DocumentCode
47682
Title
A Novel Cut-Based Universal Generating Function Method
Author
Wei-Chang Yeh
Author_Institution
Integration & Collaboration Lab., Univ. of Technol. Sydney, Sydney, NSW, Australia
Volume
62
Issue
3
fYear
2013
fDate
Sept. 2013
Firstpage
628
Lastpage
636
Abstract
A multistate information network (MIN) is a generalization of the tree-structured multistate-state system that does not satisfy the flow conservation law. The current known universal generating function methods (UGFMs, here called pUGFMs) used to evaluate acyclic MIN (AMIN) reliability are based on the connectedness between node 1 and the targets, i.e. find all possible paths between node 1 and the targets. A novel cut-based UGFM (cUGFM) is proposed for the AMIN reliability problem. The proposed cUGFM is based on the disconnectedness between node 1 and the targets, i.e. find all possible cuts between node 1 and the targets. It provides a flexible, novel method to calculate reliability and unreliability. The computational complexity of the proposed algorithm is also analyzed and compared with the best-known existing methods. Finally, three benchmark examples are given to illustrate how the exact one-to-all-target-subset AMIN reliability is calculated using the proposed cUGFM.
Keywords
computational complexity; network theory (graphs); reliability theory; trees (mathematics); acyclic MIN reliability; cUGFM; computational complexity; cut-based UGFM; cut-based universal generating function method; flow conservation law; node-1-target connectedness; node-1-target disconnectedness; one-to-all-target-subset AMIN reliability; pUGFM; tree-structured multistate-state information system; Benchmark testing; Computer network reliability; Educational institutions; Indexes; Polynomials; Reliability theory; Cut; multistate information network; path; universal generating function methods;
fLanguage
English
Journal_Title
Reliability, IEEE Transactions on
Publisher
ieee
ISSN
0018-9529
Type
jour
DOI
10.1109/TR.2013.2273038
Filename
6562809
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