All Stories

  1. Ribosomal Protein bL27 Protects Translating Ribosomes from tmRNA-SmpB
  2. Targeting Recoding by trans-Translation to Develop Antibiotics
  3. A trans -translation inhibitor that targets ribosomal protein bL12 kills Mycobacterium tuberculosis
  4. A trans -translation inhibitor kills Mycobacterium tuberculosis by targeting ribosomal protein bL12
  5. Zinc Boosts New Drug to Kill Tuberculosis and Related Bacteria
  6. Trans -Translation inhibitors and copper synergize for enhanced antibiotic activity
  7. Antibiotic that inhibits trans -translation blocks binding of EF-Tu to tmRNA but not to tRNA
  8. Physiology of trans‐translation deficiency in Bacillus subtilis – a comparative proteomics study
  9. Antibiotic that inhibitstrans-translation blocks binding of EF-Tu to tmRNA but not to tRNA
  10. Druggable differences: Targeting mechanistic differences between trans‐ translation and translation for selective antibiotic action
  11. Ribosome collisions: New ways to initiate ribosome rescue
  12. Reproducible and accessible analysis of transposon insertion sequencing in Galaxy for qualitative essentiality analyses
  13. trans-Translation inhibitors bind to a novel site on the ribosome and clear Neisseria gonorrhoeae in vivo
  14. Pathogen-specific antimicrobials engineered de novo through membrane-protein biomimicry
  15. Comparison of Proteomic Responses as Global Approach to Antibiotic Mechanism of Action Elucidation
  16. Reproducible and accessible analysis of transposon insertion data at scale
  17. A Small-Molecule Inhibitor of trans -Translation Synergistically Interacts with Cathelicidin Antimicrobial Peptides To Impair Survival of Staphylococcus aureus
  18. Bioresponsive peptide-polysaccharide nanogels — A versatile delivery system to augment the utility of bioactive cargo
  19. A New Mechanism for Ribosome Rescue Can Recruit RF1 or RF2 to Nonstop Ribosomes
  20. A new mechanism for ribosome rescue can recruit RF1 or RF2 to non-stop ribosomes
  21. Ribosome Rescue Inhibitors Kill Actively Growing and Nonreplicating Persister Mycobacterium tuberculosis Cells
  22. Tetrazole-Based trans-Translation Inhibitors Kill Bacillus anthracis Spores To Protect Host Cells
  23. Anti-tubercular Activity of Pyrazinamide is Independent of trans-Translation and RpsA
  24. Teaching broader impacts of science with undergraduate research
  25. Human Cells Require Non-stop Ribosome Rescue Activity in Mitochondria
  26. Inhibitors of Ribosome Rescue Arrest Growth of Francisella tularensis at All Stages of Intracellular Replication
  27. Clicking on trans-translation drug targets
  28. Mechanisms of ribosome rescue in bacteria
  29. Release of Nonstop Ribosomes Is Essential
  30. Identification of Inhibitors of a Bacterial Sigma Factor Using a New High-Throughput Screening Assay
  31. Cell-Based Assay To Identify Inhibitors of the Hfq-sRNA Regulatory Pathway
  32. Resolving Nonstop Translation Complexes Is a Matter of Life or Death
  33. The potential of trans-translation inhibitors as antibiotics
  34. Small molecule inhibitors of trans -translation have broad-spectrum antibiotic activity
  35. tmRNA Is Essential in Shigella flexneri
  36. Tsp Protease
  37. Pharmacological Inhibition of the ClpXP Protease Increases Bacterial Susceptibility to Host Cathelicidin Antimicrobial Peptides and Cell Envelope-Active Antibiotics
  38. Bacterial Regulatory RNA
  39. RNA Visualization in Bacteria by Fluorescence In Situ Hybridization
  40. Bifunctional transfer-messenger RNA
  41. Corrigendum to: “RNA localization in bacteria” [Curr. Opin. Microbiol. 14 (2011) 155–159]
  42. RNA localization in bacteria
  43. Localization of the Bacterial RNA Infrastructure
  44. Protein localization and dynamics within a bacterial organelle
  45. Beyond ribosome rescue: tmRNA and co‐translational processes
  46. trans-Translation
  47. Subcellular localization of a bacterial regulatory RNA
  48. Correct Timing of dnaA Transcription and Initiation of DNA Replication Requires trans Translation
  49. Biology oftrans-Translation
  50. Screen for Localized Proteins in Caulobacter crescentus
  51. Proteomic identification of tmRNA substrates
  52. Peptide Signals Encode Protein Localization
  53. Discovery of antibacterial cyclic peptides that inhibit the ClpXP protease
  54. Physiology of tmRNA: what gets tagged and why?
  55. Proteolytic Adaptor for Transfer-Messenger RNA-Tagged Proteins from α-Proteobacteria
  56. Cell cycle‐regulated degradation of tmRNA is controlled by RNase R and SmpB
  57. tmRNA in Caulobacter crescentus Is Cell Cycle Regulated by Temporally Controlled Transcription and RNA Degradation
  58. tmRNA Is Required for Correct Timing of DNA Replication in Caulobacter crescentus
  59. Tsp and Related Tail-Specific Proteases
  60. Conserved Promoter Motif Is Required for Cell Cycle Timing of dnaX Transcription inCaulobacter
  61. tmRNAs that encode proteolysis-inducing tags are found in all known bacterial genomes: A two-piece tmRNA functions in Caulobacter
  62. Role of a Peptide Tagging System in Degradation of Proteins Synthesized from Damaged Messenger RNA
  63. Sequence Determinants of C-terminal Substrate Recognition by the Tsp Protease
  64. Identification of Active Site Residues of the Tsp Protease
  65. C‐terminal specific protein degradation: Activity and substrate specificity of the Tsp protease
  66. Tsp: a tail-specific protease that selectively degrades proteins with nonpolar C termini.