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Abstract
The article is devoted to a comprehensive analysis of modern approaches to improving the energy efficiency of pumping stations, focusing on the integration of variable frequency drives (VFDs), fuzzy logic algorithms, and SCADA systems. The study emphasizes the ability of variable frequency control to optimize energy consumption under variable load conditions, the adaptability of fuzzy logic in controlling complex and uncertain systems, and the real-time monitoring and remote-control capabilities of SCADA systems. Based on theoretical modeling, practical data, and techno-economic analysis, it is shown that the proposed solutions can reduce energy consumption by 20–45%, increase system reliability, and extend equipment service life. The paper provides practical recommendations for the implementation of integrated technologies and highlights their potential in the automation and optimization of pumping stations.
Methods and Materials. This study is based on the analysis of existing scientific sources, technical reports, and international experience. Results presented in the literature were compared, generalized indicators of pumping system efficiency were calculated, and their performance was evaluated against integrated control approaches.
Results. The analysis showed that the integration of fuzzy logic, VFDs, and SCADA systems, compared to traditional control, can reduce energy consumption by up to 35–40%, increase system efficiency from 70% to 75–80%, and significantly reduce operating costs.
Conclusion. The results of the study indicate that the integration of fuzzy logic, VFDs, and SCADA systems is the most effective approach to improving the energy efficiency of pumping stations. Such a system reduces energy consumption, improves overall efficiency, and decreases operating costs. Integrated control plays an important role in ensuring the stability and cost-effectiveness of water supply systems.
References
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Copyright (c) 2026 Nabiyev, M.B. (Muallif)