ライフサイエンスコーパス: Vibrionaceae

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1 obal regulatory protein conserved within the Vibrionaceae.

2 l system for studying TMAO reductases in the Vibrionaceae.

3 es are predominantly vertically inherited in Vibrionaceae.

4 ant marine bacterium belonging to the family Vibrionaceae.

5 that toxR is an ancestral gene of the family Vibrionaceae.

6 ndent acetone formation is widespread in the Vibrionaceae.

7 s conserved in diverse members of the family Vibrionaceae.

8 res the secretion of these proteins from the Vibrionaceae.

9 d influences virulence in certain members of Vibrionaceae.

10 a clinically important bacterial family, the Vibrionaceae.

11 orporated core proteome data from the family Vibrionaceae; 35% of the virulence-associated proteins h

12 Vibrio fischeri belongs to the Vibrionaceae, a large family of marine gamma-proteobacte

13 conserved among diverse genera of the family Vibrionaceae and encodes an origin binding protein.

14 Our results demonstrated that Vibrionaceae and Flavobacteriaceae abundances were stron

15 To gain insight into the frequency of HGT in Vibrionaceae and its possible impact on speciation, we a

16 aproteobacteria (Alteromonadaceae, SAR86 and Vibrionaceae) and shift in dominance from SAR11 to Rhodo

17 n above Vibrio fischeri (gamma-Protebacteria-Vibrionaceae) bacterial biofilms of either symbiotic or

18 icial symbionts, make up the majority of the Vibrionaceae, but none of these species has been similar

19 dings support the hypothesis that the second Vibrionaceae chromosome arose from an ancestral plasmid,

20 All members of the Vibrionaceae harbour LuxO, a response regulator that int

21 sformation is prevalent among members of the Vibrionaceae, including the pathogen Vibrio cholerae.

22 ly 35,000 possible mutual interactions among Vibrionaceae isolates from the ocean, we show that genot

23 Studies of other Vibrionaceae members highlight the general importance of

24 d the number of qrr genes in fully sequenced Vibrionaceae members.

25 hesive genotypic clusters of closely related Vibrionaceae, only an intermediate percentage of genotyp

26 cted sequence exhibits DNA homology to other Vibrionaceae phospholipases.

27 to several ecophysiologically differentiated Vibrionaceae populations adapted to different physical f

28 mong FadR homologues of the GntR family, the Vibrionaceae protein is unusual in that it contains a C-

29 gests the most recent common ancestor of all Vibrionaceae shared a single, ancestral qrr gene, which

30 Sequence comparisons reveal that Vibrionaceae species possessing only qrr1 do not have th

31 ial and temporal resource partitioning among Vibrionaceae strains coexisting in coastal bacterioplank

32 The discovery of 'super-integrons' in Vibrionaceae suggests a greater impact of this gene acqu

33 d Vibrio vulnificus, the only members of the Vibrionaceae that have had their genome sequences report

34 Despite being widely distributed in the Vibrionaceae, this is the first demonstration of a bona

35 ond to an additional ligand allows FadR from Vibrionaceae to function as a more efficient regulator.

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