Active Control of Rear Sub-frame Vibration in Rear and All-Wheel Drive Vehicles

被引:0
|
作者
Deng, J. [1 ]
Kashani, A. R. [1 ]
机构
[1] Univ Dayton, Dayton, OH 45469 USA
来源
PROCEEDINGS OF THE ASME INTERNATIONAL MECHANICAL ENGINEERING CONGRESS AND EXPOSITION, 2016, VOL. 4B | 2017年
关键词
D O I
暂无
中图分类号
TH [机械、仪表工业];
学科分类号
0802 ;
摘要
Feedback control of the rear sub-frame structure is used to abate its gear mesh induced vibration. The goal of the active control is to absorb vibration at a location close to the perturbation source, i.e., the rear differential. Proof mass actuators (PMAs) are used in this active vibration control application. A tuned absorption-based as well as a linear quadratic active vibration control schemes, each with its own advantages and disadvantages, were developed for this application. Following to the synthesis and numerical simulation of the two active vibration control strategies, they were first evaluated on a test structure in the laboratory. Following the laboratory evaluation, one of the active vibration control strategies was implemented on an all-wheel drive vehicle. Two small PMAs, mounted on the rear sub-frame of the vehicle, were used as the active elements in this vibration control application. An accelerometer placed next to each actuator was used as the feedback sensor. The effectiveness of active vibration control in absorbing the shaker induced vibration of the sub-frame was successfully demonstrated. In addition, rolling dynamometer tests showed effective vibration reduction of rear differential induced vibration of the sub-frame. As expected, lowering the sub frame vibration resulted in lower vibration and noise in the cabin.
引用
收藏
页数:10
相关论文
共 50 条
  • [41] Lateral handling improvement with dynamic curvature control for an independent rear wheel drive EV
    Youngjin Jang
    Minyoung Lee
    In-Soo Suh
    Kwanghee Nam
    International Journal of Automotive Technology, 2017, 18 : 505 - 510
  • [42] Rear wheel torque vectoring model predictive control with velocity regulation for electric vehicles
    Siampis, Efstathios
    Velenis, Efstathios
    Longo, Stefano
    VEHICLE SYSTEM DYNAMICS, 2015, 53 (11) : 1555 - 1579
  • [43] Handling Performance for Active Rear-Wheel Steering Vehicle Robust Control
    Cui Zhong-hua
    Hu Ru-fu
    Ye Hong-wu
    2008 IEEE INTERNATIONAL CONFERENCE ON AUTOMATION AND LOGISTICS, VOLS 1-6, 2008, : 191 - +
  • [44] Brake force distributions optimised with regard to energy recovery for electric vehicles with single front-wheel drive or rear-wheel drive
    Spichartz, Philipp
    Sourkounis, Constantinos
    IET ELECTRICAL SYSTEMS IN TRANSPORTATION, 2019, 9 (04) : 186 - 195
  • [45] Reduction of the inner vehicle noise level by active vibration damping of the rear axle drive
    Eulert, S.
    Luehrs, G.
    Braeunig, J.
    Bucht, A.
    Kunze, H.
    GETRIEBE IN FAHRZEUGEN 2011: EFFIZIENZSTEIGERUNG IM ANTRIEB, 2011, 2130 : 477 - 488
  • [46] Backstepping control for lateral guidance of all-wheel steered multiple articulated vehicles
    de Bruin, D.
    Damen, A.A.H.
    Pogromsky, A.
    van den Bosch, P.P.J.
    IEEE Conference on Intelligent Transportation Systems, Proceedings, ITSC, 2000, : 95 - 100
  • [47] Backstepping control for lateral guidance of all-wheel steered multiple articulated vehicles
    de Bruin, D
    Damen, AAH
    Pogromsky, A
    van den Bosch, PPJ
    2000 IEEE INTELLIGENT TRANSPORTATION SYSTEMS PROCEEDINGS, 2000, : 95 - 100
  • [48] Minimum Collision Avoidance Distance Control for Four-wheel-driven Electric Vehicles with Active Front and Rear Steerings
    Sawamura, Daisuke
    Fujimoto, Hiroshi
    2015 IEEE INTERNATIONAL CONFERENCE ON MECHATRONICS (ICM), 2015, : 341 - 346
  • [49] Planning Speed Mode of All-Wheel Drive Autonomous Vehicles Considering Complete Constraint Set
    Diachuk, Maksym
    Easa, Said M.
    VEHICLES, 2024, 6 (01): : 191 - 230
  • [50] Robust adaptative rear wheel steering control system for handling improvement of four-wheel steering vehicles
    Yuhara, N.
    Horiuchi, S.
    Arato, Y.
    Vehicle System Dynamics, 1991, 20 (Suppl) : 666 - 680