Solution reaction path Hamiltonian for reactions in polar solvents. II. Applications
- 1 June 1988
- journal article
- Published by AIP Publishing in The Journal of Chemical Physics
- Vol. 88 (11) , 6863-6869
- https://doi.org/10.1063/1.454747
Abstract
The solution reaction path Hamiltonian (SRPH) developed in the previous paper is applied to model SN2 and ionic dissociation reactions in water solvent. The solution reaction paths are determined and show marked deviations from a standard equilibrium solvation picture. The impact of potential anharmonicities, reaction path curvature, and varying solvent mass on the rate constant is calculated via the variational transition state theory approach of I, and the deviations from harmonic van der Zwan–Hynes (ZH) theory are calculated. Typically only minor deviations from ZH theory are found. The reasons for this are discussed.Keywords
This publication has 13 references indexed in Scilit:
- Solution reaction path Hamiltonian for reactions in polar solvents. I. FormulationThe Journal of Chemical Physics, 1988
- A dynamical theory of unimolecular ionic dissociation reactions in polar solventsThe Journal of Chemical Physics, 1988
- Nonadiabatic solvation model for S N2 reactions in polar solventsThe Journal of Chemical Physics, 1987
- Molecular dynamics of a model S N2 reaction in waterThe Journal of Chemical Physics, 1987
- Solvent reorganization in optical and thermal electron-transfer processesThe Journal of Physical Chemistry, 1986
- Reaction surface description of intramolecular hydrogen atom transfer in malonaldehydeThe Journal of Chemical Physics, 1986
- Theoretical examination of the SN2 reaction involving chloride ion and methyl chloride in the gas phase and aqueous solutionJournal of the American Chemical Society, 1985
- A simple dipole isomerization model for non-equilibrium solvation dynamics in reactions in polar solventsChemical Physics, 1984
- Nonequilibrium solvation dynamics in solution reactionsThe Journal of Chemical Physics, 1983
- Variational transition-state theoryAccounts of Chemical Research, 1980