Papers
35
Total Citations
852
H-Index
14
About
Neil T. Dantam is a robotics researcher whose work sits at the intersection of task and motion planning, robot kinematics, and real-time software systems. He is perhaps best known for developing the Iteratively Deepened Task and Motion Planning (IDTMP) framework, a constraint-based approach that elegantly bridges discrete symbolic reasoning and continuous motion planning. His 2016 and 2018 papers on this topic have accumulated nearly 300 citations combined, establishing him as a leading voice in making task and motion planning both probabilistically complete and computationally tractable. Dantam has also made significant contributions to robot kinematics, proposing robust dual quaternion methods for forward, differential, and inverse kinematics that offer compelling alternatives to traditional transformation matrix approaches. His earlier work on Motion Grammars demonstrated how formal linguistic methods could be applied to verifiable robot control policies, a thread continued through research on transferring human assembly demonstrations to robots. Beyond algorithms, Dantam has advanced the practical infrastructure of robotics through the Ach library, a real-time interprocess communication framework designed for safety-critical systems. His open-source Task-Motion Kit further reflects a commitment to accessible, general-purpose tools for the broader robotics community.
Research Focus
Key Achievements
Top Papers
- 1Incremental Task and Motion Planning: A Constraint-Based Approach168 citations · 2016
- 2An incremental constraint-based framework for task and motion planning124 citations · 2018
- 3Learning Feasibility for Task and Motion Planning in Tabletop Environments76 citations · 2019
- 4
- 5The Motion Grammar: Analysis of a Linguistic Method for Robot Control52 citations · 2013
- 6
- 7The Ach Library: A New Framework for Real-Time Communication35 citations · 2015
- 8Augmented, Mixed, and Virtual Reality Enabling of Robot Deixis34 citations · 2018
- 9Linguistic transfer of human assembly tasks to robots31 citations · 2012
- 10