Physical Characteristics Analysis on Intelligent Reflecting Surface for High Speed Telecommunication Networks

Physical Characteristics Analysis on Intelligent Reflecting Surface for High Speed Telecommunication Networks

Authors

DOI:

https://doi.org/10.56741/jnest.v4i02.804

Keywords:

Intelligent Reflecting Surface, High Speed Telecommunication System, Numerical Analysis, Physical Layer Security, Wireless Communication

Abstract

The paper mainly focuses on the physical characteristics analysis of an intelligent reflecting surface for high-speed telecommunication networks. The research problem in this study are (i) To overcome the bottleneck, a novel transmission scheme, named hybrid reflection modulation (HRM) must be considered, exploiting both active and passive reflecting elements at the RIS and their combinations, which enables to convey information without using any radio frequency (RF) chains, (ii) In the HRM scheme, the active reflecting elements using additional power amplifiers can be able to amplify and reflect the incoming signal, while the remaining passive elements can reflect the signals with appropriate phase shifts, (iii) Based on this novel transmission model, we will observe an upper bound for the average bit error probability (ABEP), and derive achievable rate of the system using an information theoretic approach, and (iv) Moreover, comprehensive computer simulations could be performed to prove the superiority of the proposed HRM scheme over existing fully passive, fully active and reflection modulation (RM) systems. The research directions are as follows: (i) Implementing the Intelligent Reflecting Surfaces (IRS) and Hybrid Reflection Modulation Technologies for 6G Wireless Communication, (ii) Implementing the Intelligent Reflecting Surfaces (IRS) and Hybrid Reflection Modulation Technologies with physical layer security techniques, and (iii) Modelling the mathematical equation for optimization design of IRS system. There are two portions in this study. The first is designing the signal model in the IRS surface with specific physical parameters. The second one is an analysis of the capacity of point-to-point MIMO channels.  The analyses are conducted using by MATLAB language. The results confirm the performance specification of the IRS system for high-speed telecommunication applications.

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Author Biographies

Naw Aye Myat Su Su Win, Yangon Technological University

received her B.E. (Electronics) from Technological University (Hpa-An) in 2009, M.E. (Electronics) Degree from Technological University (Thanlyin) in 2021, respectively. She is now a PhD candidate in the Department of Electronic Engineering of Yangon Technological University. (email: ecdepartment.ytu@gmail.com).

Hla Myo Tun, Yangon Technological University

is a Leading Pro-Rector for Research and Engineering Higher Education at Yangon Technological University (YTU). He specializes in professional training for Engineering Higher Education leaders, heads of departments, and faculty members. He also directs Research and Development programs for the technology development of Electric Vehicle Research Works and Renewable Energy System Optimizations.  (email:  hmt.ytu@gmail.com). 

Lei Lei Yin Win, Yangon Technological University

is a Professor at the Department of Electronic Engineering, Yangon Technological University, Myanmar. (email: maleileiyinwin.ytu@gmail.com).

Thanda Win, Yangon Technological University

is a Professor of the Department of Electronic Engineering, at Yangon Technological University, Myanmar. (email: mathandawin.ytu@gmail.com).

Mya Mya Aye, Yangon Technological University

is an Associate Professor of the Department of Electronic Engineering, at Yangon Technological University, Myanmar. (email: mamyamyaaye.ytu@gmail.com).

Khin Kyu Kyu Win, Yangon Technological University

is a Professor of the Department of Electronic Engineering of Yangon Technological University. (email: makhinkyukyuwin.ytu@gmail.com).

Khaing Thandar Soe, Yangon Technological University

is an Assistant Lecturer of the Department of Electronic Engineering, at Yangon Technological University, Myanmar. (email: makhaingthandarsoe.ytu@gmail.com).

Devasis Pradhan, Acharya Institute of Technology

has worked as an Assistant Professor in Grade 1 and Dean of Research and Development at Acharya Institute of Technology, Bengaluru, Karnataka, from 2017 onwards. His current research includes the effectiveness of 5G Green Communications, mmWave antenna design, UWB antennas, and its implementation. With 16+ years of experience in the Academic and Research field, he has published 76 research papers and eight papers submitted to IEEE Access and Reputed Book and 4 Authored Books and 3 Edited Books (CRC, ISTE, Bentham Science) with a reputed publishing house. (email: devasispradhan@acharya.ac.in).

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Published

2025-04-30

How to Cite

Su Win, N. A. M. S., Tun, H. M., Win, L. L. Y., Win, T., Aye, M. M., Win, K. K. K., Soe, K. T., & Pradhan, D. (2025). Physical Characteristics Analysis on Intelligent Reflecting Surface for High Speed Telecommunication Networks . Journal of Novel Engineering Science and Technology, 4(02), 51–56. https://doi.org/10.56741/jnest.v4i02.804

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Vol. 4 No. 02 (2025): Journal of Novel Engineering Science and Technology

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