Dataset Information

The Olfactory Proboscis Extension Response in the Honey Bee: A Laboratory Exercise in Classical Conditioning.

ABSTRACT: The beginning neuroscience or psychology student does not often have the opportunity to experiment with classical conditioning. Here I present an inexpensive, easy-to-implement classical conditioning experiment taking advantage of the proboscis extension response to train honey bees to learn an appetitive olfactory association. If an apiary is available, this exercise can be implemented in large scale (training many animals simultaneously) with no specialized equipment so that students can train insects to recognize and respond to a specific odor within the time constraints of a single laboratory classroom session. The proportion of bees that successfully learn the association (40-50%) is considerably lower than in systems utilizing specialized equipment, but the learning is quick and robust enough to clearly demonstrate that learning has occurred. The exercise also lends itself to easy modification to allow alternative learning tasks to be attempted (e.g., multiple odorants, alternative modalities, etc.). Furthermore, this exercise proved to be highly engaging to students.

SUBMITTER: Van Nest BN

PROVIDER: S-EPMC6057764 | biostudies-literature | 2018

REPOSITORIES: biostudies-literature

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Publications

The Olfactory Proboscis Extension Response in the Honey Bee: A Laboratory Exercise in Classical Conditioning.

Van Nest Byron N BN

Journal of undergraduate neuroscience education : JUNE : a publication of FUN, Faculty for Undergraduate Neuroscience 20180615 2

The beginning neuroscience or psychology student does not often have the opportunity to experiment with classical conditioning. Here I present an inexpensive, easy-to-implement classical conditioning experiment taking advantage of the proboscis extension response to train honey bees to learn an appetitive olfactory association. If an apiary is available, this exercise can be implemented in large scale (training many animals simultaneously) with no specialized equipment so that students can train ...[more]

PMID: 30057499

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Project description:Learning and memory is not an attribute of higher animals. Even Drosophila larvae are able to form and recall an association of a given odor with an aversive or appetitive gustatory reinforcer. As the Drosophila larva has turned into a particularly simple model for studying odor processing, a detailed neuronal and functional map of the olfactory pathway is available up to the third order neurons in the mushroom bodies. At this point, a convergence of olfactory processing and gustatory reinforcement is suggested to underlie associative memory formation. The dopaminergic system was shown to be involved in mammalian and insect olfactory conditioning. To analyze the anatomy and function of the larval dopaminergic system, we first characterize dopaminergic neurons immunohistochemically up to the single cell level and subsequent test for the effects of distortions in the dopamine system upon aversive (odor-salt) as well as appetitive (odor-sugar) associative learning. Single cell analysis suggests that dopaminergic neurons do not directly connect gustatory input in the larval suboesophageal ganglion to olfactory information in the mushroom bodies. However, a number of dopaminergic neurons innervate different regions of the brain, including protocerebra, mushroom bodies and suboesophageal ganglion. We found that dopamine receptors are highly enriched in the mushroom bodies and that aversive and appetitive olfactory learning is strongly impaired in dopamine receptor mutants. Genetically interfering with dopaminergic signaling supports this finding, although our data do not exclude on naïve odor and sugar preferences of the larvae. Our data suggest that dopaminergic neurons provide input to different brain regions including protocerebra, suboesophageal ganglion and mushroom bodies by more than one route. We therefore propose that different types of dopaminergic neurons might be involved in different types of signaling necessary for aversive and appetitive olfactory memory formation respectively, or for the retrieval of these memory traces. Future studies of the dopaminergic system need to take into account such cellular dissociations in function in order to be meaningful.

Dataset Information

The Olfactory Proboscis Extension Response in the Honey Bee: A Laboratory Exercise in Classical Conditioning.

Publications

The Olfactory Proboscis Extension Response in the Honey Bee: A Laboratory Exercise in Classical Conditioning.

Similar Datasets

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