Accelerating the Nussinov RNA folding algorithm with CUDA/GPU

Dar-jen Chang, C. Kimmer, Ming Ouyang
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引用次数: 27

Abstract

Graphics processing units (GPU) on commodity video cards have evolved into powerful computational devices. The RNA secondary structure arises from the primary structure and a backbone of canonical, Watson-Crick base pairings (A-U, C-G), and to a lesser extent, the G-U pairing. Early computational work by Nussinov formulated the problem of RNA secondary structure prediction as a maximization of the number of paired bases, which led to a simplified problem amenable to a dynamic programming solution for O(n3) serial time. This article describes a GPU implementation of the Nussinov dynamic programming. Computation results show that the GPU implementation is up to 290 times faster than the CPU.
利用CUDA/GPU加速Nussinov RNA折叠算法
商用显卡上的图形处理单元(GPU)已经发展成为强大的计算设备。RNA二级结构源于一级结构和典型的沃森-克里克碱基配对(a - u, C-G)的主干,以及较小程度上的G-U配对。Nussinov的早期计算工作将RNA二级结构预测问题描述为配对碱基数量的最大化,这导致了一个简化的问题,可用于O(n3)串行时间的动态规划解决方案。本文描述了Nussinov动态规划的GPU实现。计算结果表明,GPU的实现速度比CPU快290倍。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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