ライフサイエンスコーパス: sleep stage

1 entral apnoeas are less frequent during this sleep stage.

2 ity regulate the intensity of the first deep sleep stage.

3 t varied because of sound level and type and sleep stage.

4 p efficiency, and percentage of time in each sleep stage.

5 it is unclear if invertebrates have distinct sleep stages.

6 been inconsistently observed in the various sleep stages.

7 rapid eye movement (REM) and non-REM (NREM) sleep stages.

8 or documented homeostatic regulation of both sleep stages.

9 astically different gating mechanisms across sleep stages.

10 he range of normal hearing]) during specific sleep stages.

11 ic brain EEG rhythms and transitions between sleep stages.

12 the SCN can time the occurrence of specific sleep stages.

13 s system (ANS) shows strong variation across sleep stages.

14 al distinct types of activity changes across sleep stages.

15 val and RR variability increased through all sleep stages.

16 remained stable from wakefulness through all sleep stages.

17 strongly activated during nonREM and/or REM sleep stages.

18 no difference in Pcrit was detected between sleep stages.

19 gue-Dawley rats chronically instrumented for sleep staging.

20 gue-Dawley rats chronically instrumented for sleep staging.

21 age 36-50 years) and was replaced by lighter sleep (stages 1 and 2) without significant increases in

22 ly lower in children with SDB during non-REM sleep (stage 2: P = 0.03; slow-wave sleep: P = 0.001).

23 ment (REM)-sleep, total sleeping time (TST), sleep stage 2 (S2), and QS [(SWS + REM) / TST x 100%] we

24 eye movement (REM) sleep and non-REM (NREM) sleep stages 2 and 3.

25 hat blunted hypoxic arousal responses during sleep Stage 3/4 would be present in PWS.

26 effects (e.g. memory impairment, increase in sleep stages 3 and 4, dependence, seizures and coma) tha

27 o elicit absence seizures and an increase in sleep stages 3 and 4, have been clarified.

28 th groups, nonrandom HEP were present in all sleep stages analyzed; however, amplitude of HEP were si

29 fter an abrupt decrease in PN, regardless of sleep stage and despite an increase in genioglossus-musc

30 en sleep stages and energy expenditure, with sleep stage and overnight energy expenditure patterns ta

31 of energy balance, yet the relation between sleep stages and energy expenditure remains unclear.

32 tive was to investigate the relation between sleep stages and energy expenditure, with sleep stage an

33 as a key for interpreting the physiology of sleep stages and reconciling inconsistencies in terminol

34 As such, naps may contain mostly light sleep stages and serve little function for learning and

35 ledge of the physiology of NREM and then REM sleep stages and their ordered succession.

36 he revised scoring scheme proved reliable in sleep staging and may serve as a building block in futur

37 ly reported sleep features (e.g., minutes in sleep stages) and changes in memory performance show con

38 ement [REM] sleep latencies, non-REM and REM sleep stages, and wakefulness after sleep onset); and Mi

39 onvincing evidence that, in humans, discrete sleep stages are important for daytime brain function, b

40 We find a transitional sleep stage associated with a 7-10 Hz oscillation in the

41 r these effects depend on circadian phase or sleep stage at awakening.

42 es in body temperature and EEG recordings of sleep stage bouts.

43 WS), is thought to be the most "restorative" sleep stage, but beneficial effects of SWS for physical

44 Small differences in EE were observed among sleep stages, but wakefulness during the sleep episode w

45 No slow wave sleep or rapid eye movement sleep stages could be identified and no homoeostatic reg

46 Sleep stages, cyclic alternating pattern (CAP), and leg

47 an 8-h night of sleep in terms of magnitude, sleep-stage dependency and retinotopic specificity, and

48 ultradian sleep states to determine whether sleep-stage dependent spectral patterns might reflect un

49 ntly reduced cigarette-smoking behavior in a sleep stage-dependent manner, and this effect persisted

50 ion, arousals from sleep, and alterations in sleep stage distribution.

51 iciency, or slow-wave and rapid eye movement sleep stage duration (P > .30).

52 We also determined effects of sleep stage during baseline and recovery sleep on EE.

53 lts show that the difference in CRPS between sleep stages exceeds the difference between young and el

54 Sleep stages exerted no effect on energy expenditure dur

55 x remains highly active during the different sleep stages, exhibiting complex interactions between di

56 nergy expenditure was calculated during each sleep stage for the whole night and separately for sleep

57 Slow wave sleep (SWS), the deepest sleep stage hallmarked by electroencephalographic slow o

58 e brain function, but whether any particular sleep stage has functional significance for the rest of

59 [5], but its role in the timing of specific sleep stages has remained unknown.

60 s determine the timing and intensity of deep sleep stages in Drosophila.

61 Evidence for different sleep stages in invertebrates remains elusive, even thou

62 (PFC) activity recorded across behavior and sleep stages in male rats learning a spatial alternation

63 igational memory, but the role of particular sleep stages is less clear.

64 tterns and how they change between different sleep stages is presently unknown.

65 to a simultaneous increase in the amount of sleep stage IV.

66 vided into five sections: (1) an overview of sleep stages, memory categories, and the distinct stages

67 cy of this compound to suppress apnea in all sleep stages most probably arises from its mixed agonist

68 physiological events that characterize these sleep stages must mediate sleep-dependent memory process

69 local mismatch response remained across all sleep stages (N1, N2, and REM sleep), but with an incomp

70 R periods of the night, no overall effect of sleep stage on energy expenditure, except for WASO compa

71 On the second night, the effect of sleep stage on pressure-flow relationships of the upper

72 hesis that there is a differential effect of sleep stage on QT interval in women compared with men.

73 On the first night, the effect of sleep stage on the relationship of retropalatal cross-se

74 We examined the effects of the various sleep stages on RR and QT intervals in healthy subjects

75 nergy expenditure does not vary according to sleep stage overnight, except for higher energy expendit

76 Coincidence of the sleep stage pattern and the overnight energy expenditure

77 Finally, sleep stages per se do not affect memories.

78 , although their relationship to EEG-defined sleep stages remains unknown.

79 Sleep stage sequence analysis of SOREM periods may also

80 We performed sleep stage sequence analysis on 127 patients with noctu

81 scriptors [wake after sleep onset, number of sleep stage shifts, and lowest oxyhemoglobin saturation

82 Energy expenditure and sleep stages showed characteristic patterns during the n

83 duced marked, dose-responsive disruptions in sleep stage-specific EEG spectral profiles compared with

84 e of different non-rapid eye movement (NREM) sleep stages (stages 2 and 3-4) with REM and while awake

85 However, the sleep-stage stratification pattern we uncover in CRPS do

86 d this idea forward and examined, across all sleep stages, the brain's ability to flexibly process se

87 n healthy subjects dramatically changes with sleep-stage transitions and exhibits a pronounced strati

88 EEG spectral frequency power within specific sleep stages was calculated in 1-Hz intervals from 1 to

89 entation, as assessed by the distribution of sleep stages, was also an independent predictor of hyper

90 /min water into the proximal esophagus after sleep stages were confirmed.

91 (Tvol) to trigger EUCR and 2P and changes in sleep stages were recorded during injection of 2.7 mL/mi

92 Sleep stages were scored visually for 20-second epochs;

93 Although sleep efficiency and proportions of sleep stages were within the normal range, sleep archite

94 tion of sleep also determines which specific sleep stage will be manifested, and the circadian proces