电池热管理的自适应温度监测

I. Arasaratnam, J. Tjong, R. Ahmed, M. El-Sayed, S. Habibi
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引用次数: 14

摘要

电池热管理对于避免短路和热失控造成的灾难性后果至关重要。在高充放电速率下,电池内部温度(核心温度)高于外部温度(表皮温度)。虽然皮肤温度是可测量的,但核心温度是不可测量的。在本文中,考虑了一个集总热模型来估计核心温度从皮肤温度读数。为了考虑电池老化过程中热模型参数的不确定性,推导了一种自适应闭环估计算法——自适应波特滤波器。最后,进行了计算机仿真,验证了自适应波特滤波器在高充放电电流脉冲和模型不匹配情况下跟踪皮肤和核心温度的能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Adaptive temperature monitoring for battery thermal management
Battery thermal management is crucial for avoiding disastrous consequences due to short circuits and thermal runaway. The temperature inside a battery (core temperature) is higher than the temperature outside (skin temperature) under high discharge/charge rates. Although the skin temperature is measurable, the core temperature is not. In this paper, a lumped thermal model is considered to estimate the core temperature from skin temperature readings. To take into account uncertainties in thermal model parameters, which are bound to occur as the battery ages, an adaptive closed-loop estimation algorithm called the adaptive Potter filter is derived. Finally, computer simulations are performed to validate the adaptive Potter filter's ability to track the skin and core temperatures under high charge/discharge current pulses and model mismatches.
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