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近交系小鼠睡眠调节的遗传决定因素。

Genetic determinants of sleep regulation in inbred mice.

作者信息

Franken P, Malafosse A, Tafti M

机构信息

Dept. of Psychiatry, University of Geneva, Switzerland.

出版信息

Sleep. 1999 Mar 15;22(2):155-69.

PMID:10201060
Abstract

Genetic variation in the expression and regulation of sleep was assessed in six inbred mice strains (AK, C, B6, BR, D2, 129). The amount, distribution, and fragmentation of the behavioral states wakefulness (W), slow-wave sleep (SWS), and paradoxical sleep (PS), as well as EEG delta power in SWS, were determined and compared among strains and between baseline and recovery from a 6-hour sleep deprivation (SD) starting at lights-on. In baseline, the most striking strain differences concerned sleep amount, the onset and duration of the main rest period, and SWS fragmentation. The time course of delta power in SWS during the main rest period was similar between strains. Immediately following the SD, high delta power values were reached (higher for AK than for 129). However, the relative increase in delta power, compared to the first 6 hours of the baseline rest period, was not strain-specific. Over the first 6 hours of recovery, W was decreased and PS increased in AK, B6, BR, and 129. In C and D2, time spent in any of the states was not affected by the SD. In contrast, in the recovery dark period, SWS and PS were invariably increased. In recovery, SWS fragmentation was strongly reduced for D2, resulting in the disappearance of the strain differences observed in baseline. Since these inbred strains are fully homozygous and thus can be considered genetic clones, the sleep-related strain differences reported here can be attributed to differences in genotype. Therefore, this study provides a basis for the identification of genetic factors underlying sleep and its regulation.

摘要

在六个近交系小鼠品系(AK、C、B6、BR、D2、129)中评估了睡眠表达和调节的基因变异。测定并比较了各品系之间以及从熄灯开始6小时睡眠剥夺(SD)后的基线期和恢复期之间,行为状态清醒(W)、慢波睡眠(SWS)和异相睡眠(PS)的量、分布和片段化情况,以及SWS中的脑电图δ功率。在基线期,最显著的品系差异涉及睡眠量、主要休息期的开始和持续时间以及SWS片段化。各品系之间主要休息期SWS中δ功率的时间进程相似。SD后立即达到高δ功率值(AK比129更高)。然而,与基线休息期的前6小时相比,δ功率的相对增加并非品系特异性。在恢复的前6小时,AK、B6、BR和129中的W减少而PS增加。在C和D2中,任何状态下所花费的时间不受SD影响。相反,在恢复的黑暗期,SWS和PS总是增加。在恢复过程中,D2的SWS片段化显著减少,导致在基线期观察到的品系差异消失。由于这些近交系是完全纯合的,因此可被视为基因克隆,这里报道的与睡眠相关的品系差异可归因于基因型差异。因此,本研究为识别睡眠及其调节的潜在遗传因素提供了基础。

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