Design Low-Cost Battery Management System for Low Power Applications of Photovoltaic Systems

Yasser Ethman, Mahmoud Elbastawesy, Mustafa Emad, Islam Younes, Bahaa Ibrahim Al-Hosseny, Omar Matar, Farahat Ahmed, S. Kaddah, Basem M. Badr
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Abstract

One of the most challenging parts of renewable energy is storing energy because of its discontinuity. Batteries are used to store energy, but they need proper care, especially in critical applications that need safety and long-term reliability, so a battery management system (BMS) is required for these features. In this paper, low-cost BMS for Li-ion batteries is designed and developed for low-power applications and Photovoltaic (PV) systems. A literature search of BMS and battery types is conducted and studied to develop a suitable methodology of design low-cost BMS for low-power applications. Two off-the-shelf BMS kits are used and upgraded to develop reliable BMS to meet the application requirements. These kits are simulated, tested, and characterized for system performance, which are cheap and have limitations. The proposed BMS architects are modeled and simulated using MATLAB/SIMULINK, where the simulation models mimic the schemes in the BMS kits and the upgraded methods to improve the performance of the BMS kits. The simulation results illustrate the BMS performance when the SoC (state of charge) and balancing techniques are upgraded and developed in the proposed BMS kits. An embedded kit is used to perform the improvements of the BMS kits, where SoC and voltage recalibration are performed to give accurate values of charge, even if the current sensor has errors in its readings. The simulation and experimental results affirm that low power losses (2W/A), protection features, fast charging time (over 7 minutes to 3.3 V), sharing power source with the load, and balancing the cells (up to 10% of remaining charge) are achieved successfully. The system performance meets the BMS features at low-cost approach, which with respect to the load requirements of the PV systems.
为光伏系统低功耗应用设计低成本电池管理系统
可再生能源最具挑战性的部分之一是储存能量,因为它是不连续性的。电池用于储存能量,但它们需要适当的护理,特别是在需要安全性和长期可靠性的关键应用中,因此需要电池管理系统(BMS)来实现这些功能。本文设计和开发了用于低功耗应用和光伏(PV)系统的低成本锂离子电池BMS。对BMS和电池类型进行了文献检索和研究,以开发适合低功耗应用的低成本BMS设计方法。两个现成的BMS套件被使用和升级,以开发可靠的BMS,以满足应用需求。这些套件是模拟、测试和表征系统性能的,价格便宜,但有局限性。利用MATLAB/SIMULINK对所提出的BMS架构进行了建模和仿真,仿真模型模拟了BMS套件中的方案和升级方法,以提高BMS套件的性能。仿真结果说明了在改进和发展充电状态(SoC)和平衡技术后BMS的性能。嵌入式套件用于执行BMS套件的改进,其中执行SoC和电压重新校准以提供准确的电荷值,即使电流传感器在其读数中存在错误。仿真和实验结果证实,该系统成功地实现了低功耗(2W/A)、保护特性、快速充电时间(超过7分钟至3.3 V)、与负载共享电源和电池平衡(高达剩余电量的10%)。系统性能以低成本的方式满足BMS的特点,这与光伏系统的负载要求有关。
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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