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TinyMIG: Transferring Generalization from Vision Foundation Models to Single-Domain Medical Imaging

ICML 2025 · Label-efficient and robust learning › Recognition and long-tail · approach: Correspondence and causal representation learning

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Transfers generalization from vision foundation models (SAM, MedSAM, DINOv2) to a lightweight ResNet-34 U-Net for single-source medical image segmentation via distribution-level and frequency-based feature alignment during training only.

Problem

Single-domain (single-source) generalization for medical image segmentation, where models trained on one source site must generalize to unseen imaging devices and centers, while avoiding the high inference cost of foundation models.

Approach

Uses foundation-model feature statistics to modulate a lightweight specialized model's feature distributions (UFDM with a cross-distribution KL consistency loss) and aligns frequency-filtered (FFT amplitude/phase) intermediate features with the foundation model (LRA), so only the small model is used at inference.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use TinyMIG instead of DAPSAMmedical image SDG segmentation · Fundus segmentation, optical disc and cup averagesDSC: 88.27 -> 90.09; 74.99 -> 79.84Helped
Use TinyMIG instead of DAPSAMmedical image SDG segmentation · Prostate segmentationDSC: 81.31 -> 83.09Helped
Use TinyMIG instead of DAPSAMmedical image SDG segmentation · Prostate segmentationASD: 3.39 -> 3.06Helped
Add UFDM (ablation)TinyMIG · Fundus and prostate segmentationDSC: 67.53 -> 81.04; 48.75 -> 76.25Helped
Add CDCL (ablation)TinyMIG with UFDM and co-training · Fundus and prostate segmentationDSC: 81.04 -> 82.52; 76.25 -> 80.73Helped
Add FDCE and LLRA (ablation)TinyMIG · Fundus and prostate segmentationDSC: 80.16 -> 83.41; 70.32 -> 78.26Mixed
Add co-training (ablation)TinyMIG with UFDM, CDCL, FDCE, and LLRA · Fundus and prostate segmentationDSC: 83.78 -> 84.97; 81.76 -> 83.09Helped
Add FDCE-A (ablation)TinyMIG LRA module with FDCE-P and ACR · Prostate segmentationDSC: 78.43 -> 83.09Helped
Add FDCE-P (ablation)TinyMIG LRA module with FDCE-A and ACR · Prostate segmentationDSC: 81.02 -> 83.09Helped
Add ACR (ablation)TinyMIG LRA module with FDCE-P and FDCE-A · Prostate segmentationDSC: 79.05 -> 83.09Helped

Surprising findings

Limitations

Experimental setup

Datasets: Fundus optic disc/cup segmentation benchmark (Almazroa et al., 2018; Chen et al., 2023) Prostate MRI segmentation benchmark (Chen et al., 2023)

Benchmarks: Fundus OD/OC segmentation (5 domains) Prostate MRI segmentation (6 domains)

Metrics: DSC ASD FLOPs parameters fps

Baselines: ERM MixStyle CSDG MaxStyle EFDM DSU SLAug TriD MAD VPTTA DAPSAM SAMed

Builds on: AdaIN DAPSAM MixStyle SAMed Rein

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