We study an individual-based model in which two spatially distributed species, characterized by different diffusivities, compete for resources. We consider three different ecological settings. In the first, diffusing faster has a cost in terms of reproduction rate. In the second case, resources are not uniformly distributed in space. In the third case, the two species are transported by a fluid flow. In all these cases, at varying the parameters, we observe a transition from a regime in which diffusing faster confers an effective selective advantage to one in which it constitutes a disadvantage. We analytically estimate the magnitude of this advantage (or disadvantage) and test it by measuring fixation probabilities in simulations of the in...
According to the competitive exclusion principle, in a finite ecosystem, extinction occurs naturally...
The aim of this work is to investigate the effect of density-dependent dispersal on the outcome of c...
We investigate whether asymmetric fast migration can modify the predictions of classical competition...
We study an individual-based model in which two spatially distributed species, characterized by diff...
We study an individual-based model in which two spatially distributed species, characterized by diff...
We study an individual-based model in which two spatially distributed species, characterized by diff...
We study an individual-based model in which two spatially distributed species, characterized by diff...
We study an individual-based model in which two spatially distributed species, characterized by diff...
Dispersal is an important strategy that allows organisms to locate and exploit favorable habitats. T...
We study a stochastic spatial model of biological competition in which two species have the same bir...
We study a stochastic spatial model of biological competition in which two species have the same bir...
We study a stochastic spatial model of biological competition in which two species have the same bir...
We study a stochastic spatial model of biological competition in which two species have the same bir...
We study a stochastic spatial model of biological competition in which two species have the same bir...
We study a stochastic spatial model of biological competition in which two species have the same bir...
According to the competitive exclusion principle, in a finite ecosystem, extinction occurs naturally...
The aim of this work is to investigate the effect of density-dependent dispersal on the outcome of c...
We investigate whether asymmetric fast migration can modify the predictions of classical competition...
We study an individual-based model in which two spatially distributed species, characterized by diff...
We study an individual-based model in which two spatially distributed species, characterized by diff...
We study an individual-based model in which two spatially distributed species, characterized by diff...
We study an individual-based model in which two spatially distributed species, characterized by diff...
We study an individual-based model in which two spatially distributed species, characterized by diff...
Dispersal is an important strategy that allows organisms to locate and exploit favorable habitats. T...
We study a stochastic spatial model of biological competition in which two species have the same bir...
We study a stochastic spatial model of biological competition in which two species have the same bir...
We study a stochastic spatial model of biological competition in which two species have the same bir...
We study a stochastic spatial model of biological competition in which two species have the same bir...
We study a stochastic spatial model of biological competition in which two species have the same bir...
We study a stochastic spatial model of biological competition in which two species have the same bir...
According to the competitive exclusion principle, in a finite ecosystem, extinction occurs naturally...
The aim of this work is to investigate the effect of density-dependent dispersal on the outcome of c...
We investigate whether asymmetric fast migration can modify the predictions of classical competition...