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Pdf Copmem2 Robust And Scalable Maximum Exact Match Finding

Pdf Copmem2 Robust And Scalable Maximum Exact Match Finding
Pdf Copmem2 Robust And Scalable Maximum Exact Match Finding

Pdf Copmem2 Robust And Scalable Maximum Exact Match Finding In copmem2, our proposed mem finding solution, we combined a number of ideas augmenting the original copmem scheme, to obtain significant speedups and memory usage reductions. To address its shortcomings, we propose copmem2, a multithreaded mem finding tool, targeting the execution speed and reducing the memory, as well as incorporating an improvement to speed up its processing by orders of magnitude when the pair of genomes is highly similar.

Table 1 From Copmem2 Robust And Scalable Maximum Exact Match Finding
Table 1 From Copmem2 Robust And Scalable Maximum Exact Match Finding

Table 1 From Copmem2 Robust And Scalable Maximum Exact Match Finding Abstract re designating anchor points, which are given by maximum exact matches (mems) between their sequences. for large genomes this is a challenging roblem and the performance of existing solutions, even in parallel regimes, is not quite satisfactory. we present a new a. Summary: finding maximum exact matches, i.e., matches between two strings that cannot be further extended to the left or right, is a classic string problem with applications in. Copmem2, a multithreaded implementation of its predecessor, allows to compute all mems of minimum length 50 between the human and mouse genomes in 59 s, using 10.40 gb of ram and 12 threads, being at least a few times faster than its main contenders. Bibliographic details on copmem2: robust and scalable maximum exact match finding.

Pdf Copmem Finding Maximal Exact Matches Via Sampling Both Genomes
Pdf Copmem Finding Maximal Exact Matches Via Sampling Both Genomes

Pdf Copmem Finding Maximal Exact Matches Via Sampling Both Genomes Copmem2, a multithreaded implementation of its predecessor, allows to compute all mems of minimum length 50 between the human and mouse genomes in 59 s, using 10.40 gb of ram and 12 threads, being at least a few times faster than its main contenders. Bibliographic details on copmem2: robust and scalable maximum exact match finding. The existing tools rarely explicitly address the problem of mem finding for a pair of very similar genomes, which may be computationally challenging. we present copmem2, a multi threaded implementation of its predecessor. To address its shortcomings, we propose copmem2, a multithreaded mem finding tool, targeting the execution speed and reducing the memory, as well as incorporating an improvement to speed up its processing by orders of magnitude when the pair of genomes is highly similar. Abstract summary: finding maximum exact matches, i.e., matches between two strings that cannot be further extended to the left or right, is a classic string problem with applications in genome to genome comparisons. Genome to genome comparisons require designating anchor points, which are given by maximum exact matches (mems) between their sequences. for large genomes this is a challenging problem and the performance of existing solutions, even in parallel regimes, is not quite satisfactory.

Github Kamata1729 Robusttemplatematching Implementation Of Robust
Github Kamata1729 Robusttemplatematching Implementation Of Robust

Github Kamata1729 Robusttemplatematching Implementation Of Robust The existing tools rarely explicitly address the problem of mem finding for a pair of very similar genomes, which may be computationally challenging. we present copmem2, a multi threaded implementation of its predecessor. To address its shortcomings, we propose copmem2, a multithreaded mem finding tool, targeting the execution speed and reducing the memory, as well as incorporating an improvement to speed up its processing by orders of magnitude when the pair of genomes is highly similar. Abstract summary: finding maximum exact matches, i.e., matches between two strings that cannot be further extended to the left or right, is a classic string problem with applications in genome to genome comparisons. Genome to genome comparisons require designating anchor points, which are given by maximum exact matches (mems) between their sequences. for large genomes this is a challenging problem and the performance of existing solutions, even in parallel regimes, is not quite satisfactory.

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