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高速列车车载光伏-储能系统集成:基于IGWO-WOA算法的经济-环境优化
Onboard photovoltaic-energy storage system integration in high-speed trains: Economic-environmental optimization via IGWO-WOA algorithm
| 作者 | Wei-na Zhang · Zhe Xua · Ying-Yi Hongb · Zhong-Qin Bia |
| 期刊 | Applied Energy |
| 出版日期 | 2025年1月 |
| 卷/期 | 第 400 卷 |
| 技术分类 | 储能系统技术 |
| 技术标签 | 储能系统 |
| 相关度评分 | ★★★★★ 5.0 / 5.0 |
| 关键词 | Integrated PV & ESS for High-Speed Railways: This study introduces an integrated optimization plan incorporating photovoltaic systems and energy storage systems to reduce grid electricity consumption energy costs and carbon emissions in China’s high-speed railway network. |
语言:
中文摘要
摘要 随着“双碳”目标的推进,中国正致力于向绿色低碳发展的能源转型。高速铁路作为交通网络的重要组成部分,其能源消耗与碳排放问题日益受到关注。本文提出了一种面向车载能量管理的综合优化框架,该框架集成了车顶光伏系统与车厢一体化储能系统,并将其与牵引供电网络相互联通。为降低电网电能消耗、减少能源成本并削减碳排放,研究分析了不同工况下的负荷需求,并建立了相应的数学模型。选取一条沿线气象条件差异显著的高速铁路线路作为案例进行研究。采用本文提出的IGWO-WOA算法对储能系统的容量及运行功率进行优化,该算法具备平衡的探索-开发策略,能够在初期阶段实现设计空间的有效探索,在后期阶段则加强解空间的精细开发。通过应用本文所提方法,在10年周期内相较于仅依赖牵引电网供电的情形,总成本降低了11.79%,总碳排放量减少了12.7%。本研究为高速铁路电力系统的绿色转型提供了新颖的技术路径,在实现可持续发展目标方面具有重要意义。
English Abstract
Abstract As the “Dual Carbon" goals advance, China pursues energy transition towards green and low-carbon development. High-speed railways, essential to transportation networks, face growing scrutiny regarding energy consumption and carbon emissions. This paper proposes an integrated optimization framework for onboard energy management, featuring roof-mounted Photovoltaic systems and carriage-integrated Energy Storage Systems interconnected with the traction power supply network. In order to reduce grid electricity consumption, lower energy costs, and decrease carbon emissions, the work analyzed the load requirements under various conditions and established a corresponding mathematical model. A high-speed railway line characterized by significant weather differences along its route was selected as a case study. Utilizing the IGWO-WOA algorithm proposed in this paper to optimize the size and operational power of the Energy Storage System, its balanced exploration-exploitation strategy enables initial design-space exploration during early stages followed by intensified solution-space exploitation in later stages. Using the method proposed in this paper, the total cost is reduced by 11.79 % and the total carbon emissions are reduced by 12.7 % over a period of 10 years compared to using only the traction power grid. This study provides a novel technical approach for the green transformation of the high-speed railway power system and plays a significant role in achieving sustainable development.
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SunView 深度解读
该高铁光储集成系统研究对阳光电源车载能源解决方案具有重要启示。论文提出的IGWO-WOA混合优化算法可应用于ST系列储能变流器的容量配置与功率调度优化,实现11.79%成本降低和12.7%碳减排。其探索-开发平衡策略可融入iSolarCloud平台的预测性维护算法,优化光伏逆变器MPPT控制与储能系统协同运行。该场景下的动态负载管理技术可延伸至充电站储能系统,为轨道交通、电动汽车等移动储能应用提供算法支撑,推动PowerTitan等产品在交通领域的绿色化应用。