A. Bolovinou, I. Bakas, A. Amditis, F. Mastrandrea, Walter Vinciotti
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引用次数: 45
摘要
给定一辆全电动汽车(Full Electric Vehicle, FEV)在一段指定路段的纵向平均速度和能量消耗,本工作解决了在线剩余里程估计问题,即预测在距离行程开始的任何给定行驶距离下,车辆在需要充电前还能行驶的实际距离。对剩余里程进行建模与对电动汽车的能源消耗进行建模密切相关。后者仍然是一个悬而未决的问题,因为未知的上下文数据可能适用,如行驶速度,车辆负载和地形特征。在这项工作中,制定了一个回归模型,以便从时间/地点变化的实际驾驶数据中学习未来能源消耗与以下相关因素之间的关系,这些因素被认为是已知的,另一方面:i)未来和过去之间的平均速度差异ii)未来和过去之间的高程率差异iii)最近过去的能源消耗。在大约2000公里的放电行程中,实验结果证明了该方法比仅基于历史能源使用证据的传统方法的有效性。在无海拔训练和有海拔训练的模型上对回归模型进行评估,平均绝对误差为1.64 km,平均绝对误差为1.95 km。
Online prediction of an electric vehicle remaining range based on regression analysis
Given the longitudinal average velocity and energy consumption of a Full Electric Vehicle (FEV) for any given part of a targeted road trip, this work solves the problem of online remaining range estimation, i.e., predicting, at any given travelled distance from the beginning of the trip, the actual distance the vehicle can still be driven before recharging is required. Modelling the remaining range is closely related with modelling the energy consumption of an electric vehicle. The latter remains an open problem due to unknown context data that may apply such as driving trip speed, vehicle load and topographical characteristics. In this work, a regression model is formulated in order to learn, from time/location-variant real driving data, a relationship between the future energy consumption on one side, and the following related factors, which are considered known, on the other side: i) the difference in average velocity between the future and the past ii) the difference in elevation rate between the future and the past and iii) the recent past energy consumption. Experimental results on around 2000km of discharge trips, demonstrate the effectiveness of the method over a conventional method that is based solely on historic energy usage evidence. An average Mean Absolute Error (MAE) of 1.64 km and of 1.95 km is obtained when the regression model is evaluated on a model trained without and with elevation respectively.