Towards Mission-Critical Control at the Edge and Over 5G

P. Skarin, William Tarneberg, Karl-Erik Årzén, M. Kihl
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引用次数: 55

Abstract

With the emergence of industrial IoT and cloud computing, and the advent of 5G and edge clouds, there are ambitious expectations on elasticity, economies of scale, and fast time to market for demanding use cases in the next generation of ICT networks. Responsiveness and reliability of wireless communication links and services in the cloud are set to improve significantly as the concept of edge clouds is becoming more prevalent. To enable industrial uptake we must provide cloud capacity in the networks but also a sufficient level of simplicity and self-sustainability in the software platforms. In this paper, we present a research test-bed built to study mission-critical control over the distributed edge cloud. We evaluate system properties using a conventional control application in the form of a Model Predictive Controller. Our cloud platform provides the means to continuously operate our mission-critical application while seamlessly relocating computations across geographically dispersed compute nodes. Through our use of 5G wireless radio, we allow for mobility and reliably provide compute resources with low latency, at the edge. The primary contribution of this paper is a state-of-the art, fully operational test-bed showing the potential for merged IoT, 5G, and cloud. We also provide an evaluation of the system while operating a mission-critical application and provide an outlook on a novel research direction.
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实现边缘和5G以上的关键任务控制
随着工业物联网和云计算的出现,以及5G和边缘云的出现,人们对下一代ICT网络中要求苛刻的用例的弹性、规模经济和快速上市时间有着雄心勃勃的期望。随着边缘云的概念越来越流行,云中的无线通信链路和服务的响应性和可靠性将得到显著提高。为了实现工业应用,我们必须在网络中提供云容量,同时在软件平台中提供足够的简单性和自我可持续性。在本文中,我们提出了一个用于研究分布式边缘云上关键任务控制的研究试验台。我们使用模型预测控制器形式的传统控制应用来评估系统特性。我们的云平台提供了在跨地理位置分散的计算节点无缝迁移计算的同时,持续运行关键任务应用程序的手段。通过使用5G无线无线电,我们可以实现移动性,并在边缘可靠地提供低延迟的计算资源。本文的主要贡献是一个最先进的、完全可操作的测试平台,展示了合并物联网、5G和云的潜力。我们还在关键任务应用中对系统进行了评估,并对新的研究方向进行了展望。
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