重编程
神经科学
神经干细胞
体细胞
神经系统
生物
干细胞
再生(生物学)
再生医学
细胞
细胞生物学
遗传学
基因
生物化学
作者
Fred H. Gage,Sally Temple
出处
期刊:Neuron
[Elsevier]
日期:2013-10-01
卷期号:80 (3): 588-601
被引量:497
标识
DOI:10.1016/j.neuron.2013.10.037
摘要
One of the landmark events of the past 25 years in neuroscience research was the establishment of neural stem cells (NSCs) as a life-long source of neurons and glia, a concept that shattered the dogma that the nervous system lacked regenerative power. Stem cells afford the plasticity to generate, repair, and change nervous system function. Combined with reprogramming technology, human somatic cell-derived NSCs and their progeny can model neurological diseases with improved accuracy. As technology advances, we anticipate further important discoveries and novel therapies based on the knowledge and application of these powerful cells. One of the landmark events of the past 25 years in neuroscience research was the establishment of neural stem cells (NSCs) as a life-long source of neurons and glia, a concept that shattered the dogma that the nervous system lacked regenerative power. Stem cells afford the plasticity to generate, repair, and change nervous system function. Combined with reprogramming technology, human somatic cell-derived NSCs and their progeny can model neurological diseases with improved accuracy. As technology advances, we anticipate further important discoveries and novel therapies based on the knowledge and application of these powerful cells.
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