Measurement of Circumferential Liquid Film Thickness in Horizontal Gas-Liquid Annular Flow Using Ultrasound

Mi Wang, Dandan Zheng, Wenqin Wang
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引用次数: 2

Abstract

Circumferential liquid film thickness (CLFT) is an important characteristic parameter of gas-liquid two-phase annular flow, and its measurement technology and method has always been a research focus of two-phase flow. In this paper, a set of circumferential liquid film thickness sensor measurement system is designed based on ultrasonic technology, and the non-contact measurement of circumferential liquid film thickness of horizontal pipe is realized by using ultrasonic echo reference signal elimination (UERE) method. The experimental pipe diameter is 50 mm, the ranges of gas and liquid superficial velocity are 15–30 m/s and 0.015-0.1 m/s, respectively. The working condition is ambient temperature, and the pressure $P$ is 0.1-0.7 MPa. Besides, the liquid film thickness at different circumferential positions is obtained and analyzed quantitatively under 53 working conditions. The experimental results are compared with the existing correlation, and considering the influence of system pressure, a new prediction correlation for CLFT is established. The relative error between the experimental results and the new correlation is within ±25%, which verifies the applicability of the new correlation.
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超声测量水平气液环流周向液膜厚度
周向液膜厚度(CLFT)是气液两相环空流的重要特征参数,其测量技术和方法一直是两相流的研究热点。本文设计了一套基于超声技术的周向液膜厚度传感器测量系统,利用超声回波参考信号消除(UERE)方法实现了水平管道周向液膜厚度的非接触测量。实验管径为50 mm,气液表面流速范围分别为15 ~ 30 m/s和0.015 ~ 0.1 m/s。工作条件为环境温度,压力P$为0.1-0.7 MPa。并对53种工况下不同周向位置的液膜厚度进行了定量分析。将实验结果与已有关联进行比较,考虑系统压力的影响,建立了新的CLFT预测关联。实验结果与新相关性的相对误差在±25%以内,验证了新相关性的适用性。
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