在通信光学波长下工作的大面积等离子体光导发射器产生的高功率、宽带太赫兹辐射

N. Yardimci, M. Jarrahi
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引用次数: 1

摘要

我们提出了一种高功率,宽带太赫兹发射器,其工作在电信光泵浦波长,在这种波长下,高性能和紧凑的光纤激光器已经商品化。提出的太赫兹发射极是一种新型的大面积光导发射极,该发射极是在高电阻率的ErAs:InGaAs衬底上制造的,利用二维等离子体纳米天线阵列。通过结合等离子体纳米天线,更强的偶极矩被诱导以响应入射光泵光束,因此,与目前的技术相比,实现了更高的光到太赫兹的转换效率。我们演示了在400 mW光泵浦功率下,在0.1-5太赫兹频率范围内的太赫兹辐射功率高达300 μW。这是在电信光泵波长工作的光导太赫兹发射器报道的最高太赫兹辐射功率水平。
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High-power, broadband terahertz radiation from large area plasmonic photoconductive emitters operating at telecommunication optical wavelengths
We present a high-power, broadband terahertz emitter that operates at telecommunication optical pump wavelengths at which high-performance and compact fiber lasers are commercially available. The presented terahertz emitter is a novel large area photoconductive emitter fabricated on a high resistivity ErAs:InGaAs substrate that utilizes a two-dimensional array of plasmonic nano-antennas. By incorporating plasmonic nano-antennas, stronger dipole moments are induced in response to an incident optical pump beam and, therefore, higher optical-to-terahertz conversion efficiencies are achieved compared to the state-of-the art. We demonstrate terahertz radiation power levels as high as 300 μW over a 0.1-5 THz frequency range at a 400 mW optical pump power. This is the highest reported terahertz radiation power level from a photoconductive terahertz emitter operating at telecommunication optical pump wavelengths.
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