TY - JOUR
T1 - Biologically-inspired control architecture for musical performance robots
AU - Solis, Jorge
AU - Ozawa, Kenichiro
AU - Takeuchi, Maasaki
AU - Kusano, Takafumi
AU - Ishikawa, Shimpei
AU - Petersen, Klaus
AU - Takanishi, Atsuo
N1 - Publisher Copyright:
© 2014 The Author(s).
PY - 2014/10/22
Y1 - 2014/10/22
N2 - At Waseda University, since 1990, the authors have been developing anthropomorphic musical performance robots as a means for understanding human control, introducing novel ways of interaction between musical partners and robots, and proposing applications for humanoid robots. In this paper, the design of a biologically-inspired control architecture for both an anthropomorphic flutist robot and a saxophone playing robot are described. As for the flutist robot, the authors have focused on implementing an auditory feedback system to improve the calibration procedure for the robot in order to play all the notes correctly during a performance. In particular, the proposed auditory feedback system is composed of three main modules: an Expressive Music Generator, a Feed Forward Air Pressure Control System and a Pitch Evaluation System. As for the saxophone-playing robot, a pressure-pitch controller (based on the feedback error learning) to improve the sound produced by the robot during a musical performance was proposed and implemented. In both cases studied, a set of experiments are described to verify the improvements achieved while considering biologically-inspired control approaches.
AB - At Waseda University, since 1990, the authors have been developing anthropomorphic musical performance robots as a means for understanding human control, introducing novel ways of interaction between musical partners and robots, and proposing applications for humanoid robots. In this paper, the design of a biologically-inspired control architecture for both an anthropomorphic flutist robot and a saxophone playing robot are described. As for the flutist robot, the authors have focused on implementing an auditory feedback system to improve the calibration procedure for the robot in order to play all the notes correctly during a performance. In particular, the proposed auditory feedback system is composed of three main modules: an Expressive Music Generator, a Feed Forward Air Pressure Control System and a Pitch Evaluation System. As for the saxophone-playing robot, a pressure-pitch controller (based on the feedback error learning) to improve the sound produced by the robot during a musical performance was proposed and implemented. In both cases studied, a set of experiments are described to verify the improvements achieved while considering biologically-inspired control approaches.
KW - Biologically-inspired robotics
KW - Feedback error learning control
KW - Music
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U2 - 10.5772/59232
DO - 10.5772/59232
M3 - Review article
AN - SCOPUS:84914180850
SN - 1729-8806
VL - 11
JO - International Journal of Advanced Robotic Systems
JF - International Journal of Advanced Robotic Systems
M1 - a172
ER -