TY - JOUR
T1 - Development of the anthropomorphic saxophonist robot WAS-1
T2 - Mechanical design of the simulated organs and implementation of air pressure feedback control
AU - Solis, Jorge
AU - Ninomiya, Takeshi
AU - Petersen, Klaus
AU - Takeuchi, Maasaki
AU - Takanishi, Atsuo
N1 - Funding Information:
Part of this research was undertaken at the Humanoid Robotics Institute, Waseda University. This research was supported (in part) by a Gifu-in-Aid for the WABOT-HOUSE Project by Gifu Prefecture.
Funding Information:
Jorge Solis is an Assistant Professor of the Faculty of Science and Engineer-ing, Waseda University, and a concurrent Professor and Visiting Researcher at the Humanoid Robotics Institute, Waseda University. He received his BS degree in Electronics Systems from the Monterrey Institute of Technology, Mexico, in 1998, and the PhD degree from the Scuola Superiore Sant’Anna, Italy, in 2004. He was a Visiting Researcher to the Groupe Automatique Symbolique du Labora-toire d’Analyse et d’Architecture des Systemes (LAAS/CNRS), Toulouse, France; the Bio-Robotics Division of the Mechanical Engineering Laboratory, Tsukuba, Japan; and the Humanoid Research Institute at Waseda University, Tokyo, Japan. From 1998 to 2000, was a Support Engineer of the RS/6000 Hardware Department at IBM, Mexico. From November 2004 until May 2005, he was a Research Assistant at the Perceptual Robotics Laboratory (PERCRO), Pisa, Italy. From 2005 to 2006, he was a JSPS Post-doctoral Research Fellow at Waseda University. From 2006 to 2008, he was a Research Associate at the Department of Modern Mechanical Engineering, Waseda University. He is the author and co-author of over 100 technical papers for international journals and conferences. He is currently a Member of the IEEE, RSJ and ICMA, and Co-chair of the IEEE-RAS TC on Biologically-Inspired and Biomimetics Robots. He received the Finalist Award on Entertainment Robots and Systems at IROS2007 (sponsored by the New Technology Foundation). His research involves the design of control systems for haptic devices and humanoid robots to improve human–robot interaction; medical robotics and systems; rehabilitation robotics, force rendering; human motor control; sound/gesture/vision recognition systems; eEducation and robotic transfer skill systems; and tele-operation systems.
Copyright:
Copyright 2010 Elsevier B.V., All rights reserved.
PY - 2010/4/14
Y1 - 2010/4/14
N2 - The research on the Waseda Flutist Robot, since 1990, is an approach to understand human motor control from an engineering point of view, as well as introducing novel ways of musical teaching. More recently, the authors have proposed as a long-term goal the aim to enable musical performance robots to interact with musical partners. For this purpose, we present two research approaches: implementing more advanced cognitive capabilities on the Waseda Flutist Robot no. 4 Refined IV (WF-4RIV) (i.e., visual/aural processing) and developing a new musical performance robot (i.e., duet performance). In this paper, we have focused our research on developing an anthropomorphic saxophonist robot as a benchmark to better understand how the interaction with musical partners can be facilitated. As a result, we have developed the Waseda Saxophonist Robot no. 1 (WAS-1) with 15 d.o.f. that mechanically simulates the organs involved during saxophone playing. In this paper, we present the details of the mechanical design of the simulated organs, as well as the implementation of the musical performance control system based on air pressure feedback control. A set of experiments was proposed to verify the effectiveness of the designed simulated organs to produce the saxophone sound and to verify the effectiveness of the proposed air pressure feedback control by comparing the saxophone performance of WAS-1 against an intermediate saxophonist. Finally, a preliminary experiment was carried out to analyze the feasibility of realizing a duet performance with the WF-4RIV. From the experimental results, we have confirmed that WAS-1 is capable of producing a saxophone sound nearly similar in terms of pitch and volume to the performance of a human player.
AB - The research on the Waseda Flutist Robot, since 1990, is an approach to understand human motor control from an engineering point of view, as well as introducing novel ways of musical teaching. More recently, the authors have proposed as a long-term goal the aim to enable musical performance robots to interact with musical partners. For this purpose, we present two research approaches: implementing more advanced cognitive capabilities on the Waseda Flutist Robot no. 4 Refined IV (WF-4RIV) (i.e., visual/aural processing) and developing a new musical performance robot (i.e., duet performance). In this paper, we have focused our research on developing an anthropomorphic saxophonist robot as a benchmark to better understand how the interaction with musical partners can be facilitated. As a result, we have developed the Waseda Saxophonist Robot no. 1 (WAS-1) with 15 d.o.f. that mechanically simulates the organs involved during saxophone playing. In this paper, we present the details of the mechanical design of the simulated organs, as well as the implementation of the musical performance control system based on air pressure feedback control. A set of experiments was proposed to verify the effectiveness of the designed simulated organs to produce the saxophone sound and to verify the effectiveness of the proposed air pressure feedback control by comparing the saxophone performance of WAS-1 against an intermediate saxophonist. Finally, a preliminary experiment was carried out to analyze the feasibility of realizing a duet performance with the WF-4RIV. From the experimental results, we have confirmed that WAS-1 is capable of producing a saxophone sound nearly similar in terms of pitch and volume to the performance of a human player.
KW - Air pressure control
KW - Biologically inspired robots
KW - Human-robot interaction
KW - Music
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U2 - 10.1163/016918610X493516
DO - 10.1163/016918610X493516
M3 - Article
AN - SCOPUS:77951869663
SN - 0169-1864
VL - 24
SP - 629
EP - 650
JO - Advanced Robotics
JF - Advanced Robotics
IS - 5-6
ER -