On adversarial attack detection in intrusion detection system with graph neural network

Abstract To date, machine learning models have been widely applied to intrusion detection system (IDS) for improving detection accuracy, where most IDS suffer from adversarial evasion attacks that may lead to data loss and user privacy leakage. Although there have been numerous solutions proposed against adversarial evasion attacks, they often neglect the relationships between different traffic and heavily relied on data labels. Therefore, this paper proposes AEDGNN, a new approach for detecting adversarial evasion attacks using graph neural network (GNN) model. On one hand, AEDGNN employs E-GraphSAGE to capture network topology in IDS for building the relationship between different inputs. On the other hand, AEDGNN utilizes deep graph infomax (DGI) to train the GNN in a self-supervised manner for maximizing mutual information between local and global representations. In addition, to clarify the practical performance of defending against traditional adversarial attacks, we implement AEDGNN and classic machine learning models based on CIC-IDS2018 benchmark dataset. The experimental results show that AEDGNN achieves significant improvements on both normal and adversarial samples compared to classic solutions. The accuracy of AEDGNN is 0.02%–1.53% higher than that of classic solutions for normal samples, and 26.04%–59.04% higher for adversarial samples.

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Publication Details

Journal
The Computer Journal
Published
2025-11-22
DOI
https://doi.org/10.1093/comjnl/bxaf096
Primary Topic
Network Security and Intrusion Detection
Type
article
Field-Weighted Citation Impact
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article

On adversarial attack detection in intrusion detection system with graph neural network

Haifeng Qian, Jianting Ning, Junqing Gong, Kai Zhang et al.
The Computer Journal
Network Security and Intrusion Detection
article

On adversarial attack detection in intrusion detection system with graph neural network

Haifeng Qian, Jianting Ning, Junqing Gong, Kai Zhang, Qingqing Li
article en

Abstract

Abstract To date, machine learning models have been widely applied to intrusion detection system (IDS) for improving detection accuracy, where most IDS suffer from adversarial evasion attacks that may lead to data loss and user privacy leakage. Although there have been numerous solutions proposed against adversarial evasion attacks, they often neglect the relationships between different traffic and heavily relied on data labels. Therefore, this paper proposes AEDGNN, a new approach for detecting adversarial evasion attacks using graph neural network (GNN) model. On one hand, AEDGNN employs E-GraphSAGE to capture network topology in IDS for building the relationship between different inputs. On the other hand, AEDGNN utilizes deep graph infomax (DGI) to train the GNN in a self-supervised manner for maximizing mutual information between local and global representations. In addition, to clarify the practical performance of defending against traditional adversarial attacks, we implement AEDGNN and classic machine learning models based on CIC-IDS2018 benchmark dataset. The experimental results show that AEDGNN achieves significant improvements on both normal and adversarial samples compared to classic solutions. The accuracy of AEDGNN is 0.02%–1.53% higher than that of classic solutions for normal samples, and 26.04%–59.04% higher for adversarial samples.

The Computer JournalVol. 69(1)
Shanghai University of Electric Power (CN), Wuhan University (CN), Wuchang University of Technology (CN), East China Normal University (CN)
Openalex Percentile: Top 59%
Network Security and Intrusion Detection
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