Generalization & Adaptation under Distribution Shift
How can models remain effective when domains, tasks, and environments differ from their training conditions?
Ph.D. in Electrical and Computer Engineering
Duke University
M.S. in Statistical Science
Duke University
M.Eng. in Signal and Information Processing
University of Chinese Academy of Sciences
Generalization, Adaptation & Efficiency | Foundation Models, Multimodal AI & Physical Sensing
How can models remain effective when domains, tasks, and environments differ from their training conditions?
How can knowledge from pretrained and specialized models be adapted, compressed, and consolidated efficiently and reliably?
How far can small multimodal models progress from open-vocabulary recognition toward understanding and reasoning?
Machine learning for optical fiber sensing over deployed telecommunication networks.
Reparameterization and randomized parameter sharing for extreme parameter-efficient fine-tuning.
Vector-bank parameter sharing for extreme parameter-efficient fine-tuning.
Uncertainty-aware knowledge distillation that adaptively balances data supervision and teacher guidance.
Combines support-set exemplar memory with parametric adaptation for pretrained audio-language models under severe domain shifts.
Transferable reward learning with test-time policy adaptation to unseen target classes.
Variational inference for flexible dependence modeling with Gaussian copulas.
Event recognition for distributed acoustic sensing, studying generalization under different sensing conditions and validated through field experiments.
Structured prediction for infrastructure localization and condition diagnostics using spatial and temporal sensing context.
Invited Tutorial at the 30th International Conference on Optical Fiber Sensors (OFS30).
Invited Talk at the POSTECH–KAIST–NEC Joint Research Workshop.
Invited Speaker and Panelist at the OECC/PSC 2025 Workshop.