School of Global Sport Studies, Korea University, Sejong-si 30019, Korea.
Department of Food and Biotechnology, Korea University, Sejong-si 30019, Korea.
Int J Environ Res Public Health. 2022 Feb 27;19(5):2774. doi: 10.3390/ijerph19052774.
The purpose of this study is to determine the difference in sleep-related factors and metabolites between normal sleep (NS) and sleep deficiency (SD) and to analyze the variations in metabolites according to the intensity of aerobic exercise under SD conditions. This study was conducted on 32 healthy male university students. Participants experienced both NS (8 h of sleep per night for 3 consecutive days) and SD (4 h of sleep per night for 3 consecutive days). After the SD period, the participants underwent treatment for 30 min by the assigned group [sleep supplement after SD (SSD), low-intensity aerobic exercise after SD (LES), moderate-intensity aerobic exercise after SD (MES), high-intensity aerobic exercise after SD (HES)]. For analysis, sleep-related factors were measured, and metabolites were analyzed by untargeted metabolite analysis using gas chromatography-time-of-flight mass spectrometry. As a result, SD showed that total sleep time (TST), duration of rapid eye movement (REM), duration of light sleep, and duration of deep sleep were significantly decreased compared to NS, whereas the Pittsburgh sleep quality index (PSQI), Epworth sleepiness scale (ESS), and visual analogue scale (VAS) were significantly increased compared to NS. The difference in metabolites between NS and SD showed that there were significant changes in the seven metabolites. There were 18 metabolites that changed according to the treatment groups in SD conditions. In summary, SD can exacerbate sleep quality, induce daytime sleepiness, increase fatigue, and increase metabolites that cause insulin resistance. Aerobic exercise under SD conditions can reduce metabolites that induce insulin resistance and increase the metabolites that help relieve depression caused by SD. However, HES has a negative effect, which increases fatigue, whereas LES has no negative effect. Thus, this study suggests that LES is the most appropriate exercise method under SD conditions.
本研究旨在确定正常睡眠(NS)和睡眠不足(SD)之间与睡眠相关的因素和代谢物的差异,并分析 SD 条件下不同强度有氧运动下代谢物的变化。该研究共纳入 32 名健康男性大学生。参与者经历了 NS(每晚 8 小时,连续 3 天)和 SD(每晚 4 小时,连续 3 天)。SD 期后,参与者按分组接受 30 分钟的治疗[SD 后睡眠补充(SSD)、SD 后低强度有氧运动(LES)、SD 后中强度有氧运动(MES)、SD 后高强度有氧运动(HES)]。为了分析,测量了与睡眠相关的因素,并通过气相色谱-飞行时间质谱的非靶向代谢物分析来分析代谢物。结果表明,与 NS 相比,SD 组的总睡眠时间(TST)、快速眼动(REM)时间、浅睡眠时间和深睡眠时间明显减少,而匹兹堡睡眠质量指数(PSQI)、Epworth 嗜睡量表(ESS)和视觉模拟量表(VAS)明显增加。NS 和 SD 之间代谢物的差异表明,有 7 种代谢物有显著变化。在 SD 条件下,根据治疗组的不同,有 18 种代谢物发生变化。总之,SD 会加重睡眠质量,导致白天嗜睡、疲劳增加,并增加导致胰岛素抵抗的代谢物。SD 条件下的有氧运动可以减少诱导胰岛素抵抗的代谢物,增加有助于缓解 SD 引起的抑郁的代谢物。然而,HES 有负面影响,会增加疲劳,而 LES 没有负面影响。因此,本研究表明 LES 是 SD 条件下最适宜的运动方式。