Abstract

Underwater wireless sensor networks (UWSNs) gained the attention of researchers due to their substantial applications in various fields. The major application areas of UWSN are environmental monitoring, underwater oil and gas extraction and military surveillance, smart farming, communication, and others. However, UWSNs are also prone to significant issues, such as limited network lifetime, the low processing capability of nodes, high energy consumption to run routing protocols, and difficult node replacement. Therefore, enhancing the lifetime of UWSN by reducing energy consumption and processing is a research issue. In this research, we proposed the IoT enabled depth base routing method (IDBR) to utilize energy efficiently. The performance of the proposed IDBR method is compared with conventional DBR protocol using simulation conducting in MATLAB. The performance of both the methods (i.e., IDBR and DBR) is evaluated in network energy consumption, the number of alive nodes, sink utilization, and end-to-end delay. The simulation-based experiment results show that IDBR consumes 27.7% less energy and increases network stability than the DBR. Similarly, the utilization of the surface sinks in IDBR is more as compared to DBR as in IDBR, and sinks work as relay forward data to the base station without processing which increases the power of field nodes. The proposed mechanism improves the network’s lifetime and increases the accessibility and security of the sensed data.

Highlights

  • The two-third part of planet Earth consists of water in various forms such as oceans, lakes, streams, rivers, and glaciers [1, 2], containing an ample quantity of valuable resources

  • It will deliver the sensed data to the nearest sink for relaying data to the base station when the power of the sink node becomes low during communication

  • In our proposed Internet of Things (IoT) enabled depth base routing method (IDBR), we introduced IoT enabled intelligent sink nodes

Read more

Summary

Introduction

The two-third part of planet Earth consists of water in various forms such as oceans, lakes, streams, rivers, and glaciers [1, 2], containing an ample quantity of valuable resources. This shows the importance of exploring the underwater medium. The significant problems related to the UWSNs are limited network lifetime, the low processing capability of nodes, and high energy consumption to run routing protocols [2]. As the battery replacement in UWSN is a challenging task, an energy-efficient routing method can be useful to improve the lifetime of the network

Objectives
Methods
Results
Conclusion
Full Text
Published version (Free)

Talk to us

Join us for a 30 min session where you can share your feedback and ask us any queries you have

Schedule a call