4.8 Article

Acute sleep loss results in tissue-specific alterations in genome-wide DNA methylation state and metabolic fuel utilization in humans

Journal

SCIENCE ADVANCES
Volume 4, Issue 8, Pages -

Publisher

AMER ASSOC ADVANCEMENT SCIENCE
DOI: 10.1126/sciadv.aar8590

Keywords

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Funding

  1. AFA Forsakring [140006]
  2. Avtal om Lakarutbildning och Forskning [ALFBGB-723681]
  3. Bissen Brainwalk Foundation
  4. Carl Trygger Foundation
  5. Erik, Karin and Gosta Selander Foundation
  6. Fredrik och Ingrid Thurings Foundation
  7. Lars Hiertas Minne Foundation
  8. Mats Kleberg Foundation
  9. Magnus Bergvalls Foundation
  10. Novo Nordisk Foundation
  11. Tore Nilson Foundation
  12. Swedish Medical Research Society
  13. Swedish Society for Medicine [SLS-694111]
  14. Swedish Brain Foundation
  15. Swedish Research Council [2015-03100, 2014-6888, 2016-01088, 2016-02195, 2015-4870]
  16. Ake Wiberg Foundation
  17. National Natural Science Foundation of China [31671139]
  18. Science for Life Laboratory Mass Spectrometry Based Proteomics Facility in Uppsala
  19. Knut and Alice Wallenberg Foundation as part of the National Bioinformatics Infrastructure Sweden at SciLifeLab
  20. Vinnova [2016-02195] Funding Source: Vinnova
  21. Swedish Research Council [2016-01088] Funding Source: Swedish Research Council

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Curtailed sleep promotes weight gain and loss of lean mass in humans, although the underlying molecular mechanisms are poorly understood. We investigated the genomic and physiological impact of acute sleep loss in peripheral tissues by obtaining adipose tissue and skeletal muscle after one night of sleep loss and after one full night of sleep. We find that acute sleep loss alters genome-wide DNA methylation in adipose tissue, and unbiased transcriptome-, protein-, and metabolite-level analyses also reveal highly tissue-specific changes that are partially reflected by altered metabolite levels in blood. We observe transcriptomic signatures of inflammation in both tissues following acute sleep loss, but changes involving the circadian clock are evident only in skeletal muscle, and we uncover molecular signatures suggestive of muscle breakdown that contrast with an anabolic adipose tissue signature. Our findings provide insight into how disruption of sleep and circadian rhythms may promote weight gain and sarcopenia.

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