S. Junid, M. Idros, A. Razak, F. N. Osman, N. Tahir
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引用次数: 6
摘要
本文介绍了基于并行计算方法的线性smith-waterman算法单元评分的优化计算处理单元。采用2位优化比较块对DNA序列字符进行比较,采用计算块完成计算,减少所涉及的组分数。完整的架构是在Altera Quartus II版本13.0中设计和开发的,针对Altera Cyclone IV EP4CE115现场可编程门阵列(FPGA)。在认识到设计的逻辑功能的重要性后,本设计采用了模块化设计方法。通过对模块和完整体系结构的仿真,验证了设计与预期结果的一致性。最后,研究结果表明,基于并行计算方法的线性smith-waterman算法细胞评分优化计算处理单元设计是可行的,可以作为处理单元在DNA序列比对中实现。
Parallel processing cell score design of linear gap penalty smith-waterman algorithm
In this paper, the optimize computational processing element for linear smith-waterman algorithm cell score based on the parallel computational approach is introduced. Two bits optimized comparator block were used to compare the DNA sequence characters, while the computation block was used to complete computation towards reducing the numbers of components involved. The complete architecture is designed and developed in Altera Quartus II version 13.0 and targeted to Altera Cyclone IV EP4CE115 Field Programmable Gate Array (FPGA). In realizing the important of the logic functionality of the design, the modular design approach has been adapted to this design. The simulation over the module and complete architecture were used for validating the design against the expected result. Finally, the result obtained from the study indicates that the optimized computational processing element design for linear smith-waterman algorithm cell score based on the parallel computational approach is feasible to be implemented in the DNA sequence alignment as the processing element.