Passive temperature compensation package for fiber Bragg grating

被引:2
|
作者
Yan, WP [1 ]
Guo, ZX
Wang, C
Zhang, YS
Du, GT
机构
[1] Dalian Univ Technol, Dept Elect Engn, Dalian 116024, Peoples R China
[2] Beijing Univ Aeronaut & Astronaut, Ctr Mat Phys & Chem, Beijing 100083, Peoples R China
[3] Dalian Univ Technol, Dept Phys, Dalian 116024, Peoples R China
来源
2ND INTERNATIONAL SYMPOSIUM ON ADVANCED OPTICAL MANUFACTURING AND TESTING TECHNOLOGIES: OPTICAL TEST AND MEASUREMENT TECHNOLOGY AND EQUIPMENT, PTS 1 AND 2 | 2006年 / 6150卷
关键词
fiber Bragg grating (FBG); cross sensitivity; temperature compensation; thermal expansion coefficients; package; WDM;
D O I
10.1117/12.676531
中图分类号
TH7 [仪器、仪表];
学科分类号
0804 ; 080401 ; 081102 ;
摘要
The reflecting wavelength shift of fiber Bragg grating (FBG) can be caused by the variations of both strain and temperature, and such a so-called cross sensitivity is a "bottle-neck" which limits the FBG sensing and measuring technique to put into practical application. The measurement error is caused by the temperature change to measure the strain-inducing Bragg wavelength shift. The basic theory of temperature compensation of fiber Bragg gratings is presented according to the physical mechanisms of the strain and temperature cross sensitivity. A passive compact package for compensating the temperature dependence of FBG, based on the use of two materials with different thermal expansion coefficients, has been demonstrated. Two ends of the tensioned fiber grating are attached to the organic glass with epoxy resin. As the temperature rises and the strain is progressively released, it compensates the temperature dependence of the Bragg wavelength. The relation between temperature and wavelength in different compensation condition and in different strain is given. And the reason of undercompensation or overcompensation of the FBG is also analyzed. The Bragg wavelength shift over the temperature range of-19 degrees C to 60 degrees C is 0.79 nm for the uncompensated FBG, and that of the compensated FBG is only 0.035 nm for uncompensated FBG, which is 1/22 of that of the uncompensated FBG.
引用
收藏
页数:6
相关论文
共 50 条
  • [1] Temperature compensation package for fiber Bragg gratings
    Huang, YL
    Li, J
    Kai, GY
    Yuan, SH
    Dong, XY
    MICROWAVE AND OPTICAL TECHNOLOGY LETTERS, 2003, 39 (01) : 70 - 72
  • [2] Temperature compensation of optical fiber Bragg grating pressure sensor
    Hsu, YS
    Wang, LK
    Liu, WF
    Chiang, YJ
    IEEE PHOTONICS TECHNOLOGY LETTERS, 2006, 18 (5-8) : 874 - 876
  • [3] A fiber Bragg grating current sensor with temperature compensation
    Tian F.-F.
    Cong J.-W.
    Yun B.-F.
    Cui Y.-P.
    Optoelectronics Letters, 2009, 5 (05) : 347 - 351
  • [4] A Fiber Bragg Grating acceleration sensor with temperature compensation
    Zhao, Xianfeng
    Jia, Zhen'an
    Fan, Wei
    Liu, Wangfei
    Gao, Hong
    Yang, Kaiqing
    Yu, Dakuan
    OPTIK, 2021, 241
  • [5] Fiber Bragg grating anemometer and temperature compensation technology
    Jiang, Zongze
    Zhang, Hongquan
    Guan, Lianwu
    Yang, Jun
    OPTICAL ENGINEERING, 2018, 57 (06)
  • [6] A Novel Fiber Bragg Grating Sensor with Temperature Compensation
    Lin, Yuchi
    Wang, Wei
    2009 SYMPOSIUM ON PHOTONICS AND OPTOELECTRONICS (SOPO 2009), 2009, : 432 - 434
  • [7] Temperature Compensation for Double Fiber Bragg Grating Sensors
    WANG Chun-cheng 1
    2. Laboratory of Optical Information Technology
    SemiconductorPhotonicsandTechnology, 2006, (03) : 153 - 157
  • [8] Diaphragm Based Fiber Bragg Grating Acceleration Sensor with Temperature Compensation
    Li, Tianliang
    Tan, Yuegang
    Han, Xue
    Zheng, Kai
    Zhou, Zude
    SENSORS, 2017, 17 (01)
  • [9] Packaging and Temperature Compensation of Fiber Bragg Grating for Strain Sensing: A Survey
    Yi Kuang
    Yongxing Guo
    Li Xiong
    Wenlong Liu
    Photonic Sensors, 2018, 8 : 320 - 331
  • [10] Packaging and Temperature Compensation of Fiber Bragg Grating for Strain Sensing: A Survey
    Kuang, Yi
    Guo, Yongxing
    Xiong, Li
    Liu, Wenlong
    PHOTONIC SENSORS, 2018, 8 (04) : 320 - 331