Driving behavior modeling and estimation for battery optimization in electric vehicles: work-in-progress

K. Vatanparvar, Sina Faezi, Igor Burago, M. Levorato, M. A. Faruque
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引用次数: 5

Abstract

Battery and energy management methodologies such as automotive climate controls have been proposed to address the design challenges of driving range and battery lifetime in Electric Vehicles (EV). However, driving behavior estimation is a major factor neglected in these methodologies. In this paper, we propose a novel context-aware methodology for estimating the driving behavior in terms of future vehicle speeds that will be integrated into the EV battery optimization. We implement a driving behavior model using a variation of Artificial Neural Networks (ANN) called Nonlinear AutoRegressive model with eXogenous inputs (NARX). We train our novel context-aware NARX model based on historical behavior of real drivers, their recent driving reactions, and the route average speed retrieved from Google Maps in order to enable driver-specific and self-adaptive driving behavior modeling and long-term estimation. Our methodology shows only 12% error for up to 30-second speed prediction which is improved by 27% compared to the state-of-the-art. Hence, it can achieve up to 82% of the maximum energy saving and battery lifetime improvement possible by the ideal methodology where the future vehicle speed is known.
电动汽车电池优化的驾驶行为建模与估计:正在进行中
电池和能源管理方法(如汽车气候控制)已被提出,以解决电动汽车(EV)行驶里程和电池寿命的设计挑战。然而,驾驶行为估计是这些方法中被忽视的一个主要因素。在本文中,我们提出了一种新的上下文感知方法,用于根据未来车辆速度估计驾驶行为,该方法将集成到电动汽车电池优化中。我们使用人工神经网络(ANN)的一种变体实现了一个驾驶行为模型,称为带有外生输入的非线性自回归模型(NARX)。我们基于真实驾驶员的历史行为、他们最近的驾驶反应以及从谷歌地图中检索到的路线平均速度来训练我们的新颖的上下文感知NARX模型,以便实现驾驶员特定的和自适应的驾驶行为建模和长期估计。我们的方法显示,在长达30秒的速度预测中只有12%的误差,与最先进的方法相比,这一误差提高了27%。因此,在已知未来车辆速度的理想方法下,它可以实现高达82%的最大节能和电池寿命改善。
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