Optimal scheduling of clean energy storage and charging integrated system by fusing DE algorithm and kernel search algorithm

Q2 Energy
Xinhua Wang, Yujie Jia, Hao Su, Hua Dang, Songfu Lu
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引用次数: 0

Abstract

In the context of rapid developments in artificial intelligence and the clean energy industry, the optimal scheduling of clean energy storage and charging systems has become increasingly prominent. This study proposes an optimal scheduling method that integrates Differential Evolution (DE) and Kernel Search Optimization (KSO) algorithms. By incorporating DE’s mutation, crossover, and selection operations into the KSO framework, the method effectively avoids local optima while retaining KSO’s advantages in handling complex structures and large-scale data. Experimental results demonstrate that the convergence speed of the fusion algorithm is improved by 34.2%, 30.8%, 28.6%, and 23.4% over four other algorithms for hybrid functions, and by 56.7%, 52.9%, 25.3%, and 21.4% for combined functions. Additionally, the utilization of renewable energy increased from 40% to nearly 70% within 24 h. It can be seen that the convergence speed and renewable energy utilization of the fusion algorithm are significantly improved compared with the four baseline methods, highlighting its effectiveness in large-scale clean energy systems. This research provides an effective scheduling strategy for optimizing clean energy storage and charging systems. This study provides an effective scheduling strategy for optimizing clean energy storage and charging systems, and supports scalable and efficient energy management of urban and rural energy grids. The results show that the optimization of the integrated charging system can not only achieve optimal scheduling in a shorter time, but also reduce operating costs and resource waste, and effectively improve the overall operating efficiency of the energy system. Research to promote the efficient use of renewable energy will help reduce dependence on fossil fuels, thereby reducing greenhouse gas emissions and environmental pollution, which will have a positive impact on achieving the Sustainable Development goals and addressing climate change, and promote a win-win situation for the economy and the environment.

融合 DE 算法和内核搜索算法的清洁能源储充一体化系统优化调度方法
在人工智能和清洁能源产业快速发展的背景下,清洁储能和充电系统的优化调度问题日益突出。本研究提出一种结合差分进化(DE)与核搜索优化(KSO)的最优调度方法。该方法将遗传算法的突变、交叉和选择操作融入到KSO框架中,在保留KSO处理复杂结构和大规模数据的优势的同时,有效地避免了局部最优。实验结果表明,对于混合函数,该融合算法的收敛速度比其他4种算法分别提高了34.2%、30.8%、28.6%和23.4%;对于组合函数,该融合算法的收敛速度分别提高了56.7%、52.9%、25.3%和21.4%。此外,可再生能源利用率在24 h内从40%提高到近70%。可以看出,与四种基线方法相比,融合算法的收敛速度和可再生能源利用率均有显著提高,突出了其在大规模清洁能源系统中的有效性。该研究为优化清洁能源存储和充电系统提供了一种有效的调度策略。该研究为优化清洁能源存储和充电系统提供了有效的调度策略,为城乡电网的可扩展和高效能源管理提供了支持。结果表明,综合充电系统的优化不仅可以在更短的时间内实现最优调度,还可以降低运行成本和资源浪费,有效提高能源系统的整体运行效率。促进可再生能源高效利用的研究将有助于减少对化石燃料的依赖,从而减少温室气体排放和环境污染,这将对实现可持续发展目标和应对气候变化产生积极影响,促进经济和环境的双赢。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Energy Informatics
Energy Informatics Computer Science-Computer Networks and Communications
CiteScore
5.50
自引率
0.00%
发文量
34
审稿时长
5 weeks
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