NanoStreams:一种用于快速数据流实时分析的微型服务器体系结构

U. I. Minhas;M. Russell;S. Kaloutsakis;P. Barber;R. Woods;G. Georgakoudis;C. Gillan;D. S. Nikolopoulos;A. Bilas
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引用次数: 6

摘要

不断增加的功耗引起了人们对节能微服务器架构的极大兴趣,但它们缺乏处理实时数据分析所需的计算、网络和存储能力。我们提出了NanoStreams,这是一种集成架构,包括一个基于ARM的微服务器,通过一个新颖的低延迟网络接口Nanowire耦合到一个基于现场可编程门阵列(FPGA)技术实现的芯片分析架构;该架构包括用于执行低延迟事务处理的ARM内核,与用于高通量流分析的可编程、节能的Nanocore处理器集成。本文概述了完整的系统架构、硬件级细节、编译器、网络协议和编程环境。我们展示了金融服务行业的实验,比较了基于Intel Sandy Bridge处理器的最先进服务器、基于ARM的Calxeda ECS-1000微服务器和ODROID XU3节点,以及使用工业工作负载的NanoStreams微服务器架构。对于端到端工作负载,与Intel服务器、Calxeda微服务器和ODROID节点相比,NanoStreams微服务器分别实现了10.7倍、5.87倍和5倍的节能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
NanoStreams: A Microserver Architecture for Real-Time Analytics on Fast Data Streams
Ever increasing power consumption has created great interest in energy-efficient microserver architectures but they lack the computational, networking, and storage power necessary to cope with real-time data analytics. We propose NanoStreams, an integrated architecture comprising an ARM-based microserver, coupled via a novel, low latency network interface, Nanowire, to an Analytics-on-Chip architecture implemented on Field Programmable Gate Array (FPGA) technology; the architecture comprises ARM cores for performing low latency transactional processing, integrated with programmable, energy efficient Nanocore processors for high-throughput streaming analytics. The paper outlines the complete system architecture, hardware level detail, compiler, network protocol, and programming environment. We present experiments from the financial services sector, comparing a state-of-the-art server based on Intel Sandy Bridge processors, an ARM based Calxeda ECS-1000 microserver and ODROID XU3 node, with the NanoStreams microserver architecture using an industrial workload. For end-to-end workload, the NanoStreams microserver achieves energy savings up to 10.7×, 5.87× and 5× compared to the Intel server, Calxeda microserver and ODROID node, respectively.
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