Maximization of heralding probability in photon-counting schemes on multimode Gaussian states reduces to solving a system of polynomial equations.
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A heralded programmable source generates tunable non-Gaussian quantum states and temporal waveforms by engineering the heralding arm, demonstrated for single-photon, cat, and two-photon states.
Intensity-field correlation functions witness nonclassicality in generalized coherent states by deviating from unity, providing an accessible alternative to intensity-intensity measurements.
Engineered non-Gaussian coherence serves as a thermodynamic resource that optimizes quantum battery performance beyond Gaussian states for Gaussian charger profiles under unitary dynamics.
citing papers explorer
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Heralding probability optimization for nonclassical light generated by photon counting measurements on multimode Gaussian states
Maximization of heralding probability in photon-counting schemes on multimode Gaussian states reduces to solving a system of polynomial equations.
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Programmable non-Gaussian quantum light source with state and temporal-waveform tunability
A heralded programmable source generates tunable non-Gaussian quantum states and temporal waveforms by engineering the heralding arm, demonstrated for single-photon, cat, and two-photon states.
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Characterization of Generalized Coherent States through Intensity-Field Correlations
Intensity-field correlation functions witness nonclassicality in generalized coherent states by deviating from unity, providing an accessible alternative to intensity-intensity measurements.
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Engineered non-Gaussian Coherence as a Thermodynamic Resource for Quantum Batteries
Engineered non-Gaussian coherence serves as a thermodynamic resource that optimizes quantum battery performance beyond Gaussian states for Gaussian charger profiles under unitary dynamics.