Temporal disorganization of circadian rhythmicity and sleep-wake regulation in mechanically ventilated patients receiving continuous intravenous sedation

Sleep is regulated by circadian and homeostatic processes and is highly organized temporally. Our study was designed to determine whether this organization is preserved in patients receiving mechanical ventilation (MV) and intravenous sedation. Observational study. Academic medical intensive care un...

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Veröffentlicht in:Sleep (New York, N.Y.) N.Y.), 2012-08, Vol.35 (8), p.1105-1114
Hauptverfasser: Gehlbach, Brian K, Chapotot, Florian, Leproult, Rachel, Whitmore, Harry, Poston, Jason, Pohlman, Mark, Miller, Annette, Pohlman, Anne S, Nedeltcheva, Arlet, Jacobsen, John H, Hall, Jesse B, Van Cauter, Eve
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container_end_page 1114
container_issue 8
container_start_page 1105
container_title Sleep (New York, N.Y.)
container_volume 35
creator Gehlbach, Brian K
Chapotot, Florian
Leproult, Rachel
Whitmore, Harry
Poston, Jason
Pohlman, Mark
Miller, Annette
Pohlman, Anne S
Nedeltcheva, Arlet
Jacobsen, John H
Hall, Jesse B
Van Cauter, Eve
description Sleep is regulated by circadian and homeostatic processes and is highly organized temporally. Our study was designed to determine whether this organization is preserved in patients receiving mechanical ventilation (MV) and intravenous sedation. Observational study. Academic medical intensive care unit. Critically ill patients receiving MV and intravenous sedation. Continuous polysomnography (PSG) was initiated an average of 2.0 (1.0, 3.0) days after ICU admission and continued ≥ 36 h or until the patient was extubated. Sleep staging and power spectral analysis were performed using standard approaches. We also calculated the electroencephalography spectral edge frequency 95% SEF₉₅, a parameter that is normally higher during wakefulness than during sleep. Circadian rhythmicity was assessed in 16 subjects through the measurement of aMT6s in urine samples collected hourly for 24-48 hours. Light intensity at the head of the bed was measured continuously. We analyzed 819.7 h of PSG recordings from 21 subjects. REM sleep was identified in only 2/21 subjects. Slow wave activity lacked the normal diurnal and ultradian periodicity and homeostatic decline found in healthy adults. In nearly all patients, SEF₉₅ was consistently low without evidence of diurnal rhythmicity (median 6.3 [5.3, 7.8] Hz, n = 18). A circadian rhythm of aMT6s excretion was present in most (13/16, 81.3%) patients, but only 4 subjects had normal timing. Comparison of the SEF₉₅ during the melatonin-based biological night and day revealed no difference between the 2 periods (P = 0.64). The circadian rhythms and PSG of patients receiving mechanical ventilation and intravenous sedation exhibit pronounced temporal disorganization. The finding that most subjects exhibited preserved, but phase delayed, excretion of aMT6s suggests that the circadian pacemaker of such patients may be free-running.
doi_str_mv 10.5665/sleep.1998
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source MEDLINE; Oxford University Press Journals All Titles (1996-Current); EZB-FREE-00999 freely available EZB journals; Alma/SFX Local Collection
subjects Administration, Intravenous
Aged
Circadian Rhythm - drug effects
Circadian Rhythm - physiology
Critical Illness
Disorganization of Sleep in Mechanically Ventilated Patients
Electrocardiography
Female
Humans
Hypnotics and Sedatives - administration & dosage
Hypnotics and Sedatives - pharmacology
Intensive Care Units
Lighting
Male
Melatonin - analogs & derivatives
Melatonin - metabolism
Melatonin - urine
Middle Aged
Polysomnography
Respiration, Artificial
Sleep - drug effects
Sleep - physiology
Sleep, REM - drug effects
Sleep, REM - physiology
Time Factors
Wakefulness - drug effects
Wakefulness - physiology
title Temporal disorganization of circadian rhythmicity and sleep-wake regulation in mechanically ventilated patients receiving continuous intravenous sedation
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