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SWIPT and uplink NOMA approach for self energy recycling in full-duplex enabled D2D networkopen access

Authors
Budhiraja, IshanGarg, DeepakSingh, RamendraGarg, SahilChoi, Bong JunAlrashoud, Mubarak
Issue Date
Mar-2024
Publisher
ELSEVIER
Keywords
Self energy recycling; Full duplex; D2D; SWIPT; Uplink NOMA
Citation
ALEXANDRIA ENGINEERING JOURNAL, v.90, pp 208 - 215
Pages
8
Journal Title
ALEXANDRIA ENGINEERING JOURNAL
Volume
90
Start Page
208
End Page
215
URI
https://scholarworks.bwise.kr/ssu/handle/2018.sw.ssu/49404
DOI
10.1016/j.aej.2024.01.011
ISSN
1110-0168
2090-2670
Abstract
Simultaneous wireless information and power transfer (SWIPT) is a method through which users can simultaneously obtain energy and receive data from the base station (BS). This allows them to charge their batteries, which have limited power capacity, and enhance the quality of service (QoS). Nevertheless, this technology encounters the double near-far issue, where users located at the edges of the cell experience insufficient energy due to energy path loss, resulting in a decrease in system performance. In this investigation, we integrate the self-energy recycling technology with a D2D communication system that enables full-duplex operation. By employing this technology, the D2D cell edge user (DCEU) can harvest energy from selfinterference and utilize it to transmit data to the nearest D2D cell center user (DCCU). The DCCU combines its data with the DCEU and sends it to the BS using uplink non-orthogonal multiple access (NOMA). Both the DCCU and DCEU use a significant amount of energy when transmitting data, which negatively affects the quality of service (QoS). The goal of this research is to decrease the overall energy consumption of the DCEU and DCCU while maintaining their QoS. The defined problem is complex due to time and power limitations, as well as the presence of self and NOMA interference. To address this issue, we utilize a technique that combines time and power allocation. The numerical results demonstrated that the proposed scheme consumes 28.12% and 40.67% lesser amount of energy as compared to the baseline schemes.
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