Attention Based Adversarial Attacks with Low Perturbations

Deep neural networks are vulnerable to adversarial examples generated by black-box attacks with tiny perturbations. However, black-box based transferability attacks usually add perturbation to the whole image. It is easy for the defender to detect the adversarial examples. Inspired by attention modules, we propose a method named Gradient-mask and Attention-whey (GM&AW) to reduce redundant noise and maintain attack effect of them in this work. During Gradient-mask iterations, we only choose the regions with greater gradient and update them along the direction of gradient. Then, we utilize Attention-whey optimization combining attention mechanism and query to further decrease noise. Extensive experiments on Imagenet demonstrate that our approach can achieve enormous decrease on noise in <tex xmlns:mml="http://www.w3.org/1998/Math/MathML" xmlns:xlink="http://www.w3.org/1999/xlink">$\ell_{2}$</tex> norm and keep attack success rate for black models.

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Attention Based Adversarial Attacks with Low Perturbations

OpenAlex · Adversarial Robustness in Machine Learning · 2022

Abstract

Deep neural networks are vulnerable to adversarial examples generated by black-box attacks with tiny perturbations. However, black-box based transferability attacks usually add perturbation to the whole image. It is easy for the defender to detect the adversarial examples. Inspired by attention modules, we propose a method named Gradient-mask and Attention-whey (GM&AW) to reduce redundant noise and maintain attack effect of them in this work. During Gradient-mask iterations, we only choose the regions with greater gradient and update them along the direction of gradient. Then, we utilize Attention-whey optimization combining attention mechanism and query to further decrease noise. Extensive experiments on Imagenet demonstrate that our approach can achieve enormous decrease on noise in $\ell_{2}$ norm and keep attack success rate for black models.

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