Our SD Lab conducts research on AI & robotics across diverse scientific domains, including physics, chemistry, and biology.

Developing robot vision systems for tracking experimental processes and understanding temporal scene dynamics for decision-making.

Developing dexterous manipulation systems for handling samples, instruments, and reagents, thereby executing experimental protocols.

Leveraging reinforcement learning to optimize experimental planning and parameter selection for dynamic and uncertain environments

Designing machine learning models that embed governing equations and physical constraints for robust physical simulation and prediction.

Optimizing electronic design automation (EDA) workflows to enhance analog circuit design, layout quality, and overall chip performance.

Accelerating the discovery of next-generation semiconductor materials by predicting material properties and exploring composition spaces.

Learning expressive embeddings for molecules and reactions to support property prediction, retrieval, and reaction mechanism reasoning.

Developing generative models and search strategies for discovering candidate molecules with targeted physical and chemical properties.

Optimizing reaction pathways, retrosynthesis, and autonomous chemical experimentation to enable data-driven synthesis planning.

Decoding neural activity to translate brain signals into control commands for assistive robotic systems and neurorehabilitation.

Diagnosing neurodegenerative diseases such as Alzheimer’s and Parkinson’s by analyzing brain signals, imaging data, and clinical biomarkers.

Personalizing treatment decisions by modeling patient trajectories, predicting therapeutic responses, and optimizing policies over time.

Optimizing wind farm operations by modeling turbine wakes and environmental conditions to improve renewable wind energy production.

Analyzing satellite imagery with AI to support data-driven decision making for earth climate, agriculture, disasters, and urban development.

Developing foundation model for earth systems by integrating geospatial, atmospheric, oceanic, and climate data for planetary-scale prediction.