Acousto-optic coupling in phoxonic-plasmonic crystal nanobeam cavities

Tzy-Rong Lin, Shu-Yu Chang, Cong-Yuan Shih, Jheng-Hong Shih, T. Lu, J. Hsu
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Abstract

We investigate the enhancement of acousto-optic (AO) coupling using a Ag/GaAs heterogeneous phoxonic crystal nanobeam cavity. Because of the Ag layer, the cavity structure hybridizes surface plasmons and photons, squeezing the optical energy into a smaller region near the GaAs/Ag interface. The photonic cavity modes highly match the phononic cavity modes in space in the cavity. Because of the mode similarity, the AO coupling is stronger at near-infrared wavelengths. We show that the interface effect by the acoustic displacement field dominates the AO coupling enhancement. Small photonic mode volume and high spatial matching between the phononic and photonic cavity modes enhance the photonic resonance wavelength shift by one order of magnitude. The proposed structure enables applications of strong AO and photon-phonon interaction in subwavelength nanostructures.
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光子-等离子体晶体纳米束腔中的声光耦合
本文研究了Ag/GaAs非均相光子晶体纳米束腔对声光耦合的增强作用。由于银层的存在,腔结构使表面等离子体和光子杂交,将光能压缩到GaAs/Ag界面附近的较小区域。在腔内,光子腔模式在空间上与声子腔模式高度匹配。由于模式相似,在近红外波长处AO耦合更强。结果表明,声位移场的界面效应主导了AO耦合增强。光子模式体积小,声子和光子腔模式空间匹配度高,使光子共振波长位移提高了一个数量级。提出的结构使强AO和光子-声子相互作用在亚波长纳米结构中的应用成为可能。
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