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

[detail level 123]

Cdftfe::atomCenteredOrbitalsPostProcessing< ValueType, memorySpace >
►Cdftfe::AtomCenteredSphericalFunctionBase
Cdftfe::AtomCenteredSphericalFunctionBessel
Cdftfe::AtomCenteredSphericalFunctionGaussian
Cdftfe::AtomCenteredSphericalFunctionSinc
►Cdftfe::AtomCenteredSphericalFunctionSpline
Cdftfe::AtomCenteredPseudoWavefunctionSpline
Cdftfe::AtomCenteredSphericalFunctionCoreDensitySpline
Cdftfe::AtomCenteredSphericalFunctionLocalPotentialSpline
Cdftfe::AtomCenteredSphericalFunctionProjectorSpline
Cdftfe::AtomCenteredSphericalFunctionValenceDensitySpline
Cdftfe::AtomCenteredSphericalFunctionZOverR
Cdftfe::AtomPseudoWavefunctions
Cdftfe::AtomCenteredSphericalFunctionContainer
►Cdftfe::AtomicBasis
Cdftfe::GaussianBasis
Cdftfe::SlaterBasis
Cdftfe::AtomicBasisData
Cdftfe::AtomicCenteredNonLocalOperator< ValueType, memorySpace >
►Cdftfe::AuxDensityMatrix< memorySpace >
Cdftfe::AuxDensityMatrixAtomicBasis< memorySpace >
Cdftfe::AuxDensityMatrixFE< memorySpace >
Cdftfe::basis::FEBasisOperations< ValueTypeBasisCoeff, ValueTypeBasisData, memorySpace >
Cdftfe::ContractedGaussian
Cdftfe::dataTypes::singlePrecType< T >
Cdftfe::dataTypes::singlePrecType< double >
Cdftfe::dataTypes::singlePrecType< std::complex< double > >
►Cdftfe::dealiiLinearSolverProblem	Abstract class for linear solve problems to be used with the dealiiLinearSolver interface
Cdftfe::kerkerSolverProblem< FEOrderElectro >	Poisson solver problem class template. template parameter FEOrderElectro is the finite element polynomial order for electrostatics
Cdftfe::poissonSolverProblem< FEOrder, FEOrderElectro >	Poisson solver problem class template. template parameter FEOrderElectro is the finite element polynomial order. FEOrder template parameter is used in conjunction with FEOrderElectro to determine the order of the Gauss quadrature rule
►Cdftfe::dftBase	Abstract base class for dft
Cdftfe::dftClass< FEOrder, FEOrderElectro, memorySpace >	This class is the primary interface location of all other parts of the DFT-FE code for all steps involved in obtaining the Kohn-Sham DFT ground-state solution
Cdftfe::dftfeWrapper	Wrapper class for dftfe
Cdftfe::dftParameters	Namespace which declares the input parameters and the functions to parse them from the input parameter file
►Cdftfe::dftUtils::CompositeData
Cdftfe::dftUtils::NodalData
Cdftfe::dftUtils::QuadDataCompositeWrite
Cdftfe::dftUtils::constraintMatrixInfo< memorySpace >	Overloads dealii's distribute and distribute_local_to_global functions associated with constraints class. Stores the dealii's constraint matrix data into STL vectors for faster memory access costs
Cdftfe::dftUtils::MPIWriteOnFile
Cdftfe::dftUtils::Pool
Cdftfe::dispersionCorrection	Calculates dispersion correction to energy, force and stress
►Cdftfe::eigenSolverClass	Base class for non-linear algebraic solver
Cdftfe::chebyshevOrthogonalizedSubspaceIterationSolver	Concrete class implementing Chebyshev filtered orthogonalized subspace iteration solver
Cdftfe::elpaScalaManager	Manager class for ELPA and ScaLAPACK
Cdftfe::energyCalculator< memorySpace >	Calculates the ksdft problem total energy and its components
Cdftfe::excManager< memorySpace >
►Cdftfe::ExcSSDFunctionalBaseClass< memorySpace >	This class provides the structure for all Exc functionals that can be written as a combination of functional of Single Slater determinant that results in a non-multiplicative potential plus a remainder functional dependent on density and Tau
Cdftfe::ExcDFTPlusU< ValueType, memorySpace >
Cdftfe::excDensityGGAClass< memorySpace >
Cdftfe::excDensityLDAClass< memorySpace >
Cdftfe::excDensityLLMGGAClass< memorySpace >
Cdftfe::expConfiningPotential
Cdftfe::forceClass< FEOrder, FEOrderElectro, memorySpace >	Computes configurational forces in KSDFT
Cdftfe::GaussianBasisInfo
Cdftfe::geometryOptimizationClass
Cdftfe::hubbard< ValueType, memorySpace >	This class provides the Hubbard correction. This class is an object of ExcDFTPluU Class
Cdftfe::hubbardSpecies	This structure provides the relevant information pertaining to hubbard correction such as U value, orbital Ids and so on for each hubbard species
Cdftfe::InterpolateCellWiseDataToPoints< T, memorySpace >	This class forms the interface for interpolating data to an arbitrary set of points. This class is compatible with MPI, where the partitioning of cells and the points need not be compatible. As in the points need not lie within the cells assigned to the processor
Cdftfe::InterpolateFromCellToLocalPoints< memorySpace >
Cdftfe::linearAlgebra::BLASWrapper< memorySpace >
Cdftfe::linearAlgebra::BLASWrapper< dftfe::utils::MemorySpace::HOST >
Cdftfe::linearAlgebra::MultiVector< ValueType, memorySpace >	An class template to encapsulate a MultiVector. A MultiVector is a collection of vectors belonging to the same finite-dimensional vector space, where usual notion of vector size denotes the dimension of the vector space. Note that this in the mathematical sense and not in the sense of an multi-dimensional array.The MultiVector is stored contiguously with the vector index being the fastest index, or in other words a matrix of size $M \times N$ in row major format with denoting the dimension of the vector space (size of individual vector)
►Cdftfe::linearSolver	Abstract linear solver base class
Cdftfe::dealiiLinearSolver	Dealii linear solver class wrapper
Cdftfe::matrixFreeDeviceKernels< Type, M, N, K, dim >
►Cdftfe::meshMovementClass	Base class to move triangulation vertices
Cdftfe::meshMovementAffineTransform	Class to update triangulation under affine transformation
Cdftfe::meshMovementGaussianClass	Class to move triangulation nodes using Gaussian functions attached to control points
Cdftfe::MixingScheme	This class performs the anderson mixing in a variable agnostic way This class takes can take different input variables as input in a std::vector format and computes the mixing coefficients These coefficients can then be used to compute the new variable at the start of the SCF
Cdftfe::molecularDynamicsClass
Cdftfe::MultiVectorCGSolver
►Cdftfe::MultiVectorLinearSolverProblem< memorySpace >
Cdftfe::MultiVectorPoissonLinearSolverProblem< memorySpace >
Cdftfe::MultiVectorMinResSolver
►Cdftfe::nonLinearSolver	Base class for non-linear algebraic solver
Cdftfe::BFGSNonLinearSolver	Class implementing a modified BFGS optimization scheme
Cdftfe::LBFGSNonLinearSolver	Class implementing LBFGS optimzation method
Cdftfe::cgPRPNonLinearSolver	Concrete class implementing Polak-Ribiere-Polyak Conjugate Gradient non-linear algebraic solver
Cdftfe::nonlinearSolverFunction
►Cdftfe::nonlinearSolverProblem	Abstract class for solver functions
Cdftfe::geoOptCell	Problem class for cell stress relaxation solver
Cdftfe::geoOptIon	Problem class for atomic force relaxation solver
Cdftfe::nudgedElasticBandClass
Cdftfe::oncvClass< ValueType, memorySpace >
►Cdftfe::operatorDFTClass< memorySpace >	Base class for building the DFT operator and the action of operator on a vector
Cdftfe::KohnShamHamiltonianOperator< memorySpace >
Cdftfe::ProcessGrid
Cdftfe::pseudoUtils::Element
Cdftfe::pseudoUtils::PeriodicTable
Cdftfe::runParameters	Namespace which declares the input outer run parameters
Cdftfe::ScaLAPACKMatrix< NumberType >	Scalapack wrapper adapted from dealii library and extended implementation to complex datatype
Cdftfe::SlaterBasisInfo
Cdftfe::SlaterPrimitive
Cdftfe::symmetryClass< FEOrder, FEOrderElectro, memorySpace >	Density symmetrization based on irreducible Brillouin zone calculation, only relevant for calculations using point group symmetries
Cdftfe::TransferDataBetweenMeshesIncompatiblePartitioning< memorySpace >	This class provides the interface for the transfer between the meshes
Cdftfe::triangulationManager	This class generates and stores adaptive finite element meshes for the real-space dft problem
►Cdftfe::utils::Cell< dim >	This class provides the interface that will be required while interpolating a nodal data to arbitrary set of points
Cdftfe::utils::FECell< dim >	This class provides the specialisation for Finite element cell. This class provides the function defintions for shape function calculation at an arbitrary point inside the cell, checks if a point lies within a cell by computing its parametric points
Cdftfe::utils::FiniteDifference
Cdftfe::utils::MapPointsToCells< dim, M >	This class takes in a bunch of points and finds the cell (provided as input) it lies in. In case the points dont lie in any of the cells, it sends the points to other processors. Similarly it receives points from other processors and then checks if any of them lies within its cell. It provides the real coordinates of points in each cell
Cdftfe::utils::MemoryManager< ValueType, memorySpace >
Cdftfe::utils::MemoryManager< ValueType, MemorySpace::HOST >
Cdftfe::utils::MemoryStorage< ValueType, memorySpace >
Cdftfe::utils::MemoryTransfer< memorySpaceDst, memorySpaceSrc >
Cdftfe::utils::MemoryTransfer< MemorySpace::HOST, MemorySpace::HOST >
Cdftfe::utils::mpi::MPICommunicatorP2P< ValueType, memorySpace >
Cdftfe::utils::mpi::MPIPatternP2P< memorySpace >	A class template to store the communication pattern (i.e., which entries/nodes to receive from which processor and which entries/nodes to send to which processor)
►Cdftfe::utils::mpi::MPIRequestersBase
Cdftfe::utils::mpi::MPIRequestersNBX
Cdftfe::utils::MPICommunicatorP2PKernels< ValueType, memorySpace >
Cdftfe::utils::OptimizedIndexSet< T >
Cdftfe::utils::RTreeBox< dim, M >	A class template to perform RTreeBox based searching on overlap of boxes
Cdftfe::utils::RTreePoint< dim, M >	A class template to perform RTreePoint based searching on overlap of boxes
Cdftfe::vselfBinsManager< FEOrder, FEOrderElectro >	Categorizes atoms into bins for efficient solution of nuclear electrostatic self-potential. template parameter FEOrderElectro is the finite element polynomial order