Jul 2026· Journal of Molecular Diagnostics· 0 citations· 70 references
Medicine
TL;DR
This study presents a modular analytics pipeline that combines publicly available datasets with established open-source tools; standardizes quality control, differential expression analysis, and pathway analysis; and leverages competitive machine learning to unify disparate RNA-seq datasets for robust biomarker identification.
Abstract
Publicly available RNA sequencing (RNA-seq) data provide a cost-effective springboard for biomarker discovery. However, heterogeneity across studies often complicates analysis. This study presents a modular analytics pipeline that combines publicly available datasets with established open-source tools; standardizes quality control, differential expression analysis, and pathway analysis; and leverages competitive machine learning to unify disparate RNA-seq datasets for robust biomarker identification. The workflow is demonstrated across three disease contexts, ranging from small pilot datasets to larger, integrated analyses: (1) identifying differentially expressed gene signatures associated with COVID-19 severity, (2) combining differential expression and machine learning techniques to analyze multi-cohort sepsis datasets, resulting in concise biomarker panels, and (3) utilizing both bulk and single-cell data to examine tissue and cell-type specificity of N-acyl-phosphatidylethanolamine phospholipase D in atherosclerosis. These applications demonstrate how an adaptable, modular pipeline using open-source tools can repurpose public data to reduce noise, generate new hypotheses, and reveal meaningful biological insights, thereby establishing a foundation for future research and underscoring the importance of public data in exploratory biomarker discovery.
A structured multi-layer interpretation framework is proposed that links computational outputs across data-level processing, epigenomics-informed integrative regulatory modeling, and multi-omics-informed clinical interpretation, enabling traceable and mechanistically interpretable clinical inference.
M. Srivastava, Pratik Kumar, Ankita Chouhan et al.· Academia Molecular Biology a...· 0 citations
This chapter covers quality control, normalization, sparse data handling, and transcript quantification for both bulk and snRNA-seq, along with strategies to address challenges such as multi-mapped reads and batch effects, and examines how artificial intelligence and machine learning techniques can improve data process...
S. P. Dharshini, Y.-H. Taguchi, M. Gromiha· Methods in molecular biology· 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
Phenotype prediction from public gene-expression data is straightforward to implement but reliable prediction is harder. Leakage during feature selection can inflate performance estimates. Class imbalance can hide poor performance in minority classes. Confounds like tissue type, repeated sampling, and demographic diffe...
Aim: Small RNA sequencing (small RNA-Seq) is a widely used and important method for biomarker discovery in extracellular vesicles (EVs), which carry small RNAs among their cargo and protect them from degradation in liquid biopsies. However, existing computational tools for small RNA-Seq data are not tailored to EV-RNA....
B. Kirchner, C. Grätz, Johannes Kersting et al.· Extracellular Vesicles and C...· 0 citations
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