M. Stähelin, Cecilia A. Walsh, et al.
Journal of Applied Physics
The growth of a hologram can be used to follow the temporal course of a photochemical reaction. In this paper the application of this technique to reactions involving more than one photochemical step is considered. A theoretical framework is developed by which the hologram growth curves can be predicted provided one knows the appropriate kinetic equations. Three different kinetic schemes are explicitly considered: a one-step reaction, two parallel reactions, and a two-step consecutive reaction scheme. The calculations are compared with experimental results obtained for the reaction of benzophenone in polymethylmethacrylate. © 1982 American Institute of Physics.
M. Stähelin, Cecilia A. Walsh, et al.
Journal of Applied Physics
D.M. Burland, R.G. Devoe, et al.
Pure and Applied Optics (Print edition) (United Kingdom)
D.M. Burland, J.E. Rice, et al.
SPIE San Diego 1991
R.D. Miller, D.M. Burland, et al.
Macromolecules