Pro-neural transcription factors and small molecules can induce the reprogramming of fibroblasts into functional neurons; however, the immediate-early molecular events that catalyze this conversion have not been well defined. We previously demonstrated that neurogenin 2 (NEUROG2), forskolin (F), and dorsomorphin (D) can reprogram fibroblasts into functional neurons with high efficiency. Here, we used this model to define the genetic and epigenetic events that initiate an acquisition of neuronal identity. We demonstrate that NEUROG2 is a pioneer factor, FD enhances chromatin accessibility and H3K27 acetylation, and synergistic transcription activated by these factors is essential to successful reprogramming. CREB1 promotes neuron survival an...
Direct conversion of somatic cells into neurons holds great promise for regenerative medicine. Howev...
How transcription factors (TFs) reprogram one cell lineage to another remains unclear. Here, we defi...
The adult mammalian brain has a limited capacity to replace the loss of neurons following the trauma...
SummaryPro-neural transcription factors and small molecules can induce the reprogramming of fibrobla...
Cell fate can be reprogrammed by modifying intrinsic and extrinsic cues. Here, we show that two smal...
SummaryWe have recently demonstrated that reactive glial cells can be directly reprogrammed into fun...
Contains fulltext : 206705.pdf (publisher's version ) (Open Access)Remodeling of c...
Summary How transcription factors (TFs) reprogram one cell lineage to another remains unclear. Here,...
Cell fate decisions require the deployment of distinct transcriptional programmes—how this is contro...
The differentiation of stem cells into the more than 100 billion neurons that compose the central ne...
SummaryDirect lineage reprogramming is a promising approach for human disease modeling and regenerat...
Neurogenesis and gliogenesis are processes that occur during development of the CNS as well as after...
12 páginas, 7 figurasDevelopmental programs that generate the astonishing neuronal diversity of the ...
The SOX2 transcription factor is critical for neural stem cell (NSC) maintenance and brain developme...
The SOX2 transcription factor is critical for neural stem cell (NSC) maintenance and brain developme...
Direct conversion of somatic cells into neurons holds great promise for regenerative medicine. Howev...
How transcription factors (TFs) reprogram one cell lineage to another remains unclear. Here, we defi...
The adult mammalian brain has a limited capacity to replace the loss of neurons following the trauma...
SummaryPro-neural transcription factors and small molecules can induce the reprogramming of fibrobla...
Cell fate can be reprogrammed by modifying intrinsic and extrinsic cues. Here, we show that two smal...
SummaryWe have recently demonstrated that reactive glial cells can be directly reprogrammed into fun...
Contains fulltext : 206705.pdf (publisher's version ) (Open Access)Remodeling of c...
Summary How transcription factors (TFs) reprogram one cell lineage to another remains unclear. Here,...
Cell fate decisions require the deployment of distinct transcriptional programmes—how this is contro...
The differentiation of stem cells into the more than 100 billion neurons that compose the central ne...
SummaryDirect lineage reprogramming is a promising approach for human disease modeling and regenerat...
Neurogenesis and gliogenesis are processes that occur during development of the CNS as well as after...
12 páginas, 7 figurasDevelopmental programs that generate the astonishing neuronal diversity of the ...
The SOX2 transcription factor is critical for neural stem cell (NSC) maintenance and brain developme...
The SOX2 transcription factor is critical for neural stem cell (NSC) maintenance and brain developme...
Direct conversion of somatic cells into neurons holds great promise for regenerative medicine. Howev...
How transcription factors (TFs) reprogram one cell lineage to another remains unclear. Here, we defi...
The adult mammalian brain has a limited capacity to replace the loss of neurons following the trauma...