Classical trajectory study of bond energy effects
- 1 January 1974
- journal article
- Published by AIP Publishing in The Journal of Chemical Physics
- Vol. 60 (1) , 248-257
- https://doi.org/10.1063/1.1680776
Abstract
Three body classical trajectory calculations are used to investigate bond energy effects in the hot atom reactions of tritium atom with a series of hydrocarbons. The surface for T + CH3–H is a modification of that used by Polanyi and co-workers. The hydrocarbon series is represented by changing the bond dissociation energy, bond length, and mass only. Other potential parameters are fixed. It is found that the experimental ratios of abstraction yields are reproduced quite well theoretically at the single tritium atom energy of 2.8 eV. Of the parameters varied, only the bond dissociation energy had a significant effect on the abstraction ratios. These results lead us to support the high energy model for these effects.Keywords
This publication has 13 references indexed in Scilit:
- Potential energy surface for hydrogen abstraction and exchange in the H + CH4 systemJournal of the American Chemical Society, 1972
- Trajectory Studies of Hot-Atom Reactions. I. Tritium and MethaneThe Journal of Chemical Physics, 1970
- Distribution of Reaction Products. VI. Hot-Atom Reactions, T + HRThe Journal of Chemical Physics, 1970
- Further Studies of Reactions of Hot Hydrogen with HydrocarbonsThe Journal of Chemical Physics, 1970
- Reactions of 2.8-eV Tritium Atoms with MethaneThe Journal of Chemical Physics, 1969
- Variations with bond types of the yields for deuterium-atom abstraction by 2.8-ev. tritium atomsJournal of the American Chemical Society, 1969
- Abstraction of hydrogen from hydrocarbons by energetic tritium atomsJournal of the American Chemical Society, 1968
- Origin of bond-energy effects on hot hydrogen abstractionJournal of the American Chemical Society, 1968
- Abstraction of Hydrogen Atoms by Energetic Recoil Tritium Atoms: Correlation with C–H Bond-Dissociation Energies in HydrocarbonsThe Journal of Chemical Physics, 1965
- Mechanisms of Hot Hydrogen Atom Displacement Reactions with Alkanes1Journal of the American Chemical Society, 1961