ID 原文 译文
51697 利用有限差分算法对传感器的特性进行了仿真研究, The properties of this sensor are analyzed by the finite difference method.
51698 结果表明,设计的光纤结构具有良好的温度传感特性,耦合波长随温度升高而红移, Results show that the designed optical fiber structure has good temperature sensing characteristics, and the coupling wavelength is red-shift with the increase of temperature.
51699 在10~35℃范围内,温度检测灵敏度最高可达44.16 nm/℃,光纤结构参数的变化对灵敏度影响较小。 The maximum sensitivity of temperature detection is up to 44. 16 nm/℃ between 10℃ and 35℃, and the influence of fiber structure parameters on the sensitivity is not obvious.
51700 针对目前位移传感器体积较大和分辨率较低的问题,文章设计了一种面内位移检测的双层纳米光栅结构, Aiming at the problem of large volume and low resolution of displacement sensor, this paper designs a nano-grating structure for in-plane displacement detection.
51701 用耦合波理论阐述光栅的衍射性质, The coupled wave theory is used to illustrate the diffraction properties of the grating.
51702 使用Gsolver软件对双层光栅的上下两层光栅间隙、光栅周期、光栅占空比以及入射波长进行了优化仿真分析, The grating gap, grating period, grating duty cycle and incident wavelength of the two-layer grating are optimized and analyzed by Gsolver software.
51703 研究在各参数下,双层纳米光栅面内位移对衍射效率的影响, The effects of the in-plane displacement of the double-layer grating on the diffraction efficiency under various parameters are studied.
51704 最终得到一组对位移敏感的光栅结构。 Finally, a set of displacement-sensitive grating structures is obtained.
51705 仿真结果表明,当两层光栅间隔为200 nm、光栅厚度为390 nm、光栅周期为800 nm以及入射光的波长为850 nm时,双层光栅的光透射特性较好。 The simulation results show that the light transmission characteristics of the double-layered grating are better when the two-layer grating gap is 200 nm, the grating thickness is 390 nm, the grating period is 800 nm, and the incident light wavelength is 850 nm.
51706 可通过检测透射光强的变化来获得光栅的面内微位移。 The in-plane micro-displacement of the grating can be obtained by detecting changes in transmitted light intensity.