Abstract

Graph-based approaches have been widely employed to facilitate in analyzing network flow connectivity behaviors, which aim to understand the impacts and patterns of network events. However, existing approaches suffer from lack of connectivity-behavior information and loss of network event identification. In this paper, we propose network flow connectivity graphs (NFCGs) to capture network flow behavior for modeling social behaviors from network entities. Given a set of flows, edges of a NFCG are generated by connecting pairwise hosts who communicate with each other. To preserve more information about network flows, we also embed node-ranking values and edge-weight vectors into the original NFCG. After that, a network flow connectivity behavior analysis framework is present based on NFCGs. The proposed framework consists of three modules: a graph simplification module based on diversified filtering rules, a graph feature analysis module based on quantitative or semiquantitative analysis, and a graph structure analysis module based on several graph mining methods. Furthermore, we evaluate our NFCG-based framework by using real network traffic data. The results show that NFCGs and the proposed framework can not only achieve good performance on network behavior analysis but also exhibit excellent scalability for further algorithmic implementations.

Highlights

  • Over the past decades we have witnessed the progressive development of network science technologies and emerging applications from theoretical innovation into practical applications [1, 2]

  • The main novelty of our proposed method is that we utilize node-ranking values, edge-weight vectors, and various filtering rules to optimize graph construction so that network flow connectivity graphs (NFCGs) become more flexible and contain richer information of network flows

  • To explore the best of our proposed method in network flow behavior analysis, we have developed a NFCG-based framework and conducted different experiments to analyze NFCGs

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Summary

Introduction

Over the past decades we have witnessed the progressive development of network science technologies and emerging applications from theoretical innovation into practical applications [1, 2]. We propose a novel graph model called network flow connectivity graphs (NFCGs) to comprehensively monitor, analyze, and visualize network-wide flow connectivity relationships. We stress the importance of NFCGs by developing a flow-based network behavior analysis framework In this framework, we start by designing filtering rules to remove insignificant and irrelevant nodes and edges for extracting the principal connectivity relationships and simplifying the graph scale. 3) We develop a NFCG-based framework and combine a series of complex network analysis and graph mining methods to monitor, analyze, and visualize network-wide flow connectivity relationships. Karagiannis et al [15] proposed the BLINC method to build logic graphs of node interaction They utilized the difference among connected patterns of network applications for performing network classification, but ignored general connected relations of network flows. With this kind of approach it is difficult to unveil the hidden relationships between different communities of network

Network flow connectivity graphs
Graph analysis for network flow behaviors
Extraction of principal connectivity relationships
Quantifying NFCG graph features
Specified subgraph structure selection
Similarity analysis for graphs
Root cause analysis for network flow connectivity behaviors
Conclusion
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