Literature DB >> 19902959

Ferric stability constants of representative marine siderophores: marinobactins, aquachelins, and petrobactin.

Guangping Zhang1, Shady A Amin, Frithjof C Küpper, Pamela D Holt, Carl J Carrano, Alison Butler.   

Abstract

The coordination of iron(III) to the marine amphiphilic marinobactin and aquachelin siderophores, as well as to petrobactin, an unusual 3,4-dihydroxybenzoyl siderophore is reported. Potentiometric titrations were performed on the apo siderophore to determine the ligand pK(a) values, as well as the complex formed with addition of 1 equiv of Fe(III). The log K(ML) values for Fe(III)-marinobactin-E and Fe(III)-aquachelin-C are 31.80 and 31.4, respectively, consistent with the similar coordination environment in each complex, while log K(ML) for Fe(III)-petrobactin is estimated to be about 43. The pK(a) of the beta-hydroxyaspartyl hydroxyl group was determined to be 10.8 by (1)H NMR titration. (13)C NMR and IR spectroscopy were used to investigate Ga(III) coordination to the marinobactins. The coordination-induced shifts (CIS) in the (13)C NMR spectrum of Ga(III)-marinobactin-C compared to apo-marinobactin-C indicates that the hydroxamate groups are coordinated to Ga(III); however, the lack of CISs for the carbons of the beta-hydroxyamide group suggests this moiety is not coordinated in the Ga(III) complex. Differences in the IR spectrum of Ga(III)-marinobactin-C and Fe(III)-marinobactin-C in the 1600-1700 cm(-1) region also corroborates Fe(III) is coordinated to the beta-hydroxyamide moiety, whereas Ga(III) is not coordinated.

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Year:  2009        PMID: 19902959      PMCID: PMC2790009          DOI: 10.1021/ic901739m

Source DB:  PubMed          Journal:  Inorg Chem        ISSN: 0020-1669            Impact factor:   5.165


  27 in total

1.  Self-assembling amphiphilic siderophores from marine bacteria.

Authors:  J S Martinez; G P Zhang; P D Holt; H T Jung; C J Carrano; M G Haygood; A Butler
Journal:  Science       Date:  2000-02-18       Impact factor: 47.728

Review 2.  Marine siderophores and microbial iron mobilization.

Authors:  Alison Butler
Journal:  Biometals       Date:  2005-08       Impact factor: 2.949

3.  Structure and membrane affinity of new amphiphilic siderophores produced by Ochrobactrum sp. SP18.

Authors:  Jessica D Martin; Yusai Ito; Vanessa V Homann; Margo G Haygood; Alison Butler
Journal:  J Biol Inorg Chem       Date:  2006-05-20       Impact factor: 3.358

4.  Siderophores of Bacillus anthracis, Bacillus cereus, and Bacillus thuringiensis.

Authors:  Melissa K Wilson; Rebecca J Abergel; Kenneth N Raymond; Jean E L Arceneaux; B Rowe Byers
Journal:  Biochem Biophys Res Commun       Date:  2006-07-20       Impact factor: 3.575

5.  Petrobactin, a photoreactive siderophore produced by the oil-degrading marine bacterium Marinobacter hydrocarbonoclasticus.

Authors:  Katherine Barbeau; Guangping Zhang; David H Live; Alison Butler
Journal:  J Am Chem Soc       Date:  2002-01-23       Impact factor: 15.419

6.  Photochemical cycling of iron in the surface ocean mediated by microbial iron(III)-binding ligands.

Authors:  K Barbeau; E L Rue; K W Bruland; A Butler
Journal:  Nature       Date:  2001-09-27       Impact factor: 49.962

7.  Siderophores of Marinobacter aquaeolei: petrobactin and its sulfonated derivatives.

Authors:  Vanessa V Homann; Katrina J Edwards; Eric A Webb; Alison Butler
Journal:  Biometals       Date:  2009-04-09       Impact factor: 2.949

8.  Siderophore electrochemistry: relation to intracellular iron release mechanism.

Authors:  S R Cooper; J V McArdle; K N Raymond
Journal:  Proc Natl Acad Sci U S A       Date:  1978-08       Impact factor: 11.205

9.  A siderophore from a marine bacterium with an exceptional ferric ion affinity constant.

Authors:  R T Reid; D H Live; D J Faulkner; A Butler
Journal:  Nature       Date:  1993-12-02       Impact factor: 49.962

10.  Characterization and analysis of early enzymes for petrobactin biosynthesis in Bacillus anthracis.

Authors:  Brian F Pfleger; Jung Yeop Lee; Ravindranadh V Somu; Courtney C Aldrich; Philip C Hanna; David H Sherman
Journal:  Biochemistry       Date:  2007-03-09       Impact factor: 3.162

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  6 in total

1.  Diversity of monomers in nonribosomal peptides: towards the prediction of origin and biological activity.

Authors:  Ségolène Caboche; Valérie Leclère; Maude Pupin; Gregory Kucherov; Philippe Jacques
Journal:  J Bacteriol       Date:  2010-08-06       Impact factor: 3.490

Review 2.  The chemical biology and coordination chemistry of putrebactin, avaroferrin, bisucaberin, and alcaligin.

Authors:  Rachel Codd; Cho Zin Soe; Amalie A H Pakchung; Athavan Sresutharsan; Christopher J M Brown; William Tieu
Journal:  J Biol Inorg Chem       Date:  2018-06-26       Impact factor: 3.358

Review 3.  β-Hydroxyaspartic acid in siderophores: biosynthesis and reactivity.

Authors:  Clifford D Hardy; Alison Butler
Journal:  J Biol Inorg Chem       Date:  2018-06-26       Impact factor: 3.358

4.  The Fe(III) and Ga(III) coordination chemistry of 3-(1-hydroxymethylidene) and 3-(1-hydroxydecylidene)-5-(2-hydroxyethyl)pyrrolidine-2,4-dione: novel tetramic acid degradation products of homoserine lactone bacterial quorum sensing molecules.

Authors:  Ariel A Romano; Tobias Hahn; Nicole Davis; Colin A Lowery; Anjali K Struss; Kim D Janda; Lars H Böttger; Berthold F Matzanke; Carl J Carrano
Journal:  J Inorg Biochem       Date:  2011-10-29       Impact factor: 4.155

5.  Production of metabolites as bacterial responses to the marine environment.

Authors:  Carla C C R de Carvalho; Pedro Fernandes
Journal:  Mar Drugs       Date:  2010-03-17       Impact factor: 5.118

Review 6.  Scavenging Bacterial Siderophores with Engineered Lipocalin Proteins as an Alternative Antimicrobial Strategy.

Authors:  Martin Dauner; Arne Skerra
Journal:  Chembiochem       Date:  2019-12-13       Impact factor: 3.164

  6 in total

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