Charging control of lithium-ion battery and energy management system in electric vehicles

Energy Storage Pub Date : 2024-07-14 DOI:10.1002/est2.667
Mali Satya Naga Krishna Konijeti, Bharathi Murugan Lakshmi
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Abstract

In terms of electric vehicle architectures, the drivetrain offers unprecedented freedom, but it also creates new obstacles in terms of achieving all needs. The architecture of electric vehicles is simplified and adjustable at the component level because they don't have a combustion engine or fuel tank, only an electric motor and a battery. Implementing safe zones within electric vehicles (EVs) to accommodate battery packs necessitates significant adjustments to ensure the secure integration of the battery. A Battery EV, also known as a pure EV, solely relies on rechargeable battery packs as its source of energy, without any additional propulsion system. The Battery Management System (BMS) plays a significant role in maintaining the safety of electric vehicles by controlling the electronics of rechargeable batteries, whether they are individual cells or battery packs. The BMS plays crucial role in protecting both the user and the battery by monitoring and maintaining the cell's operation within safe limits. This research paper focuses on the control of solar-powered charging for lithium-ion batteries. An optimized FOPID controller is utilized to maximize power extraction from PV array and efficiently charge the battery. A hybrid optimization model is employed to optimize the gain parameters of the FOPID controller.

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电动汽车中的锂离子电池充电控制和能量管理系统
就电动汽车结构而言,动力传动系统提供了前所未有的自由度,但也为实现所有需求带来了新的障碍。由于电动汽车没有内燃机或油箱,只有电动机和电池,因此其结构在组件层面得到了简化和调整。要在电动汽车(EV)内设置安全区以容纳电池组,就必须进行重大调整,以确保电池的安全集成。电池电动车(也称为纯电动车)完全依靠可充电电池组作为能源,没有任何额外的推进系统。电池管理系统(BMS)通过控制充电电池(无论是单个电池还是电池组)的电子装置,在维护电动汽车安全方面发挥着重要作用。BMS 通过监控和维持电池在安全范围内的运行,在保护用户和电池方面发挥着至关重要的作用。本研究论文的重点是锂离子电池的太阳能充电控制。利用优化的 FOPID 控制器最大限度地从光伏阵列中提取电能,并高效地为电池充电。本文采用混合优化模型来优化 FOPID 控制器的增益参数。
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