Emerging non-canonical roles for the Rad51-Rad52 interaction in response to double-strand breaks in yeast

被引:9
作者
Ngo, Katrina [1 ]
Epum, Esther A. [1 ,2 ]
Friedman, Katherine L. [1 ]
机构
[1] Vanderbilt Univ, Dept Biol Sci, 221 Kirkland Hall, Nashville, TN 37235 USA
[2] Brandeis Univ, Dept Biol, Rosenstiel Basic Med Sci Res Ctr, Waltham, MA 02254 USA
基金
美国国家卫生研究院;
关键词
DNA repair; Homologous recombination; Rad51; Rad52; Telomere; Telomerase; NOVO TELOMERE ADDITION; DNA-BINDING-PROTEIN; RECOMBINATION PROTEINS; RAD52; PROTEIN; G2/M ARREST; REPAIR; DAMAGE; ADAPTATION; PATHWAYS; RECOVERY;
D O I
10.1007/s00294-020-01081-z
中图分类号
Q3 [遗传学];
学科分类号
071007 ; 090102 ;
摘要
DNA double-strand break repair allows cells to survive both exogenous and endogenous insults to the genome. In yeast, the recombinases Rad51 and Rad52 are central to multiple forms of homology-dependent repair. Classically, Rad51 and Rad52 are thought to act cooperatively, with formation of the functional Rad51 nucleofilament facilitated by the mediator function of Rad52. Several studies have now identified functions for the interaction between Rad51 and Rad52 that are independent of the mediator function of Rad52 and affect a seemingly diverse array of functions in de novo telomere addition, global chromosome mobility following DNA damage, Rad51 nucleofilament stability, checkpoint adaptation, and microhomology-mediated chromosome rearrangements. Here, we review these functions with an emphasis on our recent discovery that the Rad51-Rad52 interaction influences the probability of de novo telomere addition at sites preferentially targeted by telomerase following a double-strand break (DSB). We present data addressing the prevalence of sites within the yeast genome that are capable of stimulating de novo telomere addition following a DSB and speculate about the potential role such sites may play in genome stability.
引用
收藏
页码:917 / 926
页数:10
相关论文
共 54 条
[1]   PRIMARY STRUCTURE OF THE RAD52 GENE IN SACCHAROMYCES-CEREVISIAE [J].
ADZUMA, K ;
OGAWA, T ;
OGAWA, H .
MOLECULAR AND CELLULAR BIOLOGY, 1984, 4 (12) :2735-2744
[2]   DSB repair: the yeast paradigm [J].
Aylon, Y ;
Kupiec, M .
DNA REPAIR, 2004, 3 (8-9) :797-815
[3]   Regulation of Single-Strand Annealing and its Role in Genome Maintenance [J].
Bhargava, Ragini ;
Onyango, David O. ;
Stark, Jeremy M. .
TRENDS IN GENETICS, 2016, 32 (09) :566-575
[4]   Keep moving and stay in a good shape to find your homologous recombination partner [J].
Bordelet, Helene ;
Dubrana, Karine .
CURRENT GENETICS, 2019, 65 (01) :29-39
[5]   De novo telomere addition at chromosome breaks: Dangerous Liaisons [J].
Churikov, Dmitri ;
Geli, Vincent .
JOURNAL OF CELL BIOLOGY, 2017, 216 (08) :2243-2245
[6]   Adaptation in replicative senescence: a risky business [J].
Coutelier, Heloise ;
Xu, Zhou .
CURRENT GENETICS, 2019, 65 (03) :711-716
[7]   Multiple start codons and phosphorylation result in discrete Rad52 protein species [J].
De Mayolo, Adriana Antunez ;
Lisby, Michael ;
Erdeniz, Naz ;
Thybo, Tanja ;
Mortensen, Uffe H. ;
Rothstein, Rodney .
NUCLEIC ACIDS RESEARCH, 2006, 34 (09) :2587-2597
[8]   Break-induced replication promotes formation of lethal joint molecules dissolved by Srs2 [J].
Elango, Rajula ;
Sheng, Ziwei ;
Jackson, Jessica ;
DeCata, Jenna ;
Ibrahim, Younis ;
Pham, Nhung T. ;
Liang, Diana H. ;
Sakofsky, Cynthia J. ;
Vindigni, Alessandro ;
Lobachev, Kirill S. ;
Ira, Grzegorz ;
Malkova, Anna .
NATURE COMMUNICATIONS, 2017, 8
[9]   Interaction of yeast Rad51 and Rad52 relieves Rad52-mediated inhibition of de novo telomere addition [J].
Epum, Esther A. ;
Mohan, Michael J. ;
Ruppe, Nicholas P. ;
Friedman, Katherine L. .
PLOS GENETICS, 2020, 16 (02)
[10]   Est1 and Cdc13 as comediators of telomerase access [J].
Evans, SK ;
Lundblad, V .
SCIENCE, 1999, 286 (5437) :117-120