具有电流传感器误差鲁棒性的前馈和NARX神经网络电池充电状态估计

Rômulo Navega Vieira, P. Kollmeyer, Mina Naguib, A. Emadi
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引用次数: 0

摘要

充电状态(SOC)是电池剩余可用电量除以其标称容量,是管理锂离子电池组最重要的参数之一。本文研究了两种基于人工神经网络的SOC估计器:前馈神经网络(FNN)和非线性自回归外生模型(NARX)网络。这些网络接受了特斯拉Model 3电动汽车的电池驱动周期和充电数据的训练和测试。测量温度,以及滤波和未滤波电压和电流的不同组合,被用作模型输入。NARX得益于先前时间步长的SOC作为输入,即使存在显着的电流传感器偏移误差,NARX也比FNN具有更小的误差,这使得NARX无法简单地用作库仑计数器。总的来说,NARX被证明是准确的最困难的高速公路驾驶周期与陡峭的坡度,并对大电流传感器误差稳健。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Feedforward and NARX Neural Network Battery State of Charge Estimation with Robustness to Current Sensor Error
State of charge (SOC), the remaining usable charge of the battery divided by its nominal capacity, is one of the most important parameters for managing Li-ion battery packs. This work investigates two types of artificial neural network-based SOC estimators: a feedforward neural network (FNN) and a nonlinear autoregressive exogenous model (NARX) network. These networks are trained and tested with battery drive cycle and charging data for a Tesla Model 3 electric vehicle. Measured temperature, along with different combinations of filtered and unfiltered voltage and current, are used as model inputs. The NARX, which benefits from having SOC from the prior time step as an input, is shown to have substantially less error than the FNN, even when there is a significant current sensor offset error which prevents the NARX from simply functioning as a coulomb counter. Overall, the NARX is shown to be accurate for the most difficult highway drive cycles with steep grades and to be robust against large current sensor errors.
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