A simple model for the computation of intermolecular interactions is described. It consists of atom–atom potentials for the representation of repulsion and dispersion energies, and an evaluation of the electrostatic energy in terms of partitioned multipole moments of the monomer electron distributions. Applications are given in detail for hydrogen‐bonded dimers of the molecules HF, HCl, CO, N2, Cl2, HCN, CO2, N2O, OCS, HCCH, NCCN, and HCCCN, and the results compared with ab initio and experimental results. Hydrogen bond energies are obtained to better than 4 kJ mol−1, intermolecular separations to typically better than 0.15 Å, and intermolecular angles within 5°, all compared with experiment. Force constants and vibrational frequencies are also well reproduced.
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1 December 1986
Research Article|
December 01 1986
A simple quantitative model of hydrogen bonding
Mark A. Spackman
Mark A. Spackman
Department of Crystallography, University of Pittsburgh, Pittsburgh, Pennsylvania 15260
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J. Chem. Phys. 85, 6587–6601 (1986)
Article history
Received:
June 23 1986
Accepted:
August 13 1986
Citation
Mark A. Spackman; A simple quantitative model of hydrogen bonding. J. Chem. Phys. 1 December 1986; 85 (11): 6587–6601. https://doi.org/10.1063/1.451441
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