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Hyperuniform photonic slabs for high-Q cavities and low-loss waveguides

Hyperuniform photonic slabs for high-Q cavities and low-loss waveguides
Hyperuniform photonic slabs for high-Q cavities and low-loss waveguides
Hyperuniform disordered photonic structures/solids (HUDS) are a new class of photonic solids, which display large, isotropic photonic band gaps (PBG) comparable in size to the ones found in photonic crystals (PC). The existence of large band gaps in HUDS contradicts the long-standing intuition that Bragg scattering and long- range translational order is required in PBG formation, and demonstrates that interactions between Mie-like local resonances and multiple scattering can induce on their own PBGs. HUDS combine advantages of both isotropy due to disorder (absence of long range two-point correlations) and controlled scattering properties from uniform local topology due to hyperuniformity (constrained disorder). In this paper we review the photonic properties of HUDS including the origin of PBGs and potential applications. We address technologically realisable designs of HUDS including localisation of light in point-defect-like optical cavities and the guiding of light in free-form PC waveguide analogues. We show that HUDS are a promising general-purpose design platform for integrated optical micro-circuitry, including active devices such as optical microcavity lasers and modulators.
Amoah, Timothy
c6334087-1222-495f-97b3-f3a645515076
Florescu, Marian
14b7415d-9dc6-4ebe-a125-289e47648c65
Amoah, Timothy
c6334087-1222-495f-97b3-f3a645515076
Florescu, Marian
14b7415d-9dc6-4ebe-a125-289e47648c65

Amoah, Timothy and Florescu, Marian (2015) Hyperuniform photonic slabs for high-Q cavities and low-loss waveguides. Proceedings of the SPIE, 9546, [95460F]. (doi:10.1117/12.2184054).

Record type: Article

Abstract

Hyperuniform disordered photonic structures/solids (HUDS) are a new class of photonic solids, which display large, isotropic photonic band gaps (PBG) comparable in size to the ones found in photonic crystals (PC). The existence of large band gaps in HUDS contradicts the long-standing intuition that Bragg scattering and long- range translational order is required in PBG formation, and demonstrates that interactions between Mie-like local resonances and multiple scattering can induce on their own PBGs. HUDS combine advantages of both isotropy due to disorder (absence of long range two-point correlations) and controlled scattering properties from uniform local topology due to hyperuniformity (constrained disorder). In this paper we review the photonic properties of HUDS including the origin of PBGs and potential applications. We address technologically realisable designs of HUDS including localisation of light in point-defect-like optical cavities and the guiding of light in free-form PC waveguide analogues. We show that HUDS are a promising general-purpose design platform for integrated optical micro-circuitry, including active devices such as optical microcavity lasers and modulators.

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Published date: 31 August 2015

Identifiers

Local EPrints ID: 502184
URI: http://eprints.soton.ac.uk/id/eprint/502184
PURE UUID: b7823e98-c512-4f55-8a75-dde226443a3f
ORCID for Marian Florescu: ORCID iD orcid.org/0000-0001-6278-9164

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Date deposited: 17 Jun 2025 17:17
Last modified: 19 Jun 2025 02:22

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Contributors

Author: Timothy Amoah
Author: Marian Florescu ORCID iD

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