IMITATION MODELING OF THE OZONE ELECTROSYNTHESIS PROCESS
Abstract
Currently, industrial technologies often use ozone as a strong oxidizing agent. The massive use of this gas necessitates the development of effective methods for its production. One such method is the synthesis of ozone in a dielectric barrier discharge.
This article discusses a description of a simulation approach to modeling the process of ozone electrosynthesis in a coaxial tubular barrier discharge reactor. In this case, a discrete stochastic approach is used. It is based on the study of the functioning of individual elements of the system, which, as a result, shape the behavior of the system as a whole. The approach takes into account the significant influence of random factors on the course of the phenomena under study. The probabilistic nature of the process being studied is modeled by applying procedures inherent in Monte Carlo methods. The article describes a computer simulation algorithm. The action plan takes into account the following components of the ozone electrosynthesis process: ozone formation under the influence of an electric discharge; ozone decomposition over time; movement of gases within the working zone of the reactor.
The work presents the results of simulation modeling of both individual stages of ozone synthesis and the process as a whole. The results of a comparison of computer simulation data with experimental data conducted on a real laboratory installation are described. Conclusions are drawn about the adequacy of the proposed simulation model, about the possibilities of its application in research practice, and the advantages and disadvantages of the described approach are noted.
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