Papers
13
Total Citations
226
H-Index
7
About
Koichi Nagashima is a pioneering roboticist whose work bridges the gap between human-like flexibility and practical, real-world robot applications. His research centers on humanoid robotics, with key contributions in flexible spine design, dexterous manipulation, and human-robot interaction. Nagashima's most influential work, "The design and control of the flexible spine of a fully tendon-driven humanoid 'Kenta'" (102 citations), introduced a novel approach to achieving safety and posture variety by mimicking the human spine and muscle-driven system—a foundational concept for safer, more adaptable humanoids. He also led the development of the humanoid robot Saika (32 citations), a lightweight, low-cost platform designed for dynamic tasks like catching a thrown ball (24 citations), demonstrating advanced real-time coordination and skill transfer from humans to robots. Beyond manipulation, Nagashima contributed to auditory perception with a 128-channel microphone array for real-time 2D sound source localization (23 citations), enhancing robots' environmental awareness. His work on speaker and microphone arrays for simultaneous sound beam generation and capture (11 citations) further showcases his interdisciplinary approach. Through these achievements, Nagashima has laid critical groundwork for humanoids that can safely coexist and collaborate with humans in everyday environments.
Research Focus
Key Achievements
Top Papers
- 1
- 2Development of a humanoid robot Saika32 citations · 2002
- 3The humanoid Saika that catches a thrown ball24 citations · 2002
- 4
- 5Simultaneous generation/capture of multiple focuses sound beams11 citations · 2004
- 6A Humanoid Robot to Prevent Children Accidents10 citations · 2006
- 7Delivery task by a humanoid robot in the sensorized environment7 citations · 2005
- 8Development of a 3-fingered hand and grasping unknown objects by groping6 citations · 2002
- 9Dexterous manipulations of humanoid Robot Saika3 citations · 1998
- 10Robot action generator using reusable motion modules3 citations · 2006