Control of Guinea Pig Intestinal Electrolyte Secretion by a δ -opiate Receptor

The effects of opioids on transepithelial potential difference and short-circuit current across guinea pig ileum stripped of one muscle layer were measured in vitro in Ussing chambers. Opioid peptides such as [DAla2, DLeu5]enkephalin and [DAla2, DMet5]enkephalin, which are primarily agonists at δ -o...

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Veröffentlicht in:Proceedings of the National Academy of Sciences - PNAS 1980-05, Vol.77 (5), p.2753-2756
Hauptverfasser: Kachur, James F., Miller, Richard J., Field, Michael
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Miller, Richard J.
Field, Michael
description The effects of opioids on transepithelial potential difference and short-circuit current across guinea pig ileum stripped of one muscle layer were measured in vitro in Ussing chambers. Opioid peptides such as [DAla2, DLeu5]enkephalin and [DAla2, DMet5]enkephalin, which are primarily agonists at δ -opiate receptors, were able to reduce transepithelial potential difference and short-circuit current at concentrations as low as 1 nM. The narcotic drug etorphine was also very potent in reducing short-circuit current, but fentanyl and morphine, which are primarily agonists at μ -opiate receptors, were almost completely ineffective. Ketocyclazocine was relatively ineffective, and β -endorphin had intermediate potency. All opioid effects could be reversed by the opiate antagonist naloxone. Somatostatin also reduced short-circuit current, but its effect was not reduced by naloxone. Chloride flux measurements indicated that the effect of etorphine on short-circuit current is associated with an enhancement of active Cl-absorption. The relative effects of opioids in this system suggest that their actions are being mediated by a specific δ -opiate receptor. In contrast, opioid effects on guinea pig intestinal smooth muscle seem to be primarily mediated by a μ -opiate receptor.
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Opioid peptides such as [DAla2, DLeu5]enkephalin and [DAla2, DMet5]enkephalin, which are primarily agonists at δ -opiate receptors, were able to reduce transepithelial potential difference and short-circuit current at concentrations as low as 1 nM. The narcotic drug etorphine was also very potent in reducing short-circuit current, but fentanyl and morphine, which are primarily agonists at μ -opiate receptors, were almost completely ineffective. Ketocyclazocine was relatively ineffective, and β -endorphin had intermediate potency. All opioid effects could be reversed by the opiate antagonist naloxone. Somatostatin also reduced short-circuit current, but its effect was not reduced by naloxone. Chloride flux measurements indicated that the effect of etorphine on short-circuit current is associated with an enhancement of active Cl-absorption. The relative effects of opioids in this system suggest that their actions are being mediated by a specific δ -opiate receptor. 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Opioid peptides such as [DAla2, DLeu5]enkephalin and [DAla2, DMet5]enkephalin, which are primarily agonists at δ -opiate receptors, were able to reduce transepithelial potential difference and short-circuit current at concentrations as low as 1 nM. The narcotic drug etorphine was also very potent in reducing short-circuit current, but fentanyl and morphine, which are primarily agonists at μ -opiate receptors, were almost completely ineffective. Ketocyclazocine was relatively ineffective, and β -endorphin had intermediate potency. All opioid effects could be reversed by the opiate antagonist naloxone. Somatostatin also reduced short-circuit current, but its effect was not reduced by naloxone. Chloride flux measurements indicated that the effect of etorphine on short-circuit current is associated with an enhancement of active Cl-absorption. The relative effects of opioids in this system suggest that their actions are being mediated by a specific δ -opiate receptor. 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Opioid peptides such as [DAla2, DLeu5]enkephalin and [DAla2, DMet5]enkephalin, which are primarily agonists at δ -opiate receptors, were able to reduce transepithelial potential difference and short-circuit current at concentrations as low as 1 nM. The narcotic drug etorphine was also very potent in reducing short-circuit current, but fentanyl and morphine, which are primarily agonists at μ -opiate receptors, were almost completely ineffective. Ketocyclazocine was relatively ineffective, and β -endorphin had intermediate potency. All opioid effects could be reversed by the opiate antagonist naloxone. Somatostatin also reduced short-circuit current, but its effect was not reduced by naloxone. Chloride flux measurements indicated that the effect of etorphine on short-circuit current is associated with an enhancement of active Cl-absorption. The relative effects of opioids in this system suggest that their actions are being mediated by a specific δ -opiate receptor. 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subjects Agonists
Animals
Chlorides - metabolism
Electric Conductivity
Endorphins - antagonists & inhibitors
Endorphins - pharmacology
Etorphine - pharmacology
Female
Fentanyl - pharmacology
Guinea Pigs
Ileum
Intestinal Mucosa - metabolism
Membrane Potentials - drug effects
Morphine
Morphine - pharmacology
Mucosa
Muscle, Smooth - drug effects
Naloxone - pharmacology
Opiates
Opioid analgesics
Opioid peptides
Receptors
Receptors, Opioid - physiology
Secretion
title Control of Guinea Pig Intestinal Electrolyte Secretion by a δ -opiate Receptor
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