Literature DB >> 16666314

The Conversion of Nitrite to Nitrogen Oxide(s) by the Constitutive NAD(P)H-Nitrate Reductase Enzyme from Soybean.

J V Dean1, J E Harper.   

Abstract

A two-step purification protocol was used in an attempt to separate the constitutive NAD(P)H-nitrate reductase [NAD(P)H-NR, pH 6.5; EC 1.6.6.2] activity from the nitric oxide and nitrogen dioxide (NO((x))) evolution activity extracted from soybean (Glycine max [L.] Merr.) leaflets. Both of these activities were eluted with NADPH from Blue Sepharose columns loaded with extracts from either wild-type or LNR-5 and LNR-6 (lack constitutive NADH-NR [pH 6.5]) mutant soybean plants regardless of nutrient growth conditions. Fast protein liquid chromatography-anion exchange (Mono Q column) chromatography following Blue Sepharose affinity chromatography was also unable to separate the two activities. These data provide strong evidence that the constitutive NAD(P)H-NR (pH 6.5) in soybean is the enzyme responsible for NO((x)) formation. The Blue Sepharose-purified soybean enzyme has a pH optimum of 6.75, an apparent K(m) for nitrite of 0.49 millimolar, and an apparent K(m) for NADPH and NADH of 7.2 and 7.4 micromolar, respectively, for the NO((x)) evolution activity. In addition to NAD(P)H, reduced flavin mononucleotide (FMNH(2)) and reduced methyl viologen (MV) can serve as electron donors for NO((x)) evolution activity. The NADPH-, FMNH(2)-, and reduced MV-NO((x)) evolution activities were all inhibited by cyanide. The NADPH activity was also inhibited by p-hydroxymer-curibenzoate, whereas, the FMNH(2) and MV activities were relatively insensitive to inhibition. These data indicate that the terminal molybdenum-containing portion of the enzyme is involved in the reduction of nitrite to NO((x)). NADPH eluted both NR and NO((x)) evolution activities from Blue Sepharose columns loaded with extracts of either nitrate- or zero N-grown winged bean (Psophocarpus tetragonolobus [L.]), whereas NADH did not elute either type of activity. Winged bean appears to contain only one type of NR enzyme that is similar to the constitutive NAD(P)H-NR (pH 6.5) enzyme of soybean.

Entities:  

Year:  1988        PMID: 16666314      PMCID: PMC1055587          DOI: 10.1104/pp.88.2.389

Source DB:  PubMed          Journal:  Plant Physiol        ISSN: 0032-0889            Impact factor:   8.340


  14 in total

1.  Crystalline Pseudomonas cytochrome oxidase. I. Enzymic properties with special reference to the biological specificity.

Authors:  T YAMANAKA; K OKUNUKI
Journal:  Biochim Biophys Acta       Date:  1963-03-12

2.  Studies on denitrification. VII. Further purification and properties of denitrifying enzyme.

Authors:  H IWASAKI; S SHIDARA; H SUZUKI; T MOR
Journal:  J Biochem       Date:  1963-04       Impact factor: 3.387

3.  A rapid and sensitive method for the quantitation of microgram quantities of protein utilizing the principle of protein-dye binding.

Authors:  M M Bradford
Journal:  Anal Biochem       Date:  1976-05-07       Impact factor: 3.365

4.  A nitrite reductase from Achromobacter cycloclastes.

Authors:  H Iwasaki; T Matsubara
Journal:  J Biochem       Date:  1972-04       Impact factor: 3.387

5.  Cytochrome c-557 (551) and cytochrome cd of Alcaligenes faecalis.

Authors:  H Iwasaki; T Matsubara
Journal:  J Biochem       Date:  1971-05       Impact factor: 3.387

6.  Soybean Mutants Lacking Constitutive Nitrate Reductase Activity : II. Nitrogen Assimilation, Chlorate Resistance, and Inheritance.

Authors:  S A Ryan; R S Nelson; J E Harper
Journal:  Plant Physiol       Date:  1983-06       Impact factor: 8.340

7.  Evolution of Nitrogen Oxide(s) during In Vivo Nitrate Reductase Assay of Soybean Leaves.

Authors:  J E Harper
Journal:  Plant Physiol       Date:  1981-12       Impact factor: 8.340

8.  Soybean mutants lacking constitutive nitrate reductase activity : I. Selection and initial plant characterization.

Authors:  R S Nelson; S A Ryan; J E Harper
Journal:  Plant Physiol       Date:  1983-06       Impact factor: 8.340

9.  The two-haem nitrite reductase of Micrococcus denitrificans.

Authors:  N Newton
Journal:  Biochim Biophys Acta       Date:  1969

10.  Nitrate Reductases from Wild-Type and nr(1)-Mutant Soybean (Glycine max [L.] Merr.) Leaves : I. Purification, Kinetics, and Physical Properties.

Authors:  L Streit; R S Nelson; J E Harper
Journal:  Plant Physiol       Date:  1985-05       Impact factor: 8.340

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  30 in total

1.  In silico characterization of a nitrate reductase gene family and analysis of the predicted proteins from the moss Physcomitrella patens.

Authors:  Rigoberto Medina-Andrés; Verónica Lira-Ruan
Journal:  Commun Integr Biol       Date:  2012-01-01

2.  Constitutive arginine-dependent nitric oxide synthase activity in different organs of pea seedlings during plant development.

Authors:  Francisco J Corpas; Juan B Barroso; Alfonso Carreras; Raquel Valderrama; José M Palma; Ana M León; Luisa M Sandalio; Luis A del Río
Journal:  Planta       Date:  2006-01-06       Impact factor: 4.116

3.  Hydrogen peroxide-mediated activation of MAP kinase 6 modulates nitric oxide biosynthesis and signal transduction in Arabidopsis.

Authors:  Pengcheng Wang; Yanyan Du; Yuan Li; Dongtao Ren; Chun-Peng Song
Journal:  Plant Cell       Date:  2010-09-24       Impact factor: 11.277

4.  Nitric oxide in plant immunity.

Authors:  A Hausladen; J S Stamler
Journal:  Proc Natl Acad Sci U S A       Date:  1998-09-01       Impact factor: 11.205

5.  Phosphorylation by MPK6: a conserved transcriptional modification mediates nitrate reductase activation and NO production?

Authors:  Pengcheng Wang; Yanyan Du; Chun-Peng Song
Journal:  Plant Signal Behav       Date:  2011-06-01

6.  A soluble guanylate cyclase mediates negative signaling by ammonium on expression of nitrate reductase in Chlamydomonas.

Authors:  Amaury de Montaigu; Emanuel Sanz-Luque; Aurora Galván; Emilio Fernández
Journal:  Plant Cell       Date:  2010-05-04       Impact factor: 11.277

7.  Nitric oxide-triggered remodeling of chloroplast bioenergetics and thylakoid proteins upon nitrogen starvation in Chlamydomonas reinhardtii.

Authors:  Lili Wei; Benoit Derrien; Arnaud Gautier; Laura Houille-Vernes; Alix Boulouis; Denis Saint-Marcoux; Alizée Malnoë; Fabrice Rappaport; Catherine de Vitry; Olivier Vallon; Yves Choquet; Francis-André Wollman
Journal:  Plant Cell       Date:  2014-01-28       Impact factor: 11.277

Review 8.  Nitrite reduction by molybdoenzymes: a new class of nitric oxide-forming nitrite reductases.

Authors:  Luisa B Maia; José J G Moura
Journal:  J Biol Inorg Chem       Date:  2015-01-15       Impact factor: 3.358

9.  The reduction of nitrous oxide to dinitrogen by Escherichia coli.

Authors:  M Kaldorf; K H Linne von Berg; U Meier; U Servos; H Bothe
Journal:  Arch Microbiol       Date:  1993       Impact factor: 2.552

10.  Nitric reductase-dependent nitric oxide production is involved in cold acclimation and freezing tolerance in Arabidopsis.

Authors:  Min-Gui Zhao; Lei Chen; Li-Li Zhang; Wen-Hao Zhang
Journal:  Plant Physiol       Date:  2009-08-26       Impact factor: 8.340

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