随着镁粉添加量的变化铸造铝基复合材料增强碳纳米管 (cnt)

M. Syahid, Elyeser Elyeser, Azwar Hayat
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摘要

人们开发了增强碳纳米管的铝基复合材料,以改善铝的机械性能。在本研究中,采用基于浆料的方法熔化了铝 1100 增强碳纳米管(1 wt.% CNT),并改变了镁粉的添加量。试样的浇铸使用金属模具进行。首先在 60°C 下将 CNT 粉末与镁粉混合。然后将铝熔化至 700°C 的温度直至熔化,再将温度降至 500°C 或质地变为泥浆状(浆状),然后加入 CNT 粉末和镁粉。之后,合金在 720°C 下再次升温 30 分钟并进行搅拌,然后将其倒入模具温度约为 400°C 的金属模具中。然后对样品进行机械性能分析和微观结构观察。 添加镁粉和碳纳米管前的维氏硬度测试结果为 36.7 HV。添加 1wt.% 镁粉后,试样的硬度增加到 44.5 HV,添加 3% 镁粉后硬度为 45.3 HV,添加 5% 镁粉后硬度达到 46 HV。3% Mg 粉的拉伸试验结果为 241.6 MPa。磨损测试结果表明,1% Mg 变化的磨损率值为 0.146 mg/s,3% Mg 变化的磨损率值为 0.106 mg/s,5% Mg 变化的磨损率值为 0.093 mg/s。α-Al相是形成的主要相,其中3% Mg变化中的晶粒尺寸和晶界尺寸相对较小,CNT在合金中的扩散均匀,因此合金中添加镁有助于CNT在铝合金中的扩散。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
PENGECORAN ALUMINIUM MATRIKS KOMPOSIT BERPENGUAT CARBON NANOTUBE (CNT) DENGAN VARIASI PENAMBAHAN SERBUK MAGNESIUM
Aluminum matrix composite reinforced CNT have been developed to improve the mechanical properties of aluminum. In this study, the melting of Aluminum 1100 reinforced Carbon Nanotube (1 wt.% CNT) with variations in the addition of Magnesium powder was carried out by the slurry-based method. The casting of the specimens is carried out using a metal mold. CNT powder was first mixed with magnesium powder at 60°C. Then the aluminum is melted to a temperature of 700°C until it melts, then the temperature is lowered to 500°C or the texture has changed to be like mush (slurry based) and then mixed with CNT powder and Magnesium powder are added. After that the alloy was raised again at 720°C for 30 minutes and the stirring process was carried out, after that it was poured into a metal mold with a mold temperature of around 400°C. The samples were then analyzed for mechanical properties and microstructure observations.  The results of the Vickers hardness test before the addition of Mg powder and CNT were 36.7 HV. While after the variation of adding 1wt.% Mg powder, the hardness of the specimen increased to 44.5 HV, the variation of adding 3% Mg powder was 45.3 HV, and the variation of adding 5% Mg powder reached a hardness value of 46 HV. The tensile test results on 3% Mg powder is 241.6 MPa. The wear test results show the wear rate value for the 1% Mg variation of 0.146 mg/s, the 3% Mg variation of 0.106 mg/s, and the 5% Mg variation with a wear rate value of 0.093 mg/s. The α-Al phase is the dominant phase formed, where the grain size and grain boundaries in the 3% Mg variation have a relatively small size and the spread of CNT is evenly distributed in the alloy, so the addition of Mg to the alloy can help spread CNT in Aluminum alloys.
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