Olfactory responses to explosives associated odorants are enhanced by zinc nanoparticles

► Explosives-associated compounds induce measurable olfactory responses. ► Nanomolar suspensions of zinc nanoparticles enhance olfactory responses. ► Receptor/G-protein complex is the most likely site of nanoparticle action. Many odorants related to manufactured explosives have low volatilities and...

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Veröffentlicht in:Talanta (Oxford) 2012-01, Vol.88, p.730-733
Hauptverfasser: Moore, Christopher H., Pustovyy, Oleg, Dennis, John C., Moore, Timothy, Morrison, Edward E., Vodyanoy, Vitaly J.
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container_title Talanta (Oxford)
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creator Moore, Christopher H.
Pustovyy, Oleg
Dennis, John C.
Moore, Timothy
Morrison, Edward E.
Vodyanoy, Vitaly J.
description ► Explosives-associated compounds induce measurable olfactory responses. ► Nanomolar suspensions of zinc nanoparticles enhance olfactory responses. ► Receptor/G-protein complex is the most likely site of nanoparticle action. Many odorants related to manufactured explosives have low volatilities and are barely detectable as odors. We previously reported that zinc metal nanoparticles increased rat olfactory epithelium responses, measured by electroolfactogram (EOG), to several odorants. Here, we report that nanomolar concentrations of zinc metal nanoparticles strongly enhanced olfactory responses to the explosives related odorants cyclohexanone, methyl benzoate, acetophenone, and eugenol. Rat olfactory epithelium was exposed to metal nanoparticles and odorant responses were quantified by EOG. Zinc nanoparticles added to explosive odorants strongly increased the odorant response in a dose-dependent manner. The enzymatic breakdown of the second messenger cyclic adenosine monophosphate (cAMP) was prevented by adding the membrane-permeable phosphodiesterase inhibitor 3-isobutyl-1-methylxanthine (IBMX). This caused the olfactory cilia cAMP concentration to increase and generated EOG signals. The EOG responses generated by IBMX were not enhanced by zinc nanoparticles. Based on these observations, we conclude that zinc nanoparticles act at the receptor site and are involved in the initial events of olfaction. Our results suggest that zinc metal nanoparticles can be used to facilitate a canine detection of explosive odorants.
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Many odorants related to manufactured explosives have low volatilities and are barely detectable as odors. We previously reported that zinc metal nanoparticles increased rat olfactory epithelium responses, measured by electroolfactogram (EOG), to several odorants. Here, we report that nanomolar concentrations of zinc metal nanoparticles strongly enhanced olfactory responses to the explosives related odorants cyclohexanone, methyl benzoate, acetophenone, and eugenol. Rat olfactory epithelium was exposed to metal nanoparticles and odorant responses were quantified by EOG. Zinc nanoparticles added to explosive odorants strongly increased the odorant response in a dose-dependent manner. The enzymatic breakdown of the second messenger cyclic adenosine monophosphate (cAMP) was prevented by adding the membrane-permeable phosphodiesterase inhibitor 3-isobutyl-1-methylxanthine (IBMX). This caused the olfactory cilia cAMP concentration to increase and generated EOG signals. 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subjects 1-Methyl-3-isobutylxanthine - pharmacology
Acetophenones - pharmacology
Action Potentials - drug effects
Analytical chemistry
Animals
Benzoates - pharmacology
Chemistry
Cyclic AMP - metabolism
Cyclohexanones - pharmacology
Dogs
Dose-Response Relationship, Drug
Electroolfactogram
Eugenol - pharmacology
Exact sciences and technology
Explosive Agents - chemistry
Explosive odorants
Metal Nanoparticles
Odorants
Olfaction
Olfactory Mucosa - drug effects
Olfactory Mucosa - physiology
Patch-Clamp Techniques
Phosphodiesterase Inhibitors - pharmacology
Phosphoric Diester Hydrolases - metabolism
Rats
Smell - drug effects
Sniffer dogs
Zinc
title Olfactory responses to explosives associated odorants are enhanced by zinc nanoparticles
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