Elucidation of the molecular basis of early wound epidermis dependence during salamander limb regeneration reveals midkine as a key modulator of wound epidermis development and wound-healing resolution.

Genetic suppressor screens with C. elegans reveal a novel function for the Death Associated Protein Kinase in regulation of epithelial microtubule dynamics.

Skin cells in zebrafish use sodium chloride-dependent electrical gradients to sense tissue injury and guide migration in the appropriate direction to close the wound.

The dynamic homeostasis of the planarian epidermis serves as an experimental paradigm to study stem cell dynamics and post-mitotic specification of diverse functional cell fates.

Microtubules orchestrate wound repair and innate immune response in the Caenorhabditis elegans epidermis.

Wounded epidermal keratinocytes emit a signal that activates a specialized T-cell in the skin, leading to an increase in hair follicle stem cell numbers that contributes to tissue repair.

In vivo evaluation of mineralized skeleton in the regenerating axolotl limb reveals a significant osteoclast-driven resorption as an early event with long-lasting impact for tissue integration.

The serine protease Matriptase orchestrates simultaneous epithelial cell motility and inflammation in pathological states through respective activation of the MAPK pathway and generation of hydrogen peroxide.

A comprehensive microRNA expression and function landscape of human wounds unraveled miRNAs highly relevant to venous ulcer pathology.

The combination of the MS2 system with the Suntag system as a signal amplifier allows enhanced single-molecule mRNA imaging in live cells and animals.