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A CLIP-Powered Framework for Robust and Generalizable Data Selection

ICLR 2025 · Label-efficient and robust learning › Recognition and long-tail · approach: Data augmentation and generalization bias · 0 citations (OpenAlex)

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Proposes a CLIP-based multimodal data selection framework that scores samples by image-text semantic alignment and local diversity, then selects subsets via SGD-based multi-objective optimization with a straight-through estimator to hit target ratios.

Problem

Static data selection for efficient training is typically based on image-only signals, which are unreliable under label noise and corruption, and selection by top/bottom scores ignores group effects among selected samples.

Approach

Adapts frozen CLIP image and text features with lightweight MLP adapters trained by InfoNCE, scores samples with a semantic alignment score (image-text cosine) and a KNN-based diversity score, and optimizes a relaxed binary selection vector with sigmoid and STE to meet the expected selection ratio.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use CLIP multimodal data selectionCIFAR-10, ResNet-50 at 20% selection · CIFAR-10top-1 accuracy: 84.60 -> 85.70Helped
Use CLIP multimodal data selectionCIFAR-10, ViT-small at 90% selection · CIFAR-10accuracy: 82.92 -> 84.26Helped
Use CLIP multimodal data selectionTiny-ImageNet VGG-16 at 90% selection · Tiny-ImageNetaccuracy: 54.73 -> 56.34Helped
Use CLIP multimodal data selectionTiny-ImageNet DenseNet-121 at 90% selection · Tiny-ImageNetaccuracy: 61.44 -> 61.59Helped
Use CLIP multimodal data selectionnoisy-label CIFAR-100 at 20% selection · CIFAR-100 label noiseaccuracy: 42.29 -> 46.05Helped
Use CLIP multimodal data selectionnoisy-label Tiny-ImageNet at 30% selection · Tiny-ImageNet label noiseaccuracy: 27.80 -> 33.13Helped
Add dataset adapters (ablation)full CLIP selection method · CIFAR-100accuracy: 78.20 -> 78.98Helped
Add dataset adapters (ablation)full CLIP selection method · Tiny-ImageNetaccuracy: 46.68 -> 49.30Helped
Add semantic alignment loss L_sa (ablation)full CLIP selection method · CIFAR-100accuracy: 78.42 -> 78.98Helped
Add semantic alignment loss L_sa (ablation)full CLIP selection method · Tiny-ImageNetaccuracy: 46.79 -> 49.30Helped
Add sample diversity loss L_sd (ablation)full CLIP selection method · Tiny-ImageNetaccuracy: 49.14 -> 49.30Helped
Add selection-ratio loss L_s (ablation)full CLIP selection method · Tiny-ImageNetaccuracy: 46.01 -> 49.30Helped

Surprising findings

Limitations

Experimental setup

Datasets: CIFAR-10 CIFAR-100 Tiny-ImageNet ImageNet-1k ImageNet-Hard ImageNet-R ImageNet-A

Benchmarks: CIFAR-10 CIFAR-100 Tiny-ImageNet ImageNet-1k ImageNet-Hard ImageNet-R ImageNet-A

Metrics: top-1 accuracy top-5 accuracy noise proportion in selected data Dunn Index selection cost (hours)

Baselines: Random MoSo Glister Herding Forgetting GraNd EL2N Self-sup. prototypes CG-Score Moderate-DS

Builds on: CLIP InfoNCE straight-through estimator Moderate-DS CCS

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