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引用次数: 1
摘要
增强现实/虚拟现实(AR/VR)、工业物联网(IIoT)等应用在安全性、丢包和可靠性(即抖动)方面的要求变得更加苛刻,从而激发了对私有5G部署的需求。一般来说,5G NR基站(gNB)可以采用集成模式(PHY、MAC和PDCP层在一个节点上)或拆分架构模式(也称为O-RAN(较低的PHY Radio Unit (RU),而从较高的MAC到分组数据融合协议(PDCP)的其余层在基带单元(BBU))部署。本文展示了在共享频谱(即3.55至3.7 GHz的公民宽带无线电服务(CBRS)频率)上采用O-RAN架构的第一个私有5G NR独立部署。由于许多私有5G部署(例如,带有IP摄像机等物联网设备的仓库)由于流量的性质而需要重上行链路,因此我们配置了重ul的5G NR网络,并研究了系统在静态和移动环境下加载和卸载场景下的可靠性。
Towards Private 5G O-RAN Implementation: Performance and Business Validation
The requirements in terms of security, packet drop, and reliability (i.e., jitter) for the applications such as Augmented Reality/Virtual Reality (AR/VR), Industrial IoT (IIoT) have become more demanding and subsequently, motivate the need for private 5G deployment. In general, 5G NR base stations (gNB) can be either deployed in integrated mode (PHY, MAC, and PDCP layers in one node) or split architecture mode, also known as O-RAN (lower PHY Radio Unit (RU), and the remaining layers from higher MAC to Packet Data Convergence Protocol (PDCP) at Base Band Unit (BBU)). This paper showcases the first private 5G NR Standalone deployment with O-RAN architecture on the shared spectrum i.e., Citizens Broadband Radio Service (CBRS) frequency from 3.55 to 3.7 GHz. Since many private 5G deployments (e.g., warehouses with IoT devices such as IP cameras) are uplink heavy due to the nature of the traffic, we configure the UL-heavy 5G NR network and study the reliability of the system in the loaded and unloaded scenarios for both static and mobile environments.