• DocumentCode
    574321
  • Title

    Evaluation of a customizable haptic feedback system for ground vehicle steer-by-wire interfaces

  • Author

    Mandhata, U.B. ; Jensen, M.J. ; Wagner, John R. ; Switzer, F.S. ; Dawson, D.M. ; Summers, J.D.

  • Author_Institution
    Mathworks, Natick, MA, USA
  • fYear
    2012
  • fDate
    27-29 June 2012
  • Firstpage
    2781
  • Lastpage
    2787
  • Abstract
    Advancements in mechatronic system technology has allowed the realization of adjustable automotive steering systems which can better meet customer preferences. Drive-by-wire systems use servo-motors, with accompanying sensors and control algorithms, to regulate the vehicle´s operation. In this paper, a multi-modal human-vehicle haptic interface has been developed for ground vehicle steer-by-wire systems. The mathematical model and control structure offer tunable gains that allow the emphasis of different feedback factors including steering stiffness, damping, power assist, aligning torques, end stop, and static friction. Three steering system factors were assessed: control and confidence, ease of use, and perceived vehicle safety. As measured, driver performance improved with the provision of aligning torque plus stiffness and damping effects. Subjective and objective operator-in-the-loop results demonstrated that the driver experience can be positively impacted using a reconfigurable force feedback formulation.
  • Keywords
    automotive components; automotive engineering; control engineering computing; elasticity; force feedback; haptic interfaces; man-machine systems; mechatronics; road safety; road vehicles; sensors; servomotors; steering systems; stiction; torque control; traffic engineering computing; vibration control; wires; aligning torque; automotive steering system; control algorithm; control structure; customer preference; customizable haptic feedback system; damping effect; drive-by-wire system; driver experience; driver performance; end stop; feedback factor; ground vehicle steer-by-wire interface; mathematical model; mechatronic system technology; multimodal human-vehicle haptic interface; operator-in-the-loop; power assist; reconfigurable force feedback formulation; sensor; servo-motor; static friction; steering stiffness; tunable gain; vehicle operation; vehicle safety; Haptic interfaces; Mathematical model; Roads; Steering systems; Torque; Vehicles; Wheels;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    American Control Conference (ACC), 2012
  • Conference_Location
    Montreal, QC
  • ISSN
    0743-1619
  • Print_ISBN
    978-1-4577-1095-7
  • Electronic_ISBN
    0743-1619
  • Type

    conf

  • DOI
    10.1109/ACC.2012.6314906
  • Filename
    6314906