Robot Precision Assembly Combining With Passive and Active Compliant Motions

Precision assembly is one of the primary goals of robots in manufacturing. Assembly strategies combining active and passive compliant control are presented herein. In this article, we construct a high-dimensional configuration space of robot assembly and then divide the configuration space to its su...

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Veröffentlicht in:IEEE transactions on industrial electronics (1982) 2022-08, Vol.69 (8), p.8157-8167
Hauptverfasser: Su, Jianhua, Liu, Chuankai, Li, Rui
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Liu, Chuankai
Li, Rui
description Precision assembly is one of the primary goals of robots in manufacturing. Assembly strategies combining active and passive compliant control are presented herein. In this article, we construct a high-dimensional configuration space of robot assembly and then divide the configuration space to its subspaces. We further map the active compliant motion and the passive compliant motion of the manipulator into different subspaces. In one subspace, we construct the constraint function and design the passive compliant motion of the manipulator in the constraint region, where the uncertainties of the system should be eliminated by the environment constraints. In another subspace, we design a force controller based on the low-resolution force sensory information to control the position of the robot. The proposed method avoids the design of precision mechanism systems and the usage of high-quality sensors. Several experiments pertaining to peg-in-hole insertions are conducted to demonstrate the efficiency of the proposed method.
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subjects Active control
Assembly
compliant motion
Configurations
constraint region
Control systems design
Force
force controller
Force feedback
Manipulators
Robot kinematics
Robot sensing systems
Robots
Subspaces
Trajectory
Uncertainty
title Robot Precision Assembly Combining With Passive and Active Compliant Motions
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