SINDOl calculations are presented for ground state geometries, heats of formation, ionization potentials and dipole moments. These calculations are based on a new parametrization of SINDOl for second-row elements which features inclusion of 3d orbitals and zero point energies. The comparison shows a
Application of SINDO1 to chlorine and sodium compounds
β Scribed by Karl Jug; Joachim Schulz
- Publisher
- John Wiley and Sons
- Year
- 1987
- Tongue
- English
- Weight
- 773 KB
- Volume
- 8
- Category
- Article
- ISSN
- 0192-8651
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β¦ Synopsis
SINDOl calculations are presented for ground state geometries, heats of formation, ionization potentials and dipole moments of chlorine and sodium compounds. These calculations are based on a new parametrization of SINDOl for second-row elements which features inclusion of 3d orbitals and zero point energies. The comparison shows a substantial improvement over MNDO in geometries and heats of formation of hypervalent compounds and ionization potentials, whereas other properties are of similar quality.
π SIMILAR VOLUMES
SINDOl calculations are presented for ground state geometries, heats of formation, ionization potentials and dipole moments. These calculations are based on a new parametrization of SINDOl for second-row elements which features inclusion of 3d orbitals and zero point energies. The comparison shows a
SINDOl calculations are presented for ground state geometries, heats of formation, ionization potentials and dipole moments of silicon, aluminum and magnesium compounds. These calculations are based on a new parametrization of SINDOl for second-row elements. Important features are the inclusion of 3
## Abstract The recently extended SINDO1 method is used to study geometries, electronic structures, and chemical bonding of transition metal organometallic compounds. The optimized distances and angles between metal atoms and organic ligands are in fair agreement with experimental data and are comp
The semiempirical MO method SINDO1, originally suitable for first-and second-row atoms, is extended to transition metals from scandium to zinc. The core Hamiltonian elements in a symmetrically orthogonalized atomic orbital (OAO) basis set are modified and the parameters are optimized to reproduce th
A statistical evaluation of ground state properties for first-row and second-row elements is presented. The present version MSINDO is compared with the previous version SINDO1 and other standard semiempirical methods. Significant improvements are achieved for heats of formation, bond lengths, bond a