FPGA Implementation of a Wireless Communication System for Secure IR Sensor Data Transmission using TRNG

FPGA Implementation of a Wireless Communication System for Secure IR Sensor Data Transmission using TRNG

© 2022 by IJETT Journal
Volume-70 Issue-7
Year of Publication : 2022
Authors : Huirem Bharat Meitei, Manoj Kumar
DOI : 10.14445/22315381/IJETT-V70I7P223

How to Cite?

Huirem Bharat Meitei, Manoj Kumar, "FPGA Implementation of a Wireless Communication System for Secure IR Sensor Data Transmission using TRNG" International Journal of Engineering Trends and Technology, vol. 70, no. 7, pp. 220-237, 2022. Crossref, https://doi.org/10.14445/22315381/IJETT-V70I7P223

This article implemented an application of True Random Number Generators based (TRNG) design using All Digital Phase lock loop (ADPLL) to send secure IR (Infrared) sensor data wirelessly using Bluetooth HC-05 Module. This unique approach for secure wireless transfer of IR sensor data is realized on the Field Programmable Gate Array and designed with Xilinx Vivado. TRNG using ADPLL is made with NOR gate-based ring oscillators (RO) and flip-flops(FF) which are used to generate different forms of entropy. The key for the IR sensor information encryption algorithm in this study is comprised of random bits generated by a TRNG. Transferred active low-IR sensor data encrypted using TRNG to another device wirelessly via Bluetooth module to achieve secure wireless data transmission. The Arduino UNO board is used to interface encrypted/decrypted IR sensor data, HC05 Bluetooth enslaver/slave data, and display the data. The scientific novelty of this study is developing an application that uses an ADPLL-based TRNG as a cryptographic system to transmit safe IR sensor data wirelessly via a Bluetooth module. Unlike prior approaches, this work demonstrates that a viable FPGA-based wireless application utilizing TRNG may be produced by primarily utilizing the onboard ADPLL and ring Oscillator, as well as a few basic logic parts (1 LUT (Lookup Table) for Transmitter Tx and 2 LUTs for Receiver Rx). Passing the NIST test demonstrates the unpredictable and unique nature of the output TRNG bitstreams employed in the architectures. As a result, the suggested wireless application utilizing the TRNG cryptographic approach is suitable for use in various fields, including security network systems and industrial applications.


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