Electrically driven exciton-polariton optomechanics at super high frequencies
arXiv:2003.01051 · doi:10.1103/PhysRevX.11.021020
Abstract
Polaritons enable the resonant coupling of excitons and photons to vibrations in the application-relevant super high frequency (SHF, 3-30 GHz) domain. We introduce a novel platform for coherent optomechanics based on the coupling of exciton-polaritons and electrically driven SHF longitudinal acoustic phonons confined within the spacer region of a planar Bragg microcavity. An intrinsic property of the microcavity platform is the back-feeding of phonons via reflections at the sample boundaries, which enables frequency x quality factors products exceeding 10^14 Hz as well as huge modulation amplitudes of the optical transition energies (up to 8 meV). We show that the modulation is dominated by the phonon-induced energy shifts of the excitonic polariton component, thus leading to an oscillatory transition between the regimes of weak and strong light-matter coupling. These results open the way for polariton-based coherent optomechanics in the non-adiabatic, side-band-resolved regime of coherent control.
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- Entangling Excitons with Microcavity Photons
- Optomechanical parametric oscillation of a quantum light-fluid lattice
- Gain-Loss Coupled Systems
- Entangling two exciton modes using exciton optomechanics
- Theory of Optomechanical Locking in Driven-Dissipative Coupled Polariton Condensates
- Topical review on acousto-optical Floquet engineering of single-photon emitters
- Enhanced Cavity Optomechanics with Quantum-well Exciton Polaritons