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  1. History of Gap Junction Architecture and Potential Role of Calmodulin in Channel Arrays
  2. Calcium Role in Gap Junction Channel Gating: Direct Electrostatic or Calmodulin-Mediated?
  3. Gap Junction Channel Regulation: A Tale of Two Gates—Voltage Sensitivity of the Chemical Gate and Chemical Sensitivity of the Fast Voltage Gate
  4. Nerve Structure-Function: Unusual Structural Details and Unmasking of Sulfhydryl Groups by Electrical Stimulation or Asphyxia in Axon Membranes and Gap Junctions
  5. Potential Role of Fenestrated Septa in Axonal Transport of Golgi Cisternae and Gap Junction Formation/Function
  6. Ca2+-Dependent and -Independent Calmodulin Binding to the Cytoplasmic Loop of Gap Junction Connexins
  7. Anesthetics and Cell–Cell Communication: Potential Ca2+-Calmodulin Role in Gap Junction Channel Gating by Heptanol, Halothane and Isoflurane
  8. Direct Cell-Cell Communication via Membrane Pores, Gap Junction Channels, and Tunneling Nanotubes: Medical Relevance of Mitochondrial Exchange
  9. Calmodulin-Connexin Partnership in Gap Junction Channel Regulation-Calmodulin-Cork Gating Model
  10. Gap Junction Channelopathies and Calmodulinopathies. Do Disease-Causing Calmodulin Mutants Affect Direct Cell–Cell Communication?
  11. Calmodulin-Cork Model of Gap Junction Channel Gating—One Molecule, Two Mechanisms
  12. Connexin/Innexin Channels in Cytoplasmic Organelles. Are There Intracellular Gap Junctions? A Hypothesis!
  13. Calmodulin-Mediated Regulation of Gap Junction Channels
  14. Lung Function In Health And Disease: Basic Concepts of Respiratory Physiology and Pathophysiology
  15. APPENDIX 4: Calculations
  16. Basic Lung Structure
  17. Clinical Cases
  18. Functional Consequences of Respiratory Diseases
  19. Gas Exchange
  20. Historical Background
  21. Introduction
  22. Preface
  23. Problem Based Learning
  24. Problem Based Learning
  25. Problem Based Learning
  26. Respiratory Mechanics
  27. Tests
  28. Ventilation-Perfusion Distribution, Blood Shunts and Alveolar Dead Space
  29. Calmodulin Association with Connexin32-derived Peptides Suggests trans-Domain Interaction in Chemical Gating of Gap Junction Channels
  30. Unusual Slow Gating of Gap Junction Channels in Oocytes Expressing Connexin32 or Its COOH-Terminus Truncated Mutant
  31. Interactions of connexins with other membrane channels and transporters
  32. Interplay between Cystic Fibrosis Transmembrane Regulator and Gap Junction Channels Made of Connexins 45, 40, 32 and 50 Expressed in Oocytes
  33. Inversion of both gating polarity and CO2 sensitivity of voltage gating with D3N mutation of Cx50
  34. Functional Interaction Between CFTR and Cx45 Gap Junction Channels Expressed in Oocytes
  35. Opposite Cx32 and Cx26 Voltage-Gating Response to CO2 Reflects Opposite Voltage-Gating Polarity
  36. CO2 Sensitivity of Voltage Gating and Gating Polarity of GapJunction Channels—Connexin40 and its COOH-Terminus-Truncated Mutant
  37. Chemical gating of gap junction channels
  38. Is the Voltage Gate of Connexins CO 2 -sensitive? Cx45 Channels and Inhibition of Calmodulin Expression
  39. The Voltage Gates of Connexin Channels are Sensitive to CO2
  40. The Voltage Gates of Connexin Channels are Sensitive to CO2
  41. Calmodulin Colocalizes with Connexins and Plays a Direct Role in Gap Junction Channel Gating
  42. Slow Gating of Gap Junction Channels and Calmodulin
  43. Calmodulin Directly Gates Gap Junction Channels
  44. Calmodulin-connexin colocolization and direct role of calmodulin in gap junction channel gating
  45. Chemical Gating of Gap Junction Channels
  46. Is the chemical gate of connexins voltage sensitive? Behavior of Cx32 wild-type and mutant channels
  47. Chapter 10: Distinct Behaviors of Chemical and Voltage Sensitive Gates of Gap Junction Channel
  48. Chapter 13: Behavior of Chemical and Slow Voltage-Sensitive Gates of Connexin Channels: The “Cork” Gating Hypothesis
  49. Preface
  50. Molecular dissection of a basic COOH-terminal domain of Cx32 that inhibits gap junction gating sensitivity
  51. Chemical Gating of Heteromeric and Heterotypic Gap Junction Channels
  52. Positive charges of the initial C-terminus domain of Cx32 inhibit gap junction gating sensitivity to CO2
  53. Molecular basis of gap junction channel regulation and gating
  54. Connexin domains relevant to the chemical gating of gap junction channels
  55. Two distinct gating mechanisms in gap junction channels: CO2-sensitive and voltage-sensitive
  56. Chimeric evidence for a role of the connexin cytoplasmic loop in gap junction channel gating
  57. Properties and regulation of gap junctional hemichannels in the plasma membranes of cultured cells.
  58. Chimeric evidence for a role of the connexin cytoplasmic loop in gap junction channel gating
  59. Inhibition of calmodulin expression prevents low-pH-induced gap junction uncoupling inXenopus oocytes
  60. Ca-mediated and independent effects of arachidonic acid on gap junctions and Ca-independent effects of oleic acid and halothane
  61. Molecular Models of Channel Interaction and Gating in Gap Junctions
  62. Preface
  63. Gap junction gating sensitivity to physiological internal calcium regardless of pH in Novikoff hepatoma cells
  64. Biophysics of Gap Junction Channels. Camillo Peracchia
  65. Channel reconstitution in liposomes and planar bilayers with HPLC-purified MIP26 of bovine lens
  66. Effects of the anesthetics heptanol, halothane and isoflurane on gap junction conductance in crayfish septate axons: A calcium- and hydrogen-independent phenomenon potentiated by caffeine and theophylline, and inhibited by 4-aminopyridine
  67. Calmodulin interacts with a C-terminus peptide from the lens membrane protein MIP26
  68. Effects of caffeine and raynodine on low pHi-induced changes in gap junction conductance and calcium concentration in crayfish septate axons
  69. Increase in gap junction resistance with acidification in crayfish septate axons is closely related to changes in intracellular calcium but not hydrogen ion concentration
  70. Calmodulin-like proteins and communicating junctions
  71. Permeability and Regulation of Gap Junction Channels in Cells and in Artificial Lipid Bilayers
  72. Is the C-terminal arm of lens gap junction channel protein the channel gate?
  73. Lens cell-to-cel channel protein: II. Conformational change in the presence of calmodulin
  74. Lens cell-to-cell channel protein: I. Self-assembly into liposomes and permeability regulation by calmodulin
  75. Lens junctions are communicating junctions
  76. Permeability and gating of lens gap junction channels incorporated into liposomes
  77. Cell Coupling
  78. Crystallization of intramembrane particles in rabbit sarcoplasmic reticulum vesicles by vanadate
  79. Communicating junctions and calmodulin: Inhibition of electrical uncoupling inXenopus embryo by calmidazolium
  80. Is calmodulin involved in the regulation of gap junction permeability?
  81. The periaxonal space of crayfish giant axons.
  82. Structure of membranes in crayfish muscle: comparison of phasic and tonic fibres
  83. Gap Junction Structure in Coupled and Uncoupled Conditions
  84. Gap Junction Transport Regulation
  85. Healing‐over in rat crystalline lens.
  86. Direct communication between axons and sheath glial cells in crayfish
  87. Gap junction dynamics: reversible effects of divalent cations.
  88. Gap junction dynamics: reversible effects of hydrogen ions.
  89. Structural Correlates of Gap Junction Permeation
  90. The cell on the move
  91. Calcium effects on gap junction structure and cell coupling
  92. Gap junctions. Structural changes after uncoupling procedures.
  93. Gap junction structure and function
  94. Low resistance junctions in crayfish. Structural changes with functional uncoupling.
  95. The paranodal axo-glial junction in the central nervous system studied with thin sections and freeze-fracture
  96. EXCITABLE MEMBRANE ULTRASTRUCTURE
  97. LOW RESISTANCE JUNCTIONS IN CRAYFISH
  98. LOW RESISTANCE JUNCTIONS IN CRAYFISH
  99. FIXATION BY MEANS OF GLUTARALDEHYDE-HYDROGEN PEROXIDE REACTION PRODUCTS
  100. New glutaraldehyde fixation procedures
  101. INCREASE IN OSMIOPHILIA OF AXONAL MEMBRANES OF CRAYFISH AS A RESULT OF ELECTRICAL STIMULATION, ASPHYXIA, OR TREATMENT WITH REDUCING AGENTS
  102. A SYSTEM OF PARALLEL SEPTA IN CRAYFISH NERVE FIBERS
  103. Alterations in Collagen in the Arteries of Thromboangiitic Patients