AN INVERSE LINEARIZATION MODEL FOR THE CHARACTERIZATION OF NON-CONTACT THERMOPILES

被引:0
|
作者
Botero, J-S. [1 ]
Salazar, A. [1 ,2 ]
Morantes G, L-J. [1 ]
机构
[1] ITM, Fac Ingn, Grp Invest AEyCC, Carrera 31 54-10, Medellin, Colombia
[2] Univ Antioquia UdeA, Fac Ingn, Grp Invest SISTEM, Calle 70 52-21, Medellin, Colombia
关键词
Linearization; non-contact; thermopile; Peltier effect; thermistor;
D O I
10.21307/ijssis-2017-888
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
A thermopile is an electronic device that converts thermal energy into electrical energy by means of arrangements of thermocouples that are connected in series. In addition, optical filters restrict the wavelength that strikes the thermopile. One of the main advantages of using a thermopile is its sensitivity to infrared radiation, which allows implementing non-contact thermometers. However, the thermopile does not provide an absolute temperature value, but a value that is proportional to the temperature gradient between the local temperature in the measurement range of the thermopile and its internal temperature. Therefore, it is necessary to integrate temperature sensors aiming to correct the output temperature value. In this sense, the output of the thermopile corresponds to a value generated from the relationship between the internal temperature of the thermopile and the output temperature. This work proposes and evaluates a thermopile characterization model, which uses an incubation system and a thermoelectric cooling device to control the room temperature and the temperature that is read out using the thermopile, respectively. This is based on the automation of the data collection procedure and the characterization of the thermistor that is used to measure the temperature of the thermopile. The result is an experimental operating surface, from which a linearization model was derived.
引用
收藏
页码:637 / 650
页数:14
相关论文
共 50 条
  • [1] Non-contact characterization of MEMS dynamics
    Dräbenstedt, A
    Heimes, F
    Hettwer, D
    Rembe, C
    Steger, H
    Wörtge, M
    TM-TECHNISCHES MESSEN, 2005, 72 (11) : 601 - 608
  • [2] Non-contact microwave material characterization
    Glay, D
    Lasri, T
    Mamouni, A
    Leroy, Y
    SUBSURFACE AND SURFACE SENSING TECHNOLOGIES AND APPLICATIONS III, 2001, 4491 : 270 - 279
  • [3] Non-contact strain measurements based on inverse magnetostriction
    Bechtold, Christoph
    Teliban, Iulian
    Thede, Claas
    Chemnitz, Steffen
    Quandt, Eckhard
    SENSORS AND ACTUATORS A-PHYSICAL, 2010, 158 (02) : 224 - 230
  • [4] Non-contact characterization of the modified surface layer by the inverse analysis of laser surface acoustic waves
    Aoyama Gakuin Univ, Japan
    Zairyo Kankyo, 7 (402-410):
  • [5] Photoelectric method for non-contact characterization of SiGe
    Tsidilkovski, Edward
    Steeples, Kenneth
    THIN SOLID FILMS, 2008, 517 (01) : 170 - 171
  • [6] Non-contact ultrasonic characterization of ceramics and composites
    Bhardwaj, MC
    NONDESTRUCTIVE EVALUATION OF CERAMICS, 1998, 89 : 265 - 281
  • [7] Non-contact method for characterization of a rotational table
    Shattuck, Judson La Moure, III
    Parisi, Vincent M., II
    Smerdon, Arryn J.
    HEAD- AND HELMET-MOUNTED DISPLAYS XII: DESIGN AND APPLICATIONS, 2007, 6557
  • [8] Non-contact electrical characterization of SOI surfaces
    Lukasiak, L
    Roman, P
    Brubaker, M
    Anc, M
    Ruzyllo, J
    PROCEEDINGS OF THE NINTH INTERNATIONAL SYMPOSIUM ON SILICON-ON-INSULATOR TECHNOLOGY AND DEVICES, 1999, 99 (03): : 184 - 188
  • [9] Inverse analysis of water profile in starch by non-contact photopyroelectric method
    Frandas, A
    Duvaut, T
    Paris, D
    APPLIED PHYSICS B-LASERS AND OPTICS, 2000, 71 (01): : 77 - 84
  • [10] Inverse analysis of water profile in starch by non-contact photopyroelectric method
    A. Frandas
    T. Duvaut
    D. Paris
    Applied Physics B, 2000, 71 : 77 - 84