Achieving Adversarial Robustness via Sparsity
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Abstract (arXiv)
Network pruning has been known to produce compact models without much accuracy degradation. However, how the pruning process affects a network's robustness and the working mechanism behind remain unresolved. In this work, we theoretically prove that the sparsity of network weights is closely associated with model robustness. Through experiments on a variety of adversarial pruning methods, we find that weights sparsity will not hurt but improve robustness, where both weights inheritance from the lottery ticket and adversarial training improve model robustness in network pruning. Based on these findings, we propose a novel adversarial training method called inverse weights inheritance, which imposes sparse weights distribution on a large network by inheriting weights from a small network, thereby improving the robustness of the large network.
Key facts. Cited by 14 papers in the map (data through 7 Oct 2026). First posted on arXiv 11 Sep 2020.
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Citing papers per year: 2021: 2; 2022: 2; 2023: 4; 2024: 2; 2025: 3; 2026: 1.
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- 2021A Winning Hand: Compressing Deep Networks Can Improve Out-Of-Distribution Robustnesscited by 62
- 2023Robust low-rank training via approximate orthonormal constraintscited by 12
- 2023Emergence of Shape Bias in Convolutional Neural Networks through Activation Sparsitycited by 11
- 2024Dynamic Sparse Training versus Dense Training: The Unexpected Winner in Image Corruption Robustnesscited by 11
- 2021Neural network relief: a pruning algorithm based on neural activitycited by 10
- 2024Adversarial Pruning: A Survey and Benchmark of Pruning Methods for Adversarial Robustnesscited by 10
- 2023Relationship between Model Compression and Adversarial Robustness: A Review of Current Evidencecited by 6
- 2022An Adversarial Robustness Perspective on the Topology of Neural Networkscited by 3
- 2023iPINNs: Incremental learning for Physics-informed neural networkscited by 3
- 2025On the Interaction of Compressibility and Adversarial Robustnesscited by 2
- 2022Finding Dynamics Preserving Adversarial Winning Ticketscited by 1
- 2025Two is Better than One: Efficient Ensemble Defense for Robust and Compact Modelscited by 1
- 2026Bias In, Bias Out? Finding Unbiased Subnetworks in Vanilla Models5 Mar 2026
- 2025On the Interaction of Compressibility and Adversarial Robustness23 Jul 2025
- 2025Global Minimizers of ℓp-Regularized Objectives Yield the Sparsest ReLU Neural Networks27 May 2025
- 2025Two is Better than One: Efficient Ensemble Defense for Robust and Compact Models7 Apr 2025
- 2024Dynamic Sparse Training versus Dense Training: The Unexpected Winner in Image Corruption Robustness3 Oct 2024
- 2024Adversarial Pruning: A Survey and Benchmark of Pruning Methods for Adversarial Robustness2 Sep 2024
- 2023Relationship between Model Compression and Adversarial Robustness: A Review of Current Evidence27 Nov 2023
- 2023Emergence of Shape Bias in Convolutional Neural Networks through Activation Sparsity29 Oct 2023
- 2023Robust low-rank training via approximate orthonormal constraints2 Jun 2023
- 2023iPINNs: Incremental learning for Physics-informed neural networks10 Apr 2023
- 2022An Adversarial Robustness Perspective on the Topology of Neural Networks4 Nov 2022
- 2022Finding Dynamics Preserving Adversarial Winning Tickets14 Feb 2022
- 2021A Winning Hand: Compressing Deep Networks Can Improve Out-Of-Distribution Robustnesscited by 62
- 2023Robust low-rank training via approximate orthonormal constraintscited by 12
- 2023Emergence of Shape Bias in Convolutional Neural Networks through Activation Sparsitycited by 11
- 2024Dynamic Sparse Training versus Dense Training: The Unexpected Winner in Image Corruption Robustnesscited by 11
- 2021Neural network relief: a pruning algorithm based on neural activitycited by 10
- 2024Adversarial Pruning: A Survey and Benchmark of Pruning Methods for Adversarial Robustnesscited by 10
- 2023Relationship between Model Compression and Adversarial Robustness: A Review of Current Evidencecited by 6
- 2022An Adversarial Robustness Perspective on the Topology of Neural Networkscited by 3
- 2023iPINNs: Incremental learning for Physics-informed neural networkscited by 3
- 2025On the Interaction of Compressibility and Adversarial Robustnesscited by 2
- 2022Finding Dynamics Preserving Adversarial Winning Ticketscited by 1
- 2025Two is Better than One: Efficient Ensemble Defense for Robust and Compact Modelscited by 1
12 most cited of 14 All 14 (JSON)
- 2026Bias In, Bias Out? Finding Unbiased Subnetworks in Vanilla Models5 Mar 2026
- 2025On the Interaction of Compressibility and Adversarial Robustness23 Jul 2025
- 2025Global Minimizers of ℓp-Regularized Objectives Yield the Sparsest ReLU Neural Networks27 May 2025
- 2025Two is Better than One: Efficient Ensemble Defense for Robust and Compact Models7 Apr 2025
- 2024Dynamic Sparse Training versus Dense Training: The Unexpected Winner in Image Corruption Robustness3 Oct 2024
- 2024Adversarial Pruning: A Survey and Benchmark of Pruning Methods for Adversarial Robustness2 Sep 2024
- 2023Relationship between Model Compression and Adversarial Robustness: A Review of Current Evidence27 Nov 2023
- 2023Emergence of Shape Bias in Convolutional Neural Networks through Activation Sparsity29 Oct 2023
- 2023Robust low-rank training via approximate orthonormal constraints2 Jun 2023
- 2023iPINNs: Incremental learning for Physics-informed neural networks10 Apr 2023
- 2022An Adversarial Robustness Perspective on the Topology of Neural Networks4 Nov 2022
- 2022Finding Dynamics Preserving Adversarial Winning Tickets14 Feb 2022
12 newest of 14 All 14 (JSON)