Ivanovo, Ivanovo, Russian Federation
004.94
Tubular reactors are the main type of equipment in many production processes. At the same time, their characteristics largely determine the production technical and economic indicators. Therefore, the design and development of more advanced reactor designs and the determination of effective operating parameters can be considered important research tasks. To solve them, it is necessary to use mathematical and computer modeling methods. However, models containing rather crude simplifying as-sumptions are used to analyze the processes occurring in the chemical environment. Therefore, such models can be considered insufficiently adequate. In addition, existing approaches to reactor modeling do not fully take into account the influence of stochastic factors on the process. This article describes a simulation approach to modeling an electrochemical ozone synthesis reactor. A discrete stochastic approach is used as a methodological basis. 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 influence of both deter-ministic and random factors on the course of the process. The paper describes the algorithm of simulation computer modeling, provides the results of simulation modeling, as a sepa-rate stage of the synthesis, and the process as a whole. The results of comparing 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 merits and disadvantages of the de-scribed approach are noted
Simulation modeling; random processes; discrete models; ozone electrosynthesis
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