Activation of mouse bronchopulmonary C‐fibres by serotonin and allergen‐ovalbumin challenge

Key points •  Mast cell‐derived serotonin is a principal mediator of allergic reactions in rodents. Serotonin can also be released from platelets during various pathological conditions. •  Vagal C‐fibres innervating the respiratory tract can be subdivided into nodose (placodal) C‐fibres or jugular (...

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Veröffentlicht in:The Journal of physiology 2012-11, Vol.590 (21), p.5449-5459
Hauptverfasser: Potenzieri, Carl, Meeker, Sonya, Undem, Bradley J.
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Undem, Bradley J.
description Key points •  Mast cell‐derived serotonin is a principal mediator of allergic reactions in rodents. Serotonin can also be released from platelets during various pathological conditions. •  Vagal C‐fibres innervating the respiratory tract can be subdivided into nodose (placodal) C‐fibres or jugular (neural crest) C‐fibres). Activation of vagal placodal and/or neural crest vagal C‐fibres probably contributes to the dyspnoea, cough and reflex parasympathetic drive commonly associated with serotonin. •  Serotonin used different receptor subtypes to evoke strong action potential discharge in placodal (5‐HT3 receptors) versus neural crest (non‐5‐HT3 receptors)‐derived vagal C‐fibres in the mouse lung. •  Mast cell derived serotonin may activate neural crest C‐fibres, but did not stimulate placodal C‐fibres. •  The effect of extracellular serotonin on vagal afferent activation therefore depends on its cellular source and the C‐fibre phenotype.   The effect of serotonin on capsaicin‐sensitive vagal C‐fibre afferent nerves was evaluated in an ex vivo vagally innervated mouse lung preparation. Action potentials arising from receptive fields in the lungs were recorded with an extracellular electrode positioned in the nodose/jugular ganglion. Among the 62 capsaicin‐sensitive C‐fibres studied (conduction velocity ∼0.5 m s−1), 71% were of the nodose phenotype and 29% of the jugular phenotype. The nodose C‐fibres responded strongly to serotonin and this effect was blocked with the 5‐HT3‐receptor antagonist ondansetron. Using single cell RT‐PCR, we noted that the vast majority of nodose neurons retrogradely labelled from the lung, expressed 5‐HT3 receptor mRNA. The jugular C‐fibres also responded strongly to serotonin with action potential discharge, but this effect was not inhibited by ondansetron. Lung‐specific jugular neurons did not express 5‐HT3 receptor mRNA but frequently expressed 5‐HT1 or 5‐HT4 receptor mRNA. Mast cells are the major source of serotonin in healthy murine airways. Ovalbumin‐induced mast cell activation in actively sensitized lungs caused action potential discharge in jugular but not nodose C‐fibres. The data show that vagal C‐fibres in the respiratory tract of the mouse are strongly activated by serotonin. Depending on the C‐fibre subtype both 5‐HT3 and non‐5‐HT3 mechanisms are involved.
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Serotonin can also be released from platelets during various pathological conditions. •  Vagal C‐fibres innervating the respiratory tract can be subdivided into nodose (placodal) C‐fibres or jugular (neural crest) C‐fibres). Activation of vagal placodal and/or neural crest vagal C‐fibres probably contributes to the dyspnoea, cough and reflex parasympathetic drive commonly associated with serotonin. •  Serotonin used different receptor subtypes to evoke strong action potential discharge in placodal (5‐HT3 receptors) versus neural crest (non‐5‐HT3 receptors)‐derived vagal C‐fibres in the mouse lung. •  Mast cell derived serotonin may activate neural crest C‐fibres, but did not stimulate placodal C‐fibres. •  The effect of extracellular serotonin on vagal afferent activation therefore depends on its cellular source and the C‐fibre phenotype.   The effect of serotonin on capsaicin‐sensitive vagal C‐fibre afferent nerves was evaluated in an ex vivo vagally innervated mouse lung preparation. Action potentials arising from receptive fields in the lungs were recorded with an extracellular electrode positioned in the nodose/jugular ganglion. Among the 62 capsaicin‐sensitive C‐fibres studied (conduction velocity ∼0.5 m s−1), 71% were of the nodose phenotype and 29% of the jugular phenotype. The nodose C‐fibres responded strongly to serotonin and this effect was blocked with the 5‐HT3‐receptor antagonist ondansetron. Using single cell RT‐PCR, we noted that the vast majority of nodose neurons retrogradely labelled from the lung, expressed 5‐HT3 receptor mRNA. The jugular C‐fibres also responded strongly to serotonin with action potential discharge, but this effect was not inhibited by ondansetron. Lung‐specific jugular neurons did not express 5‐HT3 receptor mRNA but frequently expressed 5‐HT1 or 5‐HT4 receptor mRNA. Mast cells are the major source of serotonin in healthy murine airways. Ovalbumin‐induced mast cell activation in actively sensitized lungs caused action potential discharge in jugular but not nodose C‐fibres. The data show that vagal C‐fibres in the respiratory tract of the mouse are strongly activated by serotonin. 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Serotonin can also be released from platelets during various pathological conditions. •  Vagal C‐fibres innervating the respiratory tract can be subdivided into nodose (placodal) C‐fibres or jugular (neural crest) C‐fibres). Activation of vagal placodal and/or neural crest vagal C‐fibres probably contributes to the dyspnoea, cough and reflex parasympathetic drive commonly associated with serotonin. •  Serotonin used different receptor subtypes to evoke strong action potential discharge in placodal (5‐HT3 receptors) versus neural crest (non‐5‐HT3 receptors)‐derived vagal C‐fibres in the mouse lung. •  Mast cell derived serotonin may activate neural crest C‐fibres, but did not stimulate placodal C‐fibres. •  The effect of extracellular serotonin on vagal afferent activation therefore depends on its cellular source and the C‐fibre phenotype.   The effect of serotonin on capsaicin‐sensitive vagal C‐fibre afferent nerves was evaluated in an ex vivo vagally innervated mouse lung preparation. Action potentials arising from receptive fields in the lungs were recorded with an extracellular electrode positioned in the nodose/jugular ganglion. Among the 62 capsaicin‐sensitive C‐fibres studied (conduction velocity ∼0.5 m s−1), 71% were of the nodose phenotype and 29% of the jugular phenotype. The nodose C‐fibres responded strongly to serotonin and this effect was blocked with the 5‐HT3‐receptor antagonist ondansetron. Using single cell RT‐PCR, we noted that the vast majority of nodose neurons retrogradely labelled from the lung, expressed 5‐HT3 receptor mRNA. The jugular C‐fibres also responded strongly to serotonin with action potential discharge, but this effect was not inhibited by ondansetron. Lung‐specific jugular neurons did not express 5‐HT3 receptor mRNA but frequently expressed 5‐HT1 or 5‐HT4 receptor mRNA. Mast cells are the major source of serotonin in healthy murine airways. Ovalbumin‐induced mast cell activation in actively sensitized lungs caused action potential discharge in jugular but not nodose C‐fibres. The data show that vagal C‐fibres in the respiratory tract of the mouse are strongly activated by serotonin. 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Serotonin can also be released from platelets during various pathological conditions. •  Vagal C‐fibres innervating the respiratory tract can be subdivided into nodose (placodal) C‐fibres or jugular (neural crest) C‐fibres). Activation of vagal placodal and/or neural crest vagal C‐fibres probably contributes to the dyspnoea, cough and reflex parasympathetic drive commonly associated with serotonin. •  Serotonin used different receptor subtypes to evoke strong action potential discharge in placodal (5‐HT3 receptors) versus neural crest (non‐5‐HT3 receptors)‐derived vagal C‐fibres in the mouse lung. •  Mast cell derived serotonin may activate neural crest C‐fibres, but did not stimulate placodal C‐fibres. •  The effect of extracellular serotonin on vagal afferent activation therefore depends on its cellular source and the C‐fibre phenotype.   The effect of serotonin on capsaicin‐sensitive vagal C‐fibre afferent nerves was evaluated in an ex vivo vagally innervated mouse lung preparation. Action potentials arising from receptive fields in the lungs were recorded with an extracellular electrode positioned in the nodose/jugular ganglion. Among the 62 capsaicin‐sensitive C‐fibres studied (conduction velocity ∼0.5 m s−1), 71% were of the nodose phenotype and 29% of the jugular phenotype. The nodose C‐fibres responded strongly to serotonin and this effect was blocked with the 5‐HT3‐receptor antagonist ondansetron. Using single cell RT‐PCR, we noted that the vast majority of nodose neurons retrogradely labelled from the lung, expressed 5‐HT3 receptor mRNA. The jugular C‐fibres also responded strongly to serotonin with action potential discharge, but this effect was not inhibited by ondansetron. Lung‐specific jugular neurons did not express 5‐HT3 receptor mRNA but frequently expressed 5‐HT1 or 5‐HT4 receptor mRNA. Mast cells are the major source of serotonin in healthy murine airways. Ovalbumin‐induced mast cell activation in actively sensitized lungs caused action potential discharge in jugular but not nodose C‐fibres. The data show that vagal C‐fibres in the respiratory tract of the mouse are strongly activated by serotonin. Depending on the C‐fibre subtype both 5‐HT3 and non‐5‐HT3 mechanisms are involved.</abstract><cop>Oxford, UK</cop><pub>Blackwell Publishing Ltd</pub><pmid>22907059</pmid><doi>10.1113/jphysiol.2012.237115</doi><tpages>11</tpages><oa>free_for_read</oa></addata></record>
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source Wiley-Blackwell Journals; MEDLINE; Wiley Free Archive; IngentaConnect Open Access Journals; PubMed Central; EZB Electronic Journals Library
subjects Action potential
Allergens - pharmacology
Animals
Cells, Cultured
Genotype & phenotype
Histamine Release
Lung - drug effects
Lung - innervation
Lung - physiology
Lungs
Male
Mice
Mice, Inbred C57BL
Mice, Transgenic
Nerve Fibers, Unmyelinated - drug effects
Nerve Fibers, Unmyelinated - physiology
Neurons
Ovalbumin - pharmacology
Receptors, Serotonin - physiology
Respiratory
Rodents
Serotonin
Serotonin - pharmacology
Vagus Nerve - physiology
title Activation of mouse bronchopulmonary C‐fibres by serotonin and allergen‐ovalbumin challenge
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