LEAF:模拟大型能量感知雾计算环境

Philipp Wiesner, L. Thamsen
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引用次数: 13

摘要

尽管效率不断提高,但今天的数据中心和网络消耗了大量的能源,预计这种需求还会进一步上升。一个重要的研究问题是雾计算是否以及如何遏制这一趋势。由于雾基础设施的实际部署仍然很少,因此研究的很大一部分依赖于模拟。然而,现有的电源模型通常只针对特定组件,如计算节点或电池受限的边缘设备。结合分析和离散事件建模,我们开发了一个整体但粒度的能耗模型,可以确定计算节点的功耗以及网络流量和应用程序随时间的变化。模拟可以包含数千个设备,这些设备在分布式、异构和资源受限的基础设施上执行复杂的应用程序图。我们在智能城市交通场景中评估了我们公开可用的原型LEAF,证明它可以用于节能雾计算架构的研究,并可用于评估动态任务分配策略和其他节能机制。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
LEAF: Simulating Large Energy-Aware Fog Computing Environments
Despite constant improvements in efficiency, today’s data centers and networks consume enormous amounts of energy and this demand is expected to rise even further. An important research question is whether and how fog computing can curb this trend. As real-life deployments of fog infrastructure are still rare, a significant part of research relies on simulations. However, existing power models usually only target particular components such as compute nodes or battery-constrained edge devices.Combining analytical and discrete-event modeling, we develop a holistic but granular energy consumption model that can determine the power usage of compute nodes as well as network traffic and applications over time. Simulations can incorporate thousands of devices that execute complex application graphs on a distributed, heterogeneous, and resource-constrained infrastructure. We evaluated our publicly available prototype LEAF within a smart city traffic scenario, demonstrating that it enables research on energy-conserving fog computing architectures and can be used to assess dynamic task placement strategies and other energy-saving mechanisms.
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