Studies of surface two-dimensional photonic band-gap structures

A W  Cross; I V  Konoplev; A D R  Phelps; K  Ronald

doi:10.1063/1.1531816

Studies of surface two-dimensional photonic band-gap structures

A W Cross, I V Konoplev, A D R Phelps, K Ronald

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Abstract

Two-dimensional (2D) surface photonic band-gap (SPBG) structures can be obtained by providing a shallow corrugation of the inner surface of a waveguide wall. It can be used as a distributed mirror, a cavity, or a filter in integrated optics or microwave electronics. These structures can also be an alternative to conventional 2D PBG or 1D Bragg structures. In this article, we present the results of theoretical and experimental studies of 2D SPBG structures. Data obtained from experiments are compared with theoretical results and good agreement between theory and experiment is demonstrated. Comparison of a coaxial 2D SPBG structure with a conventional 1D Bragg structure is also presented.

Original language	English
Pages (from-to)	2208-2218
Number of pages	11
Journal	Journal of Applied Physics
Volume	93
Issue number	4
DOIs	https://doi.org/10.1063/1.1531816
Publication status	Published - 15 Feb 2003

Keywords

free electron maser experiments
2-dimensional distributed-feedback
Bragg resonators
mode competition
2D Bragg
2D distributed feedback cavity
FEL
FEM
photonic band gap
surface photonic band gap
microwave devices

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10.1063/1.1531816

Surface_Photonic_Bandgap_2003_J_Appl_Physics_Cross_et_alFinal published version, 283 KB

Cite this

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title = "Studies of surface two-dimensional photonic band-gap structures",

abstract = "Two-dimensional (2D) surface photonic band-gap (SPBG) structures can be obtained by providing a shallow corrugation of the inner surface of a waveguide wall. It can be used as a distributed mirror, a cavity, or a filter in integrated optics or microwave electronics. These structures can also be an alternative to conventional 2D PBG or 1D Bragg structures. In this article, we present the results of theoretical and experimental studies of 2D SPBG structures. Data obtained from experiments are compared with theoretical results and good agreement between theory and experiment is demonstrated. Comparison of a coaxial 2D SPBG structure with a conventional 1D Bragg structure is also presented. ",

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author = "Cross, {A W} and Konoplev, {I V} and Phelps, {A D R} and K Ronald",

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AU - Cross, A W

AU - Konoplev, I V

AU - Phelps, A D R

AU - Ronald, K

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N2 - Two-dimensional (2D) surface photonic band-gap (SPBG) structures can be obtained by providing a shallow corrugation of the inner surface of a waveguide wall. It can be used as a distributed mirror, a cavity, or a filter in integrated optics or microwave electronics. These structures can also be an alternative to conventional 2D PBG or 1D Bragg structures. In this article, we present the results of theoretical and experimental studies of 2D SPBG structures. Data obtained from experiments are compared with theoretical results and good agreement between theory and experiment is demonstrated. Comparison of a coaxial 2D SPBG structure with a conventional 1D Bragg structure is also presented.

AB - Two-dimensional (2D) surface photonic band-gap (SPBG) structures can be obtained by providing a shallow corrugation of the inner surface of a waveguide wall. It can be used as a distributed mirror, a cavity, or a filter in integrated optics or microwave electronics. These structures can also be an alternative to conventional 2D PBG or 1D Bragg structures. In this article, we present the results of theoretical and experimental studies of 2D SPBG structures. Data obtained from experiments are compared with theoretical results and good agreement between theory and experiment is demonstrated. Comparison of a coaxial 2D SPBG structure with a conventional 1D Bragg structure is also presented.

KW - free electron maser experiments

KW - 2-dimensional distributed-feedback

KW - Bragg resonators

KW - mode competition

KW - 2D Bragg

KW - 2D distributed feedback cavity

KW - FEL

KW - FEM

KW - photonic band gap

KW - surface photonic band gap

KW - microwave devices

U2 - 10.1063/1.1531816

DO - 10.1063/1.1531816

M3 - Article

VL - 93

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JO - Journal of Applied Physics

JF - Journal of Applied Physics

SN - 0021-8979

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