Experimental investigation and CFD simulation of power consumption for mixing in Gyro Shaker

P. A. A. Samad, P. R. Shalij
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Abstract

The better mixing of ingredients is the key to improving the quality of the process in the manufacturing of several products. Gyro Shaker is a dual rotation mixer commonly used for mixing highly viscous fluids. In this work, CFD simulation for the multiphase mixing of Gyro Shaker is carried out for obtaining numerical solutions. Simulations of three different mixing models namely Eulerian granular model, mixture model and volume of fluid (VOF) model are compared with each other. Reynolds number and power number based on characteristic velocity were derived for the Gyro Shaker. Experiments were conducted to validate the mixing power by the simulation using torque method and viscous dissipation method. The viscous dissipation method for mixing power demonstrates a low deviation from the experiment data than torque method. Among the three simulation models, the multiphase mixture model shows the minimum variation of the experimental data. A comparison of the flow field of the different mixing models is also carried out.
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陀螺激振器混合功率消耗的实验研究与CFD模拟
在几种产品的制造过程中,原料的更好混合是提高工艺质量的关键。陀螺激振器是一种双旋转混合器,通常用于混合高粘性流体。本文对陀螺激振器的多相混合进行了CFD模拟,得到了数值解。对欧拉颗粒模型、混合模型和流体体积模型三种不同的混合模型进行了仿真比较。推导了陀螺激振器的雷诺数和基于特征速度的功率数。采用扭矩法和粘滞耗散法对混合功率进行了仿真验证。与扭矩法相比,粘性耗散法计算混合功率与实验数据的偏差较小。在三种模拟模型中,多相混合模型的实验数据变化最小。对不同混合模式下的流场进行了比较。
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