Problem of Fano Resonance Characterization in Ring $\pi$ -shift Fiber Bragg Grating Biosensors

O. Morozov, I. Nureev, A. Z. Sahabutdinov, R. Gubaidullin, G. A. Morozov
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引用次数: 4

Abstract

Problem of Fano resonance characterization in optical biosensors of the refractometric type based on ring $\pi$ -shift fiber Bragg grating is raised. The use of this type biosensors makes it possible to increase the sensitivity of detecting changes in the refractive index of the medium under investigation to a level ${(1-2)\mathrm{x}10^{-9}}$ RIU. The given sensitivity values are achieved due to the formation of a high-quality Fano resonance in the grating with the contour width at half-height of 1–5 pm. However, the possibility of obtaining significant gains in metrological characteristics poses the problem of characterizing such narrowband resonances, since the existing optical spectrum analyzers and interrogators do not have the appropriate resolution. To solve this problem, a microwave photonics method of three-frequency probing of an ultra-narrowband and asymmetric Fano contour with symmetric amplitude-modulated radiation and unbalanced amplitude sideband components is proposed. Previously one can use microwave photonic method of dual-frequency symmetric balanced probing with equal amplitudes of components and the suppressed carrier for solving such problem. Unlike it, using of proposed method, resolve to get unambiguous determination of the center frequency, maximum amplitude and quality of Fano contours, as well as the possibility of significantly simplifying the technique of collecting information about their parameters. It should be noted that decision has also to be true for the characterization of Fano resonance with its symmetrical realizations. This article consistently reflect the questions of posing the problem and discussion of ways for it decision.
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环$\pi$移位光纤光栅生物传感器的范诺共振表征问题
提出了基于环形移位光纤布拉格光栅的折射型光学生物传感器的法诺共振表征问题。使用这种类型的生物传感器可以将检测所研究介质折射率变化的灵敏度提高到${(1-2)\ mathm {x}10^{-9}}$ RIU的水平。给定的灵敏度值是由于在轮廓宽度为1-5 pm的半高的光栅中形成了高质量的法诺共振而实现的。然而,由于现有的光谱分析仪和询问器没有适当的分辨率,在计量特性方面获得显著增益的可能性提出了表征这种窄带共振的问题。为了解决这一问题,提出了一种具有对称调幅辐射和不平衡振幅边带分量的超窄带非对称法诺轮廓的三频探测方法。在此之前,可以采用双频对称平衡探测等分量和抑制载波的微波光子方法来解决这一问题。与之不同的是,利用该方法可以明确地确定法诺轮廓的中心频率、最大幅值和质量,并且可以大大简化其参数信息的收集技术。应该注意的是,对于法诺共振及其对称实现的表征,决定也必须是正确的。本文始终反映了提出问题和讨论决策方法的问题。
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