DocumentCode
1321436
Title
Reliability Prediction Studies of Complex Systems Having Many Failed States
Author
deMercado, John B.
Author_Institution
Canadian Government Department of Communications, Ottawa, Ont., Canada; Department of Electrical Engineering, Carleton University, Ottawa, Ont., Canada.
Issue
4
fYear
1971
Firstpage
223
Lastpage
230
Abstract
In this paper, the theory of discrete Markov processes is used to develop methods for predicting the reliability and moments of the first time to failure of complex systems having many failed states. It is assumed that these complex systems operate in a repair environment and are composed of subsystems that have known constant failure and repair rates. Specifically, complex systems composed of any finite number of subsystems are considered. The complex system at any time is in an acceptable state or in a failed state. The methods presented for the reliability modeling of such complex systems assume a state behavior that is characterizable by a stationary Markov process (also called Markov chain) with finite-dimensional state space and a discrete time set. It is shown that once the matrix of the constant failure and repair rates of the subsystems is known, and the state assignment is made, then it is a straightforward matter to obtain the probabilistic description of the complex system.
Keywords
Art; Books; Calculus; Government; Markov processes; Predictive models; Reliability theory; State-space methods;
fLanguage
English
Journal_Title
Reliability, IEEE Transactions on
Publisher
ieee
ISSN
0018-9529
Type
jour
DOI
10.1109/TR.1971.5216140
Filename
5216140
Link To Document