Session WedAT1 Pegaso A Wednesday, October 10, 2012 ... - Lirmm
Session WedAT1 Pegaso A Wednesday, October 10, 2012 ... - Lirmm
Session WedAT1 Pegaso A Wednesday, October 10, 2012 ... - Lirmm
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<strong>Session</strong> WedFT4 Fenix 3 <strong>Wednesday</strong>, <strong>October</strong> <strong>10</strong>, <strong>2012</strong>, 16:15–17:30<br />
Mechanism Design for Bio-Inspired Robots<br />
Chair Shigeki Sugano, Waseda Univ.<br />
Co-Chair Pål Liljebäck, SINTEF IKT<br />
16:15–16:30 WedFT4.1<br />
Reconsidering Inter- and Intra-limb Coordination<br />
Mechanisms in Quadruped Locomotion<br />
Takeshi Kano, Dai Owaki, and Akio Ishiguro<br />
Research Institute of Electrical Communication, Tohoku University<br />
Akio Ishiguro<br />
Japan Science and Technology Agency, CREST<br />
• We present an autonomous<br />
decentralized control scheme<br />
for quadruped locomotion<br />
wherein inter- and intra-limb<br />
coordination mechanisms are<br />
well coupled.<br />
• Simulation results show that the<br />
quadruped exhibits transitioning<br />
between walking and running<br />
and the ability to adapt to<br />
changes in body properties.<br />
Time<br />
Hind Fore<br />
(a) ω = 4 (b) ω = 12<br />
Flight<br />
phase<br />
16:45–17:00 WedFT4.3<br />
Harp plucking robotic finger<br />
Delphine Chadefaux, Jean-Loïc Le Carrou, Sylvère Billout and<br />
Laurent Quartier<br />
UPMC Univ Paris 06, UMR CNRS 7190, d'Alembert, Paris, France<br />
Marie-Aude Vitrani<br />
UPMC Univ Paris 06, UMR CNRS 7222, ISIR, Paris, France<br />
• Design of a configurable robotic finger to<br />
pluck harp string<br />
• Various silicone fingertips tested<br />
• Comparison with a real harpist<br />
performance<br />
• Validation through high-speed camera and<br />
vibrational measurements descriptors<br />
Robotic finger enhanced with a<br />
silicone fingertip while plucking a<br />
harp string.<br />
17:15–17:30 WedFT4.5<br />
A Modular and Waterproof Snake Robot Joint<br />
Mechanism with a Novel Force/Torque Sensor<br />
Pål Liljebäck* , **, Øyvind Stavdahl*, Kristin Y. Pettersen*, and<br />
Jan Tommy Gravdahl*<br />
* Dept. of Engineering Cybernetics, Norwegian University of Science and<br />
Technology, Norway<br />
** Dept. of Applied Cybernetics, SINTEF ICT, Norway<br />
• We present a waterproof and<br />
mechanically robust joint module for<br />
a snake robot.<br />
• The module contains a customdesigned<br />
force/torque sensor based<br />
on strain gauges.<br />
• The sensor will enable the snake<br />
robot to measure external contact<br />
forces from its environment.<br />
• Experimental results illustrate the<br />
performance of the force/torque<br />
sensor.<br />
16:30–16:45 WedFT4.2<br />
Materials and Mechanisms for<br />
Amorphous Robotic Construction<br />
Nils Napp and Jessica Wu and Radhika Nagpal<br />
Harvard University, MA, USA<br />
Olive R. Rappoli<br />
Worcester Polytechnic Institute, MA, USA<br />
• Amorphous materials conform to<br />
arbitrary obstacles and can be used<br />
to build in unstructured terrain<br />
• Biological systems successfully use<br />
many different types of amorphous<br />
materials to build in nature<br />
• Robotic mechanisms to deposit<br />
various types of amorphous materials<br />
are presented and compared<br />
• We compare material properties and<br />
evaluate them for use in research for<br />
autonomous robotic construction with<br />
amorphous materials<br />
<strong>2012</strong> IEEE/RSJ International Conference on Intelligent Robots and Systems<br />
–173–<br />
Small remote controlled robot<br />
building a foam ramp<br />
17:00–17:15 WedFT4.4<br />
Humanlike Shoulder Complex for<br />
Musculoskeletal Robot Arms<br />
Shuhei Ikemoto 1) , Fumiya Kannou 2) , and Koh Hosoda 1)<br />
1) Department of Multimedia Engineering, Osaka University, Japan<br />
2) Department of Adaptive Machine Systems, Osaka University, Japan<br />
• The approach of mimicking<br />
musculoskeletal systems of living<br />
organisms has attracted considerable<br />
attention in robotics.<br />
• The superior limb girdle is fundamental<br />
for the arm movements of humans.<br />
• In particular, the glenohumeral and<br />
scapulothoratic joints are difficult to<br />
mimic the shapes and functionalities.<br />
• We propose new designs of the two<br />
joints to develop a musculoskeletal<br />
robot arm.<br />
Developed musculoskeletal robot arm<br />
with humanlike shoulder complex