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Let's Share the Resource When We're Co-Located: Colocation Edge Computing

Multi-access Edge Computing (MEC) is recently acknowledged as one of the key pillars for the next revolution of mobile communications area, where the convergence of IT and telecommunications network provides the low latency and computation capability for cellular base stations (BSs). As a result, th...

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Published in:IEEE transactions on vehicular technology 2020-05, Vol.69 (5), p.5618-5633
Main Authors: Nguyen, Minh N. H., Zaw, Chit Wutyee, Kim, Kitae, Tran, Nguyen H., Hong, Choong Seon
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cited_by cdi_FETCH-LOGICAL-c291t-7a127ba2b28e680bec66931e6ba699b057ef17585cd304102b3048a31fa746d73
cites cdi_FETCH-LOGICAL-c291t-7a127ba2b28e680bec66931e6ba699b057ef17585cd304102b3048a31fa746d73
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container_issue 5
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container_title IEEE transactions on vehicular technology
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creator Nguyen, Minh N. H.
Zaw, Chit Wutyee
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Hong, Choong Seon
description Multi-access Edge Computing (MEC) is recently acknowledged as one of the key pillars for the next revolution of mobile communications area, where the convergence of IT and telecommunications network provides the low latency and computation capability for cellular base stations (BSs). As a result, this is a great opportunity for mobile network operators by deploying new services and applications at BSs. Nevertheless, huge capital and operational cost can challenge mobile operators for the deployment of new BSs and MEC micro-datacenters. Colocation Edge Computing (ColoMEC) is a new concept where multiple operators share not only the same BS tower but also their radio and computation resources colocated at the edge sites. In order to reduce the operational cost of a ColoMEC system, the limited bandwidth at over-utilized colocation BSs can be extended by sharing the bandwidth among BSs, while shared MEC micro-datacenters can be scaled based on the arrival traffic loads. Thus, sharing the BS infrastructure, bandwidth, and MEC micro-datacenters among the co-located mobile operators can be an economical solution to provide high-performance services with low expenses by exploiting the temporal and spatial difference in traffic loads. Turning this vision into reality, we study a joint bandwidth allocation sharing and MEC micro-datacenter scaling in ColoMEC management problem (\mathbf {ColoMEC-MP}). To solve \mathbf {ColoMEC-MP} problem, we propose an algorithm based on proximal block coordinate descent technique by iteratively solving the decoupled convex subproblems (i.e., user association, bandwidth allocation, and MEC micro-datacenter scaling) with additional proximal terms. To improve the convergence of the proposed algorithm, we propose a greedy initialization for the user association which is based on the link capacity at each user. Our simulation demonstrates the superiority of the algorithm in terms of the operational cost compared with fixed service rate of shared MEC micro-datacenters strategies.
doi_str_mv 10.1109/TVT.2020.2982679
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source IEEE Electronic Library (IEL) Journals
subjects Algorithms
Bandwidth
bandwidth allocation
Bandwidths
Channel allocation
Colocation edge computing
Computational modeling
Computer simulation
Convergence
Data centers
Delays
Edge computing
Energy consumption
Greedy algorithms
Mobile communication systems
Mobile computing
Network latency
Operating costs
Operators
Radio equipment
server scaling management
Servers
user association
Wireless networks
title Let's Share the Resource When We're Co-Located: Colocation Edge Computing
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