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Control of the Cell Cycle in Adult Neurogenesis and its Relation with Physical Exercise

机译:成人神经发生中细胞周期的控制及其与体育锻炼的关系

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摘要

In the adult brain the neurogenesis is mainly restricted to two neurogenic regions: newly generated neurons arise at the subventricular zone (SVZ) of the lateral ventricle and at the subgranular zone of the hippocampal subregion named the dentate gyrus. The hippocampus is involved in learning and memory paradigms and the generation of new hippocampal neurons has been hypothesized to be a pivotal form of plasticity involved in the process. Moreover the dysregulation of hippocampal adult neurogenesis has been recognized and could anticipate several varieties of brain disease such as Alzheimer disease, epilepsy and depression. Over the last few decades numerous intrinsic, epigenetic and environmental factors have been revealed to deeply influence the process of adult neurogenesis, although the underlying mechanisms remain largely unknown. Growing evidence indicates that physical exercise represents one of the main extrinsic factor able to profoundly increase hippocampal adult neurogenesis, by altering neurochemistry and function of newly generated neurons. The present review surveys how neurogenesis can be modulated by cell cycle kinetics and highlights the putative role of the cell cycle length as a key component of the beneficial effect of running for hippocampal adult neurogenesis, both in physiological conditions and in the presence of defective neurogenesis.
机译:在成年大脑中,神经发生主要限于两个神经源性区域:新生成的神经元出现在侧脑室的脑室下区域(SVZ)和海马亚区域的称为齿状回的颗粒下区域。海马参与学习和记忆范例,并且新海马神经元的产生被认为是参与该过程的可塑性的关键形式。而且,已经认识到海马成年神经发生失调,并且可以预期多种脑疾病,例如阿尔茨海默氏病,癫痫和抑郁。在过去的几十年中,尽管基本的机制仍然未知,但已揭示出许多内在的,表观遗传的和环境的因素对成年神经发生的过程有深远的影响。越来越多的证据表明,体育锻炼是通过改变新生成的神经元的神经化学和功能,能够显着增加海马成年神经发生的主要外在因素之一。本综述调查了如何通过细胞周期动力学来调节神经发生,并强调了在生理条件下和存在缺陷的神经发生时,细胞周期长度作为海马成年神经发生有益作用的关键组成部分的假定作用。

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