SODA方法:利用硬件/软件协同设计和硬件专门化的高级综合:邀请

Nicolas Bohm Agostini, S. Curzel, Ankur Limaye, Vinay C. Amatya, Marco Minutoli, Vito Giovanni Castellana, J. Manzano, Antonino Tumeo, Fabrizio Ferrandi
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引用次数: 0

摘要

新颖的“融合”应用将科学模拟与数据分析和机器学习相结合。每个计算阶段都可以从专门的加速器中获益。然而,算法发展得如此之快,以至于将它们映射到现有的加速器上是次优的,甚至是不可能的。本文介绍了SODA(软件定义的加速器)框架,它是一个模块化的、多层次的、开源的、无人在环的硬件合成器,能够端到端生成专门的加速器。SODA由SODA- opt和Bambu组成,前者是在MLIR中开发的高级前端,可与特定领域的编程框架接口,并允许执行系统级设计,后者是最先进的高级合成引擎,可针对不同的设备技术。该框架在编译器优化通过时实现设计空间探索。我们将展示高级优化器和低级HLS工具的模块化紧密集成如何支持生成针对聚合应用程序的计算模式进行优化的加速器。然后我们讨论了这样一个框架允许的一些研究机会,包括系统级设计、配置文件驱动的优化,以及支持新的优化度量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The SODA approach: leveraging high-level synthesis for hardware/software co-design and hardware specialization: invited
Novel "converged" applications combine phases of scientific simulation with data analysis and machine learning. Each computational phase can benefit from specialized accelerators. However, algorithms evolve so quickly that mapping them on existing accelerators is suboptimal or even impossible. This paper presents the SODA (Software Defined Accelerators) framework, a modular, multi-level, open-source, no-human-in-the-loop, hardware synthesizer that enables end-to-end generation of specialized accelerators. SODA is composed of SODA-Opt, a high-level frontend developed in MLIR that interfaces with domain-specific programming frameworks and allows performing system level design, and Bambu, a state-of-the-art high-level synthesis engine that can target different device technologies. The framework implements design space exploration as compiler optimization passes. We show how the modular, yet tight, integration of the high-level optimizer and lower-level HLS tools enables the generation of accelerators optimized for the computational patterns of converged applications. We then discuss some of the research opportunities that such a framework allows, including system-level design, profile driven optimization, and supporting new optimization metrics.
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