Search results for "MESH: Fermentation"

showing 3 items of 3 documents

Yeast–yeast interactions revealed by aromatic profile analysis of Sauvignon Blanc wine fermented by single or co-culture of non-Saccharomyces and Sac…

2012

International audience; There has been increasing interest in the use of selected non-Saccharomyces yeasts in co-culture with Saccharomyces cerevisiae. The main reason is that the multistarter fermentation process is thought to simulate indigenous fermentation, thus increasing wine aroma complexity while avoiding the risks linked to natural fermentation. However, multistarter fermentation is characterised by complex and largely unknown interactions between yeasts. Consequently the resulting wine quality is rather unpredictable. In order to better understand the interactions that take place between non-Saccharomyces and Saccharomyces yeasts during alcoholic fermentation, we analysed the vola…

MESH : Coculture TechniquesWine aroma[ SDV.AEN ] Life Sciences [q-bio]/Food and NutritionWineEthanol fermentation7. Clean energySaccharomycesMESH : SaccharomycesMESH : MetschnikowiaMESH : Volatile Organic CompoundsFood scienceVolatile thiolsCandida0303 health sciencesbiologyfood and beveragesMetschnikowia pulcherrimaCandida zemplininaMESH : WineNon-SaccharomycesAroma of wineTorulaspora delbrueckiiMetschnikowiaMicrobiologyMESH: FermentationMESH: Volatile Organic CompoundsMESH: Coculture TechniquesSaccharomyces03 medical and health sciencesTorulaspora delbrueckiiMESH: CandidaMESH : FermentationBotany030304 developmental biologyWineVolatile Organic CompoundsMESH: SaccharomycesMESH: Metschnikowia030306 microbiologyCandida zemplinina15. Life on landbiology.organism_classificationCoculture TechniquesMESH: WineYeastYeast interactionsFermentation[SDV.AEN]Life Sciences [q-bio]/Food and NutritionMESH : CandidaMetschnikowia pulcherrimaFood ScienceFood Microbiology
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Extracellular oxidoreduction potential modifies carbon and electron flow in Escherichia coli.

2000

ABSTRACT Wild-type Escherichia coli K-12 ferments glucose to a mixture of ethanol and acetic, lactic, formic, and succinic acids. In anoxic chemostat culture at four dilution rates and two different oxidoreduction potentials (ORP), this strain generated a spectrum of products which depended on ORP. Whatever the dilution rate tested, in low reducing conditions (−100 mV), the production of formate, acetate, ethanol, and lactate was in molar proportions of approximately 2.5:1:1:0.3, and in high reducing conditions (−320 mV), the production was in molar proportions of 2:0.6:1:2. The modification of metabolic fluxes was due to an ORP effect on the synthesis or stability of some fermentation enzy…

MESH : Models Chemical0106 biological sciencesMESH: Oxidation-ReductionMESH : Acetic AcidMESH : Escherichia coliMESH : NADFormatesOxaloacetatesMESH: Phosphoenolpyruvate CarboxylaseSuccinic AcidMESH: Alcohol DehydrogenaseMESH : CarbonMESH : EthanolMESH: Carbon Dioxide01 natural sciencesPhosphoenolpyruvatechemistry.chemical_compoundModels[INFO.INFO-BT]Computer Science [cs]/BiotechnologyAcetic Acid0303 health sciencesbiologyMESH: Escherichia coliMESH: Models ChemicalMESH : Acetyl Coenzyme AMESH: NADLactic acidMESH : Carbon DioxideBiochemistryFormic AcidsMESH: PhosphoenolpyruvateMESH: Acetic AcidMESH: Pyruvate KinaseMESH : Phosphoenolpyruvate CarboxylaseMESH: Oxaloacetic AcidsOxidation-Reduction[ INFO.INFO-BT ] Computer Science [cs]/BiotechnologyMESH: EthanolPhysiology and MetabolismPyruvate KinaseElectronsChemicalMESH: CarbonMESH : Formic AcidsChemostatMicrobiologyMESH: Fermentation03 medical and health sciencesAcetic acidMESH : Alcohol DehydrogenaseAcetyl Coenzyme AMESH : Fermentation010608 biotechnology[SDV.BBM] Life Sciences [q-bio]/Biochemistry Molecular BiologyEscherichia coliFormate[SDV.BBM]Life Sciences [q-bio]/Biochemistry Molecular BiologyLactic Acid[ SDV.BBM ] Life Sciences [q-bio]/Biochemistry Molecular BiologyMolecular Biology030304 developmental biologyAlcohol dehydrogenaseMESH : Oxidation-ReductionMESH: ElectronsEthanolEthanolMESH : Succinic AcidAlcohol DehydrogenaseCarbon DioxideNADMESH: Formic AcidsMESH : Pyruvate KinaseCarbonOxaloacetic AcidsPhosphoenolpyruvate CarboxylaseMESH: Succinic Acid[INFO.INFO-BT] Computer Science [cs]/BiotechnologychemistryModels ChemicalSuccinic acidMESH : Lactic AcidMESH : Oxaloacetic AcidsFermentationbiology.proteinFermentationMESH: Lactic AcidMESH : ElectronsMESH : PhosphoenolpyruvateMESH: Acetyl Coenzyme A
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Cabbage and fermented vegetables: from death rate heterogeneity in countries to candidates for mitigation strategies of severe COVID-19

2021

International audience; Large differences in COVID-19 death rates exist between countries and between regions of the same country. Some very low death rate countries such as Eastern Asia, Central Europe, or the Balkans have a common feature of eating large quantities of fermented foods. Although biases exist when examining ecological studies, fermented vegetables or cabbage have been associated with low death rates in European countries. SARS-CoV-2 binds to its receptor, the angiotensin-converting enzyme 2 (ACE2). As a result of SARS-CoV-2 binding, ACE2 downregulation enhances the angiotensin II receptor type 1 (AT1 R) axis associated with oxidative stress. This leads to insulin resistance …

ARIA groupAntioxidantMediterranean dietmedicine.medical_treatmentBrassicasulforaphaneMESH: Angiotensin-Converting Enzyme 2ReviewcabbageAntioxidants0302 clinical medicine10183 Swiss Institute of Allergy and Asthma ResearchVegetableskimchiFood sciencekimči0303 health sciencesMESH: NF-E2-Related Factor 23. Good healthAngiotensin-converting enzyme 22723 Immunology and Allergyfermentirana zelenjavaMESH: EcologyKeywords: Angiotensin converting enzyme 2NF-E2-Related Factor 2KEAP1-NRF2 SYSTEMImmunologyReviewsBrassicaNRF203 medical and health sciencesudc:578:635.34:663.15:COVID‐19angiotensin-converting enzyme 2CorrespondenceHumansMESH: SARS-CoV-2LactobacilluINTERMITTENT HYPOXIA2403 ImmunologyScience & TechnologyMESH: HumansAngiotensin II receptor type 1koronavirusMESH: Antioxidantsmedicine.disease030228 respiratory systemchemistryFermentationAllergymedicine.disease_causechemistry.chemical_compoundLINKING GUT MICROBIOTALactobacillalesLactobacillusImmunology and AllergyMESH: COVID-19Angiotensin converting enzyme 2030212 general & internal medicineOXIDATIVE STRESS[SDV.IMM.ALL]Life Sciences [q-bio]/Immunology/AllergologyKeywords: Angiotensin converting enzyme 2; COVID-19; Lactobacillus; cabbage; diet; fermented vegetable; kimchi; sulforaphane.angiotensin-converting enzyme 2; cabbage; COVID-19; diet; fermented vegetable; kimchi; Lactobacillus; sulforaphane2. Zero hungerFOODSEcologyLactobacillalesMortality rate10177 Dermatology ClinicMEDITERRANEAN DIET1107 ImmunologyLife Sciences & Biomedicinefermented vegetable610 Medicine & healthSettore MED/10 - Malattie Dell'Apparato RespiratorioBiologyMESH: FermentationMESH: Gastrointestinal MicrobiomeInsulin resistanceMESH: DietDownregulation and upregulationmedicine030304 developmental biologySARS-CoV-2COVID-19MESH: BrassicaCOVID-19; Lactobacillus; angiotensin-converting enzyme 2; cabbage; diet; fermented vegetable; kimchi; sulforaphane; Angiotensin-Converting Enzyme 2; Antioxidants; COVID-19; Diet; Ecology; Gastrointestinal Microbiome; Humans; Lactobacillales; NF-E2-Related Factor 2; Brassica; Fermentation; SARS-CoV-2; Vegetablesbiology.organism_classificationMESH: VegetablesDYSFUNCTIONDietGastrointestinal MicrobiomeLactobacillusMESH: Lactobacillalesangiotensin-converting enzyme 2 cabbage COVID-19 diet fermented vegetable kimchi Lactobacillus sulforaphanedietOxidative stressSulforaphane
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