Regulation of bacterial type II restriction-modification (R-M) systems

被引:0
|
作者
Wesserling, Martyna [1 ]
机构
[1] Gdanski Uniwersytet Med, Katedra Biochem Klin, Zaklad Med Mol, PL-80211 Gdansk, Poland
来源
POSTEPY MIKROBIOLOGII | 2015年 / 54卷 / 01期
关键词
C protein; restriction-modification systems; regulation of expression; CITROBACTER SP RFL231; DNA METHYLTRANSFERASE; GENE-EXPRESSION; STRUCTURAL ORGANIZATION; CONTROLLER PROTEINS; HOST-CELL; ENDONUCLEASE; TRANSCRIPTION; C.CSP231I; SEQUENCES;
D O I
暂无
中图分类号
Q93 [微生物学];
学科分类号
071005 ; 100705 ;
摘要
Type II restriction-modification (R-M) systems encode two separate enzymes: a restriction endonuclease (R) and a DNA methyltransferase (M). The action of the DNA sequence-specific methyltransferase protects the host DNA from cleavage by an associated restriction enzyme. The function of type II restriction-modification system regulation is generally assumed to be prevention of bacterial cell auto-restriction. The R and M genes must be regulated in such a way that the cell's own DNA is fully protected before restriction endonuclease activity appears. There a variety of control mechanisms that ensure the correct temporal expression of R-M genes. Unfortunately, the regulation mechanisms have not been well explored thus far. The understanding of the expression regulation of R-M genes is important and may influence the direction of research on new therapeutic methods.
引用
收藏
页码:5 / 9
页数:5
相关论文
共 50 条
  • [31] High-risk KPC-producing Klebsiella pneumoniae lack type I R-M systems
    Zhou, Ying
    Tian, Dongxing
    Tang, Yu
    Yu, Lianhua
    Huang, Yunkun
    Li, Gang
    Li, Meng
    Wang, Yong
    Yang, Zehua
    Poirel, Laurent
    Jiang, Xiaofei
    INTERNATIONAL JOURNAL OF ANTIMICROBIAL AGENTS, 2020, 56 (02)
  • [32] The restriction-modification system of Pasteurella haemolytica is a member of a new family of type I enzymes
    Highlander, SK
    Garza, O
    GENE, 1996, 178 (1-2) : 89 - 96
  • [33] Avoidance of recognition sites of restriction-modification systems is a widespread but not universal anti-restriction strategy of prokaryotic viruses
    I. S. Rusinov
    A. S. Ershova
    A. S. Karyagina
    S. A. Spirin
    A. V. Alexeevski
    BMC Genomics, 19
  • [34] Lifespan of restriction-modification systems critically affects avoidance of their recognition sites in host genomes
    Ivan Rusinov
    Anna Ershova
    Anna Karyagina
    Sergey Spirin
    Andrei Alexeevski
    BMC Genomics, 16
  • [35] Lifespan of restriction-modification systems critically affects avoidance of their recognition sites in host genomes
    Rusinov, Ivan
    Ershova, Anna
    Karyagina, Anna
    Spirin, Sergey
    Alexeevski, Andrei
    BMC GENOMICS, 2015, 16
  • [36] Avoidance of recognition sites of restriction-modification systems is a widespread but not universal anti-restriction strategy of prokaryotic viruses
    Rusinov, I. S.
    Ershova, A. S.
    Karyagina, A. S.
    Spirin, S. A.
    Alexeevski, A. V.
    BMC GENOMICS, 2018, 19
  • [37] Structure of the motor subunit of type I restriction-modification complex EcoR124I
    Lapkouski, Mikalai
    Panjikar, Santosh
    Janscak, Pavel
    Smatanova, Ivana Kuta
    Carey, Jannette
    Ettrich, Ruediger
    Csefalvay, Eva
    NATURE STRUCTURAL & MOLECULAR BIOLOGY, 2009, 16 (01) : 94 - 95
  • [38] The EcoKI Type I Restriction-Modification System in Escherichia coli Affects but Is Not an Absolute Barrier for Conjugation
    Roer, Louise
    Aarestrup, Frank M.
    Hasman, Henrik
    JOURNAL OF BACTERIOLOGY, 2015, 197 (02) : 337 - 342
  • [39] DNA cleavage by Type ISP Restriction-Modification enzymes is initially targeted to the 3'-5' strand
    van Aelst, Kara
    Sisakova, Eva
    Szczelkun, Mark D.
    NUCLEIC ACIDS RESEARCH, 2013, 41 (02) : 1081 - 1090
  • [40] Efficient construction of xenogeneic genomic libraries by circumventing restriction-modification systems that restrict methylated DNA
    Hasegawa, Satoshi
    Jojima, Toru
    Inui, Masayuki
    JOURNAL OF MICROBIOLOGICAL METHODS, 2018, 146 : 13 - 15