ETRI-Knowledge Sharing Plaform

KOREAN
논문 검색
Type SCI
Year ~ Keyword

Detail

Journal Article Learning Decentralized and Scalable Resource Management for Wireless Powered Communication Networks
Cited 0 time in scopus Share share facebook twitter linkedin kakaostory
Authors
Kobuljon Ismanov Abdurakhmonovich, Doyun Lee, Seung-Eun Hong, Jaewook Lee, Hoon Lee
Issue Date
2024-11
Citation
IEEE Communications Letters, v.28, no.11, pp.2563-2567
ISSN
1089-7798
Publisher
Institute of Electrical and Electronics Engineers
Language
English
Type
Journal Article
DOI
https://dx.doi.org/10.1109/LCOMM.2024.3472067
Abstract
This letter presents deep learning approaches for addressing resource allocation problems in wireless-powered communication networks. Conventional deep neural network (DNN) methods require the global channel state information (CSI), invoking impractical centralized operations. Also, their computations depend on the user population, which lacks the scalability of the network size. To this end, we propose decentralized and scalable DNN architectures. We interpret the ideal centralized DNN as a nomographic function that can be decomposed into multiple component DNNs. Each of these is dedicated to processing the local CSI of individual users, thereby leading to the decentralized architecture. To reduce coordination overheads among the H-AP and users, individual users leverage a DNN that compresses local CSI into low-dimensional messages shared with the H-AP. Since these DNN modules are designed to share identical trainable parameters, the proposed learning architecture can be universally applied to various configurations with arbitrary user populations. Numerical results show that the proposed decentralized method achieves almost identical performance to centralized schemes with reduced complexity.
KSP Keywords
Channel State Information(CSI), Decentralized architecture, Deep neural network(DNN), Learning approach, Local CSI, Numerical results, Resource allocation problem, Resource management, decentralized method, deep learning(DL), low-dimensional