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Efficient second harmonic generation between photonic and plasmonic modes in a tunable transparent conducting oxide waveguide

Efficient second harmonic generation between photonic and plasmonic modes in a tunable transparent conducting oxide waveguide
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摘要 Efficient second harmonic generation (SHG) in a nonlinear transparent conducting oxide (TCO) stripe wave- guide that incorporates an organic polymer is theoretically investigated. The phase match condition between the fundamental photonic mode at the second harmonic and the fundamental long-range plasmonic mode at the fundamental frequency can be satisfied by dynamically or statically tuning the free carrier concentration of the TCO. The theoretically generated signal reaches its maximum up to 56.4 mW at a propagation distance of 34.8 pm for a pumping power of 1 W. The corresponding normalized conversion efficiency of the phase-matched SHG is up to 4.65 × 103 W-1 cm-2. Efficient second harmonic generation (SHG) in a nonlinear transparent conducting oxide (TCO) stripe wave- guide that incorporates an organic polymer is theoretically investigated. The phase match condition between the fundamental photonic mode at the second harmonic and the fundamental long-range plasmonic mode at the fundamental frequency can be satisfied by dynamically or statically tuning the free carrier concentration of the TCO. The theoretically generated signal reaches its maximum up to 56.4 mW at a propagation distance of 34.8 pm for a pumping power of 1 W. The corresponding normalized conversion efficiency of the phase-matched SHG is up to 4.65 × 103 W-1 cm-2.
作者 许福 孙钰
出处 《Chinese Optics Letters》 SCIE EI CAS CSCD 2016年第3期80-83,共4页 中国光学快报(英文版)
基金 supported by the Fundamental Research Funds for the Central Universities under Grant Nos. TD2014-01 and BLX2014-26
关键词 Carrier concentration Harmonic analysis Nonlinear optics Organic polymers Phase matching PLASMONS WAVEGUIDES Carrier concentration Harmonic analysis Nonlinear optics Organic polymers Phase matching Plasmons Waveguides
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