Adversarial Feature Desensitization
Not on the map. Why?
Abstract (arXiv)
Neural networks are known to be vulnerable to adversarial attacks -- slight but carefully constructed perturbations of the inputs which can drastically impair the network's performance. Many defense methods have been proposed for improving robustness of deep networks by training them on adversarially perturbed inputs. However, these models often remain vulnerable to new types of attacks not seen during training, and even to slightly stronger versions of previously seen attacks. In this work, we propose a novel approach to adversarial robustness, which builds upon the insights from the domain adaptation field. Our method, called Adversarial Feature Desensitization (AFD), aims at learning features that are invariant towards adversarial perturbations of the inputs. This is achieved through a game where we learn features that are both predictive and robust (insensitive to adversarial attacks), i.e. cannot be used to discriminate between natural and adversarial data. Empirical results on several benchmarks demonstrate the effectiveness of the proposed approach against a wide range of attack types and attack strengths. Our code is available at https://github.com/BashivanLab/afd.
Key facts. Cited by 12 papers in the map (data through 14 Oct 2026). First posted on arXiv 8 Jun 2020.
Builds on
No reference list yet.
Built on by
Citing papers per year: 2021: 2; 2022: 3; 2023: 2; 2024: 3; 2025: 2.
12 papers.
- 2022Dynamical systems' based neural networkscited by 10
- 2024DD-RobustBench: An Adversarial Robustness Benchmark for Dataset Distillationcited by 8
- 2021Push Stricter to Decide Better: A Class-Conditional Feature Adaptive Framework for Improving Adversarial Robustnesscited by 6
- 2022Towards Out-of-Distribution Adversarial Robustnesscited by 5
- 2021Domain Conditional Predictors for Domain Adaptationcited by 4
- 2023Exploring Robust Features for Improving Adversarial Robustnesscited by 4
- 2022Learning Robust Kernel Ensembles with Kernel Average Poolingcited by 1
- 2023Topology-preserving Adversarial Training for Alleviating Natural Accuracy Degradationcited by 1
- 2024Clarifying Myths About the Relationship Between Shape Bias, Accuracy, and Robustnesscited by 1
- 2025A Guide to Robust Generalization: The Impact of Architecture, Pre-training, and Optimization Strategycited by 1
- 2024Robustness to distribution shifts of compressed networks for edge devicescited by 0
- 2025Overlap-Aware Feature Learning for Robust Unsupervised Domain Adaptation for 3D Semantic Segmentationcited by 0
- 2025A Guide to Robust Generalization: The Impact of Architecture, Pre-training, and Optimization Strategy12 Aug 2025
- 2025Overlap-Aware Feature Learning for Robust Unsupervised Domain Adaptation for 3D Semantic Segmentation2 Apr 2025
- 2024Clarifying Myths About the Relationship Between Shape Bias, Accuracy, and Robustness7 Jun 2024
- 2024DD-RobustBench: An Adversarial Robustness Benchmark for Dataset Distillation20 Mar 2024
- 2024Robustness to distribution shifts of compressed networks for edge devices22 Jan 2024
- 2023Topology-preserving Adversarial Training for Alleviating Natural Accuracy Degradation29 Nov 2023
- 2023Exploring Robust Features for Improving Adversarial Robustness9 Sep 2023
- 2022Towards Out-of-Distribution Adversarial Robustness6 Oct 2022
- 2022Dynamical systems' based neural networks5 Oct 2022
- 2022Learning Robust Kernel Ensembles with Kernel Average Pooling30 Sep 2022
- 2021Push Stricter to Decide Better: A Class-Conditional Feature Adaptive Framework for Improving Adversarial Robustness1 Dec 2021
- 2021Domain Conditional Predictors for Domain Adaptation25 Jun 2021