mlsanityData to 7 Oct 2026

MMA Training: Direct Input Space Margin Maximization through Adversarial Training

arXiv 1812.02637 ↗First posted 6 Dec 2018cs.LG cs.NE stat.MLcited by 171

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Abstract (arXiv)

We study adversarial robustness of neural networks from a margin maximization perspective, where margins are defined as the distances from inputs to a classifier's decision boundary. Our study shows that maximizing margins can be achieved by minimizing the adversarial loss on the decision boundary at the "shortest successful perturbation", demonstrating a close connection between adversarial losses and the margins. We propose Max-Margin Adversarial (MMA) training to directly maximize the margins to achieve adversarial robustness. Instead of adversarial training with a fixed ε, MMA offers an improvement by enabling adaptive selection of the "correct" ε as the margin individually for each datapoint. In addition, we rigorously analyze adversarial training with the perspective of margin maximization, and provide an alternative interpretation for adversarial training, maximizing either a lower or an upper bound of the margins. Our experiments empirically confirm our theory and demonstrate MMA training's efficacy on the MNIST and CIFAR10 datasets w.r.t. ℓ_∞ and ℓ2 robustness. Code and models are available at https://github.com/BorealisAI/mmatraining.

Key facts. Cited by 171 papers in the map (data through 7 Oct 2026). First posted on arXiv 6 Dec 2018.

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Citing papers per year: 2021: 48; 2022: 46; 2023: 34; 2024: 22; 2025: 13; 2026: 8.

171 papers.

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  1. 2022Diffusion Models for Adversarial Purificationcited by 469
  2. 2021Recent Advances in Adversarial Training for Adversarial Robustnesscited by 276
  3. 2023Cross-Entropy Loss Functions: Theoretical Analysis and Applicationscited by 206
  4. 2021Advances in adversarial attacks and defenses in computer vision: A surveycited by 127
  5. 2022Robustness and Accuracy Could Be Reconcilable by (Proper) Definitioncited by 109
  6. 2021Exploring Architectural Ingredients of Adversarially Robust Deep Neural Networkscited by 73
  7. 2021Relating Adversarially Robust Generalization to Flat Minimacited by 57
  8. 2021Reliable Adversarial Distillation with Unreliable Teacherscited by 55
  9. 2023CFA: Class-wise Calibrated Fair Adversarial Trainingcited by 53
  10. 2021Adversarial Robustness under Long-Tailed Distributioncited by 50
  11. 2022Rethinking Lipschitz Neural Networks and Certified Robustness: A Boolean Function Perspectivecited by 48
  12. 2023Robust Principles: Architectural Design Principles for Adversarially Robust CNNscited by 46
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  1. 2022Practical Evaluation of Adversarial Robustness via Adaptive Auto Attackcited by 44
  2. 2022Enhancing Adversarial Training with Second-Order Statistics of Weightscited by 42
  3. 2021Towards Certifying L-infinity Robustness using Neural Networks with L-inf-dist Neuronscited by 40
  4. 2021Adversarial Robustness with Semi-Infinite Constrained Learningcited by 39
  5. 2022Self-Ensemble Adversarial Training for Improved Robustnesscited by 38
  6. 2023Exploring and Exploiting Decision Boundary Dynamics for Adversarial Robustnesscited by 35
  7. 2022Generalized Strategic Classification and the Case of Aligned Incentivescited by 34
  8. 2021Exploring Misclassifications of Robust Neural Networks to Enhance Adversarial Attackscited by 33
  9. 2022DISCO: Adversarial Defense with Local Implicit Functionscited by 33
  10. 2021Attacking Adversarial Attacks as A Defensecited by 31
  11. 2023Towards Trustworthy and Aligned Machine Learning: A Data-centric Survey with Causality Perspectivescited by 30
  12. 2021A Review of Adversarial Attack and Defense for Classification Methodscited by 29
  13. 2023Randomized Adversarial Training via Taylor Expansioncited by 28
  14. 2022Robust Models are less Over-Confidentcited by 25
  15. 2021LAFEAT: Piercing Through Adversarial Defenses with Latent Featurescited by 24
  16. 2021Boosting the Certified Robustness of L-infinity Distance Netscited by 24
  17. 2022Fast Adversarial Training with Adaptive Step Sizecited by 24
  18. 2021Adversarial Robustness against Multiple and Single lp-Threat Models via Quick Fine-Tuning of Robust Classifierscited by 23
  19. 2021Indicators of Attack Failure: Debugging and Improving Optimization of Adversarial Examplescited by 23
  20. 2022Exploring the Relationship between Architecture and Adversarially Robust Generalizationcited by 23
  21. 2021Taxonomy of Machine Learning Safety: A Survey and Primercited by 22
  22. 2022CNN Filter DB: An Empirical Investigation of Trained Convolutional Filterscited by 20
  23. 2021Understanding the Interaction of Adversarial Training with Noisy Labelscited by 19
  24. 2021Fighting Gradients with Gradients: Dynamic Defenses against Adversarial Attackscited by 19
  25. 2023Delving into the Adversarial Robustness of Federated Learningcited by 19
  26. 2023Enhancing Adversarial Robustness via Score-Based Optimizationcited by 19
  27. 2023Certified Robustness via Dynamic Margin Maximization and Improved Lipschitz Regularizationcited by 19
  28. 2023TWINS: A Fine-Tuning Framework for Improved Transferability of Adversarial Robustness and Generalizationcited by 18
  29. 2023MimicDiffusion: Purifying Adversarial Perturbation via Mimicking Clean Diffusion Modelcited by 18
  30. 2021Towards Evaluating the Robustness of Deep Diagnostic Models by Adversarial Attackcited by 15
  31. 2024Adversarial Training on Purification (AToP): Advancing Both Robustness and Generalizationcited by 15
  32. 2024Mitigating the Curse of Dimensionality for Certified Robustness via Dual Randomized Smoothingcited by 15
  33. 2021Label Noise in Adversarial Training: A Novel Perspective to Study Robust Overfittingcited by 14
  34. 2021Understanding Square Loss in Training Overparametrized Neural Network Classifierscited by 14
  35. 2023Purify++: Improving Diffusion-Purification with Advanced Diffusion Models and Control of Randomnesscited by 13
  36. 2022Improving Robustness by Enhancing Weak Subnetscited by 12
  37. 2022Why adversarial training can hurt robust accuracycited by 12
  38. 2022Improving Adversarial Robustness by Putting More Regularizations on Less Robust Samplescited by 11

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