A common gene signature of the right ventricle in failing rat and human hearts
Liane Jurida, Sebastian Werner, Fabienne KnappiD, Bernd NiemanniD, Ling Li, Dimitri GrüniD, Stefanie Wirth, Axel WeberiD, Knut Beuerlein, Christoph LiebetrauiD, Christoph B. WiedenrothiD, Stefan GuthiD, Baktybek K. KojonazaroviD, Leili JafariiD, Norbert WeißmanniD, Stefan GüntheriD, Thomas W BrauniD, Marek BartkuhniD, RALPH THEO SCHERMULYiD, Peter DorfmülleriD, Xiaoke YiniD, Manuel MayriD, Michael Lienhard SchmitziD, Laureen Czech, Klaus‐Dieter SchlüteriD, , Michael KrachtiD
Abstract
The molecular mechanisms of progressive right heart failure are incompletely understood. We systematically compared rat models of pulmonary artery or aortic banding to identify the transcriptomic changes that occur over months in the failing right versus left ventricle. Detailed bioinformatics analyses of 181 RNAseq datasets from cardiomyocytes or whole heart samples from these models, led to the identification of gene signatures, protein, and transcription factor networks specific to ventricles, compensated or decompensated disease states and type of heart failure. RNA-FISH approaches confirmed PAB-mediated regulation of key genes and revealed striking, spatially heterogeneous mRNA expression in the heart. Intersection of rat PAB-specific gene sets with 95 transcriptome data sets from human patients with chronic thromboembolic pulmonary hypertension led to the identification of more than 50 genes whose expression levels strongly correlated with the severity of right heart disease. Together, these data define a conserved, differentially regulated genetic network that coordinates progressive right heart failure in rats and humans. HighlightsO_LISide-by-side comparisons of RV or LV transcriptomes in the slowly failing rat heart C_LIO_LIIdentification of RV-specific gene sets in heart hypertrophy versus heart failure C_LIO_LIIdentification of RV gene sets correlating with severity of human CTEPH C_LIO_LIDevelopment of a core gene signature characteristic for RV failure C_LI
02 /Specification & Classification
Click any tag to browse matching papers- Citations
- 14
- FWCI
- 4.04
- Field percentile
- top 5%
- Organism
- Assay
- Research Focus
- Approach
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- A Multi-omic and Multi-Species Analysis of Right Ventricular Failure
J. B. Mendelson, J. D. Sternbach, … C. M. Martin·bioRxiv·Feb 8, 2023
- The Tricuspid Valve is Transcriptionally Active During Prolonged Pressure Overload, Right-Sided Heart Failure, and Valve Regurgitation
Austin Goodyke, Bogusław Gawęda, … Tomasz A. Timek·Journal of the American Heart AssociationPeer-reviewed·Jan 30, 2026
- Right Ventricular Sarcomere Contractile Depression and the Role of Thick Filament Activation in Human Heart Failure with Pulmonary Hypertension
V. Jani, M. I. Aslam, … S. Hsu·bioRxiv·Mar 9, 2023
- Magnetique: An interactive web application to explore transcriptome signatures of heart failure
Thiago Britto‐Borges, Annekathrin Ludt, … Christoph Dieterich·Journal of Translational MedicinePeer-reviewed·Nov 7, 2022
- A critical contribution of cardiac myofibroblasts in right ventricular failure and the role of UCP2 SNPs in the predisposition to RV decompensation in pulmonary arterial hypertension
Yongneng Zhang, Sébastien Bonnet, … Evangelos D. Michelakis·CirculationPeer-reviewed·Mar 9, 2026
- Microvascular preservation and cardiomyocyte hyperplasia underlie adaptive right ventricular development in congenital heart disease-associated pulmonary arterial hypertension
Michael A. Smith, Eleana Stephanie Guardado, … Jeffrey R. Fineman·American Journal of Physiology-Heart and Circulatory PhysiologyPeer-reviewed·Sep 9, 2025