Nature BiotechnologyGenomicsPeer-reviewed journal article
Accurate simultaneous sequencing of genetic and epigenetic bases in DNA
Jens FüllgrabeiD, Walraj S. Gosal, Páidí Creed, Sidong LiuiD, Casper K. LumbyiD, David J. Morley, Tobias W. B. Ost, Albert J. VilellaiD, Shirong YuiD, Helen Bignell, Philippa Burns, Tom CharlesworthiD, Beiyuan FuiD, Howerd Fordham, Nicholas J. HardingiD, Olga A. Gandelman, Paula Golder, Christopher Hodson, Mengjie LiiD, Marjana Lila, Yang LiuiD, Joanne Mason, Jason Mellad, Jack MonahaniD, Oliver Nentwich, , Shankar BalasubramanianiD
Abstract
DNA comprises molecular information stored via genetic bases (G, C, T, A) and also epigenetic bases, principally 5-methylcytosine (5mC) and 5-hydroxymethylcytosine (5hmC). Both genetic and epigenetic information are vital to our understanding of biology and disease states. Most DNA sequencing approaches address either genetics or epigenetics and thus capture incomplete information. Methods widely used to detect epigenetic DNA bases typically fail to capture common C-to-T mutations or distinguish 5mC from 5hmC. Here, we present a single-base-resolution sequencing methodology that will simultaneously sequence complete genetics and complete epigenetics in a single workflow. The approach is non-destructive to DNA and provides a digital readout of bases, which we exemplify by simultaneous sequencing of G, C, T, A, 5mC and 5hmC; 6-Letter sequencing. We demonstrate sequencing of human genomic DNA and also cell-free DNA taken from a blood sample of a cancer patient. The approach is accurate, requires low DNA input and has a simple workflow and analysis pipeline. We envisage it will be versatile across many applications in life sciences.
- organism: human
- assay: whole-genome sequencing
- research focus: variant calling
- approach: experimental assay
- Citations
- 128
- FWCI
- 11.27
- Field percentile
- top 1%
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