Literature DB >> 30624736

Crystal structure of the Redβ C-terminal domain in complex with λ Exonuclease reveals an unexpected homology with λ Orf and an interaction with Escherichia coli single stranded DNA binding protein.

Brian J Caldwell1,2, Ekaterina Zakharova2, Gabriel T Filsinger3, Timothy M Wannier4, Jordan P Hempfling1,5, Lee Chun-Der5, Dehua Pei1,5, George M Church4,6, Charles E Bell1,2,5.   

Abstract

Bacteriophage λ encodes a DNA recombination system that includes a 5'-3' exonuclease (λ Exo) and a single strand annealing protein (Redβ). The two proteins form a complex that is thought to mediate loading of Redβ directly onto the single-stranded 3'-overhang generated by λ Exo. Here, we present a 2.3 Å crystal structure of the λ Exo trimer bound to three copies of the Redβ C-terminal domain (CTD). Mutation of residues at the hydrophobic core of the interface disrupts complex formation in vitro and impairs recombination in vivo. The Redβ CTD forms a three-helix bundle with unexpected structural homology to phage λ Orf, a protein that binds to E. coli single-stranded DNA binding protein (SSB) to function as a recombination mediator. Based on this relationship, we found that Redβ binds to full-length SSB, and to a peptide corresponding to its nine C-terminal residues, in an interaction that requires the CTD. These results suggest a dual role of the CTD, first in binding to λ Exo to facilitate loading of Redβ directly onto the initial single-stranded DNA (ssDNA) at a 3'-overhang, and second in binding to SSB to facilitate annealing of the overhang to SSB-coated ssDNA at the replication fork.
© The Author(s) 2019. Published by Oxford University Press on behalf of Nucleic Acids Research.

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Year:  2019        PMID: 30624736      PMCID: PMC6393309          DOI: 10.1093/nar/gky1309

Source DB:  PubMed          Journal:  Nucleic Acids Res        ISSN: 0305-1048            Impact factor:   16.971


  57 in total

1.  RecE/RecT and Redalpha/Redbeta initiate double-stranded break repair by specifically interacting with their respective partners.

Authors:  J P Muyrers; Y Zhang; F Buchholz; A F Stewart
Journal:  Genes Dev       Date:  2000-08-01       Impact factor: 11.361

2.  High efficiency mutagenesis, repair, and engineering of chromosomal DNA using single-stranded oligonucleotides.

Authors:  H M Ellis; D Yu; T DiTizio; D L Court
Journal:  Proc Natl Acad Sci U S A       Date:  2001-05-29       Impact factor: 11.205

3.  A Structure-Activity Analysis for Probing the Mechanism of Processive Double-Stranded DNA Digestion by λ Exonuclease Trimers.

Authors:  Xinlei Pan; Christopher E Smith; Jinjin Zhang; Kimberly A McCabe; Jun Fu; Charles E Bell
Journal:  Biochemistry       Date:  2015-10-06       Impact factor: 3.162

4.  Binding and recognition of GATATC target sequences by the EcoRV restriction endonuclease: a study using fluorescent oligonucleotides and fluorescence polarization.

Authors:  S L Reid; D Parry; H H Liu; B A Connolly
Journal:  Biochemistry       Date:  2001-02-27       Impact factor: 3.162

5.  Beta protein of bacteriophage lambda promotes renaturation of DNA.

Authors:  E Kmiec; W K Holloman
Journal:  J Biol Chem       Date:  1981-12-25       Impact factor: 5.157

6.  The C-terminus of the phage λ Orf recombinase is involved in DNA binding.

Authors:  Fiona A Curtis; Patricia Reed; Lindsay A Wilson; Laura Y Bowers; Robert P Yeo; John M Sanderson; Adrian R Walmsley; Gary J Sharples
Journal:  J Mol Recognit       Date:  2010-12-13       Impact factor: 2.137

7.  A central role for SSB in Escherichia coli RecQ DNA helicase function.

Authors:  Robert D Shereda; Douglas A Bernstein; James L Keck
Journal:  J Biol Chem       Date:  2007-05-03       Impact factor: 5.157

8.  Programming cells by multiplex genome engineering and accelerated evolution.

Authors:  Harris H Wang; Farren J Isaacs; Peter A Carr; Zachary Z Sun; George Xu; Craig R Forest; George M Church
Journal:  Nature       Date:  2009-07-26       Impact factor: 49.962

9.  Temperate phages acquire DNA from defective prophages by relaxed homologous recombination: the role of Rad52-like recombinases.

Authors:  Marianne De Paepe; Geoffrey Hutinet; Olivier Son; Jihane Amarir-Bouhram; Sophie Schbath; Marie-Agnès Petit
Journal:  PLoS Genet       Date:  2014-03-06       Impact factor: 5.917

10.  PriA helicase and SSB interact physically and functionally.

Authors:  Chris J Cadman; Peter McGlynn
Journal:  Nucleic Acids Res       Date:  2004-12-02       Impact factor: 16.971

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  11 in total

Review 1.  Structure and mechanism of the Red recombination system of bacteriophage λ.

Authors:  Brian J Caldwell; Charles E Bell
Journal:  Prog Biophys Mol Biol       Date:  2019-03-21       Impact factor: 3.667

2.  Recombineering and MAGE.

Authors:  Timothy M Wannier; Peter N Ciaccia; Andrew D Ellington; Gabriel T Filsinger; Farren J Isaacs; Kamyab Javanmardi; Michaela A Jones; Aditya M Kunjapur; Akos Nyerges; Csaba Pal; Max G Schubert; George M Church
Journal:  Nat Rev Methods Primers       Date:  2021-01-14

3.  Identification of phage recombinase function unit in genus Corynebacterium.

Authors:  Yizhao Chang; Qian Wang; Tianyuan Su; Qingsheng Qi
Journal:  Appl Microbiol Biotechnol       Date:  2021-06-16       Impact factor: 4.813

4.  Characterizing the portability of phage-encoded homologous recombination proteins.

Authors:  Gabriel T Filsinger; Timothy M Wannier; Felix B Pedersen; Isaac D Lutz; Julie Zhang; Devon A Stork; Anik Debnath; Kevin Gozzi; Helene Kuchwara; Verena Volf; Stan Wang; Xavier Rios; Christopher J Gregg; Marc J Lajoie; Seth L Shipman; John Aach; Michael T Laub; George M Church
Journal:  Nat Chem Biol       Date:  2021-01-18       Impact factor: 15.040

5.  IncC conjugative plasmids and SXT/R391 elements repair double-strand breaks caused by CRISPR-Cas during conjugation.

Authors:  David Roy; Kevin T Huguet; Frédéric Grenier; Vincent Burrus
Journal:  Nucleic Acids Res       Date:  2020-09-18       Impact factor: 16.971

Review 6.  Half a century of bacteriophage lambda recombinase: In vitro studies of lambda exonuclease and Red-beta annealase.

Authors:  Jodi L Brewster; Gökhan Tolun
Journal:  IUBMB Life       Date:  2020-07-03       Impact factor: 3.885

7.  ReScribe: An Unrestrained Tool Combining Multiplex Recombineering and Minimal-PAM ScCas9 for Genome Recoding Pseudomonas putida.

Authors:  Enrique Asin-Garcia; Maria Martin-Pascual; Luis Garcia-Morales; Richard van Kranenburg; Vitor A P Martins Dos Santos
Journal:  ACS Synth Biol       Date:  2021-09-22       Impact factor: 5.110

8.  Oligomeric complexes formed by Redβ single strand annealing protein in its different DNA bound states.

Authors:  Brian J Caldwell; Andrew Norris; Ekaterina Zakharova; Christopher E Smith; Carter T Wheat; Deepanshu Choudhary; Marcos Sotomayor; Vicki H Wysocki; Charles E Bell
Journal:  Nucleic Acids Res       Date:  2021-04-06       Impact factor: 19.160

9.  High-Efficiency Multi-site Genomic Editing of Pseudomonas putida through Thermoinducible ssDNA Recombineering.

Authors:  Tomas Aparicio; Akos Nyerges; Esteban Martínez-García; Víctor de Lorenzo
Journal:  iScience       Date:  2020-02-26

10.  Mutational Analysis of Redβ Single Strand Annealing Protein: Roles of the 14 Lysine Residues in DNA Binding and Recombination In Vivo.

Authors:  Katerina Zakharova; Brian J Caldwell; Shalya Ta; Carter T Wheat; Charles E Bell
Journal:  Int J Mol Sci       Date:  2021-07-20       Impact factor: 6.208

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