Management of a Shared-Spectrum Network in Wireless Communications

We consider a band of the electromagnetic spectrum with a finite number of identical channels shared by both licensed and unlicensed users. Such a network differs from most many-server, two-class queues in service systems, including call centers, because of the restrictions imposed on the unlicensed...

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Veröffentlicht in:Operations research 2018-07, Vol.66 (4), p.1119-1135
Hauptverfasser: Wu, Shining, Zhang, Jiheng, Zhang, Rachel Q.
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description We consider a band of the electromagnetic spectrum with a finite number of identical channels shared by both licensed and unlicensed users. Such a network differs from most many-server, two-class queues in service systems, including call centers, because of the restrictions imposed on the unlicensed users to limit interference to the licensed users. We first approximate the key performance indicators—namely the throughput rate of the system and the delay probability of the licensed users under the asymptotic regime, which requires the analysis of both scaled and unscaled processes simultaneously using the averaging principle. Our analysis reveals a number of distinctive properties of the system. For example, sharing does not affect the level of service provided to the licensed users in an asymptotic sense even when the system is critically loaded. We then study the optimal sharing decisions of the system to maximize the system throughput rate while maintaining the delay probability of the licensed users below a certain level when the system is overloaded. Finally, we extend our study to systems with time-varying arrival rates and propose a diffusion approximation to complement our fluid one. The e-companion is available at https://doi.org/10.1287/opre.2017.1707 .
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source Jstor Complete Legacy; INFORMS PubsOnLine; Business Source Complete
subjects Asymptotic properties
averaging principle
Call centers
Delay
Diffusion rate
Electric noise
Electromagnetics
fluid approximation
Licenses
many-server queues
METHODS
Operations research
Queues
Restrictions
spectrum management
Wireless communications
Wireless networks
title Management of a Shared-Spectrum Network in Wireless Communications
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