Cavity photons induce light-enhanced quantum self-trapping of vibrational excitons at weak coupling and accelerated transfer at stronger coupling, with critical strengths where dynamics freeze into stabilized many-vibron bound states.
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Numerical simulation of spontaneous symmetry breaking in a modified Dicke superradiance model where symmetry selection rules suppress single-photon emission, resulting in a quantum sensor that records the phase of light fluctuations.
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Light-Induced Quantum Self-Trapping of Vibrational Excitons in an Optical Cavity
Cavity photons induce light-enhanced quantum self-trapping of vibrational excitons at weak coupling and accelerated transfer at stronger coupling, with critical strengths where dynamics freeze into stabilized many-vibron bound states.
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Spontaneous symmetry breaking in nonlinear superradiance
Numerical simulation of spontaneous symmetry breaking in a modified Dicke superradiance model where symmetry selection rules suppress single-photon emission, resulting in a quantum sensor that records the phase of light fluctuations.