Papers
25
Total Citations
895
H-Index
12
About
Kay Chen Tan is a prominent researcher whose work spans evolutionary computation, autonomous robotics, and multitask optimization — fields at the intersection of artificial intelligence and intelligent systems. His landmark 2002 paper introducing Evolutionary Artificial Potential Fields (EAPF) remains his most influential contribution, garnering 344 citations by elegantly marrying genetic algorithms with classical potential field methods to achieve robust real-time robot path planning. This work laid foundational groundwork for subsequent advances in autonomous navigation. Tan has consistently pushed the boundaries of robot cognition, evidenced by his neuro-inspired cognitive navigation framework (2017), which integrates active navigation with sequence learning to replicate biological spatial reasoning in robotic systems. His 2021 contribution on Meta-Knowledge Transfer-Based Differential Evolution (177 citations) reflects his evolution into multitask optimization, addressing a critical limitation in knowledge transfer strategies across complex problem domains. Beyond individual papers, Tan has shaped the field through influential texts including *Evolutionary Robotics: From Algorithms to Implementations* (2006) and *Design and Control of Intelligent Robotic Systems* (2009), cementing his role as both practitioner and educator. His body of work demonstrates a sustained commitment to bridging biological inspiration with practical engineering solutions, making him a key figure in computational intelligence research.
Research Focus
Key Achievements
Top Papers
- 1
- 2
- 3
- 4Recent Advances in Simulated Evolution and Learning57 citations · 2004
- 5Design and Control of Intelligent Robotic Systems38 citations · 2009
- 6
- 7Evolutionary Robotics: From Algorithms to Implementations22 citations · 2006
- 8Evolutionary Robotics: From Algorithms to Implementations16 citations · 2006
- 9Evolvable Hardware in Evolutionary Robotics15 citations · 2003
- 10Task-Oriented Developmental Learning for Humanoid Robots14 citations · 2005