The Localized Mode and its Photoluminescence Characteristics of the Nematic-Liquid-Crystal-Filled One Dimensional Photonic Crystal


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The localized mode and its Photoluminescence Characteristics of one dimensional liquid-crystal-filled photonic crystal with a defect layer (1DNLCFPC) were studied numerically by the transfer matrix method. Nematic liquid crystal (NLC) could be treated as uniaxial media when the external electric field intensity over the threshold. The angle θ was the angle between the direction of the vertical incident light and the direction of the electric field. When θ increased, the results could be found as follow: the 1DNLCFPC’s band gap gets wide and the wavelengths of both band edges get small; the defect mode’s wavelength of 1DNLCFPC gets small. The half-width at the defect modes’ half maximum is less than 0.2nm. The localized phenomenon can be found in the defect modes, meanwhile, light energy is localized nearby the defect layer. The largest relative light intensity in the localized layers has large value when the pump rate is very small.



Edited by:

Junqiao Xiong




B. X. Li et al., "The Localized Mode and its Photoluminescence Characteristics of the Nematic-Liquid-Crystal-Filled One Dimensional Photonic Crystal", Advanced Materials Research, Vol. 586, pp. 45-49, 2012

Online since:

November 2012




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