Optimizing Energy Efficiency in Ultra-Dense Networks Through Enhanced Device-To-Device Communication and Small Base Station Management

This research addresses the challenge of optimizing energy efficiency in Ultra-Dense Networks (UDNs) by leveraging Device-to-Device (D2D) communication and strategic Small Base Station (SBS) management. With the dense deployment of SBSs in 5G networks, power consumption has significantly increased. To mitigate this, a cooperative D2D grouping strategy, termed GMD2D, is proposed, which enhances user equipment (UE) association, optimizes SBS sleep mode transitions, and supports multihop communication within the 60 GHz band. The GMD2D strategy was evaluated against traditional D2D (CD2D) and non-D2D (ND2D) communication methods. The results demonstrated that GMD2D achieved an 8.57% improvement in energy efficiency over grouping only (GD2D), a 40.7% improvement over CD2D, and a 107% improvement over ND2D when tested with 50 UEs. Furthermore, in scenarios with 10 SBSs, GMD2D outperformed GD2D by 10.8%, CD2D by 42.9%, and ND2D by 116% in terms of energy efficiency. When evaluated at a throughput demand of 300 Mbps, GMD2D exhibited a 9.2% improvement over GD2D, a 38.3% enhancement compared to CD2D, and a 67.7% increase relative to ND2D. These findings highlight the effectiveness of the GMD2D strategy in achieving substantial energy savings while maintaining robust network performance, particularly in high-density UDN scenarios. The proposed approach not only contributes to the sustainability goals of future 5G networks but also ensures efficient management of network resources under varying user densities and communication demands.

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Published
2024-10-21
DOI
https://doi.org/10.1109/istt63363.2024.10750551
Primary Topic
Wireless Body Area Networks
Type
article
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article

Optimizing Energy Efficiency in Ultra-Dense Networks Through Enhanced Device-To-Device Communication and Small Base Station Management

Azlina Idris, Muhammad Firdaus Hashim, Nur Idora Abdul Razak
Wireless Body Area Networks
article

Optimizing Energy Efficiency in Ultra-Dense Networks Through Enhanced Device-To-Device Communication and Small Base Station Management

Azlina Idris, Muhammad Firdaus Hashim, Nur Idora Abdul Razak
article en

Abstract

This research addresses the challenge of optimizing energy efficiency in Ultra-Dense Networks (UDNs) by leveraging Device-to-Device (D2D) communication and strategic Small Base Station (SBS) management. With the dense deployment of SBSs in 5G networks, power consumption has significantly increased. To mitigate this, a cooperative D2D grouping strategy, termed GMD2D, is proposed, which enhances user equipment (UE) association, optimizes SBS sleep mode transitions, and supports multihop communication within the 60 GHz band. The GMD2D strategy was evaluated against traditional D2D (CD2D) and non-D2D (ND2D) communication methods. The results demonstrated that GMD2D achieved an 8.57% improvement in energy efficiency over grouping only (GD2D), a 40.7% improvement over CD2D, and a 107% improvement over ND2D when tested with 50 UEs. Furthermore, in scenarios with 10 SBSs, GMD2D outperformed GD2D by 10.8%, CD2D by 42.9%, and ND2D by 116% in terms of energy efficiency. When evaluated at a throughput demand of 300 Mbps, GMD2D exhibited a 9.2% improvement over GD2D, a 38.3% enhancement compared to CD2D, and a 67.7% increase relative to ND2D. These findings highlight the effectiveness of the GMD2D strategy in achieving substantial energy savings while maintaining robust network performance, particularly in high-density UDN scenarios. The proposed approach not only contributes to the sustainability goals of future 5G networks but also ensures efficient management of network resources under varying user densities and communication demands.

Universiti Teknologi MARA (MY)
Affordable and clean energy
Openalex Percentile: Top 81%
Wireless Body Area Networks
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