2014
DOI: 10.1142/s0217595914400053
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Number of Retrials in a Finite Source Retrial Queue With Unreliable Server

Abstract: The object of this paper is to continue investigation of a single server retrial queue with finite number of sources in which the server is subjected to breakdowns and repairs. The server life time as well as the intervals between repetitions are exponentially distributed, while the repair and the service times are generally distributed. Using the formulas for the stationary system state distributions, obtained by Wang et al. [in Wang, J, L Zhao and F Zhang (2011). Analysis of the finite source retrial queues … Show more

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Cited by 29 publications
(11 citation statements)
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“…In this paper, we will investigate the distribution of the number of retrials of a customer together with the distribution of the waiting time of a request in a RQ-system since they are connected to each other. Related results can be found, for example in Alfa and Isotupa [1], Dragieva [10], Dragieva [11], Falin and Artalejo [13], Gharbi and Dutheillet [14], Kvach and Nazarov [20], Nazarov, Kvach and Yampolsky [25], Nazarov and Sudyko [22], Wang, Zhao and Zhang [29], Wang, Zhao and Zhang [30], Zhang and Wang [32]. We will use the method of asymptotic analysis under limiting condition of a growing number of sources as it has been applied, for example in Kvach and Nazarov [20], Nazarov, Kvach and Yampolsky [25], Nazarov and Moiseeva [22].…”
Section: Introductionsupporting
confidence: 57%
“…In this paper, we will investigate the distribution of the number of retrials of a customer together with the distribution of the waiting time of a request in a RQ-system since they are connected to each other. Related results can be found, for example in Alfa and Isotupa [1], Dragieva [10], Dragieva [11], Falin and Artalejo [13], Gharbi and Dutheillet [14], Kvach and Nazarov [20], Nazarov, Kvach and Yampolsky [25], Nazarov and Sudyko [22], Wang, Zhao and Zhang [29], Wang, Zhao and Zhang [30], Zhang and Wang [32]. We will use the method of asymptotic analysis under limiting condition of a growing number of sources as it has been applied, for example in Kvach and Nazarov [20], Nazarov, Kvach and Yampolsky [25], Nazarov and Moiseeva [22].…”
Section: Introductionsupporting
confidence: 57%
“…The generalisation to generally distributed service times and repair times was later performed by Gaver Jr. (1962), Avi-Itzhak and Naor (1963), and Thiruvengadam (1963). Further extensions include phase-type distributions for the available periods (Federgruen and Green, 1986), arrival correlation (Takine and Sengupta, 1997), processor-sharing service (Núñez Queija, 2000), retrials (Dragieva, 2014;Zhang and Zhu, 2013;Gao et al, 2016), priorities (Sahba et al, 2013) and multi-server systems (Kim et al, 2017). Tang (1997) considers Poisson breakdowns when the server is working and renewal type breakdowns when it is idle, whereas Li et al (1997) investigate the transient behaviour of the M/G/1 queue subject to Poisson breakdowns.…”
Section: 2mentioning
confidence: 99%
“…In real-life systems typical problems arise like a power outage, human errors, or in wireless communication packets can suffer transmission failure, interruptions throughout their transfer and unfortunately it can happen at any time. These systems with an unreliable server were analyzed in several papers, for example in [3,6,10,18,20].…”
Section: Introductionmentioning
confidence: 99%