writing results using VTK, based on assembler and data collector |
| CAffordanceCollection | Struct representing a collection of affordances |
| CAlgoInfo | Additional information about the TrustRegion algorithm |
| CArcLength | Structure representing the subsidiary function for the standard arc-length method |
| CAssemblerManipulator | The AssemblerManipulator defines a decorator for the assemblers that helps to manipulate the assembled quantities |
| CAssemblerManipulator< A, ScalarAss > | |
| CAssemblerManipulator< A, ScalarAss, VectorAss > | |
| CAssemblerManipulator< A, ScalarAss, VectorAss, MatrixAss > | |
| CAutoDiffFE | AutoDiffFE class, an automatic differentiation wrapper for finite elements |
| CBasisHandler | Wrapper class for a hierarchical basis constructed from a pre-basis |
| CBulkModulusAndLamesFirstParameter | Structure representing Lame's first parameter and shear modulus |
| CControlInformation | Structure containing information about the control results |
| CControlLogger | ControlLogger class for logging control messages |
| CControlSubsamplingVertexVTKWriter | ControlSubsamplingVertexVTKWriter class for writing VTK files with subsampling based on control messages |
| CConvertLameConstants | Conversion utility for Lame's constants |
| CDefaultMembraneStrain | |
| CDenseFlatAssembler | DenseFlatAssembler assembles matrix quantities using a flat basis Indexing strategy. The matrix is stored in a dense matrix format. This format is exploited during the assembly process |
| CDeriveSizeType | A helper struct to derive the SizeType of the underlying container |
| CDeriveSizeType< std::vector< bool > > | |
| CDeriveSizeType< T > | |
| CDirichletValues | Class for handling Dirichlet boundary conditions in Ikarus |
| CDisplacementControl | Structure representing the subsidiary function for the displacement control method |
| CEnhancedAssumedStrains | Wrapper class for using Enhanced Assumed Strains (EAS) with displacement based elements |
| CEnhancedAssumedStrainsPre | A PreFE struct for Enhanced Assumed Strains |
| CFE | FE class is a base class for all finite elements |
| CFEFactory | FEFactory is a convenient wrapper to forward arguments to PreFE and create and construct a factory of finite elements |
| ►CFEMixin | CRTP mixin class for finite elements with additional skills |
| CRequirementType | |
| CRequirementType< false, T > | |
| CRequirementType< true, T > | |
| CFERequirements | Class representing the requirements for finite element calculations |
| CFERequirementsFactory | |
| CFETraits | Traits for handling finite elements |
| CFlatAssemblerBase | The FlatAssemblerBase takes care of common subtasks done by flat assemblers |
| CFlatIndexMergingStrategy | Define the flat index-merging strategy for a given strategy IMS |
| CFlatIndexMergingStrategy< Dune::Functions::BasisFactory::BlockedInterleaved > | |
| CFlatIndexMergingStrategy< Dune::Functions::BasisFactory::BlockedLexicographic > | |
| CFlatPreBasis | Transform a PreBasis into one with flat index-merging strategyThis utility takes a pre-basis and converts recursively all index-merging strategies into their flat analog, i.e. BlockedInterleaved is converted into FlatInterleaved and BlockedLexicographic is transformed into FlatLexicographic |
| CFlatPreBasis< Dune::Functions::CompositePreBasis< IMS, SPB... > > | |
| CFlatPreBasis< Dune::Functions::PowerPreBasis< IMS, SPB, C > > | |
| CGenericObserver | GenericObserver class for observing specific messages |
| CIkarusInstance | Singleton class representing an instance of the Ikarus framework |
| CIObservable | Generic observable interface for the Observer design pattern. See [3] for a description of the design pattern |
| CIObserver | Generic observer interface for the Observer design pattern. See [3] for a description of the design pattern |
| ►CKirchhoffLoveShell | Kirchhoff-Love shell finite element class |
| CKinematicVariables | A structure representing kinematic variables |
| CKirchhoffLoveShellPre | A PreFE struct for Kirchhoff-Love shell elements |
| CKlArgs | A struct containing information about the Youngs Modulus, Poisson's ratio and the thickness for the Kirchhoff-Love shell element |
| CLamesFirstParameterAndShearModulus | |
| CLinearElastic | LinearElastic class represents a linear elastic finite element |
| CLinearElasticityT | Implementation of the Linear Elasticity material model.The energy is computed as |
| CLinearElasticPre | A PreFE struct for linear elastic elements |
| CLinearSolverTemplate | A type-erased class which wraps most of the linear solvers available in Eigen |
| CLoadControl | The LoadControl control routine increases the last parameter of a nonlinear operator and calls a nonlinear solver.This class represents the LoadControl control routine. It increments the last parameter of a nonlinear operator and utilizes a nonlinear solver, such as Newton's method, to solve the resulting system at each step |
| CLoadControlSubsidiaryFunction | Structure representing the subsidiary function for the load control method |
| CMaterial | Interface classf or materials |
| CMatrixAssembler | The MatrixAssembler provides an interface for an assembler that assembles matrix quantities |
| CMatrixManipulator | Base class for a wrapper to a matrix assembler |
| CNeoHookeT | Implementation of the Neo-Hookean material model.The energy is computed as |
| CNeumannBoundaryLoadPre | A PreFE struct for Neumann boundary load skill |
| CNewtonRaphson | Implementation of the Newton-Raphson method for solving nonlinear equations |
| CNewtonRaphsonConfig | Config for the Newton-Raphson solver |
| CNewtonRaphsonWithSubsidiaryFunction | Newton-Raphson solver with subsidiary function |
| CNewtonRaphsonWithSubsidiaryFunctionConfig | Settings for the Newton-Raphson solver with subsidiary function |
| CNewtonRaphsonWithSubsidiaryFunctionSettings | |
| CNonLinearElastic | NonLinearElastic class represents a non-linear elastic finite element |
| CNonLinearElasticPre | A PreFE struct for non-linear elastic elements |
| CNonLinearOperator | Represents a NonLinearOperator class for handling nonlinear operators |
| CNonLinearOperatorFactory | |
| CNonlinearSolverFactory | A factory class for creating nonlinear solvers |
| CNonLinearSolverInformation | Information about the result of a non-linear solver |
| CNonLinearSolverLogger | Implementation of an observer for logging non-linear solvers.This class inherits from the IObserver class and provides specific implementations for updating based on NonLinearSolverMessages |
| CNRSettings | |
| CPathFollowing | The PathFollowing control routine for path-following analysis |
| CPreFE | PreFE struct acts as a convenient wrapper for the FE class to access different type traits |
| CResultFunction | Wrapper to evaluate results for a vtkwriter |
| CResultTypeBase | Base class for element definitions that provides common functionality for ResultTypes |
| CResultWrapper | Container that is used for FE Results. It gives access to the stored value, but can also be used to access the result in Matrix and Vector form |
| CScalarAssembler | The ScalarAssembler provides an interface for an assembler that assembles scalar quantities |
| CScalarFlatAssembler | ScalarFlatAssembler assembles scalar quantities |
| CScalarManipulator | Base class for a wrapper to a scalar assembler |
| CSkills | Struct representing a collection of skills |
| CSparseFlatAssembler | SparseFlatAssembler assembles matrix quantities using a flat basis Indexing strategy. The matrix is stored in a sparse matrix format. This format is exploited during the assembly process |
| CStats | Information about the TrustRegion solver |
| CStVenantKirchhoffT | Implementation of the Saint Venant-Kirchhoff material model.The energy is computed as |
| CSubsidiaryArgs | Structure containing arguments for subsidiary functions |
| CTraction | Traction class represents distributed traction load that can be applied |
| CTRSettings | |
| ►CTruss | Truss class represents a truss finite element |
| CKinematicVariables | A structure representing kinematic variables |
| CTrussPre | A PreFE struct for truss elements |
| CTrustRegion | Trust Region solver for non-linear optimization problems |
| CTrustRegionConfig | |
| CVanishingStrain | VanishingStrain material model that enforces strain components to be zero |
| CVanishingStress | VanishingStress material model that enforces stress components to be zero |
| CVectorAssembler | The VectorAssembler provides an interface for an assembler that assembles vector quantities |
| CVectorFlatAssembler | VectorFlatAssembler assembles vector quantities using a flat basis Indexing strategy |
| CVectorManipulator | Base class for a wrapper to a vector assembler |
| CVolumeLoad | VolumeLoad class represents distributed volume load that can be applied |
| CVolumeLoadPre | A PreFE struct for volume load skill |
| CYoungsModulusAndBulkModulus | Structure representing Young's modulus and Lame's first parameter |
| CYoungsModulusAndLamesFirstParameter | Structure representing bulk modulus and Lame's first parameter |
| CYoungsModulusAndPoissonsRatio | See https://en.wikipedia.org/wiki/Lam%C3%A9_parameters Structure representing Young's modulus and shear modulus |
| CYoungsModulusAndShearModulus | Structure representing Young's modulus and bulk modulus |
| RFEAffordance | Concept to check if a given type is one of the predefined affordance enums or the AffordanceCollection |
| RCorrectStrainSize | Template concept for ensuring correct strain size |
| RMPTuple | Concept for checking if a type is a valid material parameter tuple |
| ►Nikarus | |
| Nassembler | |
| Nbasis | |
| Ndirichlet_values | |
| Nfinite_elements | |
| Ngenerator | |
| Nio | |
| Nutils | |
| ►NPython | |
| CConversion< autodiff::Real< order, T > > | Conversion specialization for autodiff::Real type |
| Nstd | STL namespace |
1.9.4