Robot Control
Practical approaches to perception, motion and whole-body control for real robotic systems.
We tackle real, unresolved problems in robotics, building practical methods across perception, decision-making and control, then validating them on physical systems in complex environments.
Practical approaches to perception, motion and whole-body control for real robotic systems.
Motion planning and control for agile, autonomous aerial robots.
Learning to coordinate missions and reason about interactions among agents.
Learning efficient task sequences and collision-free paths for robotic systems.
Graph and image representations are fused to solve generalized traveling salesman problems for real-time robotic task planning.
Attention-based reinforcement learning learns agent priorities for scalable, collision-free path planning under limited computation time.
Trajectory prediction and safe planning for autonomous vehicles.
Vision-language-action models for cross-embodiment robot learning.
Learning new knowledge over time while mitigating catastrophic forgetting.
A class-incremental learning approach for vision-language models that leverages unlabeled data through a naming-and-filtering mechanism to continually learn new classes while mitigating catastrophic forgetting.