Heteroduplex Assay via Recombinant Tn5 provides a rapid, scalable route to full-length single-cell transcript profiling with gene-programme and candidate isoform resolution and results remain exploratory because independent biological replicates were unavailable.
Abstract
Plate-based full-length single-cell RNA sequencing resolves transcript structure details but remains difficult to scale because each cell usually requires a separate library. Here we developed CHART-seq (Combinatorial Heteroduplex Assay via Recombinant Tn5), which uses orthogonally indexed Tn5 complexes to tagment RNA/cDNA heteroduplexes and permits early sample pooling. The workflow processed up to 96 cells per library, was compatible with 384-well expansion, and completed library preparation within 3 h at a reagent cost below US<$>1 per cell. At matched sequencing depth, CHART-seq detected more genes and annotated isoforms than Smart-seq2, Smart-seq3, Flash-seq and SHERRY2, while retaining broad genebody coverage and reproducible expression estimates. In the CHART-seq results of vascular smooth muscle cells, TGF-β1 pretreatment before PDGF-BB exposure partly restored contractile features, suppressed a PDGF-associated inflammatory programme, and induced a distinct metabolic–matrix response with coordinated transcript-usage changes. These biological findings remain exploratory because independent biological replicates were unavailable. CHART-seq provides a rapid, scalable route to full-length single-cell transcript profiling with gene-programme and candidate isoform resolution. Graphical Abstract
Well-TEMP-seq is high-throughput, cost-effective, accurate, and provides a low cell loss rate and high single cell/bead pairing efficiency, and will be widely adopted and help researchers perform transformative research to unveil the dynamics of single-cell gene expression in diverse biological processes.
Di Wang, Qi-Qi Lv, Shi-Chao Lin· Current Protocols· 0 citations
Cell-to-cell transcriptional heterogeneity, or noise, is an intrinsic property of the transcriptome with implications for development, disease progression, and aging. Bulk RNA-seq masks this variability by averaging gene expression across cells, whereas single-cell RNA sequencing (scRNA-seq) resolves it. Nevertheless,...
Rafal Czapiewski, M. Chiang, James Ding et al.· bioRxiv· 0 citations
As a versatile and broadly adaptable technology, SEnd-seq provides comprehensive insights into transcriptional regulation, RNA processing, and the coordination between RNA-based processes, thereby uncovering potential targets for antibiotic development.
This study provides a systematic assessment of four commercially available workflows for performing LR snRNA-seq and highlights key methodological trade-offs related to distinct library preparation strategies, thus providing practical guidance for future isoform-resolved transcriptome studies at the single-nucleus leve...
F. Köhler, Anna Delgado-Tejedor, Maik Zehnsdorf et al.· bioRxiv· 0 citations
An integrated wet-lab and computational platform designed to overcome barriers to population-scale long-read RNA sequencing, providing a scalable, community-ready framework for isoform-resolved transcriptomics in neurodegeneration, aging, and complex brain disease.
C. Kouam, Jackson Mingle, Pilar Álvarez Jerez et al.· bioRxiv· 0 citations
RNA structure governs the function of non-coding RNAs and influences mRNA stability and translation, making testing of models of experimental RNA structure relevant to fields spanning structural biology, virology, and molecular therapeutics. Here we present FAST-MaP (Fast and Accessible Sequencing Technology for Mutati...
Jigyasa Verma, Hamish M. Blair, W. Kladwang et al.· bioRxiv· 0 citations
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