The cohesin release factor WAPL restricts chromatin loop extension

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Items 101–200 of 806

1. Looping the Genome with SMC Complexes
   Kim, Eugene, Barth, Roman, Dekker, Cees · 2023 · Annual Review of Biochemistry
2. Absolute quantification of cohesin, CTCF and their regulators in human cells
   Johann Holzmann, Antonio Zaccaria Politi, Kota Nagasaka, Merle Hantsche-Grininger, Nike Walther, Birgit Koch, Johannes Fuchs, Gerhard Dürnberger, Wen Tang, René Ladurner et al. · 2019 · eLife
3. CTCF and R-loops are boundaries of cohesin-mediated DNA looping
   Hongshan Zhang, Zhubing Shi, Edward J. Banigan, Yoori Kim, Hongtao Yu, Xiao‐chen Bai, Ilya J. Finkelstein · 2023 · Molecular Cell
4. Emerging themes in cohesin cancer biology
   Todd A. Waldman · 2020 · Nature reviews. Cancer
5. Cohesin residency determines chromatin loop patterns
   Lorenzo Costantino, Tsung-Han S. Hsieh, Rebecca C. Lamothe, Xavier Darzacq, Douglas E. Koshland · 2020 · eLife
6. The role of chromatin loop extrusion in antibody diversification
   Yu Zhang, Xuefei Zhang, Hai‐Qiang Dai, Hongli Hu, Frederick W. Alt · 2022 · Nature reviews. Immunology
7. Chromatin topology, condensates and gene regulation: shifting paradigms or just a phase?
   Mustafa Mir, Wendy A. Bickmore, Eileen E. M. Furlong, Geeta J. Narlikar · 2019 · Development
8. RNA polymerase II is required for spatial chromatin reorganization following exit from mitosis
   Shu Zhang, Nadine Übelmesser, Nataša Josipović, Giada Forte, Johan A. Slotman, Michael Chiang, Henrike Johanna Gothe, Eduardo Gade Gusmao, Christian Becker, Janine Altmüller et al. · 2021 · Science Advances
9. The chromosome folding problem and how cells solve it
   Dekker, Job, Mirny, Leonid A. · 2024 · Cell
10. Mechanisms of Chromosome Folding and Nuclear Organization: Their Interplay and Open Questions
    Leonid A. Mirny, Job Dekker · 2021 · Cold Spring Harbor Perspectives in Biology
11. Nuclear peripheral chromatin-lamin B1 interaction is required for global integrity of chromatin architecture and dynamics in human cells
    Lei Chang, Mengfan Li, S. Shao, Chen C. Li, Shan-Shan Ai, Boxin Xue, Yingping Hou, Yiwen Zhang, Ruifeng Li, Xiao-Ying Fan et al. · 2020 · Protein & Cell
12. Transcription-mediated supercoiling regulates genome folding and loop formation
    Maria Victoria Neguembor, Laura Martin, Álvaro Castells-García, Pablo Aurelio Gómez-García, Chiara Vicario, Davide Carnevali, Jumana AlHaj Abed, Alba Granados, Rubén Sebastián-Pérez, Francesco Sottile et al. · 2021 · Molecular Cell
13. CTCF as a boundary factor for cohesin-mediated loop extrusion: evidence for a multi-step mechanism
    Anders S. Hansen · 2020 · Nucleus
14. Coming full circle: On the origin and evolution of the looping model for enhancer–promoter communication
    Popay, Tessa M., Dixon, Jesse R. · 2022 · Journal of Biological Chemistry
15. A requirement for STAG2 in replication fork progression creates a targetable synthetic lethality in cohesin-mutant cancers
    Gourish Mondal, Meredith Stevers, Benjamin Goode, Alan Ashworth, David A. Solomon · 2019 · Nature Communications
16. CTCF loss has limited effects on global genome architecture in Drosophila despite critical regulatory functions
    Anjali Kaushal, Giriram Mohana, Julien Dorier, İsa Özdemir, A. Omer, P. Cousin, Anastasiia I. Semenova, M. Taschner, Oleksandr Dergai, F. Marzetta et al. · 2021 · Nature Communications
17. Scc2/Nipbl hops between chromosomal cohesin rings after loading
    James Rhodes, Davide Mazza, Kim Nasmyth, Stephan Uphoff · 2017 · eLife
18. Loop extrusion mediates physiological Igh locus contraction for RAG scanning
    Hai‐Qiang Dai, Hongli Hu, Jiangman Lou, Adam Yongxin Ye, Zhaoqing Ba, Xuefei Zhang, Yiwen Zhang, Lijuan Zhao, Hye Suk Yoon, Aimee M. Chapdelaine-Williams et al. · 2021 · Nature
19. High resolution genetic mapping of putative causal interactions between regions of open chromatin
    N. Kumasaka, A. Knights, D. Gaffney · 2018 · Nature Genetics
20. Specific Contributions of Cohesin-SA1 and Cohesin-SA2 to TADs and Polycomb Domains in Embryonic Stem Cells
    Ana Cuadrado, Daniel Giménez-Llorente, Aleksandar Kojic, Miriam Rodríguez-Corsino, Yasmina Cuartero, Guillermo Martín‐Serrano, Gonzalo Goméz-López, Marc A. Martı́-Renom, Ana Losada · 2019 · Cell Reports
21. STAG2 mutations alter CTCF-anchored loop extrusion, reduce cis-regulatory interactions and EWSR1-FLI1 activity in Ewing sarcoma.
    D. Surdez, Sakina Zaidi, S. Grossetête, K. Laud-Duval, A. Ferré, Lieke Mous, Thomas Vourc’h, F. Tirode, G. Pierron, V. Raynal et al. · 2021 · Cancer Cell
22. CTCF: a Swiss-army knife for genome organization and transcription regulation
    Luca Braccioli, Elzo de Wit · 2019 · Essays in Biochemistry
23. CTCF-Mediated Chromatin Loops between Promoter and Gene Body Regulate Alternative Splicing across Individuals
    Mariana Ruiz-Velasco, Manjeet Kumar, Mang Ching Lai, Pooja Bhat, Ana Belen Solis-Pinson, Alejandro Reyes, Stefan Kleinsorg, Kyung‐Min Noh, Toby J. Gibson, Judith B. Zaugg · 2017 · Cell Systems
24. Large DNA Methylation Nadirs Anchor Chromatin Loops Maintaining Hematopoietic Stem Cell Identity
    Xiaotian Zhang, Mira Jeong, Xingfan Huang, Xue Qing David Wang, Xinyu Wang, Wanding Zhou, Muhammad S. Shamim, Haley Gore, Pamela Himadewi, Yushuai Liu et al. · 2020 · Molecular Cell
25. Multiscale modeling of genome organization with maximum entropy optimization
    Xingcheng Lin, Yifeng Qi, Andrew P. Latham, Bin Zhang · 2021 · The Journal of Chemical Physics
26. New insights into genome folding by loop extrusion from inducible degron technologies
    Elzo de Wit, Elphège Pierre Nora · 2022 · Nature Reviews Genetics
27. CRISPR-mediated multiplexed live cell imaging of nonrepetitive genomic loci with one guide RNA per locus
    Patricia A. Clow, Menghan Du, Nathaniel Jillette, Aziz Taghbalout, Jacqueline Jufen Zhu, Albert W. Cheng · 2022 · Nature Communications
28. SMC Complexes: Universal DNA Looping Machines with Distinct Regulators
    Marjon S. van Ruiten, Benjamin D. Rowland · 2018 · Trends in Genetics
29. TADs and their borders: free movement or building a wall?
    Li-Hsin Chang, Sourav Ghosh, D. Noordermeer · 2019 · Journal of Molecular Biology
30. BRD4 orchestrates genome folding to promote neural crest differentiation
    Ricardo Linares-Saldana, Wonho Kim, N. Bolar, Hao-Yue Zhang, Bailey A. Koch-Bojalad, Sora Yoon, P. Shah, Ashley Karnay, Daniel S. Park, Jennifer M. Luppino et al. · 2021 · Nature Genetics
31. The Birth of the 3D Genome during Early Embryonic Development
    Clemens B. Hug, Juan M. Vaquerizas · 2018 · Trends in Genetics
32. Computational methods for analysing multiscale 3D genome organization
    Yang Zhang, Lorenzo Boninsegna, Muyu Yang, Tom Misteli, Frank Alber, Jian Ma · 2023 · Nature Reviews Genetics
33. Chromatin Hyperacetylation Impacts Chromosome Folding by Forming a Nuclear Subcompartment
    Celeste D. Rosencrance, Haneen Ammouri, Qi Yu, Tiffany Ge, Emily Jane Rendleman, Stacy A. Marshall, Kyle P. Eagen · 2020 · Molecular Cell
34. A Role for Chromatin Remodeling in Cohesin Loading onto Chromosomes
    Sofía Muñoz, Masashi Minamino, Corella S. Casas-Delucchi, Harshil Patel, Frank Uhlmann · 2019 · Molecular Cell
35. Spatial patterns of CTCF sites define the anatomy of TADs and their boundaries
    Nanni, Luca, Ceri, Stefano, Logie, Colin · 2020 · Genome Biology
36. Nucleoporin 153 links nuclear pore complex to chromatin architecture by mediating CTCF and cohesin binding
    Shin-ichi Kadota, Jian-Hong Ou, Yuming Shi, Jeannie T. Lee, Jiayu Sun, E. Yildirim · 2020 · Nature Communications
37. Establishing and dissolving cohesion during the vertebrate cell cycle
    Carmen Morales, Ana Losada · 2018 · Current Opinion in Cell Biology
38. PRC1 collaborates with SMCHD1 to fold the X-chromosome and spread Xist RNA between chromosome compartments
    Chen‐Yu Wang, David Colognori, Hongjae Sunwoo, Danni Wang, Jeannie T. Lee · 2019 · Nature Communications
39. The role of 3D chromatin domains in gene regulation: a multi-facetted view on genome organization
    Daniel M. Ibrahim, Stefan Mundlos · 2020 · Current Opinion in Genetics & Development
40. Heterochromatin as an Important Driver of Genome Organization
    Andrés Penagos‐Puig, Mayra Furlan-Magaril · 2020 · Frontiers in Cell and Developmental Biology
41. Jpx RNA regulates CTCF anchor site selection and formation of chromosome loops
    Oh, Hyun Jung, Aguilar, Rodrigo, Kesner, Barry, Lee, Hun-Goo, Kriz, Andrea J., Chu, Hsueh-Ping, Lee, Jeannie T. · 2021 · Cell
42. DNA methylation signatures follow preformed chromatin compartments in cardiac myocytes
    Stephan Nothjunge, Thomas Georg Nührenberg, Björn Andreas Grüning, Stefanie A. Doppler, Sebastian Preißl, Martin Schwaderer, Carolin Rommel, Markus Krane, Lutz Hein, Ralf Gilsbach · 2017 · Nature Communications
43. Structural basis for Scc3-dependent cohesin recruitment to chromatin
    Yan Li, Kyle Muir, Matthew W. Bowler, Jutta Metz, Christian H. Haering, Daniel Panne · 2018 · eLife
44. Mechanistic modeling of chromatin folding to understand function
    Chris A. Brackley, Davide Marenduzzo, Nick Gilbert · 2020 · Nature Methods
45. The Myc-associated zinc finger protein (MAZ) works together with CTCF to control cohesin positioning and genome organization
    Tiaojiang Xiao, Xin Li, Gary Felsenfeld · 2021 · Proceedings of the National Academy of Sciences
46. Forces driving the three‐dimensional folding of eukaryotic genomes
    Álvaro Rada-Iglesias, Frank G. Grosveld, Argyris Papantonis · 2018 · Molecular Systems Biology
47. Tissue‐specific Hi‐C analyses of rice, foxtail millet and maize suggest non‐canonical function of plant chromatin domains
    Pengfei Dong, Xiaoyu Tu, Haoxuan Li, Jianhua Zhang, Donald Scott Grierson, Pinghua Li, Silin Zhong · 2019 · Journal of Integrative Plant Biology
48. Cohesion and cohesin-dependent chromatin organization
    Tomoko Nishiyama · 2018 · Current Opinion in Cell Biology
49. Functions of DEAD box RNA helicases DDX5 and DDX17 in chromatin organization and transcriptional regulation
    Guillaume Giraud, Sophie Terrone, Cyril F. Bourgeois · 2018 · BMB Reports
50. Glucocorticoid receptor triggers a reversible drug-tolerant dormancy state with acquired therapeutic vulnerabilities in lung cancer
    Stefan Preković, Karianne G. Schuurman, Isabel Mayayo‐Peralta, Anna G. Manjón, Mark Buijs, Selçuk Yavuz, Max D. Wellenstein, Alejandro Barrera, Kim Monkhorst, Anne Huber et al. · 2021 · Nature Communications
51. The cohesin acetylation cycle controls chromatin loop length through a PDS5A brake mechanism
    M. S. van Ruiten, Démi van Gent, Ángela Sedeño Cacciatore, Astrid Fauster, Laureen Willems, M. Hekkelman, L. Hoekman, M. Altelaar, J. Haarhuis, T. Brummelkamp et al. · 2022 · Nature Structural & Molecular Biology
52. Rules of engagement for condensins and cohesins guide mitotic chromosome formation
    Kumiko Samejima, Johan Harmen Gibcus, Sameer Abraham, Fernanda Cisneros-Soberanis, Itaru Samejima, Alison J. Beckett, Nina Pucekova, Maria Alba Abad, Christos Spanos, Bethan Medina‐Pritchard et al. · 2025 · Science
53. Orientation-dependent Dxz4 contacts shape the 3D structure of the inactive X chromosome
    Giancarlo Bonora, Xinxian Deng, He Fang, Vijay Ramani, Ruowen Qiu, Joel B. Berletch, Gala N. Filippova, Z. Duan, Jay Shendure, William Stafford Noble et al. · 2018 · Nature Communications
54. A cohesin traffic pattern genetically linked to gene regulation
    Anne-Laure Valton, Sergey V. Venev, Barbara Mair, Eraj Shafiq Khokhar, Amy H.Y. Tong, Matej Ušaj, Katherine Chan, Athma A. Pai, Jason Moffat, Job Dekker · 2022 · Nature Structural & Molecular Biology
55. Understanding the 3D genome: Emerging impacts on human disease
    Anton Krumm, Zhijun Duan · 2018 · Seminars in Cell and Developmental Biology
56. Sister DNA Entrapment between Juxtaposed Smc Heads and Kleisin of the Cohesin Complex
    Christophe Chapard, Robert Jones, Till van Oepen, Johanna C. Scheinost, Kim Nasmyth · 2019 · Molecular Cell
57. Calcium signaling instructs NIPBL recruitment at active enhancers and promoters via distinct mechanisms to reconstruct genome compartmentalization
    Yina Zhu, Matthew Denholtz, Hanbin Lu, Cornelis Murre · 2020 · Genes & Development
58. Specialized functions of cohesins STAG1 and STAG2 in 3D genome architecture
    Ana Cuadrado, Ana Losada · 2020 · Current Opinion in Genetics & Development
59. MCM2–7-dependent cohesin loading during S phase promotes sister-chromatid cohesion
    Ge Zheng, Mohammed Kanchwala, Chao Xing, Hongtao Yu · 2018 · eLife
60. Order and disorder: abnormal 3D chromatin organization in human disease
    Chiara Anania, Darío G. Lupiáñez · 2019 · Briefings in Functional Genomics
61. Smc3 acetylation, Pds5 and Scc2 control the translocase activity that establishes cohesin-dependent chromatin loops
    Nathalie Bastié, Christophe Chapard, Lise Dauban, Olivier Gadal, Frédéric Beckouët, Romain Koszul · 2022 · Nature Structural & Molecular Biology
62. Cohesin-dependent chromosome loop extrusion is limited by transcription and stalled replication forks
    Kristian E. Jeppsson, Toyonori Sakata, Ryuichiro Nakato, Stefina Milanova, Katsuhiko Shirahige, Camilla Björkegren · 2022 · Science Advances
63. Chromatin jets define the properties of cohesin-driven in vivo loop extrusion.
    Ya Guo, Ediem Al-Jibury, Rosalba Garcia-Millan, Konstantinos Ntagiantas, James W D King, Alexander J. Nash, N. Galjart, B. Lenhard, D. Rueckert, A. Fisher et al. · 2022 · Molecules and Cells
64. TADs: Dynamic structures to create stable regulatory functions
    José A. da Costa-Nunes, Daan Noordermeer · 2023 · Current Opinion in Structural Biology
65. How the Genome Folds: The Biophysics of Four-Dimensional Chromatin Organization
    Jyotsana J. Parmar, Maxime Woringer, Christophe Zimmer · 2019 · Annual Review of Biophysics
66. Long-range Pitx2c enhancer–promoter interactions prevent predisposition to atrial fibrillation
    Min Zhang, Matthew C. Hill, Zachary A. Kadow, Ji Ho Suh, Nathan R. Tucker, Amelia Weber Hall, Tien T. Tran, Paul S. Swinton, John P. Leach, Kenneth B. Margulies et al. · 2019 · Proceedings of the National Academy of Sciences
67. Cornelia de Lange syndrome: from molecular diagnosis to therapeutic approach
    Patrizia Sarogni, Maria Michela Pallotta, Antonio Musio · 2019 · Journal of Medical Genetics
68. Transcription factors: building hubs in the 3D space
    Dafne Campigli Di Giammartino, Alexander Polyzos, Effie Apostolou · 2020 · Cell Cycle
69. Opposing Effects of Cohesin and Transcription on CTCF Organization Revealed by Super-resolution Imaging
    Bo Gu, Colin J. Comerci, Dannielle G. McCarthy, Saumya Saurabh, W. E. Moerner, Joanna Wysocka · 2020 · Molecular Cell
70. Three-dimensional chromatin in disease: What holds us together and what drives us apart?
    Daniel M. Ibrahim, Stefan Mundlos · 2020 · Current Opinion in Cell Biology
71. Analysis of Genome Architecture during SCNT Reveals a Role of Cohesin in Impeding Minor ZGA.
    Kecheng Zhang, Danya Wu, Hui Zheng, Yao Wang, Qiao-Ran Sun, Xin Liu, Liyan Wang, Wen-Jing Xiong, Qiu-Jun Wang, J. Rhodes et al. · 2020 · Molecules and Cells
72. The interdependence of gene-regulatory elements and the 3D genome
    Marit Willemijn Vermunt, Di Zhang, Gerd A. Blobel · 2018 · The Journal of Cell Biology
73. Defining the relative and combined contribution of CTCF and CTCFL to genomic regulation
    Mayilaadumveettil Nishana, Caryn J. Ha, Javier Rodriguez-Hernaez, Ali Ranjbaran, Erica Chio, Elphège Pierre Nora, Sana Badri, Andreas Kloetgen, Benoit G. Bruneau, Aristotelis Tsirigos et al. · 2020 · Genome biology
74. Three-dimensional folding dynamics of the Xenopus tropicalis genome
    Longjian Niu, Wei Shen, Zhaoying Shi, Yongjun Tan, Na He, Jing Wan, Jialei Sun, Yuedong Zhang, Yingzhang Huang, Wenjing Wang et al. · 2021 · Nature Genetics
75. DNA methylation is required to maintain both DNA replication timing precision and 3D genome organization integrity.
    Q. Du, Grady C. Smith, Phuc-Loi Luu, James M. Ferguson, Nicola J. Armstrong, C. E. Caldon, Elyssa M. Campbell, S. Nair, E. Zotenko, Cathryn M. Gould et al. · 2021 · Cell Reports
76. Interplay between CTCF boundaries and a super enhancer controls cohesin extrusion trajectories and gene expression
    Erica S.M. Vos, Christian Valdes‐Quezada, Yike Huang, Amin Allahyar, Marjon J.A.M. Verstegen, Anna-Karina Felder, Floor van der Vegt, Esther C. H. Uijttewaal, Peter H.L. Krijger, Wouter L. de Laat · 2021 · Molecular Cell
77. CTCF organizes inter-A compartment interactions through RYBP-dependent phase separation
    Chao Wei, L. Jia, Xiaona Huang, Jin Tan, Mulan Wang, Jing Niu, Yingping Hou, Jun-Yi Sun, Pengguihang Zeng, Jia Wang et al. · 2022 · Cell Research
78. Genetic determinants of micronucleus formation in vivo
    David J. Adams, B. Barlas, R. E. McIntyre, Israel Salguero, Louise van der Weyden, A. Barros, J. R. Vicente, Nadia Karimpour, A. Haider, Marco Ranzani et al. · 2024 · Nature
79. Arsenic-induced epigenetic changes in cancer development
    Wesley N. Saintilnord, Yvonne N. Fondufe‐Mittendorf · 2021 · Seminars in Cancer Biology
80. Data-Driven Polymer Model for Mechanistic Exploration of Diploid Genome Organization
    Yifeng Qi, Alejandro Reyes, Sarah E. Johnstone, Martin J. Aryee, B Bernstein, Bin Zhang · 2020 · Biophysical Journal
81. HiC-DC+ enables systematic 3D interaction calls and differential analysis for Hi-C and HiChIP
    Merve Sahin, Wilfred Wong, Ying-Qian A. Zhan, Kinsey Van Deynze, R. Koche, C. Leslie · 2021 · Nature Communications
82. Full circle: a brief history of cohesin and the regulation of gene expression
    Julia A. Horsfield · 2022 · FEBS Journal
83. LncRNA-OIS1 regulates DPP4 activation to modulate senescence induced by RAS
    Li Li, Pieter C. Van Breugel, Fabricio Loayza‐Puch, Alejandro Pineiro Ugalde, Gözde Korkmaz, Naama Messika-Gold, Ruiqi Han, Rui Lopes, Eric Pintó Barberà, Hans Teunissen et al. · 2018 · Nucleic Acids Research
84. MAU2 and NIPBL Variants Impair the Heterodimerization of the Cohesin Loader Subunits and Cause Cornelia de Lange Syndrome
    Ilaria Parenti, Farah Diab, Sara Ruiz Gil, Eskeatnaf Mulugeta, Valentina Casà, Riccardo Berutti, Rutger W. W. Brouwer, Valérie Dupé, Juliane Eckhold, Elisabeth Graf et al. · 2020 · Cell Reports
85. Higher-Order Chromosomal Structures Mediate Genome Function
    Ivana Jerković, Quentin Szabo, Frédéric Bantignies, Giacomo Cavalli · 2019 · Journal of Molecular Biology
86. Defining Functionally Relevant Spatial Chromatin Domains: It is a TAD Complicated
    Natalia Sikorska, Tom Sexton · 2019 · Journal of Molecular Biology
87. The multifaceted roles of cohesin in cancer
    Maddalena Di Nardo, Maria Michela Pallotta, Antonio Musio · 2022 · Journal of Experimental & Clinical Cancer Research
88. Enhancer-gene specificity in development and disease
    Tomás Pachano, Endika Haro, Álvaro Rada-Iglesias · 2022 · Development
89. WAPL functions as a rheostat of Protocadherin isoform diversity that controls neural wiring
    Lea Kiefer, Anna Chiosso, J. Langen, Alexander Buckley, Simon Gaudin, Sandy M. Rajkumar, G. Servito, Elizabeth S. Cha, Akshara Vijay, Albert K. W. Yeung et al. · 2023 · Science
90. Chromatin loop anchors are associated with genome instability in cancer and recombination hotspots in the germline
    V. Kaiser, C. Semple · 2017 · Genome Biology
91. Engineering 3D genome organization
    Haifeng Wang, Mengting Han, Lei S. Qi · 2021 · Nature Reviews Genetics
92. Chromatin Conformation in Development and Disease
    Ilias Boltsis, Frank G. Grosveld, Guillaume Giraud, Petros Kolovos · 2021 · Frontiers in Cell and Developmental Biology
93. Cohesin Removal Reprograms Gene Expression upon Mitotic Entry
    Carlos Perea-Resa, Leah Bury, Iain M. Cheeseman, Michael D. Blower · 2020 · Molecular Cell
94. Crossed wires: 3D genome misfolding in human disease
    Norton, Heidi K., Phillips-Cremins, Jennifer E. · 2017 · Journal of Cell Biology
95. Topologically Associating Domains and Regulatory Landscapes in Development, Evolution and Disease
    Juan J. Tena, José M. Santos-Pereira · 2021 · Frontiers in Cell and Developmental Biology
96. Chromosome architecture and homologous recombination in meiosis
    Masaru Ito, Akira Shinohara · 2023 · Frontiers in Cell and Developmental Biology
97. NIPBL and cohesin: new take on a classic tale
    Dácil Alonso Gil, Ana Losada · 2023 · Trends in Cell Biology
98. CTCF chromatin residence time controls three-dimensional genome organization, gene expression and DNA methylation in pluripotent cells
    Widia Soochit, Frank Sleutels, Grégoire Stik, Marek Bartkuhn, Sreya Basu, Silvia C. Hernández, Sarra Merzouk, Enrique Vidal, Ruben Boers, Joachim Boers et al. · 2021 · Nature Cell Biology
99. Strategies to Improve the Efficiency of Somatic Cell Nuclear Transfer
    Kanokwan Srirattana, Masahiro Kaneda, Rangsun Parnpai · 2022 · International Journal of Molecular Sciences
100. WAPL-Dependent Repair of Damaged DNA Replication Forks Underlies Oncogene-Induced Loss of Sister Chromatid Cohesion
     Bente Benedict, Janne J. M. van Schie, Anneke B. Oostra, Jesper A. Balk, Rob M.F. Wolthuis, Hein te Riele, Job de Lange · 2020 · Developmental Cell