Improved GPU Implementations of the Pair-HMM Forward Algorithm for DNA Sequence Alignment

Enliang Li, Subho Sankar Banerjee, Sitao Huang, R. Iyer, Deming Chen
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引用次数: 3

Abstract

With the rise of Next-Generation Sequencing (NGS) technology, clinical sequencing services become more accessible but are also facing new challenges. The surging demand motivates developments of more efficient algorithms for computational genomics and their hardware acceleration. In this work, we use GPU to accelerate the DNA variant calling and its related alignment problem. The Pair-Hidden Markov Model (Pair-HMM) is one of the most popular and compute-intensive models used in variant calling. As a critical part of the Pair-HMM, the forward algorithm is not only a computational but data-intensive algorithm. Multiple previous works have been done in efforts to accelerate the computation of the forward algorithm by the massive parallelization of the workload. In this paper, we bring advanced GPU implementations with various optimizations, such as efficient host-device communication, task parallelization, pipelining, and memory management, to tackle this challenging task. Our design has shown a speedup of 783X comparing to the Java baseline on Intel single-core CPU, 31.88X to the C++ baseline on IBM Power8 multicore CPU, and 1.53X - 2.21X to the previous state-of-the-art GPU implementations over various genomics datasets.
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DNA序列比对Pair-HMM前向算法的改进GPU实现
随着新一代测序(NGS)技术的兴起,临床测序服务变得更容易获得,但也面临着新的挑战。激增的需求推动了更有效的计算基因组学算法及其硬件加速的发展。在这项工作中,我们使用GPU来加速DNA变体调用及其相关的比对问题。对隐马尔可夫模型(Pair-Hidden Markov Model, Pair-HMM)是变量调用中最常用的计算密集型模型之一。前向算法作为Pair-HMM的关键部分,是一种计算量大、数据量大的算法。为了加快前向算法的计算速度,人们已经做了大量的工作来并行化工作负载。在本文中,我们带来了先进的GPU实现与各种优化,如高效的主机设备通信,任务并行化,流水线和内存管理,以解决这个具有挑战性的任务。与Intel单核CPU上的Java基准相比,我们的设计显示了783X的加速,与IBM Power8多核CPU上的c++基准相比,速度提高了31.88X,与各种基因组数据集上以前最先进的GPU实现相比,速度提高了1.53X - 2.21X。
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