Alumina ceramic based high-temperature performance of wireless passive pressure sensor

被引:0
|
作者
Bo Wang
Guozhu Wu
Tao Guo
Qiulin Tan
机构
[1] North University of China,School of Computer Science and Control Engineering
[2] North University of China,Key Laboratory of Instrumentation Science & Dynamic Measurement, Ministry of Education
[3] North University of China,Science and Technology on Electronic Test and Measurement Laboratory
来源
Photonic Sensors | 2016年 / 6卷
关键词
Pressure sensor; wireless passive; high temperature; zero drift; resonant frequency;
D O I
暂无
中图分类号
学科分类号
摘要
A wireless passive pressure sensor equivalent to inductive-capacitive (LC) resonance circuit and based on alumina ceramic is fabricated by using high temperature sintering ceramic and post-fire metallization processes. Cylindrical copper spiral reader antenna and insulation layer are designed to realize the wireless measurement for the sensor in high temperature environment. The high temperature performance of the sensor is analyzed and discussed by studying the phase-frequency and amplitude-frequency characteristics of reader antenna. The average frequency change of sensor is 0.68 kHz/°C when the temperature changes from 27°C to 700°C and the relative change of twice measurements is 2.12%, with high characteristic of repeatability. The study of temperature-drift characteristic of pressure sensor in high temperature environment lays a good basis for the temperature compensation methods and insures the pressure signal readout accurately.
引用
收藏
页码:328 / 332
页数:4
相关论文
共 50 条
  • [21] Dielectrically-Loaded Cylindrical Resonator-Based Wireless Passive High-Temperature Sensor
    Xiong, Jijun
    Wu, Guozhu
    Tan, Qiulin
    Wei, Tanyong
    Wu, Dezhi
    Shen, Sanmin
    Dong, Helei
    Zhang, Wendong
    SENSORS, 2016, 16 (12):
  • [22] A Miniaturized Wireless Passive Frequency Selective Surface Sensor for High-Temperature Applications
    Sun, Zhaofeng
    Peng, Bin
    Huang, Fei
    Yang, Yuntao
    Zhu, Jialiang
    He, Peng
    Zhang, Wanli
    IEEE SENSORS JOURNAL, 2022, 22 (23) : 22734 - 22740
  • [23] Advanced Manufacturing of Passive Wireless High-Temperature Pressure Sensor Using 3-D Laser Machining
    Yu, Seng Loong
    Roy, Swadipta
    Suseela, Sreekala
    Orekan, Taofeek
    McConkey, Joshua
    Soto, Reamonn
    Rojas-Nastrucci, Eduardo A.
    2022 IEEE 22ND ANNUAL WIRELESS AND MICROWAVE TECHNOLOGY CONFERENCE (WAMICON), 2022,
  • [24] High-Temperature Dielectric Properties of Aluminum Nitride Ceramic for Wireless Passive Sensing Applications
    Liu, Jun
    Yuan, Yukun
    Ren, Zhong
    Tan, Qiulin
    Xiong, Jijun
    SENSORS, 2015, 15 (09) : 22660 - 22671
  • [25] Wireless Passive Ceramic Sensor for Far-Field Temperature Measurement at High Temperatures
    Tennant, Kevin M.
    Jordan, Brian R.
    Strader, Noah L.
    Varadharajan Idhaiam, Kavin Sivaneri
    Jerabek, Mark
    Wilhelm, Jay
    Reynolds, Daryl S.
    Sabolsky, Edward M.
    SENSORS, 2024, 24 (05)
  • [26] CONSTRUCTION OF A PIEZOELECTRIC-BASED RESONANCE CERAMIC PRESSURE SENSOR DESIGNED FOR HIGH-TEMPERATURE APPLICATIONS
    Belavic, Darko
    Bradesko, Andraz
    Zarnik, Marina Santo
    Rojac, Tadej
    METROLOGY AND MEASUREMENT SYSTEMS, 2015, 22 (03) : 331 - 340
  • [27] High-temperature compatibility of alumina/yttria and Alumina/scandia ceramic contacts
    Sichinava, MA
    Kobyakov, VP
    Taranovskaya, VN
    INORGANIC MATERIALS, 1999, 35 (09) : 965 - 968
  • [28] SiC based pressure sensor for high-temperature environments
    Wieczorek, Q.
    Schellin, B.
    Obermeier, E.
    Fagnani, G.
    Drera, L.
    2007 IEEE SENSORS, VOLS 1-3, 2007, : 748 - 751
  • [29] Grindability of high-temperature alloy with ceramic alumina wheels
    Zhang, Hongxia
    Chen, Wuyi
    Chen, Zhitong
    FRONTIERS OF MECHANICAL ENGINEERING, 2008, 3 (02) : 139 - 145
  • [30] A High-Performance LC Wireless Passive Pressure Sensor Fabricated Using Low-Temperature Co-Fired Ceramic (LTCC) Technology
    Li, Chen
    Tan, Qiulin
    Xue, Chenyang
    Zhang, Wendong
    Li, Yunzhi
    Xiong, Jijun
    SENSORS, 2014, 14 (12) : 23337 - 23347