Importance of Non-Covalent Interactions in Yeast Cell Wall Molecular Organization

被引:0
|
作者
Kalebina, Tatyana S. [1 ]
Rekstina, Valentina V. [1 ]
Pogarskaia, Elizaveta E. [1 ]
Kulakovskaya, Tatiana [2 ]
机构
[1] Lomonosov Moscow State Univ, Fac Biol, Dept Mol Biol, Moscow 119991, Russia
[2] Russian Acad Sci, Fed Res Ctr, Pushchino Sci Ctr Biol Res, Skryabin Inst Biochem & Physiol Microorganisms, Pushchino 142290, Russia
关键词
yeast; cell wall; proteins; polysaccharide-remodeling enzymes; non-covalent interactions; polyphosphates; acid phosphatase; GRAM-POSITIVE BACTERIA; SACCHAROMYCES-CEREVISIAE; EXTRACELLULAR VESICLES; BIOFILM FORMATION; INORGANIC POLYPHOSPHATES; GLUCANTRANSFERASE BGL2P; STRESS-ADAPTATION; PLASMA-MEMBRANE; GENE-PRODUCT; PROTEINS;
D O I
10.3390/ijms25052496
中图分类号
Q5 [生物化学]; Q7 [分子生物学];
学科分类号
071010 ; 081704 ;
摘要
This review covers a group of non-covalently associated molecules, particularly proteins (NCAp), incorporated in the yeast cell wall (CW) with neither disulfide bridges with proteins covalently attached to polysaccharides nor other covalent bonds. Most NCAp, particularly Bgl2, are polysaccharide-remodeling enzymes. Either directly contacting their substrate or appearing as CW lipid-associated molecules, such as in vesicles, they represent the most movable enzymes and may play a central role in CW biogenesis. The absence of the covalent anchoring of NCAp allows them to be there where and when it is necessary. Another group of non-covalently attached to CW molecules are polyphosphates (polyP), the universal regulators of the activity of many enzymes. These anionic polymers are able to form complexes with metal ions and increase the diversity of non-covalent interactions through charged functional groups with both proteins and polysaccharides. The mechanism of regulation of polysaccharide-remodeling enzyme activity in the CW is unknown. We hypothesize that polyP content in the CW is regulated by another NCAp of the CW-acid phosphatase-which, along with post-translational modifications, may thus affect the activity, conformation and compartmentalization of Bgl2 and, possibly, some other polysaccharide-remodeling enzymes.
引用
收藏
页数:16
相关论文
共 50 条
  • [41] Small Molecules, Non-Covalent Interactions, and Confinement
    Buntkowsky, Gerd
    Vogel, Michael
    MOLECULES, 2020, 25 (14):
  • [42] Non-covalent interactions in small thiophene clusters
    Malloum, Alhadji
    Conradie, Jeanet
    JOURNAL OF MOLECULAR LIQUIDS, 2022, 347
  • [43] A benchmark for non-covalent interactions in organometallic crystals
    Miron, Jose Eduardo Zamudio Diaz
    Stein, Matthias
    PHYSICAL CHEMISTRY CHEMICAL PHYSICS, 2022, 24 (48) : 29338 - 29349
  • [44] Non-covalent interactions – QTAIM and NBO analysis
    Sławomir J. Grabowski
    Journal of Molecular Modeling, 2013, 19 : 4713 - 4721
  • [45] Genotoxicity of non-covalent interactions: DNA intercalators
    Ferguson, Lynnette R.
    Denny, William A.
    MUTATION RESEARCH-FUNDAMENTAL AND MOLECULAR MECHANISMS OF MUTAGENESIS, 2007, 623 (1-2) : 14 - 23
  • [46] Potential energy surfaces of non-covalent interactions
    Ringer, Ashley L.
    Tauer, Tony P.
    Sinnokrot, Mutasem O.
    Lively, Ryan P.
    Sherrill, C. David
    ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2006, 231
  • [47] Visualization of non-covalent interactions in conformational polymorphs
    Savchenkov, Anton V.
    Serezhkin, Viktor N.
    ACTA CRYSTALLOGRAPHICA A-FOUNDATION AND ADVANCES, 2017, 73 : C773 - C773
  • [48] Some Interesting Features of Non-Covalent Interactions
    Martin-Somer, Ana
    Merced Montero-Campillo, M.
    Mo, Otilia
    Yanez, Manuel
    Alkorta, Ibon
    Elguero, Jose
    CROATICA CHEMICA ACTA, 2014, 87 (04) : 291 - 306
  • [49] Non-Covalent Interactions in Coordination and Organometallic Chemistry
    Novikov, Alexander S.
    CRYSTALS, 2020, 10 (06)
  • [50] Dynamic frameworks: the role of non-covalent interactions
    Bourne, S. A.
    ACTA CRYSTALLOGRAPHICA A-FOUNDATION AND ADVANCES, 2021, 77 : C165 - C165