Controlling Interference Structure and Transmit Power of Aerial Small Cells by Hybrid Affinity Propagation Clustering and Reinforcement Learning

This article presents a learning-based interference management mechanism for multiple unmanned aerial vehicles mounted small cells (ASCs), called HAPPIER, standing for <underline>h</underline>ybrid <underline>a</underline>ffinity <underline>p</underline>ro<unde...

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Main Authors: Shao-Hung Cheng, Jia-Ling Liu, Li-Chun Wang
Format: Article
Language:English
Published: IEEE 2021-01-01
Series:IEEE Open Journal of Vehicular Technology
Subjects:
Online Access:https://ieeexplore.ieee.org/document/9537620/
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author Shao-Hung Cheng
Jia-Ling Liu
Li-Chun Wang
author_facet Shao-Hung Cheng
Jia-Ling Liu
Li-Chun Wang
author_sort Shao-Hung Cheng
collection DOAJ
description This article presents a learning-based interference management mechanism for multiple unmanned aerial vehicles mounted small cells (ASCs), called HAPPIER, standing for <underline>h</underline>ybrid <underline>a</underline>ffinity <underline>p</underline>ro<underline>p</underline>agation cluster<underline>i</underline>ng (APC) and r<underline>e</underline>inforcement lea<underline>r</underline>ning (RL) power control. The proposed HAPPIER interference management mechanism consists of two main algorithms: APC and RL. First, from the macroscopic viewpoint, the APC explores the interference structure of multiple ASCs and then changes the most serious interfering ASCs into sleeping mode. As such, we can shift the complicated interference structure into the one with fewer interfering sources and thus speed up the learning process of interference management. Secondly, from the microscopic viewpoint, based on the interference structure suggested by HAPPIER, the RL is applied to adjust the transmission power of active ASCs to optimize the total throughput further. HAPPIER can achieve the optimal trade-off between system throughput and complexity. From our numerical results, subject to the same complexity constraint, our proposed HAPPIER outperforms all the existing approaches and can achieve 93&#x0025; of the system throughput of the exhaustive searching algorithm.
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spelling doaj.art-cc0d57ccf2a04e778b058fa4a2b0e1152022-12-21T18:32:02ZengIEEEIEEE Open Journal of Vehicular Technology2644-13302021-01-01241241810.1109/OJVT.2021.31124689537620Controlling Interference Structure and Transmit Power of Aerial Small Cells by Hybrid Affinity Propagation Clustering and Reinforcement LearningShao-Hung Cheng0https://orcid.org/0000-0001-6013-1676Jia-Ling Liu1Li-Chun Wang2https://orcid.org/0000-0002-7883-6217Department of Electrical and Electronic Engineering, Chung Cheng Institute of Technology, National Defense University, Taoyuan, TaiwanDepartment of Electrical and Computer Engineering, National Yang Ming Chiao Tung University, Hsinchu, TaiwanDepartment of Electrical and Computer Engineering, National Yang Ming Chiao Tung University, Hsinchu, TaiwanThis article presents a learning-based interference management mechanism for multiple unmanned aerial vehicles mounted small cells (ASCs), called HAPPIER, standing for <underline>h</underline>ybrid <underline>a</underline>ffinity <underline>p</underline>ro<underline>p</underline>agation cluster<underline>i</underline>ng (APC) and r<underline>e</underline>inforcement lea<underline>r</underline>ning (RL) power control. The proposed HAPPIER interference management mechanism consists of two main algorithms: APC and RL. First, from the macroscopic viewpoint, the APC explores the interference structure of multiple ASCs and then changes the most serious interfering ASCs into sleeping mode. As such, we can shift the complicated interference structure into the one with fewer interfering sources and thus speed up the learning process of interference management. Secondly, from the microscopic viewpoint, based on the interference structure suggested by HAPPIER, the RL is applied to adjust the transmission power of active ASCs to optimize the total throughput further. HAPPIER can achieve the optimal trade-off between system throughput and complexity. From our numerical results, subject to the same complexity constraint, our proposed HAPPIER outperforms all the existing approaches and can achieve 93&#x0025; of the system throughput of the exhaustive searching algorithm.https://ieeexplore.ieee.org/document/9537620/Aerial small cellsaffinity propagation clusteringreinforcement learninginterference mitigationpower control
spellingShingle Shao-Hung Cheng
Jia-Ling Liu
Li-Chun Wang
Controlling Interference Structure and Transmit Power of Aerial Small Cells by Hybrid Affinity Propagation Clustering and Reinforcement Learning
IEEE Open Journal of Vehicular Technology
Aerial small cells
affinity propagation clustering
reinforcement learning
interference mitigation
power control
title Controlling Interference Structure and Transmit Power of Aerial Small Cells by Hybrid Affinity Propagation Clustering and Reinforcement Learning
title_full Controlling Interference Structure and Transmit Power of Aerial Small Cells by Hybrid Affinity Propagation Clustering and Reinforcement Learning
title_fullStr Controlling Interference Structure and Transmit Power of Aerial Small Cells by Hybrid Affinity Propagation Clustering and Reinforcement Learning
title_full_unstemmed Controlling Interference Structure and Transmit Power of Aerial Small Cells by Hybrid Affinity Propagation Clustering and Reinforcement Learning
title_short Controlling Interference Structure and Transmit Power of Aerial Small Cells by Hybrid Affinity Propagation Clustering and Reinforcement Learning
title_sort controlling interference structure and transmit power of aerial small cells by hybrid affinity propagation clustering and reinforcement learning
topic Aerial small cells
affinity propagation clustering
reinforcement learning
interference mitigation
power control
url https://ieeexplore.ieee.org/document/9537620/
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AT jialingliu controllinginterferencestructureandtransmitpowerofaerialsmallcellsbyhybridaffinitypropagationclusteringandreinforcementlearning
AT lichunwang controllinginterferencestructureandtransmitpowerofaerialsmallcellsbyhybridaffinitypropagationclusteringandreinforcementlearning