Speeding up social waves. Propagation mechanisms of shimmering in giant honeybees.

Shimmering is a defence behaviour in giant honeybees (Apis dorsata), whereby bees on the nest surface flip their abdomen upwards in a Mexican wave-like process. However, information spreads faster than can be ascribed to bucket bridging, which is the transfer of information from one individual to an...

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Autores principales: Gerald Kastberger, Thomas Hoetzl, Michael Maurer, Ilse Kranner, Sara Weiss, Frank Weihmann
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Publicado: Public Library of Science (PLoS) 2014
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spelling oai:doaj.org-article:eb9f5399cc5740bebbb66aee53f8a7542021-11-18T08:35:43ZSpeeding up social waves. Propagation mechanisms of shimmering in giant honeybees.1932-620310.1371/journal.pone.0086315https://doaj.org/article/eb9f5399cc5740bebbb66aee53f8a7542014-01-01T00:00:00Zhttps://www.ncbi.nlm.nih.gov/pmc/articles/pmid/24475104/pdf/?tool=EBIhttps://doaj.org/toc/1932-6203Shimmering is a defence behaviour in giant honeybees (Apis dorsata), whereby bees on the nest surface flip their abdomen upwards in a Mexican wave-like process. However, information spreads faster than can be ascribed to bucket bridging, which is the transfer of information from one individual to an adjacent one. We identified a saltatoric process that speeds up shimmering by the generation of daughter waves, which subsequently merge with the parental wave, producing a new wave front. Motion patterns of individual "focus" bees (n = 10,894) and their shimmering-active neighbours (n = 459,558) were measured with high-resolution video recording and stereoscopic imaging. Three types of shimmering-active surface bees were distinguished by their communication status, termed "agents": "Bucket-bridging" agents comprised 74.98% of all agents, affected 88.17% of their neighbours, and transferred information at a velocity of v = 0.317±0.015 m/s. "Chain-tail" agents comprised 9.20% of the agents, were activated by 6.35% of their neighbours, but did not motivate others to participate in the wave. "Generator agents" comprised 15.82% of agents, showed abdominal flipping before the arrival of the main wave front, and initiated daughter waves. They affected 6.75% of their neighbourhood and speeded up the compound shimmering process compared to bucket bridging alone by 41.5% to v = 0.514±0.019 m/s. The main direction of shimmering was reinforced by 35.82% of agents, whereas the contribution of the complementing agents was fuzzy. We discuss that the saltatoric process could enable the bees to instantly recruit larger cohorts to participate in shimmering and to respond rapidly to changes in flight direction of preying wasps. A third, non-exclusive explanation is that at a distance of up to three metres from the nest the acceleration of shimmering could notably contribute to the startle response in mammals and birds.Gerald KastbergerThomas HoetzlMichael MaurerIlse KrannerSara WeissFrank WeihmannPublic Library of Science (PLoS)articleMedicineRScienceQENPLoS ONE, Vol 9, Iss 1, p e86315 (2014)
institution DOAJ
collection DOAJ
language EN
topic Medicine
R
Science
Q
spellingShingle Medicine
R
Science
Q
Gerald Kastberger
Thomas Hoetzl
Michael Maurer
Ilse Kranner
Sara Weiss
Frank Weihmann
Speeding up social waves. Propagation mechanisms of shimmering in giant honeybees.
description Shimmering is a defence behaviour in giant honeybees (Apis dorsata), whereby bees on the nest surface flip their abdomen upwards in a Mexican wave-like process. However, information spreads faster than can be ascribed to bucket bridging, which is the transfer of information from one individual to an adjacent one. We identified a saltatoric process that speeds up shimmering by the generation of daughter waves, which subsequently merge with the parental wave, producing a new wave front. Motion patterns of individual "focus" bees (n = 10,894) and their shimmering-active neighbours (n = 459,558) were measured with high-resolution video recording and stereoscopic imaging. Three types of shimmering-active surface bees were distinguished by their communication status, termed "agents": "Bucket-bridging" agents comprised 74.98% of all agents, affected 88.17% of their neighbours, and transferred information at a velocity of v = 0.317±0.015 m/s. "Chain-tail" agents comprised 9.20% of the agents, were activated by 6.35% of their neighbours, but did not motivate others to participate in the wave. "Generator agents" comprised 15.82% of agents, showed abdominal flipping before the arrival of the main wave front, and initiated daughter waves. They affected 6.75% of their neighbourhood and speeded up the compound shimmering process compared to bucket bridging alone by 41.5% to v = 0.514±0.019 m/s. The main direction of shimmering was reinforced by 35.82% of agents, whereas the contribution of the complementing agents was fuzzy. We discuss that the saltatoric process could enable the bees to instantly recruit larger cohorts to participate in shimmering and to respond rapidly to changes in flight direction of preying wasps. A third, non-exclusive explanation is that at a distance of up to three metres from the nest the acceleration of shimmering could notably contribute to the startle response in mammals and birds.
format article
author Gerald Kastberger
Thomas Hoetzl
Michael Maurer
Ilse Kranner
Sara Weiss
Frank Weihmann
author_facet Gerald Kastberger
Thomas Hoetzl
Michael Maurer
Ilse Kranner
Sara Weiss
Frank Weihmann
author_sort Gerald Kastberger
title Speeding up social waves. Propagation mechanisms of shimmering in giant honeybees.
title_short Speeding up social waves. Propagation mechanisms of shimmering in giant honeybees.
title_full Speeding up social waves. Propagation mechanisms of shimmering in giant honeybees.
title_fullStr Speeding up social waves. Propagation mechanisms of shimmering in giant honeybees.
title_full_unstemmed Speeding up social waves. Propagation mechanisms of shimmering in giant honeybees.
title_sort speeding up social waves. propagation mechanisms of shimmering in giant honeybees.
publisher Public Library of Science (PLoS)
publishDate 2014
url https://doaj.org/article/eb9f5399cc5740bebbb66aee53f8a754
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