Green WLANs: On-Demand WLAN Infrastructures

Enterprise wireless local area networks (WLANs) that consist of a high-density of hundreds to thousands of access points (APs) are being deployed rapidly in corporate offices and university campuses. The primary purpose of these deployments is to satisfy user demands for high bandwidth, mobility, an...

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Veröffentlicht in:Mobile networks and applications 2009-12, Vol.14 (6), p.798
Hauptverfasser: Jardosh, Amit P., Papagiannaki, Konstantina, Belding, Elizabeth M., Almeroth, Kevin C., Iannaccone, Gianluca, Vinnakota, Bapi
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container_end_page
container_issue 6
container_start_page 798
container_title Mobile networks and applications
container_volume 14
creator Jardosh, Amit P.
Papagiannaki, Konstantina
Belding, Elizabeth M.
Almeroth, Kevin C.
Iannaccone, Gianluca
Vinnakota, Bapi
description Enterprise wireless local area networks (WLANs) that consist of a high-density of hundreds to thousands of access points (APs) are being deployed rapidly in corporate offices and university campuses. The primary purpose of these deployments is to satisfy user demands for high bandwidth, mobility, and reliability. However, our recent study of two such WLANs showed that these networks are rarely used at their peak capacity, and the majority of their resources are frequently idle. In this paper, we bring to attention that a large fraction of idle WLAN resources results in significant energy losses. Thousands of WLANs world-wide collectively compound this problem, while raising serious concerns about the energy losses that will occur in the future. In response to this compelling problem, we propose the adoption of resource on-demand (RoD) strategies for WLANs. RoD strategies power on or off WLAN APs dynamically, based on the volume and location of user demand. As a specific solution, we propose SEAR , a practical and elegant RoD strategy for high-density WLANs. We implement SEAR on two wireless networks to show that SEAR is easy to integrate in current WLANs, while it ensures no adverse impact on end-user connectivity and performance. In our experiments, SEAR reduces power consumption to 46%. Using our results we discuss several interesting problems that open future directions of research in RoD WLANs.
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subjects Bandwidths
Case studies
College campuses
Communications Engineering
Computer Communication Networks
Connectivity
Electrical Engineering
Energy
Energy efficiency
Engineering
Internet
IT in Business
Mathematical analysis
Networks
Studies
Wireless networks
title Green WLANs: On-Demand WLAN Infrastructures
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