Applied Microbiology and Biotechnology, ISSN 0175-7598, 6/2016, Volume 100, Issue 12, pp. 5515 - 5526
Decreasing the ethanol content in wine is a current challenge, mainly due to the global climate change and to the consumer preference for wines from grapes...
Life Sciences | Biotechnology | Central composite design | Microbiology | Ethanol content reduction | Microbial Genetics and Genomics | Starmerella bacillaris | Non- Saccharomyces yeast | Response surface methodology | Non-Saccharomyces yeast | ALCOHOL CONTENT | UVARUM | SUGARS | SYNONYM | PROFILE | METABOLISM | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | STELLATA | GROWTH | CANDIDA-ZEMPLININA | YEAST STRAINS | Pilot Projects | Saccharomyces cerevisiae - physiology | Candida - physiology | Glycerol - analysis | Agricultural Inoculants | Ethanol - analysis | Fermentation | Microbial Interactions | Wine - analysis | Studies | Climate change | Wines | Yeast | Ethanol | Berries | Research
Life Sciences | Biotechnology | Central composite design | Microbiology | Ethanol content reduction | Microbial Genetics and Genomics | Starmerella bacillaris | Non- Saccharomyces yeast | Response surface methodology | Non-Saccharomyces yeast | ALCOHOL CONTENT | UVARUM | SUGARS | SYNONYM | PROFILE | METABOLISM | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | STELLATA | GROWTH | CANDIDA-ZEMPLININA | YEAST STRAINS | Pilot Projects | Saccharomyces cerevisiae - physiology | Candida - physiology | Glycerol - analysis | Agricultural Inoculants | Ethanol - analysis | Fermentation | Microbial Interactions | Wine - analysis | Studies | Climate change | Wines | Yeast | Ethanol | Berries | Research
Journal Article
Gut, ISSN 0017-5749, 11/2016, Volume 65, Issue 11, pp. 1812 - 1821
ObjectivesHabitual diet plays a major role in shaping the composition of the gut microbiota, and also determines the repertoire of microbial metabolites that...
INTESTINAL MICROBIOTA | CHAIN FATTY-ACIDS | DYSBIOSIS | DISEASE | CANCER-RISK | CARBOHYDRATE | PATTERNS | HEALTH | PHOSPHATIDYLCHOLINE | GASTROENTEROLOGY & HEPATOLOGY | NUTRIENT | Vegetables | Cross-Sectional Studies | Humans | Dietary Fiber - metabolism | Fatty Acids - analysis | Gastrointestinal Tract - microbiology | Male | Gastrointestinal Microbiome - physiology | Statistics as Topic | Healthy Volunteers | Feeding Behavior - physiology | Feces - microbiology | Diet, Mediterranean - psychology | Feces - chemistry | Gastrointestinal Tract - physiology | Adult | Female | Patient Compliance | Prevotella - isolation & purification | Methylamines - urine | Nutritional aspects | Metabolomics | Research | Microbiota (Symbiotic organisms)
INTESTINAL MICROBIOTA | CHAIN FATTY-ACIDS | DYSBIOSIS | DISEASE | CANCER-RISK | CARBOHYDRATE | PATTERNS | HEALTH | PHOSPHATIDYLCHOLINE | GASTROENTEROLOGY & HEPATOLOGY | NUTRIENT | Vegetables | Cross-Sectional Studies | Humans | Dietary Fiber - metabolism | Fatty Acids - analysis | Gastrointestinal Tract - microbiology | Male | Gastrointestinal Microbiome - physiology | Statistics as Topic | Healthy Volunteers | Feeding Behavior - physiology | Feces - microbiology | Diet, Mediterranean - psychology | Feces - chemistry | Gastrointestinal Tract - physiology | Adult | Female | Patient Compliance | Prevotella - isolation & purification | Methylamines - urine | Nutritional aspects | Metabolomics | Research | Microbiota (Symbiotic organisms)
Journal Article
Applied and Environmental Microbiology, ISSN 0099-2240, 03/2012, Volume 78, Issue 6, pp. 1987 - 1994
Classifications Services AEM Citing Articles Google Scholar PubMed Related Content Social Bookmarking CiteULike Delicious Digg Facebook Google+ Mendeley Reddit...
STRAINS | GRAPES | IMPACT | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | VOLATILE COMPOSITION | YEAST DIVERSITY | STELLATA | DYNAMICS | MICROBIOLOGY | WINEMAKING | CULTURE | Saccharomyces cerevisiae - metabolism | Wine - microbiology | Candida - metabolism | Ethanol - metabolism | Glycerol - metabolism | Time Factors | Carbohydrate Metabolism | Acetic Acid - metabolism | Fermentation | Candida | Physiological aspects | Microbiological synthesis | Research | Brewer's yeast | Methods | Food Microbiology
STRAINS | GRAPES | IMPACT | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | VOLATILE COMPOSITION | YEAST DIVERSITY | STELLATA | DYNAMICS | MICROBIOLOGY | WINEMAKING | CULTURE | Saccharomyces cerevisiae - metabolism | Wine - microbiology | Candida - metabolism | Ethanol - metabolism | Glycerol - metabolism | Time Factors | Carbohydrate Metabolism | Acetic Acid - metabolism | Fermentation | Candida | Physiological aspects | Microbiological synthesis | Research | Brewer's yeast | Methods | Food Microbiology
Journal Article
Journal of Food Science, ISSN 0022-1147, 08/2017, Volume 82, Issue 8, pp. 1898 - 1901
Journal Article
International Journal of Food Microbiology, ISSN 0168-1605, 01/2019, Volume 289, pp. 106 - 114
The use of mixed culture fermentations with selected and strains is gaining winemaking attention, mainly due to their ability to enhance particular...
Mixed cultures | Cell-to-cell contact | Interactions | Non-Saccharomyces | Starmerella bacillaris | STRAINS | WINE | BEHAVIOR | FOOD SCIENCE & TECHNOLOGY | YEAST INTERACTIONS | MICROBIOLOGY | IDENTIFICATION | IMPACT | DOMINANCE | CANDIDA-ZEMPLININA | Wine - microbiology | Microbial Interactions - physiology | Saccharomyces cerevisiae - physiology | Bioreactors | Vitis - microbiology | Saccharomycetales - physiology | Microbial Viability | Fermentation | Wine and wine making | Metabolites | Wine | Cell culture | Yeast | Mixed culture | Mortality | Saccharomyces | Wines | Flasks | Death | Kinetics | Species | Saccharomyces cerevisiae | Culture
Mixed cultures | Cell-to-cell contact | Interactions | Non-Saccharomyces | Starmerella bacillaris | STRAINS | WINE | BEHAVIOR | FOOD SCIENCE & TECHNOLOGY | YEAST INTERACTIONS | MICROBIOLOGY | IDENTIFICATION | IMPACT | DOMINANCE | CANDIDA-ZEMPLININA | Wine - microbiology | Microbial Interactions - physiology | Saccharomyces cerevisiae - physiology | Bioreactors | Vitis - microbiology | Saccharomycetales - physiology | Microbial Viability | Fermentation | Wine and wine making | Metabolites | Wine | Cell culture | Yeast | Mixed culture | Mortality | Saccharomyces | Wines | Flasks | Death | Kinetics | Species | Saccharomyces cerevisiae | Culture
Journal Article
Applied Microbiology and Biotechnology, ISSN 0175-7598, 9/2019, Volume 103, Issue 18, pp. 7687 - 7702
In recent years, there is an increasing interest from the winemaking industry for the use of mixed fermentations with Starmerella bacillaris (synonym Candida...
Life Sciences | Malolactic fermentation | Biotechnology | Lactobacillus plantarum | Microbiology | Microbial Genetics and Genomics | Starmerella bacillaris | Oenococcus oeni | Interactions | Saccharomyces cerevisiae | ATTRIBUTES | WINE AROMA | QUALITY | INOCULATION | STARMERELLA-BACILLARIS | CEREVISIAE | NON-SACCHAROMYCES YEASTS | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | OENOCOCCUS-OENI | SELECTION | LACTOBACILLUS | Wine and wine making | Usage | Metabolites | Growth | Animal behavior | Bacteria | Fermentation | Methylene blue | Wine | Yeasts | Lactic acid bacteria | Yeast | Wines | Organic chemistry | Inoculation | Acids | Lactic acid | Species
Life Sciences | Malolactic fermentation | Biotechnology | Lactobacillus plantarum | Microbiology | Microbial Genetics and Genomics | Starmerella bacillaris | Oenococcus oeni | Interactions | Saccharomyces cerevisiae | ATTRIBUTES | WINE AROMA | QUALITY | INOCULATION | STARMERELLA-BACILLARIS | CEREVISIAE | NON-SACCHAROMYCES YEASTS | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | OENOCOCCUS-OENI | SELECTION | LACTOBACILLUS | Wine and wine making | Usage | Metabolites | Growth | Animal behavior | Bacteria | Fermentation | Methylene blue | Wine | Yeasts | Lactic acid bacteria | Yeast | Wines | Organic chemistry | Inoculation | Acids | Lactic acid | Species
Journal Article
Food Research International, ISSN 0963-9969, 11/2013, Volume 54, Issue 1, pp. 139 - 147
In this study, attention has been focused on microbial ecology, during an on-vine withering period of 120 days, of Mondeuse grapes, an autochthonous variety...
Icewine | Yeast ecology | Grape withering | Culture-dependent and -independent methods | CANADIAN ICE WINES | FOOD SCIENCE & TECHNOLOGY | ECOLOGY | CANDIDA-ZEMPLININA | IDENTIFICATION | SACCHAROMYCES-CEREVISIAE | Grapes | Analysis | Fermentation | Biological diversity | Withering | Yeast | Aureobasidium pullulans | Dynamics | Foods | Biodiversity
Icewine | Yeast ecology | Grape withering | Culture-dependent and -independent methods | CANADIAN ICE WINES | FOOD SCIENCE & TECHNOLOGY | ECOLOGY | CANDIDA-ZEMPLININA | IDENTIFICATION | SACCHAROMYCES-CEREVISIAE | Grapes | Analysis | Fermentation | Biological diversity | Withering | Yeast | Aureobasidium pullulans | Dynamics | Foods | Biodiversity
Journal Article
American Journal of Enology and Viticulture, ISSN 0002-9254, 2017, Volume 68, Issue 3, pp. 378 - 385
Starmerella bacillaris has been proposed as a non-Saccharomyces species candidate to be used in mixed fermentations with Saccharomyces cerevisiae for the...
Response surface methodology | Alcoholic fermentation | Non-Saccharomyces | Starmerella bacillaris | STRAINS | FOOD SCIENCE & TECHNOLOGY | ALCOHOL CONTENT | CEREVISIAE | non-Saccharomyces | response surface methodology | NON-SACCHAROMYCES YEAST | HORTICULTURE | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | RESPIRATION | STELLATA | CANDIDA-ZEMPLININA | DIVERSITY | alcoholic fermentation | SELECTION | WINE FERMENTATIONS
Response surface methodology | Alcoholic fermentation | Non-Saccharomyces | Starmerella bacillaris | STRAINS | FOOD SCIENCE & TECHNOLOGY | ALCOHOL CONTENT | CEREVISIAE | non-Saccharomyces | response surface methodology | NON-SACCHAROMYCES YEAST | HORTICULTURE | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | RESPIRATION | STELLATA | CANDIDA-ZEMPLININA | DIVERSITY | alcoholic fermentation | SELECTION | WINE FERMENTATIONS
Journal Article
International Journal of Food Microbiology, ISSN 0168-1605, 04/2015, Volume 199, pp. 33 - 40
Nowadays, the use of non- yeasts in combination with is a state-of-the-art strategy to improve complexity and enhance the analytical composition of the wines....
Non-Saccharomyces yeast | Biodiversity | Candida zemplinina | Mixed fermentation | Wine fermentation | Starmerella bacillaris | STRAINS | GRAPES | FOOD SCIENCE & TECHNOLOGY | CEREVISIAE | MICROBIOLOGY | IDENTIFICATION | STELLATA | DYNAMICS | DIVERSITY | ALCOHOLIC FERMENTATION | Genetic Variation | Wine - microbiology | Saccharomycetales - genetics | Ethanol - metabolism | Glycerol - metabolism | Saccharomycetales - physiology | Acetic Acid - metabolism | Fermentation | Wine - analysis | Wine and wine making | Physiological aspects | Analysis
Non-Saccharomyces yeast | Biodiversity | Candida zemplinina | Mixed fermentation | Wine fermentation | Starmerella bacillaris | STRAINS | GRAPES | FOOD SCIENCE & TECHNOLOGY | CEREVISIAE | MICROBIOLOGY | IDENTIFICATION | STELLATA | DYNAMICS | DIVERSITY | ALCOHOLIC FERMENTATION | Genetic Variation | Wine - microbiology | Saccharomycetales - genetics | Ethanol - metabolism | Glycerol - metabolism | Saccharomycetales - physiology | Acetic Acid - metabolism | Fermentation | Wine - analysis | Wine and wine making | Physiological aspects | Analysis
Journal Article
Food Microbiology, ISSN 0740-0020, 10/2016, Volume 59, pp. 112 - 118
The presence of , commonly employed as starter culture, was, recently, highlighted and investigated during late cheese ripening. Thus, the main goal of the...
Ripening | Lactococcus lactis | Model cheese | VNC | RT-qPCR | Viability | SUBSP LACTIS | FOOD SCIENCE & TECHNOLOGY | QUANTITATIVE PCR | RAW-MILK | LACTOBACILLUS-PARACASEI | MICROBIOLOGY | IDENTIFICATION | CARBOHYDRATE STARVATION | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | MICROBIAL DIVERSITY | ACID BACTERIA | CASTELMAGNO PDO | NONCULTURABLE STATE | Cheese - analysis | Cheese - microbiology | Lactococcus lactis - genetics | Lactococcus lactis - physiology | Bacterial Load | Microbial Viability | Fermentation | Real-Time Polymerase Chain Reaction | Food Microbiology | Analysis | Cheese | Microorganisms | Miniature | Plating | Milk
Ripening | Lactococcus lactis | Model cheese | VNC | RT-qPCR | Viability | SUBSP LACTIS | FOOD SCIENCE & TECHNOLOGY | QUANTITATIVE PCR | RAW-MILK | LACTOBACILLUS-PARACASEI | MICROBIOLOGY | IDENTIFICATION | CARBOHYDRATE STARVATION | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | MICROBIAL DIVERSITY | ACID BACTERIA | CASTELMAGNO PDO | NONCULTURABLE STATE | Cheese - analysis | Cheese - microbiology | Lactococcus lactis - genetics | Lactococcus lactis - physiology | Bacterial Load | Microbial Viability | Fermentation | Real-Time Polymerase Chain Reaction | Food Microbiology | Analysis | Cheese | Microorganisms | Miniature | Plating | Milk
Journal Article
PLoS ONE, ISSN 1932-6203, 04/2014, Volume 9, Issue 4, p. e94457
To date, only a few studies have investigated the complex microbiota of table olives in order to identify new probiotic microorganisms, even though this food...
SURVIVAL | STRAINS | LACTOBACILLUS-PLANTARUM | ADHESION | IMPACT | ASSAY | MULTIDISCIPLINARY SCIENCES | LACTIC-ACID BACTERIA | LISTERIA-MONOCYTOGENES INFECTION | CACO-2 CELLS | AGGREGATION | Lactobacillus - genetics | Intestinal Mucosa - metabolism | Humans | Intestinal Mucosa - microbiology | Phylogeny | Lactobacillus - metabolism | Food Microbiology | Bacterial Adhesion | Lactobacillus - classification | Microbial Sensitivity Tests | Probiotics | Microbiota | Lactobacillus - drug effects | Olea - microbiology | Drug Resistance, Bacterial - genetics | Metagenome | Physiological aspects | Genetic aspects | Microbiota (Symbiotic organisms) | Health aspects | Gastrointestinal system | Lactobacillus | Lactic acid bacteria | Dairy products | Lactobacillus plantarum | Epithelial cells | Adhesion tests | Infections | Biochemistry | Leuconostoc | Hydrophobicity | Proteins | Microorganisms | Listeria | Intestine | Tables | Bacteria | Life sciences | Food | Leuconostoc mesenteroides | Computer simulation | Olives | Gastrointestinal tract | Fermentation | Epithelium | Adhesion | Studies | Acids | Antibiotics | Lactic acid | Molecular biology | Three dimensional models | Colonization | Integrity
SURVIVAL | STRAINS | LACTOBACILLUS-PLANTARUM | ADHESION | IMPACT | ASSAY | MULTIDISCIPLINARY SCIENCES | LACTIC-ACID BACTERIA | LISTERIA-MONOCYTOGENES INFECTION | CACO-2 CELLS | AGGREGATION | Lactobacillus - genetics | Intestinal Mucosa - metabolism | Humans | Intestinal Mucosa - microbiology | Phylogeny | Lactobacillus - metabolism | Food Microbiology | Bacterial Adhesion | Lactobacillus - classification | Microbial Sensitivity Tests | Probiotics | Microbiota | Lactobacillus - drug effects | Olea - microbiology | Drug Resistance, Bacterial - genetics | Metagenome | Physiological aspects | Genetic aspects | Microbiota (Symbiotic organisms) | Health aspects | Gastrointestinal system | Lactobacillus | Lactic acid bacteria | Dairy products | Lactobacillus plantarum | Epithelial cells | Adhesion tests | Infections | Biochemistry | Leuconostoc | Hydrophobicity | Proteins | Microorganisms | Listeria | Intestine | Tables | Bacteria | Life sciences | Food | Leuconostoc mesenteroides | Computer simulation | Olives | Gastrointestinal tract | Fermentation | Epithelium | Adhesion | Studies | Acids | Antibiotics | Lactic acid | Molecular biology | Three dimensional models | Colonization | Integrity
Journal Article
Journal of Food Science, ISSN 0022-1147, 08/2017, Volume 82, Issue 8, pp. 1898 - 1901
This study describes the optimization and application of repetitive element‐PCR (rep‐PCR) technique directly on microbial DNA extracted from type I sourdoughs...
sourdough back‐slopping | starter dominance | culture‐independent method, Lactobacillus plantarum | repetitive element‐PCR | POPULATION | Lactobacillus plantarum | culture-independent method | FOOD SCIENCE & TECHNOLOGY | repetitive element-PCR | sourdough back-slopping | IDENTIFICATION | GRADIENT GEL-ELECTROPHORESIS | REGION | LACTIC-ACID BACTERIA | FERMENTATION | TRADITIONAL SOURDOUGH | Flour - microbiology | Flour - analysis | Microbiota | Lactobacillus plantarum - growth & development | Lactobacillus plantarum - isolation & purification | Lactobacillus plantarum - genetics | Fermentation | Food Microbiology | Bread - microbiology | Polymerase Chain Reaction - methods | Polymerase chain reaction | Observations | Health aspects | Methods | Lactobacillus | Food | Testing | Media (culture) | Biomass | Optimization | Loads (forces) | Starter cultures | Microorganisms | Monitoring | Deoxyribonucleic acid--DNA | Media (selective) | Cultivation | Fermented food | Cultures | Dominance | Plant communities | Flour | Strain | Amplification | Selective media | Dough | Sourdough | Food processing industry | Inoculum
sourdough back‐slopping | starter dominance | culture‐independent method, Lactobacillus plantarum | repetitive element‐PCR | POPULATION | Lactobacillus plantarum | culture-independent method | FOOD SCIENCE & TECHNOLOGY | repetitive element-PCR | sourdough back-slopping | IDENTIFICATION | GRADIENT GEL-ELECTROPHORESIS | REGION | LACTIC-ACID BACTERIA | FERMENTATION | TRADITIONAL SOURDOUGH | Flour - microbiology | Flour - analysis | Microbiota | Lactobacillus plantarum - growth & development | Lactobacillus plantarum - isolation & purification | Lactobacillus plantarum - genetics | Fermentation | Food Microbiology | Bread - microbiology | Polymerase Chain Reaction - methods | Polymerase chain reaction | Observations | Health aspects | Methods | Lactobacillus | Food | Testing | Media (culture) | Biomass | Optimization | Loads (forces) | Starter cultures | Microorganisms | Monitoring | Deoxyribonucleic acid--DNA | Media (selective) | Cultivation | Fermented food | Cultures | Dominance | Plant communities | Flour | Strain | Amplification | Selective media | Dough | Sourdough | Food processing industry | Inoculum
Journal Article
Innovative Food Science and Emerging Technologies, ISSN 1466-8564, 06/2016, Volume 35, pp. 21 - 28
Electrolyzed water (EW) has recently attracted much attention due to its efficacy against a broad spectrum of microorganisms. In this study, we investigated...
Wine | Yeast dynamics | Sanitization | Electrolyzed water | Grape | Innovative treatment | STRAINS | SULFUR-DIOXIDE | FOOD SCIENCE & TECHNOLOGY | CEREVISIAE | POPULATIONS | NON-SACCHAROMYCES YEASTS | GROWTH | FERMENTATION | DYNAMICS | Wine and wine making | Sulfur compounds | Usage | Grapes | Analysis | Fermentation | Acetic acid | Organic acids | Esters | Wines | Inoculation | Yeast | Spontaneous | Aroma | Sulfur dioxide
Wine | Yeast dynamics | Sanitization | Electrolyzed water | Grape | Innovative treatment | STRAINS | SULFUR-DIOXIDE | FOOD SCIENCE & TECHNOLOGY | CEREVISIAE | POPULATIONS | NON-SACCHAROMYCES YEASTS | GROWTH | FERMENTATION | DYNAMICS | Wine and wine making | Sulfur compounds | Usage | Grapes | Analysis | Fermentation | Acetic acid | Organic acids | Esters | Wines | Inoculation | Yeast | Spontaneous | Aroma | Sulfur dioxide
Journal Article
PLoS ONE, ISSN 1932-6203, 12/2014, Volume 9, Issue 12, p. e114280
Recent evidences highlighted the presence of Lactococcus lactis during late cheese ripening. For this reason, the role of this microorganism, well known as...
CULTURE-INDEPENDENT METHODS | EXTRACTION | CARBOHYDRATE STARVATION | MICROBIAL DIVERSITY | MULTIDISCIPLINARY SCIENCES | PCR-DGGE | DYNAMICS | ACID BACTERIA | IDENTIFICATION | LACTOBACILLUS | STRATEGIES | Cheese - microbiology | Lactococcus lactis - genetics | Food Analysis | Lactococcus lactis - cytology | Colony Count, Microbial | Real-Time Polymerase Chain Reaction | Correlation coefficient | Construction standards | Carbohydrates | Lactococcus lactis | Annealing | Dairy products | Colonies | Correlation coefficients | Ribosomal DNA | Cheese | Selectivity | Nucleic acids | Ribonucleic acid--RNA | Ripening | Microorganisms | Bacteria | Viability | Deoxyribonucleic acid--DNA | Food | Milk | RNA | Ribonucleic acid | Deoxyribonucleic acid | DNA
CULTURE-INDEPENDENT METHODS | EXTRACTION | CARBOHYDRATE STARVATION | MICROBIAL DIVERSITY | MULTIDISCIPLINARY SCIENCES | PCR-DGGE | DYNAMICS | ACID BACTERIA | IDENTIFICATION | LACTOBACILLUS | STRATEGIES | Cheese - microbiology | Lactococcus lactis - genetics | Food Analysis | Lactococcus lactis - cytology | Colony Count, Microbial | Real-Time Polymerase Chain Reaction | Correlation coefficient | Construction standards | Carbohydrates | Lactococcus lactis | Annealing | Dairy products | Colonies | Correlation coefficients | Ribosomal DNA | Cheese | Selectivity | Nucleic acids | Ribonucleic acid--RNA | Ripening | Microorganisms | Bacteria | Viability | Deoxyribonucleic acid--DNA | Food | Milk | RNA | Ribonucleic acid | Deoxyribonucleic acid | DNA
Journal Article
Journal of food protection, ISSN 0362-028X, 02/2019, Volume 82, Issue 2, pp. 233 - 237
Listeria monocytogenes can be introduced into food processing plants via raw material of animal or plant origin and can establish endemic populations through...
High temperature plasmas | Usage | Ecosystem components | Analysis | Listeria monocytogenes | Influence | Genetic aspects | Plasma (Ionized gases) | Brain | Food plants | rRNA 16S | Pressure effects | Atmospheric pressure | Entrances | Sanitation | Food contamination | Gram-positive bacteria | Endemic plants | Infusion | Microorganisms | Listeria | Cold treatment | Bacteria | Plasmas | Resuscitation | Food | Pathogens | Planktonic cells | Food contamination & poisoning | Cold | Cultivation | U.V. radiation | Antimicrobial agents | Food production | Food processing | Contamination | Organic chemistry | Cell suspensions | Ultraviolet radiation | Solid surfaces | Biofilms | Cleaning agents | Charged particles | Food processing industry
High temperature plasmas | Usage | Ecosystem components | Analysis | Listeria monocytogenes | Influence | Genetic aspects | Plasma (Ionized gases) | Brain | Food plants | rRNA 16S | Pressure effects | Atmospheric pressure | Entrances | Sanitation | Food contamination | Gram-positive bacteria | Endemic plants | Infusion | Microorganisms | Listeria | Cold treatment | Bacteria | Plasmas | Resuscitation | Food | Pathogens | Planktonic cells | Food contamination & poisoning | Cold | Cultivation | U.V. radiation | Antimicrobial agents | Food production | Food processing | Contamination | Organic chemistry | Cell suspensions | Ultraviolet radiation | Solid surfaces | Biofilms | Cleaning agents | Charged particles | Food processing industry
Journal Article