Entropy production and thermodynamic inference for stochastic microswimmers
arXiv:2310.15311 · doi:10.1103/PhysRevResearch.6.L022044
Abstract
The question of characterization of the degree of non-equilibrium activity in active matter systems is studied in the context of a stochastic microswimmer model driven by a chemical cycle. The resulting dynamical properties and entropy production rate unravel a complex interplay between the chemical and the hydrodynamic degrees of freedom beyond linear response, which is not captured by conventional phenomenological approaches. By studying the precision-dissipation trade-off, a new protocol is proposed in which microscopic chemical driving forces can be inferred experimentally. Our findings highlight subtleties associated with the stochastic thermodynamics of autonomous microswimmers.
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- Quantifying dissipation in flocking dynamics: When tracking internal states matters
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- Nonlinear response theory of molecular machines
- Mechanistic rules for de novo design of enzymes
- Entropy production rate in thermodynamically consistent flocks
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- Topological phases in discrete stochastic systems
- Thermodynamic inference of correlations in nonequilibrium collective dynamics
- Renormalized mechanics and stochastic thermodynamics of growing vesicles
- Irreversibility in scalar active turbulence: The role of topological defects
- A Rayleigh criterion for mechanical instability: inducing activity by chemo-mechanical coupling