Atomic coreless Hartree–Fock pseudopotential for atoms Li through Nea)
- 15 March 1979
- journal article
- research article
- Published by AIP Publishing in The Journal of Chemical Physics
- Vol. 70 (6) , 3008-3011
- https://doi.org/10.1063/1.437839
Abstract
The coreless Hartree–Fock (CHF) pseudopotential method, previously developed and applied to atoms K through Zn, is used in this paper to generate Hartree–Fock quality pseudopotentials for atoms of the first row of the Periodic Table (Li–Ne). These potentials are tested for various electronic states of the atoms. Also presented are small optimized basis sets designed for use with these potentials. These CHF pseudopotentials and basis sets satisfactorily replace the effects of the core orbitals thereby allowing for savings in computational effort when used in molecular calculations.Keywords
This publication has 10 references indexed in Scilit:
- Atomic coreless Hartree–Fock pseudopotentials for atoms K through ZnThe Journal of Chemical Physics, 1978
- Pseudopotential calculations: some electronic properties of zinc dichlorideChemical Physics Letters, 1977
- Angular momentum dependence of pseudopotentials: calculation of the potential curve for HFChemical Physics Letters, 1977
- Ab-initio calculation, using ab-initio pseudopotentials, of some electronic properties of ethane, methylsilane and disilaneChemical Physics, 1977
- A b i n i t i o effective core potentials: Reduction of all-electron molecular structure calculations to calculations involving only valence electronsThe Journal of Chemical Physics, 1976
- Ab initioeffective potentials for use in molecular quantum mechanicsPhysical Review A, 1974
- Fe and Ni AB initio effective potentials for use in molecular calculationsChemical Physics Letters, 1974
- Ab Initio Effective Potentials for Use in Molecular CalculationsThe Journal of Chemical Physics, 1972
- Gaussian-Type Functions for Polyatomic Systems. IIThe Journal of Chemical Physics, 1969
- On the Use of Pseudopotentials in the Quantum Theory of Atoms and MoleculesAdvances in Chemical Physics, 1969