MedVIC Lab
Medical Vision and Intelligent Computing
We build structured AI systems that make the geometry, variability, and uncertainty embedded in medical images computationally tractable — and clinically actionable.
Medical Vision and Intelligent Computing
We build structured AI systems that make the geometry, variability, and uncertainty embedded in medical images computationally tractable — and clinically actionable.
Three interconnected pillars that define our approach to medical AI
Geometry-aware representations of anatomy: how it is shaped, how it varies across populations, how it changes over time, and how it manifests disease. Anatomy is not just geometry — it is a structured signal we can model.
ShapeWorks · CranioRate · Point2SSM →AI systems that learn reliably from weak, sparse, heterogeneous, and domain-shifted clinical data without requiring dense expert annotation. Clinical constraints define how we design representations.
Multi-instance learning · Domain adaptation →Embedding uncertainty, interpretability, and semantic grounding into AI systems so that clinicians know what models know, what they don't, and why. Trust is not accuracy — it is knowing what the model knows.
VIB · Uncertainty · Interpretability →Open-source platform for automated construction of statistical shape models of anatomical structures. The complete analysis pipeline: preprocessing, correspondence optimization, shape representation, statistical analysis, and visualization.
AI severity scoring for craniosynostosis. Converts a patient's 3D CT scan into an objective, population-grounded severity score — replacing subjective clinical assessment with reproducible, data-driven measurement.
Point2SSM++, a self-supervised framework for learning anatomical shape models directly from point clouds, has been accepted and published in Medical Image Analysis. The work extends Point2SSM with a self-supervised training paradigm that eliminates the need for ground-truth correspondences.
MedVIC has six papers under review at top venues, spanning cross-modal representation learning, multi-scale pathology supervision, MRI quality assessment, interpretability in medical vision-language models, normalizing flows for morphology, and accelerated 3D LGE-MRI reconstruction.
Tuan Le has joined MedVIC as a PhD student, working on few-shot learning in a co-advising arrangement with Prof. Gianfranco Doretto.
We recruit PhD students through the Kahlert School of Computing and welcome postdoctoral researchers, visiting scholars, and clinical collaborators.
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