A dataset for mobile edge computing network topologies

Mobile Edge Computing (MEC) is vital to support the numerous, future applications that are envisioned in the 5G and beyond mobile networks. Since computation capabilities are available at the edge of the network, applications that need ultra low-latency, high bandwidth and reliability can be deploye...

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Autores principales: Bin Xiang, Jocelyne Elias, Fabio Martignon, Elisabetta Di Nitto
Formato: article
Lenguaje:EN
Publicado: Elsevier 2021
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Acceso en línea:https://doaj.org/article/fa2c2c8c18544377a3a4989c5d509765
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spelling oai:doaj.org-article:fa2c2c8c18544377a3a4989c5d5097652021-11-14T04:33:32ZA dataset for mobile edge computing network topologies2352-340910.1016/j.dib.2021.107557https://doaj.org/article/fa2c2c8c18544377a3a4989c5d5097652021-12-01T00:00:00Zhttp://www.sciencedirect.com/science/article/pii/S2352340921008337https://doaj.org/toc/2352-3409Mobile Edge Computing (MEC) is vital to support the numerous, future applications that are envisioned in the 5G and beyond mobile networks. Since computation capabilities are available at the edge of the network, applications that need ultra low-latency, high bandwidth and reliability can be deployed more easily. This opens up the possibility of developing smart resource allocation approaches that can exploit the MEC infrastructure in an optimized way and, at the same time, fulfill the requirements of applications. However, up to date, the progress of research in this area is limited by the unavailability of publicly available true MEC topologies that could be used to run extensive experiments and to compare the performance on different solutions concerning planning, scheduling, routing etc. For this reason, we decided to infer and make publicly available several synthetic MEC topologies and scenarios.Specifically, based on the experience we have gathered with our experiments Xiang et al. [1], we provide data related to 3 randomly generated topologies, with increasing network size (from 25 to 100 nodes). Moreover, we propose a MEC topology generated from OpenCellID [2] real data and concerning the Base Stations’ location of 234 LTE cells owned by a mobile operator (Vodafone) in the center of Milan. We also provide realistic reference parameters (link bandwidth, computation and storage capacity, offered traffic), derived from real services provided by MEC in the deployment of 5G networks.Bin XiangJocelyne EliasFabio MartignonElisabetta Di NittoElsevierarticle5G NetworkMobile edge computingBase stationsNetwork topologyGeographic locationRandom graphsComputer applications to medicine. Medical informaticsR858-859.7Science (General)Q1-390ENData in Brief, Vol 39, Iss , Pp 107557- (2021)
institution DOAJ
collection DOAJ
language EN
topic 5G Network
Mobile edge computing
Base stations
Network topology
Geographic location
Random graphs
Computer applications to medicine. Medical informatics
R858-859.7
Science (General)
Q1-390
spellingShingle 5G Network
Mobile edge computing
Base stations
Network topology
Geographic location
Random graphs
Computer applications to medicine. Medical informatics
R858-859.7
Science (General)
Q1-390
Bin Xiang
Jocelyne Elias
Fabio Martignon
Elisabetta Di Nitto
A dataset for mobile edge computing network topologies
description Mobile Edge Computing (MEC) is vital to support the numerous, future applications that are envisioned in the 5G and beyond mobile networks. Since computation capabilities are available at the edge of the network, applications that need ultra low-latency, high bandwidth and reliability can be deployed more easily. This opens up the possibility of developing smart resource allocation approaches that can exploit the MEC infrastructure in an optimized way and, at the same time, fulfill the requirements of applications. However, up to date, the progress of research in this area is limited by the unavailability of publicly available true MEC topologies that could be used to run extensive experiments and to compare the performance on different solutions concerning planning, scheduling, routing etc. For this reason, we decided to infer and make publicly available several synthetic MEC topologies and scenarios.Specifically, based on the experience we have gathered with our experiments Xiang et al. [1], we provide data related to 3 randomly generated topologies, with increasing network size (from 25 to 100 nodes). Moreover, we propose a MEC topology generated from OpenCellID [2] real data and concerning the Base Stations’ location of 234 LTE cells owned by a mobile operator (Vodafone) in the center of Milan. We also provide realistic reference parameters (link bandwidth, computation and storage capacity, offered traffic), derived from real services provided by MEC in the deployment of 5G networks.
format article
author Bin Xiang
Jocelyne Elias
Fabio Martignon
Elisabetta Di Nitto
author_facet Bin Xiang
Jocelyne Elias
Fabio Martignon
Elisabetta Di Nitto
author_sort Bin Xiang
title A dataset for mobile edge computing network topologies
title_short A dataset for mobile edge computing network topologies
title_full A dataset for mobile edge computing network topologies
title_fullStr A dataset for mobile edge computing network topologies
title_full_unstemmed A dataset for mobile edge computing network topologies
title_sort dataset for mobile edge computing network topologies
publisher Elsevier
publishDate 2021
url https://doaj.org/article/fa2c2c8c18544377a3a4989c5d509765
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AT elisabettadinitto adatasetformobileedgecomputingnetworktopologies
AT binxiang datasetformobileedgecomputingnetworktopologies
AT jocelyneelias datasetformobileedgecomputingnetworktopologies
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