在Xilinx SDSoC中实现动态和局部重新配置

Tobias Kalb, D. Göhringer
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引用次数: 11

摘要

在过去的几年里,动态部分重构(DPR)已经成为一种众所周知的技术,用于具有现场可编程门阵列(FPGA)的系统。采用ARM处理器的片上系统(SoC)简化了DPR的使用,并促使其实现,以利用其明显的优势,如减少面积,功耗和加速FPGA的重新配置。尽管如此,soc的开发过程仍然是一个复杂而耗时的任务,特别是对于那些使用DPR的设计。Xilinx通过引入新的高级工具(即SDx开发环境)来解决这种复杂性。SDSoC开发环境通过仅使用C/ c++应用程序作为输入,加速了在Zynq 7000设备上运行的设计的开发。不幸的是,这个高级工作流不包含DPR。本文介绍了如何在赛灵思SDSoC中使用DPR的方法。因此,特定于应用程序的设计可以从高级工作流和DPR的优势中获益。我们证明了我们在SDSoC中的DPR方法可以加快整体设计时间,并创建更高效的嵌入式应用程序。在我们的用例中,硬件加速器的动态和部分重新配置需要10毫秒,嵌入式应用程序中与硬件相关的部分由于DPR而加速了14倍。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Enabling dynamic and partial reconfiguration in Xilinx SDSoC
In the past years dynamic partial reconfiguration (DPR) has been established as a well-known technique for systems featuring a field programmable gate array (FPGA). Systems-on-Chip (SoC) with an ARM processor ease the utilization of DPR and motivate its implementation to make use of the obvious advantages, such as the reduction of area, power and the acceleration of reconfiguring the FPGA. Nonetheless, the development process for SoCs is still a complex and time consuming task, especially for those designs using DPR. Xilinx counters this complexity with the introduction of their new high-level tools, namely the SDx Development Environment. The SDSoC Development Environment accelerates the development of designs running on Zynq 7000 devices by only using C/C++ applications as input. Unfortunately, this high-level workflow does not incorporate DPR. This paper shows an approach on how to use DPR in Xilinx SDSoC. Thus an application specific design can benefit from both the high-level workflow and the advantages of DPR. We show that our approach to DPR in SDSoC accelerates the overall design time and creates a more efficient embedded application. In our use case the dynamic and partial reconfiguration of hardware accelerators takes 10 ms and the hardware-related section of our embedded application is accelerated by a factor of 14 due to DPR.
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