Connected and Automated Vehicles (CAVs) have real-time information from the surrounding environment by using local on-board sensors, V2X (Vehicle-to-Everything) communications, pre-loaded vehicle-specific lookup tables, and map database. CAVs are capable of improving energy efficiency by incorporating these information. In particular, Eco-Cruise and Eco-Lane Selection on highways and/or motorways have immense potential to save energy, because there are generally fewer traffic controllers and the vehicles keep moving in general. In this paper, we present a cooperative and energy-efficient lane-selection strategy named MultiCruise, where each CAV selects one among multiple candidate lanes that allows the most energy-efficient travel. MultiCruise incorporates an Eco-Cruise component to select the most energy-efficient lane. The Eco-Cruise component calculates the driving parameters and prospective energy consumption of the ego vehicle for each candidate lane, and the Eco-Lane Selection component uses these values. As a result, MultiCruise can account for multiple data sources, such as the road curvature and the surrounding vehicles' velocities and accelerations. The eco-autonomous driving strategy, MultiCruise, is tested, designed and verified by using a co-simulation test platform that includes autonomous driving software and realistic road networks to study the performance under realistic driving conditions. Our experimental evaluations show that our eco-autonomous MultiCruise saves up to 8.5% fuel consumption.
翻译:连接和自动化车辆(CAVs)通过使用当地机载传感器、V2X(车辆对一切)通信、预先装载车辆专用检查表和地图数据库,从周围环境获得实时信息。CAV能够通过纳入这些信息提高能效。特别是,在高速公路和/或高速公路上实施生态节能和生态节能选择,具有巨大的节能潜力,因为交通控制器一般较少,而且车辆一般都在使用这些价值。在本文中,我们提出了一个合作和节能的车道选择战略,名为多Cruise,其中每个CAV在多个候选航道中选择了一条,允许最节能旅行。多CRUIise包含一个生态节能部分来选择最节能的航道。生态节能部分计算了自利车道的驾驶参数和潜在节能消耗量,而生态节能选择部分则使用这些值。结果,多Cruise可以计算多种数据源,例如道路节能和高能驾驶的轨道和多维可操作性能战略。多CLULULULULE 测试了我们设计了生态加速度的循环和加速度测试。