Chassis concept of the individually steerable five-link suspension: a novel approach to maximize the road wheel angle to improve vehicle agility

Thomas Schmitz
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Abstract

The Institute of Vehicle Systems Engineering at Ulm University of Applied Sciences is currently developing the autonomous concept vehicle Nimbulus-e in the strategic field “Intelligent Commercial Vehicles” with the aim of maneuvering as agilely as possible in confined spaces. To achieve high agility under the conditions mentioned, large road wheel steering angles are necessary. As part of the basic vehicle concept, the first step is to select a suitable chassis for this purpose. Conventional suspensions cannot be applied due to the mechanical connection of the tie rod to the steering knuckle limiting the road wheel angles. Therefore, the approaches published so far for individual chassis concepts with large steering angles are analyzed and evaluated for use. In this paper, the concept of a novel individually steerable five-link suspension is described. The concept includes a vehicle body mounted steering actuator connected to the chassis via a self-locking worm gear. Due to the body mounted connection of the steering actuator, it does not contribute to the unsprung mass. An analysis of the kinematic and elastokinematic properties and the achievable road wheel steering angle is presented. In the Nimbulus e concept vehicle, the individually steerable corner module is used on both the front and the rear axle. The system is driven by four wheel hub motors. This means that eight control variables are available for the vehicle.

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可单独转向的五连杆悬架的底盘概念:最大化路轮角度以提高车辆灵活性的新方法
乌尔姆应用科学大学车辆系统工程研究所目前正在 "智能商用车 "战略领域开发自主概念车 Nimbulus-e,目的是在狭窄空间内尽可能灵活地行驶。要在上述条件下实现高灵活性,就必须有较大的车轮转向角。作为车辆基本概念的一部分,第一步是为此选择合适的底盘。由于拉杆与转向节的机械连接限制了车轮角度,因此无法采用传统的悬挂系统。因此,本文分析并评估了迄今为止已发布的具有大转向角的单个底盘概念的使用方法。本文介绍了新型可单独转向五连杆悬架的概念。该概念包括一个安装在车身的转向执行器,通过一个自锁蜗轮与底盘相连。由于转向执行器安装在车体上,因此不会产生簧下质量。本文对运动学和弹性运动学特性以及可实现的路轮转向角进行了分析。在 Nimbulus e 概念车中,前轴和后轴都使用了可单独转向的转角模块。该系统由四个轮毂电机驱动。这意味着车辆可使用八个控制变量。
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