Research on Characteristic Parameters of Ta-ZrO2 Fiber Blackbody Cavity Temperature Sensor

doi:10.3969/j.issn.1000-1093.2016.02.025

Abstract

Abstract:

In order to realize the transient high temperature measurement in the harsh environment and narrow space, a sapphire fiber tantalum (melting point 2 997 ℃) - zirconia (melting point 2 715 ℃) thin film black body cavity transient high temperature sensor is developed by the sputtering and plasma spray- ing technology. Constant high temperature static sensitivity calibration device, which is composed of three water electrolysis oxyhydrogen flame guns, and dynamic characteristic calibration device with high power and high frequency modulated CO₂ laser pulse as step excitation source are designed. The mea- sured results show that, when the temperature of constant temperature area of the static sensitivity calibration device is 1 721 ℃ and the impact resistance of the sensor is up to above 50 MPa, the temperature measured by the sensor is 2 802 ℃. When the CO₂ laser pulse is used as a high temperature step input signal at 1 500 ℃, the time constant measured by the sensor is μs order of magnitude.

Key words: apparatus and instruments technology, Ta-ZrO₂ thin film, dynamic characteristic, transient ultra-high temperature, impact-resistant capacity, measurement

CLC Number:

TP212.11

HAO Xiao-jian，SANG Tao，PAN Bao-wu， ZHOU Han-chang. Research on Characteristic Parameters of Ta-ZrO₂ Fiber Blackbody Cavity Temperature Sensor[J]. Acta Armamentarii, 2016, 37(2): 373-378.

References

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Research on Characteristic Parameters of Ta-ZrO₂ Fiber Blackbody Cavity Temperature Sensor

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