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Nature CommunicationsGenetic & Genomic MedicinePeer-reviewed journal article

Accurate, sensitive, and efficient chromatin accessibility quantification at target loci using UNIChro-seq.

Michihiro KonoiD, Hiroaki HatanoiD, Kenichiro Asahara, Masahiro NakanoiD, Reza Bagherzadeh, Tsugumi KawashimaiD, Takahiro ArakawaiD, Miho Sato, Hajime InokuchiiD, Takahiro NishinoiD, Takahiro ItamiyaiD, Haruka TakahashiiD, Bunki NatsumotoiD, Akari SuzukiiD, Kazuhiko YamamotoiD, Kazuyoshi IshigakiiD

PDFDOIPreprint

Abstract

Recent progress in statistical and experimental fine mapping of disease risk variants prompts us to focus on specific target loci for functional investigation. However, current genetics is hindered by a limited toolbox for target-loci analysis. To address this, we developed UNIChro-seq, a method that digitally counts accessible chromatin molecules at target loci. UNIChro-seq allows for accurate, sensitive, and efficient quantification of allelic effects compared to conventional methods. Using UNIChro-seq, we investigated the effects of 57 autoimmunity risk alleles on chromatin accessibility and estimated the causal effects of 20 artificial variants generated through genome editing. As a caveat, non-negligible fraction of the edited allele exhibited a falsely positive effect on chromatin accessibility, which can be effectively distinguished from the true causal effect through bi-directional genome editing. Finally, functional dissection of a fine-mapped risk variant at the LEF1 locus illuminated its impact on T cell pathology in rheumatoid arthritis. Together, these findings underscore the utility of combining UNIChro-seq with genome editing technology to enable precise and scalable functional analysis of disease-associated loci.

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