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Singleton Variants Dominate the Genetic Architecture of Human Gene Expression

View ORCID ProfileRyan D. Hernandez, Lawrence H. Uricchio, Kevin Hartman, Jimmie Ye, Andrew Dahl, Noah Zaitlen
doi: https://doi.org/10.1101/219238
Ryan D. Hernandez
UCSF;
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  • For correspondence: ryan.hernandez@ucsf.edu
Lawrence H. Uricchio
Stanford University
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Kevin Hartman
UCSF;
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Jimmie Ye
UCSF;
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Andrew Dahl
UCSF;
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Noah Zaitlen
UCSF;
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Abstract

The vast majority of human mutations have minor allele frequencies (MAF) under 1%, with the plurality observed only once (i.e., "singletons"). While Mendelian diseases are predominantly caused by rare alleles, their role in complex phenotypes remains largely unknown. We develop and rigorously validate an approach to jointly estimate the contribution of alleles with different frequencies, including singletons, to phenotypic variation. We apply our approach to transcriptional regulation, an intermediate between genetic variation and complex disease. Using whole genome DNA and RNA sequencing data from 360 European individuals, we find that singletons alone contribute ~23% of all cis-heritability across genes (dwarfing the contributions of other frequencies). We then integrate external estimates of global MAF from worldwide samples to improve our inference, and find that average cis-heritability is 15.3%. Strikingly, 50.9% of cis-heritability is contributed by globally rare variants (MAF<0.1%), implicating purifying selection as a pervasive force shaping the regulatory architecture of most human genes.

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The copyright holder for this preprint is the author/funder, who has granted bioRxiv a license to display the preprint in perpetuity. It is made available under a CC-BY 4.0 International license.
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  • Posted November 14, 2017.

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Singleton Variants Dominate the Genetic Architecture of Human Gene Expression
Ryan D. Hernandez, Lawrence H. Uricchio, Kevin Hartman, Jimmie Ye, Andrew Dahl, Noah Zaitlen
bioRxiv 219238; doi: https://doi.org/10.1101/219238
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Singleton Variants Dominate the Genetic Architecture of Human Gene Expression
Ryan D. Hernandez, Lawrence H. Uricchio, Kevin Hartman, Jimmie Ye, Andrew Dahl, Noah Zaitlen
bioRxiv 219238; doi: https://doi.org/10.1101/219238

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