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Swift Sampler: Efficient Learning of Sampler by 10 Parameters

NeurIPS 2024 · Architectures and efficiency › RNNs and normalization · approach: Dataset distillation and data-efficient training · 7 citations (OpenAlex)

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Proposes Swift Sampler (SS), a Bayesian-optimization-based search that parameterizes a data sampler with 10 hyperparameters (piecewise-linear map over loss/entropy features with a cumulative-gradient transform) and approximates local minima by fine-tuning a shared pre-trained checkpoint for 5 epochs.

Problem

Automatically learning data sampling probabilities is costly: sample-based search over per-instance probabilities is high-dimensional, the objective is sharp, and evaluating each sampler requires training from scratch, which is infeasible on large datasets like ImageNet.

Approach

Map a sampler to a low-dimensional family (10 hyperparameters) of functions of fixed, pre-computed features (loss and renormalized entropy) via a cumulative-gradient transform that smooths the objective, use GP-based Bayesian optimization with UCB, and evaluate candidates by briefly fine-tuning a shared pre-trained model rather than training from scratch.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use SS sampling instead of LRResNet-18 · CIFAR10, noise 0Top-1 accuracy: 91.0 -> 93.8Helped
Use SS sampling instead of LRResNet-18 · CIFAR100, noise 0Top-1 accuracy: 74.2 -> 75.2Helped
Use SS sampling instead of LRResNet-18 · CIFAR10, noise 0.1Top-1 accuracy: 91.0 -> 91.7Helped
Use SS sampling instead of LRResNet-18 · CIFAR100, noise 0.1Top-1 accuracy: 70.1 -> 71.2Helped
Use SS sampling instead of LRResNet-18 · CIFAR10, noise 0.2Top-1 accuracy: 89.2 -> 90.4Helped
Use SS sampling instead of LRResNet-18 · CIFAR100, noise 0.2Top-1 accuracy: 68.3 -> 69.2Helped
Use SS sampling instead of LRResNet-18 · CIFAR10, noise 0.3Top-1 accuracy: 88.5 -> 89.7Helped
Use SS sampling instead of LRResNet-18 · CIFAR100, noise 0.3Top-1 accuracy: 63.1 -> 64.4Helped
Use SS sampling instead of LRResNet-18 · CIFAR10, noise 0.4Top-1 accuracy: 86.9 -> 88.0Helped
Use SS sampling instead of LRResNet-18 · CIFAR100, noise 0.4Top-1 accuracy: 61.3 -> 62.3Helped
Use SS sampling instead of uniform samplingImageNet models · ImageNet ILSVRC12, Top-1 accuracy across listed architecturesTop-1 accuracy: 70.4 -> 71.9; 70.2 -> 71.6; 76.3 -> 77.7; 78.0 -> 79.3; 78.6 -> 79.8; 78.9 -> 80.0; 81.2 -> 82.1; 83.5 -> 84.3Helped
Use SS sampling instead of uniform samplingResNet-50 and ResNet-101 · YTF (trained on MS1M)verification performance: 97.41 -> 97.50; 97.54 -> 97.74Helped

Surprising findings

Limitations

Experimental setup

Datasets: CIFAR10 CIFAR100 ImageNet ILSVRC12 MS1M Wikitext-2 Mini-ImageNet LAION-5B

Benchmarks: CIFAR10 CIFAR100 ImageNet ILSVRC12 YTF

Metrics: Top-1 accuracy Top-5 accuracy Spearman rank correlation top-1 sampler ground-truth rank verification accuracy

Baselines: REED MentorNet Learning to reweight Random search Reinforcement learning sampler search Uniform sampling

Builds on: Bayesian Optimization Learning to reweight MentorNet REED

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