N. Saliman, Nur Dalilah Ahmad Sabri, S. A. Al Junid, N. Md. Tahir, Z. A. Majid
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引用次数: 3
Abstract
This paper presents the potential of the one-dimensional systolic processing element of the Viterbi algorithm in optimizing the DNA sequence alignment system processing engine. The objective of this paper was to optimize the sensitive DNA sequence alignment algorithm toward improving the performance and design complexity. In addition, theoretical study, design, and simulation were conducted using the Altera Quartus II version 9.1 software. The proposed architecture has been tested and is capable of accelerating more than 32 bits of input. As a conclusion, the proposed systolic design has been proven and is able to optimize the performance and design complexity of the most sensitive DNA sequence alignment algorithm on hardware-based accelerator platform.
本文介绍了Viterbi算法的一维收缩处理单元在优化DNA序列比对系统处理引擎中的潜力。本文的目的是优化敏感的DNA序列比对算法,以提高性能和设计复杂度。采用Altera Quartus II version 9.1软件进行理论研究、设计和仿真。所提出的架构已经过测试,能够加速超过32位的输入。综上所述,所提出的收缩设计得到了验证,能够在基于硬件的加速器平台上优化最灵敏的DNA序列比对算法的性能和设计复杂度。