Dance type and flight parameters are associated with different mushroom body neural activities in worker honeybee brains.

BACKGROUND: Honeybee foragers can transmit the information concerning the location of food sources to their nestmates using dance communication. We previously used a novel immediate early gene, termed kakusei, to demonstrate that the neural activity of a specific mushroom body (MB) neuron subtype is...

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Main Authors: Taketoshi Kiya, Takeo Kubo
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2011-01-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC3082565?pdf=render
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spelling doaj-00be5a22ebb54c1d8c942113de663c992020-11-25T02:42:35ZengPublic Library of Science (PLoS)PLoS ONE1932-62032011-01-0164e1930110.1371/journal.pone.0019301Dance type and flight parameters are associated with different mushroom body neural activities in worker honeybee brains.Taketoshi KiyaTakeo KuboBACKGROUND: Honeybee foragers can transmit the information concerning the location of food sources to their nestmates using dance communication. We previously used a novel immediate early gene, termed kakusei, to demonstrate that the neural activity of a specific mushroom body (MB) neuron subtype is preferentially enhanced in the forager brain. The sensory information related to this MB neuron activity, however, remained unclear. METHODOLOGY/PRINCIPAL FINDINGS: Here, we used kakusei to analyze the relationship between MB neuron activity and types of foraging behavior. The number of kakusei-positive MB neurons was higher in the round dancers that had flown a short distance than in the waggle dancers that had flown a long distance. Furthermore, the amount of kakusei transcript in the MBs inversely related to the waggle-phase duration of the waggle dance, which correlates with the flight distance. Using a narrow tunnel whose inside was vertically or axially lined, we manipulated the pattern of visual input, which is received by the foragers during flight, and analysed kakusei expression. The amount of kakusei transcript in the MBs was related to the foraging frequency but not to the tunnel pattern. In contrast, the number of kakusei-positive MB neurons was affected by the tunnel patterns, but not related to foraging frequency. CONCLUSIONS/SIGNIFICANCE: These results suggest that the MB neuron activity depends on the foraging frequency, whereas the number of active MB neurons is related to the pattern of visual input received during foraging flight. Our results suggest that the foraging frequency and visual experience during foraging are associated with different MB neural activities.http://europepmc.org/articles/PMC3082565?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Taketoshi Kiya
Takeo Kubo
spellingShingle Taketoshi Kiya
Takeo Kubo
Dance type and flight parameters are associated with different mushroom body neural activities in worker honeybee brains.
PLoS ONE
author_facet Taketoshi Kiya
Takeo Kubo
author_sort Taketoshi Kiya
title Dance type and flight parameters are associated with different mushroom body neural activities in worker honeybee brains.
title_short Dance type and flight parameters are associated with different mushroom body neural activities in worker honeybee brains.
title_full Dance type and flight parameters are associated with different mushroom body neural activities in worker honeybee brains.
title_fullStr Dance type and flight parameters are associated with different mushroom body neural activities in worker honeybee brains.
title_full_unstemmed Dance type and flight parameters are associated with different mushroom body neural activities in worker honeybee brains.
title_sort dance type and flight parameters are associated with different mushroom body neural activities in worker honeybee brains.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2011-01-01
description BACKGROUND: Honeybee foragers can transmit the information concerning the location of food sources to their nestmates using dance communication. We previously used a novel immediate early gene, termed kakusei, to demonstrate that the neural activity of a specific mushroom body (MB) neuron subtype is preferentially enhanced in the forager brain. The sensory information related to this MB neuron activity, however, remained unclear. METHODOLOGY/PRINCIPAL FINDINGS: Here, we used kakusei to analyze the relationship between MB neuron activity and types of foraging behavior. The number of kakusei-positive MB neurons was higher in the round dancers that had flown a short distance than in the waggle dancers that had flown a long distance. Furthermore, the amount of kakusei transcript in the MBs inversely related to the waggle-phase duration of the waggle dance, which correlates with the flight distance. Using a narrow tunnel whose inside was vertically or axially lined, we manipulated the pattern of visual input, which is received by the foragers during flight, and analysed kakusei expression. The amount of kakusei transcript in the MBs was related to the foraging frequency but not to the tunnel pattern. In contrast, the number of kakusei-positive MB neurons was affected by the tunnel patterns, but not related to foraging frequency. CONCLUSIONS/SIGNIFICANCE: These results suggest that the MB neuron activity depends on the foraging frequency, whereas the number of active MB neurons is related to the pattern of visual input received during foraging flight. Our results suggest that the foraging frequency and visual experience during foraging are associated with different MB neural activities.
url http://europepmc.org/articles/PMC3082565?pdf=render
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AT takeokubo dancetypeandflightparametersareassociatedwithdifferentmushroombodyneuralactivitiesinworkerhoneybeebrains
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