Kazuhisa Mitobe
Papers
20
Total Citations
215
H-Index
7
About
Kazuhisa Mitobe is a robotics researcher whose work spans humanoid locomotion, biped robot control, and intelligent robotic systems. His most significant contributions lie in the development of optimization-based gait synthesis for walking robots, where he pioneered the application of genetic algorithms to generate energy-efficient angle trajectories for both walking and stair-climbing tasks — work that has garnered over 55 citations and remains influential in the field of legged robotics. Alongside this, Mitobe made foundational contributions to zero moment point (ZMP)-based walking control, providing mathematically grounded stability frameworks for dynamic bipedal locomotion. His research extends into flexible material manipulation using multi-arm robotic systems, which attracted 48 citations and addressed real-world industrial challenges in sewing automation. He also explored software architecture for humanoid robots through CORBA-based control frameworks, promoting modular, scalable systems suitable for collaborative development environments. Later work broadened his scope to include obstacle-avoidance strategies for groping locomotion, elastic tendon-driven robot arms, and autonomous snow-removal navigation. Across more than two decades of research, Mitobe has consistently bridged theoretical control design and practical robotics implementation, contributing valuable tools and methodologies to the robotics community.
Research Focus
Key Achievements
Top Papers
- 1
- 2
- 3A CORBA‐based approach for humanoid robot control22 citations · 2001
- 4Control of Walking Robots by Manipulating the Zero Moment Point.14 citations · 2000
- 5Obstacle Avoidance in Groping Locomotion of a Humanoid Robot13 citations · 2005
- 6
- 7Control of Low-Cost Customizable Robot Arm Actuated by Elastic Tendons8 citations · 2016
- 8Nonlinear Feedback Control of a Biped Walking Robot.5 citations · 1996
- 9Application of suspension mechanisms for low powered robot tasks5 citations · 2000
- 10