參考文獻 |
1. D. E. Koshland, Jr., Special essay. The seven pillars of life. Science 295, 2215-2216 (2002).
2. N. Y. Yao, M. O′Donnell, SnapShot: The replisome. Cell 141, 1088, 1088 e1081 (2010).
3. P. McGlynn, R. G. Lloyd, Recombinational repair and restart of damaged replication forks. Nat Rev Mol Cell Biol 3, 859-870 (2002).
4. M. K. Gupta et al., Protein-DNA complexes are the primary sources of replication fork pausing in Escherichia coli. Proc Natl Acad Sci U S A 110, 7252-7257 (2013).
5. R. S. Washburn, M. E. Gottesman, Transcription termination maintains chromosome integrity. Proceedings of the National Academy of Sciences 108, 792-797 (2011).
6. S. M. Mangiameli, C. N. Merrikh, P. A. Wiggins, H. Merrikh, Transcription leads to pervasive replisome instability in bacteria. Elife 6 (2017).
7. H. Merrikh, Y. Zhang, A. D. Grossman, J. D. Wang, Replication-transcription conflicts in bacteria. Nat Rev Microbiol 10, 449-458 (2012).
8. R. Schekman, A. Weiner, A. Kornberg, Multienzyme systems of DNA replication. Science 186, 987-993 (1974).
9. R. Schekman, J. H. Weiner, A. Weiner, A. Kornberg, Ten proteins required for conversion of phiX174 single-stranded DNA to duplex form in vitro. Resolution and reconstitution. J Biol Chem 250, 5859-5865 (1975).
10. S. Wickner, J. Hurwitz, Association of phiX174 DNA-dependent ATPase activity with an Escherichia coli protein, replication factor Y, required for in vitro synthesis of phiX174 DNA. Proc Natl Acad Sci U S A 72, 3342-3346 (1975).
11. S. Wickner, J. J. P. o. t. N. A. o. S. Hurwitz, Conversion of ϕX174 viral DNA to double-stranded form by purified Escherichia coli proteins. Proc Natl Acad Sci U S A 71, 4120-4124 (1974).
12. C. Bruand, S. D. Ehrlich, L. Janniere, Primosome assembly site in Bacillus subtilis. EMBO J 14, 2642-2650 (1995).
13. S. Marsin, S. McGovern, S. D. Ehrlich, C. Bruand, P. Polard, Early steps of Bacillus subtilis primosome assembly. J Biol Chem 276, 45818-45825 (2001).
14. J. M. Jones, H. Nakai, The phiX174-type primosome promotes replisome assembly at the site of recombination in bacteriophage Mu transposition. EMBO J 16, 6886-6895 (1997).
15. K. J. Marians, Prokaryotic DNA replication. Annu Rev Biochem 61, 673-719 (1992).
16. R. B. Wickner, M. Wright, S. Wickner, J. J. P. o. t. N. A. o. S. Hurwitz, Conversion of ϕX174 and fd Single-Stranded DNA to Replicative Forms in Extracts of Escherichia coli. Proc Natl Acad Sci U S A 69, 3233-3237 (1972).
17. E. H. Lee, A. Kornberg, Replication Deficiencies in Pria Mutants of Escherichia-Coli Lacking the Primosomal Replication N′-Protein. Proc Natl Acad Sci U S A 88, 3029-3032 (1991).
18. T. Kogoma, G. W. Cadwell, K. G. Barnard, T. Asai, The DNA replication priming protein, PriA, is required for homologous recombination and double-strand break repair. Journal of Bacteriology 178, 1258-1264 (1996).
19. J. Shlomai, A. Kornberg, A prepriming DNA replication enzyme of Escherichia coli. II. Actions of protein n′: a sequence-specific, DNA-dependent ATPase. J Biol Chem 255, 6794-6798 (1980).
20. J. S. Minden, K. J. Marians, Replication of pBR322 DNA in vitro with purified proteins. Requirement for topoisomerase I in the maintenance of template specificity. J Biol Chem 260, 9316-9325 (1985).
21. C. Bruand, M. Farache, S. McGovern, S. D. Ehrlich, P. Polard, DnaB, DnaD and DnaI proteins are components of the Bacillus subtilis replication restart primosome. Mol Microbiol 42, 245-255 (2001).
22. P. Nurse, K. H. Zavitz, K. J. Marians, Inactivation of the Escherichia coli priA DNA replication protein induces the SOS response. J Bacteriol 173, 6686-6693 (1991).
23. H. Masai, T. Asai, Y. Kubota, K. Arai, T. Kogoma, Escherichia-Coli Pria Protein Is Essential for Inducible and Constitutive Stable DNA-Replication. EMBO J 13, 5338-5345 (1994).
24. J. K. Eykelenboom, J. K. Blackwood, E. Okely, D. R. Leach, SbcCD causes a double-strand break at a DNA palindrome in the Escherichia coli chromosome. Mol Cell 29, 644-651 (2008).
25. T. R. Meddows, A. P. Savory, R. G. Lloyd, RecG helicase promotes DNA double-strand break repair. Mol Microbiol 52, 119-132 (2004).
26. I. Ivancic-Bacce, I. Vlasic, G. Cogelja-Cajo, K. Brcic-Kostic, E. Salaj-Smic, Roles of PriA protein and double-strand DNA break repair functions in UV-induced restriction alleviation in Escherichia coli. Genetics 174, 2137-2149 (2006).
27. S. Rangarajan, R. Woodgate, M. F. Goodman, Replication restart in UV-irradiated Escherichia coli involving pols II, III, V, PriA, RecA and RecFOR proteins. Mol Microbiol 43, 617-628 (2002).
28. P. Polard et al., Restart of DNA replication in Gram-positive bacteria: functional characterisation of the Bacillus subtilis PriA initiator. Nucleic Acids Res 30, 1593-1605 (2002).
29. B. Bhattacharyya et al., Structural mechanisms of PriA-mediated DNA replication restart. Proc Natl Acad Sci U S A 111, 1373-1378 (2014).
30. T. A. Windgassen, M. Leroux, K. A. Satyshur, S. J. Sandler, J. L. Keck, Structure-specific DNA replication-fork recognition directs helicase and replication restart activities of the PriA helicase. Proc Natl Acad Sci U S A 115, E9075-E9084 (2018).
31. T. Hoshino, T. McKenzie, S. Schmidt, T. Tanaka, N. Sueoka, Nucleotide sequence of Bacillus subtilis dnaB: a gene essential for DNA replication initiation and membrane attachment. Proc Natl Acad Sci U S A 84, 653-657 (1987).
32. F. Y. Marston et al., When simple sequence comparison fails: the cryptic case of the shared domains of the bacterial replication initiation proteins DnaB and DnaD. Nucleic Acids Res 38, 6930-6942 (2010).
33. S. Schneider, W. Zhang, P. Soultanas, M. Paoli, Structure of the N-terminal oligomerization domain of DnaD reveals a unique tetramerization motif and provides insights into scaffold formation. J Mol Biol 376, 1237-1250 (2008).
34. C. Y. Huang, Y. W. Chang, W. T. Chen, Crystal structure of the N-terminal domain of Geobacillus kaustophilus HTA426 DnaD protein. Biochem Biophys Res Commun 375, 220-224 (2008).
35. W. Zhang et al., Single-molecule atomic force spectroscopy reveals that DnaD forms scaffolds and enhances duplex melting. J Mol Biol 377, 706-714 (2008).
36. M. J. Carneiro et al., The DNA-remodelling activity of DnaD is the sum of oligomerization and DNA-binding activities on separate domains. Mol Microbiol 60, 917-924 (2006).
37. C. Bruand et al., Functional interplay between the Bacillus subtilis DnaD and DnaB proteins essential for initiation and re-initiation of DNA replication. Mol Microbiol 55, 1138-1150 (2005).
38. P. Donk, A highly resistant thermophilic organism. Journal of bacteriology 5, 373 (1920).
39. A. F. Voter et al., A high-throughput screening strategy to identify inhibitors of ssb protein–protein interactions in an academic screening facility. SLAS DISCOVERY: Advancing Life Sciences R&D 23, 94-101 (2018).
40. M. A. Larkin et al., Clustal W and Clustal X version 2.0. bioinformatics 23, 2947-2948 (2007).
41. A. M. Waterhouse, J. B. Procter, D. M. Martin, M. Clamp, G. J. Barton, Jalview Version 2—a multiple sequence alignment editor and analysis workbench. Bioinformatics 25, 1189-1191 (2009).
42. J. Braman, C. Papworth, A. Greener, "Site-directed mutagenesis using double-stranded plasmid DNA templates" in In vitro mutagenesis protocols. (Springer, 1996), pp. 31-44.
43. J. M. Walker, The proteomics protocols handbook (Springer, 2005).
44. Z. Otwinowski, W. Minor, "[20] Processing of X-ray diffraction data collected in oscillation mode" in Methods in enzymology. (Elsevier, 1997), vol. 276, pp. 307-326.
45. P. D. Adams et al., PHENIX: a comprehensive Python-based system for macromolecular structure solution. Acta Crystallographica Section D: Biological Crystallography 66, 213-221 (2010).
46. P. Emsley, B. Lohkamp, W. G. Scott, K. Cowtan, Features and development of Coot. Acta Crystallographica Section D: Biological Crystallography 66, 486-501 (2010).
47. T. Mizukoshi, T. Tanaka, K. Arai, D. Kohda, H. Masai, A critical role of the 3′ terminus of nascent DNA chains in recognition of stalled replication forks. J Biol Chem 278, 42234-42239 (2003).
48. K. Sasaki et al., Structural basis of the 3′-end recognition of a leading strand in stalled replication forks by PriA. EMBO J 26, 2584-2593 (2007).
49. K. Sasaki et al., Crystallization and preliminary crystallographic analysis of the N-terminal domain of PriA from Escherichia coli. Biochim Biophys Acta 1764, 157-160 (2006).
50. A. K. Byrd, K. D. Raney, Superfamily 2 helicases. Front Biosci (Landmark Ed) 17, 2070-2088 (2012).
51. A. M. Pyle, Translocation and unwinding mechanisms of RNA and DNA helicases. Annu. Rev. Biophys. 37, 317-336 (2008).
52. M. R. Singleton, M. S. Dillingham, D. B. Wigley, Structure and mechanism of helicases and nucleic acid translocases. Annu Rev Biochem 76, 23-50 (2007).
53. K. H. Zavitz, K. J. Marians, Helicase-deficient cysteine to glycine substitution mutants of Escherichia coli replication protein PriA retain single-stranded DNA-dependent ATPase activity. Zn2+ stimulation of mutant PriA helicase and primosome assembly activities. J Biol Chem 268, 4337-4346 (1993).
54. Y. H. Huang, H. H. Guan, C. J. Chen, C. Y. Huang, Staphylococcus aureus single-stranded DNA-binding protein SsbA can bind but cannot stimulate PriA helicase. PLoS One 12, e0182060 (2017).
55. G. S. Briggs, W. K. Smits, P. Soultanas, Chromosomal replication initiation machinery of low-G+C-content Firmicutes. J Bacteriol 194, 5162-5170 (2012).
56. W. J. Checovich, R. E. Bolger, T. Burke, Fluorescence polarization--a new tool for cell and molecular biology. Nature 375, 254-256 (1995).
57. T. Heyduk, Y. Ma, H. Tang, R. H. Ebright, "Fluorescence anisotropy: rapid, quantitative assay for protein-DNA and protein-protein interaction" in Methods in enzymology. (Elsevier, 1996), vol. 274, pp. 492-503.
58. D. M. Jameson, W. H. Sawyer, "[12] Fluorescence anisotropy applied to biomolecular interactions" in Methods in enzymology. (Elsevier, 1995), vol. 246, pp. 283-300.
59. M. S. Nasir, M. E. Jolley, Fluorescence polarization: an analytical tool for immunoassay and drug discovery. Combinatorial Chemistry and High Throughput Screening 2, 177-190 (1999).
60. S. E. Acuner Ozbabacan, H. B. Engin, A. Gursoy, O. Keskin, Transient protein–protein interactions. Protein engineering, design and selection 24, 635-648 (2011).
61. H. Ashkenazy et al., ConSurf 2016: an improved methodology to estimate and visualize evolutionary conservation in macromolecules. Nucleic acids research 44, W344-W350 (2016).
62. L. A. Matthews, L. A. J. b. Simmons, Cryptic adaptor protein interactions regulate DNA replication initiation. Mol Microbiol, 313882 (2018).
63. R. A. Laskowski, J. Jabłońska, L. Pravda, R. S. Vařeková, J. M. Thornton, PDBsum: Structural summaries of PDB entries. Protein Science 27, 129-134 (2018).
64. Y. C. Li, V. Naveen, M. G. Lin, C. D. Hsiao, Structural analyses of the bacterial primosomal protein DnaB reveal that it is a tetramer and forms a complex with a primosomal re-initiation protein. J Biol Chem 292, 15744-15757 (2017).
65. G. Scholefield, J. Errington, H. Murray, Soj/ParA stalls DNA replication by inhibiting helix formation of the initiator protein DnaA. The EMBO journal 31, 1542-1555 (2012).
66. M. Krause, B. Ruckert, R. Lurz, W. Messer, Complexes at the replication origin of Bacillus subtilis with homologous and heterologous DnaA protein. J Mol Biol 274, 365-380 (1997).
67. S. Zorman, H. Seitz, B. Sclavi, T. Strick, Topological characterization of the DnaA–oriC complex using single-molecule nanomanipuation. Nucleic acids research 40, 7375-7383 (2012).
68. J. P. Erzberger, M. L. Mott, J. M. Berger, Structural basis for ATP-dependent DnaA assembly and replication-origin remodeling. Nature structural & molecular biology 13, 676 (2006).
69. R. S. Fuller, B. E. Funnell, A. Kornberg, The dnaA protein complex with the E. coli chromosomal replication origin (oriC) and other DNA sites. Cell 38, 889-900 (1984).
70. W. K. Smits, A. I. Goranov, A. D. Grossman, Ordered association of helicase loader proteins with the Bacillus subtilis origin of replication in vivo. Mol Microbiol 75, 452-461 (2010).
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