Nitric oxide in the regulation of the sleep-wake states

被引:48
|
作者
Cespuglio, Raymond [1 ]
Amrouni, Donia [1 ]
Meiller, Anne [1 ]
Buguet, Alain [1 ]
Gautier-Sauvigne, Sabine [1 ]
机构
[1] Univ Lyon, Fac Med, Neurosci Res Ctr Lyon, F-69373 Lyon, France
关键词
Nitric oxide (NO); NO-synthase (NOS); Slow-wave sleep (SWS); Paradoxical sleep (PS or REM sleep); Waking; Deprivation; Rebound; Immunity; Aging; Senescence; AGE-RELATED-CHANGES; BASAL FOREBRAIN; RAT-BRAIN; SUPEROXIDE GENERATION; IMMOBILIZATION STRESS; SYNTHASE; NEURONS; NO; IDENTIFICATION; ACTIVATION;
D O I
10.1016/j.smrv.2012.01.006
中图分类号
R74 [神经病学与精神病学];
学科分类号
摘要
Nitric oxide (NO) production involves four different NO-synthases (NOSs) that are either constitutive (neuronal, nNOS; endothelial, eNOS: mitochondrial, mNOS) or inducible (iNOS) in nature. Three main processes regulate NO/NOSs output, i.e., the L-arginine/arginase substrate-competing system, the L-citrulline/arginosuccinate-recycling system and the asymmetric dimethyl-/monomethyl-L-arginine-inhibiting system. In adult animals, nNOS exhibits a dense innervation intermingled with pontine sleep structures. It is well established that the NO/nNOS production makes a key contribution to daily homeostatic sleep (slow-wave sleep, SWS; rapid eye movement sleep, REM sleep). In the basal hypothalamus, the NO/nNOS production further contributes to the REM sleep rebound that takes place after a sleep deprivation (SD). This production may also contribute to the sleep rebound that is associated with an immobilization stress (IS). In adult animals, throughout the SD time-course, an additional NO/iNOS production takes place in neurons. Such production mediates a transitory SD-related SWS rebound. A transitory NO/iNOS production is also part of the immune system. Such a production contributes to the SWS increase that accompanies inflammatory events and is ensured by microglial cells and astrocytes. Finally, with aging, the iNOS expression becomes permanent and the corresponding NO/iNOS production is important to ensure an adequate maintenance of REM sleep and, to a lesser extent, SWS. Despite such maintenance, aged animals, however, are not able to elicit a sleep rebound to deal with the challenge of SD or IS. Sleep regulatory processes in adult animals thus become impaired with age. Reduced iNOS expression during aging may contribute to accelerated senescence, as observed in senescence-accelerated mice (SAMP-8 mice). (C) 2012 Elsevier Ltd. All rights reserved.
引用
收藏
页码:265 / 279
页数:15
相关论文
共 50 条
  • [41] Altered sleep-wake regulation in patients with idiopathic hypersomnia?
    Landolt, Hans-Peter
    Khatami, Ramin
    Nadig, Ursina
    Retey, Julia V.
    Bassetti, Claudio L.
    [J]. NEUROLOGY, 2007, 68 (12) : A153 - A153
  • [42] Caffeine effects on sleep-wake regulation during adolescence
    Reichert, C. F.
    Veitz, S.
    Buhler, M.
    Gruber, G.
    Rehm, S.
    Rentsch, K.
    Garbazza, C.
    Meyer, M.
    Slawik, H.
    Lin, Y. -S.
    Weibel, J.
    [J]. JOURNAL OF SLEEP RESEARCH, 2020, 29 : 63 - 64
  • [43] Roles of Adenosine and Its Receptors in Sleep-Wake Regulation
    Huang, Zhi-Li
    Zhang, Ze
    Qu, Wei-Min
    [J]. ADENOSINE RECEPTORS IN NEUROLOGY AND PSYCHIATRY, 2014, 119 : 349 - 371
  • [44] Endogenous and exogenous factors on sleep-wake cycle regulation
    García-García, F
    Drucker-Colín, R
    [J]. PROGRESS IN NEUROBIOLOGY, 1999, 58 (04) : 297 - 314
  • [45] Role of Homer Proteins in the Maintenance of Sleep-Wake States
    Naidoo, Nirinjini
    Ferber, Megan
    Galante, Raymond J.
    McShane, Blake
    Hu, Jia Hua
    Zimmerman, John
    Maislin, Greg
    Cater, Jacqui
    Wyner, Abraham
    Worley, Paul
    Pack, Allan I.
    [J]. PLOS ONE, 2012, 7 (04):
  • [46] Sleep-wake regulation in a genetic model of obesity and diabetes
    Laposky, A.
    Bradley, M.
    Williams, D.
    Bass, J.
    Turek, F.
    [J]. SLEEP, 2007, 30 : A32 - A32
  • [47] Neurophysiological brain mapping of human sleep-wake states
    Kalamangalam, Giridhar P.
    Long, Sarah
    Chelaru, Mircea I.
    [J]. CLINICAL NEUROPHYSIOLOGY, 2021, 132 (07) : 1550 - 1563
  • [48] Temporal organization of sleep-wake states in preterm infants
    Holditch-Davis, D
    Edwards, LJ
    [J]. DEVELOPMENTAL PSYCHOBIOLOGY, 1998, 33 (03) : 257 - 269
  • [49] EVOKED-POTENTIALS AND SLEEP-WAKE STATES IN MAN
    BROUGHTON, RJ
    [J]. SLEEP 88, 1989, : 6 - 10
  • [50] EFFECTS OF CIRCUMCISION ON SLEEP-WAKE STATES IN HUMAN NEONATES
    ANDERS, TF
    CHALEMIAN, RJ
    [J]. PSYCHOSOMATIC MEDICINE, 1974, 36 (02) : 174 - 179