Journal of Mathematical Physics · 1981 · 306 citations · 13 references
Natural SciencesMaterials ScienceComputational ChemistryCondensed Matter PhysicsMathematical PhysicsDensity Functional TheoryElectronic Band StructureElectronic Structure Of SolidsBand Structure ComputationBoundary ProblemCharge DistributionMultipole ApproximationMultipole PotentialsPoisson EquationPoisson's EquationShape Approximation
A general method for solving Poisson’s equation without shape approximation for an arbitrary periodic charge distribution is presented. The method is based on the concept of multipole potentials and the boundary value problem for a sphere. In contrast to the usual Ewald-type methods, this method has only absolutely and uniformly convergent reciprocal space sums, and treats all components of the charge density equivalently. Applications to band structure calculations and lattice summations are also discussed.
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Handbook of Mathematical Functions
Donald A. McQuarrie · American Journal of Physics · 1966 · 40.9K citations
On the calculation of lattice sums
B.R.A. Nijboer, F. W. de Wette · Physica · 1957 · 416 citations · Full text
Self-Consistent Energy Bands and Cohesive Energy of Potassium Chloride
P. D. DeCicco · Physical Review · 1967 · 249 citations
Natural Sciences, Chemistry, Physics +15
The internal field in dipole lattices
B.R.A. Nijboer, F. W. de Wette · Physica · 1958 · 196 citations · Full text