On a Reversible Gray-Scott Type System from Energetic Variational Approach and Its Irreversible Limit
arXiv:2107.08237 · doi:10.1016/j.jde.2021.11.032
Abstract
Most of the previous studies on the well-known Gray-Scott model view it as an irreversible chemical reaction system. In this paper, we derive a four-species reaction-diffusion system using the energetic variational approach based on the law of mass action. This is a reversible Gray-Scott type model, which has a natural entropy structure. We establish the local well-posedness of this system, and justify the limit to the corresponding irreversible Gray-Scott type system as some backward coefficients tend to zero. Furthermore, under some smallness assumption on the initial data, we obtain the global-in-time existence of classical solutions of the reversible system.
21 pages
References in corpus (8)
- An Energetic Variational Approach for the Cahn--Hilliard Equation with Dynamic Boundary Condition: Model Derivation and Mathematical Analysis
- Information Thermodynamics of Turing Patterns
- A structure-preserving, operator splitting scheme for reaction-diffusion equations with detailed balance
- Phase-field dynamics with transfer of materials: The Cahn--Hilliard equation with reaction rate dependent dynamic boundary conditions
- Field Theory of Reaction-Diffusion: Mass Action with an Energetic Variational Approach
- On well-posedness of Ericksen-Leslie's hyperbolic incompressible liquid crystal model
- EDP-convergence for nonlinear fast-slow reaction systems with detailed balance
- A two species micro-macro model of wormlike micellar solutions and its maximum entropy closure approximations: An energetic variational approach