access icon free Assessment of the adaptive routing performance of a Wireless Sensor Network using smart antennas

Wireless sensor networks are built from nodes which have at least one sensor attached to them. To increase robustness and capacity, a signal from one node can be routed through many different nodes before it reaches its destination node (i.e. a base station). A smart antenna with a steerable beam has the potential, compared to a monopole, to increase the signal-to-noise ratio between nodes and hence provide more reliable communication paths. In this study, the data routing and link performance of a rhombus-shaped mesh network using four IEEE 802.15.4 compliant MICAz sensor nodes (motes) is assessed using both monopole and smart antennas. Both reflectionless and multipath-rich environments are used. It is shown that the electronically steerable parasitic array smart antenna offers a superior performance to a monopole antenna in both environments, while still consuming a similar amount of input power.

Inspec keywords: monopole antenna arrays; wireless sensor networks; adaptive antenna arrays; telecommunication network reliability; beam steering; wireless mesh networks; radio links; telecommunication network routing

Other keywords: monopole antenna; WSN; motes; destination node; data routing; link performance; IEEE 802.15.4 compliant MICAz sensor nodes; rhombus shaped mesh network; wireless sensor network; steerable beam; adaptive routing performance assessment; multipath rich environment; reliable communication path; electronically steerable parasitic array smart antenna; reflectionless environment

Subjects: Reliability; Antenna arrays; Communication network design, planning and routing; Wireless sensor networks

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