Generalized scheme of implementation of the phenomenological heuristic-evolutionary approach in optimizing the thermal insulation structure of the glass furnace enclosure

The relevance of adaptation of the phenomenological heuristic-evolutionary approach (method) of optimization by Professor G. E. Kanevets. (PHEA.GEK) consists in the development of a highly efficient optimization method developed for complex energy technology systems (ETS), which allows taking into account the peculiarities of operation, the operating parameters of the object, in relation to the thermal insulation constructions of glass furnaces (TTICGF), and in a broad sense, melting units similar in principle to glass furnaces, which are characterized by a sufficiently high variability in the case of the layout of such thermal insulation structures (tens of thousands of combinations) due to the presence of a wide range of manufactured thermal insulation and refractory materials, and the resulting f lexibility of thermal regimes directed towards the intensification of melting processes. In such conditions, the choice of the optimal TICGF becomes a complex technical and economic task, for the solution of which an additive efficiency criterion has been developed and used in the study.The main aim: to obtain tools for carrying out optimization calculations of the TTICGF to increase the thermal efficiency of glass furnaces, prolong the service life of refractory materials in conditions of continuous growth in the cost of energy carriers and the need to improve the quality of products. Objects: high-performance bathroom f laming glass furnaces of continuous operation.Methods: using the theory of heat and mass transfer; using a computational experiment to simulate the process of corrosion wear of refractory bars of the side fence of the furnace and the operation of the forced air cooling system, methods of mathematical modeling and analysis.Results: a generalized scheme for the implementation of the phenomenological heuristic - evolutionary approach (method) has been adapted in relation to glass furnaces during the operation of which corrosion wear of heat-insulated side fences and other elements in contact with high-temperature melt occurs, the justification for the use of PHEA.GEK for cases of optimization of the TICGF.