Literature DB >> 9003352

Quinoprotein-catalysed reactions.

C Anthony1.   

Abstract

This review is concerned with the structure and function of the quinoprotein enzymes, sometimes called quinoenzymes. These have prosthetic groups containing quinones, the name thus being analogous to the flavoproteins containing flavin prosthetic groups. Pyrrolo-quinoline quinone (PQQ) is non-covalently attached, whereas tryptophan tryptophylquinone (TTQ), topaquinone (TPQ) and lysine tyrosylquinone (LTQ) are derived from amino acid residues in the backbone of the enzymes. The mechanisms of the quinoproteins are reviewed and related to their recently determined three-dimensional structures. As expected, the quinone structures in the prosthetic groups play important roles in the mechanisms. A second common feature is the presence of a catalytic base (aspartate) at the active site which initiates the reactions by abstracting a proton from the substrate, and it is likely to be involved in multiple reactions in the mechanism. A third common feature of these enzymes is that the first part of the reaction produces a reduced prosthetic group; this part of the mechanism is fairly well understood. This is followed by an oxidative phase involving electron transfer reactions which remain poorly understood. In both types of dehydrogenase (containing PQQ and TTQ), electrons must pass from the reduced prosthetic group to redox centres in a second recipient protein (or protein domain), whereas in amine oxidases (containing TPQ or LTQ), electrons must be transferred to molecular oxygen by way of a redox-active copper ion in the protein.

Entities:  

Mesh:

Substances:

Year:  1996        PMID: 9003352      PMCID: PMC1217987          DOI: 10.1042/bj3200697

Source DB:  PubMed          Journal:  Biochem J        ISSN: 0264-6021            Impact factor:   3.857


  114 in total

1.  Characterization of the gene encoding quinohaemoprotein ethanol dehydrogenase of Comamonas testosteroni.

Authors:  J Stoorvogel; D E Kraayveld; C A Van Sluis; J A Jongejan; S De Vries; J A Duine
Journal:  Eur J Biochem       Date:  1996-02-01

2.  Enzymatic and electron transfer activities in crystalline protein complexes.

Authors:  A Merli; D E Brodersen; B Morini; Z Chen; R C Durley; F S Mathews; V L Davidson; G L Rossi
Journal:  J Biol Chem       Date:  1996-04-19       Impact factor: 5.157

3.  Comparison of the structural features of ubiquinone reduction sites between glucose dehydrogenase in Escherichia coli and bovine heart mitochondrial complex I.

Authors:  K Sakamoto; H Miyoshi; K Matsushita; M Nakagawa; J Ikeda; M Ohshima; O Adachi; T Akagi; H Iwamura
Journal:  Eur J Biochem       Date:  1996-04-01

4.  X-ray studies of quinoproteins.

Authors:  F S Mathews
Journal:  Methods Enzymol       Date:  1995       Impact factor: 1.600

5.  Determination of the gene sequence and the three-dimensional structure at 2.4 angstroms resolution of methanol dehydrogenase from Methylophilus W3A1.

Authors:  Z Xia; W Dai; Y Zhang; S A White; G D Boyd; F S Mathews
Journal:  J Mol Biol       Date:  1996-06-14       Impact factor: 5.469

6.  Two amine oxidases from Aspergillus niger AKU 3302 contain topa quinone as the cofactor: unusual cofactor link to the glutamyl residue occurs only at one of the enzymes.

Authors:  I Frébort; P Pec; L Luhová; H Toyama; K Matsushita; S Hirota; T Kitagawa; T Ueno; Y Asano; Y Kato; O Adachi
Journal:  Biochim Biophys Acta       Date:  1996-06-07

7.  Structure of the quinoprotein glucose dehydrogenase of Escherichia coli modelled on that of methanol dehydrogenase from Methylobacterium extorquens.

Authors:  G E Cozier; C Anthony
Journal:  Biochem J       Date:  1995-12-15       Impact factor: 3.857

8.  Crystal structure of a quinoenzyme: copper amine oxidase of Escherichia coli at 2 A resolution.

Authors:  M R Parsons; M A Convery; C M Wilmot; K D Yadav; V Blakeley; A S Corner; S E Phillips; M J McPherson; P F Knowles
Journal:  Structure       Date:  1995-11-15       Impact factor: 5.006

9.  The interaction of methanol dehydrogenase and its cytochrome electron acceptor.

Authors:  S L Dales; C Anthony
Journal:  Biochem J       Date:  1995-11-15       Impact factor: 3.857

10.  Biosynthesis of topa quinone cofactor in bacterial amine oxidases. Solvent origin of C-2 oxygen determined by Raman spectroscopy.

Authors:  N Nakamura; R Matsuzaki; Y H Choi; K Tanizawa; J Sanders-Loehr
Journal:  J Biol Chem       Date:  1996-03-01       Impact factor: 5.157

View more
  31 in total

Review 1.  Structural requirements of pyrroloquinoline quinone dependent enzymatic reactions.

Authors:  A Oubrie; B W Dijkstra
Journal:  Protein Sci       Date:  2000-07       Impact factor: 6.725

2.  Conformation of coenzyme pyrroloquinoline quinone and role of Ca2+ in the catalytic mechanism of quinoprotein methanol dehydrogenase.

Authors:  Y J Zheng; T C Bruice
Journal:  Proc Natl Acad Sci U S A       Date:  1997-10-28       Impact factor: 11.205

3.  In vitro studies indicate a quinone is involved in bacterial Mn(II) oxidation.

Authors:  Hope A Johnson; Bradley M Tebo
Journal:  Arch Microbiol       Date:  2007-08-03       Impact factor: 2.552

4.  Substrate binding in quinoprotein ethanol dehydrogenase from Pseudomonas aeruginosa studied by electron-nuclear double resonance.

Authors:  Christopher W M Kay; Bina Mennenga; Helmut Görisch; Robert Bittl
Journal:  Proc Natl Acad Sci U S A       Date:  2006-03-27       Impact factor: 11.205

5.  Lanthanide-dependent alcohol dehydrogenases require an essential aspartate residue for metal coordination and enzymatic function.

Authors:  Nathan M Good; Matthias Fellner; Kemal Demirer; Jian Hu; Robert P Hausinger; N Cecilia Martinez-Gomez
Journal:  J Biol Chem       Date:  2020-05-04       Impact factor: 5.157

6.  Structure of a quinohemoprotein amine dehydrogenase with an uncommon redox cofactor and highly unusual crosslinking.

Authors:  S Datta; Y Mori; K Takagi; K Kawaguchi; Z W Chen; T Okajima; S Kuroda; T Ikeda; K Kano; K Tanizawa; F S Mathews
Journal:  Proc Natl Acad Sci U S A       Date:  2001-11-20       Impact factor: 11.205

7.  Pyrroloquinoline Quinone Ethanol Dehydrogenase in Methylobacterium extorquens AM1 Extends Lanthanide-Dependent Metabolism to Multicarbon Substrates.

Authors:  Nathan M Good; Huong N Vu; Carly J Suriano; Gabriel A Subuyuj; Elizabeth Skovran; N Cecilia Martinez-Gomez
Journal:  J Bacteriol       Date:  2016-10-21       Impact factor: 3.490

8.  An outer membrane enzyme that generates the 2-amino-2-deoxy-gluconate moiety of Rhizobium leguminosarum lipid A.

Authors:  Nanette L S Que-Gewirth; Shanhua Lin; Robert J Cotter; Christian R H Raetz
Journal:  J Biol Chem       Date:  2003-01-15       Impact factor: 5.157

9.  Replacement of Stoichiometric DDQ with a Low Potential o-Quinone Catalyst Enabling Aerobic Dehydrogenation of Tertiary Indolines in Pharmaceutical Intermediates.

Authors:  Bao Li; Alison E Wendlandt; Shannon S Stahl
Journal:  Org Lett       Date:  2019-01-31       Impact factor: 6.005

10.  Genomic insights into Mn(II) oxidation by the marine alphaproteobacterium Aurantimonas sp. strain SI85-9A1.

Authors:  Gregory J Dick; Sheila Podell; Hope A Johnson; Yadira Rivera-Espinoza; Rizlan Bernier-Latmani; James K McCarthy; Justin W Torpey; Brian G Clement; Terry Gaasterland; Bradley M Tebo
Journal:  Appl Environ Microbiol       Date:  2008-03-14       Impact factor: 4.792

View more

北京卡尤迪生物科技股份有限公司 © 2022-2023.