1 The reaction is specific for
cariogenic actinomyces, and it can detect as few as 10(4
2 dental caries, is considered to be the most
cariogenic among all oral streptococci.
3 luding non-mutans) provide binding sites for
cariogenic and other organisms.
4 est a differential sensitivity to NO between
cariogenic and periodontopathogenic bacteria with implic
5 t lipoteichoic acid (LTA) from Gram-positive
cariogenic bacteria induces expression of vascular endot
6 nderstanding signaling pathways triggered by
cariogenic bacteria may reveal novel therapeutic targets
7 iology that derives from the interplay among
cariogenic bacteria on the dentition, the host diet, and
8 y period, putative periodontal pathogens and
cariogenic bacteria were overabundant in the group that
9 influenced by host factors, dietary intake,
cariogenic bacteria, and other microbes.
10 tooth surfaces against the damage caused by
cariogenic bacteria, because the bacteria can be easily
11 tyle-related factors such as high numbers of
cariogenic bacteria, inadequate salivary flow, insuffici
12 for Streptococcus mutans, the most abundant
cariogenic bacteria.
13 In both experiments
cariogenic bacterial recoveries were reduced relative to
14 The
cariogenic bacterial species Streptococcus mutans metabo
15 ptococcus mutans is considered the principal
cariogenic bacterium for dental caries.
16 S. mutans is a major
cariogenic bacterium in the multispecies bacterial biofi
17 ALB/c mice with immune complexes (IC) of the
cariogenic bacterium Streptococcus mutans and mAbs again
18 The
cariogenic bacterium Streptococcus mutans employs so-cal
19 ase system (AgDS) has been identified in the
cariogenic bacterium Streptococcus mutans UA159.
20 The
cariogenic bacterium Streptococcus mutans uses adhesin P
21 of extracellular polysaccharides (EPS) by a
cariogenic bacterium, Streptococcus mutans (Cheng et al.
22 Effectively inhibiting
cariogenic biofilms and reducing secondary caries could
23 n building sticky glucan matrix to establish
cariogenic biofilms by an important opportunistic pathog
24 sion could lead to new approaches to control
cariogenic biofilms.
25 syltransferase (GtfBCD) enzymes to establish
cariogenic biofilms.
26 rs associated with the evolution of virulent-
cariogenic biofilms.
27 alistic role of S. mutans and C. albicans in
cariogenic biofilms.
28 urring agents that affect the development of
cariogenic biofilms.
29 amine fluoride, on human dental enamel under
cariogenic challenge in situ.
30 A
cariogenic challenge was provided in all cases by 5 dail
31 rvoir in plaque that can resist a subsequent
cariogenic challenge.
32 it affords any protection against subsequent
cariogenic challenges.
33 the experimental gum may help resist future
cariogenic challenges.
34 s further support the concept that increased
cariogenic conditions are associated with increased prop
35 ide protection during subsequent exposure to
cariogenic conditions.
36 of the mineral ions were mobilized under non-
cariogenic conditions.
37 rats that were infected with ACUS6 and fed a
cariogenic diet with drinking water containing 25 mM ure
38 When challenged with S. mutans and a
cariogenic diet, total smooth and sulcal surface lesions
39 eptococcus mutans (sobrinus) 6715, and fed a
cariogenic diet.
40 e to extensive oral soft tissue damage and a
cariogenic diet.
41 than a conventional gum in ameliorating the
cariogenic effects of sucrose.
42 esponse to the pH decrease associated with a
cariogenic episode are important components of the carie
43 Frequent consumption of
cariogenic foods and bacterial infection are risk factor
44 ically include oral hygiene level, counts of
cariogenic micro-organisms in plaque and saliva, fluorid
45 s on infants' acquisition of a member of the
cariogenic microbiota, and its potential effect on carie
46 ication that leads to the establishment of a
cariogenic microflora and demineralization of the tooth.
47 t GTF to enhance protective immunity against
cariogenic microorganisms.
48 ) worldwide and is considered to be the most
cariogenic of all of the oral streptococci.
49 response to accumulated plaque select for a
cariogenic or periopathogenic microbiota, respectively,
50 These provide a substrate for
cariogenic oral bacteria to flourish and to generate ena
51 development of agriculture, mediated by the
cariogenic oral bacterium Streptococcus mutans.
52 We determined the requirement in the
cariogenic oral pathogen Streptocococcus mutans of the t
53 Streptococcus mutans is a
cariogenic oral pathogen whose virulence is determined l
54 mmunized mice maintained high levels of this
cariogenic organism ( approximately 60% of the total ora
55 -ECC group containing higher levels of known
cariogenic organisms.
56 onment of the oral cavity suggests that this
cariogenic pathogen is capable of sensing and responding
57 ial colonization of the oral cavity with the
cariogenic pathogen Streptococcus mutans and other bacte
58 ed for its ability to remove biofilms of the
cariogenic pathogen Streptococcus mutans UA159, as well
59 robial peptide, was able to selectively kill
cariogenic pathogen Streptococcus mutans with high effic
60 hts on how S. mutans may have become a major
cariogenic pathogen.
61 ompositions via bioactive resins to suppress
cariogenic/
pathogenic species and promote benign species
62 solutions simulating resting (pH = 5.6) and
cariogenic plaque fluid (pH = 4.8).
63 glucosyltransferase activity restores a less
cariogenic plaque structure.
64 membrane potentials became more negative in "
cariogenic plaque" solution for all types of sections: s
65 f the wells showing anion selectivity in the
cariogenic "
plaque-like" solution.
66 pic level, notably in the differences in the
cariogenic potential between strains.
67 ls in post-sucrose plaque fluids reflect the
cariogenic potential of dental plaque.
68 ropose that the absence of GbpA elevates the
cariogenic potential of S. mutans by altering the struct
69 The
cariogenic potential of S. mutans is related to its abil
70 The
cariogenic potential of these organisms was evaluated in
71 Processed starches have
cariogenic potential when accompanying sucrose, but huma
72 dental plaque in such a way as to reduce its
cariogenic potential.
73 biofilm was predicted to be always or never
cariogenic,
respectively.
74 s GBP-B can have a protective effect against
cariogenic S. mutans infection and disease.
75 in every enamel well in either "resting" or "
cariogenic"
solution.
76 situ acid production and distribution by the
cariogenic species S. mutans.
77 viously, we presented evidence that the oral
cariogenic species Streptococcus mutans remains viable b
78 % of their oral bacterial spectra, including
cariogenic species.
79 he immune response to a protein antigen from
cariogenic streptococci, potentially through suppressive
80 uction of dental caries by interference with
cariogenic streptococci.
81 ble bactericidal effect was observed against
cariogenic Streptococcus mutans at pH 7.4, even when usi
82 occus gordonii, Streptococcus sanguinis, and
cariogenic Streptococcus mutans.
83 fic permease, in the transport of sucrose by
cariogenic Streptococcus mutans.
84 nd/or 11 plus 16, followed by infection with
cariogenic Streptococcus sobrinus.
85 ce the level of dental caries caused by this
cariogenic streptococcus.
86 nced by host genetic background, potentially
cariogenic taxa are likely not controlled by genetic fac
87 BCS3-L1 was significantly less
cariogenic than JH1140 in both gnotobiotic- and conventi
88 e-dependent adherence and significantly less
cariogenic than the UA130 wild-type progenitor in germfr
89 ii colonization abundance: the former highly
cariogenic,
the latter not.
90 contributions on the ratio of aciduric (i.e.
cariogenic)
to non-aciduric bacteria to be unambiguously
91 low pH appears to be an important bacterial
cariogenic trait.
92 h prevalence of caries to reliance on highly
cariogenic wild plant foods in Pleistocene hunter-gather