GPAW
Features and algorithms
Installation
Documentation
Tutorials and exercises
Basics and structure optimization
Energetics
Cohesive energy of bulk FCC Pt
Calculation of atomization energies
DFT+U theory
Calculating the formation energies of charged defects
Calculating RPA correlation energies
RPA calculation of the cohesive energy of Si
Correlation energies from TDDFT
Electronic structure
Electrostatics and -dynamics
Magnetic properties
Molecular dynamics
Optical response
Vibrational properties
Wave functions and charge transfer
Local Orbitals
Frequently asked exercise questions
Atomic PAW Setups
Release notes
Gallery
Contact
Frequently Asked Questions
Development
Summer schools
Workshops
Bugs!
GPAW
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Energetics
Cohesive energy of bulk FCC Pt
Calculation of atomization energies
DFT+U theory
GPAW implementation
Scaling the Hubbard correction
Scaling the Hubbard correction
References
Calculating the formation energies of charged defects
Introduction
Theoretical background: The FNV scheme
The Ga vacancy in GaAs
Additional remarks on calculating formation energies
Calculation electrostatic corrections in two dimensions
References
Calculating RPA correlation energies
Example 1: Atomization energy of N2
Example 2: Adsorption of graphene on metal surfaces
RPA calculation of the cohesive energy of Si
PBE cohesive energy - bulk
PBE cohesive energy - atom
EXX@PBE cohesive energy - bulk
EXX@PBE cohesive energy - atom
(RPA+EXX)@PBE cohesive energy - bulk
(RPA+EXX)@PBE cohesive energy - convergence
(RPA+EXX)@PBE cohesive energy - atom
Conclusions
References
Correlation energies from TDDFT
Example 1: Correlation energy of the Hydrogen atom
Example 2: Atomization energy of CO
Example 3: Cohesive energy of diamond
Example 4: Correlation energy of diamond with different kernels