The goal of this work is to study in some detail the asymptotic behaviour of a non-autonomous Lotka-Volterra model, both in the conventional sense (as t → ∞) and in the “pullback” sense (starting a fixed initial condition further and further back in time). The non-autonomous terms in our model are chosen such that one species will eventually die out, ruling out any conventional type of permanence. In contrast we introduce the notion of “pullback permanence” and show that this property is enjoyed by our model. This is not just a mathematical artifice, but rather shows that if we come across an ecology that has been evolving for a very long time we still expect that both species are represented (and their numbers are bounded below), even if ...
AbstractWe show that under certain additional hypothesis, two population competing species models in...
abstract: In this article, we study the global dynamics of a discrete two-dimensional competition mo...
We make more realistic our model [Nonlinear Anal. 73(2010), 650–659] on the coexistence of fishes an...
AbstractThe goal of this work is to study in some detail the asymptotic behaviour of a non-autonomou...
The goal of this work is to study in some detail the asymptotic behaviour of a nonautonomous Lotka-V...
Lotka-Volterra systems are the canonical ecological models used to analyze population dynamics of co...
Lotka-Volterra systems have been extensively studied by many authors, both in the autonomous and no...
In this paper we study in detail the geometrical structure of global pullback and forwards attracto...
Abstract. Lotka-Volterra systems are the canonical ecological models used to analyze popula-tion dyn...
AbstractIn this paper we study in detail the geometrical structure of global pullback and forwards a...
One of the important concept in population dynamics is finding conditions under which the population...
AbstractIn this note, two examples are given to show that delays can make two-species Lotka-Volterra...
Abstract We propose and study a nonautonomous harvesting Lotka–Volterra commensalism model incorpora...
In this paper, we consider a non-autonomous stochastic Lotka-Volterra competitive system dxi(t) = xi...
Reaction-Diffusion systems are frequently used to model the population dynamics of interacting biolo...
AbstractWe show that under certain additional hypothesis, two population competing species models in...
abstract: In this article, we study the global dynamics of a discrete two-dimensional competition mo...
We make more realistic our model [Nonlinear Anal. 73(2010), 650–659] on the coexistence of fishes an...
AbstractThe goal of this work is to study in some detail the asymptotic behaviour of a non-autonomou...
The goal of this work is to study in some detail the asymptotic behaviour of a nonautonomous Lotka-V...
Lotka-Volterra systems are the canonical ecological models used to analyze population dynamics of co...
Lotka-Volterra systems have been extensively studied by many authors, both in the autonomous and no...
In this paper we study in detail the geometrical structure of global pullback and forwards attracto...
Abstract. Lotka-Volterra systems are the canonical ecological models used to analyze popula-tion dyn...
AbstractIn this paper we study in detail the geometrical structure of global pullback and forwards a...
One of the important concept in population dynamics is finding conditions under which the population...
AbstractIn this note, two examples are given to show that delays can make two-species Lotka-Volterra...
Abstract We propose and study a nonautonomous harvesting Lotka–Volterra commensalism model incorpora...
In this paper, we consider a non-autonomous stochastic Lotka-Volterra competitive system dxi(t) = xi...
Reaction-Diffusion systems are frequently used to model the population dynamics of interacting biolo...
AbstractWe show that under certain additional hypothesis, two population competing species models in...
abstract: In this article, we study the global dynamics of a discrete two-dimensional competition mo...
We make more realistic our model [Nonlinear Anal. 73(2010), 650–659] on the coexistence of fishes an...