In the current study we present a parallel statistical algorithm (SHMap), which distinguishes DNA regions which possibly carry protein coding information from non-coding regions. The code was parallelized using MPI and was deployed in a Grid testbed provided by the CrossGrid IST European Project. We tested the SHMap algorithm on mammalian chromosomes. The paralleliza-tion of the algorithm and the use of the Grid environment achieves significant speed-up compared to the sequential version of the algorithm, although the use of the Grid environment still presents some problems. Our algorithm is open source and freely distributed from our website.
Many important traits in plants, animals and humans are quantitative, and most such traits are gener...
The genome sequence alignment problems are very important ones from the computational biology perspe...
In this paper, we will explore the need of parallelizing bioinformatics algorithms. More specificall...
Abstract. The potential for Grid technologies in applied bioinformatics is largely unexplored. We ha...
The post-genomic era is characterized by large amount of data available from sequencing projects. Th...
International audienceWe present a fast mapping-based algorithm to compute the mappability of each r...
Abstract — In recent years our society has witnessed an unprecedented growth in computing power avai...
Abstract. Computational analysis of DNA sequences can distinguish areas within the genome according ...
analysis of arrays of samples or analysis of complex Conventional genome mapping and sequencing invo...
This is a dissertation in three parts, in each we explore the development and analysis of a parallel...
Certain bioinformatics research, such as sequence alignment, alternative splicing, protein function/...
We present a fast mapping-based algorithm to compute the mappability of each region of a reference g...
The huge amount of biological information implies a great challenge for data analysis, particularly ...
One of the most ambitious trends in current biomedical research is the large-scale genomic sequencin...
A DNA sequence analysis parallelization in large databases using cluster, multi-cluster, and GRID is...
Many important traits in plants, animals and humans are quantitative, and most such traits are gener...
The genome sequence alignment problems are very important ones from the computational biology perspe...
In this paper, we will explore the need of parallelizing bioinformatics algorithms. More specificall...
Abstract. The potential for Grid technologies in applied bioinformatics is largely unexplored. We ha...
The post-genomic era is characterized by large amount of data available from sequencing projects. Th...
International audienceWe present a fast mapping-based algorithm to compute the mappability of each r...
Abstract — In recent years our society has witnessed an unprecedented growth in computing power avai...
Abstract. Computational analysis of DNA sequences can distinguish areas within the genome according ...
analysis of arrays of samples or analysis of complex Conventional genome mapping and sequencing invo...
This is a dissertation in three parts, in each we explore the development and analysis of a parallel...
Certain bioinformatics research, such as sequence alignment, alternative splicing, protein function/...
We present a fast mapping-based algorithm to compute the mappability of each region of a reference g...
The huge amount of biological information implies a great challenge for data analysis, particularly ...
One of the most ambitious trends in current biomedical research is the large-scale genomic sequencin...
A DNA sequence analysis parallelization in large databases using cluster, multi-cluster, and GRID is...
Many important traits in plants, animals and humans are quantitative, and most such traits are gener...
The genome sequence alignment problems are very important ones from the computational biology perspe...
In this paper, we will explore the need of parallelizing bioinformatics algorithms. More specificall...