Cano, Christina and Malone, David (2014) Modeling, Analysis and Impact of a Long Transitory Phase in Random Access Protocols. Working Paper. ArXiv.
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Official URL: http://arxiv.org/pdf/1405.5753v1.pdf
Abstract
In random access protocols, the service rate depends
on the number of stations with a packet buffered for transmission.
We demonstrate via numerical analysis that this state-dependent
rate along with the consideration of Poisson traffic and infinite
(or large enough to be considered infinite) buffer size may cause
a high-throughput and extremely long (in the order of hours)
transitory phase when traffic arrivals are right above the stability
limit. We also perform an experimental evaluation to provide
further insight into the characterisation of this transitory phase
of the network by analysing statistical properties of its duration.
The identification of the presence as well as the characterisation
of this behaviour is crucial to avoid misprediction, which has a
significant potential impact on network performance and optimisation.
Furthermore, we discuss practical implications of this
finding and propose a distributed and low-complexity mechanism
to keep the network operating in the high-throughput phase.
Item Type: | Monograph (Working Paper) |
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Keywords: | Stability; random access protocols; mean field analysis; decoupling approximation; DCF; Aloha; Homeplug; |
Academic Unit: | Faculty of Science and Engineering > Research Institutes > Hamilton Institute Faculty of Science and Engineering > Mathematics and Statistics |
Item ID: | 6236 |
Identification Number: | arXiv:1405.5753 |
Depositing User: | Dr. David Malone |
Date Deposited: | 07 Jul 2015 15:43 |
Publisher: | ArXiv |
URI: | https://mu.eprints-hosting.org/id/eprint/6236 |
Use Licence: | This item is available under a Creative Commons Attribution Non Commercial Share Alike Licence (CC BY-NC-SA). Details of this licence are available here |
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