GPAW
Features and algorithms
Installation
Documentation
Tutorials and exercises
Basics
Structure optimization
Energetics
Cohesive energy of bulk FCC Pt
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
Tutorial for ESS workshop 2025 - Magnetism and exchange constants
Frequently asked exercise questions
Atomic PAW Setups
Release notes
Gallery
GPAW ecosystem
Contact
Frequently Asked Questions
Development
Perfomance index benchmarks
Summer schools
Workshops
Bugs!
Roadmap
GPAW
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Energetics
Cohesive energy of bulk FCC Pt
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
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