Pupil Dynamics Predict Exercise Brain Stimulation: An Overview of Exercise Pupillometry.

Q3 Neuroscience
Ryuta Kuwamizu, Yudai Yamazaki, Kazuya Suwabe, Kenji Suzuki, Yoshiyuki Sankai, Hideaki Soya
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引用次数: 0

Abstract

Proper physical activity, even at a very light intensity such as walking or slow running, improves brain health related to prefrontal executive function and hippocampal memory. However, the neural mechanism behind the cognitive enhancement that occurs during dynamic aerobic exercise is elusive and remains unclear in humans. Recently, pupillometry has been attracting attention as a kind of readout of the brain's ascending arousal mechanism, especially for brain noradrenergic and cholinergic system activation. Thus, to identify the neural mechanism behind the effects of very-light-intensity exercise, our recent work has focused on pupillometry during aerobic exercise, and we have successfully shown the efficacy of pupil dilation as a biological marker, even during very-light-/light-intensity exercise (below the ventilatory threshold). Interestingly, neuromelanin-MRI contrast in the LC, a marker of LC integrity, predicted the magnitude of exercise-induced pupil dilation and psychological arousal changes at the individual level. In addition, we have found that pupil dilation during exercise predicted the positive impact of acute very-light-/light-intensity exercise on prefrontal executive performance and hippocampal memory performance. The series of exercise pupillometry studies we will discuss here provides essential insights into the neural substrates of the advantages of exercise-induced brain stimulation in humans.

瞳孔动态预测运动脑刺激:运动瞳孔测量概述。
适当的体育活动,即使是非常轻的强度,如散步或慢跑,也能改善与前额叶执行功能和海马体记忆相关的大脑健康。然而,在动态有氧运动中发生的认知增强背后的神经机制是难以捉摸的,在人类中仍然不清楚。近年来,瞳孔测量作为大脑上升觉醒机制的一种读数,特别是大脑去肾上腺素能和胆碱能系统的激活,受到了人们的关注。因此,为了确定极轻强度运动影响背后的神经机制,我们最近的工作集中在有氧运动期间的瞳孔测量,我们已经成功地证明了瞳孔扩张作为一种生物标志物的功效,即使在极轻/轻强度运动期间(低于通气阈值)。有趣的是,LC的神经黑色素- mri对比(LC完整性的标志)预测了运动引起的瞳孔扩张和个体水平的心理唤醒变化的程度。此外,我们还发现,运动时瞳孔扩张预测了急性极轻/轻强度运动对前额叶执行性能和海马记忆性能的积极影响。我们将在这里讨论的一系列运动瞳孔测量研究,提供了对人类运动诱导的脑刺激优势的神经基础的基本见解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Advances in neurobiology
Advances in neurobiology Neuroscience-Neurology
CiteScore
2.80
自引率
0.00%
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