Towards greener data centers with storage class memory: minimizing idle power waste through coarse-grain management in fine-grain scale

In-Hwan Doh, Young Jin Kim, Eunsam Kim, Jongmoo Choi, Donghee Lee, S. Noh
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引用次数: 14

Abstract

Studies have shown much of today's data centers are over-provisioned and underutilized. Over-provisioning cannot be avoided as these centers must anticipate peak load with bursty behavior. Under-utilization, to date, has also been unavoidable as systems always had to be ready for that sudden burst of requests that loom just around the corner. Previous research has pointed to turning off systems as one solution, albeit, an infeasible one due to its irresponsiveness. In this paper, we present the feasibility of using new Storage Class Memory (SCM, which encompasses specific developments such as PCM, MRAM, or FeRAM) technology to turn systems on and off with minimum overhead. This feature is used to control systems on the whole (in comparison to previous fine-grained component-wise control) in finer time scale for high responsiveness with minimized power lost to idleness. Our empirical study is done by executing "real trace"-like workloads on a prototype "data center" of embedded systems deploying FeRAM. We quantify the energy savings and performance trade-off by turning idle systems off. We show that our energy savings approach consumes energy in proportion to user requests with configurable service of quality. Based on observations made on this data center, we discuss the requirements for real deployment. Finally, our conclusion is that SCM should not be viewed as just a replacement of RAM, but rather, as a component that could potentially open a whole new field of applications.
使用存储级内存实现更环保的数据中心:通过细粒度规模的粗粒度管理,最大限度地减少闲置电力浪费
研究表明,当今的许多数据中心都存在供应过剩和利用不足的问题。由于这些中心必须预测具有突发行为的峰值负载,因此无法避免过度供应。到目前为止,利用率不足也是不可避免的,因为系统总是必须为即将到来的突然爆发的请求做好准备。先前的研究指出,关闭系统是一种解决方案,尽管由于其无反应性而不可行。在本文中,我们提出了使用新的存储类存储器(SCM,它包括PCM, MRAM或FeRAM等特定开发)技术以最小开销打开和关闭系统的可行性。该特性用于在更细的时间尺度上控制整个系统(与之前的细粒度组件控制相比),以实现高响应性,同时将闲置损失的功率降至最低。我们的实证研究是通过在部署FeRAM的嵌入式系统的原型“数据中心”上执行类似“真实跟踪”的工作负载来完成的。我们通过关闭闲置系统来量化节能和性能权衡。我们表明,我们的节能方法消耗的能源与用户的要求成比例,具有可配置的服务质量。根据对该数据中心的观察,我们将讨论实际部署的需求。最后,我们的结论是,SCM不应该仅仅被视为RAM的替代品,而是作为一个可能打开一个全新应用领域的组件。
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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