High Figure of Merit Magnetic Field Sensor Based on Photonic Crystal Slab Supporting Quasi Bound States in The Continuum

Zhe Han, Chao Wang, Zixing Gou, Huiping Tian
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Abstract

In this paper, a magnetic field sensor (MFS) with high figure of merit (FOM) is theoretically proposed, which is based on photonic crystal slab (PhCS) covered by magnetic fluid film (MFF). The PhCS consists of a two dimensionally periodic nanohole array introduced into a silicon slab. The large-sized nanohole is used to increase the area of light-matter interaction. By slightly breaking the symmetry of nanoholes, quasi bound states in the continuum (BIC) with Fano line shape is excited in the PhCS, which is sensitive to external magnetic field and has a high Q-factor. The effect of MFF thickness on the magnetic field sensitivity is investigated. Furthermore, high resonance amplitude of 0.97 and low limit of detection (LOD) of 6.1×10−5 T are achieved. Compared with the researches lately published, the sensor exhibits high Q-factor and high sensitivity. Therefore, we believe the proposed sensor will contribute to the lab-on-chip magnetic field detection system design.
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基于连续介质中支持准束缚态的光子晶体板的高品质磁场传感器
本文从理论上提出了一种高品质因数磁场传感器(MFS),该传感器基于磁流体膜(MFF)覆盖的光子晶体板(PhCS)。PhCS由引入硅板的二维周期性纳米孔阵列组成。大尺寸的纳米孔用于增加光-物质相互作用的面积。通过轻微破坏纳米孔的对称性,在PhCS中激发具有Fano线形状的连续介质(BIC)准束缚态,该连续介质对外部磁场敏感,具有高q因子。研究了MFF厚度对磁场灵敏度的影响。此外,还实现了0.97的高共振幅值和6.1×10−5 T的低检出限。与已有的研究成果相比,该传感器具有高q因子和高灵敏度。因此,我们相信所提出的传感器将有助于芯片上实验室磁场检测系统的设计。
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