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Response of olfactory receptor neurons in honeybees to odorants and their binary mixtures

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Abstract

Recordings were made from single sensilla placodea of the worker honeybee (Apis mellifera). The sensilla were stimulated with one of two sets of four compounds and their binary mixtures, at two dosage levels. Aromatic compounds comprised one set, and saturated n-octane derivatives comprised the other set. Correlation, principal component, and cluster analyses indicate that responses to binary mixtures are not linear combinations of responses to the component compounds. The first principal component indicated that neuronal units had either more excitatory or more inhibitory responses to all odorants than would be expected from a model where inhibitory and excitatory responses are randomly distributed among the neuronal units. When compared to the responses to the component odorants, synergistic responses to binary odors occurred more often than would be expected by chance. Clear inhibitory responses to binary odors were less prevalent. This study agrees with an earlier study employing aromatic odorants in that most of the aromatic odorants each had groups of receptor neurons that were relatively selective for it, and each odorant had a distinctly different number of receptor neurons selective for it. Among the octane derivatives, receptor neurons were selective for the level of oxidation of the functional group or its site of attachment, rather than specific compounds.

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  1. Department of Entomology, University of California, 94720, Berkeley, CA, USA

    R. P. Akers & W. M. Getz

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Akers, R.P., Getz, W.M. Response of olfactory receptor neurons in honeybees to odorants and their binary mixtures. J Comp Physiol A 173, 169–185 (1993). https://doi.org/10.1007/BF00192976

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