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Bacteroides fragilis --- Bacteroides Infections --- drug effects --- drug therapy
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Bacteroides --- Mouth Mucosa --- Periodontitis --- Bacteroides Infections --- isolation & purification. --- microbiology. --- Theses --- 44.96 dentistry. --- Black-pigmented bacteroide. --- Infectious diseases. --- Mouth --- Mouth. --- Microbiology. --- isolation & purification --- microbiology
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Anti-Infective Agents --- Bacteroides fragilis --- Escherichia coli --- Neutrophils --- Phagocytosis --- pharmacology --- pathogenicity --- immunology --- immunology
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All parts of our body having communication with the external environment such as the skin, vagina, the respiratory tract or the gastrointestinal tract are colonized by a specific microbial community. The colon is by far the most densely populated organ in the human body. The pool of microbes inhabiting our body is known as “microbiota” and their collective genomes as “microbiome”. These microbial ecosystems regulate important functions of the host, and their functionality and the balance among the diverse microbial populations is essential for the maintenance of a “healthy status”. The impressive development in recent years of next generation sequencing (NGS) methods have made possible to determine the gut microbiome composition. This, together with the application of other high throughput omic techniques and the use of gnotobiotic animals has greatly improved our knowledge of the microbiota acting as a whole. In spite of this, most members of the human microbiota are largely unknown and remain still uncultured. The final functionality of the microbiota is depending not only on nutrient availability and environmental conditions, but also on the interrelationships that the microorganisms inhabiting the same ecological niche are able to establish with their partners, or with their potential competitors. Therefore, in such a competitive environment microorganisms have had to develop strategies allowing them to cope, adapt, or cooperate with their neighbors, which may imply notable changes at metabolic, physiological and genetic level. The main aim of this Research Topic was to contribute to better understanding complex interactions among microorganisms residing in human microbial habitats.All parts of our body having communication with the external environment such as the skin, vagina, the respiratory tract or the gastrointestinal tract are colonized by a specific microbial community. The colon is by far the most densely populated organ in the human body. The pool of microbes inhabiting our body is known as “microbiota” and their collective genomes as “microbiome”. These microbial ecosystems regulate important functions of the host, and their functionality and the balance among the diverse microbial populations is essential for the maintenance of a “healthy status”. The impressive development in recent years of next generation sequencing (NGS) methods have made possible to determine the gut microbiome composition. This, together with the application of other high throughput omic techniques and the use of gnotobiotic animals has greatly improved our knowledge of the microbiota acting as a whole. In spite of this, most members of the human microbiota are largely unknown and remain still uncultured. The final functionality of the microbiota is depending not only on nutrient availability and environmental conditions, but also on the interrelationships that the microorganisms inhabiting the same ecological niche are able to establish with their partners, or with their potential competitors. Therefore, in such a competitive environment microorganisms have had to develop strategies allowing them to cope, adapt, or cooperate with their neighbors, which may imply notable changes at metabolic, physiological and genetic level. The main aim of this Research Topic was to contribute to better understanding complex interactions among microorganisms residing in human microbial habitats.
bacterial-pathogen infection --- Quorum Sensing --- Bifidobacterium --- Short Chain Fatty Acids --- Biofilm --- gnotobiotic mice --- breast milk --- human microbiota --- Bacteroides --- bacterial-pathogen infection --- Quorum Sensing --- Bifidobacterium --- Short Chain Fatty Acids --- Biofilm --- gnotobiotic mice --- breast milk --- human microbiota --- Bacteroides
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All parts of our body having communication with the external environment such as the skin, vagina, the respiratory tract or the gastrointestinal tract are colonized by a specific microbial community. The colon is by far the most densely populated organ in the human body. The pool of microbes inhabiting our body is known as “microbiota” and their collective genomes as “microbiome”. These microbial ecosystems regulate important functions of the host, and their functionality and the balance among the diverse microbial populations is essential for the maintenance of a “healthy status”. The impressive development in recent years of next generation sequencing (NGS) methods have made possible to determine the gut microbiome composition. This, together with the application of other high throughput omic techniques and the use of gnotobiotic animals has greatly improved our knowledge of the microbiota acting as a whole. In spite of this, most members of the human microbiota are largely unknown and remain still uncultured. The final functionality of the microbiota is depending not only on nutrient availability and environmental conditions, but also on the interrelationships that the microorganisms inhabiting the same ecological niche are able to establish with their partners, or with their potential competitors. Therefore, in such a competitive environment microorganisms have had to develop strategies allowing them to cope, adapt, or cooperate with their neighbors, which may imply notable changes at metabolic, physiological and genetic level. The main aim of this Research Topic was to contribute to better understanding complex interactions among microorganisms residing in human microbial habitats.All parts of our body having communication with the external environment such as the skin, vagina, the respiratory tract or the gastrointestinal tract are colonized by a specific microbial community. The colon is by far the most densely populated organ in the human body. The pool of microbes inhabiting our body is known as “microbiota” and their collective genomes as “microbiome”. These microbial ecosystems regulate important functions of the host, and their functionality and the balance among the diverse microbial populations is essential for the maintenance of a “healthy status”. The impressive development in recent years of next generation sequencing (NGS) methods have made possible to determine the gut microbiome composition. This, together with the application of other high throughput omic techniques and the use of gnotobiotic animals has greatly improved our knowledge of the microbiota acting as a whole. In spite of this, most members of the human microbiota are largely unknown and remain still uncultured. The final functionality of the microbiota is depending not only on nutrient availability and environmental conditions, but also on the interrelationships that the microorganisms inhabiting the same ecological niche are able to establish with their partners, or with their potential competitors. Therefore, in such a competitive environment microorganisms have had to develop strategies allowing them to cope, adapt, or cooperate with their neighbors, which may imply notable changes at metabolic, physiological and genetic level. The main aim of this Research Topic was to contribute to better understanding complex interactions among microorganisms residing in human microbial habitats.
bacterial-pathogen infection --- Quorum Sensing --- Bifidobacterium --- Short Chain Fatty Acids --- Biofilm --- gnotobiotic mice --- breast milk --- human microbiota --- Bacteroides
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All parts of our body having communication with the external environment such as the skin, vagina, the respiratory tract or the gastrointestinal tract are colonized by a specific microbial community. The colon is by far the most densely populated organ in the human body. The pool of microbes inhabiting our body is known as “microbiota” and their collective genomes as “microbiome”. These microbial ecosystems regulate important functions of the host, and their functionality and the balance among the diverse microbial populations is essential for the maintenance of a “healthy status”. The impressive development in recent years of next generation sequencing (NGS) methods have made possible to determine the gut microbiome composition. This, together with the application of other high throughput omic techniques and the use of gnotobiotic animals has greatly improved our knowledge of the microbiota acting as a whole. In spite of this, most members of the human microbiota are largely unknown and remain still uncultured. The final functionality of the microbiota is depending not only on nutrient availability and environmental conditions, but also on the interrelationships that the microorganisms inhabiting the same ecological niche are able to establish with their partners, or with their potential competitors. Therefore, in such a competitive environment microorganisms have had to develop strategies allowing them to cope, adapt, or cooperate with their neighbors, which may imply notable changes at metabolic, physiological and genetic level. The main aim of this Research Topic was to contribute to better understanding complex interactions among microorganisms residing in human microbial habitats.All parts of our body having communication with the external environment such as the skin, vagina, the respiratory tract or the gastrointestinal tract are colonized by a specific microbial community. The colon is by far the most densely populated organ in the human body. The pool of microbes inhabiting our body is known as “microbiota” and their collective genomes as “microbiome”. These microbial ecosystems regulate important functions of the host, and their functionality and the balance among the diverse microbial populations is essential for the maintenance of a “healthy status”. The impressive development in recent years of next generation sequencing (NGS) methods have made possible to determine the gut microbiome composition. This, together with the application of other high throughput omic techniques and the use of gnotobiotic animals has greatly improved our knowledge of the microbiota acting as a whole. In spite of this, most members of the human microbiota are largely unknown and remain still uncultured. The final functionality of the microbiota is depending not only on nutrient availability and environmental conditions, but also on the interrelationships that the microorganisms inhabiting the same ecological niche are able to establish with their partners, or with their potential competitors. Therefore, in such a competitive environment microorganisms have had to develop strategies allowing them to cope, adapt, or cooperate with their neighbors, which may imply notable changes at metabolic, physiological and genetic level. The main aim of this Research Topic was to contribute to better understanding complex interactions among microorganisms residing in human microbial habitats.
bacterial-pathogen infection --- Quorum Sensing --- Bifidobacterium --- Short Chain Fatty Acids --- Biofilm --- gnotobiotic mice --- breast milk --- human microbiota --- Bacteroides
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Medical microbiology, virology, parasitology --- Clinical Laboratory Techniques --- Clostridium Infections --- Bacteroides --- Bacteriological Techniques --- Anaerobiosis --- Medical bacteriology --- Anaerobic bacteria --- microbiology --- isolation and purification --- Bacteriological Techniques. --- Anaerobiosis. --- Laboratory Techniques and Procedures. --- Anaerobioses --- Bacteriologic Technic --- Bacteriologic Technics --- Bacteriologic Techniques --- Bacteriological Technique --- Technic, Bacteriological --- Technics, Bacteriological --- Technique, Bacteriological --- Techniques, Bacteriological --- Bacteriologic Technique --- Bacteriological Technic --- Bacteriological Technics --- Technic, Bacteriologic --- Technics, Bacteriologic --- Technique, Bacteriologic --- Techniques, Bacteriologic --- Bacteriology --- isolation & purification. --- microbiology. --- methods --- Anaerobic Metabolism --- Anaerobic Metabolisms --- Metabolism, Anaerobic --- Metabolisms, Anaerobic --- Laboratory Techniques and Procedures --- Bacteriology, Medical --- Medical microbiology --- Bacterial diseases --- Pathogenic bacteria --- Bacteria, Anaerobic --- Bacteria --- isolation & purification --- Clostridium Infections - microbiology --- Bacteroides - isolation and purification
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Microalgae and seaweeds are a renewable source of potent bioactive ingredients with confirmed positive impacts on health and wellness. The interest in—and awareness of—the need to improve quality of life and well-being has led to a greater consumption of nutraceuticals, as well as the use of cosmeceuticals for “well-aging”. In this context, algae and microalgae are currently gaining immense popularity within the functional food, nutraceutical, and cosmeceutical industries. Recent advances in the characterization and evaluation of the biological properties of the whole material, fractions, or isolated compounds of algae and microalgae enable their use as ingredients for the development of novel nutraceutical and cosmeceutical products.
Medicine --- polysaccharides --- health benefits --- health risks --- biomedical --- polymer seasonal variation --- red seaweeds --- agarose --- agarotriose --- 3,6-anhydro-l-galactose --- prebiotics --- anti-colon cancer activity --- α-neoagarooligosaccharide hydrolase --- exo-acting 3,6-anhydro-α-(1,3)-L-galactosidase --- BpGH117 --- 3,6-anhydro-L-galactose --- human gut bacterium --- Bacteroides plebeius --- marine ingredients --- algae --- sensitive skin --- cosmetics --- seaweed --- protein --- extraction --- bioactive peptides --- industrial application --- marine macroalgae --- ingredients --- additives --- bioactives --- nutricosmetics --- Caulerpa racemosa --- Ulva lactuca --- nutritional --- potential --- SWE --- peloids --- microalgae --- cyanobacteria --- dermocosmetics --- mineral water --- seawater --- anti-obesity --- anti-inflammation --- anti-steatosis --- molecular networking
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Microalgae and seaweeds are a renewable source of potent bioactive ingredients with confirmed positive impacts on health and wellness. The interest in—and awareness of—the need to improve quality of life and well-being has led to a greater consumption of nutraceuticals, as well as the use of cosmeceuticals for “well-aging”. In this context, algae and microalgae are currently gaining immense popularity within the functional food, nutraceutical, and cosmeceutical industries. Recent advances in the characterization and evaluation of the biological properties of the whole material, fractions, or isolated compounds of algae and microalgae enable their use as ingredients for the development of novel nutraceutical and cosmeceutical products.
polysaccharides --- health benefits --- health risks --- biomedical --- polymer seasonal variation --- red seaweeds --- agarose --- agarotriose --- 3,6-anhydro-l-galactose --- prebiotics --- anti-colon cancer activity --- α-neoagarooligosaccharide hydrolase --- exo-acting 3,6-anhydro-α-(1,3)-L-galactosidase --- BpGH117 --- 3,6-anhydro-L-galactose --- human gut bacterium --- Bacteroides plebeius --- marine ingredients --- algae --- sensitive skin --- cosmetics --- seaweed --- protein --- extraction --- bioactive peptides --- industrial application --- marine macroalgae --- ingredients --- additives --- bioactives --- nutricosmetics --- Caulerpa racemosa --- Ulva lactuca --- nutritional --- potential --- SWE --- peloids --- microalgae --- cyanobacteria --- dermocosmetics --- mineral water --- seawater --- anti-obesity --- anti-inflammation --- anti-steatosis --- molecular networking
Choose an application
Microalgae and seaweeds are a renewable source of potent bioactive ingredients with confirmed positive impacts on health and wellness. The interest in—and awareness of—the need to improve quality of life and well-being has led to a greater consumption of nutraceuticals, as well as the use of cosmeceuticals for “well-aging”. In this context, algae and microalgae are currently gaining immense popularity within the functional food, nutraceutical, and cosmeceutical industries. Recent advances in the characterization and evaluation of the biological properties of the whole material, fractions, or isolated compounds of algae and microalgae enable their use as ingredients for the development of novel nutraceutical and cosmeceutical products.
Medicine --- polysaccharides --- health benefits --- health risks --- biomedical --- polymer seasonal variation --- red seaweeds --- agarose --- agarotriose --- 3,6-anhydro-l-galactose --- prebiotics --- anti-colon cancer activity --- α-neoagarooligosaccharide hydrolase --- exo-acting 3,6-anhydro-α-(1,3)-L-galactosidase --- BpGH117 --- 3,6-anhydro-L-galactose --- human gut bacterium --- Bacteroides plebeius --- marine ingredients --- algae --- sensitive skin --- cosmetics --- seaweed --- protein --- extraction --- bioactive peptides --- industrial application --- marine macroalgae --- ingredients --- additives --- bioactives --- nutricosmetics --- Caulerpa racemosa --- Ulva lactuca --- nutritional --- potential --- SWE --- peloids --- microalgae --- cyanobacteria --- dermocosmetics --- mineral water --- seawater --- anti-obesity --- anti-inflammation --- anti-steatosis --- molecular networking --- polysaccharides --- health benefits --- health risks --- biomedical --- polymer seasonal variation --- red seaweeds --- agarose --- agarotriose --- 3,6-anhydro-l-galactose --- prebiotics --- anti-colon cancer activity --- α-neoagarooligosaccharide hydrolase --- exo-acting 3,6-anhydro-α-(1,3)-L-galactosidase --- BpGH117 --- 3,6-anhydro-L-galactose --- human gut bacterium --- Bacteroides plebeius --- marine ingredients --- algae --- sensitive skin --- cosmetics --- seaweed --- protein --- extraction --- bioactive peptides --- industrial application --- marine macroalgae --- ingredients --- additives --- bioactives --- nutricosmetics --- Caulerpa racemosa --- Ulva lactuca --- nutritional --- potential --- SWE --- peloids --- microalgae --- cyanobacteria --- dermocosmetics --- mineral water --- seawater --- anti-obesity --- anti-inflammation --- anti-steatosis --- molecular networking
Listing 1 - 10 of 16 | << page >> |
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