湍流模型和回弹模型对电潜泵冲蚀模拟影响的数值研究

Haiwen Zhu, Jun Zhang, Jianjun Zhu, R. Rutter, Hong-quan Zhang
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引用次数: 6

摘要

出砂是电潜泵(esp)最严重的问题之一。砂流条件下的冲蚀速率和泵寿命预测具有重要意义。然而,离心泵的冲蚀实验难度大、成本高、耗时长。此外,对泵叶片和护罩的侵蚀也难以量化。测量或扫描内部流道的厚度是很困难的。因此,计算流体动力学(CFD)方法是预测泵冲蚀失效的一种简便方法。尽管对简单的几何形状进行了各种侵蚀模拟,包括管道、弯头、三通等,但在涡轮机械几何形状中进行侵蚀模拟的方法应该仔细评估。为此,通过ANSYS Fluent离散相模型(DPM)仿真,研究了不同湍流模型和回弹模型对三级混合型电潜泵的影响。计算侵蚀速率,并通过用户定义函数(UDF)提取颗粒冲击参数。本研究提出初步的侵蚀模拟方法建议。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Numerical Study of Turbulence Model and Rebound Model Effect on Erosion Simulations in an Electrical Submersible Pump (ESP)
Sand production is one of the most serious problems of electrical submersible pumps (ESPs). It is important to predict erosion rate and pump life under sand flow condition. However, erosion experiments on centrifugal pumps are difficult, expensive and time-consuming. Besides, the erosion on pump blades and shrouds are hard to be quantified. It is difficult to measure or scan the thickness of an inside flow channel. Therefore, computational fluid dynamic (CFD) method is a convenient way to forecast erosion failures of the pump. Although various erosion simulations were carried out for simple geometries, including pipelines, elbows, tees, and etc., erosion simulation methodology in a turbomachinery geometry should be carefully evaluated. Therefore, the effect of different turbulence models and rebound models are investigated in a 3-stage mixed type ESP by ANSYS Fluent Discrete Phase Model (DPM) simulations. The erosion rate is calculated and particle impact parameters are extracted by a User Define Function (UDF). Preliminary erosion simulation methodology recommendations were given in this study.
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