Dynamic Power Consumption Prediction and Optimization of Data Center by Using Deep Learning and Computational Fluid Dynamics

H. Kuwahara, Ying-Feng Hsu, Kazuhiro Matsuda, Morito Matsuoka
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引用次数: 4

Abstract

Simply by using computational fluid dynamics (CFD) and a power consumption model incorporating each piece of equipment including servers and air conditioners, we built a power consumption simulator to predict the total power consumption of a data center that can have any device configuration, without having to learn the entire data center in advance. The error of the power consumption model built by this deep learning method was at most 8%. An algorithm with a data center optimizer (DCO) that incorporates the power consumption simulator found the optimum operation parameters of the air conditioners and optimum workload allocation that minimizes the total power consumption. In an actual implementation, the total power consumption fell within 1 second by 8% from the initial state with a uniform workload allocation. The DCO constructed in this research exhibited potential as a practical dynamic optimal task allocation management system for data centers of any size and make up and is applicable not only to dynamic migration within the data center but also to migration between data centers located at different sites.
基于深度学习和计算流体动力学的数据中心动态功耗预测与优化
通过简单地使用计算流体动力学(CFD)和包含包括服务器和空调在内的每件设备的功耗模型,我们构建了一个功耗模拟器,以预测可以具有任何设备配置的数据中心的总功耗,而无需事先了解整个数据中心。这种深度学习方法建立的功耗模型误差不超过8%。一个包含功耗模拟器的数据中心优化器(DCO)算法找到了空调的最佳运行参数和最佳工作负载分配,从而使总功耗最小化。在实际实现中,使用统一的工作负载分配时,总功耗在1秒内比初始状态下降了8%。本研究构建的DCO显示出作为一种实用的动态最优任务分配管理系统的潜力,适用于任何规模和组成的数据中心,不仅适用于数据中心内部的动态迁移,也适用于位于不同站点的数据中心之间的迁移。
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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