Papers
10
Total Citations
190
H-Index
8
About
Daniel Kuehn is a robotics researcher whose career centers on the design and development of advanced legged robotic systems, with particular emphasis on bio-inspired locomotion, space exploration applications, and adaptive hardware architectures. His most recognized contribution is the SpaceClimber project (34 citations), a six-legged free-climbing robot engineered for extraterrestrial surface exploration, exemplifying his long-standing interest in energy-efficient, terrain-adaptive machines. Kuehn has also made significant strides in bipedal and humanoid robotics, most notably through the hominid robot Charlie (32 citations), a sophisticated platform designed to meet demanding autonomy and locomotion requirements. A recurring theme across his work is the development of intelligent sensory systems, including adaptive sensor feet (31 citations) that allow multi-legged robots to interact with unstructured environments far more effectively than traditional point-contact designs. His research into active spine mechanisms and additional degrees of freedom in quadrupedal robots reflects a drive to replicate the nuanced biomechanics found in nature. More recently, Kuehn has extended his expertise toward autonomous field robotics, including the ARTER walking excavator for hazardous environments. With over 190 cumulative citations, his body of work represents a meaningful and sustained contribution to the frontier of mobile robotics research.
Research Focus
Key Achievements
Top Papers
- 1
- 2System Design and Testing of the Hominid Robot Charlie32 citations · 2016
- 3An adaptive sensor foot for a bipedal and quadrupedal robot31 citations · 2012
- 4
- 5Distributed Computation in a Quadrupedal Robotic System25 citations · 2014
- 6Analysis of using an active artificial spine in a quadruped robot15 citations · 2018
- 7
- 8Towards an Intelligent Foot for Walking and Climbing Robots8 citations · 2010
- 9ARTER: a walking excavator robot for autonomous and remote operations6 citations · 2022
- 10Towards an Active Spine for Mobile Robots3 citations · 2013