Abstract: Efficient sequence alignment is one of the most important and challenging activities in bioinformatics. Many algorithms have been proposed to perform and accelerate sequence alignment activities. Among them Smith-Waterman (S-W) is the most sensitive (accurate) algorithm, however, the fact that it is the most computationally intensive algorithm makes it necessary to implement hardware acceleration methods to make the algorithm viable for practical applications. In this paper, we present a novel approach to improve the performance of the S-W algorithm, using partially custom hardware. In this approach, customized hardware is used to accelerate the computationally intensive part of the algorithm, rather than implementing the entire a...
Abstract — Comparing genetic sequences is a well-known prob-lem in bioinformatics. Newly determined ...
Bioinformatics is one of the areas affected by current HPC problems due to the exponential growth of...
Bioinformatics is one of the areas affected by current HPC problems due to the exponential growth of...
With the sequencing of DNA becoming cheaper and the resulting stack of data growing bigger, there is...
Abstract Background To infer homology and subsequentl...
Hardware acceleration is needed to speed up DNA or protein alignment while keeping the accuracy of t...
Hardware acceleration is needed to speed up DNA or protein alignment while keeping the accuracy of t...
Hardware acceleration is needed to speed up DNA or protein alignment while keeping the accuracy of t...
The comparison and alignment of DNA and protein sequences are important tasks in molecular biology a...
Abstract Background To infer homology and subsequentl...
The comparison and alignment of DNA and protein sequences are important tasks in molecular biology a...
The Smith-Waterman algorithm is a dynamic programming method for determining op-timal local alignmen...
With the dramatically increasing amounts of genomic sequence database, there is a need for faster an...
Background Searching for similarities in protein and DNA databases has become a routine procedure in...
The Smith-Waterman algorithm is a common localsequence alignment method which gives a high accuracy....
Abstract — Comparing genetic sequences is a well-known prob-lem in bioinformatics. Newly determined ...
Bioinformatics is one of the areas affected by current HPC problems due to the exponential growth of...
Bioinformatics is one of the areas affected by current HPC problems due to the exponential growth of...
With the sequencing of DNA becoming cheaper and the resulting stack of data growing bigger, there is...
Abstract Background To infer homology and subsequentl...
Hardware acceleration is needed to speed up DNA or protein alignment while keeping the accuracy of t...
Hardware acceleration is needed to speed up DNA or protein alignment while keeping the accuracy of t...
Hardware acceleration is needed to speed up DNA or protein alignment while keeping the accuracy of t...
The comparison and alignment of DNA and protein sequences are important tasks in molecular biology a...
Abstract Background To infer homology and subsequentl...
The comparison and alignment of DNA and protein sequences are important tasks in molecular biology a...
The Smith-Waterman algorithm is a dynamic programming method for determining op-timal local alignmen...
With the dramatically increasing amounts of genomic sequence database, there is a need for faster an...
Background Searching for similarities in protein and DNA databases has become a routine procedure in...
The Smith-Waterman algorithm is a common localsequence alignment method which gives a high accuracy....
Abstract — Comparing genetic sequences is a well-known prob-lem in bioinformatics. Newly determined ...
Bioinformatics is one of the areas affected by current HPC problems due to the exponential growth of...
Bioinformatics is one of the areas affected by current HPC problems due to the exponential growth of...