Pitiwut Teerakittikul
King Mongkut's University of Technology Thonburi, University of York
Papers
8
Total Citations
62
H-Index
5
About
Pitiwut Teerakittikul is a robotics researcher specializing in bio-inspired adaptive locomotion control, neural systems, and autonomous robot navigation across complex terrains. His work sits at the intersection of computational neuroscience and robotics engineering, drawing on biological principles to develop intelligent control systems that allow robots to respond dynamically to unpredictable environments. Teerakittikul's most significant contributions center on artificial hormone systems and neural control frameworks. His 2020 paper on bio-inspired adaptive locomotion control (21 citations) demonstrated how walking robots can autonomously adjust their gait on unknown terrains without exhaustive parameter tuning or computationally expensive machine learning. This research built on earlier foundational work exploring artificial hormone networks for dynamic adaptability, dating back to 2012. His gecko-inspired robot research (12 citations) translated the remarkable slope-scaling capabilities of geckos into functioning robotic systems, while his sea turtle-inspired work extended these principles to energy-efficient locomotion optimization. A recurring theme throughout his portfolio is enabling robots to operate reliably in real-world, unstructured environments — a critical challenge for search-and-rescue and exploration applications. Earlier work on evolvable hardware for fault-tolerant control further reflects his long-standing interest in resilient autonomous systems. With cumulative citations exceeding 60, Teerakittikul has made meaningful contributions to the growing field of biologically-inspired robotics.
Research Focus
Key Achievements
Top Papers
- 1
- 2Neural Control for Gait Generation and Adaptation of a Gecko Robot12 citations · 2019
- 3
- 4Artificial hormone network for adaptive robot in a dynamic environment7 citations · 2012
- 5
- 6
- 7The application of evolvable hardware to fault tolerant robot control2 citations · 2009
- 8Artificial Hormone Network for Adaptable Robots2 citations · 2013