Abstract

It is shown that by exploiting auxiliary or projector-basis functions as a local representation of plane waves, highly efficient implementations of several band-structure techniques can be obtained. Examples are nonlocal pseudopotential methods with (1) plane-wave and (2) mixed (plane waves plus local orbitals) basis sets, and the all-electron (3) linearized-augmented-plane-wave and (4) extended linearized-augmented-plane-wave methods. The computation in all of the proposed techniques scales as ${\mathit{N}}^{2}$ln(N), where N is the number of atoms in the unit cell. Early calculations are presented for the plane-wave and mixed-basis approaches.

Keywords

Plane waveBasis (linear algebra)PseudopotentialBasis functionPhysicsPlane (geometry)ProjectorWave functionBasis setScalingComputationMathematical analysisComputational physicsQuantum mechanicsGeometryMathematicsOpticsAlgorithmDensity functional theory

Affiliated Institutions

Related Publications

Projector augmented-wave method

An approach for electronic structure calculations is described that generalizes both the pseudopotential method and the linear augmented-plane-wave (LAPW) method in a natural wa...

1994 Physical review. B, Condensed matter 85109 citations

Publication Info

Year
1992
Type
article
Volume
46
Issue
20
Pages
13065-13072
Citations
22
Access
Closed

Citation Metrics

22
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0
Influential
23
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Cite This

David J. Singh, Henry Krakauer, C. Haas et al. (1992). Projector-basis technique and Car-Parrinello scaling in mixed-basis, linearized-augmented-plane-wave, and extended linearized-augmented-plane-wave electronic-structure methods. Physical review. B, Condensed matter , 46 (20) , 13065-13072. https://doi.org/10.1103/physrevb.46.13065

Identifiers

DOI
10.1103/physrevb.46.13065
PMID
10003345

Data Quality

Data completeness: 81%