DocumentCode :
1724479
Title :
Design of humanoid body trunk with “multiple spine structure” and “planar-muscle-driven” system for achievement of humanlike powerful and lithe motion
Author :
Osada, Masahiko ; Mizoguchi, Hironori ; Asano, Yuki ; Kozuki, Toyotaka ; Urata, Junichi ; Nakanishi, Yuto ; Okada, Kei ; Inaba, Masayuki
Author_Institution :
Dept. of Mechano-Inf., Univ. of Tokyo, Tokyo, Japan
fYear :
2011
Firstpage :
2217
Lastpage :
2222
Abstract :
In recent years, humanlike robots have recieved a lot of attension. For making humanlike robots, a muscu-loskeletal humanoid is an effective approach. However, many musculoskeletal humanoids have not yet been equipped with really humanlike bones and muscles, especially for the body trunk, which is the core of the robot. For making a powerful and lithe humanoid body trunk with really humanlike bones and muscles, we think an enhanced “planar-muscle-driven” system and “multiple spine” structure were keys. Planar-muscle-driven systems move several wires simultaneously by using two moving-pulley bars per motor, while the prior linear-muscle-driven system moved only one wire per motor. Using the planar-muscle-driven system, we were able to simplify prior complex composition and control systems. On the other hand, we proposed a multiple spine structure, which has an S-curve alignment like the human spine. In human, the S-curve is important for upper body stability while walking and shock relaxation of heavy human head. This paper describes the “planar muscle” unit and the “multiple spine” structures, and then the body trunk containing both elements. Using the model, we performed experiments to show the efficacy of those elements.
Keywords :
design engineering; humanoid robots; legged locomotion; robot dynamics; S-curve alignment; body stability; design; humanlike bones; humanlike muscles; humanlike powerful; humanlike robots; humanoid body trunk; lithe motion; moving-pulley bars; multiple spine structure; musculoskeletal humanoid robots; planar-muscle-driven system; shock relaxation; walking robots; Bones; Humans; Muscles; Robots; Springs; Wires;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Robotics and Biomimetics (ROBIO), 2011 IEEE International Conference on
Conference_Location :
Karon Beach, Phuket
Print_ISBN :
978-1-4577-2136-6
Type :
conf
DOI :
10.1109/ROBIO.2011.6181621
Filename :
6181621
Link To Document :
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