Performance Enhancement of 5G Networks: Remodeling Power Domain Scheme Through NOMA-MIMO Technologies Integration

In 5G mobile systems, Non-Orthogonal Light Acquisition (NOMA) and Multiple End-to-End (MIMO) technologies must overcome numerous obstacles, including space limitations, connectivity restrictions, and the requirement for increased reliability. It is vital to concentrate on enhancing and reconsidering criteria of BER, SE, average power rate and potential for a link transmission error in order to boost performance in 5G networks using MIMO. Phase modulation was accomplished in a few frequency channels by the suggested model, which took into account input power, bandwidth, transmission power, and signal-to-noise ratio. Following an evaluation of the model's efficacy, the results showed superior performance over earlier research. The transmission findings demonstrate that MIMO-NOMA enhances the critical user's bit error rate and transmission power. The average active rate was used to determine link transmission outcomes. Furthermore, in both uplink and downlink scenarios, with and without MIMO, NOMA's BER, SE, average power rate & failure probability was assessed. Study discovered that MIMO-NOMA installation significantly improved performance for all users.

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Publication Details

Journal
International Journal of Advanced engineering Management and Science
Published
2025-01-01
DOI
https://doi.org/10.22161/ijaems.114.28
Primary Topic
Advanced Wireless Communication Technologies
Type
article
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article

Performance Enhancement of 5G Networks: Remodeling Power Domain Scheme Through NOMA-MIMO Technologies Integration

Umer Shafie Bhatti
International Journal of Advanced engineering Management and Science
Advanced Wireless Communication Technologies
article

Performance Enhancement of 5G Networks: Remodeling Power Domain Scheme Through NOMA-MIMO Technologies Integration

Umer Shafie Bhatti
article en

Abstract

In 5G mobile systems, Non-Orthogonal Light Acquisition (NOMA) and Multiple End-to-End (MIMO) technologies must overcome numerous obstacles, including space limitations, connectivity restrictions, and the requirement for increased reliability. It is vital to concentrate on enhancing and reconsidering criteria of BER, SE, average power rate and potential for a link transmission error in order to boost performance in 5G networks using MIMO. Phase modulation was accomplished in a few frequency channels by the suggested model, which took into account input power, bandwidth, transmission power, and signal-to-noise ratio. Following an evaluation of the model's efficacy, the results showed superior performance over earlier research. The transmission findings demonstrate that MIMO-NOMA enhances the critical user's bit error rate and transmission power. The average active rate was used to determine link transmission outcomes. Furthermore, in both uplink and downlink scenarios, with and without MIMO, NOMA's BER, SE, average power rate & failure probability was assessed. Study discovered that MIMO-NOMA installation significantly improved performance for all users.

International Journal of Advanced engineering Management and ScienceVol. 11(4)
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Openalex Percentile: Top 81%
Advanced Wireless Communication Technologies
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Performance Enhancement of 5G Networks: Remodeling Power Domain Scheme Through NOMA-MIMO Technologies Integration — Umer Shafie Bhatti · International Journal of Advanced engineering Management and Science (2025) | TGRS Research Map | TGRS