0000000000014348

AUTHOR

José María Landete

showing 13 related works from this author

Factors affecting the production of putrescine from agmatine by Lactobacillus hilgardii X1B isolated from wine

2008

Aims: To elucidate and characterize the metabolic putrescine synthesis pathway from agmatine by Lactobacillus hilgardii X1B. Methods and Results: The putrescine formation from agmatine by resting cells (the normal physiological state in wine) of lactic acid bacteria isolated from wine has been determined for the first time. Agmatine deiminase and N-carbamoylputrescine hydrolase enzymes, determined by HPLC and LC-Ion Trap Mass Spectrometry, carried out the putrescine synthesis from agmatine. The influence of pH, temperature, organic acids, amino acids, sugars and ethanol on the putrescine formation in wine was determined. Conclusions: Resting cells of Lact. hilgardii X 1B produce putrescine …

ved/biology.organism_classification_rank.speciesLactobacillus hilgardiiApplied Microbiology and BiotechnologyCiencias Biológicas//purl.org/becyt/ford/1 [https]chemistry.chemical_compoundBiología Celular MicrobiologíaLACTIC ACID BACTERIABiogenic amine//purl.org/becyt/ford/1.6 [https]chemistry.chemical_classificationWineved/biologyfood and beveragesBIOGENIC AMINESWINEGeneral MedicinePUTRESCINEAmino acidLactic acidAgmatine deiminasechemistryBiochemistryPutrescineAGMATINE DEIMINASEAgmatineCIENCIAS NATURALES Y EXACTASBiotechnology
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Biogenic amines in wines from three Spanish regions.

2005

One hundred and sixty-three wines from La Rioja, Utiel-Requena, and Tarragona were analyzed to determine if there were any differences in the concentrations of six biogenic amines that are found in these three regions. The influence of grape variety, type of vinification, wine pH, malolactic fermentation, and storage in bottle on biogenic amine concentrations was studied. Results show important differences in putrescine and histamine concentrations among regions, varieties of grape, and type of wine; differences were less appreciable for the remaining biogenic amines studied. Low pH prevented biogenic amine formation. Malolactic fermentation and short storage periods in bottle (3-6 months) …

Biogenic AminesFood HandlingWinechemistry.chemical_compoundSpecies SpecificityBiogenic amineMalolactic fermentationPutrescineVitisFood sciencePediococcusWinemakingWinechemistry.chemical_classificationFood preservationfood and beveragesGeneral ChemistryTyramineHydrogen-Ion ConcentrationLactic acidchemistryLactobacillaceaeSpainFruitFermentationPutrescineGeneral Agricultural and Biological SciencesHistamineJournal of agricultural and food chemistry
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Requirement of the Lactobacillus casei MaeKR two-component system for L-malic acid utilization via a malic enzyme pathway.

2009

ABSTRACTLactobacillus caseican metabolizel-malic acid via malolactic enzyme (malolactic fermentation [MLF]) or malic enzyme (ME). Whereas utilization ofl-malic acid via MLF does not support growth, the ME pathway enablesL. caseito grow onl-malic acid. In this work, we have identified in the genomes ofL. caseistrains BL23 and ATCC 334 a cluster consisting of two diverging operons,maePEandmaeKR, encoding a putative malate transporter (maeP), an ME (maeE), and a two-component (TC) system belonging to the citrate family (maeKandmaeR). Homologous clusters were identified inEnterococcus faecalis,Streptococcus agalactiae,Streptococcus pyogenes, andStreptococcus uberis. Our results show that ME is …

DNA BacterialLactobacillus caseiHistidine KinaseMalic enzymeCatabolite repressionDNA FootprintingMalatesGenetics and Molecular Biologymedicine.disease_causeApplied Microbiology and Biotechnologychemistry.chemical_compoundBacterial ProteinsOperonmedicineEnterococcus faecalisDirect repeatPromoter Regions Geneticchemistry.chemical_classificationEcologybiologySequence Homology Amino AcidGene Expression Profilingfungifood and beveragesStreptococcusGene Expression Regulation Bacterialbiology.organism_classificationMolecular biologyAmino acidResponse regulatorLacticaseibacillus caseichemistryBiochemistryMultigene FamilyStreptococcus pyogenesMalic acidProtein KinasesMetabolic Networks and PathwaysFood ScienceBiotechnologyProtein BindingSignal TransductionTranscription FactorsApplied and environmental microbiology
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Tyramine and phenylethylamine production among lactic acid bacteria isolated from wine.

2007

The ability of wine lactic acid bacteria to produce tyramine and phenylethylamine was investigated by biochemical and genetic methods. An easy and accurate plate medium was developed to detect tyramine-producer strains, and a specific PCR assay that detects the presence of tdc gene was employed. All strains possessing the tdc gene were shown to produce tyramine and phenylethylamine. Wines containing high quantities of tyramine and phenylethylamine were found to contain Lactobacillus brevis or Lactobacillus hilgardii. The main tyramine producer was L. brevis. The ability to produce tyramine was absent or infrequent in the rest of the analysed wine species.

Pcr assayved/biology.organism_classification_rank.speciesColony Count MicrobialTyramineWineLactobacillus hilgardiiMicrobiologychemistry.chemical_compoundPhenethylaminesFood microbiologyWinebiologyLactobacillus brevisved/biologyfood and beveragesGeneral MedicineTyramineTyrosine Decarboxylasebiology.organism_classificationLactic acidCulture MediaLactobacilluschemistryBiochemistryFood MicrobiologyBacteriaFood ScienceInternational journal of food microbiology
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Distribution of CGRP-like immunoreactivity in the chick and quail brain

2000

Calcitonin gene-related peptide (CGRP)-containing neurones have been implicated in the transmission of visceral sensory information to the cortex and in the control of arterial blood pressure in mammals. However, little is known about its function in other vertebrates. As a first step toward investigating the function of CGRP in birds, its distribution was studied in the domestic chick and quail brain by means of immunocytochemistry, by using antibodies against rat CGRP. The distribution of CGRP immunoreactivity in the chick and quail central nervous system was found to be similar. CGRP-immunoreactive (CGRPi) perikarya were not present in the telencephalon. In the diencephalon, CGRPi perika…

CerebrumGeneral NeuroscienceThalamusCentral nervous systemAnsa lenticularisAnatomyBiologyDiencephalonmedicine.anatomical_structurenervous systemForebrainmedicineBrainstemPretectal areaThe Journal of Comparative Neurology
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Regulation of hdc expression and HDC activity by enological factors in lactic acid bacteria.

2008

Aims:  The aim of this work was to study the influence of enological factors on the histidine decarboxylase gene (hdc) expression and on histidine decarboxylase enzyme (HDC) activity in Lactobacillus hilgardii, Pediococcus parvulus and Oenococcus oeni. Methods and Results:  Cell extracts and whole cells were used. Glucose, fructose, malic acid and citric acid diminished the hdc expression. Ethanol did not increase hdc expression or activity in cells, but increased HDC activity. Temperature and pH had effect on the activity of HDC but not on hdc expression. Tartaric acid and l-lactic acid, and sulphur dioxide (SO2) had no effect on enzyme synthesis and activity. Bacterial species differ in t…

ved/biology.organism_classification_rank.speciesLactobacillus hilgardiiFructoseHistidine DecarboxylaseApplied Microbiology and Biotechnologychemistry.chemical_compoundMalolactic fermentationSulfur DioxideDicarboxylic AcidsPediococcusOenococcus oenibiologyved/biologyTemperaturefood and beveragesFructoseGeneral MedicineHydrogen-Ion Concentrationbiology.organism_classificationHistidine decarboxylaseEnzyme assayLactic acidCulture MediaLactobacillusGlucosechemistryBiochemistryGene Expression RegulationLactobacillaceaeFermentationbiology.proteinMalic acidLeuconostocBiotechnologyJournal of applied microbiology
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Which lactic acid bacteria are responsible for histamine production in wine?

2005

Aims: To quantify the ability of 136 lactic acid bacteria (LAB), isolated from wine, to produce histamine and to identify the bacteria responsible for histamine production in wine. Methods and Results: A qualitative method based on pH changes in a plate assay was used to detect wine strains capable of producing high levels of histamine. Two quantitative, highly sensitive methods were used, an enzymatic method and HPLC, to quantify the histamine produced by LAB. Finally, an improved PCR test was carried out to detect the presence of histidine decarboxylase gene in these bacteria. The species exhibiting the highest frequency of histamine production is Oenococcus oeni. However, the concentrati…

DNA Bacterialved/biology.organism_classification_rank.speciesWineLactobacillus hilgardiiHistidine DecarboxylaseGram-Positive BacteriaApplied Microbiology and BiotechnologyPolymerase Chain Reactionchemistry.chemical_compoundLactobacillusPediococcusHistamine ProductionChromatography High Pressure LiquidWinemakingOenococcus oenibiologyved/biologyfood and beveragesGeneral Medicinebiology.organism_classificationLactobacilluschemistryBiochemistryGenes BacterialFood MicrobiologyPediococcusHistamineOenococcusLeuconostocBiotechnologyHistamineJournal of applied microbiology
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Biogenic amine production by lactic acid bacteria, acetic bacteria and yeast isolated from wine

2007

Abstract Biogenic amines are undesirable in all foods and beverages because if consumed at too high concentration, they may induce food-borne intoxications. The biogenic amine production by 155 strains of lactic acid bacteria, 40 strains of acetic bacteria and 36 strains of yeast isolated from wine were analysed in wine, grape must and synthetic media by HPLC. We did not observe biogenic amine production by acetic bacteria and yeast; however, we found production of histamine, tyramine, phenylethylamine and putrescine by LAB. A correlation of 100% was observed between biogenic amine production in synthetic medium and wine and between activity and presence of gene. With the results expose in …

Winechemistry.chemical_classificationCadaverineChemistrydigestive oral and skin physiologyfood and beveragesWine faultTyramineYeastLactic acidchemistry.chemical_compoundBiochemistryBiogenic amineMalolactic fermentationFood scienceFood ScienceBiotechnologyFood Control
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The malate sensing two-component system MaeKR is a non-canonical class of sensory complex for C4-dicarboxylates

2017

16 páginas, 7 figuras, 2 tablas

0301 basic medicineModels MolecularAdenosine Triphosphate / metabolismProtein ConformationScienceMalatesBacterial proteins/chemistry/metabolism/geneticsPlasma protein bindingBiologyModels BiologicalArticleConserved sequence03 medical and health sciencesAdenosine TriphosphateBacterial ProteinsAdenosine Triphosphate / chemistryDicarboxylic AcidsProtein Interaction Domains and MotifsAmino Acid SequenceKinase activityPhosphorylationLactobacilus cassei/classification/physiologyMalates/metabolismPromoter Regions GeneticConserved SequencePhylogenyMultidisciplinaryQAutophosphorylationfungiRTwo-component regulatory systemResponse regulatorLacticaseibacillus casei030104 developmental biologyBiochemistryMedicineModelsbiologica/moleculPhosphorylationCconserved secuenceProtein MultimerizationBinding domainProtein BindingScientific Reports
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Histamine, histidine, and growth-phase mediated regulation of the histidine decarboxylase gene in lactic acid bacteria isolated from wine

2006

Fermented foods are frequently contaminated by histamine that is generated by microorganisms with histidine decarboxylase activity. The ingestion of large amounts of histamine can cause serious toxicological problems in humans. A study of the effects of histamine, histidine, and growth phase on histamine production by lactic acid bacteria isolated from wine is reported here. With northern blots and specific activity analysis, we observed that histidine induces the expression of the histidine decarboxylase gene (hdc) and that histamine causes a decrease in the expression of this gene. The expression of hdc is also mediated by the bacterial growth phase. Histidine and histamine do not affect …

WineHistidine DecarboxylaseMicrobiologyGene Expression Regulation EnzymologicMicrobiologychemistry.chemical_compoundLactobacillusGeneticsHistidinePediococcusMolecular BiologyHistamine ProductionHistidineHistamine N-methyltransferasebiologyfood and beveragesbiology.organism_classificationHistidine decarboxylaseGram-Positive CocciLactobacillusBiochemistrychemistryPyridoxal PhosphateHistidine decarboxylase activityPediococcusLeuconostocHistamineHistamineFEMS Microbiology Letters
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Comparative survey of putrescine production from agmatine deamination in different bacteria

2008

This article aims to study putrescine production in Lactobacillus hilgardii strain X1B, an agmatine degrader isolated from wine, and to compare it with three other different species, previously reported as putrescine producers from agmatine: Pseudomonas aeruginosa PAO1, Enterococcus faecalis ATCC11700 and Bacillus cereus CECT 148T. The effect of different biogenic amines, organic acids, cofactors, amino acids and sugars on putrescine production was evaluated. In some cases, a similar effect was found in all the strains studied but the magnitude differed. Arginine, glucose and fructose showed an inhibitory effect, whereas the presence of agmatine induced the production of putrescine in all m…

Biogenic AminesAgmatineArginineOtras Ciencias Biológicasved/biology.organism_classification_rank.speciesSpermineWineLactobacillus hilgardiiBiologyArginineMicrobiologyEnterococcus faecalisCiencias Biológicaschemistry.chemical_compoundBacillus cereusSpecies SpecificityEnterococcus faecalisPutrescineved/biologyBIOGENIC AMINESWINEbiology.organism_classificationPUTRESCINESpermidineAgmatine deiminaseLactobacilluschemistryBiochemistryPseudomonas aeruginosaPutrescineAGMATINE DEIMINASEAgmatineCIENCIAS NATURALES Y EXACTASFood ScienceFood Microbiology
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Distribution of calcitonin gene-related peptide-like immunoreactivity in the brain of the lizardPodarcis hispanica

2002

The present work studies the distribution of calcitonin gene-related peptide-immunoreactive (CGRP-li) neurons and fibers in the brain of a reptile, the lizard Podarcis hispanica. CGRP-li perikarya were not present in the telencephalon. In the thalamus, CGRP-li perikarya were restricted to the posteromedial and posterolateral nuclei. In the hypothalamus, CGRP-li cells were found mainly in the supramammillary and mammillary nuclei. In the midbrain and brainstem, CGRP-li cells appeared in the ventral tegmental area, the parabrachial nucleus, and the motor nuclei of the III-VII, IX, X, and XII cranial nerves. Motoneurons of the ventral horn of the spinal cord were also immunoreactive for CGRP. …

integumentary systemCerebrumGeneral NeuroscienceThalamusAnatomyBiologybiology.organism_classificationPodarcis hispanicaPonsDiencephalonmedicine.anatomical_structurenervous systemmedicineTegmentumBrainstemPretectal areaJournal of Comparative Neurology
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Malic Enzyme and Malolactic Enzyme Pathways Are Functionally Linked but Independently Regulated in Lactobacillus casei BL23

2013

ABSTRACT Lactobacillus casei is the only lactic acid bacterium in which two pathways for l -malate degradation have been described: the malolactic enzyme (MLE) and the malic enzyme (ME) pathways. Whereas the ME pathway enables L. casei to grow on l -malate, MLE does not support growth. The mle gene cluster consists of three genes encoding MLE ( mleS ), the putative l -malate transporter MleT, and the putative regulator MleR. The mae gene cluster consists of four genes encoding ME ( maeE ), the putative transporter MaeP, and the two-component system MaeKR. Since both pathways compete for the same substrate, we sought to determine whether they are coordinately regulated and their role in l -m…

Lactobacillus caseiPhysiologyMalatesMalic enzymeBiologyApplied Microbiology and BiotechnologyMalate dehydrogenaseGene Knockout TechniquesMalate DehydrogenaseGene clusterLactic AcidGeneRegulation of gene expressionEcologyActivator (genetics)Gene Expression ProfilingfungiBiological TransportTransporterGene Expression Regulation Bacterialrespiratory systembiology.organism_classificationCarbonLacticaseibacillus caseiBiochemistryMultigene FamilyEnergy MetabolismMetabolic Networks and PathwaysFood ScienceBiotechnologyApplied and Environmental Microbiology
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