Mechanical Description of a Hyper-Redundant Robot Joint Mechanism Used for a Design of a Biomimetic Robotic Fish

Author:

Afolayan M. O.1,Yawas D. S.1,Folayan C. O.1,Aku S. Y.1

Affiliation:

1. Mechanical Engineering Department, Ahmadu Bello University, Samaru, Kaduna, P.O. Box 504, Zaria, Nigeria

Abstract

A biologically inspired robot in the form of fish (mackerel) model using rubber (as the biomimetic material) for its hyper-redundant joint is presented in this paper. Computerized simulation of the most critical part of the model (the peduncle) shows that the rubber joints will be able to take up the stress that will be created. Furthermore, the frequency-induced softening of the rubber used was found to be critical if the joints are going to oscillate at frequency above 25 Hz. The robotic fish was able to attain a speed of 0.985 m/s while the tail beats at a maximum of 1.7 Hz when tested inside water. Furthermore, a minimum turning radius of 0.8 m (approximately 2 times the fish body length) was achieved.

Funder

MacArthur Foundation

Publisher

Hindawi Limited

Subject

General Computer Science,Control and Systems Engineering

Reference34 articles.

1. A Silicon Implementation of the Fly's Optomotor Control System

2. Centre for Visual Sciences, Research School of Biological Sciences, Australian National University,1992

3. An overview of insect-inspired guidance for application in ground and airborne platforms

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