Papers
11
Total Citations
535
H-Index
10
About
Clayton Kunz is a pioneering roboticist whose work bridges human-robot collaboration and autonomous exploration in extreme environments. His research spans three core areas: reusable robotic software architectures, peer-to-peer human-robot interaction (HRI), and autonomous underwater vehicle (AUV) mapping. Kunz made foundational contributions through the CLARAty framework (98 citations), a generic object-oriented system that advanced reusable robotic software for motion control and vision. He also developed the Human-Robot Interaction Operating System (HRI/OS, 93 citations) and led the Peer-to-Peer Human-Robot Interaction project (84 citations), which redefined how robots and humans coordinate as equal partners for space missions. His impact extends to planetary science: Kunz designed the AUVs Jaguar and Puma, deployed under Arctic ice to search for hydrothermal vents (61 citations), and created a system fusing acoustic and visual data for 3D underwater mapping (44 citations). Notably, his Mobot Museum Robot Series (66 citations) provided six years of operational insights into socially interactive robots in public spaces. With over 530 total citations across key papers, Kunz’s work continues to shape both terrestrial robotics and NASA’s vision for lunar and Martian exploration.
Research Focus
Key Achievements
Top Papers
- 1CLARAty: Challenges and Steps toward Reusable Robotic Software98 citations · 2006
- 2The human-robot interaction operating system93 citations · 2006
- 3The Peer-to-Peer Human-Robot Interaction Project84 citations · 2005
- 4The History of the Mobot Museum Robot Series: An Evolutionary Study66 citations · 2001
- 5Toward extraplanetary under‐ice exploration: Robotic steps in the Arctic61 citations · 2009
- 6
- 7A Preliminary Study of Peer-to-Peer Human-Robot Interaction36 citations · 2006
- 8Human-Robot Site Survey and Sampling for Space Exploration22 citations · 2006
- 9Automatic Mapping of Dynamic Office Environments16 citations · 1999
- 10Autonomous Robotic Inspection for Lunar Surface Operations13 citations · 2008