Paper
1 June 1994 Exact and approximate solutions of the utilization and yield equations for O2(1Δ) generators
Drew A. Copeland, William E. McDermott, Victor Quan, Arthur H. Bauer
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Abstract
A mathematical model for the production of singlet delta oxygen from the reaction of a gas containing chlorine with the hydroperoxy ion in liquid basic hydrogen peroxide is reviewed. An exact solution for the Cl2 utilization, O2(1(Delta) ) yield, and efficiency of the generator is obtained in the well-stirred limit (WSL) for which the surface concentration of HO2- is constant. A universal set of performance curves is presented and the implications when assessing generator performance are discussed. When depletion of the surface concentration of HO2- is important, perturbation theory is used to obtain a solution for the generator's utilization, yield, and efficiency which is a generalization of the corresponding WSL solution. A criterion for the validity of the perturbation solution is obtained and it is shown that the performance of a rotogenerator plateaus not too far above the value of disk rotation rate predicted by this criterion. Finally an integral method is used to obtain a simple, but approximate, solution of the utilization-yield equations which applies over a wide range of operating conditions.
© (1994) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
Drew A. Copeland, William E. McDermott, Victor Quan, and Arthur H. Bauer "Exact and approximate solutions of the utilization and yield equations for O2(1Δ) generators", Proc. SPIE 2119, Intense Beams and Applications: Lasers, Ions, and Microwaves, (1 June 1994); https://doi.org/10.1117/12.172717
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Cited by 9 scholarly publications.
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KEYWORDS
Liquids

Chlorine

Silicon

Chlorine gas

Oxygen

Diffusion

Molecules

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