Experimental Demonstration of High-Performance Robotic Balancing

This paper presents the first practical demonstration of a recently developed theory of balance control that aims to achieve high performance in the sense of allowing a robot to make large, fast movements while maintaining its balance on a narrow support. This theory includes a simple method of lean...

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Main Authors: Driessen, Josephus J. M., Gkikakis, Antonios E., Featherstone, Roy, Singh, B. Roodra P.
Format: Conference Proceeding
Language:English
Subjects:
Acceleration
Mobile robots
Poles and zeros
Robot kinematics
Robot sensing systems
Wheels
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creator Driessen, Josephus J. M.
Gkikakis, Antonios E.
Featherstone, Roy
Singh, B. Roodra P.
description This paper presents the first practical demonstration of a recently developed theory of balance control that aims to achieve high performance in the sense of allowing a robot to make large, fast movements while maintaining its balance on a narrow support. This theory includes a simple method of leaning in anticipation of future motion commands, which is largely responsible for the high performance. The experiments reported here use a robot acting as a reaction wheel pendulum, and they test only the 2-D version of the theory. The results show that the balance controller's performance in practice closely resembles its theoretical performance. This paper also presents a simple yet accurate balance offset observer that measures the difference between true and estimated balanced configurations.
doi_str_mv 10.1109/ICRA.2019.8794447
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subjects Acceleration
Mobile robots
Poles and zeros
Robot kinematics
Robot sensing systems
Wheels
title Experimental Demonstration of High-Performance Robotic Balancing
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