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NoisyMix: Boosting Model Robustness to Common Corruptions
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For many real-world applications, obtaining stable and robust statistical performance is more important than simply achieving state-of-the-art predictive test accuracy, and thus robustness of neural networks is an increasingly important topic. Relatedly, data augmentation schemes have been shown to improve robustness with respect to input perturbations and domain shifts. Motivated by this, we introduce NoisyMix, a novel training scheme that promotes stability as well as leverages noisy augmentations in input and feature space to improve both model robustness and in-domain accuracy. NoisyMix produces models that are consistently more robust and that provide well-calibrated estimates of class membership probabilities. We demonstrate the benefits of NoisyMix on a range of benchmark datasets, including ImageNet-C, ImageNet-R, and ImageNet-P. Moreover, we provide theory to understand implicit regularization and robustness of NoisyMix.
Forward citations
Cited by 3 Pith papers
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Models lose far more accuracy to realistic optical aberrations than to the simple disk blur used in standard benchmarks, and training on simulated lens blur partially closes the gap.
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DRO-Augment Framework: Robustness by Synergizing Wasserstein Distributionally Robust Optimization and Data Augmentation
Adding a Wasserstein DRO gradient penalty to Mixup, AugMix, or NoisyMix raises average CIFAR-C accuracy by about 1.1% and PGD robustness on MNIST and Fashion-MNIST by 5-7%.
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