首页> 外文期刊>Optics Communications: A Journal Devoted to the Rapid Publication of Short Contributions in the Field of Optics and Interaction of Light with Matter >Silicon on-chip side-coupled high-Q micro-cavities for the multiplexing of high sensitivity photonic crystal integrated sensors array
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Silicon on-chip side-coupled high-Q micro-cavities for the multiplexing of high sensitivity photonic crystal integrated sensors array

机译:片上硅侧耦合高Q微腔,用于多路复用高灵敏度光子晶体集成传感器阵列

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摘要

A novel two-dimensional (2D) silicon (Si) photonic crystal (PC) alpha-H0-slot micro-cavity with high Q-factor and high sensitivity (S) is presented. Based on the proposed alpha-H0-Slot micro-cavities, an optimal design of photonic crystal integrated sensors array (PC-ISA) on monolithic silicon on insulator (SOI) is displayed. By using finite-difference time-domain (FDTD) method, the simulation results demonstrate that both large S of 200 nm/RIU (RIU = refractive index unit) and high Q-factor > 10(4) at telecom wavelength range can be achieved simultaneously. And the sensor figure of merit (FOM) > 7000 is featured, an order of magnitude improvement over previous 2D PC sensors array. In addition, for the proposed 2D PC-ISA device, each sensor unit is shown to independently shift its resonance wavelength in response to the changes in refractive index (RI) and does not perturb the others. Thus, it is potentially an ideal platform for realizing ultra-compact lab-on-a-chip applications with dense arrays of functionalized spots for multiplexed sensing, and also can be used as an opto-fluidic architecture for performing highly parallel detection of biochemical interactions in aqueous environments. (C) 2016 Elsevier B.V. All rights reserved.
机译:提出了一种新型的具有高Q因子和高灵敏度(S)的二维(2D)硅(Si)光子晶体(PC)α-H0缝微腔。基于提出的alpha-H0-Slot微腔,显示了在绝缘体上单片硅(SOI)上的光子晶体集成传感器阵列(PC-ISA)的最佳设计。通过使用时域有限差分(FDTD)方法,仿真结果表明,在电信波长范围内,既可以实现200 nm / RIU的大S(RIU =折射率单位),又可以实现高Q因子> 10(4)同时。传感器品质因数(FOM)> 7000,比以前的2D PC传感器阵列提高了一个数量级。此外,对于所提出的2D PC-ISA设备,每个传感器单元都显示为响应折射率(RI)的变化独立地移动其共振波长,并且不会干扰其他传感器。因此,它是实现带有功能化点密集阵列的超紧凑芯片实验室实验室应用以进行多路传感的理想平台,并且还可以用作光流体体系结构来执行高度并行的生化相互作用检测在水性环境中。 (C)2016 Elsevier B.V.保留所有权利。

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