Real coded genetic algorithm in operational optimization of a district cooling system: An inceptive applicability assessment and power saving evaluation

Mubashir A Reshi, M. Mursaleen
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Abstract

District Cooling Systems are progressively becoming a standard feature of smart cities. This is attributed to their inherent feature of low operating cost and high energy efficiency. Given the constantly increasing energy prices worldwide and the target of the Conference of the Parties-28th Session for reducing emissions, the District Cooling System technology is quite promising in this direction. Various studies are available that have particularly focused on the design phase optimization of the systems, while in-process operational optimization is still in its miniature phase. This paper presents a model-based metaheuristic optimization approach to cooling water system towards an inceptive control strategy to explore and exploit the energy-saving potential using a Real Coded Genetic Algorithm. The Algorithm is implemented in MATLAB to search for high-performance settings in real-time scenarios. The results showed that an energy saving from 9.66% to 26.54% can be obtained across 6 cases in the study, compared to the supervisory control. District cooling technology is expected to gain more credibility as the most sustainable alternative to air conditioning in the upcoming decades due to the world’s rapidly expanding need for cooling combined with the need to reduce carbon dioxide emissions. The current research and development efforts are yielding promising results for the fifth generation of this technology. Meanwhile, the study validates the enormous potential of operational optimization with contemporary artificial intelligence tools. This paper paves the way for future research by showing how the operation of a large-scale district cooling plant can be solved for energy saving.
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区域冷却系统运行优化中的真实编码遗传算法:感知适用性评估和节电评价
区域冷却系统正逐步成为智慧城市的标准配置。这归功于其固有的低运行成本和高能源效率的特点。鉴于全球能源价格不断上涨,以及第 28 届缔约方大会提出的减排目标,区域冷却系统技术在这方面大有可为。现有的各种研究主要侧重于系统的设计阶段优化,而过程中的运行优化仍处于初级阶段。本文针对冷却水系统提出了一种基于模型的元启发式优化方法,旨在利用真实编码遗传算法制定一种感知控制策略,以探索和利用节能潜力。该算法在 MATLAB 中实现,用于搜索实时场景中的高性能设置。结果表明,与监督控制相比,研究中的 6 个案例可实现 9.66% 至 26.54% 的节能。由于全球对冷却的需求迅速增长,同时需要减少二氧化碳的排放,预计在未来几十年内,区域冷却技术作为最可持续的空调替代技术将获得更多的信任。目前的研发工作正在为第五代区域供冷技术带来可喜的成果。同时,这项研究还验证了利用当代人工智能工具进行运行优化的巨大潜力。本文通过展示如何解决大型区域冷却厂的运行问题以实现节能,为未来的研究铺平了道路。
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