Abstract. In the last decade, Underwater Wireless Sensor Networks (UWSNs) have been widely studied because of their peculiar aspects that distinguish them from common wireless terrestrial networks. In fact, most UWSNs use acoustic instead of radio-frequency based communications, and nodes are subject to high mobility caused by water currents. As a consequence, specialised routing algorithms have been developed to tackle this challenging scenario. Depth based Routing (DBR) is one of the first protocols that have been developed to this aim, and is still widely adopted in actual implementations of UWSNs. In this paper we propose a stochastic analysis that aims at evaluating the performance of UWSNs using DBR in terms of expected energy consumption and expected end-to-end delay. Under a set of assumptions, we give expressions for these performance indices that can be evaluated efficiently, and hence they can be adopted as the basis for optimizing the configuration parameters of the protocol.
In REF the authors propose a stochastic model to evaluate the total energy consumption and end-to-end delay of a UWSN under ideal conditions, however the model considers cylindrical propagation instead of the more common spherical that we use here.
Analysis of Performance in Depth Based Routing for Underwater Wireless Sensor Networks
InfQ@VALUETOOLS
Computer Science