弓形纳米天线的吸收增强和散射抑制

A. A. Rasheed, Khalil H. Sayidmarie
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引用次数: 2

摘要

利用局域表面等离子体共振(LSPR)增强电场,纳米天线具有将收集的光限制在亚波长维度的独特能力。本研究的重点是通过优化纳米天线的形状和尺寸来增强局域场或改变共振波长。通过在母型领结纳米天线中加入空心区域,提高了领结纳米天线的吸收和散射性能。所提出的空心领结纳米天线(HBNA)的几何结构可以显著增强吸收,同时抑制散射,并通过光学增益的有效利用来实现最佳工作条件。在固体领结纳米天线中,散射截面(SCS)比吸收截面(ACS)(14%)更占优势(86%)。在空心领结结构中,散射耦合功率下降到45%,而另外55%被吸收。这种设计能够在BNA间隙产生最佳的等离子体局部场增强,而另一种设计对极化不敏感。这些特性可以在广泛的应用中得到利用。
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Absorption enhancement and scattering inhibition for Bowtie Nanoantenna
The nanoantennas have the distinctive ability to confine the harvested light into subwavelength dimensions by enhancing the electric field by virtue of localized surface plasmon resonance (LSPR). This work focuses on enhancing the localized field or shifting the resonance wavelength by optimizing the shape and size of the nanoantenna. The absorption and scattering properties of a bowtie nanoantenna (BNA) are enhanced by incorporating a hollow region into the parent bowtie nanoantenna. The proposed geometry of the hollow bowtie nanoantenna (HBNA) can significantly enhance the absorption and inhibit the scattering together, where the optimum operating condition can be realized by the optical gain efficient use. In the solid bowtie nanoantenna, the scattering cross-section (SCS) is more dominant (86%) than the absorption cross-section (ACS) (14%). In the proposed hollow bowtie structure, the scattered coupled power declined to 45% while the other 55% is absorbed. This design has the ability to produce the optimum plasmonic localized field enhancement in the gap of the BNA, and another design showed insensitivity to the polarization. These features can be exploited in a wide scope of applications.
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