Honeybees express foodward flight vectors after a detour

The honeybee waggle dance communicates a flight vector to a food source, but it is challenging to isolate how precisely dancers and recruits can navigate using this vector information independently of environmental cues. We introduce an enforced-detour paradigm, using tunnels, to quantify the initial flight vectors expressed by experienced foragers and new recruits en route to the food. Upon exiting the detour, bees exhibit immediate corrective turns consistent with using path integration to fly towards the food's virtual location. While the populations' flight bearings after the turn are correctly centred on the food, the bearings of individuals are considerably scattered around it. We further show that recruits' bearings can be predicted by observing their mechanical sensory experiences during dance following. Our findings suggest that the communicated or recalled vector can be combined with path integration to take corrective shortcuts, but also that the vector provides an approximate location rather than pinpoint accuracy.

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Publication Details

Journal
Journal of Experimental Biology
Published
2025-11-15
DOI
https://doi.org/10.1242/jeb.251072
Citations
1
Primary Topic
Neurobiology and Insect Physiology Research
Type
article
Field-Weighted Citation Impact
0.91

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article

Honeybees express foodward flight vectors after a detour

Anna Hadjitofi, Barbara Webb, Tim Landgraf, Marie Messerich
1 citations
Journal of Experimental Biology
Neurobiology and Insect Physiology Research
0.91
article

Honeybees express foodward flight vectors after a detour

Anna Hadjitofi, Barbara Webb, Tim Landgraf, Marie Messerich
article en
1 citations

Abstract

The honeybee waggle dance communicates a flight vector to a food source, but it is challenging to isolate how precisely dancers and recruits can navigate using this vector information independently of environmental cues. We introduce an enforced-detour paradigm, using tunnels, to quantify the initial flight vectors expressed by experienced foragers and new recruits en route to the food. Upon exiting the detour, bees exhibit immediate corrective turns consistent with using path integration to fly towards the food's virtual location. While the populations' flight bearings after the turn are correctly centred on the food, the bearings of individuals are considerably scattered around it. We further show that recruits' bearings can be predicted by observing their mechanical sensory experiences during dance following. Our findings suggest that the communicated or recalled vector can be combined with path integration to take corrective shortcuts, but also that the vector provides an approximate location rather than pinpoint accuracy.

Journal of Experimental BiologyVol. 228(22)
Freie Universität Berlin (DE), University of Edinburgh (GB)
Eva Crane Trust, European Commission
Openalex Percentile: Top 20%
Neurobiology and Insect Physiology Research
0.91
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