This work describes the full spectrum of genetic variation and shows that while 99% of the variants between any two genomes are single base-pair substitutions, 88% of the euchromatic variant base pairs are SVs, including insertions, deletions, duplications, and inversions.
Abstract
Long-read sequencing (LRS) and diploid genome assembly have enabled nearly complete structural variant (SV) discovery. Using 293 nearly complete genomes, we characterize the full spectrum of genetic variation and show that while 99% of the variants between any two genomes are single base-pair substitutions, 88% of the euchromatic variant base pairs are SVs, including insertions, deletions, duplications, and inversions. We identify 24 gene-rich regions subject to megabase-scale variation, 2,293 potentially unstable tandem repeats, and 890 novel expression quantitative trait loci associated with SVs in humans. Expanding to 1,218 LRS samples from the 1000 Genomes Project and applying a newly developed cross-platform breakpoint evaluation tool, BoostSV, we construct a nonredundant callset comprising 614,522 SVs. We demonstrate the utility of this population-level SV reference callset by filtering >99% of the common variation from 44 unsolved LRS probands from the Undiagnosed Diseases Network to discover likely disease-causing SVs. Second, we genotype 1,053 high-impact biallelic SVs from the pangenome callset in 232,090 samples from All of Us and discover 105 SVs with significant associations, including 26% where the SV is the lead variant. This publicly available pangenome SV resource will drive new disease associations and further our understanding of the missing heritability of human genetic disease.
A telomere-to-telomere genome benchmark with near-perfect accuracy across 99.4% of the diploid HG002 genome is presented, expanding the reach of genomic medicine to the entire genome and enabling a new era of personalized genomics.
Nancy F. Hansen, Nathan Dwarshuis, Hyun Joo Ji et al.· Cell· 8 citations
A 29-kb deletion CNV was identified within the Nlrp1b locus of KK mice that contributed to the metabolic syndrome they develop and could uncover some of the missing heritability for mouse models of human diseases and biomedical traits.
Wen-Long Ren, Zu-Feng Cheng, Gary Peltz· bioRxiv· 0 citations
The Human Pangenome Reference Consortium’s (HPRC) Release 2 (HPRC2) is presented, an openly available, second phase pangenome that is an approximately fivefold expansion in genome number over HPRC Release 1 (HPRC1) and measurable improvement in genome completeness, contiguity, and accuracy.
Julian K. Lucas, Prajna Hebbar, Wen-Wei Liao et al.· bioRxiv· 6 citations
TruPath Genome achieves high-resolution detection of SNVs and indels alongside long-range phasing for CNVs and structural variant (SV) refinement and facilitates telomere-to-telomere assemblies and pangenome development, advancing the understanding of genome biology at an unprecedented scale.
East Asian populations, representing over 20% of the global population, remain critically underrepresented in human genomic studies, limiting our understanding of population-stratified genetic variation and its implications for health and disease. Here we present the first phase of the Asian Pan-Genome project (APG), c...
The results indicate that pangenome-based workflows aid improved detection of large variants from targeted sequencing data in the clinical context and suggest that they may contribute to more unified variant detection frameworks for all-size genetic variants in the future.
F. Mazzarotto, Özem Kalay, E. Arslan et al.· Genome Medicine· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.