We extend Onsager's minimum dissipation principle to stationary states that are only subject to local equilibrium constraints, even when the transport coefficients depend on the thermodynamic forces. Crucial to this generalization is a decomposition of the thermodynamic forces into those that are held fixed by the boundary conditions and the subspace that is orthogonal with respect to the metric defined by the transport coefficients. We are then able to apply Onsager and Machlup's proof to the second set of forces. As an example, we consider two-dimensional nonlinear diffusion coupled to two reservoirs at different temperatures. Our extension differs from that of Bertini et al. in that we assume microscopic irreversibility, and we allow a n...
A number of new relations between the Kaplan-Yorke dimension, phase space contraction, transport coe...
We study the thermodynamics of open systems weakly driven out-of-equilibrium by nonconservative and ...
In this paper we present a self-contained macroscopic description of diffusive systems interacting w...
We extend Onsager’s minimum dissipation principle to stationary states that are only subject to loca...
We extend Onsager’s minimum dissipation principle to stationary states that are only subject to loca...
We generalize to non equilibrium states Onsager's minimum dissipation principle. We also interpret t...
This work considers strongly dissipative reaction-diffusion systems with constitutive equations give...
This paper presents a nonequilibrium thermodynamic model for the relaxation of a local, isolated sys...
Analytical models describing the motion of colloidal particles in given force fields are presented. ...
We derive thermodynamically consistent models of reaction-diffusion equations coupled to a heat equa...
We demonstrate that if the relaxation of a non-equilibrium system towards a steady-state satisfies t...
A formulation of the theorem of minimum entropy production is developed to include the case in which...
We derive thermodynamically consistent models of reaction-diffusion equations coupled to a heat equa...
A formulation of the theorem of minimum entropy production is developed to include the case in which...
A number of new relations between the Kaplan-Yorke dimension, phase space contraction, transport coe...
A number of new relations between the Kaplan-Yorke dimension, phase space contraction, transport coe...
We study the thermodynamics of open systems weakly driven out-of-equilibrium by nonconservative and ...
In this paper we present a self-contained macroscopic description of diffusive systems interacting w...
We extend Onsager’s minimum dissipation principle to stationary states that are only subject to loca...
We extend Onsager’s minimum dissipation principle to stationary states that are only subject to loca...
We generalize to non equilibrium states Onsager's minimum dissipation principle. We also interpret t...
This work considers strongly dissipative reaction-diffusion systems with constitutive equations give...
This paper presents a nonequilibrium thermodynamic model for the relaxation of a local, isolated sys...
Analytical models describing the motion of colloidal particles in given force fields are presented. ...
We derive thermodynamically consistent models of reaction-diffusion equations coupled to a heat equa...
We demonstrate that if the relaxation of a non-equilibrium system towards a steady-state satisfies t...
A formulation of the theorem of minimum entropy production is developed to include the case in which...
We derive thermodynamically consistent models of reaction-diffusion equations coupled to a heat equa...
A formulation of the theorem of minimum entropy production is developed to include the case in which...
A number of new relations between the Kaplan-Yorke dimension, phase space contraction, transport coe...
A number of new relations between the Kaplan-Yorke dimension, phase space contraction, transport coe...
We study the thermodynamics of open systems weakly driven out-of-equilibrium by nonconservative and ...
In this paper we present a self-contained macroscopic description of diffusive systems interacting w...