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Dynamic surface control-backstepping based impedance control for 5-DOF flexible joint robots 被引量:5

Dynamic surface control-backstepping based impedance control for 5-DOF flexible joint robots
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摘要 A new impedance controller based on the dynamic surface control-backstepping technique to actualize the anticipant dynamic relationship between the motion of end-effector and the external torques was presented.Comparing with the traditional backstepping method that has "explosion of terms" problem,the new proposed control system is a combination of the dynamic surface control technique and the backstepping.The dynamic surface control(DSC) technique can resolve the "explosion of terms" problem that is caused by differential coefficient calculation in the model,and the problem can bring a complexity that will cause the backstepping method hardly to be applied to the practical application,especially to the multi-joint robot.Finally,the validity of the method was proved in the laboratory environment that was set up on the 5-DOF(degree of freedom) flexible joint robot.Tracking errors of DSC-backstepping impedance control that were 2.0 and 1.5 mm are better than those of backstepping impedance control which were 3.5 and 2.5 mm in directions X,Y in free space,respectively.And the anticipant Cartesian impedance behavior and compliant behavior were achieved successfully as depicted theoretically. A new impedance controller based on the dynamic surface control-backstepping technique to actualize the anticipant dynamic relationship between the motion of end-effector and the external torques was presented. Comparing with the traditional backstepping method that has "explosion of terms" problem, the new proposed control system is a combination of the dynamic surface control technique and the backstepping. The dynamic surface control (DSC) technique can resolve the "explosion of terms" problem that is caused by differential coefficient calculation in the model, and the problem can bring a complexity that will cause the backstepping method hardly to be applied to the practical application, especially to the multi-joint robot. Finally, the validity of the method was proved in the laboratory environment that was set up on the 5-DOF (degree of freedom) flexible joint robot. Tracking errors of DSC-backstepping impedance control that were 2.0 and 1.5 mm are better than those of backstepping impedance control which were 3.5 and 2.5 mm in directions X, Y in free space, respectively. And the anticipant Cartesian impedance behavior and compliant behavior were nchieved successfully as depicted theoretically.
出处 《Journal of Central South University》 SCIE EI CAS 2010年第4期807-815,共9页 中南大学学报(英文版)
基金 Project(2006AA04Z228) supported by the National High-Tech Research and Development Program of China Project(PCSIRT) supported by Program for Changjiang Scholars and Innovative Research Team in University
关键词 多关节机器人 阻抗控制 柔性关节 自由度 逆推 控制系统 实验室环境 动态关系 Cartesian impedance control dynamic surface control backstepping PPSeCo flexible joint robots
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参考文献30

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二级参考文献2

  • 1Dana Kuli?,Elizabeth Croft. Pre-collision safety strategies for human-robot interaction[J] 2007,Autonomous Robots(2):149~164
  • 2Alin Albu-Sch?ffer,Gerd Hirzinger. A globally stable state feedback controller for flexible joint robots[J] 2001,Advanced Robotics(8):799~814

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