TY - JOUR
T1 - Gait control of hexapod walking robots using mutual-coupled immune networks
AU - Ishiguro, Akio
AU - Kuboshiki, Satoru
AU - Ichikawa, Shingo
AU - Uchikawa, Yoshiki
N1 - Funding Information:
a grant from Ministry of Education, their generous financial assistance.
PY - 1995
Y1 - 1995
N2 - Biological information processing systems can be said to be one of the ultimate decentralized systems and have been expected to provide various fruitful ideas to engineering fields, especially robotics. Among these systems, brain-nervous and genetic systems have already been widely used in modeling as neural networks and genetic algorithms, respectively. On the other hand, the immune system also plays an important role in coping with a dynamically changing environment by constructing self-non-self recognition networks among different species of antibodies. This system has many interesting features such as learning, self-organizing abilities, etc., viewed from the engineering standpoint. Therefore, it can be expected to provide novel approaches to the PDP paradigm. However, the immune system has not yet been applied to engineering fields. In this paper, we propose a new hypothesis concerning the structure of the immune system, called the mutual-coupled immune networks hypothesis, based on recent studies on immunology. We apply this idea to gait acquisition of a hexapod walking robot as a practical example. Finally, the feasibility of our proposed method is confirmed by simulations.
AB - Biological information processing systems can be said to be one of the ultimate decentralized systems and have been expected to provide various fruitful ideas to engineering fields, especially robotics. Among these systems, brain-nervous and genetic systems have already been widely used in modeling as neural networks and genetic algorithms, respectively. On the other hand, the immune system also plays an important role in coping with a dynamically changing environment by constructing self-non-self recognition networks among different species of antibodies. This system has many interesting features such as learning, self-organizing abilities, etc., viewed from the engineering standpoint. Therefore, it can be expected to provide novel approaches to the PDP paradigm. However, the immune system has not yet been applied to engineering fields. In this paper, we propose a new hypothesis concerning the structure of the immune system, called the mutual-coupled immune networks hypothesis, based on recent studies on immunology. We apply this idea to gait acquisition of a hexapod walking robot as a practical example. Finally, the feasibility of our proposed method is confirmed by simulations.
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U2 - 10.1163/156855396X00309
DO - 10.1163/156855396X00309
M3 - Article
AN - SCOPUS:0029697011
SN - 0169-1864
VL - 10
SP - 179
EP - 195
JO - Advanced Robotics
JF - Advanced Robotics
IS - 2
ER -