Secure Energy Efficient Routing Protocol for Wireless Sensor Networks

Abstract

A variety of communication system technologies have contributed to the expansion of wireless sensor networks (WSNs) for the benefit of society. With its captivating array of applications and service sectors, it is one of the burgeoning communication systems. The majority of current systems primarily concentrate on how WSNs use aspects of classical decipherment or one layer security algorithms, which are typically vulnerable to attacks. Biometric login property based standalone security systems using a fuzzy logic approach, etc., are limited to satisfy optimal security provision in classical cryptography progress towards such private-public key crypto-systems. Creating a secure paradigm for WSN-enabled systems that is both lightweight and durable is, from our perspective, critically important and noteworthy. Taking into account the needs and reasons for the study, it has three goals that address the network as safe and reliable for communication with Wireless Sensor Networks: (1) To create a more robust cryptosystem-assisted routing protocol for safe WSN communication; (2) to design a geographical forwarding protocol for WSNs that takes into account both static and dynamic link stability and secure network conditions; and (3) to design a cryptographic routing model for WSN communication that is resilient to loss. An extremely efficient and reliable WSN routing system based on Systematic-Random Linear Network Coding (S-RLNC) has been created. To guarantee safe and QoS efficient WSN communication, the suggested S-RLNC transmission model departs from classical security systems by utilizing multi-generation mixing based data transmission, advanced pre-coding and interleaving concepts, and an approach of multi-factor authentication is created by combining biometric features, time stamping, and amplified RSA-assisted Elliptic Curve Cryptography (ECC). Findings show that the newline