The paper presents results of the analysis of the developed models for complex technical objects preventive maintenance scheduling. Models based on two different sets of assumptions were developed. The general problem solved was to determine the joint
time of preventive renewal for a group of parts or subassemblies. The purpose of the first model (the model of scheduled preventive
maintenance strategy) is to determine the profitability of constant application of a previously developed preventive maintenance
schedule for a part undergoing post-failure renewal. The second model (the model of adaptive strategy of a system’s preventive
maintenance) allows one to determine a new joint time of preventive renewal for a group of parts each time when one of them is
undergoing a post-failure renewal. The initial preventive maintenance strategy for each part or subassembly was obtained using typical tools for maintenance planning (decision-random models based on dynamic programming and Bellman’s principle
of optimality). Exemplary simulation calculations with the use of both models were made and their results presented as the total
maintenance costs estimated for the renewal strategies developed. The object of the analysis were the chosen geometrical features
of a rail vehicle wheel changing due to its wear during operation. Based on this kind of analysis, one can choose a better preventive maintenance model for a specific application area.
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