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Revisiting Source-Free Domain Adaptation: Insights into Representativeness, Generalization, and Variety

CVPR 2025 · Label-efficient and robust learning › Domain adaptation and generalization · approach: Source-free domain adaptation · 2 citations (OpenAlex)

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Provides a theoretical upper bound on target empirical risk for source-free domain adaptation (representativeness, generalization, variety) and a progressive intersection-based sample selection + certainty-weighted semantic alignment method that beats SHOT and other SFDA baselines on Office-Home, DomainNet-126, and VisDA-C.

Problem

Source-free domain adaptation methods rely on intuitive heuristics (data generation, self-training) without theoretical grounding about what controls target-domain empirical risk when source data is unavailable.

Approach

Derives a VC-style bound on target empirical risk decomposed into representativeness (risk on confidently pseudo-labeled subset), intra-target generalization divergence between selected and unselected target data, and variety (sample-size term); operationalizes these via intersection-based (classifier top-k ∩ cosine-to-class-center) sample selection, neighbor-based pseudo-label refinement with cer

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use the proposed SFDA method instead of C-SFDAOffice-Home adaptation · Office-Homeaccuracy: 73.5 -> 74.1Helped
Use the proposed SFDA method instead of I-SFDAVisDA-C adaptation · VisDA-Caccuracy: 88.4 -> 89.1Helped
Use the proposed SFDA method instead of GPUEDomainNet126 adaptation · DomainNet126accuracy: 69.6 -> 73.2Helped
Add LSA and LCE to LIM (ablation)SFDA method · Office-Home and DomainNet126, six adaptation tasksaccuracy: 67.1 -> 73.8Helped
Add LSA and LIM to LCE (ablation)SFDA method · Office-Home and DomainNet126, six adaptation tasksaccuracy: 65.8 -> 73.8Helped
Add LCE and LIM to LSA (ablation)SFDA method · Office-Home and DomainNet126, six adaptation tasksaccuracy: 28.2 -> 73.8Helped
Add LSA (ablation)LCE + LIM variant · Office-Home and DomainNet126, six adaptation tasksaccuracy: 69.0 -> 73.8Helped
Add LCE (ablation)LSA + LIM variant · Office-Home and DomainNet126, six adaptation tasksaccuracy: 68.9 -> 73.8Helped
Add LIM (ablation)LSA + LCE variant · Office-Home and DomainNet126, six adaptation tasksaccuracy: 71.3 -> 73.8Helped
Replace C-sampling with I-sampling (ablation)SFDA sample selection · Office-Home A→Caccuracy: 59.9 -> 61.2Helped
Replace C-sampling with I-sampling (ablation)SFDA sample selection · DomainNet126 Re→Claccuracy: 76.5 -> 77.7Helped
Replace T-sampling with I-sampling (ablation)SFDA sample selection · Office-Home A→Caccuracy: 59.1 -> 61.2Helped

Surprising findings

Limitations

Experimental setup

Datasets: Office-Home DomainNet-126 VisDA-C

Benchmarks: Office-Home DomainNet-126 VisDA-C

Metrics: top-1 accuracy average accuracy

Baselines: ERM CDAN CST SHOT A2Net AaD CoWA DaC C-SFDA I-SFDA SHOT+DPC GPUE

Builds on: SHOT Ben-David domain adaptation theory information maximization CDAN

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