Kinetics of binary nucleation: Multiple pathways and the approach to stationarity
- 15 December 1990
- journal article
- Published by AIP Publishing in The Journal of Chemical Physics
- Vol. 93 (12) , 9033-9041
- https://doi.org/10.1063/1.459193
Abstract
Explicit analytical expressions are obtained for the rate of nucleation over different paths in a binary system. It is shown that anisotropy in reaction rates and anisotropy in the free energy surface can cause nucleation to occur bypassing the saddle point. Homomolecular nucleation is demonstrated to be the natural limit of binary nucleation as the concentration of one component goes to zero. Explicit expressions are also obtained for the time lag of binary nucleation by using the singular perturbation approach. It is shown that the time lag associated with different paths of nucleation is essential in determining the relative importance of different nucleation pathways.Keywords
This publication has 25 references indexed in Scilit:
- Transient kinetics of nucleationPhysical Review A, 1990
- Diffusion-controlled reactions: A variational formula for the optimum reaction coordinateThe Journal of Chemical Physics, 1983
- Theory of the nucleation of multicomponent precipitatesPhysical Review B, 1983
- Transient kinetics of chemical reactions with bounded diffusion perpendicular to the reaction coordinate: Intramolecular processes with slow conformational changesThe Journal of Chemical Physics, 1983
- Time lag in nucleation: A variational treatment of relaxation times in the binary sulfuric acid–water systemThe Journal of Chemical Physics, 1981
- On the limiting behaviour of binary homogeneous nucleation theoryJournal of Aerosol Science, 1978
- Statistical theory of nucleation, condensation and coagulationAdvances in Physics, 1976
- Kinetic theory of two-component (“hetero-molecular”) nucleation and condensationJournal of Aerosol Science, 1976
- Binary nucleation. II. Time lagsThe Journal of Chemical Physics, 1975
- Cloud base levels for Jupiter and Venus and the heteromolecular nucleation theoryIcarus, 1974