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STORM-seq Reveals Differentiation Trajectories of Primary Human Fallopian Tube Epithelium

Johnson, B. K.; Rhodes, M.; Wegener, M.; Himadewi, P.; Foy, K.; Schipper, J. L.; Siwicki, R. A.; Rossell, L. L.; Siegwald, E. J.; Chesla, D. W.; Sheridan, R. T. C.; Adams, M.; Shen, H.; Triche, T. J.

2022-03-14 molecular biology
10.1101/2022.03.14.484332 bioRxiv
Show abstract

Despite significant advances, current single-cell RNA sequencing (scRNA-seq) technologies often struggle with accurately detecting non-coding transcripts, achieving full-length RNA coverage, and/or resolving transcript-level complexity. Many are also difficult to implement or inaccessible without specialized liquid handlers, further limiting their utility. We present Single-cell TOtal RNA-seq Miniaturized (STORM-seq), a random- hexamer primed, ribo-reduced single-cell total RNA sequencing (sc-total-RNA-seq) protocol using standard laboratory equipment. Adapted as a kit, STORM-seq constructs sequence-ready libraries in one working day, producing the highest complexity scRNA- seq libraries to-date, robustly measuring transcript isoforms and clinically relevant gene fusions in single cells. STORM-seq faithfully reconstructs expression profiles of locus- level transposable elements (TEs), and provides high-resolution profiling of transient, low- abundance enhancer RNAs (eRNAs), offering a powerful tool to dissect single-cell gene regulatory networks in unprecedented detail. Applied to human fallopian tube epithelium, the improved transcriptional resolution reveals a putative progenitor-like population and intermediate cell states, shaped by TEs and non-coding RNAs.

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