Alveolar subphase pH in the lungs of anesthetized rabbits.
about
Voltage-gated proton channels: molecular biology, physiology, and pathophysiology of the H(V) familyHypothesis: do voltage-gated H(+) channels in alveolar epithelial cells contribute to CO(2) elimination by the lung?Fluid and electrolyte transport by cultured human airway epitheliaResolution of pulmonary edema. Thirty years of progress.In vivo fluorescence imaging of bacteriogenic cyanide in the lungs of live mice infected with cystic fibrosis pathogens.Hydrogen ion currents in rat alveolar epithelial cells.Effects of carbonic anhydrase inhibition on ventilation-perfusion matching in the dog lungPulmonary alveolar type II epithelial cells and adult respiratory distress syndrome.Role of surfactant protein A (SP-A)/lipid interactions for SP-A functions in the lung.Voltage-gated proton channels.Nasal potential difference to detect Na+ channel dysfunction in acute lung injury.The pulmonary extracellular lining.Pulmonary disposition of antimicrobial agents: in vivo observations and clinical relevanceFunction of Proton Channels in Lung Epithelia.CFTR is required for maximal transepithelial liquid transport in pig alveolar epithelia.Transepithelial transport by pulmonary alveolar type II cells in primary culture.Site-specific dynamics of CD11b+ and CD103+ dendritic cell accumulations following ozone exposure.Pendrin, an anion exchanger on lung epithelial cells, could be a novel target for lipopolysaccharide-induced acute lung injury mice.Mechanisms and regulation of ion transport in adult mammalian alveolar type II pneumocytes.Endoscopic sensing of alveolar pH.Pharmacokinetics of macrolides in foals.State-dependent inhibition of TRPM2 channel by acidic pH.Identification of the amino acid residues in the extracellular domain of rat P2X(7) receptor involved in functional inhibition by acidic pH.Interactions of pulmonary surfactant protein A with phospholipid monolayers change with pH.Pulmonary surfactant protein A interacts with gel-like regions in monolayers of pulmonary surfactant lipid extract.Chloride-dependent secretion of alveolar wall liquid determined by optical-sectioning microscopyIn vivo pH mapping of injured lungs using hyperpolarized [1-13 C]pyruvate.Desferrioxamine inhibits protein tyrosine nitration: mechanisms and implications.Zeta potential and solubility to toxic ions as mechanisms of lung inflammation caused by metal/metal oxide nanoparticles.Polarity of alveolar epithelial cell acid-base permeability.Alveolar sphingolipids generated in response to TNF-alpha modifies surfactant biophysical activity.Resistance of the pulmonary epithelium to movement of buffer ions.Secretion of lung fluid by the developing fetal rat alveolar epithelium in organ culture.Chitosan enhances the in vitro surface activity of dilute lung surfactant preparations and resists albumin-induced inactivation.Developmental regulation of DUOX1 expression and function in human fetal lung epithelial cells.Recognition of Double-Stranded RNA and Regulation of Interferon Pathway by Toll-Like Receptor 10.ClpL is a chaperone without auxiliary factors.Acute responses to phosgene inhalation and selected corrective measures (including surfactant).In vitro performances of novel co-spray-dried azithromycin/rifampicin microparticles for Rhodococcus equi disease treatmentReversal of Meconium Inhibition of Pulmonary Surfactant by Ferric Chloride, Copper Chloride, and Acetic Acid
P2860
Q28681630-FF28C4C2-D5C9-42BB-BF22-08D32CC05E08Q33822557-A5374A9C-93F4-42C5-84D0-C4C2C10789D8Q33896141-CD20508A-9A7A-4211-84B6-24C284DFFFBFQ33901613-68C0E078-EE5B-40E0-92C4-CA2BE4EA65B1Q33959291-44AEA64B-941F-4218-9DB1-679898B3B2BBQ34088137-DB9B1901-204A-4114-95B1-89D5572B627FQ34170503-1993BFF6-C79E-4750-8BD7-9A3CC16613B9Q34192995-87F1929A-23A1-4109-BBBE-07A92EF37D50Q34326886-4FE03BAF-DFFE-4443-9A13-58046904580BQ34353309-B925F350-91E0-48C4-A6D9-D00FAA16B4FDQ34720193-365C8A58-EC40-4B23-9E7C-35631F06D79BQ35035035-0E375642-8AD2-47EC-87B2-ACE4F24DD5BEQ35447443-5A2DDCF2-0FC5-4376-A70F-FC184FCA6F2AQ35994631-F1DEB624-89BD-45C1-B073-C41EBA6BF66EQ36115249-952C40C4-B933-420E-BAF4-F9D81F38556BQ36314722-70898835-3E31-4FFB-A839-A4C485FDF8D4Q36494848-1E25C3D8-1B53-4E90-A7B7-1F5CFF285B64Q36841304-ED145743-DF5E-440C-9A49-BB1702C37A31Q37514876-0458AD76-F7D0-4D8C-8C4B-5EE32A776335Q37583083-A9E7BF16-6B4E-4004-A0AD-CD99C818A353Q38053461-06E3C98D-0314-4358-BCDD-C2A895BBBC7EQ39675607-CD83574C-B34C-4A84-9407-2C1DCF47A1C8Q39907151-C6383912-E05B-4784-9956-022A97DFBD1FQ40149387-824F585C-44D2-4684-BC6D-7B06F369775EQ40173908-85D9422C-2092-4F98-8437-432B45409206Q41860408-10D87F6A-EEC7-4ED1-911F-3DEF57234EF1Q42292503-DB9F2205-7E71-4379-A478-AA19C2112A9BQ42533818-3D7C27F1-B6C6-41AF-92F9-B76748C0FDB4Q42722450-A214BE19-F928-472E-9FCD-FEC3C5617AA8Q43906844-ED598E07-4458-441B-ABEC-C1B35EE0355AQ44187580-0E6CBFA1-6F71-4119-9D98-D010893F2795Q44506837-80CA7F91-D80D-4E14-908D-A7274EC09A24Q46180695-51B0D4F2-35D2-4955-BA9E-899181F15DE9Q51156720-FD671BE7-2916-4B9F-AA91-30F19A873B10Q51992777-E522834C-68C7-4875-8D5A-D128B94975C8Q52608532-2851E785-671C-40FF-B2FD-EAB7F6C06091Q53236221-6975F529-073F-40DD-93AD-188BA6A52FE0Q54443792-072159CA-22BC-4C17-A902-BA8C8B8FCB5AQ56557702-C9D79A05-BCBC-4AEE-9B17-03F2C276A824Q58143906-C0FC2A34-00D6-4EE0-8F89-AC22FE5D31F4
P2860
Alveolar subphase pH in the lungs of anesthetized rabbits.
description
1981 nî lūn-bûn
@nan
1981年の論文
@ja
1981年学术文章
@wuu
1981年学术文章
@zh-cn
1981年学术文章
@zh-hans
1981年学术文章
@zh-my
1981年学术文章
@zh-sg
1981年學術文章
@yue
1981年學術文章
@zh
1981年學術文章
@zh-hant
name
Alveolar subphase pH in the lungs of anesthetized rabbits.
@ast
Alveolar subphase pH in the lungs of anesthetized rabbits.
@en
type
label
Alveolar subphase pH in the lungs of anesthetized rabbits.
@ast
Alveolar subphase pH in the lungs of anesthetized rabbits.
@en
prefLabel
Alveolar subphase pH in the lungs of anesthetized rabbits.
@ast
Alveolar subphase pH in the lungs of anesthetized rabbits.
@en
P2093
P2860
P356
P1476
Alveolar subphase pH in the lungs of anesthetized rabbits.
@en
P2093
D W Nielson
J A Clements
P2860
P304
P356
10.1073/PNAS.78.11.7119
P407
P577
1981-11-01T00:00:00Z