Abstract In this paper, we are concerned with a homogeneous reaction–diffusion Atkinson oscillator system subject to homogeneous Neumann boundary conditions on a bounded spatial domain. Using the comparison principle and the techniques of invariant rectangle, we prove the existence of the attraction region of the solutions. We thus prove that under certain conditions, the solutions of the PDE system converge to the unique positive equilibrium solutions. We also derive precise conditions such that the system does not have nonconstant positive steady-state solutions. Finally, we use the bifurcation technique to show the existence of Turing patterns. The results provide a clearer understanding of the mechanism of formations of patterns
We analyse a reaction-diffusion system and show that complex spatial patterns can be generated by im...
The Turing instability is a paradigmatic route to pattern formation in reaction-diffusion systems. F...
AbstractIn this paper we study positive steady-state solutions of a reaction-diffusion model, the Lo...
We revisit a homogeneous reaction-diffusion Turing model subject to the Neumann boundary conditions ...
Given a reaction-diffusion system which exhibits Turing's diffusion-driven instability, the influenc...
AbstractWe consider a reaction–diffusion system of activator–inhibitor or substrate-depletion type w...
summary:We consider a simple reaction-diffusion system exhibiting Turing's diffusion driven instabil...
A generic Turing type reaction–diffusion system derived from the Taylor expansion near a con-stant e...
The present paper deals with a reaction–diffusion Brusselator system subject to the homogeneous Neum...
Abstract. This article is concerned with the formation and per-sistence of spatiotemporal patterns i...
summary:We consider a reaction-diffusion system of the activator-inhibitor type with boundary condit...
The Turing instability is a paradigmatic route to pattern formation in reaction-diffusion systems. F...
In many existing predator–prey or plant–herbivore models, the numerical response is assumed to be pr...
We consider a reaction-di#usion equation with Neumann boundary conditions and show that solutions t...
Stationary, spatially inhomogenous solutions of reaction-diffusion systems are studied in this thesi...
We analyse a reaction-diffusion system and show that complex spatial patterns can be generated by im...
The Turing instability is a paradigmatic route to pattern formation in reaction-diffusion systems. F...
AbstractIn this paper we study positive steady-state solutions of a reaction-diffusion model, the Lo...
We revisit a homogeneous reaction-diffusion Turing model subject to the Neumann boundary conditions ...
Given a reaction-diffusion system which exhibits Turing's diffusion-driven instability, the influenc...
AbstractWe consider a reaction–diffusion system of activator–inhibitor or substrate-depletion type w...
summary:We consider a simple reaction-diffusion system exhibiting Turing's diffusion driven instabil...
A generic Turing type reaction–diffusion system derived from the Taylor expansion near a con-stant e...
The present paper deals with a reaction–diffusion Brusselator system subject to the homogeneous Neum...
Abstract. This article is concerned with the formation and per-sistence of spatiotemporal patterns i...
summary:We consider a reaction-diffusion system of the activator-inhibitor type with boundary condit...
The Turing instability is a paradigmatic route to pattern formation in reaction-diffusion systems. F...
In many existing predator–prey or plant–herbivore models, the numerical response is assumed to be pr...
We consider a reaction-di#usion equation with Neumann boundary conditions and show that solutions t...
Stationary, spatially inhomogenous solutions of reaction-diffusion systems are studied in this thesi...
We analyse a reaction-diffusion system and show that complex spatial patterns can be generated by im...
The Turing instability is a paradigmatic route to pattern formation in reaction-diffusion systems. F...
AbstractIn this paper we study positive steady-state solutions of a reaction-diffusion model, the Lo...