Literature DB >> 15340910

Biochemical reaction engineering for redox reactions.

Christian Wandrey1.   

Abstract

Redox reactions are still a challenge for biochemical engineers. A personal view for the development of this field is given. Cofactor regeneration was an obstacle for quite some time. The first technical breakthrough was achieved with the system formate/formate dehydrogenase for the regeneration of NADH2. In cases where the same enzyme could be used for chiral reduction as well as for cofactor regeneration, isopropanol as a hydrogen source proved to be beneficial. The coproduct (acetone) can be removed by pervaporation. Whole-cell reductions (often yeast reductions) can also be used. By proper biochemical reaction engineering, it is possible to apply these systems in a continuous way. By cloning a formate dehydrogenase and an oxidoreductase "designer bug" can be obtained where formate is used instead of glucose as the hydrogen source. Complex sequences of redox reactions can be established by pathway engineering with a focus on gene overexpression or with a focus on establishing non-natural pathways. The success of pathway engineering can be controlled by measuring cytosolic metabolite concentrations. The optimal exploitation of such systems calls for the integrated cooperation of classical and molecular biochemical engineering. Copyright 2004 The Japan Chemical Journal Forum and Wiley Periodicals, Inc.

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Year:  2004        PMID: 15340910     DOI: 10.1002/tcr.20016

Source DB:  PubMed          Journal:  Chem Rec        ISSN: 1528-0691            Impact factor:   6.771


  7 in total

1.  Expression, purification, crystallization and X-ray analysis of 3-quinuclidinone reductase from Agrobacterium tumefaciens.

Authors:  Feng Hou; Takuya Miyakawa; Daijiro Takeshita; Michihiko Kataoka; Atsuko Uzura; Koji Nagata; Sakayu Shimizu; Masaru Tanokura
Journal:  Acta Crystallogr Sect F Struct Biol Cryst Commun       Date:  2012-09-29

2.  Nicotinamide-independent asymmetric bioreduction of C=C-bonds via disproportionation of enones catalyzed by enoate reductases.

Authors:  Clemens Stueckler; Tamara C Reiter; Nina Baudendistel; Kurt Faber
Journal:  Tetrahedron       Date:  2010-01-16       Impact factor: 2.457

3.  New biotechnological perspectives of a NADH oxidase variant from Thermus thermophilus HB27 as NAD+-recycling enzyme.

Authors:  Javier Rocha-Martín; Daniel Vega; Juan M Bolivar; Cesar A Godoy; Aurelio Hidalgo; José Berenguer; José M Guisán; Fernando López-Gallego
Journal:  BMC Biotechnol       Date:  2011-11-03       Impact factor: 2.563

4.  NAD(P)H-independent asymmetric C=C bond reduction catalyzed by ene reductases by using artificial co-substrates as the hydrogen donor.

Authors:  Christoph K Winkler; Dorina Clay; Marcello Entner; Markus Plank; Kurt Faber
Journal:  Chemistry       Date:  2013-12-30       Impact factor: 5.236

5.  Efficicent (R)-phenylethanol production with enantioselectivity-alerted (S)-carbonyl reductase II and NADPH regeneration.

Authors:  Rongzhen Zhang; Botao Zhang; Yan Xu; Yaohui Li; Ming Li; Hongbo Liang; Rong Xiao
Journal:  PLoS One       Date:  2013-12-17       Impact factor: 3.240

6.  Overcoming co-product inhibition in the nicotinamide independent asymmetric bioreduction of activated C=C-bonds using flavin-dependent ene-reductases.

Authors:  Christoph K Winkler; Dorina Clay; Esta van Heerden; Kurt Faber
Journal:  Biotechnol Bioeng       Date:  2013-07-10       Impact factor: 4.530

Review 7.  NADPH-generating systems in bacteria and archaea.

Authors:  Sebastiaan K Spaans; Ruud A Weusthuis; John van der Oost; Servé W M Kengen
Journal:  Front Microbiol       Date:  2015-07-29       Impact factor: 5.640

  7 in total

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