全电动汽车用LMO /石墨电池等效电学模型参数及热性能辨识

M. Boutaous, M. Zinet, Eric Mathieu, S. Buathier, S. Xin
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引用次数: 5

摘要

本文研究了50 Ah锂锰氧化物(LMO)/石墨电池的电热行为。该电池被设计为集成在独立的12个电池模块中,全球电池架由几个模块组成。热管理系统的最佳尺寸需要准确的知识和预测与给定操作条件(当前概况)相关的热负荷。它是通过识别单个电池的电热模型参数获得的,使用定制的电台架进行,该电台架能够施加预定义的电流演变,通过串行接口控制。根据这些测量结果,利用Bernardi模型预测了加热功率。然后将识别的电学和热模型参数集成到实际条件下电池热行为的三维有限元瞬态模拟中。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Identification of the equivalent electrical model parameters and thermal properties of a LMO / Graphite battery cell for full electric vehicle
In this work, the electro-thermal behavior of a prismatic 50 Ah Lithium Manganese Oxide (LMO)/ Graphite cell is investigated. This cell is designed to be integrated in independent 12-cell modules, the global battery rack being composed of several modules. Optimal sizing of the thermal management system requires accurate knowledge end prediction of the thermal load associated with given operating conditions (current profile). It was obtained by identifying the electro-thermal model parameters for a single cell, carried out using a custom electrical bench able to impose a predefined current evolution, controllable by serial interface. From these measurements, the heating power is predicted using the Bernardi model. The identified electrical and thermal model parameters are then integrated in a 3D FEM transient simulation of the cell thermal behavior under realistic conditions.
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