Cavity coupling suppresses self-discharging in open quantum batteries, with coherence and larger sizes improving long-time ergotropy retention.
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A Lambda-type many-body quantum battery model shows collective charging and discharge suppression in the strong-coupling non-Markovian regime, with numerical simulations indicating that optimized driving and reservoir engineering enable rapid stable charging.
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Suppressing Self-Discharging of Quantum Batteries by Cavity Interactions
Cavity coupling suppresses self-discharging in open quantum batteries, with coherence and larger sizes improving long-time ergotropy retention.
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Rapid and Stable Collective Charging and Discharge Suppression in Strongly Coupled Many-Body Quantum Batteries
A Lambda-type many-body quantum battery model shows collective charging and discharge suppression in the strong-coupling non-Markovian regime, with numerical simulations indicating that optimized driving and reservoir engineering enable rapid stable charging.