| Category
 | 
subtopics (amongst others)
 | 
|  Theoretical background | 
We collect theory pages from all the different areas VASP offers functionalities. These can also be found in the corresponding category of the topic. For instance, the article on the Blocked-Davidson algorithm is also linked from the electronic minimization page.
 | 
|  Calculation setup | 
The computational setup considers the installation, the input and output files, performance, etc. To learn how to set up your calculation, it is probably best to look for a how-to page, e.g., setting up an electronic minimization, band-structure calculation using hybrid functionals, constructing Wannier orbitals, structure optimization, etc.
 | 
|  Electronic minimization | 
Electronic minimization is the central task in many calculations. Here, you find pages describing the self-consistency cycle, different algorithms, e.g., blocked-Davidson algorithm, RMM-DIIS, direct optimization of the orbitals, and related topics like preconditioning, density mixing, etc.
 | 
|  Electronic ground-state properties | 
Band structure, density of states, partial DOS and on-site charge and magnetization (LORBIT), electrostatics, charge density, potential, etc.
 | 
|  Spin degree of freedom | 
Spin-orbit coupling, noncollinear magnetism, spin spirals, constrained magnetism, etc.
 | 
| Exchange-correlation functionals | 
LDA, GGA, meta-GGA, DFT+U, hybrid functionals, van der Waals functionals.
 | 
|  Symmetry and structure | 
Crystal symmetry, reciprocal space, surfaces, pair-correlation function for liquids, etc.
 | 
|  Ionic minimization | 
Structure optimization, ionic-minimization methods, forces, transition states, etc.
 | 
|  Molecular dynamics | 
Barostats, thermostats, ensembles, etc.
 | 
|  Ensemble properties | 
Monitoring geometric parameters, pair-correlation function, thermal conductivity, diffusion, etc.
 | 
|  Advanced molecular-dynamics sampling | 
Interface pinning, constrained molecular dynamics, metadynamics, thermodynamic integration, etc.
 | 
|  Machine-learned force fields | 
Training and application of force fields.
 | 
|  Phonons | 
Lattice vibrations,  finite differences,  phonon dispersion relation.
 | 
|  Electron-phonon interactions | 
 Band-structure renormalization,  transport, stochastic sampling.
 | 
|  Response theory | 
Static and frequency-dependent dielectric properties, Berry phases, spectroscopy (UV, VIS, X-ray, NMR), phonons, etc.
 | 
|  Many-body perturbation theory | 
ACFDT, BSE, GW, MP2, cRPA.
 | 
|  Localized basis and projection | 
Obtaining Wannier functions, SCDM, partial DOS and on-site charge and magnetization (LORBIT), Constrained-random-phase approximation
 | 
|  Performance | 
 Parallelization, memory management, profiling, etc.
 |