基于微型毫米波雷达的非接触式锂聚合物电池容量传感与边缘人工智能

Di An, Yangquan Chen
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引用次数: 2

摘要

众所周知,任何锂聚合物(Li-Po)可充电电池的剩余容量都很难实时准确地知道。电池管理系统(BMS)用于精确监控电池健康状况,包括充电状态(SOC)和剩余容量。但是,BMS通常受到其尺寸,功耗和兼容性的限制,这可能会对电池供电的任务产生负面影响,例如长途无人机飞行。因此,在本研究中,我们提出了一种使用微型毫米波雷达阵列实时检测锂离子电池容量的新方法。我们利用从真实电池放电负载电路实验中收集的标记数据,用分类器算法评估了我们的非接触式电池容量感知方法。根据结果,我们的技术在8种不同的电池容量水平下实现了98.8%的分类准确率。机器学习算法计算量轻,易于在树莓派等边缘计算平台上实现。这项工作证实,实时感知锂电池的剩余容量是可行的,这可以导致一个容量感知的认知电池管理系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Miniature Millimeter-Wave Radar Based Contactless Lithium Polymer Battery Capacity Sensing with Edge Artificial Intelligence
It is widely known that the remaining capacity of any lithium polymer (Li-Po) rechargeable battery is hard to know precisely in real time. Battery management systems (BMS) are used to precisely monitor battery health including state of charge (SOC) and the remaining capacity. But, BMS is usually limited by its size, power consumption, and compatibility, which could potentially have a negative impact on the battery powered mission such as long distance drone flights. Therefore, in this study, we present a new approach for (Li-Po) battery capacity sensing using a miniature millimeter Wave radar array in real-time. We assessed our contactless battery capacity sensing method with a classifier algorithm using labeled data collected from real battery discharging load circuit experiments. According to the results, our technique achieved 98.8% classification accuracy across eight different battery capacity levels. The machine learning algorithm is computationally light and easily implementable on edge computing platforms such as the Raspberry Pi. This work confirms that it is feasible to sense the real-time remaining capacity of Li-Po batteries that can lead to a capacity-aware cognitive battery management system.
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