一种基于Fano共振的高性能纳米折射率传感器结构

Guoquan Zhou, S. Yan, Lifang Shen, Yi Zhang, Yifeng Ren
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引用次数: 0

摘要

光学传感器具有抗干扰、响应快、功耗低等一系列优点。由于衍射极限的限制,光学器件不能大规模集成。SPP可以突破传统光学衍射极限的限制,在亚波长范围内操纵光。大大推进了光学器件的集成化。本文提出了一种新型的纳米传感器结构,该结构由双矩形MIM波导和嵌入短桩的环形腔组成。采用有限元方法对传感器的传感特性进行了仿真分析。此外,我们还分析了法诺谐振线的触发因素,并通过调整参数对其进行了优化。最大灵敏度为1990 nm / RIU,优势值为63.2。该结构在生物医学传感器和温度检测中具有广阔的应用前景。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A High-Performance Nano-Refractive Index Sensor Structure Based on Fano Resonance
Optical sensors have a series of advantages, such as anti-interference, fast response, low power consumption, etc. Due to the diffraction limit, optical devices cannot be integrated on a large scale. spp can break through the limitations of traditional optical diffraction limits and manipulate light in the sub-wavelength range. Greatly advance the integration of optical devices. In this paper, a novel nano-sensor structure is proposed, which consists of an MIM waveguide with double rectangles and an annular cavity with embedded stubs. The sensing characteristics are simulated and analyzed by finite element method. In addition, we also analyze the triggers of the Fano resonance line and optimize it by adjusting the parameters. The maximum sensitivity is 1990 nm / RIU, and the advantage value is 63.2. This structure has broad application prospects in sensors in biomedicine and temperature detection.
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