Synchronized long-read genome, methylome, epigenome, and transcriptome for resolving a Mendelian condition
Author:
Vollger Mitchell R.ORCID, Korlach JonasORCID, Eldred Kiara C., Swanson ElliottORCID, Underwood Jason G., Cheng Yong-Han H.ORCID, Ranchalis Jane, Mao YiziORCID, Blue Elizabeth E.ORCID, Schwarze Ulrike, Munson Katherine M., Saunders Christopher T.ORCID, Wenger Aaron M., Allworth Aimee, Chanprasert Sirisak, Duerden Brittney L., Glass Ian, Horike-Pyne Martha, Kim Michelle, Leppig Kathleen A.ORCID, McLaughlin Ian J., Ogawa JessicaORCID, Rosenthal Elisabeth A., Sheppeard Sam, Sherman Stephanie M., Strohbehn SamuelORCID, Yuen Amy L., Reh Thomas A., Byers Peter H., Bamshad Michael J.ORCID, Hisama Fuki M., Jarvik Gail P., Sancak YaseminORCID, Dipple Katrina M., Stergachis Andrew B.ORCID, ,
Abstract
AbstractResolving the molecular basis of a Mendelian condition (MC) remains challenging owing to the diverse mechanisms by which genetic variants cause disease. To address this, we developed a synchronized long-read genome, methylome, epigenome, and transcriptome sequencing approach, which enables accurate single-nucleotide, insertion-deletion, and structural variant calling and diploidde novogenome assembly, and permits the simultaneous elucidation of haplotype-resolved CpG methylation, chromatin accessibility, and full-length transcript information in a single long-read sequencing run. Application of this approach to an Undiagnosed Diseases Network (UDN) participant with a chromosome X;13 balanced translocation of uncertain significance revealed that this translocation disrupted the functioning of four separate genes (NBEA,PDK3,MAB21L1, andRB1) previously associated with single-gene MCs. Notably, the function of each gene was disrupted via a distinct mechanism that required integration of the four ‘omes’ to resolve. These included nonsense-mediated decay, fusion transcript formation, enhancer adoption, transcriptional readthrough silencing, and inappropriate X chromosome inactivation of autosomal genes. Overall, this highlights the utility of synchronized long-read multi-omic profiling for mechanistically resolving complex phenotypes.
Publisher
Cold Spring Harbor Laboratory
Cited by
3 articles.
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