Designing and Programming the Configurable Cloud

Andrew Putnam
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引用次数: 1

Abstract

Process technology improvements have historically allowed an effortless expansion of the capacity and capabilities of computers and the cloud with few changes to the underlying software or programming model. However, the end of Dennard Scaling means that performance and efficiency gains will rely on the customization of the hardware for each application. Yet customizing hardware for each application runs contrary to the trend to moving more and more applications to a common hardware infrastructure the Cloud. Microsofts Catapult project has brought the power and performance of FPGA-based reconfigurable computing to hyperscale datacenters, accelerating major production cloud applications such as Bing web search and Microsoft Azure, and enabling a new generation of machine learning and artificial intelligence applications. These diverse workloads are accelerated using the same underlying hardware by using highly programmable silicon. The presence of ubiquitous and programmable silicon in the datacenter enables a new era of hardware/software co-design across a wide variety of workloads, opening up affordable and efficient performance across an enormous set of workloads. Catapult is now deployed in nearly every new server across the more than a million machines that make up the Microsoft hyperscale cloud. In this talk, I will describe the next generation of the Catapult configurable cloud architecture, and the tools and techniques that have made Catapult successful to date. I will discuss areas where traditional hardware and software development flows fall short, the domains where this programmable hardware holds the most potential, and how this technology can enable new computing frontiers.
可配置云的设计与编程
从历史上看,过程技术的改进使计算机和云的容量和功能得以轻松扩展,而对底层软件或编程模型的更改很少。然而,Dennard Scaling的终结意味着性能和效率的提升将依赖于每个应用程序的硬件定制。然而,为每个应用程序定制硬件与将越来越多的应用程序迁移到公共硬件基础设施(云)的趋势背道而驰。微软Catapult项目为超大规模数据中心带来了基于fpga的可重构计算的功能和性能,加速了必应网络搜索和微软Azure等主要生产云应用程序,并实现了新一代机器学习和人工智能应用程序。通过使用高度可编程的芯片,这些不同的工作负载使用相同的底层硬件进行加速。数据中心中无处不在的可编程芯片的存在,开启了一个跨各种工作负载的硬件/软件协同设计的新时代,在大量工作负载中提供经济实惠且高效的性能。如今,在组成微软超大规模云的100多万台机器上,几乎每台新服务器上都部署了Catapult。在这次演讲中,我将介绍下一代Catapult可配置云架构,以及迄今为止使Catapult取得成功的工具和技术。我将讨论传统硬件和软件开发流程不足的领域,可编程硬件最有潜力的领域,以及这项技术如何能够实现新的计算前沿。
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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