Abstract

Wireless sensor network (WSN) technology presents significant advantages for Internet of Things (IoT). Sensor-based IoT networks are designed to operate in unattended, harsh, and complex environments. However, WSNs are resource-constrained. Due to the operating environment settings, there exist great challenges in the privacy and reliability of WSN communications. To achieve secure and reliable communications, it is necessary to devise reliable routing protocols and provide a method to evaluate the performance of the protocols. To guarantee location privacy of source nodes, numerous source location privacy (SLP) routing protocols are presented in the literature. However, the existing literature fails to evaluate the SLP reliability of the protocols. This article achieves three main objectives. First, a new relay ring routing (ReRR) protocol is proposed to address some limitations of fake packet-based SLP routing protocols. The routing algorithm of ReRR is specifically designed to provide long-term SLP protection. Second, unlike previous articles that focus solely on measuring the magnitude of SLP protection using performance metrics such as safety period, capture ratio, attack success rate, and capture probability, this article proposes a novel approach to measure the SLP reliability of the protocols. In the third objective, we conduct a series of experiments to analyze the performance of ReRR and fake packet-based protocols. Using the proposed approach, the SLP reliability of the protocols is evaluated. Experiment results reveal that the proposed ReRR protocol exhibits advantageous performance features. It is observed that the fake packet-based routing protocols achieve strong SLP protection by integrating multiple routing techniques such as packet flooding and random distribution of fake packet traffic. However, the achieved SLP protection is short-term and less reliable. On the other hand, the proposed ReRR protocol employs an energy-efficient routing algorithm to guarantee reliability and long-term SLP protection. In addition, the ReRR protocol ensures improved network lifetime.

Highlights

  • In recent years, wireless sensor network (WSN) technology has gained increasing popularity in ubiquitous support of sensing system services [1] and Internet of Things (IoT)

  • The results show that the dissemination routing (DissR), distributed fake source with phantom node (DistrR), and relay ring routing (ReRR) protocols achieve significantly longer SP than the traditional phantom singlepath routing (PhanR) protocol

  • The results show that the ReRR protocol achieves significantly long network lifetime to outperform the DissR and DistrR protocols

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Summary

INTRODUCTION

Wireless sensor network (WSN) technology has gained increasing popularity in ubiquitous support of sensing system services [1] and Internet of Things (IoT). The proposed ReRR protocol outperforms the DissR and DistrR protocols in terms of long-term SLP protection, energy efficiency, network lifetime, and SLP reliability. To outperform the DissR and DistrR protocols, ReRR regulates the energy consumption of the sensor nodes by reducing the amount of packet traffic in the network. In [30], it was shown that the DissR and DistrR protocols achieve short-term SLP protection and reduced network lifetime due to high energy consumption. The ReRR protocol achieves reliable long-term SLP protection to outperform the DissR and DistrR protocols. Demonstrate that ReRR outperforms DissR and DistrR in terms of long-term SLP protection, energy efficiency, and network lifetime.

RELATED WORK
EXPERIMENTAL EVALUATION
ENERGY CONSUMPTION AND NETWORK LIFETIME
Findings
CONCLUSION

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