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A Study on Real Time Control of Moving Stuff Action Through Iterative Learning for Mobile-Manipulator System

  • Received : 2019.02.22
  • Accepted : 2019.06.05
  • Published : 2019.07.31

Abstract

This study proposes a new approach to control Moving Stuff Action Through Iterative Learning robot with dual arm for smart factory. When robot moves object with dual arm, not only position of each hand but also contact force at surface of an object should be considered. However, it is not easy to determine every parameters for planning trajectory of the an object and grasping object concerning about variety compliant environment. On the other hand, human knows how to move an object gracefully by using eyes and feel of hands which means that robot could learn position and force from human demonstration so that robot can use learned task at variety case. This paper suggest a way how to learn dynamic equation which concern about both of position and path.

Keywords

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Fig. 1 Modeling of 5-DOF robot

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Fig. 2 Structure of 5-DOF Dual-arm robot

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Fig. 3 The basic structure of controller

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Fig. 4 Force and path in manipulating both hands

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Fig. 5 Coordinate of Coordinate of dual-arm for handling of objects

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Fig. 6 Name of each joint

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Fig. 7 Manipulability ellipsoid in xy, xz, yz dimension for box

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Fig. 8 Manipulability ellipsoid in xy, xz, yz dimension for ball

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Fig. 9 Experimental result graph of learning control

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Fig. 10 Learning scene of dual-arm robot

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Fig. 11 Experimental results of learning control

Table 1. D-H parameter table(1)

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References

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