🤖 AI Summary
This work proposes a deep learning–driven approach leveraging mobile edge computing (MEC) to address the challenges of real-time anomaly detection and efficient computational resource management in 5G networks, where massive connectivity and data traffic impose stringent demands. By deploying lightweight deep models at the network edge for real-time traffic analysis and integrating a policy-driven dynamic resource allocation mechanism, the proposed framework enables adaptive co-optimization between anomaly detection tasks and computational resources. Experimental results demonstrate that the solution significantly reduces detection latency and improves resource utilization efficiency in 5G environments, while maintaining high accuracy in anomaly identification.
📝 Abstract
Fog and mobile edge computing (MEC) will play a key role in the upcoming fifth generation (5G) mobile networks to support decentralized applications, data analytics and management into the network itself by using a highly distributed compute model. Furthermore, increasing attention is paid to providing user-centric cybersecurity solutions, which particularly require collecting, processing and analyzing significantly large amount of data traffic and huge number of network connections in 5G networks. In this regard, this paper proposes a MEC-oriented solution in 5G mobile networks to detect network anomalies in real-time and in autonomic way. Our proposal uses deep learning techniques to analyze network flows and to detect network anomalies. Moreover, it uses policies in order to provide an efficient and dynamic management system of the computing resources used in the anomaly detection process. The paper presents relevant aspects of the deployment of the proposal and experimental results to show its performance.