Faculty of Sport Sciences, Sport Psychiatry and Neuroscience Laboratory, Waseda University , Tokyo , Japan.
Faculty of Health and Social Services, Saitama Prefectural University , Saitama , Japan.
J Appl Physiol (1985). 2019 Jul 1;127(1):168-177. doi: 10.1152/japplphysiol.00765.2018. Epub 2019 May 16.
The effects of exercise on sleep have been explored from various perspectives, but little is known about how the effects of acute exercise on sleep are produced through physiological functions. We used a protocol of multiple daytime sessions of moderate-intensity aerobic exercise and examined the subsequent effects on sleep structure, core body temperature (CBT), distal-proximal skin temperature gradient (DPG), and subjective parameters. Fourteen healthy men who did not exercise regularly were evaluated under the baseline (no exercise) and exercise conditions on a within-subject crossover basis. Under the exercise condition, each participant performed a 40-min aerobic workout at 40% of maximal oxygen intake, four times between morning and early evening. We observed a 33% increase in slow-wave sleep (SWS; = 0.005), as well as increases in slow-wave activity (SWA; = 0.026), the fast-sigma power/SWA ratio ( = 0.005), and subjective sleep depth and restorativeness the following morning. Moreover, both CBT and the DPG increased during sleep after exercise ( = 0.021 and = 0.047, respectively). Regression analysis identified an increased nocturnal DPG during sleep after exercise as a factor in the increase in SWA. The fast-sigma/SWA ratio correlated with CBT. The performance of acute exercise promotes SWS with nocturnal elevation in the DPG. Both CBT and fast-sigma power may play a role in the specific physiological status of the body after exercise. We used multiple daytime sessions of moderate-intensity aerobic exercise to examine the effects on the sleep structure, core body temperature (CBT), distal-proximal skin temperature gradient (DPG), and subjective parameters. Significant increases in slow-wave activity (SWA), CBT, DPG, fast-sigma power, and subjective parameters were observed during the night and the following morning. Nocturnal DPG is a factor in the increased SWA.
运动对睡眠的影响已从多个角度进行了探讨,但对于急性运动如何通过生理功能影响睡眠知之甚少。我们采用了多日多次中等强度有氧运动方案,并观察了其对睡眠结构、核心体温(CBT)、远端-近端皮肤温度梯度(DPG)和主观参数的后续影响。14 名不经常运动的健康男性在基础(无运动)和运动条件下进行了交叉设计的个体内评估。在运动条件下,每位参与者在上午和傍晚之间进行 4 次,每次 40 分钟,强度为最大摄氧量的 40%。我们观察到慢波睡眠(SWS)增加了 33%( = 0.005),慢波活动(SWA)增加了 26%( = 0.026),快西格玛功率/SWA 比值增加了 5%( = 0.005),主观睡眠深度和恢复力也在第二天早上增加。此外,运动后睡眠期间 CBT 和 DPG 均增加(分别为 21%和 47%, = 0.021 和 = 0.047)。回归分析确定,运动后睡眠期间夜间 DPG 的增加是 SWA 增加的一个因素。快西格玛/ SWA 比值与 CBT 相关。急性运动的表现可促进 SWS,并在夜间增加 DPG。CBT 和快西格玛功率可能在运动后身体的特定生理状态中发挥作用。我们采用多日多次中等强度有氧运动来检验其对睡眠结构、核心体温(CBT)、远端-近端皮肤温度梯度(DPG)和主观参数的影响。夜间和次日清晨,SWA、CBT、DPG、快西格玛功率和主观参数均显著增加。夜间 DPG 是 SWA 增加的一个因素。