• DocumentCode
    1947704
  • Title

    Decoupled haptic transmission by multilateral control

  • Author

    Suzuyama, Toshiyuki ; Katsura, Seiichiro ; Ohishi, Kiyoshi

  • Author_Institution
    Dept. of Electr. Eng., Nagaoka Univ. of Technol., Niigata
  • fYear
    0
  • fDate
    0-0 0
  • Firstpage
    334
  • Lastpage
    339
  • Abstract
    In this paper, a noble bilateral control method is introduced to realize decoupled haptic transmission technology. At first, bilateral system based on acceleration control is discussed. Acceleration control is accomplished by disturbance observer. Both of master and slave are controlled by position regulator and force servoing, and these two controllers are decomposed into two modes "common mode" and "differential mode" in the virtual space. Decomposed controller helps to control position and force information individually. Second, the bilateral control is extended and generalized as a multilateral control, which based on the decomposed controller. In the proposed multilateral control, interactivity and synchronism are achieved easier than conventional control. Third, to realize decoupled haptic information, IR (identity ratio) is introduced into differential mode. IR shows ratio of each input in the common mode. Although slave robot is controlled by a numbers of masters, each of masters can feel the real environment by using IR. Fourth, numerical simulation and experimental results are shown. Proposed method is easy to expand to infinite dimension. As a minimum dimension of the multilateral control, the series of experiments are conducted by three robots. The numerical simulation and experimental results shows the viability of the proposed method
  • Keywords
    acceleration control; force control; position control; robots; acceleration control; decoupled haptic transmission; disturbance observer; force control; force servoing; identity ratio; multilateral control; position regulator; Acceleration; Control systems; Force control; Haptic interfaces; Impedance; Master-slave; Numerical simulation; Regulators; Robots; Space technology;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Advanced Motion Control, 2006. 9th IEEE International Workshop on
  • Conference_Location
    Istanbul
  • Print_ISBN
    0-7803-9511-1
  • Type

    conf

  • DOI
    10.1109/AMC.2006.1631680
  • Filename
    1631680