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When Dynamic Data Selection Meets Data Augmentation: Achieving Enhanced Training Acceleration

ICML 2025 · Label-efficient and robust learning › Recognition and long-tail · approach: Data augmentation and generalization bias

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Proposes an online training framework that unifies dynamic data selection with TrivialAugment, selecting samples by a joint density and CLIP-based semantic consistency distribution to cut training cost while keeping accuracy.

Problem

Dynamic data selection speeds up training but reduces data diversity and hurts generalization, while data augmentation is usually not optimized jointly with selection, and selected low-density samples may be noisy or ambiguous.

Approach

Score each sample by the product of its normalized local density (mean HNSW neighbor distance, computed online) and a precomputed CLIP image-label cosine consistency (via lightweight adapters), select high-scoring samples for training, and apply a single lightweight TrivialAugment transformation to them.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use dynamic selection and augmentation instead of InfoBatchOurs · Tiny-ImageNetaccuracy (%): 43.2 -> 44.9Helped
Use dynamic selection and augmentation instead of InfoBatchOurs · CIFAR-100accuracy (%): 76.5 -> 77.6Helped
Use dynamic selection and augmentation instead of InfoBatchOurs · ImageNet-1k, 60% selectionaccuracy (%): 76.5 -> 76.9Helped
Use dynamic selection and augmentation instead of InfoBatchOurs · Tiny-ImageNet noisy, 20% noise, 20% selectionaccuracy (%): 34.9 -> 35.9Helped
Use dynamic selection and augmentation instead of InfoBatchOurs · Tiny-ImageNet corrupted, 20% selectionaccuracy (%): 35.1 -> 39.1Helped
Add semantic consistency to density-based selection (ablation)Ours · Tiny-ImageNet, 30% selectionaccuracy (%): 39.0 -> 42.5Helped
Add the augmenter to density-plus-consistency selection (ablation)Ours · Tiny-ImageNet, 30% selectionaccuracy (%): 42.5 -> 43.5Helped
Add density to consistency-plus-augmentation selection (ablation)Ours · Tiny-ImageNet, 30% selectionaccuracy (%): 41.1 -> 43.5Helped
Add consistency to density-plus-augmentation selection (ablation)Ours · Tiny-ImageNet, 30% selectionaccuracy (%): 41.5 -> 43.5Helped
Add the augmenter to density-plus-consistency selection (ablation)Ours · Tiny-ImageNet, 50% selectionaccuracy (%): 46.3 -> 47.5Helped
Add the augmenter to density-plus-consistency selection (ablation)Ours · Tiny-ImageNet, 70% selectionaccuracy (%): 49.3 -> 50.2Helped

Surprising findings

Limitations

Experimental setup

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

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

Metrics: accuracy AUPR wall-clock time GPU hours

Baselines: Random Herding EL2N GraNd Glister Forgetting Moderate-DS Self-sup. prototypes MoSo DP UCB epsilon-Greedy

Builds on: InfoBatch TrivialAugment CLIP HNSW Moderate-DS

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