Browse our latest Stem Cells and Regenerative Medicine articles

The fish gill, an ever-growing organ with fast turnover rate, displays dedicated stem-cell populations for growth and homeostasis that are interchangeable upon external challenges.

MiRNA-mediated suppression of MAVS expression in embryonic stem cells is necessary to inactivate the type I interferon response.

An unbiased RNAseq based strategy to identify targetable pathways and a streamlined lentiviral system provide a state of the art advance on direct fibroblast to neuron conversion.

Human skeletal muscle progenitors and motor neurons self-organize in three-dimensional co-culture to form functional neuromuscular junctions that developmentally mature from the embryonic to the adult state.

Fusion of muscle progenitors drives continuous myonuclear accretion during exercise and impacts various adaptations in skeletal muscle including response to injury and hypertrophy.

Large-scale skeletal regeneration requires Hh signaling in Sox9+ lineage cells to coordinate callus formation and bone repair.

The LATS/YAP/TAZ cascade promotes SOX2+ pituitary stem cell fate and when over-activated, transforms normal stem cells into cancer stem cells.

Variation in efficiency, speed and path during transdifferentiation and reprogramming originates from two pre-B cell subpopulations with reciprocal propensity towards each fate conversion.

The zebrafish lateral line utilizes multiple, genetically distinct, independently regulated progenitors to generate new hair cells during homeostasis and regeneration, and to maintain progenitor pools.

The zinc finger protein Nerfin-1 represses the transcriptional output of Hippo signaling in cell competition by binding to the TEA DNA-binding domain of Scalloped.