Enhanced Indoor Path Loss and RSRP of 5G mmWave Communication System with Multi-objective Genetic Algorithm

The signal strength in 5G mobile communication systems is significantly influenced by the surroundings, with key factors including the path difference, operating frequency, and obstructions at specific locations. Consequently, planning a communication system that can deliver improved signal strength...

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Published in:Wireless Personal Communications
Main Author: Sudhamani C.; Roslee M.; Chuan L.L.; Waseem A.; Osman A.F.; Jusoh M.H.
Format: Article
Language:English
Published: Springer 2024
Online Access:https://www.scopus.com/inward/record.uri?eid=2-s2.0-85201200124&doi=10.1007%2fs11277-024-11524-2&partnerID=40&md5=a6fbfe4b7fe345114e7ff9dd1941bc1c
id 2-s2.0-85201200124
spelling 2-s2.0-85201200124
Sudhamani C.; Roslee M.; Chuan L.L.; Waseem A.; Osman A.F.; Jusoh M.H.
Enhanced Indoor Path Loss and RSRP of 5G mmWave Communication System with Multi-objective Genetic Algorithm
2024
Wireless Personal Communications
138
1
10.1007/s11277-024-11524-2
https://www.scopus.com/inward/record.uri?eid=2-s2.0-85201200124&doi=10.1007%2fs11277-024-11524-2&partnerID=40&md5=a6fbfe4b7fe345114e7ff9dd1941bc1c
The signal strength in 5G mobile communication systems is significantly influenced by the surroundings, with key factors including the path difference, operating frequency, and obstructions at specific locations. Consequently, planning a communication system that can deliver improved signal strength becomes highly challenging. To address this issue, indoor path loss models are employed to estimate signal loss in different environments, frequencies, and distances. This paper introduces an intelligent multi-objective genetic algorithm aimed at enhancing path loss and received signal power. A comparative analysis is conducted to evaluate the performance of the proposed intelligent optimization algorithm against the traditional approach. The path loss and received power of various scenarios are estimated using various path loss models. The 5GCM indoor officce, 5GCM InH shopping mall, 3GPP TR 38.91 InH office, mmMAGIC InH office, METIS InH shopping mall, and IEEE 802.11 ad InH office indoor path loss models estimates the path loss of 62.37 dB, 62.15 dB, 63.12 dB, 50 dB, 55.18 dB, and 52.89 dB in traditional approach and 36.87 dB, 35.86 dB, 36.84 dB, 68.80 dB, 36.23 dB and 33.94 dB using GA approach and received powers of -12.17dBm,-11.37dBm,-12.17dBm,-5.80dBm,-12.24dBm and -8.68dBm in traditional approach and 26.13 dBm, 27.14 dBm, 26.15 dBm, -5.80dBm, 26.75 dBm and 29.05 dBm using GA approach repectively. The 5GCM and 3GPP models produces the path loss difference above 25 dB and mmMAGIC, METIS and IEEE models produces a path loss below 19 dB. Except mmMAGIC model, all models produces the recceiver power difference above 37 dBm. Therefore, the highest path loss difference of 26 dB is observed in 5GCM InH shopping mall model and the highest reccieved power difference of 39.01 dBm is observed in METIS InH shopping mall model. The results clearly demonstrate that the proposed intelligent optimization approach outperforms the traditional approach across various indoor scenarios. © The Author(s) 2024.
Springer
9296212
English
Article
All Open Access; Hybrid Gold Open Access
author Sudhamani C.; Roslee M.; Chuan L.L.; Waseem A.; Osman A.F.; Jusoh M.H.
spellingShingle Sudhamani C.; Roslee M.; Chuan L.L.; Waseem A.; Osman A.F.; Jusoh M.H.
Enhanced Indoor Path Loss and RSRP of 5G mmWave Communication System with Multi-objective Genetic Algorithm
author_facet Sudhamani C.; Roslee M.; Chuan L.L.; Waseem A.; Osman A.F.; Jusoh M.H.
author_sort Sudhamani C.; Roslee M.; Chuan L.L.; Waseem A.; Osman A.F.; Jusoh M.H.
title Enhanced Indoor Path Loss and RSRP of 5G mmWave Communication System with Multi-objective Genetic Algorithm
title_short Enhanced Indoor Path Loss and RSRP of 5G mmWave Communication System with Multi-objective Genetic Algorithm
title_full Enhanced Indoor Path Loss and RSRP of 5G mmWave Communication System with Multi-objective Genetic Algorithm
title_fullStr Enhanced Indoor Path Loss and RSRP of 5G mmWave Communication System with Multi-objective Genetic Algorithm
title_full_unstemmed Enhanced Indoor Path Loss and RSRP of 5G mmWave Communication System with Multi-objective Genetic Algorithm
title_sort Enhanced Indoor Path Loss and RSRP of 5G mmWave Communication System with Multi-objective Genetic Algorithm
publishDate 2024
container_title Wireless Personal Communications
container_volume 138
container_issue 1
doi_str_mv 10.1007/s11277-024-11524-2
url https://www.scopus.com/inward/record.uri?eid=2-s2.0-85201200124&doi=10.1007%2fs11277-024-11524-2&partnerID=40&md5=a6fbfe4b7fe345114e7ff9dd1941bc1c
description The signal strength in 5G mobile communication systems is significantly influenced by the surroundings, with key factors including the path difference, operating frequency, and obstructions at specific locations. Consequently, planning a communication system that can deliver improved signal strength becomes highly challenging. To address this issue, indoor path loss models are employed to estimate signal loss in different environments, frequencies, and distances. This paper introduces an intelligent multi-objective genetic algorithm aimed at enhancing path loss and received signal power. A comparative analysis is conducted to evaluate the performance of the proposed intelligent optimization algorithm against the traditional approach. The path loss and received power of various scenarios are estimated using various path loss models. The 5GCM indoor officce, 5GCM InH shopping mall, 3GPP TR 38.91 InH office, mmMAGIC InH office, METIS InH shopping mall, and IEEE 802.11 ad InH office indoor path loss models estimates the path loss of 62.37 dB, 62.15 dB, 63.12 dB, 50 dB, 55.18 dB, and 52.89 dB in traditional approach and 36.87 dB, 35.86 dB, 36.84 dB, 68.80 dB, 36.23 dB and 33.94 dB using GA approach and received powers of -12.17dBm,-11.37dBm,-12.17dBm,-5.80dBm,-12.24dBm and -8.68dBm in traditional approach and 26.13 dBm, 27.14 dBm, 26.15 dBm, -5.80dBm, 26.75 dBm and 29.05 dBm using GA approach repectively. The 5GCM and 3GPP models produces the path loss difference above 25 dB and mmMAGIC, METIS and IEEE models produces a path loss below 19 dB. Except mmMAGIC model, all models produces the recceiver power difference above 37 dBm. Therefore, the highest path loss difference of 26 dB is observed in 5GCM InH shopping mall model and the highest reccieved power difference of 39.01 dBm is observed in METIS InH shopping mall model. The results clearly demonstrate that the proposed intelligent optimization approach outperforms the traditional approach across various indoor scenarios. © The Author(s) 2024.
publisher Springer
issn 9296212
language English
format Article
accesstype All Open Access; Hybrid Gold Open Access
record_format scopus
collection Scopus
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