Research
Reliable learning from incomplete multimodal observations
My research asks how learning systems can make reliable decisions when observations are small, sparse, noisy, asynchronous, or missing. I study this problem through computer vision, spatiotemporal modeling, multimodal sensing, and emerging biomedical applications.
Research agenda
Reliable perception
Detection and tracking of small or weakly observed objects under occlusion, camera motion, missed detections, and uncertain dynamics.
Multimodal sensing
Fusion of heterogeneous evidence across sensors and time, with explicit attention to disagreement, missing measurements, and reliability.
Biomedical and wearable AI
Personalized and multimodal modeling of physiological, behavioral, imaging, and wearable-sensing data, with emphasis on interpretable and clinically meaningful variation.
Representative work
Methods and systems
Multimodal AI · Sensor fusion
Track-Aware Reliability Fusion (TARF)
Reliability-aware fusion of sparse, heterogeneous LiDAR streams for 3D drone tracking under asynchronous sampling and sensor disagreement.
Additional work in genomic AI, remote sensing, and applied machine learning is listed on the projects page.