Voltage prediction of drone battery reflecting internal temperature

Jiwon Kim, Seunghyeok Jeon, Jaehyun Kim, H. Cha
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Abstract

Drones are commonly used in mission-critical applications, and the accurate estimation of available battery capacity before flight is critical for reliable and efficient mission planning. To this end, the battery voltage should be predicted accurately prior to launching a drone. However, in drone applications, a rise in the battery's internal temperature changes the voltage significantly and leads to challenges in voltage prediction. In this paper, we propose a battery voltage prediction method that takes into account the battery's internal temperature to accurately estimate the available capacity of the drone battery. To this end, we devise a temporal temperature factor (TTF) metric that is calculated by accumulating time series data about the battery's discharge history. We employ a machine learning-based prediction model, reflecting the TTF metric, to achieve high prediction accuracy and low complexity. We validated the accuracy and complexity of our model with extensive evaluation. The results show that the proposed model is accurate with less than 1.5% error and readily operates on resource-constrained embedded devices.
反映内部温度的无人机电池电压预测
无人机通常用于关键任务应用,在飞行前准确估计可用电池容量对于可靠和高效的任务规划至关重要。为此,应该在无人机发射前准确预测电池电压。然而,在无人机应用中,电池内部温度的升高会显著改变电压,并导致电压预测的挑战。本文提出了一种考虑电池内部温度的电池电压预测方法,以准确估计无人机电池的可用容量。为此,我们设计了一个时间温度因子(TTF)度量,该度量通过积累关于电池放电历史的时间序列数据来计算。我们采用基于机器学习的预测模型,反映TTF度量,以实现高预测精度和低复杂性。我们通过广泛的评估验证了模型的准确性和复杂性。结果表明,该模型精度高,误差小于1.5%,易于在资源受限的嵌入式设备上运行。
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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