NASCENT2:用于SmartSSD数据分析的通用近存储排序加速器

Sahand Salamat, Hui Zhang, Y. Ki, Tajana Rosing
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引用次数: 6

摘要

随着每天产生的数据量急剧增长,计算机系统的计算瓶颈已经转向存储设备。存储设备与计算平台之间的接口带宽有限,当存储设备数量增加时,接口带宽无法扩展,成为制约存储设备与计算平台之间的主要因素。互连网络不能同时访问所有存储设备,对不同的存储设备执行独立的操作时,会影响系统的性能。将计算卸载到存储设备可以消除互连数据传输的负担。近存储计算将部分计算转移到存储设备上,以加速大数据应用。在本文中,我们提出了一种用于数据分析的通用近存储排序加速器NASCENT2,它利用三星SmartSSD,一种带有板载FPGA芯片的NVMe闪存驱动器,可以就地处理数据。NASCENT2由基于fpga的字典解码器、排序和洗牌加速器组成,以支持基于任意数据类型的键列对数据库表进行排序。它利用数据处理管理系统(如SparkSQL)应用的数据分区,将大型表上的排序操作分解为较小表上的多个排序操作。与CPU基准相比,NASCENT2通用排序提供了2倍的加速和15.2倍的能效改进。此外,它还考虑了SmartSSD的规格(例如,FPGA资源,互连网络和固态驱动器带宽),以增加计算机系统随着存储设备数量的增加的可扩展性。与FPGA (CPU)基准相比,NASCENT2在排序TPCC和TPCH基准的最大表时速度快9.9倍(137.2倍),能效高7.3倍(119.2倍)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
NASCENT2: Generic Near-Storage Sort Accelerator for Data Analytics on SmartSSD
As the size of data generated every day grows dramatically, the computational bottleneck of computer systems has shifted toward storage devices. The interface between the storage and the computational platforms has become the main limitation due to its limited bandwidth, which does not scale when the number of storage devices increases. Interconnect networks do not provide simultaneous access to all storage devices and thus limit the performance of the system when executing independent operations on different storage devices. Offloading the computations to the storage devices eliminates the burden of data transfer from the interconnects. Near-storage computing offloads a portion of computations to the storage devices to accelerate big data applications. In this article, we propose a generic near-storage sort accelerator for data analytics, NASCENT2, which utilizes Samsung SmartSSD, an NVMe flash drive with an on-board FPGA chip that processes data in situ. NASCENT2 consists of dictionary decoder, sort, and shuffle FPGA-based accelerators to support sorting database tables based on a key column with any arbitrary data type. It exploits data partitioning applied by data processing management systems, such as SparkSQL, to breakdown the sort operations on colossal tables to multiple sort operations on smaller tables. NASCENT2 generic sort provides 2 × speedup and 15.2 × energy efficiency improvement as compared to the CPU baseline. It moreover considers the specifications of the SmartSSD (e.g., the FPGA resources, interconnect network, and solid-state drive bandwidth) to increase the scalability of computer systems as the number of storage devices increases. With 12 SmartSSDs, NASCENT2 is 9.9× (137.2 ×) faster and 7.3 × (119.2 ×) more energy efficient in sorting the largest tables of TPCC and TPCH benchmarks than the FPGA (CPU) baseline.
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