Classical thermodynamic uncertainty bounds on efficiency persist in quantum thermal machines with coherent transport, but cross-correlations optimize joint precision of currents near linear response.
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cond-mat.mes-hall 2years
2026 2verdicts
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Coulomb interactions in the Anderson impurity model can change operating regimes and enhance efficiency of a quantum Otto cycle.
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Quantum Coherence Reshapes Thermodynamic Bounds for Thermal Machines
Classical thermodynamic uncertainty bounds on efficiency persist in quantum thermal machines with coherent transport, but cross-correlations optimize joint precision of currents near linear response.
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Quantum Otto cycle in the Anderson impurity model
Coulomb interactions in the Anderson impurity model can change operating regimes and enhance efficiency of a quantum Otto cycle.