UV-induced G4 DNA structures recruit ZRF1 which prevents UV-induced senescence

被引:7
|
作者
De Magis, Alessio [1 ,2 ]
Limmer, Michaela [1 ,2 ]
Mudiyam, Venkat [1 ]
Monchaud, David [3 ]
Juranek, Stefan [2 ]
Paeschke, Katrin [1 ,2 ]
机构
[1] Univ Hosp Bonn, Inst Clin Chem & Clin Pharmacol, Bonn, Germany
[2] Univ Hosp Bonn, Dept Oncol Hematol & Rheumatol, Bonn, Germany
[3] Univ Bourgogne, Inst Chim Mol Univ Bourgogne ICMUB, CNRS UMR 6302, Dijon, France
关键词
NUCLEOTIDE EXCISION-REPAIR; G-QUADRUPLEX STRUCTURES; CELLULAR SENESCENCE; DAMAGE RESPONSE; CANCER; CELLS; STABILITY; APOPTOSIS; BALANCE; BIOLOGY;
D O I
10.1038/s41467-023-42494-x
中图分类号
O [数理科学和化学]; P [天文学、地球科学]; Q [生物科学]; N [自然科学总论];
学科分类号
07 ; 0710 ; 09 ;
摘要
Senescence has two roles in oncology: it is known as a potent tumor-suppressive mechanism, which also supports tissue regeneration and repair, it is also known to contribute to reduced patient resilience, which might lead to cancer recurrence and resistance after therapy. Senescence can be activated in a DNA damage-dependent and -independent manner. It is not clear which type of genomic lesions induces senescence, but it is known that UV irradiation can activate cellular senescence in photoaged skin. Proteins that support the repair of DNA damage are linked to senescence but how they contribute to senescence after UV irradiation is still unknown. Here, we unraveled a mechanism showing that upon UV irradiation multiple G-quadruplex (G4) DNA structures accumulate in cell nuclei, which leads to the recruitment of ZRF1 to these G4 sites. ZRF1 binding to G4s ensures genome stability. The absence of ZRF1 triggers an accumulation of G4 structures, improper UV lesion repair, and entry into senescence. On the molecular level loss of ZRF1 as well as high G4 levels lead to the upregulation of DDB2, a protein associated with the UV-damage repair pathway, which drives cells into senescence.
引用
收藏
页数:16
相关论文
共 50 条
  • [31] UV-INDUCED FREE-RADICALS IN ORIENTED DNA
    GRASLUND, A
    EHRENBERG, A
    RUPPRECHT, A
    STROM, G
    PHOTOCHEMISTRY AND PHOTOBIOLOGY, 1979, 29 (02) : 245 - 251
  • [32] UV-INDUCED DAMAGE AND REPAIR IN CENTROMERE DNA OF YEAST
    RESNICK, MA
    WESTMORELAND, J
    AMAYA, E
    BLOOM, K
    MOLECULAR & GENERAL GENETICS, 1987, 210 (01): : 16 - 22
  • [33] IS UV-INDUCED DNA DAMAGE GREATER AT HIGHER ELEVATION?
    Wang, Qing-Wei
    Hidema, Jun
    Hikosaka, Kouki
    AMERICAN JOURNAL OF BOTANY, 2014, 101 (05) : 796 - 802
  • [34] Regulation of UV-induced DNA damage response by ubiquitylation
    Beryink, Steuen
    Jaspers, Nicolaas G. J.
    Vermeulen, Wim
    DNA REPAIR, 2007, 6 (09) : 1231 - 1242
  • [35] Comet assay to study UV-induced DNA damage
    Remenyik, É
    Varga, C
    Emri, G
    Hunyadi, J
    Horkay, I
    BIOLOGIC EFFECTS OF LIGHT 1998, 1999, : 41 - 43
  • [36] The role of cNOS in UV-induced DNA damage and repair
    Wu, S.
    Lorca, V. Bahamondes
    Tong, L.
    JOURNAL OF INVESTIGATIVE DERMATOLOGY, 2023, 143 (09) : B27 - B27
  • [37] Visualization of UV-induced damage on single DNA molecules
    Lee, Jinyong
    Park, Hyun Seung
    Lim, Sangyong
    Jo, Kyubong
    CHEMICAL COMMUNICATIONS, 2013, 49 (42) : 4740 - 4742
  • [38] The Dark Side of UV-Induced DNA Lesion Repair
    Strzalka, Wojciech
    Zglobicki, Piotr
    Kowalska, Ewa
    Bazant, Aneta
    Dziga, Dariusz
    Banas, Agnieszka Katarzyna
    GENES, 2020, 11 (12) : 1 - 33
  • [39] Mechanism of UV-Induced Formation of Dewar Lesions in DNA
    Haiser, Karin
    Fingerhut, Benjamin P.
    Heil, Korbinian
    Glas, Andreas
    Herzog, Teja T.
    Pilles, Bert M.
    Schreier, Wolfgang J.
    Zinth, Wolfgang
    de Vivie-Riedle, Regina
    Carell, Thomas
    ANGEWANDTE CHEMIE-INTERNATIONAL EDITION, 2012, 51 (02) : 408 - 411
  • [40] Resolution of UV-Induced DNA Damage in Xiphophorus Fishes
    David L. Mitchell
    Jarah A. Meador
    Michelle Byrom
    Ronald B. Walter
    Marine Biotechnology, 2001, 3 (Suppl 1) : S61 - S71