SPR: Malicious traffic detection model for CTCS-3 in railways

Siyang Zhou , Wenjiang Ji , Xinhong Hei , Zhongwei Chang , Yuan Qiu , Lei Zhu , Xin Wang
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Abstract

The increasingly complex and interconnected train control information network is vulnerable to a variety of malicious traffic attacks, and the existing malicious traffic detection methods mainly rely on machine learning, such as poor robustness, weak generalization, and a lack of ability to learn common features. Therefore, this paper proposes a malicious traffic identification method based on stacked sparse denoising autoencoders combined with a regularized extreme learning machine through particle swarm optimization. Firstly, the simulation environment of the Chinese train control system-3, was constructed for data acquisition. Then Pearson coefficient and other methods are used for pre-processing, then a stacked sparse denoising autoencoder is used to achieve nonlinear dimensionality reduction of features, and finally regularization extreme learning machine optimized by particle swarm optimization is used to achieve classification. Experimental data show that the proposed method has good training performance, with an average accuracy of 97.57 % and a false negative rate of 2.43 %, which is better than other alternative methods. In addition, ablation experiments were performed to evaluate the contribution of each component, and the results showed that the combination of methods was superior to individual methods. To further evaluate the generalization ability of the model in different scenarios, publicly available data sets of industrial control system networks were used. The results show that the model has robust detection capability in various types of network attacks.
SPR:铁路CTCS-3恶意流量检测模型
日益复杂、互联的列车控制信息网络容易受到各种恶意流量攻击,而现有的恶意流量检测方法主要依靠机器学习,鲁棒性差、泛化能力弱,缺乏学习共同特征的能力。因此,本文通过粒子群优化,提出了一种基于堆叠稀疏去噪自编码器与正则化极限学习机相结合的恶意流量识别方法。首先,构建了中国列控系统3的仿真环境,用于数据采集。然后使用Pearson系数等方法进行预处理,然后使用堆叠稀疏去噪自编码器实现特征的非线性降维,最后使用粒子群优化的正则化极限学习机实现分类。实验数据表明,该方法具有良好的训练性能,平均准确率为97.57 %,假阴性率为2.43 %,优于其他替代方法。此外,通过烧蚀实验对各组分的贡献进行了评价,结果表明组合方法优于单个方法。为了进一步评估模型在不同场景下的泛化能力,使用了公开的工业控制系统网络数据集。结果表明,该模型对各种类型的网络攻击具有较强的检测能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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