General Information
Details
My research interests focus on building the algorithmic foundations for generalizable autonomy, enabling robots to acquire both cognitive and dexterous skills for seamless human interaction. I am specifically interested in the use of structured inductive biases and causality for decision making to enhance robot learning. My work explores several key technical pillars:
Multi-modal Representations: Developing object-centric and spatiotemporal event representations to help robots understand complex environments.
Reinforcement Learning (RL): Advancing self-supervised pre-training for RL and control, as well as establishing principles for efficient dexterous skill acquisition.
Computer Vision: Leveraging 3D vision and foundation models to bridge the gap between perception and action.
Applied Autonomy: Implementing these theoretical foundations in high-impact domains such as personal robotics, manufacturing, and self-driving labs
My teaching interests lie at the intersection of Algorithmic Robotics, Reinforcement Learning (RL), and Artificial Intelligence.
I am committed to educating students on the foundations of generalizable autonomy, ranging from undergraduate introductions to AI and RL to advanced graduate-level courses focused on Deep RL and Geometric Deep Learning.
My pedagogy emphasizes the integration of structured inductive biases and multi-modal representations to solve complex problems in 3D vision and dexterous robot control
Industry Experience: Previously held the role of Chief Scientific Officer at Apptronik and Senior Staff Research Scientist at Nvidia Research.
Conference Leadership: Serving as Program Chair at ICLR 2025., General Chair at CoRL 2027
Research Output: Recent papers in CoRL 2025, ICRA 2026 on simulation, world models as well as teleoperation.
Keynote Engagements:
- Delivered a keynote debate at ICRA 2025 titled "Data will Solve Robotics?"
- ICLR 2025 Robot Learning and ICRA 2025 Surgical Robotics workshops.