• DocumentCode
    2133445
  • Title

    Connection design for motion control system

  • Author

    Morisawa, Mitsuharu ; Ohnishi, Kouhei

  • Author_Institution
    Dept. of Syst. Design Eng., Keio Univ., Japan
  • fYear
    2002
  • fDate
    2002
  • Firstpage
    28
  • Lastpage
    33
  • Abstract
    Up to now, much effort has been concentrated on the control of a single control of motion system. However future machine or robots will be spread out in our society and they will make their motion in an open environment. Since such an environment has a lot of modes, a design methodology of a motion controller for such a motion system is required. At first, the paper shows a novel viewpoint to abstract the modes from the environment. Two examples of an abstraction using a Hadamard matrix are shown. One is a friction free drive and the other is a control of a paddle foot. Modal transmission from the environment to the final motion should change adoptively according to the situation. If the system becomes complex, it is necessary to design the variable network from the modes to the motion via motion controllers. The paper secondarily shows a methodology to design the network of the motion system based on the hard real-time manner. The connection matrix and reachable matrix are used for the design of a variable network. Thirdly, since the total performance of the motion system depends on the performance of a single motion controller, a design method for the robust control with the feedforward loop is proposed. There are numerical and experimental examples in the paper. They show the viability of novel approach to the complex motion.
  • Keywords
    Hadamard matrices; control system synthesis; feedforward; legged locomotion; machine control; motion control; motor drives; robust control; Hadamard matrix; connection design; design methodology; feedforward loop; friction-free drive; motion control system; motion controller; motion controllers; paddle foot control; reachable matrix; Control systems; Design engineering; Design methodology; Foot; Friction; Humanoid robots; Motion control; Orbital robotics; Robust control; Service robots;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Advanced Motion Control, 2002. 7th International Workshop on
  • Print_ISBN
    0-7803-7479-7
  • Type

    conf

  • DOI
    10.1109/AMC.2002.1026886
  • Filename
    1026886