Manipulation at optimum locations for maximum force transmission with mobile robots under environmental disturbances

Author:

Tugal HarunORCID,Cetin Kamil,Petillot Yvan,Dunnigan Matthew,Erden Mustafa Suphi

Abstract

AbstractRemote manipulation plays a key role for applications in hazardous conditions, yet designing a robust controller enabling safe interaction with unknown environment and under the influence of disturbances is a challenge. In this study, we propose effective control and optimization methods for mobile robotic manipulator systems that can increase effort transmission to a task in desired directions. The vehicle position is optimized by utilizing constrained particle swarm optimization where the objective is to enhance directional manipulability of the robotic arm within the system. A forward dynamic controller is implemented to eliminate undesired excessive motions near singular joint configurations. A reset control algorithm along with an admittance type controller are developed for stable interaction with an unknown object under environmental disturbances. The experimentally validated results show that the proposed method phase out undesired position disturbances and increase the directional manipulability for the required task enabling augmented effort transmission for the task execution.

Funder

engineering and physical sciences research council

Publisher

Springer Science and Business Media LLC

Subject

Artificial Intelligence

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1. Semi-autonomous surface-tracking tasks using omnidirectional mobile manipulators;2024 IEEE International Conference on Robotics and Automation (ICRA);2024-05-13

2. An Optimal Control Formulation of Tool Affordance Applied to Impact Tasks;IEEE Transactions on Robotics;2024

3. Pose optimization for mobile manipulator grasping based on hybrid manipulability;Industrial Robot: the international journal of robotics research and application;2023-11-22

4. Autonomous Multi-Robot Servicing for Spacecraft Operation Extension;2023 IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS);2023-10-01

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