粉体粒度对添加材料制备多孔Ti-33Al金属间化合物孔隙性能的影响

Yiquan Fan, Qinghua Yan, Junsheng Yang
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引用次数: 0

摘要

为满足化工、湿法冶金、石油化工等行业对TiAl金属间化合物滤芯的需求,以Al和Ti元素混合粉末为原料,基于Kirkendall效应增材制造技术,制备了多孔Ti- 33al金属间化合物滤芯。深入探讨了钛铝元素粉末粒度与Ti-33A1多孔材料孔隙结构特征(渗透率、孔径、孔隙率)的定量关系。研究表明,粉末粒度对多孔材料孔隙结构的调节有显著影响。随着原料粒度的增大,物料的渗透性和孔径也会增大。渗透率与最大孔径之间遵循Hagen-Poiseuille方程,其数学表达式为$J=0.205d_{m}^{2}\theta$。本研究对多孔材料增材制造技术的应用具有一定的指导意义。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Effect of Different Powder Size on the Pore Properties of Porous Ti-33Al Intermetallics Fabricated by Add Material Manufacture
Porous Ti-33Al Intermetallicss were manufactured utilizing Al and Ti element mixed powder as raw materials and based on the Kirkendall effect add material manufacture technique to satisfy the demands of TiAl intermetallics filter elements in the chemical, hydrometallurgical, petrochemical, and other industries. The quantitative relationship between Til Al element powder particle size and pore structure characteristics including, permeability, pore size and porosity of Ti-33A1 porous material was explored in depth. The study indicate that the powder particle size has a significant impact on the regulation of pore structure in porous materials. The permeability and pore size of the materials will rise as the particle size of the raw materials increases. Between the permeability and maximum pore size, the Hagen-Poiseuille equation is carefully obeyed, and its mathematical expression is $J=0.205d_{m}^{2}\theta$. This study will benefit in the production of porous materials with added material manufacture technology.
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