Impact of the MEC Location in Transport Networks on the Capacity of 5G to Support V2X Services

B. Coll-Perales, M. C. Lucas-Estañ, Chang-Heng Wang, J. Gozálvez, Takayuki Shimizu, S. Avedisov, M. Sepulcre, Takamasa Higuchi, B. Cheng, Akihiko Yamamuro, O. Altintas
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引用次数: 3

Abstract

5G networks have been designed to support advanced and demanding services in critical verticals or industries such as connected and automated driving. Supporting advanced Vehicle to Everything (V2X) services may require installing Multi-access/Mobile Edge Computing (MEC) platforms that reduce the latency and the traffic load on the transport and core networks by deploying services and computing resources closer to the edge of networks. 3GPP and ETSI indicate that the MEC can be installed on the transport network at different locations between the base station and the core network. The specific MEC location has important technical and business implications. This has also strong implications on the dimensioning of the link capacity of the 5G transport network. In this context, this paper studies the link capacity demand that supporting advanced V2X services generate on the 5G transport network depending on the MEC location in the transport network. The paper considers gradual 5G deployments going from 5G Non-Stand-Alone (NSA) networks relying on the 4G Evolved Packet Core (EPC) network to 5G Stand-Alone (SA) deployments with a 5G Core Network. In addition, the paper evaluates the processing capabilities necessary to install V2X Application Servers (AS) at MEC nodes. The results show that it can be challenging for 5G NSA networks to support scaling V2X services, while 5G SA networks will require nonnegligible link capacities and significant MEC processing and computing power as MEC nodes are located closer to the core network and the vehicular traffic increases. These results call for careful dimensioning of the transport network and an optimized MEC location to support V2X services without starving other 5G services.
传输网络中MEC位置对5G支持V2X业务能力的影响
5G网络旨在支持连接和自动驾驶等关键垂直行业的先进和苛刻服务。支持先进的车联网(V2X)服务可能需要安装多接入/移动边缘计算(MEC)平台,通过将服务和计算资源部署到更靠近网络边缘的地方,减少传输和核心网络的延迟和流量负载。3GPP和ETSI表明,MEC可以安装在传输网络上,在基站和核心网之间的不同位置。特定的MEC位置具有重要的技术和业务含义。这也对5G传输网络链路容量的维度产生了重大影响。在此背景下,本文根据MEC在传输网络中的位置,研究支持先进V2X业务在5G传输网络上产生的链路容量需求。该文件考虑了5G的逐步部署,从依赖于4G演进分组核心(EPC)网络的5G非独立(NSA)网络到具有5G核心网络的5G独立(SA)部署。此外,本文还评估了在MEC节点上安装V2X应用服务器(AS)所需的处理能力。结果表明,5G NSA网络支持可扩展的V2X服务可能具有挑战性,而5G SA网络将需要不可忽视的链路容量和显著的MEC处理和计算能力,因为MEC节点位于更靠近核心网络的位置,并且车辆流量增加。这些结果要求对传输网络进行仔细的尺寸规划,并优化MEC位置,以支持V2X服务,同时不影响其他5G服务。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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