Extending Hamilton's principle with the second law axiom produces thermodynamically consistent stochastic field theories featuring natural fluctuation-dissipation relations and standard entropy production in extended phase space.
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Magnetic polarons in EuB6 produce dynamic nanoscale ferromagnetic clusters that enable giant isothermal entropy change and adiabatic temperature change by balancing large effective moments with retained entropy.
Generic ergodic Hamiltonian dynamics in quantum Ising chains exhibits a long mesoscopic regime in temporal entanglement that deviates from random-circuit universality, suggesting slow spectral reorganization of the influence functional.
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A variational formulation of stochastic thermodynamics: Spatially extended systems
Extending Hamilton's principle with the second law axiom produces thermodynamically consistent stochastic field theories featuring natural fluctuation-dissipation relations and standard entropy production in extended phase space.
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Magnetic Polarons Enable Exceptional Magnetocaloric Response
Magnetic polarons in EuB6 produce dynamic nanoscale ferromagnetic clusters that enable giant isothermal entropy change and adiabatic temperature change by balancing large effective moments with retained entropy.
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Mesoscopic Regimes of Temporal Entanglement in Ergodic Quantum Systems
Generic ergodic Hamiltonian dynamics in quantum Ising chains exhibits a long mesoscopic regime in temporal entanglement that deviates from random-circuit universality, suggesting slow spectral reorganization of the influence functional.