Interaction potential between two rigid HF molecules
- 1 February 1974
- journal article
- research article
- Published by AIP Publishing in The Journal of Chemical Physics
- Vol. 60 (3), 855-865
- https://doi.org/10.1063/1.1681161
Abstract
As a prelude to the study of energy transfer in the HF–HF system, the potential energy surface for the interaction of two rigid HF molecules has been calculated within the ab initio self‐consistent‐field framework. An H(4s 1p/2s 1p), F(9s 5p 1d/4s 2p 1d) basis set of contracted Gaussian function was employed. The number of unique points on the surface is greatly reduced by symmetry, and only 294 points were required to give a fairly complete description of the four‐dimensional surface. Parts of the surface are illustrated by a series of contour maps. Some preliminary attempts to fit the surface to an analytic form are described. The equilibrium geometry of (HF)2 is predicted.Keywords
This publication has 41 references indexed in Scilit:
- Vibrational relaxation in the HF–HCl,HF–HBr,HF–HI, and HF–DF systemsThe Journal of Chemical Physics, 1973
- Vibrational relaxation of HF and DFThe Journal of Chemical Physics, 1973
- Shock tube study of DF vibrational relaxationThe Journal of Chemical Physics, 1973
- On the H+F2→HF+F reaction. An ab initio potential energy surfaceThe Journal of Chemical Physics, 1973
- Potential Energy Surface Including Electron Correlation for F + H 2 → FH + H: Refined Linear SurfaceScience, 1972
- Radiofrequency and Microwave Spectrum of the Hydrogen Fluoride Dimer; a Nonrigid MoleculeThe Journal of Chemical Physics, 1972
- Classical Study of Rotational Excitation of a Rigid Rotor: Li+ + H2The Journal of Chemical Physics, 1971
- Theory of Molecular Interactions. II. Molecular Orbital Studies of HF Polymers Using a Minimal Slater-Type BasisThe Journal of Chemical Physics, 1971
- Helium-Atom–Hydrogen-Molecule Potential Surface Employing the LCAO–MO–SCF and CI MethodsThe Journal of Chemical Physics, 1970
- Extended Hartree—Fock Wavefunctions: Optimized Valence Configurations for H2 and Li2, Optimized Double Configurations for F2The Journal of Chemical Physics, 1966