Approximating Closed Queueing Networks in Semi-Markov Random Environments

Modeling queueing networks in random environments is a challenging problem that finds application in routing, reliability analysis, and evaluation of systems processing bursty workloads. In this paper, we introduce a method to evaluate closed queueing networks in random environments that can deal with non-Markovian transitions among environment stages and accurately approximate time-averaged performance metrics. Our technique supports both state-independent and state-dependent random environments, the latter allowing us to analyze challenging queueing network models with bursty service processes. Using simulation on representative case studies, we show that our technique provides low approximation errors. We further demonstrate the applicability of our result to a mobility case study demonstrating the applicability of the proposed approach.

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Publication Details

Published
2024-10-21
DOI
https://doi.org/10.1109/mascots64422.2024.10786512
Primary Topic
Advanced Queuing Theory Analysis
Type
article
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article

Approximating Closed Queueing Networks in Semi-Markov Random Environments

Matthew Sheldon, Giuliano Casale, Yaqi Zhou
Advanced Queuing Theory Analysis
article

Approximating Closed Queueing Networks in Semi-Markov Random Environments

Matthew Sheldon, Giuliano Casale, Yaqi Zhou
article en

Abstract

Modeling queueing networks in random environments is a challenging problem that finds application in routing, reliability analysis, and evaluation of systems processing bursty workloads. In this paper, we introduce a method to evaluate closed queueing networks in random environments that can deal with non-Markovian transitions among environment stages and accurately approximate time-averaged performance metrics. Our technique supports both state-independent and state-dependent random environments, the latter allowing us to analyze challenging queueing network models with bursty service processes. Using simulation on representative case studies, we show that our technique provides low approximation errors. We further demonstrate the applicability of our result to a mobility case study demonstrating the applicability of the proposed approach.

Imperial College London (GB)
Openalex Percentile: Top 64%
Advanced Queuing Theory Analysis
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