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A Study of Pointer-Chasing Performance on Shared-Memory Processor-FPGA Systems

Published:21 February 2016Publication History

ABSTRACT

The advent of FPGA acceleration platforms with direct coherent access to processor memory creates an opportunity for accelerating applications with irregular parallelism governed by large in-memory pointer-based data structures. This paper uses the simple reference behavior of a linked-list traversal as a proxy to study the performance potentials of accelerating these applications on shared-memory processor-FPGA systems. The linked-list traversal is parameterized by node layout in memory, per-node data payload size, payload dependence, and traversal concurrency to capture the main performance effects of different pointer-based data structures and algorithms. The paper explores the trade-offs over a wide range of implementation options available on shared-memory processor-FPGA architectures, including using tightly-coupled processor assistance. We make observations of the key effects on currently available systems including the Xilinx Zynq, the Intel QuickAssist QPI FPGA Platform, and the Convey HC-2. The key results show: (1) the FPGA fabric is least efficient when traversing a single list with non-sequential node layout and a small payload size; (2) processor assistance can help alleviate this shortcoming; and (3) when appropriate, a fabric only approach that interleaves multiple linked list traversals is an effective way to maximize traversal performance.

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      • Published in

        cover image ACM Conferences
        FPGA '16: Proceedings of the 2016 ACM/SIGDA International Symposium on Field-Programmable Gate Arrays
        February 2016
        298 pages
        ISBN:9781450338561
        DOI:10.1145/2847263

        Copyright © 2016 ACM

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        Publication History

        • Published: 21 February 2016

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        FPGA '16 Paper Acceptance Rate20of111submissions,18%Overall Acceptance Rate125of627submissions,20%

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