| Literature DB >> 26438447 |
Luiz Alberto Díaz Rodrigues1, Diomar Cristina Mistro1, Elisa Regina Cara2, Natalia Petrovskaya3, Sergei Petrovskii4.
Abstract
Understanding of spatiotemporal patterns arising in invasive species spread is necessary for successful management and control of harmful species, and mathematical modeling is widely recognized as a powerful research tool to achieve this goal. The conventional view of the typical invasion pattern as a continuous population traveling front has been recently challenged by both empirical and theoretical results revealing more complicated, alternative scenarios. In particular, the so-called patchy invasion has been a focus of considerable interest; however, its theoretical study was restricted to the case where the invasive species spreads by predominantly short-distance dispersal. Meanwhile, there is considerable evidence that the long-distance dispersal is not an exotic phenomenon but a strategy that is used by many species. In this paper, we consider how the patchy invasion can be modified by the effect of the long-distance dispersal and the effect of the fat tails of the dispersal kernels.Entities:
Keywords: Allee effect; Biological invasion; Cauchy kernel; Integro-difference equation; Predator–prey system
Mesh:
Year: 2015 PMID: 26438447 DOI: 10.1007/s11538-015-0097-1
Source DB: PubMed Journal: Bull Math Biol ISSN: 0092-8240 Impact factor: 1.758