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摘要:
Solid particle erosion is a micromechanical process that is influenced by flow geometry, material of the impacting surface, impact angle, particle size and shape, particle velocity, flow condition and fluid properties. Among the various factors, particle size and velocity have been considered to be the most important parameters that cause erosion. Particle size and velocity are influenced by surrounding flow velocities and carrying fluid properties. Higher erosion rates have been observed in gas-solid flow in geometries where the flow direction changes rapidly, such as elbows, tees, valves, etc, due to local turbulence and unsteady flow behaviors. This paper presents the results of a Computational fluid dynamic (CFD) simulation of dilute gas-solid flow through a U-Bend and the dynamics behavior of entrained solid particles in the flow. The effect of liquid and gas velocities on location of erosion were investigated for 50, 100, 150, 200, 250 and 300 microns sand particles. Three different fluid velocities of 15, 30.48 and 45 m/s were used in the CFD analysis. The magnitude and location of erosion presented in the paper can be used to determine the areas susceptible to maximum erosive wear in elbows and U-bends, along with corresponding rate of metal loss in these areas.
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篇名 Effect of Liquid and Gas Velocities on Magnitude and Location of Maximum Erosion in U-Bend
来源期刊 流体动力学(英文) 学科 医学
关键词 U-Bend EROSION MULTIPHASE Flow Wear CFD
年,卷(期) 2012,(2) 所属期刊栏目
研究方向 页码范围 29-34
页数 6页 分类号 R73
字数 语种
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研究主题发展历程
节点文献
U-Bend
EROSION
MULTIPHASE
Flow
Wear
CFD
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期刊影响力
流体动力学(英文)
季刊
2165-3852
武汉市江夏区汤逊湖北路38号光谷总部空间
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302
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0
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