Abstract
In this paper, we study a classical two-predators-one-prey model. The classical model described by a system of three ordinary differential equations can be reduced to a one-dimensional bimodal map. We prove that this map has at most two stable periodic orbits. Besides, we describe the bifurcation structure of the map. Finally, we describe a mechanism that leads to bistable regimes. Taking this mechanism into account, one can easily detect parameter regions where cycles with arbitrary high periods or chaotic attractors with arbitrary high numbers of bands coexist pairwise.
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ACKNOWLEDGMENTS
Authors dedicate the paper to the memory of Gennadiy Alexeevich Leonov.
Funding
Viktor Avrutin was supported by DFG, AV 111/2-2. Sergey Kryzhevich was supported by Gdańsk University of Technology by the DEC 14/2021/IDUB/I.1 grant under the Nobelium—‘‘Excellence Initiative—Research University’’ program.
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Kryzhevich, S., Avrutin, V. & Söderbacka, G. Bistability in a One-Dimensional Model of a Two-Predators-One-Prey Population Dynamics System. Lobachevskii J Math 42, 3486–3496 (2021). https://doi.org/10.1134/S1995080222020135
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DOI: https://doi.org/10.1134/S1995080222020135