This article provides a comprehensive, current guide for researchers and drug development professionals on the critical choice between stranded and non-stranded RNA sequencing.
Accurate determination of library strandedness is a critical yet often overlooked step in RNA-Sequencing quality control, with incorrect parameters leading to significant false positives/negatives in differential expression analysis[citation:1].
Strand-specific RNA-seq is a critical methodological choice that fundamentally impacts data interpretation and biological discovery.
This article provides a comprehensive guide to RNA Integrity Number (RIN) requirements for successful stranded RNA-Seq library preparation.
This article provides researchers, scientists, and drug development professionals with a comprehensive framework for addressing low strand specificity in RNA-seq data.
3' bias, the preferential sequencing of transcript termini, is a pervasive and confounding artifact in stranded RNA-seq that distorts gene expression quantification and isoform analysis.
Strand-specific RNA sequencing is pivotal for accurate transcriptome analysis, enabling the unambiguous quantification of overlapping genes and the discovery of regulatory non-coding RNAs.
This article provides a comprehensive guide for researchers and drug development professionals on tackling the pervasive challenge of false positives in differential expression (DE) analysis.
Ambiguous read mapping, where sequencing reads align equally well to multiple genomic loci, poses a significant challenge to the accuracy and reproducibility of RNA-seq analysis.
This article provides researchers and drug development professionals with a complete framework for successfully applying stranded RNA sequencing to degraded RNA samples.