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| Orderly charging strategy for electric vehicles considering charging pile allocation and multi-stakeholder interests |
Wenbin QUAN( ),Haijun XING*( ),Shijie ZHUANG,Jiahao SUN,Qiwei WANG,Huaxin WANG |
| College of Electrical Engineering, Shanghai University of Electric Power, Shanghai 200090, China |
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Abstract An optimized scheduling strategy for orderly charging of electric vehicles (EVs) considering charging pile allocation and the interests of multiple stakeholders was proposed, to address the issues of high charging costs, long waiting times, and adverse impacts on the power grid caused by the limited EV charging infrastructure. By rationally allocating the limited charging pile resources, the interests of users, the power grid, and the charging service providers were reconciled. A probability model and an uncertainty set incorporating user behavior characteristics were constructed, and a vehicle-pile matching and allocation model was established. The charging time constraints were converted into the electricity quantity constraints via a decision-variable transformation to simplify the optimization problem. On this basis, stakeholder-specific indicators evaluation indices were developed, and simulation analysis was conducted on the IEEE 33-bus system under the time-of-use tariff. The results demonstrated that the strategy effectively mitigated the problems arising from the insufficient charging infrastructure, delivering a win-win outcome for users, the grid and operators. The proposed strategy remained robust when the number of charging piles was limited, the user preferences were heterogeneous, or the user exit rate was high (30%), confirming its strong practicality and extensibility.
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Received: 16 May 2025
Published: 23 May 2026
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| Fund: 国家自然科学基金资助项目(52477106). |
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Corresponding Authors:
Haijun XING
E-mail: 2576977192@qq.com;xinghj@shiep.edu.cn
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考虑充电桩分配和多方利益的电动汽车有序充电策略
针对电动汽车充电基础设施不足引发的用户充电成本高、等待时间长以及对电网负荷造成冲击的问题,提出考虑充电桩分配和多方利益的电动汽车有序充电优化调度策略,通过合理分配有限的充电桩资源,协调用户、电网和运营商的利益. 构建包含用户行为特征的概率模型与不确定集,建立车-桩配对分配模型;通过决策变量转换将充电时间约束转化为电量约束,以简化优化问题. 在此基础上,构建各主体利益评价指标,基于分时电价机制,在IEEE 33节点系统上进行仿真分析. 结果表明,该策略能够有效缓解充电基础设施不足引发的问题,达成用户、电网和运营商三方共赢局面,并在充电桩数量受限、用户偏好存在差异或高用户退出率(30%)的场景下仍然具有鲁棒性,说明其具有较强的实用性和扩展性.
关键词:
电动汽车,
有序充电,
车桩分配,
用户满意度,
充电运营商
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