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MK-801 之后的非快速眼动睡眠期δ波刺激是睡眠系统的一种反应。

NREM delta stimulation following MK-801 is a response of sleep systems.

作者信息

Campbell I G, Feinberg I

机构信息

Physiology Graduate Group, University of California, Davis 95616, USA.

出版信息

J Neurophysiol. 1996 Dec;76(6):3714-20. doi: 10.1152/jn.1996.76.6.3714.

DOI:10.1152/jn.1996.76.6.3714
PMID:8985869
Abstract
  1. We have previously shown that noncompetitive blockade of the N-methyl-D-aspartate (NMDA)-gated cation channel with ketamine or Dizocilpine maleate (MK-801) increases the intensity of non-rapid-eye-movement (NREM) delta during subsequent sleep. This delta increase [measured as integrated amplitude (IA) in 1- to 4-Hz electroencephalogram (EEG)] occurs in the 12-h period following intraperitoneal injection. However, the 12 h after drug injection is also the period in which these drugs induce neurotoxic changes, raising the possibility that the increased delta represents toxic EEG slowing rather than an increase in the physiological delta waves of NREM sleep. 2. We hypothesized that the time course of delta stimulation could be separated from the time course of neurotoxicity. We tested this hypothesis by injecting 0.3 mg/kg MK-801 at the start of the dark period (DP) and depriving rats of sleep until the onset of the light period (LP) 12 h later. 3. There were two control groups: one received MK-801 at the start of the DP with no further manipulation, and the second received a saline injection at DP onset followed by 12 h of sleep deprivation. The dependent variable was the amount of delta IA in the LP, whose onset was 12 h after MK-801 injection. Total IA in the LP was significantly greater in rats that received MK-801 followed by sleep deprivation than in rats that received sleep deprivation alone or MK-801 alone. 4. This finding indicates that delta stimulation by MK-801 is maintained over 12 h of waking, indicating that the delta increase is not due to toxic EEG slowing or persisting MK-801. Instead, NMDA channel blockade by MK-801 increases the homeostatic need for delta or else directly alters sleep regulatory systems. We speculate that these effects are mediated by hypothalamic sleep centers through control of neuroendocrine pulses that produce both NREM and rapid-eye-movement sleep. 5. Imposing a period of waking between drug administration and sleep onset may prove a generally useful strategy for determining whether a drug affects the homeostatic need for sleep or acutely stimulates sleep systems. This strategy can also help distinguish between toxic and physiological increases in delta EEG.
摘要
  1. 我们之前已经表明,用氯胺酮或马来酸氯氮平(MK-801)对N-甲基-D-天冬氨酸(NMDA)门控阳离子通道进行非竞争性阻断,会增加随后睡眠期间非快速眼动(NREM)期δ波的强度。这种δ波增加[以1至4赫兹脑电图(EEG)中的积分幅度(IA)衡量]发生在腹腔注射后的12小时内。然而,药物注射后的12小时也是这些药物诱导神经毒性变化的时期,这增加了δ波增加代表毒性EEG减慢而非NREM睡眠生理δ波增加的可能性。2. 我们假设δ波刺激的时间进程可以与神经毒性的时间进程分开。我们通过在黑暗期(DP)开始时注射0.3毫克/千克MK-801并剥夺大鼠睡眠直至12小时后光期(LP)开始来检验这一假设。3. 有两个对照组:一组在DP开始时接受MK-801且无进一步操作,另一组在DP开始时接受盐水注射,随后进行12小时睡眠剥夺。因变量是LP期间的δ波IA量,其开始时间是MK-801注射后12小时。接受MK-801后再进行睡眠剥夺的大鼠LP期间的总IA显著高于仅接受睡眠剥夺或仅接受MK-801的大鼠。4. 这一发现表明,MK-801引起的δ波刺激在清醒的12小时内持续存在,表明δ波增加并非由于毒性EEG减慢或MK-801持续存在。相反,MK-801对NMDA通道的阻断增加了对δ波的稳态需求,或者直接改变了睡眠调节系统。我们推测这些效应是由下丘脑睡眠中心通过控制产生NREM和快速眼动睡眠的神经内分泌脉冲介导的。5. 在药物给药和睡眠开始之间安排一段清醒期可能是一种普遍有用的策略,用于确定一种药物是否影响睡眠的稳态需求或急性刺激睡眠系统。这种策略还可以帮助区分δ波EEG的毒性增加和生理性增加。

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