Molecular mechanisms of the Kruppel-like family of transcription factors （KLFs） have been studied more in proliferating cells than in post-mitotic cells such as neurons. We recently found that KLFs regulate intrinsi...Molecular mechanisms of the Kruppel-like family of transcription factors （KLFs） have been studied more in proliferating cells than in post-mitotic cells such as neurons. We recently found that KLFs regulate intrinsic axon growth ability in central nervous system （CNS） neurons in- cluding retinal ganglion cells, and hippocampal and cortical neurons. With at least 15 of 17 KLF family members expressed in neurons and at least 5 structurally unique subfamilies, it is import- ant to determine how this complex family functions in neurons to regulate the intricate genetic programs of axon growth and regeneration. By characterizing the molecular mechanisms of the KLF family in the nervous system, including binding partners and gene targets, and comparing them to defined mechanisms defined outside the nervous system, we may better understand how KLFs regulate neurite growth and axon regeneration.展开更多
基金the National Eye Institute(EY022129 to JLGP30-EY022589 to UCSD)+1 种基金the DOD(W81XWH-12-1-0254 to JLG)an unrestricted grant from Research to Prevent Blindness,Inc
文摘Molecular mechanisms of the Kruppel-like family of transcription factors （KLFs） have been studied more in proliferating cells than in post-mitotic cells such as neurons. We recently found that KLFs regulate intrinsic axon growth ability in central nervous system （CNS） neurons in- cluding retinal ganglion cells, and hippocampal and cortical neurons. With at least 15 of 17 KLF family members expressed in neurons and at least 5 structurally unique subfamilies, it is import- ant to determine how this complex family functions in neurons to regulate the intricate genetic programs of axon growth and regeneration. By characterizing the molecular mechanisms of the KLF family in the nervous system, including binding partners and gene targets, and comparing them to defined mechanisms defined outside the nervous system, we may better understand how KLFs regulate neurite growth and axon regeneration.
