Photon hopping and nanowire based hybrid plasmonic waveguide and ring-resonator

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作者
Zhiyuan Gu
Shuai Liu
Shang Sun
Kaiyang Wang
Quan Lyu
Shumin Xiao
Qinghai Song
机构
[1] Harbin Institute of Technology,Department of Electrical and Information Engineering
[2] Harbin Institute of Technology,Department of Materials Science and Engineering
[3] Harbin Institute of Technology,National Key Laboratory on Tunable Laser Technology
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Nanowire based hybrid plasmonic structure plays an important role in achieving nanodevices, especially for the wide band-gap materials. However, the conventional schemes of nanowire based devices such as nano-resonators are usually isolated from the integrated nano-network and have extremely low quality (Q) factors. Here we demonstrate the transmission of waves across a gap in hybrid plasmonic waveguide, which is termed as “photon hopping”. Based on the photon hopping, we show that the emissions from nanodevices can be efficiently collected and conducted by additional nanowires. The collection ratio can be higher than 50% for a wide range of separation distance, transverse shift and tilt. Moreover, we have also explored the possibility of improving performances of individual devices by nano-manipulating the nanowire to a pseudo-ring. Our calculations show that both Q factor and Purcell factor have been increased by more than an order of magnitude. We believe that our researches will be essential to forming nanolasers and the following nano-networks.
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