钴铬铜铁镍高熵合金激光熔覆过程中熔池的流场和熔覆几何形状建模

IF 4.3 3区 材料科学 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC
Dachuan Tian, Chonggui Li, Zhiguo Hu, Xintong Li, Yajun Guo, Xiaosong Feng, Zhenhai Xu, Xiaoguang Sun, Wenge Li
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引用次数: 0

摘要

本研究使用 ANSYS Fluent 模块进行了流场分析,并使用 DEFINE_PROFILE 宏构建了采用 UDF 的动态热源。开发了一个 VOF 模型,用于跟踪整个计算域中每种流体的体积分数,以及自由液体表面区域中液气界面的稳态或瞬态条件。为了确定熔池流场的分布状态和规律性,通过将 Simple 算法与水平集法联系起来,对流场速度进行了迭代计算。熔池呈凹形,表明键孔分布狭窄。通过插入不同深度的横截面,可以得到熔池流速沿深度方向的矢量分布。我们沿熔池深度方向设置了监测点,观察熔池流动随时间的变化。我们研究了工艺参数对流场矢量分布的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modeling of the Flow Field and Clad Geometry of a Molten Pool during Laser Cladding of CoCrCuFeNi High-Entropy Alloys
A flow field analysis was performed in this research using the ANSYS Fluent module, and a dynamic heat source employing UDF was constructed using the DEFINE_PROFILE macro. A VOF model was developed to track the volume fraction of each fluid throughout the computational domain as well as the steady-state or transient condition of the liquid–gas interface in the free liquid surface area. To determine the distribution state and regularity of the molten pool flow field, the flow field velocity was calculated iteratively by linking the Simple algorithm with the horizontal set method. The molten pool was concave, indicating that the key hole was distributed narrowly. Inserting cross-sections at different depths yielded the vector distribution of the molten pool flow velocity along the depth direction. We set up monitoring sites along the molten pool’s depth direction and watched the flow change over time. We investigated the effects of the process parameters on the flow field’s vector distribution.
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来源期刊
CiteScore
7.20
自引率
4.30%
发文量
567
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