mlsanityData to 14 Oct 2026

Are Labels Required for Improving Adversarial Robustness?

arXiv 1905.13725 ↗First posted 31 May 2019cs.LG cs.CV stat.MLcited by 163

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Abstract (arXiv)

Recent work has uncovered the interesting (and somewhat surprising) finding that training models to be invariant to adversarial perturbations requires substantially larger datasets than those required for standard classification. This result is a key hurdle in the deployment of robust machine learning models in many real world applications where labeled data is expensive. Our main insight is that unlabeled data can be a competitive alternative to labeled data for training adversarially robust models. Theoretically, we show that in a simple statistical setting, the sample complexity for learning an adversarially robust model from unlabeled data matches the fully supervised case up to constant factors. On standard datasets like CIFAR-10, a simple Unsupervised Adversarial Training (UAT) approach using unlabeled data improves robust accuracy by 21.7% over using 4K supervised examples alone, and captures over 95% of the improvement from the same number of labeled examples. Finally, we report an improvement of 4% over the previous state-of-the-art on CIFAR-10 against the strongest known attack by using additional unlabeled data from the uncurated 80 Million Tiny Images dataset. This demonstrates that our finding extends as well to the more realistic case where unlabeled data is also uncurated, therefore opening a new avenue for improving adversarial training.

Key facts. Cited by 163 papers in the map (data through 14 Oct 2026). First posted on arXiv 31 May 2019.

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Citing papers per year: 2021: 46; 2022: 45; 2023: 43; 2024: 14; 2025: 11; 2026: 4.

163 papers.

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  1. 2021Recent Advances in Adversarial Training for Adversarial Robustnesscited by 279
  2. 2021Improving Robustness using Generated Datacited by 234
  3. 2023Cross-Entropy Loss Functions: Theoretical Analysis and Applicationscited by 210
  4. 2023Better Diffusion Models Further Improve Adversarial Trainingcited by 208
  5. 2021Fixing Data Augmentation to Improve Adversarial Robustnesscited by 204
  6. 2021Data Augmentation Can Improve Robustnesscited by 194
  7. 2024Defensive Unlearning with Adversarial Training for Robust Concept Erasure in Diffusion Modelscited by 168
  8. 2022Backdoor Defense via Decoupling the Training Processcited by 153
  9. 2022Understanding Zero-Shot Adversarial Robustness for Large-Scale Modelscited by 117
  10. 2021Robust Learning Meets Generative Models: Can Proxy Distributions Improve Adversarial Robustness?cited by 113
  11. 2022Robustness and Accuracy Could Be Reconcilable by (Proper) Definitioncited by 111
  12. 2021Revisiting Adversarial Robustness Distillation: Robust Soft Labels Make Student Bettercited by 79
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  1. 2021Exploring Architectural Ingredients of Adversarially Robust Deep Neural Networkscited by 74
  2. 2023How Deep Learning Sees the World: A Survey on Adversarial Attacks & Defensescited by 66
  3. 2021Open-set Label Noise Can Improve Robustness Against Inherent Label Noisecited by 59
  4. 2021Relating Adversarially Robust Generalization to Flat Minimacited by 57
  5. 2021Reliable Adversarial Distillation with Unreliable Teacherscited by 56
  6. 2021Exploring Memorization in Adversarial Trainingcited by 55
  7. 2022Understanding Robust Overfitting of Adversarial Training and Beyondcited by 51
  8. 2021Detecting Adversarial Examples Is (Nearly) As Hard As Classifying Themcited by 48
  9. 2021Adversarial Attacks are Reversible with Natural Supervisioncited by 47
  10. 2021Distributionally Robust Learningcited by 44
  11. 2023Data Augmentation Alone Can Improve Adversarial Trainingcited by 43
  12. 2023Backdoor Defense via Adaptively Splitting Poisoned Datasetcited by 43
  13. 2022How to Robustify Black-Box ML Models? A Zeroth-Order Optimization Perspectivecited by 39
  14. 2021Adversarial Training Helps Transfer Learning via Better Representationscited by 36
  15. 2022Calibrated ensembles can mitigate accuracy tradeoffs under distribution shiftcited by 34
  16. 2022DISCO: Adversarial Defense with Local Implicit Functionscited by 34
  17. 2021On Fast Adversarial Robustness Adaptation in Model-Agnostic Meta-Learningcited by 29
  18. 2021Provably Efficient Black-Box Action Poisoning Attacks Against Reinforcement Learningcited by 29
  19. 2022On the Adversarial Robustness of Mixture of Expertscited by 28
  20. 2023Randomized Adversarial Training via Taylor Expansioncited by 28
  21. 2022Robust Weight Perturbation for Adversarial Trainingcited by 25
  22. 2023Toward Understanding Generative Data Augmentationcited by 25
  23. 2021LAFEAT: Piercing Through Adversarial Defenses with Latent Featurescited by 24
  24. 2021Removing Undesirable Feature Contributions Using Out-of-Distribution Datacited by 23
  25. 2022Understanding and Combating Robust Overfitting via Input Loss Landscape Analysis and Regularizationcited by 22
  26. 2022Denoising Masked AutoEncoders Help Robust Classificationcited by 21
  27. 2022Decoupled Adversarial Contrastive Learning for Self-supervised Adversarial Robustnesscited by 20
  28. 2023Rethinking the Effect of Data Augmentation in Adversarial Contrastive Learningcited by 20
  29. 2021Understanding the Interaction of Adversarial Training with Noisy Labelscited by 19
  30. 2021Adversarial Robustness via Fisher-Rao Regularizationcited by 19
  31. 2022Revisiting adapters with adversarial trainingcited by 18
  32. 2022Reverse Engineering of Imperceptible Adversarial Image Perturbationscited by 17
  33. 2023Adversarial Training of Self-supervised Monocular Depth Estimation against Physical-World Attackscited by 17
  34. 2021Adversarial Examples can be Effective Data Augmentation for Unsupervised Machine Learningcited by 16
  35. 2021Towards Evaluating the Robustness of Deep Diagnostic Models by Adversarial Attackcited by 15
  36. 2021Deepfake Forensics via An Adversarial Gamecited by 15
  37. 2023Hyperbolic Contrastive Learningcited by 15
  38. 2021Two Coupled Rejection Metrics Can Tell Adversarial Examples Apartcited by 14

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