TL;DR
This paper focuses on the M / M / 1 / K single-server queueing model and estimates the tra ffi c intensity using Bayesian, E -Bayesian, hierarchical Bayesian, and a new EE -Bayesian method.
This paper presents a Bayesian framework for estimating the performance measures of a single-server Markovian queue. A bivariate prior is employed to naturally incorporate the system's ergodicity condition along with the traditional likelihood function, which fundamentally differentiates this work from that of the exis...
The results show that the proposed analytical framework can effectively characterize the steady-state behavior of P2P systems under two-threshold control and provide quantitative support for parameter design.
This paper investigates a single-server time-sharing queueing system with server breakdowns, discouraging arrivals and customer reneging. Customers arrive according to a Poisson process with rate λ while the server is operational. During server breakdowns, the arrival rate is reduced to represent customer discouragemen...
A performance model for 802.11 networks with frame aggregation under unsaturated traffic in which the aggregation size and service time emerge dynamically from the offered traffic load, the random backoff process, and the number of stations rather than from any of these simplifying assumptions is developed.
This paper studies an N-policy M(λ1,λ2)/G/1 repairable queue in which arrival rates depend on the server state and multiple vacations may be interrupted by a Bernoulli decision. When the queue first reaches N during a vacation, the server interrupts the current vacation with probability p and otherwise completes it. We...
A heterogeneous two-server queueing system with differentiated vacations and server failures is examined in this paper. The matrix geometric method was applied to identify the system's stationary condition by analyzing the steady-state probability distribution of customer numbers, modeled as a quasi-birth-and-death (QB...
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