Loss of Tet Enzymes Compromises Proper Differentiation of Embryonic Stem Cells

Dawlaty, Meelad M., Breiling, Achim, Le, Thuc, Barrasa, M. Inmaculada, Raddatz, Günter, Gao, Qing, Powell, Benjamin E., Cheng, Albert W. +3 more·2014·Developmental Cell
DOI 10.1016/j.devcel.2014.03.003

Cited by (338)

Items 301–338 of 338

  1. Molecular Drivers in Chondrosarcoma
    Yvonne de Jong, Judith V.M.G. Bovée · 2017 · Elsevier eBooks
  2. Papel do miR-29a na regulação epigenética de células pluripotentes humanas
    Sarah Blima Paulino Leite · 2018
  3. Epigenetic heterogeneity revealed through single-cell DNA methylation sequencing
    Zhao Hui · 2018 · cIRcle (University of British Columbia)
  4. Integrative analysis of 5-methyl- and 5-hydroxymethylcytosine indicates a role for 5-hydroxymethylcytosine as a repressive epigenetic mark
    Christopher E. Schlosberg, John R. Edwards · 2018 · bioRxiv (Cold Spring Harbor Laboratory)
  5. The Molecular and Functional Foundations of Conducive Somatic Cell Reprogramming to Ground State Pluripotency
    Asaf Zviran, Nofar Mor, Yoach Rais, Hila Gingold, Shani Peles, Elad Chomsky, Sergey V. Viukov, Jason Daniel Buenrostro, Roberta Scognamiglio, Leehee Weinberger et al. · 2018 · SSRN Electronic Journal
  6. WDR76 Promotes MLL-Rearranged Leukemia Via Selective Recognition of 5-Hydroxymethylcytosine in DNA
    Kathryn E. Malecek, Hengyou Weng, Matthew A. Sullivan, Claire Kokontis, Michael S. Werner, Jianjun Chen, Alexander J. Ruthenburg · 2019 · bioRxiv (Cold Spring Harbor Laboratory)
  7. Perfil transcricional de genes relacionados com a reprogramação da metilação do DNA em placenta de bovinos clones
    Luna Nascimento Vargas · 2018
  8. Dynamic regulation of DNA methylation in human T-cell biology
    Antonio Lentini · 2019 · Linköping University medical dissertations
  9. Investigation of genetic variants in human immunodeficiency and an Australian non-Hodgkin lymphoma population
    Gabrielle Bradshaw · 2020 · Queensland University of Technology
  10. De financiering van het milieubeleid, enkele macro-economische aspecten.
    Ekko C. Van Ierland · 1991 · Socio-Environmental Systems Modeling
  11. Stem cell epigenetics in medical therapy
    Baoli Cheng, Liqi Shu, Emily Graves Allen, Peng Jin · 2021 · Elsevier eBooks
  12. DNMT1 can induce primary germ layer differentiation through de novo DNA methylation
    Masako Tada, Takamasa Ito, Musashi Kubiura‐Ichimaru, Fumihito Miura, Shinpei Yamaguchi, Shoji Tajima, M. Azim Surani, Takashi Ito · 2023 · Research Square
  13. Data from Deficiency of the Polycomb Protein RYBP and TET Methylcytosine Oxidases Promotes Extensive CpG Island Hypermethylation and Malignant Transformation
    Wei Cui, Zhijun Huang, Seung‐Gi Jin, Jennifer S. Johnson, Kin H. Lau, Galen H. Hostetter, Gerd P. Pfeifer · 2023
  14. Alternative Mechanisms of Mutagenesis at mCpG Sites during Replication and Repair
    Evgeniy S. Shilkin, Daria V. Petrova, Dmitry O. Zharkov, Аlena V. Makarova · 2023 · Molecular Biology
  15. DNA methylation in T cell leukaemia
    Maike Bensberg · 2024 · Linköping University medical dissertations
  16. The exit from naive pluripotency: a platform for the study of enhancer mechanistics
    Mattias Enar Jonasson, Christa Buecker · 2025 · Biochemical Society Transactions
  17. Analysis of Somatic Mutations in Epigenetic Genes in Major Leukemia Subtypes
    Özkan Bağcı · 2025 · Genel Tıp Dergisi
  18. Distinct roles of TET-mediated cytosine oxidation in neural stem cell fate decisions
    Oren Ram · 2025 · Stem Cell Reports
  19. Additional file 1 of Single-cell multi-omics profiling links dynamic DNA methylation to cell fate decisions during mouse early organogenesis
    Stephen J. Clark, Argelaguet, Ricard, Tim Lohoff, Felix Krueger, Deborah Drage, Berthold Göttgens, Marioni, John C., Jennifer Nichols, Wolf Reik · 2022 · Figshare
  20. Additional file 1 of Hyperglycemia and O-GlcNAc transferase activity drive a cancer stem cell pathway in triple-negative breast cancer
    Saheed A. Ayodeji, Bao, Bin, Teslow, Emily A., Lisa Polin, Greg Dyson, Aliccia B. Bollig-Fischer, Charlie Fehl · 2024 · Figshare
  21. Additional file 2 of Single-cell multi-omics profiling links dynamic DNA methylation to cell fate decisions during mouse early organogenesis
    Stephen J. Clark, Argelaguet, Ricard, Tim Lohoff, Felix Krueger, Deborah Drage, Berthold Göttgens, Marioni, John C., Jennifer Nichols, Wolf Reik · 2022 · Figshare
  22. Additional file 1 of Induced hepatic stem cells maintain self-renewal through the high expression of Myc coregulated by TET1 and CTCF
    Wang, Chen, Yu, Xinlu, Ding, Sai, Liu, Yang, Zhang, Hongxia, Jingbo Fu, Bing Yu, Zhu, Haiying · 2022 · Figshare
  23. Complete vegetative propagation via an epigenetic state change
    Nicole K. Smoot, Yinwei Zeng, Rebecca M Hochman, Ben P. Williams · 2026 · bioRxiv (Cold Spring Harbor Laboratory)
  24. TET proteins, New Cofactors for Nuclear Receptors
    Wenyue Guan · 2017 · theses.fr (ABES)
  25. Dynamique chromatinienne lors de l'activation des enhancers au cours de la différenciation cellulaire
    Elise A. Mahé · 2016 · theses.fr (ABES)
  26. Vers l'identification des facteurs impliqués dans la régulation concertée des gènes soumis à empreinte dans le cerveau
    Jil Cercy · 2019
  27. Modélisation des néoplasmes myéloprolifératifs grâce aux cellules souches induites à la pluripotence (IPSC)
    Lise Secardin · 2016
  28. Méthylation de l'ADN : fonctions et ciblage au cours du développement chez la souris
    Thomas Dahlet · 2019 · theses.fr (ABES)
  29. Caractérisation d'un facteur épigénétique impliqué dans la régulation des cellules souches embryonnaires murines
    Marine Benaissa · 2018
  30. Etude du rôle et des modes d’action de l’enzyme épigénétique TET chez la drosophile
    Manon Boulet · 2021
  31. Deciphering the role of DNA methylation in early cellular transitions
    Mathieu Schulz · 2022
  32. A weak-interaction model defines the cell-autonomous function of DNA methylation in gastrulation
    Saifeng Cheng, Roni Stok Ranen, Yoav Mayshar, Ofir Raz, Aviezer Lifshitz, Evgheni Casimov, Tal Sokolov, Akhiad Bercovich, Raz Ben-Yair, Oren Ben-Kiki et al. · 2026 · bioRxiv (Cold Spring Harbor Laboratory)
  33. Functional Separation of mRNA Domains Coordinates Pluripotent Cell Behavior
    Ze Yang, Shaoyi Ji, Kristina Ivanov, Priyanka Kadav, Mengmeng Song, Leonardi Gozali, Sophie Parsa, Barry R. Behr, Mary Hynes · 2026 · eLife
  34. Functional Separation of mRNA Domains Coordinates Pluripotent Cell Behavior
    Ze Yang, Shaoyi Ji, Kristina Ivanov, Priyanka Kadav, Mengmeng Song, Leonardi Gozali, Sophie Parsa, Barry R. Behr, Mary Hynes · 2026 · eLife
  35. B cell TET2 recruits OGT for nuclear TET2 and H2B O-GlcNAcylation to drive AID and BLIMP-1 expression and maturation of the antibody response
    Shili Li, Peng Yibo, Zhimin Yang, Xin Li, Zhenming Xu, Carlos Eduardo Rivera, Paolo Casali · 2026 · Cell Reports
  36. Application of spectroscopic techniques with machine learning for high-throughput phenotyping of seed vigor: A comprehensive review
    Quanqing Liao, Junyi Chen, Jiahao Luo, Zihong Huang, Xiaoping Wu, Hengnian Qi, Chu Zhang · 2026 · TrAC Trends in Analytical Chemistry
  37. Regulation of TET function by PROSER1 in development and hematologic malignancies
    Xiang Li, Kasper Dindler Rasmussen · 2026 · Epigenomics
  38. TET Enzymes as Epigenetic Integrators in Intestinal Immunity, Inflammation, and Disease
    Dhirendra K. Singh, Yukihiro Yamaguchi, Lei Huang, Chieko Saito, Olivia G. Cassidy, Keita Nishiyama · 2026 · Journal of Personalized Medicine