Deep Sequencing of 10,000 Human Genomes
Amalio TelentiiD, Levi T Pierce, William H Biggs, Julia di IulioiD, Emily H.M. Wong, Martin M Fabani, Ewen F Kirkness, Ahmed Moustafa, Naisha ShahiD, Chao XieiD, Suzanne C Brewerton, Nadeem Bulsara, Chad Garner, Gary Metzker, Efren Sandoval, Brad A Perkins, Franz J Och, Yaron TurpaziD, J. Craig VenteriD
Abstract
We report on the sequencing of 10,545 human genomes at 30-40x coverage with an emphasis on quality metrics and novel variant and sequence discovery. We find that 84% of an individual human genome can be sequenced confidently. This high confidence region includes 91.5% of exon sequence and 95.2% of known pathogenic variant positions. We present thedistribution of over 150 million single nucleotide variants in the coding and non-coding genome. Each newly sequenced genome contributes an average of 8,579 novel variants. In addition, each genome carries in average 0.7 Mb of sequence that is not found in the main build of the hg38 reference genome. The density of this catalog of variation allowed us to construct highresolution profiles that define genomic sites that are highly intolerant of genetic variation. These results indicate that the data generated by deep genome sequencing is of the quality necessary for clinical use.\n\nSignificance statementDeclining sequencing costs and new large-scale initiatives towards personalized medicine are driving a massive expansion in the number of human genomes being sequenced. Therefore, there is an urgent need to define quality standards for clinical use. This includes deep coverage and sequencing accuracy of an individuals genome, rather than aggregated coverage of data across a cohort or population. Our work represents the largest effort to date in sequencing human genomes at deep coverage with these new standards. This study identifies over 150 million human variants, a majority of them rare and unknown. Moreover, these data identify sites in the genome that are highly intolerant to variation - possibly essential for life or health. We conclude that high coverage genome sequencing provides accurate detail on human variation for discovery and for clinical applications.
02 /Specification & Classification
Click any tag to browse matching papersReproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Expanding the Genome in a Bottle Truth Set: Detection and Validation of Novel Low-frequency Variants Using High-accuracy NanoSeq
Yang Zhang, Hsu Chao, … Harsha Vardhan Doddapaneni·bioRxiv·Dec 6, 2025
- Low-coverage genome sequencing for the detection of clinically relevant copy-number and mtDNA variants
Sander Pajusalu, Mikk Tooming, … Katrin Õunap·medRxiv·Sep 20, 2022
- Low-coverage sequencing cost-effectively detects known and novel variation in underrepresented populations
Alicia R. Martin, Elizabeth G. Atkinson, … Zukiswa Zingela·The American Journal of Human GeneticsPeer-reviewed·Mar 25, 2021
- Highly-accurate long-read sequencing improves variant detection and assembly of a human genome
Aaron M. Wenger, Paul S. Peluso, … Michael W. Hunkapiller·Nature BiotechnologyPeer-reviewed·Aug 12, 2019
- Whole-genome sequencing is more powerful than whole-exome sequencing for detecting exome variants
Aziz Belkadi, Alexandre Bolze, … Laurent Abel·Proceedings of the National Academy of SciencesPeer-reviewed·Apr 28, 2015
- The Platinum Pedigree: A long-read benchmark for genetic variants
Zev N. Kronenberg, Cillian Nolan, … Michael A. Eberle·Nature MethodsPeer-reviewed·Aug 1, 2025