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Microscopic Driving Parameters-Based Energy-Saving Effect Analysis under Different Electric Vehicle Penetration

机译:不同电动汽车渗透率下基于微观驾驶参数的节能效果分析

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摘要

Due to the rapid motorization over the recent years, China's transportation sector has been facing an increasing environmental pressure. Compared with gasoline vehicle (GV), electric vehicle (EV) is expected to play an important role in the mitigation of CO_2 and other pollution emissions, and urban air quality improvement, for its zero emission during use and higher energy efficiency. This paper aims to estimate the energy saving efficiency of EV, especially under different EV penetration and road traffic conditions. First, based on the emission and electricity consumption data collected by a light-duty EV and a light duty GV, a set of electricity consumption rate models and gasoline consumption rate models are established. Then, according to the conversion formula of coal equivalent, these models are transformed into coal equivalent consumption models, which make gasoline consumption and electricity consumption comparable. Finally, the relationship between the EV penetration and the reduction of energy consumption is explored based on the simulation undertaken on the North Second Ring Road in Beijing. The results show that the coal equivalent consumption will decrease by about 5% with the increases of EV penetration by 10% and the maximum energy-saving effect can be achieved when the traffic volume is about 4000 pcu/h.
机译:由于近年来的快速机动化,中国的交通运输部门面临着越来越大的环境压力。与汽油车(GV)相比,电动车(EV)因其在使用过程中的零排放和更高的能效,有望在减少CO_2和其他污染排放以及改善城市空气质量方面发挥重要作用。本文旨在评估电动汽车的节能效率,尤其是在不同电动汽车渗透率和道路交通条件下。首先,根据轻型电动汽车和轻型电动汽车收集的排放和电力消耗数据,建立一套电力消耗率模型和汽油消耗率模型。然后,根据煤当量的转换公式,将这些模型转换为煤当量消耗模型,从而使汽油消耗和电力消耗具有可比性。最后,基于在北京北二环进行的模拟,探索了电动汽车普及率与能耗降低之间的关系。结果表明,当电动车普及率提高10%时,煤炭当量消耗将减少5%左右,当流量约为4000 pcu / h时,可以达到最大的节能效果。

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