Reaction Rod Link in Rear Cab Suspension to Control Cab Dynamics in Tractor-Semitrailer Vehicles

IF 0.6 Q4 TRANSPORTATION SCIENCE & TECHNOLOGY SAE International Journal of Commercial Vehicles Pub Date : 2023-05-24 DOI:10.4271/02-16-04-0024
Sindhoor Bhat
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Abstract

Articulated vehicles form an important part of our society for the transport of goods. Compared to rigid trucks, tractor-trailer combinations can transport huge quantities of load without increasing the axle load. The fifth wheel (FW) acts as a bridge between the tractor and trailer, which can be moved within the range to achieve rated front and rear axle loads. When the FW is moved front, it adversely affects the cab dynamics and cab suspension forces. Compared to the cab pitch and roll, yaw motion increases drastically. The current study tries to address this issue by providing reaction rod links in the rear cab suspension. In this study, a 4×2 tractor with a three-axle semitrailer is considered by keeping the FW at its frontmost position, which is the worst-case scenario for a cab. Three different cases of reaction rod arrangement and its influence on cab dynamics are studied in comparison with a model without reaction rods. To assess this, time signal–based relative pseudo-fatigue damage, power spectral density (PSD), and level crossing plots are analyzed. The outcome shows that cab pitch, roll, and yaw motion reduce by a considerable amount with the presence of a reaction rod. Cab suspension forces will also reduce. The horizontal V-inclination of the reaction rod plays a major role in improving cab yaw motion and reducing the lateral forces. A straight link without any inclination helps in reducing the pitch and roll motion of the cab.
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牵引半挂汽车驾驶室后悬架中的反作用连杆控制驾驶室动力学
铰接式车辆是我们社会货物运输的重要组成部分。与刚性卡车相比,牵引拖车组合可以在不增加轴重的情况下运输大量负载。牵引座(FW)充当拖拉机和拖车之间的桥梁,拖车可以在一定范围内移动,以实现额定的前轴和后轴负载。当FW向前移动时,会对驾驶室动力学和驾驶室悬架力产生不利影响。与驾驶室俯仰和滚转相比,偏航运动大幅增加。目前的研究试图通过在驾驶室后悬架中提供反作用杆连杆来解决这个问题。在本研究中,考虑了一辆带三轴半挂车的4×2拖拉机,将FW保持在其最前面的位置,这是驾驶室的最坏情况。研究了反作用杆布置的三种不同情况及其对驾驶室动力学的影响,并与没有反作用杆的模型进行了比较。为了评估这一点,分析了基于时间信号的相对伪疲劳损伤、功率谱密度(PSD)和水平交叉图。结果表明,在存在反作用杆的情况下,驾驶室的俯仰、侧倾和偏航运动会显著减少。驾驶室悬架力也将减小。反作用杆的水平V形倾斜度在改善驾驶室偏航运动和减少侧向力方面起着重要作用。没有任何倾斜的直连杆有助于减少驾驶室的俯仰和侧倾运动。
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来源期刊
SAE International Journal of Commercial Vehicles
SAE International Journal of Commercial Vehicles TRANSPORTATION SCIENCE & TECHNOLOGY-
CiteScore
1.80
自引率
0.00%
发文量
25
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