Battery-health-aware UAV mission planning using a cognitive battery management system

Di An, Rafal Krzysiak, Derek Hollenbeck, Yangquan Chen
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Abstract

Lithium-ion and Lithium Polymer batteries have been widely used in electric and unmanned aircraft vehicles, enabling many applications and developing a highly commercialized and demanding market. Precisely estimating the battery capacity (State of Charge (SOC)) is still a challenging problem due to many limitations. Prior work assessing battery capacity relies more on the battery’s internal physical model and less on surrounding factors, which makes the accuracy of the estimation of capacity fluctuate under different scenarios. Therefore, we present a cognitive battery management system to empower intelligence in the battery so that it can justify its current capacity and whether it will be enough for the mission and a safe landing. Our system leverages the battery temperature as the essential factor for estimating the capacity during flight. We evaluated our capacity estimation function parameters using the least squares method. Results reveal that battery temperature has a substantial impact on capacity assessment, which perfectly accomplishes the first step toward a cognitive battery management system.
基于认知电池管理系统的电池健康感知无人机任务规划
锂离子电池和锂聚合物电池已广泛应用于电动和无人驾驶飞行器,实现了许多应用,并开发了一个高度商业化和高需求的市场。由于诸多限制,精确估计电池容量(荷电状态(SOC))仍然是一个具有挑战性的问题。以往的电池容量评估工作更多地依赖于电池的内部物理模型,而对周围因素的依赖较少,这使得容量估计的准确性在不同的场景下会出现波动。因此,我们提出了一种认知电池管理系统,赋予电池智能,使其能够判断其当前容量,以及是否足以完成任务和安全着陆。我们的系统利用电池温度作为估计飞行期间容量的基本因素。我们用最小二乘法对容量估计函数参数进行了评估。结果表明,电池温度对容量评估有实质性影响,这完美地完成了认知电池管理系统的第一步。
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