Literature DB >> 11939907

Kinetics of inter-domain electron transfer in flavocytochrome cellobiose dehydrogenase from the white-rot fungus Phanerochaete chrysosporium.

Kiyohiko Igarashi1, Ikuo Momohara, Takeshi Nishino, Masahiro Samejima.   

Abstract

The pre-steady-state kinetics of inter-domain electron transfer in the extracellular flavocytochrome cellobiose dehydrogenase from Phanerochaete chrysosporium was studied using various values of pH and substrate concentration. Monitoring at the isosbestic point of each prosthetic group indicated that the reductive half-reactions of flavin and haem were biphasic and monophasic respectively. When the observed rates of the flavin and haem reactions were plotted against substrate concentration, the behaviour of the second phase of the flavin reduction was almost identical with that of haem reduction at all substrate concentrations and pH values tested, suggesting that the formation of flavin semiquinone and haem reduction involve the same electron transfer reaction. Although flavin reduction by cellobiose was observed in the range of pH 3.0-7.0, the velocity of the next electron transfer step decreased with increase of pH and was almost zero above pH 6.0. The second phase of flavin reduction and the haem reduction were inhibited similarly by high concentrations of the substrate, whereas the first phase of flavin reduction showed a hyperbolic relation to the cellobiose concentration. Increase in pH enhanced the substrate inhibition of haem reduction but not the initial flavin reduction. Moreover, the dissociation constant K(d) of flavin reduction and the substrate inhibition constant K(i) of haem reduction decreased similarly with an increase of pH. From these results, it is evident that binding of cellobiose to the active site inhibits electron transfer from flavin to haem.

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Year:  2002        PMID: 11939907      PMCID: PMC1222687          DOI: 10.1042/BJ20011809

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


  26 in total

1.  Cellobiose oxidase from Phanerochaete chrysosporium can be cleaved by papain into two domains.

Authors:  G Henriksson; G Pettersson; G Johansson; A Ruiz; E Uzcategui
Journal:  Eur J Biochem       Date:  1991-02-26

2.  Cloning and characterization of a cDNA encoding a cellobiose dehydrogenase from the white rot fungus Phanerochaete chrysosporium.

Authors:  M Raices; E Paifer; J Cremata; R Montesino; J Ståhlberg; C Divne; I J Szabó; G Henriksson; G Johansson; G Pettersson
Journal:  FEBS Lett       Date:  1995-08-07       Impact factor: 4.124

3.  Localization of cellobiose dehydrogenase in cellulose-grown cultures of Phanerochaete chrysosporium.

Authors:  K Igarashi; M Samejima; Y Saburi; N Habu; K E Eriksson
Journal:  Fungal Genet Biol       Date:  1997-04       Impact factor: 3.495

4.  Cellobiose dehydrogenase from Phanerochaete chrysosporium is encoded by two allelic variants.

Authors:  B Li; S R Nagalla; V Renganathan
Journal:  Appl Environ Microbiol       Date:  1997-02       Impact factor: 4.792

5.  Some properties of cellobiose oxidase from the white-rot fungus Sporotrichum pulverulentum.

Authors:  F F Morpeth
Journal:  Biochem J       Date:  1985-06-15       Impact factor: 3.857

6.  Rapid kinetic studies of the reduction of cellobiose oxidase from the white-rot fungus Sporotrichum pulverulentum by cellobiose.

Authors:  G D Jones; M T Wilson
Journal:  Biochem J       Date:  1988-12-15       Impact factor: 3.857

7.  Evidence that cellobiose oxidase from Phanerochaete chrysosporium is primarily an Fe(III) reductase. Kinetic comparison with neutrophil NADPH oxidase and yeast flavocytochrome b2.

Authors:  S M Kremer; P M Wood
Journal:  Eur J Biochem       Date:  1992-04-01

8.  Cloning of a cDNA encoding cellobiose dehydrogenase, a hemoflavoenzyme from Phanerochaete chrysosporium.

Authors:  B Li; S R Nagalla; V Renganathan
Journal:  Appl Environ Microbiol       Date:  1996-04       Impact factor: 4.792

9.  Cellobiose oxidase from Phanerochaete chrysosporium. Stopped-flow spectrophotometric analysis of pH-dependent reduction.

Authors:  M Samejima; R S Phillips; K E Eriksson
Journal:  FEBS Lett       Date:  1992-07-20       Impact factor: 4.124

10.  A comparison of the catalytic properties of cellobiose:quinone oxidoreductase and cellobiose oxidase from Phanerochaete chrysosporium.

Authors:  M Samejima; K E Eriksson
Journal:  Eur J Biochem       Date:  1992-07-01
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  11 in total

1.  Inactivation of Cellobiose Dehydrogenases Modifies the Cellulose Degradation Mechanism of Podospora anserina.

Authors:  Narumon Tangthirasunun; David Navarro; Sona Garajova; Didier Chevret; Laetitia Chan Ho Tong; Valérie Gautier; Kevin D Hyde; Philippe Silar; Jean-Guy Berrin
Journal:  Appl Environ Microbiol       Date:  2016-12-30       Impact factor: 4.792

2.  Cello-oligosaccharide oxidation reveals differences between two lytic polysaccharide monooxygenases (family GH61) from Podospora anserina.

Authors:  Mathieu Bey; Simeng Zhou; Laetitia Poidevin; Bernard Henrissat; Pedro M Coutinho; Jean-Guy Berrin; Jean-Claude Sigoillot
Journal:  Appl Environ Microbiol       Date:  2012-11-02       Impact factor: 4.792

3.  Activation of bacterial lytic polysaccharide monooxygenases with cellobiose dehydrogenase.

Authors:  Jennifer S M Loose; Zarah Forsberg; Daniel Kracher; Stefan Scheiblbrandner; Roland Ludwig; Vincent G H Eijsink; Gustav Vaaje-Kolstad
Journal:  Protein Sci       Date:  2016-09-26       Impact factor: 6.993

4.  Heterologous expression of Pycnoporus cinnabarinus cellobiose dehydrogenase in Pichia pastoris and involvement in saccharification processes.

Authors:  Mathieu Bey; Jean-Guy Berrin; Laetitia Poidevin; Jean-Claude Sigoillot
Journal:  Microb Cell Fact       Date:  2011-12-28       Impact factor: 5.328

5.  Crystal Structure of the Catalytic and Cytochrome b Domains in a Eukaryotic Pyrroloquinoline Quinone-Dependent Dehydrogenase.

Authors:  Kouta Takeda; Takuya Ishida; Makoto Yoshida; Masahiro Samejima; Hiroyuki Ohno; Kiyohiko Igarashi; Nobuhumi Nakamura
Journal:  Appl Environ Microbiol       Date:  2019-11-27       Impact factor: 4.792

6.  Chimeric Cellobiose Dehydrogenases Reveal the Function of Cytochrome Domain Mobility for the Electron Transfer to Lytic Polysaccharide Monooxygenase.

Authors:  Alfons K G Felice; Christian Schuster; Alan Kadek; Frantisek Filandr; Christophe V F P Laurent; Stefan Scheiblbrandner; Lorenz Schwaiger; Franziska Schachinger; Daniel Kracher; Christoph Sygmund; Petr Man; Petr Halada; Chris Oostenbrink; Roland Ludwig
Journal:  ACS Catal       Date:  2020-12-24       Impact factor: 13.700

7.  Engineering the Turnover Stability of Cellobiose Dehydrogenase toward Long-Term Bioelectronic Applications.

Authors:  Andreas F Geiss; Thomas M B Reichhart; Barbara Pejker; Esther Plattner; Peter L Herzog; Christopher Schulz; Roland Ludwig; Alfons K G Felice; Dietmar Haltrich
Journal:  ACS Sustain Chem Eng       Date:  2021-05-12       Impact factor: 9.224

8.  Inter-domain electron transfer in cellobiose dehydrogenase: modulation by pH and divalent cations.

Authors:  Daniel Kracher; Kawah Zahma; Christopher Schulz; Christoph Sygmund; Lo Gorton; Roland Ludwig
Journal:  FEBS J       Date:  2015-05-16       Impact factor: 5.542

9.  The Pyrroloquinoline-Quinone-Dependent Pyranose Dehydrogenase from Coprinopsis cinerea Drives Lytic Polysaccharide Monooxygenase Action.

Authors:  Anikó Várnai; Kiwamu Umezawa; Makoto Yoshida; Vincent G H Eijsink
Journal:  Appl Environ Microbiol       Date:  2018-05-17       Impact factor: 4.792

10.  Protein Conformational Change Is Essential for Reductive Activation of Lytic Polysaccharide Monooxygenase by Cellobiose Dehydrogenase.

Authors:  Erik Breslmayr; Christophe V F P Laurent; Stefan Scheiblbrandner; Anita Jerkovic; Derren J Heyes; Chris Oostenbrink; Roland Ludwig; Tobias M Hedison; Nigel S Scrutton; Daniel Kracher
Journal:  ACS Catal       Date:  2020-03-30       Impact factor: 13.700

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