| ▼NIkarus | |
| ▼NConcepts | |
| ▼NFormulations | |
| RTotalLagrangian | Concept to check if the underlying strain and stress tag correspond to a total Lagrangian formulation |
| RTwoPoint | Concept to check if the underlying strain and stress tag correspond to a two point formulation |
| RHasValidIDBCForceFunction | A concept to check if the underlying solver has a valid function to handle inhomogeneous Dirichlet BCs |
| RDeviatoricFunction | Concept to check if the underlying function is a deviatoric function |
| RVolumetricFunction | Concept to check if the underlying function is a volumetric function |
| RMPTuple | Concept for checking if a type is a valid material parameter tuple |
| REigenType | Concept to check if a type is derived from Eigen::MatrixBase |
| 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 |
| RSparseEigenMatrix | Concept defining the requirements for sparse Eigen matrices |
| RDenseOrSparseEigenMatrix | Concept defining the requirements for sparse or dense Eigen matrices |
| RIsMaterial | Concept defining the requirements for a material type |
| 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 |
| RSmartPointer | Concept to check if the type is either a unique_ptr or a shared_ptr |
| RPointerOrSmartPointer | |
| RControlRoutineState | Concept to check if a type represents a control routine state |
| RNonLinearSolverState | Concept to check if a type represents a nonlinear solver state |
| RReferenceConfiguraionStrain | Returns true if a given straintag is related only to the reference configuration |
| RReferenceConfiguraionStress | Returns true if a given stresstag is related only to the reference configuration |
| RMaterial | Concept representing a material interface |
| RGeometricallyLinearMaterial | Concepts defining the requirements for a material to be geometrically linear This is the case when the corresponding strainTag is linear |
| REigenValueSolver | Concept representing an eigenvalue solver interface |
| ▼NMaterials | |
| RCorrectStrainSize | Template concept for ensuring correct strain size |
| ▼Ntraits | |
| RPointer | Concept to check if a type is a pointer or nullptr_t |
| REigenSparseMatrix | Concept to check if a type is an Eigen SparseMatrix |
| RFEAffordance | Concept to check if a given type is one of the predefined affordance enums or the AffordanceCollection |
1.9.4