戻る
「早戻しボタン」を押すと検索画面に戻ります。

今後説明を表示しない

[OK]

コーパス検索結果 (left1)

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                                              E. faecalis activates EGFR through production of H(2)O(2
2                                              E. faecalis co-exists with Escherichia coli and other pa
3                                              E. faecalis infections are associated with a high mortal
4                                              E. faecalis MN1 inhibited interleukin-8 production from
5                                              E. faecalis MPO binding is reportedly weak compared to b
6                                              E. faecalis must be able to adapt its physiology based o
7                                              E. faecalis tolerates high concentrations of GIT antimic
8                                              E. faecalis translocation and subsequent sepsis may be c
9                          The virulence of 28 E. faecalis isolates representing 24 multilocus sequence
10 ocus is very highly conserved and only 1/473 E. faecalis isolates tested lacked ebpABC, while only 1.
11    Each of the alleles was analyzed using 50 E. faecalis isolates representing 42 diverse multilocus
12                         This revealed that 6 E. faecalis isolates behaved in a commensal manner with
13        Further analysis revealed that active E. faecalis physiology was important for inhibition of h
14  ameloriated with antibiotics active against E. faecalis.
15 showed complete bacteriocin activity against E. faecalis, but neither BacL1 nor BacA protein alone sh
16 ely express the bacteriocin activity against E. faecalis.
17 esent study, we show that antibodies against E. faecalis LTA also bind to type 1 LTA from other gram-
18  immunization with rabbit antibodies against E. faecalis LTA promoted the clearance of bacteremia by
19 single very major error was obtained against E. faecalis, while vancomycin-intermediate S. aureus (VI
20 herapeutic and preventive strategies against E. faecalis and beyond.
21                                          All E. faecalis isolates were judged to be S by the referenc
22 prgU gene pairs are widely distributed among E. faecalis isolates and other enterococcal and staphylo
23 eemed to be a strain-independent trait among E. faecalis isolates.
24 crobial peptide activity developed either an E. faecalis or Pseudomonas aeruginosa urinary tract infe
25                      Finally, a screen of an E. faecalis transposon mutant library identified other g
26                         Colonization with an E. faecalis strain carrying a conjugation-defective pPD1
27 (LOD) determined for HAdV 41, Phi X 174, and E. faecalis was 35 GU/muL, 1 GU/muL, and 5 x 10(3) GU/mu
28 stem of primary colonic epithelial cells and E. faecalis-infected macrophages (in vitro), with an int
29 )) and two AR bacterial strains (E. coli and E. faecalis, at 10(5) CFU mL(-1)) were spiked in real WW
30  major role in control of ace expression and E. faecalis virulence.
31 tion of Staphylococcus spp., E. faecium, and E. faecalis and its ability to ascertain mecA, vanA, and
32 antimicrobial activity for P. gingivalis and E. faecalis.
33 mmon NICU organisms including K. oxytoca and E. faecalis and increases in common adult organisms incl
34        2) For L. plantarum, S. pyogenes, and E. faecalis, the effects of Pi are distinguishable from
35 excluding Enterobacter cloacae (98.3% S) and E. faecalis (86.0% S), and MIC(90)s ranged from 0.03 mug
36 tioned media (CCM) from E. faecalis V583 and E. faecalis lacking the gelatinase gene (gelE).
37 n of solar exposure for AR E. coli, while AR E. faecalis was more resistant to the disinfection proce
38 splacement assays using PGTs from S. aureus, E. faecalis, and E. coli.
39 l activity against VanA resistant bacteria ( E. faecalis , VanA VRE) at a level accurately reflecting
40 dy aimed to evaluate the association between E. faecalis and oral cancer and to determine the underly
41 sues suggests a possible association between E. faecalis infection and oral carcinogenesis.
42                               A link between E. faecalis and EGFR signaling in oral cancer has not be
43 ) and EGFR (gefitinib) significantly blocked E. faecalis-induced EGFR activation and cell proliferati
44  LTA promoted the clearance of bacteremia by E. faecalis and S. epidermidis in mice.
45 h culture-positive endophthalmitis caused by E. faecalis between January 1, 2002, and December 31, 20
46 o be greatly susceptible to sepsis caused by E. faecalis translocation, while orally infected E. faec
47               Among the infections caused by E. faecalis, endocarditis remains a serious clinical man
48 quired for pathogenesis, GIT colonization by E. faecalis is poorly understood.
49 no resemblance to the lipoprotein encoded by E. faecalis.
50 se (SprE) contribute to biofilm formation by E. faecalis and provide clues to how the activity of the
51                      M1M were not induced by E. faecalis Ag in cultures of I-MLNM, whereas normal mou
52 he mechanism of lectin pathway inhibition by E. faecalis, we purified and characterized cell wall car
53 etramic acid compounds naturally produced by E. faecalis MN1, may be useful in prevention of diseases
54 acteriocin 41 (Bac41) is produced by certain E. faecalis clinical isolates, and it is active against
55                 To identify and characterize E. faecalis genes that are key to intestinal colonizatio
56  porcine gut in response to diets containing E. faecalis were similar to the response to which contai
57                                       During E. faecalis and A. tumefaciens infection, increased bact
58 importance of urinary catheterization during E. faecalis uropathogenesis.
59 lineages were predominant among endocarditis E. faecalis isolates recovered during this time period.
60 on prior to urinary catheterization enhanced E. faecalis colonization, suggesting that implant-mediat
61 cally and phylogenetically the environmental E. faecalis were indistinguishable from their enteric co
62  rainwater tank samples followed by AS, esp (E. faecalis variant), and cylA genes which were detected
63                            We also evaluated E. faecalis interactions with human platelets and found
64 vior of two model FIB Enterococcus faecalis (E. faecalis) and Escherichia coli (E. coli) was examined
65  of microbiota in the distal gut of pigs fed E. faecalis UC-100 substituting antibiotics, this study
66 re generated in MLNs of these mice following E. faecalis stimulation.
67  and NPV-1 replication/lysis, as well as for E. faecalis virulence in a mouse peritonitis model.
68 t identification of genetic determinants for E. faecalis commensal and pathogenic interactions with M
69 ence of the catheter itself is essential for E. faecalis persistence in the bladder.
70  PCR/ESI-MS again found genetic evidence for E. faecalis at levels comparable to the pretreatment lev
71  inhibitory concentration was 0.57 mg/ml for E. faecalis and 1.15 mg/ml for all the other strains.
72  aureus ATCC 29213, 0.016 to 0.12 mug/ml for E. faecalis ATCC 29212, 0.008 to 0.03 mug/ml for S. pneu
73 0.1 mM), the toxicity of 10 mg L(-1) PCP for E. faecalis and fresh anaerobic sludge was detected in 1
74 m, 87%, 83%, 98%, and 80%, respectively, for E. faecalis, and all 100% for S. aureus.
75 mosomal genetic determinants responsible for E. faecalis biofilm-mediated infection, we used a rabbit
76 reus were significantly lower than those for E. faecalis.
77 ding these observations, colon biopsies from E. faecalis-colonized IL-10(-/-) mice exhibited crypt hy
78 to concentrated conditioned media (CCM) from E. faecalis V583 and E. faecalis lacking the gelatinase
79 he mevalonate diphosphate decarboxylase from E. faecalis (MDDEF).
80 s indeed induce transfer of plasmid DNA from E. faecalis into S. gordonii.
81 ur investigations demonstrate that GelE from E. faecalis can regulate enteric epithelial permeability
82                Both the homologous gene from E. faecalis V583 (EF1861) and E. coli panE functionally
83 lpha signaling protected wild-type mice from E. faecalis-induced lethality.
84              Gelatinase (GelE) purified from E. faecalis V583 was used to confirm the ability of this
85 rial resistance against sepsis stemming from E. faecalis translocation through the conversion of resi
86 ) on the development of sepsis stemming from E. faecalis translocation was studied in SCID-beige (SCI
87 to facilitate intergeneric DNA transfer from E. faecalis is of concern because of extensive multiple
88  brain heart infusion (BHI) plus serum-grown E. faecalis isolates and that strain OG1RF expressed pil
89 that can be exploited to alter heterogeneous E. faecalis populations.
90 s study is the first to report heterogeneous E. faecalis bacteremia.
91 lowing disruption of intestinal homeostasis, E. faecalis can overgrow, cross the intestinal barrier,
92 ors required for commensalism, we identified E. faecalis genes that are upregulated in the gut of M.
93  the absence of the silicone tubing implant, E. faecalis induced only minimal inflammation and was ra
94 ry response induced by urinary implantation, E. faecalis produced biofilm and high bladder titers in
95                                           In E. faecalis, the ebp locus is very highly conserved and
96               This antiapoptotic activity in E. faecalis-infected cells was dependent on the activati
97 ying overproduction of PrgB-like adhesins in E. faecalis and other clinically-important Gram-positive
98 to DNA release during biofilm development in E. faecalis.
99 cci: (i) the accretion of mobile elements in E. faecalis V583 renders it incompatible with commensal
100 e virulence map that explains enhancement in E. faecalis virulence and contributes to a deeper compre
101 EF2638 represents an authentic Rex factor in E. faecalis that influences the production or detoxifica
102 racytoplasmic function (ECF) sigma factor in E. faecalis, and that the deletion of sigV increases the
103    Proteins that localized to single foci in E. faecalis were found to share a positively charged dom
104 ratio of occurrence of ace and gelE genes in E. faecalis was much higher at 7.96 and 6.40 times, resp
105 rrence of ace, gelE, efaA, and asa1 genes in E. faecalis were found to be much higher compared to the
106                                   We have in E. faecalis monitored production of the enzyme polypepti
107 oly(ADP-ribose) polymerase were inhibited in E. faecalis-infected cells, indicating that E. faecalis
108 bpB, and EbpC) have not been investigated in E. faecalis.
109 egulating expression of proteins involved in E. faecalis carbohydrate uptake and utilization.
110 that EfbA is an important factor involved in E. faecalis endocarditis and that rEfbA immunization is
111  of tetracycline-resistance plasmid pCF10 in E. faecalis.
112 duction of conjugation by a sex pheromone in E. faecalis.
113 ion of serotype C capsular polysaccharide in E. faecalis.
114 n processing certain pheromone precursors in E. faecalis.
115 clusion, the epa genes, uniformly present in E. faecalis strains and involved in biosynthesis of poly
116  to investigate the role of this receptor in E. faecalis-induced permeability.
117 rmine the role of this putative regulator in E. faecalis pathogenesis, a perA-deficient mutant was cr
118 al mechanisms of cephalosporin resistance in E. faecalis is lacking.
119 rocally regulate cephalosporin resistance in E. faecalis, dependent on the kinase activity of IreK.
120 inants of cholate and lysozyme resistance in E. faecalis, IreK was the only one found to be required
121 ive regulator of cephalosporin resistance in E. faecalis.
122 ant regulator of antimicrobial resistance in E. faecalis.
123 dence of in vivo-expressed antisense RNAs in E. faecalis.
124 sults demonstrate the involvement of rnjB in E. faecalis pilin gene expression and provide insight in
125 l teichoic acid (WTA) synthesis gene tagB in E. faecalis V583 that exhibited an increased susceptibil
126                  Our study indicates that in E. faecalis, modification of peptidoglycan by secondary
127 anding of how (p)ppGpp promotes virulence in E. faecalis and other bacterial pathogens is still lacki
128  also been repeatedly linked to virulence in E. faecalis, due in part to the transcriptional inductio
129 ng system, a major regulator of virulence in E. faecalis.
130  oxidative stress tolerance and virulence in E. faecalis.
131 imicrobial resistance for bacteria including E. faecalis, E. coli, K. pneumoniae and S. aureus.
132 aecalis translocation, while orally infected E. faecalis did not spread into sepsis in the same mice
133                 In contrast, orally infected E. faecalis spread systemically in SCIDbgMN mice inocula
134                   3) Addition of Pi inhibits E. faecalis LDH2, whereas in the absence of FBP, Pi is a
135                               To investigate E. faecalis factors required for commensalism, we identi
136  FBP, Pi is an activator of S. pyogenes LDH, E. faecalis LDH1, and L. lactis LDH1 and LDH2 at pH 6.
137 etermine the underlying mechanisms that link E. faecalis to EGFR signaling.
138  faecalis LDH2 </= Lactococcus lactis LDH2 &lt; E. faecalis LDH1 < L. lactis LDH1 </= Streptococcus pyog
139 ssociate CcpA with the production of a major E. faecalis virulence factor, providing new insights int
140 tudy we define important roles for the major E. faecalis autolysin (Atn), eDNA, and sortase A (SrtA)
141                     The pathogenesis of many E. faecalis infections, including endocarditis and cathe
142 owever, little is known about the mechanisms E. faecalis uses to colonize and compete for stable gast
143                 In unsaturated porous media, E. faecalis cells seemed to prefer to attachment at air/
144 sses, we hypothesized that (p)ppGpp mediates E. faecalis virulence through regulation of metal homeos
145 merous animal models have been used to mimic E. faecalis infections, but none of them is considered i
146 thogenic E. coli isolates and (10(0) CFU/mL) E. faecalis and E. faecium strains were detected within
147                                Monomicrobial E. faecalis bacteremia (hazard ratio [HR], 3.60; 95% con
148                                Monomicrobial E. faecalis bacteremia, community acquisition, prostheti
149 ys were orally infected with 10(6) CFU/mouse E. faecalis.
150 wing exposure to CCM from parental or mutant E. faecalis strains indicated paracellular permeability.
151  a heptapeptide pheromone produced by native E. faecalis present in the fecal consortium.
152 bp expression was restricted to 30 to 72% of E. faecalis cells, consistent with a bistability mode of
153 ession significantly improved the ability of E. faecalis to adhere to collagen, which is consistent w
154 MSCRAMMs) Ace and Fss2, mediate adherence of E. faecalis to platelets.
155                                  Analyses of E. faecalis mutants exhibiting defects in antimicrobial
156 comprehensive functional genomic analysis of E. faecalis.
157 ntified signatures suggest that ancestors of E. faecalis resided in extra-enteric habitats, challengi
158 and characterized cell wall carbohydrates of E. faecalis wild type and V583DeltatagB.
159 ollection is not a random sample of cases of E. faecalis endocarditis, these results indicate that no
160 ssociated pili and an adhesin to collagen of E. faecalis, respectively, are both important in experim
161 s study, we investigated the contribution of E. faecalis to mixed-species infection when iron availab
162 ns were selected from a wild-type culture of E. faecalis OG1RF.
163 , each with less than 28 SNP differences, of E. faecalis and E. hormaechei.
164 ults provide the first evidence that EfbA of E. faecalis plays a role in UTIs, probably contributing
165               Much of the negative effect of E. faecalis on C. albicans was due to the inhibition of
166 ion model, were used to assess the effect of E. faecalis on genomic DNA stability and damage.
167      PCR/ESI-MS detected genetic evidence of E. faecalis in all CSF samples, but the level of detecti
168              In addition, direct exposure of E. faecalis to these cells induced a G2 cell cycle arres
169 role of the capsule as a virulence factor of E. faecalis and provide several mechanisms by which the
170 ollected from the peritoneal lavage fluid of E. faecalis-infected mice showed reduced levels of apopt
171 g activity against the cell wall fraction of E. faecalis in the absence of BacA.
172              We report the high frequency of E. faecalis infection in oral tumors and the clinical as
173 s of biofilm formation in the core genome of E. faecalis.
174                                    Growth of E. faecalis in a synthetic medium with ethanolamine was
175 ith human platelets and found that growth of E. faecalis in BHI plus serum significantly enhanced adh
176            We have also shown that growth of E. faecalis in brain heart infusion (BHI) serum enhances
177                      One of the hallmarks of E. faecalis pathogenesis is its unusual ability to toler
178 calis isolates underscores the importance of E. faecalis as a reservoir of VGs in the fresh water aqu
179                                Incubation of E. faecalis with heme increased growth and restored cata
180                               Interaction of E. faecalis with host cells and production of H(2)O(2) i
181  were observed for daptomycin in isolates of E. faecalis and 2 ME, 1 for high-level gentamicin resist
182              In conclusion, the epa locus of E. faecalis OG1RF contributes to murine urinary tract in
183 enomes, indicating that the vast majority of E. faecalis strains (unlike Enterococcus faecium and str
184 ne of the important pathogenic mechanisms of E. faecalis, as it elevates the organism's potential to
185                          The pathogenesis of E. faecalis infection relies in part on its capacity to
186  and is implicated in the pathophysiology of E. faecalis.
187 heromone-responsive, conjugative plasmids of E. faecalis have retained Prg-like surface functions ove
188 roviding new insights into the regulation of E. faecalis pathogenesis.
189                         To study the role of E. faecalis Rex, we purified EF2638 and evaluated its DN
190      We undertook whole genome sequencing of E. faecalis associated with bloodstream infection in the
191 ies describing the four capsule serotypes of E. faecalis were based on immunodetection methods; howev
192 gh-level aminoglycoside resistance status of E. faecalis.
193    Thus, we hypothesized that this strain of E. faecalis may make anti-inflammatory factors which blo
194 f nematodes exposed to pathogenic strains of E. faecalis and Staphylococcus aureus, including multidr
195 ependent cleavage of Ace from the surface of E. faecalis, confirming that GelE specifically reduces A
196 sk bound C3 from detection on the surface of E. faecalis.
197 es the in vitro antibiotic susceptibility of E. faecalis isolated from periodontitis patients in the
198             The Fsr quorum-sensing system of E. faecalis, a two-component signal transduction system,
199                         DNase I treatment of E. faecalis biofilms reduced the accumulation of biofilm
200       The influence of various conditions on E. faecalis adherence to extracellular matrix (ECM) prot
201  cultures containing Enterococcus faecium or E. faecalis was 100% sensitive and specific.
202 cal isolates, and it is active against other E. faecalis strains.
203 ABC mutants, suggesting involvement of other E. faecalis factors in urinary tract colonization or inf
204  the intestine, pPD1 is transferred to other E. faecalis strains by conjugation, enhancing their surv
205 s investigation indicated that, unlike other E. faecalis virulence traits, phage03-like elements were
206  faecalis V583 during competition with other E. faecalis strains in vitro and in vivo.
207 laces indigenous enterococci and outcompetes E. faecalis lacking pPD1.
208 n and epithelial translocation of pathogenic E. faecalis during severe microbial dysbiosis and was am
209                                  Periodontal E. faecalis exhibited substantial in vitro resistance to
210 itro inhibitory activity against periodontal E. faecalis, and may be clinically useful in treatment o
211 able niche for the development of persistent E. faecalis infections in the murine bladders and kidney
212 and teicoplanin-susceptible (VanB phenotype) E. faecalis were responsible for major and minor errors.
213                           The false-positive E. faecalis strains were typed by Diversilab Rep-PCR (bi
214 tential targets for interventions to prevent E. faecalis infections.
215 s ineffective against non-H(2)O(2)-producing E. faecalis.
216 rophages (RAW 264.7), that capsule-producing E. faecalis strains of either serotype C or D are more r
217 (-/-) mice attenuated infection and promoted E. faecalis colonization resistance by restoring the div
218     Upon hymeglusin inactivation of purified E. faecalis mvaS, the thioester adduct is more stable th
219                    Deletion of rpoN rendered E. faecalis resistant to autolysis, which in turn impair
220 sistance by electrostatic repulsion, renders E. faecalis more resistant to killing by defensins and l
221 fer in the evolution of antibiotic resistant E. faecalis strains capable of causing human infection.
222 enesis of opportunistic antibiotic-resistant E. faecalis infections and in the transfer of antibiotic
223 eventing colonization by multidrug-resistant E. faecalis could therefore be a valuable approach towar
224 ogenic potential of the vancomycin-resistant E. faecalis V583 and three isogenic protease mutants (De
225                                 As a result, E. faecalis showed the least affinity to sand in freshwa
226                                     Secreted E. faecalis proteins induced permeability in epithelial
227                                     Secreted E. faecalis proteins induced permeability in the colonic
228 o bind putative promoter segments of several E. faecalis genes in an NADH-responsive manner, indicati
229                            In Manduca sexta, E. faecalis is an infrequent member of the commensal gut
230                                   Similarly, E. faecalis capsule masks lipoteichoic acid from detecti
231    The mobility of the gram-positive species E. faecalis was much more sensitive to solution chemistr
232  in gelatinase-and-cytolysin-negative strain E. faecalis JH2-2.
233 fish is a novel, powerful model for studying E. faecalis pathogenesis, enabling us to dissect the mec
234              Pure cultures of 47 subgingival E. faecalis clinical isolates were each inoculated onto
235  in vitro activity against human subgingival E. faecalis clinical isolates, and would likely be ineff
236 ure of vancomycin-resistant and -susceptible E. faecalis (VSEfs), which has important implications fo
237 ents was more effective against E. coli than E. faecalis.
238 t the clinical findings and demonstrate that E. faecalis can induce EGFR activation and cell prolifer
239  polymicrobial infection, we discovered that E. faecalis and C. albicans negatively impact each other
240  E. faecalis-infected cells, indicating that E. faecalis protects macrophages from apoptosis by inhib
241 ew studies have explored the mechanisms that E. faecalis employs to circumvent the host innate immune
242               Interestingly, we observe that E. faecalis transiently maintains CRISPR targets despite
243                        Thus, we propose that E. faecalis V583 uses phage particles to establish and m
244  under hydrodynamic conditions revealed that E. faecalis produces a DNase I-sensitive fibrous network
245                            Here we show that E. faecalis harbouring pPD1 replaces indigenous enteroco
246                                 We show that E. faecalis significantly augments E. coli biofilm growt
247                                 We show that E. faecalis strain V583 produces a composite phage (PhiV
248 Interaction energy calculations suggest that E. faecalis retention was largely governed by the combin
249                                          The E. faecalis mvaS-hymeglusin cocrystal structure (1.95 A)
250                                          The E. faecalis strains were from two sequence types (ST191
251 ietary treatments: the basal diet group, the E. faecalis group, and the antibiotic group on d 0, 14,
252 ilus subcellular compartmentalization in the E. faecalis Ebp pilus system.
253 of Fibrobacteres phylum and 12 genera in the E. faecalis group and antibiotics group were lower than
254 as 12 genera were uniquely identified in the E. faecalis group on d 14 and 28.
255     Bacterial abundance and diversity in the E. faecalis group, bacterial diversity in the antibiotic
256     We report here the identification of the E. faecalis bacteriocin, EntV, produced from the entV (e
257 ontaneous mutants that allowed growth of the E. faecalis DeltafabI strain on fatty acid-free medium.
258 ed in the eutT-eutG intergenic region of the E. faecalis eut cluster.
259                     Sequence analysis of the E. faecalis genome indicated that (p)ppGpp synthesis is
260  The presence of multiple VGs in most of the E. faecalis isolates underscores the importance of E. fa
261                          A comparison of the E. faecalis LiaR, E. faecium LiaR, and the LiaR homolog
262  for mobile elements in the evolution of the E. faecalis PAI.
263 hnology (RIVET) to identify promoters on the E. faecalis OG1RF chromosome that were specifically acti
264  consistent with higher levels of Ace on the E. faecalis surface.
265          Here, we expressed and purified the E. faecalis OG1RF EfbA and confirmed that this protein b
266               Compared to the wild type, the E. faecalis ccpA mutant had an impaired ability to adher
267 ng site mutant (K156T) fractionated with the E. faecalis membrane and also formed foci, whereas PcfC
268                                   Therefore, E. faecalis infection of oral tumor tissues suggests a p
269                                        Thus, E. faecalis modulates its local environment by contribut
270          Here, we studied for the first time E. faecalis pathogenesis in zebrafish larvae.
271              PhiV1/7 confers an advantage to E. faecalis V583 during competition with other E. faecal
272 observations were noted by exposing cells to E. faecalis-infected macrophages in a dual-chamber cocul
273 ity differences among seven chlorophenols to E. faecalis and fresh mixed anaerobic sludge were elucid
274              Several factors contributing to E. faecalis virulence have been identified.
275 eolytic modulation of the immune response to E. faecalis, we also demonstrate that GelE can cleave th
276  a decrease in ROS production in response to E. faecalis.
277 ed slow-onset, tight-binding kinetics toward E. faecalis PPCS.
278 or developing alternative therapies to treat E. faecalis infections.
279                              Here, wild-type E. faecalis OG1RF and TX5179 strains were tested in a mi
280 nsport chains in SCV S. aureus and wild-type E. faecalis results in reduced growth rate but provides
281 s significantly more H(2)O(2) than wild-type E. faecalis.
282 uggests that for children with uncomplicated E. faecalis bacteremia, the addition of low-dose gentami
283 A is present, results in the lysis of viable E. faecalis cells.
284  for mobile genetic elements shapes in vitro E. faecalis populations.
285 18-like vanA plasmids were found in 7% of VR E. faecalis isolates and none of the VR E. faecium isola
286 irradiated mice 1-4 d postinfection, whereas E. faecalis was not isolated from MLNs of normal mice.
287 vide novel insights into mechanisms by which E. faecalis and intestinal commensals can contribute to
288                      The mechanisms by which E. faecalis may contribute to the initiation and progres
289 llular DNA (eDNA), have been associated with E. faecalis biofilm production, the mechanisms underlyin
290 comparing clinical outcomes of children with E. faecalis bacteremia without endocarditis receiving am
291 er that involves long-term colonization with E. faecalis (in vivo).
292 y testing results for 45 of 46 cultures with E. faecalis or E. faecium.
293  model of colonization of the mouse gut with E. faecalis, without disrupting the microbiota, to evalu
294 veloped in SCIDbgN mice orally infected with E. faecalis, while the orally infected pathogen spread s
295  and lethality after systemic infection with E. faecalis despite normal bacteria loads.
296 increases mortality of flies inoculated with E. faecalis, A. tumefaciens, or S. aureus.
297  cationic human beta-defensins interact with E. faecalis at discrete septal foci, and this exposure d
298 3, we included 647 consecutive patients with E. faecalis bacteremia.
299 , followed by enzymatic phosphorylation with E. faecalis pantothenate kinase (PanK).
300  4 (17%), 2 (9%), and 1 (4%) samples yielded E. faecalis, E. mundtii, E. casseliflavus, E. faecium, E

WebLSDに未収録の専門用語(用法)は "新規対訳" から投稿できます。
 
Page Top