Article ID | Journal | Published Year | Pages | File Type |
---|---|---|---|---|
9637422 | Proceedings of the Combustion Institute | 2005 | 9 Pages |
Abstract
The current investigation is an attempt to provide as complete a statistical-theoretical treatment the title reaction as possible. We have improved the detail of the calculations of Senosiain et al. [Int. J. Chem. Kinet. 35 (9) (2003) 464] and investigated the impact of variational effects and angular momentum conservation on the overall thermal rate constants. Although the magnitude of these effects is not large, they produce different (adjusted) vibrationally adiabatic reaction barriers and energy transfer parameters. More importantly, they result in nearly temperature-independent rate coefficients below 500Â K, in good agreement with low temperature experiments. Reaction barriers obtained by fitting experimental data in a broad temperature and pressure range are in excellent agreement with high level electronic structure calculations (well within 1Â kcal/mol).
Related Topics
Physical Sciences and Engineering
Chemical Engineering
Chemical Engineering (General)
Authors
Juan P. Senosiain, Stephen J. Klippenstein, James A. Miller,