面向大电流应用的锂离子电池扩展单粒子模型

Paulo Kemper, Dongsuk Kum
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引用次数: 25

摘要

单粒子模型(SPM)通常仅限于低电流,这严重限制了这种模型在汽车电池管理系统中的应用。本研究发展了一种基于物理学的常微分方程(ODE)模型,称为扩展单粒子模型(ESPM)。为了保持ODE模型的物理意义,采用体积平均法将第一原理电化学偏微分方程(PDE)模型直接转化为ODE模型。仿真结果表明,与标准SPM模型相比,该模型在不同电流输入水平下的精度提高了至少14%,而计算时间仅略有增加。该模型为进一步改进高物理意义、低计算负担的大电流电化学ODE模型奠定了基础。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Extended Single Particle Model of Li-Ion Batteries Towards High Current Applications
Single particle models (SPM) are usually limited to low currents, which is a serious constrain for the usage of such models into vehicular battery management systems. The present study develops a physics-based ordinary differential equation (ODE) model, which is called extended single particle model (ESPM). In order to maintain the physical significance of the ODE model, a first-principle electrochemical partial differential equations (PDE) model is directly converted into an ODE model using volume-average method. The simulation results show that the ESPM model achieves an accuracy improvement of at least 14% when compared to the standard SPM for various levels of current inputs with only slight increase in computation time. The developed model paves the way for further improvements towards high-current, electrochemical ODE models with high physical significance and low computation burden.
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