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  1. Architecture of Actinoplanes missouriensis sporangia and zoospores visualized using quick-freeze deep-etch electron microscopy
  2. Cryo-electron microscopy of cytoskeletal ‘fibril’ involved inSpiroplasmaswimming
  3. Assembly properties of bacterial actin MreB involved in Spiroplasma swimming motility
  4. Structure and Function of Gli123 Involved in Mycoplasma mobile Gliding
  5. Assembly properties ofSpiroplasmaMreB involved in swimming motility
  6. Reconstitution of a minimal motility system based on Spiroplasma swimming by two bacterial actins in a synthetic minimal bacterium
  7. ATP-dependent polymerization dynamics of bacterial actin proteins involved in Spiroplasma swimming
  8. Structure and Function of Gli123 Involved in Mycoplasma mobile Gliding
  9. A Multi-Rail Structure in the Cell Envelope for the Bacteroidetes Gliding Machinery
  10. Core and rod structures of a thermophilic cyanobacterial light-harvesting phycobilisome
  11. Coordinated regulation of TORC2 signaling by MCC /eisosome‐associated proteins, Pil1 and tetraspan membrane proteins during the stress response
  12. Reconstitution of minimal motility system based on Spiroplasma swimming by expressing two bacterial actins in synthetic minimal bacterium
  13. Correction: Tahara et al. Quick-Freeze, Deep-Etch Electron Microscopy Reveals the Characteristic Architecture of the Fission Yeast Spore. J. Fungi 2021, 7, 7
  14. Chained Structure of Dimeric F 1 -like ATPase in Mycoplasma mobile Gliding Machinery
  15. Movements of Mycoplasma mobile Gliding Machinery Detected by High-Speed Atomic Force Microscopy
  16. Force and stepwise movements of gliding motility in human pathogenic bacterium Mycoplasma pneumoniae
  17. Involvement of a Multidrug Efflux Pump and Alterations in Cell Surface Structure in the Synergistic Antifungal Activity of Nagilactone E and Anethole against Budding Yeast Saccharomyces cerevisiae
  18. ATP dependent polymerization dynamics of bacterial actin proteins involved in Spiroplasma swimming
  19. Chained structure of dimeric F1-like ATPase in Mycoplasma mobile gliding machinery
  20. Unraveling the host-selective toxic interaction of cassiicolin with lipid membranes and its cytotoxicity
  21. Use of a Ferritin L134P Mutant for the Facile Conjugation of Prussian Blue in the Apoferritin Cavity
  22. Isolation and structure of the fibril protein, a major component of the internal ribbon for Spiroplasma swimming
  23. Movements of Mycoplasma mobile gliding machinery detected by high-speed atomic force microscopy
  24. Mycolic acid-containing bacteria trigger distinct types of membrane vesicles through different routes
  25. Quick-Freeze, Deep-Etch Electron Microscopy Reveals the Characteristic Architecture of the Fission Yeast Spore
  26. The Fission Yeast RNA-Binding Protein Meu5 Is Involved in Outer Forespore Membrane Breakdown during Spore Formation
  27. Multilamellar and Multivesicular Outer Membrane Vesicles Produced by a Buttiauxella agrestis tolB Mutant
  28. Phylogenetic origin and sequence features of MreB from the wall-less swimming bacteria Spiroplasma
  29. A Factor Produced by Kaistia sp. 32K Accelerated the Motility of Methylobacterium sp. ME121
  30. Current status of the website of the Biophysical Society of Japan
  31. Tree of motility – A proposed history of motility systems in the tree of life
  32. Refined Mechanism of Mycoplasma mobile Gliding Based on Structure, ATPase Activity, and Sialic Acid Binding of Machinery
  33. Peptidoglycan layer and disruption processes in Bacillus subtilis cells visualized using quick-freeze, deep-etch electron microscopy
  34. Refined mechanism ofMycoplasma mobilegliding based on structure, ATPase activity, and sialic acid binding of machinery
  35. Behaviors and Energy Source of Mycoplasma gallisepticum Gliding
  36. Behaviors and Energy Source ofMycoplasma gallisepticumGliding
  37. Peptidoglycan layer and disruption processes inBacillus subtiliscells visualized using quick-freeze, deep-etch electron microscopy
  38. Identification of novel protein domain for sialyloligosaccharide binding essential toMycoplasma mobilegliding
  39. Publisher Correction: Linear motor driven-rotary motion of a membrane-permeabilized ghost in Mycoplasma mobile
  40. Linear motor driven-rotary motion of a membrane-permeabilized ghost in Mycoplasma mobile
  41. Linear motor driven-rotary motion of a membrane-permeabilized ghost in Mycoplasma mobile
  42. Transformation of crustacean pathogenic bacterium Spiroplasma eriocheiris and expression of yellow fluorescent protein
  43. Detailed Analyses Of Stall Force Generation In Mycoplasma mobile Gliding
  44. Force Measurement on Mycoplasma mobile Gliding Using Optical Tweezers
  45. Directed Binding of Gliding Bacterium,Mycoplasma mobile, Shown by Detachment Force and Bond Lifetime
  46. Integrated Information and Prospects for Gliding Mechanism of the Pathogenic Bacterium Mycoplasma pneumoniae
  47. Structural Study of MPN387, an Essential Protein for Gliding Motility of a Human-Pathogenic Bacterium, Mycoplasma pneumoniae
  48. Periodicity in Attachment Organelle Revealed by Electron Cryotomography Suggests Conformational Changes in Gliding Mechanism of Mycoplasma pneumoniae
  49. Prospects for the gliding mechanism of Mycoplasma mobile
  50. Reprint of “Prospects for the gliding mechanism of Mycoplasma mobile”
  51. C2-O-04Gliding machinery ofMycoplasma mobile,pathogenic bacterium
  52. Gliding Direction of Mycoplasma mobile
  53. Gliding Motility of Mycoplasma mobile on Uniform Oligosaccharides
  54. Unitary step of gliding machinery in Mycoplasma mobile
  55. Localization of P42 and F1-ATPase  -Subunit Homolog of the Gliding Machinery in Mycoplasma mobile Revealed by Newly Developed Gene Manipulation and Fluorescent Protein Tagging
  56. Molecular Basis of SMC ATPase Activation: Role of Internal Structural Changes of the Regulatory Subcomplex ScpAB
  57. Decoding system for the AUA codon by tRNA Ile with the UAU anticodon in Mycoplasma mobile
  58. Analyzing Inhibitory Effects of Reagents on Mycoplasma Gliding and Adhesion
  59. Role of Binding in Mycoplasma mobile and Mycoplasma pneumoniae Gliding Analyzed through Inhibition by Synthesized Sialylated Compounds
  60. Whole Surface Image of Mycoplasma mobile, Suggested by Protein Identification and Immunofluorescence Microscopy
  61. Molecular Structure of Isolated MvspI, a Variable Surface Protein of the Fish Pathogen Mycoplasma mobile
  62. “Mycoplasmal Antigen Modulation,” a Novel Surface Variation Suggested for a Lipoprotein Specifically Localized on Mycoplasma mobile
  63. Rapid imaging of mycoplasma in solution using Atmospheric Scanning Electron Microscopy (ASEM)
  64. Mycoplasma mobile Cells Elongated by Detergent and Their Pivoting Movements in Gliding
  65. Isolation and Characterization of P1 Adhesin, a Leg Protein of the Gliding Bacterium Mycoplasma pneumoniae
  66. Unique Centipede Mechanism ofMycoplasmaGliding
  67. Molecular shape and binding force of Mycoplasma mobile’s leg protein Gli349 revealed by an AFM study
  68. Motor-Substrate Interactions in Mycoplasma Motility Explains Non-Arrhenius Temperature Dependence
  69. Triskelion Structure of the Gli521 Protein, Involved in the Gliding Mechanism of Mycoplasma mobile
  70. Cytoskeletal Asymmetrical Dumbbell Structure of a Gliding Mycoplasma, Mycoplasma gallisepticum, Revealed by Negative-Staining Electron Microscopy
  71. Regions on Gli349 and Gli521 Protein Molecules Directly Involved in Movements of Mycoplasma mobile Gliding Machinery, Suggested by Use of Inhibitory Antibodies and Mutants
  72. Centipede and inchworm models to explain Mycoplasma gliding
  73. Cytoskeletal “jellyfish” structure of Mycoplasma mobile
  74. Identification of a novel nucleoside triphosphatase fromMycoplasma mobile: a prime candidate motor for gliding motility
  75. Cytoskeleton of Mollicutes
  76. Gliding Motility of Mycoplasma mobile Can Occur by Repeated Binding to N-Acetylneuraminyllactose (Sialyllactose) Fixed on Solid Surfaces
  77. A microrotary motor powered by bacteria
  78. Morphology of Isolated Gli349, a Leg Protein Responsible for Mycoplasma mobile Gliding via Glass Binding, Revealed by Rotary Shadowing Electron Microscopy
  79. Characterization of dnaA gene expression in Mycoplasma capricolum
  80. Gliding ghosts of Mycoplasma mobile
  81. Identification of a 123-Kilodalton Protein (Gli123) Involved in Machinery for Gliding Motility of Mycoplasma mobile
  82. Identification of a 521-Kilodalton Protein (Gli521) Involved in Force Generation or Force Transmission for Mycoplasma mobile Gliding
  83. Living microtransporter by uni-directional gliding of Mycoplasma along microtracks
  84. Involvement of P1 Adhesin in Gliding Motility of Mycoplasma pneumoniae as Revealed by the Inhibitory Effects of Antibody under Optimized Gliding Conditions
  85. Sequence analysis of the gliding protein Gli349 in Mycoplasma mobile
  86. Cell surface differentiation of Mycoplasma mobile visualized by surface protein localization
  87. Use of Fluorescent-Protein Tagging To Determine the Subcellular Localization of Mycoplasma pneumoniae Proteins Encoded by the Cytadherence Regulatory Locus
  88. Energetics of Gliding Motility in Mycoplasma mobile
  89. Spike Structure at the Interface between Gliding Mycoplasma mobile Cells and Glass Surfaces Visualized by Rapid-Freeze-and-Fracture Electron Microscopy
  90. Identification of a 349-Kilodalton Protein (Gli349) Responsible for Cytadherence and Glass Binding during Gliding of Mycoplasma mobile
  91. Unknown Mechanism, Gliding Motility of Mycoplasmas : Gliding without Rail Proteins?
  92. Attachment Organelle Formation Represented by Localization of Cytadherence Proteins and Formation of the Electron-Dense Core in Wild-Type and Mutant Strains of Mycoplasma pneumoniae
  93. Movement on the cell surface of the gliding bacterium, Mycoplasma mobile, is limited to its head-like structure
  94. Electron Microscopic Studies of Three Gliding Mycoplasmas, Mycoplasma mobile, M. pneumoniae, and M. gallisepticum, by Using the Freeze-Substitution Technique
  95. Force and Velocity of Mycoplasma mobile Gliding
  96. Cell Division
  97. Visualization of the Attachment Organelle and Cytadherence Proteins of Mycoplasma pneumoniae by Immunofluorescence Microscopy
  98. Cell reproduction cycle of mycoplasma
  99. Asymmetrical progression of replication forks just after initiation on Mycoplasma capricolum chromosome revealed by two-dimensional gel electrophoresis
  100. Expression, Purification, and Characterization of Enzyme IIAglc of the Phosphoenolpyruvate:Sugar Phosphotransferase System of Mycoplasma capricolum
  101. Characterization of gene expression in
  102. The gyrB gene lies opposite from the replication origin on the circular chromosome of Mycoplasma capricolum
  103. Comparison of the conserved region in thednaAgene from three mollicute species
  104. Physical mapping of theMycoplasma capricolumgenome
  105. Elementary Steps of the Actin-Activated ATPase Reaction of Cardiac Muscle Myosin Subfragment-11
  106. Molecular Mechanism of Mycoplasma Gliding - A Novel Cell Motility System