Literature DB >> 12867459

IS981-mediated adaptive evolution recovers lactate production by ldhB transcription activation in a lactate dehydrogenase-deficient strain of Lactococcus lactis.

Roger S Bongers1, Marcel H N Hoefnagel, Marjo J C Starrenburg, Marco A J Siemerink, John G A Arends, Jeroen Hugenholtz, Michiel Kleerebezem.   

Abstract

Lactococcus lactis NZ9010 in which the las operon-encoded ldh gene was replaced with an erythromycin resistance gene cassette displayed a stable phenotype when grown under aerobic conditions, and its main end products of fermentation under these conditions were acetate and acetoin. However, under anaerobic conditions, the growth of these cells was strongly retarded while the main end products of fermentation were acetate and ethanol. Upon prolonged subculturing of this strain under anaerobic conditions, both the growth rate and the ability to produce lactate were recovered after a variable number of generations. This recovery was shown to be due to the transcriptional activation of a silent ldhB gene coding for an Ldh protein (LdhB) with kinetic parameters different from those of the native las operon-encoded Ldh protein. Nevertheless, cells producing LdhB produced mainly lactate as the end product of fermentation. The mechanism underlying the ldhB gene activation was primarily studied in a single-colony isolate of the recovered culture, designated L. lactis NZ9015. Integration of IS981 in the upstream region of ldhB was responsible for transcription activation of the ldhB gene by generating an IS981-derived -35 promoter region at the correct spacing with a natively present -10 region. Subsequently, analysis of 10 independently isolated lactate-producing derivatives of L. lactis NZ9010 confirmed that the ldhB gene is transcribed in all of them. Moreover, characterization of the upstream region of the ldhB gene in these derivatives indicated that site-specific and directional IS981 insertion represents the predominant mechanism of the observed recovery of the ability to produce lactate.

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Year:  2003        PMID: 12867459      PMCID: PMC165757          DOI: 10.1128/JB.185.15.4499-4507.2003

Source DB:  PubMed          Journal:  J Bacteriol        ISSN: 0021-9193            Impact factor:   3.490


  48 in total

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2.  Lactococcus lactis as a cell factory for high-level diacetyl production.

Authors:  J Hugenholtz; M Kleerebezem; M Starrenburg; J Delcour; W de Vos; P Hols
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Authors:  E Jordan; H Saedler; P Starlinger
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4.  Lactate dehydrogenases of Streptococcus thermophilus.

Authors:  E I Garvie
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5.  Analysis of gene control signals by DNA fusion and cloning in Escherichia coli.

Authors:  M J Casadaban; S N Cohen
Journal:  J Mol Biol       Date:  1980-04       Impact factor: 5.469

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Authors:  H W Andersen; M B Pedersen; K Hammer; P R Jensen
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Authors:  V L Crow; G G Pritchard
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Journal:  Eur J Biochem       Date:  1993-08-15

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Authors:  M M Riehle; A F Bennett; A D Long
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  25 in total

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4.  Construction and characterization of three lactate dehydrogenase-negative Enterococcus faecalis V583 mutants.

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5.  Availability of public goods shapes the evolution of competing metabolic strategies.

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6.  Genetic basis of evolutionary adaptation by Escherichia coli to stressful cycles of freezing, thawing and growth.

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7.  Overproduction of heterologous mannitol 1-phosphatase: a key factor for engineering mannitol production by Lactococcus lactis.

Authors:  H Wouter Wisselink; Antoine P H A Moers; Astrid E Mars; Marcel H N Hoefnagel; Willem M de Vos; Jeroen Hugenholtz
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8.  Metabolic engineering of mannitol production in Lactococcus lactis: influence of overexpression of mannitol 1-phosphate dehydrogenase in different genetic backgrounds.

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Journal:  J Bacteriol       Date:  2008-12-01       Impact factor: 3.490

10.  Analysis of ldh genes in Lactobacillus casei BL23: role on lactic acid production.

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