Experimental demonstration of higher-order photon correlations controlled by the number of quantum emitters in a waveguide QED system, scaling to three emitters.
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A quantum emitter in a waveguide sorts single- and two-photon light with 62% success, enabling Bell state measurements at 57% post-selected probability that exceeds the 50% linear-optics limit.
Derives explicit non-perturbative renormalization relations between bare parameters and physical observables in waveguide QED to handle IR and UV cutoffs in simulations.
Adding Kerr nonlinearity to a bimodal Jaynes-Cummings system enables strong, robust photon antibunching via cooperative atom-field and nonlinear effects, resistant to spontaneous emission, drive strength, and mode coupling defects.
citing papers explorer
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Realization of waveguide many-body quantum optics
Experimental demonstration of higher-order photon correlations controlled by the number of quantum emitters in a waveguide QED system, scaling to three emitters.
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Photon Sorting with a Quantum Emitter
A quantum emitter in a waveguide sorts single- and two-photon light with 62% success, enabling Bell state measurements at 57% post-selected probability that exceeds the 50% linear-optics limit.
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Renormalization Treatment of IR and UV Cutoffs in Waveguide QED and Implications to Numerical Model Simulation
Derives explicit non-perturbative renormalization relations between bare parameters and physical observables in waveguide QED to handle IR and UV cutoffs in simulations.
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Robust Universal Photon Blockade in a Bimodal Jaynes-Cummings Model via Kerr Nonlinearity
Adding Kerr nonlinearity to a bimodal Jaynes-Cummings system enables strong, robust photon antibunching via cooperative atom-field and nonlinear effects, resistant to spontaneous emission, drive strength, and mode coupling defects.