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1 is likely to play a role in the virulence of fusobacteria.
2 ria, Epsilonproteobacteria, Bacteroidia, and Fusobacteria.
3 be used as a marker to detect orally related fusobacteria.
4 rmicutes (62.9%), Proteobacteria (29.9%) and Fusobacteria (9.6%).
5 ide and fusobacterial lectin that explicates fusobacteria abundance in CRC.
6 pared to adjacent normal mucosal tissue, and fusobacteria and beta-Proteobacteria levels increased wi
7                            The abundances of Fusobacteria and Proteobacteria were also remarkably inc
8 wn, with examples throughout the Firmicutes, Fusobacteria and Proteobacteria.
9 lostridium group and in the deeply branching Fusobacteria and Thermotogales lineages.
10 Bacteroides, Actinobacteria, Proteobacteria, Fusobacteria, and TM7, were represented.
11                                     However, fusobacteria are core members of the human oral microbio
12                                              Fusobacteria are found to be overrepresented in the colo
13 A core alligator gut microbiome comprised of Fusobacteria, but depleted in Bacteroidetes and Proteoba
14 rs supported altered abundances in the phyla Fusobacteria, Firmicutes, Actinobacteria and Proteobacte
15 ruitment of tumor-infiltrating immune cells, fusobacteria generate a proinflammatory microenvironment
16 cer microbiota; however, the precise role of Fusobacteria in colorectal carcinoma pathogenesis requir
17 tively with the relative abundance of phylum Fusobacteria in the guts of tadpoles.
18 the healthy gut, raising questions about how fusobacteria localize to CRC.
19 ) describe a novel homing mechanism by which fusobacteria localize to tumors by recognizing a host po
20 cterial diversity and relative abundances of Fusobacteria might have lasting positive effects on amph
21                                              Fusobacteria (p < 0.007) and epsilon- Proteobacteria (p
22  in HOMIM scores of firmicutes (P </=0.001), fusobacteria (P = 0.003), proteobacteria (P </=0.001), s
23 rmicutes, Actinobacteria, Bacteroidetes, and Fusobacteria phyla.
24                                              Fusobacteria play a central role as physical bridges tha
25                         In patients with AA, Fusobacteria populations proliferate and often persist d
26 pression signature that is shared with human fusobacteria-positive colorectal carcinomas.
27 ap2 or host epithelial Gal-GalNAc may reduce fusobacteria potentiation of CRC.
28 ral biofilm formation and pathogenesis, with fusobacteria proposed to serve as central 'bridging orga
29  in addition to the previously characterized fusobacteria, proteobacteria, firmicutes, and bacteroide
30 iae, Chloroflexi, Euryarchaeota, Firmicutes, Fusobacteria, Proteobacteria, Spirochaetes, SR1, Synergi
31                                     Clinical fusobacteria strains naturally lacking Fap2 or inactivat
32 normal human appendix harbors populations of Fusobacteria that are generally absent in fecal samples
33                     These capabilities allow Fusobacteria to survive in a mixed culture in the mouth.
34  in a Fap2-dependent manner, suggesting that fusobacteria use a hematogenous route to reach colon ade
35 esin, a system for transposon mutagenesis in fusobacteria was created.
36                                              Fusobacteria was only present 12 h post-infection.
37                                              Fusobacteria were also visualized within colorectal tumo
38 icutes, Proteobacteria, Verrucomicrobia, and Fusobacteria were significantly increased, whereas Bacte
39                    Faecalibacterium spp. and Fusobacteria were, however, decreased in the dogs with c
40                               Clostridia and Fusobacteria, widely pathogenic to other vertebrates, do
41 ive adhesin might mediate the interaction of fusobacteria with many partners and targets.

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