Synthesis of application accelerators on Runtime Reconfigurable Hardware

M. Alle, Keshavan Varadarajan, R. Ramesh, Joseph Nimmy, Alexander Fell, Adarsha Rao, S. Nandy, R. Narayan
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引用次数: 12

Abstract

Application accelerators are predominantly ASICs. The cost of ASIC solutions are order of magnitudes higher than programmable processing cores. Despite this, ASIC solutions are preferred when both high performance and low power is the target. ASICs offer no flexibility in terms of it being able to cater to application derivatives, unless this has been provisioned for at the time of design. In this paper we define the architecture of Runtime Reconfigurable Hardware (RRH) as the platform for application acceleration. The proposed RRH is a homogeneous fabric comprising computing, storage and communicating resources. We also propose a synthesis methodology to realize application written a high level language (HLL) on the RRH. Applications described in HLL is compiled into application substructures. For each application substructure a set of Compute Elements interconnected in a manner that closely matches the communication pattern within it, is allocated. CEs in such a configuration is called a hardware affine. Hardware Affines are carved out on the RRH at runtime. These hardware affines are defined at compile time, and are provisioned at runtime on the fabric. By virtue of the fact that these hardware affines are NOT instruction set processor cores or Logic Elements as in FPGAs, we bear the performance and power advantage of an ASIC, and the hardware reconfigurability/programmability of that of an FPGA/Instruction Set Processor.
运行时可重构硬件上应用加速器的综合
应用程序加速器主要是asic。ASIC解决方案的成本比可编程处理核心高几个数量级。尽管如此,当高性能和低功耗是目标时,ASIC解决方案是首选。asic在能够满足应用衍生品方面没有提供灵活性,除非在设计时提供了这一点。本文定义了运行时可重构硬件(RRH)体系结构作为应用程序加速的平台。提议的RRH是一个由计算、存储和通信资源组成的同构结构。我们还提出了一种综合方法来实现在RRH上用高级语言编写的应用程序。在HLL中描述的应用被编译成应用子结构。对于每个应用程序子结构,分配了一组以与其内部通信模式密切匹配的方式相互连接的计算元素。这种配置中的ce称为硬件仿射。运行时在RRH上划分硬件仿射。这些硬件仿射在编译时定义,并在运行时在结构上提供。由于这些硬件仿射不是指令集处理器内核或FPGA中的逻辑元件,因此我们具有ASIC的性能和功耗优势,以及FPGA/指令集处理器的硬件可重构性/可编程性。
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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