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Theoretical optimization of Tamm plasmon polariton structure for pressure sensing applications

机译:Tamm等离子体极化激元结构在压力传感应用中的理论优化

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摘要

Abstract In this paper, we investigate the characteristics of optical Tamm plasmon polariton states within the photonic band gap, which is formed at the interface of a metal and photonic crystal structure, for pressure sensing application. The numerical modeling of the proposed configuration is performed using the transfer matrix method through the assay of spectral characteristics. We extensively explain the dependency of the geometrical parameters on the position and intensity of the Tamm plasmon mode. Consequently, we optimize the thickness of the metallic layer, the thickness of different layers, the number of periods, and the incident angle. Tamm plasmon mode in the reflectance spectrum facilitates easy detection of various sensing parameters. At the optimized structural parameters, the measured sensitivity reaches up to 15.48 nm/GPa, the highest among the recently published similar works. Therefore, the proposed Tamm plasmon-based sensor can be a miniaturized structure with extreme sensitivity in pressure sensing models.
机译:摘要 研究了金属与光子晶体结构界面形成的光子带隙内光学Tamm等离子体极化激元态的特性,用于压力传感应用。采用传递矩阵法,通过光谱特性分析,对所提出的构型进行数值模拟。我们广泛解释了几何参数对Tamm等离子体模式位置和强度的依赖性。因此,我们优化了金属层的厚度、不同层的厚度、周期数和入射角。反射光谱中的Tamm等离子体模式有助于轻松检测各种传感参数。在优化的结构参数下,测得的灵敏度高达15.48 nm/GPa,是近期发表的同类作品中最高的。因此,所提出的基于Tamm等离子体的传感器可以是一种小型化结构,在压力传感模型中具有极高的灵敏度。

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