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A Cognitive Advanced Driver Assistance Systems Architecture for Autonomous-Capable Electrified Vehicles

机译:具有自动驾驶能力的电动车辆的认知高级驾驶员辅助系统架构

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Autonomous vehicle industry is making rapid progress in the development of commercial vehicles with higher levels of autonomy. Although the general advanced driver assistance system (ADAS) architecture is widely discussed, limited details are available about the functionality of the modules and their interactions, backed up by scientific justification. This, in turn, limits the utilization of such architecture for pragmatic implementation. A cognitive ADAS architecture for level 4 autonomous-capable electrified vehicles (EVs) is proposed. Variations for levels 3 and 3.5, which are simply seen to be a combination of 3 and 4, with the primary fallback through a human driver and the secondary through an automated driving system, are also presented. A simulation framework is built for highway driving based on the proposed level 4 architecture for an enhanced Tesla Model S. It was concluded that the autonomous control provided a 23% energy economy increase, on average, compared to a human driver control. Through a detailed sensitivity analysis, the optimal mission/motion planning and energy management in addition to the positive impact on the EV battery, motor, and acceleration/deceleration profiles are considered to contribute to this significant increase in the energy economy of an autonomous-controlled EV.
机译:自动驾驶汽车产业在具有更高自主性的商用车的发展中正在迅速发展。尽管已广泛讨论了通用高级驾驶员辅助系统(ADAS)架构,但有关模块的功能及其交互作用的详细信息有限,并得到了科学依据的支持。反过来,这限制了这种体系结构用于实际实现的利用。提出了一种用于4级自动驾驶电动汽车(EV)的认知ADAS体系结构。还介绍了级别3和3.5的变化,这些变化被简单地看作是3和4的组合,主要变化是通过人工驾驶员,辅助结构是通过自动驾驶系统。基于为增强型特斯拉Model S提出的4级架构,为公路驾驶构建了一个仿真框架。得出的结论是,与人工驾驶控制相比,自主控制平均可节省23%的能源。通过详细的灵敏度分析,除了对电动汽车电池,电机和加速/减速曲线的积极影响之外,最佳的任务/运动计划和能量管理也被认为有助于自主控制系统的能源经济性显着提高EV。

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