Papers
17
Total Citations
278
H-Index
7
About
Jonathan Luntz is a robotics researcher whose work spans mobile robotics, robot motion planning, distributed manipulation, and cooperative multi-robot systems. His most recognized contribution — the development of exact cellular decompositions using critical points of Morse functions — established a mathematically rigorous framework for encoding robot free-space topology, enabling more effective path planning, mapping, and coverage strategies. This foundational work has accumulated 93 citations and remains influential in sensor-based planning research. Luntz also played a role in the celebrated Nomad robot project, a landmark 1997 demonstration in which a planetary-exploration robot traversed over 125 miles of the Atacama Desert under remote operation — a milestone in field robotics that garnered 53 citations. His sustained interest in distributed manipulation, particularly using passive airflow systems to control flat objects, reflects a creative approach to non-contact actuation, represented by two complementary papers totaling nearly 60 citations. Beyond individual robots, Luntz has investigated how teams of small, low-cost robots can physically cooperate to overcome individual mobility limitations — a pragmatic vision for scalable robotics in search-and-rescue scenarios. More recently, his work on tensegrity-constrained inflatable structures signals engagement with emerging soft robotics paradigms, demonstrating a research trajectory that continues to evolve across multiple frontiers of robotics.
Research Focus
Key Achievements
Top Papers
- 1Exact cellular decompositions in terms of critical points of Morse functions93 citations · 2002
- 2Nomad: a demonstration of the transforming chassis53 citations · 2002
- 3Distributed manipulation with passive air flow32 citations · 2002
- 4Distributed Manipulation of Flat Objects With Two Airflow Sinks27 citations · 2006
- 5<title>Design and motion planning for serpentine robots</title>15 citations · 2000
- 6Decentralized control for a team of physically cooperating robots12 citations · 2004
- 7Behaviors for physical cooperation between robots for mobility improvement12 citations · 2007
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- 9Posable Tensegrity-Constrained Inflatable Kinematic Graphical Analysis4 citations · 2020
- 10