Optimal Control
Optimal control formulations and solvers for safe, high-performance decision-making and trajectory generation in dynamic systems.
Research
Two research groups in the MLCS Lab.
Optimal control formulations and solvers for safe, high-performance decision-making and trajectory generation in dynamic systems.
Learning control policies from expert demonstrations through imitation learning and inverse reinforcement learning.
Incorporating human feedback into reinforcement learning to align controller behavior with human preferences and intent.
Applying vision-language (VLM) and vision-language-action (VLA) models to autonomous driving — for scene understanding, reasoning, and language-conditioned decision-making and control.
We exploit the geometric structure of robotics tasks — symmetry and equivariance (e.g. SE(3)) — so that models learn far more data-efficiently and generalize from only a handful of demonstrations.
We leverage foundation models pre-trained on large-scale vision, language, and video data to build Vision-Language-Action (VLA) and World-Action Models (WAM) for robots.
We make robot task planning more efficient by injecting prior knowledge (e.g. commonsense knowledge) represented with structures such as ontologies — so robots reason with far less search and supervision.