Sleep architecture, insulin resistance and the nasal cycle: Implications for positive airway pressure therapy

Background: The global pandemic of metabolic disease is worsening. The metabolic theory of obesity proposes that hormonal changes, especially hyperinsulinaemia, precede metabolic disease development. Although quality sleep is recognised as a key factor for good health, less is known about disrupted...

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Main Authors: Catherine A.P. Crofts, Alister Neill, Angela Campbell, Jim Bartley, David E. White
Format: Article
Language:English
Published: AOSIS 2018-03-01
Series:Journal of Metabolic Health
Subjects:
Online Access:https://journalofmetabolichealth.org/index.php/jmh/article/view/34
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author Catherine A.P. Crofts
Alister Neill
Angela Campbell
Jim Bartley
David E. White
author_facet Catherine A.P. Crofts
Alister Neill
Angela Campbell
Jim Bartley
David E. White
author_sort Catherine A.P. Crofts
collection DOAJ
description Background: The global pandemic of metabolic disease is worsening. The metabolic theory of obesity proposes that hormonal changes, especially hyperinsulinaemia, precede metabolic disease development. Although quality sleep is recognised as a key factor for good health, less is known about disrupted sleep as a risk factor for hyperinsulinaemia.   Aim: To explore the relationship between sleep, especially sleep architecture and the nasal cycle, on insulin secretion in obstructive sleep apnoea (OSA) with comorbid metabolic disease. This review includes a discussion of the potential role of Rest-Activity-Cycler positive airway pressure (RACer-PAP), a novel non-pharmacological OSA treatment strategy.   Methods: A narrative review of all the relevant papers known to the authors was conducted. This review also included results from a polysomnographic sleep clinic pilot study (n = 3) comparing sleep efficiency of RACer-PAP to nasal continuous positive airways pressure (n-CPAP) in OSA patients.   Results: Metabolic disease is strongly associated with disturbed sleep. Sleep architecture influences cerebral hormonal secretion, lateral shifts in the autonomic nervous system and nasal airflow dominance. Disturbed sleep shortens short-wave sleep periods, decreasing insulin sensitivity and glucose tolerance. Improvements to metabolic function during n-CPAP treatment are inconsistent. If RACer-PAP demonstrates superior effects on sleep architecture and autonomic function, it may offer advantages in OSA patients with comorbid metabolic disease.   Conclusion: Improving sleep architecture by maintaining the nasal cycle proposes a novel non-pharmacological treatment paradigm for treating OSA with comorbid metabolic disease. Research is required to demonstrate if RACer-PAP therapy influences whole night sleep architecture, sympathovagal balance and markers of metabolic disease.
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spelling doaj.art-2300f1f0b4ad4a9f9d2909a63ce6adce2024-03-25T07:51:23ZengAOSISJournal of Metabolic Health2960-03912018-03-0131e1e610.4102/jir.v3i1.3416Sleep architecture, insulin resistance and the nasal cycle: Implications for positive airway pressure therapyCatherine A.P. Crofts0Alister Neill1Angela Campbell2Jim Bartley3David E. White4Faculty of Health and Environmental Sciences, Auckland University of TechnologyWellSleep Clinic, University of OtagoWellSleep Clinic, University of OtagoDepartment of Surgery, University of OtagoBioDesign Lab, Auckland University of TechnologyBackground: The global pandemic of metabolic disease is worsening. The metabolic theory of obesity proposes that hormonal changes, especially hyperinsulinaemia, precede metabolic disease development. Although quality sleep is recognised as a key factor for good health, less is known about disrupted sleep as a risk factor for hyperinsulinaemia.   Aim: To explore the relationship between sleep, especially sleep architecture and the nasal cycle, on insulin secretion in obstructive sleep apnoea (OSA) with comorbid metabolic disease. This review includes a discussion of the potential role of Rest-Activity-Cycler positive airway pressure (RACer-PAP), a novel non-pharmacological OSA treatment strategy.   Methods: A narrative review of all the relevant papers known to the authors was conducted. This review also included results from a polysomnographic sleep clinic pilot study (n = 3) comparing sleep efficiency of RACer-PAP to nasal continuous positive airways pressure (n-CPAP) in OSA patients.   Results: Metabolic disease is strongly associated with disturbed sleep. Sleep architecture influences cerebral hormonal secretion, lateral shifts in the autonomic nervous system and nasal airflow dominance. Disturbed sleep shortens short-wave sleep periods, decreasing insulin sensitivity and glucose tolerance. Improvements to metabolic function during n-CPAP treatment are inconsistent. If RACer-PAP demonstrates superior effects on sleep architecture and autonomic function, it may offer advantages in OSA patients with comorbid metabolic disease.   Conclusion: Improving sleep architecture by maintaining the nasal cycle proposes a novel non-pharmacological treatment paradigm for treating OSA with comorbid metabolic disease. Research is required to demonstrate if RACer-PAP therapy influences whole night sleep architecture, sympathovagal balance and markers of metabolic disease.https://journalofmetabolichealth.org/index.php/jmh/article/view/34sleep apnoeametabolic diseasesympathovagal balancesleep architecturehyperinsulinaemia
spellingShingle Catherine A.P. Crofts
Alister Neill
Angela Campbell
Jim Bartley
David E. White
Sleep architecture, insulin resistance and the nasal cycle: Implications for positive airway pressure therapy
Journal of Metabolic Health
sleep apnoea
metabolic disease
sympathovagal balance
sleep architecture
hyperinsulinaemia
title Sleep architecture, insulin resistance and the nasal cycle: Implications for positive airway pressure therapy
title_full Sleep architecture, insulin resistance and the nasal cycle: Implications for positive airway pressure therapy
title_fullStr Sleep architecture, insulin resistance and the nasal cycle: Implications for positive airway pressure therapy
title_full_unstemmed Sleep architecture, insulin resistance and the nasal cycle: Implications for positive airway pressure therapy
title_short Sleep architecture, insulin resistance and the nasal cycle: Implications for positive airway pressure therapy
title_sort sleep architecture insulin resistance and the nasal cycle implications for positive airway pressure therapy
topic sleep apnoea
metabolic disease
sympathovagal balance
sleep architecture
hyperinsulinaemia
url https://journalofmetabolichealth.org/index.php/jmh/article/view/34
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