SWIFT:用于pcie耦合加速器和(Co-)处理器的透明和灵活的通信层

Simon Pickartz, Pablo Reble, Carsten Clauss, Stefan Lankes
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引用次数: 2

摘要

PCIe (Peripheral Component Interconnect Express)是主要的互连方式,使CPU能够与附加的输入/输出和存储设备进行通信。考虑到它的高性能和通过所谓的非透明桥接(NTB)技术连接不同地址域的能力,它开始成为传统互连的替代或补充。PCIe技术使设备能够以点对点的方式进行通信,从而为未来的高性能系统提供新的实现可能性。连接在同一计算机机架上的组件通过PCIe连接,机架本身使用传统网络技术连接。这导致了计算节点和高性能互连的异构环境。插座轮式智能织物传输(SWIFT)承担了对这些系统进行编程的挑战。由于硬件抽象层允许以最小的工作量将已实现的概念引入新的互连,因此所提供的实现具有高度可移植性。它在一个测试系统上进行了评估,该测试系统暴露了配备有协处理器的不同计算节点,这些节点参与了PCIe非透明桥接架构。除了调查通信层主要性能特征的低级基准测试之外,MPI基准测试结果还展示了如何将科学应用程序移植到异构环境中。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
SWIFT: A Transparent and Flexible Communication Layer for PCIe-Coupled Accelerators and (Co-)Processors
The Peripheral Component Interconnect Express (PCIe) is the predominant interconnect enabling the CPU to communicate with attached input/output and storage devices. Considering its high performance and capabilities to connect different address domains via the so-called Non-Transparent Bridging (NTB) technology, it starts to be an alternative or addition to traditional interconnects. The PCIe technology enables devices to communicate in a peer-to-peer manner allowing for new implementation possibilities of tomorrow's high-performance systems. Components being attached to the same computer rack are connected by means of PCIe and the racks themselves by using traditional network technologies. This leads to a heterogeneous landscape of compute nodes and high-performance interconnects. The Socket Wheeled Intelligent Fabric Transport (SWIFT) takes up the challenge of programming these systems. The presented implementation is highly portable due to a hardware abstraction layer allowing for bringing the implemented concepts to new interconnects with minimal effort. It is evaluated on a test system exposing different compute nodes equipped with coprocessors, which take part in a PCIe non-transparent bridging architecture. Besides low-level benchmarks investigating principal performance characteristics of the communication layer, MPI benchmark results are presented illustrating how scientific applications may be ported to heterogeneous environments.
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