IEEE Network · 2008 · 36 citations · 11 references
ComputingComputer ScienceComputer SystemsComputer NetworksDistributed SystemsWireless CommunicationsMesh NetworksNetwork ProtocolsRoutingRouting AlgorithmsRouting ProtocolsWireless NetworksAnycast RoutingCommunications ProtocolsNetwork ScalabilityRouting In Mesh NetworksRouting Protocols For Wireless NetworksScalabilityWireless Mesh NetworksWireless Mesh Routing
Many wireless mesh networks are based on unicast routing protocols even though those protocols do not provide a particularly good fit for such scenarios. In this article, we report about an alternative routing paradigm, tailor-made for large multihop wireless mesh networks: field-based anycast routing. In particular, we present HEAT, a routing protocol based on this paradigm. In contrast to previous protocols, HEAT requires communication only between neighboring nodes. The underlying routing concept is a field similar to a temperature field in thermal physics. In extensive simulation experiments, we found that HEAT has excellent scalability properties due to a fully distributed implementation, and it provides much more robust routes than the unicast protocols, AODV and OLSR. As a consequence, in large-scale mobile scenarios, the packet delivery ratio with HEAT is more than two times higher, compared to AODV or OLSR. These promising results indicate that HEAT is suitable for large-scale wireless mesh networks that cover entire cities.
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Perfect simulation and stationarity of a class of mobility models
J.-Y. Le Boudec, Milan Vojnović · 2005 · 450 citations · Full text
HEAT: Scalable Routing in Wireless Mesh Networks Using Temperature Fields
Rainer Baumann, Simon Heimlicher, Vincent Lenders et al. · 2007 · 49 citations