Abstract
Motivated by recent progress on the port-Hamiltonian formulation of isothermal chemical reaction networks and of the continuous stirred tank reactor, the present paper aims to develop a port-Hamiltonian formulation of chemical reaction networks in the non-isothermal case, and to exploit this for equilibrium and stability analysis.
Highlights
Modeling of chemical reaction networks has attracted much attention in the last decades due to its wide application in systems biology and chemical engineering
Motivated by recent progress on the port-Hamiltonian formulation of isothermal chemical reaction networks and of the continuous stirred tank reactor, the present paper aims to develop a port-Hamiltonian formulation of chemical reaction networks in the non-isothermal case, and to exploit this for equilibrium and stability analysis
A port-Hamiltonian formulation has been developed for nonisothermal mass action kinetics chemical reaction networks
Summary
Modeling of chemical reaction networks has attracted much attention in the last decades due to its wide application in systems biology and chemical engineering Previous work, such as [8,14,15], provides the foundation of a structural theory of isothermal chemical reaction networks governed by mass action kinetics. Based on mass and energy balance equations, a port-Hamiltonian formulation for non-isothermal mass action kinetics chemical reaction networks which are detailed-balanced is developed. This formulation directly extends the port-Hamiltonian formulation of isothermal chemical reaction networks of [32,33], in contrast with the quasi port-Hamiltonian formulation in [36].
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