AbstractIn this paper, the competitor–competitor–mutualist three-species Lotka–Volterra model is discussed. Firstly, by Schauder fixed point theory, the coexistence state of the strongly coupled system is given. Applying the method of upper and lower solutions and its associated monotone iterations, the true solutions are constructed. Our results show that this system possesses at least one coexistence state if cross-diffusions and cross-reactions are weak. Secondly, the existence and asymptotic behavior of T-periodic solutions for the periodic reaction–diffusion system under homogeneous Dirichlet boundary conditions are investigated. Sufficient conditions which guarantee the existence of T-periodic solution are also obtained
AbstractIn this paper, an n-species strongly coupled cooperating diffusive system is considered in a...
AbstractIn the present paper, the nonautonomous two-species Lotka-Volterra competition models are co...
AbstractA two-species Lotka–Volterra competition–diffusion model with spatially inhomogeneous reacti...
AbstractIn this paper, the competitor–competitor–mutualist three-species Lotka–Volterra model is dis...
AbstractWe analyze the existence, stability, and multiplicity ofT-periodic coexistence states for th...
AbstractThis paper is concerned with a cooperative two-species Lotka–Volterra model. Using the fixed...
Existence, uniqueness, and stability of coexistence states in the diffusive Lotka-Volterra model for...
AbstractIn this paper we investigate the existence and the asymptotic behavior of periodic solutions...
AbstractIn this paper we study positive steady-state solutions of a reaction-diffusion model, the Lo...
AbstractWe analyze the existence, stability, and multiplicity ofT-periodic coexistence states for th...
In this paper we study positive steady-state solutions of a reaction-diffusion model, the Lotka-Volt...
International audienceIn this paper we consider a system of parabolic reaction-diffusion equations w...
AbstractThe main goal of this paper is to study the existence and non-existence of coexistence state...
AbstractWe consider the Volterra-Lotka equations for n-competing species (n ⩾ 2) in which the right-...
A strongly coupled elliptic system which describes three interacting species, with homogeneous Diric...
AbstractIn this paper, an n-species strongly coupled cooperating diffusive system is considered in a...
AbstractIn the present paper, the nonautonomous two-species Lotka-Volterra competition models are co...
AbstractA two-species Lotka–Volterra competition–diffusion model with spatially inhomogeneous reacti...
AbstractIn this paper, the competitor–competitor–mutualist three-species Lotka–Volterra model is dis...
AbstractWe analyze the existence, stability, and multiplicity ofT-periodic coexistence states for th...
AbstractThis paper is concerned with a cooperative two-species Lotka–Volterra model. Using the fixed...
Existence, uniqueness, and stability of coexistence states in the diffusive Lotka-Volterra model for...
AbstractIn this paper we investigate the existence and the asymptotic behavior of periodic solutions...
AbstractIn this paper we study positive steady-state solutions of a reaction-diffusion model, the Lo...
AbstractWe analyze the existence, stability, and multiplicity ofT-periodic coexistence states for th...
In this paper we study positive steady-state solutions of a reaction-diffusion model, the Lotka-Volt...
International audienceIn this paper we consider a system of parabolic reaction-diffusion equations w...
AbstractThe main goal of this paper is to study the existence and non-existence of coexistence state...
AbstractWe consider the Volterra-Lotka equations for n-competing species (n ⩾ 2) in which the right-...
A strongly coupled elliptic system which describes three interacting species, with homogeneous Diric...
AbstractIn this paper, an n-species strongly coupled cooperating diffusive system is considered in a...
AbstractIn the present paper, the nonautonomous two-species Lotka-Volterra competition models are co...
AbstractA two-species Lotka–Volterra competition–diffusion model with spatially inhomogeneous reacti...