ECCV 2026 Workshop · Afternoon · In-Person

Medical Foundation Models
and Benchmarks

Advancing the co-evolution of medical foundation models and benchmarking — from pretraining objectives and multimodal alignment to evaluation protocols that diagnose robustness, generalization, and evidence consistency.

Sep 8, 2026 at 2:00 PM CEST (Europe/Stockholm) Room: Quality View Oresundssalen - 2

Why Medical Foundation Models & Benchmarks?

Medical foundation models are rapidly reshaping medical image understanding, enabling stronger generalization and more unified learning across modalities (X-ray, CT, MRI, ultrasound) and tasks such as classification, detection, segmentation, report generation, and multimodal reasoning. A key differentiator of this workshop is the explicit focus on the co-evolution of foundation models and benchmarking — not only building stronger models, but also establishing evaluation protocols that diagnose robustness, cross-site generalization, and evidence consistency.

Pillar I

Foundation Model Design & Learning

Model architectures, large-scale pretraining and self-supervised learning, multimodal learning, alignment, cross-modality reasoning, and efficient fine-tuning and adaptation strategies.

ArchitecturesSelf-supervised learningMultimodal alignmentEfficient fine-tuning
Pillar II

Data, Scaling & Generalization

Global-scale multi-institution datasets, collaboration frameworks and governance, privacy-preserving learning (federated learning), data curation, domain generalization under distribution shift, robustness, safety, and trustworthiness.

Data scalingFederated learningDomain shiftSafety & Trust
Pillar III

Benchmarking & Deployment

Evaluation standards, benchmark design, reproducible protocols, and clinical deployment — developing emerging benchmarks that diagnose robustness, generalization, and evidence consistency for high-stakes clinical settings.

BenchmarksReproducibilityClinical deploymentEvaluation protocols

Invited Speakers

Leading researchers sharing complementary perspectives on medical foundation models, multimodal reasoning, and clinical AI.

Michael Moor

Michael Moor

ETH Zürich

Lalithkumar Seenivasan

Lalithkumar Seenivasan

Johns Hopkins University

Weidi Xie

Weidi Xie

Shanghai Jiao Tong University

Xiaoxiao Li

Xiaoxiao Li

UBC

Workshop Schedule

September 8, 2026 · Room: Quality View Oresundssalen - 2.
All times are in CEST (Europe/Stockholm). An afternoon program with four invited talks, a poster session with coffee break, and five oral presentations.

TimeEventType
2:00 PM10 minOpening Remarks
Welcome and workshop overview from the organizers
2:10 PM30 minInvited Talk 1
Michael Moor
Keynote
2:40 PM30 minInvited Talk 2
Lalithkumar Seenivasan
Keynote
3:10 PM60 min☕ Poster Session & Coffee Break
Interactive poster session — up to 30 posters on display
Poster
4:10 PM10 minRadMatch: Auditable Radiology Report Evaluation via Finding-Level MatchingOral
4:20 PM10 minConsistent View Alignment Improves Vision Foundation Models for 3D Medical Image AnalysisOral
4:30 PM10 minMMBU: A Massive Multi-modal Biomedical Understanding Benchmark to Probe the Perception Capabilities of Vision-Language ModelsOral
4:40 PM10 minStateful Visual Encoders for Vision-Language ModelsOral
4:50 PM10 minDistillPath: An Efficient 22M Distilled Pathology Encoder Approaching Large Foundation Model PerformanceOral
5:00 PM30 minInvited Talk 3
Weidi Xie
Keynote
5:30 PM30 minInvited Talk 4
Xiaoxiao Li
Keynote

Accepted Papers

  1. How Medical Multimodal Large Language Models Think in Space
  2. When Do VLM-Generated Labels Help? A Scaling-Law Diagnostic for Medical Imaging Foundation Models
  3. Controlled One-Click Benchmarking and Post-Fusion Recalibration for Support-Conditioned Medical Segmentation
  4. Consistent View Alignment Improves Vision Foundation Models for 3D Medical Image Analysis
  5. How Does SAM-3 Adapt? Capacity, Update Geometry, and Domain Transfer
  6. RadMatch: Auditable Radiology Report Evaluation via Finding-Level Matching
  7. Look, Ask, Diagnose: A Multi-Agent Visual Dialogue Framework for Medical Disease Diagnosis
  8. V-REX: Efficient Specialist VLM Training for Veterinary X-Rays
  9. Anatomy Contextualized Adaption of CT Foundation Models
  10. MMBU: A Massive Multi-modal Biomedical Understanding Benchmark to Probe the Perception Capabilities of Vision-Language Models
  11. PixCell-Text: Adapting a Pathology Image Prior for Text Conditioning
  12. Reliable Normal Projection with Healthy-Reference Calibration for Brain MRI Anomaly Localization
  13. MedDeepSearch: Agentic Search for Medical VQA with Reinforcement-Trained LLMs
  14. What Your CXR Reveals Beyond the Pathology: Causal Evidence for Demographic Leakage in Medical Foundation Model Embeddings and Its Calibration Fairness Consequences
  15. Rethinking Real-World MRI Denoising: Learning from Physical Noise
  16. Stateful Visual Encoders for Vision-Language Models
  17. S2L-Net: Structured Saliency Fusion and Local-Global Recalibration for Medical Image Segmentation
  18. Conserved Immune Topology Improves Pathology Foundation Model Generalization for Cross-Cancer MSI-H Prediction
  19. Discrete Diffusion Language Models for Interactive Radiology Report Drafting
  20. BM1b: Data-Efficient Scaling of Bone Marrow Foundation Models through Domain-Specific Self-Supervised Learning and Dense Morphology-Preserving Representation Learning
  21. A Deep Learning Benchmark for Wound Tissue Segmentation
  22. DistillPath: An Efficient 22M Distilled Pathology Encoder Approaching Large Foundation Model Performance
  23. Beyond Training from Scratch: Foundation Models for Data-Efficient and Generalizable Cardiac MRI Reconstruction
  24. Beyond Natural-Image Foundation Models: Benchmarking Satellite Pretraining for Ophthalmic Image Analysis
  25. Jolia: Concept-Level Vision-Language Alignment for 3D CT Contrastive Learning
  26. Curia-2: Scaling Self-Supervised Learning for Radiology Foundation Models
  27. CheXSpatialVQA: A Multi modal Spatial Understanding Benchmark for Chest X-Ray Interpretation
  28. Do Brain MRI Foundation Models Capture Temporal Change? An Evaluation on Post-Treatment Glioma

Organizers & Advisors

Organizers

Xiangteng He

Xiangteng He

University of British Columbia

Xiaoxiao Sun

Xiaoxiao Sun

Stanford University

Kun Yuan

Kun Yuan

TU Munich & U. of Strasbourg

Ming Hu

Ming Hu

Monash University & Shanghai AI Laboratory

Congyi Zhang

Congyi Zhang

UT Dallas

Yuhui Zhang

Yuhui Zhang

Stanford University

Benjamin D. Killeen

Benjamin D. Killeen

TU Munich

Yue Yao

Yue Yao

Shandong University

Advisory Board

Nassir Navab

Nassir Navab

TU Munich

Nicolas Padoy

Nicolas Padoy

University of Strasbourg

Serena Yeung-Levy

Serena Yeung-Levy

Stanford University

Zongyuan Ge

Zongyuan Ge

Monash University

Purang Abolmaesumi

Purang Abolmaesumi

University of British Columbia

Leonid Sigal

Leonid Sigal

University of British Columbia

Alan L. Yuille

Alan L. Yuille

Johns Hopkins University

PC Team

Wenzhuo Zhou

Wenzhuo Zhou

Shandong University

OpenReview system email checks and notification support.

Wenzhuo Zhou supports OpenReview system email checks and notifications. Additional PC reviewers listed below submitted at least one official review.
Allan Kazakov
Jia He
Zhiheng Zhang
Liping Meng
Jingyi He
Roshan Kenia
Aoife Gardiner
Muhammad Muneeb Afzal
Bruce Changlong Xu
Tim Elsner
Yonghao Li
Guoxun Zhang
Gurucharan Marthi Krishna Kumar
Haoyu Li
Cunhao Zhu
Md Muntaqim Meherab
Muhammad Umair Ahmad Khan
Wang-Chi-Shiun
Ruinan Jin
Lingguo Zeng
Ferran Soler-Guiral
Ka Young Kim
Mei Vaish
Théo Danielou
Ruochen Li
Sebastian Rassmann
Charles Corbière
Mingyang Li
Max Van Puyvelde
Quoc-Huy Trinh
Ailar Mahdizadeh
Lyuyang Wang
Elena Gensch
Pranav Sunil
Mingkang Zhou
Jiayu Chang
Nishchal Sapkota