Collective single‐photon emission and energy transfer in thin‐layer dielectric and plasmonic systems

We study the collective photon decay of multiple quantum emitters embedded in a thin high-index dielectric layer such as hexagonal boron nitride (hBN), with and without a metal substrate. We first explore the significant role that guided modes including surface plasmon modes play in the collective decay of identical single-photon emitters (super- and subradiance). Surprisingly, on distances relevant for collective emission, the guided or surface-plasmon modes do not always enhance the collective emission. We identify configurations with inhibition, and others with enhancement of the dipole interaction due to the guided modes. We interpret our results in terms of local and cross densities of optical states. In the same structure, we show a remarkably favorable configuration for enhanced Förster resonance energy transfer between a donor and acceptor in the dielectric layer on a metallic substrate. We compare our results to theoretical limits for energy transfer efficiency.

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Publication Details

Journal
Nanophotonics
Published
2025-01-29
DOI
https://doi.org/10.1515/nanoph-2024-0524
Citations
3
Primary Topic
Quantum Information and Cryptography
Type
article
Field-Weighted Citation Impact
7.44

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Collective single‐photon emission and energy transfer in thin‐layer dielectric and plasmonic systems

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Collective single‐photon emission and energy transfer in thin‐layer dielectric and plasmonic systems

Devashish Pandey, Mads Anders Jørgensen, Sanshui Xiao, Martijn Wubs, Nicolas Stenger, Ehsan Amooghorban
article en
3 citations

Abstract

We study the collective photon decay of multiple quantum emitters embedded in a thin high-index dielectric layer such as hexagonal boron nitride (hBN), with and without a metal substrate. We first explore the significant role that guided modes including surface plasmon modes play in the collective decay of identical single-photon emitters (super- and subradiance). Surprisingly, on distances relevant for collective emission, the guided or surface-plasmon modes do not always enhance the collective emission. We identify configurations with inhibition, and others with enhancement of the dipole interaction due to the guided modes. We interpret our results in terms of local and cross densities of optical states. In the same structure, we show a remarkably favorable configuration for enhanced Förster resonance energy transfer between a donor and acceptor in the dielectric layer on a metallic substrate. We compare our results to theoretical limits for energy transfer efficiency.

NanophotonicsVol. 14(11)
Shahrekord University (IR), Technical University of Denmark (DK)
Villum Fonden, National Research Foundation, Danmarks Grundforskningsfond, Novo Nordisk, Danmarks Frie Forskningsfond, Novo Nordisk Fonden, Center for Nanostructured Graphene
Affordable and clean energy
Openalex Percentile: Top 4%
Quantum Information and Cryptography
7.44
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