## Abstract The pseudopotential theory of metals is applied to the Cs–Rb and K–Rb alloy systems using the pseudo alloy atom model. The total binding energies, bulk moduli, and heats of solution were calculated as a function of alloy compositions. The calculated values of the total binding energies
Valence-Electron theory using the thomas–fermi–dirac model: Application to the K atom and the K− ion
✍ Scribed by Jerry Goodisman
- Publisher
- John Wiley and Sons
- Year
- 1976
- Tongue
- English
- Weight
- 978 KB
- Volume
- 10
- Category
- Article
- ISSN
- 0020-7608
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✦ Synopsis
Abstract
It is proposed to calculate electronic structure of atoms and molecules by combining the Thomas‐Fermi‐Dirac (TFD) theory and a correct quantum mechanical treatment. The potential generated from the TFD treatment of the positively charged cores contains no adjustable parameters and requires no modification for proper asymptotic behavior. To take the exclusion principle into account, the valence electron wave‐function is constructed from the n + 1st, n + 2nd, etc. solutions to the one‐electron Schrödinger equation using the core potential, where n is the number of core electrons. For the potassium atom, the simple calculations give excellent agreement with experiment for ionization potential, transition frequencies and intensities, magnetic susceptibility, and electric polarizability. From a two‐electron configuration interaction wave‐function for K^−^, a value for the electron affinity of K is obtained which agrees with experimental values.
📜 SIMILAR VOLUMES
Expressions for the various physical parameters of the ideal Fermi-Dirac gas in two dimensions are derived and compared to the corresponding threedimensional expressions. These derivations show that the Fermi-Dirac functions most applicable to the two-dimensional problem are Fo(\*7), FI(.7), and F~o