Anahita Mohseni-Kabir
Papers
12
Total Citations
202
H-Index
7
About
Anahita Mohseni-Kabir is a robotics and artificial intelligence researcher whose work spans human-robot interaction, task learning, multi-agent systems, and adaptive software. She is best known for her pioneering contributions to hierarchical task learning, particularly her development of algorithms enabling robots to acquire complex task models from a single human demonstration — a landmark achievement reflected in her most-cited work, "Interactive Hierarchical Task Learning from a Single Demonstration" (2015, 86 citations). This research introduced mixed-initiative interaction frameworks with bidirectional communication, dramatically reducing the burden on human teachers while improving robot adaptability. Mohseni-Kabir has consistently pushed the boundaries of robot intelligence, exploring how semantic knowledge networks can inform task adaptation, how model-based approaches can yield long-lasting adaptive software systems, and how multi-agent reinforcement learning can enable decentralized mobile robot navigation in dynamic environments. Her work on simultaneous learning of task hierarchies and primitives further consolidated her reputation as a thoughtful contributor to robot autonomy. With nearly 200 cumulative citations across a decade of research, her portfolio demonstrates sustained impact across multiple subfields. Students interested in robot learning, human-robot collaboration, or adaptive autonomous systems will find her body of work both foundational and forward-looking.
Research Focus
Key Achievements
Top Papers
- 1Interactive Hierarchical Task Learning from a Single Demonstration86 citations · 2015
- 2Simultaneous learning of hierarchy and primitives for complex robot tasks28 citations · 2018
- 3Model-Based Adaptation for Robotics Software25 citations · 2019
- 4
- 5Towards Robot Adaptability in New Situations.14 citations · 2015
- 6
- 7
- 8Learning partial ordering constraints from a single demonstration6 citations · 2014
- 9
- 10Robot Task Interruption by Learning to Switch Among Multiple Models5 citations · 2018