Enabling Delay-Sensitive IoT Application by Programmable Local 5G Edge

Koichiro Amemiya, A. Nakao
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Abstract

IoT services collect sensor and multimedia data from edge devices for capturing the status of the physical world. Delay-sensitive traffic, especially for monitoring and controlling the edge devices, should be transferred and processed in a priority manner even if congestion in the network occurs because of the system resource sharing with data-intensive and delay-tolerant traffic. A local 5G system is promising for achieving delay-sensitive IoT services because it enables the local 5G operator to control the programmable local 5G system and service level by themselves. But it isn’t easy to install novel congestion control protocols to the non-programmable system components other than the local 5G system, such as proprietary IoT devices and wide-area networks operated by network carriers. Our contribution is three-fold: First, we propose a traffic control method for delay-sensitive IoT services installed only in 5G UPF or edge routers in DN without modifying IoT devices or controlling the wide-area network. It controls the latency of delay-sensitive traffic by classifying the delay-sensitive and delay-tolerant traffic, adding delays to, and modifying the receive window size in the packets of the delay-tolerant traffic. Second, we propose an implementation architecture for the programmable Whitebox switches utilizing BPF/XDP functionality. Finally, we evaluate our proposed method. The evaluation result shows that our proposed method keeps the latency of delay-sensitive traffic within the required latency for single and multiple Local 5G locations that share the obscure wide-area network.
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通过可编程本地5G边缘实现延迟敏感物联网应用
物联网服务从边缘设备收集传感器和多媒体数据,以捕获物理世界的状态。即使由于系统资源与数据密集型、容忍延迟的流量共享而导致网络拥塞,也应优先传输和处理对延迟敏感的流量,特别是对边缘设备的监控和控制。本地5G系统有望实现延迟敏感物联网服务,因为它使本地5G运营商能够自行控制可编程本地5G系统和服务水平。但在本地5G系统以外的非可编程系统组件(如专有物联网设备和网络运营商运营的广域网)上安装新型拥塞控制协议并不容易。我们的贡献有三个方面:首先,我们提出了一种仅安装在5G UPF或DN中的边缘路由器中的延迟敏感物联网服务的流量控制方法,而无需修改物联网设备或控制广域网。它通过对延迟敏感流量和延迟容忍流量进行分类,增加延迟,修改延迟容忍流量报文的接收窗口大小来控制延迟敏感流量的时延。其次,我们提出了一个利用BPF/XDP功能的可编程白盒交换机的实现架构。最后,我们对所提出的方法进行了评估。评估结果表明,对于共享模糊广域网的单个和多个Local 5G位置,我们提出的方法将延迟敏感流量的延迟保持在所需的延迟范围内。
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