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An agent-based algorithm resembles behaviour of tree-dwelling bats under fission-fusion dynamics
Ján Zelenka1, Tomáš Kasanický1, Ivana Budinská1
1Institute of Informatics, Slovak Academy of Sciences, 845 07, Bratislava, Slovakia.
Scientific Reports
|October 9, 2020
Summary
Computational models like SkyBat simulate bat roost switching, revealing insights into animal social behavior and swarm algorithms. This approach aids understanding of dynamic environments and computer science applications.
Area of Science:
- Animal behavior
- Computational modeling
- Ecology
Background:
- Tree-dwelling bats exhibit complex fission-fusion social dynamics.
- Roost switching involves swarming behavior for recruitment.
- Understanding these dynamics is crucial for bats in changing environments.
Purpose of the Study:
- To model and understand the roost switching behavior of tree-dwelling bats.
- To apply a computational swarm algorithm to simulate bat social dynamics.
- To validate the model against field data of Leisler's bats (Nyctalus leisleri).
Main Methods:
- Development of the SkyBat agent-based computational model.
- Simulation of bat group fission-fusion dynamics using swarm algorithms.
- Comparison of simulated spatiotemporal swarming patterns with field data.
Main Results:
- The SkyBat model successfully replicated natural fission-fusion dynamics.
- Simulated swarming activity patterns closely resembled those of bats.
- Key metrics like group formation, size, and roost height showed no significant difference from field data.
Conclusions:
- Swarm algorithms provide a foundational framework for understanding bat roost switching.
- The SkyBat model offers a valuable tool for studying bat behavior in dynamic environments.
- This research highlights interdisciplinary applications in animal behavior and computer science.
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