一种基于fpga的计算基础架构,可有效地支撑基因组序列

Alberto Zeni, M. Crespi, Lorenzo Di Tucci, M. Santambrogio
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引用次数: 6

摘要

近年来,基因组数据的广泛获取正在以前所未有的方式改善对人类疾病的理解和预防。De-novo基因组组装是进行大规模基因组分析的主要障碍,因为它是基因组分析中最耗时的阶段之一。在本文中,我们提出了一种可扩展,高性能和节能的SSPACE对准步骤体系结构,这是一种用于在从头组装的情况下执行脚手架的最先进工具。与软件版本的Bowtie相比,最终的架构能够实现高达9.83倍的性能加速,Bowtie是SSPACE用于执行对齐的最先进工具。
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An FPGA-Based Computing Infrastructure Tailored to Efficiently Scaffold Genome Sequences
In the current years broad access to genomic data is leading to improve the understanding and prevention of human diseases as never before. De-novo genome assembly, represents a main obstacle to perform the analysis on a large scale, as it is one of the most time-consuming phases of the genome analysis. In this paper, we present a scalable, high performance and energy efficient architecture for the alignment step of SSPACE, a state of the art tool used to perform scaffolding also in case of de-novo assembly. The final architecture is able to achieve up to 9.83x speedup in performance when compared to the software version of Bowtie, a state of the art tool used by SSPACE to perform the alignment.
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