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Computer Communications
Volume 28, Issue 4, 16 March 2005, Pages 366-378
 
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doi:10.1016/j.comcom.2004.07.008    How to Cite or Link Using DOI (Opens New Window)
Copyright © 2004 Elsevier B.V. All rights reserved.

A graph-based proactive fault identification approach in computer networks

Yijiao YuE-mail The Corresponding Author, Qin LiuE-mail The Corresponding Author and Liansheng TanCorresponding Author Contact Information, E-mail The Corresponding Author

Department of Computer Science, Central China Normal University, Wuhan 430079, China

Received 5 November 2003; 
revised 29 June 2004; 
accepted 28 July 2004. 
Available online 26 August 2004.

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Abstract

In large-scale computer networks, the isolation of the primary failure source is a challenging task. This article presents a proactive network fault diagnosis approach based on graph theory. Compared with other approaches, the manager of network management system checks the status of the managed devices actively rather than receive messages from those objects passively. The salient feature of this approach is that the possible failure sources, including the real one, can be computed precisely and quickly without any alarm historical information or strict assumptions. This approach does not introduce much processing complexity by taking full use of matrix and Boolean operations. To test and evaluate our proposed algorithm, it is implemented in Java and tested in a real large network environment. The experiment results show that this approach is not only efficient but also scalable on fault identification in large-scale computer networks.

Keywords: Connectivity; Connectivity structure; Graph theory; Network management; Fault identification; Simple network management protocol; Internet control messages protocol

Article Outline

1. Introduction
2. Network modeling
3. The fault identification approach
4. Fault cases studying
4.1. A vertex is inaccessible whose degree is larger than 1
4.2. A vertex of degree 1 is unreachable
4.3. Multiple vertices in a connected component are inaccessible
4.4. Multiple vertices are inaccessible which are in multiple connected components
5. Automated fault effect analysis algorithm
5.1. Possible fault elements combination and its effect
5.2. Judging whether fault effects are the consistent
5.3. Algorithm for computing fault elements combination
6. Emulations in a large-scale network
7. Conclusions
Acknowledgements
References
Vitae

















Computer Communications
Volume 28, Issue 4, 16 March 2005, Pages 366-378
 
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