Selected article for: "classification segmentation and cnn image classification"

Author: Ma, Linhai; Liang, Liang
Title: Increasing-Margin Adversarial (IMA) Training to Improve Adversarial Robustness of Neural Networks
  • Cord-id: wuv1yhma
  • Document date: 2020_5_19
  • ID: wuv1yhma
    Snippet: Convolutional neural network (CNN) has surpassed traditional methods for medical image classification. However, CNN is vulnerable to adversarial attacks which may lead to disastrous consequences in medical applications. Although adversarial noises are usually generated by attack algorithms, white-noise-induced adversarial samples can exist, and therefore the threats are real. In this study, we propose a novel training method, named IMA, to improve the robust-ness of CNN against adversarial noise
    Document: Convolutional neural network (CNN) has surpassed traditional methods for medical image classification. However, CNN is vulnerable to adversarial attacks which may lead to disastrous consequences in medical applications. Although adversarial noises are usually generated by attack algorithms, white-noise-induced adversarial samples can exist, and therefore the threats are real. In this study, we propose a novel training method, named IMA, to improve the robust-ness of CNN against adversarial noises. During training, the IMA method increases the margins of training samples in the input space, i.e., moving CNN decision boundaries far away from the training samples to improve robustness. The IMA method is evaluated on publicly available datasets under strong 100-PGD white-box adversarial attacks, and the results show that the proposed method significantly improved CNN classification and segmentation accuracy on noisy data while keeping a high accuracy on clean data. We hope our approach may facilitate the development of robust applications in medical field.

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