Maman Mickael, Calvanese-Strinati Emilio, Dinh Lam Ngoc, Haustein Thomas, Keusgen Wilhelm, Wittig Sven, Schmieder Mathis, Barbarossa Sergio, Merluzzi Mattia, Costanzo Francesca, Sardellitti Stefania, Klessig Henrik, Kendre Savita Vitthalrao, Munaretto Daniele, Centenaro Marco, di Pietro Nicola, Liang Shuo-Peng, Chih Kuan-Yi, Luo Jack Shi-Jie, Kao Ling-Chih, Huang Jiun-Cheng, Huang Jen-Sheng, Wang Tzu-Ya
Univ. Grenoble Alpes, CEA, Leti, Grenoble, France.
Fraunhofer Heinrich Hertz Institute, Berlin, Germany.
EURASIP J Wirel Commun Netw. 2021;2021(1):195. doi: 10.1186/s13638-021-02067-2. Epub 2021 Dec 4.
Private networks will play a key role in 5G and beyond to enable smart factories with the required better deployment, operation and flexible usage of available resource and infrastructure. 5G private networks will offer a lean and agile solution to effectively deploy and operate services with stringent and heterogeneous constraints in terms of reliability, latency, re-configurability and re-deployment of resources as well as issues related to governance and ownership of 5G components, and elements. In this paper, we present a novel approach to operator models, specifically targeting 5G and beyond private networks. We apply the proposed operator models to different network architecture options and to a selection of relevant use cases offering mixed private-public network operator governance and ownership. Moreover, several key enabling technologies have been identified for 5G private networks. Before the deployment, stakeholders should consider spectrum allocation and on-site channel measurements in order to fully understand the propagation characteristic of a given environment and to set up end-to-end system parameters. During the deployment, a monitoring tools will support to validate the deployment and to make sure that the end-to-end system meet the target KPI. Finally, some optimization can be made individually for service placement, network slicing and orchestration or jointly at radio access, multi-access edge computing or core network level.
专用网络将在5G及以后的发展中发挥关键作用,以实现智能工厂,使其能够更好地部署、运营并灵活使用可用资源和基础设施。5G专用网络将提供一种精简且敏捷的解决方案,以便在可靠性、延迟、资源的可重新配置性和重新部署以及与5G组件和元素的治理及所有权相关的问题等方面,在严格且异构的约束条件下有效地部署和运营服务。在本文中,我们提出了一种针对运营商模型的新颖方法,特别针对5G及以后的专用网络。我们将所提出的运营商模型应用于不同的网络架构选项以及一系列相关用例,这些用例提供了混合的公私网络运营商治理和所有权模式。此外,已经为5G专用网络确定了几种关键使能技术。在部署之前,利益相关者应考虑频谱分配和现场信道测量,以便充分了解给定环境的传播特性并设置端到端系统参数。在部署期间,监测工具将支持验证部署情况,并确保端到端系统满足目标关键绩效指标。最后,可以针对服务放置、网络切片和编排分别进行一些优化,或者在无线接入、多接入边缘计算或核心网络级别联合进行优化。