Haplotype-aware diploid genome assembly is crucial in genomics, precision medicine, and many other disciplines. Long-read sequencing technologies have greatly improved genome assembly. However, current long-read assemblers are either reference based, so introduce biases, or fail to capture the haplotype diversity of diploid genomes. We present phasebook, a de novo approach for reconstructing the haplotypes of diploid genomes from long reads. phasebook outperforms other approaches in terms of haplotype coverage by large margins, in addition to achieving competitive performance in terms of assembly errors and assembly contiguity
Background: Short read DNA sequencing technologies have revolutionized genome assembly by providing ...
The human genome is diploid, and knowledge of the variants on each chromosome is important for the i...
The human genome is diploid, and knowledge of the variants on each chromosome is important for the i...
Luo X. Computational Methods for Haplotype-aware De Novo Genome Assembly from Long Reads. Bielefeld:...
International audienceSingle-molecule sequencing technologies have recently been commercialized by P...
The current human reference genome, GRCh38, represents over 20 years of effort to generate a high-qu...
Capturing all genetic variation within a polyploid organism is a challenge. Most current de novo ass...
The current human reference genome, GRCh38, represents over 20 years of effort to generate a high-qu...
Despite their accuracy, next-generation DNA sequencing technologies have limited utility in analyzin...
Motivation: Haplotype assembly is the computational problem of reconstructing haplotypes in diploid ...
Motivation: Haplotype assembly is the computational problem of reconstructing haplotypes in diploid ...
Background: Short read DNA sequencing technologies have revolutionized genome assembly by providing ...
Motivation: Haplotype assembly is the computational problem of reconstructing haplotypes in diploid ...
Abstract Background Short read DNA sequencing technologies have revolutionized genome assembly by pr...
Background: Short read DNA sequencing technologies have revolutionized genome assembly by providing ...
Background: Short read DNA sequencing technologies have revolutionized genome assembly by providing ...
The human genome is diploid, and knowledge of the variants on each chromosome is important for the i...
The human genome is diploid, and knowledge of the variants on each chromosome is important for the i...
Luo X. Computational Methods for Haplotype-aware De Novo Genome Assembly from Long Reads. Bielefeld:...
International audienceSingle-molecule sequencing technologies have recently been commercialized by P...
The current human reference genome, GRCh38, represents over 20 years of effort to generate a high-qu...
Capturing all genetic variation within a polyploid organism is a challenge. Most current de novo ass...
The current human reference genome, GRCh38, represents over 20 years of effort to generate a high-qu...
Despite their accuracy, next-generation DNA sequencing technologies have limited utility in analyzin...
Motivation: Haplotype assembly is the computational problem of reconstructing haplotypes in diploid ...
Motivation: Haplotype assembly is the computational problem of reconstructing haplotypes in diploid ...
Background: Short read DNA sequencing technologies have revolutionized genome assembly by providing ...
Motivation: Haplotype assembly is the computational problem of reconstructing haplotypes in diploid ...
Abstract Background Short read DNA sequencing technologies have revolutionized genome assembly by pr...
Background: Short read DNA sequencing technologies have revolutionized genome assembly by providing ...
Background: Short read DNA sequencing technologies have revolutionized genome assembly by providing ...
The human genome is diploid, and knowledge of the variants on each chromosome is important for the i...
The human genome is diploid, and knowledge of the variants on each chromosome is important for the i...