Detecting and Corrupting Convolution-based Unlearnable Examples
Minghui Li, Xianlong Wang, Zhifei Yu, Shengshan Hu, Ziqi Zhou,, Longling Zhang, Leo Yu Zhang

TL;DR
This paper introduces a novel detection method (EPD) and a defense scheme (COIN) against convolution-based unlearnable examples that severely impair model training, demonstrating superior performance over existing defenses on CIFAR and ImageNet.
Contribution
The paper presents the first detection and defense strategies specifically targeting convolution-based unlearnable examples, expanding the scope with new UEs and outperforming state-of-the-art defenses.
Findings
EPD effectively detects convolution-based UEs.
COIN significantly improves model robustness against these UEs.
Defense outperforms 11 existing methods on benchmark datasets.
Abstract
Convolution-based unlearnable examples (UEs) employ class-wise multiplicative convolutional noise to training samples, severely compromising model performance. This fire-new type of UEs have successfully countered all defense mechanisms against UEs. The failure of such defenses can be attributed to the absence of norm constraints on convolutional noise, leading to severe blurring of image features. To address this, we first design an Edge Pixel-based Detector (EPD) to identify convolution-based UEs. Upon detection of them, we propose the first defense scheme against convolution-based UEs, COrrupting these samples via random matrix multiplication by employing bilinear INterpolation (COIN) such that disrupting the distribution of class-wise multiplicative noise. To evaluate the generalization of our proposed COIN, we newly design two convolution-based UEs called VUDA and HUDA to expand…
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Taxonomy
TopicsAdversarial Robustness in Machine Learning · Advanced Neural Network Applications · Domain Adaptation and Few-Shot Learning
