基于分层部分重构的快速灵活FPGA开发

Dongjoon Park, Yuanlong Xiao, A. DeHon
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引用次数: 2

摘要

为了解决FPGA编译缓慢的问题,研究人员建议对较小的设计组件并行运行单独的编译。这种方法在FPGA上提供小页面,允许用户在页面上单独生成部分设计并将它们一起加载。然而,这种方法要么迫使用户手动将设计分解为适合小的、固定大小的页面的小组件,要么迫使用户使用大的、固定大小的页面,从而降低了潜在的编译加速好处。这种限制通常会导致设计的次优分解或降低生产力。为了克服这些限制,我们利用Xilinx最近支持的分层部分重构技术来生成更灵活的框架。根据用户设计的大小,我们的框架提供了由多个较小页面分层重组而成的较大页面。这种灵活性减轻了用户分解原有设计的负担,为设计空间的探索提供了更多的机会。当在ZCU102嵌入式平台上使用Rosetta HLS基准测试时,与固定大小页面的系统相比,我们的系统实现了1.4-4.9倍的映射应用程序性能改进,同时仍然在2-5分钟内编译(比供应商工具快2.2-5.3倍)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Fast and Flexible FPGA Development using Hierarchical Partial Reconfiguration
To address slow FPGA compilation, researchers have proposed to run separate compilations for smaller design components in parallel. This approach provides small pages on the FPGA, allowing users to separately generate partial designs on the pages and load them together. However, this method either forces users to manually decompose a design into small components that fit in small, fixed-sized pages or to use large, fixed-sized pages, reducing the potential compilation speedup benefits. This restriction often results in suboptimal decomposition of a design or diminishes productivity. To overcome these limitations, we utilize the recently supported Hierarchical Partial Reconfiguration technology from Xilinx to generate a more flexible framework. Depending on the size of user designs, our framework provides larger pages that are hierarchically recombined from multiple smaller pages. This flexibility relieves users of the burden to decompose the original design and offers more opportunities for design-space exploration. When tested on the ZCU102 embedded platform with the Rosetta HLS benchmarks, our system achieves $1.4-4.9\times$ mapped application performance improvement compared to the system with fixed-sized pages while still compiling in 2–5 minutes $(2.2-5.3\times$ faster than the vendor tool).
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