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Vehicle Powertrain Test Bench Co-Simulation with a Moving Base Simulator Using a Pedal Robot

机译:使用踏板机器人的车辆动力总成试验台与运动基座模拟器的协同仿真

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摘要

To evaluate driver perception of a vehicle powertrain a moving base simulator is a well-established technique. We are connecting the moving base simulator Sim III, at the Swedish National Road and Transport Research Institute with a newly built chassis dynamometer at Vehicular Systems, Linkoping University. The purpose of the effort is to enhance fidelity of moving base simulators by letting drivers experience an actual powertrain. At the same time technicians are given a new tool for evaluating powertrain solutions in a controlled environment. As a first step the vehicle model from the chassis dynamometer system has been implemented in Sim III. Interfacing software was developed and an optical fiber covering the physical distance of 500 m between the facilities is used to connect the systems. Further, a pedal robot has been developed that uses two linear actuators pressing the accelerator and brake pedals. The pedal robot uses feedback loops on accelerator position or brake cylinder pressure and is controlled via an UDP interface. Results from running the complete setup showed expected functionality and we are successful in performing a driving mission based on real road topography data. Vehicle acceleration and general driving feel was perceived as realistic by the test subjects while braking still needs improvements. The pedal robot construction enables use of a large set of cars available on the market and except for mounting the brake pressure sensor the time to switch vehicle is approximately 30 minutes.
机译:为了评估驾驶员对车辆动力总成的感知,移动基座模拟器是一种成熟的技术。我们正在将瑞典国家公路和交通研究所的移动基座模拟器Sim III与林雪平大学车辆系统的新型底盘测功机连接起来。这项工作的目的是通过让驾驶员体验实际的动力传动系统来增强移动基座模拟器的保真度。同时,为技术人员提供了一种用于在受控环境中评估动力总成解决方案的新工具。第一步,已在Sim III中实现了底盘测功机系统的车辆模型。开发了接口软件,并使用覆盖设施之间500 m物理距离的光纤连接系统。此外,已经开发了使用两个线性致动器来踩下加速踏板和制动踏板的踏板机器人。踏板机器人使用油门位置或制动缸压力反馈回路,并通过UDP接口进行控制。运行完整设置的结果显示出预期的功能,并且我们成功地基于实际道路地形数据执行了驾驶任务。测试对象认为车辆加速和总体驾驶感觉是现实的,而制动仍然需要改进。踏板机器人的构造使您可以使用市场上的大量汽车,并且除了安装制动压力传感器以外,切换汽车的时间约为30分钟。

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