Pressure Drop and Void Fraction of Two-Phase Flow (Air-Water) in Grooved Vertical Pipes

Supa Kusuma Aji, Nicky Suwandhy A. S, C. Gunawan, Bayu Pranoto, Hangga Wicaksono
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Abstract

Two-phase flows consisting of liquids and gases are often found in everyday life and are used on an industrial scale. In an industrial environment, this flow has many weaknesses, including pressure drop and void fraction. One strategy to reduce losses that arise is to use passive methods. The passive method used is to utilize the shape of the grooves in the channel. In this study, the flow is used to determine its effect on the pressure drop and void fraction that appears in two-phase flow. The experimental method was used for this study. The test pipe is equipped with 16 grooves, while the smooth pipe (without grooves) is used as a comparison. The test pipe is made of acrylic material. The water fluid is circulated using a centrifugal water pump with a superficial speed of 0.33-0.42 m/s. Air fluid is supplied using a compressor with superficial speeds of 0.049, 0.066, and 0.082 m/s. Measurement of pressure drop was carried out using a pressure transmitter with an Arduino data logger. The void fraction is calculated by determining the ratio of the volume fraction of water and air in the test tube. The results of the study revealed that the use of 16 grooves in the pipe can reduce the pressure drop and cavity fraction that appears when compared to smooth pipes.
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沟槽垂直管道中两相流(空气-水)的压降和空隙率
由液体和气体组成的两相流动经常出现在日常生活中,并被用于工业规模。在工业环境中,这种流动有许多弱点,包括压降和空隙率。减少损失的策略之一是使用被动方法。被动方法是利用通道中凹槽的形状。在本研究中,将利用水流来确定其对两相流中出现的压降和空隙率的影响。本研究采用了实验法。测试管道上有 16 个凹槽,而光滑管道(无凹槽)则作为对比。测试管由丙烯酸材料制成。使用离心水泵以 0.33-0.42 米/秒的表面速度循环水流。空气流体使用压缩机供应,表面速度分别为 0.049、0.066 和 0.082 米/秒。使用带有 Arduino 数据记录器的压力变送器测量压降。空隙率通过确定试管中水和空气的体积分数比来计算。研究结果表明,与光滑的管道相比,在管道上使用 16 个凹槽可以减少压力降和出现的空隙率。
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