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Multi-Access Edge Computing Resource Slice Allocation: A Review
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DOI：10.1109/ACCESS.2024.3515077.png)
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Abstract
En 中文
The global deployment of fifth generation mobile cellular (5G) and beyond (5GB) communication systems has accelerated the growth of the Internet of Things (IoT) and the Internet of Everything (IoE). New applications and services that add complexity to the network, and require low latency, have necessitated new architectures that facilitate dynamic resource allocation. The network edge is changing, as Multi-Access Edge Computing (MEC) is deployed with new responsive designs that include dynamic resource slice allocation that supports the varying needs of new and innovative applications and services. Augmented reality, extended reality and virtual reality applications are key drivers for the changing network architecture. IoT and IoE data aggregation and analysis at the network edge has required new approaches to designing edge network architectures that achieve seamless access anywhere and anytime, ultra-low latency, edge computing and storage, and ultra-high bandwidth. MEC and Network Slicing (NS) are evolving to provide a key part of the solution to the new challenges. MEC allows operators to connect user devices to edge cloud computing and storage systems with low latency and high bandwidth. However, a practical configuration is required to facilitate cloud-based applications and services at the network edge and to address end-user demands. The MEC resources may be flexibly and dynamincally partitioned into separate slices. This paper will review how the integration of MEC and NS can be utilised for efficient resource allocation in edge networks. This article comprehensively reviewed the architecture of network slicing and edge computing. A review of MEC and NS in support of 5G and 5GB has been included and current challenges identified. This article aims to serve as an insightful guide to inspire further research into 5GB communication systems and edge computing.
Keywords:
Resource management
5G mobile communication
Network slicing
Ultra reliable low latency communication
Radio access networks
Network function virtualization
Internet of Things
Cloud computing
Surveys
Reviews
multi-access edge computing
5G
6G
resource allocation
radio access network
Journal
IF:
3.6
Papers:
9.8W
Citations:
29.4W
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