Orchestrating distributed 5G edges for automotive cross-border trials: Validation of an experimental prototype

Nina Slamnik-Kriještorac, M. Femminella, Girma M. Yilma, Marco Liebsch, G. Reali, Johann M. Marquez-Barja, Nina Slamnik-Kriještorac
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Abstract

The automotive industry requires ultra-reliable low-latency connectivity for its vehicles, and as such, it is one of the promising customers of 5G ecosystems and their orchestrated network infrastructure. In particular, Multi-Access Edge Computing (MEC) provides moving vehicles with localized low-latency access to service instances. However, given the mobility of vehicles, and various resource demand patterns at the distributed MEC nodes, challenges such as fast reconfiguration of the distributed deployment according to mobility pattern and associated service and resource demand need to be mitigated. In this paper, we present the orchestrated edges platform, which is a solution for orchestrating distributed edges in complex cross-border network environments, tailored to Connected, Cooperative, and Automated Mobility (CCAM) use cases within a 5G ecosystem. The proposed solution enables collaboration between orchestrators that belong to different tiers, and various federated edge domains, with the goal to enable service continuity for vehicles traversing cross-border corridors. The paper presents the prototype that we built for the H2020 5G-CARMEN trials, including the validation of the orchestration design choices, followed by the promising results that span both orchestration (orchestration latency) and application performance-related metrics (client-to-edge and edge-to-edge service data plane latencies).
为汽车跨界试验协调分布式5G边缘:实验原型的验证
汽车行业需要超可靠的低延迟连接,因此,它是5G生态系统及其精心编排的网络基础设施的有前途的客户之一。特别是,多访问边缘计算(MEC)为移动车辆提供对服务实例的本地化低延迟访问。然而,考虑到车辆的移动性和分布式MEC节点上的各种资源需求模式,需要缓解根据移动性模式和相关服务和资源需求快速重新配置分布式部署等挑战。在本文中,我们提出了编排边缘平台,这是一种在复杂的跨境网络环境中编排分布式边缘的解决方案,专为5G生态系统中的连接、协作和自动移动(CCAM)用例量身定制。提出的解决方案支持属于不同层和各种联邦边缘域的协调器之间的协作,目标是为穿越跨境走廊的车辆实现服务连续性。本文介绍了我们为H2020 5G-CARMEN试验构建的原型,包括对编排设计选择的验证,随后是跨编排(编排延迟)和应用程序性能相关指标(客户端到边缘和边缘到边缘服务数据平面延迟)的有希望的结果。
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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