Na+-K+-2Cl- cotransporters and Cl- channels regulate citric acid cough in guinea pigs

Howard Florey Institute, University of Melbourne, Parkville, Victoria, Australia Submitted 20 January 2006 ; accepted in final form 6 April 2006 Loop diuretics have been shown to inhibit cough and other airway defensive reflexes via poorly defined mechanisms. We test the hypothesis that the furosemi...

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Published inJournal of applied physiology (1985) Vol. 101; no. 2; pp. 635 - 643
Main Authors Mazzone, Stuart B, McGovern, Alice E
Format Journal Article
LanguageEnglish
Published United States Am Physiological Soc 01.08.2006
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ISSN8750-7587
1522-1601
DOI10.1152/japplphysiol.00106.2006

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Abstract Howard Florey Institute, University of Melbourne, Parkville, Victoria, Australia Submitted 20 January 2006 ; accepted in final form 6 April 2006 Loop diuretics have been shown to inhibit cough and other airway defensive reflexes via poorly defined mechanisms. We test the hypothesis that the furosemide-sensitive Na + -K + -2Cl – cotransporter (NKCC1) is expressed by sensory nerve fibers innervating the airways where it plays an important role in regulating sensory neural activity. NKCC1 immunoreactivity was present on the cell membranes of most nodose and jugular ganglia neurons projecting to the trachea, and it was present on the peripheral terminals of putative mechanosensory nerve fibers in the airways. In urethane-anesthetized, spontaneously breathing guinea pigs, bolus application of citric acid (1 mM to 2 M) to an isolated and perfused segment of the tracheal mucosa evoked coughing and respiratory slowing. Removal of Cl – from the tracheal perfusate evoked spontaneous coughing and significantly potentiated cough and respiratory slowing reflexes evoked by citric acid. The NKCC1 inhibitor furosemide (10–100 µM) significantly reduced both the number of coughs evoked by citric acid and the degree of acid-evoked respiratory slowing ( P < 0.05). Localized tracheal pretreatment with the Cl – channel inhibitors DIDS or niflumic acid (100 µM) also significantly reduced cough, whereas the GABA A receptor agonist muscimol potentiated acid-evoked responses. These data suggest that vagal sensory neurons may accumulate Cl – due to the expression of the furosemide-sensitive Cl – transporter, NKCC1. Efflux of intracellular Cl – , in part through calcium-activated Cl – channels, may play an important role in regulating airway afferent neuron activity. airway; cough receptor; furosemide; sensory nerves; apnea Address for reprint requests and other correspondence: S. B. Mazzone, Howard Florey Institute, University of Melbourne, Parkville 3010, Victoria, Australia (e-mail: s.mazzone{at}hfi.unimelb.edu.au )
AbstractList Loop diuretics have been shown to inhibit cough and other airway defensive reflexes via poorly defined mechanisms. We test the hypothesis that the furosemide-sensitive Na+-K+-2Cl- cotransporter (NKCC1) is expressed by sensory nerve fibers innervating the airways where it plays an important role in regulating sensory neural activity. NKCC1 immunoreactivity was present on the cell membranes of most nodose and jugular ganglia neurons projecting to the trachea, and it was present on the peripheral terminals of putative mechanosensory nerve fibers in the airways. In urethane-anesthetized, spontaneously breathing guinea pigs, bolus application of citric acid (1 mM to 2 M) to an isolated and perfused segment of the tracheal mucosa evoked coughing and respiratory slowing. Removal of Cl- from the tracheal perfusate evoked spontaneous coughing and significantly potentiated cough and respiratory slowing reflexes evoked by citric acid. The NKCC1 inhibitor furosemide (10-100 microM) significantly reduced both the number of coughs evoked by citric acid and the degree of acid-evoked respiratory slowing (P < 0.05). Localized tracheal pretreatment with the Cl- channel inhibitors DIDS or niflumic acid (100 microM) also significantly reduced cough, whereas the GABAA receptor agonist muscimol potentiated acid-evoked responses. These data suggest that vagal sensory neurons may accumulate Cl- due to the expression of the furosemide-sensitive Cl- transporter, NKCC1. Efflux of intracellular Cl-, in part through calcium-activated Cl- channels, may play an important role in regulating airway afferent neuron activity.Loop diuretics have been shown to inhibit cough and other airway defensive reflexes via poorly defined mechanisms. We test the hypothesis that the furosemide-sensitive Na+-K+-2Cl- cotransporter (NKCC1) is expressed by sensory nerve fibers innervating the airways where it plays an important role in regulating sensory neural activity. NKCC1 immunoreactivity was present on the cell membranes of most nodose and jugular ganglia neurons projecting to the trachea, and it was present on the peripheral terminals of putative mechanosensory nerve fibers in the airways. In urethane-anesthetized, spontaneously breathing guinea pigs, bolus application of citric acid (1 mM to 2 M) to an isolated and perfused segment of the tracheal mucosa evoked coughing and respiratory slowing. Removal of Cl- from the tracheal perfusate evoked spontaneous coughing and significantly potentiated cough and respiratory slowing reflexes evoked by citric acid. The NKCC1 inhibitor furosemide (10-100 microM) significantly reduced both the number of coughs evoked by citric acid and the degree of acid-evoked respiratory slowing (P < 0.05). Localized tracheal pretreatment with the Cl- channel inhibitors DIDS or niflumic acid (100 microM) also significantly reduced cough, whereas the GABAA receptor agonist muscimol potentiated acid-evoked responses. These data suggest that vagal sensory neurons may accumulate Cl- due to the expression of the furosemide-sensitive Cl- transporter, NKCC1. Efflux of intracellular Cl-, in part through calcium-activated Cl- channels, may play an important role in regulating airway afferent neuron activity.
Loop diuretics have been shown to inhibit cough and other airway defensive reflexes via poorly defined mechanisms. We test the hypothesis that the furosemide-sensitive Na + -K + -2Cl − cotransporter (NKCC1) is expressed by sensory nerve fibers innervating the airways where it plays an important role in regulating sensory neural activity. NKCC1 immunoreactivity was present on the cell membranes of most nodose and jugular ganglia neurons projecting to the trachea, and it was present on the peripheral terminals of putative mechanosensory nerve fibers in the airways. In urethane-anesthetized, spontaneously breathing guinea pigs, bolus application of citric acid (1 mM to 2 M) to an isolated and perfused segment of the tracheal mucosa evoked coughing and respiratory slowing. Removal of Cl − from the tracheal perfusate evoked spontaneous coughing and significantly potentiated cough and respiratory slowing reflexes evoked by citric acid. The NKCC1 inhibitor furosemide (10–100 μM) significantly reduced both the number of coughs evoked by citric acid and the degree of acid-evoked respiratory slowing ( P < 0.05). Localized tracheal pretreatment with the Cl − channel inhibitors DIDS or niflumic acid (100 μM) also significantly reduced cough, whereas the GABA A receptor agonist muscimol potentiated acid-evoked responses. These data suggest that vagal sensory neurons may accumulate Cl − due to the expression of the furosemide-sensitive Cl − transporter, NKCC1. Efflux of intracellular Cl − , in part through calcium-activated Cl − channels, may play an important role in regulating airway afferent neuron activity.
Loop diuretics have been shown to inhibit cough and other airway defensive reflexes via poorly defined mechanisms. We test the hypothesis that the furosemide-sensitive Na+-K+-2Cl- cotransporter (NKCC1) is expressed by sensory nerve fibers innervating the airways where it plays an important role in regulating sensory neural activity. NKCC1 immunoreactivity was present on the cell membranes of most nodose and jugular ganglia neurons projecting to the trachea, and it was present on the peripheral terminals of putative mechanosensory nerve fibers in the airways. In urethane-anesthetized, spontaneously breathing guinea pigs, bolus application of citric acid (1 mM to 2 M) to an isolated and perfused segment of the tracheal mucosa evoked coughing and respiratory slowing. Removal of Cl- from the tracheal perfusate evoked spontaneous coughing and significantly potentiated cough and respiratory slowing reflexes evoked by citric acid. The NKCC1 inhibitor furosemide (10-100 microM) significantly reduced both the number of coughs evoked by citric acid and the degree of acid-evoked respiratory slowing (P < 0.05). Localized tracheal pretreatment with the Cl- channel inhibitors DIDS or niflumic acid (100 microM) also significantly reduced cough, whereas the GABAA receptor agonist muscimol potentiated acid-evoked responses. These data suggest that vagal sensory neurons may accumulate Cl- due to the expression of the furosemide-sensitive Cl- transporter, NKCC1. Efflux of intracellular Cl-, in part through calcium-activated Cl- channels, may play an important role in regulating airway afferent neuron activity.
Howard Florey Institute, University of Melbourne, Parkville, Victoria, Australia Submitted 20 January 2006 ; accepted in final form 6 April 2006 Loop diuretics have been shown to inhibit cough and other airway defensive reflexes via poorly defined mechanisms. We test the hypothesis that the furosemide-sensitive Na + -K + -2Cl – cotransporter (NKCC1) is expressed by sensory nerve fibers innervating the airways where it plays an important role in regulating sensory neural activity. NKCC1 immunoreactivity was present on the cell membranes of most nodose and jugular ganglia neurons projecting to the trachea, and it was present on the peripheral terminals of putative mechanosensory nerve fibers in the airways. In urethane-anesthetized, spontaneously breathing guinea pigs, bolus application of citric acid (1 mM to 2 M) to an isolated and perfused segment of the tracheal mucosa evoked coughing and respiratory slowing. Removal of Cl – from the tracheal perfusate evoked spontaneous coughing and significantly potentiated cough and respiratory slowing reflexes evoked by citric acid. The NKCC1 inhibitor furosemide (10–100 µM) significantly reduced both the number of coughs evoked by citric acid and the degree of acid-evoked respiratory slowing ( P < 0.05). Localized tracheal pretreatment with the Cl – channel inhibitors DIDS or niflumic acid (100 µM) also significantly reduced cough, whereas the GABA A receptor agonist muscimol potentiated acid-evoked responses. These data suggest that vagal sensory neurons may accumulate Cl – due to the expression of the furosemide-sensitive Cl – transporter, NKCC1. Efflux of intracellular Cl – , in part through calcium-activated Cl – channels, may play an important role in regulating airway afferent neuron activity. airway; cough receptor; furosemide; sensory nerves; apnea Address for reprint requests and other correspondence: S. B. Mazzone, Howard Florey Institute, University of Melbourne, Parkville 3010, Victoria, Australia (e-mail: s.mazzone{at}hfi.unimelb.edu.au )
Author McGovern, Alice E
Mazzone, Stuart B
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Snippet Howard Florey Institute, University of Melbourne, Parkville, Victoria, Australia Submitted 20 January 2006 ; accepted in final form 6 April 2006 Loop diuretics...
Loop diuretics have been shown to inhibit cough and other airway defensive reflexes via poorly defined mechanisms. We test the hypothesis that the...
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SubjectTerms 4,4'-Diisothiocyanostilbene-2,2'-Disulfonic Acid - pharmacology
Animals
Chloride Channels - antagonists & inhibitors
Chloride Channels - physiology
Chlorides - pharmacology
Citric Acid
Cough - chemically induced
Cough - physiopathology
Furosemide - pharmacology
GABA-A Receptor Agonists
Guinea Pigs - physiology
Immunohistochemistry
Male
Muscimol - pharmacology
Neurons, Afferent - chemistry
Neurons, Afferent - drug effects
Neurons, Afferent - physiology
Niflumic Acid - pharmacology
Reflex - physiology
Respiration - drug effects
Respiratory Mechanics - physiology
Respiratory Physiological Phenomena
Respiratory System - innervation
Sodium Potassium Chloride Symporter Inhibitors - pharmacology
Sodium-Potassium-Chloride Symporters - analysis
Sodium-Potassium-Chloride Symporters - physiology
Title Na+-K+-2Cl- cotransporters and Cl- channels regulate citric acid cough in guinea pigs
URI http://jap.physiology.org/cgi/content/abstract/101/2/635
https://www.ncbi.nlm.nih.gov/pubmed/16627683
https://www.proquest.com/docview/68652143
Volume 101
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