Riadh Zaier
Papers
12
Total Citations
178
H-Index
7
About
Riadh Zaier is a leading researcher in humanoid robotics and rehabilitation engineering, whose work bridges the gap between robotic locomotion and clinical therapy. His primary research areas include bipedal walking pattern generation, reflex-based adaptive control for humanoid robots, and the application of robotics to foot drop rehabilitation. Zaier’s most impactful contribution is his 2020 systematic review on foot drop rehabilitation (50 citations), which comprehensively analyzed emerging technologies for treating this common post-stroke condition. He is also recognized for his pioneering work on piecewise-linear pattern generators and reflex systems for humanoid robots (23 citations), which enable adaptive locomotion in response to disturbances—a critical advancement for real-world robot deployment. His 2012 book on the future of humanoid robots (31 citations) remains a key reference in the field, outlining research directions and applications. More recently, Zaier has explored biomechanical leg design with passive toe joints for human-like walking and multi-objective optimization of in-pipe inspection robots. His work consistently integrates theoretical modeling with practical implementation, using tools like MATLAB/Simulink to investigate conditions such as foot drop. With over 170 citations across his publications, Zaier’s research continues to influence both robotic design and rehabilitative technology.
Research Focus
Key Achievements
Top Papers
- 1Trends and Technologies in Rehabilitation of Foot Drop: A Systematic Review50 citations · 2020
- 2The Future of Humanoid Robots - Research and Applications31 citations · 2012
- 3Piecewise-Linear Pattern Generator and Reflex System for Humanoid Robots23 citations · 2007
- 4Modeling of a biped robot for investigating foot drop using MATLAB/Simulink21 citations · 2019
- 5
- 6Motion Pattern Generator and Reflex System for Humanoid Robots13 citations · 2006
- 7Adaptive locomotion controller and reflex system for humanoid robots9 citations · 2008
- 8
- 9Multi-objective design optimization of an in-pipe inspection robot5 citations · 2024
- 10