Heterogeneity Tolerance in IoT Botnet Attack Classification

Samuel Kalenowski, David Arnold, M. Gromov, J. Saniie
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Abstract

Due to the rapid adoption of Internet of Things (IoT) technologies, many networks are composed of a patchwork of devices designed by different software and hardware developers. In addition to the heterogeneity of IoT networks, the general rush-to-market produced products with poor adherence to core cybersecurity principles. Coupled together, these weaknesses leave organizations vulnerable to attack by botnets, such as Mirai and Gafgyt. Infected devices pose a threat to both internal and external devices as they attempt to add new devices to the collective or to perpetrate targeted attacks within the network or against third parties. Artificial Intelligence (AI) tools for intrusion detection are popular platforms for detecting indicators of botnet infiltration. However, when training AI tools, the heterogeneity of the network hampers detection and classification accuracy due to the differences in device architecture and network layout. To investigate this challenge, we explored the application of a Neural Network (NN) to the N-BaIoT dataset. The NN achieved 94% classification accuracy when trained using data from all devices in the network. Further, we examined the model's transferability by training on a single device and applying it to data from all devices. This resulted in a noticeable decline in classification accuracy. However, when considering cyberattack detection the model retained a very high true positive rate of 99.6%.
物联网僵尸网络攻击分类中的异构容忍
由于物联网(IoT)技术的快速采用,许多网络由不同的软件和硬件开发人员设计的设备拼凑而成。除了物联网网络的异质性外,一般匆忙上市的产品也没有遵守核心网络安全原则。这些弱点加在一起,使组织容易受到Mirai和Gafgyt等僵尸网络的攻击。受感染的设备对内部和外部设备都构成威胁,因为它们试图向集体添加新设备,或在网络内或针对第三方实施有针对性的攻击。人工智能(AI)入侵检测工具是检测僵尸网络渗透指标的热门平台。然而,在训练AI工具时,由于设备架构和网络布局的差异,网络的异构性影响了检测和分类的准确性。为了研究这一挑战,我们探索了神经网络(NN)在N-BaIoT数据集上的应用。当使用网络中所有设备的数据进行训练时,神经网络达到了94%的分类准确率。此外,我们通过在单个设备上进行训练并将其应用于所有设备的数据来检查模型的可移植性。这导致了分类精度的明显下降。然而,当考虑网络攻击检测时,该模型保留了99.6%的非常高的真阳性率。
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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