Interference graphs to monitor and control schedules in low-power WPAN

Research output: Contribution to journalArticleAcademicpeer-review

Abstract

With billions of connected devices in the near future, the major challenge is to develop networks to build an Industrial Internet of Things which is scalable, energy-efficient, reliable and affordable. To this end, low-power wireless personal area networks (LP-WPAN) provide a solution at minimum costs. However, to ensure continuous performance verification, LP-WPAN requires a centrally monitored and controlled service. This work proposes such an edge service, i.e. network monitoring and optimal reconfiguration of scheduled LP-WPANs. The approach is based on a transformation of the schedule into a new model, interference graphs. The interference graphs allow to design evaluation and rescheduling recommender methods to monitor and reconfigure the schedule. An experimental setup was developed to test and validate the approach. The results show that the model and methods provide an accurate representation of the behavior of the network, and that the new rescheduling recommender greatly improves the network's performance, compared to random rescheduling.

LanguageEnglish
Pages111-120
Number of pages10
JournalFuture Generation Computer Systems
Volume93
DOIs
StatePublished - 1 Apr 2019

Fingerprint

Personal communication systems
Network performance
Monitoring
Costs
Internet of things

Keywords

  • Disconnection probability
  • Interference graph
  • Internet of Things
  • Network management
  • Network scheduling
  • Wireless sensor network

Cite this

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title = "Interference graphs to monitor and control schedules in low-power WPAN",
abstract = "With billions of connected devices in the near future, the major challenge is to develop networks to build an Industrial Internet of Things which is scalable, energy-efficient, reliable and affordable. To this end, low-power wireless personal area networks (LP-WPAN) provide a solution at minimum costs. However, to ensure continuous performance verification, LP-WPAN requires a centrally monitored and controlled service. This work proposes such an edge service, i.e. network monitoring and optimal reconfiguration of scheduled LP-WPANs. The approach is based on a transformation of the schedule into a new model, interference graphs. The interference graphs allow to design evaluation and rescheduling recommender methods to monitor and reconfigure the schedule. An experimental setup was developed to test and validate the approach. The results show that the model and methods provide an accurate representation of the behavior of the network, and that the new rescheduling recommender greatly improves the network's performance, compared to random rescheduling.",
keywords = "Disconnection probability, Interference graph, Internet of Things, Network management, Network scheduling, Wireless sensor network",
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Interference graphs to monitor and control schedules in low-power WPAN. / van der Lee, Tim; Liotta, Antonio; Exarchakos, Georgios.

In: Future Generation Computer Systems, Vol. 93, 01.04.2019, p. 111-120.

Research output: Contribution to journalArticleAcademicpeer-review

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AU - Liotta,Antonio

AU - Exarchakos,Georgios

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