4.6 Article

Enhancer Chromatin and 3D Genome Architecture Changes from Naive to Primed Human Embryonic Stem Cell States

Journal

STEM CELL REPORTS
Volume 12, Issue 5, Pages 1129-1144

Publisher

CELL PRESS
DOI: 10.1016/j.stemcr.2019.04.004

Keywords

-

Funding

  1. John H. Tietze Award from the Tietze Foundation
  2. NIH/NIAMS [R01AR065952]
  3. NIH/NIDDK [R01DK103667]
  4. United States-Israel Binational Science Foundation [2013027]
  5. Ford Foundation Fellowship Dissertation award
  6. Molecular Medicine Training grant [T32GM095421]
  7. Big Data for Genomics and Neuroscience training grant [T32LM012419]

Ask authors/readers for more resources

During mammalian embryogenesis, changes in morphology and gene expression are concurrent with epigenomic reprogramming. Using human embryonic stem cells representing the preimplantation blastocyst (naive) and postimplantation epiblast (primed), our data in 2iL/I/F naive cells demonstrate that a substantial portion of known human enhancers are premarked by H3K4me1, providing an enhanced open chromatin state in naive pluripotency. The 2iL/I/F enhancer repertoire occupies 9% of the genome, three times that of primed cells, and can exist in broad chromatin domains over 50 kb. Enhancer chromatin states are largely poised. Seventy-seven percent of 2iL/I/F enhancers are decommissioned in a stepwise manner as cells become primed. While primed topologically associating domains are largely unaltered upon differentiation, naive 2iL/I/F domains expand across primed boundaries, affecting three-dimensional genome architecture. Differential topologically associating domain edges coincide with 2iL/I/F H3K4me1 enrichment. Our results suggest that naive-derived 2iL/I/F cells have a unique chromatin landscape, which may reflect early embryogenesis.

Authors

I am an author on this paper
Click your name to claim this paper and add it to your profile.

Reviews

Primary Rating

4.6
Not enough ratings

Secondary Ratings

Novelty
-
Significance
-
Scientific rigor
-
Rate this paper

Recommended

Article Biochemistry & Molecular Biology

DNA methylation as a tool to explore ageing in wild roe deer populations

Jean-Francois Lemaitre, Benjamin Rey, Jean-Michel Gaillard, Corinne Regis, Emmanuelle Gilot-Fromont, Francois Debias, Jeanne Duhayer, Sylvia Pardonnet, Maryline Pellerin, Amin Haghani, Joseph A. Zoller, Caesar Z. Li, Steve Horvath

Summary: This study explores the relationship between DNA methylation and chronological age in wild roe deer populations living in different ecological contexts. Three DNA methylation-based age estimators were developed, showing that older females may exhibit a lower degree of biological aging compared to males. The research also identifies specific epigenetic alterations with distinct aging patterns between the two sexes.

MOLECULAR ECOLOGY RESOURCES (2022)

Article Multidisciplinary Sciences

DNA methylation aging and transcriptomic studies in horses

Steve Horvath, Amin Haghani, Sichong Peng, Erin N. Hales, Joseph A. Zoller, Ken Raj, Brenda Larison, Todd R. Robeck, Jessica L. Petersen, Rebecca R. Bellone, Carrie J. Finno

Summary: This study provides a comprehensive analysis of cytosine methylation patterns in horses and develops multiple epigenetic aging clocks. The results suggest that castration does not significantly impact the epigenetic aging rate in blood or liver samples from horses. Additionally, the study examines the relationship between methylation and RNA expression in horse tissues.

NATURE COMMUNICATIONS (2022)

Article Geriatrics & Gerontology

Epigenetic clock and methylation studies in vervet monkeys

Anna J. Jasinska, Amin Haghani, Joseph A. Zoller, Caesar Z. Li, Adriana Arneson, Jason Ernst, Kylie Kavanagh, Matthew J. Jorgensen, Julie A. Mattison, Kevin Wojta, Oi-Wa Choi, Joseph DeYoung, Xinmin Li, Andrew W. Rao, Giovanni Coppola, Nelson B. Freimer, Roger P. Woods, Steve Horvath

Summary: DNA methylation-based age estimators were developed for vervet monkeys, a valuable non-human primate model for biomedical studies. The study presented multiple epigenetic clocks for different tissues, as well as clocks for measuring relative age in addition to chronological age. The high accuracy of the human-vervet clocks indicates evolutionary conservation of epigenetic aging processes in primates.

GEROSCIENCE (2022)

Article Geriatrics & Gerontology

Methylation studies in Peromyscus: aging, altitude adaptation, and monogamy

Steve Horvath, Amin Haghani, Joseph A. Zoller, Asieh Naderi, Elham Soltanmohammadi, Elena Farmaki, Vimala Kaza, Ioulia Chatzistamou, Hippokratis Kiaris

Summary: This study presents DNA methylation-based estimators of age and relative age for different species of deer mice, as well as enriched pathways related to different conditions. It lays the groundwork for further research on the epigenetic correlates of monogamous behavior and adaptation to high altitude in Peromyscus, highlighting the potential of human-Peromyscus epigenetic clocks as a valuable biological model.

GEROSCIENCE (2022)

Article Multidisciplinary Sciences

DNA methylation clocks for dogs and humans

Steve Horvath, Ake T. Lu, Amin Haghani, Joseph A. Zoller, Caesar Z. Li, Andrea R. Lim, Robert T. Brooke, Ken Raj, Aitor Serres-Armero, Dayna L. Dreger, Andrew N. Hogan, Jocelyn Plassais, Elaine A. Ostrander

Summary: Epigenetic clocks are reliable and highly accurate biomarkers that can be applied to 93 domestic dog breeds and potentially to humans. They are used to estimate age, lifespan, and health status, contributing to research on antiaging treatments.

PROCEEDINGS OF THE NATIONAL ACADEMY OF SCIENCES OF THE UNITED STATES OF AMERICA (2022)

Article Geriatrics & Gerontology

HIV, pathology and epigenetic age acceleration in different human tissues

Steve Horvath, David T. S. Lin, Michael S. Kobor, Joseph A. Zoller, Jonathan W. Said, Susan Morgello, Elyse Singer, William H. Yong, Beth D. Jamieson, Andrew J. Levine

Summary: Epigenetic clocks based on DNA methylation patterns are important for understanding aging and disease, but there are basic questions to be resolved in their application. This study investigates the correlation of epigenetic age acceleration (EAA) between different tissues within an individual, the association of tissue pathology and clinical illness with EAA in the target organ, and the differences in EAA variability across tissues according to sex. The findings indicate that epigenetic age is moderately correlated across tissues, with blood showing the strongest correlation with spleen and bone marrow. However, blood does not correlate with liver epigenetic age. Clinically, hypertension and HIV infection are associated with EAA in different tissues, and male sex is associated with increased epigenetic acceleration in several tissues. Furthermore, greater multimorbidity is associated with higher EAA across all tissues.

GEROSCIENCE (2022)

Article Biochemistry & Molecular Biology

Epigenetics and island-mainland divergence in an insectivorous small mammal

Marie-Laurence Cossette, Donald T. Stewart, Amin Haghani, Joseph A. Zoller, Aaron B. A. Shafer, Steve Horvath

Summary: Geographically isolated populations, such as the island population of Nova Scotia masked shrews in this study, often exhibit phenotypic and epigenetic differences compared to their mainland counterparts. This study provides novel insights into the role of DNA methylation in phenotypic and epigenetic divergence in island-mainland mammal populations.

MOLECULAR ECOLOGY (2023)

Article Evolutionary Biology

An epigenetic DNA methylation clock for age estimates in Indo-Pacific bottlenose dolphins (Tursiops aduncus)

Katharina J. Peters, Livia Gerber, Luca Scheu, Riccardo Cicciarella, Joseph A. Zoller, Zhe Fei, Steve Horvath, Simon J. Allen, Stephanie L. King, Richard C. Connor, Lee Ann Rollins, Michael Krutzen

Summary: The use of epigenetic clocks allows accurate age determination and sex prediction for Indo-Pacific bottlenose dolphins, providing a non-invasive method for extracting life history information.

EVOLUTIONARY APPLICATIONS (2023)

Article Biochemistry & Molecular Biology

DNA methylation-based biomarkers for ageing long-lived cetaceans

Kim M. Parsons, Amin Haghani, Joseph A. Zoller, Ake T. Lu, Zhe Fei, Steven H. Ferguson, Eva Garde, M. Bradley Hanson, Candice K. Emmons, Craig O. Matkin, Brent G. Young, William R. Koski, Steve Horvath

Summary: Epigenetic approaches, using DNA methylation data, are revolutionizing age estimation in long-lived species. In this study, epigenetic clocks for killer whales and bowhead whales were validated, demonstrating the feasibility of estimating the age of long-lived cetaceans using skin samples. These findings have implications for conservation and management efforts, as they provide a non-invasive method for obtaining age estimates from remote tissue biopsies.

MOLECULAR ECOLOGY RESOURCES (2023)

Article Biology

Multi-tissue DNA methylation aging clocks for sea lions, walruses and seals

Todd R. R. Robeck, Amin Haghani, Zhe Fei, Dana M. M. Lindemann, Jennifer Russell, Kelsey E. S. Herrick, Gisele Montano, Karen J. J. Steinman, Etsuko Katsumata, Joseph A. A. Zoller, Steve Horvath

Summary: Developing epigenetic clocks allows for accurate age determination of wild animals, such as pinnipeds, which is crucial for population assessment and management.

COMMUNICATIONS BIOLOGY (2023)

Article Multidisciplinary Sciences

DNA methylation networks underlying mammalian traits

Amin Haghani, Caesar Z. Li, Todd R. Robeck, Joshua Zhang, Ake T. Lu, Julia Ablaeva, Victoria A. Acosta-Rodriguez, Danielle M. Adams, Abdulaziz N. Alagaili, Javier Almunia, Ajoy Aloysius, Nabil M. S. Amor, Reza Ardehali, Adriana Arneson, C. Scott Baker, Gareth Banks, Katherine Belov, Nigel C. Bennett, Peter Black, Daniel T. Blumstein, Eleanor K. Bors, Charles E. Breeze, Robert T. Brooke, Janine L. Brown, Gerald Carter, Alex Caulton, Julie M. Cavin, Lisa Chakrabarti, Ioulia Chatzistamou, Andreas S. Chavez, Hao Chen, Kaiyang Cheng, Priscila Chiavellini, Oi-Wa Choi, Shannon Clarke, Joseph A. Cook, Lisa N. Cooper, Marie-Laurence Cossette, Joanna Day, Joseph DeYoung, Stacy Dirocco, Christopher Dold, Jonathan L. Dunnum, Erin E. Ehmke, Candice K. Emmons, Stephan Emmrich, Ebru Erbay, Claire Erlacher-Reid, Chris G. Faulkes, Zhe Fei, Steven H. Ferguson, Carrie J. Finno, Jennifer E. Flower, Jean-Michel Gaillard, Eva Garde, Livia Gerber, Vadim N. Gladyshev, Rodolfo G. Goya, Matthew J. Grant, Carla B. Green, M. Bradley Hanson, Daniel W. Hart, Martin Haulena, Kelsey Herrick, Andrew N. Hogan, Carolyn J. Hogg, Timothy A. Hore, Taosheng Huang, Juan Carlos Izpisua Belmonte, Anna J. Jasinska, Gareth Jones, Eve Jourdain, Olga Kashpur, Harold Katcher, Etsuko Katsumata, Vimala Kaza, Hippokratis Kiaris, Michael S. Kobor, Pawel Kordowitzki, William R. Koski, Michael Kruetzen, Soo Bin Kwon, Brenda Larison, Sang-Goo Lee, Marianne Lehmann, Jean-Francois Lemaitre, Andrew J. Levine, Xinmin Li, Cun Li, Andrea R. Lim, David T. S. Lin, Dana M. Lindemann, Schuyler W. Liphardt, Thomas J. Little, Nicholas Macoretta, Dewey Maddox, Craig O. Matkin, Julie A. Mattison, Matthew McClure, June Mergl, Jennifer J. Meudt, Gisele A. Montano, Khyobeni Mozhui, Jason Munshi-South, William J. Murphy, Asieh Naderi, Martina Nagy, Pritika Narayan, Peter W. Nathanielsz, Ngoc B. Nguyen, Christof Niehrs, Batsaikhan Nyamsuren, Justine K. O'Brien, Perrie O'Tierney Ginn, Duncan T. Odom, Alexander G. Ophir, Steve Osborn, Elaine A. Ostrander, Kim M. Parsons, Kimberly C. Paul, Amy B. Pedersen, Matteo Pellegrini, Katharina J. Peters, Jessica L. Petersen, Darren W. Pietersen, Gabriela M. Pinho, Jocelyn Plassais, Jesse R. Poganik, Natalia A. Prado, Pradeep Reddy, Benjamin Rey, Beate R. Ritz, Jooke Robbins, Magdalena Rodriguez, Jennifer Russell, Elena Rydkina, Lindsay L. Sailer, Adam B. Salmon, Akshay Sanghavi, Kyle M. Schachtschneider, Dennis Schmitt, Todd Schmitt, Lars Schomacher, Lawrence B. Schook, Karen E. Sears, Ashley W. Seifert, Aaron B. A. Shafer, Anastasia V. Shindyapina, Melanie Simmons, Kavita Singh, Ishani Sinha, Jesse Slone, Russel G. Snell, Elham Soltanmohammadi, Matthew L. Spangler, Maria Spriggs, Lydia Staggs, Nancy Stedman, Karen J. Steinman, Donald T. Stewart, Victoria J. Sugrue, Balazs Szladovits, Joseph S. Takahashi, Masaki Takasugi, Emma C. Teeling, Michael J. Thompson, Bill Van Bonn, Sonja C. Vernes, Diego Villar, Harry V. Vinters, Ha Vu, Mary C. Wallingford, Nan Wang, Gerald S. Wilkinson, Robert W. Williams, Qi Yan, Mingjia Yao, Brent G. Young, Bohan Zhang, Zhihui Zhang, Yang Zhao, Peng Zhao, Wanding Zhou, Joseph A. Zoller, Jason Ernst, Andrei Seluanov, Vera Gorbunova, X. William Yang, Ken Raj, Steve Horvath

Summary: By analyzing the DNA methylation profiles of 15,456 individuals from 348 mammalian species, researchers constructed phyloepigenetic trees that show similarities to traditional phylogenetic trees. Through unsupervised clustering, they identified 55 distinct cytosine modules, 30 of which are associated with traits such as maximum life span, adult weight, age, sex, and human mortality risk. The study reveals the intertwined evolution of the genome and epigenome, which plays a role in mediating the biological characteristics and traits of different mammalian species.

SCIENCE (2023)

Article Ecology

Using epigenetic clocks to investigate changes in the age structure of critically endangered Maui dolphins

Keith M. Hernandez, Kaimyn B. O'Neill, Eleanor K. Bors, Debbie Steel, Joseph A. Zoller, Rochelle Constantine, Steve Horvath, C. Scott Baker

Summary: Age estimation is important for understanding populations, but can be challenging. This study developed an epigenetic clock to estimate the age of Maui and Hector's dolphins. The models showed high accuracy and the potential for application in conservation efforts for critically endangered species.

ECOLOGY AND EVOLUTION (2023)

Correction Biology

Castration delays epigenetic aging and feminizes DNA methylation at androgen-regulated loci (vol 10, e64932, 2021)

Victoria J. Sugrue, Joseph Alan Zoller, Pritika Narayan, Ake T. Lu, Oscar J. Ortega-Recalde, Matthew J. Grant, C. Simon Bawden, Skye R. Rudiger, Amin Haghani, Steve Horvath

ELIFE (2023)

Article Geriatrics & Gerontology

DNA methylation clocks for clawed frogs reveal evolutionary conservation of epigenetic aging

Joseph A. A. Zoller, Eleftheria Parasyraki, Ake T. T. Lu, Amin Haghani, Christof Niehrs, Steve Horvath

Summary: DNA methylation-based epigenetic aging is conserved between frogs and mammals, as evidenced by the development of dual species clocks for humans and frogs. Age-related CpGs are located in neural-developmental genes, suggesting a link between epigenetic aging and neural processes. This study highlights the potential of using Xenopus as a model organism to study aging.

GEROSCIENCE (2023)

Correction Cell Biology

Universal DNA methylation age across mammalian tissues (vol 3, pg 1144, 2023)

A. T. Lu, Z. Fei, A. Haghani, T. R. Robeck, J. A. Zoller, C. Z. Li, R. Lowe, Q. Yan, J. Zhang, H. Vu, J. Ablaeva, V. A. Acosta-Rodriguez, D. M. Adams, J. Almunia, A. Aloysius, R. Ardehali, A. Arneson, C. S. Baker, G. Banks, K. Belov, N. C. Bennett, P. Black, D. T. Blumstein, E. K. Bors, C. E. Breeze, R. T. Brooke, J. L. Brown, G. G. Carter, A. Caulton, J. M. Cavin, L. Chakrabarti, I. Chatzistamou, H. Chen, K. Cheng, P. Chiavellini, O. W. Choi, S. M. Clarke, L. N. Cooper, M. L. Cossette, J. Day, J. Deyoung, S. Dirocco, C. Dold, E. E. Ehmke, C. K. Emmons, S. Emmrich, E. Erbay, C. Erlacher-Reid, C. G. Faulkes, S. H. Ferguson, C. J. Finno, J. E. Flower, J. M. Gaillard, E. Garde, L. Gerber, V. N. Gladyshev, V. Gorbunova, R. G. Goya, M. J. Grant, C. B. Green, E. N. Hales, M. B. Hanson, D. W. Hart, M. Haulena, K. Herrick, A. N. Hogan, C. J. Hogg, T. A. Hore, T. Huang, J. C. Izpisua Belmonte, A. J. Jasinska, G. Jones, E. Jourdain, O. Kashpur, H. Katcher, E. Katsumata, V. Kaza, H. Kiaris, M. S. Kobor, P. Kordowitzki, W. R. Koski, M. Kruetzen, S. B. Kwon, B. Larison, S. G. Lee, M. Lehmann, J. F. Lemaitre, A. J. Levine, C. Li, X. Li, A. R. Lim, D. T. S. Lin, D. M. Lindemann, T. J. Little, N. Macoretta, D. Maddox, C. O. Matkin, J. A. Mattison, M. Mcclure, J. Mergl, J. J. Meudt, G. A. Montano, K. Mozhui, J. Munshi-South, A. Naderi, M. Nagy, P. Narayan, P. W. Nathanielsz, N. B. Nguyen, C. Niehrs, J. K. O'Brien, P. O'Tierney Ginn, D. T. Odom, A. G. Ophir, S. Osborn, E. A. Ostrander, K. M. Parsons, K. C. Paul, M. Pellegrini, K. J. Peters, A. B. Pedersen, J. L. Petersen, D. W. Pietersen, G. M. Pinho, J. Plassais, J. R. Poganik, N. A. Prado, P. Reddy, B. Rey, B. R. Ritz, J. Robbins, M. Rodriguez, J. Russell, E. Rydkina, L. L. Sailer, A. B. Salmon, A. Sanghavi, K. M. Schachtschneider, D. Schmitt, T. Schmitt, L. Schomacher, L. B. Schook, K. E. Sears, A. W. Seifert, A. Seluanov, A. B. A. Shafer, D. Shanmuganayagam, A. V. Shindyapina, M. Simmons, K. Singh, I. Sinha, J. Slone, R. G. Snell, E. Soltanmaohammadi, M. L. Spangler, M. C. Spriggs, L. Staggs, N. Stedman, K. J. Steinman, D. T. Stewart, V. J. Sugrue, B. Szladovits, J. S. Takahashi, M. Takasugi, E. C. Teeling, M. J. Thompson, B. Van Bonn, S. C. Vernes, D. Villar, H. V. Vinters, M. C. Wallingford, N. Wang, R. K. Wayne, G. S. Wilkinson, C. K. Williams, R. W. Williams, X. W. Yang, M. Yao, B. G. Young, B. Zhang, Z. Zhang, P. Zhao, Y. Zhao, W. Zhou, J. Zimmermann, J. Ernst, K. Raj, S. Horvath

NATURE AGING (2023)

No Data Available