DNA methylation predicts age and provides insight into exceptional longevity of bats
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Published:2021-03-12
Issue:1
Volume:12
Page:
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ISSN:2041-1723
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Container-title:Nature Communications
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language:en
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Short-container-title:Nat Commun
Author:
Wilkinson Gerald S.ORCID, Adams Danielle M., Haghani Amin, Lu Ake T.ORCID, Zoller JosephORCID, Breeze Charles E.ORCID, Arnold Bryan D.ORCID, Ball Hope C., Carter Gerald G., Cooper Lisa NoelleORCID, Dechmann Dina K. N.ORCID, Devanna Paolo, Fasel Nicolas J.ORCID, Galazyuk Alexander V., Günther Linus, Hurme EdwardORCID, Jones GarethORCID, Knörnschild Mirjam, Lattenkamp Ella Z.ORCID, Li Caesar Z.ORCID, Mayer Frieder, Reinhardt Josephine A.ORCID, Medellin Rodrigo A.ORCID, Nagy MartinaORCID, Pope BrianORCID, Power Megan L.ORCID, Ransome Roger D.ORCID, Teeling Emma C.ORCID, Vernes Sonja C.ORCID, Zamora-Mejías DanielORCID, Zhang Joshua, Faure Paul A.ORCID, Greville Lucas J.ORCID, Herrera M. L. Gerardo, Flores-Martínez José J., Horvath SteveORCID
Abstract
AbstractExceptionally long-lived species, including many bats, rarely show overt signs of aging, making it difficult to determine why species differ in lifespan. Here, we use DNA methylation (DNAm) profiles from 712 known-age bats, representing 26 species, to identify epigenetic changes associated with age and longevity. We demonstrate that DNAm accurately predicts chronological age. Across species, longevity is negatively associated with the rate of DNAm change at age-associated sites. Furthermore, analysis of several bat genomes reveals that hypermethylated age- and longevity-associated sites are disproportionately located in promoter regions of key transcription factors (TF) and enriched for histone and chromatin features associated with transcriptional regulation. Predicted TF binding site motifs and enrichment analyses indicate that age-related methylation change is influenced by developmental processes, while longevity-related DNAm change is associated with innate immunity or tumorigenesis genes, suggesting that bat longevity results from augmented immune response and cancer suppression.
Funder
College of Computer, Mathematical and Natural Sciences, University of Maryland Paul G. Allen Frontiers Group
Publisher
Springer Science and Business Media LLC
Subject
General Physics and Astronomy,General Biochemistry, Genetics and Molecular Biology,General Chemistry
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