The Acute Effects of Aerobic Exercise on the Functional Connectivity of Human Brain Networks.

Timothy B Weng, Gary L Pierce, Warren G Darling, Derik Falk, Vincent A Magnotta, Michelle W Voss
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引用次数: 81

Abstract

Although there is promising evidence that regular physical activity could counteract age-related decline in cognitive and brain function, the mechanisms for this neuroprotection remain unclear. The acute effects of exercise can provide insight into the mechanisms by which the brain adapts to habitual exercise by reflecting transient modulations of systems that would subsequently accumulate long-term adaptations through repeated training sessions. However, methodological limitations have hindered the mechanistic insight gained from previous studies examining acute exercise effects on the human brain. In the current study, we tested the plasticity of functional brain networks in response to a single stimulus of aerobic exercise using resting-state functional connectivity analyses. In a sample of healthy younger (N = 12; age = 23.2 years; 6 females) and older adults (N = 13; age = 66.3 years; 6 females), we found that 30 minutes of moderate-intensity aerobic cycling selectively increased synchrony among brain regions associated with affect and reward processing, learning and memory, and in regions important for attention and executive control. Importantly, these changes did not occur when the same participants completed a passive, motor-driven control condition. Our results suggest that these transient increases in synchrony serve as a possible avenue for systematically investigating the effects of various exercise parameters on specific brain systems, which may accelerate mechanistic discoveries about the benefits of exercise on brain and cognitive function.

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有氧运动对人脑网络功能连通性的急性影响。
尽管有令人鼓舞的证据表明,有规律的体育锻炼可以抵消与年龄相关的认知和大脑功能下降,但这种神经保护的机制仍不清楚。运动的急性效应可以让我们深入了解大脑通过反映系统的短暂调节来适应习惯性运动的机制,这些系统随后会通过反复的训练积累长期的适应性。然而,方法上的限制阻碍了从先前的研究中获得的机制洞察力,这些研究检查了急性运动对人类大脑的影响。在当前的研究中,我们使用静息状态功能连通性分析测试了大脑功能网络在有氧运动单一刺激下的可塑性。在健康年轻人样本中(N = 12;年龄= 23.2岁;6名女性)和老年人(N = 13;年龄= 66.3岁;我们发现,30分钟的中等强度有氧自行车选择性地增加了与情感和奖励处理、学习和记忆相关的大脑区域以及与注意力和执行控制相关的大脑区域的同步。重要的是,当同样的参与者完成被动的、电机驱动的控制条件时,这些变化没有发生。我们的研究结果表明,这些短暂的同步性增加可以作为系统研究各种运动参数对特定大脑系统影响的可能途径,这可能会加速有关运动对大脑和认知功能益处的机制发现。
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