David Cortez

Active 1995–2024

84
Papers
21,913
Citations
68
h-index
83
i10-index

Citations

Citations per year for David Cortez1995: 1 citations1996: 5 citations1997: 13 citations1998: 29 citations1999: 41 citations2000: 130 citations2001: 242 citations2002: 255 citations2003: 292 citations2004: 267 citations2005: 168 citations2006: 202 citations2007: 163 citations2008: 160 citations2009: 176 citations2010: 227 citations2011: 186 citations2012: 161 citations2013: 272 citations2014: 185 citations2015: 224 citations2016: 191 citations2017: 301 citations2018: 229 citations2019: 750 citations2020: 935 citations2021: 827 citations2022: 599 citations2023: 500 citations2024: 830 citations2025: 290 citations2026: 9 citations

Citation sources

Countries

World map of the countries and regions citing this authorUnited States: 2,761 citing papers, 36.3% of this breakdownUnited Kingdom: 750 citing papers, 9.9% of this breakdownChina: 614 citing papers, 8.1% of this breakdownGermany: 375 citing papers, 4.9% of this breakdownFrance: 288 citing papers, 3.8% of this breakdownCanada: 264 citing papers, 3.5% of this breakdownItaly: 234 citing papers, 3.1% of this breakdownJapan: 232 citing papers, 3.1% of this breakdownNetherlands: 182 citing papers, 2.4% of this breakdownSwitzerland: 180 citing papers, 2.4% of this breakdownSpain: 171 citing papers, 2.2% of this breakdownAustralia: 167 citing papers, 2.2% of this breakdown
0%36.3%Other 18.1%

Fields

  • Biochemistry, Genetics and Molecular Biology74%
  • Medicine22%
  • Immunology and Microbiology1.5%
  • Agricultural and Biological Sciences0.9%
  • Neuroscience0.6%
  • Environmental Science0.4%
  • Other0.6%

Topics

  • DNA Repair Mechanisms20.9%
  • CRISPR and Genetic Engineering5.7%
  • Cancer-related Molecular Pathways5.6%
  • PARP inhibition in cancer therapy5.3%
  • Microtubule and mitosis dynamics4.2%
  • Genomics and Chromatin Dynamics3.7%
  • Other54.6%

Coauthors

All papers

Open in search
  1. Replication fork stability confers chemoresistance in BRCA-deficient cells

    Authors: , , , , , , , , , , , , , , , , , , , , , , , , , - Nature 2016 cited by 949

  2. The essential kinase ATR: ensuring faithful duplication of a challenging genome

    Authors: , , - Nature Reviews Molecular Cell Biology 2017 cited by 844

  3. The plasticity of DNA replication forks in response to clinically relevant genotoxic stress

    Authors: , , - Nature Reviews Molecular Cell Biology 2020 cited by 348

  4. ATR: an essential regulator of genome integrity

    Authors: , - Nature Reviews Molecular Cell Biology 2008 cited by 1,780

  5. RPA and RAD51: fork reversal, fork protection, and genome stability

    Authors: , - Nature Structural & Molecular Biology 2018 cited by 356

  6. Chk1 is an essential kinase that is regulated by Atr and required for the G2/M DNA damage checkpoint

    Authors: , , , , , , , , , , , - Genes & Development 2000 cited by 1,619

  7. An intrinsic S/G 2 checkpoint enforced by ATR

    Authors: , , , , , , , , , , , , - Science 2018 cited by 311

  8. HMCES Maintains Genome Integrity by Shielding Abasic Sites in Single-Strand DNA

    Authors: , , , , , , , , , - Cell 2018 cited by 194

  9. The Replication Checkpoint Prevents Two Types of Fork Collapse without Regulating Replisome Stability

    Authors: , , , , , , - Molecular Cell 2015 cited by 379

  10. Replication-Coupled DNA Repair

    Authors: - Molecular Cell 2019 cited by 250

  11. ATR and ATRIP: Partners in Checkpoint Signaling

    Authors: , , , - Science 2001 cited by 977

  12. Replication Fork Slowing and Reversal upon DNA Damage Require PCNA Polyubiquitination and ZRANB3 DNA Translocase Activity

    Authors: , , , , , , , , , , , , , , , - Molecular Cell 2017 cited by 239

  13. New insights into abasic site repair and tolerance

    Authors: , - DNA repair 2020 cited by 168

  14. RAD51 bypasses the CMG helicase to promote replication fork reversal

    Authors: , , , , , , - Science 2023 cited by 104

  15. ATR phosphorylates SMARCAL1 to prevent replication fork collapse

    Authors: , , , , , , , , , , - Genes & Development 2013 cited by 406

  16. Identification of Proteins at Active, Stalled, and Collapsed Replication Forks Using Isolation of Proteins on Nascent DNA (iPOND) Coupled with Mass Spectrometry

    Authors: , , , , , , , - Journal of Biological Chemistry 2013 cited by 258

  17. Analysis of protein dynamics at active, stalled, and collapsed replication forks

    Authors: , , , , , - Genes & Development 2011 cited by 441

  18. SMARCAL1 catalyzes fork regression and Holliday junction migration to maintain genome stability during DNA replication

    Authors: , , , , , , , - Genes & Development 2012 cited by 292

  19. RADX Promotes Genome Stability and Modulates Chemosensitivity by Regulating RAD51 at Replication Forks

    Authors: , , , , , , , , , - Molecular Cell 2017 cited by 205

  20. Monitoring the spatiotemporal dynamics of proteins at replication forks and in assembled chromatin using isolation of proteins on nascent DNA

    Authors: , , - Nature Protocols 2012 cited by 213

  21. Functional Analysis of the Replication Fork Proteome Identifies BET Proteins as PCNA Regulators

    Authors: , , , , - Cell Reports 2019 cited by 128

  22. Two replication fork remodeling pathways generate nuclease substrates for distinct fork protection factors

    Authors: , , , - Science Advances 2020 cited by 100

  23. CHK1 phosphorylates PRIMPOL to promote replication stress tolerance

    Authors: , , , , , , - Science Advances 2022 cited by 55

  24. Deletion of Histone Deacetylase 3 Reveals Critical Roles in S Phase Progression and DNA Damage Control

    Authors: , , , , , , - Molecular Cell 2008 cited by 382