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  1. A healthy dietary pattern is associated with microbiota diversity in recently diagnosed bipolar patients: The Bipolar Netherlands Cohort (BINCO) study
  2. Clostridioides difficile in calves, cattle and humans from Dutch dairy farms: Predominance of PCR ribotype 695 (clade 5, sequence type 11) in cattle
  3. Fecal microbiota transplantation: current challenges and future landscapes
  4. Proteolytic activity of surface exposed HtrA determines its expression level and is needed to survive acidic conditions inClostridioides difficile
  5. Fungal and bacterial gut microbiota differ between Clostridioides difficile colonization and infection
  6. The vulvar microbiome in lichen sclerosus and high-grade intraepithelial lesions
  7. Revised Model for the Type A Glycan Biosynthetic Pathway in Clostridioides difficile Strain 630Δerm Based on Quantitative Proteomics of cd0241–cd0244 Mutant Strains
  8. Prevalence of Clostridioides difficile in dogs (Canis familiaris) with gastrointestinal disorders in Rio de Janeiro
  9. Fungal-bacterial gut microbiota interactions in patients withClostridioides difficilecolonisation and infection
  10. The vanR Cd Mutation 343A>G, Resulting in a Thr115Ala Substitution, Is Associated with an Elevated Minimum Inhibitory Concentration (MIC) of Vancomycin in Clostridio...
  11. Clostridioides difficile infection with isolates of cryptic clade C-II: a genomic analysis of polymerase chain reaction ribotype 151
  12. Non-Toxigenic Clostridioides difficile Strain E4 (NTCD-E4) Prevents Establishment of Primary C. difficile Infection by Epidemic PCR Ribotype 027 in an In Vitro Human Gut Model
  13. Dietary butyrate ameliorates metabolic health associated with selective proliferation of gut Lachnospiraceae bacterium 28-4
  14. Carriage of three plasmids in a single human clinical isolate of Clostridioides difficile
  15. In-Depth Characterization of the Clostridioides difficile Phosphoproteome to Identify Ser/Thr Kinase Substrates
  16. Sequence-Based Identification of Metronidazole-Resistant Clostridioides difficile Isolates
  17. 2’-Fucosyllactose inhibits proliferation of Clostridioides difficile ATCC 43599 in the CDi-screen, an in vitro model simulating Clostridioides difficile infection
  18. International travel, the gut microbiome, and ESBL-E coli carriage – Authors' reply
  19. Clostridioides difficilePCR ribotype 151 is polyphyletic and includes pathogenic isolates from cryptic clade C-II with mono-toxin pathogenicity loci that can escape routine diagnostics
  20. Carriage of three plasmids in a single human clinical isolate of Clostridioides difficile
  21. New insights into the type A glycan modification of Clostridioides difficile flagellar protein flagellin C by phosphoproteomics analysis
  22. Clostridioides difficile Phosphoproteomics Shows an Expansion of Phosphorylated Proteins in Stationary Growth Phase
  23. Comparison of Whole-Genome Sequence-Based Methods and PCR Ribotyping for Subtyping of Clostridioides difficile
  24. Plasmids of Clostridioides difficile
  25. Practical observations on the use of fluorescent reporter systems in Clostridioides difficile
  26. Host Immune Responses to Clostridioides difficile: Toxins and Beyond
  27. Clostridioides difficile phosphoproteomics shows an expansion of phosphorylated proteins in stationary growth phase
  28. Fecal Microbiota Transplantation Influences Procarcinogenic Escherichia coli in Recipient Recurrent Clostridioides difficile Patients
  29. Performance of Core Genome Multilocus Sequence Typing Compared to Capillary-Electrophoresis PCR Ribotyping and SNP Analysis ofClostridioides difficile
  30. Practical observations on the use of fluorescent reporter systems in C. difficile
  31. Haem is crucial for medium-dependent metronidazole resistance in clinical isolates of Clostridioides difficile
  32. Cyclodextrin/Adamantane-Mediated Targeting of Inoculated Bacteria in Mice
  33. Heme is crucial for medium-dependent metronidazole resistance in clinical isolates of C. difficile
  34. Distinct evolution of colistin resistance associated with experimental resistance evolution models in Klebsiella pneumoniae
  35. Redefining the Clostridioides difficile σ B Regulon: σ B Activates Genes Involved in Detoxifying Radicals That Can Result from the Exposure to Antimicrobials and Hydrogen Peroxide
  36. Identification of the Unwinding Region in the Clostridioides difficile Chromosomal Origin of Replication
  37. The C-Terminal Domain of Clostridioides difficile TcdC Is Exposed on the Bacterial Cell Surface
  38. Redefining the Clostridioides difficile σB regulon: σB activates genes involved in detoxifying radicals that can result from the exposure to antimicrobials and hydrogen peroxide
  39. Identification of the unwinding region in theClostridioides difficilechromosomal origin of replication
  40. Plasmid-mediated metronidazole resistance in Clostridioides difficile
  41. The C-terminal domain of Clostridioides difficile TcdC is exposed on the bacterial cell surface
  42. An in silico survey of Clostridioides difficile extrachromosomal elements
  43. Microbial evolutionary medicine: from theory to clinical practice
  44. #EUROmicroMOOC: using Twitter to share trends in Microbiology worldwide
  45. Anin silicosurvey ofClostridioides difficileextrachromosomal elements
  46. Plasmid-mediated metronidazole resistance in Clostridioides difficile
  47. Multimodal Tracking of Controlled Staphylococcus aureus Infections in Mice
  48. Fluorescent imaging of bacterial infections and recent advances made with multimodal radiopharmaceuticals
  49. The Bacterial Chromatin Protein HupA Can Remodel DNA and Associates with the Nucleoid in Clostridium difficile
  50. Characterization of the virulence of a non-RT027, non-RT078 and binary toxin-positive Clostridium difficile strain associated with severe diarrhea
  51. Genome Location Dictates the Transcriptional Response to PolC Inhibition in Clostridium difficile
  52. The evolving epidemic of Clostridium difficile 630
  53. The bacterial chromatin protein HupA can remodel DNA and associates with the nucleoid in Clostridium difficile
  54. Genome location dictates the transcriptional response to PolC-inhibition inClostridium difficile
  55. Mechanistic Insights in the Success of Fecal Microbiota Transplants for the Treatment of Clostridium difficile Infections
  56. Proteomic identification of Axc, a novel beta-lactamase with carbapenemase activity in a meropenem-resistant clinical isolate of Achromobacter xylosoxidans
  57. A helicase-containing module defines a family of pCD630-like plasmids in Clostridium difficile
  58. A helicase-containing module defines a family of pCD630-like plasmids in Clostridium difficile
  59. Proteomic identification of Axc, a novel beta-lactamase with carbapenemase activity in a meropenem-resistant clinical isolate of Achromobacter xylosoxidans
  60. DNA replication proteins as potential targets for antimicrobials in drug-resistant bacterial pathogens
  61. Primase is required for helicase activity and helicase alters the specificity of primase in the enteropathogenClostridium difficile
  62. Interspecies Interactions between Clostridium difficile and Candida albicans
  63. SNP-ing out the differences: Investigating differences between Clostridium difficile lab strains
  64. Interactions between helicase and primase are crucial for DNA replication in the enteropathogen Clostridium difficile
  65. The Signal Sequence of the Abundant Extracellular Metalloprotease PPEP-1 Can Be Used to Secrete Synthetic Reporter Proteins in Clostridium difficile
  66. Clostridium difficile infection
  67. Clostridium difficile infection
  68. Complete genome sequence of BS49 and draft genome sequence of BS34A, Bacillus subtilis strains carrying Tn916
  69. Complete genome sequence of the Clostridium difficile laboratory strain 630Δerm reveals differences from strain 630, including translocation of the mobile element CTn5
  70. The HtrA-Like Protease CD3284 Modulates Virulence of Clostridium difficile
  71. Functional genomics reveals that Clostridium difficileSpo0A coordinates sporulation, virulence and metabolism
  72. Hype or hypervirulence
  73. C. difficile 630Δerm Spo0A Regulates Sporulation, but Does Not Contribute to Toxin Production, by Direct High-Affinity Binding to Target DNA
  74. TcdC Does Not Significantly Repress Toxin Expression in Clostridium difficile 630ΔErm
  75. Chromosomal Replication Initiation Machinery of Low-G+C-Content Firmicutes
  76. Untwisting of the DNA helix stimulates the endonuclease activity of Bacillus subtilis Nth at AP sites
  77. Primosomal Proteins DnaD and DnaB Are Recruited to Chromosomal Regions Bound by DnaA in Bacillus subtilis
  78. The Transcriptional Regulator Rok Binds A+T-Rich DNA and Is Involved in Repression of a Mobile Genetic Element in Bacillus subtilis
  79. When simple sequence comparison fails: the cryptic case of the shared domains of the bacterial replication initiation proteins DnaB and DnaD
  80. Ordered association of helicase loader proteins with the Bacillus subtilis origin of replication in vivo
  81. Ubiquitous late competence genes in Bacillus species indicate the presence of functional DNA uptake machineries
  82. Bistability, Epigenetics, and Bet-Hedging in Bacteria
  83. Phenotypic Variation and Bistable Switching in Bacteria
  84. Production and Secretion Stress Caused by Overexpression of Heterologous α-Amylase Leads to Inhibition of Sporulation and a Prolonged Motile Phase in Bacillus subtilis
  85. Temporal separation of distinct differentiation pathways by a dual specificity Rap‐Phr system in Bacillus subtilis
  86. A Single, Specific Thymine Mutation in the ComK-Binding Site Severely Decreases Binding and Transcription Activation by the Competence Transcription Factor ComK of Bacillus subtilis
  87. Antirepression as a second mechanism of transcriptional activation by a minor groove binding protein
  88. Single cell analysis of gene expression patterns of competence development and initiation of sporulation in Bacillus subtilis grown on chemically defined media
  89. Phenotypic variation in bacteria: the role of feedback regulation
  90. Tricksy Business: Transcriptome Analysis Reveals the Involvement of Thioredoxin A in Redox Homeostasis, Oxidative Stress, Sulfur Metabolism, and Cellular Differentiation in Bacillus subtilis
  91. Stripping Bacillus: ComK auto‐stimulation is responsible for the bistable response in competence development
  92. The Rok Protein of Bacillus subtilis Represses Genes for Cell Surface and Extracellular Functions
  93. Visualization of Differential Gene Expression by Improved Cyan Fluorescent Protein and Yellow Fluorescent Protein Production in Bacillus subtilis
  94. Improving the predictive value of the competence transcription factor (ComK) binding site in Bacillus subtilis using a genomic approach