Dual-band infrared single-layer metallodielectric photonic crystals

Robert P. Drupp; Jeremy A. Bossard; Yong Hong Ye; Douglas H. Werner; Theresa S. Maye

doi:10.1063/1.1786663

Dual-band infrared single-layer metallodielectric photonic crystals

Robert P. Drupp, Jeremy A. Bossard, Yong Hong Ye, Douglas H. Werner, Theresa S. Maye

Research output: Contribution to journal › Article › peer-review

18 Scopus citations

Abstract

The design and experimental verification of metallodielectric photonic crystals (MDPC) that utilize simple, self-similar fractal metallic patch elements patterned on a thin dielectric substrate was presented. The element size and interelement spacing of cross-dipole and square-patch fractal elements were optimized using full-wave periodic method of moments modeling techniques. All structures fabricated based on these designs had two measured stopbands with greater than 10 dB attenuation positioned at wavelengths determined by element geometry, size and interelement spacing. The results show that this simple single layer fractal MDPC geometry will facilitate further scaling into the near-IR wavelength regime.

Original language	English (US)
Pages (from-to)	1835-1837
Number of pages	3
Journal	Applied Physics Letters
Volume	85
Issue number	10
DOIs	https://doi.org/10.1063/1.1786663
State	Published - Sep 6 2004

All Science Journal Classification (ASJC) codes

Physics and Astronomy (miscellaneous)

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10.1063/1.1786663

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title = "Dual-band infrared single-layer metallodielectric photonic crystals",

abstract = "The design and experimental verification of metallodielectric photonic crystals (MDPC) that utilize simple, self-similar fractal metallic patch elements patterned on a thin dielectric substrate was presented. The element size and interelement spacing of cross-dipole and square-patch fractal elements were optimized using full-wave periodic method of moments modeling techniques. All structures fabricated based on these designs had two measured stopbands with greater than 10 dB attenuation positioned at wavelengths determined by element geometry, size and interelement spacing. The results show that this simple single layer fractal MDPC geometry will facilitate further scaling into the near-IR wavelength regime.",

author = "Drupp, {Robert P.} and Bossard, {Jeremy A.} and Ye, {Yong Hong} and Werner, {Douglas H.} and Maye, {Theresa S.}",

note = "Funding Information: This research was supported by the NSF MRSEC, Center for Nanoscale Science, Grant No. DMR-0213623. R.D. acknowledges support from a Materials Research Institute Graduate Fellowship. The authors also acknowledge the Penn State Materials Characterization Laboratory for SEM facilities.",

year = "2004",

month = sep,

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doi = "10.1063/1.1786663",

language = "English (US)",

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T1 - Dual-band infrared single-layer metallodielectric photonic crystals

AU - Drupp, Robert P.

AU - Bossard, Jeremy A.

AU - Ye, Yong Hong

AU - Werner, Douglas H.

AU - Maye, Theresa S.

N1 - Funding Information: This research was supported by the NSF MRSEC, Center for Nanoscale Science, Grant No. DMR-0213623. R.D. acknowledges support from a Materials Research Institute Graduate Fellowship. The authors also acknowledge the Penn State Materials Characterization Laboratory for SEM facilities.

PY - 2004/9/6

Y1 - 2004/9/6

N2 - The design and experimental verification of metallodielectric photonic crystals (MDPC) that utilize simple, self-similar fractal metallic patch elements patterned on a thin dielectric substrate was presented. The element size and interelement spacing of cross-dipole and square-patch fractal elements were optimized using full-wave periodic method of moments modeling techniques. All structures fabricated based on these designs had two measured stopbands with greater than 10 dB attenuation positioned at wavelengths determined by element geometry, size and interelement spacing. The results show that this simple single layer fractal MDPC geometry will facilitate further scaling into the near-IR wavelength regime.

AB - The design and experimental verification of metallodielectric photonic crystals (MDPC) that utilize simple, self-similar fractal metallic patch elements patterned on a thin dielectric substrate was presented. The element size and interelement spacing of cross-dipole and square-patch fractal elements were optimized using full-wave periodic method of moments modeling techniques. All structures fabricated based on these designs had two measured stopbands with greater than 10 dB attenuation positioned at wavelengths determined by element geometry, size and interelement spacing. The results show that this simple single layer fractal MDPC geometry will facilitate further scaling into the near-IR wavelength regime.

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Dual-band infrared single-layer metallodielectric photonic crystals

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