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Lattice self-potentials and madelung constants for some compounds

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Abstract

Calculations of lattice self-potentials and lattice potentials were made for ionic compounds with the Ewald method, the formulae being modified to facilitate computer calculation. The counting procedure for ionic charges and the collection of unit cells into shells is the same as in the Evjen method for potential calculations. The significance of the use of fractional charges for ions on planes, edges or corners of the unit cell is shown. There are no symmetry restrictions for the application of the formulae.

After testing the program on some compounds whose Madelung constants are wellestablished in the literature, lattice self-potentials for distinct ion positions, Madelung constants and electrostatic energies were calculated for Al2O3, Cr2O3, α-Fe2O3, Ti2O3, V2O3, CaCl2, CrCl2, BaHCl, BiOBr, PbFCl, SrHI, TmOI, CuFeO2, LiCrO2, NaFeO2, IrF3, MoF3, LaF3, PuBr3, VF3, AsI3, BiI3, FeCl3, BaTiO3 (four modifications), TiO2 (three modifications).

Some special applications will be discussed in a second paper.

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Van Gool, W., Piken, A.G. Lattice self-potentials and madelung constants for some compounds. J Mater Sci 4, 95–104 (1969). https://doi.org/10.1007/BF00550650

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