mlsanityData to 7 Oct 2026

Robust Learning Meets Generative Models: Can Proxy Distributions Improve Adversarial Robustness?

arXiv 2104.09425 ↗First posted 19 Apr 2021cs.LG cs.CR cs.CVcited by 113

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Abstract (arXiv)

While additional training data improves the robustness of deep neural networks against adversarial examples, it presents the challenge of curating a large number of specific real-world samples. We circumvent this challenge by using additional data from proxy distributions learned by advanced generative models. We first seek to formally understand the transfer of robustness from classifiers trained on proxy distributions to the real data distribution. We prove that the difference between the robustness of a classifier on the two distributions is upper bounded by the conditional Wasserstein distance between them. Next we use proxy distributions to significantly improve the performance of adversarial training on five different datasets. For example, we improve robust accuracy by up to 7.5% and 6.7% in ℓ∞ and ℓ2 threat model over baselines that are not using proxy distributions on the CIFAR-10 dataset. We also improve certified robust accuracy by 7.6% on the CIFAR-10 dataset. We further demonstrate that different generative models bring a disparate improvement in the performance in robust training. We propose a robust discrimination approach to characterize the impact of individual generative models and further provide a deeper understanding of why current state-of-the-art in diffusion-based generative models are a better choice for proxy distribution than generative adversarial networks.

Key facts. Cited by 113 papers in the map (data through 7 Oct 2026). Builds on 61 of its 80 references that are in the map. First posted on arXiv 19 Apr 2021.

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61 of 80 references.

References · 61

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Citing papers per year: 2022: 33; 2023: 39; 2024: 21; 2025: 15; 2026: 5.

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  24. 2022Improving Adversarial Robustness by Contrastive Guided Diffusion Processcited by 8
  25. 2022Nash Equilibria and Pitfalls of Adversarial Training in Adversarial Robustness Gamescited by 8
  26. 2022Adversarial Purification with the Manifold Hypothesiscited by 8
  27. 2023Improving Adversarial Robust Fairness via Anti-Bias Soft Label Distillationcited by 8
  28. 2024Adversarial Guided Diffusion Models for Adversarial Purificationcited by 8
  29. 2023MultiRobustBench: Benchmarking Robustness Against Multiple Attackscited by 7
  30. 2023Annealing Self-Distillation Rectification Improves Adversarial Trainingcited by 7
  31. 2023Towards reporting bias in visual-language datasets: bimodal augmentation by decoupling object-attribute associationcited by 7
  32. 2025RODEO: Robust Outlier Detection via Exposing Adaptive Out-of-Distribution Samplescited by 7
  33. 2022Improving Robust Generalization by Direct PAC-Bayesian Bound Minimizationcited by 6
  34. 2022Reliable Robustness Evaluation via Automatically Constructed Attack Ensemblescited by 6
  35. 2022Game Theoretic Mixed Experts for Combinational Adversarial Machine Learningcited by 6
  36. 2022SRoUDA: Meta Self-training for Robust Unsupervised Domain Adaptationcited by 6
  37. 2023Characterizing the Optimal 0-1 Loss for Multi-class Classification with a Test-time Attackercited by 6
  38. 2023AROID: Improving Adversarial Robustness Through Online Instance-Wise Data Augmentationcited by 6

50 most cited of 113 All 113 (JSON)

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