DocumentCode
759420
Title
Design and Control of an IPMC Wormlike Robot
Author
Arena, Paolo ; Bonomo, Claudia ; Fortuna, Luigi ; Frasca, Mattia ; Graziani, Salvatore
Author_Institution
Dipt. di Ingegneria Elettrica, Univ. Degli Studi di Catania
Volume
36
Issue
5
fYear
2006
Firstpage
1044
Lastpage
1052
Abstract
This paper presents an innovative wormlike robot controlled by cellular neural networks (CNNs) and made of an ionic polymer-metal composite (IPMC) self-actuated skeleton. The IPMC actuators, from which it is made of, are new materials that behave similarly to biological muscles. The idea that inspired the work is the possibility of using IPMCs to design autonomous moving structures. CNNs have already demonstrated their powerfulness as new structures for bio-inspired locomotion generation and control. The control scheme for the proposed IPMC moving structure is based on CNNs. The wormlike robot is totally made of IPMCs, and each actuator has to carry its own weight. All the actuators are connected together without using any other additional part, thereby constituting the robot structure itself. Worm locomotion is performed by bending the actuators sequentially from "tail" to "head", imitating the traveling wave observed in real-world undulatory locomotion. The activation signals are generated by a CNN. In the authors\´ opinion, the proposed strategy represents a promising solution in the field of autonomous and light structures that are capable of reconfiguring and moving in line with spatial-temporal dynamics generated by CNNs
Keywords
biomimetics; cellular neural nets; intelligent actuators; intelligent materials; legged locomotion; motion control; neurocontrollers; robot dynamics; IPMC actuator; IPMC wormlike robot control; IPMC wormlike robot design; autonomous moving structure design; bioinspired locomotion control; bioinspired locomotion generation; cellular neural network; innovative wormlike robot; ionic polymer-metal composite self-actuated skeleton; smart actuator; spatial-temporal dynamics; worm undulatory locomotion; Actuators; Biological materials; Cellular neural networks; Muscles; Polymers; Power generation; Robot control; Signal generators; Skeleton; Tail; Cellular neural networks (CNNs); smart actuators; undulatory locomotion; wormlike robot;
fLanguage
English
Journal_Title
Systems, Man, and Cybernetics, Part B: Cybernetics, IEEE Transactions on
Publisher
ieee
ISSN
1083-4419
Type
jour
DOI
10.1109/TSMCB.2006.873188
Filename
1703647
Link To Document