Tomoyuki Shimono
Yokohama National University, NTT (Japan), Keio University, Kanagawa Institute of Technology
Papers
42
Total Citations
331
H-Index
9
About
Tomoyuki Shimono is a robotics and control systems researcher whose work centers on haptic technology, bilateral control, and human-robot interaction. His most significant contributions lie in developing sophisticated control frameworks that enable robots to operate safely and effectively alongside humans, with particular emphasis on master-slave teleoperation and force-based compliance systems. Shimono's most cited work (42 citations) introduced a force-based variable compliance controller for flexible motion control, addressing the critical challenge of safe robot operation in human environments. Complementing this, his multilateral control scheme for bilateral grasping systems (40 citations) demonstrated elegant solutions for coordinating robots with differing degrees of freedom through decoupled force and position control via modal decomposition — a technique he refined across multiple publications. His research on abstracting action components from haptic information (26 citations) further advanced the field of human motion understanding through sensory data. Beyond foundational control theory, Shimono has applied his expertise to impactful real-world domains, including medical and dental robotics, contributing to a multi-DOF haptic robot for oral surgery and publishing on haptics for medical applications. His more recent work on backdrivability improvement in high-reduction gears reflects ongoing innovation in practical actuator design. Collectively, his research has meaningfully shaped how robots perceive, respond to, and collaborate with humans.
Research Focus
Key Achievements
Top Papers
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- 4Bilateral control with different inertia based on modal decomposition21 citations · 2010
- 5Haptics for medical applications17 citations · 2009
- 6Development of a Multi DOF Haptic Robot for Dentistry and Oral Surgery15 citations · 2020
- 7Haptic motion control for physical human support15 citations · 2009
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- 10Novel Algorithm for Position/Force Control of Multi-DOF Robotic Systems9 citations · 2020