Fault tree analysis considering sequence dependence and repairable input events

Purpose - This paper aims to present two methods for calculating the steady state probability of a repairable fault tree with priority AND gates and repeated basic events when the minimal cut sets are given.Design methodology approach - The authors consider a situation that the occurrence of an oper...

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Veröffentlicht in:Journal of quality in maintenance engineering 2013-01, Vol.19 (2), p.199-214
Hauptverfasser: Yuge, Tetsushi, Ozeki, Shinya, Yanagi, Shigeru
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container_title Journal of quality in maintenance engineering
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creator Yuge, Tetsushi
Ozeki, Shinya
Yanagi, Shigeru
description Purpose - This paper aims to present two methods for calculating the steady state probability of a repairable fault tree with priority AND gates and repeated basic events when the minimal cut sets are given.Design methodology approach - The authors consider a situation that the occurrence of an operational demand and its disappearance occur alternately. We assume that both the occurrence and the restoration of the basic event are statistically independent and exponentially distributed. Here, restoration means the disappearance of the occurring event as a result of a restoration action. First, we obtain the steady state probability of an output event of a single-priority AND gate by Markov analysis. Then, we propose two methods of obtaining the top event probability based on an Inclusion-Exclusion method and by considering the sum of disjoint probabilities.Findings - The closed form expression of steady state probability of a priority AND gate is derived. The proposed methods for obtaining the top event probability are compared numerically with conventional Markov analysis and Monte Carlo simulation to verify the effectiveness. The result shows the effectiveness of the authors' methods.Originality value - The methodology presented shows a new solution for calculating the top event probability of repairable dynamic fault trees.
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We assume that both the occurrence and the restoration of the basic event are statistically independent and exponentially distributed. Here, restoration means the disappearance of the occurring event as a result of a restoration action. First, we obtain the steady state probability of an output event of a single-priority AND gate by Markov analysis. Then, we propose two methods of obtaining the top event probability based on an Inclusion-Exclusion method and by considering the sum of disjoint probabilities.Findings - The closed form expression of steady state probability of a priority AND gate is derived. The proposed methods for obtaining the top event probability are compared numerically with conventional Markov analysis and Monte Carlo simulation to verify the effectiveness. 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subjects Algorithms
Cold
Computer simulation
Dependence
Failure
Fault trees
Gates
Markov analysis
Markov processes
Mathematical analysis
Mathematical models
Monte Carlo simulation
Probability
Repair & maintenance
Restoration
Risk assessment
Steady state
Studies
title Fault tree analysis considering sequence dependence and repairable input events
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