Controlling Single-Photon Emission with Ultrathin Transdimensional Plasmonic Films
arXiv:2207.07768 · doi:10.1002/andp.202200331
Abstract
We study theoretically the properties of a two-level quantum dipole emitter near an ultrathin transdimensional plasmonic film. Our model system mimics a solid-state single-photon source device. Using realistic experimental parameters, we compute the spontaneous and stimulated emission intensity profiles as functions of the excitation frequency and film thickness, followed by the analysis of the second-order photon correlations to explore the photon antibunching effect. We show that ultrathin transdimensional plasmonic films can greatly improve photon antibunching with thickness reduction, which allows one to control quantum properties of light and make them more pronounced. Knowledge of these features is advantageous for solid-state single-photon source device engineering and overall for the development of the new integrated quantum photonics material platform based on the transdimensional plasmonic films.
19 pages, 3 figures, 68 references
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Cited by in corpus (6)
- Roadmap on Nonlocality in Photonic Materials and Metamaterials
- Far- and Near-Field Heat Transfer in Transdimensional Plasmonic Film Systems
- Confinement-Induced Nonlocality and Casimir Force in Transdimensional Systems
- Anisotropic Photon Emission Enhancement near Carbon Nanotube Metasurfaces
- Goos-Hänchen effect singularities in transdimensional plasmonic films
- Crystallization of the transdimensional electron liquid