A New High-Temperature Sensing Device by Making Use of TBC Thermistor for Intelligent Propulsion Systems

Franklin Li Duan, Haotian Weng, Zhonglin Ji, Mingkai Hu, Xueqiang Cao, Qiang Wang, Jing Shao, Yuzhen Lin, Jianchen Wang, Zhichao Wang
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Abstract

Thermal barrier coating (TBC) is an important material for aero-engine as a good thermal and electrical insulator. However this ceramic layer becomes electrically conductive at elevated temperatures above 600°C. By making use of its thermal resistance sensitivity to ambient temperature a smart thermal sensor can also be formulated to monitor the surface temperature on aero-engine turbine blade. In this paper the fabrication of this new sensor is reported together with comprehensive high-temperature characterizations such as repeatability, responsiveness and measurement error evaluation under various high temperature cycling and aero-engine onsite combustion test. Results show this sensor is capable to test the surface temperature in 500–1 000°C range or higher. YSZ-based (yttria-stabilized zirconia) TBC thermistor sensor shows a reliable and repeatable resistor vs temperature behavior and comparable responsiveness as conventional thermalcouple device with the measurement errors in 3%. Sensor fabrication is fairly simpels just involving a platinum soldering on TBC surface for wiring connection to outside meters. A new test array based on the YSZ thermal resistor is proposed as a temperature distribution monitor and verified by the aid of thermal-electrical interactive simulations. This simple methodology can be used for quick checking of surface temperature on turbine guide vane used in combustion chamber and other relevant parts.
基于TBC热敏电阻的新型智能推进系统高温传感装置
热障涂层作为一种良好的热绝缘体和绝缘体,是航空发动机的重要材料。然而,这种陶瓷层在高于600°C的高温下变得导电。利用其对环境温度的热阻敏感性,还可以研制一种智能热传感器来监测航空发动机涡轮叶片表面温度。本文报道了这种新型传感器的制作过程,并在各种高温循环和航空发动机现场燃烧试验中进行了重复性、响应性和测量误差评估等全面的高温表征。结果表明,该传感器能够在500-1 000°C或更高的范围内测试表面温度。基于ysz的(氧化钇稳定氧化锆)TBC热敏电阻传感器具有可靠且可重复的电阻温度行为和与传统热电偶器件相当的响应性,测量误差在3%以内。传感器制造相当简单,只涉及在TBC表面上的铂焊接,用于连接到外部仪表。提出了一种基于YSZ热敏电阻的新型测试阵列作为温度分布监测仪,并通过热电交互仿真进行了验证。该方法简便,可用于燃气轮机燃烧室导叶及其他相关部件表面温度的快速校核。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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