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Tunable High-Q Plasmonic Metasurface with Multiple Surface Lattice Resonances (Invited)

By Nanxuan Wu, Yiyun Zhang, Hongbin Ma, Hongsheng Chen, and Haoliang Qian
Progress In Electromagnetics Research, Vol. 172, 23-32, 2021


Micro-nano opto-electronic devices are demanded to be highly efficient and capable of multiple working wavelengths in several light-matter interaction applications, which is a challenge to surface plasmonics owing to the relatively higher intrinsic loss and larger dispersion. To cross the barriers, a plasmonic metasurface combining both high Q-factors (highest Q > 800) and multiple resonant wavelengths is proposed by arranging step-staged pyramid units in lattice modes. Different numerical relations for nonlinear frequency conversions have been constructed because of its strong tunability. Also, characteristics of high radiation efficiency (> 50%) and largelocalized optical density of state (> 104) have been proved through the numerical simulation. Such tunable high-Q metasurface can be implemented to quantum nonlinear process and enable the strong light-matter interaction devices into reality.


Nanxuan Wu, Yiyun Zhang, Hongbin Ma, Hongsheng Chen, and Haoliang Qian, "Tunable High-Q Plasmonic Metasurface with Multiple Surface Lattice Resonances (Invited)," Progress In Electromagnetics Research, Vol. 172, 23-32, 2021.


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