DISTRIBUTED COMPONENT-ORIENTED PRODUCTION SYSTEM FOR CONTROLLING OF HIERARCHICAL OBJECT
DOI:
https://doi.org/10.34185/1562-9945-4-159-2025-01Keywords:
production system, distributed control system, industrial dispatching control system, inference engine, CLIPS.Abstract
Existing methods of controlling industrial dispatching control systems (IDCS) lose their effectiveness due to the increase in their complexity. Therefore, research for the im-plementation of a distributed component-oriented production control system for dynamic IDCS is relevant and has practical significance. The purpose of the work is to present the ar-chitecture of a distributed component-oriented production control model for dynamic IDCS for controlling an object in real time. Conclusions: 1) a four-level IDCS architecture is pro-posed, which allows implementing the functioning of complex hierarchical automation ob-jects; 2) a production system architecture for the system level of automation is proposed, which consists of low-level, complex and system levels, and a production system architecture for automated control at the main server level, which consists of complex and system levels; 3) the presented models are tested on the IDCS test problem with three systems. Based on the results of comparing the control indicators according to the proposed production model and the finite state machine, the advantages of the proposed method were determined: an increase in correctness by 16% and an increase in the share of fully automated actions by 15%.
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