Optical Conveyance of Audio Signals: Pioneering Li-Fi Technology for High-Fidelity Data Transmission

Saiful Islam Tuhin; Sadia Mehrin Rahi; Istiyak Hasan Maruf; Sanjida Khanom; Ayesha Siddika

doi:10.55529/jeet.42.1.9

Authors

Saiful Islam Tuhin Department of Electrical & Electronic Engineering (EEE), Faculty of Engineering and Applied Sciences, Bangladesh University of Business & Technology (BUBT), Dhaka, Bangladesh
Sadia Mehrin Rahi Department of Computer Science and Engineering (CSE), Faculty of Engineering and Applied Sciences, Bangladesh University of Business & Technology (BUBT), Dhaka, Bangladesh
Istiyak Hasan Maruf Department of Computer Science and Engineering (CSE), Faculty of Engineering and Applied Sciences, Bangladesh University of Business & Technology (BUBT), Dhaka, Bangladesh.
Sanjida Khanom Department of Computer Science and Engineering (CSE), Faculty of Engineering and Applied Sciences, Bangladesh University of Business & Technology (BUBT), Dhaka, Bangladesh.
Ayesha Siddika Department of Computer Science and Engineering (CSE), Faculty of Engineering and Applied Sciences, Bangladesh University of Business & Technology (BUBT), Dhaka, Bangladesh.

Keywords:

Li-Fi, Audio Signal Transmission, Wireless Communication, Light Waves, Data Rates, Electromagnetic Interference.

Abstract

This paper explores the integration of Li-Fi technology for transmitting high-fidelity audio signals in modern communication systems. Li-Fi, a wireless communication technology utilizing light signals, offers numerous advantages over traditional radio frequency-based methods, including higher data rates, reduced electromagnetic interference, and enhanced security. Leveraging the unique properties of Li-Fi, such as its ability to transmit data through light waves, this study investigates its potential application in audio signal transmission. Through experimental analysis and theoretical considerations, we demonstrate the feasibility and efficacy of Li-Fi for delivering high-quality audio signals in various scenarios. Our findings contribute to advancing the understanding of Li-Fi technology and its potential role in shaping the future of wireless audio communication.