• DocumentCode
    2530869
  • Title

    Control of robotic manipulators by joint acceleration controller

  • Author

    Komada, Satoshi ; Ohnishi, Kouhei

  • Author_Institution
    Dept. of Electr. Eng., Mie Univ., Japan
  • fYear
    1989
  • fDate
    6-10 Nov 1989
  • Firstpage
    623
  • Abstract
    The authors propose a simple and high-performance motion control method for robot manipulators in Cartesian coordinates. It is called the acceleration tracing orientation method (ATOM). In the proposed method, it is necessary that each joint should trace the specified acceleration. A high-performance position controller and a hybrid position/force controller are easily realized by the ATOM. Analyses of the controller reveal that the precise acceleration controller is the key to improving the performance of the ATOM. However, an acceleration controller is almost impossible to realize by using conventional disturbance compensation methods. For example, the inverse dynamics is complicated to calculate and is weak against parameter variations. In contrast to the inverse dynamics, a disturbance observer method is simple and robust against the parameter variations and makes possible a high-performance acceleration controller. Experimental results show the effectiveness of the ATOM
  • Keywords
    acceleration control; position control; robots; ATOM; Cartesian coordinates; acceleration tracing orientation method; disturbance observer method; high-performance motion control method; hybrid position/force controller; inverse dynamics; joint acceleration controller; robot manipulators; Acceleration; Accelerometers; Force control; Life estimation; Manipulator dynamics; Motion control; Robot control; Robot kinematics; Robust control; Service robots;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Industrial Electronics Society, 1989. IECON '89., 15th Annual Conference of IEEE
  • Conference_Location
    Philadelphia, PA
  • Type

    conf

  • DOI
    10.1109/IECON.1989.69703
  • Filename
    69703