Mettl3 post-transcriptionally reduces Fgf16 mRNA levels through an m⁶A-Ythdf2-dependen pathway, thereby controlling cardiomyocyte proliferation and heart regeneration.

Single-cell RNA sequencing reveals Nrg1/ErbB2-induced metabolic reprogramming as a pivotal event for cardiomyocyte proliferation during heart regeneration.

Lineage analysis reveals that cardiac neural crest contributes to cardiomyocytes across vertebrates and consistent with this, the neural crest gene regulatory program is reactivated upon heart regeneration in zebrafish.

An extensive characterization of inflammatory cell dynamics, function, and potential interaction during zebrafish cardiac repair identified specific resident macrophage subsets function in debris clearance, inflammatory resolution, and extracellular matrix remodeling, indispensable for successful heart regeneration.

Zebrafish develop cardiac lymphatic vessels along coronary arteries and this vasculature supports scar reduction following severe damage to the myocardium.

Neonatal mouse heart regeneration relies on the presence of mononuclear diploid cardiomyocytes, which unites this process with embryonic heart growth and adult heart regeneration.

Neuregulin1 is induced upon cardiac injury in adult zebrafish, and is sufficient to drive massive proliferative growth of the heart.

Proximity labeling-based proteomic strategies applied in zebrafish identify new insights into protein network changes in heart muscle cells during regeneration and implicate Rho A as a target of ErbB2 signaling during zebrafish heart regeneration.

The heart is able to sense and adaptively respond to environmental changes due to cardiac injury through flow-mediated mechanisms that regulate cardiomyocyte reprogramming and regeneration.

Comprehensive scRNA-seq analysis of cardiac stromal cells in healthy and injured hearts reveals novel cell types and non-linear cell dynamics, providing new insights into cardiac inflammation, fibrosis and repair.