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Multiparameter optimal control of F1-ATPase

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arxiv 2410.24122 v2 pith:5YJB5RR6 submitted 2024-10-31 physics.bio-ph cond-mat.stat-mech

classification physics.bio-phcond-mat.stat-mech
keywords controldynamicdesignefficientdifferentf1-atpaseoptimalprinciples
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Biological molecular machines convert free energy between different forms in cells, often at high efficiency. Optimal control theory provides a framework to elucidate design principles governing energetically efficient driving. Here, we use linear-response theory to design efficient protocols exercising dynamic control of trap center and stiffness in a model of driven F1-ATPase. We find that the key design principles of an efficient protocol can be satisfied either by dynamic control of both parameters or by dynamic control of a single parameter and a good static choice for the second. These results illustrate that accessing a new degree of dynamic control provides varying performance improvements in different systems.

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  1. Optimal active engines obey the thermodynamic Lorentz force law

    cond-mat.stat-mech 2025-12 conditional novelty 6.0 of 10

    Finite-time work extraction from nonconservative active engines equals a Lorentz-force Lagrangian on thermodynamic state space, so optimal protocols are counterdiabatic paths satisfying a thermodynamic Lorentz force law.

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