Searching journal content for articles similar to Fong et al. 15 (10): 1365.

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  1. ...://github.com/zheminzhou/EToKi) of useful modules (Supplemental Fig. S2B–E) that facilitate genomic assemblies (EToKi modules prepare and assemble), MLST (MLSType), calling nonrepetitive SNPs against a reference (EToKi modules align and phylo), or predicting serotypes of Escherichia coli from assemblies (EBEis).EnteroBase performs daily...
  2. ..., but characterization of their roles in phage lifecycles is limited, and their impact on phage replication is controversial. To address these issues, we have searched for phages whose growth is impacted by the major recombination-promoting helicase-nuclease of Escherichia coli, the RecBCD enzyme. Although no phages...
  3. ...and Escherichia coli (F > 0.3), and the more restricted species, such as S. aureus (0.15) (Kislyuk et al. 2011). Values of F calculated for the clade 1 and clade 2 s only were both 0.17, significantly lower than the 0.25 for clade 3 (P < 0.05), reflecting the greater phylogenetic diversity of clade 3. Thus...
  4. ...with host tissues (Bron et al. 2012), modulation of immune homeostasis (Needham et al. 2013), and xenobiotic metabolism (Spanogiannopoulos et al. 2016). Pathogenic potential is also strain-specific in many species, including Escherichia coli, which is prevalent in the healthy human gut despite some strains...
  5. ...Pfam analysis also identified a putative nucleoside H+ symporter, which is specific to Microsporidia (Table 2). Expression of this nucleoside transporter in N. parisii (ERTm1) (NEPG_00699) can be detected throughout infection (Supplemental Table S5). This symporter is homologous to the Escherichia coli...
  6. ...remains elusive and their overall contribution unclear. Moreover, a large fraction (>30%) within the unknown category contains responsive genes (279) and core genes (19), indicating that the data set is rich in novel genotype–phenotype relationships. Recently, it was shown for Escherichia coli that both...
  7. ...al. 2000 ; Maeda et al. 2001 ; Kamath and Ahringer 2003 ; Sonnichsen et al. 2005 ), and currently >18,000 Escherichia coli strains have been constructed and have been widely distributed. Initial screens were for easily scored phenotypes such as viability, slow growth, or altered movement and body...
  8. ...) is important because strains with small genomic differences may have vastly different phenotypes: for example, although some Escherichia coli strains are harmless, others may cause disease outbreaks (Frank et al. 2011; Vicedomini et al. 2021). The detection and phasing of rare mutations are prerequisites...
  9. ...genes in a phylogenetically diverse collection of 15 enteric pathogens, including unrelated Clostridia (C. difficile, C. perfringens, and C. tetani), Enterobacteria (pathogenic Escherichia coli and Salmonella enterica), Streptococcus sanguinis, Campylobacter jejuni, Helicobacter hepaticus, Lawsonia...
  10. ...of Escherichia coli as a classic gut bacterium, but the entire Gamma-proteobacteria phylum that contains it typically comprises much less than 1% of gut bacteria—rather, E. coli grows extremely well in culture and can thus be detected at low abundance. Most species found in the gut of a given individual are rare...
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