コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 ive to HFDs with a reproducible depletion of bifidobacteria.
2 s (P = 0.069) and proportions (P = 0.029) of bifidobacteria.
3 into the governance of carbon metabolism in bifidobacteria.
4 rides promote the colonization of beneficial bifidobacteria.
5 otype-age interaction were Lactobacillus and Bifidobacteria.
6 c potential by crude enzyme preparation from bifidobacteria.
7 with IBS or other FBDs, but they do increase bifidobacteria.
8 fied essential genes that appear specific to bifidobacteria.
9 sential functions not previously examined in bifidobacteria.
10 lose relationship between HMO and infant-gut bifidobacteria.
11 microorganisms for prebiotic approaches are bifidobacteria.
12 ey in order to ensure effective detection of bifidobacteria.
13 ment of potential pathogens and depletion of bifidobacteria.
14 carbohydrates by comparison with adult-borne bifidobacteria.
15 by a microbial consortium often dominated by bifidobacteria.
17 h a specific "healthy" microbiota containing bifidobacteria, a genus commonly observed in the feces o
18 han (Trp) metabolic pathways and reduces gut Bifidobacteria, a known beneficial bacterial genus that
20 lted in a significant increase in numbers of bifidobacteria after a 24h fermentation compared to a ne
21 ifferences in mean +/- SD abundance of fecal bifidobacteria after consumption of whole almonds (8.7%
22 BlG16BP homologues occur predominantly in bifidobacteria and a few Firmicutes but lack in other HG
23 biotic formulation led to an increase in gut Bifidobacteria and attenuated changes in locomotor activ
24 e are warranted because the low abundance of bifidobacteria and butyrate-producing species could adve
25 hypothesis, we determined salivary levels of Bifidobacteria and caries-associated organisms for 156 o
26 l molecular tool for scientific discovery of bifidobacteria and identifies targets for further studie
32 d glucagon like peptide-1 content as well as Bifidobacteria and Lactobacilli populations in the caecu
33 ficial barrier commensal gut bacteria (e.g., bifidobacteria and lactobacilli) and increase the abunda
34 s, in addition to their selective effects on bifidobacteria and lactobacilli, influence many aspects
35 iet rich in yacon FOS promoted the growth of bifidobacteria and lactobacilli, resulting in high level
36 ministered with prebiotics, or by endogenous bifidobacteria and lactobacilli, whose metabolic activit
37 sity gut microbiome, and dysbiotic levels of Bifidobacteria and Lactobacillus (most robust features o
40 ulose have increased densities of intestinal bifidobacteria and reduced incidence of systemic infecti
41 sugar to enumerate total anaerobes, aerobes, bifidobacteria, and enterobacteria, and to assay for bet
43 ally pathogenic bacteria and the increase of bifidobacteria, and possible beneficial commensals, conf
44 ely correlated with Sutterella, Akkermansia, Bifidobacteria, and Roseburia abundance, and positively
46 e storage period, while the viability of the bifidobacteria ( approximately 10(7)cfu/g) also remained
49 her levels of beneficial gut bacteria called Bifidobacteria are associated with the human lactase non
54 that when commercially available strains of bifidobacteria are cultured in milk, spiked with perchlo
64 Our findings solidify the crucial role of Bifidobacteria as primary colonizers in shaping the micr
65 e numbers of beneficial bacteria, especially bifidobacteria, at the expense of less beneficial groups
66 and subjected to quantitative PCRs to detect bifidobacteria, bacteroides, lactobacilli, Escherichia c
68 Glc-alpha1,3-l-Ara) significantly stimulated bifidobacteria but was suppressed with trehalose, ribose
69 diet consistently led to lower abundance of Bifidobacteria, but there were no clear effects on diver
70 culum in kojibiose medium profoundly induced bifidobacteria by 44 % and 55 % upon reinoculation into
71 mula containing GOS sustained high levels of bifidobacteria compared with formula containing B. longu
73 ined.We sought to determine the effects of a bifidobacteria-containing formula on the healthy human i
75 genetic attenuation that may be occurring in bifidobacteria cultures, we obtained the complete genome
77 isation (FISH) shows that the proportions of bifidobacteria detected in faecal samples were in agreem
78 roidetes), Clostridium leptum, C. coccoides, bifidobacteria, Escherichia coli and Archaea in stool.
79 n of orthologous genes differed between both bifidobacteria even when grown on identical substrates.
81 ost protection during DR is compromised when Bifidobacteria expansion is prevented, indicating that m
83 many substances that stimulate the growth of bifidobacteria in vitro and also in the small intestine
84 gosaccharides (GOSs) stimulate the growth of bifidobacteria in younger adults, but little is known ab
88 f fatty acid metabolism to administration of bifidobacteria is strain-dependent, and strain-strain di
89 growth of health-promoting lactobacilli and bifidobacteria is supported by FOS, giving it the classi
90 ization of glycolipids from the cell wall of bifidobacteria is the first step in correlating glycolip
94 iarrhea had differences in the proportion of bifidobacteria (median: 0.4% and 3.7%; interquartile ran
101 indeed show selective growth of infant-borne bifidobacteria on milk oligosaccharides or core componen
105 05), Streptococcus sobrinus (p < 0.005), and Bifidobacteria (p < 0.0001) were associated with S-ECC,
106 sed fecal pH (P < 0.001) and increased fecal bifidobacteria (P < 0.001) and fecal lactate (P < 0.001)
107 significantly associated with only salivary Bifidobacteria (p < 0.001) and yeast (p < 0.001) levels
108 gsiae (p = 0.003), Streptococcus mutans with bifidobacteria (p < 0.001), and S. mutans with S. wiggsi
109 wing that there is a significant decrease of Bifidobacteria (p .047) and Lactobacillus (p .038) in ob
110 nclusions from this study further reveal how bifidobacteria participate in establishing functional ne
117 ver, clinical feeding studies with exogenous bifidobacteria show they don't remain in the intestine,
119 abundances found known associations such as Bifidobacteria species, as well as novel associations.
121 x viable microorganisms of Lactobacillus and Bifidobacteria strains are safe to be consumed at four w
122 ganisms of 30 x 10(10) cfu Lactobacillus and Bifidobacteria strains for six months on clinical outcom
128 cantly less typical infant bacteria, such as Bifidobacteria, that have potential health benefits.
129 et caused an increase in total anaerobes and bifidobacteria, the highest densities occurred during su
130 This has encouraged scientific research into bifidobacteria, though recalcitrance to genetic manipula
131 thesis of saccharidic resource sharing among bifidobacteria through species-specific metabolic specia
132 often facilitated by mobile elements, allows bifidobacteria to adapt to fermentation environments in
133 variables (P > 0.05).The supplementation of bifidobacteria to infant diet can modulate the occurrenc
134 e, at least partially, due to the ability of bifidobacteria to metabolize Human Milk Oligosaccharides
135 a and transcend the lack of genetic tools in bifidobacteria to study the basis for their health-promo
136 ed light on key molecular mechanisms used by bifidobacteria to use high-mannose N-glycans, a perennia
137 the influence of inulin on iron absorption, bifidobacteria, total bacteria, short-chain fatty acids
138 phospholipase A(2) expression were lower in bifidobacteria-treated pups than in controls, supporting
139 the relative abundances of Lactobacilli and Bifidobacteria, two taxa predominant in breastfed human
142 c combination (oral lactic acid bacteria and bifidobacteria + vaginal lactobacilli), for 4 months.
143 probiotic (G2, oral lactic acid bacteria and bifidobacteria + vaginal placebo), vaginal probiotic (G3
144 multistrain preparation of lactobacilli and bifidobacteria was effective in prevention of AAD or CDD
146 t increase on the growth of lactobacilli and bifidobacteria was observed after exposition to the bark
147 nd facilitate functional genomic analyses in bifidobacteria, we created a large Tn5 transposon mutant
148 early colonization with Escherichia coli and bifidobacteria were associated with higher numbers of CD
150 fants from these countries were dominated by bifidobacteria, were different from each other, and were
152 colonic microbiome appear to be specific to Bifidobacteria with no consistent impacts on other micro
153 multistrain preparation of lactobacilli and bifidobacteria, with a total of 6 x 10(10) organisms, on
154 ntly, DR promotes the expansion of commensal Bifidobacteria within the large intestine, which produce
155 Prebiotics increased absolute abundance of bifidobacteria (WMD: 1.16 log10 copies of the 16S riboso