Searching journal content for articles similar to Weller et al. 33 (5): 729.

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  1. ...abundant form of genetic variation in humans and can be efficiently detected using short-read sequencing technologies. Therefore, -wide association studies (GWASs) have primarily focused on SNVs to investigate the genetic basis of phenotypic traits. In contrast, structural variants (SVs)—larger genomic...
  2. ...genotypes, long-read sequencing by PacBio was carried out on 11 isolates as well as on the reference B. cenocepacia J2315 as a control. Genomic and phenotypic resource for Burkholderia Genome Research 651 www..org in lung function over time; 14 of 16 showed significant decreases for at least one of three...
  3. .../or affected by high error rates, their underlying technology cannot be straightforwardly adapted to processing long reads. Therefore, several short-read-based tools, such as Kraken2, KrakenUniq, KMCP, and Ganon, can successfully process long read. However, they may encounter challenges in yielding...
  4. ...supports for integrating conventional linear--based feature annotations, enabling seamless examination of genomic variation in both graph-based and linear-based contexts. As further demonstrated with real world examples of yeast and human pan graphs as well as with benchmarking comparison with other tools...
  5. ...studies may overlook. On the other hand, analyses of genomic variation frequently reveal a complex interplay among sequence changes, including single-nucleotide polymorphisms (SNPs) and structural variations (SVs), which are associated with altered gene expression and phenotypic traits (Collins et al...
  6. ..., independent of Hi-C data and scaffolding, will greatly enhance studies and overcome technical challenges in structural variation discovery. These advances are exemplified by long-read de novo assemblers such as hifiasm (UL) (Cheng et al. 2023) and Verkko (Rautiainen et al. 2023).To further investigate...
  7. ...information on human rDNA. One reason is that the human rDNA unit (∼43 kb) is much larger than the yeast rDNA unit (∼9.2 kb), and it includes many small repetitive sequences in the noncoding region. Although the Human Genome Project declared its completion in 2003, it was difficult to assemble the r...
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