ArticleLight, science & applications2020
Tailoring the lineshapes of coupled plasmonic systems based on a theory derived from first principles.
Article in Light, science & applications, 2020. The graph could read no effect estimate from its abstract, so it casts no vote on the map. Cited by 7 papers.
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Who cites it
7 citing papers in PubMed.
- Deep-subwavelength exceptional point in microwave plasmonic resonators for enhanced sensing.Light, science & applications · 2026Article
- Designing the response-spectra of microwave metasurfaces: theory and experiments.Nanophotonics (Berlin, Germany) · 2025Article
- Light People: Prof. Lei Zhou spoke about metasurfaces.Light, science & applications · 2025Article
- Customizing 2.5D Out-of-Plane Architectures for Robust Plasmonic Bound-States-in-the-Continuum Metasurfaces.Advanced science (Weinheim, Baden-Wurttemberg, Germany) · 2023Article
- Radiative anti-parity-time plasmonics.Nature communications · 2022Article
- Breaking the fundamental scattering limit with gain metasurfaces.Nature communications · 2022Article
- Optical metasurfaces towards multifunctionality and tunability.Nanophotonics (Berlin, Germany) · 2022Review
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Authors and funding
8 authors.
Funding
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Abstract
Coupled photonic systems exhibit intriguing optical responses attracting intensive attention, but available theoretical tools either cannot reveal the underlying physics or are empirical in nature. Here, we derive a rigorous theoretical framework from first principles (i.e., Maxwell's equations), with all parameters directly computable via wave function integrations, to study coupled photonic systems containing multiple resonators. Benchmark calculations against Mie theory reveal the physical meanings of the parameters defined in our theory and their mutual relations. After testing our theory numerically and experimentally on a realistic plasmonic system, we show how to utilize it to freely tailor the lineshape of a coupled system, involving two plasmonic resonators exhibiting arbitrary radiative losses, particularly how to create a completely "dark" mode with vanishing radiative loss (e.g., a bound state in continuum). All theoretical predictions are quantitatively verified by our experiments at near-infrared frequencies. Our results not only help understand the profound physics in such coupled photonic systems, but also offer a powerful tool for fast designing functional devices to meet diversified application requests.
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