All Stories

  1. Biophysical Properties of Somatic Cancer Mutations in the S4 Transmembrane Segment of the Human Voltage-Gated Proton Channel hHV1
  2. Interaction with stomatin directs human proton channels into cholesterol-dependent membrane domains
  3. Transcendent Aspects of Proton Channels
  4. Unexpected expansion of the voltage‐gated proton channel family
  5. The HVCN1 voltage‐gated proton channel contributes to pH regulation in canine ventricular myocytes
  6. Analysis of an electrostatic mechanism for ΔpH dependent gating of the voltage-gated proton channel, HV1, supports a contribution of protons to gating charge
  7. Engineered high-affinity zinc binding site reveals gating configurations of a human proton channel
  8. Expression and function of voltage gated proton channels (Hv1) in MDA-MB-231 cells
  9. Expression and function of voltage gated proton channels (HV1) in MDA-MB-231 cells
  10. Voltage-gated proton channels exist in the plasma membrane of human oocytes
  11. Hydrophobic gasket mutation produces gating pore currents in closed human voltage-gated proton channels
  12. Gating currents indicate complex gating of voltage-gated proton channels
  13. Exotic properties of a voltage-gated proton channel from the snailHelisoma trivolvis
  14. Histidine168is crucial for ΔpH-dependent gating of the human voltage-gated proton channel, hHV1
  15. Voltage and pH sensing by the voltage-gated proton channel, H V 1
  16. CrossTalk proposal: Proton permeation through HV 1 requires transient protonation of a conserved aspartate in the S1 transmembrane helix
  17. Rebuttal from Thomas E. DeCoursey
  18. The intimate and controversial relationship between voltage-gated proton channels and the phagocyte NADPH oxidase
  19. Insights into the structure and function of HV1 from a meta-analysis of mutation studies
  20. Tryptophan 207 is Crucial to the Unique Properties of the Human Voltage Gated Proton Channel, hHv1
  21. Structural revelations of the human proton channel
  22. Tryptophan 207 is crucial to the unique properties of the human voltage-gated proton channel, hH V 1
  23. The Voltage-Gated Proton Channel: A Riddle, Wrapped in a Mystery, inside an Enigma
  24. Selectivity Mechanism of the Voltage-gated Proton Channel, HV1
  25. Publishing: Double-blind peer review a double risk
  26. Characterization and Subcellular Localization of Hv1 in Lingulodinium Polyedrum Confirms its Role in Bioluminescence
  27. Proton Channels are Present in Cell Membranes of the Breast Cancer Cell Line MDA MB 231 and Affect Recovery from an Acid Load
  28. Free Energy Simulations of Ion Translocation through Voltage-Gated Proton Channel Hv1
  29. Enhanced Activation of an Amino-Terminally Truncated Isoform of Voltage-Gated Proton Channel HVCN1 Enriched in Malignant B cells
  30. Enhanced activation of an amino-terminally truncated isoform of the voltage-gated proton channel HVCN1 enriched in malignant B cells
  31. Analysis of Electrophysiological Properties and Responses of Neutrophils
  32. Selectivity Filter Scanning of the Human Voltage Gated Proton Channel Hhv1
  33. Molecular Dynamics Studies of Ion Permeation in Human Voltage-Gated Proton Channel
  34. Philosophy of voltage-gated proton channels
  35. Peregrination of the selectivity filter delineates the pore of the human voltage-gated proton channel hH V 1
  36. Don't judge research on economics alone
  37. Voltage-Gated Proton Channels: Molecular Biology, Physiology, and Pathophysiology of the HV Family
  38. Construction and validation of a homology model of the human voltage-gated proton channel hH V 1
  39. Selectivity of the Voltage Gated Proton Channel HV1
  40. Proton Channels in Normal and Malignant B Cells
  41. Consequences of Dimerization of the Voltage-Gated Proton Channel
  42. Accessibility of the S4 Arginines in the Human Voltage Gated Proton Channel, hHV1
  43. Two Isoforms of the Human Voltage Gated Proton Channel hHV1
  44. Follow the money on climate controversy
  45. Biophysical properties of the voltage‐gated proton channel HV1
  46. Voltage-Gated Proton Channels
  47. NOX5 in Human Spermatozoa: EXPRESSION, FUNCTION, AND REGULATION
  48. Bioluminescence of Scintillons Isolated from Noctiluca Miliaris is Inhibited by Divalent Metal Cations, Suggesting Proton Channel Involvement
  49. Does Aspartate112 Mutation Convert the Human Voltage Gated Proton Channel into a Hydroxide Channel?
  50. A Homology Modeling-Simulation Protocol for Construction and Assessment of Hv1 Models
  51. The Selectivity Filter of Voltage Gated Proton Channels is an Aspartate in the S1 Transmembrane Domain
  52. Recharging the Phylogenetic Analysis of Voltage Sensor Domains
  53. Aspartate 112 is the selectivity filter of the human voltage-gated proton channel
  54. Strong glucose dependence of electron current in human monocytes
  55. Voltage-gated proton channel in a dinoflagellate
  56. NIH revamp: US health care at fault
  57. A novel Voltage Gated Proton Channel in a Dinoflagellate
  58. pH regulation and beyond: unanticipated functions for the voltage-gated proton channel, HVCN1
  59. Oligomerization of the voltage gated proton channel
  60. Zinc inhibition of monomeric and dimeric proton channels suggests cooperative gating
  61. HVCN1 modulates BCR signal strength via regulation of BCR-dependent generation of reactive oxygen species
  62. Voltage-Gated Proton Channels Find Their Dream Job Managing the Respiratory Burst in Phagocytes
  63. Zinc Inhibition of Monomeric and Dimeric Proton Channels Suggests Cooperative Gating
  64. Simultaneous Measurement of Phagosome and Plasma Membrane Potentials in Human Neutrophils By Di-8-Anepps and SEER
  65. Identification of Thr29 as a Critical Phosphorylation Site That Activates the Human Proton Channel Hvcn1 in Leukocytes
  66. Voltage-gated proton channels maintain pH in human neutrophils during phagocytosis
  67. Dynamic Measurement Of The Membrane Potential Of Phagocytosing Neutrophils By Confocal Microscopy And SEER (Shifted Excitation And Emission Ratioing) Of di-8-ANEPPS
  68. Electron Current and Proton Current in Activated Human Monocytes - Strong Glucose Dependence of the Electron Current
  69. Identification of Phosphorylation Sites that Activate Voltage Gated Proton Channels in Leukocytes
  70. Unintended Consequences at NIH
  71. The intimate and mysterious relationship between proton channels and NADPH oxidase
  72. Voltage‐gated proton channels: what's next?
  73. A pH-stabilizing role of voltage-gated proton channels in IgE-mediated activation of human basophils
  74. Detailed comparison of expressed and native voltage-gated proton channel currents
  75. Voltage-gated proton channels
  76. Pharmacology of Voltage-Gated Proton Channels
  77. Electrophysiology of the phagocyte respiratory burst. Focus on "Large-conductance calcium-activated potassium channel activity is absent in human and mouse neutrophils and is not required for innate immunity"
  78. Sustained activation of proton channels and NADPH oxidase in human eosinophils and murine granulocytes requires PKC but not cPLA2α activity
  79. Analysis of Electrophysiological Properties and Responses of Neutrophils
  80. Charge compensation during the phagocyte respiratory burst
  81. The Antibacterial Activity of Human Neutrophils and Eosinophils Requires Proton Channels but Not BK Channels
  82. It's difficult to publish contradictory findings
  83. The pros and cons of open peer review
  84. The pH dependence of NADPH oxidase in human eosinophils
  85. Regulation and termination of NADPH oxidase activity
  86. Voltage-gated proton channels help regulate pHi in rat alveolar epithelium
  87. Corrigendum for vol. 83, p. 475
  88. Correction
  89. During the Respiratory Burst, Do Phagocytes Need Proton Channels or Potassium Channels, or Both?
  90. Interactions between NADPH oxidase and voltage‐gated proton channels: why electron transport depends on proton transport
  91. Temperature dependence of NADPH oxidase in human eosinophils
  92. Properties of Single Voltage-gated Proton Channels in Human Eosinophils Estimated by Noise Analysis and by Direct Measurement
  93. The voltage dependence of NADPH oxidase reveals why phagocytes need proton channels
  94. Voltage-Gated Proton Channels and Other Proton Transfer Pathways
  95. The gp91 phox Component of NADPH Oxidase Is Not a Voltage-gated Proton Channel
  96. Voltage‐activated proton currents in human lymphocytes
  97. Absence of Proton Channels in COS-7 Cells Expressing Functional NADPH Oxidase Components
  98. Interactions between NADPH oxidase-related proton and electron currents in human eosinophils
  99. Activation of NADPH oxidase-related proton and electron currents in human eosinophils by arachidonic acid
  100. The gp91phox Component of NADPH Oxidase Is Not the Voltage-gated Proton Channel in Phagocytes, but It Helps
  101. Voltage-gated proton channels in microglia
  102. Simultaneous activation of NADPH oxidase-related proton and electron currents in human neutrophils
  103. Common themes and problems of bioenergetics and voltage-gated proton channels
  104. Ph-Dependent Inhibition of Voltage-Gated H + Currents in Rat Alveolar Epithelial Cells by Zn 2+ and Other Divalent Cations
  105. An Electrophysiological Comparison of Voltage‐Gated Proton Channels, Other Ion Channels, and Other Proton Channels
  106. Temperature Dependence of Voltage-gated H + Currents in Human Neutrophils, Rat Alveolar Epithelial Cells, and Mammalian Phagocytes
  107. HERG-like K + Channels in Microglia
  108. Idiosyncratic Gating of HERG-like K + Channels in Microglia
  109. Deuterium Isotope Effects on Permeation and Gating of Proton Channels in Rat Alveolar Epithelium
  110. Type ‘l’ (Kv3.1) K+ Channels in Lymphocytes
  111. Effects of buffer concentration on voltage-gated H+ currents: does diffusion limit the conductance?
  112. I. Ion Channels in Human THP-1 Monocytes
  113. II. Voltage-activated Proton Currents in Human THP-1 Monocytes
  114. III. Ion Channel Expression in PMA-differentiated Human THP-1 Macrophages
  115. Voltage-activated proton currents in membrane patches of rat alveolar epithelial cells.
  116. Mechanism of K+ channel block by verapamil and related compounds in rat alveolar epithelial cells
  117. The voltage-activated hydrogen ion conductance in rat alveolar epithelial cells is determined by the pH gradient
  118. Voltage-activated hydrogen ion currents
  119. Na(+)-H+ antiport detected through hydrogen ion currents in rat alveolar epithelial cells and human neutrophils
  120. Potential, pH, and arachidonate gate hydrogen ion currents in human neutrophils
  121. Hydrogen ion currents in rat alveolar epithelial cells
  122. State-dependent inactivation of K+ currents in rat type II alveolar epithelial cells
  123. Potassium currents in rat type II alveolar epithelial cells.
  124. Two types of potassium channels in murine T lymphocytes
  125. Mitogen induction of ion channels in murine T lymphocytes
  126. Ion Channels in T Lymphocytes
  127. Altered K+ channel expression in abnormal T lymphocytes from mice with the lpr gene mutation
  128. Voltage-dependent ion channels in T-lymphocytes
  129. Ion channels in lymphocytes
  130. A voltage-gated potassium channel in human T lymphocytes.
  131. 307 K channel requirement for human T-cell mediated cytotoxicity
  132. Potassium current noise induced by barium ions in frog skeletal muscle.
  133. Inward rectifier current noise in frog skeletal muscle.
  134. Voltage-gated K+ channels in human T lymphocytes: a role in mitogenesis?
  135. Sodium currents in human skeletal muscle fibers
  136. Neural control of chloride conductance in rat extensor digitorum longus muscle