A Standby System with 'Dead Time' For The Repair Facility

Subramanian, R.; Sarma, Yadavalli V. S.

doi:10.1109/tr.1981.5221198

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1986

2014

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Cited by 7 publications

(2 citation statements)

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“…Such a vacation period certainly arises in many mechanical and electrical systems. This principle of a vacation period was first introduced by Subramanian and Sarma [2].…”

Section: Introductionmentioning

confidence: 99%

Stochastic analysis of a two unit system with vacation for the repair facility after M repairs

Yadavalli¹,

Botha²

2014

ORiON

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“…Such a vacation period certainly arises in many mechanical and electrical systems. This principle of a vacation period was first introduced by Subramanian and Sarma [2].…”

Section: Introductionmentioning

confidence: 99%

Stochastic analysis of a two unit system with vacation for the repair facility after M repairs

Yadavalli¹,

Botha²

2014

ORiON

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“…But it is reasonable to expect that a ' rest-period' might be needed to get the repair facility ready for the next repair could be taken up (Subramanian & Sarma, 1981). This rest-period usually starts after each repair completion.…”

Section: Introductionmentioning

confidence: 99%

Bayesian Highest Posterior Density Intervals for the Availability of a System With a 'Rest-Period' for the Repair Facility

Yadavalli

Bekker

Mostert

et al. 2012

The South African Journal of Industrial Engineering

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In this paper Bayesian estimation for the steady state availability of a one-unit system with a rest-period for the repair facility is studied. The assumption is that the repair facility takes rest with probability p after each repair completion and the facility does not take the same with probability (l -p). The prior information is assumed to be vague and the Jeffreys' prior is used for the unknown parameters in the system. Gibbs sampling is used to derive the posterior distribution of the availability and subsequently the highest posterior density (HPD) intervals. A numerical example illustrates these results. OPSOMMINGIn .hierdie artikel word die Bayes-beraming van die ewewigstoestandsbeskikbaarheid van 'n steise1 wat afwisselend gebruik word, voorgestel.Daar word veronderstel dat die herstelfasiliteit na voltooiing van clke herstel Of 'n rustydperk binnegaan of nie. Die rustydperk sal geneem word met waarskynlikheid p en die waarskynlikheid dat daar nie 'n rustydperk genccm word nie, is (l -p). Jeffrey se a priori-verdeling word vir die onbekende parameters in die stelsel aanvaar. Gibbs-steekproefneming word gcbruik om die a posterioriverdeling van die beskikbaarheid en daarna die hoogste a posteriori-digtheidsintervalle (HPD) afte lei. 'n Numeriese voorbeeld illustreer hierdic resultate . 17http://sajie.journals.ac.za

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Cost-benefit analysis of a two unit cold standby system with random switchover and service time

Singh

Shukla

1989

Microelectronics Reliability

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A Standby System with 'Dead Time' For The Repair Facility

Cited by 7 publications

References 0 publications

Stochastic analysis of a two unit system with vacation for the repair facility after M repairs

Stochastic analysis of a two unit system with vacation for the repair facility after M repairs

Bayesian Highest Posterior Density Intervals for the Availability of a System With a 'Rest-Period' for the Repair Facility

Cost-benefit analysis of a two unit cold standby system with random switchover and service time

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