Rotary Entrainment in Two Phase Stratified Gas-Liquid Layers: An Experimental Study

Yagya Sharma, B. Rana, A. Das
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引用次数: 3

Abstract

— Rotary entrainment is a phenomenon in which the interface of two immiscible fluids are subjected to external flux by means of rotation. Present work reports the experimental study on rotary motion of a horizontal cylinder between the interface of air and water to observe the penetration of gas inside the liquid. Experiments have been performed to establish entrainment of air mass in water alongside the cylindrical surface. The movement of tracer and seeded particles has been tracked to calculate the speed and path of the entrained air inside water. Simplified particle image velocimetry technique has been used to trace the movement of particles/tracers at the moment they are injected inside the entrainment zone and suspended beads have been used to replicate the particle movement with respect to time in order to determine the flow dynamics of the fluid along the cylinder. Present paper establishes a thorough experimental analysis of the rotary entrainment phenomenon between air and water keeping in interest the extent to which we can intermix the two and also to study its entrainment trajectories.
两相分层气液层旋转夹带的实验研究
-旋转夹带是两种不混溶流体的界面通过旋转受到外部通量作用的现象。本文报道了一个水平圆筒在空气和水的界面之间旋转运动的实验研究,以观察气体在液体内部的渗透。已经进行了实验,以确定气团在沿圆柱形表面的水中的夹带。跟踪示踪剂和种子粒子的运动,以计算水中夹带空气的速度和路径。简化颗粒图像测速技术已被用于跟踪颗粒/示踪剂在注入带内的瞬间的运动,悬浮珠已被用于复制颗粒运动与时间有关,以确定流体沿圆柱体的流动动力学。本文对空气和水之间的旋转夹带现象进行了彻底的实验分析,并对两者混合的程度和夹带轨迹进行了研究。
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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