Thermodynamical Material Networks for Modeling, Planning, and Control of Circular Material Flows

Abstract

Waste production, carbon dioxide atmospheric accumulation, and dependence on finite natural resources are expressions of the unsustainability of the current industrial networks that supply fuels, energy, and manufacturing products. In particular, circular manufacturing supply chains and carbon control networks are urgently needed. To model and design these and, in general, any material networks, we propose to generalize the approach used for traditional networks such as water and thermal power systems by using compartmental dynamical thermodynamics and graph theory. The key idea is that the thermodynamic compartments and their connections can be added, removed or modified as needed to achieve a circular material flow. The design methodology is explained and its application is illustrated through examples. In addition, we provide a physics-based definition of circularity and, by implementing a nonlinear compartmental control, we strengthen the connection between "Industry 4.0" and "Sustainability". The paper source code is publicly available.

Submitted

References in corpus (5)

• Stochastic Thermodynamics of Non-Linear Electronic Circuits: A Realistic Framework for Computing around kT
• From Lagrangian mechanics to nonequilibrium thermodynamics: a variational perspective
• Nonequilibrium Thermodynamics of Non-Ideal Chemical Reaction Networks
• Nonequilibrium thermodynamics of light-induced reactions
• Bayesian material flow analysis for systems with multiple levels of disaggregation and high dimensional data