Browse our latest Stem Cells and Regenerative Medicine articles

Adult neural stem cells differ in the types of neurons they generate according to their location and new territories and genes associated with dorsal and ventral neurogenic lineages in the adult mouse brain are revealed.

Adult cochlear supporting cells (SCs) are plastic and respond to ectopic Ikzf2 and Atoh1, and hair cell damage by up-regulating HC and down-regulating their endogenous SC genes.

Identifying the pathways that support human naive-state pluripotent stem cells provides insights into the signalling-based regulation of human pluripotency and enables informed decisions to improve conditions for pluripotent cell culture.

Genetic analyses revealed the remarkable plasticity of mesodermal cells to differentiate across the germ layers to form insulin-producing β-cells, which are normally of endodermal origin.

Deep learning combined with induced pluripotent stem cell technology is an effective method to interrogate cellular phenotypes and predict patterns of cardiotoxicity in vitro.

Muscle stem cells locally respond to perturbations of motor neurons and the neuromuscular junction.

Future work using recombinant AAV as an experimental tool in the dentate gyrus or as a gene therapy for diseases of the central nervous system should be carefully evaluated.

Ferroptotic stress enhances the accumulation of damage-associated inflammatory proximal tubular cell state, thereby promoting maladaptive renal repair and the AKI-to-CKD transition.

Functional and molecular analyses of two distinct skeletal stem cell populations establish the important role of stem cell diversity that provides a framework for novel investigations into skeletal biology.

A deep learning network can classify cardiac myocytes into drug-free and drugged categories and predict the impact of electrophysiological perturbation across the continuum of aging.