Page 26 - 《渔业研究》2025年第5期
P. 26

第 5 期              池雨禹等: 蛋白质翻译后修饰在水产病原菌致病机制中的研究进展                                      567

                   lysine acetylation modification of ClpP on the virulence  drugs[J].  Frontiers in  Cellular  and  Infection   Microbio-
                   of  Vibrio  alginolyticus[J].  Molecules,  2024,  29(17):  logy, 2022, 12: 977944.
                   4278.                                      [50]   Paniz M I, Tina R L, Farzaneh D, et al. Bacterial quor-
              [39]   Ouidir T, Cosette P, Jouenne T, et al. Proteomic profil-  um  sensing:  a  double-edged sword  in  cancer   develop-

                   ing of lysine acetylation in Pseudomonas aeruginosa re-  ment[J]. Advanced Biology, 2025, 6: e00023.
                   veals the diversity of acetylated proteins[J]. Proteomics,  [51]   Pratt J T, Ismail A M, Camilli A. PhoB regulates both
                   2015, 15(13): 2152 − 2157.                       environmental  and  virulence  gene  expression  in  Vibrio
              [40]   Huang H, Lin S, Garcia B A, et al. Quantitative proteom-  cholerae[J]. Molecular Microbiology, 2010, 77(6): 1595 −
                   ic  analysis  of  histone  modifications[J].  Chemical  Re-  1605.
                   views, 2015, 115(6): 2376 − 2418.          [52]   Li  D,  Ramanathan  S,  Wang  G  B,  et  al.  Acetylation  of
              [41]   Povolotsky  T  L,  Levy  Barazany  H,  Shacham  Y,  et  al.  lysine  7  of  AhyI  affects  the  biological  function  in
                   Bacterial epigenetics and its implication for agriculture,  Aeromonas hydrophila[J]. Microbial Pathogenesis, 2020,
                   probiotics  development,  and  biotechnology  design[J].  140: 103952.
                   Biotechnology Advances, 2024, 75: 108414.  [53]   Sang Y, Ren J, Qin R, et al. Acetylation regulating pro-
              [42]   Stojkova  P,  Spidlova  P,  Stulik  J.  Nucleoid-associated  tein  stability  and  DNA-binding  ability  of  HilD,  thus
                   protein HU: a lilliputian in gene regulation of bacterial  modulating  Salmonella  typhimurium  virulence[J].  The
                   virulence[J]. Frontiers in Cellular and Infection Micro-  Journal  of  Infectious  Diseases,  2017,  216(8):  1018  −
                   biology, 2019, 9: 159.                           1026.
              [43]   Barlow V L, Tsai Y H. Acetylation at lysine 86 of Es-  [54]   Xiao X, Li W X, Pan Y F, et al. Holistic analysis of lys-
                   cherichia coli HUβ modulates the DNA-binding capabil-  ine acetylation in aquaculture pathogenic bacteria Vibrio
                   ity  of  the  protein[J].  Frontiers  in  Microbiology,  2022,  alginolyticus under bile salt stress[J]. Frontiers in Veter-
                   12: 809030.                                      inary Science, 2023, 10: 1099255.
              [44]   Sakatos A, Babunovic G H, Chase M R, et al. Posttrans-  [55]   Liimatta K, Flaherty E, Ro G, et al. A putative acetyla-
                   lational  modification  of  a  histone-like  protein  regulates  tion  system  in  Vibrio  cholerae  modulates  virulence  in
                   phenotypic  resistance  to  isoniazid  in  mycobacteria[J].  arthropod hosts[J]. Applied and Environmental Microbi-
                   Science Advances, 2018, 4(5): eaao1478.          ology, 2018, 84(21): e01113-18.
              [45]   Ghosh S, Padmanabhan B, Anand C, et al. Lysine acet-  [56]   Wang Y Q, Wang G B, Zhang L S, et al. Aeromonas hy-
                                                                                               +
                                                                                                      2+
                   ylation  of  the  Mycobacterium  tuberculosis  HU  protein  drophila CobQ is a new type of NAD - and Zn -inde-
                   modulates its DNA binding and genome organization[J].  pendent  protein  lysine  deacetylase[J].  eLife,  2025,  13:
                   Molecular Microbiology, 2016, 100(4): 577 − 588.  RP97511.
              [46]   Carabetta  V  J.  Addressing  the  possibility  of  a  histone-  [57]   Li S Y, Gong X T, Yin L W, et al. Acetylation of CspC
                   like code in bacteria[J]. Journal of Proteome Research,  controls the Las quorum-sensing system through transla-
                   2021, 20(1): 27 − 37.                            tional regulation of rsaL in Pseudomonas aeruginosa[J].
              [47]   Grove A, Lim L. High-affinity DNA binding of HU pro-  mBio, 2022, 13(3): e0054722.
                   tein from the hyperthermophile Thermotoga maritima[J].  [58]   Smedley J G, Jewell E, Roguskie J, et al. Influence of
                   Journal of Molecular Biology, 2001, 311(3): 491 − 502.  pilin  glycosylation  on  Pseudomonas  aeruginosa  1244
              [48]   Bettridge K, Verma S, Weng X L, et al. Single-molecule  pilus function[J]. Infection and Immunity, 2005, 73(12):
                   tracking reveals that the nucleoid-associated protein HU  7922 − 7931.
                   plays a dual role in maintaining proper nucleoid volume  [59]   Verma A, Schirm M, Arora S K, et al. Glycosylation of
                   through differential interactions with chromosomal DNA  b-type  flagellin  of  Pseudomonas  aeruginosa:  structural
                   [J].  Molecular  Microbiology,  2021,  115(1):  12  −  27.  and  genetic  basis[J].  Journal  of  Bacteriology,  2006,
              [49]   Casado J, Lanas Á, González A. Two-component regu-  188(12): 4395 − 4403.
                   latory systems in Helicobacter pylori and Campylobac-  [60]   Fulton K M, Mendoza-Barberá E, Twine S M, et al. Po-
                   ter  jejuni:  attractive  targets  for  novel  antibacterial  lar  glycosylated  and  lateral  non-glycosylated  flagella
   21   22   23   24   25   26   27   28   29   30   31