3D Imaging of Honeybee Swarm Assembly and Disassembly

Abstract When honeybee colonies reproduce by fission, several thousand bees and their queen depart the parental nest and temporarily form a dense cluster on a tree branch or other surface while searching for a new nest site. Once the new nest site is selected, the swarm disassembles and flies toward it. How honeybees transition rapidly between dispersed flight and an aggregated cluster remains an open question. Here, we introduce an experimental framework for studying honeybee swarm assembly and disassembly. The approach combines a method for inducing swarm departure and reassembly with a three-dimensional imaging pipeline to track individual flying bees together with the evolving morphology of the swarm during formation and dissolution. We report results from a representative swarming event. During assembly, swarms rapidly form low-density clusters before undergoing a slower contraction to a more dense steady state configuration. In contrast, disassembly occurs significantly faster than assembly and is characterized by strongly divergent flight, with bees departing the swarm in all directions. Overall, this method is able to demonstrate the coupled flight and morphological dynamics that underlie honeybee swarm assembly. Because the system is relatively low-cost and low-power, it is readily adaptable for three-dimensional imaging of other biological collectives in naturalistic environments.

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Publication Details

Journal
Integrative and Comparative Biology
Published
2026-08-03
DOI
https://doi.org/10.1093/icb/icag141
Primary Topic
Micro and Nano Robotics
Type
article
Field-Weighted Citation Impact
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article

3D Imaging of Honeybee Swarm Assembly and Disassembly

Danielle L. Chase, Orit Peleg, Nolan Bonnie, Jash Shah et al.
Integrative and Comparative Biology
Micro and Nano Robotics
article

3D Imaging of Honeybee Swarm Assembly and Disassembly

Danielle L. Chase, Orit Peleg, Nolan Bonnie, Jash Shah, Daniel Zhu, Henry Robertson, Gary Nave, Mahi Kathait, Sully Harrer
article en

Abstract

Abstract When honeybee colonies reproduce by fission, several thousand bees and their queen depart the parental nest and temporarily form a dense cluster on a tree branch or other surface while searching for a new nest site. Once the new nest site is selected, the swarm disassembles and flies toward it. How honeybees transition rapidly between dispersed flight and an aggregated cluster remains an open question. Here, we introduce an experimental framework for studying honeybee swarm assembly and disassembly. The approach combines a method for inducing swarm departure and reassembly with a three-dimensional imaging pipeline to track individual flying bees together with the evolving morphology of the swarm during formation and dissolution. We report results from a representative swarming event. During assembly, swarms rapidly form low-density clusters before undergoing a slower contraction to a more dense steady state configuration. In contrast, disassembly occurs significantly faster than assembly and is characterized by strongly divergent flight, with bees departing the swarm in all directions. Overall, this method is able to demonstrate the coupled flight and morphological dynamics that underlie honeybee swarm assembly. Because the system is relatively low-cost and low-power, it is readily adaptable for three-dimensional imaging of other biological collectives in naturalistic environments.

Integrative and Comparative Biology
Santa Fe Institute (US), Colorado School of Mines (US), University of Colorado Boulder (US), University of Colorado System (US)
Life in Land
Openalex Percentile: Top 12%
Micro and Nano Robotics
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