Optimization of traffic control in MMAP[2]/PH[2]/S priority queueing model with PH retrial times and preemptive repeat policy
Raina Raj, Vidyottama Jain

TL;DR
This paper develops a multi-server priority queueing model with preemptive policies and phase-type retrial times, analyzing system performance and optimizing traffic control for heterogeneous calls with priority handling.
Contribution
It introduces a novel queueing model incorporating PH retrial times, preemptive repeat policy, and MMAP arrivals, providing new analytical expressions and optimization methods.
Findings
Derived performance measures for the queueing system.
Formulated and solved an optimization problem for traffic control.
Validated the model with numerical illustrations.
Abstract
The presented study elaborates a multi-server priority queueing model considering the pre-emptive repeat policy and phase-type distribution (PH) for retrial process. The incoming heterogeneous calls are categorized as handoff calls and new calls. The arrival and service processes of both types of calls follow marked Markoian arrival process (MMAP) and PH distribution with distinct parameters, re-spectively. An arriving new call will be blocked when all the channels are occupied, and consequently will join the orbit (virtual space) of infinite capacity to retry following PH distribution. When all the channels are occupied and a handoff call arrives at the system, out of the following two scenarios, one might take place. In the first scenario, if all the channels are occupied with handoff calls, the arriving handoff call will be lost from the system. While in the second one, if all the…
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Taxonomy
TopicsAdvanced Queuing Theory Analysis · Network Traffic and Congestion Control · Real-Time Systems Scheduling
