Dynamics, statistics, and task allocation of foraging ants
Ant foraging is one of the most fascinating examples of cooperative behavior observed in nature. It is well studied from an entomology viewpoint, but there is currently a lack of mathematical synthesis of this phenomenon. We address this by constructing an ant foraging model that incorporates simple...
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sg-ntu-dr.10356-1739052024-03-11T15:35:53Z Dynamics, statistics, and task allocation of foraging ants Zhang, Nuoya Yong, Ee Hou School of Physical and Mathematical Sciences Physics Ant colonies Behavioral rules Ant foraging is one of the most fascinating examples of cooperative behavior observed in nature. It is well studied from an entomology viewpoint, but there is currently a lack of mathematical synthesis of this phenomenon. We address this by constructing an ant foraging model that incorporates simple behavioral rules within three task groups of the ant colony during foraging (foragers, transporters, and followers), pheromone trails, and memory effects. The motion of an ant is modeled as a discrete correlated random walk, with a characteristic zigzag path that is congruent with experimental data. We simulate the foraging cycle, which consists of ants searching for food, transporting food, and depositing chemical trails to recruit and orient more ants (en masse) to the food source. This allows us to gain insights into the basic mechanism of the cooperative interactions between ants and the dynamical division of labor within an ant colony during foraging to achieve optimal efficiency. We observe a disorder-order phase transition from the start to the end of a foraging process, signaling collective motion at the population level. Finally, we present a set of time delay ODEs that corroborates with numerical simulations. Nanyang Technological University Published version E.H.Y. would like to acknowledge the funding support by Nanyang Technological University under its Start Up Grant Scheme No. 04INS000175C230. We would also like to acknowledge the funding support for this project from Nanyang Technological University under the Undergraduate Research Experience on CAmpus (URECA) program. 2024-03-05T07:19:55Z 2024-03-05T07:19:55Z 2023 Journal Article Zhang, N. & Yong, E. H. (2023). Dynamics, statistics, and task allocation of foraging ants. Physical Review E, 108(5-1), 054306-1-054306-12. https://dx.doi.org/10.1103/PhysRevE.108.054306 2470-0045 https://hdl.handle.net/10356/173905 10.1103/PhysRevE.108.054306 38115539 2-s2.0-85176607934 5-1 108 054306-1 054306-12 en 04INS000175C230 Physical Review E © 2023 American Physical Society. All rights reserved. This article may be downloaded for personal use only. Any other use requires prior permission of the copyright holder. The Version of Record is available online at http://doi.org/10.1103/PhysRevE.108.054306 application/pdf |
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Physics Ant colonies Behavioral rules Zhang, Nuoya Yong, Ee Hou Dynamics, statistics, and task allocation of foraging ants |
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Ant foraging is one of the most fascinating examples of cooperative behavior observed in nature. It is well studied from an entomology viewpoint, but there is currently a lack of mathematical synthesis of this phenomenon. We address this by constructing an ant foraging model that incorporates simple behavioral rules within three task groups of the ant colony during foraging (foragers, transporters, and followers), pheromone trails, and memory effects. The motion of an ant is modeled as a discrete correlated random walk, with a characteristic zigzag path that is congruent with experimental data. We simulate the foraging cycle, which consists of ants searching for food, transporting food, and depositing chemical trails to recruit and orient more ants (en masse) to the food source. This allows us to gain insights into the basic mechanism of the cooperative interactions between ants and the dynamical division of labor within an ant colony during foraging to achieve optimal efficiency. We observe a disorder-order phase transition from the start to the end of a foraging process, signaling collective motion at the population level. Finally, we present a set of time delay ODEs that corroborates with numerical simulations. |
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School of Physical and Mathematical Sciences |
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School of Physical and Mathematical Sciences Zhang, Nuoya Yong, Ee Hou |
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Article |
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Zhang, Nuoya Yong, Ee Hou |
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Zhang, Nuoya |
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Dynamics, statistics, and task allocation of foraging ants |
title_short |
Dynamics, statistics, and task allocation of foraging ants |
title_full |
Dynamics, statistics, and task allocation of foraging ants |
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Dynamics, statistics, and task allocation of foraging ants |
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Dynamics, statistics, and task allocation of foraging ants |
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dynamics, statistics, and task allocation of foraging ants |
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2024 |
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https://hdl.handle.net/10356/173905 |
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