Mudali, PMutanga, MBAdigun, MONtlatlapa, Ntsibane S2011-11-172011-11-172011-06Mudali, P, Mutanga, MB, Adigun, MO and Ntlatlapa, N. 2011. Evaluating transceiver power savings produced by connectivity strategies for infrastructure wireless mesh networks. 7th International Conference on Wireless and Mobile Communications (ICWMC 2011), Luxembourg 19-24 June 2011http://www.thinkmind.org/index.php?view=article&articleid=icwmc_2011_10_20_20296http://hdl.handle.net/10204/53047th International Conference on Wireless and Mobile Communications (ICWMC 2011), Luxembourg 19-24 June 2011Infrastructure Wireless Mesh Networks (I-WMNs) are increasingly used to bridge the digital divide in rural areas around the world. Rural African areas in particular require energy efficient I-WMNs as the nodes comprising the I-WMN backbone network may be battery-powered in the absence of reliable power supplies. A key requirement for the proper functioning of the I-WMN backbone is that network connectivity be maintained. Two main types of connectivity strategies exist in the literature and the more practical Critical Number of Neighbors (CNN) method is focused upon. Three CNN-based connectivity strategies are evaluated via simulation to determine their effect on transceiver power savings when applied to the I-WMN backbone. The evaluation shows that these strategies are capable of cumulative transceiver power savings (in excess of 10%) and that the capacity for transceiver power savings largely corresponds to the position of a node relative to the (imaginary) network center. However, the evaluated connectivity strategies were found not to increase the network lifetime due to the nature of the network topologies created by these strategies. This particular result is however dependent upon the node energy model employed and further experiments with differing energy models are required to confirm this findingenWireless mesh networksConnectivityPower savingsNetwork lifetimeTopology controlMobile communicationsICWMC 2011Evaluating transceiver power savings produced by connectivity strategies for infrastructure wireless mesh networksConference PresentationMudali, P., Mutanga, M., Adigun, M., & Ntlatlapa, N. S. (2011). Evaluating transceiver power savings produced by connectivity strategies for infrastructure wireless mesh networks. http://hdl.handle.net/10204/5304Mudali, P, MB Mutanga, MO Adigun, and Ntsibane S Ntlatlapa. "Evaluating transceiver power savings produced by connectivity strategies for infrastructure wireless mesh networks." (2011): http://hdl.handle.net/10204/5304Mudali P, Mutanga M, Adigun M, Ntlatlapa NS, Evaluating transceiver power savings produced by connectivity strategies for infrastructure wireless mesh networks; 2011. http://hdl.handle.net/10204/5304 .TY - Conference Presentation AU - Mudali, P AU - Mutanga, MB AU - Adigun, MO AU - Ntlatlapa, Ntsibane S AB - Infrastructure Wireless Mesh Networks (I-WMNs) are increasingly used to bridge the digital divide in rural areas around the world. Rural African areas in particular require energy efficient I-WMNs as the nodes comprising the I-WMN backbone network may be battery-powered in the absence of reliable power supplies. A key requirement for the proper functioning of the I-WMN backbone is that network connectivity be maintained. Two main types of connectivity strategies exist in the literature and the more practical Critical Number of Neighbors (CNN) method is focused upon. Three CNN-based connectivity strategies are evaluated via simulation to determine their effect on transceiver power savings when applied to the I-WMN backbone. The evaluation shows that these strategies are capable of cumulative transceiver power savings (in excess of 10%) and that the capacity for transceiver power savings largely corresponds to the position of a node relative to the (imaginary) network center. However, the evaluated connectivity strategies were found not to increase the network lifetime due to the nature of the network topologies created by these strategies. This particular result is however dependent upon the node energy model employed and further experiments with differing energy models are required to confirm this finding DA - 2011-06 DB - ResearchSpace DP - CSIR KW - Wireless mesh networks KW - Connectivity KW - Power savings KW - Network lifetime KW - Topology control KW - Mobile communications KW - ICWMC 2011 LK - https://researchspace.csir.co.za PY - 2011 T1 - Evaluating transceiver power savings produced by connectivity strategies for infrastructure wireless mesh networks TI - Evaluating transceiver power savings produced by connectivity strategies for infrastructure wireless mesh networks UR - http://hdl.handle.net/10204/5304 ER -