Time to learn: The role of the molecular circadian clock in learning and memory.

Time to learn: The role of the molecular circadian clock in learning and memory.
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学习时间:分子昼夜节律在学习和记忆中的作用。

DOI:
10.1016/j.nlm.2022.107651
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发表时间:
2022-09
影响因子:
2.7
通讯作者:
Kwapis, Janine L.
Kwapis, Janine L.
中科院分区:
心理学4区
文献类型:
--
作者:
Smies, Chad W.;Bodinayake, Kasuni K.;Kwapis, Janine L.

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昼夜节律系统在将生物过程与一天中的外部时间对齐方面起着重要作用。一系列生理功能都受到昼夜节律周期的控制,包括记忆过程,但人们对生物钟如何在分子水平上与记忆相互作用知之甚少。分子生物钟由四个关键基因/基因家族组成,Period,Clock,Cryptochrome和Bmal 1,它们在持续的转录-翻译负反馈回路中有节奏地循环,该回路在大脑和身体的细胞内维持大约24小时的周期。除了它们在大脑主起搏器(视交叉上核)内产生昼夜节律的作用外,最近的研究表明,这些时钟基因可能在记忆相关的大脑区域内局部发挥作用,以调节白天/夜晚周期的记忆。这篇综述将讨论这些时钟基因如何在大脑的中央时钟和记忆相关的大脑区域内发挥作用,对记忆过程进行昼夜节律控制。对于每个核心时钟基因,我们描述了目前的研究,证明了在记忆中的潜在作用,并概述了这些时钟基因可能如何与已知的支持长期记忆形成的级联接口。总之,这项研究表明,时钟基因在整个大脑的卫星时钟内局部发挥作用,对长期记忆形成和其他生物过程施加昼夜节律控制。了解生物钟基因如何与海马体和其他大脑区域的局部分子级联相互作用,是开发治疗以昼夜节律系统和认知过程功能障碍为标志的无数疾病的关键一步。
The circadian system plays an important role in aligning biological processes with the external time of day. A range of physiological functions are governed by the circadian cycle, including memory processes, yet little is understood about how the clock interfaces with memory at a molecular level. The molecular circadian clock consists of four key genes/gene families, Period, Clock, Cryptochrome, and Bmal1, that rhythmically cycle in an ongoing transcription-translation negative feedback loop that maintains an approximately 24-hour cycle within cells of the brain and body. In addition to their roles in generating the circadian rhythm within the brain’s master pacemaker (the suprachiasmatic nucleus), recent research has suggested that these clock genes may function locally within memory-relevant brain regions to modulate memory across the day/night cycle. This review will discuss how these clock genes function both within the brain’s central clock and within memory-relevant brain regions to exert circadian control over memory processes. For each core clock gene, we describe the current research that demonstrates a potential role in memory and outline how these clock genes might interface with cascades known to support long-term memory formation. Together, the research suggests that clock genes function locally within satellite clocks across the brain to exert circadian control over long-term memory formation and possibly other biological processes. Understanding how clock genes might interface with local molecular cascades in the hippocampus and other brain regions is a critical step toward developing treatments for the myriad disorders marked by dysfunction of both the circadian system and cognitive processes.
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