让我们等一会儿:暂时的工作负载转移如何减少云中的碳排放

Philipp Wiesner, Ilja Behnke, Dominik Scheinert, Kordian Gontarska, L. Thamsen
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引用次数: 36

摘要

根据能源来源和需求的不同,公共电网的碳排放强度会随时间波动。利用这种可变性是减少数据中心造成的排放的一个重要因素。然而,由于低碳能源可得性的区域差异,很难提供何时用电的一般最佳做法。此外,该领域的现有研究主要集中在跨地理分布式数据中心的碳感知工作负载迁移,或者纯粹从电网稳定性和成本的角度解决需求响应。在本文中,我们研究了将计算工作负载转移到预计能源供应碳密集程度较低的时代的潜在影响。为此,我们确定了延迟容忍工作负载的特征,并分析了2020年德国、英国、法国和加利福尼亚的临时工作负载转移的可能性。此外,我们在模拟实验中评估了两种工作量转移情景,以研究时间约束、调度策略和碳强度预测准确性的影响。为了加速碳感知计算领域的研究,并支持对新型调度算法的评估,我们的仿真框架和数据集是公开的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Let's wait awhile: how temporal workload shifting can reduce carbon emissions in the cloud
Depending on energy sources and demand, the carbon intensity of the public power grid fluctuates over time. Exploiting this variability is an important factor in reducing the emissions caused by data centers. However, regional differences in the availability of low-carbon energy sources make it hard to provide general best practices for when to consume electricity. Moreover, existing research in this domain focuses mostly on carbon-aware workload migration across geo-distributed data centers, or addresses demand response purely from the perspective of power grid stability and costs. In this paper, we examine the potential impact of shifting computational workloads towards times where the energy supply is expected to be less carbon-intensive. To this end, we identify characteristics of delay-tolerant workloads and analyze the potential for temporal workload shifting in Germany, Great Britain, France, and California over the year 2020. Furthermore, we experimentally evaluate two workload shifting scenarios in a simulation to investigate the influence of time constraints, scheduling strategies, and the accuracy of carbon intensity forecasts. To accelerate research in the domain of carbon-aware computing and to support the evaluation of novel scheduling algorithms, our simulation framework and datasets are publicly available.
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