We introduce LEGO, a symmetry-aware graph neural network framework that enables sample-efficient, scalable, and generalizable swarm robot control across diverse team sizes and environments.
Grasp2Grasp enables simulation-free, vision-based translation of dexterous grasps across robot hands using Schrödinger Bridges with physics-informed costs for stable, functionally aligned grasps.
GAGrasp uses a geometric algebra diffusion model to generate robust, physically plausible dexterous grasps that are naturally equivariant to an object's pose.
We introduce VDPG, a method that adapts large models to new visual domains at test-time using only a few unlabeled images to generate a domain-specific prompt that guides the model's features.
This paper presents Fast-Grasp'D, a differentiable simulator that rapidly generates Grasp'D-1M, a large dataset of stable, contact-rich, multi-finger grasps for robotic learning.
We propose Meta-DMoE, a framework that adapts to domain shifts by using a meta-learned aggregator to distill knowledge from specialized expert models into a student network for fast test-time adaptation.
Education
Princeton University
Ph.D. in Mechanical and Aerospace Engineering (Robotics Track)
2023.09 - Present
cGPA: 4.0
University of Toronto
B.A.Sc. in Engineering Science with High Honours
Major in Robotics Engineering, Minor in Artificial Intelligence
2018.09 - 2023.06
cGPA: 3.81