Gas-Liquid Two-Phase Flow Monitoring Using Sub-THz Radar Imaging

Davi V. Q. Rodrigues, Daniel Rodriguez, Victor Pugliese, M. Watson, Changzhi Li
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Abstract

Two-phase flow monitoring is widely present in various industrial processes. The most popular methods used to estimate flow parameters can be divided into the noncontact and the contact -based modalities. Conductance-based and capacitive sensors are the most popular contact-based techniques used to provide flow parameter estimations. Among the noncontact sensors, optical-based systems are commonly utilized for multiphase flow classification. However, contact-based systems require specific proprieties from the analyzed fluid mixture such as high conductivity or low conductivity and they must be attached to the tube, so accurate measurements can be provided. On the other hand, optical devices lack robustness against ambient light conditions and might require complex computational processing pipelines. In this work, gas-liquid two-phase flow monitoring based on radar technology is proposed. Characteristic flow velocity distributions associated with different two-phase flows are remotely recognized by studying the reflected sub-THz signals that are phase-modulated by the moving gas-liquid interface. Experimental results confirm the feasibility of the proposed scheme for the identification of different gas-liquid two-phase flows using sub-THz radar imaging.
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利用亚太赫兹雷达成像监测气液两相流动
两相流监测广泛应用于各种工业过程中。常用的流量参数估计方法可分为非接触和基于接触的两种。基于电导和电容的传感器是最流行的基于接触的技术,用于提供流量参数估计。在非接触式传感器中,基于光学的系统通常用于多相流分类。然而,接触式系统需要分析的流体混合物具有特定的特性,例如高导电性或低导电性,并且必须连接到管上,因此可以提供精确的测量。另一方面,光学器件对环境光条件缺乏鲁棒性,可能需要复杂的计算处理管道。本文提出了一种基于雷达技术的气液两相流监测方法。通过研究经运动气液界面相位调制的反射亚太赫兹信号,远程识别不同两相流的特征流速分布。实验结果验证了该方法用于亚太赫兹雷达成像识别不同气液两相流的可行性。
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