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Improving Quantum Battery Capacity in Tripartite Quantum Systems by Local Projective Measurements
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The impact of local von Neumann measurements on quantum battery capacity is investigated in tripartite quantum systems. Two measurement-based protocols are proposed and the concept of optimal local projective operators is introduced. Specifically, explicit analytical expressions are derived for the protocols when applied to general three-qubit X-states. Furthermore, the negative effects of white noise and dephasing noise on quantum battery capacity are analyzed, proving that optimal local projective operators can improve the robustness of subsystem and total system capacity against both noise types for the general tripartite X-state. The performance of different schemes in capacity enhancement are numerically validated through detailed examples and it is found that these optimized operators can effectively enhance both subsystem and total system battery capacity. The results indicate that the local von Neumann measurement is a powerful tool to enhance the battery capacity in multipartite quantum systems.
Forward citations
Cited by 2 Pith papers
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Noise is not always detrimental: the capacity of quantum batteries is enhanced in black holes
Hawking radiation enhances quantum battery capacity in black hole spacetimes, counter to typical noise effects, with degradation patterns depending on noise type.
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Noise is not always detrimental: the capacity of quantum batteries is enhanced in black holes
Hawking radiation is claimed to enhance quantum battery capacity for bipartite mixed states, while environmental noise generally degrades it in type-dependent ways.
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