Evangelos Papadopoulos
National Technical University of Athens, McGill University, National and Kapodistrian University of Athens
Papers
59
Total Citations
1,006
H-Index
17
About
Evangelos Papadopoulos is a prominent robotics researcher whose work spans legged locomotion, robotic manipulation, mobile microrobotics, and motion control. He is perhaps best known for his foundational investigations into the passive dynamics of quadrupedal bounding gaits, a body of work that began with his 2004 study revealing that cyclic bounding motion can emerge passively from simplified quadruped models — a surprising and influential finding. His subsequent papers, including a 2006 study garnering 165 citations, deepened understanding of the Spring Loaded Inverted Pendulum (SLIP) model and the nuanced relationship between local and global stability in legged running. Papadopoulos has also made significant contributions to microrobotics, developing centripetal-force-driven mobile platforms capable of micrometer-level precision at remarkably low cost, and to robotic manipulation, proposing frameworks for large-force task planning and modified transpose Jacobian control methods. His more recent work explores compliant terrain locomotion and digital twin development for bipedal robots, reflecting a career-long commitment to bridging rigorous theoretical analysis with practical robotic systems. Collectively, his publications have accumulated hundreds of citations, establishing him as a leading voice in dynamic robotics and autonomous systems research.
Research Focus
Key Achievements
Top Papers
- 1
- 2Modified transpose Jacobian control of robotic systems66 citations · 2007
- 3
- 4Quadruped Robot Running With a Bounding Gait58 citations · 2007
- 5On the stable passive dynamics of quadrupedal running50 citations · 2004
- 6Analysis and Motion Control of a Centrifugal-Force Microrobotic Platform34 citations · 2013
- 7
- 8
- 9On differential drive robot odometry with application to path planning31 citations · 2007
- 10Compliant terrain legged locomotion using a viscoplastic approach31 citations · 2014