Distributed Online Anomaly Detection for Virtualized Network Slicing Environment
Weili Wang, Chengchao Liang, Qianbin Chen, Lun Tang, Halim, Yanikomeroglu

TL;DR
This paper introduces distributed online algorithms for real-time anomaly detection in virtualized network slicing environments, focusing on physical nodes and links, using decentralized machine learning techniques to improve detection speed and accuracy.
Contribution
It proposes novel distributed online anomaly detection algorithms based on decentralized one-class SVM and canonical correlation analysis tailored for virtualized network slices.
Findings
Algorithms are effective on synthetic and real datasets.
Detection is robust and real-time.
Distributed methods outperform centralized approaches.
Abstract
As the network slicing is one of the critical enablers in communication networks, one anomalous physical node (PN) or physical link (PL) in substrate networks that carries multiple virtual network elements can cause significant performance degradation of multiple network slices. To recover the substrate networks from anomaly within a short time, rapid and accurate identification of whether or not the anomaly exists in PNs and PLs is vital. Online anomaly detection methods that can analyze system data in real-time are preferred. Besides, as virtual nodes and links mapped to PNs and PLs are scattered in multiple slices, the distributed detection modes are required to adapt to the virtualized environment. According to those requirements, in this paper, we first propose a distributed online PN anomaly detection algorithm based on a decentralized one-class support vector machine (OCSVM),…
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Taxonomy
TopicsNetwork Security and Intrusion Detection · Software-Defined Networks and 5G · Advanced Computing and Algorithms
