Improved Nano-optical Traps for Single-particle Sensing Applications

G. Işıklar, M. Algun, Ö. Ergül
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引用次数: 1

Abstract

We present numerical design and simulations of nano-optical traps for single-particle sensing applications. While commonly used nano-holes with circular shapes are suitable for physically trapping nanoparticles to be detected and identified, they generate relatively weak signals in the far zone, especially when nanoparticles are small. We show that optical sensitivity of nano-holes can be enhanced significantly by using well-designed tip geometries such that metallic and dielectric nanoparticles can be detected and identified based on far-zone scattering data. Numerical simulations are performed to test the designed nano-holes and demonstrate their excellent performances in various scenarios.
用于单粒子传感的改进纳米光学陷阱
我们提出了用于单粒子传感应用的纳米光学陷阱的数值设计和模拟。虽然通常使用的圆形纳米孔适合物理捕获待检测和识别的纳米颗粒,但它们在远区产生相对较弱的信号,特别是当纳米颗粒很小时。我们表明,通过使用精心设计的尖端几何形状,可以根据远区散射数据检测和识别金属和介电纳米颗粒,从而显著提高纳米孔的光学灵敏度。通过数值模拟验证了所设计的纳米孔在各种场景下的优异性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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