Non-Markovian thermal reservoirs generate stationary entanglement between distant qubits via a quasiadiabatic dark state.
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Tuning individual atomic detunings and drive phase in a two-atom cavity-QED system simultaneously suppresses one- and three-photon backgrounds while enhancing two-photon output, and also enables correlated fluorescence photon pairs.
Zero-photon catalysis boosts CV-MDI-QKD secret key rate and distance over the original protocol and single-photon subtraction version in numerical simulations.
A scheme for nonreciprocal single-photon routing in an atom-dimer waveguide-QED system achieves complete transmission control via chiral asymmetry without requiring ideal chirality in the non-Markovian regime.
citing papers explorer
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Non-Markovian thermal reservoirs for autonomous entanglement distribution
Non-Markovian thermal reservoirs generate stationary entanglement between distant qubits via a quasiadiabatic dark state.
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Enhanced two-photon sources in a cavity-coupled two-atom system
Tuning individual atomic detunings and drive phase in a two-atom cavity-QED system simultaneously suppresses one- and three-photon backgrounds while enhancing two-photon output, and also enables correlated fluorescence photon pairs.
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Continuous-variable measurement-device-independent quantum key distribution via quantum catalysis
Zero-photon catalysis boosts CV-MDI-QKD secret key rate and distance over the original protocol and single-photon subtraction version in numerical simulations.
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Nonreciprocal routing induced by chirality in an atom-dimer waveguide-QED system
A scheme for nonreciprocal single-photon routing in an atom-dimer waveguide-QED system achieves complete transmission control via chiral asymmetry without requiring ideal chirality in the non-Markovian regime.