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Multilayered Distributed Routing for Power Efficient MANET Performance

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Abstract

In this paper a new power efficient routing algorithm for MANETs with self-organizing and self-routing features is described and its performance analyzed in different simulation scenarios. The algorithm has the logic of a non-cooperative routing algorithm based on the evaluation of a weight parameter, the latter being a function of properties of the MANET nodes related to the nominal available power and the transmission range. A self-estimation of this weight parameter for each node is introduced in the routing process based on the status and functional history of the node. The routing is based on network layering, formation of service areas in each layer and choice of nodes from these areas to have the functionality of default gateways. The proposed algorithm, named service zone gateway prediction (SZGP), is a hybrid type of routing mechanism, incorporating pre-computed multipath hop-by-hop distributed routing, with a periodically updated hierarchical multilayered structure. The results from the simulation experiments show that the performance of the proposed SZGP algorithm in relation to the basic performance parameters such as packet delivery ratio, delay and throughput are similar to those of the well-known AODV algorithm, but in relation to power efficiency the proposed algorithm outperforms AODV significantly. This is due to the fact that such an approach reduces the overall number of broadcasts in the network and ensures a reliable and energy efficient connection by balancing the load among the nodes.

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Acknowledgements

This work was supported by contract DN 07/22 for research project: “Self-coordinating and Adaptive Wireless Cyber Physical Systems with Human in the Loop” of the Bulgarian Research Fund of the Ministry of Education and Science.

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Correspondence to Vladimir Poulkov.

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Chaudhari, M., Koleva, P., Poulkov, V. et al. Multilayered Distributed Routing for Power Efficient MANET Performance. Wireless Pers Commun 97, 1729–1752 (2017). https://doi.org/10.1007/s11277-017-4613-5

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