With the ever-increasing reliance on digital networks for various aspects of modern life, ensuring their security has become a critical challenge. Intrusion Detection Systems play a crucial role in ensuring network security, actively identifying and mitigating malicious behaviours. However, the relentless advancement of cyber-threats has rendered traditional/classical approaches insufficient in addressing the sophistication and complexity of attacks. This paper proposes a novel 3-stage intrusion detection system inspired by a simplified version of the Lockheed Martin cyber kill chain to detect advanced multi-step attacks. The proposed approach consists of three models, each responsible for detecting a group of attacks with common characteristics. The detection outcome of the first two stages is used to conduct a feasibility study on the possibility of predicting attacks in the third stage. Using the ToN IoT dataset, we achieved an average of 94% F1-Score among different stages, outperforming the benchmark approaches based on Random-forest model. Finally, we comment on the feasibility of this approach to be integrated in a real-world system and propose various possible future work.
@article{arxiv.2404.18328,
title = {Multi-stage Attack Detection and Prediction Using Graph Neural Networks: An IoT Feasibility Study},
author = {Hamdi Friji and Ioannis Mavromatis and Adrian Sanchez-Mompo and Pietro Carnelli and Alexis Olivereau and Aftab Khan},
journal= {arXiv preprint arXiv:2404.18328},
year = {2024}
}