Lee-Huang Chen
Papers
8
Total Citations
257
H-Index
5
About
Lee-Huang Chen is a robotics researcher whose work sits at the intersection of structural mechanics, locomotion, and novel actuation systems. He is best known for his pioneering contributions to spherical tensegrity robotics — a class of robots built from interconnected tension and compression elements that offer exceptional robustness, flexibility, and resilience compared to conventional rigid-bodied machines. His most influential work, "Soft Spherical Tensegrity Robot Design Using Rod-Centered Actuation and Control" (2017, 101 citations), introduced a fully actuated modular tensegrity platform with compelling applications in co-robotics and space exploration. Complementary research on hopping and rolling locomotion (2016, 66 citations) demonstrated how such robots could deliver payloads across lunar terrain by combining cable-driven rolling with thruster-based hopping — a genuinely imaginative solution to planetary mobility challenges. Chen further extended this work to challenging inclined surfaces, showcasing robust climbing behaviors through coordinated multi-cable control. Beyond tensegrity systems, he has explored compact linear actuation inspired by DNA's double-helix geometry, developing mechanisms capable of high displacement in tight profiles. With over 250 cumulative citations, Chen's research represents a meaningful advance in the design of adaptable, bio-inspired robots suited for unstructured and extraterrestrial environments.
Research Focus
Key Achievements
Top Papers
- 1Soft Spherical Tensegrity Robot Design Using Rod-Centered Actuation and Control101 citations · 2017
- 2Hopping and rolling locomotion with spherical tensegrity robots66 citations · 2016
- 3Inclined surface locomotion strategies for spherical tensegrity robots41 citations · 2017
- 4
- 5Modular Elastic Lattice Platform for Rapid Prototyping of Tensegrity Robots13 citations · 2017
- 6DNA-Structured Linear Actuators3 citations · 2016
- 7Double-Helix Linear Actuators3 citations · 2021
- 8Inclined Surface Locomotion Strategies for Spherical Tensegrity Robots3 citations · 2017