EMAT detection method of spray cooling characteristics for industrial nozzle

Qi Ouyang, Yuebin Zeng, Xinglan Zhang, Xi Chen
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Abstract

The paper describes a new ultrasonic measurement technology that evaluates a spray nozzle cooling characteristics based on measured time-of-flight data using an electromagnetic ultrasonic transducer (EMAT). A spiral electromagnetism ultrasonic transducer was used to measure the ultrasonic velocity dependence of temperature in a certain thickness metal plate. The instantaneous time-of-flight time data were used to determine the velocity and deduce the interior and surface temperature. To verify the validity of the ultrasonic measurement result, one-dimensional unsteady heat transmission equation is established to compute the heat transfer coefficients (HTC) theoretically compared with ultrasonic measurement results. Through some one-dimensional analysis, this work will show that the HTC is a natural and stable quantity to estimate ultrasonic time of flight measurements.
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工业喷嘴喷雾冷却特性的EMAT检测方法
本文介绍了一种利用电磁超声换能器(EMAT)测量飞行时间数据来评估喷嘴冷却特性的新型超声测量技术。采用螺旋电磁超声换能器测量了一定厚度金属板内温度对超声速度的依赖关系。瞬时飞行时间数据用于确定速度并推断内部和表面温度。为了验证超声测量结果的有效性,建立一维非稳态传热方程,与超声测量结果进行理论比较,计算传热系数(HTC)。通过一些一维分析,本工作将表明HTC是估计超声飞行时间测量的自然和稳定的量。
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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