Self-interaction correction in multiple scattering theory
arXiv:cond-mat/0406515 · doi:10.1103/PhysRevB.71.205109
Abstract
We propose a simplified version of self-interaction corrected local spin-density (SIC-LSD) approximation, based on multiple scattering theory, which implements self-interaction correction locally, within the KKR method. The multiple scattering aspect of this new SIC-LSD method allows for the description of crystal potentials which vary from site to site in a random fashion and the calculation of physical quantities averaged over ensembles of such potentials using the coherent potential approximation (CPA). This facilitates applications of the SIC to alloys and pseudoalloys which could describe disordered local moment systems, as well as intermediate valences. As a demonstration of the method, we study the well-known - phase transition in Ce, where we also explain how SIC operates in terms of multiple scattering theory.
17 pages, 17 figures, 4 tables, replaced by published version
References in corpus (6)
- The role of the lattice in the phase transition of Ce: a high pressure neutron and x-ray diffraction study
- Modeling the actinides with disordered local moments
- The Korringa-Kohn-Rostoker Non-Local Coherent Potential Approximation (KKR-NLCPA)
- Half-Metallicity of LSMO
- Ab initio study of charge order in Fe3O4
- Ab initio charge, spin and orbital energy scales in LaMnO3
Cited by in corpus (42)
- Puzzle of the gamma-alpha and other phase transitions in cerium
- The alpha-gamma transition of Cerium is entropy-driven
- Electronic structure and ionicity of actinide oxides from first principles calculations
- Exchange coupling in transition metal monoxides: Electronic structure calculations
- Defect-Induced Magnetism in Solids
- The role of spin in the calculation of Hubbard and Hund's parameters from first principles
- Density-functional Theory for f electron Systems: the α-γ Phase Transition in Cerium
- A Self-consistent DFT+DMFT scheme in the Projector Augmented Wave : Applications to Cerium, Ce2O3 and Pu2O3 with the Hubbard I solver and comparison to DFT+U
- Structural phase transitions and fundamental band gaps of Mg(x)Zn(1-x)O alloys from first principles
- Electronic structure of rare-earth impurities in GaAs and GaN
- Rare Earth Monopnictides and Monochalcogenides from First Principles: Towards an Electronic Phase Diagram of Strongly Correlated Materials
- Theory of magnetic ordering in the heavy rare earths: ab-initio electronic origin of pair- and four- spin interactions
- Effects of short-range order on the electronic structure of disordered metallic systems
- Rare-earth/transition-metal magnets at finite temperature: Self-interaction-corrected relativistic density functional theory in the disordered local moment picture
- Thermodynamics of the α-γ transition in Cerium from first principles
- Calculating the Magnetic Anisotropy of Rare-Earth-Transition-Metal Ferrimagnets
- Self-interaction Corrected Local Spin Density Theory of 5f Electron Localization in Actindes
- Temperature-dependent magnetocrystalline anisotropy of rare earth/transition metal permanent magnets from first principles: The light RCo (R=Y, La-Gd) intermetallics
- Theory of electronic transport in random alloys with short-range order: Korringa-Kohn-Rostoker non-local coherent potential approximation
- Rare-earth/transition-metal magnetic interactions in pristine and (Ni,Fe)-doped YCo5 and GdCo5
- Verification of Anderson superexchange in MnO via magnetic pair distribution function analysis and \textit{ab initio} theory
- Onset of Magnetic Order in Strongly-Correlated Systems from ab initio Electronic Structure Calculations: Application to Transition Metal Oxides
- Variation of magnetic properties of SrFeMoO due to oxygen vacancies
- Complex magnetism of lanthanide intermetallics unravelled
- First-order ferromagnetic transitions of lanthanide local moments in divalent compounds: An itinerant electron positive feedback mechanism and Fermi surface topological change
- The role of thermal disorder for magnetism and the transition in Cerium; Results from density-functional theory
- Impact of oxygen doping and oxidation state of iron on the electronic and magnetic properties of BaFeO$_{3-δ}
- PyFLOSIC: Python-based Fermi-Löwdin orbital self-interaction correction
- Study of self-interaction-errors in barrier heights using locally scaled and Perdew-Zunger self-interaction methods
- Local self-interaction correction method with a simple scaling factor
- Crucial role of Fe in determining the hard magnetic properties of NdFeB
- Investigation of the nonlocal coherent-potential approximation
- Thermodynamics of the - transition in cerium studied by an LDA + Gutzwiller method
- Nonmagnetic and ferromagnetic fcc cerium studied with one-electron methods
- Toward a first-principles theory of rare-earth ions in crystals
- Spin orientation and magnetostriction of TbDyFe from first principles
- Better band gaps for wide-gap semiconductors from a locally corrected exchange-correlation potential that nearly eliminates self-interaction errors
- Crystal field coefficients for yttrium analogues of rare-earth/transition-metal magnets using density-functional theory in the projector-augmented wave formalism
- Structural and magnetic properties of GdCoNi
- Theoretical study of magnetic domain walls through a cobalt nanocontact
- NiSi: New venue for antiferromagnetic spintronics
- Anisotropy at twin interfaces in (=rare earth, =transition metal) magnets