Papers
9
Total Citations
120
H-Index
7
About
Wai Ho Li is a robotics and computer vision researcher whose work bridges the gap between robotic perception and real-world interaction. His core research areas include visual symmetry detection, active robotic manipulation, and assistive technologies for bionic vision. Li’s most significant contributions lie in developing fast, practical algorithms for detecting reflectional symmetry in images—a critical capability for robotic grasping and visual tracking in domestic environments. His 2005 paper on global reflectional symmetry detection (26 citations) introduced a novel gradient-based method that remains influential. Li pioneered the concept of “active perception” through physical object manipulation, as demonstrated in his 2011 work (23 citations) where robots physically nudge objects to achieve robust segmentation and modeling—a departure from passive camera-based systems. In a remarkable interdisciplinary leap, Li applied robotic sensing principles to improve bionic vision, showing how low-resolution visual prostheses could be enhanced with depth and motion data (23 citations). He also developed the eBug open robotics platform (2011), an accessible teaching and research tool. With over 120 total citations, Li’s work demonstrates how fundamental computer vision techniques can be translated into practical robotic systems and life-changing medical technologies.
Research Focus
Key Achievements
Top Papers
- 1
- 2Segmentation and modeling of visually symmetric objects by robot actions23 citations · 2011
- 3Transformative Reality: Improving bionic vision with robotic sensing23 citations · 2012
- 4Interactive learning of visually symmetric objects12 citations · 2009
- 5eBug - An open robotics platform for teaching and research9 citations · 2011
- 6Bilateral Symmetry Detection for Real-time Robotics Applications9 citations · 2008
- 7
- 8Going beyond vision to improve bionic vision7 citations · 2013
- 9A Fast Method For Computing Principal Curvatures From Range Images3 citations · 2017