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An excitatory cortical feedback loop gates retinal wave transmission in rodent thalamus.一个兴奋性皮质反馈回路控制着啮齿动物丘脑的视网膜波传播。
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Twitch-related and rhythmic activation of the developing cerebellar cortex.发育中小脑皮质的抽搐相关及节律性激活。
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清醒状态会抑制视觉皮层中与视网膜波相关的神经活动。

Wakefulness suppresses retinal wave-related neural activity in visual cortex.

作者信息

Mukherjee Didhiti, Yonk Alex J, Sokoloff Greta, Blumberg Mark S

机构信息

Department of Psychological and Brain Sciences, University of Iowa, Iowa City, Iowa.

DeLTA Center, University of Iowa, Iowa City, Iowa.

出版信息

J Neurophysiol. 2017 Aug 1;118(2):1190-1197. doi: 10.1152/jn.00264.2017. Epub 2017 Jun 14.

DOI:10.1152/jn.00264.2017
PMID:28615335
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC5547270/
Abstract

In the developing visual system before eye opening, spontaneous retinal waves trigger bursts of neural activity in downstream structures, including visual cortex. At the same ages when retinal waves provide the predominant input to the visual system, sleep is the predominant behavioral state. However, the interactions between behavioral state and retinal wave-driven activity have never been explicitly examined. Here we characterized unit activity in visual cortex during spontaneous sleep-wake cycles in 9- and 12-day-old rats. At both ages, cortical activity occurred in discrete rhythmic bursts, ~30-60 s apart, mirroring the timing of retinal waves. Interestingly, when pups spontaneously woke up and moved their limbs in the midst of a cortical burst, the activity was suppressed. Finally, experimentally evoked arousals also suppressed intraburst cortical activity. All together, these results indicate that active wake interferes with the activation of the developing visual cortex by retinal waves. They also suggest that sleep-wake processes can modulate visual cortical plasticity at earlier ages than has been previously considered. By recording in visual cortex in unanesthetized infant rats, we show that neural activity attributable to retinal waves is specifically suppressed when pups spontaneously awaken or are experimentally aroused. These findings suggest that the relatively abundant sleep of early development plays a permissive functional role for the visual system. It follows, then, that biological or environmental factors that disrupt sleep may interfere with the development of these neural networks.

摘要

在睁眼之前的发育中的视觉系统中,自发的视网膜波会触发下游结构(包括视觉皮层)的神经活动爆发。在视网膜波为视觉系统提供主要输入的相同年龄段,睡眠是主要的行为状态。然而,行为状态与视网膜波驱动的活动之间的相互作用从未得到明确研究。在这里,我们对9日龄和12日龄大鼠在自发的睡眠 - 觉醒周期中的视觉皮层单位活动进行了特征描述。在这两个年龄段,皮层活动都以离散的节律性爆发形式出现,间隔约30 - 60秒,这与视网膜波的时间同步。有趣的是,当幼崽在皮层爆发期间自发醒来并移动四肢时,活动会受到抑制。最后,实验诱发的觉醒也会抑制爆发内的皮层活动。总之,这些结果表明,主动觉醒会干扰视网膜波对发育中的视觉皮层的激活。它们还表明,睡眠 - 觉醒过程可以在比之前认为的更早的年龄调节视觉皮层可塑性。通过在未麻醉的幼鼠视觉皮层中进行记录,我们表明当幼崽自发醒来或被实验诱发觉醒时,归因于视网膜波的神经活动会被特异性抑制。这些发现表明,早期发育中相对充足的睡眠对视觉系统起着允许性的功能作用。因此,破坏睡眠的生物或环境因素可能会干扰这些神经网络的发育。