Takeshi Fukase
Papers
7
Total Citations
65
H-Index
4
About
Takeshi Fukase is a pioneering researcher in mobile robotics, with a primary focus on self-localization, real-time decision-making under uncertainty, and efficient robot navigation. His most influential contribution is the development of **Uniform Monte Carlo Localization**, a fast and robust self-localization method for mobile robots that simplifies probability distributions to reduce computational cost while handling vague sensor data—a foundational approach that has earned 26 citations. Fukase also advanced the field of **state-action map compression** through vector quantization, enabling small onboard computers to store and execute pre-computed optimal behaviors without overwhelming memory. His work on **quadruped robot navigation** further stands out for its practical consideration of observational cost, allowing robots with significant sensor and locomotion errors to make optimal, real-time decisions. Across his career, Fukase has consistently tackled the challenge of bridging offline planning with online execution, producing over 65 combined citations. His research is particularly notable for its direct application to RoboCup soccer, where he designed teaching systems and behavior architectures for legged robots, demonstrating how principled uncertainty management can yield autonomous agents that act intelligently under real-world constraints.
Research Focus
Key Achievements
Top Papers
- 1
- 2Vector quantization for state-action map compression10 citations · 2004
- 3Quadruped Robot Navigation Considering the Observational Cost10 citations · 2002
- 4Real-Time Decision Making under Uncertainty of Self-localization Results9 citations · 2003
- 5Lossy Compression of Deterministic Policy Map with Vector Quantization4 citations · 2005
- 6Learning self-localization with teaching system4 citations · 2002
- 7Design of Quadruped Robot Soccer Behavior Considering Observational Cost2 citations · 2003