Data processing method of multi-wavelength pyrometer based on neural network

被引:0
|
作者
Sun, XG [1 ]
Yuan, GB [1 ]
Dai, JM [1 ]
机构
[1] Harbin Inst Technol, Dept Automat Measurement & Control, Harbin 150001, Peoples R China
关键词
data processing; multi-wavelength pyrometer; neural network; true temperature;
D O I
暂无
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Multi-wavelength pyrometry is a hopeful method for the true temperature measurement.. The problem for this research area is how to transform the collection of the brightness temperatures into the single true temperature. A linear relationship between logarithm of spectral emissivity and wavelength was assumed in usual data processing of multi-wavelength pyrometer, which is only fit for certain particular materials. A new data processing method based on neural network is presented without the need of "guessing" the emissivity function. The neural network can provide a general solution of reasonably good accuracy. The results of the simulated experiments show that the difference between the calculated true temperature and the real true temperature is within +/-40 K for both trained emissivity samples and untrained emissivity samples. And the true temperature errors of trained emissivity samples are generally less than that of untrained emissivity samples. The new data processing method based on neural network is an effective method for the true temperature measurement of most engineering materials.
引用
收藏
页码:258 / 261
页数:4
相关论文
共 50 条
  • [31] Multi-wavelength optical transport network
    Cadeddu, R.
    Cavazzoni, C.
    Giorgi, M.
    Manzalini, A.
    CSELT Technical Reports, 1996, 24 (03): : 367 - 382
  • [32] The Theoretical Analysis of Multi-wavelength Pyrometer:Check and Autosearch for Emissivity General Expression
    孙晓刚
    徐文辉
    褚载祥
    Journal of Harbin Institute of Technology(New series), 1998, (03) : 36 - 40
  • [33] Data Reduction of Multi-wavelength Observations
    Pilia, M.
    Trois, A.
    Pellizzoni, A. P.
    Bachetti, M.
    Piano, G.
    Poddighe, A.
    Egron, E.
    Iacolina, M. N.
    Melis, A.
    Concu, R.
    Pessenti, A.
    ASTRONOMICAL DATA ANALYSIS SOFTWARE AND SYSTEMS XXV, 2017, 512 : 415 - 418
  • [34] SBF: Multi-wavelength data and models
    Cantiello, M.
    Raimondo, G.
    Blakeslee, J. P.
    Capaccioli, E. Brocato M.
    FROM STARS TO GALAXIES: BUILDING THE PIECES TO BUILD UP THE UNIVERSE, 2007, 374 : 401 - +
  • [35] Parallel processing for multi-wavelength imaging pyrometers
    Li, J
    Hou, E
    VISUAL INFORMATION PROCESSING VI, 1997, 3074 : 299 - 307
  • [36] Rapid Identification of THz Tags using Multi-wavelength is-TPG based on a Deep Neural Network
    Torii, Yuki
    Kawase, Kodo
    Murate, Kosuke
    2021 46TH INTERNATIONAL CONFERENCE ON INFRARED, MILLIMETER AND TERAHERTZ WAVES (IRMMW-THZ), 2021,
  • [37] AN IMPROVED METHOD OF MULTI-WAVELENGTH PYROMETRY
    HUNTER, GB
    ALLEMAND, CD
    EAGAR, TW
    PROCEEDINGS OF THE SOCIETY OF PHOTO-OPTICAL INSTRUMENTATION ENGINEERS, 1985, 520 : 40 - 46
  • [38] Rapid identification of bacteria in water by multi-wavelength transmittance spectroscopy and the artificial neural network
    Hu, Yuxia
    Zhu, Yunhao
    Hu, Dun
    Zhou, Na
    Xiu, Lei
    Li, Weihua
    Xie, Jiaqi
    Zhang, Yiming
    Yan, Pu
    FRONTIERS IN ENVIRONMENTAL SCIENCE, 2024, 11
  • [39] An automated classification algorithm for multi-wavelength data
    Zhang, YX
    Luo, A
    Zhao, YC
    OPTIMIZING SCIENTIFIC RETURN FOR ASTRONOMY THROUGH INFORMATION TECHNOLOGIES, 2004, 5493 : 483 - 490
  • [40] Multi-wavelength focusing based on nanoholes
    Han, Yuansheng
    Lu, Xiaoqing
    Lv, Haoran
    Mou, Zhen
    Zhou, Changda
    Wang, Shuyun
    Teng, Shuyun
    NEW JOURNAL OF PHYSICS, 2020, 22 (07):