2005
DOI: 10.1103/physrevb.72.195118
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Extended plane-wave expansion method in three-dimensional anisotropic photonic crystals

Abstract: In this paper, we extend the conventional plane wave expansion method in 3D anisotropic photonic crystal to be able to calculate the complex k even if permittivity and permeability are complex numbers or the functions of ω. There are some tricks in the derivation process, so we show the process in detail. Besides, we also provide an example for testing and explaining, and we also compare the results with the band structure derived from conventional plane wave expansion method, then we finally find that there i… Show more

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Cited by 49 publications
(33 citation statements)
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“…Complex band structures can be found by searching for the wave number as a function of frequency, as demonstrated for photonic 17,18 and phononic [19][20][21] crystals. Whether the approach relies on the extended plane wave expansion (EPWE) or on FEM, a generalized eigenvalue problem of the form…”
Section: Complex Band Structure K(ω)mentioning
confidence: 99%
“…Complex band structures can be found by searching for the wave number as a function of frequency, as demonstrated for photonic 17,18 and phononic [19][20][21] crystals. Whether the approach relies on the extended plane wave expansion (EPWE) or on FEM, a generalized eigenvalue problem of the form…”
Section: Complex Band Structure K(ω)mentioning
confidence: 99%
“…We solve the inverted problem k(ω) and we compare both theoretically and experimentally the values of the scattering problem in finite structures. The eigenvalue problem is solved using the EPWE [42,43,46,51] and the scattering problem is solved using the multiple scattering theory [52,53]. We obtain complex isofrequency contours at angles in which angular BGs are predicted.…”
Section: Angular Band Gapsmentioning
confidence: 99%
“…The complex band structures for phononic crystal were recently presented by Laude et al [Laude09] based on the work of Hsue et al [Hsue05]. In a similar way, the problem for the case of Sonic Crystal is extended in this Section, also showing the supercell approximation.…”
Section: Plane Wave Expansionmentioning
confidence: 75%
“…The description and the theoretical model have been richly complemented by very recent works devoted to the complex dispersion relation of SC [Sainidou05,Hsue05,Sainidou06,Laude09] Optimizing the scattering process in sonic crystals…”
Section: Object and Motivation Of The Workmentioning
confidence: 99%
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