All Stories

  1. The plant pathogen Pectobacterium atrosepticum contains a functional formate hydrogenlyase‐2 complex
  2. The plant pathogen Pectobacterium atrosepticum contains a functional formate hydrogenlyase-2 complex
  3. Controlling and co-ordinating chitinase secretion in a Serratia marcescens population
  4. The structure of hydrogenase-2 from Escherichia coli : implications for H 2 -driven proton pumping
  5. Structure and activity of ChiX: a peptidoglycan hydrolase required for chitinase secretion by Serratia marcescens
  6. Identification of a stable complex between a [NiFe]-hydrogenase catalytic subunit and its maturation protease
  7. Biosynthesis of selenate reductase in Salmonella enterica: critical roles for the signal peptide and DmsD
  8. Design and characterisation of synthetic operons for biohydrogen technology
  9. Biosynthesis of Salmonella enterica [NiFe]-hydrogenase-5: probing the roles of system-specific accessory proteins
  10. Hydrogen activation by [NiFe]-hydrogenases
  11. Exploring the directionality ofEscherichia coliformate hydrogenlyase: a membrane-bound enzyme capable of fixing carbon dioxide to organic acid
  12. A Novel Aerobic Mechanism for Reductive Palladium Biomineralization and Recovery byEscherichia coli
  13. How the oxygen tolerance of a [NiFe]-hydrogenase depends on quaternary structure
  14. The Model [NiFe]-Hydrogenases of Escherichia coli
  15. Integration of an [FeFe]-hydrogenase into the anaerobic metabolism of Escherichia coli
  16. Mechanism of hydrogen activation by [NiFe] hydrogenases
  17. Dissection and engineering of theEscherichia coliformate hydrogenlyase complex
  18. SlyD-dependent nickel delivery limits maturation of [NiFe]-hydrogenases in late-stationary phase Escherichia coli cells
  19. A holin and an endopeptidase are essential for chitinolytic protein secretion in Serratia marcescens
  20. Physiology and Bioenergetics of [NiFe]-Hydrogenase 2-Catalyzed H2-Consuming and H2-Producing Reactions in Escherichia coli
  21. Bacterial formate hydrogenlyase complex
  22. How oxygen reacts with oxygen-tolerant respiratory [NiFe]-hydrogenases
  23. How the structure of the large subunit controls function in an oxygen-tolerant [NiFe]-hydrogenase
  24. Transforming an oxygen-tolerant [NiFe] uptake hydrogenase into a proficient, reversible hydrogen producer
  25. Characterization of a periplasmic nitrate reductase in complex with its biosynthetic chaperone
  26. A regulatory domain controls the transport activity of a twin-arginine signal peptide
  27. Signal peptide etiquette during assembly of a complex respiratory enzyme
  28. A synthetic system for expression of components of a bacterial microcompartment
  29. Characterization of a pre-export enzyme–chaperone complex on the twin-arginine transport pathway
  30. Principles of Sustained Enzymatic Hydrogen Oxidation in the Presence of Oxygen – The Crucial Influence of High Potential Fe–S Clusters in the Electron Relay of [NiFe]-Hydrogenases
  31. Crystal Structure of the O 2 -Tolerant Membrane-Bound Hydrogenase 1 from Escherichia coli in Complex with Its Cognate Cytochrome b
  32. Zymographic differentiation of [NiFe]-Hydrogenases 1, 2 and 3 of Escherichia coli K-12
  33. The hows and whys of aerobic H2 metabolism
  34. Overlapping transport and chaperone‐binding functions within a bacterial twin‐arginine signal peptide
  35. Conserved Signal Peptide Recognition Systems across the Prokaryotic Domains
  36. Analysis of hydrogenase 1 levels reveals an intimate link between carbon and hydrogen metabolism in Escherichia coli K-12
  37. Oxygen-Tolerant [NiFe]-Hydrogenases: The Individual and Collective Importance of Supernumerary Cysteines at the Proximal Fe-S Cluster
  38. HowSalmonellaoxidises H2under aerobic conditions
  39. Efficient electron transfer from hydrogen to benzyl viologen by the [NiFe]-hydrogenases of Escherichia coli is dependent on the coexpression of the iron–sulfur cluster-containing small subunit
  40. Characterisation of the membrane-extrinsic domain of the TatB component of the twin arginine protein translocase
  41. The Tat Protein Export Pathway
  42. Towards an integrated system for bio-energy: hydrogen production by Escherichia coli and use of palladium-coated waste cells for electricity generation in a fuel cell
  43. How Escherichia coli is equipped to oxidize hydrogen under different redox conditions.
  44. Involvement of hydrogenases in the formation of highly catalytic Pd(0) nanoparticles by bioreduction of Pd(II) using Escherichia coli mutant strains
  45. Intrinsic GTPase activity of a bacterial twin-arginine translocation proofreading chaperone induced by domain swapping
  46. Analysis of Tat Targeting Function and Twin-Arginine Signal Peptide Activity in Escherichia coli
  47. HowEscherichia coliIs Equipped to Oxidize Hydrogen under Different Redox Conditions
  48. Water−Gas Shift Reaction Catalyzed by Redox Enzymes on Conducting Graphite Platelets
  49. Proteolytic processing of Escherichia coli twin-arginine signal peptides by LepB
  50. Remnant signal peptides on non-exported enzymes: implications for the evolution of prokaryotic respiratory chains
  51. Plenary Lectures
  52. A genetic analysis of in vivo selenate reduction by Salmonella enterica serovar Typhimurium LT2 and Escherichia coli K12
  53. Biorecovery of Precious Metals from Wastes and Conversion into Fuel Cell Catalyst for Electricity Production
  54. The Escherichia coli Cell Division Protein and Model Tat Substrate SufI (FtsP) Localizes to the Septal Ring and Has a Multicopper Oxidase-Like Structure
  55. Features of a twin-arginine signal peptide required for recognition by a Tat proofreading chaperone
  56. Biosynthesis of the respiratory formate dehydrogenases from Escherichia coli: characterization of the FdhE protein
  57. Escherichia coli tat mutant strains are able to transport maltose in the absence of an active malE gene
  58. Dissecting the roles ofEscherichia colihydrogenases in biohydrogen production
  59. The twin-arginine transport system: moving folded proteins across membranes
  60. Look on the positive side! The orientation, identification and bioenergetics of ‘Archaeal’ membrane-bound nitrate reductases
  61. Structural diversity in twin-arginine signal peptide-binding proteins
  62. TatBC, TatB, and TatC form structurally autonomous units within the twin arginine protein transport system ofEscherichia coli
  63. Constructing the wonders of the bacterial world: biosynthesis of complex enzymes
  64. Subunit composition and in vivo substrate-binding characteristics of Escherichia coli Tat protein complexes expressed at native levels
  65. Inactivation of theEscherichia coliK-12 twin-arginine translocation system promotes increased hydrogen production
  66. Pathfinders and trailblazers: a prokaryotic targeting system for transport of folded proteins
  67. Signal peptide–chaperone interactions on the twin-arginine protein transport pathway
  68. Protein targeting by the bacterial twin-arginine translocation (Tat) pathway
  69. Export of complex cofactor-containing proteins by the bacterial Tat pathway
  70. Common principles in the biosynthesis of diverse enzymes
  71. Chaperones involved in assembly and export ofN-oxide reductases
  72. Coordinating assembly and export of complex bacterial proteins
  73. Sequence analysis of bacterial redox enzyme maturation proteins (REMPs)
  74. Light traffic: photo-crosslinking a novel transport system
  75. A subset of bacterial inner membrane proteins integrated by the twin-arginine translocase
  76. Assembly of Tat-dependent [NiFe] hydrogenases: identification of precursor-binding accessory proteins
  77. The Tat protein translocation pathway and its role in microbial physiology
  78. Regulation of the Hydrogenase-4 Operon of Escherichia coli by the σ54-Dependent Transcriptional Activators FhlA and HyfR
  79. How bacteria get energy from hydrogen: a genetic analysis of periplasmic hydrogen oxidation in Escherichia coli
  80. Oligomeric Properties and Signal Peptide Binding by Escherichia coli Tat Protein Transport Complexes
  81. Assembly of membrane-bound respiratory complexes by the Tat protein-transport system
  82. Functional complexity of the twin-arginine translocase TatC component revealed by site-directed mutagenesis
  83. Behaviour of topological marker proteins targeted to the Tat protein transport pathway
  84. A genetic screen for suppressors of Escherichia coli Tat signal peptide mutations establishes a critical role for the second arginine within the twin-arginine motif
  85. Membrane interactions and self-association of the TatA and TatB components of the twin-arginine translocation pathway
  86. Purified components of the Escherichia coli Tat protein transport system form a double-layered ring structure
  87. A marriage of bacteriology with cell biology results in twin arginines
  88. Constitutive Expression of Escherichia coli tat Genes Indicates an Important Role for the Twin-Arginine Translocase during Aerobic and Anaerobic Growth
  89. Crystal Structure of the Molybdenum Cofactor Biosynthesis Protein MobA from Escherichia coli at Near-Atomic Resolution
  90. A novel protein transport system involved in the biogenesis of bacterial electron transfer chains
  91. TatD Is a Cytoplasmic Protein with DNase Activity
  92. The Tat protein export pathway
  93. Sec-independent Protein Translocation inEscherichia coli
  94. An Essential Component of a Novel Bacterial Protein Export System with Homologues in Plastids and Mitochondria
  95. Overlapping functions of components of a bacterial Sec-independent protein export pathway