用自监督图神经网络提升物联网新型攻击检测能力
Enhancing Internet of Things Security throughSelf-Supervised Graph Neural Networks
- 基于图结构与自监督学习预训练图卷积网络
- 在EdgeIIoT-set数据集上达98.68%准确率
- 特别适合样本稀少的新型攻击检测场景
随着物联网(IoT)快速发展,保障设备安全至关重要。新类型攻击样本远少于常见攻击,导致数据不平衡。现有研究多采用卷积神经网络或传统机器学习模型,对新型攻击检测不充分。本文提出一种基于自监督学习的马尔可夫图卷积网络(MarkovGCN)用于物联网入侵检测。该方法利用物联网网络的内在结构进行图卷积网络预训练,并通过马尔可夫链挖掘网络拓扑,增强节点与边的上下文特征。实验基于EdgeIIoT-set数据集,在未平衡标签下实现98.68%准确率、98.18%精确率、98.35%召回率和98.40%F1分数,显著优于传统监督学习方法。
原文摘要 · Abstract (English)
With the rapid rise of the Internet of Things (IoT), ensuring the security of IoT devices has become essential. One of the primary challenges in this field is that new types of attacks often have significantly fewer samples than more common attacks, leading to unbalanced datasets. Existing research on detecting intrusions in these unbalanced labeled datasets primarily employs Convolutional Neural Networks (CNNs) or conventional Machine Learning (ML) models, which result in incomplete detection, especially for new attacks. To handle these challenges, we suggest a new approach to IoT intrusion detection using Self-Supervised Learning (SSL) with a Markov Graph Convolutional Network (MarkovGCN). Graph learning excels at modeling complex relationships within data, while SSL mitigates the issue of limited labeled data for emerging attacks. Our approach leverages the inherent structure of IoT networks to pre-train a GCN, which is then fine-tuned for the intrusion detection task. The integration of Markov chains in GCN uncovers network structures and enriches node and edge features with contextual information. Experimental results demonstrate that our approach significantly improves detection accuracy and robustness compared to conventional supervised learning methods. Using the EdgeIIoT-set dataset, we attained an accuracy of 98.68\%, a precision of 98.18%, a recall of 98.35%, and an F1-Score of 98.40%.
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