一种基于SOC与位置双预测的电动汽车时空调度方法

By adopting a time-based scheduling method for electric vehicles based on dual prediction of SOC and location, and combining user preferences and regional collaborative decision-making, the problems of foresight and personalization in electric vehicle charging scheduling are solved, thereby achieving high efficiency, stability and improved user satisfaction in the charging network.

CN122134059BActive Publication Date: 2026-07-17HEFEI UNIV OF TECH

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
HEFEI UNIV OF TECH
Filing Date
2026-04-30
Publication Date
2026-07-17

AI Technical Summary

Technical Problem

Current electric vehicle charging scheduling lacks foresight, failing to predict future vehicle movement trends and power consumption, potentially leading to charging station saturation. Furthermore, the lack of personalized recommendation strategies results in low charging network operating efficiency and grid impact risks.

Method used

By employing a dual prediction model of SOC and location, combined with user preference mining and regional collaborative decision-making, and through scene identification, dual prediction, clustering and genetic algorithms, personalized charging scheduling for electric vehicles is achieved. A two-layer decision-making framework is constructed and updated in real time to optimize the charging solution.

Benefits of technology

It enhances the foresight and personalization of charging scheduling, avoids charging congestion, balances the utilization of charging resources, and ensures grid stability and user experience.

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Abstract

本发明公开了一种基于SOC与位置双预测的电动汽车时空调度方法,属于商业数据处理与智能交通系统技术领域。该方法采集多源数据并对车辆进行固定或移动场景辨识;随后执行双预测机制:利用LSTM预测SOC变化趋势,利用SARIMA预测时空位置,并通过聚类算法预测区域充电量以动态计算区域饱和阈值。同时,采用基于遗传算法的全局与个体两级优化机制,深度挖掘用户对距离和时间的个性化偏好参数。最后构建环境层与决策单元层双层协同框架,结合预测数据、偏好参数计算调度成本,并在动态饱和阈值约束下进行冲突消解,辅以滚动优化机制实时修正决策。本发明实现了前瞻性、个性化与全局均衡的充电资源调度,有效缓解局部拥堵,显著提升了充电效率与用户满意度。
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