SummaryRecent findings show that human fibroblasts can be directly programmed into functional neurons without passing via a proliferative stem cell intermediate. These findings open up the possibility of generating subtype-specific neurons of human origin for therapeutic use from fetal cell, from patients themselves, or from matched donors. In this study, we present an improved system for direct neural conversion of human fibroblasts. The neural reprogramming genes are regulated by the neuron-specific microRNA, miR-124, such that each cell turns off expression of the reprogramming genes once the cell has reached a stable neuronal fate. The regulated system can be combined with integrase-deficient vectors, providing a nonintegrative and self...
Background: Human fibroblasts can be directly converted to several subtypes of neurons, but cortical...
Direct conversion of human fibroblasts into mature and functional neurons, termed induced neurons (i...
Direct conversion of somatic cells into neurons holds great promise for regenerative medicine. Howev...
Recent findings show that human fibroblasts can be directly programmed into functional neurons witho...
Summary: Recent findings show that human fibroblasts can be directly programmed into functional neur...
SummaryRecent findings show that human fibroblasts can be directly programmed into functional neuron...
SummaryThe promise of using reprogrammed human neurons for disease modeling and regenerative medicin...
Differentiation of human fibroblasts into functional neurons depends on the introduction of viral-me...
Recent studies have reported direct reprogramming of human fibroblasts to mature neurons by the intr...
Direct reprogramming offers a unique approach by which to generate neural lineages for the study and...
Recent studies have reported direct reprogramming of human fibroblasts to mature neurons by the intr...
SummaryHuman induced pluripotent stem cells (hiPSCs) have been generated by reprogramming a number o...
SummaryThe promise of using reprogrammed human neurons for disease modeling and regenerative medicin...
Cellular reprogramming is a rapidly developing technology by which somatic cells are turned into plu...
Cellular reprogramming is a new and rapidly emerging field in which somatic cells can be turned into...
Background: Human fibroblasts can be directly converted to several subtypes of neurons, but cortical...
Direct conversion of human fibroblasts into mature and functional neurons, termed induced neurons (i...
Direct conversion of somatic cells into neurons holds great promise for regenerative medicine. Howev...
Recent findings show that human fibroblasts can be directly programmed into functional neurons witho...
Summary: Recent findings show that human fibroblasts can be directly programmed into functional neur...
SummaryRecent findings show that human fibroblasts can be directly programmed into functional neuron...
SummaryThe promise of using reprogrammed human neurons for disease modeling and regenerative medicin...
Differentiation of human fibroblasts into functional neurons depends on the introduction of viral-me...
Recent studies have reported direct reprogramming of human fibroblasts to mature neurons by the intr...
Direct reprogramming offers a unique approach by which to generate neural lineages for the study and...
Recent studies have reported direct reprogramming of human fibroblasts to mature neurons by the intr...
SummaryHuman induced pluripotent stem cells (hiPSCs) have been generated by reprogramming a number o...
SummaryThe promise of using reprogrammed human neurons for disease modeling and regenerative medicin...
Cellular reprogramming is a rapidly developing technology by which somatic cells are turned into plu...
Cellular reprogramming is a new and rapidly emerging field in which somatic cells can be turned into...
Background: Human fibroblasts can be directly converted to several subtypes of neurons, but cortical...
Direct conversion of human fibroblasts into mature and functional neurons, termed induced neurons (i...
Direct conversion of somatic cells into neurons holds great promise for regenerative medicine. Howev...