Minimal entropy production due to constraints on rate matrix dependencies in multipartite processes
David H Wolpert

TL;DR
This paper derives a lower bound on the minimal entropy production rate in multipartite processes with constrained rate matrices, linking it to information flow and learning rate concepts.
Contribution
It introduces a novel bound on entropy production based on rate matrix constraints, connecting thermodynamics with information flow in multipartite systems.
Findings
Derived a nonzero lower bound on entropy production
Connected entropy bounds to information flow and learning rate
Applicable to systems with subsystem interaction constraints
Abstract
I consider multipartite processes in which there are constraints on each subsystem's rate matrix, restricting which other subsystems can directly affect its dynamics. I derive a strictly nonzero lower bound on the minimal achievable entropy production rate of the process in terms of these constraints on the rate matrices of its subsystems. The bound is based on constructing counterfactual rate matrices, in which some subsystems are held fixed while the others are allowed to evolve. This bound is related to the "learning rate" of stationary bipartite systems, and more generally to the "information flow" in bipartite systems.
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Taxonomy
TopicsAdvanced Thermodynamics and Statistical Mechanics · Neural dynamics and brain function · Advanced Control Systems Optimization
